The Kynix Components

Third generation Power MOSFETs from Vishay provide the designer with the best combination of fast switching, ruggedized device design, low on-resistance and cost-effectiveness.The TO-220AB package is universally preferred for all commercial-industrial applications at power dissipation levels to approximately 50 W. The low thermal resistance and low package cost of the TO-220AB contribute to its wide acceptance throughout the industry.CatalogOverviewIRLZ44N PinoutIRLZ44N CAD ModelReplacement and Equivalent Transistors of IRLZ44NIRLZ44N FeaturesIRLZ44N Benefit IRLZ44N ParametricsSpecifications in the IRLZ44N DatasheetApplication AreasLogic Level Triggering IRLZ44N in Power SystemsThe Distinction between IRLZ44N and IRFZ44N MosfetsHow to Use a Mosfet to Drive an Led Circuit?IRLZ44N DocumentsIRLZ44N DatasheetFAQ OverviewThe IR MOSFET family of power MOSFETs utilizes proven silicon processes offering designers a wide portfolio of devices to support various applications such as DC motors, inverters, SMPS, lighting, load switches as well as battery powered applications.The devices are available in a variety of surface mount and through-hole packages with industry standard footprints for ease of design.  The apperence of IRLZ44N MOSFETIRLZ44N Pinout  IRLZ44N MOSFET Pinout IRLZ44N CAD Model IRLZ44N CAD Model Replacement and Equivalent Transistors of IRLZ44NYou can replace the IRLZ44N with the IRF1010E, IRF1010EZ, IRF1010N, IRF1010Z, IRF1018E, IRF1405, IRF1405Z, IRF1407, IRF1607, IRF2805, IRF2807, IRF2807Z, IRF2907Z, IRF3007, IRF3205, IRF3205Z, IRF3305, IRF3710Z, IRLZ44N Featureslanar cell structure for wide SOAOptimized for broadest availability from distribution partnersProduct qualification according to JEDEC standardSilicon optimized for applications switching below <100kHzIndustry standard through-hole power packageHigh-current rating IRLZ44N BenefitIncreased ruggednessWide availability from distribution partnersIndustry standard qualificationHigh performance in low frequency applicationsStandard pin-out allows for drop-in replacementHigh current capability IRLZ44N ParametricsParametricsIRLZ44NID (@25°C)   max47.0 AMountingTHTPtot   max83.0 WPackageTO-220PolarityNQG (typ @4.5V)32.0 nCQgd16.7 nCRDS (on) (@4.5V)   max35.0 mΩRDS (on) (@10V)   max22.0 mΩRthJC   max1.8 K/WTj   max175.0 °CVDS   max55.0 VVGS(th)   min  max1.5 V 1.0 V   2.0 VVGS   max16.0 VSpecifications in the IRLZ44N DatasheetThe IRLZ44N is commonly used in a standard TO-220 package, and a variant with MPN IRLZ44NSTRLPBF is available in a D2PAK package. Both components provide the same specifications, including rated operating temperature and electrical specifications. The important specifications found in the IRLZ44N datasheet are shown below.SpecificationValueMaximum drain current41 A continuous DC, 160 A pulsedBreakdown drain-source voltage (VDS)55 VThreshold gate-source voltage (VGS)1 to 2 VBase-emitter saturation voltageApproximately -1.1 VTerminal capacitance (VGS = 0 V, VDS = 25 V)Input: 1.7 nF Output: 0.4 nF  On-state resistance~25 mOhms at VGS = 5 V ~22 mOhms at VGS = 10 V  Transition time~100 nsOperating temperature-55 °C to 175 °C Application AreasThe main advantage of the IRLZ44N over other components is its operating temperature for its given drain voltage rating. The high-temperature rating of 175 °C makes this component an excellent choice for power systems drawing high current or systems to be deployed in harsh environments such as industrial settings, aircrafts, or vehicles. One should note, however, that this component does not have any SAE, UL, MIL-SPEC, or other industry-standard ratings, and it is advisable to use an alternative component for power systems in these applications. Although the IRLZ44N has not received specific qualifications by industry groups or standards organizations, it can still be used in many power system topologies. Common applications include the following topologies: High voltage linear regulatorsNon-resonant switching converters (buck/boost/buck-boost topologies)Resonant switching converters (half-bridge or full-bridge topologies)In these topologies, the IRLZ44N can be used as a high-side switch (non-resonant topologies) or as a gate driver (e.g., an LLC resonant converter) as long as the drain current and VDS breakdown ratings are not exceeded.  