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Pinout

Connectors Overview

P1 and P2 Power pins

P1 Supply Power pins

Pin

Name

Type

Function

WARNING, POWER TERMINALS!

1

POW_SUP

Power

Power supply positive (DC bus).

 

Power pins can have high voltages > 50 V, always respect clearance and creepage requirements (Typ > 0.25 mm)! Dimension PCB traces and connectors according to the current of the application!

2

GND_P

Power supply negative (Power Ground).

Chassis

PE

Protective Earth connected to driver housing and fixing M2.5 threads.

Ensure basic insulation (Min > 0.5 mm) between protective earth and other live circuits.


P2 Motor Power pins

Pin

Name

Type

Function

WARNING, POWER TERMINALS!

1

PH_A

Power

Motor phase A for 3-phase motors, positive for DC motors.

 

Power pins can have high voltages > 50 V, always respect clearance and creepage requirements (Typ > 0.25 mm)! Dimension PCB traces and connectors according to the current of the application!

2

PH_B

Motor phase B for 3-phase motors, negative for DC motors.

3

PH_C

Motor phase C for 3-phase motors (do not connect for DC motors).

Chassis

PE

Protective Earth connected to driver housing and fixing M2.5 threads.

Ensure basic insulation (Min > 0.5 mm) between protective earth and other live circuits.


Everest CORE connector

Recommended mating contact

Description

Up to 11.2 ARMS rated motors

Ø 1.52 mm, 4 mm pitch, gold plated power pins.

Beryllium copper TH pin receptacle. Gold plated.

Mill-Max 9372-0-15-15-23-27-10-0

> 11.2 ARMS rated motors


Direct solder to PCB. TH pad with min. hole Ø 1.63 mm. Ensure PCB tracks are wide enough to withstand the target current.

P3 Feedback connector

The pinout of the Feedback connector is exactly the same for Everest CORE (EVE_CORE) and Everest NET (EVE_NET) although the position of the connector is different.

P3 Feedback connector

#

Signal name

Description

Type

#

Signal name

Description

Type

1

GND_A

Analog Ground. If no external analog circuits are used, do not connect this pin at all.

If used, do not connect this pin to GND_D directly. Instead, use a ferrite bead or 1 Ω resistor in between.

Power

2

GND_A

Analog Ground. If no external analog circuits are used, do not connect this pin at all.

If used, do not connect this pin to GND_D directly. Instead, use a ferrite bead or 1 Ω resistor in between.

Power

3

DNC

Reserved. Do not connect (leave floating).

-





4

AN1_P

Analog input 1. Can be used as a command source or for torque sensing.

16 bit differential analog input

5

DNC

6

AN1_N

7

DNC

8

AN2_P

Analog input 2. Can be used as a command source or for torque sensing.

9

DNC

10

AN2_N

11

DNC

12

DNC

Reserved. Do not connect (leave floating).

-

13

MOTOR_TEMP

Motor temperature sensor input. 0 V to 5 V level high impedance input.

12 bit single-ended analog input

14

DNC

15

GND_D

Digital signal Ground.

Power

16

NC

Internally not connected. Recommended to leave them unconnected.


17

HALL_1

Digital hall 1.

Input, 3.3 V level single-ended.

18

NC


19

HALL_2

Digital hall 2.

20

GND_A

Analog Ground. If no external analog circuits are used, do not connect this pin at all.

If used, do not connect this pin to GND_D directly. Instead, use a ferrite bead or 1 Ω resistor in between.

Power

21

HALL_3

Digital hall 3.

22

GND_D

Digital signal Ground.

23

CLL

Reserved. Must be tied or pulled-down to GND_D.

-

24

DIG_ENC_1A

Incremental encoder 1 A.

Input, 3.3 V level single-ended.

25

CHL

Reserved. Must be tied or pulled-up to 3.3 V.

26

DIG_ENC_1B

Incremental encoder 1 B.

27

CLL

Reserved. Must be tied or pulled-down to GND_D.

28

DIG_ENC_1Z

Incremental encoder 1 Index.

29

CHL

Reserved. Must be tied or pulled-up to 3.3 V.

30

DIG_ENC_2A

Incremental encoder 2 A.

31

DNC

Reserved. Do not connect (leave floating).














32

DIG_ENC_2B

Incremental encoder 2 B.

33

DNC

34

DIG_ENC_2Z

Incremental encoder 2 Index.

35

DNC

36

GND_D

Digital signal Ground.

Power

37

DNC

38

ABSENC1_CLK

Clock output for Absolute Encoder 1.

Output

39

DNC

40

ABSENC1_DATA

Data input for Absolute Encoder 1 (supports SSI or up to 2 BiSS-C encoders connected in daisy chain topology).

Input

41

DNC

42

DNC

Reserved. Do not connect (leave floating).

-

43

DNC

44

GND_D

Digital signal Ground.

Power

45

DNC

46

DNC

Reserved. Do not connect (leave floating).

-

47

DNC

48

DNC

49

DNC

50

DNC

51

DNC

52

DNC

53

DNC

54

DNC

55

DNC

56

DNC

57

DNC

58

DNC

59

GND_D

Digital signal Ground.

