Rev: 122012
MAX24000-Series EVKIT
Evaluates: MAX24000-Series Clock Products
General Description
The MAX24000-Series EVKIT is an easy-to-use
evaluation kit for the Microsemi MAX24000-Series clock
synchronization and clock synthesis ICs. A surfacemounted IC device and careful layout provide maximum
signal integrity. On-board crystal, XO and TCXO
components are provided for use as the device
reference clock. Additionally, the board can accept 3
external input clocks which are accessible via SMB
connectors. All device output clocks are available via
SMB connectors to allow easy evaluation of the device’s
jitter performance. The EVKIT can be configured to
have four device GPIO pins connected to LEDs or
header pins to provide device status information. Device
JTAG I/O signals are also accessible via header pins.
Finally, an on-board microcontroller and USB interface
provide easy configuration and monitoring of the
MAX24000-Series device via a Windows®-based
software application.
This data sheet is for the revision B evaluation board
assembly. Each board assembly revision has its own
data sheet.
Evaluation Kit Contents
♦
MAX24000-series EVKIT Board
♦
Power Supply
♦
USB Cable
♦
2 SMB to BNC cables
♦
5 Oscillator Evaluation Daughter Cards
Features
♦
Soldered MAX24000-Series Device for Best Signal
Integrity
♦
SMB Connectors For Easy Connectivity
♦
Connectors and Termination for Input Clock Signals
♦
On-Board Crystal, XO and TCXO Components for
Use as Reference Clocks
♦
Footprints to Support Both 5x7mm and 3x5mm
Oscillators
♦
External Oscillator Testing Support
♦
4 Software Configurable Device Status LEDs and
Header Pins
♦
Easy-to-Read Silkscreen Labels Identify the Signals
Associated with All Connectors, Jumpers, and
LEDs
♦
Windows®-Based Application Software Provides
Easy GUI-Based Configuration and Monitoring of
Most Common Device Features and Register Level
Access to Entire Device Register Set
♦
Software Support for Creating and Running
Configuration Scripts Saves Time During Evaluation
and System Design
Minimum System Requirements
♦
PC Running Windows® XP or Windows® 7
♦
Display with 1024x768 Resolution or Higher
♦
Available USB Port
Ordering Information
PART NUMBER
DESCRIPTION
MAX24210EVKIT
Evaluation Kit for MAX24205 and MAX24210
Evaluation Kit for MAX24305 and MAX24310
Internal EEPROM
Evaluation Kit for MAX24405 and MAX24410
Evaluation Kit for MAX24505 and MAX24510
Internal EEPROM
Evaluation Kit for MAX24605 and MAX24610
Evaluation Kit for MAX24705 and MAX24710
with Internal EEPROM
MAX24310EVKIT
MAX24410EVKIT
MAX24510EVKIT
MAX24610EVKIT
MAX24710EVKIT
5- or 10-Output An y-Rate Timing ICs
5- or 10-Output An y-Rate Timing ICs with
5- or 10-Output An y-Rate Clock Multipliers
5- or 10-Output An y-Rate Clock Multipliers with
5- or 10-Output An y-Rate Line Card Timing ICs
5- or 10-Output An y-Rate Line Card Timing ICs
1
MAX24000-SERIES EVALUATION KIT
Table of Contents
1.
OVERVIEW..........................................................................................................................................4
2.
BOARD FLOORPLAN AND CONFIGURATION ...............................................................................4
2.1 POWER SUPPLY CONNECTION ............................................................................................................5
2.2 USB CONNECTION .............................................................................................................................5
2.3 HARDWARE CONFIGURATION SETTINGS .............................................................................................5
2.3.1
2.3.2
2.3.3
2.3.4
2.3.5
Power Supply ............................................................................................................................... 5
Reset and Microprocessor ............................................................................................................ 5
Master Clock Oscillator ................................................................................................................. 5
Input Clock s ................................................................................................................................. 5
Output Clock s .............................................................................................................................. 5
GPIO HEADER AND STATUS LEDS ...................................................................................................10
POWER-UP CONFIGURATION FROM INTERNAL/E XTERNAL EEPROM .................................................10
JTAG HEADER .................................................................................................................................10
3.
SOFTWARE INSTALLATION ..........................................................................................................11
3.1 SOFTWARE APPLIC ATION INSTALLATION ...........................................................................................11
3.2 USB VIRTUAL COM PORT DEVICE DRIVER INSTALLATION ................................................................11
3.3 COMMAND LINE OPTIONS .................................................................................................................12
4.
SOFTWARE APPLICATION OVERVIEW........................................................................................12
2.4
2.5
2.6
4.1
4.2
4.3
4.4
4.5
4.6
4.7
4.8
4.9
4.10
4.11
MAIN MENU ......................................................................................................................................12
APLL CONFIGURATION MENU ..........................................................................................................17
OUTPUT CLOCK CONFIGURATION MENU ...........................................................................................18
DPLL MASTER CLOCK CONFIGURATION MENU .................................................................................19
DPLL CONFIGURATION MENU ..........................................................................................................20
DPLL INPUT CLOCK CONFIGUR ATION MENU.....................................................................................21
POWER METER MENU ......................................................................................................................22
I/O PIN CONFIGURATION MENU ........................................................................................................24
EEPROM MENU ..............................................................................................................................25
REGISTER VIEW MENU..................................................................................................................26
CONFIGURATION SCRIPTS AND LOG FILES ....................................................................................27
4.11.1
4.11.2
Configuration Log File................................................................................................................. 27
Configuration Scripts .................................................................................................................. 27
5.
EVKIT ERRATA ................................................................................................................................30
6.
REVISION HISTORY.........................................................................................................................30
7.
BILL OF MATERIALS.......................................................................................................................31
8.
SCHEMATICS ...................................................................................................................................34
2
MAX24000-SERIES EVALUATION KIT
List of Figures
Figure 1. MA X24000-series EVKIT Rev B Board Floorplan.................................................................................. 4
Figure 2. EVKIT Software Main Menu - MA X24310 Rev A1 ............................................................................... 12
Figure 3. Input Clock Frequency Calculator Menu............................................................................................. 13
Figure 4. APLL1 Output Frequency Calculator Menu ........................................................................................ 14
Figure 5. APLL1 Configuration Menu ............................................................................................................... 17
Figure 6. Output Clock Configuration Menu ...................................................................................................... 18
Figure 7. DPLL Master Clock Configuration Menu............................................................................................. 19
Figure 8. DPLL Configuration Menu ................................................................................................................. 20
Figure 9. DPLL Input Clock Configuration Menu ............................................................................................... 21
Figure 10. Power Meter Menu, Estimated Mode ............................................................................................... 22
Figure 11. Power Meter Menu, Measured Mode ............................................................................................... 23
Figure 12. I/ O Pin Configuration Menu ............................................................................................................. 24
Figure 13. EEPROM Menu.............................................................................................................................. 25
Figure 14. Register View Menu........................................................................................................................ 26
Figure 14. EVKIT Bill of Materials .................................................................................................................... 31
Figure 14. EVKIT 50MHz Crystal Daughter Card Bill of Materials ....................................................................... 34
Figure 14. EVKIT 49.152MHz Crystal Daught er Card Bill of Materials ................................................................ 34
List of Tables
Table 1.
Table 2.
Table 3.
Table 4.
Table 5.
Table 6.
Table 7.
Table 8.
