IS41LV16100-60T中文资料

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IS43DR16160A-37CBL;IS43DR16160A-37CBLI;中文规格书,Datasheet资料

IS43DR16160A-37CBL;IS43DR16160A-37CBLI;中文规格书,Datasheet资料

Integrated Silicon Solution, Inc. — 1Rev. D Copyright © 2012 Integrated Silicon Solution, Inc. All rights reserved. ISSI reserves the right to make changes to this specification and its products at any time without notice. ISSI assumes no liability arising out of the application or use of any information, products or services described herein. Customers are advised to obtain the lat-est version of this device specification before relying on any published information and before placing orders for products.Integrated Silicon Solution, Inc. does not recommend the use of any of its products in life support applications where the failure or malfunction of the product can reason-ably be expected to cause failure of the life support system or to significantly affect its safety or effectiveness. Products are not authorized for use in such applications unless Integrated Silicon Solution, Inc. receives written assurance to its satisfaction, that:a.) the risk of injury or damage has been minimized;b.) the user assume all such risks; andc.) potential liability of Integrated Silicon Solution, Inc is adequately protected under the circumstancesIS43/46DR83200A IS43/46DR16160AAUGUST 201232Mx8, 16Mx16 DDR2 DRAMFEATURES• V dd = 1.8V ±0.1V , V ddq = 1.8V ±0.1V• JEDEC standard 1.8V I/O (SSTL_18-compatible)• Double data rate interface: two data transfers per clock cycle• Differential data strobe (DQS, DQS ) • 4-bit prefetch architecture• On chip DLL to align DQ and DQS transitions with CK• 4 internal banks for concurrent operation• Programmable CAS latency (CL) 3, 4, 5, and 6 supported• Posted CAS and programmable additive latency (AL) 0, 1, 2, 3, 4, and 5 supported• WRITE latency = READ latency - 1 tCK • Programmable burst lengths: 4 or 8• Adjustable data-output drive strength, full and reduced strength options • On-die termination (ODT)OPTIONS• Configuration(s):32Mx8 (8Mx8x4 banks) IS43/46DR83200A 16Mx16 (4Mx16x4 banks) IS43/46DR16160A • Package:x8: 60-ball TW-BGA (8mm x 10.5mm) x16: 84-ball TW-BGA (8mm x 12.5mm) Timing – Cycle time2.5ns @CL=6 DDR2-800E3.0ns @CL=5 DDR2-667D 3.75ns @CL=4 DDR2-533C 5.0ns @CL=3 DDR2-400B • Temperature Range:Commercial (0°C ≤ Tc ≤ 85°C)Industrial (-40°C ≤ Tc ≤ 95°C; -40°C ≤ T a ≤ 85°C)Automotive, A1 (-40°C ≤ Tc ≤ 95°C; -40°C ≤ T a ≤ 85°C) Automotive, A2 (-40°C ≤ Tc; T a ≤ 105°C)Tc = Case Temp, T a = Ambient T empDESCRIPTIONISSI's 256Mb DDR2 SDRAM uses a double-data-rate architecture to achieve high-speed operation. Thedouble-data rate architecture is essentially a 4n-prefetch architecture, with an interface designed to transfer two data words per clock cycle at the I/O balls.Parameter 32M x 8 16M x 16 Configuration 8M x 8 x 4 banks 4M x 16 x 4 banks Refresh Count 8K/64ms 8K/64ms Row Addressing 8K (A0-A12)8K (A0-A12)Column Addressing 1K (A0-A9)512 (A0-A8)Bank Addressing BA0, BA1BA0, BA1Precharge AddressingA10A10ADDRESS TABLESpeed Grade -25E -3D -37C -5B tRCD 15151515tRP 15151515tRC 60606055tRAS 45454540tCK @CL=35555tCK @CL=4 3.75 3.75 3.755tCK @CL=533——tCK @CL=62.5———KEY TIMING PARAMETERSIS43/46DR83200A, IS43/46DR16160AGENERAL DESCRIPTIONRead and write accesses to the DDR2 SDRAM are burst oriented; accesses start at a selected location and continue for a burst length of four or eight in a programmed sequence. Accesses begin with the registration of an Active command, which is then followed by a Read or Write command. The address bits registered coincident with the active command are used to select the bank and row to be accessed (BA0-BA1 select the bank; A0-A12 select the row). The address bits registered coincident with the Read or Write command are used to select the starting column location (A0-A8 for x16) and (A0-A9 for x8) for the burst access and to determine if the auto precharge A10 command is tobe issued. Prior to normal operation, the DDR2 SDRAM must be initialized. The following sections provide detailed information covering device initialization, register definition, command descriptions and device operation.FUNCTIONAL BLOCK DIAGRAMIntegrated Silicon Solution, Inc. — 3Rev. DIS43/46DR83200A, IS43/46DR16160ASymbol Type FunctionCK, CKInputClock: CK and CK are differential clock inputs. All address and control input signals are sampled on the crossing of the positive edge of CK and negative edge of CK . Output (read) data is referenced to the crossings of CK and CK (both directions of crossing).CKE InputClock Enable: CKE HIGH activates, and CKE LOW deactivates, internal clock signals and device input buffers and output drivers. Taking CKE LOW provides Precharge Power-Down and Self Refresh operation (all banks idle), or Active Power-Down (row Active in any bank). CKE is synchronous for power down entry and exit, and for self refresh entry. CKE is asynchronous for self refresh exit. After VREF has become stable during the power on and initialization sequence, it must be maintained for proper operation of the CKE receiver. For proper self-refresh entry and exit, VREF must be maintained to this input. CKE must be maintained HIGH throughout read and write accesses. Input buffers, excluding CK, CK , ODT and CKE are disabled during power-down. Input buffers, excluding CKE, are disabled during self refresh.CS InputChip Select: All commands are masked when CS is registered HIGH. CS provides for external Rank selection on systems with multiple Ranks. CS is considered part of the command code.ODTInput On Die T ermination: ODT (registered HIGH) enables termination resistance internal to the DDR2 SDRAM. When enabled, ODT is applied to each DQ, DQS, DQS , DM signals. The ODT pin will be ignored if the EMR(1) is programmed to disable ODT. RAS , CAS , WEInputCommand Inputs: RAS , CAS and WE (along with CS ) define the command being entered.DM (x8) orUDM, LDM (x16)InputInput Data Mask: DM is an input mask signal for write data. Input data is masked when DM is sampled HIGH coincident with that input data during a Write access. DM is sampled on both edges of DQS. Although DM pins are input only, the DM loading matches the DQ and DQS loading. For x8, the function of DM is enabled by EMRS command to EMR(1) [A11].BA0 - BA1 InputBank Address Inputs: BA0 - BA1 define to which bank an Active, Read, Write or Precharge command is being applied. Bank address also determines if the mode register or one of the extended mode registers is to be accessed during a MRS or EMRS command cycle.A0 - A12 InputAddress Inputs: Provide the row address for Active commands and the column address and Auto Precharge bit for Read/Write commands to select one location out of the memory array in the respective bank. A10 is sampled during a Precharge command to determine whether the Precharge applies to one bank (A10 LOW) or all banks (A10 HIGH). If only one bank is to be precharged, the bank is selected by BA0 - BA1. The address inputs also provide the op-code during MRS or EMRS commands.PIN DESCRIPTION TABLEIS43/46DR83200A, IS43/46DR16160ASymbol Type FunctionDQ0-7 x8 DQ0-15 x16Input/OutputData Input/Output: Bi-directional data bus.DQS, (DQS )RDQS, (RDQS ) x8UDQS, (UDQS), LDQS, (LDQS) x16Input/OutputData Strobe: output with read data, input with write data. Edge-aligned with read data, centered in write data. The data strobes DQS(n) may be used in single ended mode or paired with optional complementary signals DQS (n) to provide differential pair signaling to the system during both reads and writes. A control bit at EMR(1)[A10] enables or disables all complementary data strobe signals.x8DQS corresponds to the data on DQ0-DQ7RDQS corresponds to the Read data on DQ0-DQ7, and is enabled by EMRS command to EMR(1) [A11]. x16LDQS corresponds to the data on DQ0-DQ7 UDQS corresponds to the data on DQ8-DQ15NC No Connect: No internal electrical connection is present.VDDQ Supply DQ Power Supply: 1.8 V +/- 0.1 V VSSQ Supply DQ GroundVDDL Supply DLL Power Supply: 1.8 V +/- 0.1 V VSSDL Supply DLL GroundVDD Supply Power Supply: 1.8 V +/- 0.1 V VSS Supply GroundVREFSupplyReference voltageIS43/46DR83200A, IS43/46DR16160APIN CONFIGURATIONPACKAGE CODE: B 60 BALL TW-BGA (Top View) (8.00 mm x 10.5 mm Body, 0.8 mm Ball Pitch)Pin name Function Pin name FunctionA0 to A12Address inputs ODT ODT controlBA0, BA1Bank select VDD Supply voltage for internal circuitDQ0 to DQ7Data input/output VSS Ground for internal circuitDQS, /DQS Differential data strobe VDDQ Supply voltage for DQ circuit/CS Chip select VSSQ Ground for DQ circuit/RAS, /CAS, /WE Command input VREF Input reference voltageCKE Clock enable VDDL Supply voltage for DLL circuitCK, /CK Differential clock input VSSDL Ground for DLL circuitDM Write data mask NC No connectionRDQS, /RDQS Differential Redundant Data StrobeIntegrated Silicon Solution, Inc. — 5 Rev. DIS43/46DR83200A, IS43/46DR16160APIN CONFIGURATIONPACKAGE CODE: B 84 BALL TW-BGA (Top View) (8.00 mm x 12.50 mm Body, 0.8 mm Ball Pitch)Pin name Function Pin name FunctionA0 to A12Address inputs ODT ODT controlBA0, BA1Bank select VDD Supply voltage for internal circuitDQ0 to DQ15Data input/output VSS Ground for internal circuitLDQS, UDQS Differential data strobe VDDQ Supply voltage for DQ circuit/LDQS, /UDQS/CS Chip select VSSQ Ground for DQ circuit/RAS, /CAS, /WE Command input VREF Input reference voltageCKE Clock enable VDDL Supply voltage for DLL circuitCK, /CK Differential clock input VSSDL Ground for DLL circuitLDM to UDM Write data mask NC No connectionIS43/46DR83200A, IS43/46DR16160AELECTRICAL SPECIFICATIONSAbsolute Maximum DC RatingsSymbol Parameter Rating Units NotesV dd Voltage on VDD pin relative to Vss - 1.0 V ~ 2.3 V V 1,3V ddq Voltage on VDDQ pin relative to Vss - 0.5 V ~ 2.3 V V 1,3V ddl Voltage on VDDL pin relative to Vss - 0.5 V ~ 2.3 V V 1,3V in, V out Voltage on any pin relative to Vss - 0.5 V ~ 2.3 V V 1,4T stg Storage Temperature -55 to +150°C 1, 2Notes:1. Stresses greater than those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. This is a stress rating onlyand functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect reliability2. Storage Temperature is the case surface temperature on the center/top side of the DRAM. For the measurement conditions, please refer toJESD51-2 standard.3. VDD and VDDQ must be within 300mV of each other at all times; and VREF must be not greater than 0.6 x VDDQ. When VDD and VDDQ andVDDL are less than 500 mV, Vref may be equal to or less than 300 mV.4. Voltage on any input or I/O may not exceed voltage on VDDQ.AC & DC Recommended Operating ConditionsRecommended DC Operating Conditions (SSTL-1.8)Symbol Parameter Rating Units NotesMin.Typ.Max.VDD Supply Voltage 1.7 1.8 1.9V1VDDL Supply Voltage for DLL 1.7 1.8 1.9 V 5VDDQ Supply Voltage for Output 1.7 1.8 1.9 V 1, 5VREF Input Reference Voltage 0.49 x VDDQ 0.50 x VDDQ 0.51 x VDDQ V 2. 3VTT Termination Voltage VREF - 0.04VREF VREF + 0.04V 4Notes:1. There is no specific device VDD supply voltage requirement for SSTL_18 compliance. However under all conditions VDDQ must be less thanor equal to VDD.2. The value of VREF may be selected by the user to provide optimum noise margin in the system. Typically the value of VREF is expected to beabout 0.5 x VDDQ of the transmitting device and VREF is expected to track variations in VDDQ.3. Peak to peak ac noise on VREF may not exceed +/-2 % VREF(dc).4. VTT of transmitting device must track VREF of receiving device.5. VDDQ tracks with VDD, VDDL tracks with VDD. AC parameters are measured with VDD, VDDQ and VDDL tied togetherIntegrated Silicon Solution, Inc. — 7 Rev. DIS43/46DR83200A, IS43/46DR16160ASymbol ParameterRating (1,2,3)UnitsTOPERCommercial Temperature T c = 0 to +85o C Industrial Temperature,T c = -40 to +95o C Automotive Temperature (A1)T a = -40 to +85o C Automotive Temperature (A2)T c = -40 to +105o C T a = -40 to +105oCOperating Temperature ConditionODT DC Electrical CharacteristicsPARAMETER/CONDITIONSYMBOL MIN NOM MAX UNITS NOTES R tt effective impedance value for EMR(1)[A6,A2]=0,1; 75 ΩR tt 1(eff) 6075 90 Ω 1R tt effective impedance value for EMR(1)[A6,A2]=1,0; 150 ΩR tt 2(eff)120150 180 Ω 1R tt effective impedance value for EMR(1)[A6,A2]=1,1; 50 ΩR tt 3(eff)405060 Ω 1Deviation of VM with respect to VDDQ/2ΔVM- 6+ 6%1Notes:1. Test condition for R tt measurementsMeasurement Definition for R tt (eff): Apply VIH (ac) and VIL (ac) to test pin separately, then measure current I(VIH (ac)) and I( VIL (ac)) respectively. VIH (ac), VIL (ac), and VDDQ values defined in SSTL_18R tt (eff) V ih (ac) - V il (ac)I(V ih (ac)) - I(V il (ac))Measurement Definition for VM: Measure voltage (VM) at test pin (midpoint) with no load.ΔVM = [(2 x VM / VDDQ) - 1] x 100%Notes:1. T c = Operating case temperature at center of package2. T a = Operating ambient temperature immediately above package center.3. Both temperature specifications must be met.Thermal ResistancePackage Substrate Theta-ja (Airflow = 0m/s)Theta-ja (Airflow = 1m/s)Theta-ja (Airflow = 2m/s)Theta-jc Units 60-ball BGA 4-layer 39.7134.2132.17 3.27C/W 84-ball BGA4-layer34.6630.0728.666.68C/WIntegrated Silicon Solution, Inc. — 9Rev. DIS43/46DR83200A, IS43/46DR16160AInput DC logic levelSymbol Parameter Min.Max.Units NotesVIH(dc)dc input logic HIGH VREF + 0.125VDDQ + 0.3V VIL(dc)dc input logic LOW- 0.3VREF - 0.125VInput AC logic levelSymbol Parameter DDR2-400, DDR2-533DDR2-667, DDR2-800Units NotesMin.Max.Min.Max VIH (ac)ac input logic HIGH VREF + 0.250VDDQ + Vpeak VREF + 0.200VDDQ + Vpeak V 1VIL (ac)ac input logic LOWVSSQ - VpeakVREF - 0.250VSSQ - VpeakVREF - 0.200V1AC Input Test ConditionsSymbol ConditionValue Units Notes VREFInput reference voltage0.5 x VDDQV 1VSWING(MAX)Input signal maximum peak to peak swing 1.0V 1SLEWInput signal minimum slew rate1.0V/ns2, 3Notes:1. Refer to Overshoot/undershoot specifications for Vpeak value: maximum peak amplitude allowed for overshoot and undershoot.Notes:1. Input waveform timing is referenced to the input signal crossing through the VIH/IL(AC) level applied to the device under test.2. The input signal minimum slew rate is to be maintained over the range from VREF to VIH(ac) min for rising edges and the range from VREF to VIL(ac) max for falling edges as shown in the below figure.3. AC timings are referenced with input waveforms switching from VIL(ac) to VIH(ac) on the positive transitions and VIH(ac) to VIL(ac) on the negative transitions.AC input test signal waveformIS43/46DR83200A, IS43/46DR16160ADifferential input AC Logic LevelSymbol Parameter Min.Max.Units NotesVID (ac)ac differential input voltage0.5VDDQ V1,3VIX (ac)ac differential crosspoint voltage0.5 x VDDQ - 0.1750.5 x VDDQ + 0.175V2Notes:1. VID(AC) specifies the input differential voltage |VTR -VCP | required for switching, where VTR is the true input signal (such as CK, DQS andVCP is the complementary input signal (such as CK or DQS). The minimum value is equal to VIH(AC) - VIL(AC).2. The typical value of VIX(AC) is expected to be about 0.5 x VDDQ of the transmitting device and VIX(AC) is expected to track variations inVDDQ. VIX(AC) indicates the voltage at which differential input signals must cross.3. Refer to Overshoot/undershoot specifications for Vpeak value: maximum peak amplitude allowed for overshoot and undershoot. Differential signal levelsDifferential AC Output ParametersSymbol Parameter Min.Max.Units NotesVOX (ac)ac differential crosspoint voltage0.5 x VDDQ - 0.1250.5 x VDDQ + 0.125V1Note:1. The typical value of VOX(AC) is expected to be about 0.5 x VDDQ of the transmitting device and VOX(AC) is expected to track variations inVDDQ. VOX(AC) indicates the voltage at which differential output signals must cross.分销商库存信息:ISSIIS43DR16160A-37CBL IS43DR16160A-37CBLI。

DNV-OS-C401(2010) 中文版(DNT部分)

DNV-OS-C401(2010) 中文版(DNT部分)

2013年4月SECTION 3 NON-DESTRUCTIVE TESTING第三章无损检测1.General 通则1.1 Scope 范围1.1.1 This section gives requirements for non-destructive testing.本章节给出了无损探伤的要求。

2. Non-Destructive Testing (NDT) 无损探伤测试(NDT)2.1General 通则2.1.1Prior to commencement of fabrication the contractor shall submit a plan for NDT, NDT proce dures and documents for NDT inspectors’ certification for acceptance by the purchaser. The progr amme shall contain information and documents for planning, controlling and reporting在装配前,卖方必须向买方递交NDT 图,NDT 工艺文件以及NDT人员资格证,并经卖方接受。

这个程序必须包括计划、控制和报告DNT 的信息和文件。

2.1.2 The inspection categories shall be defined in accordance with DNV-OS-C101 Sec.4 or DNV-O S-C201 Sec.4 and shall be specified in relevant design drawings.检测类别应根据DNV-OS-C101第四节或DNV-OS-C201第四节来划分,并指定相关图纸。

2.1.3Welds shall be subject to NDT in progress with fabrication. The results of these activities shal l be consecutively reported to the purchaser.在制造过程中,焊缝质量主要依据无损探伤试验,试验结果应不断报告给买方。

10N60中文资料

10N60中文资料
UNISONIC TECHNOLOGIES CO., LTD

4 of 9
QW-R502-119.A
元器件交易网
10N60
TEST CIRCUITS AND WAVEFORMS (Cont.)
Power MOSFET
Fig. 2A Switching Test Circuit Fig. 2B Switching Waveforms
元器件交易网
UNISONIC TECHNOLOGIES CO., LTD
10N60
10 Amps,600/650 Volts N-CHANNEL POWER MOSFET
Power MOSFET
DESCRIPTION
The UTC 10N60 is a high voltage and high current power MOSFET, designed to have better characteristics, such as fast switching time, low gate charge, low on-state resistance and have a high rugged avalanche characteristics. This power MOSFET is usually used at high speed switching applications in power supplies, PWM motor controls, high efficient DC to DC converters and bridge circuits.
10N60
Power MOSFET
ABSOLUTE MAXIMUM RATINGS (TC = 25°C unless otherwise specified)

