ZM7316G-65501-B1 POWER-ONE [Power-One], ZM7316G-65501-B1 Datasheet

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ZM7316G-65501-B1

Manufacturer Part Number
ZM7316G-65501-B1
Description
Digital Power Manager
Manufacturer
POWER-ONE [Power-One]
Datasheet
Applications
Benefits
Description
Power-One’s point-of-load converters are recommended for use with regulated bus converters in an Intermediate
Bus Architecture (IBA). T
industry-standard I
series POL converters and 4 independent power devices. The ZM7300 completely eliminates the need
for external components for power management and programming and monitoring of the Z-One
converters and other industry standard power and peripheral devices. Parameters of the ZM7300 are
programmable via the I
and deployment.
ZD-00896 Rev. 5.1, 13-Jul-10
Low voltage, high density systems utilizing
Z-One
Broadband, networking, optical, and wireless
communications systems
Industrial computing, servers, and storage
applications
Eliminates the need for external power
management components
Communicates with the host system via the
industry standard I
Reduces board space, system cost, complexity,
and time to market
TM
Digital Intermediate Bus Architectures
2
C communication bus interface to control, manage, program and monitor up to 32 Z-
2
C communication bus
2
C bus and can be changed by a user at any time during product development
he ZM7300 is a fully programmable digital power manager that utilizes the
www.power-one.com
ZM7300G Series Digital Power Manager
Features
RoHS compliant for all six substances
Compatible with both lead-free and standard reflow
processes
Programs, controls, and manages up to 32
independent Z-series POL converters via an industry
standard I
JTAG IEEE 1149.1 compliant programming interface
Controls and monitors industry standard power
supplies and other peripheral devices (fans, etc)
Programs output voltage, protections, optimal voltage
positioning, turn-on and turn-off delays and slew
rates, switching frequency, interleave (phase shift),
and feedback loop compensation of the Z-One
converters
User friendly GUI interface for programming,
monitoring, and performance simulation
Four independent OK lines for flexible fault
management and fast fault propagation
Four interrupt inputs with programmable hot swap
support capabilities
Intermediate bus voltage monitoring and protection
AC Fail input
Non-volatile memory to store system configuration
information and status data
1 kByte of user accessible non-volatile memory
Control of industry standard DC-DC front ends
Crowbar output to trigger the optional crowbar
protection
Run-time counter
Hardware and software locks for data protection
Small footprint semiconductor industry standard
QFN64 package: 9x9mm
Wide industrial operating temperature range
Member of the
2
C interface (both 100kHz and 400kHz)
Page 1 of 33
Data Sheet
Family
TM
TM
POL
POL

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ZM7316G-65501-B1 Summary of contents

Page 1

Applications  Low voltage, high density systems utilizing TM Z-One Digital Intermediate Bus Architectures  Broadband, networking, optical, and wireless communications systems  Industrial computing, servers, and storage applications Benefits  Eliminates the need for external power management components  ...

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... Packaging option is used only for ordering and not included in the part number printed on the DPM label. 2 The evaluation board is available in only one configuration: ZM7300-KIT-HKS Example: ZM7316G-12345-T1: A 500-piece reel of 16-node DPMs with preloaded configuration file code 12345. Each DPM is labeled ZM7316G-12345. Refer to Figure 1 for label marking information. Line 1 : Part Number (7 Char ...

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Reference Documents  ZY7XXX Point of Load Regulator. Data Sheet  ZM7300 Digital Power Manager. Programming Manual, Revision A09 or later  Graphical User Interface, Revision 6.3.5 or later  Programming ZM7300 DPMs via JTAG Interface. Application Note  ...

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Electrical Specifications Specifications apply at VDD from 3V to 3.6V, ambient temperature from -40°C to 85°C, and utilizing proper decoupling as shown in Figure 3 unless otherwise noted. Power Specifications 8.1 Parameter Input Supply Voltage Hardware reset is triggered ...

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Signal Specifications 8.3 Parameter Conditions/Description SDpu SD pull up resistor SDthrL SD input low voltage threshold SDthrH SD input high voltage threshold SDhys SD input hysteresis SDsink SD sink capability (V Freq_sd Tsynq Sync pulse duration T0 Data=0 pulse duration ...

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I C Interface 8.4 Parameter Conditions/Description ViL Input low voltage ViH Input high voltage Vhys Input hysteresis VoL Output low voltage Rise time for SDA and SCL r t Output fall time from ViHmin to ViLmax of ...

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Typical Application DPM Power-Up Reset (Required) Figure 3. Typical Application Schematic of Multiple Output System with Digital Power Manager and I The schematic of a typical application of a ZM7300 digital power manager (DPM) is shown in Figure 3. ...

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The DPM can also trigger an optional crowbar circuit and provide undervoltage and overvoltage protections of the intermediate bus voltage. In addition, the DPM can be controlled by a host system via the interrupt inputs, RES_N and the ACFAIL_N inputs. ...

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Write Protection There are hardware-based and software-based memory write protections. The hardware protection takes precedence over the software protection. 10.1.1.1 Hardware Protection The LCK_N pin enables the hardware memory write protection. If the pin is pulled low, the hardware ...

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Address Register Content 1 Offset Name 0x00 GD1[3:0] Group Definition Register 1 0x04 GD2[3:0] Group Definition Register 2 0x08 GAC Group A Configuration 0x09 GBC Group B Configuration 0x0A GCC Group C Configuration 0x0B GDC Group D Configuration 0x0C FPC1 ...

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Address Register Offset Z-ONE POL Aux Device 00h PC1_x 01h PC2_x reserved 02h PC3_x reserved 03h TC_x reserved 04h INT_x reserved 05h DON_x 06h DOF_x 07h VOS_x reserved 08h CLS_x reserved 09h DCL_x reserved 0Ah B1_x reserved 0Bh B2_x reserved ...

