ZSPM1025A/ZSPM1035A

Application Note
Rev. 1.00/ October 2013
ZSPM1025A/ZSPM1035A
Programming and Calibration
Smart Power Management ICs
Power and Precision
ZSPM1025A/ZSPM1035A
Programming and Calibration
Contents
1
Introduction ....................................................................................................................................................... 3
2
Basic Access to OTP Data ............................................................................................................................... 3
3
2.1.1.
Read Procedure .................................................................................................................................. 3
2.1.2.
Write Procedure .................................................................................................................................. 3
2.1.3.
Simple Tests ....................................................................................................................................... 4
Configuration Programming ............................................................................................................................. 4
3.1.
4
5
6
Format of the ROM File ............................................................................................................................. 4
External Temperature Calibration .................................................................................................................... 5
4.1.
Requirements ............................................................................................................................................ 5
4.2.
Calibration Procedure ................................................................................................................................ 5
4.3.
Correction Procedure for Ambient Temperatures Other than 25°C .......................................................... 6
4.4.
Calculation Examples for Ambient Temperatures Other than 25°C .......................................................... 6
4.5.
Additional Information for Temperature Calibration .................................................................................. 6
Current Calibration Procedure.......................................................................................................................... 7
5.1.
Requirements ............................................................................................................................................ 7
5.2.
Calibration Procedure ................................................................................................................................ 7
5.3.
Computation of Current Sense Correction Factors ................................................................................... 8
5.4.
DCR Temperature Correction during Calibration ...................................................................................... 8
5.5.
Calculation Examples ................................................................................................................................ 9
PMBus™ Command Reference ..................................................................................................................... 11
6.1.
Overview about PMBus™ Commands .................................................................................................... 11
6.2.
PMBus™ Command Definitions .............................................................................................................. 11
6.2.1.
READ_IOUT ...................................................................................................................................... 11
6.2.2.
READ_TEMPERATURE_1 ............................................................................................................... 11
6.2.3.
READ_TEMPERATURE_2 ............................................................................................................... 11
6.2.4.
MFR_ADDRESS_POINTER ............................................................................................................. 12
6.2.5.
MFR_OTP_READ_DATA ................................................................................................................. 12
6.2.6.
MFR_OTP_WRITE_DATA ................................................................................................................ 12
6.2.7.
MFR_OTP_STATUS ......................................................................................................................... 12
6.2.8.
MFR_REVISION ............................................................................................................................... 12
7
Related Documents ........................................................................................................................................ 13
8
Document Revision History ............................................................................................................................ 13
For more information, contact ZMDI via [email protected].
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
2 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
1
Introduction
The ZSPM10X5A (ZSPM1025A / ZSPM1035A) is delivered without configuration or calibration, so the devices
must be programmed prior to the first use. This is typically done using a programming fixture prior to soldering the
components on the circuit board or during the end-of-line testing and calibration steps. Note that the devices will
not power up their output voltage or react to the OPERATION command until the configuration has been written.
This prevents any damage to the application caused by invalid configuration parameters.
The configuration is stored in a one-time-programmable memory (OTP) integrated in the ZSPM10x5A. Note that
the ZSPM10x5A is only programmable once. Two different sets of parameters must be programmed: one for
configuration and another for calibration. Configuration parameters are constant over all devices for a given
application and can be programmed at any time during production. This includes parameters such as switching
frequency and compensation.
Calibration data is specific to the ZSPM10X5A/board and must be programmed for each individual unit. It includes
coefficients such as current sense offset, gain correction factors, and temperature offset correction. This application note details the end-of-line calibration functions of the ZSPM10x5A. The ZSPM10x5A supports calibration of
the external temperature sense element and the current sense circuitry.
Refer to section 6 and also to the data sheet for the ZSPM1025 or ZSPM1035A regarding PMBus™ commands
referenced in this document. Refer to the Pink Power Designer™ Graphic User Interface (GUI) if using the Pink
Power Designer™ Graphical User Interface (GUI) to expedite configuration and calibration of the ZSPM10x5A.
2
Basic Access to OTP Data
As with the configuration data, calibration data is stored in the OTP of the ZSPM10x5A. Two basic subroutines
allow access to the OTP.
2.1.1.