INFINEON IKP10N60T 数据手册

INFINEON IKP10N60T 数据手册

Low Loss DuoPack : IGBT in TrenchStop® and Fieldstop technologywith soft, fast recovery anti-parallel EmCon HE diode•Very low V CE(sat) 1.5 V (typ.)•Maximum Junction Temperature 175 °C•Short circuit withstand time – 5µs•Designed for :- Variable Speed Drive for washing machines, airconditioners and induction cooking- Uninterrupted Power Supply• TrenchStop® and Fieldstop technology for 600 V applicationsoffers :- very tight parameter distribution- high ruggedness, temperature stable behavior•NPT technology offers easy parallel switching capability due topositive temperature coefficient in V CE(sat)• Low EMI•Low Gate Charge•Very soft, fast recovery anti-parallel EmCon HE diode•Qualified according to JEDEC1 for target applications•Pb-free lead plating; RoHS compliant•Complete product spectrum and PSpice Models :/igbt/Type V CE I C V CE(sat),Tj=25°C T j,max MarkingCode PackageIKP10N60T 600V 10A 1.5V 175°C K10T60 PG-TO-220-3-1Maximum RatingsParameter SymbolValueUnit Collector-emitter voltage V C E600 VDC collector current, limited by T jmax T C = 25°CT C = 100°C I C2010Pulsed collector current, t p limited by T jmax I C p u l s30 Turn off safe operating area V CE ≤ 600V, T j≤ 175°C -30Diode forward current, limited by T jmax T C = 25°CT C = 100°C I F2010Diode pulsed current, t p limited by T jmax I F p u l s30AGate-emitter voltage V G E±20 VShort circuit withstand time2)V GE = 15V, V CC ≤ 400V, T j≤ 150°Ct S C 5 µsPower dissipation T C = 25°C P t o t110 W Operating junction temperature T j-40...+175Storage temperature T s t g-55...+175Soldering temperature,wavesoldering, 1.6 mm (0.063 in.) from case for 10s 260°C1 J-STD-020 and JESD-0222) Allowed number of short circuits: <1000; time between short circuits: >1s.PG-TO-220-3-1Thermal Resistance Parameter Symbol Conditions Max. Value UnitCharacteristicIGBT thermal resistance, junction – caseR t h J C1.35 Diode thermal resistance, junction – case R t h J C D 1.9 Thermal resistance, junction – ambient R t h J A 62K/WElectrical Characteristic, at T j = 25 °C, unless otherwise specifiedValueParameter Symbol Conditions min. typ. max. UnitStatic CharacteristicCollector-emitter breakdown voltage V (B R )C E S V G E =0V, I C =0.2mA 600 - - Collector-emitter saturation voltageV C E (s a t )V G E = 15V, I C =10A T j =25°C T j =175°C- - 1.5 1.8 2.05 - Diode forward voltageV FV G E =0V, I F =10A T j =25°C T j =175°C- - 1.6 1.6 2.0 - Gate-emitter threshold voltage V G E (t h ) I C =0.3mA,V C E =V G E 4.1 4.6 5.7V Zero gate voltage collector currentI C E S V C E =600V , V G E =0V T j =25°C T j =175°C- -- -40 1000µAGate-emitter leakage current I G E S V C E =0V,V G E =20V - - 100 nA Transconductance g f s V C E =20V, I C =10A - 6 - S Integrated gate resistor R G i n tnone ΩDynamic Characteristic Input capacitance C i s s - 551 - Output capacitanceC o s s - 40 - Reverse transfer capacitance C r s s V C E =25V, V G E =0V, f =1MHz - 17 - pF Gate chargeQ G a t eV C C =480V, I C =Fehler!Verweisquelle konnte nicht gefunden werden.A V G E =15V- 62 - nCInternal emitter inductancemeasured 5mm (0.197 in.) from case L E - 7 - nH Short circuit collector current 1)I C (S C )V G E =15V,t S C ≤5µs V C C = 400V, T j = 25°C- 100 - ASwitching Characteristic, Inductive Load, at T j =25 °CValueParameter Symbol Conditions min. typ. max. UnitIGBT Characteristic Turn-on delay time t d (o n ) - 12 - Rise timet r - 8 - Turn-off delay time t d (o f f ) - 215 - Fall time t f - 38 - ns Turn-on energy E o n - 0.16 - Turn-off energy E o f f - 0.27 - Total switching energyE t sT j =25°C,V C C =400V,I C =10A,V G E =0/15V, R G =23Ω, L σ2)=60nH, C σ2)=40pFEnergy losses include “tail” and diode reverse recovery.- 0.43 -mJ Anti-Parallel Diode Characteristic Diode reverse recovery time t r r - 115 - ns Diode reverse recovery charge Q r r - 0.38 - µC Diode peak reverse recovery current I r r m- 10 - A Diode peak rate of fall of reverse recovery current during t bdi r r /dtT j =25°C,V R =400V, I F =10A, di F /dt =880A/µs- 680 - A/µsSwitching Characteristic, Inductive Load, at T j =175 °CValueParameter Symbol Conditions min. typ. max. UnitIGBT Characteristic Turn-on delay time t d (o n ) - 10 - Rise timet r - 11 - Turn-off delay time t d (o f f ) - 233 - Fall time t f - 63 - ns Turn-on energy E o n - 0.26 - Turn-off energy E o f f - 0.35 - Total switching energyE t s T j =175°C,V C C =400V,I C =10A,V G E =0/15V, R G = 23Ω L σ1)=60nH, C σ1)=40pFEnergy losses include “tail” and diode reverse recovery. - 0.61 - mJ Anti-Parallel Diode Characteristic Diode reverse recovery time t r r - 200 - ns Diode reverse recovery charge Q r r - 0.92 - µC Diode peak reverse recovery current I r r m- 13 - A Diode peak rate of fall of reverse recovery current during t b di r r /dtT j =175°CV R =400V, I F =10A, di F /dt =880A/µs- 390 - A/µs1) Allowed number of short circuits: <1000; time between short circuits: >1s.2)Leakage inductance L σ and Stray capacity C σ due to dynamic test circuit in Figure E. 1)Leakage inductance L σ and Stray capacity C σ due to dynamic test circuit in Figure E.I C , C O L L E C T O R C U R R E N T10Hz100Hz1kHz10kHz100kHz0A5A 10A 15A 20A 25A 30AI C , C O L L E C T O R C U R R E N T1V10V100V 1000V0,1A1A10Af , SWITCHING FREQUENCYV CE , COLLECTOR -EMITTER VOLTAGEFigure 1. Collector current as a function ofswitching frequency(T j ≤ 175°C, D = 0.5, V CE = 400V, V GE = 0/+15V, R G = 23Ω) Figure 2. Safe operating area(D = 0, T C = 25°C, T j ≤175°C; V GE =15V)P t o t , P O W E R D I S S I P A T I O N25°C50°C 75°C 100°C 125°C 150°C0W 20W40W60W80W100W120WI C , C O L L E C T O R C U R R E N T0A10A20A30AT C , CASE TEMPERATURET C , CASE TEMPERATUREFigure 3. Power dissipation as a function ofcase temperature (T j ≤ 175°C)Figure 4. Collector current as a function ofcase temperature(V GE ≥ 15V, T j ≤ 175°C)I C , C O L L E C T O R C U R R E N T0V1V2V3V4V0A5A 10A 15A 20A25A30AI C , C O L L E C T O R C U R R E N T0V1V2V3V 4V 5V0A5A10A15A20A25A30AV CE , COLLECTOR -EMITTER VOLTAGEV CE , COLLECTOR -EMITTER VOLTAGEFigure 5. Typical output characteristic(T j = 25°C)Figure 6. Typical output characteristic(T j = 175°C)I C , C O L L E C T O RC U R R E N T0A5A10A15A20A25AV C E (s a t ), C O L L E C T O R -E M I T T S A T U R A T I O N V O L T A G E-50°C0°C 50°C 100°C 150°C0,0V0,5V 1,0V 1,5V 2,0V 2,5V 3,0VV GE , GATE-EMITTER VOLTAGET J , JUNCTION TEMPERATUREFigure 7. Typical transfer characteristic(V CE =20V)Figure 8. Typical collector-emittersaturation voltage as a function of junction temperature (V GE = 15V)t , S W I T C H I N GT I M E S0A5A10A15A20At , S W I T C H I N GT I M E S10Ω20Ω30Ω40Ω50ΩI C , COLLECTOR CURRENTR G , GATE RESISTORFigure 9. Typical switching times as afunction of collector current (inductive load, T J =175°C,V CE = 400V, V GE = 0/15V, R G = 23Ω, Dynamic test circuit in Figure E) Figure 10. Typical switching times as afunction of gate resistor (inductive load, T J = 175°C,V CE = 400V, V GE = 0/15V, I C = 10A, Dynamic test circuit in Figure E)t , S W I T C H I N G T IM E S25°C50°C75°C100°C 125°C 150°CV G E (t h ), G A T E -E M I T T T R S H O L DV O L T A G E-50°C0°C 50°C 100°C 150°CT J , JUNCTION TEMPERATURET J , JUNCTION TEMPERATUREFigure 11. Typical switching times as afunction of junction temperature (inductive load, V CE = 400V, V GE = 0/15V, I C = 10A, R G =23Ω, Dynamic test circuit in Figure E)Figure 12. Gate-emitter threshold voltage asa function of junction temperature (I C = 0.3mA)E , S W I T C H I N G E N E R G Y L O S S E S0A5A 10A 15A0,0m0,2m 0,4m 0,6m 0,8m 1,0m E , S W I T C H I N G E N E R G Y L O S S E S10Ω20Ω30Ω40Ω50ΩI C , COLLECTOR CURRENTR G , GATE RESISTORFigure 13. Typical switching energy lossesas a function of collector current (inductive load, T J = 175°C,V CE = 400V, V GE = 0/15V, R G = 23Ω, Dynamic test circuit in Figure E) Figure 14. Typical switching energy lossesas a function of gate resistor (inductive load, T J = 175°C,V CE = 400V, V GE = 0/15V, I C = 10A, Dynamic test circuit in Figure E)E , S W I T C H I N G E N E R G Y L O S S E SE , S W I T C H I N G E N E R G Y L O S S E S0,0m 0,2m 0,4m 0,6m 0,8mT J , JUNCTION TEMPERATUREV CE , COLLECTOR -EMITTER VOLTAGEFigure 15. Typical switching energy lossesas a function of junction temperature(inductive load, V CE = 400V,V GE = 0/15V, I C = 10A, R G = 23Ω, Dynamic test circuit in Figure E)Figure 16. Typical switching energy lossesas a function of collector emitter voltage(inductive load, T J = 175°C,V GE = 0/15V, I C = 10A, R G = 23Ω, Dynamic test circuit in Figure E)V G E , G A T E -E M I T T E R V O L T A G E0V5V10V15Vc , C A PA C I T A N C EQ GE , GATE CHARGEV CE , COLLECTOR -EMITTER VOLTAGEFigure 17. Typical gate charge(I C =10 A)Figure 18. Typical capacitance as a functionof collector-emitter voltage (V GE =0V, f = 1 MHz)I C (s c ), s h o r t c i r c u i t C O L L E C T O R C U R R E N T12V14V 16V 18V0A 25A 50A 75A 100A 125A 150A t S C , S H O R T C I R C U I T WI T H S T A N D T I M E10V11V 12V 13V 14V0µs2µs4µs6µs8µs10µs12µsV GE , GATE -EMITTETR VOLTAGEV GE , GATE -EMITETR VOLTAGEFigure 19. Typical short circuit collectorcurrent as a function of gate-emitter voltage(V CE ≤ 400V, T j ≤ 150°C)Figure 20. Short circuit withstand time as afunction of gate-emitter voltage (V CE =600V , start at T J =25°C, T Jmax <150°C)Z t h J C , T R A N S I E N T T H E R M A L R E S I S T A N C E10µs100µs 1ms 10ms 100ms10-2K/W10-1K/W100K/WZ t h J C , T R A N S I E N T T H E R M A L R E S I S T A N C E1µs10µs 100µs 1ms 10ms 100ms10-210-1100t P , PULSE WIDTHt P , PULSE WIDTHFigure 21. IGBT transient thermal resistance(D = t p / T )Figure 22. Diode transient thermalimpedance as a function of pulse width (D =t P /T )t r r , R E V E R S E R E C O V E R Y T I M E0ns50ns 100ns150ns 200ns 250ns 300nsQ r r , R E V E R S E R E C O V E R Y C H A R G E200A/µs400A/µs 600A/µs 800A/µs0,0µC0,1µC0,2µC 0,3µC 0,4µC 0,5µC 0,6µC 0,7µC 0,8µCdi F /dt , DIODE CURRENT SLOPEdi F /dt , DIODE CURRENT SLOPEFigure 23. Typical reverse recovery time asa function of diode current slope (V R =400V, I F =10A,Dynamic test circuit in Figure E)Figure 24. Typical reverse recovery chargeas a function of diode current slope(V R = 400V, I F = 10A,Dynamic test circuit in Figure E)I r r , R E V E R S E R E C O V E R Y C U R RE N T200A/µs 400A/µs 600A/µs 800A/µs0A2A 4A 6A 8A 10A 12A 14Ar r D I O D E P E A K R A T E O F F A L L O F R E V E R S E R E C O V E R Y C U R RE N Tdi F /dt , DIODE CURRENT SLOPEdi F /dt , DIODE CURRENT SLOPEFigure 25. Typical reverse recovery currentas a function of diode current slope(V R = 400V, I F = 10A,Dynamic test circuit in Figure E) Figure 26. Typical diode peak rate of fall ofreverse recovery current as a function of diode current slope (V R =400V, I F =10A,Dynamic test circuit in Figure E)I F , F O R W A R DC U R R E N T0V 1V 2V0A10A20A30AV F , F O R W A R D V O L T A GE-50°C0°C 50°C 100°C 150°C0,0V 0,5V1,0V1,5V2,0VV F , FORWARD VOLTAGET J , JUNCTION TEMPERATUREFigure 27. Typical diode forward current asa function of forward voltageFigure 28. Typical diode forward voltage as afunction of junction temperaturePG-TO-220-3-1Leakage inductance Lσ =60nH and Stray capacity Cσ =40pF.Edition 2006-01Published byInfineon Technologies AG81726 München, Germany© Infineon Technologies AG 9/12/07.All Rights Reserved.Attention please!The information given in this data sheet shall in no event be regarded as a guarantee of conditions or characteristics (“Beschaffenheitsgarantie”). With respect to any examples or hints given herein, any typical values stated herein and/or any information regarding the application of the device, Infineon Technologies hereby disclaims any and all warranties and liabilities of any kind, including without limitation warranties of non-infringement of intellectual property rights of any third party.InformationFor further information on technology, delivery terms and conditions and prices please contact your nearest Infineon Technologies Office ().WarningsDue to technical requirements components may contain dangerous substances. For information on the types in question please contact your nearest Infineon Technologies Office.Infineon Technologies Components may only be used in life-support devices or systems with the express written approval of Infineon Technologies, if a failure of such components can reasonably be expected to cause the failure of that life-support device or system, or to affect the safety or effectiveness of that device or system. Life support devices or systems are intended to be implanted in the human body, or to supportand/or maintain and sustain and/or protect human life. If they fail, it is reasonable to assume that the health of the user or other persons may be endangered.。

LV-N10_IM_11526C_CN_1022-4

LV-N10_IM_11526C_CN_1022-4

安装架 1 平头螺母 1 M3 × 18 螺钉 2
接收器
发射器
发射器 / 接收器

LV-NH37
安装架套件 发射器 安装架 1 平头螺母 1 M3 × 18 螺钉 2 接收器
LV-S61
安装架套件 安装架 1 平头螺母 1 M2 12 螺钉 2 反射镜 (R-6) 1
MLV12CN
঱ࣕٛ൰ܿ՗ภኁ߷‫܈‬໚
• ׁٛ൰໪ቂᇜࢋ֐ܷ࿒঱ࣕධᏮၓࣕኑȃ • ੣ᄵࣙ‫ށ‬ᇵိܿ૿፟ড‫ˈ੅ݲ‬ডፍᄵࣙ‫ށ‬ᇵိܿ‫غ‬Ꮾ‫ڋ‬ᅗ૰೙ঐܷ፛
เ࿒֬௷኷࠯ື፩ܿ၌ნȃ
੸ ࡻ
• ขՙጐׁ༇‫ق‬ངಖܿ‫ڋ‬ᅗ‫غ‬Ꮾٛ൰ȃࠨዏˈ૰೙ঐޭเ࿒˄ᆞ੯ञ൝
༮Ꮝ঱ࣕ‫ࡥۈ‬ධ
ࠫ˅ዉ‫ڈ‬ພࣷȃ ࣋቙ 1 ৃ঱ࣕٛ൰ܿ᎙ሃ໳ჵ • ‫؜‬ᇋፊ༄঱ࣕື༩ȃ • ข႙ّᄛׁٛ൰ȃሓၓٛ൰ّ૑໢ˈ঱ࣕߙື‫؜‬ঐᏋ‫ވ‬࿮ፒȃ
将模块安装到选购安装架 (OP-73880) 上,并使用 两颗 M3 螺钉加以固定,如右图所示。
3
LV-S31

调节整修工具 (检测位置)
可以通过调节整修工具自由选择检测范围。
若要远距离检测, 请 顺时针转动整修工 具, 然后进行调节。
F J N
F N
LV-S62
使用选购的 L 型安装架 (OP-84350)、 背面安装架 (OP-84349) 或水平安装架 (OP-84351)。
ࣙ‫ށ‬ञ‫׭‬Ꮃܿ᎙ሃ໳ჵ
UL ไጽ
ၓமঠܾᏥ৞໪ቂᄹ೙ˈข኷໪ቂׁٛ൰෇ჱႿኡ‫ׁޚ‬໪ቂ༇‫ق‬ȃ ขဢນׁ֦࣏໪ቂ༇‫ˈق‬ᇵ‫ૣدॄ๊צ‬ȃ
၌ ნ ੸ ࡻ ᄆ ᄩ ᎙ ሃ
‫؜‬Ꮸ༉ࡘፑ໯ਖܷ፛ཏ၁ডᆒ፱ພࣷȃ ‫؜‬Ꮸ༉ࡘፑ໯૰೙ܷ፛ཏ၁ডᆒ፱ພࣷȃ ‫؜‬Ꮸ༉ࡘፑ໯૰೙ঐܷ፛෸။ড፩‫ޡ‬ພࣷȃ ‫؜‬Ꮸ༉ࡘፑ໯૰೙ঐܷ፛ٛ൰ࢽጊড‫ا‬ٛཿ໘ȃ ׁٛ൰ၓ UL/C-UL ไጽٛ൰ȃ ˄቏࣋ UL ไጽ಼‫׭‬঱ࣕဂܿჱႿᄪႩˈ ข஍Ⴜ KEYENCE˅ ȃ • UL ၭ਋‫ף‬ख E301717 • ୥‫˖׳‬NRKHȂ NRKH7 • ိ૮୥ᄲ 1 ˄ন቙ UL50˅ ׁٛ൰ၓ UL/C-UL ᎙‫ق‬ٛ൰ˈ ໪ቂ໢ข‫د‬ጐ჉ளࣙࢆᇋชȃ • ข໪ቂ೙ࢮ࿎࢜ NFPA70 ፩‫ށ‬ሆܿ 2 ৃ༕‫࢙ڵ‬ఋܿ‫ݢ‬ኑȃ (NEC: ࣭য়‫ݢ‬නࣙ‫˅ڋ‬ ȃ • ‫ݢ‬ኑ‫ݢ‬ᅼၓ 10 - 30 VDCȃ • ‫ݢ‬ኑ / ိ‫ؠ‬༕๠ / ૿፟༕‫ڵ‬ፔ೙ஏਾܸᇜࢋ 2 ৃ‫ݢ‬ኑຢȃ • ขቪ߇‫ݢށ‬ᅼၓ 30V ড࢑ࡴ‫؃‬෩߇‫ݢށ‬௚‫؜‬٫ࣰ 1A ࣰܿ‫ݢ‬௚֦॓Ꭷ፜ᇜඩ໪ቂȃ • ข኷ႄำ‫ޡڋ‬ၓ 2 ৃᇵ೗ܿ०੼჉໪ቂȃ

Keysight 高功率测量器和高功率传感器选购指南说明书

Keysight 高功率测量器和高功率传感器选购指南说明书

S E L E C T I O N G U I D E Power Meters andPower SensorsPeak power measurement8990B peak power analyzer N8262A P-Series modular powermeters N1911A/2A P-Series powermetersE4416A/7A EPM-P Series powermeters–5 ns rise time/fall time–160 MHz VBW–100 MSa/s sampling rate–2 RF channels and 2 oscilloscopechannels–15 inch XGA color and touchscreendisplay–1U half-rack size–100 MSa/s continuous sampling,single-shot 30 MHz VBW–Wireless presets include WLAN, radarand MCPA–Code-compatible with N1912AP-Series power meter–100 MSa/s continuous sampling,single-shot 30 MHz VBW–Includes time-gated and statistical(CCDF) power measurements–Wireless presets include WiMAX™,HSDPA and DME–20 MSa/s continuous sampling,5 MHz VBW–Bundled analyzer software for pulseand statistical analysis–Wireless presets include GSM,Bluetooth® and W-CDMA Average power measurementN1913A/14A EPM Series power metersN432A thermistor power meters–Single, dual or four-channel measurements–Frequency range of 9 kHz to 110 GHz; powerrange of –70 dBm to +44 dBm (depending onpower sensor)–Fast measurement speed of 400 readings/s–Code-compatible with legacy E4418B/9B EPMSeries, 436A, 437B and 438A power meters (43Xcompatibility only with option N191xA-200)–High Accuracy (≤ 0.2% ± 0.5 uW), excellent for1 mW transfer calibration (with 478A-H75/H76)–Built-in 6.5-digit ADC eliminates the need for anexternal DMM–Digital color LCD display and user-friendlyinterfacePortable power measurementV3500A handheld RFpower meterU2000 Series USB powersensorsU8480 Series USBthermocouple powersensorsU2020 X-Series USB peakand average power sensorsU2040/53/63 andL2050/60 X-Series USB/LAN wide dynamic rangepower sensors–Broad 10 MHz to 6 GHzfrequency range–Wide dynamic range(–60 dBm to +20 dBm)–Absolute accuracy up to± 0.21 dB–Built-in display with backlightand integrated power sensor–Internal power referenceenables self-calibrationbefore use–3-ways power up capability(via AA batteries, USBinterface, and AC poweradaptor)––60 dBm to +44 dBm, 9 kHzto 26.5 GHz average powermeasurements without powermeters–Quick and easy set up withUSB connectivity–Internal zeroing withoutdisconnecting from deviceunder-test–DC to 18/33/50/67/120 GHz–35 dBm to +20 dBm–Measurement speed of 900readings/second and powerlinearity of < 0.8%–Real time measurementuncertainty feature––40 dBm to +20 dBm (peak/gated), –45 dBm to 20 dBm(average only mode), 50 MHzto 18/40/50 GHz–25,000 readings/secondmeasurement speed (buffermode)–Internal zero and calibration–Built-in trigger in/trigger out–50000 readings/second(fast/buffered mode)–USB sensors–10 MHz to 6/18 GHz––70 dBm to +26 dBm–LAN sensors–10 MHz to 6/33 GHz––70 dBm to +20/26 dBmPower sensorsPeak and average power sensorsAverage power sensors–N1921A/22A P-Series power sensors–N1923A/24A wideband power sensors–E9320 E-Series power sensors–E4410, E9300 E-Series power sensors–N8480 Series thermocouple powersensors–848xD Series, E/V/W8486A diodepower sensors–478A thermistor power sensorsKey FeaturesDesigned for manufacturing–Up to 100 MSa/s sampling rate and 1500 readings/s for high productivity withP-Series power meters–Achieve super-fast measurement speed of 50,000 readings/s for highermanufacturing throughput with U2040/53/63 and L2050/60 X-Series wide dynamic range power sensors–Code-compatible with legacy power meter so you save time and effort in developing new codes–Backward-compatible with all legacy power sensors to protect sensor investment–Wide selection of average and peak power sensors for various applications–CCDF statistical measurement in graphical and tabular formats for wirelesscomponent manufacturingDesigned for R&D–Calibration factors in EEPROM ensures accurate measurements–Intuitive user interface enables quick setup time–Graphical representation of delta measurements eases visualization and analysis–Trace zoom helps in investigating glitches, overshoot, and rise/fall time–Enable faster and easier testing with built-in wireless and radar presets for common–signals such as DME, GSM, EDGE, WCDMA, WLAN and LTE100 MSa/s continuous samplingensures signal glitches are not missedaverage ratio power measurementsDesigned for installation and maintenance and remote measurements–Light weight and palm size V3500A and the U2040/53/63 X-Series, U2020 X-Series,U8480 Series and U2000 Series USB power sensors bring greater convenience in field tasks–Lightweight U2049XA and L2050/60 X-Series LAN power sensor for remoteoperation via LAN networkWhen you need to take power measurements on the road or up a base station tower, smaller, lighter and fewer is better. With Keysight Technologies, Inc. USB/LAN power sensors, the only other thing you’ll need is a laptop with BenchVue BV0007B Power Meter/Sensor Control and Analysis App.Aerospace and Defense applications–The 8990B peak power analyzer (5ns rise/fall time), the U2020 X-series peak and average power sensors (13ns rise/fall time), and the N1911/2A P-series powermeters with the N1921/22A peak power sensors (13ns rise/fall time) allow you to capture pulsed radar signals and evaluate several power and waveform parameters: peak, min, average, and peak-to-average ratio power, rise time, fall time, pulsewidth, pulse period, duty cycle, time to positive occurrence, and time to negative occurrence time.–The U2049XA LAN power sensor with Option TVA is meticulously designed byselecting components with minimum outgassing properties. The sensor is alsosubject to temperature cycling in a vacuum chamber to stabilize the materials and to remove outgassing particles.Wireless applications–The U2040/53/63 and L2050/60 X-Series USB/LAN power sensors have widedynamic ranges (96/90 dB) and make very fast measurements (50000 readings/second). Both these power sensors and the N1911/2A P-Series power meterswith the N1921/22A power sensors allow you to easily set up and make themeasurements with built-in wireless presets for common signals such as DME, GSM, EDGE, WCDMA, WLAN and LTE. You can also make CCDF statistical measurements in graphical and tabular formats.–The 8990B peak power analyzer is a combination of high performance power meter and oscilloscope. It has two RF channels and two oscilloscope channels. You can easily evaluate the power added efficiency (PAE) of power amplifiers by capturing the input and output RF signals with the RF channels and the DC voltage and current with the oscilloscope channels and showing each data over time with multiple traces on the display.–The 8990B peak power analyzer with the N1923A/24A power sensors can measure the peak power of modulated signals up to 160 MHz like IEEE802.11ac. Calibration lab applications–The N432A thermal power meter with the 478A thermistor mount sensors provides metrology-class accuracy for instrument calibration.Various average power measurement solutions–U8480 series USB thermocouple sensors have wide frequency ranges, In particular, the U8489A covers DC to 120 GHz. The power calibration of broadband RF/uW measurements such as network analyzers can be performed with a singleconnection of the U8480 series.–The 8486 waveguide power sensors with N1913/14A EPM power meter offer power measurements to microwave and millimeter waveguide banded applications.–The U2041/43/53 and L2051/52/53XA USB/LAN power sensors have the widest dynamic range of 96 dB and achieve very fast measurements at 50000 readings/second and meet various power measurement needs in both R&D and manufacturing applications.–The classic power meter and power sensor configuration with the N1913A/14A EPM power meters with the E9300 E-series power sensors fit rack and stack style test systems.Power Measurement Software for Simplified Data CaptureBenchVue softwareThe Keysight BenchVue software for the PC accelerates testing by providing intuitive, multi instrument measurement visibility and data capture with no programming necessary. You can derive answers faster than ever by easily viewing, capturing and exporting measurement data and screenshots.The Power Meter/Sensor Control and Analysis App (BV0007B) for BenchVue enables control of power meters and power sensors to data log and visualize measurementsin a wide array of display formats. It can control multiple meters/sensors from a single instance. Calibrations can be done fast with software buttons. Presets allow quick analysis of power levels of industry standard communications signals. Trial licensescan be started with one-click using the button to the left. Licenses may be purchased from Keysight or directly from your preferred Keysight Distributor. This app supports Keysight’s USB/LAN power sensors and some power meters. Measurement Display options include:–Digital Meter View: Displays precise and exact reading (up to 4 decimal points)measured by the instrument–Analog Meter View: Displays measured reading in analog form for easiervisualization of large measurement differences–Strip Chart: Displays measured reading in a graphical form (Power/time)–CCDF View: Displays the Complementary Cumulative distribution function–Trace View: Displays traces of modulated signal–Multilist View: Displays multiple power measurementsKey features and specifications–Control and setup your Power meters and sensors–Setup all necessary parameters for your critical measurements–Control multiple power meters/sensors from one instance of the software–Log and view measurement data in the format you need:–With 6 different display types seeing what you care about has never been easier or more flexible–Export results in three clicks:–Export data quickly to popular tools such as Matlab and Microsoft Excel or Word for documentation or further analysis.Supported models–U2021XA, U2022XA, U2041XA, U2042XA, U2043XA, U2044XA, U2049XA,U2053XA, U2063XA, L2051XA, L2052XA, L2053XA, L2061XA, L2062XA, L2063XA, U2000A, U2000B, U2000H, U2001A, U2001B, U2001H, U2002A, U2004A–U8481A, U8485A, U8487A, U8488A, U8489A–N1911A, N1912A, N1913A, N1914A–N8262A Highlights–Visualize multiple measurementssimultaneously–Easily log data, screen images andsystem state–Recall past state of your bench toreplicate results–Fast measurement data export indesired formats–Quickly access manuals, drivers,FAQs and videos–Monitor and control your benchfrom mobile devicesPower Meters Selection Chart for Wireless Communication Peak power measurementEPM-P E4416A/17A (VBW: 5 MHz)Power sensor options–E932x Peak-and-Average Sensors (300 kHz, 1.5 MHz, 5 MHz)–* Also compatible with all average power sensorsP-Series N1911A/12A (VBW: 30 MHz)U2020 X-Series USB powersensors (VBW: 30 MHz)P-Series modular N8262A(VBW: 30 MHz)Power sensor options for theP-Series meters–N1921A/22A Wideband Sensors(30 MHz)–E932x Peak-and-Average Sensors(300 kHz, 1.5 MHz, 5 MHz)–* Also compatible with all averagepower sensorsU2042/44/49/63 and L2061/62/63XAX-Series USB/LAN power sensors(VBW: 5 MHz)8990B peak power analyzer (VBW: 160 MHz)Power sensor options–N1923A/24A Wideband Sensors (150 MHz)–N1921A/22A Wideband Sensors (30 MHz)Average power measurementEPM N1913A/14A N432A thermistor power meter U8480 Series USB thermocouple powersensorsPower sensor options–848xD Diode Sensors–N848x Thermocouple Sensors–8486 Waveguide Sensors–E441x 1-Path Diode CW-only Sensors–E930x 2-Path Diode True-Average Sensors–USB SensorsPower sensor options–478A and 8478B Thermistor SensorU2000 Series USB power sensors U2041/43/53 and L2051/52/53XA X-SeriesUSB/LAN power sensorsV3500A handheld RF power meterPower Meters Selection Chart for Wireless Communication (Continued)Power Sensors Selection ChartD 9 k H 100 k H 1 M H 10 M H 50 M H 1 G H 2 G H 3 G H 4.2 G H 6 G H 10 G H 18 G H 24 G H 26.5 G H 33 G H 40 G H 50 G H 60 G H 67 G H 75 G H 78 G H 90 G H 110 G H 120 G H FrequencyU2040/53/63 and L2050/60 X-Series Wide Dynamic U848x USB Thermocouple Power SensorsU2020 X-Series USB Peak and Average Power Sensors N192x Wideband Sensors E932x Peak-and-Average Sensors N848x Thermocouple Sensors 848X Diode and Thermocouple Sensors 8486 Waveguide SensorsE441x 1-Path Diode CW-only Sensors E930x 2-Path Diode True-Average Sensors 478A and 8478B Thermistor Sensors U200x USB SensorsV3500A Handheld RF Power Meter1. With Option H50, warranted specifications to+8 dBm only from 40 GHz to 50 GHz. Options 1A7/A6J/UK6 are not available with Option H50. Refer to the U2020XA datasheet or the Option H50 product note, U2022-90001 for more information.Power Meters and Sensors Compatibility Table1. Requires BenchVue Power Meters/Sensors Control and Analysis App software.2. Available in average mode only.For the complete list of sensor options, please visit our Web site at /find/powermeters.Power Meters and Sensors Compatibility Table (Continued)1. Requires BenchVue Power Meters/Sensors Control and Analysis App software.For the complete list of sensor options, please visit our Web site at /find/powermeters.Related Keysight LiteraturePublication title Publication number BrochuresPower Meters and Power Sensors - Brochure5989-6240EN SpecificationsN432A Thermistor Power Meter - Data Sheet5990-5740ENN8262A P-Series Modular Power Meter and Power Sensors - Data Sheet5989-6605ENN1911A/N1912A P-Series Power Meters and N1921A/N1922A Wideband Power Sensor – Data Sheet5989-2471ENU2000 Series USB Power Sensors - Data Sheet5989-6278ENE4416A/E4417A EPM-P Series Power Meters and E-Series E9320 Peak and Average Power Sensors – Data Sheet5980-1469EN1913A and N1914A EPM Series Power Meters E-Series and 8480 Series Power Sensors – Data Sheet5990-4019ENN8480 Series Thermocouple Power Sensors - Data Sheet5989-9333ENV3500A Handheld RF Power Meter – Data Sheet5990-5483EN 8990B Peak Power Analyzer and N1923A/N1924A Wideband Power Sensors - Data Sheet5990-8126ENU2020 X-Series USB Peak and Average Power Sensors - Data Sheet5991-0310ENU8480 Series USB Thermocouple Power Sensors - Data Sheet5991-1410EN Waveguide Power Sensors - Data Sheet5991-3676ENU2040 X-Series Wide Dynamic Range Power Sensors - Data Sheet5992-0040EN Application notesChoosing the Right Power Meter and Sensor - Application Note5968-7150E Fundamentals of RF and Microwave Power Measurements (Part 1) - Application Note5988-9213EN Fundamentals of RF and Microwave Power Measurements (Part 2) - Application Note5988-9214EN Fundamentals of RF and Microwave Power Measurements (Part 3) - Application Note5988-9215EN Fundamentals of RF and Microwave Power Measurements (Part 4) - Application Note5988-9216ENP-Series Wideband Power Sensors - Application Note5989-6509ENN1911A/N1912A P-Series Power Meters For WiMAX™ Signal Measurements - Application Note5989-6423EN4 Steps for Making Better Power Measurements - Application Note5965-8167E EPM-P Series Power Meters used in Radar and Pulse Applications - Application Note5988-8522EN Compatibility of USB Power Sensors with Keysight Instruments - Application Note5989-8743EN。

