UTC TEA2025A中文资料
华文智能--长期供应音频功率放大器集成电路(陈丽丽)
华文智能长期供应音频功率放大器集成电路:(陈丽丽空间提供)UTC 2206 DIP-12HUTC 1233 FSIP-12 HSIP-14UTC 3541L SOP-8UTC 3544 SOP-8UTC A4537 MSOP-10UTC A6225 DIP-8 SIP-9UTC BA3308 SOP-14UTC KA8602 DIP-8 SOP-8UTC LM1875 TO-220B TO-220-5UTC LM386 DIP-8 SOP-8 TSSOP-8UTC A4533 MSOP-10 SSOP-10UTC LM4835 TSSOP-28 HTSSOP-28UTC LM4836 TSSOP-28UTC LM4838 TSSOP-28 TSSOP-28UTC LM4862 DIP-8 SOP-8 TSSOP-20UTC LM4863 DIP-16 SOP-16 TSSOP-20UTC LM4880 DIP-8 SOP-8 TSSOP-8UTC MC34119 DIP-8 SOP-8 TSSOP-8UTC PC1316 DIP-14HUTC TA7368P SIP-9UTC TDA2030A TO-220BUTC TDA2050 TO-220BUTC TDA2822 DIP-8 SOP-8UTC TDA2822H DIP-8 SOP-8UTC TDA2822M DIP-8 SOP-8UTC TDA7053A DIP-16 SOP-16UTC TDA7266 FSIP-15HUTC TDA7375 FSIP-15HUTC TDA7496A/L DIP-20 SOP-20UTC TDA7499 HZIP-11UTC TDA8496 HZIP-15UTC TEA2025/A/D DIP-12H DIP-16 SOP-20UTC TA8207K FSIP-12HUTC TA8227AP DIP-12HUTC TA8227P DIP-12HUTC UA1029 HSIP-15 HSIP-14UTC TBA820M DIP-8 SOP-8UTC TDA1519A FSIP-9H FSIP-12HUTC TDA1519B FSIP-9H FSIP-12HUTC TDA1519C FSIP-9H FSIP-12HUTC TDA2003 TO-220B TO-220-5UTC TDA2004 HZIP-11 HSIP-14UTC TDA2005 HZIP-11 HSIP-14UTC TDA2030 TO-220B TO-220-5华文智能--长期供应UTC,SL,YW等集成电路IC:(陈丽丽空间提供)现货热卖,长期供应以下产品:应用于Protable DVD,CAR DVD等产品上面的IC:LM4863 TSSOP-20遥控编解码IC:SL产品:SC5262 SC5272-L4/M4/M6 DIP18/SOP20/裸片电源控制和直流转换电路:UTC产品:TL494 DIP-16 SOP-16 ;TL1451 SOP-16 ;TL5001 SOP-8;UC3842A DIP-8 SOP-8 ;MC34063A DIP-8 SOP8;P3596-5.0/ADJ TO-263-5运算放大器:YW产品:UTC324 DIP-14 SOP-14 ; UTC358 SOP/DIP8UTC产品:LM358 DIP-8 SOP-8 MC34072 DIP-8 SOP-8 MC4558 DIP-8 SOP-8音频功率放大器:UTC产品:KA8602 DIP-8 SOP-8 LM1875 TO-220B LM386 DIP-8 SOP-8 MC34119 DIP-8 SOP-8 TDA2030A TO-220B TDA2822 DIP-8 SOP-8 TDA2822H DIP-8 SOP-8 TDA2822M DIP-8 SOP-8 TDA7053A DIP-16 SOP-16 TDA7496A/L DIP-20 SOP-20 TEA2025/A/D DIP-12H DIP-16 SOP-20 TA8227P DIP-12H TBA820M DIP-8 TDA2030 TO-220B YW产品:UTC386 UTC8602 UTC34119 UTC2822/H DIP/SOP8 UTC2030 TO220B UTC2025 DIP16远程通讯电路:UTC产品:MC3361BP/TEA1062/A SOP16/DIP16 LS1240A/31002A DIP8/SOP8 MC34018/MC34118 DIP28/SOP28YW产品:UTC3361/UTC1062/A SOP/DIP16 UTC34018 DIP/SOP28 SL产品: SA8507S SOP20。
整理tea2025芯片资料
TEA2025一.简介1)TEA2025是欧洲生产的双声道功率放大集成电路,该电路具有声道分离度高、电源接通时冲击噪声小、外接元件少,最大电压增益可由外接电阻调节等特点,应用于袖珍式或便携式立体声音响系统中作功率放大。
2)TEA2025的内电路方框图及引脚功能是欧洲生产的双声道功率放大集成电路,该电路具有声道分离度高、电源接通时冲击噪声小、外接元件少,最大电压增益可由外接电阻调节等特点,应用于袖珍式或便携式立体声音响系统中作功率放大。
3)原理图组成TEA2025集成块内部主要由两路功能相同的音频预放、功放、去耦、驱动电路、供电电路等组成,其集成块的内电路方框图及双声道应用电路如图所示。
该IC采用16脚双列直插式封装。
4)TEA2025双声道音频功率放大集成电路,该电路的赋性如下任务电源电压规模为3-一2V,其输出功率由垄断电源电压和负载而定P=0.1W 2VCC=3V RL=4ΩP=一W 2VCC=6V RL=2ΩP=2.3W 2VCC=9V RL=4Ω实用于单声道桥式BTL 或平面声行程两种任务外形。
它还存在外接元件少声道皋牢度高爆破噪声少电压增益可由外接电阻调节等赋性,采纳双列直插一 6 脚塑料封装DIP一6。
二.2025的内电路方框图及引脚功能1.TEA2025主要电参数(1)极限使用条件。
在T.=25 -C时,电源电压Vcc=15 V.输出峰值电流10=1.5A。
(2)主要电参数。
TEA2025集成电路工作电源电压范围为3--12 V.典型工作电压6-9 V。
在Vcc=9 V, RL=8。
Ta=25℃条件下,有以下主要电参数。
.静态电流ICQ 最大值为50 mA,典型值为40 mA。
.电压增益GV 双声道时的最大值为47 dB,最小值为43 dB,典型值为45 dB; BTL时的最大值为53 dB,最小值为49 dB,典型值为51 dB。
.输出功率PO 当THD=10%,P=1 kHz时,双声道时的典型值为1.3 W, BTL时的典型值为4.7 W。
AUK 韩国光电子 产品简介
我公司为韩国光电子AUK授权在香港及大陆地区的一级代理商,全权代理AUK品牌三极管及二极管,集成电路,Tachyonics品牌RF高频三极管,通讯IC. 另外本公司还生产0603/0805/1206/1210等各类寸尺的贴片发光二极管SMD LED 等.韩国光电子AUK成立于一九八四年,现拥有员工4500人,主要生产中小功率三极管,长期以来一直给MOTOROLA(摩托罗拉)和SAMSUNG(三星)做加工,自身品牌“AUK”约占其中30%在市场销售,产品主要分两大类:TO-92(直插)式封装和SOT-23(贴片)式封装,月产量1200KK。
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另外,本公司代理韩国著名稳压组件生产厂家友石半导体“Wooseok S.TECH CORP.”的稳压IC TL431A 和13005,13007,13009系列大功率三极管、LM7805、7808**系列、LM78L**系列TO-92 TO-220封装的三端稳压管,以及著名光电厂家生产的贴片发光二极管SMD LED (0603 / 0805 / 1206 ) ,品质优良,价格合理,欢迎索取详细资料,洽谈选购。
产品大量应用于消费类电子产品:电脑周边、电子玩具、充电器、电源、UPS电源转换器、游戏机、电子词典、数码相机、收音机、对讲机、电话机、遥控器、DVD、CD、电子血压计、电脑风扇、空调、鼠标、键盘、直流转换器、多媒体音响、显示器,迷你电视、网卡、显卡VGA、主机板、MP3、手机模块,手机背光源等中高档电子产品.本公司在香港、大陆均可交货,从一九九四年以来一直在大陆配合外资企业在大陆作业,在业界亨有较高声誉。
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UTCNE556中文资料
UTC NE556LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.1QW-R106-002,ADUAL TIMERDESCRIPTIONThe UTC NE556 dual monolithic circuit is a highlystable controller capable of producing accurate delays or oscillation. The UTC NE556 is the dual of UTC NE555; timing is provided an external resistor and capacitor for each function. The two timers operate independently of each other, sharing only Vcc and GND. The circuits may be triggered and reset on falling wave forms. The output structures may sink or source 200mA.FEATURES*High current driver capability(=200mA)*Adjustable duty cycle*Timing from µSec to Hours*Temperature stability of 0.005%/°C *TTL compatible*Operates in both Astable and Monostable modesAPPLICATIONS*Precision timing.*Pulse width modulation.*Pulse generator, shaping. *Traffic light control.*Time delay generator.*Touch tone encoder.*Sequential timing.*Tone burst generator.BLOCK DIAGRAMUTC NE556LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.2QW-R106-002,AABSOLUTE MAXIMUM RATINGS (Ta=25°C )PARAMETERSYMBOL VALUE UNIT Supply Voltage Vcc 16V Power DissipationPd 600mW Lead Temperature(soldering 10sec.)Tlead 300°C Operating Temperature Topr -40~85°C Storage TemperatureTstg-65~150°CELECTRICAL CHARACTERISTICS( Ta=25°C ,Vcc=5 to 15V, unless otherwise specified )PARAMETER SYMBOL TEST CONDITIONS MIN TYP MAX UNIT Supply voltageVcc 4.516V Supply Current(two timers)IccVcc=5V,RL=∝512mA (low state), (Note 1)Vcc=15V,RL=∝1630mA Timing Error(monostable)Initial Accuracy(Note 2)A CCURR A =2K Ω to 100K ΩC=0.1µF T=1.1RC0.75%Drift with Temperature ∆t/∆T 50ppm/°C Drift with Supply Voltage ∆t/∆Vcc 0.1%/V Timing Error(astable)Initial Accuracy(Note 2)A CCURR A =1K Ω to 100K ΩC=0.1µF Vcc=15V2.25%Drift with Temperature ∆t/∆T 150ppm/°C Drift with Supply Voltage ∆t/∆Vcc 0.3%/V Control Voltage Vc Vcc=15V 9.010.011.0V Vcc=5V 2.6 3.33 4.0V Threshold Voltage V TH Vcc=15V 8.810.011.2V Vcc=5V 2.4 3.33 4.2V Threshold Current(Note 3)I TH 30250nA Trigger Voltage Vtr Vcc=5V 1.1 1.6 2.2V Vcc=15V 4.55 5.6V Trigger CurrentItr Vtr=00.01 2.0µA Reset Voltage(Note 4)Vrst 0.40.6 1.0V Reset CurrentIrst 0.030.6mA Low Output VoltageV OLVcc=15VIsink=10mA Isink=50mA Isink=100mA Isink=200mA0.10.25V0.40.75V 2 3.2V 2.5VVcc=5VIsink=5mA Isink=8mA0.150.25V 0.250.35VHigh Output VoltageV OHVcc=15VIsource=200mA Isource=100mAUTC NE556LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.3QW-R106-002,APARAMETERSYMBOLTEST CONDITIONSMIN TYP MAX UNIT 12.5V 12.7513.3VVcc=5VIsource=100mA2.753.3V Rise Time of Output t R 100300nSec Fall Time of Outputt F 100300nSec Discharge Leakage Current I LKG 20100nA Matching Parameter Initial Accuracy(Note 5)A CCURR A, R B =1K Ω to 100K ΩC=0.1µF Vcc=15V12%Drift with Temperature ∆t/∆T 10ppm/°C Drift with Supply Voltage ∆t/∆Vcc 0.20.5%/VNote 1: Supply current when output is high is typically 1mA less at Vcc 5V.Note 2: Tested at Vcc=5V and Vcc=15V.Note 3: This will determine the maximum value of RA+RB for 15V operation, The maximum total is R=20M Ω, and for 5V operation the maximum total is R=6.6M Ω.Note 4: As reset voltage lower, timing is inhibited and then the output goes low.Note 5: Matching parameters refer to the difference between performance parameters of each timer section in the monostable mode.。
TEA6825中文资料
7.0
8.5
8.1
8.5
IDDA2
analog supply current 2 (pin 28)
FM mode
2.4
3.0
VDDA3
analog supply voltage 3 (+8.5 V; pin 56)
note 1 operating range
7.0
8.5
8.1
8.5
IDDA3
analog supply current 3 (pin 56)