Read Procedure
OTP data can be read from the device at any time during operation using the following steps:
1.) Set the OTP address pointer using the MFR_ADDRESS_POINTER command.
2.) Read the data using an MFR_OTP_READ_DATA command.
2.1.2.
Write Procedure
OTP data can be written into the device using the following steps:
1.) Clear the OTP status register by writing 00000104HEX using the MFR_OTP_STATUS command.
2.) Set the OTP address pointer using the MFR_ADDRESS_POINTER command.
3.) Write OTP data using the MFR_OTP_WRITE_DATA command.
4.) Finally check the OTP status to determine if the programming has been successful; i.e., read
MFR_OTP_STATUS and check if bit 2 is zero.
Steps 2 and 3 can be repeated in a loop in order to write more than one data word. The status information is then
accumulated over all write operations. Interrupting read operations, e.g. to verify the data, will not clear the status
information.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
3 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
2.1.3.
Simple Tests
The OTP procedure can be tested using OTP cell E4DHEX. Unconfigured parts should return 0004HEX.
The OTP programming procedure can be tested using OTP spare cells at the end of the OTP configuration table.
Table 2.1 provides the addresses.
Table 2.1
3
OTP Spare Cells per Device
Device Name
Address Range for Spare Cells
ZSPM10x5A
EF8HEX to EFEHEX
Configuration Programming
Programming the configuration is the first step in production, prior to running any calibration routines. The Pink
Power Designer™ GUI can be used to generate the configuration and store it in a ROM file. This is a plain text file
that contains address and data values as detailed below. The contents of this ROM file can be downloaded into
the part using the OTP write procedures detailed above or by using the Power Designer™ GUI.
Note that the configuration data is activated in the device only after a power cycle.
The configuration table’s address range is given in Table 3.1. Recommendation: program the OTP starting from
the highest address.
Table 3.1
OTP Configuration Table per Device
Device Name
Address Range for Configuration
ZSPM10x5A
E4DHEX to EF7HEX
The comment header of the ROM file contains information about the part for which it has been created.
Recommendation: Compare the firmware (FW) version of the part to the FW version information stored in the
ROM file to ensure proper operation. The FW version can be read using the MFR_REVISION command (see sections 6.1 and 6.2.8).
3.1.
Format of the ROM File
The configuration of the device is available in a ROM file format and can be used to program the device in
production. The file format of this ROM file is defined as follows:
Comment lines start with // and should be ignored.
Data lines are defined as
@[OTP ADDRESS] ˽ ˽ [OTP DATA]
where OTP_ADDRESS represents the address of the OTP cell and OTP_DATA its contents. Both values are
stored as a 16-bit word in hexadecimal format and must be separated by two spaces in the ROM file.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
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ZSPM1025A/ZSPM1035A
Programming and Calibration
Example of an excerpt from a ROM file:
//
// Firmware version: "1.1.1" [MFR_REVISION=0x31313131]
//
@0E4D˽˽0027
@0E4E˽˽0018
@0E4D˽˽0007
@0E4E˽˽0018
@0E4F˽˽2662
@0E50˽˽0000
4
External Temperature Calibration
External temperature sensors vary in forward voltage, which requires a calibration of the 25°C reference voltage.
4.1.




4.2.
Requirements
The device must be configured using OTP.
The external sense element must be connected to the ZSPM10x5A.
The actual ambient temperature must be known.
The device must not have been temperature calibrated before; i.e., the OTP cell EEDHEX is empty.
Calibration Procedure
The actual calibration procedure is simple.
1.) Read the actual measurement value from the device using the READ_TEMPERATURE_1 command.
2.) Optional: Apply a correction procedure in case the ambient temperature is not 25°C (see section 4.3).
3.) Write the temperature offset value into OTP cell EEDHEX using the OTP data write procedure.
4.) Optional: Verify the procedure by reading via the READ_TEMPERATURE_1 command. This should now
return the ambient temperature in degrees Celsius.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
5 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
4.3.
Correction Procedure for Ambient Temperatures Other than 25°C
The temperature sense offset value required by the device is designed for 25°C; therefore, if calibration is run at a
different ambient temperature, the offset value read during step 1 of the calibration procedure must to be
corrected prior to step 3 above.
This can be done by applying the following equation:
EXT_TEMP_REF_COR = EXT_TEMP_REF + (TEMP_AMBIENT- 25) / EXT_TEMP_SENSE
Where
EXT_TEMP_REF_COR is the corrected offset.