IS61LV51216中文资料

IS61LV51216中文资料
required • Three state outputs • Data control for upper and lower bytes • Industrial and Automotive temperatures available • Lead-free available
FUNCTIONAL BLOCK DIAGRAM
Write
WE CE OE LB UB
XHXXX
H
L
H
X
X
X
L
X
H
H
H
L
L
L
H
H
L
L
H
L
H
L
L
L
L
L
L
X
L
H
L
L
X
H
L
L
L
X
L
L
ISSI ®
I/O PIN
I/O0-I/O7
I/O8-I/O15
High-Z
High-Z
High-Z High-Z
High-Z High-Z
DOUT High-Z DOUT
GND ≤ VIN ≤ VDD
ILO
Output Leakage
GND ≤ VOUT ≤ VDD Outputs Disabled
Notes: 1. VIL (min.) = –2.0V for pulse width less than 10 ns.
Com. Ind. Auto.
Com. Ind. Auto.
DESCRIPTION The ISSI IS61/64LV51216 is a high-speed, 8M-bit static

Eaton Moeller EASY I O 扩展设备 产品说明书

Eaton Moeller EASY I O 扩展设备 产品说明书

Eaton 197224Eaton Moeller® series EASY I/O expansion, For use with easyE4, 24 V DC, Inputs expansion (number) analog: 4, screw terminal EASY-E4-DC-4PE1Spécifications généralesEaton Moeller® series EASY I/O expansion197224401508089285458 mm 90 mm 36 mm 0.1 kg IEC/EN 61000-6-3 IEC 60068-2-30 CULus per UL 61010 IEC/EN 61131-2 IEC 60068-2-6 IEC 60068-2-27 IEC/EN 61000-6-2 EN 61010 EN 50178CSA-C22.2 No. 61010 IEC 60664 IEC/EN 61000-4-2 UL ListedUL Category Control No.: NRAQ, NRAQ7UL File No.: E205091 DNV GL CEEASY-E4-DC-4PE1Product NameCatalog Number EANProduct Length/Depth Product Height Product Width Product Weight Certifications Model CodeAdditional measurement aids: Filtering (software), smoothing of analog input signal (PT1 behavior), only with set sampling time, selectable per sensor: yesExpandableExpansion deviceMeasuring principle: Two or three wire per sensor, selectable by connection of sensorCard diagnosticDiagnostics below lower measurement range IP20According to EN 50178, EN 61010-2-201, UL61010-2-201, CSA-C22.2 NO. 61010-2-201Rail mounting possibleTop-hat rail fixing (according to IEC/EN 60715, 35 mm)Wall mounting/direct mountingScrew fixing using fixing brackets ZB4-101-GF1 (accessories) Front build in possibleIII2Control relays easyE4TCP/IPMODBUS≤ 5 %12 Bit (0- 4095, digital, scaling per sensor)EASYSOFT-SWLIC/easySoft7easyE4 extensionDC50 mm Drop height, Drop to IEC/EN 60068-2-31 0.3 m 795 - 1080 hPa (operation) -25 °CFeatures Functions Degree of protection Insulation resistance Mounting methodOvervoltage category Pollution degree Product category ProtocolResidual ripple ResolutionSoftwareTypeVoltage typeDrop and toppleHeight of fall (IEC/EN 60068-2-32) - max Air pressureAmbient operating temperature - minHorizontalVertical15 g, Mechanical, according to IEC/EN 60068-2-27, Half-sinusoidal shock 11 ms, 18 Impacts57 - 150 Hz, 2 g constant acceleration10 - 57 Hz, 0.15 mm constant amplitudeAccording to IEC/EN 60068-2-655 °C-40 °C70 °CCondensation: prevent with appropriate measuresClearance in air and creepage distances according to EN 50178, EN 61010-2-201, UL61010-2-201, CSA-C22.2 NO. 61010-2-2015 - 95 % (IEC 60068-2-30, IEC 60068-2-78)8 kV2 kV, Signal cableAccording to IEC/EN 61000-4-42 kV, Supply cable6 kV10 V/m at 0.8 - 1.0 GHz (according to IEC EN 61000-4-3)1 V/m at 2.0 - 2.7 GHz (according to IEC EN 61000-4-3)3 V/m at 1.4 - 2 GHz (according to IEC EN 61000-4-3)10 V (according to IEC/EN 61000-4-6)Class B (EN 61000-6-3)According to IEC/EN 61000-4-5, power pulses (Surge), EMC 0.5 kV, Supply cables, symmetrical, EASY…DC, power pulses (Surge), EMC1 kV, Supply cables, asymmetrical, power pulses (Surge), EMC20 ms≤ 10 ms, Bridging voltage dips 0.2 - 2.5 mm² (22 - 12 AWG), flexible with ferrule 0.2 - 4 mm² (AWG 22 - 12), solid3.5 x 0.8 mm, Terminal screw0.6 Nm, Screw terminals3.4 W (at 24 V DC)12.5 A (for 6 ms)1 W1 W24 V DC (-15 %/+ 20 % - power supply)20.4 - 28.8 V DC0 VACMounting position Shock resistance Vibration resistance Ambient operating temperature - max Ambient storage temperature - min Ambient storage temperature - max Environmental conditionsRelative humidityAir dischargeBurst impulseContact dischargeElectromagnetic fieldsImmunity to line-conducted interference Radio interference classSurge ratingVoltage dips Terminal capacityScrewdriver sizeTightening torqueHeat dissipationInrush currentPower consumptionPower lossRated operational voltage Supply voltage at AC, 50 Hz - min0 VAC20.4 VDC28.8 VDC≥ 1A (T), Fuse, Power supplyScrew terminal≤ 30 m, unscreened, Analog inputs temperature resistance Pt100 or Ni1000 sensors Input type resistance sensor: Platinum sensor Pt100 (according to DIN EN 60751, IEC 751)Input type resistance sensor: Nickel sensor Ni1000 (according to DIN 43760)40 mA4NoneBetween Analog inputs PT100 or Ni1000 and Power supply: no Between Analog inputs PT100 or Ni1000 and expansion units: yesBetween Analog inputs PT100 or Ni1000 and Inputs: noYes, for supply voltage (Siemens MPI optional)0 W 0 W 0 W 0 ASupply voltage at AC, 50 Hz - maxSupply voltage at DC - minSupply voltage at DC - maxShort-circuit protectionConnection typeCable length InputInput currentNumber of inputs (analog)Number of inputs (digital)Number of outputs (analog)Number of outputs (digital)Explosion safety category for gas Potential isolationProtection against polarity reversal Equipment heat dissipation, current-dependent PvidHeat dissipation capacity PdissHeat dissipation per pole, current-dependent PvidRated operational current for specified heat dissipation (In) Static heat dissipation, non-current-dependent PvsNone1 WMeets the product standard's requirements.Meets the product standard's requirements.Meets the product standard's requirements.Meets the product standard's requirements.Meets the product standard's requirements.Does not apply, since the entire switchgear needs to be evaluated.Does not apply, since the entire switchgear needs to be evaluated.Meets the product standard's requirements.Meets the product standard's requirements.Meets the product standard's requirements.Does not apply, since the entire switchgear needs to be evaluated.Does not apply, since the entire switchgear needs to be evaluated.Is the panel builder's responsibility.Is the panel builder's responsibility.Is the panel builder's responsibility.Is the panel builder's responsibility.Explosion safety category for dust 10.2.2 Corrosion resistance10.2.3.1 Verification of thermal stability of enclosures 10.2.3.2 Verification of resistance of insulating materials to normal heat10.2.3.3 Resist. of insul. mat. to abnormal heat/fire by internal elect. effects10.2.4 Resistance to ultra-violet (UV) radiation 10.2.5 Lifting10.2.6 Mechanical impact10.2.7 Inscriptions10.3 Degree of protection of assemblies 10.4 Clearances and creepage distances 10.5 Protection against electric shock10.6 Incorporation of switching devices and components 10.7 Internal electrical circuits and connections 10.8 Connections for external conductors 10.9.2 Power-frequency electric strength 10.9.3 Impulse withstand voltageEaton Corporation plc Eaton House30 Pembroke Road Dublin 4, Ireland © 2023 Eaton. Tous droits réservés.Eaton is a registered trademark.All other trademarks are property of their respective owners./socialmediaIs the panel builder's responsibility.The panel builder is responsible for the temperature rise calculation. Eaton will provide heat dissipation data for the devices.Is the panel builder's responsibility.Is the panel builder's responsibility.The device meets the requirements, provided the information in the instruction leaflet (IL) is observed.DA-CE-ETN.EASY-E4-DC-4PE1DA-MN-h1430de MZ049014EN Video easy E4 control relay IL050021ZU DA-CS-dc_4pe1DA-CD-dc_4pe1TT-197224_EASY-E4-DC-4PE1-de_DE eaton-modular-plc-easy-i-o-expansion-dimensions-002.eps eaton-modular-plc-easy-i-o-expansion-3d-drawing-002.eps10.9.4 Testing of enclosures made of insulating material 10.10 Temperature rise10.11 Short-circuit rating10.12 Electromagnetic compatibility 10.13 Mechanical functioneCAD modelGuide utilisateur Installation videosInstructions d'installationmCAD model Notes de venteSchémas。