40
−
−40 −
5.5
V
5.25 V
25
mA
21
mA
7.2
mA
14
mA
10
V
8.9
V
3.6
mA
10
V
8.9
V
28
mA
15
mA
5.5
V
5.25 V
12
mA
−
dB
−
dB
0.35 %
3
%
−
dB
+85 °C
Note
1. IC is operating; specified parameters may deviate from limits which are valid for operating range.
100 nF
NOISE DETECTOR
17 18
51
1 MΩ
12
5
21 12 kΩ
52 33 µF
120 kΩ
VCCA
+5 V
100 nF
47 µF
1.2 MΩ
TEA2025中文资料(自译)
TEA2025
1、TEA2025完美替换型号YG2025,D2025、YD2025、ULN2025
2、立体音频放大器
3、描述(description)
UTC2025是一个完整(monolithic integrated)的十六脚双排塑料封(16-pin plastic dual in line package)
装音频放大器,它是为轻便的盒式录音机(portable cassette)播放器和收音机而设计的。
4、特征(features)
工作电压低至3V
很少的外部元器件
高通道隔离
电压增益可达45dB(随外部电阻调整)
软件中断
内部温度保护
5、管脚配置/分布
6、模块图解
7、绝对最大额定值(absolute maximum ratings)
8、引脚功能说明
9、电气特性
10、应用电路
桥式放大
立体声放大
10、标准性能特性
偏压与输出功率关系坐标(功放阻值为40欧)
偏压与输出功率关系坐标(功放阻值为8欧)
偏差与输出频率关系图
输出功率与供电电压关系图。
UTCUC3842A中文资料
UTCUC3842A中⽂资料UTC UC3842A / 3843A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.1QW-R103-002,ACURRENT MODE PWM CONTROL CIRCUITSDESCRIPTIONThe UTC UC3842A/3843A provide the necessary functions to implement off-line or DC to DC fixed frequency current mode , controlled switching circuits with a minimal external part countFEATURES*Low external part count. *Low start up current ( Typical 0.12mA ) *Automatic feed forward compensation *Pulse-by-Pulse current limiting*Under-voltage lockout with hysteresis *Double pulse Suppression*High current totem pole output to drive MOSFET directly *Internally trimmed band gap reference *500kHz operation BLOCK DIAGRAMVref VFB COMPRT/CT VccOUTPUTVccABSOLUTE MAXIMUM RATINGS (Ta=25°C)PARAMETER SYMBOL VALUE UNITSupply Voltage(Low Impedance Source) V CC 30 VSupply Voltage(Icc<30mA) Vcc Self Limiting V Output Current ( Peak ) Io +-1 AOutput Energy(capacity Load) 5µJ Analog Inputs(pin 2,3) V I(ANA) -0.3 ~ +6.3 V Error Amplifier Output Sink Current I SINK(EA) 10 mAPower Dissipation PD DIP-8 at T amb <=25°C 1.0 W SOP-8 at T amb <=25°C 0.5 WLead Temperature( Soldering 10 Sec ) Tlead 300 °CUTC UC3842A / 3843A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.2QW-R103-002,A(continued)PARAMETRER SYMBOL VALUE UNITStorage Temperature Tstg -65 ~ +150°C Note 1: Ta>25°C, P D derated with 8mW/°C.ELECTRICAL CHARACTERISTICS (0°C <=Ta<=70°C,V CC =15V,R T =10k ?,C T =3.3nF,unless otherwise specified) PARAMETER SYMBOL TEST CONDITIONS MIN TYP MAX UNITReference SectionOutput Voltage V REF Tj=25°C,Io=1mA 4.9 5 5.1 V Line Regulation ?V REF 12<=V IN <=25V 6 20 mV Load Regulation ?V REF1<=Io =20mA 6 25 mV Temperature Stability (Note 2) 0.2 0.4 mV/°CTotal Output Variation Line, Load, Temp(note 2) 4.82 5.18 V Output Noise Voltage Vosc 10Hz<=f<=10kHz,Tj=25°C (note 2) 50 uVLong Term Stability Ta=25°C,1000Hrs(note 2) 5 25 mV Output Short Circuit I SC -30-100 -180 mAOscillator Section Initial Accuracy f Tj=25°C 47 52 57 kHz Voltage Stability ?f/?Vcc 12<=Vcc<=25V 0.2 1 % Temperature Stability Tmin<=T A <=Tmax(note 2) 5 % Amplitude Vosc Vpin 4 peak to peak 1.7 VError Amplifier SectionInput Voltage V I(EA) Vpin 1=2.5V 2.42 2.50 2.58 V Input Bias Current I BIAS -0.3 -2 µA A VOL 2 <=Vo<=4V 60 90 dB Unity Gain Bandwidth Tj=25°C (note 2) 0.7 1 MHz PSRR I2<=Vcc<=25V 60 70 dB Output Sink Current Isink Vpin 2=2.7V,Vpin 1=1.1V 2 6 mA Output Source Current Isource Vpin 2=2.3V,Vpin 1=5V -0.5-0.8 mA Vout High V OH Vpin 2=2.3V, RL=15k ? to GND 5 6 V Vout Low V OL Vpin 2=2.7V,Vpin 1=1.1V 0.7 1.1 VCurrent Sense sectionGain G V (note 3,4) 2.85 3 3.15 V/V Maximum Input signal V I(MAX)Vpin 1=5V( note 3) 0.9 1 1.1 V PSRR 12<=Vcc<=25V 70 dB Input Bias Current I BIAS -2 -10 µA Delay to Output Vpin 3=0 to 2V 150 300 nsOutput SectionOutput Low Level V OL Isink =20mA 0.1 0.4 VIsink =200mA 1.5 2.2 V Output High Level V OH Isource =20mA 13 13.5 V Isource =200mA 12 13.5 VRise Time t R Tj=25°C,C L =1nF(note 2)50 150 ns Fall Time t F Tj=25°C,C L =1nF(note 2)50 150 ns Under-Voltage Lockout Output SectionStart Threshold V TH(ST)UTC3842A 14.516 17.5 V UTC3843A 7.88.4 9 V Min. Operating Voltage V OPR(min)After Turn On UTC3842A8.510 11.5UTC3843A 7 7.6 8.2 VPWM SectionMaximum Duty Cycle D (MAX) 95 97 100 %UTC UC3842A / 3843A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.3QW-R103-002,APARAMETER SYMBOLTEST CONDITIONS MINTYP MAX UNITMinimum Duty CycleD (MIN)0 % Total Standby CurrentStart-up Current I ST 0.12 0.3 mAOperating Supply Current I CC(opr)Vpin 2=Vpin 3=0V 11 17 mA Vcc Zener Voltage Vz Icc=25mA 34 V note 2:These parameters, although guaranteed ,are not 100% tested in production. note 3:Parameters measured at trip point of latch with Vpin 2=0. note 4:Gain defined as:Vpin 1Vpin 3A=; 0<=Vpin3<=0.8Vnote 5:Adjust Vcc above the start threshold before setting at 15V.OPEN-LOOP LABORATORY TEST FIXTUREVrefVccAdjustHigh peak current associated with capacity loads necessitate careful grounding techniques. Timing and bypass capacitors should be connected close to pin 5 in single point GND. The transistor and 5k ? potentio-meter are used to sample the oscillator waveform and apply an adjustable Ramp to Pin 3.UNDER-VOLTAGE LOCKOUTVonVoffVccDuring Under-Voltage Lockout, the output driver is biased to a high impedance state. Pin 6 should be shunt to GND with a bleeder resistor to prevent activating the power switch with output leakage currents.UTC UC3842A / 3843A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO. LTD4QW-R103-002,AERROR AMPLIFIER CONFIGURATIONError amplifier can source or sink up to 0.5mACURRENT SENSE CIRCUITPeak current (Is) determined by the formula:Ismax=10V/Rs.A small RC filter be required to suppress switch transients.SLOPE COMPENSATIONA fraction of the oscillator ramp can be resistively summed with the current sense signal to provide slope compensation for converts requiring duty cycles over 50%.Note that capacitor C, forms a filter with R2 to suppress the leading edge switch spikes.UTC UC3842A / 3843A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO. LTD5QW-R103-002,AOSCILLATOR SECTIONLarge RT Small CTSmall RT Large CTV4V4INTERNAL CLOCKINTERNAL CLOCKDead time VS C T (R T >5k ?) TimingResistance Vs Frequency 1101001101000.1td (µs)CT (nF)110RT (k ?Frequency (Hz)SHUTDOWN TECHNIQUESShutdown UTC UC3842A can be accomplished by two methods; either raise pin 3 above 1V or pull Pin 1 below a voltage two diode drops above ground. Either method caused the output of PWM comparator to be high(refer to block diagram).The PWM latch is reset dominant so that the output will remain low until the next clock cycle after the shutdown condition at pins 1 and/or 3 is removed . In one example, an externally latched shut –down may be accomplished by adding an SCR which be reset by cycling Vcc below the lower UVLO threshold. At this point the reference turns off allowing the SCR to reset.UTC UC3842A / 3843A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO. LTD6QW-R103-002,ATYPICAL PERFORMANCE CHARACTERISTICS0.010.1101234S a t u r a t i o n V o l t a g e (V )Output Current(Sourse or Sink Current) (A)710310610510410102406010080Frequency (Hz)V o l t a g e G a i n (d B )-180-135-90-45P H A S E (D e g r e e )Output Saturation Characteristics Error Amplifier Open-Loop Frequency Response UTC UC3842A / 3843A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO. LTD7QW-R103-002,A-50-25255075100125150Vref (V)Temperature (°C)-50-250255075100125150I s t a r t (m A )Temperature (°C)-50-252550751509101112131415Icc (mA) Temperature (°C) Vref Temperature Drift Istart Temperature Drift Icc Temperature Drift。
UTCTEA1062中文资料
UTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.1QW-R108-001,ALOW VOLTAGE TELEPHONE TRANSMISSION CIRCUIT WITH DIALLER INTERFACEDESCRIPTIONThe UTC TEA1062/1062A is a bipolar integrated circuit performing all speech and line interface function, required in the fully electronic telephone sets. It performs electronic switching between dialing speech. The circuit is able to operate down to D.C. line voltage of 1.6V (with reduced performance) to facilitate the use of more telephone sets in parallel.FEATURES* Low d.c. line voltage; operates down to 1.6V (excluding polarity guard).*Voltage regulator with adjustment static resistance.*Provides supply with limited current for external circuitry.*Symmetrical high-impedance inputs (64k Ω)for dynamic, magnetic or piezoelectric microphones.*Asymmetrical high-impedance inputs (32k Ω)for electret microphones.*DTMF signal input with confidence tone.*Mute input for pulse or DTMF dialing.*Receivering amplifier for several types of earphones.*Large amplification setting range on microphone and earpiece amplifiers.*Line loss compensation facility , line current depedant (microphone and earpiece amplifiers).*Gain control adaptable to exchange supply.*Possibility to adjust the d.c. line voltage.QUICK REFERENCE DATALine voltage at I line =15mAV LN typ. 3.8 V Line current operating range[pin1] normal operationwith reduced performance I line I line 11 to 140 mA 1 to 11 mA Internal supply currentI CCtyp. 