Microchip Technology Analog-to-Digital Converters 246

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Part RoHS Manufacturer Converter Type Temperature Grade Terminal Form No. of Terminals Package Code Package Shape Total Dose (V) Package Body Material No. of Analog In Channels Surface Mount Maximum Supply Voltage Maximum Analog Input Voltage Sample Rate No. of Functions Technology Screening Level Nominal Bandwidth No. of Bits Maximum Supply Current Maximum Linearity Error (EL) Nominal Supply Voltage Output Bit Code Power Supplies (V) Nominal Negative Supply Voltage Package Style (Meter) Package Equivalence Code Sub-Category Minimum Supply Voltage Terminal Pitch Maximum Operating Temperature Minimum Analog Input Voltage Output Format Minimum Operating Temperature Terminal Finish Sample and Hold/Track and Hold Terminal Position Maximum Conversion Time JESD-30 Code Moisture Sensitivity Level (MSL) Maximum Seated Height Width Qualification Additional Features JESD-609 Code Maximum Time At Peak Reflow Temperature (s) Peak Reflow Temperature (C) Length Input Bit Code

MCP3001T-I/SN

Microchip Technology

Analog To Digital Converter, Successive Approximation

Industrial

Gull Wing

8

SOP

Rectangular

Plastic/Epoxy

1

Yes

5 V

200 kHz

1

CMOS

10

500 μA

0.0977 %

5 V

Binary

3/5 V

Small Outline

SOP8,.23

Analog to Digital Converters

0.05 in (1.27 mm)

85 °C (185 °F)

0 mV

Serial

-40 °C (-40 °F)

Matte Tin

Sample

Dual

3.5714 µs

R-PDSO-G8

1

0.069 in (1.75 mm)

0.154 in (3.9 mm)

No

e3

30 s

260 °C (500 °F)

0.193 in (4.9 mm)

MCP3202T-BI/SN

Microchip Technology

Analog To Digital Converter, Successive Approximation

Industrial

Gull Wing

8

SOP

Rectangular

Plastic/Epoxy

2

Yes

5.5 V

100 kHz

1

CMOS

TS 16949

12

0.0244 %

5.5 V

Binary

3/5 V

0 V

Small Outline

SOP8,.23

Analog to Digital Converters

0.05 in (1.27 mm)

85 °C (185 °F)

0 mV

Serial

-40 °C (-40 °F)

Matte Tin

Sample

Dual

6.66 µs

R-PDSO-G8

1

0.069 in (1.75 mm)

0.154 in (3.9 mm)

No

e3

30 s

260 °C (500 °F)

0.193 in (4.9 mm)

MCP33121-05-E/MS

Microchip Technology

Analog To Digital Converter, Successive Approximation

Automotive

Gull Wing

10

TSOP

Square

Plastic/Epoxy

1

Yes

5 V

500 kHz

1

AEC-Q100; TS 16949

14

2 mA

0.0091 %

1.8 V

Offset Binary

Small Outline, Thin Profile

TSSOP10,.19,20

0.02 in (0.5 mm)

125 °C (257 °F)

-5 V

Serial

-40 °C (-40 °F)

Sample

Dual

1.3 µs

S-PDSO-G10

0.043 in (1.1 mm)

0.118 in (3 mm)

0.118 in (3 mm)

MCP3550T-60E/SN

Microchip Technology

Analog To Digital Converter, Delta-Sigma

Automotive

Gull Wing

8

SOP

Rectangular

Plastic/Epoxy

1

Yes

2.5 V

30.72 kHz

1

TS 16949

22

185 μA

0.0006 %

5 V

2's Complement Binary

2.7/5 V

Small Outline

SOP8,.23

Analog to Digital Converters

0.05 in (1.27 mm)

125 °C (257 °F)

-2.5 V

Serial

-40 °C (-40 °F)

Matte Tin

Dual

67.3367 ms

R-PDSO-G8

1

0.069 in (1.75 mm)

0.154 in (3.9 mm)

No

e3

30 s

260 °C (500 °F)

0.193 in (4.9 mm)

MCP3553-E/SN

Microchip Technology

Analog To Digital Converter, Delta-Sigma

Automotive

Gull Wing

8

SOP

Rectangular

Plastic/Epoxy

1

Yes

2.5 V

30.72 kHz

1

TS 16949

22

185 μA

0.0006 %

5 V

2's Complement Binary

2.7/5 V

Small Outline

SOP8,.23

Analog to Digital Converters

0.05 in (1.27 mm)

125 °C (257 °F)

-2.5 V

Serial

-40 °C (-40 °F)

Matte Tin

Dual

16.8367 ms

R-PDSO-G8

1

0.069 in (1.75 mm)

0.154 in (3.9 mm)

No

e3

30 s

260 °C (500 °F)

0.193 in (4.9 mm)

TC7106CKW

Microchip Technology

Analog To Digital Converter, Dual-Slope

Commercial

Gull Wing

44

QFP

Square

Plastic/Epoxy

1

Yes

3.35 V

1

CMOS

TS 16949

1.8 mA

5 V

Binary

15 V

Flatpack

QFP44,.52SQ,32

Analog to Digital Converters

0.031 in (0.8 mm)

70 °C (158 °F)

2.7 V

Parallel, Word

0 °C (32 °F)

Matte Tin

Quad

S-PQFP-G44

3

0.096 in (2.45 mm)

0.394 in (10 mm)

No

e3

40 s

260 °C (500 °F)

0.394 in (10 mm)

Analog-to-Digital Converters

Analog-to-digital converters (ADCs) are electronic devices that convert continuous analog signals into digital signals, which can be processed by digital circuits, microcontrollers, or computers. ADCs are essential components in many electronic systems, as they allow the measurement and processing of physical signals, such as temperature, pressure, light, and sound.

ADCs work by sampling the analog signal at regular intervals and quantizing the sampled signal into a series of digital values. The sampling rate and the resolution of the ADC determine the accuracy and the bandwidth of the digital signal. ADCs may also include features such as amplification, filtering, or signal conditioning, to improve the accuracy and stability of the digital signal.

ADCs can be classified based on their architecture and their application. The most common types of ADCs are successive approximation ADCs, delta-sigma ADCs, and pipeline ADCs. Each type has its advantages and limitations, depending on the application and the required performance.

ADCs are used in a wide range of applications, from consumer electronics, such as smartphones and digital cameras, to industrial automation, medical devices, and scientific instruments. They play a crucial role in the conversion of physical signals into digital signals, allowing the processing, storage, and transmission of data in electronic systems.

Overall, ADCs are essential components in many electronic systems, providing the necessary signal conversion for a wide range of applications. Their accuracy, speed, and resolution determine the performance and the functionality of many electronic devices and systems.