10 60 SL2系列长型设置参数手册说明书

10 60 SL2系列长型设置参数手册说明书

10/60/SL2 SeriesLong-Form Set Up ParametersFor Software Version 210323 Choretime Page 1EZ2810Page 6EZ3410Page 8GT560Page 10KDW341Page 15KDW361Page 21NT560Page 27SL-2100Page 33SL-2200Page 34SL2BAL Page 40SL2-YT Page 46ST3410Page 56TMR3610Page 60TMR4610Page 62YM560Page 67D4019N210323Choretime M100M200 Software - 210323Rev. Date 3/23/21Req'd SW Version5167151672 OPTIONS D.A.N.PRESET 90002off ON RS-232 90003ON ON AD DSP 90005off off HOLD 90007off off MEMORY 90008off off BLKOUT90009ON ON TMR MX 90011off off RADIO 90012off off REVCTR 90016off off PRACTV 90019off off FRONT PANEL OPTIONNUMKEY 90051off ON QWERTY 90061off off MODELID90201M100M200 MODLTM 9020211 MENU 1JUMP LIST 1LANGAG 1001ENGLSH ENGLSHD RATE 100233SCALID 1003NEW EZ NEW EZ ZTRACK 1004off off W MTHD 1005111 ZERO 1006off offAUTOFF 1007off off LB-KG 1008** MENU 1.1JUMP LIST 11SCROLL 110144 SAVTAR 1102off off PRETAR 1103off off PWRLOS1104off ONChoretime M100M200 Software - 210323Rev. Date 3/23/21Req'd SW Version5167151672 OPTIONS D.A.N.MENU 1.2JUMP LIST 12TIME F 1201AM/PM AM/PM TIME 1202SET SET DATE F 120377 DATE 1204SET SET DT CHK 1205off ON MENU 1.4JUMP LIST 14RMINP1 1401PRESET PRESET RI1MSG 1402OPEN OPEN R1STAT 1403CLOSED CLOSED R1TIME 140422 RMINP2 1411TARE TARE RI2MSG 1412OPEN OPEN R2STAT 1413CLOSED CLOSED R2TIME 141422 MENU 1.9JUMP LIST 19PROGID 1998** EST WT199900 MENU 2JUMP LIST 2REMOTE 2001off off SCL NO 200211 EXTRAD 2003off off DDL 2004NO NO EZ2AUD2005ON ON RADIHW2098** MENU 2.1JUMP LIST 21SCOREM 210133 ZEROUT 2102** ZERO FP2103off offChoretime M100M200 Software - 210323Rev. Date 3/23/21Req'd SW Version5167151672 OPTIONS D.A.N.OPSTAT 211100 -DVADJ2199ON ON MENU 2.2JUMP LIST 22C1 BD 220112001200 C1 PAR 2202EVEN EVEN C1DATA 220377 C1 DLY 220400 C2 BD 221112001200 C2 PAR 2212EVEN EVEN C2DATA 221377 C2 DLY 221400 MENU 2.3JUMP LIST 23TAREAP 2301ON ON 1L PRT 2302ON ON APRINT 2303off off PRTFMT 2304WTONLY WTONLY PRTACC 2305--MENU 2.4JUMP LIST 24RMDISP 2401EZ2EZ2 RMTERM 2402off off BARGRP 2411RIGHT RIGHT WTGRPH 2412ON ON BAR WT 24131200012000 PRGRPH 2414ON ON TMGRPH 2415ON ON INGRPH 2416ON ON NONDSR2417off off MENU 3JUMP LIST 3COUNT 3001**Choretime M100M200 Software - 210323Rev. Date 3/23/21Req'd SW Version5167151672 OPTIONS D.A.N.CAP 3002** WMA1-1 30031010 WMA1-2 300444 WMA1-3 300540004000 WMA2-1 30063030 WMA2-2 30071010 WMA2-3 300840004000 MENU 3.1JUMP LIST 31MOTION 3101off off MOT WT 310200 MENU 4JUMP LIST 4P MTHD 4001WEIGHT WEIGHT P ALRM 400200 AL OUT 4003PRESET PRESET BUZZER 4004off off RELAY 4005PRESET PRESET PRTDLY 400600 RLYOUT 4008SIG12V SIG12V PRCLPT4009ON ON MENU 4.1JUMP LIST 41SETOUT 4101OVER OVER SETCHG 4102500500 SETDEL 410300 SETPNT 410450005000 SETCTR 410500 STWTSC 4106NORMAL NORMAL MENU 4.2JUMP LIST 42T MTHD 4201WEIGHT WEIGHT TOLER 420200Choretime M100M200 Software - 210323Rev. Date 3/23/21Req'd SW Version5167151672 OPTIONS D.A.N.OVERLK 4203off off MENU 5JUMP LIST 5RMDPRT 5001COM 2COM 2 RADPRT 5002COM 3COM 3 EXRPRT 5003COM 2COM 2 PRPORT 5005COM 1COM 1 SCPORT 5006COM 2COM 2 OPSTAT 5007COM 1COM 1 DDLPRT 5009COM 2COM 2 20MAMR 5011COM 1COM 1 RECPRT 5012COM 2COM 2 GPSPRT 5013COM 4COM 4 MENU 8JUMP LIST 8SIGNON8001OFF OFF SIGMSG8002Digi-Star Digi-StarMANTMG8011SEE OPERATORSMANUAL FORSERVICEINTERVALREQUIREMENTSSEE OPERATORSMANUAL FORSERVICEINTERVALREQUIREMENTSMANTTM8012000000000000000000000000000000 00000000000000 0000000000000000000000000000 0000000000000000000000000000 0000000000000000000000000 000000000000000000000000000000000000000000RE MOTE SE RIAL RE MOTE/SE RIAL 2.4Ghz Xbee RE M/SE R2.4GhzXbee/315M hz RE M/SE R/2.4Ghz Abbey -Serial/Auto-ONRE M/BTSoftw are - 210323Setup595012 Rev. Date 3/23/21Cal14700 Req'd SW Version341000341001341002, 341007341003, 341003-KN341009341016341004-KN,341004341046341047341048-A1045170-01OPTIONS D.A.N.P RE SE T 90002ON ON ON ON ON ON ON ON ON ON ON RS-232 90003off off ON ON ON ON ON ON ON ON ON AD DSP90005off off off off off off off off off off off HOLD 90007ON ON ON ON ON ON ON ON ON ON ON ME MORY 90008off off off off off off off off off off off TMR MX 90011ON ON ON ON ON ON ON ON ON ON ON RADIO 90012off off off off ON ON ON off off off off RE VCTR 90016ON ON ON ON ON ON ON ON ON ON ONP RACTV 90019off off off off off off off off off off off BLU E ON90022off off off off off off off ON ON off ON FRONT PANE L OPTIONNUMKE Y 90051ON ON ON ON ON ON ON ON ON ON ON QWE RTY 90061off off off off off off off off off off off MODE LID90201E Z3410E Z3410E Z3410E Z3410E Z3410E Z3410E Z3410E Z3410E Z3410E Z3410E Z3410 MODLTM 9020211111111111 ME NU 1JUMP LIST 1LANGAG 1001E NGLSH E NGLSH E NGLSH E NGLSH E NGLSH E NGLSH E NGLSH E NGLSH E NGLSH E NGLSH E NGLSH D RATE100233333333323 SCALID 1003NE W E Z NE W E Z NE W E Z NE W E Z NE W E Z NE W E Z NE W E Z TMR-01TMR-01NE W E Z TMR-01 ZTR ACK 1004off off off off off off off off off ON offW M THD 1005111111111111 ZERO 1006ON ON ON ON ON ON ON ON ON ON ON AUTOFF 1007off off off off off off off off off off off LB-KG 1008*********** ME NU 1.1JUMP LIST 11SCROLL 110144444444444 SAVTAR 1102off off off off off off off off off off offP RE TAR 1103off off off off off off off off off off offP WRLOS1104off off off off off off off off off off off ME NU 1.2JUMP LIST 12TIME F 1201AM/P M AM/P M AM/P M AM/P M AM/P M AM/P M AM/P M AM/P M AM/P M24 HR AM/P M TIME1202SE T SE T SE T SE T SE T SE T SE T SE T SE T SE T SE T DATE F 120377777777777 DATE1204SE T SE T SE T SE T SE T SE T SE T SE T SE T SE T SE T DT CHK 1205ON ON ON ON ON ON ON ON ON ON ON ME NU 1.4JUMP LIST 14RMINP1 1401MIXCTR MIXCTR MIXCTR MIXCTR MIXCTR MIXCTR MIXCTR MIXCTR MIXCTR TR HLD MIXCTR RI1MSG 1402OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N R1STAT 1403CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D R1TIME140422222222222 RMINP2 1411TARE TARE TARE TARE TARE TARE TARE TARE TARE TARE TARE RI2MSG 1412OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N OP E N R2STAT 1413CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D CLOSE D R2TIME141422222222222 ME NU 1.9JUMP LIST 19P ROGID 1998***********E ST WT199900000000000 ME NU 2JUMP LIST 2RE MOTE2001off off off off ON ON ON ON ON off ON SCL NO 200211111111111E XTRAD 2003off off off off off off off off off off off DDL 2004NO NO NO NO NO NO NO NO NO NO NOE Z2AUD2005ON ON ON ON ON ON ON ON ON ON ON ME NU 2.1JUMP LIST 21SCORE M 210100000000000 ZEROUT 2102*********** ZERO FP2103off off off off off off off off off off off SCRM 2210400000000000 OP STAT 211100000000000-DVADJ2199ON ON ON ON ON ON ON ON ON ON ON ME NU 2.2JUMP LIST 22C1 BD 220196009600960096009600960096009600960096009600 C1 P AR 2202E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N C1DATA 220377777777777C1 DLY 220400000000000C2 BD 221196009600960096009600960096009600960096009600 C2 P AR 2212E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N E VE N C2DATA 221377777777777C2 DLY 221400000000000 ME NU 2.3JUMP LIST 23TARE AP2301off off off off off off off off off off off1L P RT 2302off off off off off off off off off off off AP RINT 2303off off off off off off off off off off offP RTFMT 2304AUTO AUTO AUTO AUTO AUTO AUTO AUTO AUTO AUTO AUTO AUTO P RTACC 2305-----------ME NU 2.4JUMP LIST 24RMDISP2401E Z2E Z2E Z2E Z2E Z2E Z2E Z2E Z2E Z2E Z2E Z2 RMTE RM 2402off off off off off off off off off off off BARGRP2411RIGHT RIGHT RIGHT RIGHT RIGHT RIGHT RIGHT RIGHT RIGHT RIGHT RIGHT WTGRP H 2412ON ON ON ON ON ON ON ON ON ON ON BAR WT 24131200012000120001200012000120001200012000120001200012000 P RGRP H 2414ON ON ON ON ON ON ON ON ON ON ON TMGRP H 2415ON ON ON ON ON ON ON ON ON ON ON INGRP H 2416ON ON ON ON ON ON ON ON ON ON ON NONDSR2417off off off off off off off off off off off ME NU 3JUMP LIST 3COUNT 3001*********** CAP3002*********** WM A1-1 30031010101010101010101010 WM A1-2 300444444444444 WM A1-3 300540004000400040004000400040004000400040004000 WM A2-1 30063030303030303030303030 WM A2-2 30071010101010101010101010 WM A2-3 300840004000400040004000400040004000400040004000 ME NU 3.1JUMP LIST 31MOTION 3101off off off off off off off off off off off MOT WT 310200000000000 ME NU 4JUMP LIST 4P MTHD 4001WE IGHT WE IGHT WE IGHT WE IGHT WE IGHT WE IGHT WE IGHT WE IGHT WE IGHT WE IGHT WE IGHT P ALRM 4002100100100100100100100100100100100 AL OUT 4003P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T BUZZE R 4004ON ON ON ON ON ON ON ON ON ON ON RE LAY 4005P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RE SE T P RTDLY 400600000000000 RLYOUT 4008SI G12V SI G12V SI G12V SI G12V SI G12V SI G12V SI G12V SI G12V SI G12V SI G12V SI G12V P RCLP T4009ON ON ON ON ON ON ON ON ON ON ONRE MOTE SE RIAL RE MOTE/SE RIAL 2.4Ghz Xbee RE M/SE R2.4GhzXbee/315M hz RE M/SE R/2.4Ghz Abbey -Serial/Auto-ONRE M/BTSoftw are - 210323Setup595012 Rev. 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Date 3/23/21Cal110191101911019 Req'd SW Version361000-K361002-K361009-K OPTIONS D.A.N.MENU 1.4JUMP LIST 14RMINP1 1401MIXCTR MIXCTR MIXCTR RI1MSG 1402OPEN OPEN OPEN R1STAT 1403CLOSED CLOSED CLOSED R1TIME 1404222 RMINP2 1411TARE TARE TARE RI2MSG 1412OPEN OPEN OPEN R2STAT 1413CLOSED CLOSED CLOSED R2TIME 1414222 MENU 1.9JUMP LIST 19PROGID 1998*** EST WT1999000 MENU 2JUMP LIST 2REMOTE 2001ON ON ON SCL NO 2002111 EXTRAD 2003off off off DDL 2004YES YES NO EZ2AUD2005ON ON off MENU 2.1JUMP LIST 21SCOREM 2101000 ZEROUT 2102*** ZERO FP2103off off off SCRM 22104000 OPSTAT 2111000 -DVADJ2199ON ON ON MENU 2.2JUMP LIST 22C1 BD 2201960096009600 C1 PAR 2202EVEN EVEN EVEN C1DATA 2203777 C1 DLY 2204000 C2 BD 2211960096009600 C2 PAR 2212EVEN EVEN EVEN C2DATA 2213777 C2 DLY 2214000KDW361KDW361KDW361KDW361Standard SER 2.4 Software - 210323Setup594022594022594022 Rev. Date 3/23/21Cal110191101911019 Req'd SW Version361000-K361002-K361009-K OPTIONS D.A.N.MENU 2.3JUMP LIST 23TAREAP 2301off off off 1L PRT 2302off off off APRINT 2303off off off PRTFMT 2304AUTO AUTO AUTO PRTACC 2305---MENU 2.4JUMP LIST 24RMDISP 2401EZ2EZ2EZ2 RMTERM 2402off off off BARGRP 2411RIGHT RIGHT RIGHT WTGRPH 2412ON ON ON BAR WT 2413120001200012000 PRGRPH 2414ON ON ON TMGRPH 2415ON ON ON INGRPH 2416ON ON ON NONDSR2417off off off MENU 2.8JUMP LIST 28WIFINM2801ACCESS POINTNAMEACCESS POINTNAMEACCESS POINTNAMEWIFIPS2802PASSPHRASE PASSPHRASE PASSPHRASE MENU 3JUMP LIST 3COUNT 3001***CAP 3002***WMA1-1 3003101010 WMA1-2 3004444WMA1-3 3005400040004000 WMA2-1 3006303030 WMA2-2 3007101010 WMA2-3 3008400040004000 MENU 3.1JUMP LIST 31MOTION 3101off off offMOT WT 3102000 MENU 4JUMP LIST 4P MTHD 4001WEIGHT WEIGHT WEIGHTP ALRM 4002100100100KDW361KDW361KDW361KDW361Standard SER 2.4 Software - 210323Setup594022594022594022 Rev. Date 3/23/21Cal110191101911019 Req'd SW Version361000-K361002-K361009-K OPTIONS D.A.N.AL OUT 4003PRESET PRESET PRESET BUZZER 4004ON ON ON RELAY 4005PRESET PRESET PRESET PRTDLY 4006000 RLYOUT 4008SIG12V SIG12V SIG12V PRCLPT4009ON ON ON MENU 4.1JUMP LIST 41SETOUT 4101OVER OVER OVER SETCHG 4102500500500 SETDEL 4103000 SETPNT 4104500050005000 SETCTR 4105000 STWTSC 4106NORMAL NORMAL NORMAL MENU 4.2JUMP LIST 42T MTHD 4201WEIGHT WEIGHT WEIGHT TOLER 4202000 OVERLK 4203off off off MENU 4.3JUMP LIST 43TMRCTR 4301COUNTR COUNTR COUNTR DRATIO 4302111 MENU 5JUMP LIST 5RMDPRT 5001COM 2COM 2COM 3 RADPRT 5002COM 3COM 3COM 3 EXRPRT 5003COM 2COM 2COM 2 PRPORT 5005COM 2COM 2COM 2 SCPORT 5006COM 1COM 1COM 1 OPSTAT 5007COM 1COM 1COM 1 DDLPRT 5009COM 2COM 2COM 2 20MAMR 5011COM 1COM 1COM 1 RECPRT 5012COM 2COM 2COM 2 GPSPRT 5013COM 4COM 4COM 4 SC2PRT5015COM 2COM 2COM 2 MENU 6JUMP LIST 6BPMTHD 6001PERCNT PERCNT PERCNT BP-ALM 6002777。

IS42VS16100C1-10TL中文资料

IS42VS16100C1-10TL中文资料

IS42VS16100C1ISSI®Copyright © 2005 Integrated Silicon Solution, Inc. All rights reserved. ISSI reserves the right to make changes to this specification and its products at any time without notice. ISSI assumes no liability arising out of the application or use of any information, products or services described herein. Customers are advised to obtain the latest version of this device specification before relying on any published information and before placing orders for products.ADVANCED INFORMATIONAPRIL 2005FEATURES•Clock frequency: 100 MHz•Fully synchronous; all signals referenced to a positive clock edge•Two banks can be operated simultaneously and independently•Dual internal bank controlled by A11(bank select)•Single 1.8V power supply •LVTTL interface•Programmable burst length – (1, 2, 4, 8, full page)•Programmable burst sequence:Sequential/Interleave•2048 refresh cycles every 32 ms•Random column address every clock cycle •Programmable CAS latency (2, 3 clocks)•Burst read/write and burst read/single write operations capability•Burst termination by burst stop and precharge command•Byte controlled by LDQM and UDQM •Package 400-mil 50-pin TSOP II •Lead-free package optionDESCRIPTIONISSI ’s 16Mb Synchronous DRAM IS42VS16100C1 isorganized as a 524,288-word x 16-bit x 2-bank for improved performance. The synchronous DRAMs achieve high-speed data transfer using pipelinearchitecture. All inputs and outputs signals refer to the rising edge of the clock input.512K Words x 16 Bits x 2 Banks (16-MBIT)SYNCHRONOUS DYNAMIC RAMPIN CONFIGURATIONS50-Pin TSOP (Type II)PIN DESCRIPTIONSA0-A11Address Input A0-A10Row Address Input A11Bank Select Address A0-A7Column Address Input DQ0 to DQ15Data DQCLK System Clock Input CKE Clock Enable CS Chip SelectRASRow Address Strobe CommandCAS Column Address Strobe Command WE Write EnableLDQM Lower Bye, Input/Output Mask UDQM Upper Bye, Input/Output Mask VDD Power GND GroundVDDQ Power Supply for DQ Pin GNDQ Ground for DQ Pin NCNo ConnectionIS42VS16100C1ISSI®PIN FUNCTIONSPin No.Symbol Type Function (In Detail)20 to 24A0-A10Input Pin A0 to A10 are address inputs. A0-A10 are used as row address inputs during active27 to 32command input and A0-A7 as column address inputs during read or write commandinput. A10 is also used to determine the precharge mode during other commands. IfA10 is LOW during precharge command, the bank selected by A11 is precharged,but if A10 is HIGH, both banks will be precharged.When A10 is HIGH in read or write command cycle, the precharge startsautomatically after the burst access.These signals become part of the OP CODE during mode register set commandinput.19A11Input Pin A11 is the bank selection signal. When A11 is LOW, bank 0 is selected and whenhigh, bank 1 is selected. This signal becomes part of the OP CODE during moderegister set command input.16CAS Input Pin CAS, in conjunction with the RAS and WE, forms the device command. See the“Command Truth Table” item for details on device commands.34CKE Input Pin The CKE input determines whether the CLK input is enabled within the device. Whenis CKE HIGH, the next rising edge of the CLK signal will be valid, and when LOW,invalid. When CKE is LOW, the device will be in either the power-down mode, theclock suspend mode, or the self refresh mode. The CKE is an asynchronous input.35CLK Input Pin CLK is the master clock input for this device. Except for CKE, all inputs to this deviceare acquired in synchronization with the rising edge of this pin.18CS Input Pin The CS input determines whether command input is enabled within the device.Command input is enabled when CS is LOW, and disabled with CS is HIGH. Thedevice remains in the previous state when CS is HIGH.2, 3, 5, 6, 8, 9, 11DQ0 to DQ Pin DQ0 to DQ15 are DQ pins. DQ through these pins can be controlled in byte units 12, 39, 40, 42, 43,DQ15using the LDQM and UDQM pins.45, 46, 48, 4914, 36LDQM,Input Pin LDQM and UDQM control the lower and upper bytes of the DQ buffers. In read UDQM mode, LDQM and UDQM control the output buffer. When LDQM or UDQM is LOW,the corresponding buffer byte is enabled, and when HIGH, disabled. The outputs goto the HIGH impedance state when LDQM/UDQM is HIGH. This functioncorresponds to OE in conventional DRAMs. In write mode, LDQM and UDQM controlthe input buffer. When LDQM or UDQM is LOW, the corresponding buffer byte isenabled, and data can be written to the device. When LDQM or UDQM is HIGH, inputdata is masked and cannot be written to the device.17RAS Input Pin RAS, in conjunction with CAS and WE, forms the device command. See the“Command Truth Table” item for details on device commands.15WE Input Pin WE, in conjunction with RAS and CAS, forms the device command. See the“Command Truth Table” item for details on device commands.7, 13, 38, 44VDDQ Power Supply Pin VDDQ is the output buffer power supply.1, 25VDD Power Supply Pin VDD is the device internal power supply.4, 10, 41, 47GNDQ Power Supply Pin GNDQ is the output buffer ground.26, 50GND Power Supply Pin GND is the device internal ground.2Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00AIS42VS16100C1ISSI®FUNCTIONAL BLOCK DIAGRAMIS42VS16100C1ISSI®ABSOLUTE MAXIMUM RATINGS(1)Symbol Parameters Rating UnitV DD MAX Maximum Supply Voltage–0.5 to +2.6VV DDQ MAX Maximum Supply Voltage for Output Buffer–0.5 to +2.6VV IN Input Voltage–0.5 to +2.6VP D MAX Allowable Power Dissipation1WI CS Output Shorted Current50mAT OPR Operating Temperature Com0 to +70°CInd.-40 to +85°CT STG Storage Temperature–55 to +150°CDC RECOMMENDED OPERATING CONDITIONS(2)Commercial (T A = 0°C to +70°C), Industrial (T A = -40°C to +85°C)Symbol Parameter Min.Typ.Max.UnitV DD, V DDQ Supply Voltage 1.7 1.8 1.9VV IH Input High Voltage(3)0.8 x V DDQ—V DDQ + 0.3VV IL Input Low Voltage(4)-0.3—+0.3VCAPACITANCE CHARACTERISTICS(1,2)(V DD = 1.8V, T A = +25°C, f = 1 MHz)Symbol Parameter Min.Max.UnitC IN1Input Capacitance: CLK 2.5 4.0pFC IN2Input Capacitance: (A0-A11, CKE, CS, RAS, CAS, WE, LDQM, UDQM) 2.5 5.0pFCI/O Data Input/Output Capacitance: DQ0-DQ15 4.0 6.5pF Notes:1. Stress greater than those listed under ABSOLUTE MAXIMUM RATINGS may cause permanent damage to the device. Thisis a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect reliability.2. All voltages are referenced to Vss.3. V IH (max) = 2.2V with a pulse width ≤ 3 ns.4. V IL (min) = -1.0V with a pulse width ≤ 3 ns.4Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00AIS42VS16100C1ISSI®DC ELECTRICAL CHARACTERISTICS (Recommended Operation Conditions unless otherwise noted.) Continued on next page.Symbol Parameter Test Condition Min.Max.Unit I IL Input Leakage Current0V ≤ V IN≤ V DD, with pins other than–1.0 1.0µAthe tested pin at 0VI OL Output Leakage Current Output is disabled, 0V ≤ V OUT≤ V DD–1.5 1.5µAV OH Output High Voltage Level(1)I OH = –0.1 mA0.9 x V DDQ—VV OL Output Low Voltage Level(1)I OL = 0.1 mA—0.2VIS42VS16100C1ISSI®DC ELECTRICAL CHARACTERISTICS (Recommended Operation Conditions unless otherwise noted.)Symbol Parameter Test Condition Min.Max.UnitI CC1Operating Current(1,2)One Bank Operation,CAS Latency = 3—35mABurst Length=1t RC≥ t RC (min.)CAS Latency = 2—40I OUT = 0mAI CC2P Precharge Standby Current CKE ≤ V IL (MAX)t CK = 10 ns—0.3mA(In Power-Down Mode)I CC2PS Precharge Standby Current CKE ≤ V IL (MAX)t CK = ∞—0.3mA(In Power-Down Mode)CLK ≤ V IL (MAX)I CC2N Active Standby Current(3)CKE ≥ V IH (MIN)t CK = 10 ns—6mA(In Non Power-Down Mode)CS≥ V IH (MIN),I CC2NS Active Standby Current CKE ≥ V IH (MIN)t CK = ∞—2mA(In Non Power-Down Mode)Inputs are stableI CC3P Active Standby Current CKE ≤ V IL (MAX)t CK = 10 ns—6mA(In Non Power-Down Mode)I CC3PS Active Standby Current CKE ≤ V IL (MAX)t CK = ∞—5mA(In Non Power-Down Mode)CLK ≤ V IL (MAX)I CC3N Active Standby Current(3)CKE ≥ V IH (MIN)t CK = 10 ns—12mA(In Non Power-Down Mode)CS≥ V IH (MIN)I CC3NS Active Standby Current CKE ≥ V IH (MIN)t CK = ∞—10mA(In Non Power-Down Mode)CLK ≤ V IL (MAX)Inputs are stableI CC4Operating Current t CK = t CK (MIN)CAS latency = 2, 3—50mA(In Burst Mode)(1,3)I OUT = 0mAPage Burst4 Banks activatedI CC5Auto-Refresh Current t RC = t RC (MIN)CAS latency = 2, 3—40mAI CC6Self-Refresh Current CKE ≤ 0.2V—170µA Notes:1. These are the values at the minimum cycle time. Since the currents are transient, these values decrease as the cycle timeincreases. Also note that a bypass capacitor of at least 0.01 µF should be inserted between V DD and Vss for each memory chip to suppress power supply voltage noise (voltage drops) due to these transient currents.2. Icc1 and Icc4 depend on the output load. The maximum values for Icc1 and Icc4 are obtained with the output open state.3. Inputs changed once every two clocks.6Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00AIS42VS16100C1ISSI®AC CHARACTERISTICS(1,2,3)-10Symbol Parameter Min.Max.Unitst CK3Clock Cycle Time CAS Latency = 310—nst CK2CAS Latency = 212—nst AC3Access Time From CLK(4)CAS Latency = 3—7nst AC2CAS Latency = 2—8nst CHI CLK HIGH Level Width3—nst CL CLK LOW Level Width3—nst OH3Output Data Hold Time CAS Latency = 32—nst OH2CAS Latency = 22—nst LZ Output LOW Impedance Time0—nst HZ3Output HIGH Impedance Time(5)CAS Latency = 3—7nst HZ2CAS Latency = 2—8nst DS Input Data Setup Time2—nst DH Input Data Hold Time1—nst AS Address Setup Time2—nst AH Address Hold Time1—nst CKS CKE Setup Time 2.5—nst CKH CKE Hold Time1—nst CKA CKE to CLK Recovery Delay Time1CLK+3—nst CS Command Setup Time (CS, RAS, CAS, WE, DQM)2—nst CH Command Hold Time (CS, RAS, CAS, WE, DQM)1—nst RC Command Period (REF to REF / ACT to ACT)94—nst RAS Command Period (ACT to PRE)50100,000nst RP Command Period (PRE to ACT)24—nst RCD Active Command To Read / Write Command Delay Time24—nst RRD Command Period (ACT [0] to ACT[1])18—nst DPL3Input Data To Precharge CAS Latency = 32CLK—ns Command Delay timet DPL2CAS Latency = 22CLK—nst DAL3Input Data To Active / Refresh CAS Latency = 32CLK+t RP—ns Command Delay time (During Auto-Precharge)t DAL2CAS Latency = 22CLK+t RP—nst T Transition Time0.55nst REF Refresh Cycle Time (2048)—32msNotes:1. Thepower-on sequence must be executed before starting memory operation.2. Measured with t T = 0.5 ns.3. The reference level is 0.9V when measuring input signal timing. Rise and fall times are measured between V IH (min.) and V IL (max.).4. Access time is measured at 0.9V with the load shown in the figure below.5. The time t HZ (max.) is defined as the time required for the output voltage to become high impedance.IS42VS16100C1ISSI®8Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00AOPERATING FREQUENCY / LATENCY RELATIONSHIPSSYMBOL PARAMETER -10-10UNITS —Clock Cycle Time1012ns —Operating Frequency (CAS Latency = 3)10083MHz t CAC CAS Latency32/3cycle t RCD Active Command To Read/Write Command Delay Time 32cycle t RAC RAS Latency (t RCD + t CAC )64cycle t RC Command Period (REF to REF / ACT to ACT)108cycle t RAS Command Period (ACT to PRE)55cycle t RP Command Period (PRE to ACT)32cycle t RRD Command Period (ACT[0] to ACT [1])22cycle t CCD Column Command Delay Time 11cycle (READ, READA, WRIT, WRITA)t DPL Input Data To Precharge Command Delay Time 22cycle t DAL Input Data To Active/Refresh Command Delay Time 54cycle (During Auto-Precharge)t RBD Burst Stop Command To Output in HIGH-Z Delay Time CAS Latency = 333cycle (Read)CAS Latency = 2—2t WBD Burst Stop Command To Input in Invalid Delay Time 00cycle (Write)t RQL Precharge Command To Output in HIGH-Z Delay Time CAS Latency = 333cycle (Read)CAS Latency = 2—2t WDL Precharge Command To Input in Invalid Delay Time 00cycle (Write)t PQL Last Output To Auto-Precharge Start Time (Read)CAS Latency = 3-2-2cycle CAS Latency = 2—-1t QMD DQM To Output Delay Time (Read)22cycle t DMD DQM To Input Delay Time (Write)00cycle t MRDMode Register Set To Command Delay Time22cycleAC TEST CONDITIONS (Input/Output Reference Level: 0.9V)IS42VS16100C1ISSI®COMMANDSNotes:1. A8-A9 = Don’t Care.IS42VS16100C1ISSI®COMMANDS (cont.)10Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00ACOMMANDS (cont.)Integrated Silicon Solution, Inc. — — 1-800-379-477411 Rev.00A04/15/0512Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00A 04/15/05Mode Register Set Command(CS , RAS , CAS , WE = LOW)The IS42VS16100C1 product incorporates a register that defines the device operating mode. This command functions as a data input pin that loads this register from the pins A0 to A11. When power is first applied, the stipulated power-on sequence should be executed and then the IS42VS16100C1 should be initialized by executing a mode register set command.Note that the mode register set command can be executed only when both banks are in the idle state (i.e. deactivated).Another command cannot be executed after a mode register set command until after the passage of the period t MCD , which is the period required for mode register set command execution.Active Command(CS , RAS = LOW, CAS , WE = HIGH)The IS42VS16100C1 includes two banks of 2048 rows each. This command selects one of the two banks according to the A11 pin and activates the row selected by the pins A0 to A10.This command corresponds to the fall of the RAS signal from HIGH to LOW in conventional DRAMs.Precharge Command(CS , RAS , WE = LOW, CAS = HIGH)This command starts precharging the bank selected by pins A10 and A11. When A10 is HIGH, both banks are precharged at the same time. When A10 is LOW, the bank selected by A11 is precharged. After executing this command, the next command for the selected bank(s) is executed after passage of the period t RP , which is the period required for bank precharging.This command corresponds to the RAS signal from LOW to HIGH in conventional DRAMsRead Command(CS , CAS = LOW, RAS , WE = HIGH)This command selects the bank specified by the A11 pin and starts a burst read operation at the start address specified by pins A0 to A9. Data is output following CAS latency.The selected bank must be activated before executing this command.When the A10 pin is HIGH, this command functions as a read with auto-precharge command. After the burst read completes, the bank selected by pin A11 is precharged.When the A10 pin is LOW, the bank selected by the A11 pin remains in the activated state after the burst read completes.Write Command(CS , CAS , WE = LOW, RAS = HIGH)When burst write mode has been selected with the mode register set command, this command selects the bank specified by the A11 pin and starts a burst write operation at the start address specified by pins A0 to A9. This first data must be input to the DQ pins in the cycle in which this command.The selected bank must be activated before executing this command.When A10 pin is HIGH, this command functions as a write with auto-precharge command. After the burst write completes, the bank selected by pin A11 is precharged.When the A10 pin is low, the bank selected by the A11 pin remains in the activated state after the burst write completes.After the input of the last burst write data, the application must wait for the write recovery period (t DPL , t DAL ) to elapse according to CAS latency.Auto-Refresh Command(CS , RAS , CAS = LOW, WE , CKE = HIGH)This command executes the auto-refresh operation. The row address and bank to be refreshed are automatically generated during this operation.Both banks must be placed in the idle state before executing this command.The stipulated period (t RC ) is required for a single refresh operation, and no other commands can be executed during this period.The device goes to the idle state after the internal refresh operation completes.This command must be executed at least 2048 times every 32 ms.This command corresponds to CBR auto-refresh in conventional DRAMs.Integrated Silicon Solution, Inc. — — 1-800-379-477413Rev.00A 04/15/05Self-Refresh Command(CS , RAS , CAS , CKE = LOW, WE = HIGH)This command executes the self-refresh operation. The row address to be refreshed, the bank, and the refresh interval are generated automatically internally during this operation. The self-refresh operation is started by dropping the CKE pin from HIGH to LOW. The self-refresh operation continues as long as the CKE pin remains LOW and there is no need for external control of any other pins. The self-refresh operation is terminated by raising the CKE pin from LOW to HIGH. The next command cannot be executed until the device internal recovery period (t RC ) has elapsed.After the self-refresh, since it is impossible to determine the address of the last row to be refreshed, an auto-refresh should immediately be performed for all addresses (2048cycles).Both banks must be placed in the idle state before executing this command.Burst Stop Command(CS , WE , = LOW, RAS , CAS = HIGH)The command forcibly terminates burst read and write operations. When this command is executed during a burst read operation, data output stops after the CAS latency period has elapsed.No Operation(CS , = LOW, RAS , CAS , WE = HIGH)This command has no effect on the device.Device Deselect Command(CS = HIGH)This command does not select the device for an object of operation. In other words, it performs no operation with respect to the device.Power-Down Command(CKE = LOW, CS = HIGH)When both banks are in the idle (inactive) state, or when at least one of the banks is not in the idle (inactive) state,this command can be used to suppress device power dissipation by reducing device internal operations to the minimal level in order to retain data content. Power-down mode is started by dropping the CKE pin from HIGH to LOW, while satisfying the other command input conditions (see CKE Truth Table). Power-down mode continues as long as the CKE pin is held low. All pins other than the CKE pin are invalid and none of the other commands can be executed in this mode. The power-down operation is terminated by raising the CKE pin from LOW to HIGH. The next command cannot be executed until the recovery period (t CKA ) has elapsed.Since this command differs from the self-refresh command described above in that the refresh operation is not performed automatically internally, the refresh operation must be performed within the refresh period (t REF ). Thus the maximum time that power-down mode can be held is just under the refresh cycle time.Clock Suspend(CKE = LOW)This command can be used to stop the device internal clock temporarily during a read or write cycle. Clock suspend mode is started by dropping the CKE pin from HIGH to LOW. Clock suspend mode continues as long as the CKE pin is held LOW. All input pins other than the CKE pin are invalid and none of the other commands can be executed in this mode. Also note that the device internal state is maintained. Clock suspend mode is terminated by raising the CKE pin from LOW to HIGH, at which point device operation restarts. The next command cannot be executed until the recovery period (t CKA ) has elapsed.Since this command differs from the self-refresh command described above in that the refresh operation is not performed automatically internally, the refresh operation must be performed within the refresh period (t REF ). Thus the maximum time that clock suspend mode can be held is just under the refresh cycle time.COMMAND TRUTH TABLE(1,2)CKESymbol Command n-1n CS RAS CAS WE DQM A11A10A9-A0DQn MRS Mode Register Set(3,4)H X L L L L X OP CODE X REF Auto-Refresh(5)H H L L L H X X X X HIGH-Z SREF Self-Refresh(5,6)H L L L L H X X X X HIGH-Z PRE Precharge Selected Bank H X L L H L X BS L X X PALL Precharge Both Banks H X L L H L X X H X X ACT Bank Activate(7)H X L L H H X BS Row Row X WRIT Write H X L H L L X BS L Column(18)X WRITA Write With Auto-Precharge(8)H X L H L L X BS H Column(18)X READ Read(8)H X L H L H X BS L Column(18)X READA Read With Auto-Precharge(8)H X L H L H X BS H Column(18)X BST Burst Stop(9)H X L H H L X X X X X NOP No Operation H X L H H H X X X X X DESL Device Deselect H X H X X X X X X X X SBY Clock Suspend / Standby Mode L X X X X X X X X X X ENB Data Write / Output Enable H X X X X X L X X X Active MASK Data Mask / Output Disable H X X X X X H X X X HIGH-ZDQM TRUTH TABLE(1,2)CKE DQMSymbol Command n-1n UPPER LOWERENB Data Write / Output Enable H X L LMASK Data Mask / Output Disable H X H HENBU Upper Byte Data Write / Output Enable H X L XENBL Lower Byte Data Write / Output Enable H X X LMASKU Upper Byte Data Mask / Output Disable H X H XMASKL Lower Byte Data Mask / Output Disable H X X HCKE TRUTH TABLE(1,2)CKESymbol Command Current State n-1n CS RAS CAS WE A11A10A9-A0 SPND Start Clock Suspend Mode Active H L X X X X X X X —Clock Suspend Other States L L X X X X X X X —Terminate Clock Suspend Mode Clock Suspend L H X X X X X X X REF Auto-Refresh Idle H H L L L H X X X SELF Start Self-Refresh Mode Idle H L L L L H X X X SELFX Terminate Self-Refresh Mode Self-Refresh L H L H H H X X XL H H X X X X X X PDWN Start Power-Down Mode Idle H L L H H H X X XH L H X X X X X X—Terminate Power-Down Mode Power-Down L H X X X X X X X14Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00A04/15/05OPERATION COMMAND TABLE(1,2)Current State Command Operation CS RAS CAS WE A11A10A9-A0 Idl e DESL No Operation or Power-Down(12)H X X X X X X NOP No Operation or Power-Down(12)L H H H X X XBST No Operation or Power-Down L H H L X X XREAD / READA Illegal L H L H V V V(18)WRIT/WRITA Illegal L H L L V V V(18)ACT Row Active L L H H V V V(18)PRE/PALL No Operation L L H L V V XREF/SELF Auto-Refresh or Self-Refresh(13)L L L H X X XMRS Mode Register Set L L L L OP CODE Row Active DESL No Operation H X X X X X X NOP No Operation L H H H X X XBST No Operation L H H L X X XREAD/READA Read Start(17)L H L H V V V(18)WRIT/WRITA Write Start(17)L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL Precharge(15)L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Read DESL Burst Read Continues, Row Active When Done H X X X X X X NOP Burst Read Continues, Row Active When Done L H H H X X XBST Burst Interrupted, Row Active After Interrupt L H H L X X XREAD/READA Burst Interrupted, Read Restart After Interrupt(16)L H L H V V V(18)WRIT/WRITA Burst Interrupted Write Start After Interrupt(11,16)L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL Burst Read Interrupted, Precharge After Interrupt L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Write DESL Burst Write Continues, Write Recovery When Done H X X X X X X NOP Burst Write Continues, Write Recovery When Done L H H H X X XBST Burst Write Interrupted, Row Active After Interrupt L H H L X X XREAD/READA Burst Write Interrupted, Read Start After Interrupt(11,16)L H L H V V V(18)WRIT/WRITA Burst Write Interrupted, Write Restart After Interrupt(16)L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL Burst Write Interrupted, Precharge After Interrupt L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Read With DESL Burst Read Continues, Precharge When Done H X X X X X X Auto-NOP Burst Read Continues, Precharge When Done L H H H X X X Precharge BST Illegal L H H L X X X READ/READA Illegal L H L H V V V(18)WRIT/WRITA Illegal L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL Illegal(10)L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Integrated Silicon Solution, Inc. — — 1-800-379-477415 Rev.00A04/15/05OPERATION COMMAND TABLE(1,2)Current State Command Operation CS RAS CAS WE A11A10A9-A0 Write With DESL Burst Write Continues, Write Recovery And Precharge H X X X X X X Auto-Precharge When DoneNOP Burst Write Continues, Write Recovery And Precharge L H H H X X XBST Illegal L H H L X X XREAD/READA Illegal L H L H V V V(18)WRIT/WRITA Illegal L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL Illegal(10)L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OPCODE Row Precharge DESL No Operation, Idle State After t RP Has Elapsed H X X X X X X NOP No Operation, Idle State After t RP Has Elapsed L H H H X X XBST No Operation, Idle State After t RP Has Elapsed L H H L X X XREAD/READA Illegal(10)L H L H V V V(18)WRIT/WRITA Illegal(10)L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL No Operation, Idle State After t RP Has Elapsed(10)L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Immediately DESL No Operation, Row Active After t RCD Has Elapsed H X X X X X X Following NOP No Operation, Row Active After t RCD Has Elapsed L H H H X X X Row Active BST No Operation, Row Active After t RCD Has Elapsed L H H L X X X READ/READA Illegal(10)L H L H V V V(18)WRIT/WRITA Illegal(10)L H L L V V V(18)ACT Illegal(10,14)L L H H V V V(18)PRE/PALL Illegal(10)L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Write DESL No Operation, Row Active After t DPL Has Elapsed H X X X X X X Recovery NOP No Operation, Row Active After t DPL Has Elapsed L H H H X X X BST No Operation, Row Active After t DPL Has Elapsed L H H L X X XREAD/READA Read Start L H L H V V V(18)WRIT/WRITA Write Restart L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL Illegal(10)L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE16Integrated Silicon Solution, Inc. — — 1-800-379-4774Rev.00A04/15/05OPERATION COMMAND TABLE(1,2)Current State Command Operation CS RAS CAS WE A11A10A9-A0 Write Recovery DESL No Operation, Idle State After t DAL Has Elapsed H X X X X X XWith Auto-NOP No Operation, Idle State After t DAL Has Elapsed L H H H X X XPrecharge BST No Operation, Idle State After t DAL Has Elapsed L H H L X X X READ/READA Illegal(10)L H L H V V V(18)WRIT/WRITA Illegal(10)L H L L V V V(18)ACT Illegal(10)L L H H V V V(18)PRE/PALL Illegal(10)L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Refresh DESL No Operation, Idle State After t RP Has Elapsed H X X X X X X NOP No Operation, Idle State After t RP Has Elapsed L H H H X X XBST No Operation, Idle State After t RP Has Elapsed L H H L X X XREAD/READA Illegal L H L H V V V(18)WRIT/WRITA Illegal L H L L V V V(18)ACT Illegal L L H H V V V(18)PRE/PALL Illegal L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Mode Register DESL No Operation, Idle State After t MCD Has Elapsed H X X X X X X Set NOP No Operation, Idle State After t MCD Has Elapsed L H H H X X X BST No Operation, Idle State After t MCD Has Elapsed L H H L X X XREAD/READA Illegal L H L H V V V(18)WRIT/WRITA Illegal L H L L V V V(18)ACT Illegal L L H H V V V(18)PRE/PALL Illegal L L H L V V XREF/SELF Illegal L L L H X X XMRS Illegal L L L L OP CODE Notes:1. H: HIGH level input, L: LOW level input, X: HIGH or LOW level input, V: Valid data input2. All input signals are latched on the rising edge of the CLK signal.3. Both banks must be placed in the inactive (idle) state in advance.4. The state of the A0 to A11 pins is loaded into the mode register as an OP code.5. The row address is generated automatically internally at this time. The DQ pin and the address pin data is ignored.6. During a self-refresh operation, all pin data (states) other than CKE is ignored.7. The selected bank must be placed in the inactive (idle) state in advance.8. The selected bank must be placed in the active state in advance.9. This command is valid only when the burst length set to full page.10. This is possible depending on the state of the bank selected by the A11 pin.11. Time to switch internal busses is required.12. The IS42VS16100C1 can be switched to power-down mode by dropping the CKE pin LOW when both banks in the idlestate. Input pins other than CKE are ignored at this time.13. The IS42VS16100C1 can be switched to self-refresh mode by dropping the CKE pin LOW when both banks in the idlestate. Input pins other than CKE are ignored at this time.14. Possible if t RRD is satisfied.15. Illegal if t RAS is not satisfied.16. The conditions for burst interruption must be observed. Also note that the IS42VS16100C1 will enter the precharged stateimmediately after the burst operation completes if auto-precharge is selected.17. Command input becomes possible after the period t RCD has elapsed. Also note that the IS42VS16100C1 will enter theprecharged state immediately after the burst operation completes if auto-precharge is selected.18. A8,A9 = don’t care.Integrated Silicon Solution, Inc. — — 1-800-379-477417 Rev.00A04/15/05。

