MIC5209-5.0BS中文资料

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腾讯AI助手生成的VX5音频工程师微型麦克风说明书

VX5OVERVIEWThe VX5 is a professional vocal condenser microphone designed for a wide variety of live, studio and broadcast applications. With an ability to duplicate studio quality sound on stage, the VX5 is known for its smooth and accurate frequency response, resistance to feedback and ability to handle very high sound pressure levels without distortion.The VX5 is characterized with a tight and uniformly controlled supercardioid polar pattern which helps to isolate the vocals from the rest of the instruments on stage. With a wide frequency range of 40 Hz - 16.5 kHz, the VX5 has a very clean and natural sound with exceptional transient response. This mic requires 9 - 52 volts phantom power.Other features include a 14 mm gold vapor diaphragm, an acoustically ported steel mesh grill with multi-stage pop filter and a -10 dB pad and bass roll-off filter. The VX5 will handle sound pressure levels in excess of 140 dB (with pad and roll-off engaged) and will provide over 20 dB of ambient noise rejection on live stages. In addition to vocal applications, the VX5 is ideally suited to capture acoustic instruments such as guitar, woodwinds, brass, percussion toys, drum overheads, hi-hat and piano. It is a very versatile mic for home studio recording. The VX5 is well balanced, comfortable to hold, durable, and designed with very high standards and tight tolerances.The VX5 is manufactured with a precision die cast zinc alloy body, durable black E-coat finish and gold plated XLR connector.SUPPLIED ACCESSORIESMC1 - Heavy-duty nylon molded clip with brass insert P1 - Carrying pouchOPTIONAL ACCESSORIESWS357 - Optional high quality external foam windscreen for reducing wind, sibilance, and pop noise.SMT25 - Optional low profile shock mount system with nylon cable and thumbscrew for positioning.APS2 - Two-channel 48 V phantom power supply for condenser microphones. 110 V switchable to 240 V. Detachable power cord.CBL20 - 20’ premium XLR-XLR balanced mic cable. Quad conductor, twisted pair with braided shield for maximum conductivity. 6mm PVC jacketed.CBLDR25 - 25’ premium right angle XLR-XLR balanced mic cable. Quad conductor, twisted pair with braided shield for maximum conductivity. 6mm PVC jacketed.Condenser Vocal MicrophoneFEATURES·Premium electret condenser for vocals and acoustic instruments·Smooth accurate frequency response ·Switches for -10 dB pad and bass roll-off ·Suited for acoustic music as well as loud stages ·Designed, assembled & tested in the USA · 3 year warrantyAPPLICATIONS·Stage or studio·Lead or background vocals ·Speech·Acoustic instrumentalsMC1 P1 WS357 SMT25 APS2 CBL20 CBLDR25HiLoFREQUENCY RESPONSEPOLAR PATTERNSARCHITECT AND ENGINEER SPECIFICATIONSThe microphone shall be a back plate pre-polarized condenser with a supercardioid polar pattern. The microphone shall operate on 9-52 Volts phantom power and the nominal output impedance shall be equal to 150 ohms at 1 kHz. The microphone shall have switches for -10 dB pad and bass roll-off filter and shall have a sensitivity of 5 mV / Pa at 1 kHz. The microphone shall have a maximum SPL level of ≥140 dB (with pad) with a THD of 0.5%. The microphone shall have a steel mesh grill and a body of die cast zinc alloy with dimensions of 23 mm in diameter at the base and 181 mm in length.OPERATION AND MAINTENANCEThe VX5 is a low impedance microphone and should be plugged into a “mic level” input on your console, mixer or recording device. The VX5 requires phantom power and will NOT operate without phantom power voltage which is available on most professional mic preamps and mixing devices. Phantom power will be needed on your equipment (such as the Audix APS2). Avoid plugging or unplugging the microphone from a PA system unless the channel is muted or the volume of the system is turned down. Failure to do so may r esult i n a l oud “popping” n oise w hich c ould s eriously d amage t he s peakers in the PA system.The VX5 is manufactured to exacting specs with roadworthy construction. However, t he c apsule i s h ighly s ensitive a nd s hould b e h andled w ith c are. A void extreme temperatures and be sure to store your microphone in the pouch provided when not in use. Moisture of any kind can adversely effect the sound and performance of your microphone.USER TIPSThe V X5, a n e xcellent c hoice f or l ead a nd b ackground v ocals, h as a s upercardioid pick-up pattern which helps to minimize sound from other instruments on stage from “bleeding” into the microphone. T he VX5 is highly sensitive and will accommodate working distances of 1-12 inches from the performers mouth. Depending o n t he i nstrumentation a nd v olume o n s tage, t he v ocalist m ay h ave to experiment to find the optimum working range.When u sing s tage m onitors, a void p ointing t he b ack o f t he m icrophone d irectly into the stage monitor. Instead, set the microphone at an angle parallel to the floor, putting the angle of the mic on a different plane with the angle of the monitor. Allow a distance of 2-3 feet between microphones to avoid phase cancellation issues.Further miking techniques may be found at .ALL SPECIFICATIONS SUBJECT TO CHANGE WITHOUT NOTICE.503.682.6933 Fax: 503.682.7114Audix Corporation 9400 SW Barber St. Wilsonville, OR 97070ver 3.1PRODUCT REGISTRATION: Please register your product online at /docs_12/about/product_registration.shtml .SERVICE AND WARRANTY: This microphone is under warranty for a period of 3 years to be free of defects in material and workmanship. In the event of a product failure due to materials or workmanship, Audix will repair or replace said product at no charge with proof of purchase. Audix does not pay or reimburse shipping costs for warranty repairs or returns. T he warranty excludes any causes other than manufacturing defects, such as normal wear, abuse, environmental damage, shipping damage or failure to use or maintain the product per the supplied instructions. No Implied W arranties: All implied warranties, including but not limited to implied warranties of merchantability and fitness for a particular purpose are hereby excluded. T he liability of Audix, if any, for damages relating to allegedly defective products shall be limited to the actual price paid by Dealer for such products and shall in no event include incidental or consequential damages of any kind. Should your microphone fail in any way, please contact the Audix Service department at 503.682.6933. A Return Authorization is required before returning any product. OTHER T HAN THIS WARRANTY, AUDIX MAKES NO WARRANTIES, EXPRESS OR IMPLIED, WITH RESPECT TO THE PRODUCTS, THE USE OF THE PRODUCTS, THE PERFORMANCE OF THE PRODUCTS. AUDIX SHALL NOT BE LIABLE FOR SPECIAL INCIDENTAL, CONSEQUENTIAL, INDIRECT OR SIMILAR DAMAGES ARISING FROM OR BASED ON T HE SALE, USE, STORAGE OR DISPOSAL OF T HE PRODUCTS, AUDIX’S SERVICE W ORK, BREACH OF W ARRANTY, BREACH OF CONTRACT. NEGLIGENCE, OR ANY OTHER T HEORY OF LIABILITY, EVEN IF AUDIX HAS BEEN ADVISED OF T HE POSSIBILITY OF SUCH DAMAGES.DIMENSIONS (mm)SPECIFICATIONS V X5。