EXT_TEMP_REF is the offset value read from the device at the ambient temperature.
TEMP_AMBIENT is the ambient temperature value.
EXT_TEMP_SENSE is the sensitivity of the external temperature sensor as read from the device.
EXT_TEMP_SENSE can be calculated from the content of OTP cell EEEHEX using the following equation:
EXT_TEMP_SENSE = (65536 - OTP[EEEHEX]) / 2048.
4.4.
Calculation Examples for Ambient Temperatures Other than 25°C
Setup 1: Ambient temperature correction is used.
Assume that the ambient temperature is 40°C; READ_TEMPERATURE_1 returns a value of 849DEC; and
the OTP cell EEEHEX contains a value of FD71HEX.
Calculate the corrected temperature offset:
EXT_TEMP_REF_COR = 849 + (40 – 25) / ((65536 – 64881)/2048) = 895 = 037FHEX
Write the results 037FHEX into OTP cell EEDHEX.
Now use READ_TEMPERATURE_1 to verify the calibration. If the procedure was the successful, the result
of the read will be 40°C, which is the temperature used for calibration.
Setup 2: Ambient temperature correction is NOT used.
Assume that the ambient temperature is 40°C and READ_TEMPERATURE_1 returns a value of 849DEC.
As the ambient temperature connection is not used, write 849DEC into OTP cell EEEHEX.
Verifying the results via READ_TEMPERATURE_1 returns a value of 25°C even though the actual
temperature is 40°C. This is expected as the part has been set up to accept the value of 40°C as its 25°C
reference.
4.5.
Additional Information for Temperature Calibration
Note that the absolute value of the temperature is only important for the monitoring the temperature. Temperature
correction of the DCR could run from any temperature code, as long the current calibration procedure has been
performed for the same temperature.
If the ambient temperature is unknown, the internal temperature sensor can be used as a reference for calibration.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
6 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
5
Current Calibration Procedure
In order to improve the accuracy of the current sense circuitry of the device, a two-point current calibration procedure is recommended. This will calibrate the offset and gain error of the current sense circuitry and improve performance considerably.
5.1.
Requirements
 The device must be configured using OTP.
 The external temperature sense element must have been calibrated if DCR temperature compensation is
used with the external temperature sensor.
 The device has not been current calibrated before; i.e., OTP cells E52HEX and E53HEX are empty.
 The user must be able to draw two known currents from the power converter; e.g., an electronic load has
been connected to the output voltage.
5.2.
Calibration Procedure
1.) The over-current protection of the device must be disabled so that the calibration currents do not trigger
an over-current event. This is done by sending the following PMBus™ command sequence:
Table 5.1
Command Sequence for Disabling Over-Current Protection
CMD Code
Data Bytes
(lowest byte first)
F9HEX
01HEX, 00HEX
Write word
F8HEX
80HEX, 3eHEX
Write word
FAHEX
00HEX, 00HEX
Write word
Transaction Type
2.) Apply a known load current IOUT1.
3.) Measure the output current reported from the device using the READ_IOUT command (IOUT1_MEAS in
section 5.3).
Optional: Measure the temperature for IOUT1 using the READ_TEMPERATURE_x command.
4.) Apply a known load current IOUT2.
5.) Measure the output current reported from the device using the READ_IOUT command (I OUT2_MEAS in
section 5.3).
Optional: Measure the temperature for IOUT2 using the READ_TEMPERATURE_x command.
6.) Optional: Enable the over-current protection again.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
7 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
Table 5.2
Command Sequence for Re-enabling Over-Current Protection
Data Bytes
(lowest byte first)
CMD Code
Transaction Type
F9HEX
01HEX, 00HEX
Write word
F8HEX
80HEX, 3eHEX
Write word
FAHEX
80HEX, 00HEX
Write word
7.) Compute the gain and offset correction factors according to the equations listed in the next section.
8.) Write gain and offset correction factors in the ZSPM10x5A. The gain factor is written into OTP cell
E52HEX; the offset value is written into OTP cell E53HEX.
5.3.