浪潮i24M6 NS5160M6 产品技术白皮书说明书

浪潮i24M6 NS5160M6 产品技术白皮书说明书

i24M6/NS5160M6产品技术白皮书文档版本V1.0发布日期2021-04-20尊敬的用户:版权所有© 2020-2021浪潮电子信息产业股份有限公司。

保留一切权利。

未经事先书面同意,本文档的任何部分不得复制或以任何形式或任何方式修改、外传。

注:您购买的产品、服务或特性等应受浪潮集团商业合同和条款的约束。

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由于产品版本升级或其他原因,本文档内容会不定期进行更新。

除非另有约定,本文档仅作为使用指导,本文档中的所有陈述、信息和建议不构成任何明示或暗示的担保。

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Windows是微软公司的注册商标。

Intel、Xeon是Intel公司的注册商标。

本手册中提及的其他所有商标或注册商标,由各自的所有人拥有。

技术支持技术服务电话:4008600011地址:中国济南市浪潮路1036号浪潮电子信息产业股份有限公司邮编:250101i浪潮专有和保密信息版权所有© 浪潮电子信息产业股份有限公司版本控制版本时间拟制/修订人审核人批准人变更内容V1.0 2021-4-20 首版发布V1.1 2021-12-02 修正内存插法ii目录1产品概述 (1)2产品特点 (2)3新技术点描述 (5)3.1英特尔®可扩展架构 (5)3.2英特尔® VROC 技术 (5)3.3OCP 3.0模块 (5)3.4英特尔®傲腾™持久内存200系列 (5)3.5动态Power Capping系统保护 (5)3.6支持NUMA Balance系统架构配置 (6)4逻辑架构图 (7)5产品介绍 (9)5.1前面板 (9)5.1.112 x 3.5”机型前面板正视图 (9)5.1.224 x 2.5”机型前面板正视图 (11)5.1.3 2.5”/3.5”硬盘托架指示灯 (11)5.2后面板 (12)5.3内部俯视图 (14)5.4OCP3.0模块 (14)5.5主板图布局 (15)6系统规格 (16)7兼容性列表 (19)7.1处理器 (19)7.2内存 (19)7.3存储 (22)7.3.1SATA/SAS硬盘型号 (22)7.3.2SSD硬盘型号 (23)7.3.3U.2 NVMe SSD硬盘 (23)7.3.4TF卡 (23)7.4硬盘背板 (23)7.5硬盘安装位置 (24)7.5.1SAS/SATA硬盘安装顺序 (24)7.5.2NVMe硬盘安装位置 (25)7.6RAID/SAS 卡 (26)7.7网卡 (27)7.8FC HBA 卡 (28)7.9HCA 卡 (28)7.10电源 (28)7.11操作系统 (29)8配置注意事项 (30)9系统管理 (31)9.1智能管理系统ISBMC (31)9.2浪潮物理基础设施管理平台(ISPIM) (34)9.3Inspur Server Intelligent Boot (ISIB) (35)10认证 (37)11支持与服务 (38)12相关文档 (39)13商标 (40)1 产品概述浪潮英信服务器i24M6/NS5160M6,是基于英特尔® Whitley平台至强®第三代可扩展处理器设计的一款2U4N机架服务器。

99-16105-I001 - Installation Manual

99-16105-I001 - Installation Manual

101B, 210X, 401W, ELM, VSTC101N,21ZN,401N,101T,VSCN, I60NInstallation Manual101B,101N,210X,21ZN,ELM,101T,VSTC,VSCN,I60N, Installation ManualCopyright © 2010 byALL rights reserved. Information in this document is subject to change without notice. Companies, names and data used in examples herein are fictitious unless otherwise noted. No part of this document may be reproduced or transmitted in any form or by any means, electronic or mechanical, for any purpose, without express permission of Anthony Manufacturing Co., Inc.Anthony products identified in this manual are designed and certified to meet orfor safety, andfor sanitationstandards.European products meet requirements.Each customer is responsible for final site approval.101B,101N,210X,21ZN,ELM,101T,VSTC,VSCN,I60N, Installation ManualTABLE OF CONTENTS1. PRELIMINARY CONSIDERATIONS FOR DOOR AND FRAME SERVICING PROCEDURES (4)1.1. Safety (4)1.2. Tools ...........................................................................................................................................................4 1.3. Tips .............................................................................................................................................................4 2. FRAME INSTALLATION AND SERVICE MAINTENANCE . (5)2.1. Shimming (5)2.2. To Install the Frame ....................................................................................................................................6 2.3. Sealing the Frame .. (7)2.4. Frame Electrical Wiring Connections .........................................................................................................7 3. DOOR INSTALLATION (8)3.1. To Install the Door Assembly......................................................................................................................8 3.2. To Remove the Door Assembly (9)3.3. To Reverse the Door Swing (11)3.3.1. Frame (11)3.3.2. Door (12)4. TORQUEMASTER™ AND SAG ADJUSTMENT (13)5. REVISION HISTORY PAGE (14)1.PRELIMINARY CONSIDERATIONS FOR DOOR AND FRAME SERVICING PROCEDURES1.1. SafetyProper safety equipment includes:NOTE: Turn off all electrical power prior to beginning work on the door or on anyelectrical equipment. Use extra caution when working with or around the door glass package.NOTE: Do Not use power tools for the following procedures.1.2. ToolsTools required for this procedure include: • #2 Phillips-head screwdriver Flat-head screwdriver • Needle-nose pliers Rubber or plastic mallet • 7/16” and 1/2” Hand Wrench 5/32” Hex Key • Wire stripper and cutter Soldering iron • Heat Gun Razor Knife1.3. Tips• Complete replacement of wire assemblies is recommended wheneverrequired. Splice wires only if necessary, using proper materials: such as electrical tape, wire nuts, flux core solder and heat shrink.• Apply liquid soap to rail plastic covers and gaskets upon installation to facilitate insertion into mounting grooves.• Keep doors and frames clean for product efficiency. This can also help reduce energy consumption and potential health hazards.• Whenever binding gasket or plastic parts, use food grade silicone.• Whenever replacing fluorescent lamps, always replace lamp covers as well. • Always use the correct tool for the job to be performed. This ensures properinstallation and minimizes safety risks.• If there is any doubt about the work to be performed, consult with a certifiedtechnician or Anthony representative.• Preventative maintenance is recommended to ensure product longevity.2. FRAME INSTALLATION AND SERVICE MAINTENANCE1. Read instructions completely before installing the frame.•Clearance between the frame sill and the case bottom or floor is mandated by local building codes.•Sill net opening must be a minimum of two inches in height•Sill must be completely level.2. Before installing the frame, confirm the size of the net opening accommodates thefinish frame. If the tolerances are too high, the net opening will have to be enlarged.3. Check size of finished frame to net opening.•Subtract the frame height measurement from the net opening’s heightmeasurement.•Subtract the frame width measurement from the net opening’s widthmeasurement.•Divide each number in half. This is the amount of gap that will occur between the frame and the net opening.4. If the gap between the frame and the net opening is greater than 1/16”, shim the gapfor a proper fit.2.1. Shimming1. Acquire sturdy, penetrable material, such as plywood. The thickness of thematerial should be wedge shaped or slightly less than the gap to be filled.2. Measure the gap length (height or width of frame) and cut the shim material to1/16” less than the measured length.3. Install the shim using the same type of mounting hardware that will be used toinstall the frame. Be certain that the shim installation hardware will not interferewith the frame installation hardware4. If necessary, cut a second shim to the same length and install it in the oppositeside of the net opening.101B,101N,210X,21ZN,ELM,101T,VSTC,VSCN,I60N, Installation Manual5. If the adjacent sides of the net opening need shimming, repeat the previous steps. Match the shim length to the frame sides of the net opening (less 1/16”)2.2. To Install the Frame1. Verify openings conform to net openings listed in price book or original order.2. Insert the finished frame assembly into the net opening. DO NOT force the frame if the fit is too tight.3. Insert a mounting screw into a mounting hole in each corner of the frame and tighten each screw until it is approximately a quarter inch from flush.4. Check the frame is aligned properly or square.• Use a 16-foot measuring tape to measure diagonally one corner to the opposite and note the distance.• Measure the distance between the remaining two corners.• Both measurements should be the same, within a 1/16” difference. 5. Confirm the frame and frame flanges are vertically aligned to the wall surface around the net opening.6. Place a level on the top flange of the header frame to check if it is horizontally aligned.7. If the top of the header frame sags or bows, correct as necessary.8. When the frame is aligned, tighten all mounting screws securely until each is flush to the frame surface.NOTE:DO NOT over-tighten the screws, as this can cause the frame to become out of square.9. Check entire frame to ensure installation is correct.101B,101N,210X,21ZN,ELM,101T,VSTC,VSCN,I60N, Installation Manual2.3. Sealing the FrameThe electrical connection at the Junction Box where the wires enter the frame, andwhere the wires enter the raceway in the frame must be sealed with silicone caulking at the time of installation.NOTE: Use caulk and food grade silicone sealant to seal the gap between the frameand the surrounding wall, inside case, cooler or freezer. Not following these procedures can void Anthony’s Service & Warranty on condensation and ice build-up issues.Frame Installation Reference2.4. Frame Electrical Wiring ConnectionsWire Diagram Connection LabelWiring Diagram101B,101N,210X,21ZN,ELM,101T,VSTC,VSCN,I60N, Installation ManualThe seven individual wires extending from the flexible conduit atop the frame,provide electrical power to various frame and door functions for the wiring diagram label, affixed to the frame header.Using wire connectors, these wires should be grouped by the Hot wires (Circuit wires), the Neutral wires and the ground wire for connection to either the facility or the case power.• Blue/White wire connects to the supplied Hot (or Lights Circuit Wire). • White/Blue wire connects to the supplied Light neutral wire.• Red and Black wires connect to the supplied Hot (or Door/Frame Heater Circuit Wire).• White/Red and White/Black wires connect to the supplied neutral wire for Door/Frame Circuit.• Green/Yellow wire connects to the supplied ground wire.NOTE: Wiring for lights should have a separate circuit from the door/frame heaterwiring circuit.3.DOOR INSTALLATION 3.1. To Install the Door Assembly1. Hold the door on each side, with the handle facing forward. Lift door, align torque rod to insert into TorqueMaster™ socket at base of frame.Insert Torque Rod2. Engage door with hinge pin inserted into Gib (hinge pin plug) receptacle at top of frame. Push door into frame until hinge pin snaps in place.Connect Hinge Pin3. Insert the hold-open bolt through the elongated hold-open slot.4. Insert the hold open through stand-off and secure it with a Phillips screw(provided).Tighten Hold-OpenScrew5. Set the door tension swing and correct the door alignment by adjusting theTorqueMaster™. (See TORQUEMASTER™ AND SAG ADJUSTMENt.NOTE: Exercise caution when handling the door.NOTE: DO NOT use power tools when adjusting the TorqueMaster™.NOTE: DO NOT over tighten hold-open bolt. Verify hold-open does not bind while sliding along the hold-open bolt. Adjust as necessar y.3.2. To Remove the Door Assembly1. Release tension on TorqueMaster™ with a flat-head screwdriver. Turn theTorqueMaster™ front facing screw clockwise, until the door does notautomatically close from an open position.Release TorqueMaster Tension2. Open door to access the hold open device, then loosen and remove hold-openusing a Phillips screwdriver.Remove Hold-Open Bolt3. Retract the door to a near-closed position.4. Remove hinge pin plug from frame by inserting top-half of needle-nose pliers intothe spring clip grip hole and the bottom half beneath the hinge pin shroud.Disengage Hinge Pin5. Compress pliers to clamp down on hinge pin spring clip, then simultaneously pullthe hinge pin away from the frame and pull the door top out.Withdraw Away From Hinge Gib6. Lift door out of TorqueMaster™. Secure or lean door on its side against a stablesurface.Withdraw From Frame3.3. To Reverse the Door SwingSome doors are reversible. Remove the door from the frame first and then performthe following steps.3.3.1. Frame1. To remove Torquemaster, insert flat-head screwdriver into top centercutout in Torquemaster, and turn mounting screw counter-clockwise forless than ½ turn. Lift Torquemaster off frame.Remove TorqueMaster2. Pry off (underneath) plug cap from mounting hole, on opposite side of thedoorframe with a flat-head screwdriver.Remove Plug Gap3. Set Torquemaster on opened mounting hole. Align the flanged corners ofthe mounting tabs with the SAG ADJUSTMENT screw facing the inside ofthe frame.Mount TorqueMaster4. Use the flat-head screwdriver and turn the Torquemaster mountingsetscrew clockwise for ½ turn, to tighten the mounting flange and lock it inplace.5. Relocate and install the hold-open stand-offs and spacer into the oppositehold-open mount of the same doorframe.3.3.2. Door Insert Stand-Off1. Access the hinge pin wire connections in the rail on the hinge side of thedoor assembly.2. Disconnect the Hot, Neutral, and Ground wires of the hinge pin.Hinge Pin Wire3. Loosen and remove the hinge pin assembly from the top door rail.4. Using a plastic mallet and a flat-head screwdriver, remove the torque rodfrom the bottom of the door assembly.Remove Torque Rod5. Reinstall the hinge pin and the torque rod into the opposite ends of thedoor assembly.6. Reconnect the hinge pin wires and confirm all connections.7. Check and confirm torque rod and hinge pin are correctly installed.8. Reinstall the door into the frame per the door installation procedures.4. TORQUEMASTER™ AND SAG ADJUSTMENTThe TorqueMaster™ regulates the door alignment and the door closing tension.Remove Torque Rod1. Use a flathead screwdriver to adjust the torque rod tension, by turning the outsidescrew on the TorqueMaster™.•Turn counter-clockwise to increase tension.•Turn clockwise to decrease the tension.2. Adjust the door sag to square the door in the frame by turning the screw that ismarked SAG ADJ. (sag adjustment), on the end of the TorqueMaster™, until the dooris aligned square in opening.•Turn counter-clockwise to raise handle side of door.•Turn clockwise to lower the handle side of door.5. REVISION HISTORY PAGEREV ORIGINATOR DESCRIPTION OF CHANGE EFFECTIVE DATEABC BGee November 2006D SWatstein 30 March 2010E SWatstein 27 May 2010F S. Fisher Reformat from Framemaker to Word 12/18/2012G S. Fisher Inserted ‘Sealing the Frame’ section 03/13/20147/29/2021H FJ Carbajal See ECN 17707 (Added next generation models,updated hold open installation)。

