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TMC6200-TA-T

TRINAMIC Motion Control GmbH · Motor Driver ICs · TQFP-48-EP(7x7)

TMC6200-TA-T from TRINAMIC Motion Control GmbH, in a TQFP-48-EP(7x7). Pinout and pin descriptions extracted from the manufacturer datasheet (extract_pins, cross-checked by a second model); symbol, footprint, and 3D from KiCad-official CAD.

Pinout

Pin Name Type Function
1 CU passive Bootstrap capacitor positive connection, tied to the U terminal using a 470nF to 1µF, 16V or 25V ceramic capacitor.
2 N.C. unconnected Unused pin for increased creeping distances.
3 LSW output Low side gate driver output for phase W.
4 LSV output Low side gate driver output for phase V.
5 LSU output Low side gate driver output for phase U.
6 12VOUT power_out Output of internal 11.5V gate voltage regulator and supply of low side gate drivers; attach 2.2µF to 22µF ceramic capacitor to GND plane, or tie VSA and 12VOUT to an external gate supply.
7 5VOUT power_out Output of internal 5V regulator; attach 2.2µF to 10µF ceramic capacitor to GNDA near the pin.
8 GNDA power_in Analog GND, connect to GND plane near the pin.
9 CURU output Analog output of current sense amplifier for phase U.
10 CURV output Analog output of current sense amplifier for phase V.
11 CURW output Analog output of current sense amplifier for phase W.
12 VOFS/TEST input Analog center reference for current sense amplifiers; leave open for 5VOUT/3 offset voltage.
13 CSN_IDRV0 input SPI chip select input, negative active (SPE=1), or gate driver current LSB configuration input (SPE=0).
14 SCK_IDRV1 input SPI serial clock input (SPE=1) or gate driver current MSB configuration input (SPE=0).
15 SDI_AMPLx10 input SPI data input (SPE=1) or current sense amplifier 5x or 10x amplification configuration input (SPE=0).
16 SDO_SINGLE tri_state SPI data output, tristate (SPE=1), or internal bridge control mode configuration input (0: dual line, 1: xH=phase polarity, xL=phase enable) (SPE=0).
17 UH input High side control input for phase U (or bridge polarity in single mode), with pulldown resistor.
18 UL input Low side control input for phase U (or bridge enable in single mode), with pulldown resistor.
19 VCC_IO power_in 3.3V to 5V IO supply voltage for all digital pins.
20 VH input High side control input for phase V (or bridge polarity in single mode), with pulldown resistor.
21 VL input Low side control input for phase V (or bridge enable in single mode), with pulldown resistor.
22 WH input High side control input for phase W (or bridge polarity in single mode), with pulldown resistor.
23 WL input Low side control input for phase W (or bridge enable in single mode), with pulldown resistor.
24 CLK input Clock input; tie to GND using a short wire for internal clock or supply an external clock, with clock-fail over circuit protecting against loss of external clock.
25 SPE input Mode selection input with integrated pulldown: low selects standalone mode with SPI pins as configuration pins, high enables the SPI interface.
26 FAULT output Diagnostics output, high upon driver error condition; clear by cycling the enable.
27 DRV_EN input Positive active enable input; the power stage is switched off (all motor outputs floating) when driven low, and cycling low clears FAULT.
28 N.C. unconnected Unused pin for increased creeping distances.
29 VSA power_in Analog supply voltage for the 11.5V and 5V regulators, normally tied to VS, with a 100nF filtering capacitor to GND.
30 CPO passive Charge pump capacitor output.
31 N.C. unconnected Unused pin for increased creeping distances.
32 CPI passive Charge pump capacitor input, tied to CPO using a 22nF 100V capacitor, with optional 10-22Ohm series resistor if supply ringing is considerable.
33 VS power_in Motor supply voltage, must be tied to the positive bridge supply voltage with filtering capacity near the pin and short loop to GND plane.
34 VCP passive Charge pump voltage, tied to VS using a 100nF capacitor.
35 N.C. unconnected Unused pin for increased creeping distances.
36 CW passive Bootstrap capacitor positive connection, tied to the W terminal using 470nF to 1µF, 16V or 25V ceramic capacitor.
37 HSW output High side gate driver output for phase W.
38 W passive Bridge center and bootstrap capacitor negative connection, connected to the source pin of the HS-MOSFET.
39 WSENSE input Analog sense resistor connection for phase W on the motor side of the sense resistor, with 10Ω to 22Ω protection resistor recommended, or directly to W if no sense resistor is used.
40 N.C. unconnected Unused pin for increased creeping distances.
41 VSENSE input Analog sense resistor connection for phase V on the motor side of the sense resistor, with 10Ω to 22Ω protection resistor recommended, or directly to V if no sense resistor is used.
42 V power_in Bridge center and bootstrap capacitor negative connection, connected to the source pin of the HS-MOSFET.
43 HSV output High side gate driver output for phase V.
44 CV passive Bootstrap capacitor positive connection, tied to the V terminal using 470nF to 1µF, 16V or 25V ceramic capacitor.
45 N.C. unconnected Unused pin for increased creeping distances.
46 USENSE input Analog sense resistor connection for phase U on the motor side of the sense resistor, with 10Ω to 22Ω protection resistor recommended, or directly to U if no sense resistor is used.
47 U passive Bridge center and bootstrap capacitor negative connection, connected to the source pin of the HS-MOSFET.
48 HSU output High side gate driver output for phase U.
49 EP power_in Exposed die pad (GNDP, GNDD) connected to a GND plane with many vias; serves as GND for the low side gate drivers and digital logic.