Logic Level Triggering IRLZ44N in Power SystemsIn addition to the temperature rating and high electrical ratings for VDS and drain current, the major advantage of the IRLZ44N is its low gate voltage threshold. The gate threshold is low enough that an IRLZ44N can be driven reasonably far into the ON state with a GPIO pin on an MCU. Anything from 5 V logic families to LVCMOS logic can output sufficient voltage to drive the IRLZ44N with relatively low on-state resistance, as can be seen from the transfer characteristics (see the graph below for a summary). Drain current vs. VGS, taken from the IRLZ44N datasheet.  The Distinction between IRLZ44N and IRFZ44N MosfetsThe IRLZ44N and IRFZ44N MOSFETs are frequently confused and used incorrectly. The IRLZ44N is a logic level Mosfet with a very low gate threshold voltage of 5V, which means that the MOSFET can be fully turned on with only 5V on its gate pin, eliminating the need for a driver circuit.The IRFZ44N, on the other hand, necessitates the use of a gate driver circuit if the MOSFET is to be completely turned on using a microcontroller such as Arduino. It does, however, turn on partially with direct 5V from an I/O pin, but the output drain current is limited.Circuit Processing circuit Mosfet IRLZ44N safety from DC 12v to 15v How to Use a Mosfet to Drive an Led Circuit?This project shows how to use a MOSFET to power an LED in a simple way. The Arduino can drive LEDs without the use of a MOSFET, but when the load on a single pin exceeds 40mA or the combined load on all pins exceeds 200mA, a MOSFET or transistor is required. If you want to drive a 5V mechanical relay, you'll also need a MOSFET because the current required is around 100mA, which is more than a single pin can provide.To successfully use a MOSFET with microcontroller output voltages, you must use a logic level MOSFET; these are usually identified by a L in the part number, such as IRLZ44N or IRL540.To switch high currents at voltages greater than 5V, logic level MOSFETs such as the IRLZ44N can be used in Arduino projects. The International Rectifier device can switch 47A at up to 55V when fitted with a suitable heatsink and de-rated for its expected operational temperature. Because not all IRLZ44Ns have the same current limit specifications, consult the corresponding datasheet for specifics on your device. The pins for the TO-220 package are shown in the diagram above, from left to right: Gate, Drain, and Source.A 10k pull-down resistor must be connected across the gate and source connections, or else even small electrostatic voltages on the gate will turn on the MOSFET - simply touching the bare wire on the gate is sufficient.The Gate Threshold Voltage, denoted as VGS(th) in the electrical characteristics, must be exceeded for the device to conduct - for the IRLZ44N, this is 2V. However, at 2V, the MOSFET is barely turned on and can only carry a very small current, possibly 1A. To determine what current you can switch with what gate voltage, consult the data sheet's charts.Use a mosfet to drive an led circuit IRLZ44N DocumentsEOLEnd of Life Notification (PDF)End of Life Notification - Amendedment (PDF)ModelsIRLZ44N Symbol & Footprint by SnapEDAProduct CatalogsGate Driver Selection Guide 2019  IRLZ44N DatasheetIRLZ44N DatasheetFAQWhat is IRLZ44N MOSFET?The IRLZ44N is a logic level MOSFET, which it is suitable to be driven from low voltages at logic levels. The IRLZ44N is a perfect match when used with an Arduino for controlling of higher power devices. ... From your Arduino (or TTL output) pin, use a 150 to 1k ohm series resistor to the Gate pin. How do I use IRLZ44N?To use a MOSFET as a switch, you have to have its gate voltage (Vgs) higher than the source. If you connect the gate to the source (Vgs=0) it is turned off. For example we have a IRFZ44N which is a “standard” MOSFET and only turns on when Vgs=10V – 20V. How is a MOSFET used in a circuit?Build: Place the P-ch MOSFET on the board. Connect the 1kΩ resistor between GND and the gate. Place the switch between -9V and the gate. Place the 220Ω resistor and the LED in series between the drain and -9V. 