Power Supply Hardware Configuration.................................................................................................. 6
Reset and Microprocessor Hardware Configuration ............................................................................... 7
Master Clock Oscillator Hardware Configuration .................................................................................... 7
MCLKOS C Source Selection Jumper Settings ....................................................................................... 8
Input Clock Hardware Configuration...................................................................................................... 9
Input Clock Differential/Single-E nded Mode Selection Jumper Settings ................................................... 9
Output Clock Hardware Configuration ................................................................................................. 10
MA X24000-S eries EVKIT External EEPROM Options .......................................................................... 10
3
MAX24000-SERIES EVALUATION KIT
1. Overview
This document covers the revision B assembly of the MA X24000-series E valuation Kit board.
2. Board Floorplan and Configuration
Figure 1. MAX 24000-series EVKIT Rev B Board Floorplan
USB
uP
Plug.
Pwr Supply
Clock Outputs 1-4
Microsemi
MAX24310
Clock Outputs 5-6
Clock Inputs
MAX24310 EVKIT REV B
Clock Outputs 7-10
Oscillator Sites
4
MAX24000-SERIES EVALUATION KIT
When the board is oriented as shown in Figure 1, the MAX24000-Series device is located in the middle of the board, the
input clock connectors are on the left side, and the output clock connectors are above, to the right and below the device.
USB and power supply connectors are located in the top left corner of the board.
2.1
Power Supply Connection
The EVKIT board is powered via connector J3 using the provided A C-wall-plug 5V power supply. LED DS1
illuminates to indicat e that the board is powered.
2.2
USB Connection
The Windows®-bas ed MA X24000-series EVKIT soft ware communicates to the board via USB connector J4.
2.3
2.3.1
Hardware Configuration Settings
Power Supply
The EVK IT provides several options for evaluating device performance with respect to power supply configuration.
Table 1 summarizes the EVKIT power supply related hardware connectors and functionality.
2.3.2
Reset and Microprocessor
The EVK IT provides a momentary switch reset button that can be used to perform a hardware reset of the board.
Additionally, the board has a USB connector for interfacing the EVKIT’s microcontroller to the host PC running t he
EVKIT soft ware. Table 2 summariz es the EVKIT reset and microprocessor relat ed hardware connectors and
functionality.
2.3.3
Master Clock Oscillator
The EVK IT provides several options for driving the MA X24000-S eries device’s MCLKOS C input from either an onboard oscillator or an external source. Table 3 summarizes the EVKIT master clock oscillator related hardware
configuration connectors and functionality. Table 4 summarizes how to configure the EVK IT jumpers to select each
MCLKOS C source.
2.3.4
Input Clocks
The EVK IT IC1 and IC2 inputs can be configured to accept either a differential or single-ended signal. When
configured as a differential input, that input can be configured as either AC coupled or DC coupled. Table 5
summaries the EVKIT input clock related hardware connectors and functionality. Table 6 summarizes how to
configure the EVKIT jumpers for either a differential or single-ended input.
2.3.5
Output Clocks
The EVK IT s upports evaluation of all MA X24000-S eries device output clocks using SMB connectors. Table 7
summarizes the EVKIT output clock related hardware connectors.
The EVKIT MA X24xxx output clock termination circuits are shown on schematic sheet 11. Common termination
options can be evaluated by populating the appropriate components. The EVK IT is provided with out put clocks
OC1P/ N through OC8P/ N configured as DC-coupled differential CML, OC9P/N and OC10P/N c onfigured as dual
single-ended CMOS.
5
MAX24000-SERIES EVALUATION KIT
Table 1. Power Supply Hardware Configuration
SILK SCREEN
REFERENCE
J3
TP2
TP3
DEVICE / FUNCTION
BASIC SETTING
Power jack
Testpoint
Testpoint
Connected to 5V
SCHEMATIC
PAGE
3
3
3
GND
Testpoint
3
JMP1
3 pin jumper
2-3: V3_3DIG
jumpered to
V3_3
4
JMP2
3 pin jumper
2-3: V1_8_DIG
jumpered to
V1_8_D
5
J5 (VDDOA)
J6 (VDDOB)
J7 (VDDOC)
J8 (VDDOD)
10 pin header, power
selection
Jumper
pins 7+8
6
J9 (VSENSEO)
10 pin header, power
selection with current
measurement
Jumper
pin 7+8
6
TP.VDDOA
TP.VDDOB
TP.VDDOC
TP.VDDOD
Power Testpoint
Power Testpoint
Power Testpoint
Power Testpoint
14
14
14
14
TP.V1_8_ANA_F
Power Testpoint
14
TP.VDD_DIG_18
Power Testpoint
14
TP.V3_3_ANA_F
Power Testpoint
14
TP.VDD33
Power Testpoint
14
DESCRIPTION
5V power input
Testpoint for 5V power input
Testpoint for 3.3V supply V3_3
Ground testpoints. Reference
designators are not shown, GND
designation is used instead
Selects source of device VDD33 power
pin. This pin can be connected to the
board’s main 3.3V supply (V3_3) or to a
separately regulated 3.3V supply for
the device’s APLLs and XO.
Selects source of device VDD_18,
VDD_DIG_18 and VDD_OC_18 power
pins. These pins can be connected to a
digital 1.8V supply (V1_8_D) or to a
separately regulated 1.8V supply for
the device’s APLLs, XO and outputs.
One and only one of the following
jumper placements should be used on
each 10-pin header:
1-2 Connects VDDOx to V1.5
3-4 Connects VDDOx to V1.8Dig
5-6 Connects VDDOx to V2.5
7-8 Connects VDDOx to V3.3
9-10 VDDOx to VSENSO (see J9)
Used to power any of VDDO[A,B,C ,D]
when the VSENSO jumper position of
J5,J6,J7 or J9 is selected.
One and only one of the following
jumper placements should be used:
1-2 Connects VSENSO to V1.5
3-4 Connects VSENSO to V1.8Dig
5-6 Connects VSENSO to V2.5
7-8 Connects VSENSO to V3.3
9-10 not used
device VDDOA pin
device VDDOB pin
device VDDOC pin
device VDDOD pin
device pins:
VDD_APLL1_18,
VDD_APLL2_18,
VDD_XO_18,
VDDIO[A,B,C,D]
device pins:
VDD_OC_18,
VDD_DIG_18,
VDD_18
device pins:
VDD_APLL1_33,
VDD_APLL2_33,
VDD_XO_33
device VDD_33 pin
6
MAX24000-SERIES EVALUATION KIT
Table 2. Reset and Microproce ssor Hardware Configuration
SILK SCREEN
REFERENCE
J4
DEVICE / FUNCTION
BASIC SETTING
USB connector
Connected to PC
SCHEMATIC
PAGE
8
J1
Bus Connector
Not used
8
J14 + DS2,3,4,5
Test points + LED
Not used
8
SW1
Reset
Not used
8
J2
Debug
Not used
8
DESCRIPTION
Connects EVKIT to host computer
Can be used to interact with an
external PCB (as either data source
or sink)
User I/O pins on microcontroller
The PCB receives a power on reset,
and subsequent reset is done using
SW1.