Computation of Current Sense Correction Factors
The gain and offset correction factors can be computed from the nominal and measured current values using the
following equations:
Gain correction factor: IOUT_CAL_GAIN_CORR = (IOUT2 - IOUT1) / (IOUT2_MEAS - IOUT1_MEAS)
Offset correction factor: IOUT_CAL_OFFSET = IOUT1 - (IOUT1_MEAS * ICOUT_CAL_GAIN_CORR)
Both values must be scaled prior to writing them into their respective OTP cells:
IOUT_CAL_GAIN_CORR_OTP = IOUT_CAL_GAIN_CORR * 128
IOUT_CAL_OFFSET_OTP = IOUT_CAL_OFFSET * IOUT_READ_FACTOR
IOUT_READ_FACTOR can be calculated from the content of OTP cell EF1HEX using the following equation:
IOUT_READ_FACTOR = OTP[EF1HEX] / 32.
Prior to writing the values into the OTP, the calibration values should be checked for correctness, as the values
are constrained by the following limits:
Table 5.3
Limits for Calibration Values
Value
IOUT_CAL_GAIN_CORR_OTP
IOUT_CAL_OFFSET_OTP
5.4.
Data Format
Lower Limit
Upper Limit
Unsigned Q1.7
0.5 (0040HEX)
1.5 (00C0HEX)
Signed Q0.7, 16-bit signed extended
-0.75 (FFA0HEX)
0.75 (0060HEX)
DCR Temperature Correction during Calibration
If output current sensing is required with high accuracy or the temperature during calibration is significantly higher
than 25°C, a correction of the DCR temperature rise is recommended during calibration. This is due to the fact
that gain and offset of the current sense circuitry are defined for 25°C.
This temperature correction can be easily done by scaling the measured currents with the DCR temperature
correction values.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
8 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
The current information read with the READ_IOUT command is converted into the temperature-corrected current
IOUT_TC_COR using
IOUT_TC_COR = READ_IOUT / (1.0 + TC_DCR * (T - 25))
Where
TC_DCR is the temperature coefficient of the DCR.
T is the actual temperature during the measurement of the output current.
The temperature corrected currents are then substituted into the equations in section 5.3 instead of the actual
uncorrected readings.
Recommendation: Read the temperature of the sensor configured for the DCR temperature correction algorithm
in the device; i.e., READ_TEMPERATURE_1 if the external sensor is used and READ_TEMPERATURE_2 if the
internal sensor is used.
The temperature coefficient of the DCR is set to 3900ppm/°C by default. Alternatively, it can be extracted from the
device using the following equations:
If the external temperature sensor is used: TC_DCR = OTP[EF2HEX] / 16.0 / OTP[EEEHEX]
If the internal temperature sensor is used: TC_DCR = OTP[EF2HEX] / 16.0 / OTP[E47HEX]
Note that the OTP cells EF2HEX, EEEHEX and E47HEX are all in 16-bit signed data format.
5.5.
Calculation Examples
Scenario 1:
Assume this is a calibration of a power converter with a nominal current of IOUT1 = 5.0A and IOUT2 = 25A; the
OTP[EF1HEX] = 19BHEX; and IOUT1_MEAS has been measured as 2.8A and IOUT2_MEAS as 19.7A.
Calculate the correction coefficients:
IOUT_CAL_GAIN_CORR = (25.0 – 5.0) / (19.7 – 2.8) = 1.18
IOUT_CAL_OFFSET = 5 – (2.8 * 1.18) = 1.70.
Convert this into OTP format as follows:
IOUT_CAL_GAIN_CORR_OTP = 1.18 * 128 = 151 = 0097HEX
IOUT_CAL_OFFSET_OTP = 1.70 * (411 / 32) = 22 = 0016HEX
Both values lie within the allowed limits of the ZSPM10x5A and hence can be written into the IC.
Scenario 2:
Assume this is a calibration of a power converter with nominal current of IOUT1 = 5.0A and IOUT2 = 15A; the
OTP[EF1HEX] = 19BHEX; and IOUT1_MEAS has been measured as 4.79 A and IOUT2_MEAS as 13.66 A.
Calculate the correction coefficients:
IOUT_CAL_GAIN_CORR = (15.0 – 5.0) / (13.66 – 4.79) = 1.128
IOUT_CAL_OFFSET = 5 – (4.79 * 1.128) = -0.402.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
9 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
Convert this into OTP format as follows:
IOUT_CAL_GAIN_CORR_OTP = 1.128 * 128 = 144 = 0090HEX
IOUT_CAL_OFFSET_OTP = -0.402 * (411 / 32) = -5 = FFFBHEX
Both values lie within the allowed limits of the ZSPM10x5A and hence can be written into the IC.