Data Acquisition ADCs/DACs - Specialized Precision delta-sigma modulator with +/-1-V bipolar input and 2.5-V reference output 8-SOIC -40 to 125CatalogProduct Detailed DescriptionFunctional Block DiagramAMC1035 PinoutAMC1035 Pin functionCAD ModelProduct Technical SpecificationsAMC1035  FeaturesApplicationsApplications exampleAMC1035 PDFManufacturerProduct Detailed DescriptionThe AMC1035 is a precision delta-sigma (ΔΣ) modulator that operates from a single 3.0-V to 5.5-V supply and with an externally supplied clock signal in the range of 9 MHz to 21 MHz. In Manchester mode, the specified clock range is 9 MHz to 11 MHz. The differential ±1-V input structure of the device is optimized for high noise environments typical for industrial applications.Select the output bitstream of the AMC1035 to be Manchester coded to prevent setup and hold time requirement considerations of the receiving device and reduce overall circuit layout efforts. When used with a digital filter (such as integrated in the TMS320F28004x, TMS320F2807x or TMS320F2837x microcontroller families) to decimate the output bitstream, the device can achieve 16 bits of resolution with a dynamic range of 87 dB at a data rate of 82 kSPS.The internal reference source of the AMC1035 supports ratiometric circuit architecture to minimize the negative impact of the supply voltage variation and temperature drift on the accuracy of the measurement.The AMC1035 can also be used for AC power line voltage sensing with a digital isolator and isolated power supply. Functional Block Diagram Functional Block DiagramAMC1035 Pinout AMC1035 Pinout AMC1035 Pin functionPin1MCEI/OManchester coding enabled, active high, with internal pulldown resistor (typical value: 200 kΩ).The polarity of this signal must not be changed when the clock signal is applied.Pin2AINPINoninverting analog inputPin3AINNIInverting analog input.Pin4REFOUTIReference output: 2.5 V nominal, maximum ±5-mA sink and source capability.Pin5GNDOGround reference.Pin6DOUT/Modulator bitstream data output, updated with the rising edge of the clock signal present on CLKIN.This pin is a Manchester coded output if MCE is pulled high. Use the rising edge of the clock to latch themodulator bitstream at the input of the digital filter device.Pin7CLKINOModulator clock input: 9 MHz to 21 MHz with an internal pulldown resistor (typical value: 200 k惟). The clock signal must be applied continuously for proper device operation; see the Clock Input section for additional detailsPin8VDD/Power supply, 3.0 V to 5.5 V.See the Power Supply Recommendations section for decoupling recommendations CAD Model CAD Model  Product Technical SpecificationsProduct AttributeAttribute ValueManufacturer:Texas InstrumentsProduct Category:Data Acquisition ADCs/DACs - SpecializedRoHS:DetailsSeries:AMC1035Product:Data AcquisitionType:PrecisionResolution:16 bitNumber of Channels:1 ChannelOperating Supply Voltage:3 V to 5.5 VMinimum Operating Temperature:- 40 CMaximum Operating Temperature:+ 125 CMounting Style:SMD/SMTPackage / Case:SOIC-8Packaging:Cut TapePackaging:MouseReelPackaging:ReelNumber of Converters:1 ConverterSampling Rate:82 kS/sArchitecture:Delta-SigmaBrand:Texas InstrumentsShutdown:No ShutdownGain Error:0.0002INL - Integral Nonlinearity:2 LSBMaximum Clock Frequency:11 MHzMoisture Sensitive:YesNumber of ADC Channels:1 ChannelProduct Type:Data Acquisition ADCs/DACs - SpecializedReference Voltage:2.5 VSNR - Signal to Noise Ratio:87 dBFactory Pack Quantity:2500Subcategory:Data Converter ICsUnit Weight:0.003940 ozUnit Weight:0.003940 oz AMC1035  FeaturesDelta-sigma modulator optimized for voltage and temperature sensing:±1-V input voltage rangeHigh differential input resistance: 1.6 GΩ (typ)Integrated 2.5-V, ±5-mA reference for ratiometric measurementExcellent DC performance:Offset error: ±0.5 mV (max)Offset drift: ±6 µV/°C (max)Gain error: ±0.25% (max)Gain drift: ±45 ppm/°C (max)Ratiometric gain drift: ±15 ppm/°C (max)Selectable manchester encoded or uncoded bitstream outputFully specified over the extended industrial temperature range: –40°C to +125°C ApplicationsMotor drivesPhotovoltaic invertersUninterruptible power suppliesIndustrial transport systems Applications example Applications example AMC1035 PDFAMC1035 Package DatasheetAMC1035  Datasheet  ManufacturerTexas Instruments Incorporated designs and manufactures analog technologies, digital signal processing (DSP) and microcontroller (MCU) semiconductors. TI is a leader in semiconductor solutions for analog and digital embedded and applications processing. A global semiconductor company, TI innovates through design, sales and manufacturing operations in more than 30 countries.    

