MPR0712DCR12Z02A

DATASHEET MPR0712DCR12Z02A Power Supply Input: -44VDC to -72VDC; Output: +12VDC, 700W; Auxiliary Voltage 12VDC @ 2A The MPR0712DC series provides high efficiency isolated power from the DC input mains. The industry standard PMBus® compliant I2C communications bus offers a full range of control and monitoring capabilities. The SMBAlert signal pin automatically alerts customers of any state change within the power supply. Application • 12VDC distributed power architectures • Network Attached Storage • Mid-End Servers • Storage Area Networks • Blade Servers • Routers/Switches • Network Equipment • Enterprise Networks • Advanced workstations Compliant to RoHS II EU “Directive 2011/65/E • 12VDC secondary Regulation: ± 2.5% (-Z versions) • Hardware recoverable latched 12VDC overvoltage • Compliant to REACH Directive (EC) No 1907/2006 • Auto recoverable overload & over temperature • 2.15” x 9.0” x 1.57” • Firmware adjustable overload set point of 12V output • Efficiency : 94% at 50% load • Operating temperature: -5°C to 50°C • 12VDC Regulation: set point ±0.33%, overall ±1% • Digital status & control: PMBus® serial bus • Turn-On overshoot: within regulation • Conducted EMI: class A with 6dB margin • Active current share on 12V with OR’ing function • Meets EN6100 immunity and transient standards • Remote sense on the 12V main output • Safety: UL, CAN/CSA, IEC, TUV, IEC62368-1 • Hot insertion/removal (hot plug) Features • Page 1 © 2020 ABB. All rights reserved. Technical Specifications Absolute Maximum Ratings Stresses over the absolute maximum ratings can cause permanent damage to the device. These are absolute stress ratings only. Functional operation of the device is not implied at these or any other conditions over those given in the operations sections of the data sheet. Exposure to absolute maximum ratings for extended periods can adversely affect the device reliability. Parameter Input Voltage: Continuous Operating Ambient Temperature Storage Temperature Device Min Max Unit VIN -44 -72 VDC 700W, -44 to-72VDC. De-rating above 48 °C TA -5 50 TSTG -40 85 °C 1000 VDC I/O Isolation voltage (100% factory Hi-Pot tested) 1 1 for reverse model Electrical Specifications Unless otherwise indicated, specifications apply overall operating input voltage, resistive load, and temperature conditions Parameter Operational Range Main Output Turn OFF Main Output Turn ON Hysteresis between turn OFF and turn ON Efficiency (T =25°C, V = 12V) V = -53VDC, exc. fan 100% load 50% load 20% load Maximum Input Current (VO= VO, set, IO=IO, max) VIN=-53VDC Cold Start Inrush Current (between 0 to 200mSec) Startup Time during DC ramp up. Note: Following a “turn off” of the 12V Main output (for any reason whatsoever) the output shall not be allowed to “turn on” again for 1sec (even if all necessary operating conditions are met). Holdup time (Vout≥ 10.8V, Tamb = 25°C, 700W) VIN = -44 VDC to -72VDC Early warning prior to output falling below 10.8VDC Isolation Input/Output Input/Frame Output/Frame 12VDC MAIN OUTPUT Output Power -44 to -72 VDC, Cout 500-4000uF Overall regulation (setpoint, line, load, temperature) Ripple and noise (20MHz bandwidth, 0.1uF ceramic+10uF tantalum connected) Turn-ON overshoot Turn-ON delay Remote ON/OFF delay time Turn-ON rise time (10 – 90% of Vout) Transient response 50% step [10%-50%, 50% - 100%] (dI/dt – 1A/µs, recovery 1ms) Page 2 © 2020 ABB. All rights reserved. Device Min Typ Max Unit VIN V V V -44 -37 -42 -53 -38 -43 5 -72 -39 -44 VDc VDC VDC VDC 92.0 94.0 90.0 IIN 14.7 IIN T T % ADC 25 APEAK 3 Sec 2 1 1000 1000 500 ms 0 VDC VDC VDC Max Unit 700 +2 W % V0 1201 mVP-P V0 V0 T T +3 2 150 80 % sec ms ms +5 %V0 Symbol Min W V0 0 -2 T -5 Typ Technical Specifications Electrical Specifications Parameter Device Min Typ Max Unit Overvoltage protection, latched (recovery by cycling off/on via hardware or PMBus® ) T 13.0 13.8 14.5 Overvoltage protection, latched Output current -44 ≤VIN ≤ -72 V 0 58.3 ADC Current limit, the output shall shutdown when an overcurrent condition is detected. It will auto restart after 1sec; however, if the overcurrent condition is redetected the output will once again shutdown. The output will once again re-start, however if the overcurrent condition persists it will latch of after the fifth unsuccessful attempt. To reset the latch, it will be necessary to toggle the PS_ON_L signal (B4) or recycle the incoming AC source. I0 60 70 ADC Hot Swap Transients I0 -5 +5 % Active current share I0 -5 +5 % of FL STANDBY OUTPUT Parameter Device Min Set point Overall regulation (setpoint, line, load, temperature) VO Ripple and noise (20MHz bandwidth, 0.1uF ceramic+10uF tantalum connected) VO Output current Transient response 50% step [10%-50%, 50% - 100%] (dI/dt – 1A/µs, recovery 500µs) Overvoltage protection, latched Overload protection The output shall shutdown when an overcurrent is detected. It will auto restart after 2sec; however, if the overcurrent is re- detected the output will once again shutdown. This cycle will occur indefinitely while the overcurrent condition Note: Standby output voltage allowed to dip to 10.0V temporarily during fault conditions on the main output (e.g., a short circuit or remote off the main output pins or turn off main and standby with heavy load) Page 3 © 2020 ABB. All rights reserved. Typ Max 12.0 11.7 (see note below) Unit VDC 12.3 VDC 120 0 2 ADC 13 14.5 VDC IO 2.5 ADC Technical Specifications General Specifications Parameter Device Symbol Typ Unit Calculated Reliability Per Telcordia SR-332 M1C1 @40°C Weight 1.67 Lbs EMC Compliance Parameter Criteria Standard Conducted emissions EN55022, FCC Docket 20780 part 15, subpart J Radiated emissions1 EN55022 A Voltage dips ---- criteria A -53Vin, 80% load, Dip 100% Duration 4ms DC Level Test A with 0.15 – 30MHz 30 – 1000MHz Voltage surge EN61000-4-5 1kV Common and differential mode, unit passes criteria A (normal performance) Fast transients EN61000-4-4 Level 3, criteria A 5/50ns, 2kV (common mode) Conducted RF fields EN61000-4-6 Level 3, criteria A 140dBµV, 0.15-80MHz, 80% AM Radiated RF fields EN61000-4-3 Level 3, criteria B 10V/m, 80-1000MHz, 80% AM EN61000-4-2 Level 4, criteria A 8kV contact, 15kV air IEC/EN 61000-4-8 Level 2, criteria B 3A/m Enclosure immunity ESD Magnetic Field Environmental Specifications Parameter Device Min Ambient Inlet Temperature Rating Reverse airflow (air enters rear connector, exhausts at handle). 