AT2005USB Cardioid 动态 USB XLR 麦克风使用手册说明书

AT2005USBInstruction ManualAT2005USBCardioid Dynamic USB/XLR MicrophoneContentsIntroduction & features 3 S etting up your microphone with stand clamp & desk stand 4Preliminary setup with Mac OS X 5Preliminary setup with Windows XP 6Preliminary setup with Windows Vista 9Preliminary setup with Windows 7 10Using headphones 13Selecting software 13Setting your software levels 13Positioning your microphone 13XLR operation 13Protecting your microphone 13Specifications 14Compliance with FCC rules (USA only)This device complies with Part 15 of the FCC rules. Operation is subject to the following two conditions:(1) this device may not cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operation.FCC WARNINGYou are cautioned that any changes or modifications not expressly approved in this manual could void your authority to operate this equipment.Canada onlyThis Class B digital apparatus complies with Canadian ICES-003.Cet appareil numérique de la classe B est conforme á la norme NMB -003 du Canada.Federal Communications Commission StatementNote: This equipment has been tested and found to comply with the limits for a Class B digital device, pursuant to part 15 of the FCC Rules. These limits are designed to provide reasonable protection against harmful interference in a residential installation. This equipment generates, uses and can radiate radio frequency energy and, if not installed and used in accordance with the instructions, may cause harmful interference to radio communications. However, there is no guarantee that interference will not occur in a particular installation. If this equipment does cause harmful interference to radio or television reception, which can be determined by turning the equipment off and on, the user is encouraged to try to correct the interference by one or more of the following measures:— Reorient or relocate the receiving antenna.— Increase the separation between the equipment and receiver.— Connect the equipment into an outlet on a circuit different from that to which the receiver is connected.— Consult the dealer or an experienced radio/TV technician for help.2Introduction Thank you for buying the Audio-Technica AT2005USB cardioid dynamic USB/XLR microphone. Equipped with both USB and an XLR outputs, this digital/analog mic is designed both for live performance and digitally capturing music or any acoustic audio source using your favorite recording software.The AT2005USB offers high-quality articulation and intelligibility perfect for home studio recording, field recording, podcasting, voiceover, and on-stage use. Its cardioid polar pattern reduces pickup of sounds from the sides and rear, improving isolation of desired sound source.The microphone also features a built-in headphone jack with volume control that allows you to directly monitor from your microphone. The microphone’s focused pickup pattern delivers excellent off-axis rejection, while its A/D converter with a 16-bit, 44.1/48 kHz sampling rate ensures clear, articulate sound reproduction.Audio-Technica’s state-of-the-art design and manufacturing techniques ensure that the microphone complies with the company’s renowned consistency and reliability standards.Features• Handheld dynamic microphone with USB digital output and XLR analog output• USB output connects to your computer for digital recording, while the XLR output connects with your sound system’s conventional microphone input for use in liveperformance• Smooth, extended frequency response ideally suited for podcasting, home studio recording, field recording, voiceover, and on-stage use• Built-in headphone jack allows you to directly monitor from your microphone• Adjust headphone volume with easy-to-use controls on the bottom of the microphone• High-quality A/D converter with 16-bit, 44.1/48 kHz sampling rate• Compatible with Windows and Mac• Low-mass diaphragm provides excellent frequency response• Cardioid polar pattern reduces pickup of sounds from the sides and rear, improving isolation of desired sound source• Tripod desk stand with folding legs for secure and easily portable tabletop use• Pivoting, threaded stand clamp attaches securely to the supplied tripod or to a conventional microphone stand• USB and XLR cables included• Durable metal construction for long-lasting performance• On/off switch functions for both USB and analog operation341.Windscreen –Multi-stage grille design offers excellent protection against plosives and sibilancewithout compromising high-frequency clarity 2.Capsule –Dynamic microphone element with cardioid polar pattern 3.Blue LED –Blue light shows mic is receiving USB power (Note: The blue LED is not affectedby the on/off switch position)4.ON/OFF switch –Functions for both USB and analog operation 5.Metal construction –Tough, durable, resilient design 6.Headphone level control –Up/Down dial controls headphone volume 7.XLR connector –XLR connector with analog output for connection to PA system’s conventionalmicrophone input 8.USB –USB connector for connection to your Mac or PC 9.Headphone Jack –1/8-inch (3.5 mm) stereo jack for connecting your headphones 10.USB cable 11. XLRM to XLRF cableSetting up your microphone with included stand clamp and tripod desk standA. Screw the stand clamp onto the threaded portion of the desk stand.B. Extend the tripod legs to provide a wide, secure base, and place the tripod desk stand on a flat surface.B. Install the AT2005USB microphone into the microphone mount, with ON/OFF switch upC. The top of the microphone should be facing the sound source.D. Use a screwdriver or coin to loosen and tighten the pivot screw for angle adjustment.E. Plug the provided USB cable into the USB output at the base of the microphone, or plug the provided XLR cable into the microphone input of your sound system.Note: Many recording software programs are available online. Audacity is widely used free software for recording and editing sounds. It is available online at /AT2005USB851. Plug the free end of the provided USB cable into the USB port on your computer. The microphone’s blue LED will illuminate, indicating the microphone is receiving power.Your computer will automatically recognize the USB device and install a driver.2. To select the AT2005USB as your audio input, first, open your System Preferences .3. Next, click Sound to display the Sound preference pane.4. Click the Input tab and select the AT2005USB as the device for sound input.Your preferences are now set to use the AT2005USB on your Mac with GarageBand or another recording program of your choice.Preliminary setup with Mac OS XPreliminary setup with Windows XP(Service Pack 2; other operating systems may vary slightly)1.Plug the free end of the USB cable into the USB port on your computer. The microphone’s blueLED will illuminate, indicating the mic is receiving power. Your computer will automatically recognize the USB device and install a driver.2.In the lower right portion of your screen you may see a message that new hardware was found;or you may see a driver software installation notice.3.To select the AT2005USB as your default recording device, begin at your Start menu.Select Control Panel.64. Select Sounds and Audio Devices.785. Select the Audio tab, and choose AT2005USB as the default device.6. Adjust computer volume by clicking on the Volume button beneath Sound recordingDefault device.Preliminary setup with Windows XP(continued)7. Through the Wave In window, you can set the computer volume or mute the microphone.Your preferences are now set to use the AT2005USB with Windows XP with the recording program of your choice.AT2005USB9Preliminary setup with Windows Vista1. Plug the free end of the USB cable into the USB port on your computer. The microphone’s blue LED will illuminate, indicating the mic is receiving power. Your computer will automatically recognize the USB device and install a driver.2. In the lower right portion of your screen you may see a message that new hardware was found; or you may see a driver software installation notice.3. To select the AT2005USB as your default recording device, begin at your Start menu.Select Control Panel .4. Select (double-click) Sound .5. Select the Recording tab. Make sure that the AT2005USB microphone is set as the default recording device. (You should see a green check mark beside the USB microphone icon.)Your preferences are now set to use the AT2005USB with Windows Vista with the recording program of your choice.Preliminary setup with Windows 71.Plug the free end of the USB cable into the USB port on your computer. The microphone’s blueLED light will illuminate, indicating the mic is receiving power. Your computer will automatically recognize the USB device and install a driver.2.In the lower right portion of your screen you may get a message that new hardware was found;or you may see a driver software installation notice.3.Start menu > Control Panel > SoundTo select the AT2005USB as your default recording device, begin at your Start menu.Select Control Panel.104.Select Sound.5. The following screen will pop up:6. Select the Recording tab, and choose AT2005USB as the default device.7. Double click on the AT2005USB icon to open the Microphone Properties window. Select the levels tab to adjust microphone level (loudness). You may need to come back to this window to readjust the level after you begin recording.Preliminary setup with Windows 7(continued)Your preferences are now set to use the AT2005USB with Windows 7 with the recording program of your choice.MicrophoneAT2005USBDefault DeviceAdditional Information Using headphonesThe 1/8" (3.5 mm) headphone jack on the bottom of the microphone allows you to directly monitor your recording with a pair of headphones. When your preliminary setup is completed, and your USB microphone is connected to your computer’s USB port (the microphone’s blue LED is illuminated), plug your headphones into the headphone jack on the bottom of the microphone. While talking into the microphone, you should hear yourself in the headphones. Adjust the volume up or down by rotating the the Up/ Down dial on the bottom of the microphone. Note: The Up/ Down dial only adjusts the volume of the mic’s headphone output; it does not adjust the microphone level.Selecting softwareYou have many choices in recording software. Audacity, available for free online at/, is a widely used software program that provides basic recording software. Setting your software levelsCorrect adjustment of microphone level is important for optimum performance. Ideally, the microphone level should be as high as possible without overloading the input of your computer. If you hear distortion, or if your recording program shows levels that are consistently overloaded (at peak levels), turn the microphone volume (or level) down, either through your control panel (or system preferences) settings, or through your recording software. If your recording program shows insufficient level, you can increase the microphone gain either from the control panel (or system preferences) settings or through your recording program.No further microphone level adjustments should be needed, as long as the acoustic input does not change significantly.Positioning your microphoneIt is important to position the microphone directly in line (on axis) with the person speaking/singing or instrument (or other sound source) to achieve the best frequency response of the microphone.For use in speaking/singing applications, the ideal placement for the microphone is directly in front of the person speaking/singing. The same placement is optimal when miking an instrument such as an acoustic guitar, drums or piano. Experiment with different mic placements to find the best sound for your particular setup.XLR operationFor live-sound applications, connect the XLRF connector of the included XLR cable to the XLRM output on the bottom of the microphone; connect the cable’s XLRM connector to a standard XLRF microphone input on your mixer. Turn the microphone’s ON/OFF switch to the “ON” position. Set the microphone’s level by following the instructions included with your mixer. Note: The ON/OFF switch does not affect the LED.Protecting your microphoneTake care to keep foreign particles from entering the windscreen. An accumulation of iron or steel filings on the diaphragm, and/or foreign material in the windscreen’s mesh surface, can degrade performance.Element: DynamicPolar Pattern: CardioidFrequency Response: 50 – 15,000 HzPower Requirements: USB Power (5V DC)Bit Depth: 16 bitSample Rate: 44.1 kHz/48 kHzControls: On/off switch; headphone volume controlWeight: 266 g (9.4 oz)Dimensions: 183.6 mm (7.23") long, 51.0 mm (2.01") maximum body diameterOutput Connector: USB-type/XLR-typeHeadphone Output Power: 10 mW @ 16 ohmsHeadphone Jack: 3.5 mm TRS (stereo)Accessories Included: Stand clamp for 5/8"-27 threaded stands, tripod desk stand, 2 m (6.6') mini USB cable, 3 m (9.8') XLRF-type to XLRM-type cableSystem Requirements: Macintosh: MAC OS X; USB 1.0 or 2.0; 64 MB RAM (minimum) Windows: XP/Vista/Windows 7; USB 1.0 or 2.0; 64 MB RAM (minimum)†In the interest of standards development, A.T.U.S. offers full details on its test methods to other industry professionals on request.Specifications are subject to change without notice.AT2005USB Specifications †R e s p o n s e i n d B LEGEND 200 Hz 1 kHz 5 kHz 8 kHz SCALE IS 5 DECIBELS PER DIVISION240˚180˚210˚270˚300˚330˚0˚150˚120˚90˚30˚60˚Frequency ResponsePolar PatternAudio-Technica U.S., Inc.1221 Commerce Drive, Stow, Ohio 44224 USA +1 (330) 686-2600 ©2012 Audio-Technica U.S., Inc. P52364-01 To reduce the environmental impact of a multi-language printed document, product information is available online at in a selection of languages.Afin de réduire l’impact sur l’environnement de l’impression de plusieurs, les informations concernant les produits sont disponibles sur le site dans une large sélection de langue.Para reducir el impacto al medioambiente, y reducir la producción de documentos en varios leguajes, información de nuestros productos están disponibles en nuestra página del Internet: .AT2005USB。

MIC5219中文资料

等式来确定。
将 PD（MAX）替换 PD 并求解给出调节器电路提供最大工作条件，这对工作条件应用至关重要的。例如，如果我们在室温下操作 MIC5219-3.3BM5，以最小的引脚
以下推荐使用固体钽。
布局，我们可以确定设定输出电流的最大输入电压。
在较低的输出电流值下，高稳定性需要较小的输出电容。对于低于 10mA 的电流，电容器可以减小到 0.47 μF，对于低于 1mA 的电流，电容器可以减小到 0.33μ F。
要点 2: 输出电压温度系数定义为最坏情况电压变化除以总温度范围。
要点 3: 稳压调节是在恒定结温度下使用低占空比脉冲测试的。零件在 100μA 至 500mA 的负载范围内进行负载
调节测试。由热效应引起的输出电压变化由热调节规范涵盖。
要点 4: 压差电压定义为输入到输出差分，在该输出差分下，在 1V 差分下测量的输出电压比标称值下降 2％。要点 5: 接地引脚电流是调节器静态电流加上三极管基极电流。从电源输出的总电流是负载电流加上接地引脚电
超过布局的最大功率耗散的平均功率。
假设室温为 25°C，我们有最大功耗
然后，我们可以使用最坏情况下的接地电流，确定工作在 500mA 的 5V 稳压器的最大输入电压。
使用 500mA 的输出电流和 MIC5219-xxBMM 上的三伏电压降，最大占空比为 27.4％。
应用也需要一个设定的标称电流输出，由于在短持
路电容的大小成反比。需要输出电压缓慢上升的应用应考虑更大的 CBYP 值。同样，如果需要快速接通，则考虑省略 CBYP。
最小引脚的热阻（结到环境）为 220°C / W，取自表 1.为了器件的正常工作，不能超过最大功耗数。使用 3.3V 的输出电压和 150mA 的输出电流，我们可以确定最大输入电压。接地电流，对于 150mA 的输出电流，最大为 3mA，可从数据手册的“电气特性”部分获取。