Background debug connector. Used
to interface to debug pod part # USBML-12 from PE Micro
Table 3. Master Clock Oscillator Hardware Configuration
SILK SCREEN
REFERENCE
DEVICE / FUNCTION
BASIC SETTING
SCHEMATIC
PAGE
J53
Header, Power
1-2
9
J44
J46
Header,
SMB connector
7-8
9
JMP28
3 pin jumper
2-3
9
DESCRIPTION
Provides power to oscillator sites
1-2 powers Y7
3-4 powers Y8
5-6 powers Y9
Selects clock source for UB22
J44 3-4 selects Y9
J44 5-6 selects Y8
J44 7-8 selects Y7
J44 2-4 can be used to route Y7 or
Y8 clock signal to SMB J46
J44 1-3, 2-4 can be used to route Y9
to SMB J46
Selects source for device
MCLKOSCP/N pins.
This revision of the EVKIT does not
support MCLKOSCP/N differential
options Y6 and J33/J41, and singleended option J33. JMP28 should
always be set to positon 2-3.
7
MAX24000-SERIES EVALUATION KIT
Table 4. MCLKOS C Source Selection Jumper Settings
MCLKOSC Source
Y6 On-board 5x7 Differential Oscillator Site
Y7 On-board 3x5 Single-ended Oscillator Site
Y8 On-board 5x7 Single-ended Oscillator Site
Y9 Oscillator Daughter Card Site
J33 External Single-ended Input
J33/J41 External Differential Input
Not Used
Jumper Settings
This revision of the EVKIT does not support this option.
JMP28 = 2-3
J44 = 7-8
J53 = 1-2
JMP28 = 2-3
J44 = 5-6
J53 = 3-4
JMP28 = 2-3
J44 = 3-4
J53 = 5-6
This revision of the EVKIT does not support this option.
This revision of the EVKIT does not support this option.
JMP28 = 2-3
J44 = Not Installed
J53 = Not Installed
8
MAX24000-SERIES EVALUATION KIT
Table 5. Input Clock Hardware Configuration
SILK SCREEN
REFERENCE
J22
J21
DEVICE /
FUNCTION
IC1POS
IC1NEG
JMP12
J54
JMP13
JMP14
IC1 configuration
J27
J30
IC2POS
IC2NEG
JMP19
J31
JMP17
JMP18
SCHEMATIC
PAGE
BASIC SETTING
IC2 configuratoin
Differential, AC Coupled:
JMP12 Not Installed
J54 = 5-6
JMP13 Installed
JMP14 Installed
Differential, AC Coupled:
JMP19 Not Installed
J31 = 5-6
JMP17 Installed
JMP18 Installed
DESCRIPTION
10
IC1 differential or single-ended input
10
Used to configure IC1 as a differential
or single-ended input, AC coupled or
DC coupled. Refer to Table 6 for
configuration options.
10
IC2 differential or single-ended input
10
Used to configure IC2 as a differential
or single-ended input, AC coupled or
DC coupled. Refer to Table 6 for
configuration options.
Table 6. Input Clock Differential/Single-Ended Mode Selection Jumper Settings
Input Clock
Mode
Coupling
AC
Differential
DC
IC1
AC
Single-ended
DC
AC
Differential
DC
IC2
AC
Single-ended
DC
Jumper Settings
JMP12 = Not Installed
J54 = 5-6
JMP13 = Installed
JMP14 = Installed
JMP12 = Installed
J54 = 1-2
JMP13 = Installed
JMP14 = Installed
JMP12 = Not Installed
J54 = 1-3
JMP13 = Not Installed
JMP14 = Not Installed
JMP12 = Installed
J54 = 1-3
JMP13 = Not Installed
JMP14 = Not Installed
JMP19 = Not Installed
J31 = 5-6
JMP17 = Installed
JMP18 = Installed
JMP19 = Installed
J31 = 1-2
JMP17 = Installed
JMP18 = Installed
JMP19 = Not Installed
J31 = 1-3
JMP17 = Not Installed
JMP18 = Not Installed
JMP19 = Installed
J31 = 1-3
JMP17 = Not Installed
JMP18 = Not Installed
9
MAX24000-SERIES EVALUATION KIT
Table 7. Output Clock Hardware Configuration
SILK SCREEN
REFERENCE
J17 J18
J15 J16
J11 J10
J12 J13
J20 J22
J32 J28
J49 J50
J37 J38
J48 J47
J39 J40
2.4
DEVICE / FUNCTION
BASIC SETTING
SCHEMATIC
PAGE
DESCRIPTION
11
Output clocks, referenced to VDDOA
11
Output clocks, referenced to VDDOB
11
Output clocks, referenced to VDDOC
11
Output clocks, referenced to VDDOD
OC1 Output
OC2 Output
OC3 Output
OC4 Output
OC5 Output
OC6 Output
OC7 Output
OC8 Output
OC9 Output
OC10 Output
GPIO Header and Status LEDs
The devic e’s bi-directional GP IO pins are available on the 10-pin header J19. The header pins are labeled for easy
identification. The present states of GP IO1 through GP IO4 are indicated by LEDs DS 6 through DS9, respectively.
2.5
Power-up Configuration from Internal/External EEPROM
The MA X24000-Series clock synchronization and clock synthesis devices support loading a device configuration
from an EEPROM following a hardware reset. Depending on the part number, this EEPROM can be inside the
devic e or external. Refer to the Ordering Information table on page 1 and the device data sheets for details.
The MA X24000-S eries EVKIT supports evaluating this feature on all devices in the MA X24000-Series family. For
devic es that use an external EEPROM two options are provided. Refer to Table 8 for details. For devic es with an
internal EEPROM this EVKIT functionality is not used.
Table 8. MAX24000-Series EV KIT External EEP ROM Options
Option
On-board 2048 Byte SOIC EEPROM
8-Pin DIP Socket
JMP8
1-2 (SOIC)
2-3 (8-DIP)
The MA X24000-Series EVKIT software can be used to program the EEP ROM based on the current GUI
configuration, or from a file. Additionally, the EVKIT soft ware can be used to save the current GUI configuration to a
file that can be used to program the EEPROM with a third-party tool.
Following a hardware reset, the device configuration stored in EEPROM is loaded into t he device if the device pin
GPIO3/AC is high. This pin has an internal pull-up resistor. Consequently, if the pin is left floating t he EEP ROM
configuration will be loaded following a hardware reset. Placing a jumper across header J19 pins 5 and 6 will hold
GPIO3/AC low during reset and prevent the EEPROM configuration from being loaded.
2.6
JTAG Header
The device JTAG interfac e is available on the 10-pin header J26. The header pins are labeled with t he
corresponding JTAG signal names for easy identification.
10
MAX24000-SERIES EVALUATION KIT
3. Software Installation
EVKIT software installation consists of the following two steps:
1.
2.
Install the EVKIT software application
Install the EVKIT virtual COM port driver (for USB connection to the board)
The following sections describe in detail how to perform each of thes e steps.
3.1
Software Application Installation
At this time the EVKIT software is only supported on Windows® XP and Windows® 7 operating systems. To install
the software, open the installer zip file and run setup.exe.
The EVK IT software requires Microsoft .NE T Framework 4.0 to operate. When setup.exe is run, it checks to see if
.NET 4.0 is installed on the target computer. If . NE T 4.0 is not already installed, the user is prompted t o download
and install .NE T 4.0 from Microsoft’s website.
3.2
USB Virtual COM Port Device Driver Installation
After the GUI application has been installed on the PC, apply power to the EVKIT board and connect its USB port
to a USB port of the PC. Then follow these steps:
♦
A "Found New Hardware" message will appear in the notification area of the Windows
taskbar, and then the Found New Hardware Wizard will appear.