44-72VDC, 700W. De-rating above 48C (see following chart). TA, Reverse -5 Ambient Temperature Short Term≤96hrs event, and ≤96hrs total/year, which can exceed IPC9592 derating, but OTP and mfgr’s max temp specs must apply reverse airflow. De-rating above 40C allowed. TA, Reverse -10 55 -40 70 Storage Temperature Typ o Operating Altitude Design Requirement without derating at 40 C inlet Acoustic noise (full load) Max Unit oC 3000 57 m dBA Over Temperature Protection (inlet) Auto restart with 4°C hysteresis for recovery (warning issued at 70°C) Humidity Relative humidity, non-condensing Operating, +45C Storage Operational Vibration IPC6592 2.4G Non-Operating Shock 30 Grms Safety Specifications Applicable Standard IEC 62368-1 Audio/video, information and communication technology equipment – Part 1: Safety requirements UL 62368-1 Safety of information technology equipment, including electrical business equipment CAN/CSA-C22.2 No. 62368-1 Audio/video, information and communication technology equipment - Part 1: Safety requirements (BiNational standard, with UL 62368-1) Page 4 © 2020 ABB. All rights reserved. Technical Specifications Output Power Derating versus Ambient Inlet Temperature Feature Specifications Unless otherwise indicated, specifications apply overall operating input voltage, resistive load, and temperature conditions. See Feature Descriptions for additional information. Page 5 © 2020 ABB. All rights reserved. Technical Specifications Status and Control signals Signal Name I/O Description INPUT_OK (DC Source) Output PW_OK (Output OK) Output SMB_ALERT (FAULT/WARNING) Output (Power Output The signal is used to detect the presence (installed) of a PSU by the host system. The signal is connected to PSU logic SGND within the power module. Passive connection to +VSB_Return. A logic low < 0.8VDC Input This signal is pulled up internally to the internal housekeeping supply(within the power supply). The power supply main 12VDC output will be enabled when this signal is pulled low to +VSB_Return. In the low state the signal input shall not source more than 1mA of current. The 12VDC output will be disabled when the input is than 2.4V, or open circuited. Cycling this signal shall clear latched fault conditions. Pulled up internally via 10K to 3.3VDC. A logic high >3.0VDC A logic low < 0.8VDC Input is via CMOS Schmitt trigger buffer. PS_ON PS_KILL Input ADDR (Address Select) Input SCL (Serial Clock) Both SDA (Serial Data) Both V1_SENSE V1SENSE_RTN Input ISHARE BiDirectional Analogue Bus Page 6 © 2020 ABB. All rights reserved. The signal output is driven high when input source is available and within acceptable limits. The output is driven low to indicate loss of input power. Interface Details Pulled up internally via 10K to 3.3VDC. A logic high >3.0VDC A logic low < 0.8VDC Driven low by internal CMOS buffer. Pulled up internally via 10K to 3.3VDC. A logic high >3.0VDC A logic low < 0.8VDC Driven low by internal CMOS buffer. The signal is asserted, driven high, by the power supply to indicate output is valid. If main output failed, then this output will be hi-Z or driven low. The output is driven low to indicate that the Main output is outside of lower limit of regulation (3.0VDC A logic low < 0.8VDC Driven low by internal CMOS buffer. Pulled up internally via 10K to 3.3VDC. A logic high >3.0VDC A logic low < 0.8VDC Input is via CMOS Schmitt trigger buffer DC voltage between the limits of 0 and +3.3VDC. VIL is 0.8V maximum VOL is 0.4V maximum when sinking 3mA VIH is 2.1V minimum A serial data line compatible with PMBus® TPower Systems Management VIL is 0.8V maximum Protocol Part 1 – General Requirements Rev 1.2. VOL is 0.4V maximum when sinking 5mA The signal is provided with a series isolator device to disconnect the internal VIH is 2.1V minimum power supply bus if the power module is unpowered. Remote sense connections intended to be connected at and sense the voltage at the point of load. The voltage sense will interact with the internal module regulation loop to compensate for voltage drops due to connection Compensation for a up to 0.12VDC total resistance between the output connector and the load. If remote sense connection drop (output and return concompensation is not required, then the voltage can be configured for local nections). sense by: 1. V1_SENSE directly connected to power blades 6 to 10 (inclusive) 2. V1_SENSE_RTN directly connected to power blades 1 to 5 (inclusive) The current sharing signal is connected between sharing units (forming an ISHARE bus). It is an input and/or an output (bi-directional analogue bus) as the voltage on the line controls the current share between A power supply will respond to a change in this voltage, but a power supply can also change the voltage depending on the load drawn from it. On a single unit the voltage on the pin (and the common