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POL Converter Register ST Status Register VOH Output Voltage High Byte VOL Output Voltage Low Byte IO Output Current TMP Temperature 10.1.5 User Memory This non-volatile memory block is reserved for users’ notes and not related to other functions in ...

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Four enable outputs EN0…EN3 control the Auxiliary Devices. Four monitoring inputs PG0…PG3 read status of the Auxiliary Devices. The enable outputs and monitoring inputs are paired together and permanently assigned to specific pins of the DPM as shown in Figure ...

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DPM Functions 10.3 10.3.1 POL Programming POL programming is the process of downloading the content of POL setup registers stored in DPM’s non-volatile memory via the SD bus to the POL converters. Programming of POL converters is performed upon power-up, ...

Page 15

POL Programming Status registers will be set. The DPM considers the POL converter to be programmed, and continues programming the next POL converter. Upon completion of the programming, the DPM will turn-on the POL converters, if ...

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Where time interval from the instant when the DPM supply voltage exceeds DPM’s UVLO threshold PROGR until the DPM issues the turn-on command. If the Auto Power-Up is enabled, and the turn-on delay is set to zero, the ...

Page 17

Monitoring of Auxiliary Devices The DPM can read status information of the Auxiliary Devices via the PG0…PG3 inputs. PG0…PG3 are digital 3.3V compliant inputs with internal pull-up resistors. Logic high input on a PGX pin should correspond to normal ...

Page 18

IBV Monitoring The DPM continuously monitors the intermediate bus voltage via the IBVS input and the built-in 10-bit ADC. The digital representation of the bus voltage is stored in RAM and reported in the IBS Monitoring window shown in ...

Page 19

Auto Turn-On is enabled in the POL Group configuration window shown in Figure 10. Otherwise, the user will need to send the turn-on command via the I bus. When the IBV exceeds ...

Page 20

Figure 15. The GUI automatically changes values of the IBL and IBH thresholds when the reference selection is changed. Note: If the Reference Voltage setting is changed during operation of the DPM, then the ...

Page 21

... Fault and Error Propagation Z-series POL converters protect outputs by triggering either a fault or an error depending on the severity of the problem (see POL converter datasheets). Fault propagation between POL converters belonging to the same group is a programmable function of POL converters. The DPM allows propagating faults and errors between groups of POL converters and, in case of an error DC/DC front-end and an optional crowbar. The propagation delay for fault/error propagations is less than 10μ ...

Page 22

Propagation To Propagation Auxiliary Protection Between Devices in the Triggered POLs Same Group as the Faulty POL UVP or OTP Enabled Disabled UVP or OTP Enabled Enabled UVP or OTP Enabled Enabled UVP or OTP Enabled Enabled Tracking or Enabled ...

Page 23

When propagation is enabled, the faulty POL converter pulls its OK pin low. A low OK line initiates turn- off of other POL converters in the group and signals the DPM to pull other OK lines low to initiate turn- ...

Page 24

The inhibit function can be used for a variety of applications, such as Hardware-based control of groups of POL converters and Auxiliary Devices  Delayed turn-on at power-up (Automatic Turn-On is enabled but the interrupts are held  low during ...

Page 25

Figure 19: INT0 Configured as Group A Reprogramming Trigger In this configuration the Interrupt 0 (INT0_N) is configured as the group A reprogramming trigger. The DPM is installed on a mother board or a backplane. A daughter card with a ...

Page 26

The ACFAIL_N and RES_N inputs should be controlled with open collector devices. The propagation delay between the external device pulling the input low and the DPM pulling down OK lines and triggering the turn-off process is approximately 1ms. 10.6.2 Front ...

Page 27

... The ZM7300 series DPMs feature the JTAG interface that can be used for programming the DPM with user-specific configuration settings. JTAG boundary-scan capabilities are not currently supported. JTAG-programmable DPMs have unique 5-digit identifiers listed in Table 6. Base Part Number ZM7304G ZM7308G ZM7316G ZM7332G ZD-00896 Rev. 5.1, 13-Jul-10 ZM7300G Series Digital Power Manager 2 C interface fully meeting the requirements of the ...

Page 28

Only the DPM part numbers listed in the table can be programmed via the JTAG interface. Note: The DPMs can be programmed via the JTAG only once. After initial programming via the JTAG, the DPMs may be reprogrammed via I ...

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Identification Register Format and contents of the JTAG Identification Register are shown in Table 8. MSB Bit 31 Description Version Contents 0000 ZD-00896 Rev. 5.1, 13-Jul-10 ZM7300G Series Digital Power Manager Table 8. JTAG ID Register 28 27 Part ...

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Pinout Table Pin Name Pin No. Pin Type 6, 25, VDD Supply 42, 57 VSS Supply 38, 43 OKA 11 OKB 13 OKC 20 OKD 53 FE_EN SDA 30 ...

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Pins Description ACFAIL_N, AC Fail Input (Pin 16): Schmitt-Trigger input with internal pull-up resistor (active low). Pulling low the input indicates to the DPM that an AC-DC front-end has lost the mains and that a system shut down should ...

Page 32

Mechanical Drawings Figure 22. ZM7300 Mechanical Drawing ZD-00896 Rev. 5.1, 13-Jul-10 ZM7300G Series Digital Power Manager Figure 23. ZM7300 Terminals MIN A 0.80 J 0.0 A1 D/E D1/E1 D2/ 0.30 b 0.18 Notes ...

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Figure 24. ZM7300 Mechanical Drawing – Top View 1. NUCLEAR AND MEDICAL APPLICATIONS - Power-One products are not designed, intended for use in, or authorized for use as critical components in life support systems, equipment used in hazardous environments, or ...

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