MICRF500BLQ资料

General DescriptionThe MICRF500 is a single chip UHF transceiver designed forspread spectrum communication (FHSS) intended for ISM (Industrial, Scientific and Medical) and SRD (Short Range Device) frequency bands from 700MHz to 1100MHz with FSK data rates up to 128k baud.The transmitter consists of a PLL frequency synthesizer and a power amplifier. The frequency synthesizer consists of a voltage-controlled oscillator (VCO), a crystal oscillator, dual-modulus prescaler, programmable frequency dividers and a phase-detector. The loop filter is external for flexibility and can be a simple passive circuit. The VCO is a Colpitts oscillator which requires an external resonator and varactor.FSK modulation can be applied externally to the VCO. The synthesizer has two different N, M and A frequency dividers.FSK modulation can also be implemented by switching between these dividers (max. 2400bps). The lengths of the N and M and A registers are 12, 10 and 6 bits respectively. For all types of FSK modulation, data is entered at the DATAIXO pin (see application circuit). The output power of the power amplifier can be programmed to eight levels. A lock detect circuit detects when the PLL is in lock.In receive mode the PLL synthesizer generates the local oscillator (LO) signal. The N, M and A values that give the LO frequency are stored in the N0, M0 and A0 registers. The receiver is a zero intermediate frequency (IF) type in order to make channel filtering possible with low-power integrated low-pass filters. The receiver consists of a low-noise amplifier (LNA) that drives a quadrature mixer pair. The mixer outputs feed two identical signal channels in phase quadrature. Each channel includes a preamplifier, a third order Sallen-Key RC low pass filter that protects the following gyrator filter from strong adjacent channel signals and finally, a limiter. The main channel filter is a gyrator capacitor implementation of a seven-pole elliptic low pass filter. The elliptic filter minimizes the total capacitance required for a given selectivity and dynamic range. The cut-off frequency of the Sallen-Key RC filter can be programmed to four different frequencies: 10kHz,30kHz, 60kHz and 200kHz. An external resistor adjusts the cut-off frequency of the gyrator filter. The demodulator de-modulates the I and Q channel outputs and produces a digital data output. It detects the relative phase of the I and the Q channel signal. If the I channel signal lags the Q channel, the FSK tone frequency lies above the LO frequency (data ‘1’). If the I channel leads the Q channel, the FSK tone lies below the LO frequency (data ‘0’). The output of the receiver is available on the DATAIXO pin. A RSSI (Receive Signal StrengthIndicator) circuit indicates the received signal level.Micrel, Inc. • 1849 Fortune Drive • San Jose, CA 95131 • USA • tel + 1 (408) 944-0800 • fax + 1 (408) 944-0970 • A two pin serial interface is used to program the circuit.External components are necessary for RF input and output impedance matching and decoupling of power. Other exter-nal components are the VCO resonator circuit with varactor,crystal, feedback capacitors and components for FSK modu-lation with the VCO, loop filter, bias resistors for the power amplifier and gyrator filters. A T/R switch can be implemented with 2-pin diodes. This gives maximum input sensitivity and transmit output power.Features•Frequency range:700MHz to 1100MHz •Modulation:FSK•RF output power:10dBm•Sensitivity (19.2k bauds, BER=10-3):–104dBm •Maximum data rate:128k baudsApplications•Telemetry•Remote metering •Wireless controller•Wireless data repeaters •Remote control systems •Wireless modem•Wireless security systemOrdering InformationPart Number Ambient Temp. RangePackage MICRF500BLQ–40°C to +85°C44-Lead LQFPRadioWire is a trademark of Micrel, Inc.RadioWire™Pin DescriptionPin NumberPin Name Pin Function 1IFGND IF Ground 2IFVDD IF Power 3ICHOUT I-Channel Output 4QCHOUT Q-Channel Output 5OSCVDD Colpitts Oscillator Power 6OSCIN Colpitts Oscillator Input7OSCGND Colpitts Oscillator and Substrate Ground 8GND Substrate Ground 9CMPOUT Charge Pump Output 10CMPR Charge Pump Resistor Input 11MOD Output for VCO Modulation 12XOSCIN Crystal Oscillator Input 13XOSCOUT Crystal Oscillator Output14LD_C External Capacitor for Lock Detector 15LOCKDET Lock Detector Output16RSSI Received Signal Strength Indicator Output 17PDEXT Power Down Input (0=Power Down)18DATAC Data Filter Capacitor 19DATAIXO Data Input/Output20CLKIN Clock Input for Programming 21REGIN Data Input for Programming 22DIGVDD Digital Circuitry Power 23DIGGNDDigital Circuitry GroundPin ConfigurationR S S I L O C K D E T L D _C X O S C O U T X O S C I N P D E X T D A T A C D A T A I X O IFGND IFVDD ICHOUT QCHOUT OSCVDD OSCIN OSCGNDGND CMPOUT CMPR MODD I G V D DR E G I N C L K I N MIXERVDD MIXERGND LNA_C RFGND2RFIN RFVDD RFGND RFOUT PABIAS PA_C DIGGNDI F Q I N P I F Q I N N I C H C Q C H C V B _I PM I X Q O U T N M I X Q O U T P I F I I N N M I X I O U T PM I X I O U T N I F I I N P 44-Pin LQFP (BLQ)Pin Description, cont’tPin Number Pin Name Pin Function24PA_C Capacitor for Slow Ramp Up/Down of PA25PABIAS External Bias Resistor for Power Amplifier26RFOUT Power Amplifier Output27RFGND LNA, PA and Substrate Ground28RFVDD LNA and PA Power29RFIN Low Noise RF Amplifier (LNA) Input30RFGND2LNA First Stage Ground31LNA_C External LNA Stabilizing Capacitor32MIXERGND Mixer Ground33MIXERVDD Mixer Power34MIXIOUTP I-Channel Mixer Positive Output35MIXIOUTN I-Channel Mixer Negative Output36IFIINP I-Channel IF Amplifier Positive Input37IFIINN I-Channel IF Amplifier Negative Input38MIXQOUTP Q-Channel Mixer Positive Output39MIXQOUTN Q-Channel Mixer Negative Output40IFQINP Q-Channel IF Amplifier Positive Input41IFQINN Q-Channel IF Amplifier Negative Input42ICHC I-Channel Amplifier Capacitor43QCHC Q-Channel Amplifier Capacitor44VB_IP Gyrator Filter ResistorElectrical CharacteristicsF REF = 850MHz, V DD = 2.5 to 3.4V, T A = 25°C, unless otherwise specified .Parameter ConditionMinTypMaxUnitsOverallOperating Frequency 7008501100MHz Power Down Current < 12µA Logic High Input, V IH 70%V DD Logic Low Input, V IL30%V DD DATAIXO, Logic High Output (V OH )I OH = –500µA V DD -0.3V DATAIXO, Logic Low Output (V OL )I OL = 500µA 0.3V LockDet, Logic High Output (V OH )I OH = –100µA V DD -0.25V LockDet, Logic Low Output (V OL )I OL = 100µA0.25V Clock/Data Frequency 10MHz Clock/Data Duty-Cycle2575%Data Setup to Clock (rising edge)25nsVCO and PLL Section Prescaler Divide Ratio 64/65Reference Frequency40MHz PLL Lock Time (int. modulation)4kHz loop filter bandwidth 1ms PLL Lock Time (ext. modulation)1kHz loop filter bandwidth 4ms Rx – (Tx with PA on) Switch Time 1kHz loop filter bandwidth2.5ms Charge Pump Current ±95/±380±125/±500±155/±620µATransmit Section f OUT = 850MHzOutput PowerR LOAD = 50Ω, V DD = 3.0V10dBm Transmit Data Rate (ext. modulation)Note 419.2128kbauds Transmit Data Rate (int. modulation)Note 52.4kbaudsFrequency Deviation to Modulation Rate Ratio unfiltered FSK 1.01.5Current Consumption Transmit Mode10 dBm, R LOAD = 50Ω50mAAbsolute Maximum Ratings (Note 1)Maximum Supply Voltage (V DD )...................................+7VMaximum NPN Reverse Base-Emitter Voltage..........+2.5V Storage Temperature Range (T S )............–55°C to +150°C ESD Rating, Note 3. (500V)Operating Ratings (Note 2)Supply Voltage (V IN )...................................+2.5V to +3.4V Ambient Temperature (T A ).........................–40°C to +85°C Package Thermal ResistanceTQFP (θJA )-Multilayer board .............................46.3°C/WParameter Condition MinTypMaxUnitsReceive Sectionf IN = 850MHz Receiver Sensitivity (Note 6)BER=10-3–1046dBm Input 1dB Compression Level –34dBm Input IP3–24dBm Input Impedance 22.5-j28.5W RSSI Dynamic Range 60dB RSSI Output VoltageP IN = –100dBm 0.7V P IN = –30dBm2.1V Adjacent Channel Rejection:f C = 10kHz 25kHz channel spacing 26dB f C = 30kHz 100kHz channel spacing 37dB f C = 60kHz 200kHz channel spacing 45dB f C = 200kHz 700kHz channel spacing 48dB Blocking Immunity (1MHz)RC filter:f C = 10kHz 66dB RC filter:f C = 30kHz 61RC filter:f C = 60kHz 59dB RC filter:f C = 200kHz53dB Maximum Receiver Bandwidth 175kHz Receiver Settling Time 1ms Current Consumption gyrator filter f C = 60kHz12mA Receive ModeCurrent Consumption XCO300µANote 1.Exceeding the absolute maximum rating may damage the device.Note 2.The device is not guaranteed to function outside its operating rating.Note 3.Devices are ESD sensitive. Handling precautions recommended. Human body model, 1.5k in series with 100pF.Note 4.Modulation is applied to the VCO and therefore the modulation cannot have any DC component. Some kind of coding is needed to ensure that the modulation is DC free, e.g., Manchester code or block code. With Manchester code the bitrate is half the baudrate, but with 3B4B block code the bitrate is 3/4 of the baudrate.Note 5:Bitrate is the same as the baudrate.Note 6:Measured at 19.2k bauds and frequency deviation ±25kHz (external modulation), jitter of received data: < 45%.P O U T (d B m )I TOT (mA)Output Power vs. Current @ 25°CFunctional DiagramFigure 1.Transceiver Internal BlocksTypical ApplicationFigure 2 shows an example of a transceiver with modulationapplied to the VCO. The VCO and matching components are optimized for 915MHz, 120kbps data rate. The inductors and trimming capacitors must have a good high frequency perfor-mance.RSSIC8C7Figure 2.Application Circuit - Optimized for 915MHz. 120kbpsThe varactor SMV1215-011 is a single variable capacitance diode manufactured by Skyworks Solutions (formerly Alpha Industries). The pin diode SMP1320 is also manufactured by Skyworks Solutions.ComponentValues C3047pF C31 5.6pF C32 6.8pF C3347pF C3410µF C3547pF C36 1.5pF C374pF C38(np)L112nH L2 5.1nH L38.7nH L4 5.6nH L510nHD1SMV1215-011D2SMP1320-079D3SMP1320-079crystal10MHzComponentValues C8 4.7nF C91nF C101nF C111nF C121nF C13 4.7pF C15 3.3nF C1639nF C1768pF C18100nF C19470pF C204pF-100pF C21100pF C227pF C231nF C241nF C25470pF C2610nF C2818pF C29100pFList of componentsComponentValues R130ΩR20ΩR339ΩR410ΩR562ΩR61k ΩR720k ΩR839k ΩR916k ΩR1016k ΩR11100k ΩR12 6.8k ΩR13270k ΩR14 2.2k ΩR16 2.2k ΩC147pF C447pF C547pF C647pF C74.7nFApplications InformationVCO and PLL SectionThe frequency synthesizer consists of a VCO, crystal oscilla-tor, dual-modulus prescaler, programmable frequency divid-ers, phase-detector, charge pump, lock detector and an external loop filter. The dual-modulus prescaler divides the VCO-frequency by 64/65. This mode is controlled by the A-divider. There are two sets of M, N and A-frequency ing both sets in transmit mode, FSK can be implemented by switching between those two sets. The phase-detector is a frequency/phase detector with back slash pulses to mini-mize phase noise. The VCO, crystal oscillator, charge pump,lock detector and the loop filter will be described in detail below.Voltage Controlled Oscillator (VCO)C38Figure 3.VCOThe circuit schematic of the VCO with external components is shown in Figure 3. The VCO is basically a Colpitts oscilla-tor. The oscillator has an external resonator and varactor.The resonator consists of inductor L1 and the series connec-tion of capacitor C13, the internal capacitance and the capacitance of the varactor. The capacitance of the varactor (D1) decreases as the input voltage increases. The VCO frequency will therefore increase as the input voltage in-creases. The VCO has a positive gain (MHz/Volt). If neces-sary a parallel capacitor can be added next to D1 to bring the VCO tuning voltage to its middle range or VDD/2, which is measured at Pin 9 - CMPOUT.If the value of capacitor C13 becomes too small the amplitude of the VCO signal decreases, which leads to lower output power.The layout of the VCO is very critical. The external compo-nents should be placed as close to the input pin (Pin 6) as possible. The anode of D1 must be placed next to Pins 7 and 8 in the PCB layout. G round vias should be next to component pads.Crystal OscillatorThe crystal oscillator is the reference for the RF output frequency as well as for the LO frequency in the receiver. The crystal oscillator is a very critical block since very good phase and frequency stability is required. The schematic of the crystal oscillator with external components for 10MHz is shown in Figure 4. These components are optimized for acrystal with 15pF load capacitance.10MHzXOSCOUTFigure 4.Crystal OscillatorThe crystal oscillator is tuned by varying the trimming capaci-tor C20. The drift of the RF frequency is the same as the drift of crystal frequency when measured in ppm. The total differ-ence in ppm, ∆f(ppm), between the tuned RF frequency and the drifted frequency is given by:∆f(ppm) = S T × ∆T + n × ∆t where:•S T is the total temperature coefficient of the oscillator frequency (due to crystal and components) in ppm °C.•∆T is the change in temperature from room temperature, at which the crystal was tuned.•n is the ageing in ppm/year.