ISHARE bus would read 8.74VDC at 100% load (module capability). For two identical units sharing the same 100% load this would read 4.37VDC for perfect current sharing (i.e. 50% module load capability per unit). Analogue voltage: +10V maximum; 10K to +12V_RTN Technical Specifications Digital Interface Specifications PMBus® Signal Interface Characteristics Parameter Symbol Min Max Unit Input logic high voltage (CLK, DATA) Conditions VIH 0.7VDD 3.6 V Input logic low voltage (CLK, DATA) VIL 0 0.8 V Input high sourced current (CLK, DATA) IIH 0 10 μA Output low sink voltage (CLK, DATA, SMBALERT#) IO=5mA Output low sink current (CLK, DATA, SMBALERT#) VOL IOL Output high open drain leakage current (CLK, DATA, SMBALERT#) PMBus® operating frequency range 0.4 V 5 mA VO=3.6V IOH 0 10 μA Slave Mode FPMB 10 400 kHz 25 ms Measurement System Characteristics Clock stretching tstretch IOUT measurement range Linear IOUT measurement accuracy 25°C VOUT measurement range Linear VOUT measurement accuracy Temp measurement range Linear Temp measurement accuracy1 IIN measurement range Linear IIN measurement accuracy VIN measurement range Linear VIN measurement accuracy PIN measurement range Linear PIN measurement accuracy Fan Speed measurement range IRNG 0 74 A IOUT -3 +3 % of FL VOUT(rng) 0 14 V VOUT(acc) -5 +5 % Temp(rng) 0 125 Temp(acc) -5 +5 C % IIN(rng) 0 31 ADC IIN(acc) -5 +5 % of FL VIN(rng) 0 88 VDC VIN(acc) -5 +5 % of FL PN(rng) 0 1023 W PIN(acc) -5 +5 % of FL Linear Fan Speed measurement accuracy Fan speed control range number 0 30k RPM -10 10 % 0 100 % Visual Indicators (LEDs) Input (Green), Output (Bicolor Green/Amber) Status Indicators LED NAME LED MODE LED STATE/ OPERATION DESCRIPTION Input OK Solid Green Input voltage operating within normal specified range Input OV/UV Warning Blinking Green Input voltage operating in: 1) overvoltage warning, 2) under voltage warning range, or 3) above overvoltage range Input OFF or Fault Off Input voltage operating: 1) below under voltage range, or 2) not present Output Power Good Solid Green Main output & standby output enabled with no power supply warning or fault detected Output Standby Blinking Green Standby output enabled with no power supply warning or fault detected Output Warning Blinking Amber Power supply warning detected as per PMBus® STATUS_X reporting bytes* Output Fault Solid Amber Power supply fault detected as per PMBus® STATUS_X reporting Output OFF Off Input below under voltage range * LED fault/warning operation follows PMBus fault/warning reporting status flags but will not be “sticky” (i.e., if the fault stimulus is removed, even though the actual fault/warning is still showing [still “sticky” and not cleared], the relevant LED will revert to normal (non-fault) operation. Page 7 © 2020 ABB. All rights reserved. Technical Specifications Timing Specifications Turn-on delay & output rise time Time Min (ms) Max (ms) Vsb Rise Time 20 60 V1 Rise Time 20 80 Vsb Power-on Delay - 2000 V1 Power-on Delay - 2000 V1 PS_ON Delay 150 V1 PW_OK Delay 100 300 INPUT_OK Detect 300 1000 The turn-on delay after application of DC input within the operating range shall as defined in the following tables. The output rise times shall be measured from 10% of the nominal outputs to the lower limit of the regulation band as defined in the following tables. Power removal holdup, fall time and signaling Power Removal Timing Min Vsb holdup with remote off 40ms V1 holdup Total - Typ Max 2ms Input fail detect 3ms PW_OK delay off 1ms PW_OK Hold up - 1ms Notes 700W - 700W, 53VDC - 700W - 700W Turn-off (Shutdown by PS_ON) Turn-off Timing Page 8 © 2020 ABB. All rights reserved. Min Max Notes Must be monotonic V1 Fall time - - V1 PS_OFF delay - 6ms PW_OK delay off 1ms Technical Specifications Design Features 9th ACK bit, the exception being the START command. Serial Bus Communications The I²C interface facilitates the monitoring and control of various operating parameters within the unit and transmits these on demand over an industry standard I²C Serial bus. All signals are referenced to ‘SGND’. Pull-up resistors: The clock, data, and SMBAlert lines do not have any internal pull-up resistors inside the rectifier. The customer is responsible for ensuring that the transmission impedance of the communications lines complies with I2C and SMBus standards. Serial Clock (SCL): The clock pulses on this line are generated by the host that initiates communications across the I²C Serial bus. This signal needs to be pulled HI externally through a resistor as necessary to ensure that rise and fall time timing and the maximum sink current complies to the I²C / SMBus specifications. Serial Data (SDA): This line is a bi-directional data line. This signal needs to be pulled HI externally through a resistor as necessary to ensure that rise and fall time timing and the maximum sink current complies to the I²C / SMBus specifications. Digital Feature Descriptions PMBus® compliance: The rectifier is fully compliant to the Power Management Bus (PMBus®) rev1.2 requirements. This Specification can be obtained from www.pmbus.org. ‘Manufacturer Specific’ commands are used to support additional instructions that are not in the PMBus™ specification. All communication over the PMBus interface must support the Packet Error Checking (PEC) scheme. The PMBus master must generate the correct PEC byte for all transactions, and check the PEC byte returned by the rectifier. Non-volatile memory is used to store configuration settings. Not all settings programmed into the device are automatically saved into this non-volatile memory. Only those specifically identified as capable of being