Key specifications

Parameter Value
Manufacturer TRINAMIC Motion Control GmbH
Package TQFP-48-EP(7x7)
Category Power Management ICs
Pins 49

Electrical characteristics

Limits as printed in the datasheet (page.json metadata.characteristics carries them as data).

Parameter Symbol Min Typ Max Unit Conditions Page
Supply voltage operating with inductive load VVS, VVSA -0.5 65 V 35
Supply and bridge voltage short time peak VVSMAX 70 V limited by peak voltage on charge pump output and Cxx pins 35
VSA supply voltage VVSAMAX -0.5 65 V 35
Peak voltages on Cxx bootstrap pins and VCP VCxCP 85 V 35
Supply voltage V12 V12VOUT -0.5 15 V 35
Peak voltages on U/V/W pins VX -6 6 V max printed as VVS+6 V (due to stray inductivity) 35
Peak voltages on Cxx bootstrap pins relative to BM VCxx -0.5 16 V 35
I/O supply voltage VVIO -0.5 5.5 V 35
Supply voltage (5VOUT) V5VOUT -0.5 5.5 V 35
Logic input voltage VI -0.5 0.5 V max printed as VVIO+0.5 V 35
Maximum current to/from digital pins and analog low voltage I/Os IIO -500 500 mA short time peak current 35
Maximum differential input voltage for current amplifier VX-VSENSEX -1.5 1.5 V 35
Maximum short time input current for current amplifier ISENSEX -200 200 mA 35
5V regulator output current I5VOUT 30 mA internal plus external load 35
5V regulator continuous power dissipation P5VOUT 1 W (VVSA-5V) * I5VOUT 35
12V regulator output current I12VOUT 20 mA internal plus external load 35
12V regulator continuous power dissipation P12VOUT 0.5 W (VVM-5V) * I5VOUT 35
Junction temperature TJ -50 150 °C 35
Storage temperature TSTG -55 150 °C 35
ESD protection for interface pins (HBM) VESDAP 4 kV Human body model 35
ESD protection for handling (HBM) VESD 1 kV Human body model 35
Junction temperature (operational) TJ -40 125 °C 35
Supply voltage for motor and bridge VVS 10 60 V 35
Supply voltage VSA VVSA 10 60 V 35
Supply voltage for VSA and 12OUT (internal gate voltage regulator bridged) V12VOUT, VVSA 10 13 V 35
Lower supply voltage (reduced spec) VVS 8 V short to GND protection not functional, lower limit depending on MOSFETs gate threshold voltage and load current 35
I/O supply voltage VVIO 3 5.25 V 35
Total supply current, driver disabled IS 11 15 mA VVS = VVSA = 24.0V, internal clock 36
IO supply current IVIO 15 30 µA no load on outputs, inputs at VIO or GND; excludes pullup/pull-down resistors 36
RDSON lowside off driver RONL 1 1.6 Ω Gate off, VVS = 24.0V; Tj=50°C 36
RDSON highside off driver RONH 1.3 2 Ω Gate off, VVS = 24.0V; Tj=50°C 36
Minimum effective BBM time tBBM0 30 50 70 ns Individual LS and HS signals (singleline=0) 36
Reaction delay time LS/HS input to gate driver output change tDLY 65 85 110 ns Individual LS and HS signals (singleline=0) 36
Matching difference of gate driver reaction delay times tDLYMATCH 10 ns Individual LS and HS signals (singleline=0) 36
Charge pump voltage threshold for undervoltage detection VVCP-VVS 4.5 5.5 6.5 V rising, using internal 5V regulator voltage 37
5V regulator output voltage V5VOUT 4.8 5 5.2 V TJ = 25°C, VVS = VVSA = 24.0V 37