 74LS245 is used to drive LEDs or other devices. It is an 8-way in-phase three-state bidirectional bus transceiver that can transmit data in both directions. 74LS245 also has a two-way three-state function, which can output or input data.Catalog74LS245 Description74LS245 Pinout74LS245 Pin ConfigurationProduct details74LS245 Features & SpecificationsWorking principleApplications74LS244 Octal Tri-state Buffer vs 74LS245 Bus Transceiver74LS245 DatasheetUsing Warnings74LS245 DescriptionThese octal bus transceivers are designed for asynchronous two-way communication between data buses. The control-function implementation minimizes external timing requirements. The SNx4LS245 devices allow data transmission from the A bus to the B bus or from the B bus to the A bus, depending on the logic level at the direction-control (DIR) input. The output-enable (OE) input can disable the device so that the buses are effectively isolated.  74LS245 Pinout74LS245 Pinout  74LS245 Pin ConfigurationPin NoPin NameDescription1DIRDirectional Control Input Pin2A1Data Bus Input Pin A13A2Data Bus Input Pin A24A3Data Bus Input Pin A35A4Data Bus Input Pin A46A5Data Bus Input Pin A57A6Data Bus Input Pin A68A7Data Bus Input Pin A79A8Data Bus Input Pin A810GNDGround Pin11B8Data Bus Input Pin B812B7Data Bus Input Pin B713B6Data Bus Input Pin B614B5Data Bus Input Pin B515B4Data Bus Input Pin B416B3Data Bus Input Pin B317B2Data Bus Input Pin B218B1Data Bus Input Pin B119E’Active low Enable pin20VccChip Supply Voltage Product detailsPackage | Pins | SizeTechnology FamilyLSIOL (Max) (mA)24IOH (Max) (mA) 15Operating temperature range (C)0 to 70RatingCatalogApprox. price (USD)1ku | 0.287ParametersPDIP (N)20229 mm² 24.33 x 9.4SOIC (DW)20132 mm² 12.8 x 10.3SOP (NS)2098 mm² 12.6 x 7.8SSOP (DB)2038 mm² 5.3 x 7.2 74LS245 Features & SpecificationsTechnology Family: LSVCC (Min): 4.75VVCC (Max): 5.25VBits (#): 8Voltage at nominal operation: 5VFrequency at normal voltage (Max): 35MHzICC at normal voltage (Max): 0.09mAPropagation delay (Max): 8ns – 12ns3-State Outputs to Drive Bus Lines DirectlyPNP Inputs Reduce DC Loading on Bus LinesHysteresis at Bus Inputs Improves Noise MarginsIOL (Max): 24mAIOH (Max): -15mA Rating: CatalogOperating temperature range: 0°C to 70°C Working principleIf the P0 port of C51 is used to output to the digital tube, the brightness of the digital tube and the load capacity of the P0 port must be considered. When the P0 port bus load of the 8051 single-chip microcomputer reaches or exceeds the maximum load capacity of P0, 74LS245 must be connected. Bus driver. Choose 74LS245 to improve driving ability. After the output of P0 port When the chip select terminal/CE low level is active , DIR = "0", the signal is transmitted from B to A; (receive), DIR = "1", the signal is transmitted from A to B; (send). When CE is high level, A and B are both high impedance state . Working principleApplicationsBuilding AutomationElectronic Point of SaleFactory Automation and ControlTest and Measurement protocolsApplication examples Application examples Bus drivers 74LS244 and 74LS245 are often used as three-state data buffers , 74LS244 is a unidirectional three-state data buffer , and 74LS245 is a two-way three-state data buffer. The comparison of the two circuit diagrams is shown in the figure below. There are 8 three-state drivers in the unidirectional, divided into two groups, and there are 16 tri-state drivers in the bidirectional, 8 in each direction. As shown in Figure "74LS244 and 74LS245". 74LS244 Octal Tri-state Buffer vs 74LS245 Bus TransceiverThe “Tri-state Buffer”A Tri-state Buffer is another type of buffer circuit which can be used to control the passage of a logic signal from its input to its output. The tri-state buffer is a combinational device whose output can be electronically turned “ON” or “OFF” by means of an external “Control” or “Enable” (EN) signal input allowing them to be used in bus-orientated systems. 74LS244 Octal Tri-state Buffer 74LS244 Octal Tri-state Buffer Notice that the eight buffers are configured into two groups of four with the first group (A1 to A4) being controlled by enable input, CA, and the second group (A5 to A8) being controlled by the enable input, CB. The 74LS244 has very high sink and source current capabilities if required to switch transistor loads. 74LS245 Bus Transceiver 74LS245 Bus Transceiver The TTL 74LS245 is an octal bus transceiver (Transmitter/Receiver) designed for asynchronous two-way communication between two data buses or input/output device. The transceiver allows for the transmission of data from the terminals A to terminals B or the reverse depending on the logic level at the direction-control (DIR) input, (pin 1). So for example, if the direction-control input is HIGH at logic level “1”, then data will pass from terminal set A to terminal set B. If the direction-control input is LOW at logic level “0”, then data will pass in the reverse direction from terminal set B to terminal set A. So when held HIGH at logic level “1”, the output chip-enable (CE) input, (pin 19) can be used to disable the device so that the terminals, and therefore any connected data buses are effectively isolated from each other in a Hi-Z state.74LS245 Datasheet74LS245 DatasheetUsing WarningsPlease check their parameters and pin configuration before replacing them in your circuit. 

