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8-SOIC
Integrated Circuits (ICs)

AMC1035D

Active
Texas Instruments

PRECISION DELTA-SIGMA MODULATOR WITH ±1-V BIPOLAR INPUT AND 2.5-V REFERENCE OUTPUT

8-SOIC
Integrated Circuits (ICs)

AMC1035D

Active
Texas Instruments

PRECISION DELTA-SIGMA MODULATOR WITH ±1-V BIPOLAR INPUT AND 2.5-V REFERENCE OUTPUT

Technical Specifications

Parameters and characteristics for this part

SpecificationAMC1035D
Mounting TypeSurface Mount
Number of Channels1
Operating Temperature [Max]125 °C
Operating Temperature [Min]-40 °C
Package / Case8-SOIC
Package / Case [x]0.154 in
Package / Case [y]3.9 mm
Resolution (Bits)16 b
Supplier Device Package8-SOIC
TypeModulator
Voltage - Supply [Max]5.5 V
Voltage - Supply [Min]3 V
Voltage Supply SourceAnalog and Digital

Pricing

Prices provided here are for design reference only. For realtime values and availability, please visit the distributors directly

DistributorPackageQuantity$
DigikeyTube 1$ 4.66
10$ 4.19
75$ 3.96
150$ 3.43
300$ 3.25
525$ 2.92
1050$ 2.46
2550$ 2.34
Texas InstrumentsTUBE 1$ 3.52
100$ 3.08
250$ 2.16
1000$ 1.74

Description

General part information

AMC1035-Q1 Series

The AMC1035-Q1 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 voltage and temperature sensing applications.

Select the output bitstream of the AMC1035-Q1 to be Manchester coded to prevent setup and hold time requirement considerations of the receiving device and to reduce overall circuit layout efforts. When used with a digital filter (such as integrated in theTMS320F28004x,TMS320F2807x, orTMS320F2837xmicrocontroller 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-Q1 supports a ratiometric circuit architecture to minimize the negative impact of the supply voltage variation and temperature drift on the accuracy of the measurement.