Part No .:
D2764AManufacturer:
IntelDescription:
ICRemark:
new originLast Updated:
2026/02/02
The Intel M2764A is a 5V only, 65,536-bit ultraviolet erasable and electrically programmable readonly memory (EPROM). The M2764A is an advanced version of the M2764 and is fabricated with Intel’s HMOSII-E technology which significantly reduces die size and greatly improves the device’s performance, power consumption, reliability, and producibility. The M2764A also offers reduced power consumption compared to the M2764. The maximum active current is 100 mA while the maximum standby current is only 40 mA. The standby mode lowers power consumption without increasing access time.
Data sheet Physical Case/Package Module Mount Screw Number of Pins 24 Technical -3db Bandwidth 330 Hz Max Operating Temperature 85 °C Max Supply Voltage 3.6 V Min Operating Temperature -40 °C Min Supply Voltage 3 V Nominal Supply Current 254 mA Operating Supply Current 254 mA Output Type SPI Sensor Type Accelerometer , Gyroscope , Magnetometer , 3 Axis Compliance Lead Free Contains Lead REACH SVHC No SVHC RoHS Compliant The ADIS16488A iSensor® device is a complete inertial system that includes a triaxis gyroscope, a triaxis accelerometer, triaxis magnetometer, and pressure sensor. Each inertial sensor in the ADIS16488A combines industry-leading iMEMS® technology with signal conditioning that optimizes dynamic performance. The factory calibration characterizes each sensor for sensitivity, bias, alignment, and linear acceleration (gyroscope bias). As a result, each sensor has its own dynamic compensation formulas that provide accurate sensor measurements. The ADIS16488A provides a simple, cost-effective method for integrating accurate, multiaxis inertial sensing into industrial systems, especially when compared with the complexity and investment associated with discrete designs. All necessary motion testing and calibration are part of the production process at the factory, greatly reducing system integration time. Tight orthogonal alignment simplifies inertial frame alignment in navigation systems. The SPI and register structure provide a simple interface for data collection and configuration control. The ADIS16488A uses the same footprint and connector system as the ADIS16375, ADIS16480, and ADIS16485, which greatly simplifies the upgrade process. The ADIS16488A is packaged in a module that is approximately 47 mm × 44 mm × 14 mm and includes a standard connector interface. Applications Platform stabilization and control Navigation Personnel tracking Instrumenta
Data sheet Physical Case/Package TQFP Number of Pins 44 Technical Max Frequency 33 MHz Max Operating Temperature 85 °C Max Supply Voltage 3.63 V Memory Size 8 Mb Min Operating Temperature -40 °C Min Supply Voltage 2.97 V Operating Supply Current 20 mA Compliance Lead Free Contains Lead RoHS Compliant The AT17F Series of In-System Programmable Configuration PROMs (Configurators) provide an easy-to-use, cost-effective configuration memory for Field Programmable Gate Arrays. The AT17F Series device is packaged in the 8-lead LAP, 20-lead PLCC, 44-lead PLCC and 44-lead TQFP, see Table 1-1. The AT17F Series Configurator uses a simple serial-access procedure to configure one or more FPGA devices. The AT17F Series Configurators can be programmed with industry-standard programmers, Atmel’s ATDH2200E Programming Kit or Atmel’s ATDH2225 ISP Cable.
Data sheet Physical Case/Package CDIP Number of Pins 28 Technical Interface Parallel Max Dual Supply Voltage 16.5 V Max Operating Temperature 125 °C Max Power Dissipation 470 mW Max Supply Voltage 16.5 V Min Dual Supply Voltage 10.8 V Min Operating Temperature -55 °C Min Supply Voltage 10.8 V Nominal Supply Current 1.5 mA Number of Channels 1 Number of Inputs 16 Number of Outputs 1 On-State Resistance 700 Ω Operating Supply Voltage 15 V Propagation Delay 300 ns Supply Type Single , Dual Turn-Off Delay Time 450 ns Turn-On Delay Time 450 ns Compliance Lead Free Contains Lead Radiation Hardening No RoHS Compliant The ADG506A is a CMOS monolithic analog multiplexer with 16 channels. The ADG506A switches one of 16 inputs to a common output, depending on the state of four binary addresses and an enable input. It has TTL and 5 V CMOS logic compatible digital inputs. The ADG506A is designed on an enhanced LC2MOS process, which gives an increased signal capability of VSS to VDD and enables operation over a wide range of supply voltages. The devices can operate comfortably anywhere in the 10.8 V to 16.5 V single or dual supply range. This multiplexer also features high switching speeds and low RON.