Power

60

GND_D

Digital signal Ground.

Power

Notes and naming conventions:

  • All pins are tolerant to 3.3 V unless otherwise noted.

  • Unused digital outputs should be left unconnected.

  • Unused digital inputs should be connected to GND_D.

  • Unused analog inputs should be connected to 1.65V_REF. 

  • "_P" and "_N" indicates positive and negative terminals of differential signals

  • "\" Indicates inverted (active low) signal

  • "NC" means Not Connected. Pins marked with NC can be tied to GND or 3.3 V, but the best practice is to leave them unconnected.

  • "DNC" means Do Not Connect. Pins marked with DNC must not be tied to any driving voltage, including GND or 3.3 V.

  • "CLL" means Connect to Low Level. Pins marked with CLL must be tied or pulled-down to 0 V.

  • "CHL" means Connect to High Level. Pins marked with CHL must be tied or pulled-up to 3.3 V.


Manufacturer

Everest CORE connector

Required mating connector

Description

Hirose Electric

60-pin mezzanine stacking board connector. 0.5 mm pitch. Center strip, gold-plated surface mount contacts. 3 mm stacking height.

Hirose DF12 connectors operation and storage temperature, when mounted, is -45ºC to 125ºC.

DF12NB(3.0)-60DP-0.5V(51)

DF12NB(3.0)-60DS-0.5V(51)

P4 Everest CORE Interface connector

Although using the same physical connector as Everest NET (EVE-NET), position and pinout are different in Everest CORE (EVE-CORE).


P4 Everest CORE Interface connector

#

Signal name

Description

Type

#

Signal name

Description

Type

1

GND_D

Digital signal Ground.

Power

2

GND_D

Digital signal Ground.

Power

3

5V_D

5 V, 300 mA continuous logic supply input. Must be low ripple and ensure ±2% regulation tolerance or less. It is advised to connect all four 5V_D pins. It is recommended to provide at least 500 mA input current if pins 9 or 10 (3.3V_D) are used to drive external circuits.

The rise time of the 5 V supply must be between 2 ms and 10 ms to guarantee a proper initialization.

Power input

4

5V_D

5 V, 300 mA continuous logic supply input. Must be low ripple and ensure ±2% regulation tolerance or less. It is recommended to connect all four 5V_D pins. It is advised to provide at least 500 mA input current if pins 9 or 10 (3.3V_D) are used to drive external circuits.

The rise time of the 5 V supply must be between 2 ms and 10 ms to guarantee a proper initialization.

Power input

5

5V_D

6

5V_D

7

GND_D

Digital signal Ground.

Power

8

GND_D

Digital signal Ground.

Power

9

3.3V_D

3.3 V, 250 mA max. output to supply peripherals. Excessive current demand on this pin could cause failure or even permanent damage to the Everest CORE.

Power output

10

3.3V_D

3.3 V, 250 mA max. output to supply peripherals. Excessive current demand on this pin could cause failure or even permanent damage to the Everest CORE.

Power output

11

GND_D

Digital signal Ground.

Power

12

GND_D

Digital signal Ground.

Power

13

GND_D

14

MCB_SPI_MISO

Motion Control Bus, Master input Slave output

Output

15

GND_D

16

MCB_SPI_MOSI

Motion Control Bus, Master output Slave input

Input

17

GND_D

18

\MCB_SPI_CS

Motion Control Bus, Chip Select input

19

GND_D

20

MCB_SPI_CLK

Motion Control Bus, Clock input

21

GND_D

22

MCB_SYNC0

Motion Control Bus, synchronization signal 0

23

GND_D

24

MCB_SYNC1

Motion Control Bus, synchronization signal 1. It is strongly suggested to pull-up this signal to 3.3V with a 10 kΩ resistor.

Output

25

GND_D

26

MCB_IRQ

Motion Control Bus, interrupt request output. Add a pull-down resistor 10 kΩ to this pin. 

27

GND_D

28

DNC

Reserved. Do not connect (leave floating).

-

29

NC

Internally not connected. Recommended to leave them unconnected.

-

30

GND_D

Digital signal Ground.

Power

31

NC

32

GND_D

33

\STO1

Safe Torque Off input 1 (non-isolated). Both \STO1 and \STO2 must be high-level (3.3 V and 5 V level compatible) to allow operation of the motor. Holding different logic states (STO1 ≠ STO2) for more than 1s will cause a latching fault.

Input

34

\STO2

Safe Torque Off input 2 (non-isolated). Both \STO1 and \STO2 must be high-level (3.3 V and 5 V level compatible) to allow operation of the motor. Holding different logic states (STO1 ≠ STO2) for more than 1s will cause a latching fault.

Input

35

DNC

Reserved. Do not connect (leave floating).

-

36

DNC

Reserved. Do not connect (leave floating).

-

37

FAULT_SIGNAL

Fault state signaling output. Can directly drive a (typically) red LED anode at 3.3 V up to 3 mA.

Output

38

\HW_RESET

Everest CORE reset input. Keeps the motion controller disabled with low power consumption. A minimum low-level pulse of 100 µs is needed for resetting Everest CORE. 2 kΩ pull-up to 3.3 V is internally included.