•∆t is the time (in years) elapsed since the transceiver was last tuned.The demodulator will not be able to decode data when ∆f(Hz) = ∆f(ppm) × f RF is larger than the FSK frequency deviation. For small frequency deviations, the crystal should be pre-aged, and should have a small temperature coeffi-cient. The circuit has been tested with a 10MHz crystal, but other crystal frequencies can be used as well.Prestart of XCOThe start-up time of a crystal oscillator is typically some milliseconds. Therefore, to save current consumption, the MICRF500 circuit has been designed so that the XCO is turned on before any other circuit block. During start-up the XCO amplitude will eventually reach a sufficient level to trigger the M-counter. After counting two M-counter output pulses the rest of the circuit will be turned on. The current consumption during the prestart period is approximately 300µA.Lock DetectorThe MICRF500 circuit has a lock detector feature that indi-cates whether the PLL is in lock or not. A logic high on Pin 15(LOCKDET) means that the PLL is in lock.The phase detector output is converted into a voltage that is filtered by the external capacitor C23, connected to Pin 14,LDC. The resulting DC voltage is compared to a reference window set by bits Ref0 – Ref5. The reference window can be stepped up/down linearly between 0V, Ref0 – Ref5 = 1, and Ref0 – Ref5 = 0, which gives the highest value (DC voltage)of the reference window. The size of the window can either be equal to two (Ref6 = 1) reference steps or four reference steps (Ref6 = 0).The bit setting that corresponds to lock can vary, depending on temperature, loop filter and type of varactor. Therefore, the lock detect circuit needs to be calibrated regularly by a software routine that finds the correct bit setting, by running through all combinations of bits Ref0 – Ref5. Depending on the size of the reference window, there will be several bit combinations that show lock. For instance, with a large reference window, as much as five bit combinations can make the lock detector show lock. To have the maximum robustness to noise, the third of the bit settings should be chosen.Charge PumpThe charge pump can be programmed to four different modes with two currents, ±125µA and ±500µA. Bit 70 and 71 in the control word (cpmp1 and cpmp0) controls the operation. The four modes are:1.cpmp1=0Current is constant ±125µA. Used incpmp0=0applications where short PLL locktime is not important.2.cpmp1=0Current is constant ±500µA. Used incpmp0=1applications where a short PLL locktime is important, e.g., internal modula-tion. See “Modulation Inside PLL”section.3.cpmp1=1Current is ±500µA when PLL is out ofcpmp0=0lock and ±125µA when it is in lock.Controlled by LOCKDET (Pin 15). Locktime is halved.See “Modulation Outside PLL” section.4.cpmp1=1Same as above in Tx. In Rx the currentcpmp0=1is ±500µA. Used when using dual-loopfilters. See “Modulation Outside PLLDual-Loop Filters” section.Tuning of VCO and XCOThere are two circuit blocks that may need tuning, the VCO and the crystal oscillator.VCO TuningWhen the VCO voltage is not at its mid-point, a capacitor may be added in parallel with D1or by small increments changes in the L1 or C13 values.This is particularly important when using VCO modulation. The gain curve of the VCO (MHz/Volt) is not linear and the gain will therefore vary with loop voltage. This means that the FSK frequency deviation also varies with loop voltage. When using internal modulation, tuning the VCO can be omitted as long as the VCO gain is large enough to allow the PLL to handle variations in process parameters and tempera-ture without going out of lock.XCO TuningTune the trimming capacitor in the crystal oscillator to the precise desired transmit frequency. It is not possible to tune the crystal oscillator over a large frequency range. N, M and A values must therefore be chosen to give a RF frequency very close to the desired frequency. Because of the small tuning range the VCO will not go out of lock when tuning the crystal oscillator.FSK ModulationThe circuit has two sets of frequency dividers A0, N0, M0 and A1, N1, M1. The frequency dividers are programmed via the control word. A0, N0, M0 are to be programmed with the receive frequency and are used in receive mode. There are three ways of implementing FSK:•FSK modulation can be applied to the VCO. This way of implementing FSK modulation is ex-plained more in detail in the next section. Thevalues corresponding to the transmit frequencyshould be programmed in dividers A1, N1 andM1. Pin DATAIXO must be kept in tri-state fromthe time Tx-mode is entered until one startssending data.•FSK modulation by switching between the two sets of A, N and M dividers. A, N and M valuescorresponding to the receive frequency and bothtransmit frequencies have to be found. Intransmit the values corresponding to data ‘0’should be programmed in dividers A0, N0 andM0, and the values corresponding to data ‘1’should be programmed in dividers A1, N1 andM1.•FSK modulation by adding/subtracting 1 todivider A1. The frequency deviation will be equalto the comparison frequency. The valuescorresponding to the transmit frequency shouldbe programmed in dividers A1, N1 and M1.For all types of FSK modulation, data is entered at the DATAIXO pin.Loop FilterThe design of the loop filter is of great importance for optimizing parameters like modulation rate, PLL lock time, bandwidth and phase noise. Low bitrates will allow modula-tion inside the PLL, which means the loop will lock on different frequency for 1s and 0s. This can be implemented by switch-ing the internal dividers (M, N and A).Higher modulation rates (above 2400bps) imply implementa-tion of modulation outside the PLL. This can be implemented by applying the modulation directly to the VCO.Loop filter values can be found using an appropriate software program.Modulation Inside PLLA fast PLL requires a loop filter with relatively high bandwidth. If a second order loop filter is chosen, it may not give adequate attenuation of the comparison frequency. There-fore in the following example a third order loop filter is chosen. Example 1:Radio frequency f RF868MHzComparison frequency f C100kHzLoop bandwidth BW 3.8kHzVCO gain K o30MHz/VPhase comparator gain K d500µA/radPhase margin j62°Breakthrough suppression A20dBThe component values will be:OUTINFigure 5.Third Order Loop FilterWith this loop filter, internal modulation up to 2400bps ispossible. The PLL lock time from power-down to Rx will beapproximately 1ms.Modulation Outside PLL (Closed Loop)When modulation is applied outside the PLL, it means that thePLL should not track the changes in the loop due to themodulation signal. A loop filter with relatively low bandwidthis therefore necessary. The exact bandwidth will depend onthe actual modulation rate. Because the loop bandwidth willbe significantly lower than the comparison frequency, asecond order loop filter will normally give adequate attenua-tion of the comparison frequency. If not, a third order loop filtermay give the extra attenuation needed.Example 2:Radio frequency f RF868MHzComparison frequency f C140kHzLoop bandwidth BW900HzVCO gain K o30MHz/VPhase comparator gain K d125µA/radPhase margin j61°The component values will be:OUTINCmpRFigure 6.Second Order Loop FilterData rates above approximately 19200baud (includingManchester coding) can be used with this loop filter withoutsignificant tracking of the modulating signal. PLL lock time willbe approximately 4ms.If a faster PLL lock time is wanted, the charge pump can bemade to deliver a current of 500µA per unit phase error, whilean open drain NMOS on chip (Pin 10, CmpR) switches in asecond damping resistor (R10) to ground as shown in Figure6. Once locked on the correct frequency, the PLL automati-cally returns to standard low noise operation (charge pumpcurrent: 125µA/rad). If correct settings have been made in thecontrol word (cpmp1=1, cpmp0=0), the fast locking featureis activated and will reduce PLL lock time by a factor of twowithout affecting the phase margin in the loop.Components C17, C18 C19, R11, R12 and R13 (see applica-tion circuit) are necessary if FSK modulation is applied to theVCO. Data entered at the DATAIXO pin will then be fedthrough the Mod pin (Pin 11) which is a current output. The pinsources a current of 50µA when Logic 1 is entered at theDATAIXO and drains the current for Logic 0. The capacitanceof C17 will set the order of filtering of the baseband signal. Alarge capacitance will give a slow ramp-up and therefore ahigh order of filtering of the baseband signal, while a smallcapacitance gives a fast ramp-up, which in turn also gives abroader frequency spectrum. Resistors R11 and R12 set thefrequency deviation. If C18 is large compared to C17, thefrequency deviation will be large. R13 should be large toavoid influencing the loop filter. Pin DATAIXO must be keptin tri-state from the time Tx-mode is entered until one startssending data.Modulation Outside PLL, Dual-Loop FiltersModulation outside the PLL requires a loop filter with arelatively low bandwidth compared to the modulation rate.This results in a relatively long loop lock time. In applicationswhere modulation is applied to the VCO, but at the same timea short start-up time from power down to receive mode isneeded, dual-loop filters can be implemented. Figure 7shows how to implement dual-loop filters.towards_VCOFigure 7.Dual-Loop FiltersThe loop filter used in transmit mode is made up of C15, C16,R9 and R10. The fast lock feature is also included (internalNMOS controlled by FLC, Fast Lock Control). This filter isautomatically switched in/out by an internal NMOS at Pin 4,QchOut, which is controlled by DFC (Dual Filter Control). BitsOutS2, OutS1, OutS0 must be set to 110. When QchOut isused to switch the Tx loop filter to ground, neither QchOut norIchOut can be used as test pins to look at the different receiversignals. The receive mode loop filter comprises C115, C116,R109, R101 and C101.Modulation Outside PLL (Open Loop)In this mode the charge pump output is tri-stated. The loop isopen and will therefore not track the modulation. This meansthat the loop filter can have a relatively high bandwidth, whichgive short switching times. However, the loop voltage willdecrease with time due to current leakage. The transmit timewill therefore be limited and is dependent on the bandwidth ofthe loop filter. High bandwidth gives low capacitor values andthe loop voltage will decrease faster, which gives a shortertransmit time.The loop is closed until the PLL is locked on the desiredfrequency and the power amplifier is turned on. The loopimmediately opens when the modulation starts. The loop willnot track the modulation, but the modulation still needs to beDC free due to the AC coupling in the modulation network.TransmitPower Amplifier (PA)The power amplifier is biased in class AB. The last stage has an open collector, and an external load inductor (L2) is therefore necessary. The DC current in the amplifier is adjusted with an external bias resistor (R14). A good starting point when designing the PA is a 1.5kΩ bias resistor which gives a bias current of approximately 50µA. This will give a bias current in the last stage of about 15mA.The impedance matching circuit will depend on the type of antenna used, but should be designed for maximum output power. For maximum output power the load seen by the PA must be resistive and should be about 100Ω. The output power is programmable in eight steps, with approximately 3dB between each step. This is controlled by bits Pa2 - Pa0. To prevent spurious components from being transmitted the PA should be switched on/off slowly, by allowing the bias current to ramp up/down at a rate determined by the external capacitor C25 connected to Pin 24. The ramp up/down current is typically 1.1µA, which makes the on/off rate for a 3.0V power supply 2.6µs/pF. Turning the PA on/off affects the PLL. Therefore the on/off rate must be adjusted to the PLL bandwidth.PA BufferA buffer amplifier is connected between the VCO and the PA to ensure that the input signal of the PA has sufficient amplitude to achieve the desired output power. This buffer can be bypassed by setting the bit Gc to 0.ReceiveFront End (LNA and Mixers)A low noise amplifier in RF receivers is used to boost the incoming signal prior to the frequency conversion process. This is important in order to prevent mixer noise from domi-nating the overall front end noise performance. The LNA is a two-stage amplifier and has a nominal gain of 23dB at 900MHz. The LNA has a dc feedback loop, which provides bias for the LNA. The external capacitor C26 decouples and stabilizes the overall dc feedback loop, which has a large low frequency loop gain. Figure 8 shows the input impedance of the LNA. Input matching is very important to get high receive sensitivity.The LNA can be bypassed by setting bit ByLNA to ‘1’. This is useful for very strong signal levels.The RSSI signal can be used to drive a microcontroller in a way when a strong RF income signal is present the LNA can be bypassed. This will increase the dynamic range by ap-proximately 25dB.The mixers have a gain of about 12dB at 900MHz. The differential outputs of the mixers are available at Pins 34, 35 and at Pins 38, 39. The output impedance of each mixer is about 15kΩ.Figure 8.Input ImpedanceSallen-Key Filter and PreamplifierEach channel includes a preamplifier and a prefilter, which is a three-pole elliptic Sallen-Key low pass filter with 20dB stopband attenuation. It protects the following gyrator filter from strong adjacent channel signals. The preamplifier has a gain of 20dB when bit Gc=0 and 30dB when bit Gc=1. The output voltage swing is about 200mV PP for the 30dB gain setting and 1V PP for the 20dB gain setting.The third order Sallen-Key low pass filter is programmable to four different cut-off frequencies according to the table below: Fc1Fc0Cut-Off Frequency Recommended(kHz)Channel Spacing 0010 ±2.525kHz0130 ±7.5100kHz1060 ±15200kHz11200 ±50700kHzFor the 10kHz cut-off frequency the first pole must be gener-ated externally by connecting a 820pF capacitor between the outputs of each mixer. For the 30kHz cut-off frequency a 68pF capacitor is needed between the outputs.As the cut-off frequency of the gyrator filter can be set by varying an external resistor, the optimum channel spacing will depend on the cut-off frequencies of the Sallen-Key filter. The table above shows the recommended channel spacing depending on the different bit settings.Gyrator FilterThe main channel filter is a gyrator capacitor implementation of a seven-pole elliptic low pass filter. The elliptic filter minimizes the total capacitance required for a given selectiv-ity and dynamic range. An external resistor can adjust the cut-off frequency of the gyrator filter. The following table shows how the cut-off frequency varies with bias resistor:。