♦
Select No when asked if you want to connect to Windows Updat e to look for the driver.
♦
Click Next.
♦
Select Install from a list or specific location.
♦
Click Next.
♦
Select Search for the best driver in these locations and check include thi s location in
the search then browse to the folder where the software was installed. The default
installation folder can be reach by browsing:
Windows XP: My Computer Program Files Microsemi MA X24000-Series EVKIT
Windows 7: Computer Local Disk (C:) Program Files (x86) Microsemi
MA X24000-S eries EVKIT
Within this directory select the sub-directory US B Dri ver. The driver file is:
Freescale_CDC_Driver_CMX_W IN7.inf, but Windows only needs to know the name of the
folder in which to look for this file.
♦
Click Next.
♦
If a message appears indicating the software has not passed logo testing, click Continue Anyway.
That should complete the virt ual COM port device driver installation. After following these steps, the EVK IT
software should be ready to communicate with the board.
11
MAX24000-SERIES EVALUATION KIT
3.3
Command Line Options
The soft ware has these command line options:
-l specifies an alternate log file. Example: MA X24000S eriesEVKIT.exe –l “mylog.mfg”
To add command line options to the EVKIT shortcut that the installer adds to t he desktop or the start menu, rightclick on the shortcut and select Propertie s. In the Shortcut tab, at the end of the text in the Target textbox, add a
space followed by the command line option.
4. Software Application Overview
The EVKIT soft ware provides an easy and interactive way to evaluate the MA X24000-Series clock synchronization
and clock synthesis devices by using hierarchical menus to configure the device and monitor its status. The
following sections briefly describe each of the major application menus.
Note: in each menu, when the mouse cursor i s placed over a configuration or status field, more
information is di splayed about that field such a s the associated device register(s), valid numerical range,
or error information.
4.1
Main Menu
A customized main menu is displayed for each MA X24000-Series device. The Select Device button in the lower
left corner of the menu can be used to select a specific device in the MA X24000-S eries family.
The EVKIT main menu for the MA X24310 revA1 is shown in Figure 2. This menu provides an overview of the
MA X24310A1 configuration and status. Additionally, it provides access to the application sub-menus that are us ed
to perform detailed device configuration.
Figure 2. EVKIT Software Main Menu - MAX24310 Rev B1
12
MAX24000-SERIES EVALUATION KIT
The major features located on the main menu are:
•
Port list (top left)
When the program starts, a scan is performed of the computer’s USB -connected virtual COM ports. Those
ports connected to a MA X24000-Series EVKIT are displayed in the port list.
•
Demo Mode checkbox (top center)
When the program starts, it is initially in Demo Mode. In Demo Mode the soft ware is not connected to the
EVKIT board. In this mode, the software can be used to investigate device configuration options. Additionally,
demo mode can be used to develop a device configuration script or EEPROM configuration file. The EVK IT
can be operated in demo without the need to connect a board.
When the Demo Mode checkbox is unchecked, the EVKIT software establishes communication with t he
EVKIT board through the port displayed in the Port box. In this mode all menu configuration changes are
translated into register settings which are written to the device on the EVKIT board via the USB interface.
•
Enable Polling checkbox (top center)
While the Demo Mode checkbox is unchecked, if the Enable Polling checkbox is checked, the status registers
in the device are periodically polled, and t he corresponding status fields in the GUI are automatically updated.
While the Enable Polling checkbox is unchecked, device polling is suspended.
•
Reset checkbox (top center)
This checkbox directly controls the MCR1. RS T bit in the device. When t his box is checked the entire device is
reset to its power-on default state. If GP IO3/AC pin is high when reset is de-assert ed, the device automatically
configures its registers from internal or external EEPROM (depending on device part number).
•
Input Clocks, Master Clock Oscillator, and Crystal Oscillator
The IC1, IC2, MCLKOS C, and Crystal Oscillator s ections on the main menu are used enable these inputs and
specify the signal frequency at the device pin. Simple frequencies such as 156.25MHz can be entered directly
in the Frequency edit box. P ressing the Calc button launches a s ub-menu similar to the one shown in Figure
3. This menu can be used to specify more complex frequencies such as 156.25MHz * (255 / 237). In this
menu, the nominal frequency numerator and denominator multiplier values can be entered as either simple
integer values or as a string of multiplied integer values.
Figure 3. Input Clock Frequenc y Calculator Menu
13
MAX24000-SERIES EVALUATION KIT
•
APLL1 and APLL2
The MA X24000-Series devices have two independently configurable APLLs. Initially, the APLLs are disabled.
The EVK IT software indicates this status by disabling the APLLn sub-menu button and the APLL fields on t he
main menu. An APLL is enabled by checking its Enable check box on the main menu.
The APLL input frequency is automatically determined from the APLL source selected. For output frequency,
simple frequencies such as 625MHz can be entered directly in the main menu edit box. Pressing the Calc
button launches a sub-menu similar to the one shown in Figure 4. This menu c an be used to specify more
complex frequencies such as 625MHz * (255 / 237).
From t he specified input and output frequencies, the EVKIT soft ware determines a list of valid configuration
options and lists them in the Valid VCO Frequency Configurations list box. In addition the EVKIT soft ware
configures the AP LL to the first option in the list. For most applications, the first setting in the list is the optimal
configuration.
Pressing the APLLn button launches a sub-menu that can be used to configure the APLL manually. This menu
can be us ed for detailed custom configuration of an APLL or to see the detailed settings the EVK IT soft ware
chose when configuring the APLL from the main menu.
Figure 4. APLL1 Output Frequency Calculator Menu
•
Output Clocks, Bank A through Bank D
The MA X24000-S eries devic e output clocks are divided into four banks. These banks and their associated
output clocks are shown on the right side of the main menu. The source, signal format, and APLL divisor for
each output clock can be specified on t he main menu. Additionally, the frequency of each output clock is
displayed on the main menu. The OCn button launches a sub-menu with additional configuration options.
•
Select Device
This button launches a pop-up menu that can be used to select a specific MA X24000-Series device. When a
new devic e is selected, the EVKIT soft ware is customized to match that devic e’s features and internal
resources.
•
User Guide
Pressing t he User Guide button launches A dobe Acrobat Reader and opens a c opy of the MA X24000-Series
EVKIT data sheet (this document). Adobe Acrobat Reader must be installed for this function to work.
14
MAX24000-SERIES EVALUATION KIT
•
Create Config Script
The Create Config Script button launches a sub-menu t hat can be used to save the current GUI configuration
to a file. This file is an ASCII text file that contains the sequenc e of device register writes required to configure
the device to match the GUI settings. Certain aspects of configuring the device require a specific initialization
sequence. The configuration script created using the Create Config Script menu adheres to those
requirements.
•
Run Config Script
The Run Config Script button launches a sub-menu that can be used to ex ecute a device configuration script.
•
Register View
The Regi ster View button launches a sub-menu that provides register-level access to all device registers.
•
View Log File
The View Log File button launches a text editor containing the EVKIT soft ware log file. This log file contains
the history of all devices register writes performed since the application was launched.
•
EEPROM
The EEP ROM button launches a sub-menu that can be used to perform EEPROM related operations. This
menu can be used to save the current GUI configuration to an EEPROM configuration file for later use by
either the EVKIT software or a third-party tool. Additionally, this menu can be used to program the EVK IT
EEPROM with either the current GUI configuration or an EEPROM configuration file.
