Skip to the content
1234567891011121314

MCP4922-E/SL

Microchip TechnologyExtended

-40℃~+125℃ 0.2LSB 12 2 2.7V~5.5V 350uA 4.5us Power-on reset、Power-down mode、Multi-chip synchronization、Programmable gain SPI Voltage Buffer SOIC-14 Digital to Analog Converters (DAC) ROHS

Part id
microchip/MCP4922-E/SL
Category
Digital To Analog Converters (DAC)
Package
SOIC-14
Pins
14
In stock
1,146 at JLCPCB (C39851)
Used on
8 open-source boards

Overview

The MCP4922-E/SL is a digital To Analog Converter made by Microchip Technology in a SOIC-14 package with 14 pins. -40℃~+125℃ 0.2LSB 12 2 2.7V~5.5V 350uA 4.5us Power-on reset、Power-down mode、Multi-chip synchronization、Programmable gain SPI Voltage Buffer SOIC-14 Digital to Analog Converters (DAC) ROHS.

PCBKit's library has its KiCad symbol (Analog_DAC:MCP4922, from KiCad's library) and its footprint (Package_SO:SOIC-14_3.9x8.7mm_P1.27mm, from KiCad's library), ready for a KiCad board. 1,146 are in stock at JLCPCB (part C39851). 8 open-source boards in 7 repositories on GitHub use it.

Symbol

CNTRLDACDACVdd1CS3SCK4SDI5LDAC8SHDN9VB10VrefB11Vss12VrefA13VA14
Analog_DAC:MCP4922From KiCad's library

Footprint

1234567891011121314
Package_SO:SOIC-14_3.9x8.7mm_P1.27mmFrom KiCad's library

From the datasheet

13
Supply, least
2.7 V · VDD, recommended operating min · p. 3
Supply, most
5.5 V · VDD, recommended operating max · p. 3
Supply, absolute maximum
6.5 V · VDD, absolute max · p. 3
Works from
-40 °C · Operating ambient temperature min · p. 8
Works up to
125 °C · Operating ambient temperature max · p. 8
Junction, hottest
150 °C · Junction temperature absolute max · p. 3
Takes working
350 µA · VDD operating current typical at 5 V, outputs unloaded, code 000h · p. 3
Takes at most
700 µA · VDD operating current max at 5 V, outputs unloaded, code 000h · p. 3
Takes asleep
300 nA · Hardware shutdown current typical, POR off · p. 3
Takes asleep
3.3 µA · Software shutdown current typical, POR on · p. 3
A pin gives at most
25 mA · Output pin current absolute max, magnitude · p. 3
Junction to air (14L-SOIC)
120 K/W · Junction-to-ambient thermal resistance typical · p. 8
Data rate, most
20 Mbit/s · SPI clock max at +25°C · p. 7

What it is and has

8
DAC
Dual 12-bit voltage output · p. 1
Output
Rail-to-rail · p. 1
SPI
20 MHz clock support · p. 1
Settling time
4.5 µs · p. 1
Output gain
Selectable unity or 2x · p. 1
Voltage reference
External inputs · p. 1
Multiplier mode
External multiplier mode · p. 1
Package options
14-pin PDIP, SOIC, TSSOP · p. 1

Around it

2
cap 0.1 µF
between VDD and VSS; Ceramic bypass capacitor, in parallel with 10 uF tantalum; place within 4 mm of VDD. · p. 27
cap 10 µF
between VDD and VSS; Tantalum bypass capacitor, in parallel with 0.1 uF ceramic; place within 4 mm of VDD. · p. 27