MIC5209

470pF
(OPTIONAL)
Ultra-Low-Noise 5V Regulator
Micrel, Inc. • 1849 Fortune Drive • San Jose, CA 95131 • USA • tel + 1 (408) 944-0800 • fax + 1 (408) 944-0970 •
For space-critical applications where peak currents do not exceed 500mA, see the MIC5219.
Typical Applications
MIC5209-2.5BS
Ordering Information
Part Number MIC5209-2.5BS MIC5209-3.0BS MIC5209-3.3BS Voltage 2.5V 3.0V 3.3V 3.6V 4.2V 5.0V 1.8V 2.5V 3.0V 3.3V 3.6V 5.0V Adj. 2.5V 3.0V 3.3V 3.6V 5.0V Adj. Junct. Temp. Range –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C 0°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C –40°C to +125°C Package SOT-223 SOT-223 SOT-223 SOT-223 SOT-223 SOT-223 SO-8 SO-8 SO-8 SO-8 SO-8 SO-8 SO-8 TO-263-5 TO-263-5 TO-263-5 TO-263-5 TO-263-5 TO-263-5

建伍写频软件对照表-更新

建伍写频软件对照表-更新软件名称及版本适用机型KPG-5D TK-930 / 931 UPDATED9/04KPG-6D TK-705D / 805D TK-706D / 807DKPG-7D TK-830 / 730 / 630KPG-9D TK-240D / 340DKPG-11D TK-230 / 330KPG-13D UK 1.04KPG-15D KDS-10 (TWO TONE DECODER)KPG-16D TK-430 / 431KPG-20D TK-709T / TK-349TKPG-21D TKR-720 / 820 TKB-620 / 720KPG-23D TK-250 /350KPG-25D TK-940 / 941 / 840/ 841KPG-26D TK-353 LTRKPG-27D TK-260 / 270 / 278 / 272/KPG-28D 1.00 TK-759 / 859/ / 752 / 852KPG-29D 2.10 TK-760 / 762 / 768 TK-860 / 862 / 868 KPG-32D 1.00 TK-259 / TK-359KPG-34D 2.00 TK-261 / TK-361KPG-34D_LAB V.7-03 TK-261/ TK-361KPG-35D 1.00 TK-480 / 481KPG-38D 1.01 TK-290/390KPG-41D UK 1.12 TK-715 TK-255KPG-44D 2.0 TK-690TK-790 TK?90KPG-44D 2.01 TK-690 / 790 / 890KPG-47D 3.00 TKR 830/740/840 UPDATED 9/04 KPG-48D 1.00 TK-2100 / 3100 / 3101KPG-48D_LAB V.7-03 TK-2100 / 3100 / 3101KPG-49D 2.00 TK-280 / 380 / 780 / 880 / 980 /981KPG49D_302 3.02 TK-280 / 380 / 480/ 481 / 780 / 880 / 980 /981KPG49D 4.01 TK-280 / 380 / 480/ 481 / 780 / 880 / 980 /981 KPG-52D 1.00 UBZ-LH14KPG-54D_LAB 1.00 TK-3101KPG-55D V4.10 TK-2102 / 2107 /2106/ 3102 / 3107/3106KPG-56D 2.00 TK-762G / 768G / 760G / 862G / 868G / 860G / 260G / 270G / 278G/ 360G / 370G / 378GKPG56D-V2.10 2.10 TK-260G / 360G / 270G / 370G/ 272G/ 372GTK-760G / 762G / 860G / 862G KPG56D-V300SCN 3.00 TK-260G / 360G / 270G / 370G/ 272G/ 372G/TK-760G / 762G / 860G / 862G KPG-56D- Version 4 4.00 TK-260G / 360G / 270G / 370G/ 272G/ 372G/TK-760G / 762G / 860G / 862GKPG-56D 4.21 TK-260G / 360G / 270G / 370G/ 272G/ 372G/TK-760G / 762G / 860G / 862G KPG-59D 2.10 TK-190 / TK-6110KPG-60D 1.KPG-62D 1.00 TK-285 / 385 TK-785 / 885KPG-65ED Fleet SyncKPG-66D 2.01 Repeater TKR750/850 KENWOODKPG-66ND 1.00 B16 Repeater TKR750/850 KENWOODKPG-67D 1.00 TK-260G / 270G / 360G / 370G / 760G / 762G / 860G / 862G KPG-69D 1.11 TK-2118 / 3118KPG-70D 2.00 TK-71028102 MOBILEKPG-70D 3.00 TK-7102 / TK-7108 / TK-8102 / TK8108KPG-71D 1.10 KDS-100 MDT / MESSAGE TERMINALKPG-71D 1.30 KDS-100 MDT / MESSAGE TERMINALKPG-73D 1.01 KGP 2A/2BKPG-74D 1.10 TK-2140 & TK-3140 PORTABLESKPG-74D 1.11 TK-2140 & TK-3140 PORTABLESKPG-75D 1.10 TK-3130 & TK-3131KPG-76D 1.10 TK-373 TK-863G LTR PORTABLEKPG-77D 1.00 TK-782 220MHz MOBILEKPG-79D 1.01 TK-7150 & TK-8150 MOBILEKPG-80D 1.02 TK-7100 / TK-8100KPG-82D 2.01 TK-2160 / TK-2168 / TK-3160KPG-82D 2.02 TK-2160 / TK-2168 / TK-3160KPG-82D 2.03 TK-2160 / TK-2168 / TK-3160KPG-87D 1.00 TK-2202 / TK-2206 / TK-2207 / TK-3202 / TK-3206 / TK-3207 KPG-89D 1.00 TK-7180/8180/2180/3180 KPG-89D 1.02 TK-7180/8180/2180/3180KPG-89D 1.10 TK-7180/8180/2180/3180KPG-91D 2.00 TKR-750/ TKR-850中文版KPG-96D TK-8185KPG-99D 1.01 TK-7160/8160KPG100D TK-2212/TK-3212Kpg101D 1.01 TK-2170/3170/3173/TK3178KPG102D TK-90KPG107D TK-3178 MPTKPG108D 1.20 TK-3230/3238KPG109D NXR-700/NXR800KPG110SM NXR-700/NXR800EKPG111D 1.5 NX-200/NX300/NX700/NX800KPG118D 1.11 TK-3307KPG119DM2 TK-2302/TK3302KPG123D TK-2260EX/TK3260EXKPG124D TK-7302/TK8302KPG127D TK-3178KPG128D TK-2360/TK3360KPG129D NXR-710/810KPG-135D TK-7360/8360KPG169D NX-340KPG-175D NX-740/840MCP-1A 3.11 TH-K2AT/K4AT、TM-271/471、TM-28/1481 MCP-F6F7 TH-F6-F7欢迎您的下载，资料仅供参考！致力为企业和个人提供合同协议，策划案计划书，学习资料等等打造全网一站式需求。

MIC5219中文资料

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MIC5219
MIcrel
MIC5219
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Micrel
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Micrel
要点 1: 绝对最大额定值表示超出阈值可能损坏组件。当操作设备超出其工作额定值时，电气性质可能不适用。
先，计算器件的最大功耗，如在热考虑部分中所做的。给出布局的最大功率耗散数。通过一个例子最好地表
最差情况下的热阻（对于 MIC5219-x.xBM5，θJA= 220° 示。如果应用要求 500mA 时的 5V 为短脉冲，但是唯
C / W）将用于此示例。
一可用的电源电压为 8V，则必须调整占空比以确定不
调节器电路的实际功率耗散可以使用一个简单的
应。可以无限制地增加输出电容器值。
输出电容应具有约 5Ω或更小的 ESR（等效串联电阻）和高于 1MHz 的谐振频率。超低 ESR 电容可能导致振荡和/或欠阻尼瞬态响应。大多数钽或铝电解电容器是足够的; 薄膜类型效果好，但是更昂贵。许多铝电解质具有在约-30℃下冷冻的电解质，因此建议在-25℃
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框图
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(V2.3)SDI5209_5219_5220_Datasheet_May28_14

FLASH_DATA FLASH_ADDL *** SGADCON WDCON SGADCON2 SBUF EXIF TMOD SP 1 *** SGADC3 WD_TA * PD_CON PWMF_H P0M1 TL0 DPL 2
FLASH_ENA * FLASH_ENB * *** SGADC1 SARDATA PWM0 P1M1 TH0 DPL（1） 4 *** *** PWM1 P1M1 TH1 DPH（1） 5
芯易德科技（深圳）有限公司
SOLIDIC
数据手册
SDI5209/5219/520
SDI5209/SDI5219/SDI5220系列
V2.3
本次更新： 1： Flash 操作说明（操作前，最好清除安全状态，请注意最新的样例代码） 2：在配置 PCON进入休眠前，最好加一条空指令 “ NOP” 。 3：在采用 “ STOP1/2 进入指令 ” 的程序中，最好将 “ 非唤醒中断 ” 优先级设置为低（复位默认），用作唤醒的中断设置为高优先级！！（ 10.4 MCU 工作模式）
Bit‐1 P11 Bit‐1 P1M01 Bit‐1 P1M11
Bit0 P10 Bit0 P1M00 Bit0 P1M10
P2口：默认配置“标准51输出模式”
P2(0xA0): P2 口数据寄存器（默认值：0xFF） Bit‐7 Bit‐6 Bit‐5 Bit‐4 Bit‐3 Bit‐2 P25 P24 P23 P22 P2M0(0x96): P2 口模式配置寄存器 0（默认值：0x00） Bit‐7 Bit‐6 Bit‐5 Bit‐4 Bit‐3 Bit‐2 P2M04 P2M03 P2M02