Data sheet Physical Contact Plating Copper , Tin , Silver Mount Surface Mount Number of Pins 28 Technical Max Operating Temperature 125 °C Min Operating Temperature 0 °C Operating Supply Current 8 mA Output Current 1.5 A Dimensions Height 0.4 mm Length 3 mm Compliance Lead Free Lead Free Radiation Hardening No RoHS Compliant Integrated Wireless Power eceiver Solution, Qi (Wireless Power Consortium) Compliant 28-DSBGA 0 to 125
Data sheet Physical Case/Package PDIP Contact Plating Tin Mount Through Hole Number of Pins 8 Weight 0.032805 oz Technical Density 512 kb Interface Serial , 2-Wire Max Frequency 15 MHz Max Operating Temperature 85 °C Max Supply Voltage 5.5 V Memory Size 512 kb Memory Type EEPROM Min Operating Temperature -40 °C Min Supply Voltage 3 V Nominal Supply Current 10 mA Operating Supply Current 10 mA Compliance Lead Free Lead Free Radiation Hardening No RoHS Non-Compliant The Atmel® AT17LVxxxA FPGA configuration EEPROMs (Configurators) provide an easy-to-use, cost-effective configuration memory solution for FPGAs. The AT17LVxxxA are packaged in 8-lead PDIP and 20-lead PLCC options. The AT17LVxxxA configurator uses a simple serial-access procedure to configure one or more FPGA devices. The user can select the polarity of the reset function by programming four EEPROM bytes. These devices support a write protection mechanism within its programming mode.
Data sheet Physical Case/Package SOIC Contact Plating Tin Number of Pins 24 Technical Conversion Rate 400 S/s Differential Output No Integral Nonlinearity (INL) 0.012 LSB Interface SPI , Serial Max Input Voltage 4.995 V Max Operating Temperature 85 °C Max Output Voltage 9.5 V Max Power Dissipation 176 mW Max Supply Voltage 32 V Min Input Voltage 5.005 V Min Operating Temperature -40 °C Min Output Voltage 29.5 V Min Supply Voltage 12 V Nominal Supply Current 4.2 mA Number of Bits 16 Number of Channels 1 Number of Converters 1 Number of D/A Converters 1 Number of DAC Channels 1 Number of Outputs 1 Output Type Voltage Polarity Unipolar , Bipolar Reference Voltage 5 V Resolution 16 b Sampling Rate 400 S/s Settling Time 2.5 ms Termination SMD/SMT Dimensions Height 2.65 mm Length 15.6 mm Width 7.6 mm Compliance Lead Free Contains Lead REACH SVHC No SVHC Radiation Hardening No RoHS Compliant The AD420 is a complete digital to current loop output converter, designed to meet the needs of the industrial control market. It provides a high precision, fully integrated, low cost single-chip solution for generating current loop signals in a compact 24-pin SOIC or PDIP package. The output current range can be programmed to 4 mA-20 mA, 0 mA-20 mA or an overrange function of 0 mA-24 mA. The AD420 can alternatively provide a voltage output from a separate pin that can be configured to provide 0 V-5 V, 0 V-10 V, ±5 V or ±10 V with the addition of a single external buffer amplifier. The 3.3 M Baud serial input logic design minimizes the cost of galvanic isolation and allows for simple connection to commonly used microprocessors. It can be used in three-wire or asynchronous mode and a serial-out pin is provided to allow daisy chaining of multiple DACs on the current loop side of the isolation barrier. The AD420 uses sigma-delta (SD) DAC technology to achieve 16-bit monotonicity at very low cost. Full-scale settling to 0.1% occurs within 3 ms. The only external components that are required (in addition to normal transient protection circuitry) are three low cost capacitors which are used in the DAC output filter. If the AD420 is going to be used at extreme temperatures and supply voltages, an external output transistor can be used to minimize power dissipation on the chip via the "BOOST" pin. The FAULT DETECT pin signals when an open circuit occurs in the loop. The on-chip voltage reference can be used to supply a precision +5 V to external components in addition to the AD420 or, if the user desires temperature stability exceeding 25 ppm/°C, an external precision reference such as the AD586 can be used as the reference. The AD420 is available in a 24-pin SOIC and PDIP over the industrial temperature range of -40°C to +85°C.