Specifications

77
ParameterConditionsAs printedPage
VDD VDDmax 6.5 V3
Current at Input Pinsmin -2 · max 2 mA3
Current at Supply Pinsmin -50 · max 50 mA3
Current at Output Pinsmin -25 · max 25 mA3
Storage temperaturemin -65 · max 150 °C3
Ambient temp. with power appliedmin -55 · max 125 °C3
ESD protection on all pinsHBMmin 4 kV3
ESD protection on all pinsMMmin 400 V3
Maximum Junction Temperature TJmax 150 °C3
Operating Voltage VDDTA = -40 to +85°Cmin 2.7 · max 5.5 V3
Operating CurrentInput Current IDDVDD = 5V; VREF unbuffered, digital inputs grounded, outputs unloaded, Code = 000h; typical at +25°Ctyp 350 · max 700 uA3
Operating CurrentInput Current IDDVDD = 3V; VREF unbuffered, digital inputs grounded, outputs unloaded, Code = 000h; typical at +25°Ctyp 250 · max 500 uA3
Hardware Shutdown Current ISHDNPower-on Reset circuit is turned off; typical at +25°Ctyp 0.3 · max 2 uA3
Software Shutdown Current ISHDN_SWPower-on Reset circuit stays on; typical at +25°Ctyp 3.3 · max 6 uA3
Power-on-Reset Threshold VPORTypical at +25°Ctyp 2 V3
Resolution nMCP4922min 12 Bits3
INL Error INLMCP4922; typical at +25°Cmin -12 · max 12 LSb3
DNL DNLMCP4922; guaranteed monotonic by design over all codes; typical at +25°Cmin -0.75 · max 0.75 LSb3
Offset Error VOSCode = 0x000h; typical at +25°Cmax 1 % of FSR3
Offset Error Temperature Coefficient VOS/°C-45°C to 25°Ctyp 0.16 ppm/°C4
Offset Error Temperature Coefficient VOS/°C+25°C to 85°Ctyp -0.44 ppm/°C4
Gain Error gECode = 0xFFFh, not including offset errortyp -0.1 · max 1 % of FSR4
Gain Error Temperature Coefficient G/°Ctyp -3 ppm/°C4
Input Range – Buffered Mode VREFCode = 2048; ensured by design, not 100% testedmin 0.04 V4
Input Range – Unbuffered Mode VREFVREF = 0.2V p-p, f = 100 Hz and 1 kHzmin 0 V4
Input Impedance RVREFUnbuffered Modetyp 165 k4
Input Capacitance – Unbuffered Mode CVREFtyp 7 pF4
Multiplier Mode -3 dB Bandwidth fVREFVREF = 2.5V ±0.2Vp-p, Unbuffered, G = 1xtyp 450 kHz4
Multiplier Mode -3 dB Bandwidth fVREFVREF = 2.5V ±0.2 Vp-p, Unbuffered, G = 2xtyp 400 kHz4
Multiplier Mode – Total Harmonic Distortion THDVREFVREF = 2.5V ±0.2Vp-p, Frequency = 1 kHztyp -73 dB4
Phase Margin mtyp 66 degrees4
Slew Rate SRtyp 0.55 V/us4
Short Circuit Current ISCtyp 15 · max 24 mA4
Settling Time tsettlingWithin 1/2 LSb of final value from 1/4 to 3/4 full-scale rangetyp 4.5 us4
DAC-to-DAC CrosstalkEnsured by design, not 100% testedtyp 10 nV-s4
Major Code Transition Glitch1 LSb change around major carry (0111 1111 to 1000 0000); ensured by design, not 100% testedtyp 45 nV-s4
Digital FeedthroughEnsured by design, not 100% testedtyp 10 nV-s4
Analog CrosstalkEnsured by design, not 100% testedtyp 10 nV-s4
Operating Voltage VDD+125°Cmin 2.7 · max 5.5 V5
Operating Current IDD+125°C; VREF unbuffered, digital inputs grounded, outputs unloaded, Code=000htyp 400 uA5