MICREL MIC5239 数据手册

MIC5239Low Quiescent Current 500mA µCapLDO RegulatorGeneral DescriptionThe MIC5239 is a low quiescent current, µCap low-dropout regulator. With a maximum operating input voltage of 30V and a quiescent current of 23µA, it is ideal for supplying keep-alive power in systems with high voltage batteries. Capable of 500mA output, the MIC5239 has a dropout voltage of only 350mV. It can provide high output current for applications such as USB.As a µCap LDO, the MIC5239 is stable with either a ceramic or a tantalum output capacitor. It only requires a 3.3µF output capacitor for stability.The MIC5239 includes a logic compatible enable input and an undervoltage error flag indicator. Other features of the MIC5239 include thermal shutdown, current limit, overvolt-age shutdown, reverse-leakage protection, and reverse-battery protection.Available in the thermally enhanced SOIC-8, MSOP-8 and SOT-223, the MIC5239 comes in fixed 1.5V, 1.8V, 2.5V, 3.0V, 3.3V and 5.0V, and adjustable voltages. For other output voltages, contact Micrel.All support documentation can be found on Micrel’s web site at: . Features•Ultra-low quiescent current (I Q= 23µA @I O= 100µA) •Continuous 500mA output current•Wide input range: 2.3V to 30V•Low dropout voltage: 350mV @500mA•±1.0% initial output accuracy•Stable with ceramic or tantalum output capacitor •Logic compatible enable input•Low output voltage error flag indicator• Overcurrent protection• Thermal shutdown• Reverse-leakage protection• Reverse-battery protection•High-power SOIC-8, MSOP-8 and SOT-223 packages Applications• USB power supply•Keep-alive supply in notebook and portable personal computers•Logic supply from high voltage batteries• Automotive electronics• Battery-powered systems___________________________________________________________________________________________________________ Typical ApplicationGND = 23µAOUT V IN30VRegulator with Low I O and Low I Q403530252015109141924I OUT = 1mAI OUT = 10µAI OUT = 100µA Ground Current vs. Input VoltageOrdering InformationPart NumberStandard Pb-Free Voltage(1) JunctionTemp.Range PackageMIC5239-1.5BM MIC5239-1.5YM 1.5V–40°C to +125°C 8-pin SOIC MIC5239-1.5BMM MIC5239-1.5YMM 1.5V –40°C to +125°C 8-pin MSOP MIC5239-1.5BS MIC5239-1.5YS 1.5V –40°C to +125°C SOT-223 MIC5239-1.8BM MIC5239-1.8YM 1.8V –40°C to +125°C 8-pin SOIC MIC5239-1.8BMM MIC5239-1.8YMM 1.8V –40°C to +125°C 8-pin MSOP MIC5239-1.8BS MIC5239-1.8YS 1.8V –40°C to +125°C SOT-223 MIC5239-2.5BM MIC5239-2.5YM 2.5V –40°C to +125°C 8-pin SOIC MIC5239-2.5BMM MIC5239-2.5YMM 2.5V –40°C to +125°C 8-pin MSOP MIC5239-2.5BS MIC5239-2.5YS 2.5V –40°C to +125°C SOT-223 MIC5239-3.0BM MIC5239-3.0YM 3.0V –40°C to +125°C 8-pin SOIC MIC5239-3.0BMM MIC5239-3.0YMM 3.0V –40°C to +125°C 8-pin MSOP MIC5239-3.0BS MIC5239-3.0YS 3.0V –40°C to +125°C SOT-223 MIC5239-3.3BM MIC5239-3.3YM 3.3V –40°C to +125°C 8-pin SOIC MIC5239-3.3BMM MIC5239-3.3YMM 3.3V –40°C to +125°C 8-pin MSOP MIC5239-3.3BS MIC5239-3.3YS 3.3V –40°C to +125°C SOT-223 MIC5239-5.0BM MIC5239-5.0YM 5.0V –40°C to +125°C 8-pin SOIC MIC5239-5.0BMM MIC5239-5.0YMM 5.0V –40°C to +125°C 8-pin MSOP MIC5239-5.0BS MIC5239-5.0YS 5.0V –40°C to +125°C SOT-223 MIC5239BM MIC5239YM ADJ –40°C to +125°C 8-pin SOIC MIC5239BMM MIC5239YMM ADJ –40°C to +125°C 8-pin MSOP Note:1. Other Voltages available. Contact Micrel for details.Pin ConfigurationSOIC-8 (M) SOT-223 (S) SOIC-8 (M) MSOP-8(MM) MSOP-8(MM) (Fixed) (Adj) Pin DescriptionPin Number MSOP/SOIC Pin NumberSOT-223Pin Name Pin Function2 (fixed) — FLG Error FLAG (Output): Open-collector output is active low when the outputis out of regulation due to insufficient input voltage or excessive load. Anexternal pull-up resistor is required.2 (adj) — ADJ Adjustable Feedback Input: Connect to voltage divider network.3 1 IN Power Supply Input.4 3OUTRegulatedOutput.1 — EN Enable (input): Logic low = shutdown; logic high = enabled.5–8 2 GND Ground: Pins 5, 6, 7, and 8 are internally connected in common via theleadframe.Absolute Maximum Ratings (1) Supply Voltage (V IN ) ......................................–20V to +32V Enable Input Voltage (V EN )............................–0.3V to +32V Power Dissipation (P D )(3)...........................Internally Limited Junction Temperature (T J )........................–40°C to +125°C Storage Temperature (T S ).........................–65°C to +150°C Lead Temperature (soldering, 5 sec.)........................260°C ESD Rating (4)SOT-23-3L...............................................................2kV MSOP-8L..............................................................1.5kVOperating Ratings (2)Supply Voltage (V IN )..........................................2.3V to 30V Enable Input Voltage (V EN )...................................0V to 30V Junction Temperature (T J )........................–40°C to +125°C Package Thermal ResistanceMSOP(θJA )....................................................... 80°C/W SOT-223 (θJA )................................................... 50°C/WElectrical Characteristics (5)V IN = V OUT + 1V; V EN ≥ 2.0V; I OUT = 100µA; T J = 25°C, bold values indicate –40°C ≤ T J ≤ +125°C; unless noted.Symbol ParameterConditionMin Typ Max UnitsV OUT Output Voltage AccuracyVariation from nominal V OUT –1 –212 %% ∆V OUT /V OUT Line Regulation V IN = V OUT +1V to 30V 0.06 0.5 % ∆V OUT /V OUT Load Regulation I OUT = 100µA to 500mA (6) 15 30 mVI OUT = 100µA50mV I OUT = 150mA 260350400 mV mV ∆V Dropout Voltage (7)I OUT = 500mA350mV V EN ≥ 2.0V, I OUT = 100µA 234045 µA µA V EN ≥ 2.0V, I OUT = 150mA 1.3 5 mA I GND Ground Pin Current V EN ≥ 2.0V, I OUT = 500mA8.5 15 mA I GND(SHDN) Ground Pin Shutdown V EN ≤ 0.6V, V IN = 30V 0.1 1 µA I SC Short Circuit Current V OUT = 0V850 1200 mAe n Output Noise 10Hz to 100kHz, V OUT = 3.0V, C L = 3.3µF160µVrmsFLAG OutputLow Threshold % of V OUT 94 % V FLG High Threshold% of V OUT 95 %V OL FLAG Output Low Voltage V IN = V OUT(nom) – 0.12V OUT , I OL = 200µA 150 mV I LEAKFLAG Output Leakage V OH = 30V 0.1 µA Enable Input V IL Input Low Voltage regulator off 0.6V V IH Input High Voltage regulator on2.0V V EN = 0.6V, regulator off –1.0–2.00.011.02.0µAµA V EN = 2.0V, regulator on 0.151.02.0 µA µA I INEnable Input CurrentV EN = 30V, regulator on0.52.55.0µA µANotes:1. Exceeding the absolute maximum rating may damage the device.2. The device is not guaranteed to function outside its operating rating.3.The maximum allowable power dissipation of any T A(ambient temperature) is P D(max) = (T J(max) – T A) ÷ θJA. Exceeding the maximumallowable power dissipation will result in excessive die temperature, and the regulator will go into thermal shutdown. The θJA of the MIC5239-x.xBMM (all versions) is 80°C/W, the MIC5239-x.xBM (all versions) is 63°C/W, and the MIC5239-x.xBS (all versions) is 50°C/W mounted on a PC board, see “Thermal Characteristics” for further details.4. Devices are ESD sensitive. Handling precautions recommended. Human body model, 1.5kΩ in series with 100pF.5. Specification for packaged product only.6. Regulation is measured at constant junction temperature using pulse testing with a low duty-cycle. Changes in output voltage due to heatingeffects are covered by the specification for thermal regulation.7. Dropout voltage is defined as the input to output differential at which the output voltage drops 2% below its nominal value measured at 1.0Vdifferential.Typical Characteristics (V= 3V)OUTTypical Characteristics (continued) (V OUT = 3V))A m (T N E R R U C T U P N I SUPPLY VOLTAGE (V)Input CurrentFunctional CharacteristicsFunctional DiagramBlock Diagram — Fixed VoltagesBlock Diagram — Adjustable VoltagesApplication InformationThe MIC5239 provides all of the advantages of the MIC2950: wide input voltage range, and reversed-battery protection, with the added advantages of reduced quiescent current and smaller package. Additionally, when disabled, quiescent current is reduced to 0.1µA.EnableA low on the enable pin disables the part, forcing the quiescent current to less than 0.1µA. Thermal shutdown and the error flag are not functional while the device is disabled. The maximum enable bias current is 2µA for a 2.0V input. An open-collector pull-up resistor tied to the input voltage should be set low enough to maintain 2V on the enable input. Figure 1 shows an open-collector output driving the enable pin through a 200kΩp ull-up resistor tied to the input voltage.In order to avoid output oscillations, slow transitions from low-to-high should be avoided.Figure 1. Remote EnableInput CapacitorAn input capacitor may be required when the device is not near the source power supply or when supplied by a battery. Small, surface mount ceramic capacitors can be used for bypassing. Larger values may be required if the source supply has high ripple.Output CapacitorThe MIC5239 has been designed to minimize the effect of the output capacitor ESR on the closed loop stability. As a result, ceramic or film capacitors can be used at the output. Figure 2 displays a range of ESR values for a 10µF capacitor. Virtually any 10µF capacitor with an ESR less than 3.4Ω is sufficient for stability over the entire input voltage range. Stability can also be maintained throughout the specified load and lineconditions with 4.7µF film or ceramic capacitors.Figure 2. Output Capacitor ESRError Detection Comparator OutputThe FLAG pin is an open-collector output which goes low when the output voltage drops 5% below it’s internally programmed level. It senses conditions such as excessive load (current limit), low input voltage, and over temperature conditions. Once the part is disabled via the enable input, the error flag output is not valid. Overvoltage conditions are not reflected in the error flag output. The error flag output is also not valid for input voltages less than 2.3V.The error output has a low voltage of 400mV at a current of 200µA. In order to minimize the drain on the source used for the pull-up, a value of 200kΩ to 1MΩ is suggested for the error flag pull-up. This will guarantee a maximum low voltage of 0.4V for a 30V pull-up potential. An unused error flag can be left unconnected.Error FLAGOutputInputVoltageOutputVoltageFigure 3. Error FLAG Output TimingThermal ShutdownThe MIC5239 has integrated thermal protection. This feature is only for protection purposes. The device should never be intentionally operated near this temperature as this may have detrimental effects on the life of the device. The thermal shutdown may become inactive while the enable input is transitioning from a high to a low. When disabling the device via the enable pin, transition from a high to low quickly. This will insure that the output remains disabled in the event of a thermal shutdown.Current LimitFigure 4 displays a method for reducing the steady state short-circuit current. The duration that the supply delivers current is set by the time required for the error flag output to discharge the 4.7µF capacitor tied to the enable pin. The off time is set by the 200k Ω resistor as it recharges the 4.7µF capacitor, enabling the regulator. This circuit reduces the short-circuit current from 800mA to 40mA while allowing for regulator restart once the short is removed.OUT ERRSHUTDOWNENABLEFigure 4. Remote Enable with Short-CircuitCurrent FoldbackThermal CharacteristicsThe MIC5239 is a high input voltage device, intended to provide 500mA of continuous output current in two very small profile packages. The power MSOP-8 allows the device to dissipate about 50% more power than their standard equivalents.Power MSOP-8 Thermal CharacteristicsOne of the secrets of the MIC5239’s performance is its power MSOP-8 package featuring half the thermal resistance of a standard MSOP-8 package. Lower thermal resistance means more output current or higher input voltage for a given package size.Lower thermal resistance is achieved by joining the four ground leads with the die attach paddle to create a single piece electrical and thermal conductor. This concept has been used by MOSFET manufacturers for years, proving very reliable and cost effective for the user.Thermal resistance consists of two main elements, θJC (junction-to-case thermal resistance) and θCA (case-to-ambient thermal resistance). See Figure 5. θJC is the resistance from the die to the leads of the package. θCA is the resistance from the leads to the ambient air and it includes θCS (case-to-sink thermal resistance) and θSA(sink-to-ambient thermal resistance).Figure 5. Thermal ResistanceUsing the power MSOP-8 reduces the θJC dramatically and allows the user to reduce θCA . The total thermal resistance, θJA (junction-to-ambient thermal resistance) is the limiting factor in calculating the maximum power dissipation capability of the device. Typically, the power MSOP-8 has a θJC of 80°C/W, this is significantly lower than the standard MSOP-8 which is typically 200°C/W. θCA is reduced because pins 5 through 8 can now be soldered directly to a ground plane which significantly reduces the case-to-sink thermal resistance and sink to ambient thermal resistance.Low-dropout linear regulators from Micrel are rated to a maximum junction temperature of 125°C. It is important not to exceed this maximum junction temperature during operation of the device. To prevent this maximum junction temperature from being exceeded, theappropriate ground plane heatsink must be used.Figure 6. Copper Area vs. Power-MSOPPower Dissipation (∆T JA )Figure 6 shows copper area versus power dissipation with each trace corresponding to a different temperature rise above ambient.From these curves, the minimum area of copper necessary for the part to operate safely can be determined. The maximum allowable temperature rise must be calculated to determine operation along which curve.∆T = T J(max) – T A(max)T J(max) = 125°CT A(max) = maximum ambient operatingtemperatureFor example, the maximum ambient temperature is 50°C, the ∆T is determined as follows:∆T = 125°C – 50°C∆T = 75°CUsing Figure 6, the minimum amount of required copper can be determined based on the required power dissipation. Power dissipation in a linear regulator is calculated as follows:P D = (V IN – V OUT) I OUT + V IN × I GNDIf we use a 3V output device and a 28V input at moderate output current of 25mA, then our power dissipation is as follows:P D = (28V – 3V) × 25mA + 28V 250µAP D = 625mW + 7mWP D = 632mWFrom Figure 6, the minimum amount of copper required to operate this application at a ∆T of 75°C is 110mm2. Quick MethodDetermine the power dissipation requirements for the design along with the maximum ambient temperature at which the device will be operated. Refer to Figure 7, which shows safe operating curves for three different ambient temperatures: 25°C, 50°C and 85°C. From these curves, the minimum amount of copper can be determined by knowing the maximum power dissipation required. If the maximum ambient temperature is 50°C and the power dissipation is as above, 639mW, the curve in Figure 7 shows that the required area of copper is 110mm2.The θJA of this package is ideally 80°C/W, but it will vary depending upon the availability of copper ground plane to which it is attached.Figure 7. Copper Area vs. Power-MSOPPower Dissipation (T A)Figure 8. Copper Area vs. Power-SOICPower Dissipation (∆T JA)Figure 9. Copper Area vs. Power-SOICPower Dissipation (T A)The same method of determining the heatsink area used for the power MSOP-8 can be applied directly to the power SOIC-8. The same two curves showing power dissipation versus copper area are reproduced for the power SOIC-8 and they can be applied identically.Power SOIC-8 Thermal CharacteristicsThe power SOIC-8 package follows the same idea as the power MSOP-8 package, using four ground leads with the die attach paddle to create a single-piece electrical and thermal conductor, reducing thermal resistance and increasing power dissipation capability. Quick MethodDetermine the power dissipation requirements for the design along with the maximum ambient temperature at which the device will be operated. Refer to Figure 9, which shows safe operating curves for three different ambient temperatures, 25°C, 50°C, and 85°C. From these curves, the minimum amount of copper can be determined by knowing the maximum power dissipation required. If the maximum ambient temperature is 50°C, and the power dissipation is 632mW, the curve in Figure 9 shows that the required area of copper is less than 100mm2, when using the power SOIC-8.Adjustable Regulator ApplicationFigure 10. Adjustable Voltage Application The MIC5239YM can be adjusted from 1.24V to 20V by using two external resistors (Figure 10). The resistors set the output voltage based on the following equation:⎟⎠⎞⎜⎝⎛+=R2R11VV REFOUTWhere V REF = 1.23V.Feedback resistor R2 should be no larger than 300kΩ.Package Information8-Pin MSOP (MM)SOT-223 (S)8-Pin SOIC (M)。

vsx-520

vsx-520VSX-520是一款功能强大的音频设备，为用户带来卓越的音频体验。

以下是VSX-520主要的基本信息和功能特点：品牌: VSX型号: 520类型: 音频设备颜色: 黑色尺寸: XX cm x XX cm x XX cm重量: XX ___强大的功率输出，提供清晰而有力的音频效果。