Scenario 3:
Assume this is a calibration of a power converter with nominal current of IOUT1 = 5.0A and IOUT2 = 20A;
IOUT1_MEAS has been measured as 4.96 A at 31.0°C and IOUT2_MEAS as 18.24 A at 31.0°C. The OTP contains
these values: OTP[EEEHEX] = FD70HEX, OTP[EF1HEX] = 019BHEX and OTP[EF2HEX] = FFD2HEX. The external
temperature sensor is used for DCR compensation.
The DCR temperature coefficients is calculated as
TC_DCR = -41 / 16.0 / -655 = 0.0039
Next the current measurements are temperature corrected:
IOUT1_TC_COR = 4.96 / (1.0 + 0.0039 * (31.0 – 25.0)) = 4.84
IOUT1_TC_COR = 18.24 / (1.0 + 0.0039 * (31.0 – 25.0)) = 17.82
Substituting these values into the equations gives
IOUT_CAL_GAIN_CORR = (20.0 – 5.0) / (17.82 – 4.84) = 1.156
IOUT_CAL_OFFSET = 5 – (4.84 * 1.156) = -0.600.
Convert this into OTP format as follows:
IOUT_CAL_GAIN_CORR_OTP = 1.156 * 128 = 148 = 0094HEX
IOUT_CAL_OFFSET_OTP = -0.600 * (411 / 32) = -8 = FFF8HEX
Both values lie within the allowed limits of the ZSPM10x5A and hence can be written into the IC.
Programming and
Calibration
October 22, 2013
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
10 of 13
ZSPM1025A/ZSPM1035A
Programming and Calibration
PMBus™ Command Reference
6
Overview about PMBus™ Commands
6.1.
Table 6.1
PMBus™ Command Overview
PMBus™ Command
Description
Transaction
Type
Command
Byte (hex)
Data
Length
(bytes)
READ_IOUT
Output current
Read word
8CHEX
2
READ_TEMPERATURE_1
External temperature
Read word
8DHEX
2
READ_TEMPERATURE_2
Internal temperature
Read word
8EHEX
2
Block read
9DHEX
(4)
1.)
MFR_REVISION
Device FW revision
MFR_ADDRESS_POINTER
Address pointer for OTP operation
Read word
Write word
F8HEX
2
MFR_OTP_READ_DATA
Read data from OTP
Read word
F1HEX
2
MFR_OTP_WRITE_DATA
Write data to OTP
Write Word
F0HEX
2
MFR_OTP_STATUS
OTP status information
Read word
Write word
EFHEX
4
1.)
This is a block command; i.e., the length of the data is transmitted as the first byte of the message.
PMBus™ Command Definitions
6.2.
6.2.1.
READ_IOUT
READ_IOUT (read only)
Bits
[15:0]
6.2.2.
Name
IOUT
Description
Output current in A (linear data format).
READ_TEMPERATURE_1
READ_TEMPERATURE_1 (read only)
Bits
[15:0]
6.2.3.
Name
Description
External temperature in °C (linear data format).
RAW data format if device is not temperature calibrated.
TEMP1
READ_TEMPERATURE_2
READ_TEMPERATURE_2 (read only)
Bits
[15:0]
Programming and
Calibration
October 22, 2013
Name
TEMP2
Description
Internal temperature in °C (linear data format).
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
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ZSPM1025A/ZSPM1035A
Programming and Calibration
6.2.4.
MFR_ADDRESS_POINTER
MFR_ADDRESS_POINTER (read / write)
Bits
[0]
Description
RESERVED
[15:1]
6.2.5.
Name
ADDRESS
Address of OTP data access
MFR_OTP_READ_DATA
READ_OTP_READ_DATA (read only)
Bits
[15:0]
6.2.6.
Name
DATA
Description
Data read from OTP at the address set by MFR_ADDRESS_POINTER
MFR_OTP_WRITE_DATA
MFR_OTP_WRITE_DATA (write only)
Bits
[15:0]
6.2.7.
