Technical Specifications

Power Specifications

Power Specifications
Node Size	Node 400	Node 1000	Node 2000
Maximum Peak Output Power	415 W	1,040 W	2,080 W
Maximum Continuous Output Power *	415 W	1,040 W	1,200 W
Rated Supply Voltage **	12-48 V DC
Maximum Supply Voltage **	60 V DC
Minimum Supply Voltage **	8 V DC
Maximum Input Current DC	9.6 A DC	24 A DC	48 A DC
Maximum Phase Current RMS	13.2 A RMS	33 A RMS	66 A RMS ****
Maximum Continuous Phase Current RMS *	13.2 A RMS	33 A RMS	36 A RMS
Efficiency (at Maximum Power)	98 %
Brake control power output	0-48 V PWM Phase D ***

* These values can be achieved with a motor that is typical for robotic applications, reaching its maximum power at 60% of its RPM maximum.

This case is used as a realistic assumption to specify the datasheet value for power. Beyond that, the servo drive itself is able to provide higher power, as it is able to drive its maximum voltage and its maximum current at the same time.

In reality, no motor can consume both maximum values at the same time, so there is no operating point of the overall system (motor + drive) that would actually use the theoretical maximum power of the drive.

As the calculation bases on a reference motor, there are setups with large motors that are able to even exceed the values shown here.

The maximum continuous output power and phase currents are highly dependent on the cooling situation. Please refer to our Thermal mounting considerations for details.

** The operating voltage is 12-48 V DC. The maximum supply voltage is only for buffering peaks when braking. The minimum voltage is for configuration purposes only. Please refer to our power supply instructions for details.

*** This is a fourth phase that can also be used for other purposes (see Manually controlling phase D voltage) it has a maximum current of 10 A.

**** Maximum peak current achievable for min. 10 seconds. Maximum allowable duty cycle depends on the cooling situation and load cycle profile. Under standard conditions (150 mm * 200 mm * 20 mm aluminium plate, 20° C ambient temperature, square wave load cycle alternating between 0 and max current), a duty cycle of 25% is allowed.

General specifications

General specifications
Supported Communication Standard	EtherCAT
Number of Phases	4
Supported Motors	1 x 3-phase BLDC-Motor and 1 active brake
	Up to 2 Brushed DC Motors 1
Brake control voltage	0-48 V PWM Phase D
Analog Inputs	4 (2 x single-ended 0-10V, 2 x differential ±5V) 2
Digital IOs	4 × GPIO / SPI 3 / I 2 C 3 (3.3 V CMOS logic) 4
Encoder Connectors	2 x 4ch. RS-422
Supported Standard Encoder Interfaces	Incremental Encoder (ABI), HALL, BiSS-C, SSI, SPI 3, I 2 C 3
Supported Encoder Types	Encoder Port 1 Incremental Encoder (ABI), BiSS-C, SSI, Half-Duplex, A-Format	Encoder Port 2 Incremental Encoder (ABI), HALL, BiSS-C, SSI, I 2 C 3
Incremental Encoder max frequency	1.4 MHz 5 (supports up to 14,000 rpm with a 4,096 resolution incremental encoder)
Hardware Protections	Overcurrent, Overvoltage, Undervoltage, Temperature
Compliance with standards	CISPR 11 Class B IEC 61000-4-6 IEC 61000-4-3 IEC 61000-4-2 IEC 61000-4-8
Dimensions	70 x 40 x 23 mm
Weight	85 g (incl. Heatsink)
Operating temperature	0 °C 6 to 40 °C
Storage Temperature	-35 to 85 °C
Max. installation altitude	2000 m
Humidity	5-85% rH
Sensors on-board	DC-BUS Voltage, DC-BUS current, Phase Voltage, Phase current (two phases measured, one computed), Temperature

1

Currently not supported by our standard software. Can be developed upon request, please contact sales@synapticon.com

2

All Analog Inputs can be configured as single-ended 0-5 V, 0-10 V, 0-20 V or differential ±5 V, ±10 V independently. Upon request only, please contact sales@synapticon.com

3(1,2,3,4,5)

Upon Request

4

Two Digital IO can be configured as 5.0 V CMOS logic. Upon request only, please contact sales@synapticon.com

5

Depends on the firmware used. Value given for v4.1

6

The actual lowest temperature is limited by the dew point. This depends on several factors, e.g. the ambient humidity and how quick the drive cools down after operation. Special care must be taken when the servo drive is actively cooled below ambient temperature.