stored can be saved. (see the Table of Commands for which command parameters can be saved to non-volatile storage). Non-supported commands: Non supported commands are flagged by setting the appropriate STATUS bit and issuing a SMBAlert to the ‘host’ controller. I²C Bus Lock-Up detection: The device will abort any transaction and drop off the bus if it detects the bus being held low for more than 35ms. Communications speed: Both 100kHz and 400kHz clock rates are supported. The rectifiers default to the 100kHz clock rate. Packet Error Checking (PEC): The rectifier will not respond to commands without the trailing PEC. The integrity of communications is compromised if packet error correction is not employed. There are many functional features, including turning off the main output, that require validation to ensure that the desired command is executed. PEC is a CRC-8 error-checking byte, based on the polynomial C(x) = x8 + x2 + x + 1, in compliance with PMBus™ requirements. The calculation is based in all message bytes, including the originating write address and command bytes preceding read instructions. The PEC is appended to the message by the device that supplied the last byte. SMBAlert: The μC driven SMBAlert signal informs the ‘master/host’ controller that either a STATE or ALARM change has occurred. Normally this signal is HI. The signal will change to its LO level if the rectifier has changed states and the signal will be latched LO until the rectifier receives a ‘clear_faults’ instruction. The signal will be triggered for any state change, including the following conditions: • • • • • • If a non-supported read is requested the rectifier will return 0x00h for data. • Data out-of-range: The rectifier validates data settings and sets the data out-of-range bit and SMBAlert if the data is not within acceptable range. • Master/Slave: The ‘host controller’ is always the MASTER. Rectifiers are always SLAVES. SLAVES cannot initiate communications or toggle the Clock. SLAVES also must respond expeditiously at the command of the MASTER as required by the clock pulses generated by the MASTER. Clock stretching: The ‘slave’ μController inside the rectifier may initiate clock stretching if it is busy and it desires to delay the initiation of any further communications. During the clock stretch the ‘slave’ may keep the clock LO until it is ready to receive further instructions from the host controller. The maximum clock stretch interval is 25ms. The host controller needs to recognize this clock stretching, and refrain from issuing the next clock signal, until the clock line is released, or it needs to delay the next clock pulse beyond the clock stretch interval of the rectifier. Note that clock stretching can only be performed after completion of transmission of the Page 9 © 2020 ABB. All rights reserved. VIN under or over voltage VOUT under or over voltage IOUT over current Over Temperature warning or fault Fan Failure Communication error PEC error Invalid command SMBAlert is asserted during power up to notify the master that a new rectifier has been added to the bus. The rectifier will clear the SMBAlert signal (release the signal to its HI state) upon the following events: • • Receiving a CLEAR_FAULTS command Bias power to the processor is recycled The rectifier will re-assert the Alert line if the internal state of the rectifier has changed, even if that information cannot be reported by the status registers until a clear_faults is issued by the host. If the Alert asserts, the host should respond by issuing a clear_faults to retire the alert line (this action also provides the ability to change the status registers). This action triggers another Alert assertion because the status registers changed states to report the latest state of the rectifier. The host is now able to read the latest reported status register information and issue a clear_faults to retire the Alert signal. Technical Specifications Re-initialization: The I2C code is programmed to re-initialize if no activity is detected on the bus for 5 seconds. Reinitialization is designed to guarantee that the I2C μController does not hang up the bus. Although this rate is longer than the timing requirements specified in the SMBus specification, it had to be extended in order to ensure that a re-initialization would not occur under normal transmission rates. During the few μseconds required to accomplish reinitialization the I2C μController may not recognize a command sent to it. (i.e. a start condition). Read back delay: The rectifier issues the SMBAlert notification as soon as the first state change occurred. During an event a few different states can be transitioned to before the final event occurs. If a read back is implemented rapidly by the host a successive SMBAlert could be triggered by the transitioning state of the rectifier. In order to avoid successive SMBAlert s and read back and also to avoid reading a transitioning state, it is prudent to wait more than 2 seconds after the receipt of a SMBAlert before executing a read back. This delay will ensure that only the final state of the rectifier is captured. Successive read backs: Successive read backs to the rectifier should not be attempted at intervals faster than every one second. This time interval is sufficient for the internal processors to update their data base so that successive reads provide fresh data. 1 S Sr 1 S Slave address Low data byte Wr A Slave Address 1 S Slave address Byte count = N 1 A High data byte 1 A PEC A 1 P Command Code Rd A A 1 A Wr A Data 1 ………. Command Code A Data 2 A Data N Block read format: 1 S Slave address Sr ………. 