Data sheet Physical Case/Package SOIC Contact Plating Tin Mount Surface Mount Number of Pins 16 Technical High Level Output Current 30 mA Logic Function Multiplexer Max Dual Supply Voltage 18 V Max Operating Temperature 70 °C Max Power Dissipation 762 mW Max Supply Voltage 36 V Min Dual Supply Voltage 4.5 V Min Operating Temperature 0 °C Min Supply Voltage 4.5 V Number of Channels 1 Number of Circuits 1 On-State Resistance 350 Ω Operating Supply Current 300 µA Operating Supply Voltage 28 V Propagation Delay 250 ns Supply Type Single , Dual Throw Configuration DPST Turn-Off Delay Time 200 ns Turn-On Delay Time 250 ns Dimensions Height 2.35 mm Length 10.5 mm Width 7.6 mm Compliance Lead Free Lead Free REACH SVHC Unknown Radiation Hardening No RoHS Compliant The MAX354/MAX355 fault-protected multiplexers (muxes) use a series N-channel, P-channel, N-channel structure that protects the devices from overvoltage up to 40V beyond the supply rails during power-up, powerdown, and fault conditions. The MAX354/MAX355 also protect sensitive circuit components against voltages near or beyond the normal supplies. The MAX354 single 8-channel mux and the MAX355 dual 4-channel mux protect analog signals while operating from a single 4.5V to 36V supply or ±4.5V to ±18V dual supplies. These muxes have 350Ω on-resistance and can be used for demultiplexing as well as multiplexing. Input leakage current is less than 0.5nA at +25°C and less than 5nA at +85°C. All digital inputs have 0.8V and 2.4V logic thresholds, ensuring both TTL and CMOS logic compatibility without pull-up resistors. Break-before-make operation is guaranteed and power consumption is less than 1.5mW. Applications Data-Acquisition Systems Industrial and Process Control Avionics ATE Equipment Signal Routing Redundant/Backup Systems
Data sheet Physical Case/Package CDIP Contact Plating Tin , Lead Mount Through Hole Number of Pins 14 Technical High Level Output Current -4.2 mA Logic Function NOR Low Level Output Current 4.2 mA Max Operating Temperature 125 °C Max Supply Voltage 18 V Min Operating Temperature -55 °C Min Supply Voltage 3 V Number of Bits 2 Number of Elements 2 Number of Gates 2 Number of Outputs 1 Propagation Delay 90 ns Quiescent Current 5 µA Turn-On Delay Time 90 ns Compliance Lead Free Contains Lead Radiation Hardening No RoHS Compliant CMOS Dual 4-Input NO Gate 14-CDIP -55 to 125
Data sheet Physical Case/Package R Number of Pins 8 Technical Common Mode Rejection Ratio 110 dB Dual Supply Voltage 15 V Gain Bandwidth Product 75 kHz Input Bias Current 20 nA Input Offset Voltage (Vos) 500 µV Max Dual Supply Voltage 18 V Max Operating Temperature 125 °C Max Supply Voltage 36 V Min Dual Supply Voltage 1.5 V Min Operating Temperature -40 °C Min Supply Voltage 3 V Nominal Supply Current 300 µA Number of Amplifiers 2 Number of Channels 2 Number of Circuits 2 Number of Elements 2 Operating Supply Current 350 µA Operating Supply Voltage 28 V Output Current per Channel 25 mA Power Supply Rejection Ratio (PSRR) 110 dB Quiescent Current 150 µA Slew Rate 0.03 V/µs Unity Gain Bandwidth Product 75 kHz Voltage Gain 140 dB Compliance Lead Free Contains Lead Radiation Hardening No RoHS Compliant Rail-to-rail output swing combined with dc accuracy are the key features of the OP495 quad and OP295 dual CBCMOS operational amplifiers. By using a bipolar front end, lower noise and higher accuracy than those of CMOS designs have been achieved. Both input and output ranges include the negative supply, providing the user with zero-in/zero-out capability. For users of 3.3 V systems such as lithium batteries, the OP295/OP495 are specified for 3 V operation. Maximum offset voltage is specified at 300 µV for 5 V operation, and the open-loop gain is a minimum of 1000 V/mV. This yields performance that can be used to implement high accuracy systems, even in single-supply designs. The ability to swing rail-to-rail and supply 15 mA to the load makes the OP295/OP495 ideal drivers for power transistors and H bridges. This allows designs to achieve higher efficiencies and to transfer more power to the load than previously possible without the use of discrete components. For applications such as transformers that require driving inductive loads, increases in efficiency are also possible. Stability while driving capacitive loads is another benefit of this design over CMOS rail-to-rail amplifiers. This is useful for driving coax cable or large FET transistors. The OP295/OP495 are stable with loads in excess of 300 pF. The OP295 and OP495 are specified over the extended indus-trial (-40°C to +125°C) temperature range. The OP295 is available in 8-lead PDIP and 8-lead SOIC_N surface-mount packages. The OP495 is available in 14-lead PDIP and 16-lead SOIC_W surface-mount packages. Applications Battery-operated instrumentation Servo amplifiers Actuator drives Sensor conditioners Power supply control
OP Amp Single GP ±18V 8-Pin CDIP Physical Case/Package CDIP Mount Through Hole Number of Pins 8 Technical Common Mode Rejection Ratio 140 dB Input Bias Current 2 nA Input Offset Voltage (Vos) 25 µV Max Dual Supply Voltage 22 V Max Operating Temperature 125 °C Min Dual Supply Voltage 3 V Min Operating Temperature -55 °C Number of Elements 1 Power Supply Rejection Ratio (PSRR) 123.1 dB Slew Rate 0.3 V/µs Voltage Gain 141.58 dB Compliance RoHS Non-Compliant