4406型壁挂管ountain产品说明书

4406型壁挂管ountain产品说明书
IMPORTANT! INSTALLER PLEASE NOTE.
THE GROUNDING OF ELECTRICAL EQUIPMENT SUCH AS TELEPHONE, COMPUTERS, ETC. TO WATER LINES IS A COMMON PROCEDURE. THIS GROUNDING MAY BE IN THE BUILDING OR MAY OCCUR AWAY FROM THE BUILDING. THIS GROUNDING CAN CAUSE ELECTRICAL FEEDBACK INTO A FOUNTAIN, CREATING AN ELECTROLYSIS WHICH CAUSES A METALLIC TASTE OR AN INCREASE IN THE METAL CONTENT OF THE WATER. THIS CONDITION IS AVOIDABLE BY USING THE PROPER MATERIALS AS INDICATED. ANY DRAIN FITTINGS PROVIDED BY THE INSTALLER SHOULD BE MADE OF PLASTIC TO ELECTRICALLY ISOLATE THE FOUNTAIN FROM THE BUILDING PLUMBING SYSTEM.
Байду номын сангаас
PAGE 3
5405°°
3/4" 19mm
(4) O
1/2" 13mm
HOLES
6 1/2" 165mm
516/8m" m
21 1/4" 540mm "A" "C"

1英寸VERIS艾伯特流量计安装与维护手册说明书

1英寸VERIS艾伯特流量计安装与维护手册说明书

1 英寸 VERIS 艾伯特®安装和维护手册161-CN 请阅读并保存以下说明1目录安全信息介绍产品信息 (3)第 1 节:适用范围本手册的目的 (3)第 2 节:收货检验 (3)收货检验艾伯特® (3)第 3 节:安全预防第 4 节:安装前的准备 ...................................................................3-4安装位置 (3)安装方向 (4)水平管道 (4)垂直管道 (4)第 5 节:安装步骤..........................................................................5-6准备管道 (5)艾伯特®安装 (6)第 6 节:探头和部件安装 ................................................................6-9探头和填料安装 (8)压板螺栓安装 (9)帮助 (9)第 7 节:RTD 安装RTD 组件安装(如有提供).......................................................................10-12第 8 节:维护 (13)更换填料 (13)有限保修和补救措施 (15)2设计、材料、重量及性能等级为近似值,如有变更,恕不另行通知。

有关最新信息,请访问armstrong 。

3设计、材料、重量及性能等级为近似值,如有变更,恕不另行通知。

有关最新信息,请访问 armstrong 。

第 1 节 适用范围以下说明是 1 英寸型艾伯特®流量计探头和主体的安装步骤。

这些安装步骤适用于所有流量测量的应用,包括液体、蒸汽和气体,并对在水平和垂直管道方向上安装探头提出了不同要求。

第 2 节 收货检验进行收货检验步骤时应执行以下任务:• 检查收到的物品并与产品装箱单进行核对。

Multisim里的NPN三极管参数资料大全

Multisim里的NPN三极管参数资料大全

提醒您:你可以按Ctrl+F来查找你想要的资料.如你想查找频率敏感的三极管,那么你可以搜索关键词:"MHz"晶体管型号:2N1711(S)生产厂家:德国AEG公司,DIT,德国椤茨标准电器公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:75V最大电流允许值:0.5A最大耗散率:0.8W放大倍数:未知放大倍数最大工作频率:>70MHZ引脚数: 3可代换的型号:BC140,BC141,BC300,BC301,2N1990,晶体管型号:2N2102(A.L.S)生产厂家:美国国民半导体公司,美国无线电公司,SEM,美国得克萨斯仪表公司,德国凡尔伏公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S)封装形式:直插封装极限工作电压:120V最大电流允许值:1A最大耗散率:1W放大倍数:未知放大倍数最大工作频率:>120MHZ引脚数: 3可代换的型号:BC300,BSS42,BSS43,BSV84,BSW67,BSX47,2N2243,2N2405,2N3019,2N3020,3DK03E,晶体管型号:2N2218(A)生产厂家:SEM,德国电子元件股份公司,美国得克萨斯仪表公司,美国晶体管有限公司,德国凡尔伏公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.8A最大耗散率:0.8W放大倍数:β>40最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC141,BC301,BFX96A,BSW51,BSW52,BSW53,BSW54,BSX45,BSX59,BSX60,BSX61,2N3444,3DK3 D,晶体管型号:2N2219生产厂家:德国AEG公司,DIT,美国、法国费兰第有限公司,美国通用电器公司,德国椤茨标准电器公司,美国摩托罗拉半导体公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.8A最大耗散率:0.8W放大倍数:β300最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC140,BC302,BFX97,BSW52,BSX45,3DK3D,晶体管型号:2N2219(A)生产厂家:SEM,德国电子元件股份公司,美国得克萨斯仪表公司,美国晶体管有限公司,德国凡尔伏公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.8A最大耗散率:0.8W放大倍数:β>100最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC141,BC301,BFX97A,BSW51,BSW52,BSW53,BSW54,BSX45,BSX59,BSX60,BSX61,2N3444,3DK3 D,晶体管型号:2221生产厂家:未知生产厂家制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.8A最大耗散率:0.625W放大倍数:β=40-120最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:2N2221,晶体管型号:2N2222生产厂家:德国AEG公司,DIT,美国、法国费兰第有限公司,美国通用电器公司,德国椤茨标准电器公司,美国摩托罗拉半导体公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.8A最大耗散率:0.5W放大倍数:β=300最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC546,BC639,BFX95,BSW62,BSW85,3DK3D,3DG2222,晶体管型号:2N2222A生产厂家:SEM,德国电子元件股份公司,美国得克萨斯仪表公司,美国晶体管有限公司,德国凡尔伏公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.8A最大耗散率:0.5W放大倍数:β>100最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC546,BC637,BFX95A,BSS40,BSS41,BSW61,BSW62,BSW63,BSW64,BSW85,2N4014,3DK3D,晶体管型号:2N2369(A)生产厂家:DIT,德国椤茨标准电器公司,美国摩托罗拉半导体公司,美国晶体管有限公司,德国凡尔伏公司制作材料:Si-NPN性质:高速开关(SS)封装形式:直插封装极限工作电压:40V最大电流允许值:0.2A最大耗散率:0.36W放大倍数:β>40最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BSS10,BSS11,BSS12,BSV59,BSX19,BSX20,BSX39,BSX87,BSX88,BSX92,BSX93,BSY62,BSY63,2N 3227,2N3261,2SC2901,3DG84B,晶体管型号:2N2712生产厂家:美国通用电器公司,SEM,美国史普拉各电气公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:18V最大电流允许值:0.1A最大耗散率:0.12W放大倍数:β>75最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC108,BC168,BC172,BC183,BC208,BC238,BC383,BC548,BC583,2N2220,2N2221,2N2222,3DG120 C,晶体管型号:2N1714生产厂家:SEM,美国得克萨斯仪表公司,美国晶体管有限公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:90V最大电流允许值:0.75A最大耗散率:0.8W放大倍数:β>20最大工作频率:>16MHZ引脚数: 3可代换的型号:BC141,BC301,BSS42,BSS43,BSX46,BSX47,2N5320,2N4239,3DK3D,晶体管型号:2N2923生产厂家:SEM,法国巴黎珊斯公司,美国通用电器公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.2W放大倍数:β>90最大工作频率:300MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,晶体管型号:2N2924生产厂家:SEM,法国巴黎珊斯公司,美国通用电器公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.2W放大倍数:β>150最大工作频率:300MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,晶体管型号:2N2925生产厂家:SEM,法国巴黎珊斯公司,美国通用电器公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.2W放大倍数:β>235最大工作频率:300MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,晶体管型号:2N3019(S)生产厂家:德国AEG公司,法国巴黎珊斯公司,德国电子元件股份公司,美国摩托罗拉半导体公司,美国晶体管有限公司,德国凡尔伏公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:140V最大电流允许值:1A最大耗散率:0.8W放大倍数:β>100最大工作频率:>100MHZ引脚数: 3可代换的型号:BSS43,BSW68,2SC1860,2N3440,2N3500,2N3501,2G072C,晶体管型号:2N3020(S)生产厂家:德国AEG公司,法国巴黎珊斯公司,德国电子元件股份公司,美国摩托罗拉半导体公司,美国晶体管有限公司,德国凡尔伏公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:140V最大电流允许值:1A最大耗散率:0.8W放大倍数:β>40最大工作频率:>100MHZ引脚数: 3可代换的型号:BSS43,BSW68,2SC1860,晶体管型号:2N3055(E,H,S,U,)生产厂家:德国AEG公司,德国椤茨标准电器公司,法国巴黎珊斯公司,德国电子元件股份公司,美国摩托罗拉半导体公司,德国凡尔伏公司,德国西门子AG公司,美国晶体管有限公司,美国无线电公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:100V最大电流允许值:15A最大耗散率:115W放大倍数:未知放大倍数最大工作频率:>2.5MHZ引脚数: 3可代换的型号:BD130,BD317,BD745C,BDW51C,BDX10,BDY20,BDY39,BDY73,2N5629,2N5630,2N5631,2N6254,3D D17D,晶体管型号:2N3390生产厂家:美国通用电器公司,法国巴黎珊斯公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>400最大工作频率:140MHZ引脚数: 3可代换的型号:BC108,BC168,BC172,BC183,BC208,BC238,BC383,BC548,BC583,2N2220,2N2221,2N2222,3DG121 C,晶体管型号:2N3391(A)生产厂家:美国通用电器公司,法国巴黎珊斯公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>250最大工作频率:160MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,晶体管型号:2N3392生产厂家:美国通用电器公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>150最大工作频率:120MHZ引脚数: 3可代换的型号:BC108,BC168,BC172,BC183,BC208,BC238,BC383,BC548,BC583,2N2220,2N2221,2N2222,3DG121 A,晶体管型号:2N3393生产厂家:美国通用电器公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>90最大工作频率:120MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,晶体管型号:2N3394生产厂家:美国通用电器公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>55最大工作频率:120MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,晶体管型号:2N3414生产厂家:美国通用电器公司,法国巴黎珊斯公司,美国国民半导体公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限__________工作电压:25V最大电流允许值:0.5A最大耗散率:0.36W放大倍数:β>75最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC338,BC378,BC738,BC838,2N220,2N221,2N2222,2N3402,3DK3A,晶体管型号:2N3415生产厂家:美国通用电器公司,法国巴黎珊斯公司,美国国民半导体公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.5A最大耗散率:0.36W放大倍数:β>75最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:2N3403,晶体管型号:2N3416生产厂家:美国通用电器公司,法国巴黎珊斯公司,美国国民半导体公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.5A最大耗散率:0.36W放大倍数:β>75最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC337,BC377,BC737,BC837,2N2220,2N2221,2N2222,2N3404,3DK3A,晶体管型号:2N3417生产厂家:美国通用电器公司,法国巴黎珊斯公司,美国国民半导体公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.5A最大耗散率:0.36W放大倍数:β>75最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:2N3405,晶体管型号:2N3439(L,S)生产厂家:德国AEG公司,美国无线电公司,美国得克萨斯仪表公司,德国电子元件股份公司,美国晶体管有限公司,德国凡尔伏公司制作材料:Si-NPN性质:开关管(S),视频输出(Vid)封装形式:直插封装极限工作电压:450V最大电流允许值:1A最大耗散率:1W放大倍数:未知放大倍数最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BSS49,BUX54,BUX55,BUX64,BUY59,BUY60,2N5095,3DK304B,晶体管型号:2N3441生产厂家:美国无线电公司,法国巴黎珊斯公司,德国西门子AG公司,SEM,美国硅晶体技术公司,美国晶体管有限公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:160V最大电流允许值:3A最大耗散率:25W放大倍数:未知放大倍数最大工作频率:>0.8MHZ引脚数: 2可代换的型号:BD193,BD241D,BD243D,BDX22,BDY72,BDY79,2SD386(A),2N3738,2N6264,3DD61E, 晶体管型号:2N3501(S)生产厂家:美国摩托罗拉半导体公司,美国国民半导体公司,美国晶体管有限公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:150V最大电流允许值:0.3A最大耗散率:1W放大倍数:β>100最大工作频率:>150MHZ引脚数: 3可代换的型号:BSS43,BSW68,2SC1860,晶体管型号:2N3700生产厂家:美国国民半导体公司,德国电子元件股份公司,德国凡尔伏公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:140V最大电流允许值:1A最大耗散率:0.5W放大倍数:β>100最大工作频率:200MHZ引脚数: 3可代换的型号:BSS43,BSS59,BSW68,2SC3228,2SC2383,2N2990,3DK204C,晶体管型号:2N3707生产厂家:美国国民半导体公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:低频或音频放大(LF),前置放大(V),低噪放大(ra)封装形式:直插封装极限工作电压:30V最大电流允许值:0.03A最大耗散率:0.36W放大倍数:未知放大倍数最大工作频率:80MHZ引脚数: 3可代换的型号:BC109,BC169,BC173,BC184,BC209,BC239,BC384,BC549,BC584,3DG110B,晶体管型号:2N3711生产厂家:美国国民半导体公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:低频或音频放大(LF)封装形式:直插封装极限工作电压:30V最大电流允许值:0.03A最大耗散率:0.36W放大倍数:β>180最大工作频率:80MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,晶体管型号:2N3858生产厂家:美国通用电器公司,SEM,美国史普拉各电气公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:30V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>60最大工作频率:125MHZ引脚数: 3可代换的型号:BC108,BC168,BC172,BC183,BC208,BC238,BC383,BC548,BC583,2N2220,2N2221,2N2222,3DG121 M.,晶体管型号:2N3859生产厂家:美国通用电器公司,SEM,美国史普拉各电气公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:30V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>100最大工作频率:140MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,BC108,BC172,BC208,BC383,BC583,2N2220,2N2221,2N2222,3DG121 M,晶体管型号:2N3860生产厂家:美国通用电器公司,SEM,美国史普拉各电气公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:30V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:β>150最大工作频率:170MHZ引脚数: 3可代换的型号:BC168,BC183,BC238,BC548,BC108,BC172,BC208,BC383,BC583,2N2220,2N2221,2N2222,3DG121 M,晶体管型号:2N3879生产厂家:美国无线电公司,美国硅晶体技术公司,美国晶体管有限公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:120V最大电流允许值:7A最大耗散率:35W放大倍数:未知放大倍数最大工作频率:>40MHZ引脚数: 2可代换的型号:BD193,BDX22,MJE15030,2N5202,2N6264,3DA27B,晶体管型号:2N3903生产厂家:美国摩托罗拉半导体公司,德国电子元件股份公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.2A最大耗散率:0.625W放大倍数:β>50最大工作频率:>250MHZ引脚数: 3可代换的型号:BC174,BC182,BC190,BC546,2N2220,2N2221,2N2222,3DK40B,晶体管型号:2N3904生产厂家:美国摩托罗拉半导体公司,德国电子元件股份公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.2A最大耗散率:0.625W放大倍数:β>100最大工作频率:>250MHZ引脚数: 3可代换的型号:BC174,BC182,BC190,BC546,晶体管型号:2N3947生产厂家:美国摩托罗拉半导体公司,美国国民半导体公司,SSI制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S)封装形式:直插封装极限工作电压:60V最大电流允许值:0.2A最大耗散率:0.36W放大倍数:β>100最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC182,BC546,BFX94,BSW61,BSW84,2N2221,2N2221(A),2N2222(A),3DG130B, 晶体管型号:2N4014生产厂家:美国摩托罗拉半导体公司,德国电子元件股份公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:开关管(S)封装形式:直插封装极限工作电压:80V最大电流允许值:1A最大耗散率:0.36W放大倍数:未知放大倍数最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:2N3737,3DG84C,晶体管型号:2N4123生产厂家:美国摩托罗拉半导体公司,德国电子元件股份公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S)封装形式:直插封装极限工作电压:40V最大电流允许值:0.2A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC107,BC171,BC183,BC207,BC237,BC382,BC547,BC582,BSW41,2N2220,2N2221,2N2222(A),2N22 22,2N2221(A),3DK40A,晶体管型号:2N4124生产厂家:美国摩托罗拉半导体公司,德国电子元件股份公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S)封装形式:直插封装极限工作电压:30V最大电流允许值:0.2A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC238,BC548,BSW41,2N2221(A),2N2222(A),晶体管型号:2N4264生产厂家:CSR,美国摩托罗拉半导体公司,美国半导体技术公司制作材料:Si-NPN性质:开关管(S)封装形式:直插封装极限工作电压:30V最大电流允许值:0.2A最大耗散率:0.625W放大倍数:β>40最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BSS10,BSS11,BSS12,BSV59,BSX19,BSX20,BSX39,BSX87,BSX88,BSX90,BSX91,BSX92,BSX93,B SY62,BSY63,2N914,2N2368(A),2N2369(A),3DK40A,晶体管型号:2N4265生产厂家:CSR,美国摩托罗拉半导体公司,美国半导体技术公司制作材料:Si-NPN性质:开关管(S)封装形式:直插封装极限工作电压:30V最大电流允许值:0.2A最大耗散率:0.625W放大倍数:β>100最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BSS10,BSS11,BSS12,BSV59,BSX19,BSX20,BSX39,BSX87,BSX88,BSX90,BSX91,BSX92,BSX93,B SY62,BSY63,2N914,2N2368(A),2N2369(A),3DK40A,晶体管型号:2N4286生产厂家:美国国民半导体公司,PIH制作材料:Si-NPN性质:低频或音频放大(LF)封装形式:直插封装极限工作电压:30V最大电流允许值:0.05A最大耗散率:0.25W放大倍数:未知放大倍数最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:3CG120c,晶体管型号:2N4400生产厂家:美国、法国费兰第有限公司,美国摩托罗拉半导体公司,美国史普拉各电气公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:60V最大电流允许值:0.6A最大耗散率:0.625W放大倍数:β>50最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC337A,BC487,BC537,BC637,BC639,2N2220,2N2221,2N2221(A),2N2222,2N2222(A),3DK4B,晶体管型号:2N4401生产厂家:美国、法国费兰第有限公司,美国摩托罗拉半导体公司,美国史普拉各电气公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极__________限工作电压:60V最大电流允许值:0.6A最大耗散率:0.625W放大倍数:β>100最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC337A,BC637,BC639,2N2221(A),2N2222(A),晶体管型号:2N4409生产厂家:美国摩托罗拉半导体公司,\NSC,美国得克萨斯仪表公司制作材料:Si-NPN性质:数码驱动(Nix)封装形式:直插封装极限工作电压:80V最大电流允许值:0.25A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:>60MHZ引脚数: 3可代换的型号:BF391,BF297,BF422,BFR22,BFR86,BSS38,BSV29,BSX21,MPSA43,2N5550,2SC1670,3DG182H, 晶体管型号:2N4410生产厂家:美国摩托罗拉半导体公司,\NSC,美国得克萨斯仪表公司制作材料:Si-NPN性质:数码驱动(Nix)封装形式:直插封装极限工作电压:120V最大电流允许值:0.25A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:>60MHZ引脚数: 3可代换的型号:BF391,BFR22,MPS-A43,2SC1670,晶体管型号:2N4424生产厂家:美国通用电器公司,法国巴黎珊斯公司,美国史普拉各电气公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S)封装形式:直插封装极限工作电压:60V最大电流允许值:0.5A最大耗散率:0.36W放大倍数:未知放大倍数最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC337A,BC487,BC537,BC637,BC640,2N2220,2N2221,2SD667,3DK40A,晶体管型号:2N4921生产厂家:美国摩托罗拉半导体公司,美国国民半导体公司,德国电子元件股份公司制作材料:Si-PNP性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:40V最大电流允许值:1A最大耗散率:30W放大倍数:未知放大倍数最大工作频率:>3MHZ引脚数: 3可代换的型号:BD135,BD165,BD175,BD185,BD233,BD437,3DD30A,晶体管型号:2N4922生产厂家:美国摩托罗拉半导体公司,美国国民半导体公司,德国电子元件股份公司制作材料:Si-PNP性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:60V最大电流允许值:1A最大耗散率:30W放大倍数:未知放大倍数最大工作频率:>3MHZ引脚数: 3可代换的型号:BD137,BD167,BD177,BD187,BD235,BD439,3DD30A,晶体管型号:2N4923生产厂家:美国摩托罗拉半导体公司,美国国民半导体公司,德国电子元件股份公司制作材料:Si-PNP性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:80V最大电流允许值:1A最大耗散率:30W放大倍数:未知放大倍数最大工作频率:>3MHZ引脚数: 3可代换的型号:BD139,BD169,BD179,BD189,BD237,BD441,3DD30A,晶体管型号:2N5038(-1)生产厂家:美国无线电公司,德国电子元件股份公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:开关管(S),功率放大(L)封装形式:直插封装极限工作电压:150V最大电流允许值:20A最大耗散率:140W放大倍数:未知放大倍数最大工作频率:>60MHZ引脚数: 2可代换的型号:BUV10,BUW57,BUX10,BUX40,晶体管型号:2N5039(-1)生产厂家:美国无线电公司,德国电子元件股份公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:开关管(S),功率放大(L)封装形式:直插封装极限工作电压:120V最大电流允许值:20A最大耗散率:140W放大倍数:未知放大倍数最大工作频率:>60MHZ引脚数: 2可代换的型号:BUV10,BUW57,BUX10,BUX40,晶体管型号:2N5058(S)生产厂家:美国摩托罗拉半导体公司,美国硅晶体技术公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:开关管(S),视频输出(Vid)封装形式:直插封装极限工作电压:300V最大电流允许值:0.15A最大耗散率:1W放大倍数:未知放大倍数最大工作频率:>30MHZ引脚数: 3可代换的型号:BF259,BF338,BF659,BFR59,BFS89,BFT49,3DG841,晶体管型号:2N5059(S)生产厂家:美国摩托罗拉半导体公司,美国硅晶体技术公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:开关管(S),视频输出(Vid)封装形式:直插封装极限工作电压:250V最大电流允许值:0.15A最大耗散率:1W放大倍数:未知放大倍数最大工作频率:>30MHZ引脚数: 3可代换的型号:BF258,BF259,BF337,BF658,BF659,BFS89,BFR58,BFT48,3DG841,晶体管型号:2N5088生产厂家:美国范恰得公司,美国摩托罗拉半导体公司,美国国民半导体公司制作材料:Si-NPN性质:低频或音频放大(LF),低噪放大(ra)封装形式:直插封装极限工作电压:35V最大电流允许值:0.05A最大耗散率:0.625W放大倍数:β>300最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC109,BC169,BC173,BC184,BC209,BC239,BC384,BC549,BC584,3DG120A, 晶体管型号:2N5089生产厂家:美国范恰得公司,美国摩托罗拉半导体公司,美国国民半导体公司制作材料:Si-NPN性质:低频或音频放大(LF),低噪放大(ra)封装形式:直插封装极限工作电压:30V最大电流允许值:0.05A最大耗散率:0.625W放大倍数:β>400最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC169,BC184,BC239,BC549,晶体管型号:2N5172生产厂家:美国通用电器公司,SEM,美国史普拉各电气公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:未知放大倍数最大工作频率:200MHZ引脚数: 3可代换的型号:BC108,BC168,BC172,BC183,BC208,BC238,BC383,BC548,BC583,2N2220,2N2221,2N2222,3DG120 A,晶体管型号:2N5191生产厂家:美国摩托罗拉半导体公司,美国国民半导体公司,德国电子元件股份公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:60V最大电流允许值:4A最大耗散率:40W放大倍数:未知放大倍数最大工作频率:>2MHZ引脚数: 3可代换的型号:BD189,BD199,BD295,BD441,BD789,MJE240,MJE241,MJE242,MJE243,MJE244,3DD64C,晶体管型号:2N5192生产厂家:美国摩托罗拉半导体公司,美国国民半导体公司,德国电子元件股份公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:80V最大电流允许值:4A最大耗散率:40W放大倍数:未知放大倍数最大工作频率:>2MHZ引脚数: 3可代换的型号:BD189,BD199,BD295,BD441,BD789,MJE240,MJE241,MJE242,MJE243,MJE244,3DD64C,晶体管型号:2N5209生产厂家:美国、法国费兰第有限公司,美国摩托罗拉半导体公司,美国国民半导体公司制作材料:Si-NPN性质:低频或音频放大(LF),低噪放大(ra)封装形式:直插封装极限工作电压:50V最大电流允许值:0.05A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:80MHZ引脚数: 3可代换的型号:BC184,BC384,BC413,BC414,BC550,2SC2240,3DG110C,晶体管型号:2N5210生产厂家:美国、法国费兰第有限公司,美国摩托罗拉半导体公司,美国国民半导体公司制作材料:Si-NPN性质:低频或音频放大(LF),低噪放大(ra)封装形式:直插封装极限工作电压:50V最大电流允许值:0.05A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:80MHZ引脚数: 3可代换的型号:BC184,BC413,BC414,BC550,2SC2240,晶体管型号:2N5223生产厂家:美国摩托罗拉半导体公司,美国史普拉各电气公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:通用型(Uni)封装形式:直插封装极限工作电压:25V最大电流允许值:0.1A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:>150MHZ引脚数: 3可代换的型号:BC108,BC168,BC172,BC183,BC208,BC238,BC383,BC548,BC583,2N2220,2N2221,2N2222,3DG120 A,晶体管型号:2N5224生产厂家:美国摩托罗拉半导体公司,美国史普拉各电气公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S)封装形式:直插封装极限工作电压:25V最大电流允许值:0.2A最大耗散率:0.625W放大倍数:未知放大倍数最大工作频率:<1MHZ或者未知工作频率引脚数: 3可代换的型号:BC108,BC172,BC183,BC208,BC238,BC383,BC548,BC583,BSS10,BSS11,BSS12,BSX19,BSX20,2N 2220,2N2221,2N2222,2N2368(A),2N2369(A),3DG120C,晶体管型号:2N5232(A)生产厂家:美国中央固体工业公司制作材料:Si-NPN性质:通用型(Uni),低噪放大(ra)封装形式:直插封装极限工作电压:70V最大电流允许值:0.1A最大耗散率:0.36W放大倍数:未知放大倍数最大工作频率:>250MHZ引脚数: 3可代换的型号:BC174,BC182,BC190,BC546,2N2220A,2N2221A,2N2222A,2SC1775(A),2SC2240,2SC2389,2SC2459 ,3DG121D,晶体管型号:2N5302生产厂家:美国摩托罗拉半导体公司,美国硅晶体技术公司,美国得克萨斯仪表公司制作材料:Si-NPN性质:低频或音频放大(LF),开关管(S),功率放大(L)封装形式:直插封装极限工作电压:60V最大电流允许值:30A最大耗散率:200W放大倍数:未知放大倍数最大工作频率:>2MHZ引脚数: 2可代换的型号:BDY29,MJ802,2SD797,晶体管型号:2N5303生产厂家:美国摩托罗拉半导体公司,美国硅晶体技术公司,美国得克萨斯仪表公司制作材料:Si-NPN。

