ADC0804-N Series

8-Bit, 1-Ch µP Compatible A/D Converters with 1 LSB INL

Catalog

8-Bit, 1-Ch µP Compatible A/D Converters with 1 LSB INL

Part	Operating Temperature [Max]	Operating Temperature [Min]	Mounting Type	Sampling Rate (Per Second)	Input Type	Number of Bits	Reference Type	Number of A/D Converters	Architecture	Voltage - Supply, Analog [Max]	Voltage - Supply, Analog [Min]	Data Interface	Number of Inputs	Package / Case	Package / Case	Package / Case	Voltage - Supply, Digital [Max]	Voltage - Supply, Digital [Min]	Configuration	Supplier Device Package	Package / Case [y]	Package / Case [y]
Texas Instruments ADC0804LCJ	85 °C	-40 °C	Through Hole	10 k per second	Differential	8	External Supply	1	SAR	6.3 V	4.5 V	Parallel	1	20-DIP	7.62 mm	0.3 in	6.3 V	4.5 V	ADC	20-PDIP
Texas Instruments ADC0804LCWM/NOPB	85 °C	-40 °C	Surface Mount	10 k per second	Differential	8	External Supply	1	SAR	6.3 V	4.5 V	Parallel	1	20-SOIC			6.3 V	4.5 V	ADC	20-SOIC	0.295 in	7.5 mm
Texas Instruments ADC0804LCWM	85 °C	-40 °C	Surface Mount	10 k per second	Differential	8	External Supply	1	SAR	6.3 V	4.5 V	Parallel	1	20-SOIC			6.3 V	4.5 V	ADC	20-SOIC	0.295 in	7.5 mm
Texas Instruments ADC0804LCN/NOPB	70 °C	0 °C	Through Hole	10 k per second	Differential	8	External Supply	1	SAR	6.3 V	4.5 V	Parallel	1	20-DIP	7.62 mm	0.3 in	6.3 V	4.5 V	ADC	20-PDIP

Catalog

8-Bit, 1-Ch µP Compatible A/D Converters with 1 LSB INL

Key Features

• Compatible With 8080-µP Derivatives – NoInterfacing Logic Needed – Access Time 135 nsEasy Interface to All Microprocessors, or Operatesas a Stand-Alone DeivceDifferential Analog Voltage InputsLogic Inputs and Outputs Meet Both MOS andTTL Voltage-Level SpecificationsWorks With 2.5-V (LM336) Voltage ReferenceOn-Chip Clock Generator0-V to 5-V Analog Input Voltage Range WithSingle 5-V SupplyNo Zero Adjust Required0.3-Inch Standard Width 20-Pin DIP Package20-Pin Molded Chip Carrier or Small OutlinePackageOperates Ratiometrically or With 5 VDC, 2.5 VDC,or Analog Span Adjusted Voltage ReferenceKey SpecificationsResolution: 8 BitsTotal Error: ±1/4 LSB, ±1/2 LSB and ±1 LSBConversion Time: 100 µsCompatible With 8080-µP Derivatives – NoInterfacing Logic Needed – Access Time 135 nsEasy Interface to All Microprocessors, or Operatesas a Stand-Alone DeivceDifferential Analog Voltage InputsLogic Inputs and Outputs Meet Both MOS andTTL Voltage-Level SpecificationsWorks With 2.5-V (LM336) Voltage ReferenceOn-Chip Clock Generator0-V to 5-V Analog Input Voltage Range WithSingle 5-V SupplyNo Zero Adjust Required0.3-Inch Standard Width 20-Pin DIP Package20-Pin Molded Chip Carrier or Small OutlinePackageOperates Ratiometrically or With 5 VDC, 2.5 VDC,or Analog Span Adjusted Voltage ReferenceKey SpecificationsResolution: 8 BitsTotal Error: ±1/4 LSB, ±1/2 LSB and ±1 LSBConversion Time: 100 µs

Description

The ADC0801, ADC0802, ADC0803, ADC0804, and ADC0805 devices are CMOS 8-bit successive approximation converters (ADC) that use a differential potentiometric ladder – similar to the 256R products. These converters are designed to allow operation with the NSC800 and INS8080A derivative control bus with Tri-state output latches directly driving the data bus. These ADCs appear like memory locations or I/O ports to the microprocessor and no interfacing logic is needed. Differential analog voltage inputs allow increasing the common-mode rejection and offsetting the analog zero input voltage value. In addition, the voltage reference input can be adjusted to allow encoding any smaller analog voltage span to the full 8 bits of resolution. The ADC0801, ADC0802, ADC0803, ADC0804, and ADC0805 devices are CMOS 8-bit successive approximation converters (ADC) that use a differential potentiometric ladder – similar to the 256R products. These converters are designed to allow operation with the NSC800 and INS8080A derivative control bus with Tri-state output latches directly driving the data bus. These ADCs appear like memory locations or I/O ports to the microprocessor and no interfacing logic is needed. Differential analog voltage inputs allow increasing the common-mode rejection and offsetting the analog zero input voltage value. In addition, the voltage reference input can be adjusted to allow encoding any smaller analog voltage span to the full 8 bits of resolution.