1mASupply current for peripherialsat I line =15 mA MUTE input LOW(1062 is HIGH) VCC>2.2V VCC>2.8VI p I p typ. 1.8mA typ. 0.7mA Voltage amplification range microphone amplifier receiving amplififerA VD A VD 44 to 52 dB 20 to 39 dB Line loss compansation Amplification control rangeExchange supply voltage rangeExchange feeding bridge resistance range A VD V exch R exch typ. 6 dB 36 to 60V 400 to 1000¦¸Operating ambient temperature rangeT amb-25 to +75°CUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.2QW-R108-001,AFig.1 Block Diagram1 LN positive line terminal2 GAS1 gain adjustment; transmitting amplifier3 GAS2 gain adjustment; transmitting amplifier4 QR non-inverting output,receiving amplifier5 GAR gain adjustment; receiving amplifier6 MIC- inverting microphone input7 MIC+ on-inverting microphone input8 STAB current stabilizer9 VEE negative line terminal 10 IR receiving amplifier input11 DTMF dual-tone multi-frequency input 12 MUTE mute input13 Vcc positive supply decoupling 14 REG voltage regulator decoupling 15 AGC automatic gain control input16 SLPE slope (DC resistance) adjustmentFig.2 PIN CONFIGURATIONSLNQR GAR MIC-MIC+V EEIR DTMF MUTE V CC REG AGCSLPEUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.3QW-R108-001,AABSOLUTE MAXIMUM RATINGSPARAMETERTEST CONDITIONS SYMBOLMIN MAX UNIT Positive Continuous Line Voltage VLN 12V Repetitive Line Voltage During Switch-On Or Line InterruptionVLN13.2VRepetitive Peak Line Voltage for a 1 ms Pulse/5sR10=13ΩR9=20Ω(see Fig.15)VLN 28VLine Current (1)R9=20ΩIline 140mA Voltage on All Other Pins Vi VCC+0.7V-Vi 0.7VTotal Power Dissipation(2)R9=20ΩPtot 640mW Storage Temperature Range Tstg -40+125°C Operating Ambient Temperature Range Tamb -25+75°C Junction Temperature Tj +125°C 1. Mostly dependent on the maximum required T amb and the voltage between LN and SLPE (see Figs 6 ).2. Calculated for the maximum ambient temperature specified T amb =75°C and a maximum junction temperature of 125°C.THERMAL RESISTANCEFrom junction to ambient in free air Rth j-a = 75K/WELECTRICAL CHARACTERISTICS (Iline=11 to 140mA;V EE =0V;f=800Hz;T amb =25°C; unless otherwisespecified)PARAMETERTEST CONDITIONS SYMBOL MIN TYP MAX UNITSupply; LN and VCC(pins 1 and 13) Voltage Drop Over Circuit, between LN and V EEMIC inputs open I line =1mA V LN 1.6V I line =4mA V LN 1.9VI line =15mA V LN 3.55 4.0 4.25V I line =100mA V LN 4.95.76.5V I line =140mA V LN7.5V Variation with Temperature I line =15mA ∆V LN /∆T-0.3 mV/KVoltage Drop Over Circuit, between LN and VEE with External Resistor R VAI line =15mAR VA (LN to REG)=68k Ω 3.5V I line =15mAR VA (REG to SLPE)=39k Ω 4.5VSupply CurrentV CC =2.8VI CC 0.91.35mASupply Voltage Available for Peripheral Circuitry I line =15mATEA1062I p =1.2mA;MUTE=HIGH V CC 2.2 2.7 V l p =0mA;MUTE=HIGH V CC 3.4 V TEA1062AI p =1.2mA;MUTE=LOW V CC 2.22.7 V l p =0mA;MUTE=LOWV CC3.4 VUTC TEA1062/1062A LINEAR INTEGRATED CIRCUIT ELECTRICAL CHARACTERISTICS (continued)PARAMETER TEST CONDITIONS SYMBOL MIN TYP MAX UNIT Microphone inputs MIC+ and MIC- (pins 6 and 7)Input impedance (differential)between MIC- and MIC+£üZ i£ü 64kΩInput impedance (sigle-ended)MIC- or MIC+ to V EE£üZ i£ü 32kΩCommon Mode Rejection Ratio k CMR 82 dB Voltage GainMIC+ or MIC- to LN I line=15mAR7=68kΩG v 50.5 52.0 53.5 dB Gain Variation with Frequencyat f=300Hz and f=3400Hz w.r.t.800Hz∆G vf+-0.2 dB Gain Variation with Temperatureat -25°C and +75°C w.r.t.25°Cwithout R6;I line=50mA∆G vT+-0.2 dB Dual-tone multi-frequency input DTMF (pin 11)Input impedance£üZ i£ü20.7kΩVoltage Gain from DTMF to LN I line=15mAR7=68kΩG v 2425.5 27dBGain Variation with Frequencyat f=300Hz and f=3400Hz w.r.t.800Hz∆G vf+-0.2dBGain Variation with Temperatureat -25°C and +75°C w.r.t.25°CI line=50mA∆G vT+-0.2dB Gain Adjustment GAS1 and GAS2 (pins 2 and 3)Gain Variation of the TransmittingAmplifier by Varying R7 betweenGAS1 and GAS2∆G v-80dBSending Amplifier Output LN(pin 1)Output Voltage I line=15mATHD=10%V LN(rms) 1.7 2.3VI line=4mATHD=10%V LN(rms)0.8VNoise output voltage I line=15mA;R7=68kΩ;200Ω betweenMIC- and MIC+;psophometricallyweighted V NO(rms)-69dBmp Receiving Amplifier Input IR (pin 10)Input impedance£üZ i£ü21kΩReceiving Amplifier Output QR (pin 4)Output Impedance£üZ o£ü4ΩVoltage gain from IR to QR I line=15mA;R L(from pin 9 topin 4 )=300ΩG v29.53132.5dB UTC UNISONIC TECHNOLOGIES CO., LTD.4QW-R108-001,AUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.5QW-R108-001,AELECTRICAL CHARACTERISTICS (continued)PARAMETERTEST CONDITIONS SYMBOL MIN TYP MAX UNIT Gain Variation with Frequency at f=300Hz and f=3400Hz w.r.t.800Hz ∆G vf¡À0.2dBGain Variation with Temperature at-25°C and +75°Cw.r.t.25°C without R6 I line =50mA ∆G vT +-0.2dBOutput Voltagesinwave drive;I p =0mA;THD=2% R4=100k Ω I line =15mA R L =150ΩV O (rms)0.220.33V R L =450ΩV O (rms)0.30.48VOutput VoltageTHD=10% R4=100k Ω R L =150Ω I line =4mA V O (rms)15mVNoise Output VoltageI line =15mA R4=100k Ω IR open-circuit psophometrically weighted RL=300ΩV NO (rms)50¦ÌVGain adjustment GAR (pin 5) Gain Variation of ReceivingAmplifier Achievable by VaryingR4 between GAR and QR∆G v -110dBMute Input (pin 12) Input Voltage(HIGH)V IH 1.5V CC V Input Voltage(LOW)V IL 0.3V Input CurrentI MUTE 815¦ÌA Reduction of GainMIC+ or MIC- to QRMUTE=LOW ∆G v70dBVoltage Gain from DTMF to QRMUTE=LOW R4=100k Ω RL=300ΩG v -19dBAutomatic Gain Control Input AGC ( pin 15) Controlling the Gain from lR to QR and the Gain from MIC+/MIC- to LN;R6 between AGC and VEE R6=110k Ω Gain Control Range I line =70mA ∆G v -5.8 dB Highest Line Current for Maximum Gain I line 23 mA Minimum Line Current for Minimum GainI line61mAUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.6QW-R108-001,AFUNCTIONAL DESCRIPTIONSupply: VCC, LN, SLPE, REG and STABPower for the UTC TEA1062/1062A and its peripheral circuits is usually obtained from the telephone line. The IC supply voltage is derived from the line via a dropping resistor and regulated by the UTC TEA1062/1062A,The supply voltage Vcc may also be used to supply external circuits e.g. dialling and control circuits. Decoupling of the supply voltage is performed by a capacitor between Vcc and V EE while the internal voltage regulator is decoupled by a capacitor between REG and V EE. The DC current drawn by the device will vary in accordance with varying values of the exchange voltage(V exch ), the feeding bridge resistance(R exch ) and the DC resistance of the telephone line(R line ). The UTC TEA1062/1062A has an internal current stabilizer operating at a level determined by a 3.6k ¦¸ resistor connected between STAB and VEE( see Fig.8). When the line current(I line )is more than 0.5 mA greater than the sum of the IC supply current ( Icc) and the current drawn by the peripheral circuitry connected to V CC (l p ) the excess current is shunted to V EE via LN. The regulated voltage on the line terminal(V LN ) can be calculated as: V LN =V ref +I SLPE *R9 or;V LN =V ref +[(I line – I CC - 0.5*10-3A)£-I p ]*R9where:V ref is an internally generated temperature compensated reference voltage of 3.7V and R9 is an external resistor connected between SLPE and V EE . In normal use the value of R9 would be 20Ω. Changing the value of R9 will also affect microphone gain, DTMF gain,gain control characteristics, side tone level,maxmimum output swing on LN and the DC characteristics (especially at the lower voltages). Under normal conditions, when I SLPE>=I CC +0.5mA +I p , the static behaviour of the circuit is that of a 3.7V regulator diode with an internal resistance equal to that of R9.In the audio frequency range the dynamic impedance is largely determined by R1.Fig.3 shows the equivalent impedance of the circuit.Microphone inputs(MIC+ and MIC-) and gain pins (GAS1 and GAS2)The UTC TEA1062/1062A has symmetrical inputs.Its input impedance is 64k Ω (2*32k Ω) and its voltage gain is typically 52 dB (when R7=68k Ω.see Fig.13).Dynamic, magnetic, piezoelectric or electret (with built-in FET source followers) can be used. Microphone arrangements are illustrated in Fig.10. The gain of the microphone amplifier can be adjusted between 44dBand 52dB to suit the sensitivity of the transducer in use.The gain is proportional to the value of R7 which is connected between GAS1 and GAS2. Stability is ensured by the external capacitors, C6 connected between GAS1 and SLPE and C8 connected between GAS1 and VEE. The value of C6 is 100pF but this may be increased to obtain a first-order low-pass filter.The value of C8 is 10 times the value of C6. The cut-off frequency corresponds to the time constant R7*C6.Mute input (MUTE)A LOW(UTC TEA1062 is HIGH) level at MUTE enables DTMF input and inhibites the microphone inputs and the receiving amplifier inputs; a HIGH(UTC TEA1062 is LOW) level or an open circuit does the reverse. Switching the mute input will cause negligible clickis at the telephone outputs and on the line. In case the line current drops below 6mA(parallal opration of more sets) the circuit is always in speech condition independant of the DC level applied to the MUTE input.Dual-tone multi-frequency input (DTMF)When the DTMF input is enabled dialling tones may be sent onto the line. The voltage gain from DTMF to LN is typically 25.5dB(when R7=68k Ω) and varies with