支持多种音频格式，包括AAC、MP3、WMA等。

内置蓝牙功能，可与其他蓝牙设备无线连接，方便音频传输。

支持多个音频输入接口，如HDMI、光纤输入、RCA等，满足不同音频设备的连接需求。

支持音频输出接口，包括HDMI、光纤输出、RCA等，可连接至扬声器或其他音频设备。

配备了用户友好的操作界面，易于使用和设置。

提供多种音效模式选择，如音乐、电影、游戏等，以适应不同场景和需求。

具有智能省电功能，节能环保。

这些是VSX-520的一些主要特点，无论是在家庭娱乐中还是专业音频设备中，它都能为用户带来出色的音频体验。

功放功率：VSX-520具有强大的功放功率，能够提供清晰、动感的音频表现。

多媒体功能：VSX-520支持多媒体功能，可以播放各种音频和视频格式，满足用户的多样化需求。

功能丰富：VSX-520拥有多种功能，如音效调节、音场模式、音频解码等，使用户能够根据个人喜好进行调节和优化。

连接方式灵活：VSX-520支持多种连接方式，如HDMI、光纤、模拟音频等，可以与各种设备进行连接和配对。

用户友好：VSX-520的界面和操作简单易懂，用户可以轻松掌握设备的使用方法和功能。

耳机输出：VSX-520具有耳机输出接口，方便用户在不打扰他人的情况下享受音乐和影片的乐趣。

设计时尚：VSX-520采用时尚的外观设计，外壳材质优质，整体美观大方。

高音质：VSX-520通过先进的音频处理技术，能够提供高保真的音频效果，让用户享受纯净、逼真的音乐体验。

多种音效模式：VSX-520内置多种音场模式和音效调节选项，可以根据不同音乐类型和观影需求进行调整，带来沉浸式的音乐和影音体验。

数字硅麦中文规格书

数字硅麦中文规格书一、产品概述数字硅麦是一款先进的音频设备，广泛应用于语音录制、语音识别、语音通信等领域。

本规格书旨在详细介绍数字硅麦的技术特点、功能参数以及使用方法，为用户提供全面的了解和使用指南。

二、技术特点1. 高保真音频采集：数字硅麦采用先进的音频处理技术，能够实现高保真的音频采集，使录制的声音更加真实、清晰。

2. 高灵敏度麦克风：数字硅麦内置高灵敏度麦克风，能够准确捕捉声音，并实现高质量的语音识别。

3. 多功能按键设计：数字硅麦配备了多个功能按键，可实现音量调节、静音、录制等操作，方便用户进行各种操作。

4. 连接便捷：数字硅麦采用USB接口，可直接与计算机、手机等设备连接，无需额外的驱动程序，使用方便快捷。

三、功能参数1. 频率响应范围：数字硅麦的频率响应范围为20Hz-20kHz，能够捕捉到人类听觉范围内的所有声音。

2. 信噪比：数字硅麦的信噪比大于90dB，能够有效降低背景噪音对录音质量的影响。

3. 麦克风灵敏度：数字硅麦的麦克风灵敏度为-40dB，能够准确捕捉到细微的声音。

4. 麦克风方向性：数字硅麦采用超心形指向性麦克风，能够有效抑制环境噪音，提高录音质量。

5. 电源供应：数字硅麦通过USB接口供电，无需外接电源，方便携带和使用。

四、使用方法1. 连接设备：将数字硅麦通过USB线缆连接至计算机、手机等设备的USB接口。

2. 驱动安装：在使用计算机时，系统会自动识别数字硅麦并安装相应的驱动程序；在使用手机时，无需额外驱动。

3. 功能调节：通过数字硅麦上的功能按键，可实现音量调节、静音等操作，根据实际需求进行设置。

4. 录制语音：在需要录制语音时，打开录音软件，选择数字硅麦作为录音设备，并点击开始录制按钮即可开始录音。

5. 语音识别：在需要进行语音识别时，打开语音识别软件，选择数字硅麦作为输入设备，进行语音输入即可实现语音识别功能。

五、注意事项1. 使用环境：数字硅麦适用于室内环境，避免在高温、低温、潮湿等恶劣环境下使用。

FP5209最新中文规格书

应用
⚫ 充电器 ⚫ 液晶显示器 ⚫ 数码相机 ⚫ 手持设备 ⚫ 便携式产品
芯片 135 代 2845 理 8039 Mr。郑，工程 FAE
典型应用电路
FP5209
MOS 可选择 PW2302A,PW3400A,FKS4004
FP5209
功能描述
操作 FP5209 是一种电压模式升压控制器。开关为固定频率 550kHz 使用脉冲宽度调制（PWM）工作。内部电阻分压器为放大器出错。当输出为轻负载时，FP5209 转换为 PFM 模式。它可以增加效率，但 PFM 模式也增加了输出电压纹波。软启动功能软启动电路集成在 FP5209 中，以避免上电时的浪涌电流。IC 后启用时，错误放大器的输出被内部软启动功能钳制，这导致脉宽调制脉冲宽度缓慢增加，从而减
FP5209 采用小尺寸 SOT23-5L 封装，适合节省空间的 PCB 其他应用程序字段围：2.4 至 5.5V ⚫ 精密反馈参考电压：0.6V（±2%） ⚫ 关机电流：<1μA ⚫ 内部固定 PWM 频率：550KHz ⚫ 内部软启动功能：7ms（SS） ⚫ 过电压保护 ⚫ 包装：SOT23-5L 占空比：PWM/PFM 开关控制电路（15%~90%）
FP5209
非同步 PWM 升压控制器
一般说明
FP5209 是一种适用于广泛工作电压应用的升压型拓扑开关稳压器。它提供内置门驱动器引脚，扩展引脚，用于驱动外部 N-MOSFET。内部补偿网络最大限度地减少了外部元件的计数和误差的非可逆输入放大器连接到 0.6V 精密参考电压。FP5209 具有内部软启动功能。
输出电压编程输出电压由电阻分压器从输出电压设置到 FB。输出电压为：
布局注意事项
1. 功率轨迹，包括 GND 轨迹、MOS 漏极轨迹和 VCC 轨迹保持短、直、宽。 2. 版图开关节点 MOS 漏极，电感和二极管的连接轨迹宽而短，以减少电磁干扰。 3. 将 CIN 尽可能靠近 VCC 引脚，以保持输入电压稳定并过滤掉脉冲输入电流。 4. 电阻分压器 R1 和 R2 必须直接连接到 FB 引脚，并尽可能靠近。 5. FB 是一个敏感节点。请远离开关节点，MOS 漏极。 6. IC、CIN 和 COUT 的 GND 应紧密连接并直接接地飞机。

A9说明书

CONEXTION A9使用说明书常用快捷功能使用说明：一效果储存及调用1.效果储存：（1）.连续按下效果储存键MEMORY，切换需要储存的参数组，提示SA V USER1/2/3/4(2).长按啸叫模式选择按钮FEEDBACK5秒，显示SA VED TO USER1/2/3/4结束。

2.效果调用：（1）.连续按下效果模式调用按钮ONE-TOUCH，切换需要调用的参数组，提示SELECTUSER1/2/3/4(2).按啸叫模式选择按钮FEEDBACK确认调用，显示READ USER MODE1/2/3/4，调用成功。

二.开机音量设定及取消1.设定：调节好使用环境下最合适的音乐音量和话筒音量，然后同时按下音乐和话筒的菜单▲键10秒，显示INITIAL VOLS SET，设置成功。

2.取消：同时按下音乐和话筒的菜单▼键10秒，显示INITIAL VOLS CNL，取消开机音量设置成功。

取消后，每次开机音量记忆上次关机时音量。

三.开机效果设定：本机默认开机调用模式为USER1。

需要更改开机调用模式的操作方法如下：1.同时长按音乐变调键和效果模式调用键10秒，提示START MODE 1/2/3/42.旋转音乐音量旋钮，选择需要的开机模式3.按下啸叫模式选择按键FEEDBACK确认设置成功，提示START MODE USER1/2/3/4。

四.恢复默认开机调用模式为USER1同时长按MEMORY键和ONE-TOUCH键10秒，提示START MODE CNL，恢复开机模式USER1成功五.标准/专业菜单切换1.同时长按音乐MENU和话筒MENU键3秒：提示TO PROF MODE?(专业扩展菜单)或TO NORMALMODE?（标准操作菜单）2.按下啸叫模式选择键FEEDBACK确认切换设置成功。

特别提示：本机开机时默认菜单为：标准操作菜单（不带补声通道参数调节）六.按键上锁解锁：长按FEEDBACK按键5秒实现上锁或解锁。

tobii dynavox communicator 5 入门手册说明书

所主张的版权保护包括依成文法或司法规定而受版权保护的材料和信息的所有形式和事项，包括但不限于屏幕（如屏幕显示）、菜单等显示的软件程序生成的材料。

本文档中所含信息由Tobii Dynavox专有。

未经Tobii Dynavox事先书面授权，禁止复制任何部分或全部内容。

本文档内提及的产品是其相应所有者的商标和/或注册商标。

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尽管在本文档的编写过程中采取了各种防范措施，但出版商和作者对本文档的任何错误或遗漏概不负责，对由于使用本文档所含信息或由于使用本文档随附的程序或源代码而引致的任何损失也概不负责。

