Part No .:
D2764AManufacturer:
IntelDescription:
ICRemark:
new originLast Updated:
2026/06/11
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 J Number of Pins 20 Technical Max Operating Temperature 125 °C Max Supply Voltage 20 V Min Operating Temperature -55 °C Number of Outputs 4 Output Current 500 A Switching Frequency 1 MHz Compliance Lead Free Contains Lead Radiation Hardening No RoHS Compliant
Data sheet Physical Mount PCB Technical Evaluation Kit Yes Interface SPI , Serial Operating Supply Voltage 3.3 V Sensor Type Accelerometer , Gyroscope , 3 Axis Compliance Lead Free Contains Lead REACH SVHC No SVHC RoHS Compliant The ADIS16445 iSensor® device is a complete inertial system that includes a triaxial gyroscope and a triaxial accelerometer. Each sensor in the ADIS16445 combines industry-leading iMEMS® technology with signal conditioning that optimizes dynamic performance. The factory calibration characterizes each sensor for sensitivity, bias, alignment, and linear accel-eration (gyroscope bias). As a result, each sensor has its own dynamic compensation formulas that provide accurate sensor measurements. The ADIS16445 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 structures provide a simple interface for data collection and configuration control. The ADIS16445 has a compatible pinout for systems that currently use other Analog Devices, Inc., IMU products, such as the ADIS16334 or the ADIS16485. Applications Platform stabilization and control Navigation Robotics
Data sheet Physical Case/Package PDIP Mount Through Hole Number of Pins 28 Technical Dual Supply Voltage 9 V Logic Function Multiplexer Max Dual Supply Voltage 20 V Max Operating Temperature 70 °C Max Power Dissipation 727 mW Max Supply Voltage 30 V Min Dual Supply Voltage 4.5 V Min Operating Temperature 0 °C Min Supply Voltage 5 V Number of Channels 2 Number of Circuits 2 On-State Resistance 175 Ω Operating Supply Current 500 µA Operating Supply Voltage 28 V Propagation Delay 300 ns Supply Type Single , Dual Turn-Off Delay Time 300 ns Turn-On Delay Time 600 ns Dimensions Height 4.45 mm Length 37.34 mm Width 14.61 mm Compliance Lead Free Lead Free REACH SVHC Unknown Radiation Hardening No RoHS Compliant The MAX306/MAX307 precision, monolithic, CMOS analog multiplexers (muxes) offer low on-resistance (less than 100Ω), which is matched to within 5Ω between channels and remains flat over the specified analog signal range (7Ω, max). They also offer low leakage over temperature (INO(OFF) less than 2.5nA at +85°C) and fast switching speeds (tTRANS less than 250ns). The MAX306 is a single-ended 1-of-16 device, and the MAX307 is a differential 2-of-8 device. The MAX306/MAX307 are fabricated with Maxim’s improved 44V silicon-gate process. Design improvements yield extremely low charge injection (less than 10pC) and guarantee electrostatic discharge (ESD) protection greater than 2000V. These muxes operate with a single +5V to +30V supply, or bipolar ±4.5V to ±20V supplies, while retaining TTL/ CMOS-logic input compatibility and fast switching. CMOS inputs provide reduced input loading. These improved parts are plug-in upgrades for the industrystandard DG406, DG407, DG506A, and DG507A.
Data sheet Physical Case/Package Module Contact Plating Tin Mount Screw Number of Pins 24 Technical -3db Bandwidth 330 Hz Interface SPI Max Operating Temperature 105 °C Max Supply Voltage 5.25 V Min Operating Temperature -40 °C Min Supply Voltage 4.75 V Nominal Supply Current 45 mA Operating Supply Current 45 mA Output Type SPI Sensor Type Accelerometer , Gyroscope , Magnetometer , 3 Axis Dimensions Height 23.504 mm Length 23.45 mm Width 22.964 mm Compliance Lead Free Contains Lead REACH SVHC No SVHC RoHS Compliant The ADIS16400/ADIS16405 iSensor® products are complete inertial systems that include a triaxal gyroscope, a triaxial accelerometer, and a triaxial magnetometer. The ADIS16400/ ADIS16405 combine 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 for correction formulas that provide accurate sensor measurements over a temperature range of -40°C to +85°C. The magnetometers employ a self-correction function to provide accurate bias performance over temperature, as well. The ADIS16400/ADIS16405 provide a simple, cost-effective method for integrating accurate, multi-axis 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. An improved serial peripheral interface (SPI) and register structure provide faster data collection and configuration control. By using a compatible pinout and the same package as the ADIS1635x and ADIS1636x families, upgrading to the ADIS16400/ADIS16405 requires only firmware changes to accommodate additional sensors and register map updates. These compact modules are approximately 23 mm × 23 mm × 23 mm and provide a flexible connector interface that enables multiple mounting orientation options.