•
I/O Pins
The I/O Pins button launches a sub-menu that can be used to configure the device GPIO pin functionality.
•
Power Meter
The Power Meter button launches a sub-menu that displays the devic e estimated and measured power
consumption. Esitmated power mode can be us ed in eit her demo mode or while communicating with an
EVKIT board. Estimated power is based on data sheet typical and max ratings. Measured power is based on
voltage and current measurements taken by the EVK IT board. Measured power mode can only be used while
the EVKIT is communicating with an EVKIT board.
Note: This measured power mode only reports accurate numbers when board headers J5, J6, J7 and J8 all
have jumpers in the SENS O position and header J9 has a jumper in a position ot her than “NA ”. This
combination of jumper settings forces all V DDOA through V DDOD power supply voltages to be t he single
voltage s pecified by the jumper on header J9. Therefore this feature cannot be used for all possible device
configurations.
•
Di sable All Outputs
Pressing the Di sable All Outputs button disables all device outputs.
•
DPLL
This section of the main menu is only displayed for members of the MA X24000-Series devices that contain a
DPLL.
Initially, the DPLL section of the main menu is disabled. The EVK IT indicates this status by disabling the DPLL
sub-menu button and the DP LL fields on the main menu. The DP LL is enabled by checking its Enable check
box on the main menu.
Prior to enabling the DPLL, its master clock must be configured. This is accomplished by clicking the MCLK
button and configuring the fields of the DPLL Master Clock sub-menu. Refer to section 4.4 for details.
15
MAX24000-SERIES EVALUATION KIT
The DP LL State, Sel Ref Fail, and Phase Monitor buttons represent latched status bits in the device. When
the button is red, the corresponding latched status bit has been set in the device since the last time the button
was pressed. Pressing the button clears the latched status bit and changes the color of the button back to
green. The State button indicates the state of the DPLL has changed. Sel Ref Fail indicates the selected
reference has failed. Phase Monitor indicates the phase monitor limit has been exceeded. The DPLL State,
Phase, Freq, Sel Ref, Priority 1, and Priority 2 text boxes display the real-time status of the corresponding
devic e register fields.
The lower portion of the DPLL s ection of the main menu has fields for the devic e Input Clock Block. Each input
clock Status LED displays the real-time status of the input clock as reported by its input monitor. When t he
input clock is disabled, the LE D is grey. When the input clock is enabled, the LED provides a color-coded
status of the input clock’s state. When a clock of the correct frequency is applied to an input, the associated
LED turns yellow when activity is detected and green when the input clock frequency is found to be within
range. If an input is disqualified bec ause the DPLL could not lock to it, the LED turns magenta.
Pressing the DPLL button launches a sub-menu that can be used to configure the DP LL. Pressing the IC1 or
IC2 button launches a sub-menu t hat can be used to c onfigure input monitoring, scaling and dividing for t he
corresponding input clock.
16
MAX24000-SERIES EVALUATION KIT
4.2
APLL Configuration Menu
The AP LL Configuration sub-menu shown in Figure 5 is accessed by pressing the APLL1 button or the APLL2
button on the main menu. This menu can be used for detailed custom configuration of an APLL or to see the
detailed settings the EVKIT soft ware chose when configuring the APLL from the main menu.
As shown in Figure 5, each of the Feedback Scale Factor terms (Feedback Multiplier, Fractional Numerator, and
Fractional Denominator) can be entered as either simple integer values or as a string of multiplied integer values.
Whenever one or more of these fields is change the software colors the Load button red to remind the user that the
Feedback Scale Factor field is not updated until the button is clicked.
In this menu an APLL can be configured for pin-based input reference selection on the GPIO4/SS pin by checking
the External Switching Mode checkbox and specifying the two references to switch between in the APLL Source
and Alternate APLL Source fields.
Figure 5. APLL1 Configuration Menu
17
MAX24000-SERIES EVALUATION KIT
4.3
Output Clock Configuration Menu
The Output Clock Configuration sub-menu shown in Figure 6 is accessed by pressing the corresponding OCn
button on t he main menu. This menu is used to configure the output clock signal format and divider values that
control the frequency of the clock at the pin.
Figure 6. Output Clock Configuration Menu
18
MAX24000-SERIES EVALUATION KIT
4.4
DPLL Master Clock Configuration Menu
This sub-menu is only available for MA X24000-Series devices that contain a DP LL.
The DPLL master clock configuration sub-menu shown in Figure 7 is accessed by pressing the MCLK button on
the main menu. The DPLL master clock can be either sourced directly from t he MCLK OSC pins or synthesized by
APLL2 from an input source. This menu is used to specify the source and configure that source to a valid master
clock frequency. Once the DP LL master clock configuration is selected, press the OK button t o initialize the DP LL
master clock.
The DPLL master clock supports three methods of configuration. These methods, as well as simple step-by-step
configuration instructions, are shown in the Help section at the bottom of the menu. Each set of instructions is
displayed by selecting the corresponding method’s radio button.
Figure 7. DPLL Master Clock Configuration Menu
19
MAX24000-SERIES EVALUATION KIT
4.5
DPLL Configuration Menu
This sub-menu is only available for MA X24000-Series devices that contain a DP LL.
The DPLL configuration sub-menu shown in Figure 8 is accessed by pressing the DPLL button on the main menu.
This menu is used to perform detailed configuration of the DP LL including specifying the DPLL bandwidt hs,
holdover mode, lock criteria, phase det ector, and phas e buildout functionality.
Figure 8. DPLL Configuration Menu
20
MAX24000-SERIES EVALUATION KIT
4.6
DPLL Input Clock Configuration Menu
This sub-menu is only available for MA X24000-Series devices that contain a DP LL.
The input clock configuration sub-menu shown in Figure 9 can be accessed by pressing the corresponding ICn
button on the main menu. This menu is used to perform detailed configuration of input clock functionality related to
DPLL operation. This configuration includes enabling the input clock path to the DP LL, specifying the DP LL lock
frequency to use for the input clock, and specifying t he divider ratio to be used to divide the input clock to t he lock
frequency. This menu can also be used to configure the input clock monitoring parameters.
Figure 9. DPLL Input Clock Configuration Menu
21
MAX24000-SERIES EVALUATION KIT
4.7
Power Meter Menu
The power meter sub-menu is accessed by pressing the Power Meter button on the main menu. The power met er
has two modes of operation – Estimated and Measured.
Estimated mode, shown in Figure 10 below, is selected by pressing the Estimated button in the top left corner of
the Power Meter menu. In estimate mode, the EVK IT software calculates both the typical and maximum device
current and power based on the enabled functionality and device data sheet specs. This mode is available in both
Demo Mode and while the EVKIT software is communicating wit h an EVKIT board.
Measured mode, shown in Figure 11 below, is selected by pressing the Measured button in the top left corner of
the Power Meter menu. In measured mode, the EVKIT s oft ware periodically measures the current of the device on
the EVKIT and displays this information along with the corresponding calculated supply power and total device
power. This information can be us ed t o estimate the typical devic e power consumption for a specific device
configuration. Meas ured mode is only available while the EVKIT software is communicating with an EVKIT board.
Note: This feat ure only reports accurate numbers when board headers J5, J6, J7 and J8 all have jumpers in the
SENSO position and header J9 has a jumper in a position other than “NA”. This combination of jumper settings
forces all VDDOA through V DDOD power supply voltages to be the single voltage specified by the jumper on
header J9. Therefore this feature cannot be used for all possible device configurations.