Hardware Shutdown Current ISHDN+125°C; POR circuit is turned-offtyp 1.5 uA5
Software Shutdown Current ISHDN_SW+125°C; POR circuit stays turned-ontyp 5 uA5
Power-On Reset threshold VPOR+125°Ctyp 1.85 V5
Resolution nMCP4922; +125°Cmin 12 Bits5
Offset Error Temperature Coefficient VOS/°C+25°C to +125°Ctyp -5 ppm/°C5
Gain Error gE+125°C; Code = 0xFFFh, not including offset errortyp -0.1 % of FSR5
Gain Error Temperature Coefficient G/°C+125°Ctyp -3 ppm/°C5
Input Range – Unbuffered Mode VREF+125°Cmin 0 V5
Input Impedance RVREF+125°C; Unbuffered modetyp 174 k5
Input Capacitance – Unbuffered Mode CVREF+125°Ctyp 7 pF5
Multiplying Mode -3 dB Bandwidth fVREF+125°C; VREF = 2.5V ±0.1 Vp-p, Unbuffered, G = 1xtyp 450 kHz6
Multiplying Mode -3 dB Bandwidth fVREF+125°C; VREF = 2.5V ±0.1 Vp-p, Unbuffered, G = 2xtyp 400 kHz6
Phase Margin m+125°Ctyp 66 degrees6
Slew Rate SR+125°Ctyp 0.55 V/us6
Short Circuit Current ISC+125°Ctyp 17 mA6
Settling Time tsettling+125°C; within 1/2 LSb of final value from 1/4 to 3/4 full-scale rangetyp 4.5 us6
DAC to DAC Crosstalk+125°C; ensured by design, not 100% testedtyp 10 nV-s6
Major Code Transition Glitch+125°C; 1 LSb change around major carry (0111 1111 to 1000 0000); ensured by design, not 100% testedtyp 45 nV-s6
Digital Feedthrough+125°C; ensured by design, not 100% testedtyp 10 nV-s6
Analog Crosstalk+125°C; ensured by design, not 100% testedtyp 10 nV-s6
Input Leakage Current ILEAKAGESHDN = LDAC = CS = SDI = SCK + VREF = VDD or VSSmin -1 · max 1 A7
Digital Pin Capacitance (All inputs/outputs) CIN, COUTVDD = 5.0V, TA = +25°C, fCLK = 1 MHz; ensured by design, not 100% testedtyp 10 pF7
Clock Frequency FCLKTA = +25°C; ensured by design, not 100% testedmax 20 MHz7
Clock High Time tHIEnsured by design, not 100% testedmin 15 ns7
Clock Low Time tLOEnsured by design, not 100% testedmin 15 ns7
CS Fall to First Rising CLK Edge tCSSRApplies only when CS falls with CLK high; ensured by design, not 100% testedmin 40 ns7
Data Input Setup Time tSUEnsured by design, not 100% testedmin 15 ns7
Data Input Hold Time tHDEnsured by design, not 100% testedmin 10 ns7
SCK Rise to CS Rise Hold Time tCHSEnsured by design, not 100% testedmin 15 ns7
CS High Time tCSHEnsured by design, not 100% testedmin 15 ns7
LDAC Pulse Width tLDEnsured by design, not 100% testedmin 100 ns7
LDAC Setup Time tLSEnsured by design, not 100% testedmin 40 ns7
SCK Idle Time before CS Fall tIDLEEnsured by design, not 100% testedmin 40 ns7
Specified Temperature Range TAmin -40 · max 125 °C8
Operating Temperature Range TAReduced performance over extended range; TJ must not exceed 150°Cmin -40 · max 125 °C8
Storage Temperature Range TAmin -65 · max 150 °C8
Thermal Resistance, 14L-SOIC JA14L-SOICtyp 120 °C/W8