Data sheet Physical Case/Package PDIP Mount Through Hole Number of Pins 8 Technical Density 64 kb Frequency 12.5 MHz Interface Serial , 2-Wire Max Operating Temperature 85 °C Max Supply Voltage 5.5 V Memory Size 64 kb Memory Type EEPROM Min Operating Temperature -40 °C Min Supply Voltage 4.5 V The AT17LV series FPGA Configuration EEPROMs (Configurators) provide an easyto-use, cost-effective configuration memory for Field Programmable Gate Arrays. The AT17LV series device is packaged in the 8-lead LAP, 8-lead PDIP, 8-lead SOIC, 20- lead PLCC, 20-lead SOIC, 44-lead PLCC and 44-lead TQFP, see Table 1-1. The AT17LV series Configurators 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 also support a write-protection mechanism within its programming mode.
Data sheet Physical Contact Plating Copper , Tin , Silver Mount Surface Mount Technical Logic Function Receiver Max Operating Temperature 125 °C Min Operating Temperature -40 °C Operating Supply Current 2.5 A Compliance Lead Free Lead Free RoHS Compliant 5-W (WPC) Single-Chip Wireless Power Receiver with I2C 42-DSBGA -40 to 125
Data sheet Physical Case/Package LGA Mount Surface Mount Number of Pins 16 Technical Axis X, Y, Z Bandwidth 500 Hz Interface I2C , SPI Max Operating Temperature 85 °C Max Supply Voltage 3.6 V Min Operating Temperature -40 °C Min Supply Voltage 2.16 V Output Type Digital , SPI , I2C Resolution 16 b Sensor Type 3 Axis Dimensions Depth 3 mm Length 3 mm Compliance Lead Free Lead Free Radiation Hardening No RoHS Compliant MEMS motion sensor: low-power high-g 3-axis digital accelerometer
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
Data sheet Physical Case/Package CDIP Contact Plating Tin , Lead Mount Through Hole Number of Pins 16 Technical Max Dual Supply Voltage 9 V Max Operating Temperature 125 °C Max Supply Voltage 20 V Min Dual Supply Voltage 2.5 V Min Operating Temperature -55 °C Min Supply Voltage 3 V Number of Channels 3 Number of Inputs 6 Number of Outputs 3 Compliance Lead Free Contains Lead Radiation Hardening No RoHS Compliant CMOS Triple 2-Channel Analog Multiplexer/Demultiplexer with Logic-Level Conversion 16-CDIP -55 to 125
Data sheet Physical Case/Package SOIC Mount Surface Mount Number of Pins 24 Technical Conversion Rate 15 kS/s Dual Supply Voltage 5 V Interface SPI , Serial Max Dual Supply Voltage 5.25 V Max Operating Temperature 85 °C Min Dual Supply Voltage 4.75 V Min Operating Temperature -40 °C Number of A/D Converters 1 Number of Analog Inputs 1 Number of Bits 20 Number of Channels 1 Number of Converters 1 Number of Elements 1 Polarity Bipolar , Unipolar Resolution 20 b Sampling Rate 15 kS/s Supply Type Dual , Analog , Digital Compliance Lead Free Lead Free Radiation Hardening No RoHS Compliant 20-BIT ANALOG-TO-DIGITAL CONVERTER The DDC101 is a precision, wide dynamic range, charge digitizing A/D converter with 20-bit resolution. Lowlevel current output devices, such as photosensors, can bedirectly connected to its input. The most stringent accuracy requirements of many unipolar output sensor applications occur at low signal levels. To meet this requirement, Burr-Brown developed the adaptive delta odulation architecture of the DDC101 to provide linearly improving noise and linearity errors as the input signal level decreases. The DDC101 combines the functions of current-to-voltage conversion, integration, input programmable gain amplification, A/D conversion, and digital filtering to produce precision, wide dynamic range results. The input signal can be a low level current connected directly into the unit or a voltage connected through a user selected resistor. Although the DDC101 is optimized for unipolar signals, it can also accurately digitize bipolar input signals. The patented delta modulation topology combines charge integration and digitization functions. Oversampling and digital filtering reduce system noise dramatically. Correlated Double Sampling (CDS) captures and eliminates steady state and conversion cycle dependent offset and switching errors that are not eliminated with conventional analog circuits. The DDC101 block diagram is shown below. During conversion, the input signal is collected on the Internal integration capacitance for a user determined integration period. A high precision, autozeroed comparator samples the analog input node. Tracking logic updates the internal high resolution D/A converter at a 2MHz rate to maintain the analog input at virtual ground. A user programmable digital filter oversamples the tracking logic’s output. The digital filter passes a low noise, high resolution digital output to the serial I/O register. The serial outputs of multiple DDC101 units can be easily connected together in series or parallel if desired to minimize interconnections.