SN74HC595N Product OverviewThe SN74HC595N is a simple 8-bit shift register IC. Simply put, this shift register is a device that allows additional inputs or outputs to be added to a microcontroller by converting data between parallel and serial formats. Your chosen microprocessor is able to communicate with the The SN74HC595N using serial information then gathers or outputs information in a parallel (multi-pin) format. Essentially it takes 8 bits from the serial input and then outputs them to 8 pins.This small DIP packaged IC contains an 8-bit, serial-in parallel-out shift register that feeds an 8-bit D-type storage register with parallel 3-state outputs.Note: This is a drop-in replacement for the 74HC595 shift register IC and should function just fine in any application the previous version could.  How 74HC595 works?  CatalogSN74HC595N Product Overview74HC595N Pinout Diagram74HC595N CAD ModelTechnical Specifications74HC595N FeaturesApplicationsAlternatives Shift Registers74HC595 Shift Register Working PrincipleHow to use 74HC595 Shift Register?Using WarningsComponent DatasheetFAQ74HC595N Pinout DiagramIf you look for 595 series shift registers, it has many variants and models available in the market. But all work the same way. They have the same pin configuration, electrical features, pinout diagram, and working principle. But this tutorial will be more focused on SN74HC595N by texas instruments.Now, look at the pinout diagram. The tilt sign ~ shows that these pins operate on active low signals or on negative logic. We will look into the details of negative logic later on in this tutorial.Related to output pins, because it is an 8-bit shift register. SN74HC595N  has eight output pins from Q0-Q7.74HC595 Pinout Diagram  74HC595N CAD Model74HC595 CAD Model Technical SpecificationsCase/PackageDIPMountThrough HoleNumber of Pins16Technical Frequency100 MHzLogic FunctionShift RegisterMax Operating Temperature125 °CMax Supply Voltage6 VMin Operating Temperature-40 °CMin Supply Voltage2 VNumber of Bits8Number of Circuits8Number of Elements1Number of Gates1Operating Supply Voltage5 VOutput Voltage6 VPower Dissipation750 mWPropagation Delay265 nsCompliance Lead FreeLead FreeRadiation HardeningNoREACH SVHCNo SVHCRoHSCompliant 74HC595N FeaturesIt is a shift register with 8-bit serial input and 8-bit serial or 3-state parallel outputs.The operating voltage of this IC is from 2V to 6V.The output voltage is equal to the operating voltage of this IC .It is based on CMOS logic and therefore consumes a very low power of 80uA.The output source/sink current is 35mA.It has a characteristic of high noise immunity.It can be easily cascaded through pin 9 with more IC to get more outputs.The maximum clock frequency is 25Mhz @4.5V.Schmitt trigger action is provided on all inputs. ApplicationsApplicationNetwork SwitchesPower InfrastructureLED DisplaysServersAlternatives Shift RegistersS.No:NameType140354-Bit Parallel in Parallel out Shift Register274LS379Quad Parallel Shift Register340144 Bit static shift register474LS1668 Bit Shift Register574LS3238 Bit Shift/Storage Register674LS164S/P Shift Register74015Dual 4 Bit Static Register874LS2998 Bit Shift/Storage Register 74HC595 Shift Register Working PrincipleAs mentioned earlier, the internally 74HC595 shift register consists of two registers such as shift register and storage register. Both are 8-bit wide.  The first one is responsible to accept data input on every positive edge of the clock and it keeps receiving data. But data from the shift register transfer to the storage register only when we apply an active high signal to latch input pin.Shift Register Working Principle How to use 74HC595 Shift Register? It has eight outputs and 3 input pins which include a data pin, storage resistor clock pin, and shift register clock pin. Connect pin8 to ground and pin16 to +5V voltage supply.The output enable pin (~OE) should be grounded to enable the output pins of the shift register. The master reset pin will clear the memory of a shift register if it is applied with a low signal. That’s why it should be kept high.When the positive edge transition occurs on pin 11, the shift register will accept the inputs applied on the data line.The outputs of the storage register are connected to the input pins of the D-latch/storage resistor.These inputs are updated on the latch output when a positive