无论在何种情况下，出版商和作者对本文档直接或间接导致的实际或指称的任何利润损失或其他商业损失一概无须负责。

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目录内容1关于Communicator5 (5)1.1预期用途 (5)1.2常见图标/功能 (5)1.3系统要求： (6)2安装、启动及许可证操作 (7)2.1安装Communicator5 (7)2.2启动Communicator5 (7)2.3管理Communicator5的许可证 (7)3首次启动 (8)3.1新用户设置指南，步骤1 (8)3.1.1用户配置文件名 (8)3.1.2声音 (8)3.1.3输入方法 (8)3.2新用户设置指南，步骤2 (11)3.2.1选择场景式沟通、符号沟通或文本沟通 (11)3.3新用户设置指南，步骤3 (12)4为终端用户使用Communicator5 (13)4.1为场景式沟通用户使用Communicator5 (13)4.2为符号沟通用户使用Communicator5 (13)4.3为文本沟通用户使用Communicator5 (14)4.3.1我的短语 (14)4.4Communicator5中的键盘 (17)4.4.1键盘设置 (20)4.4.2IME (20)4.5主页功能 (20)5看护人对Communicator5的使用 (22)5.1Quick Menu (22)5.2编辑主页 (23)5.2.1访问“编辑主页” (23)5.2.2添加页面集 (24)5.2.3更改背景色 (24)5.2.4更改网格大小 (25)5.2.5管理页面集 (25)5.3所有页面集 (26)5.3.1在所有页面集内将页面集添加到主页 (26)5.3.2在所有页面集内将页面集从主页中删除 (28)5.4Advanced Settings (28)5.4.1键盘设置 (30)5.4.2红外遥控器 (34)5.4.3在笔记本电脑/平板电脑上使用手机/蓝牙® (38)5.4.4我的短语 (41)5.5备份、导入和导出页面集 (43)5.5.1备份页面集和数据 (43)5.5.2导出页面集和数据 (44)5.5.3导入页面集和数据 (44)6编辑按钮 (45)6.1已存储消息 (47)6.1.1导入已存储消息 (47)6.1.2添加已存储消息 (48)7编辑视图 (51)7.1在编辑视图中修改按钮 (51)7.2创建新页面并添加按钮 (52)7.2.1创建新页面集 (52)7.2.2创建新按钮 (52)7.2.3添加图片/符号、文本或声音 (53)7.2.4编辑图片工具 (54)7.2.5按钮-基础知识 (54)7.2.6向页面集添加新页面 (54)7.2.7保存您的页面集 (54)7.3消息窗口 (54)7.3.1使用页面属性 (54)7.3.2创建消息窗口按钮 (55)7.3.3使其工作 (56)7.3.4向消息窗口发送不同的消息 (56)7.3.5编辑消息窗口的内容等等。

MIC5205低压差稳压器

ＭＩＣ５２０５的典型应用电路图ＭＩＣ５２０５不同后缀名称的输出电压值字的不同而不同。

ＭＩＣ５２０５是笔记本电脑和台式电脑主板中常用的低压差稳压器，输出电流为１５０ｍＡ，输出电压值根据后缀数ＭＩＣ５２０５型号型号代码输出电压（V）封装形式MIC5205BM5LBAA ADJ SOT-23-5MIC5205—2.5BM5LB25 2.5SOT-23-5MIC5205—2.7BM5LB27 2.7SOT-23-5MIC5205—2.8BM5LB28 2.8SOT-23-5MIC5205—2.85BM5LB2J 2.85SOT-23-5MIC5205—2.9BM5LB29 2.9SOT-23-5MIC5205—3.0BM5LB30 3.0SOT-23-5MIC5205—3.1BM5LB313.1SOT-23-5MIC5205—3.2BM5LB32 3.2SOT-23-5MIC5205—3.3BM5LB33 3.3SOT-23-5MIC5205—3.6BM5LB36 3.6SOT-23-5MIC5205—3.8BM5LB38 3.8SOT-23-5MIC5205—4.0BM5LB40 4.0SOT-23-5MIC5205—5.0BM5LB505.0SOT-23-5= 2.2µF OUT BYP 型号代码ＭＩＣ５２０５的典型应用电路图ＭＩＣ５２０５的各引脚功能引脚号引脚名称引脚功能16P4封装20P2N-A 封装11COLLECTOR图腾柱输出集电极22V OUT 图腾柱输出33EMITTER 图腾柱输出发射极44VF VF 控制端57ON/OFF 工作使能端68OVP 过压保护端79DET 检测端810F/B 电压反馈端911T-ON 计时电阻ON 端1012CF 计时电容端1113T-OFF 计时电阻OFF 端1214CT 断续方式工作检测电容端1317GND 接地端1418CLM-负压过流检测端1519CLM+正压过流检测端1620V CC电源电压输入端。

5500中文说明书 V2

奥本音频处理器快速设定说明
安装前请先确定整个音频的路由的情况，以下依序是是奥本处理器最理想的安装位置及连接方式：
1、放在发射机房，使用于发射机的前端，采用复合信号（BNC接口、非音频信号）直接馈入激励器。

2、若放在总控端或是播出机房在一侧，使用音频输出（数字或模拟均可），要确保到发射机端的传输路由有足够的
HeadRoom、高信噪比及良好的线性。

在发射机端使用奥本的立体声编码器，采用复合信号（BNC接口、非音频信号）直接馈入激励器。

3、其它安装及连接方式请联系合格奥本技术人员讨论以发挥最优化的效果。

所有经过奥本处理的音频讯号是最适合发射机播出的，奥本进行了绝对的峰值控制可以确保在发射机的有效调制最
以上为奥本音处理器的快速设定，只需10分钟就可以完成上线的设定，奥本也提供更多细节的设定欢迎技术咨询及讨论。

IC5205BM5中文资料

元器件交易网 MIC5205 Pin Configuration
Micrel
EN GND IN
3 2 1
EN GND IN
3 2 1
LBxx
4 5 4
LBAA
5
Part Identification
BYP
OUT
ADJ
OUT
MIC5205-x.xBM5 Fixed Voltages
Absolute Maximum Ratings (Note 1)
Supply Input Voltage (VIN) ............................ –20V to +20V Enable Input Voltage (VEN) ........................... –20V to +20V Power Dissipation (PD) ............... Internally Limited, Note 3 Lead Temperature (soldering, 5 sec.) ....................... 260°C Junction Temperature (TJ) ....................... –40°C to +125°C Storage Temperature (TS) ....................... –65°C to +150°C
Other voltages available. Contact Micrel for details.
Typical Application
Ve Shutdown 3 4 5
VOUT
EN
EN (pin 3) may be connected directly to IN (pin 1).

便携录播机 NLB-530P 使用手册说明书

便携录播机NLB-530P使用手册REV688南京纳加软件股份有限公司版权所有，不得翻印目录一、硬件规格 (1)1.1配件清单 (1)1.2设备参数 (1)1.3展示图 (1)1.4接口图 (2)二、安装调试 (3)三、授课机桌面采集客户端 (6)四、系统功能详细说明 (8)4.1纳加远程互动教育录播系统（VJES1.2） (8)4.1.1监视 (9)4.1.2通道 (10)4.1.3输出 (18)4.1.4调音台 (30)4.1.5导播规则 (31)4.1.6云教室 (35)4.1.7云台 (37)4.1.8字幕 (38)4.1.9角标 (40)4.1.10CG (40)4.1.11切换控制 (42)4.1.12切换特技 (43)4.1.13上传 (43)4.2授课机桌面采集客户端（VJT EACHER） (45)4.2.1运行 (45)4.2.2桌面采集 (45)4.2.3远程控制 (45)4.2.4手写板 (46)4.2.5音频设置 (47)4.2.6开始/停止课件录制 (48)4.2.7录播机开机/关机 (48)4.2.8课件信息设置 (49)4.2.9图像质量设置 (49)五、课件录制 (50)5.1课件格式 (50)5.2本地播放 (50)5.3网络在线播放 (51)5.4课件播放器 (51)5.4.1界面布局 (51)5.4.3PPT索引 (53)5.4.4笔记 (53)六、附录 (54)6.1录播内置操作台使用说明 (54)6.2片头、片尾的制作方式和关联使用说明 (55)6.3ONVIF测试工具及方法 (59)6.4还原出厂设置 (61)6.5常见问题 (62)一、硬件规格1.1配件清单1.2设备参数名称参数说明机箱便携机箱，内置1块15.6寸全高清显示屏，内置导播键盘、PC 键鼠材质镁铝合金外形尺寸387mm x 262mm x 89mm(长x 宽x 高)重量 4.6KG供电19V 电源，提供外置电源适配器运输箱纸箱包装运输工作温度0°C -45°C 贮存温度-20°C -70°C 工作湿度10~90%无凝露1.3展示图115.6寸全高清显示屏2PC 键盘/鼠标触摸板3专业导播键盘/云台摇杆4高强度提手名称/型号包装规格件数备注设备主体纸箱内包装NLB-530P 1电源线纸箱内包装国标1适配器纸箱内包装国标1使用手册纸箱内包装纳加定制1电子版保修卡合格证纸箱内包装纳加定制11.4接口图1、侧面接口11散热口2电源开关1、侧面接口21立体声喇叭开关248V 幻象电源开关3音频输出L 4音频输出R5音频输入1（MIC/LINE IN）6音频输入2（MIC/LINE IN）7音频输入1电平输入选择按钮8音频输入1电平衰减开关按钮9音频输入2电平输入选择按钮10音频输入2电平衰减开关按钮11直接监听输入信号开关12耳机监听增益旋钮13音频输入1增益旋钮14音频输入2增益旋钮15音频输出L/R 增益旋钮16耳机监听接口2、背面接口1SDI 输入42SDI 输入33SDI 输入24SDI 输入15HDMI 输入6DC 19V 接口7HDMI 输出8COM 口9USB 3.2接口10LAN 口11USB 3.2接口12Mic in 13Line out二、安装调试1.打开纸箱，从拉箱中取出主机和电源，将主机平放在平稳的台面上，2.双手同时轻轻上翻显示屏到一定显示角度，如下图所示：3.连接电源，如下图所示：4.连接输入的视音频信号(1)摄像机等现场信号通过SDI线接入SDI输入口，如下图所示：(2)电脑桌面通过HDMI线连接到HDMI输入口，如下图所示：5.声音通过卡侬/大三芯线连接到卡龙/大三芯两用混音输入口，如下图所示：6.连接录播主机投影到大屏或者分屏监视。

mic5205

(一)芯片简介1.1 芯片的基本介绍MIC5205是一种有效的噪声输出线性稳压器，具有非常低的压差（通常在轻负载17mV 和165mV 150毫安），和非常低接地电流(耗电600μA 输出100mA 时）。

MIC5205提供了更好的超过1％的初始精度。

专门为手持式设计的电池驱动的设备，MIC5205包括CMOS 或TTL 兼容开启/关闭控制输入。

当突然断电时，其功耗降低到近似为零，差电流调节器地面将略有增加，进一步延长电池寿命。

1.2 芯片应用时应注意绝对最大额定值：电源输入电压(V IN ) V Vto 2020+- 使能输入电压(V EN ) V Vto 2020+- 功耗(P D ) 内部限制引线温度（焊接） 260︒C 结温(T J ) . –40︒C to +125︒C 贮藏温度(T S ) -65︒C to +150︒C 工作额度：输入电压(V IN ) +2.5V to +16V使能输入电压(V EN ) 0V to IN V结温 –40︒C to +125︒C 热电阻 SOT-23-5 (θJA )根据以上的描述我们在应用芯片时应注意其允许通过的最大电压电流，从而能使芯片在安全的环境下工作而不会被烧毁。

1.3 芯片的主要特点∙超低噪声输出 ∙高输出电压精度 ∙保证150mA 输出 ∙低静态电流∙低压差电压∙极其精确的负载和线路调整 ∙非常低的温度系数 ∙电流和热限制 ∙反向电池保护 ∙‘零’关模式电流 ∙逻辑控制电子使能1.4电气特性T C C T V V uF C uA I V V V J J EN L L O U T IN 00012540;25;0.2;0.1;100;1+≤≤-=≥==+=符号参数条件MIN Typic Max Units 0V输出电压精度随着指定的VOUT 的变化而变化 -1 -21 2 % %T V ∆∆/0输出电压温度系数Note440C ppm 0/00/V V ∆线性特性VV V O U T IN 1+=到16V0.004 0.012 0.05%/v %/v 00/V V ∆负载调整mA I L 1.0=到150mA Note50.02 0.2 0.5% %0V V IN -电压差Note6mAI mA I mA I uA I L L L L 150********====16514011010 3502753002502301507050m Vm V m V m V m V m V m V m VI GND接地引脚电流V EN ≥ 2.0V,I L = 100μAI L = 50mAI L = 100mAI L = 150mA 80 350 600 1300125 150 600 800 1000 1500 19002500μA μA μA μA μA μA μA μA μAPSRR文波抑制 frequency = 100Hz, I L = 100μA75 dBI LIMIT电流限制V OUT = 0V320 500 mA∆VO /∆P D热调节 Note8 0.05HZ nV /e no输出噪声I L = 50mA, C L =2.2μF,470pF from BYP to GND260使能输出V IL使能输入逻辑低电压稳压器关闭0.40.18VVV IH使能输入逻辑高电压稳压器开启2.0VI ILI IH使能输入流V IL ≤ 0.4V V IL ≤ 0.18V V IH = 2.0VV IH = 2.0V 20.015–1 –2 2025μA μA μA μA注意1：超越的绝对最大额定值可能会损坏设备。