Figure 10. Power Meter Menu, Estimated Mode
22
MAX24000-SERIES EVALUATION KIT
Figure 11. Power Meter Menu, Measured Mode
23
MAX24000-SERIES EVALUATION KIT
4.8
I/O Pin Configuration Menu
The I/O Pin Configuration sub-menu shown in Figure 12 is accessed by pressing the I/O Pins button on the main
menu. This menu is used to configure devic e’s four GP IO pins. Each I/O pin can be configured to map a device
status register bit to the pin, drive a 0 or 1, or be an input pin. A dditionally this menu can be used to configure t he
output to be invert ed or open-drain. Output signal inversion c an only be applied to a GP IO pin that is configured to
output the state of a status register bit.
Figure 12. I/O Pin Configuration Menu
24
MAX24000-SERIES EVALUATION KIT
4.9
EEPROM Menu
The EEPROM sub-menu shown in Figure 13 is accessed by pressing the EEP ROM button on the main menu. This
menu can be us ed to save the current GUI configuration to an EEPROM configuration file for later use by either the
EVKIT software or a third-party tool. Additionally, this menu can be used to program the EVKIT EEPROM with
either the current GUI configuration or an EEP ROM configuration file.
The EVKIT software must be connected to an EVKIT board and not be in demo mode to program the EEPROM.
However, an EEPROM configuration file can be created in demo mode or when connected to an EVKIT board.
Figure 13. EEPROM Menu
25
MAX24000-SERIES EVALUATION KIT
4.10 Register View Menu
When the main menu Register View button is pressed, the Register View window s hown in Figure 14 is launched.
This window can be used to view and edit the entire device register set.
The large grid that takes up most of the window displays the device register map. For eac h register, its
hexadecimal address in square brackets is followed by its register name and its contents in two-digit hex format.
When a register is clicked in the main register grid, its register description and fields are displayed at the bottom of
the window.
The Register View window supports the following actions:
♦
♦
♦
♦
♦
♦
♦
Read a register. Select the register in the register map.
Read a register field. Select the register in the map or the register field at the bottom of the window.
Read all registers. Press the Read All button.
Write a register. Double-click the register name in the register map and enter the value to be written.
Write a register field. Select the register, double-click the field, and enter the value to be written.
Write a multi-register field. Double-click one of the register names and enter the value for the field.
Write a complete device register dump to a text file. Press the Register Dump button.
When using the Register View window it is important to remember that APLL, output clock, and input clock
registers are bank-s witched by the APLLSEL (0x0010), OCSEL (0x00C0), and ICSEL (0x0050) registers,
respectively. Refer to the device data sheet register map for more details. It is also important to remember that all
DPLL and Input Clock Block registers are only accessible if these blocks have been provided a valid master clock.
Figure 14. Register View Menu
26
MAX24000-SERIES EVALUATION KIT
4.11 Configuration Scripts and Log Files
4.11.1
Configuration Log File
E very write command issued by the software to the EVKIT board is logged in a file. The file naming convention for
the default log file name is [DEV ICE][REV]_EVK IT_Log.mfg. The default location of t he log file is the application
data directory specified when the EVK IT soft ware is installed. As an example, if the default application data
directory is chosen when the EVK IT software is installed and the selected device is a MA X24310 revA1, t he
corresponding log file would be:
Windows XP:
C:\Documents and Settings\All Users\Application Data\Microsemi\MA X24000-Series
EVKIT\MA X24310A 1_EVKIT_Log.mfg
Windows 7:
C:\Users\\AppData\Local\Microsemi\MA X24000-Series
EVKIT\MA X24310A 1_EVKIT_Log.mfg
The log file can be viewed in Notepad by pressing the Log File button in the lower-left corner of the main window.
Command line option "-l " can be used to change the log file name and location.
4.11.2
Configuration Scripts
Configuration scripts are useful for quickly configuring a devic e without having to remember all the required
settings. Two types of configuration scripts are possible: full and partial. A full configuration script contains register
writes for all configuration registers in the device. A partial configuration script contains register writes for only
those registers that have been changed from their reset values. A partial configuration script can be used to
initialize a device following reset using the minimum number of devic e accesses.
Cert ain aspects of c onfiguring a MA X24000-Series device require a specific initialization sequence. The
configuration scripts created using the Create Config Script menu adhere to those requirements.
4.11.2.1
Device Initialization Script
The devic e initialization script contains an application independent devic e configuration that optimizes device
performance. Each MA X24000-S eries device has a unique initialization script file. This script should be loaded as
the first step in device configuration as described in the following sections. The initialization script file name is
[DEVICE][REV IS ION]_Startup.mfg (where [ DEVICE] indicates device part number and [ REVIS ION] indicates
devic e revision. All devic e startup configuration scripts are located in the application data directory in the subdirectory Scripts\Startup Scripts. As an example, the initialization script file for the MA X24310 revA1 is:
Windows XP:
C:\Documents and Settings\All Users\Application Data\Microsemi\24000-Series EVKIT\Scripts\Startup
Scripts\MAX24310A 1_Startup.mfg
Windows 7:
C:\Users\\AppData\Local\Microsemi\MA X24000-Series EVKIT\Scripts\Startup
Scripts\MAX24310A 1_Startup.mfg
27
MAX24000-SERIES EVALUATION KIT
The startup configuration script can be edited or replaced as needed t o change the initial configuration of t he
devic e. Be aware, however, that the section of the file labeled “Required Initialization” must be executed aft er
devic e power-up or reset for the device to operate correctly.
4.11.2.2
Creating a Full Configuration Script in Demo Mode
Perform the following sequence to create a full configuration script in Demo Mode:
1.
Start the EVKIT soft ware
2.
Load the appropriate device initialization script using the Run Config Script button
3.
Configure the device using the EVKIT software GUI menus
4.
Press the Create Config Script button in the lower-left corner of the main menu
5.
On the Create Config Script pop-up menu, specify the file name and location, and check the Include
configuration regi sters that are still set to their reset value s checkbox
6.
On the Create Config Script pop-up menu, press the Create button
If the specified file already exists, a pop-up message is displayed to confirm that the file should be overwritten.
After the configuration file is created, it is displayed in Notepad for review.
4.11.2.3
Creating a Partial Configuration Script in Demo Mode
Perform the following sequence to create a full configuration script in Demo Mode:
1.
Start the EVKIT soft ware
2.
Load the appropriate device initialization script using the Run Config Script button
3.
Configure the device using the EVKIT software GUI menus
4.
Press the Create Config Script button in the lower-left corner of the main menu
5.
On the Create Config Script pop-up menu, specify the file name and location, and un-check the Include
configuration regi sters that are still set to their reset value s checkbox
6.
On the Create Config Script pop-up menu, press the Create button
If the specified file already exists, a pop-up message is displayed to confirm that the file should be overwritten.
After the configuration file is created, it is displayed in Notepad for review.
28
MAX24000-SERIES EVALUATION KIT
4.11.2.4
Creating a Full Configuration Script While Communicating With an EVKIT
Perform the following sequence to create a full configuration script while communicating with an EVKIT:
1.
Start the EVKIT soft ware
2.
Uncheck the Demo Mode check box in the upper left section of the main menu
3.