R7 in the same way as the microphone gain. The signalling tones can be heard in the earpiece at a low level(confidence tone).Receiving amplifier (IR,QR and GAR)The receiving amplifier has one input (IR) and a non-inverting output (QR). Earpiece arrangements are illustrated in Fig.11. The IR to QR gain is typically 31dB (when R4=100k Ω). It can be adjusted between 20 and 31dB to match the sensitivity of the transducer in use.The gain is set with the value of R4 which is connected between GAR and QR.The overall receive gain,between LN and QR, is calculated by substracting the anti-sidetone network attenuation (32dB) from the amplifier gain. Two external capacitors, C4 and C7,ensure stability. C4 is normally 100pF and C7 is 10times the value of C4. The value of C4 may be increased to obtain a first-order low-pass filter.The cut-off frequency will depend on the time constant R4*C4.The output voltage of the receiving amplifier is specified for continuous-wave drive. The maximum output voltage will be higher under speech conditions where the peak to RMS ratio is higher.UTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.7QW-R108-001,AAutomatic gain control input(AGC)Automatic line loss compensation is achieved by connecting a resistor(R6) between AGC and V EE . The automatic gain control varies the gain of the microphone amplifier and the receiving amplifier in accordance with the DC line current. The control range is 5.8dB which corresponds to a line length of 5km for a 0.5mm diameter twisted pair copper cable with a DC resistance of 176Ω/km and average attenuation of 1.2dB/km. Resistor R6 should be chosen inaccordance with the exchange supply voltage and its feeding bridge resistance(see Fig.12 and Table 1). The ratio of start and stop currents of the AGC curve is independent of the value of R6. If no automatic line loss compensation is required the AGC may be left open-circuit. The amplifier, in this condition, will give their maximum specified gain.Side-tone suppressionThe anti-sidetone network, R1//Z line , R2, R3, R8, R9and Z bal ,(see Fig.4) suppresses the transmitted signal in the earpiece. Compensation is maximum when the following conditions are fulfilled:(a) R9*R2=R1[R3+(R8//Z bal )];(b) [Z bal /(Z bal +R8)]=[Z line /(Z line +R1)];If fixed values are chosen for R1, R2, R3 and R9 then condition(a) will always be fullfilled when R8/Z bal l ¡¶R 3.To obtain optimum side-tone suppression condition(b)has to be fulfilled which results in:Z bal =(R8/R1) Z line =k*Z line where k is a scale factor;K=(R8/R1).The scale factor (k), dependent on the value of R8, is chosen to meet following criteria:(a) Compatibility with a standard capacitor from the E6 or E12 range for Z bal,(b)£üZ bal //R8£ü¡¶R 3 fulfilling condition (a) and thus ensuring correct anti-sidetone bridge operation,(c) £üZ bal +R8£ü¡·R 9 to avoid influencing the trans- mitter gain.In practice Z line varies considerably with the type and length. The value chosen for Z bal should therefore be for an average line length thus giving optimum setting for short or long lines.ExampleThe balance impedance Z bal at which the optimum suppression is present can be calculated by: Suppose Z line = 210Ω+(1265Ω//140nF) representing a 5km line of 0.5 mm diameter, copper, twisted pair cable matchedto 600Ω(176Ω/km;38nF/km). When k=0.64 then R8=390Ω,Z bal =130Ω+(820Ω//220nF). At line currents below 9mA the internal reference voltage is automatically adjusted to a lower value(typically 1.6V at 1mA) This means that more sets can be operated in parallel with DC line voltages (excluding the polarity guard) down to an absolute minimum voltage of 1.6V.With line currents below 9mA the circuit has limited sending and receiving levels. The internal reference voltage can be adjusted by means of an external resistor(R VA ). This resistor when connected between LN and REG will decrease the internal reference voltage and when connected between REG and SLPE will increase the internal reference voltage. Current(I p )available from V CC for peripheral circuits depends on the external components used. Fig.9 shows this current for V CC > 2.2V. If MUTE is LOW (1062 is HIGH)when the receiving amplifier is driven the available current is further reduced. Current availability can be increased by connecting the supply IC(1081) in parallel with R1,as shown in Fig.16(c), or, by increasing the DC line voltage by means of an external resistor(R VA )connected between REG and SLPE.UTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.8QW-R108-001,ALNV EEµFCCRp=16.2k ΩLeq=C3*R9*RpFig.3 Equivalent impedance circuitThe anti-sidetone network for the UTCTEA1062/1062A family shown in Fig.4 attenuates the signl received from theline by 32 dB before it enters the receiving amplifier. The attenuation is almost constant over the whole audio frequency range. Fig.5 shows a convertional Wheatstone bridge anti-sidetone circuit that can be used as an alternative. Both bridge types can be used with either resistive or complex set impedances.ZlineFig 4 Equivalent circuit of UTC TEA1062/1062Aanti-sidetone bridgeZlineFig 5 Equivalent circuit of an anti-sidetonenetwork in a wheatstone bridge configurationUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.9QW-R108-001,A1501301109070503024681012(1)(2)(3)(4)V LN -V SLPE (V)I line (mA)(1) 45¢X C 1068mW (2) 55¢X C 934mW (3) 65¢X C 800mW (4) 75¢X C 666mWTambPtotFig.6 UTC TEA1062/ TEA1062A safe operating areaFig.8 Supply arrangementUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.10QW-R108-001,AFig.9 Typical current Ip available from Vcc peripheral circuitry with Vcc>=2.2V.curve (a) is valid when the receiving amplifier is not driven or when MUTE =LOW (UTC TEA1062 isHIGH) .curve(b) is valid when MUTE=HIGH (UTC TEA1062 is LOW) and the receiving amplifier isdriven;Vo(rms)=150mV,R L =150Ω.The supply possibilities can be increased simply by setting the voltage dropover the circuit V LN(a)(b)(c)Fig. 10 Alternative microphone arrangement(a) Magnetic or dynamic microphone. The resistor marked(1) may be connected to decrease the terminating impedance.(b) Electret microphone.(c) Piezoelectric microphone.I p (mA)V cc(V)(a) Ip=2.1mA (b) Ip=1.7mAIline=15mA at V LN =4V R1=620Ω and R9=20ΩUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.11QW-R108-001,A(a) Dynamic earpiece.(b) Magnetic earpiece.The resistor marked(1) may be connected to prvent distortion(inductive load)(c) Piezoelectric earpiece.The earpiece marked(2) is requirred to increase the phase margin (capacitive load)Fig.12 Variation of gain with line urrent,with R6 as a parameter.Rexch(Ω)4006008001000R6(k Ω)3610078.7¡Á¡ÁVexch(V)4814011093.18260¡Á¡Á120102Table 1 Values of resistor R6 for optimum line loss compensation,for various usual values of exchange supply vloltage(Vexch) and exchange feeding bridge resistance(Rexch);R9=20Ω.V V EE V EE (a)(b)(c)Fig.11 Alternative receiver arrangement-6-4-20020406080100120140 Iline (mA)¡÷G v (dB)R6=¡ÞR9=20Ω78.7k Ω110k Ω140k Ω(1)(2)(3)(3)(1)(2)R6=R6=R6=UTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.12QW-R108-001,AFig.13 Test circuit defining voltage gain of MIC+,MIC- and DTMF inputs.Voltage gain is defined as : GV=20*log(|VO/Vi|).For measuring the gain from MIC+ and MIC- the MUTE input should be HIGH(UTC TEA1062 is LOW) or open-circuit, for measuring the DTMF input MUTE should be LOW(UTC TEA1062 is HIGH) .Inputs not under test should be open-circuit.Fig.14 Test circuit for defining voltage gain of the receiving amplifier.Voltage gain is defined as: GV=20*log(|VO/Vi|).R1 620ΩC1100 µF10 TO 140 mAC1100µF10 TO 140 mAUTC TEA1062/1062A LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.13QW-R108-001,AFig.15 Typical application of the UTC TEA1062A ,shown here with a piezoelectric earpiece and DTMF dialling. The bridge to the left ,the Zener diode and R10 limit the current into the circuit and the voltage across the circuit during line transients.Pulse dialling or register recall required a different protection arrangement.The DC line voltage can be set to a higher value by resistor RVA(REG to SLPE).Fig.16 Typical applications of the UTC TEA1062/1062A (simplified)The dashed lines show an optional flash ( register recall by timed loop break).R1。
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UL51A 友顺UTC 电子元器件芯片