1 A Wr Slave Address Byte count = N Command Code A Block write format: PMBus® Commands Standard instruction: Up to two bytes of data may follow an instruction depending on the required data content. Analog data is always transmitted as LSB followed by MSB. PEC is mandatory and includes the address and data fields. Wr Block communications: When writing or reading more than two bytes of data at a time BLOCK instruction for WRITE and READ commands are used instead of the Standard Instructions above to write or read any number of bytes greater than two. Global Broadcast: This is a powerful command because it instructs all rectifiers to respond simultaneously. A read instruction should never be accessed globally. The rectifier should issue an ‘invalid command’ state if a ‘read’ is attempted globally. For example, changing the ‘system’ output voltage requires the global broadcast so that all paralleled rectifiers change their output simultaneously. This command can also turn OFF the ‘main’ output or turn ON the ‘main’ output of all rectifiers simultaneously. Unfortunately, this command does have a side effect. Only a single rectifier needs to pull down the ninth acknowledge bit. To be certain that each rectifier responded to the global instruction, a READ instruction should be executed to each rectifier to verify that the command properly executed. The GLOBAL BROADCAST command should only be executed for write instructions to slave devices. Slave address A A Rd Command Code A Data 1 Data N A Data 2 A A NA Linear Data Format: The definition is identical to Part II of the PMBus Specification. All standard PMBus values, except for output voltage related functions, are represented by the linear format described below. Output voltage functions are represented by a 16-bit mantissa. Output voltage has an E=-9 constant exponent. The Linear Data Format is a two-byte value with an 11-bit, two’s complement mantissa and a 5-bit, two’s complement exponent or scaling factor, its format is shown below. The relationship between the Mantissa, Exponent, and Actual Master to Slave Slave to Master SMBUS annotations; S – Start , Wr – Write, Sr – re-Start, Rd – Read, A – Acknowledge, NA – not-acknowledged, P – Stop Bit 7 Data Byte High 6 5 4 3 Exponent (E) 2 1 0 7 Data Byte Low 6 5 4 3 2 Mantissa 1 Value (V) is given by the following equation: Standard READ: Up to two bytes of data may follow a READ request depending on the required data content. Analog data is always transmitted as LSB followed by MSB. PEC is mandatory and includes the address and data fields. Page 10 © 2020 ABB. All rights reserved. V = M * 2E Where: V is the value, M is the 11-bit, two’s complement mantissa, E is the 5-bit, two’s complement exponent 0 Technical Specifications Standard features Supported features that are not readable: The commands below are supported at the described setting, but they cannot be read back through the command set. Status and Alarm registers: The registers are updated with the latest operational state of the rectifier. For example, whether the output is ON or OFF is continuously updated with the latest state of the rectifier. However, alarm information is maintained until a clear_fault command is received from the host. For example, the shutdown or OC_fault bits stay in their alarmed state until the host clears the registers. A clear_faults clears all registers. If a fault persists after the clear_faults is commanded, the register bit annunciating the fault is reset again. Command Comments ON_OFF_CONFIG (0x02) Both the CNTL pin, and the OPERATION command, enabling or disabling the output, are supported. Other options are not supported. 400KHz, ALERT# 1.2 Capability (0x19) PMBus revision (0x98) PMBus® Addressing Hardware setting: The signal pin, ADDR(A3) configure the address of the power supply. Note that the ground reference for addressing is Signal Ground (SGND). Internally each power supply has a 10kΩ pull up resistor between the ADDR pin and 3.3V. The resistance between the ADDR pin and SGND shall determine the values for A2-A0. The nominal resistor and corresponding voltage value for each position is tabulated below. Address ADDR PIN (A3) resistor to GND (K-ohm) Nominal voltage(V) A2 A1 A0 0.82 2.7 5.6 8.2 15 27 56 180 0.25 0.70 1.18 1.48 1.98 2.41 2.80 3.12 0 0 0 0 1 1 1 1 0 0 1 1 0 0 1 1 0 1 0 1 0 1 0 1 Firmware setting: Device Address µP Broadcast EEprom B0 – BF Address Bit Assignments (Most to Least Significant) 3 2 1 1 A2 A1 A0 0 0 A2 A1 A0 A0 – AF MSB PMBus® Command set: Command Operation Clear_Faults Write _Protect Page 11 © 2020 ABB. All rights reserved. Hex Code 0x01 0x03 0x10 Yes/80 0 R/W R/W LSB Restore_default_all Restore_user_all 0x12 0x16 Store_user_code Restore_user_code Vout_mode Vin_ON Vin_OFF Fan_config_1_2 Fan_command_1 Vout_OV_fault_limit Vout_OV_fault_response Vout_OV_warn_limit Vout_UV_warn_limit Vout_UV_fault_limit Vout_UV_fault_response Iout_OC_fault_limit Iout_OC_fault_response Iout_OC_LV_fault_limit Iout_OC_warn_limit OT_fault_limit OT_fault_response OT_warn_limit Vin_OV_fault_limit Vin_OV_fault_response Vin_OV_warn_limit Vin_UV_warn_limit Vin_UV_fault_limit Vin_UV_fault_response Status_byte Status_word (+ byte) Status_Vout Status_Iout Status_Input Status_temperature Status_CML Status_fans_1_2 Read_Vin Read_Iin Read_Vout Read_Iout Read_temp_primary Read_temp_oring Read_temp_sr Read_fan_speed_1 Read_Pin Mfr_ID Mfr_model Mfr_revision Mfr_serial Read_firmware_rev Read_run_timer Read_ temp_inlet 0x17 0x18 0x20 0x35 0x36 0x3A 0x3B 0x40 0x41 0x42 0x43 0x44 0x45 0x46 0x47 0x48 0x4A 0x4F 0x50 0x51 0x55 0x56 0x57 0x58 0x59 0x5A 0x78 0x79 0x7A 0x7B 0x7C 