Input

39

GND_D

Digital signal Ground.

Power

40

DNC

Reserved. Do not connect (leave floating).

-

41

\EXT_FAULT

External fault input. Could be configured to force the Everest CORE state-machine to the Fault state (motor will be stopped) when the pin is driven to 0 V. Includes an internal weak pull-up, although external pull-up to 3.3 V is advised.

Input

42

PWM_BRAKE

PWM output for driving a mechanical brake. Configurable up to 40 kHz. A high level indicates the motor is free to move.

Add a 10 kΩ ~ 47 kΩ pull-down resistor to this pin to ensure the brake is always in a safe state during boot-up or reset situations when this pin might be in high impedance.

Output

43

GPO4

Digital Output 4.

Output

44

DNC

Reserved. Do not connect (leave floating).

-

45

DNC

Reserved. Do not connect (leave floating).

-

46

DNC

47

GPI1

Digital Input 1.

Input

48

DNC

49

GPI2

Digital Input 2.

50

ABSENC2_CLK

Clock output for Absolute Encoder 2.

Output

51

ABSENC2_DATA

Data input for Absolute Encoder 2 (supports SSI only)

52

DNC

Reserved. Do not connect (leave floating).

-

53

GPI3

Digital Input 3.

54

DNC

55

GPO1

Digital Output 1.

Output

56

GPO2

Digital Output 2.

Output

57

GPO3

Digital Output 3.

58

GPI4

Digital Input 4.

Input

59

GND_D

Digital signal Ground.

Power

60

GND_D

Digital signal Ground.

Power

61

DNC

Reserved. Do not connect (leave floating).

-

62

DNC

Reserved. Do not connect (leave floating).

-

63

DNC

64

DNC

65

DNC

66

DNC

67

GND_D

Digital signal Ground.

Power

68

GND_D

Digital signal Ground.

Power

69

NC

Internally not connected. Recommended to leave them unconnected.

-

70

NC

Internally not connected. Recommended to leave them unconnected.

-

71

NC

72

NC

73

NC

74

NC

75

1.65V_REF

1.65 V voltage reference output with sink/source capability up to ±10 mA. Excessive current demand or noise coupled to this pin can cause a loss of performance or even malfunction of Everest CORE: route by following the best layout practices.

Power output

76

NC

77

3.3V_REF

3.3 V voltage reference output with sink/source capability up to ±10 mA. Excessive current demand or noise coupled to this pin can cause a loss of performance or even malfunction of Everest CORE: route by following the best layout practices.

78

DNC

Reserved. Do not connect (leave floating).

79

GND_A

Analog Ground. If no external analog circuits are used, do not connect this pin at all.

If used, do not connect this pin to GND_D directly. Instead, use a ferrite bead or 1 Ω resistor in between.

Power

80

GND_A

Analog Ground. If no external analog circuits are used, do not connect this pin at all.

If used, do not connect this pin to GND_D directly. Instead, use a ferrite bead or 1 Ω resistor in between.

Power

Notes and naming conventions:

  • All pins are tolerant to 3.3 V unless otherwise noted.

  • Unused digital outputs should be left unconnected.

  • Unused digital inputs should be connected to GND_D.

  • Unused analog inputs should be connected to 1.65V_REF. 

  • "_P" and "_N" indicates positive and negative terminals of differential signals

  • "\" Indicates inverted (active low) signal

  • "NC" means Not Connected. Pins marked with NC can be tied to GND or 3.3 V, but the best practice is to leave them unconnected.

  • "DNC" means Do Not Connect. Pins marked with DNC must not be tied to any driving voltage, including GND or 3.3 V.

Motion Control Bus

Everest CORE can be controlled as a slave by means of its proprietary Motion Control Bus (MCB). Check how in the Summit Series Reference Manual.


MCB Layout is critical

Note, the high-speed MCB signals (MCB_SPI_MOSI, MCB_SPI_MISO, MCB_SPI_CLK) must be routed with care. Not following the best high speed layout practices will result in communication problems and loss of data.  Please:

  • Do not ever route these signals close to the motor phases or switching nodes of DC/DCs. Keep a safe > 15 mm distance to switching noise.

  • Ensure they have a good GND return on all its length on the PCB. Route them as strip lines, if possible microstrip for longer distances is also recommended. 

  • Keep line impedances between 60 Ω and 150 Ω.

  • Avoid T stubs and acute angles. 

  • Minimize crosstalk to other signals by reducing parallel coupled length.

  • Consider adding 0 Ω ~ 47 Ω series termination resistors at the end of the fast lines as a provision to minimize reflections in case communication issues arise. 



Manufacturer

Everest CORE connector

Required mating connector

Description

Hirose Electric

80-pin mezzanine stacking board connector. 0.5 mm pitch. Center strip, gold-plated surface mount contacts. 3 mm stacking height.

Hirose DF12 connectors operation and storage temperature, when mounted, is -45ºC to 125ºC.

DF12NB(3.0)-80DP-0.5V(51)

DF12NB(3.0)-80DS-0.5V(51)



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