UNISONIC TECHNOLOGIES CO., LTDUL51A Preliminary CMOS ICHIGH POWER FACTOR LINEAR CONSTANT CURRENT LED DRIVER⏹DESCRIPTIONUTC UL51A is a high power factor linear constant current LED driver which is applied to LED lighting. Through the distinctive constant current control technology, it realizes that constant current accuracy is less than ±5% and output current is adjustable through external resistor. High power factor and low harmonic distortion are the particular features.The system is simple without transformer and electrolysis capacitor. Therefore, LED lighting batch job can be realized.⏹FEATURES*No transformer and high voltage electrolysis capacitor*Integrated high voltage startup power supply circuit*Adjustable output current, max 100mA*Inter-chip current deviation < ±5%*Efficiency: >90%*Power factor: >0.95*THD<20%*Over temperature protection*Application system no EMI problems⏹ORDERING INFORMATIONOrdering Number Package PackingUL51AG-SH2-R HSOP-8TapeReel⏹MARKING⏹PIN CONFIGURATIONOUT4 OUT3 OUT2GND NC NC REXTOUT1⏹PIN DESCRIPTIONPIN NO. PIN NAME DESCRIPTION1 OUT4 current output port 42 OUT3 current output port 33 OUT2 current output port 44 OUT1 Power input and constant current output port 15 REXT Output current setting port6~7NC8GNDGND⏹ABSOLUTE MAXIMUM RATING (Ambient temperature is 27°C if there is no special instruction)PARAMETER SYMBOL RATINGS UNITESD Voltage Withstand V ESD>2000V Operating Temperature T OPR-20 ~ +125°C Storage Temperature T STG-40 ~ +150°C Note: Absolute maximum ratings are those values beyond which the device could be permanently damaged.Absolute maximum ratings are stress ratings only and functional device operation is not implied.⏹ELECTRICAL CHARACTERISTICS (Ambient temperature is 27°C if there is no special instruction)TYPMAX UNITCONDITIONS MIN PARAMETER SYMBOL TESTOUT1 Input Voltage V OUT1 6.5V Output Current I OUT10 100mA REXT Port Voltage V REXT V OUT1=V OUT4=10V0.9VOUT1/ OUT2 Port Withstand Voltage V DS_BV1I OUT1=I OUT2=0250VOUT3/ OUT4 Port Withstand Voltage V DS_BV2-4I OUT3=I OUT4=0150VIOUT Accuracy dI OUT I OUT=10~50mA±5%Over-Temperature Protection Point (Note 1) TSC 110 °C Note: When the junction temperature is over 110°C, the output current of UL51A will be reduced.FUNCTIONAL DESCRIPTIONUTC UL51A is constant current drive which integrates the functional module such as LED constant current control and OUT port high voltage drive. OUT1 port minimum input voltage is 6V (I OUT=20mA) and it can reach output current 10mA ~ 60mA by external REXT resistor. Built-in LED constant current drive maintains LED current a high precision without impact of ambient temperature. The chip can achieve high efficiency and high power factor by opening four switches one by one.The chip output current is adjustable by REXT resistor I OUT=V REXT/R. Output current generated by four switches opening one by one is shown below:I OUT1=0.56V/RI OUT2=0.73V/RI OUT3=0.87V/RI OUT4=0.94V/RTYPICAL APPLICATION CIRCUITVacFigure 1. UTCTypical Application CircuitVacFigure 1. UTC Typical Application CircuitTYPICAL APPLICATION CIRCUIT (Cont.)Figure 2. UTC Parallel Application Circuit。
AP4525GEH-A中文资料
Parameter Forward On Voltage2 Reverse Recovery Time2
Reverse Recovery Charge
Test Conditions IS=-12A, VGS=0V IS=-5A, VGS=0V dI/dt=-100A/µs
Min. Typ. Max. Units
Thermal Data
Symbol
Parameter
Rthj-c Rthj-a
Thermal Resistance Junction-case Thermal Resistance Junction-ambient3
S1
Rating
N-channel P-channel
40
-40
±16
±16
8.3
Normalized RDS(ON)
ID , Drain Current (A)
50
T C = 150 o C
40
30
10V 7.0V 5.0V 4.5V
20
V G =3.0V
10
0
0
1
2
3
4
5
6
V DS , Drain-to-Source Voltage (V)
TEA2025中文资料详解
TEA2025B中文资料详解TEA2025是欧洲生产的双声道功率放大集成电路,该电路具有声道分离度高、电源接通时冲击噪声小、外接元件少,最大电压增益可由外接电阻调节等特点,应用于袖珍式或便携式立体声音响系统中作功率放大。
1 .TEA2025内电路方框图及引脚功能TEA2025集成块内部主要由两路功能相同的音频预放、功放、去耦、驱动电路、供电电路等组成,其集成块的内电路方框图及双声道应用电路如图所示。
该IC采用16脚双列直插式封装,其集成电路的引脚功能及数据见表所列。
2. TEA2025主要电参数(1)极限使用条件。
在T.=25℃时,电源电压Vcc=15 V.输出峰值电流Io=1.5A。
(2)主要电参数。
TEA2025集成电路工作电源电压范围为3--12 V.典型工作电压6-9 V。
在Vcc=9 V,RL=8。
Ta=25℃条件下,有以下主要电参数。
.静态电流ICQ 最大值为50 mA,典型值为40 mA。
.电压增益GV 双声道时的最大值为47 dB,最小值为43 dB,典型值为45 dB; BTL时的最大值为53 dB,最小值为49 dB,典型值为51 dB。
.输出功率PO 当THD=10%,F=1 kHz时,双声道时的典型值为1.3 W, BTL 时的典型值为4.7 W。
.谐波失真THD 当F=1 kHz,Po=250 mW,RL=4。
时,双声道时的最大值为1.5%,典型值为0.3%; BTL时的典型值为0.5%.4.电路工作过程以双声道电路为例,音频信号经电容耦合从TEA2025的⑦、⑩脚输入,先经预放大后加到功率放大器,放大后的音频信号从②、15脚输出,由输出祸合电容耦合去驱动喇叭发声。
TEA2025集成块的①脚专用于BTL方式时用,当采用双声道方式时,应将其悬空不接。
5.故除检修提示TEA2025组成的电路出现的无声故障,应先检查外围电路,检查其⑥脚上的供电电源是否正常。
如偏低,可脱开该脚再测与该脚脱开的铜箔,如供电电压上升,则多为IC内局部有短路引起的。
LR1120 友顺UTC 电子元器件芯片
LR1120 Preliminary CMOS ICNOISE ULTRA-FAST WITH SOFTSTART CMOS LDO REGULATOR⏹DESCRIPTIONUTC LR1120 a 500mA LDO regulator, has very high PSRR andsuper low dropout voltage especially suitable for wireless and portableapplications.In the field of hand-held wireless devices, board space andbattery life are the main concerns of designers and end-users.Because of the low quiescent current and low ESR ceramiccapacitors, UTC LR1120 can satisfy those concerns.Furthermore, low current consumption in shutdown mode(0.7μA), fast turn-on time (<70μs), high output accuracy, currentlimiting protection, and high ripple rejection ratio are advantages ofUTC LR1120.⏹FEATURES*Operating Voltage Ranges : 2.2V to 5.5V*Dropout : 250mV at 500mA*When IC Shutdown: 5mA Discharge Current of V OUT*Extreme Low Noise for DSC Application*Extreme Fast Response in Line/Load Transient*Internal Current Limiting Protection*Internal Thermal Shutdown Protection*High PSRR*Recommended 1μF Output Capacitor only for Stability*With TTL Logic Controlled Shutdown Input⏹ORDERING INFORMATION⏹MARKING INFORMATION⏹PIN DESCRIPTION⏹BLOCK DIAGRAMSSV INV OUTGND⏹ABSOLUTE MAXIMUM RATING (T A= 25°C, unless otherwise specified.)maximum ratings are stress ratings only and functional device operation is not implied.⏹THERMAL DATA⏹OPERATING CONDITIONS⏹ELECTRICAL CHARACTERISTICSfor load regulation in the load range from 1mA to 500mA.2.Quiescent, or ground current, is the difference between input and output currents. It is defined by I Q = I IN -I OUT under no load condition (I OUT = 0mA). The total current drawn from the supply is the sum of the loadcurrent plus the ground pin current.3.The dropout voltage is defined as V IN -V OUT, which is measured when V OUT is V OUT(NORMAL)×98%.TYPICAL APPLICATION CIRCUITV INOUTμF。
UTC UTC UR132 LINEAR INTEGRATED CIRCUIT 数据手册
UTC UR132LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.1QW-R102-007,E200mA LOW DROPOUT LINEAR VOLTAGE REGULATORDESCRIPTIONThe UTC UR132 is a 200mA fixed output voltagelow dropout linear regulator. Wide range of available output voltage fits most of applications. Built-in output current-limiting most thermal-limiting provide maximal protection against any fault conditions.FEATURES*Guaranteed 200mA output current *Input voltage range up to 12V *Extremely tight load regulation *Fast transient response*Current-limiting and Thermal-limiting*Three-terminal adjustable or fixed voltage.APPLICATIONS*Voltage regulator for LAN Card, CD-ROM, and DVD *Wireless communication systemsSOT-23 : 1: V OUT 2: GND 3: V IN SOT-25 : 1: V IN 2: GND 3: NC 4: NC 5: V OUTPIN DESCRIPTIONNAME FUNCTIONVOUT OutputGND Ground/Adjustable VIN Positive Power InputFunction Block DiagramUTC UR132 LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD.2QW-R102-007,EABSOLUTE MAXIMUM RATINGSPARAMETER MIN. TYP. MAX. UNITInput Voltage Vin-0.3 12 V Operating Junction Temperature Range -40 125 °C Storage Temperature Range -65 150 °C Power Dissipation0.3WUTC UR132- Vo<3.3V (Vo ±2%)ELECTRICAL CHARACTERISTICS (Ta=25°C, C IN =1µF, C OUT =10µF, unless otherwise specified)PARAMETER TEST CONDITIONS MIN TYP. MAX UNITSOutput Voltage I L =2mA, V IN-V OUT =2V Vo ×0.98Vo Vo ×1.02V Output Voltage Temperature Coefficient50 150 PPM/°C Line Regulation I L =2mA, V IN-Vout =2V~Vin =9V 0.5 %V OUT Load Regulation (note 2) I L =2mA~200mA, V IN-Vout =2V 10 30 mV Current Limit (note 3) V IN-Vout =2V, V OUT =0V 300 mA Dropout Voltage (note 4,5) 1.5 V Standby current I L =0, V IN =9V3.0mAUTC UR132- ADJ / Vo ≧3.3V (Vo ±2%)ELECTRICAL CHARACTERISTICS (Ta=25°C, C IN =1µF, C OUT =10µF, unless otherwise specified)PARAMETER TEST CONDITIONS MIN TYP. MAX UNITSOutput Voltage I L =2mA, V IN-V OUT =2V Vo ×0.98Vo Vo ×1.02V Adjustable (R1=120Ω,R2=200Ω,Vout=3.3V) Reference Voltage Vin-Vo=2V, I L =2mA 1.238 1.250 1.262 V Output Voltage Temperature Coefficient50 150 PPM/°C Line Regulation I L =2mA, V IN-Vout =2V~Vin =12V 0.5 %V OUT Load Regulation (note 2) I L =2mA~200mA, V IN-Vout =2V 10 30 mV Current Limit (note 3) V IN-Vout =2V, V OUT =0V 300 mA Dropout Voltage (note 4,5) 1.3 V Standby current I L =0, V IN =12V 5.0 mA Note 1: Guaranteed by design.Note 2: Regulation is measured at constant junction temperature, using pulsed ON time. Note 3: Current Limit is measured at constant junction temperature, using pulsed ON time.Note 4: Dropout is measured at constant junction temperature, using pulsed ON time, and the criterion is V OUTinside target value ±2%.Note 5: Dropout test is skipped at the condition of V IN <3V.UTC UR132 LINEAR INTEGRATED CIRCUITUTCUNISONIC TECHNOLOGIES CO., LTD.3QW-R102-007,ETYPICAL APPLICATION CIRCUITUTC UR132APPLICATION INFORMATIONA 10µF (or larger) capacitor is recommended between V OUT and GND for stability. The part may oscillatewithout the capacitor. Any type of capacitor can be used, but not Aluminum electrolytics when operating below -25°C. The capacitance may be increased without limit.A 1µF capacitor (or larger) should be placed between V IN to GND.UR132 ADJUSTABLEV OUTV INCr:10uF to improve ripple rejection V OUT =V REF (1+R2/R1)+I ADJ *R2UTC UR132LINEAR INTEGRATED CIRCUITUTC UNISONIC TECHNOLOGIES CO., LTD. 4QW-R102-007,E。
TEA2025功放
BOOT.2
3
GND
4
GND
5
FEEDBACK
6
IN.2 (+)
7
SVR
8
16
+Vs
15
OUT.1
14
BOOT.1
13
GND
12
GND
11
FEEDBACK
10
IN.1 (+)
9
GND (sub.)