0x7D 0x7E 0x81 0x88 0x89 0x8B 0x8C 0x8D 0x8E 0x8F 0x90 0x97 0x99 0x9A 0x9B 0x9E 0xD5 0xD6 0xDB Reserved for factory use Reserved for factory use Reserved for factory use 0XDC 0XDD 0XDE Yes No / 43 No / 38 Yes / 90 Yes / 14.0 No / 80 Yes / 13.5 Yes / 10.8 Yes / 10.0 No / C0 Yes / 66 No / F8 Yes / 7.0 Yes / 62.0 Yes / 130 Yes / C0 Yes / 120 No / 76 No / C0 Yes / 74 Yes / 40 No / 38 No / C0 16 16 Technical Specifications Command Descriptions and is returned by this command. Operation (0x01): Turns the 12V output ON or OFF. The default state is ON at power up. Only the following data bytes are supported: Vin_ON (0x35): This is a ‘read only’ register that informs the controller at what input voltage level the rectifier turns ON. The default value is tabulated in the data section. FUNCTION Unit ON Unit OFF DATA BYTE Vin_OFF (0x36): This is a ‘read only’ register that informs the controller at what input voltage level the rectifier turns OFF. The default value is tabulated in the data section. To RESET the rectifier using this command, command the rectifier OFF, wait at least 2 seconds, and then command the rectifier back ON. All alarms and shutdowns are cleared during a restart. Clear_faults (0x03): Clears all STATUS and FAULT registers and resets the Alert# line of the I2C side in control. The I2C side not in control cannot clear registers in the power supply. This command is always executable. If a fault persists after the issuance of the clear_faults command, the specific registers indicating the fault first clears have their parameters read, regardless of the write_protect settings. The contents of this register cannot be stored into non-volatile memory using the Store_user_code may command. The but then get set again to indicate that the unit is still in the fault state. WRITE_PROTECT register (0x10): Used to control writing to the PMBus device. The intent of this command is to provide protection against accidental changes. All supported commands default setting of this register is enable_all_writes, write_protect 0x00h. The write_protect command must always be accepted. DATA BYTE Enable all writes Disable all writes except write_protect Disable all writes except write_protect and OPERATION Restore_Default_All (0x12): Restores all operating register values and responses to the factory default parameters set in the rectifier. The factory default cannot be changed. Fan_config_1_2 (0x3A): This command requires that the fan speed be commanded by duty cycle. Both fans must be commanded simultaneously. The tachometer pulses per revolution is not used. Default is duty cycle control. Fan_command_1 (0x3B): This command instructs the rectifier to increase the speed of both fans. The transmitted data byte represents the hex equivalent of duty cycle in percentage, i.e. 100% = 0 x 64h. The command can only increase fan speed, it cannot instruct the rectifier to reduce the fan speed below what the rectifier requires for internal control. An incorrect value will result in a ‘data error’. Sending 00h tells the rectifier to revert back to its internal control. Vout_OV_fault_limit (0x40): Sets the value at which the main output voltage will shut down. The default OV_fault value is set at 14.0Vdc. This level can be permanently changed and stored in non-volatile memory. Vout_OV_fault_response (0x41): This is a ‘read only’ register. The only allowable state is a latched. Vout_OV_warn_limit (0x42): Sets the value at which a warning will be issued that the output voltage is too high. The default OV_warn limit is set at 13.5Vdc. Exceeding the warning value will set the Alert# signal. This level can be permanently changed and stored in non-volatile memory. Vout_UV_warn_limit (0x43): Sets the value at which a warning will be issued that the output voltage is too low. The default UV_warning limit is set at 10.8Vdc. Reduction below the warning value will set the Alert# signal. This level can be permanently changed and stored in non-volatile memory. Restore_default_code (0x14): Restore only a specific register parameter into the operating register section of the rectifier. Vout_UV_fault_limit (0x44): Sets the value at which the rectifier will shut down if the output gets below this level. The default UV_fault limit is set at 10Vdc. This register is masked if the UV is caused by interruption of the input voltage to the rectifier. This level can be permanently changed and stored in non-volatile memory. Store_user_code (0x17): Changes the user default setting of a single register. In this fashion some protection is offered to Vout_UV_fault_response (0x45): This is a ‘read only’ register. The only allowable state is restart. ensure that only those registers that are desired to be changed are in fact changed. Iout_OC_fault_limit (0x46): Sets the value at which the rectifier will shut down at High/Low Line. This level can be permanently changed and stored in non-volatile memory. Restore_user_code (0x18): Restores the user default setting of a single register. Vout_mode (0x20): This is a ‘read only’ register. The upper three bits specify the supported data format, in this case Linear mode. The lower five bits specify the exponent of the data in two’s complement binary format for output voltage related commands, such as Vout_command. These commands have a 16 bit mantissa. The exponent is fixed by the rectifier Mode Linear Bits [7:5] Page 12 © 2020 ABB. All rights reserved. Bits [4:0] (Parameter) Iout_OC_fault_response (0x47): This is a ‘read only’ register. The only allowable state is restart. Iout_OC_warn_limit (0x4A): Sets the value at which the rectifier issues a warning that the output