Deviation of 5V output over full temperature range V5VOUT(DEV) 5 50 mV drivers disabled, TJ = full range (printed +/-5, +/-50) 37
Deviation of 5V output over supply voltage V5VOUT(DEV) 20 mV / 10V drivers disabled, internal clock, TA = 25°C, VVSA = 10V to 30V (printed +/-20) 37
12V regulator output voltage V12VOUT 10.8 11.5 12.2 V operating, internal clock, TJ = 25°C 37
Clock oscillator frequency fCLKOSC 23 24 25 MHz tJ=50°C 37
External clock frequency (operating) fCLK 4 16 MHz 40%..60% dutycycle for typ. 50% for max.; typ printed as 10-13.4 37
External clock high / low level time tCLKH / tCLKL 10 ns CLK driven to 0.1 VVIO / 0.9 VVIO 37
External clock timeout detection tCLKH1 32 48 cycles CLK driven high, in cycles of internal fCLKOSC 37
Short detector delay tSD0 0.5 0.85 1.1 µs FILT_ISENSE=0, S2xx_LEVEL=6, shortdelay=0, including 100ns filtering time 38
Short detector delay tSD1 1.1 1.6 2.2 µs shortdelay=1 38
Short detector level S2VS VBM 1.4 1.56 1.72 V S2VS_LEVEL=15 38
Short detector level S2VS VBM 0.55 0.625 0.7 V S2VS_LEVEL=6 38
Short detector level S2G VS - VBM 1.3 1.56 1.85 V S2G_LEVEL=15, VS<52V 38
Short detector level S2G VS - VBM 0.46 0.625 0.85 V S2G_LEVEL=6, VS<52V 38
VVSA undervoltage threshold for RESET VUV_VSA 3.8 4.2 4.6 V VVSA rising 38
VVCC_IO undervoltage threshold for RESET VUV_VIO 2 2.2 3 V VVCC_IO rising (delay typ. 10µs) 38
Overtemperature prewarning 120°C TOTPW 100 120 140 °C Temperature rising 38
Overtemperature shutdown 150°C TOT150 135 150 170 °C Temperature rising 38
Amplification (amplification=0) AAMPL 4.85 5 5.15 V/V amplification=0, Tj=50°C 39
Amplification absolute tolerance AABSTOL -3 3 % Tj=50°C 39
Amplification matching between channels AMATCH -2 2 % Tested at 1/2 full scale 39
Offset voltage variation over sense input voltage (output) VOFSVAR -10 0 10 mV Vsense=0V to 50V, amplification=0 39
Current amplifier output offset voltage, amplification=0 VOFS -130 130 mV amplification=0 39
Sense amplifier output resistance RCUR 36 56 76 Ω Tj=50°C 39
Input Resistance VOFS pin RVOFS 130 165 210 kΩ Tj=50°C 39
Junction to ambient thermal resistance RTMJA 21 K/W 2s2p JEDEC EIA JESD51-5 and JESD51-7 board 40

CAD (KiCad official)

  • Symbol: TMC6200-TA-T
  • Footprint: Package_QFP:TQFP-48-1EP_7x7mm_P0.5mm_EP5x5mm
  • 3D model: TQFP-48-EP(7x7) (KiCad packages3D, STEP)
  • 3D model files: tmc6200-ta-t-etched.step / tmc6200-ta-t-etched.glb carry the MPN laser-etched on the die in a toggleable Adom.LaserEtch group (Fusion-ready); tmc6200-ta-t.step / tmc6200-ta-t.glb are the bare package body.

Provenance

Data extracted from the manufacturer datasheet, not a distributor listing:

  • Datasheet: TRINAMIC Motion Control GmbH datasheet (47 pp, sha256 dfabdf8d076d0cf3, retrieved 2026-10-23, tier: lcsc)
  • Extractor: parts-factory 2.0.0 / extract_pins 0.3, primary claude-sonnet-5-5 (text), consensus claude-sonnet-5-5 (agreed), guards: pin_guards 0.1: passed. Pins are checked against the footprint pad set and their cited datasheet pages before publish.
  • CAD: KiCad official libraries (CC-BY-SA 4.0).

Datasheet PDF