edge transition occurs at pin 12.Most importantly, If you need to cascade multiple IC’s together then pin 9 is connected to the data pin of another shift register IC. Using WarningsNote: Please check their parameters and pin configuration before replacing them in your circuit. Component Datasheet74HC595 Datasheet FAQ1. How does a 8 bit shift register work?The SN74HC595N is a simple 8-bit shift register IC. Simply put, this shift register is a device that allows additional inputs or outputs to be added to a microcontroller by converting data between parallel and serial formats. ... Essentially it takes 8 bits from the serial input and then outputs them to 8 pins. 2. What can I do with a 74HC595?74HC595 is a shift register which works on Serial IN Parallel OUT protocol. It receives data serially from the microcontroller and then sends out this data through parallel pins. We can increase our output pins by 8 using the single chip. We can also connect more than 1 shift register in parallel. 3. How do you program a 74HC595?First, connect the Serial Input Pin of 74HC595 Shift Register to Pin 4 of Arduino. Then connect the clock and latch pins i.e. pins 11 and 12 of 74HC595 to pins 6 and 5 of Arduino respectively. Now, connect 8 LEDs with individual current limiting 1KΩ Resistors to the 8 outpu    

The MCP25625 integrates both the CAN controller and the CAN transceiver. Therefore, it is a complete CAN solution that can be easily added to a microcontroller with an SPI interface.CatalogProduct OverviewCAN Controller FeaturesCAN Transceiver FeaturesMCP25625 CAD ModelsMCP25625 Block DiagramMCP25625 FeaturesMCP25625 Product AttributesMCP25625 ApplicationsAlternate PartsMCP25625-E/ML vs MCP25625T-E/SSComponent DatasheetUsing WarningsMCP25625 ManufacturerProduct OverviewMCP25625 click also has a RS232 port, which is a standard connector for CAN communications. Additionally, the two CAN wires (CANL and CANH) can also be connected directly through two pins on the right edge of the board.The click communicates with the target MCU through the SPI interface — although there are additional options that take the load off the target board MCU. To that end, all 16 mikroBUS™ pins are connected. There’s a clock output, a Request To Send, an Interrupt, standby, reset and more. MCP25625 click can work with both 3.3V or 5V logic levels.The MCP25625 interfaces directly with microcontrollers operating at 2.7 to 5.5V, there are no external level shifters required. In addition, the controller connects directly to the physical CAN bus, supporting all requirements for CAN high-speed transceivers. It meets the automotive requirements for high-speed (up to 1Mb/s), low quiescent current, electromagnetic compatibility (EMC) and electrostatic discharge (ESD). The CAN controller has an internal Sleep mode that is used to minimize the current consumption of the device. The SPI interface remains active for reading even when the controller is in Sleep mode, allowing access to all registers. Sleep mode is selected via the REQOP bits in the CANCTRL register. The OPMOD bits in the CANSTAT register indicate the operation mode.CAN Controller Features• VDD: 2.7 to 5.5V• Implements CAN 2.0B (ISO11898-1)• Three Transmit Buffers with Prioritization and Abort Features• Two Receive Buffers• Six Filters and Two Masks with Optional Filtering on the First Two Data Bytes• Supports SPI Modes 0,0 and 1,1• Specific SPI Commands to Reduce SPI Overhead• Buffer Full and Request-to-Send Pins are Configurable as General Purpose I/Os• One Interrupt Output PinCAN Transceiver Features• VDDA: 4.5V to 5.5V• Implements ISO-11898-2 and ISO-11898-5 Standard Physical Layer Requirements• CAN Bus Pins are Disconnected when Device is Unpowered:- An unpowered node or brown-out event will not load the CAN bus• Detection of Ground Fault:- Permanent Dominant detection on TXD- Permanent Dominant detection on bus• Power-on Reset and Voltage Brown-Out Protection on VDDA Pin• Protection Against Damage Due to Short-Circuit Conditions (Positive or Negative Battery Voltage)• Protection Against High-Voltage Transients in Automotive Environments• Automatic Thermal Shutdown Protection• Suitable for 12V and 24V Systems• Meets or Exceeds Stringent Automotive Design Requirements, Including “Hardware Requirements for LIN, CAN and FlexRay Interfaces in Automotive Applications”.