current is getting too close to the shutdown level at high/low line. This level can be permanently changed and stored in nonvolatile memory. OT_fault_limit (0x4F): Sets the value at which the rectifier responds to an OT event, sensed by the hottest sensor. The response is defined by the OT_fault_response register. Technical Specifications OT_fault_response (0x50): Sets the response if the output overtemperature exceeds the OT_Fault_limit value. The default OT_fault_response is hiccup (0xC0). The only two allowable states are latched (0x80) or hiccup. The default response state can be permanently changed and stored in non-volatile memory. STATUS_VOUT (0X7A): Returns one byte of information of output voltage related faults. OT_warn_limit (0x51): Sets the value at which the rectifier issues a warning when the hottest temperature sensor exceeds the warn limit. Vin_OV_fault_limit (0x55): Sets the value at which the rectifier shuts down because the input voltage exceeds the allowable operational limit. The default Vin_OV_fault_limit is set at 76Vdc. This level can be permanently lowered and stored in non- volatile memory. STATUS_IOUT (0X7B): Returns one byte of information of output current related faults. The OC Fault limit sets where current limit is set. The rectifier shuts down below the LV fault limit setting. Vin_OV_fault_response (0x56): This is a ‘read only’ register. The only allowable state is restart. Vin_OV_warn_limit (0x57): Sets the value at which a warning will be issued that the input voltage is too high. The default OV_warn_limit is 74Vdc. This level can be permanently changed and stored in non-volatile memory. Vin_UV_warn_limit (0x58): This is another warning flag indicating that the input voltage is decreasing dangerously close to the low input voltage shutdown level. The default UV_fault_limit is 40Vdc. This level can be permanently raised, but not lowered, and stored in non-volatile memory. STATUS_INPUT (0X7C): Returns one byte of information of input voltage related faults. Vin_UV_fault_limit (0x59): Sets the value at which the rectifier shuts down because the input voltage falls below the allowable operational limit. The default Vin_UV_fault_limit is set at 38Vdc. This level can be permanently raised and stored in non-volatile memory. Vin_UV_fault_response (0x5A): This is a ‘read only’ register. The only allowable state is restart. STATUS_BYTE (0x78): Returns one byte of information with a summary of the most critical device faults. STATUS_TEMPERATURE (0x7D): Returns one byte of information of temperature related faults. STATUS_CML (0X7E): Returns one byte of information of communication related faults. TATUS_WORD (0x79): Returns status_byte as the low byte and the following high_byte. STATUS_fans_1_2 (0X81): Returns one byte of information of fan status. Page 13 © 2020 ABB. All rights reserved. Technical Specifications Read back Descriptions Single parameter read back: Functions can be read back one at a time using the read_word_protocol with PEC. A command is first sent out notifying the slave what function is to be read back followed by the data transfer. Analog data is always transmitted LSB followed by MSB. A NA following the PEC byte signifies that the transmission is complete and is being terminated by the ‘host’. Slave address Wr Command Code Read data field sends back in hex format the number of data bytes, exclusive of the PEC number, that follows. Analog data is always transmitted LSB followed by MSB. A No-ack following the PEC byte signifies that the transmission is complete and is being terminated by the ‘host’. Read_firmware_rev [0xD5]: Reads back the firmware revision of all three µC in the rectifier. Slave address Sr Sr Slave address Wr Command Code 0xDD Slave Address Rd Primary minor rev 1 A Secondary minor rev 1 A Primary major rev MSB A PEC No-Ack P i2c major rev Read_fan_speed 1 (0x90): Reading the fan speed is in Linear Mode returning the RPM value of the fan. Read_FRU_ID (0x99, 0x9A, 0x9B, 0x9E): Returns FRU information. Must be executed one register at a time. Slave address Wr Command 0x9x 1 A Secondary major rev Read back error: If the µC does not have sufficient time to retrieve the requested data, it has the option to return all FF’s instead of incorrect data. 1 A i2c revision Slave address Byte_1 A Byte Rd A A Byte_x Byte count = x A PEC No-Ack Slave address A 1 P Mfr_ID (0x99): Manufacturer in ASCII – 6 characters maximum, General Electric – Critical Power represented as, GE-CP Mfr_ID (0x9A): Manufacturer model-number in ASCII – 16 characters, for this unit: MPR0712DCxxxxxx 1 1 A PEC No-ack P Read_run_timer [0xD6]: This command reads back the recorded operational ON state of the rectifier in hours. The operational ON state is accumulated from the time the rectifier is initially programmed at the factory. The rectifier is in the operational ON state both when in standby and when it delivers main output power. Recorded capacity is approximately 10 years of operational state. 1 Sr Byte Count = 6 Rd Sr Wr Slave Address Time - LSB PEC A No-ack Rd Time 1 A Command Code 0xDE A Byte count = 3 A A A Time - MSB A 1 P Mfr_revision (0x9B): Total 7 bytes, provides the product series number when the product was manufactured. General performance descriptions Mfr_serial (0x9E): Product serial number includes the manufacturing date, manufacturing location in up to 16 characters. For example: Default state: Rectifiers are programmed in the default state to automatically restart after a shutdown has occurred. The default state can be reconfigured by changing non-volatile memory (Store_user_code). 