On the Run Config Script pop-up menu, press the Initialize button to load the device initialization script
4.
Configure the device using the EVKIT software GUI menus
5.
Press the Create Config Script button in the lower-left corner of the main menu
6.
On the Create Config Script pop-up menu, specify the file name and location, and check the Include
configuration regi sters that are still set to their reset value s checkbox
7.
On the Create Config Script pop-up menu, press the Create button
If the specified file already exists, a pop-up message is displayed to confirm that the file should be overwritten.
After the configuration file is created, it is displayed in Notepad for review.
4.11.2.5
Creating a Partial Configuration Script While Communicating With an EVKIT
Perform the following sequence to create a full configuration script while communicating with an EVKIT:
1.
Start the EVKIT soft ware
2.
Uncheck the Demo Mode check box in the upper left section of the main menu
3.
On the Run Config Script pop-up menu, press the Initialize button to load the device initialization script
4.
Configure the device using the EVKIT software GUI menus
5.
Press the Create Config Script button in the lower-left corner of the main menu
6.
On the Create Config Script pop-up menu, specify the file name and location, and un-check the Include
configuration regi sters that are still set to their reset value s checkbox
7.
On the Create Config Script pop-up menu, press the Create button
If the specified file already exists, a pop-up message is displayed to confirm that t he file s hould be overwritten.
After the configuration file is created, it is displayed in Notepad for review.
4.11.2.6
Running a Configuration Script
Perform the following sequence to run a configuration script
1.
Press the Run Config Script button in the lower-left corner of the main window
2.
On the Run Config Script pop-up menu, specify the file name and location
3.
On the Run Config Script pop-up menu, press the Execute button.
A configuration script can be run while in Demo Mode or communicating with an EVKIT.
29
MAX24000-SERIES EVALUATION KIT
4.11.2.7
EVKIT Log File
Whle the EVKIT soft ware is running, a log file is maintained of all device configurations that are performed. This
includes any GUI menu updates that c orrespond to device register writes as well as any register writes performed
whn a configuration script is run. The log file can be viewed by pressing the View Log File button at the bottom of
the main menu. This log file should not be used as a substitute for the device configuration script created using t he
Create Config Script button as described above in this section.
5. EVKIT Errata
None.
6. Revision History
REVISION
DATE
12/20/ 12
DESCRIPTION
First version for EVKIT revB assembly
30
MAX24000-SERIES EVALUATION KIT
7. Bill of Materials
Figure 15. EVKIT Bill of Materials
DESIGNATION
QTY
DESCRIPTION
SUPPLIER
PART
Common Components
B1, B2, B3, B4, B5, B6, B7,
B8, B9, B10, FB1, FB2, FB3,
FB4
C19, C20, C21, C22, C23,
C26, C27, C29, C30, C35,
C36, C38, C39, C41, C42,
C43, C44, C45, C47, C58,
C60, CB61, CB117, CB169
C14, C28, CB5, CB8, CB11,
CB12, CB18, CB19, CB48,
CB54, CB55, CB65, CB71,
CB73, CB74, CB76, CB77,
CB78, CB79, CB81, CB82,
CB84, CB93, CB99, CB115,
CB129, CB139, CB140,
CB142, CB143, CB144, CB147
C15, C54, CB23, CB28, CB40,
CB66, CB67, CB68, CB69,
CB70, CB83, CB146, CB151
C7, C8, C9, C10, C13, C17,
CB7, CB9, CB13, CB17, CB21,
CB24, CB30, CB32, CB34,
CB35, CB36, CB38, CB56,
CB57, CB63, CB72, CB125,
CB137
C11, C12, C16, C18, C24,
C31, C32, C33, C37, C46,
C48, C49, C50, C52, C53,
C55, C56, C57, C59, C61,
C62, CB37, CB39, CB41,
CB42, CB43, CB44, CB45,
CB47, CB49, CB50, CB51,
CB52, CB53, CB58, CB64,
CB94, CB95, CB98, CB102,
CB103, CB104, CB106,
CB107, CB108, CB110,
CB111, CB112, CB113,
CB116, CB119, CB120,
CB123, CB124, CB127,
CB128, CB130, CB131,
CB136, CB145, CB149,
CB154, CB155, CB158,
CB162, CB163, CB164, CB165
C51, CB148, CB153
CB20
C25, C34, C40, C63, C65,
CB6, CB10, CB14, CB15,
CB16, CB22, CB26, CB29,
CB33, CB46, CB59, CB60,
CB62, CB75, CB80, CB86,
CB87, CB88, CB89, CB90,
CB91, CB92, CB97, CB105,
CB118, CB122, CB126,
CB132, CB133, CB134,
CB135, CB138, CB141,
CB150, CB152, CB160
CB156, CB157, CB159,
CB166, CB167, CB168
CB161
14
GHZ NOISE CHIP FERRITE BEAD, .25 OHM
DC, 600 OHM @100MHz, 600 OHM @1GHz,
800mA
24
MURATA
BLM18HE601SN1D
CAP CER 3.3UF 4.0V X5R 0402
AMK
AMK105BJ335MV-F
32
0603 CERAM 1.0uF 6.3V 10% MULTILAYER
PAN
ECJ-1VB0J105K
13
L_0603 CERAM .1uF 16V 20% X7R
AVX
0603YC104MAT
24
0603 CERAM 10uF 6.3V 20% MULTILAYER
PAN
ECJ-1VB0J106M
68
0402 CERAM 0.1uF 16V 10%
PAN
ECJ-0EB1C104K
3
1
L_0603 CERAM .001uF 50V 10%
CAPACITOR, TANT 68uF 16V 20%
PAN
NICHICON
ECJ-1VB1H102K