Pins, by the datasheet

14
1 VDD
Supply voltage input, 2.7V to 5.5V. · p. 17
2 NC
No connection. · p. 17
3 CS
Active-low chip select input enabling serial clock and data functions. · p. 17
4 SCK
SPI-compatible serial clock input. · p. 17
5 SDI
SPI-compatible serial data input. · p. 17
6 NC
No connection. · p. 17
7 NC
No connection. · p. 17
8 LDAC
Synchronization input transferring DAC input register settings to output registers; low updates both outputs simultaneously. · p. 17
9 SHDN
Hardware shutdown input; low shuts down both DAC channels. · p. 17
10 VOUTB
DACB output. · p. 17
11 VREFB
DACB reference voltage input, VSS to VDD. · p. 17
12 VSS
Ground reference for all circuitry; connect to a ground plane through a low-impedance connection. · p. 17
13 VREFA
DACA reference voltage input, VSS to VDD. · p. 17
14 VOUTA
DACA output. · p. 17

Open-source boards using it

8
  • 2 layers144 × 80 mmDVDLaserScanner, the printed circuit board in 3D

    DVDLaserScanner

    GaudiLabs/OpenLaserScanningMicroscope

    Open Source Laser Scanning Microscope

    83 parts345GPL-3.0
  • 2 layers50.5 × 128.5 mmOpenThereminV45, the printed circuit board in 3D

    OpenThereminV45

    GaudiLabs/OpenThereminV4

    Open Source Theremin Instrument

    107 parts249GPL-3.0
  • 2 layers120 × 80 mmSpikeling v3.2, the printed circuit board in 3D

    Spikeling v3.2

    OpenSourceNeuro/Spikeling

    A hardware implementation of spiking neurons for neuroscience teaching and outreach

    233 parts21GPL-3.0
  • 2 layers70 × 40 mmGCodeToAnalog, the printed circuit board in 3D

    GCodeToAnalog

    GaudiLabs/GCodeToAnalog

    grbl-arduino_micro based Gcode to Analog converter circuit and code

    16 parts7LGPL-3.0
  • 2 layers101 × 82 mmPower board v4 4, the printed circuit board in 3D

    Power board v4 4

    maurer-lbb/inkube_hardware

    Open-source hardware (CAD + PCB) for inkudock, a modular incubator and closed-loop electrophysiology, and a water compartment lid preventing evaporation from cell cultures.

    117 parts
  • 2 layers120 × 80 mmSpikeling v3.1, the printed circuit board in 3D

    Spikeling v3.1

    OpenSourceNeuro/Spikeling

    A hardware implementation of spiking neurons for neuroscience teaching and outreach

    122 parts21GPL-3.0
  • 4 layers60.6 × 100 mmTheremin, the printed circuit board in 3D

    Theremin

    adeboni/eurorack

    This repository stores various eurorack module designs I've made

    110 parts1GPL-3.0
  • 2 layers275 × 185 mmDogrudan sdr D, the printed circuit board in 3D

    Dogrudan sdr D

    kocer/direct-sampling-sdr

    Direct-sampling SDR transceiver with four phase-coherent channels, and a class-A power amplifier for 1.8 to 54 MHz.

    265 parts1

Parts like it

8

Questions

Is there a KiCad symbol and footprint for the MCP4922-E/SL?

Yes. The symbol is Analog_DAC:MCP4922 and the footprint Package_SO:SOIC-14_3.9x8.7mm_P1.27mm, both drawn on this page. PCBKit places them on a board for you when you design with it.

What package is the MCP4922-E/SL?

SOIC-14, with 14 pins. Its footprint is drawn on this page.

Where is the MCP4922-E/SL datasheet?

Microchip Technology publishes it: the Datasheet link on this page opens it.

Where can I order the MCP4922-E/SL?

JLCPCB lists it as part C39851, with 1,146 in stock; the sellers' links on this page open their listings.

What can replace the MCP4922-E/SL?

Parts like it in the library: the TLV5620CD by Texas Instruments, the MS5620 by Hangzhou Ruimeng Tech, the MAX5719AGSD+ by Maxim Integrated (Analog Devices) and the MS5542 by Hangzhou Ruimeng Tech. Check their datasheets: a part that fits the footprint may still differ in its ratings.

Which open-source boards use the MCP4922-E/SL?

8 boards in 7 repositories on GitHub; the most starred are listed on this page, with their KiCad files.