13KZ51018193xxx, is decoded as; 13 – year of manufacture, 2013 Restart after a latchoff: PMBus™ fault_response commands can be configured to direct the rectifier to remain latched off for over_voltage, over_temperature and over_current. KZ – manufacturing location, in this case Matamoros To restart after a latch off either of five restart mechanisms are available. 51 – week of manufacture 1. The hardware pin ON/OFF may be cycled OFF and then ON. 018193xxx – serial #, mfr choice 2. The unit may be commanded to restart via i2c through the Operation command by cycling the output OFF followed by ON. Manufacturer-Specific PMBus® Commands 3. Remove and reinsert the unit. Many of the manufacturer-specific commands read back more than two bytes. If more than two bytes of data are returned, the standard SMBus® Block read is utilized. In this process, the Master issues a Write command followed by the data transfer from the rectifier. The first byte of the Block Page 14 © 2020 ABB. All rights reserved. 4. Turn OFF and then turn ON AC power to the unit. 5. Changing firmware from latch off to restart. Each of these commands must keep the rectifier in the OFF state for at least 2 seconds, except for changing to restart. Technical Specifications A power system that is comprised of a number of rectifiers could have difficulty restarting after a shutdown event because of the non-synchronized behavior of the individual rectifiers. Implementing the latch-off mechanism permits a synchronized restart that guarantees the simultaneous restart of the entire system. A synchronous restart can be implemented by; 1. Issuing a GLOBAL OFF and then ON command to all rectifiers, 2. Toggling Off and then ON the ON/OFF (ENABLE) signal 3. Removing and reapplying input commercial power to the entire system. The rectifiers should be turned OFF for at least 20 – 30 seconds in order to discharge all internal bias supplies and reset the soft start circuitry of the individual rectifiers. Auto_restart: Auto-restart is the default configuration for over-current and over-temperature shutdowns. These features are configured by the PMBus® fault_response commands Wiring diagram for output CURRENT SHARING NOTS Main current sharing is achieved using active current share method details. Current sharing can be achieved with or without the remote sense (V_SENSE) connected to the common load. +VSB outputs can be tied together for redundancy but total combined output power must not exceed the related standby power. The +VSB output has an internal ORING MOSFEET for additional redundancy/internal short protection. The current sharing pin B5 is connected between sharing units (from an ISHARE bus). It is an input and/or an output (bi-directional analogue bus) as the voltage on the line controls the current share between sharing units. A power supply will respond to a change in this voltage but a power supply can also change the voltage depending on the load drawn from it. On a single unit, the voltage on the pin (and the common IHSARE bus would read 8.74VDC at 100% load. For two units sharing the same load this would read 4.37VDC for perfect current sharing (i.e. 50% load per unit). The load for both the main 12V and VSB rails at the initial startup shall not be allowed to exceed the capability of a single unit. The load can be increased after a delay of 3sec (minimum), to allow all sharing units to achieve steady regulation. Page 15 © 2020 ABB. All rights reserved. Technical Specifications Mechanical Outline Connector Pin Assignments Input Connector: Terminal Block Dinkle DT-7C-B14W-02; mating connector: Ring Terminal suitable for M4, OD: 8MM Output Connector: MiniPAK HDL, 25s10p, RA Plug TE CONNECTIVITY 1926736-3 Mating connector: TE Connectivity 1926736-5 Function 6,7,8,9,10 1,2,3,4,5 +12V_OUT +12V_RTN Function +12V Main Output +12V Main Output Return Standby Output Standby Output Standby Output I2C Serial Data Line PS_ON_L Remote Sense Return (-VE) Remote Sense (+VE) I2C Serial Clock Line Remote On/Off (Enable/Disable) Standby Output SMB_ALERT Alert signal to host system +VSB_Return/SGND +VSB_Return/SGND Unused Unused Unused Address Standby Output Standby Output Return / Signal Ground Standby Output Return / Signal Ground No End User Connection No End User Connection No End User Connection Address Unused Input_OK PS_KILL ISHARE PW_OK Unused PRESENT_L No End User Connection Input Source Present & "OK" Power Supply "kill"; short pin Current Share bus; short pin Power “OK"; short pin No End User Connection Power Module Present; short pin Unused No End User Connection Page 16 © 2020 ABB. All rights reserved. V1_SENSE_R V1_SENSE Technical Specifications Ordering Information Please contact your ABB Sales Representative for pricing, availability and optional features. PRODUCT OUTPUT STANDBY AIRFLOW ORDERING PART NUMBER MPR0712DCR12Z02A 700W, +12Vout DC Input front-end with 12Vsbaux 12V @2A Reverse (Back to Front) MPR0712DCR12Z02A Page 17 © 2020 ABB. All rights reserved. ABB 601 Shiloh Rd. Plano, TX USA Go.ABB/Industrial We reserve the right to make technical changes or modify the contents of this document without prior notice. With regard to purchase orders, the agreed particulars shall prevail. ABB does not ac-cept any responsibility whatsoever for potential errors or possible lack of information in this document. We reserve all rights in this document and in the subject matter and illustrations contained therein. Any reproduction, disclosure to third parties or utilization of its contents – in whole or in parts – is forbidden without prior written consent of ABB. Copyright© 2020 ABB All rights reserved Page 18 © 2020 ABB. All rights reserved.