OMEGA CNi16温度传感器控制器说明书

OMEGA CNi16温度传感器控制器说明书

The OMEGA ® CNi16 is the popular 1⁄16 DIN size (48 mm 2) controller. It is available with a single (model CNi16) or dual display (model CNi16D) that displays a setpoint along with the process value. The CNi16 display can be programmed to change color between GREEN, AMBER, and RED at any setpoint or alarm point. The CNi16 is the first 1⁄16 DIN controller with the option of both RS232 and RS485 in 1 instrument with straightforward OMEGA ® ASCII protocol. And of course the CNi16 is the first 1⁄16 DIN controller that can connect directly to an Ethernet network and features an embedded Web server. OMEGA ® provides free configuration and data acquisition software downloaded off of the Web.The CNi16 enclosure has a NEMA 4 (IP65) rated front bezel. The electronics are removable from the front panel. U U niversal InputsU H igh Accuracy: 0.5°C (±0.9°F), 0.03% ReadingU T otally Programmable Color Displays (Visual Alarms)U U ser-Friendly, Simple to ConfigureU F ree Software DownloadU Full Autotune PID ControlU E mbedded Ethernet Connectivity OptionalU R S232 and RS485 Serial Communications OptionalU B uilt-In ExcitationU 2 Control or Alarm Outputs Optional: DC Pulse, Solid State Relays, Mechanical Relays, Analog Voltage and CurrentU O utput 3: Isolated Analog Voltage and Current OptionalU NEMA 4 (IP65) Front BezelU T emperature Stability: ±0.04°C/°C RTD and ±0.05°C/°C Thermocouple @ 25°C (77°F)U F ront Removable and Plug ConnectorsU A C or DC Powered UnitsU R atiometric Mode for Strain GagesU P rogrammable Digital Filter1 ⁄16 DIN controller with embedded Web server, dual control outputs, dual display.Anywhere, On the Internet!1⁄16 DIN Temperature, Process andStrain PID ControllersCNi16D33 shown larger than actual size.CNi1633 shown larger than actual size.1controllers only.*2 “-DC”, “-C24”, and “-C4EIT” not available with excitation.*3A nalog output (option 5) is not available with “-AL” units orCNi16A models.*4 20 to 36 Vdc for CNi16D, CNi16D-C4EIT, CNi16D-EIT and CNi16A. *5“-SM” option not available on CNiS16 or CNi16A models.*6 Ethernet options are not available for CNi16A models.*7 For CNi16A0x-AL: one alarm and one analog retransmission.Ordering Examples: CNi1633, temperature/process controller, output 1 relay, output 2 relay single display, 90 to 240 Vac power. CNiS1643, strain/process controller, output 1 DC pulse, output 2 relay, single display, 90 to 240 Vac power.Universal Temperature and Process Input (DPi/CNi Models)Accuracy: ±0.5°C temp; 0.03% rdg Resolution: 1°/0.1°; 10 µV process Temperature Stability: RTD: 0.04°C/°C TC @ 25°C (77°F): 0.05°C/°C Cold Junction Compensation Process: 50 ppm/°C NMRR: 60 dB CMRR: 120 dB A/D Conversion: Dual slope Reading Rate: 3 samples/s Digital Filter: Programmable Display: 4-digit 9-segment LED 10.2 mm (0.40"); i32, i16, i16D, i8DV 21 mm (0.83"); i8 10.2 mm (0.40") and 21 mm (0.83"); i8DH RED , GREEN, and AMBER programmable colors for process variable, setpoint and temperature units Input Types: Thermocouple, RTD, analog voltage, analog current Thermocouple Lead Resistance: 100 Ω max Thermocouple Types (ITS 90): J, K, T, E, R, S, B, C, N, L (J DIN)RTD Input (ITS 68): 100/500/1000 Ω Pt sensor, 2-, 3- or 4-wire; 0.00385 or 0.00392 curve Voltage Input: 0 to 100 mV, 0 to 1V, 0 to 10 Vdc Input Impedance: 10 M Ω for 100 mV 1 M Ω for 1 or 10 Vdc Current Input: 0 to 20 mA (5 Ω load)Configuration: Single-ended Polarity: Unipolar Step Response: 0.7 sec for 99.9%Decimal Selection: Temperature: None, 0.1 Process: None, 0.1, 0.01 or 0.001Setpoint Adjustment: -1999 to 9999 counts Span Adjustment: 0.001 to 9999 counts Offset Adjustment: -1999 to 9999Excitation (Not Included with Communication): 24 Vdc @ 25 mA (not available for low-power option)Universal Strain and Process Input (DPiS/CNiS Models)Accuracy: 0.03% reading Resolution: 10/1µV Temperature Stability: 50 ppm/°C NMRR: 60 dB CMRR: 120 dB A/D Conversion: Dual slope Reading Rate: 3 samples/s Digital Filter: Programmable Input Types: Analog voltage and current Voltage Input: 0 to 100 mVdc, -100 mVdc to 1 Vdc, 0 to 10 Vdc Input Impedance: 10 M Ω for 100 mV;1 M Ω for 1V or 10 Vdc Current Input: 0 to 20 mA (5 Ω load)Linearization Points: Up to 10 Configuration: Single-ended Polarity: Unipolar Step Response: 0.7 sec for 99.9%Decimal Selection: None, 0.1, 0.01 or 0.001Setpoint Adjustment: -1999 to 9999 counts Span Adjustment: 0.001 to 9999 counts Offset Adjustment: -1999 to 9999Excitation (Optional In Place Of Communication): 5 Vdc @ 40 mA;10 Vdc @ 60 mA Control Action: Reverse (heat) or direct (cool)Modes: Time and amplitude proportional control; selectable manual or auto PID, proportional, proportional with integral, proportional with derivative and anti-reset Windup, and on/off Rate: 0 to 399.9 s Reset: 0 to 3999 s Cycle Time: 1 to 199 s; set to 0 for on/off Gain: 0.5 to 100% of span; setpoints 1 or 2Damping: 0000 to 0008Soak: 00.00 to 99.59 (HH:MM), or OFF Ramp to Setpoint: 00.00 to 99.59 (HH:MM), or OFF Auto Tune: Operator initiated from front panel Control Output 1 and 2Relay: 250 Vac or 30 Vdc @ 3 A (resistive load); configurable for on/off, PID and ramp and soak Output 1: SPDT, can be configured as alarm 1 output Output 2: SPDT, can be configured as alarm 2 output SSR: ******************.5A (resistive load); continuous DC Pulse: Non-isolated; 10 Vdc @ 20 mA Analog Output (Output 1 Only):Non-isolated, proportional 0 to 10 Vdc or 0 to 20 mA; 500 Ω max Output 3 Retransmission: Isolated Analog Voltage and Current Current: 10 V max @ 20 mA output Voltage: 20 mA max for 0 to 10 V output Network and Communications Ethernet: Standards compliance IEEE 802.3 10 Base-T Supported Protocols: TCP/IP, ARP, HTTPGET RS232/RS422/RS485: Selectable frommenu; both ASCII and MODBUS protocol selectable from menu; programmable 300 to 19.2 Kb; complete programmable setup capability; program to transmit current display, alarm status, min/max, actual measured input value and status Common Specifications (Alli/8, i/16, i/32 DIN)RS485: Addressable from 0 to 199Connection: Screw terminals Alarm 1 and 2 (Programmable)Type: Same as output 1 and 2Operation: High/low, above/below,band, latch/unlatch, normally open/normally closed and process/deviation; front panel configurations Analog Output (Programmable):Non-isolated, retransmission 0 to 10 Vdcor 0 to 20 mA, 500 Ω max (output 1 only); accuracy is ± 1% of FS when following conditions are satisfied: input is not scaled below 1% of input FS, analog output is not scaled below 3% of output FS General Power: 90 to 240 Vac ±10%, 50 to 400 Hz *, 110 to 300 Vdc, equivalent voltage Low Voltage Power Option: 24 Vac **, 12 to 36 Vdc for DPi/CNi/DPiS/CNiS; 20 to 36 Vdc for dual display, ethernet and isolated analog output from qualified safety approved source Isolation Power to Input/Output: 2300 Vac per 1 minute test For Low Voltage Power Option: 1500 Vac per 1 minute test Power to Relay/SSR Output: 2300 Vac per 1 minute test Relay/SSR to Relay/SSR Output:2300 Vac per 1 minute test RS232/485 to Input/Output:500 Vac per 1 minute test Environmental Conditions: All Models: 0 to 55°C (32 to 131°F) 90% RH non-condensing Dual Display Models: 0 to 50°C (32 to 122°F), 90% RH non-condensing (for UL only) Protection: D Pi/CNi/DPiS/CNiS32,16,16D, 8C: NEMA 4X/Type 4 (IP65) front bezel DPi/CNi/DPiS/CNiS8, 8DH, 8DV: NEMA 1/Type 1 front bezel Approvals: UL, C-UL, CE per 2014/35/EU, FM (temperature units only)Dimensions i /8 Series: 48 H x 96 W x 127 mm D (1.89 x 3.78 x 5") i/16 Series: 48 H x 48 W x 127 mm D (1.89 x 1.89 x 5") i/32 Series: 25.4 H x 48 W x 127 mm D(1.0 x 1.89 x 5")Panel Cutouti /8 Series: 45 H x 92 mm W (1.772 x 3.622"), 1⁄8 DIN i/16 Series: 45 mm (1.772") square,1⁄16 DINi/32 Series: 22.5 H x 45 mm W (0.886 x 1.772"), 1⁄32 DIN Weighti /8 Series: 295 g (0.65 lb) i/16 Series: 159 g (0.35 lb) i/32 Series: 127 g (0.28 lb)* No CE compliance above 60 Hz.** Units can be powered safely with 24 Vacpower, but no certification for CE/UL are claimed.。

爱克斯(IQ)硬线系统16路传感器控制器用户手册说明书

爱克斯(IQ)硬线系统16路传感器控制器用户手册说明书

1.Mount the IQ Hardwire 16 vertically in your desired location.2.Install provided antenna into the “ANT” terminal at the top of the unit free from obstructions3.Wire all hardwired sensors/leads into the terminals marked “Zone 1-16”a.All sensors must have a resistor installed between 1k-10k Ohm in either the N/O or N/C positionb.Wire the Positive and Negative leads from powered devices, such as motion sensors and glass break sensors, into the “AUX” (+) and “GND” (-) terminals to power the device. (see wiring diagram)c.Wire the tamper switch into the tamper terminals. (optional)d.Wire optional hardwired siren (60VDC/1A Max, see wiring diagram)4.If learning the IQ Hardwire 16 into the Panel for supervision, plug in a 5Ah Max backupbattery with included battery leads (battery not included).5.With provided transformer, connect power supply leads into the terminals marked +16.0V GND then plug in the IQ Hardwire 16’s power supply. (IMPORTANT: dashed wire is positive) INFORMATIONThe IQ Hardwire 16 offers a cost effective way of integrating hardwired security zones with the IQ Panel. It includes backup battery charging, an onboard siren relay andfeatures end-of-line resistor learning, making rewiring different resistor values a thing of the past. It also supports magnetic contacts and powered zones such as motion sensors and glass break detectors. Note: Not for use with life safety devices, such as Smoke or CO detectorsTECHNICAL SPECIFICATIONSInput Voltage: 16.0VDC Plug-In Transformer Backup Battery: 12VDC 5AH Max (optional) Dimensions: 5.5” X 3.5”Operating Temperature: 32 to 122F (0 to 50C) Humidity: 95% RH MaxEOL Supervision: 1K to 10K Ohm Input Zones: 16 (must have resistor) Zone Type: N/O or N/C compatibleAuxiliary Voltage Output: 12VDC @ 500mA Tamper Zone: Optional zone input for tamper Relay Contact: 60VDC/1A Max drives siren or other deviceDocument #: IQHW16QG Revision Date: 8/10/17 Qolsys Part #: QS7121-840STEP 1: INSTALL THE HARDWAREIN THE BOXIQ Hardwire 16 Cover AntennaPower Supply 4 Screws16 Resistors (3K) Battery cablesIf mounting inside a metal can, the antenna must extend outside the enclosure to ensure RF communicationQUICK GUIDEConfidential & Proprietary.Made in Taiwan. Full installation manual and other documentation availableat .Trip the module by “shorting” the “Tamper”terminals on the module with a piece of wire.STEP 2: PAIR THE IQ HARDWIRE 16 WITH THE IQ PANELNote: This allows the IQ Panel to supervise the IQ Hardwire battery, power status, aux power out, & tamperSettingsEnter installer code (Default is 1111)InstallationSecurity Sensors Auto Learn SensorPress and hold “EOL Learn” for 1-2 secs. (all Zone LED’s flash and then turn off)EOL Cal LED will turn ON. This puts themodule into“Enroll Mode”.Follow the onscreen prompts on the IQ Panel to finish the enrolling process. The IQ Hardwire 16 should be learned in as a “Hardwire Translator”Page of Qolsys Confidential and Proprietary.22TROUBLESHOOTINGEOL LEARN Button: To enter and exit “Enroll Mode”and calibrate resistor valuesMEMORY RESET Button: Clears memory andresets the device to factory defaultsPROCESSOR LED: Flashes during normal operation RF XMIT LED: Flashes when RF transmission is being sentEOL CAL LED: Flashes when EOL resistors are notcalibrated or when no zones have been learned in. ON when device is in “Enroll Mode”. OFF when device is in “Normal Operation Mode”ZONE LED: Flashes several times when EOL Calbutton is pressed. OFF while in “Enroll Mode” unless a zone has been learned in or tripped, then ON. OFF while in “Normal Operation Mode” unless a zone is open, then ON.How to Clear the Memory: Power down the unit byunplugging the battery leads and the power supply. Hold down “Memory Reset” for 3 seconds while re-applying power to the device. Processor, RF Xmit and EOL Cal LED’s will begin to flash indicating that the module has been reset.NEED MORE HELP?CONTACT TECH SUPPORT(855) 4-QOLSYS**********************QUICK GUIDETrip (Open/Close) each hardwired zone one at a timeOnce all desired zones have been learned, press the “EOL Learn” button to exit “Enroll Mode”. The EOL Cal LED will turn OFF indicating you are no longer in “Enroll Mode” and all zone LED’s will turn OFF.When a sensor has been tripped, the resistor value is calibrated and the Zone LED will illuminate and stay on until you exit enroll mode.STEP 3: PAIRING INDIVIDUAL ZONES/SENSORSCustomize sensor type and settings as desired. Repeat for each zone.The IQ Panel will “chime” indicating it has found a new sensor. Touch “Okay” to proceed.WIRING DIAGRAM。

LSA40AT9001驱动板

LSA40AT9001驱动板

产品承认书SPECIFICATION FOR APPROVAL客户名称(CUSTOMER):客户料号(PART NO.):客户品名(DESCRIPTION):品名(DESCRIPTION):日期(DATE):2010-01-08目录目录 (2)变更说明 (3)1.适用范围 (3)2.产品功能描述 (3)3.工作环境 (3)4.保存环境 (3)5.产品规格 (3)6.电气参数 (10)7.电气回路 (11)8.可信赖性试验 (12)9.出货检验水准 (12)变更说明版本发行日期修改内容备注V12010-1-8初次修订购买时注明点屏型号及转换方式1.适用范围本标准适用于针对工控主板LVSD/TTL信号点:AT050TN22V.1,AT056TN52V.2,AT070TN92,AT080TN52,EJ080NA-05A/HSD070IDW1-D,AT070TN94,A104SN01,LSA40AT9001等中小尺寸信号转换主板点屏功能。

2.产品功能描述2.1TTL 或LVDS信号可选输入2.2TCON 板带背光驱动电路2.3可以驱动640*480800*480800*600的多款液晶模组3.工作环境4.1工作温度:-20℃~+70℃4.2工作湿度:90%RH(不可有结露)4.保存环境5.1保存温度:-20℃~+80℃5.2保存湿度:90%RH(不可有结露)5.产品规格5.1产品外形结构(单位产品外形结构(单位:mm :mm :mm)):成品板(含元件厚度4.50mm。

5.2产品接口定义:22G4绿色信号23G3绿色信号24GND 地25G2绿色信号26G1绿色信号27G0绿色信号28GND 地29R5红色信号30R4红色信号31R3红色信号32GND 地33R2红色信号34R1红色信号35R0红色信号36GND 地37GND-DCLK 地和时钟可选Note638DCLK-GND 时钟和地可选Note739GND 地40GND 地备注更改说明Note1通过R153R 的0R 电阻实现5V和地之间的转换也可作为空脚(焊上R153的0R 电阻此管脚为5V ,不焊为空脚,R153上端横跨0R 电阻到R151上端此管脚为地)常规为空脚Note2同上(1脚2脚为导通脚)Note3常规为不带控制(要控制需把R106电阻去掉R104位置加0R 电阻,更改后高电平为开)Note4通过R152的0R 电阻实现3.3V 和地之间的转换也可做为空脚(焊上R152的0R 电阻此管脚为3.3V ,R152的0R 电阻的下端横一个0R 电阻到R151电阻的上端此管脚为地)常规为空脚Note5同上(5脚6脚为导通脚)Note6当R156焊0R 电阻R157空时37脚为地。