SO 12+4+4 PIN CONNECTION (Top view)
BRIDGE OUT 2
BOOT 2 GND GND GND GND
TEA2025B - TEA2025D
The total gain of the bridge is given by:
VOUT VIN
=
R1
Rf+R2
+
1 JWC1
(1+
R3 R4
R1
R2+R4+
1 JWC1
)
and with the suggested values (C1 = C2 = 100 µF,
Figure 9
The bridge configuration is realized very easily thanks to an internal voltage divider which provides (at pin 1) the CH 1 output signal after reduction. It is enough to connect pin 6 (inverting input of CH 2) with a capacitor to pin 1 and to connect to ground the pin 7.
UTCA-PM-SA中文资料
October 20061© 2006 Actel CorporationSee the Actel website for the latest version of the datasheet.Product BriefMicroTCAPower Module Reference DesignFeatures•Complete MicroTCA Power Module Reference Design–System Management by Actel Fusion™ Mixed-Signal FPGA–Compliant to MicroTCA.0 SpecificationRevision 1.0–Ready to Plug In for Evaluation and Inter-operability Testing–Single-Card Design with Half-Brick DC/DCConverter Demonstrates the Incredible Space Saving of the Fusion-Based Power Module –Includes Hardware Design, HDL, and Software –Includes a Power Module EMMC Interface (IPand software)–Reduced Part Count with More Features andPerformance Than MCU-Based Systems–Reference Design Greatly Reduces Time toMarket and Development Effort–Includes Support for Power ModuleRedundancy and In-System Test and Firmware/Software Upgrades via JTAG/JSM Interface•Less Than 50% of the Cost, Size, and Components of Existing Power Modules Due to Superior Analog and Digital Circuitry of Fusion Devices•Supports a Mix of Hardwired and MCU-Based Functionality for Speedy Processing•Exceeds MicroTCA Specification for Power Monitoring•In-System Reprogrammability Allows Customization and Field Updates•Digitally Monitored and Configurable Voltage,Current, and Temperature Thresholds with Hardwired Fail-Safe Circuitry •Hot-Swap Compatible•Hardware and Software Support by Signal Stream Technologies, Including Custom Boards,Assemblies, and SoftwareFigure 1•Actel Power ModuleMicroTCA2Product BriefThe Actel MicroTCA Power ModuleGeneral DescriptionActel is enabling the MicroTCA market by providing Fusion-powered reference designs. The Actel Fusion Programmable System Chip (PSC) improves the design of MicroTCA power modules by dramatically reducing part count, board space, system cost, and power while increasing reliability, flexibility, and system availability.The Fusion device includes analog I/O, an analog-to-digital converter, FPGA gates, large Flash memory,clocking, and other features that enable it to reduce the part count of the Actel Power Module (PM) reference design by hundreds of parts over other FPGA- and MCU-enabled power modules. The analog I/O, digital processing of analog signals, and Flash memory enable improved system monitoring and control so that systemreliability and availability increases. As an FPGA, Fusion is the most flexible solution on the market, with in-system reprogrammable microcode and FPGA logic gates.Finally, Fusion improves performance with many functions coprocessed in FPGA gates alongside the Core8051 processor.Actel has reduced the part count required for MicroTCA power module designs in a unique reference design platform that includes hardware, software, and FPGA hardware description language (HDL)—a full solution.Unlike component-driven ASSP designs, the Actel Fusion FPGA enables integration of multiple functions, which include voltage and temperature monitoring, a large Flash memory for event logging, and nonvolatile FPGA fabric for nearly instantaneous hot-swap and power switchover. All of this functionality is delivered today with an Actel Fusion chipset while reducing your bill-of-materials cost over ASSP-based power module systems.Figure 2•Power Module Fusion Device Block DiagramMicroTCAProduct Brief3The Actel Power Module reference design functions as described in the MicroTCA Specification v1.0, Chapter 4,and provides all of the power subsystem functionality,including the following:•Modular inputs •Fusing•Supply selection •Emissions filtering•Transient suppression and power conversion •Payload and management power monitoring•Power supply to the MicroTCA Carrier Hubs(MCH), AMCs, and cooling unitThe power module reference design includes the redundant Intelligent Platform Management Bus (IPMB-0)and the optional JTAG interfaces.The reference design also includes functionally verified hardware, FPGA HDL, and third-party software support.All elements of the design will be thoroughly tested during MicroTCA interoperability testing.For those who want to customize the design, Actel provides the source and can enable a path for turn-key modifications. Signal Stream Technologies has partnered with Actel to offer design services for customizing both hardware and software and will deliver timely engineering support and maintenance services. The Actel Protocol Design Services group can provide modifications to the HDL . For modules in production volume, our partner, MicroBlade™, Inc., offers complete turn-key power modules to your exact specifications. In summary,you can customize the design yourself or have Actel and its partners perform customization.The power module reference design is delivered as a single-board design for the smallest form factor and superior thermal capabilities.Unlike MCU-based designs, which are software-driven and slow, many functions, such as analog-to-digital conversion sequencing and sampling, over-current and under-voltage power switchover, and hot-swap disable,are hardwired. Hardwired fail-safe logic minimizes response time, if there is an unexpected board extraction or system failure.Since payload power current regulation is fully implemented in hardware, the Actel power module is more accurate than MCU-based designs. The current limit for each output channel can be individually programmed in 256 steps with ±1% full-scale accuracy.L ikewise, both payload power and management power output voltages are measured with ±1% full-scale accuracy.The power module is also more flexible than anything on the market today. A customer can update the FPGA firmware and application software on-the-fly and can customize hardware, firmware, or software. With a total of 1MByte of on-board Flash memory, software for the on-chip Core8051 microcontroller can be reprogrammed on-the-fly by uploading code to an isolated buffer in theFlash memory, performing verification, and then switching the context to the new software. Unlike an ASSP-based solution, the Actel controller is an FPGA, so even the "hardware" is reprogrammable, either on the bench using standard FPGA programming tools or in-system via the MicroTCA backplane JTAG interface. A customer can also add differentiation to the hardware design, since Actel provides a full set of design documents, including schematics, a bill-of-materials,layout drawings, and manufacturing drawings.A Power Module That Goes Beyond the MicroTCA StandardThe Actel MicroTCA power module is a reference module designed specifically to meet the power conversion,power switching, and form factor requirements to enable MicroTCA applications.It supports a dual –48 VDC input and delivers more than 380W to the MicroTCA backplane. With the revolutionary form factor made available by the Actel Fusion device, power output levels greater than 700W are easily possible in a single power module.The monitoring and controller hardware supports input power filtering, conditioning, fusing and monitoring,output power control, monitoring and protection, and DC-to-DC conversion for management and payload power. The Intelligent Platform Management Interface (IPMI) software is IPMI v2.0 compatible and will manage the turn-on sequencing for local AMCs, voltage, and current monitoring, handle abnormal power conditions,and respond to commands and requests from an MCH via the IPMB-0 interface. The module works with a single or dual MCH or as a standalone device without an MCH present in the system. It is compatible with the new PICMG ® MicroTCA.0 revision 1.0 standard.The module can turn on each of the management and payload power lines individually, as specified in the MicroTCA specification. It also monitors temperature and power status and reports this back to the MCH. In the case of no MCH, the microcontroller on the module notices that no MCH is present and can execute an on-board preprogrammed system management application.If an AMC is inserted, the power for that slot is turned on and if a module is extracted, the power for that slot is turned off. System application software can be downloaded to the board using the serial port (RS-232)on the front of the module or by the JTAG interface. The IPMB bus on the power module will also monitor temperature and handle fan speed on the cooling module, when that reference design is available.IPMI Debug and Self-TestThis power module allows the user to record and insert IPMI commands into any of the I2C busses in the system.This feature is useful for development, debugging, and testing of a system.MicroTCA4Product BriefTechnical SpecificationsGeneral•Single-wide / full-height per AMC.0 revision 1.0•384 W with typical power dissipation under full load of 28.3W•93% total efficiency •Component part count–Less than 400 total parts –65 stock-keeping units•Payload and management brick temperature monitors•Inlet air temperature monitorSystem Management•Single-cycle, 8-bit, Core8051 MCU in an Actel Fusion FPGA•Fusion: 1,024 kilobytes of Flash, 216 kbits of RAM •Analog monitoring and A/D conversion •IPMI v2.0 for power module EMMCPower Inputs•< 415 W•–36 to –72 VDC at 15 A maximum•Power inputs are transient protected and fused •Input voltage is monitored and event messages are generated for alarm conditionsPower Outputs•384 W output with a 1/2 brick•800 W output possible with two 1/4 bricks•Support for all MicroTCA specified redundancy configuration•Supports total payload power output channel on resistance as low as 3.4 m Ω •Payload power channel outputs –±50 mV resolution–Over-voltage monitored with configurablethreshold–Under-voltage monitored with configurablethreshold–Backup trigger threshold voltage configurable –Default current limit 7.6 A–Programmable from 200 mA to 9.7 A in 50mAincrements–Current threshold accuracy ±50 mA–Immediate current limit engages in less than60µs for over-currents greater than 105% of threshold–Warnings for over-currents greater than 100%and less than 105%•Management power channel outputs –±25 mV resolution–Over-voltage monitored with configurablethreshold–Under-voltage monitored with configurablethreshold–Backup trigger threshold voltage configurable –Current limited to greater than 150 mA andless than 225 mA•Standby management power output/input–Output current greater than or equal to350mA–Input current less than or equal to 225 mACompliance•Conforms to PICMG MicroTCA specification v1.0 /IPMI v2.0 (subject to verification)•RoHS compliant•Designed to meet or exceed (subject to verification testing)–Safety: UL 1950, UL 94, CSA 22.2 No. 950, EN60950, IEC 950–EMI/EMC: EN 55022 / EN 55024, EN 50081-1 / EN6100-6-2Front Panel•AMC latch with hot-swap switch •Blue hot-swap indicator LED •Green ready indicator LED•Red out-of-service indicator LED•Green/Amber (LED) indicating IPMI Tx/Rx message traffic•USB diagnostic port•A andB power input connectorsEnvironmental•Environment per PICMG MicroTCA.0 revision 1.0•Operating temperature: –5°C to 40°C long-term ––5°C to 55°C for 96 hours–Storage temperature: –40°C to 70°C–Operating humidity: 5% to 95% relativehumidity (non-condensing and condensing)Miscellaneous•Dimensions: 186.7 × 73.2 × 30.5 mm •Weight: less than 300 g •MTBF: TBDMicroTCAProduct Brief 5IPMI CommandsMicroTCA Power Module EMMCIPM Device "Global" CommandsGet Device ID Get Self Test Results Broadcast "Get Device ID"PEF and Alerting CommandsGet PEF Capabilities Arm PEF Postpone TimerSet PEF Configuration Parameters Get PEF Configuration Parameters Set Last Processed Event ID Get Last Processed Event IDSensor Device CommandsGet Device SDR Information Get Device SDRReserve Device SDR Repository Get Sensor ReadingFRU Device CommandsGet FRU Inventory Area Information Read FRU Data Write FRU DataSDR Device CommandsGet SDR Repository Information Reserve SDR Repository Get SDR Add SDR Partial Add SDR Clear SDR Repository Get SDR Repository Time Set SDR Repository TimeExit SDR Repository Update ModeSEL Device CommandsGet SEL Information Get SEL Entry Add SEL Entry Partial Add SEL Entry Clear SEL Get SEL Time Set SEL TimeAdvancedTCAGet PICMG Properties FRU ControlGet FRU LED Properties Get LED Color Capabilities Set FRU LED State Get FRU LED State Set IPMB StateGet Device Locator Record ID Set Port StateFRU Control CapabilitiesAdvancedMCSet AMC Port State Get AMC Port StateMicroTCAPower Channel Control Get Power Channel Status PM Reset Get PM Status PM HeartbeatReference Design Kit Contents•Hardware –Schematic –BOM–Manufacturing files •IP platform (FPGA HDL)–Object code: Netlist or obfuscated RTL –Source code: RTL source •Application software–Object code: compiled source code –Source code: in C languageOrdering InformationTable 1•Ordering CodesPart NumberDescriptionMicroTCA Power Module Reference Design uTCA-PM-RD-O With object code uTCA-PM-RD-SWith source codeMicroTCA Power Module uTCA-PM-SAStandalone power moduleMicroTCADatasheet CategoriesIn order to provide the latest information to designers, some datasheets are published before data has been fully characterized. Datasheets are designated as "Product Brief," "Advanced," and "Production." The definitions of these categories are as follows:Product BriefThe product brief is a summarized version of an advanced or production datasheet containing general product information. This brief summarizes specific device and family information for unreleased products.AdvancedThis datasheet version contains initial estimated information based on simulation, other products, devices, or speed grades. This information can be used as estimates, but not for production.Unmarked (production)This datasheet version contains information that is considered to be final.6Product Brief51700084-0/10.06Actel and the Actel logo are registered trademarks of Actel Corporation.All other trademarks are the property of their owners.Actel Corporation 2061 Stierlin Court Mountain View, CA 94043-4655 USA Phone 650.318.4200Fax 650.318.4600Actel Europe Ltd.River Court, Meadows Business Park Station Approach, Blackwater Camberley, Surrey GU17 9AB United KingdomPhone +44 (0) 1276 609 300Fax +44 (0) 1276 607 540Actel JapanEXOS Ebisu Bldg. 4F1-24-14 Ebisu Shibuya-ku Tokyo 150 JapanPhone +81.03.3445.7671Fax +Actel Hong KongSuite 2114, Two Pacific Place 88 Queensway, Admiralty Hong KongPhone +852 2185 6460Fax +852 2185 。
UTC 火警通知设备说明书
Genesis Speaker-Strobe Installation SheetDescriptionThe Genesis Speaker-Strobe is a fire alarm notificationappliance designed for indoor walls. See Table 1 for a list ofmodel numbers.Table 1: ModelsDescription NumberSpeaker-Strobe,25 VRMS, 15 to 110 multi-cd, white ADTG4-S2VM MG4-S2VM EG4-S2VM XLSG4-S2VM G4-S2VM ZG4-S2VMSpeaker-Strobe,25 VRMS, 15 to 110 multi-cd, white, with FIRE marking ADTG4F-S2VM MG4F-S2VM EG4F-S2VM XLSG4F-S2VM G4F-S2VM ZG4F-S2VMSpeaker-Strobe,70 VRMS, 15 to 110 multi-cd, white ADTG4-S7VM MG4-S7VM EG4-S7VM XLSG4-S7VM G4-S7VM G4-S7VMSpeaker-Strobe,70 VRMS, 15 to 110 multi-cd, white, with FIRE marking ADTG4F-S7VM MG4F-S7VM EG4F-S7VM XLSG4F-S7VM G4F-S7VM ZG4F-S7VMSurface mount box, white ADTG4B MG4BEG4B XLSG4BG4B ZG4BThe speaker-strobe includes field configurable switches for selecting the desired candela output and wattage tap. These settings lock in place and remain visible after final installation. This strobe features an enhanced synchronization circuit to comply with the latest requirements of UL 1971 Signaling Devices for the Hearing Impaired and the latest Canadian standard CAN/ULC-S526. Synchronized operation requires a separately installed synchronization control module. See Table 2 for a list of compatible synchronization modules. Install this device in accordance with applicable requirements in the latest editions of the NFPA codes and standards and Canadian Electrical Code, Part 1, Section 32 and CAN/ULC-S524, Standard for the Installation of Fire Alarm Systems, and in accordance with the local authorities having jurisdiction. Table 2: Compatible synchronization module modelsDescription NumberAuto-sync output module SIGA-CC1S SIGA-MCC1SGSA-CC1S GSA-MCC1S Genesis signal master -remote mountADTG1M-RM MG1M-RMEG1M-RM XLSG1M-RMG1M-RM ZG1M-RM InstallationWARNING:To reduce the risk of shock, disconnect all power and allow 10 minutes for stored energy to dissipate before handling.Caution:Electrical supervision requires the wire run to be broken at each terminal. Do not loop the signaling circuit field wires around the terminals.To install the speaker-strobe:1. Remove the cover by depressing the tabs on top of theunit by inserting a small screwdriver from the top andtwisting slightly.2. If temporal strobe (private mode) operation is desired, cutjumper JP1. See Figure 2.3. Connect the speaker and strobe terminals to the signalcircuit field wiring. For the unit to function properly,observe polarity. See Figure 5.4. Slide the candela switch to the desired candela output (15,30, 75, or 95 cd) by aligning it with the indicator below the switch. See Figure 1.5. Slide the wattage switch to the desired wattage tap (2 W,1 W, 1/2 W, or 1/4 W) by aligning it with the indicatorbelow the switch. See Figure 1.6. Mount the unit onto a compatible electrical box. SeeFigure 4.7. Replace the cover by aligning it at the bottom andsnapping it in at the top.8.Test the unit for proper operation.© 2013 UTC Fire & Security. All rights reserved. 1 / 4 P/N 3100273 • REV 07 • REB 30JAN13Figure 1: Field-configurable switches1. Candela switch2. Indicator3. Wattage switch4. BottomFigure 2: Strobe settings1. JP1: Strobe signal output: Cut to change from 1 flash per second(public mode) to temporal (private mode)Note:If the strobe is set to temporal (private mode), this device is no longer UL 1971 or ULC-S526 Listed or FM Approved but is UL 1638 Listed.Figure 3: UL 1971 minimum light output (% of rating vs. angle)Figure 4: Mounting diagram2 / 4 P/N 3100273 • REV 07 • REB 30JAN13P/N 3100273 • REV 07 • REB 30JAN13 3 / 4Figure 5: Wiring Diagram1. First speaker-strobe2. Last speaker strobe3. EOL resistor, voltage determined by control panel4Amplifier output voltage must match the voltage ratings of the speaker (25 or 70 VRMS)Note: Signal polarity is shown in the alarm condition. Table 3: Strobe operating current in RMS (A) 15 cd 30 cd 75 cd 110 cd VDC 0.096 0.130 0.239 0.294 VFWR0.1200.1690.3290.375VDC = Volts direct current, regulated and filtered VFWR = Volts full wave rectifiedOperating currents shown above were measured by UL at 16 VDC and 16 VFWR.Table 4: Sound level output (dBA) Wattage Output 1/4 W 80 1/2 W 83 1 W 86 2 W89UL 1480: Sound level output at 10 ft (3.05 m) measured in a reverberant room using 400 to 4,000 Hz band limited pink noise. ULC-S541: Meets or exceeds 85 dBA in an anechoic chamber at 10 ft (3.05 m).Directional characteristics: Within 6 dB of on-axis sound level when measured 90° off-axis (horizontal).MaintenanceThis unit is not serviceable or repairable. Should the unit fail to operate, contact the supplier for replacement.Perform a visual inspection and an operational test twice a year or as directed by the local authority having jurisdiction. Do no change the factory-applied finish.SpecificationsOperating voltage Speaker Strobe25 VRMS (model S2) or 70 VRMS (model S7)24 VDC, 24 VFWR Supervisory voltage 30 V maximum Strobe operating currentSee Table 3 Sound level output See Table 4 Speaker response 400 to 4,000 HzLight output Selectable at 15, 30, 75, and 110 cd Default settings 1 flash per second (fps)Wire size12 to 18 AWG (0.75 TO 2.50 mm²) Compatible electrical boxesNorth American 4 in. square electrical box, 2-1/8 in. deep (no extension ring)G4 Series surface mount box: See Table 1 Operating environment Temperature Relative humidity32 to 120°F (0 to 49°C) 0 to 93% noncondensing Intended Installation Indoor dryRegulatory informationManufacturerEdwards, A Division of UTC Fire & Security Americas Corporation, Inc.8985 Town Center Parkway, Bradenton, FL 34202, USAYear ofmanufacture The first two digits of the DATE MFG number (located on the product identification label) are the year of manufacture UL/ULC ratingRegulated 24 DC and 24 FWRThis device was tested to the regulated24 DC/FWR operating voltage limits of 16 V and 33 V. Do not apply 80% and 110% of these values for system operation.Environmental classUL: IndoorSynchronizationMeets UL 1971 requirements. Maximum allowed resistance between any two devices is 20 Ω. Refer to specifications for the synchronization control module, this strobe, and the control panel to determine allowed wire resistance. Agency listingsUL 1638, UL 1480, and UL 1971 CAN/ULC S526, ULC-S541 BS EN 60065:2002 [1][1] Nameplate marking is located on the inside surface of the device.Contact informationFor contact information, see .STROBE +STROBE –SPEAKER –SPEAKER +4 / 4 P/N 3100273 • REV 07 • REB 30JAN13。
UTC-520 多功能触控一体机 产品手册