• High Noise Immunity Due to Differential Bus Implementation• High-ESD Protection on CANH and CANL, Meets IEC61000-4-2 up to ±8 kVMCP25625 CAD ModelsMCP25625-E/ML CAD Models MCP25625-E/SS CAD Models MCP25625 Block DiagramMCP25625 Block Diagram MCP25625 Features• Stand-Alone CAN 2.0B Controller with Integrated CAN Transceiver and Serial Peripheral Interface (SPI)• Up to 1 Mb/s Operation• Very Low Standby Current (10 µA, typical)• Up to 10 MHz SPI Clock Speed• Interfaces Directly with Microcontrollers with 2.7V to 5.5V I/Os• Available in SSOP-28L and 6x6 QFN-28L• Temperature Ranges: Extended (E): -40°C to +125°CMCP25625 Product AttributesMCP25625-E/ML SpecificationsValuesCase/PackageQFNContact PlatingTinMountSurface MountNumber of Pins28Weight70.788759 mgAmbient Temperature Range High125 °CData Rate1 MbpsInterfaceCANMax Junction Temperature (Tj)150 °CMax Operating Temperature125 °CMax Supply Current70 mAMax Supply Voltage5.5 VMin Operating Temperature-40 °CMin Supply Voltage2.7 VNominal Supply Current5 mANumber of Drivers1Number of Receive Buffers2Number of Receivers1Number of Transceivers1Number of Transmit Buffers3Operating Supply Current70 mAPackagingCut TapePropagation Delay125 nsReceiver Hysteresis200 mVHeight950 µmLength6 mmWidth6 mmLead FreeLead FreeREACH SVHCNo SVHCRoHSCompliantCase/PackageQFNContact PlatingTinMountSurface MountNumber of Pins28Weight70.788759 mgAmbient Temperature Range High125 °CMax Supply Current70 mAMax Supply Voltage5.5 VMin Operating Temperature-40 °CMin Supply Voltage2.7 VNominal Supply Current5 mANumber of Drivers1Number of Receive Buffers2Number of Receivers1Number of Transceivers1Number of Transmit Buffers3Operating Supply Current70 mAPackagingCut TapePropagation Delay125 nsReceiver Hysteresis200 mVHeight950 µmLength6 mmWidth6 mmLead FreeLead FreeREACH SVHCNo SVHCRoHSCompliant MCP25625-E/SS SpecificationsValuesCase/PackageSSOPMountSurface MountNumber of Pins28Weight2.26799 gAmbient Temperature Range High125 °CData Rate1 MbpsInterfaceSPIMax Junction Temperature (Tj)150 °CMax Operating Temperature125 °CMax Supply Current70 mAMax Supply Voltage5.5 VMin Operating Temperature-40 °CMin Supply Voltage2.7 VNominal Supply Current10 mANumber of Drivers1Number of Receive Buffers1Number of Receivers1Number of Transceivers3Number of Transmit Buffers1Operating Supply Current70 mAPackagingCut TapePropagation Delay125 nsReceiver Hysteresis200 mVSchedule B8542390000Height1.85 mmLength10.5 mmWidth5.6 mmLead FreeLead FreeREACH SVHCNo SVHCRoHSCompliantMCP25625 ApplicationsAutomotive, Communications & NetworkingAlternate PartsMCP25625T-E/ML, MCP25625-E/SSVAO, MCP25625T-E/SS,MCP25625T-E/MLVAO, MCP25625T-E/SSVAO, MCP25625-E/SSMCP25625-E/ML vs MCP25625T-E/SSSpecificationsMCP25625-E/MLMCP25625T-E/SSRohs CodeYesYesPart Life Cycle CodeActiveActiveIhs ManufacturerMICROCHIP TECHNOLOGY INCMICROCHIP TECHNOLOGY INCPackage DescriptionQFN-28SSOP-28Reach Compliance CodecompliantcompliantECCN CodeEAR99EAR99HTS Code8542.39.00.018542.39.00.01Factory Lead Time13 Weeks13 WeeksJESD-30 CodeS-PQCC-N28R-PDSO-G28JESD-609 Codee3e3Length6 mm10.2 mmMoisture Sensitivity Level12Number of Functions11Number of Terminals2828Operating Temperature-Max125 °C125 °COperating Temperature-Min-40 °C-40 °CPackage Body MaterialPLASTIC/EPOXYPLASTIC/EPOXYPackage CodeHVQCCNSSOPPackage ShapeSQUARERECTANGULARPackage StyleCHIP CARRIER, HEAT SINK/SLUG, VERY THIN PROFILESMALL OUTLINE, SHRINK PITCHPeak Reflow Temperature (Cel)260260Screening LevelTS 16949TS 16949Seated Height-Max1 mm2 mmSupply Voltage-Nom5 V5 VSurface MountYESYESTelecom IC TypeINTERFACE CIRCUITINTERFACE CIRCUITTemperature GradeAUTOMOTIVEAUTOMOTIVETerminal FinishMatte Tin (Sn) - annealedMatte Tin (Sn) - annealedTerminal FormNO LEADGULL WINGTerminal Pitch0.65 mm0.65 mmTerminal PositionQUADDUALTime@Peak Reflow Temperature-Max (s)4040Width6 mm5.3 mmBase Number Matches22Component DatasheetMCP25625 PDFUsing WarningsPlease check their parameters and pin configuration before replacing them in your circuit.MCP25625 ManufacturerMicrochip Technology Inc. is a leading provider of microcontroller, mixed-signal, analog and Flash-IP solutions, providing low-risk product development, lower total system cost and faster time to market for thousands of diverse customer applications worldwide. Headquartered in Chandler, Arizona, Microchip offers outstanding technical support along with dependable delivery and quality.