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IS41C16100IS41LV16100ISSI®Copyright © 2003 Integrated Silicon Solution, Inc. All rights reserved. ISSI reserves the right to make changes to this specification and its products at any timewithout notice. ISSI assumes no liability arising out of the application or use of any information, products or services described herein. Customers are advised to obtain the latest version of this device specification before relying on any published information and before placing orders for products.FEATURES•TTL compatible inputs and outputs; tristate I/O •Refresh Interval:—Auto refresh Mode : 1,024 cycles /16 ms—RAS -Only, CAS -before-RAS (CBR), and Hidden —Self refresh Mode - 1,024 cycles / 128ms •JEDEC standard pinout •Single power supply:—5V ± 10% (IS41C16100)—3.3V ± 10% (IS41LV16100)•Byte Write and Byte Read operation via two CAS •Industrail Temperature Range -40o C to 85o CDESCRIPTIONThe ISSI IS41C16100 and IS41LV16100 are 1,048,576 x 16-bit high-performance CMOS Dynamic Random Access Memories.These devices offer an accelerated cycle access called EDO Page Mode. EDO Page Mode allows 1,024 random accesses within a single row with access cycle time as short as 20 ns per 16-bit word.The Byte Write control, of upper and lower byte, makes the IS41C16100 ideal for use in 16-bit and 32-bit wide data bus systems.These f eatures m ake t he I S41C16100and I S41LV16100 i deally s uited for high-bandwidth graphics, digital signal processing, high-performance computing systems, and peripheral applications.The IS41C16100 and IS41LV16100 are packaged in a 42-pin 400-mil SOJ and 400-mil 50- (44-) pin TSOP (Type II). The lead-free 400-mil 50- (44-) option is available too.1M x 16 (16-MBIT) DYNAMIC RAM WITH EDO PAGE MODEKEY TIMING PARAMETERSParameter-50-60Unit Max. RAS Access Time (t RAC )5060ns Max. CAS Access Time (t CAC )1315ns Max. Column Address Access Time (t AA )2530ns Min. EDO Page Mode Cycle Time (t PC )2025ns Min. Read/Write Cycle Time (t RC )84104nsPIN CONFIGURATIONS50(44)-Pin TSOP (Type II)42-Pin SOJPIN DESCRIPTIONSA0-A9Address Inputs I/O0-15Data Inputs/Outputs WE Write Enable OE Output Enable RAS Row Address StrobeUCAS Upper Column Address Strobe LCAS Lower Column Address Strobe Vcc Power GND Ground NCNo ConnectionApril 2003元器件交易网IS41C16100IS41LV161002Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.I ISSI®FUNCTIONAL BLOCK DIAGRAM元器件交易网元器件交易网IS41C16100IS41LV16100ISSI®TRUTH TABLEFunction RAS LCAS UCAS WE OE Address t R/t C I/OStandby H H H X X X High-ZRead: Word L L L H L ROW/COL D OUTRead: Lower Byte L L H H L ROW/COL Lower Byte, D OUTUpper Byte, High-Z Read: Upper Byte L H L H L ROW/COL Lower Byte, High-ZUpper Byte, D OUT Write: Word (Early Write)L L L L X ROW/COL D INWrite: Lower Byte (Early Write)L L H L X ROW/COL Lower Byte, D INUpper Byte, High-Z Write: Upper Byte (Early Write)L H L L X ROW/COL Lower Byte, High-ZUpper Byte, D IN Read-Write(1,2)L L L H→L L→H ROW/COL D OUT, D INEDO Page-Mode Read(2)1st Cycle:L H→L H→L H L ROW/COL D OUT2nd Cycle:L H→L H→L H L NA/COL D OUTAny Cycle:L L→H L→H H L NA/NA D OUT EDO Page-Mode Write(1)1st Cycle:L H→L H→L L X ROW/COL D IN2nd Cycle:L H→L H→L L X NA/COL D IN EDO Page-Mode(1,2)1st Cycle:L H→L H→L H→L L→H ROW/COL D OUT, D INRead-Write2nd Cycle:L H→L H→L H→L L→H NA/COL D OUT, D INHidden Refresh Read(2)L→H→L L L H L ROW/COL D OUTWrite(1,3)L→H→L L L L X ROW/COL D OUT RAS-Only Refresh L H H X X ROW/NA High-ZCBR Refresh(4)H→L L L X X X High-ZNotes:1.These WRITE cycles may also be BYTE WRITE cycles (either LCAS or UCAS active).2.These READ cycles may also be BYTE READ cycles (either LCAS or UCAS active).3.EARLY WRITE only.4.At least one of the two CAS signals must be active (LCAS or UCAS).IS41C16100IS41LV161004Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.I ISSI®Functional DescriptionThe IS41C16100 and IS41LV16100 is a CMOS DRAM optimized for high-speed bandwidth, low power applications.During READ or WRITE cycles, each bit is uniquely addressed through the 16 address bits. These are entered ten bits (A0-A9) at time. The row address is latched by the Row Address Strobe (RAS ). The column address is latched by the Column Address Strobe (CAS ). RAS is used to latch the first nine bits and CAS is used to latch the latter nine bits.The IS41C16100 and IS41LV16100 has two CAS con-trols, LCAS and UCAS . The LCAS and UCAS inputs internally generates a CAS signal functioning in an identical manner to the single CAS input on the other 1M x 16 DRAMs. The key differ-ence is that each CAS controls its corresponding I/O tristate logic (in conjunction with OE and WE and RAS ). LCAS controls I/O0 through I/O7 and UCAS controls I/O8 through I/O15.The IS41C16100 and IS41LV16100 CAS function is determined by the first CAS (LCAS or UCAS ) transitioning LOW and the last transitioning back HIGH. The two CAS controls give the IS41C16100 and IS41LV16100 both BYTE READ and BYTE WRITE cycle capabilities.Memory CycleA memory cycle is initiated by bring RAS LOW and it is terminated by returning both RAS and CAS HIGH. To ensures proper device operation and data integrity any memory cycle, once initiated, must not be ended or aborted before the minimum t RAS time has expired. A new cycle must not be initiated until the minimum precharge time t RP , t CP has elapsed.Read CycleA read cycle is initiated by the falling edge of CAS or OE ,whichever occurs last, while holding WE HIGH. The column address must be held for a minimum time specified by t AR .Data Out becomes valid only when t RAC , t AA , t CAC and t OEA are all satisfied. As a result, the access time is dependent on the timing relationships between these parameters.Write CycleA write cycle is initiated by the falling edge of CAS and WE ,whichever occurs last. The input data must be valid at or before the falling edge of CAS or WE , whichever occurs first.Auto Refresh CycleTo retain data, 1,024 refresh cycles are required in each 16 ms period. There are two ways to refresh the memory.1.By clocking each of the 1,024 row addresses (A0 through A9)with RAS at least once every 128 ms. Any read, write, read-modify-write or RAS -only cycle refreshes the addressed ing a CAS -before-RAS refresh cycle. CAS -before-RAS refresh is activated by the falling edge of RAS ,while holding CAS LOW. In CAS -before-RAS refresh cycle, an internal 9-bit counter provides the row ad-dresses and the external address inputs are ignored.CAS -before-RAS is a refresh-only mode and no data access or device selection is allowed. Thus, the output remains in the High-Z state during the cycle.Self Refresh CycleThe Self Refresh allows the user a dynamic refresh, data retention mode at the extended refresh period of 128 ms.i.e., 125 µs per row when using distributed CBR refreshes.The feature also allows the user the choice of a fully static, low power data retention mode. The optional Self Refresh feature is initiated by performing a CBR Refresh cycle and holding RAS LOW for the specified t RAS .The Self Refresh mode is terminated by driving RAS HIGH for a minimum time of t RP . This delay allows for the completion of any internal refresh cycles that may be in process at the time of the RAS LOW-to-HIGH transition.If the DRAM controller uses a distributed refresh sequence,a burst refresh is not required upon exiting Self Refresh.However, if the DRAM controller utilizes a RAS -only or burst refresh sequence, all 1,024 rows must be refreshed within the average internal refresh rate, prior to the resumption of normal operation.Extended Data Out Page ModeEDO page mode operation permits all 1,024 columns within a selected row to be randomly accessed at a high data rate.In EDO page mode read cycle, the data-out is held to the next CAS cycle’s falling edge, instead of the rising edge.For this reason, the valid data output time in EDO page mode is extended compared with the fast page mode. In the fast page mode, the valid data output time becomes shorter as the CAS cycle time becomes shorter. There-fore, in EDO page mode, the timing margin in read cycle is larger than that of the fast page mode even if the CAS cycle time becomes shorter.In EDO page mode, due to the extended data function, the CAS cycle time can be shorter than in the fast page mode if the timing margin is the same.The EDO page mode allows both read and write opera-tions during one RAS cycle, but the performance is equivalent to that of the fast page mode in that case.Power-OnAfter application of the V CC supply, an initial pause of 200 µs is required followed by a minimum of eight initialization cycles (any combination of cycles contain-ing a RAS signal).During power-on, it is recommended that RAS track with V CC or be held at a valid V IH to avoid current surges.元器件交易网元器件交易网IS41C16100IS41LV16100ISSI®ABSOLUTE MAXIMUM RATINGS(1)Symbol Parameters Rating UnitV T Voltage on Any Pin Relative to GND5V–1.0 to +7.0V3.3V–0.5 to +4.6V CC Supply Voltage5V–1.0 to +7.0V3.3V–0.5 to +4.6I OUT Output Current50mAP D Power Dissipation1WT A Commercial Operation Temperature0 to +70°CIndustrial Operationg Temperature-40 to +85°CT STG Storage Temperature–55 to +125°CNote:1.Stress greater than those listed under ABSOLUTE MAXIMUM RATINGS may cause permanentdamage to the device. This is a stress rating only and functional operation of the device at theseor any other conditions above those indicated in the operational sections of this specification is notimplied. Exposure to absolute maximum rating conditions for extended periods may affectreliability.RECOMMENDED OPERATING CONDITIONS (Voltages are referenced to GND.)Symbol Parameter Min.Typ.Max.UnitV CC Supply Voltage5V 4.5 5.0 5.5V3.3V 3.0 3.3 3.6V IH Input High Voltage5V 2.4—V CC + 1.0V3.3V 2.0—V CC + 0.3V IL Input Low Voltage5V–1.0—0.8V3.3V–0.3—0.8T A Commercial Ambient Temperature0—70°CIndustrial Ambient Temperature–40—85°CCAPACITANCE(1,2)Symbol Parameter Max.UnitC IN1Input Capacitance: A0-A95pFC IN2Input Capacitance: RAS, UCAS, LCAS, WE, OE7pFC IO Data Input/Output Capacitance: I/O0-I/O157pFNotes:1.Tested initially and after any design or process changes that may affect these parameters.2.Test conditions: T A = 25°C, f = 1 MHz.IS41C16100IS41LV161006Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.I ISSI®ELECTRICAL CHARACTERISTICS (1)(Recommended Operating Conditions unless otherwise noted.)Symbol ParameterTest ConditionSpeedMin.Max.UnitI IL Input Leakage Current Any input 0V ≤ V IN ≤ Vcc–55µA Other inputs not under test = 0V I IO Output Leakage Current Output is disabled (Hi-Z)–55µA 0V ≤ V OUT ≤ Vcc V OH Output High Voltage Level I OH = –5.0 mA (5V) 2.4—V I OH = –2.0 mA (3.3V)V OL Output Low Voltage Level I OL = 4.2 mA (5V)—0.4V I OL = 2.0 mA (3.3V)I CC 1Standby Current: TTLRAS , LCAS , UCAS ≥ V IH Commerical5V —3mA3.3V—3Industrial 5V—4mA 3.3V—4I CC 2Standby Current: CMOS RAS , LCAS , UCAS ≥ V CC – 0.2V 5V —2mA 3.3V —2I CC 3Operating Current:RAS , LCAS , UCAS ,-50—160mARandom Read/Write (2,3,4)Address Cycling, t RC = t RC (min.)-60—145Average Power Supply Current I CC 4Operating Current:RAS = V IL , LCAS , UCAS ,-50—90mAEDO Page Mode (2,3,4)Cycling t PC = t PC (min.)-60—80Average Power Supply Current I CC 5Refresh Current:RAS Cycling, LCAS , UCAS ≥ V IH -50—160mARAS -Only (2,3)t RC = t RC (min.)-60—145Average Power Supply Current I CC 6Refresh Current:RAS , LCAS , UCAS Cycling -50—160mACBR (2,3,5)t RC = t RC (min.)-60—145Average Power Supply CurrentNotes:1.An initial pause of 200 µs is required after power-up followed by eight RAS refresh cycles (RAS -Only or CBR) before proper device operation is assured. The eight RAS cycles wake-up should be repeated any time the t REF refresh requirement is exceeded.2.Dependent on cycle rates.3.Specified values are obtained with minimum cycle time and the output open.4.Column-address is changed once each EDO page cycle.5.Enables on-chip refresh and address counters.元器件交易网元器件交易网IS41C16100IS41LV16100ISSI®AC CHARACTERISTICS(1,2,3,4,5,6)(Recommended Operating Conditions unless otherwise noted.)-50-60Symbol Parameter Min.Max.Min.Max.Unitst RC Random READ or WRITE Cycle Time84—104—nst RAC Access Time from RAS(6, 7)—50—60nst CAC Access Time from CAS(6, 8, 15)—13—15nst AA Access Time from Column-Address(6)—25—30nst RAS RAS Pulse Width5010K6010K nst RP RAS Precharge Time30—40—nst CAS CAS Pulse Width(26)810K1010K nst CP CAS Precharge Time(9, 25)9—9—nst CSH CAS Hold Time (21)38—40—nst RCD RAS to CAS Delay Time(10, 20)12371445nst ASR Row-Address Setup Time0—0—nst RAH Row-Address Hold Time8—10—nst ASC Column-Address Setup Time(20)0—0—nst CAH Column-Address Hold Time(20)8—10—nst AR Column-Address Hold Time30—40—ns (referenced to RAS)t RAD RAS to Column-Address Delay Time(11)10251230nst RAL Column-Address to RAS Lead Time25—30—nst RPC RAS to CAS Precharge Time5—5—nst RSH RAS Hold Time(27)8—10—nst RHCP RAS Hold Time from CAS Precharge37—37—nst CLZ CAS to Output in Low-Z(15, 29)0—0—nst CRP CAS to RAS Precharge Time(21)5—5—nst OD Output Disable Time(19, 28, 29)315315nst OE Output Enable Time(15, 16)—13—15nst OED Output Enable Data Delay (Write)20—20—nst OEHC OE HIGH Hold Time from CAS HIGH5—5—nst OEP OE HIGH Pulse Width10—10—nst OES OE LOW to CAS HIGH Setup Time5—5—nst RCS Read Command Setup Time(17, 20)0—0—nst RRH Read Command Hold Time0—0—ns (referenced to RAS)(12)t RCH Read Command Hold Time0—0—ns (referenced to CAS)(12, 17, 21)t WCH Write Command Hold Time(17, 27)8—10—nst WCR Write Command Hold Time40—50—ns (referenced to RAS)(17)IS41C16100IS41LV161008Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.I ISSI®AC CHARACTERISTICS (Continued)(1,2,3,4,5,6)(Recommended Operating Conditions unless otherwise noted.)-50-60Symbol ParameterMin.Max.Min.Max.Units t WP Write Command Pulse Width (17)8—10—ns t WPZ WE Pulse Widths to Disable Outputs 10—10—ns t RWL Write Command to RAS Lead Time (17)13—15—ns t CWL Write Command to CAS Lead Time (17, 21)8—10—ns t WCS Write Command Setup Time (14, 17, 20)0—0—ns t DHR Data-in Hold Time (referenced to RAS )39—39—ns t ACH Column-Address Setup Time to CAS 15—15—ns Precharge during WRITE Cycle t OEH OE Hold Time from WE during 8—10—ns READ-MODIFY-WRITE cycle (18)t DS Data-In Setup Time (15, 22)0—0—ns t DH Data-In Hold Time (15, 22)8—10—ns t RWC READ-MODIFY-WRITE Cycle Time 108—133—ns t RWD RAS to WE Delay Time during 64—77—ns READ-MODIFY-WRITE Cycle (14)t CWD CAS to WE Delay Time (14, 20)26—32—ns t AWD Column-Address to WE Delay Time (14)39—47—ns t PC EDO Page Mode READ or WRITE 20—25—ns Cycle Time (24)t RASP RAS Pulse Width in EDO Page Mode 50100K 60100K ns t CPA Access Time from CAS Precharge (15)—30—35ns t PRWC EDO Page Mode READ-WRITE 56—68—ns Cycle Time (24)t COH Data Output Hold after CAS LOW 5—5—ns t OFF Output Buffer Turn-Off Delay from 1.612 1.615ns CAS or RAS (13,15,19, 29)t WHZ Output Disable Delay from WE 310310ns t CLCH Last CAS going LOW to First CAS 10—10—ns returning HIGH (23)t CSR CAS Setup Time (CBR REFRESH)(30, 20)5—5—ns t CHR CAS Hold Time (CBR REFRESH)(30, 21)8—10—ns t ORD OE Setup Time prior to RAS during 0—0—ns HIDDEN REFRESH Cyclet REF Auto Refresh Period (1,024 Cycles)—16—16ms t REF Self Refresh Period (1,024 Cycles)—128—128ms t TTransition Time (Rise or Fall)(2, 3)150150ns元器件交易网IS41C16100IS41LV16100ISSI®Notes:1.An initial pause of 200 µs is required after power-up followed by eight RAS refresh cycle (RAS -Only or CBR) before proper device operation is assured. The eight RAS cycles wake-up should be repeated any time the t REF refresh requirement is exceeded.2.V IH (MIN) and V IL (MAX) are reference levels for measuring timing of input signals. Transition times, are measured between V IH and V IL (or between V IL and V IH ) and assume to be 1 ns for all inputs.3.In addition to meeting the transition rate specification, all input signals must transit between V IH and V IL (or between V IL and V IH ) in a monotonic manner.4.If CAS and RAS = V IH , data output is High-Z.5.If CAS = V IL , data output may contain data from the last valid READ cycle.6.Measured with a load equivalent to one TTL gate and 50 pF.7.Assumes that t RCD - t RCD (MAX). If t RCD is greater than the maximum recommended value shown in this table, t RAC will increase by the amount that t RCD exceeds the value shown.8.Assumes that t RCD • t RCD (MAX).9.If CAS is LOW at the falling edge of RAS , data out will be maintained from the previous cycle. To initiate a new cycle and clear the data output buffer, CAS and RAS must be pulsed for t CP .10.Operation with the t RCD (MAX) limit ensures that t RAC (MAX) can be met. t RCD (MAX) is specified as a reference point only; if t RCD isgreater than the specified t RCD (MAX) limit, access time is controlled exclusively by t CAC .11.Operation within the t RAD (MAX) limit ensures that t RCD (MAX) can be met. t RAD (MAX) is specified as a reference point only; if t RAD isgreater than the specified t RAD (MAX) limit, access time is controlled exclusively by t AA .12.Either t RCH or t RRH must be satisfied for a READ cycle.13.t OFF (MAX) defines the time at which the output achieves the open circuit condition; it is not a reference to V OH or V OL .14.t WCS , t RWD , t AWD and t CWD are restrictive operating parameters in LATE WRITE and READ-MODIFY-WRITE cycle only. If t WCS • t WCS(MIN), the cycle is an EARLY WRITE cycle and the data output will remain open circuit throughout the entire cycle. If t RWD • t RWD (MIN),t AWD • t AWD (MIN) and t CWD • t CWD (MIN), the cycle is a READ-WRITE cycle and the data output will contain data read from the selected cell. If neither of the above conditions is met, the state of I/O (at access time and until CAS and RAS or OE go back to V IH ) is indeterminate. OE held HIGH and WE taken LOW after CAS goes LOW result in a LATE WRITE (OE -controlled) cycle.15.Output parameter (I/O) is referenced to corresponding CAS input, I/O0-I/O7 by LCAS and I/O8-I/O15 by UCAS .16.During a READ cycle, if OE is LOW then taken HIGH before CAS goes HIGH, I/O goes open. If OE is tied permanently LOW, a LATEWRITE or READ-MODIFY-WRITE is not possible.17.Write command is defined as WE going low.TE WRITE and READ-MODIFY-WRITE cycles must have both t OD and t OEH met (OE HIGH during WRITE cycle) in order to ensurethat the output buffers will be open during the WRITE cycle. The I/Os will provide the previously written data if CAS remains LOW and OE is taken back to LOW after t OEH is met.19.The I/Os are in open during READ cycles once t OD or t OFF occur.20.The first χCAS edge to transition LOW.21.The last χCAS edge to transition HIGH.22.These parameters are referenced to CAS leading edge in EARLY WRITE cycles and WE leading edge in LATE WRITE or READ-MODIFY-WRITE cycles.st falling χCAS edge to first rising χCAS edge.st rising χCAS edge to next cycle’s last rising χCAS st rising χCAS edge to first falling χCAS edge.26.Each χCAS must meet minimum pulse st χCAS to go LOW.28.I/Os controlled, regardless UCAS and LCAS .29.The 3 ns minimum is a parameter guaranteed by design.30.Enables on-chip refresh and address counters.AC TEST CONDITIONSOutput load:Two TTL Loads and 50 pF (Vcc = 5.0V ±10%)One TTL Load and 50 pF (Vcc = 3.3V ±10%)Input timing reference levels:V IH = 2.4V, V IL = 0.8V (Vcc = 5.0V ±10%);V IH = 2.0V, V IL = 0.8V (Vcc = 3.3V ±10%)Output timing reference levels:V OH = 2.0V, V OL = 0.8V (Vcc = 5V ±10%, 3.3V ±10%)元器件交易网IS41C16100IS41LV1610010Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.I ISSI®READ CYCLENote:1.t OFF is referenced from rising edge of RAS or CAS , whichever occurs last.元器件交易网EARLY WRITE CYCLE (OE = DON'T CARE)READ WRITE CYCLE (LATE WRITE and READ-MODIFY-WRITE Cycles)12Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.IEDO-PAGE-MODE READ CYCLENote:1.t PC can be measured from falling edge of CAS to falling edge of CAS, or from rising edge of CAS to rising edge of CAS. Bothmeasurements must meet the t PC specifications.EDO-PAGE-MODE EARLY-WRITE CYCLE14Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.IEDO-PAGE-MODE READ-WRITE CYCLE (LATE WRITE and READ-MODIFY WRITE Cycles)Note:1.t PC can be measured from falling edge of CAS to falling edge of CAS, or from rising edge of CAS to rising edge of CAS. Bothmeasurements must meet the t PC specifications.EDO-PAGE-MODE READ-EARLY-WRITE CYCLE (Psuedo READ-MODIFY WRITE)16Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.IAC WAVEFORMSREAD CYCLE (With WE-Controlled Disable)RAS-ONLY REFRESH CYCLE (OE, WE = DON'T CARE)CBR REFRESH CYCLE (Addresses; WE, OE = DON'T CARE)HIDDEN REFRESH CYCLE(1)(WE = HIGH; OE = LOW)Notes:1.A Hidden Refresh may also be performed after a Write Cycle. In this case, WE = LOW and OE = HIGH.2.t OFF is referenced from rising edge of RAS or CAS, whichever occurs last.18Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.IORDERING INFORMATION : 5V Commercial Range: 0°C to 70°CSpeed (ns)Order Part No.Package50IS41C16100-50K400-mil SOJIS41C16100-50T400-mil TSOP (Type II) 60IS41C16100-60K400-mil SOJIS41C16100-60T400-mil TSOP (Type II)Industrial Range: -40°C to 85°CSpeed (ns)Order Part No.Package50IS41C16100-50KI400-mil SOJIS41C16100-50TI400-mil TSOP (Type II) 60IS41C16100-60KI400-mil SOJIS41C16100-60TI400-mil TSOP (Type II)ORDERING INFORMATION : 3.3VCommercial Range: 0°C to 70°CSpeed (ns)Order Part No.P a c k a g e50IS41LV16100-50K400-mil SOJIS41LV16100-50T400-mil TSOP (Type II)IS41LV16100-50TL400-mil TSOP (Type II), Lead-free60IS41LV16100-60K400-mil SOJIS41LV16100-60T400-mil TSOP (Type II)IS41LV16100-60TL400-mil TSOP (Type II), Lead-freeIndustrial Range: -40°C to 85°CSpeed (ns)Order Part No.P a c k a g e50IS41LV16100-50KI400-mil SOJIS41LV16100-50TI400-mil TSOP (Type II)IS41LV16100-50TLI400-mil TSOP (Type II), Lead-free60IS41LV16100-60KI400-mil SOJIS41LV16100-60TI400-mil TSOP (Type II)IS41LV16100-60TLI400-mil TSOP (Type II), Lead-free20Integrated Silicon Solution, Inc. — — 1-800-379-4774R e v.I。

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