Name
DATA
Description
Data to be written into OTP at address set by MFR_ADDRESS_POINTER
MFR_OTP_STATUS
MFR_OTP_STATUS (read / write)
Bits
[1:0]
[2]
[8]
OTP Programming has failed. Write a one to clear this bit.
Reserved
CLEAR
[31:9]
Description
Reserved
FAILED
[7:3]
6.2.8.
Name
Clear OTP faults by writing 1 to this bit.
Reserved
MFR_REVISION
MFR_REVISION (read)
Bits
[31:0]
Programming and
Calibration
October 22, 2013
Name
REVISION
Description
FW Revision in ISO/IEC 8859-1 format.
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
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ZSPM1025A/ZSPM1035A
Programming and Calibration
7
Related Documents
Note: X_xy refers to the current revision of the document.
Document
File Name
ZSPM1025A Data Sheet
ZSPM1025A_Data_Sheet_Rev_X_xy.pdf
ZSPM1035A Data Sheet
ZSPM1035A_Data_Sheet_Rev_X_xy.pdf
ZSPM8025-KIT Evaluation Kit Description
ZSPM8025_Eval_Kit_Rev_X_xy.pdf
ZSPM8035-KIT Evaluation Kit Description
ZSPM8035_Eval_Kit_Rev_X_xy.pdf
Pink Power Designer™ Graphic User Interface (GUI)
UserGUIDE_Rev_X_xy.pdf
Visit the ZSPM1025 product page (www.zmdi.com/zspm1025) on ZMDI’s website www.zmdi.com or contact your
nearest sales office for the latest version of these documents.
8
Document Revision History
Revision
Date
Description
1.00
October 22, 2013
First release.
Sales and Further Information
www.zmdi.com
[email protected]
Zentrum Mikroelektronik
Dresden AG
Global Headquarters
Grenzstrasse 28
01109 Dresden, Germany
ZMD America, Inc.
1525 McCarthy Blvd., #212
Milpitas, CA 95035-7453
USA
Central Office:
Phone +49.351.8822.0
Fax
+49.351.8822.600
USA Phone +855.275.9634
Phone +408.883.6310
Fax
+408.883.6358
European Technical Support
Phone +49.351.8822.7.772
Fax
+49.351.8822.87.772
DISCLAIMER: This information applies to a product under development. Its characteristics and specifications are subject to change without notice.
Zentrum Mikroelektronik Dresden AG (ZMD AG) assumes no obligation regarding future manufacture unless otherwise agreed to in writing. The
information furnished hereby is believed to be true and accurate. However, under no circumstances shall ZMD AG be liable to any customer,
licensee, or any other third party for any special, indirect, incidental, or consequential damages of any kind or nature whatsoever arising out of or
in any way related to the furnishing, performance, or use of this technical data. ZMD AG hereby expressly disclaims any liability of ZMD AG to any
customer, licensee or any other third party, and any such customer, licensee and any other third party hereby waives any liability of ZMD AG for
any damages in connection with or arising out of the furnishing, performance or use of this technical data, whether based on contract, warranty,
tort (including negligence), strict liability, or otherwise
European Sales (Stuttgart)
Phone +49.711.674517.55
Fax
+49.711.674517.87955
Programming and
Calibration
October 22, 2013
Zentrum Mikroelektronik
Dresden AG, Japan Office
2nd Floor, Shinbashi Tokyu Bldg.
4-21-3, Shinbashi, Minato-ku
Tokyo, 105-0004
Japan
ZMD FAR EAST, Ltd.
3F, No. 51, Sec. 2,
Keelung Road
11052 Taipei
Taiwan
Phone +81.3.6895.7410
Fax
+81.3.6895.7301
Phone +886.2.2377.8189
Fax
+886.2.2377.8199
Zentrum Mikroelektronik
Dresden AG, Korea Office
U-space 1 Building
11th Floor, Unit JA-1102
670 Sampyeong-dong
Bundang-gu, Seongnam-si
Gyeonggi-do, 463-400
Korea
Phone +82.31.950.7679
Fax
+82.504.841.3026
© 2013 Zentrum Mikroelektronik Dresden AG — Rev. 1.00
All rights reserved. The material contained herein may not be reproduced, adapted, merged, translated, stored, or used without
the prior written consent of the copyright owner. The information furnished in this publication is subject to changes without notice.
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