Product OverviewThe AG302-63G is a general-purpose buffer amplifier that offers high dynamic range in a low-cost surface-mount package. The AG302-63G consists of a Darlington-pair amplifier using the high reliability InGaP/GaAs HBT process technology and only requires DC-blocking capacitors, a bias resistor, and an inductive RF choke for operation. The broadband MMIC amplifier can be directly applied to various current and next generation wireless technologies such as GPRS, GSM, CDMA, and W-CDMA. In addition, the AG302-63G will work for other various applications within the DC to 6 GHz frequency range such as CATV and WiMAX. This blog will introduce AG302-63G systematically from its features, CAD models to its specifications, applications, also including AG302-63G datasheet and so much more. CatalogProduct OverviewAG302-63G FeaturesAG302-63G ApplicationsAG302-63G CAD ModelsAG302-63G Functional DiagramAG302-63G Circuit DiagramAG302-63G SpecificationAG302-63G VS AG302-63AG302-63G ManufacturerAG302-63G DatasheetUsing WarningsAG302-63G FAQ AG302-63G FeaturesDC to 6000 MHz5 dB gain @ 900 MHz+13.5 dBm P1dB @ 900 MHz+26 dBm OIP3 @ 900 MHzSingle voltage supplyInternally matched to 50 OhmRobust 1000V ESD, Class 1CLead-free / green / RoHS compliantSOT-363 package AG302-63G ApplicationsMobile InfrastructureCATV / FTTXWLAN / ISMRFIDWiMAX / WiBro AG302-63G CAD ModelsFollowings are AG302-63G Symbol, Footprint, and 3D Model. AG302-63G Symbol AG302-63G Footprint AG302-63G 3D Model AG302-63G Functional DiagramThe following figure is the functional diagram of AG302-63G. AG302-63G Functional Diagram AG302-63G Circuit DiagramFollowing is the circuit diagram of AG302-63G. AG302-63G Application Circuit AG302-63G SpecificationProduct AttributeAttribute ValueManufacturer:QorvoProduct Category:RF AmplifierMounting Style:SMD/SMTPackage / Case:SOT-363-6Type:Gain Block AmplifiersTechnology:InGaPOperating Frequency:0 Hz to 6 GHzP1dB - Compression Point:13.5 dBmGain:15.5 dBOperating Supply Voltage:4.23 VNF - Noise Figure:3.4 dBOIP3 - Third Order Intercept:26.5 dBmOperating Supply Current:35 mAMinimum Operating Temperature:- 40 CMaximum Operating Temperature:+ 85 CPackaging:Cut TapePackaging:MouseReelPackaging:ReelBrand:QorvoMoisture Sensitive:YesProduct Type:RF AmplifierSubcategory:Wireless & RF Integrated CircuitsTest Frequency:900 MHzUnit Weight:0.049837 oz AG302-63G VS AG302-63 AG302-63G AG302-63Reach Compliance CodecompliantunknownECCN Code5A991.B Additional FeatureHIGH RELIABILITYHIGH RELIABILITYCharacteristic Impedance50 Ω50 ΩConstructionCOMPONENTCOMPONENTGain13.5 dB13.5 dBInput Power-Max (CW)10 dBm10 dBmJESD-609 Codee3e0Mounting FeatureSURFACE MOUNTSURFACE MOUNTNumber of Functions11Number of Terminals66Operating Frequency-Max6000 MHz6000 MHzOperating Temperature-Max85 °C85 °COperating Temperature-Min-40 °C-40 °CPackage Body MaterialPLASTIC/EPOXYPLASTIC/EPOXYPackage Equivalence CodeTSSOP6,.08TSSOP6,.08Power Supplies5 V5 VRF/Microwave Device TypeWIDE BAND LOW POWERWIDE BAND LOW POWERSurface MountYESYESTechnologyGAASGAASTerminal FinishMatte Tin (Sn) - annealedTin/Lead (Sn/Pb)Base Number Matches12 AG302-63G ManufacturerTriQuint Semiconductor was a semiconductor company that designed, manufactured, and supplied high-performance RF modules, components and foundry services. The company was founded in 1985 in Beaverton, Oregon before moving to neighboring Hillsboro, Oregon. In February 2014, Greensboro, North Carolina-based RF Micro Devices and TriQuint announced a merger in which the new company would be Qorvo, Inc., with the merger completed on January 1, 2015. AG302-63G DatasheetYou can download this datasheet for AG302-63G–Datasheet from the link given below:AG302-63G Datasheet Using WarningsNote: Please check their parameters and pin configuration before replacing them in your circuit. AG302-63G FAQWhat is the use of buffer amplifier?A buffer amplifier (sometimes simply called a buffer) is one that provides electrical impedance transformation from one circuit to another, with the aim of preventing the signal source from being affected by whatever currents (or voltages, for a current buffer) that the load may be produced with. What is the purpose of a buffer amplifier stage in a transmitter?A buffer amplifier provides electrical impedance transformation from one circuit to the other circuit, to prevent the signal source from being affected by whatever currents that the load may be produced with. A master oscillator in the AM transmitter generates a stable sub harmonic carrier frequency. How transistor works as an amplifier?A transistor acts as an amplifier by raising the strength of a weak signal. The DC bias voltage applied to the emitter base junction, makes it remain in forward biased condition. ... Thus a small input voltage results in a large output voltage, which shows that the transistor works as an amplifier.