交互式自助服务终端UTC-52021.5"多功能触控一体机UTC-520A ,内置AMD ® G 系列T40E UTC-520C ,内置英特尔酷睿™ i3,i7产品介绍UTC-520是一款多功能触控一体机,16:9宽屏显示,配有触控LCD 面板,易于集成核心外围设备和显示系统,适合作为多元化自助服务终端及各类互动多媒体终端,可满足不同应用领域的需求。
通过设计优异的交互式界面发布信息,充分确保了信息传递的有效性。
UTC 系列触控一体机是提高用户满意度、提升品牌价值、助力实现业务利润最大化的最佳产品之选。
产品规格WindowsEmbedded所有产品规格如有变更,恕不另行通知。
*标识选配功能。
更新日期: 2018年12月7日/productsOnline Download订购信息UTC-520A UTC-520CA. 天线端口B. 线路输出C. 麦克风接口D. COM 端口3 (仅适用于UTC-520A/B)E. COM 端口2F. COM 端口1G. 4个USB 2.0端口 (2个USB 2.0端口, 2个USB 3.0端口,适用于UTC-520C)H. HDMI I. VGAJ. 2个LAN 端口K. CFast 接口 (仅适用于UTC-520A/B)L. 直流输入口M.电源开关全集成 I/O 接口UTC-500系列外围设备安装配件侧槽设计,可灵活附接外围设备Mouser ElectronicsAuthorized DistributorClick to View Pricing, Inventory, Delivery & Lifecycle Information:A dvantech:UTC-520C-PE UTC-520C-RE UTC-520C-GE。
ATSTK525;中文规格书,Datasheet资料
STK525 ............................................................................................. Hardware User GuideSection 1 Introduction...........................................................................................1-31.1Overview...................................................................................................1-31.2STK525 Starter Kit Features.....................................................................1-4Section 2Using the STK525.................................................................................2-62.1Overview...................................................................................................2-62.2Power Supply............................................................................................2-72.3RESET....................................................................................................2-102.4AT90USBxxx AVR Microcontroller..........................................................2-112.5Serial Links.............................................................................................2-112.6On-board Resources...............................................................................2-142.7STK500 Resources.................................................................................2-192.8In-System Programming.........................................................................2-202.10Test Points..............................................................................................2-232.11Configuration Pads.................................................................................2-242.12Solder Pads............................................................................................2-25Section 3Troubleshooting Guide.......................................................................3-26 Section 4Technical Specifications.....................................................................4-27Section 5Technical Support...............................................................................5-28Section 6Complete Schematics.........................................................................6-29Section 1IntroductionCongratulation for acquiring the AVR® STK525 Starter Kit. This kit is designed to givedesigners a quick start to develop code on the AT90USBxxx and for prototyping andtesting of new designs.1.1OverviewThis document describes the STK525 dedicated to the AT90USBxxx AVRmicrocontroller. This board is designed to allow an easy evaluation of the product usingdemonstration software.To complement the evaluation and enable additional development capability, theSTK525 can be plugged into the Atmel STK500 Starter Kit Board in order to use theAT90USBxxx with advanced features such as variable VCC, variable VRef, variableXTAL, etc. and supports all AVR development tools.To increase its demonstrative capabilities, this stand alone board has numerous on-board resources (USB, RS232, joystick, data-flash, microphone and temperaturesensor).This user guide acts as a general getting started guide as well as a complete technicalreference for advanced users.IntroductionFigure 1-1 . STK525 Board1.2STK525 Starter Kit FeaturesThe STK525 provides the following features:AT90USBxxx TQFP device (2.7V<Vcc<5.5V),AVR Studio® software interface (1),USB software interface for Device Firmware Upgrade (DFU bootloader) (2)STK500 compatiblePower supply flagged by “VCC-ON” LED:–regulated 3 or 5V,–from an external power connector,–from the USB interface (USB device bus powered application),–from STK500 (2),ISP connector for on-chip ISP,JTAG connector:–for on-chip ISP,–for on-chip debugging using JTAG ICE,Serial interfaces:– 1 USB full/low speed device/host interface–RS-232C ports with RTS/CTS handshake lines,On-board resources:–4+1-ways joystick,–4LEDs,–temperature sensor,–microphone,–serial dataflash memory,IntroductionOn-board RESET button,On-board HWB button for force bootloader section execution at reset.System clock:–external clock from STK500 expand connectors–8 MHz crystal,Numerous access points for test.Notes: 1.The STK525 is supported by AVR Studio®, version 4.12SP2 or higher. For up-to-date information on this and other AVR tool products, please consult our web site. Thenewest version of AVR Studio®, AVR tools and this User Guide can be found in theAVR section of the Atmel web site, .2.ATMEL Flip®, In System Programming Version 3 or Higher shall be used for DeviceFirmware Upgrade. Please consult Atmel web site to retrieve the latest version of Flipand the DFU bootloader Hex file if needed.Section 2Using the STK525This chapter describes the board and all its features.2.1OverviewFigure 2-1 . STK525 OverviewUSB MiniABRS232JTAGISPExternal PowerJoystick PotentiometerResetCrystal Microphone S T K 500 E x p a n d 0S T K 500 E x p a n d 1Data FlashLEDSVcc Src.SettingTQFP64 SocketPin1C SensorVbus Gen.SettingBootloader ActivationUsing the STK5252.2Power SupplyThe on-board power supply circuitry allows various power supply configurations.2.2.1Power Supply SourcesThe power supply source can come from three different (3) and exclusive sources: USB connector,JACK PWR connector (J6, See Figure 2-2), STK500USB powered:When used as a USB device bus powered application, the STK525 can be powered viathe USB VBUS power supply line.JACK PWR connector:–Need of a male JACK outlet,–Input supply from 9 up to 15V (1) DC,–No specific polarization (2) is required.Figure 2-2 . JACK PWR Connector (J6)Figure 2-3 . Male JACK Outlet and WiresSTK500 Powered:(c.f. “STK500 Resources” on page 19).Notes:1.15V is the maximum level limitation of an unidirectional transit diode.2.There is a diode (bridge) voltage level between the negative output of the powersupply and the STK525 “GND”. This could introduce some gap of voltage during measurement and instrumentation.3.Caution : Do not mount more than onepower supply source on STK525.Using the STK5252.2.2Power Supply SettingTable 2-1 . Power Supply (1) SettingNotes: 1.Caution: The STK500 has its own “ON/OFF” switchUsing the STK525 2.2.3VBUS Generator SettingWhen using the AT90USBxxx microcontroller in USB host mode. The STK525 shouldprovide a 5V power supply over the VBUS pin of its USB mini AB connector.A couple of transistors on the STK525 allows the UVCON pin of the AT90USBxxx tocontrol the VBUS generation (See Figure2-4). In this mode the STK525 is powered byexternal power supply source (J6 or STK500 expand0/1 connectors). JP7 allows toselect the 5V source used by the VBUS generator.Figure 2-4 . VBUS generator schematicTable 2-2 . VBUS Generator SettingUsing the STK5252.2.4“POWER-ON“ LEDThe POWER-ON LED is always lit when power is applied to STK525 regardless ofpower supply source and the regulation.Figure 2-5 . “VCC-ON” LED2.3RESETAlthough the AT90USBxxx has its on-chip RESET circuitry (c.f. AT90USBxxxDatasheet, section “System Control and Reset), the STK525 provides the AT90USBxxxa RESET signal which can come from 3 different sources:2.3.1Power-on RESETThe on-board RC network acts as power-on RESET.2.3.2RESET Push ButtonBy pressing the RESET push button on the STK525, a warm RESET of theAT90USBxxx is performed.Figure 2-6 . RESET Push Button (RST) Implementation分销商库存信息: ATMELATSTK525。
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UTC TEA2025A LINEAR INTEGRATED CIRCUIT
UTC UNISONIC TECHNOLOGIES CO., LTD.
1
QW-R107-012,A
2.3W DUAL AUDIO POWER AMPLIFIER
DESCRIPTION
The UTC TEA2025A is a monolithic integrated circuit,
consisting of a 2-channel power amplifier. It is suitable for stereo and bridge amplifier application of radio cassette tape recorders.
FEATURES
*High output power
Stereo: Po=2.3W (Typ) at Vcc=9V, RL=4Ω Bridge: Po=4.7W (Typ) at Vcc=9V, RL=8Ω*Low switching distortion at high frequency
*Small shock noise at the time of power on/off dur to a built-in muting circuit
*Good ripple rejection due to a built-in ripple filter *Good channel separation
*Soft tone at the time of output straiten
*Closed loop voltage gain fixed 45dB (Bridge: 51dB) but availability with external resistor added *Minimum number of external parts required *Easy to design radiator fin
BLOCK DIAGRAM
UTC TEA2025A LINEAR INTEGRATED CIRCUIT
UTC UNISONIC TECHNOLOGIES CO., LTD.
2
QW-R107-012,A
ABSOLUTE MAXIMUM RATINGS
PARAMETER
SYMBOL VALUE UNIT Supply Voltage V S 15V Power Dissipation
Pd 4*W Operating Temperature Topr -20 ~ +70°C Storage Temperature
Tstg
-40 ~ +150
°C
ELECTRICAL CHARACTERISTICS (Ta=25°C ,V CC =9V, Rg=600Ω, Unless otherwise specified)
PARAMETER
SYMBOL TEST CONDITIONS MIN TYP MAX UNIT Operating Supply Voltage Vcc 911V Quiescent Current
Icc Vi=0, Stereo
4055mA Closed Loop Voltage Gain Av Stereo, Vi=-45dBm 434547dB Bridge, Vi=-45dBm 495153dB Channel Balance CB Stereo
-10+1
dB Output Power
PO
Stereo, RL=4Ω, THD=10% 1.7
2.3W Stereo, RL=8Ω, THD=10% 1.3W Bridge, RL=8Ω, THD=10% 4.7W Total Harmonic Distortion THD Stereo, Po=250mW, R L =4Ω0.3 1.5
%Bridge, Po=250mW, R L =4Ω0.5%Input Resistance Ri 2130k ΩRijpple Rejection RR Stereo, Rg=0Ω, Vr=150mV,f=100Hz
40
46dB Output Noise Voltage V NO Stereo, Rg=0Ω0.31mV Stereo, Rg=10K Ω
0.52
mV Cross-Talk
CT
Stereo, Rg=10K Ω, Vo=0dBm
40
55
dB
UTC TEA2025A LINEAR INTEGRATED CIRCUIT
UTC UNISONIC TECHNOLOGIES CO., LTD.
3
QW-R107-012,A
APPLICATION CIRCUIT: Stereo Amplifier
APPLICATION CIRCUIT: Bridge Amplifier
UTC TEA2025A LINEAR INTEGRATED CIRCUIT
UTC UNISONIC TECHNOLOGIES CO., LTD.
4
QW-R107-012,A
VOLTAGE GAIN ADJUSTMENT 1. Stereo application
2. Bridge application
UTC TEA2025A LINEAR INTEGRATED CIRCUIT
UTC UNISONIC TECHNOLOGIES CO., LTD.
5
QW-R107-012,A
OUTPUT PORWER-INPUT VOLTAGE
PREQUENCY RESPONSE
UTC TEA2025A LINEAR INTEGRATED CIRCUIT
UTC UNISONIC TECHNOLOGIES CO., LTD.6
QW-R107-012,A
UTC TEA2025A LINEAR INTEGRATED CIRCUIT
UTC UNISONIC TECHNOLOGIES CO., LTD.
7
QW-R107-012,A
QUIESCENT CIRCUIT CURRENT SUPPLY VOLTAGE
QUIESCENT CIRCUIT CURRENT AMBIENT TEMPERATURE。