F931C686MNC
41
0603 CERAM 4.7uF 6.3V 10% MULTILAYER
PAN
ECJ-1VB0J475K
6
L_0603 CERAM .01uF 50V 10% X7R
AVX
06035C103KAT
1
D CASE TANT 68uF 16V 20%
PAN
ECS-T1CD686R
31
MAX24000-SERIES EVALUATION KIT
DESIGNATION
QTY
DESCRIPTION
CB25, CB27
CB31
DB3, DB6
2
1
2
DB1, DB2, DB4, DB5
4
DS1, DS4, DS5
DS2, DS3, DS6, DS7, DS8,
DS9, DS10
TP12, GND_TP2, GND_TP3,
GND_TP4, GND_TP5,
GND_TP6, GND_TP7
HB1, HB2, HB3, HB4, HB5,
HB6, HB7, HB8, HB9, HB10,
HB11
J1, J14, J19
J2
J3
J31, J36, J45, J53, J54
J4
J5, J6, J7, J8, J9, J26, J44
JMP1, JMP2, JMP3, JMP4,
JMP5, JMP6, JMP8, JMP10,
JMP23, JMP24, JMP25,
JMP26, JMP28, JMP30
JMP7, JMP9, JMP11, JMP12,
JMP13, JMP14, JMP17,
JMP18, JMP19, JMP27,
JMP29, JMP31, JMP32
R51, R52, R63, R64, R65,
R66, R67, R68, R69, R70,
R71, R72, R73, R74, R75,
R76, R77, R78
R79, R80, R81, R82
R15, R16, R17, R19
RB13, RB15, RB16, RB19,
RB30, RB31, RB32, RB38
R28, R29, R34, R35, R41,
R42, R56, R57
R3, RB20, RB22, RB25, RB26,
RB33
R4, R6, R26, R27, R53, R54,
RB1, RB2, RB28, RB29, RB36,
RB40
R45, RB34, RB37
R5, RB3, RB4, RB8, RB9,
RB11
C52, R7, R8, R9, R10, R11,
R12, R13, R14, R18, R20,
R21, R22, R30, R31, R32,
R33, R36, R37, R38, R39,
R46, R47, R48, R49, R50,
R55, R58, R148, RB39, RB42
RB10
RB12, RB14, RB17, RB18,
RB21, RB23, RB24, RB27
RB5, RB6
RB7
SW1
TP2, TP3, TP4, TP5, TP7,
TP8, TP9, TP10, TP11
3
0603 CERAM 22pF 50V 5%
0805 CERAM .47uF 16V 10%
DIODE 1A 50V SMD
SCHOTTKY DIODE, 1 AMP 40 VOLT (OK TO
SUBSTITUTE Vishay VS-10BQ040PBF)
L_LED, GREEN, SMD
7
LED, RED, SMD
7
STANDARD GROUND CLIP
11
Rubber bumper 0.5 inch
3
1
1
5
1
7
L_TERMINAL STRIP, 10 PIN, DUAL ROW, VERT
L_TERMINAL STRIP, 6 PIN, DUAL ROW, VERT
2.0MM SURFACE MOUNT POWER JACK
TERMINAL STRIP, 6 PIN, DUAL ROW, V ERT
CONN, USB, TYPE B SINGLE RT ANGLE
TERMINAL STRIP, 10 PIN, DUAL ROW, V ERT
14
SUPPLIER
PART
PAN
PAN
DIODES INC
ECJ-1VC1H220J
ECJ-2YB1C474K
S1AB-13-F
IRF
10BQ040PBF
PAN
LN1351C
PAN
LN1251C
KEYSTONE
4954
NA
SJ5518-0
STC
STC
CUI INC
STC
MOL
NA
TSW-105-07-T-D
TSW-103-07-T-D
PJ-002AH-SMT
TSW-103-07-T-D
67068-8000
NA
L_HEADER, 3- PIN, .100 CENTERS, VERTICAL
STC
TSW-103-07-T-S
13
L_2 PIN HEADER, .100 CENTERS, VERTICAL
STC
TSW-102-07-T-S
18
RES 0402 30.0 OHM 1/16W 1%
PAN
ERJ-2RKF30R0X
4
4
RES 0402 30.0 OHM 1/16W 1%
RES 0603 0.0 Ohm 1/16W 5%
PAN
PAN
ERJ-2RKF30R0X
ERJ-3GEY0R00V
8
RES 0402 1.00 KOHM 1/16W 1%
PAN
ERJ-2RKF1001X
8
RES 0402 49.9 OHM 1/16W 1%
PAN
ERJ-2RKF49R9X
6
RES 0603 332 Ohm 1/16W 1%
PAN
ERJ-3EKF3320V
12
RES 0603 10.0K Ohm 1/16W 1%
PAN
ERJ-3EKF1002V
3
RES 0402 100 OHM 1/16W 1%
6
Current Sensing Resistor 0.02 ohm
PAN
ERJ-2RKF1000X
Ohmite
LVK12R020DERCT- ND
31
RES 0402 0 OHM 1/10W 5%
PAN
ERJ-2GE0R00X
1
RES 0603 100K Ohm 1/16W 1%
PAN
ERJ-3EKF1003V
8
RES 0603 330 Ohm 1/16W 5%
PAN
ERJ-3GEYJ331V
2
1
1
RES 0603 33.2 Ohm 1/16W 1%
RES 0603 1.00M Ohm 1/16W 1%
SWITCH MOM 4PIN SINGLE POLE
PAN
PAN
PAN
ERJ-3EKF33R2V
ERJ-3EKF1004V
EVQPAE04M
9
TESTPOINT, 1 PLATED HOLE RED
KEYSTONE
5000R
FREESCALE
MC9S08JM32CLH-ND
Maxim
MAX
MAX9111EKA+
MAX1793EUE33/V+-ND
MAXIM
MAX9610FEXK+T
MAX
MAX1793EUE-15
U1
1
UB20
UB5, UB6, UB13, UB21
U2, UB1, UB2, UB7, UB8,
UB14
UB10
1
4
IC, HCS08 8-BIT MICROCONTROLLER, 32K
FLASH, 2K RAM, 2 UART, 2 SPI, I2C, USB, -40
TO 85C, 64 PIN LQFP
Single/Dual LVDS Line Receiver
LINEAR REGULATOR, 3.3V, 16 PIN TSSOP- EP
6
Precision Current-Sense Amplifier
1
LINEAR REGULATOR, 1.5V, 16 PIN TSSOP- EP
32
MAX24000-SERIES EVALUATION KIT
DESIGNATION
QTY
UB11
1
UB12
1
UB15, UB16, UB17, UB18,
UB19
5
UB23
1
UB3, UB4
2
UB9
1
X1
1
Y9
1
J10, J11, J12, J13, J15, J16,
J17, J18, J20, J21, J22, J23,
J24, J25, J27, J28, J29, J30,
J32, J33, J34, J35, J37, J38,
J39, J40, J41, J42, J43, J46,
J47, J48, J49, J50, J51, J52
36
DESCRIPTION
MICROPROCESSOR VOLTAGE MONITOR,
3.08V RESET, 4PIN SOT143, LEAD-FREE
ULTRA-HIGH- PRECISION, ULTRA-LOW-NOISE
SERIES VOLTAGE REFERENCE, 4.096V, 8 PIN
UMAX
HIGH SPEED BUFFER
Low-Voltage DDR Linear Regulators Sink, Source
up to 3A
LINEAR REGULATOR, 1.8V, 16 PIN TSSOP- EP,
ROHS/LEAD-FREE
LINEAR REGULATOR, 2.5V, 16 PIN TSSOP- EP
XTAL, HC49SD, 12.0000MHz +/-50PPM,
CL=20PF
VECTRON OSC OUTLINE WITH TERMINAL
SOCKET, 10-PIN, 2 ROW VERTICAL.
CONNECTOR, SMB, 50 OHM V ERTICAL, 5PIN
SUPPLIER
PART
MAX
MAX811TEUS+T
MAX
MAX6126BASA41+
FAIRCHILD
NC7SZ86
MAXIM
MAX1510ETB+
MAX
MAX1793EUE18+
MAX
MAX1793EUE-25+
FOX
FOXSDLF-120-20
STC
SSW-105-01-T-D
AMP
413990-1
MICROSEMI
MAX24210EXG+
RAKON
TX6287-20.480M
VECTRON
VCC1-1541-98M304000
ATM
8 DIP SOCKET
MAX24210 EVKIT Specific Components
U5
1
Y7
1
Y8
1
Y4
1
U3
1
NA
1
10-Output Any-Rate Timing IC
OSC ILLATOR, RAKON TCXO, 3.3V, 20.48 MHZ,
3mmX5mm SMD
OSCILLATOR, VECTRON XO, 3.3V, 98.304MHZ,
4 PIN 5x7mm SMD
8 PIN DIP SOCKET
SPI SERIAL EEPROM 2M 8 PIN SOIC 2.7V TO
3.6V
49.152MHz Crystal Daugher Card
ATMEL
AT25160B-SSHL-B
MICROSEMI
Figure 17
MICROSEMI
MAX24310EXG+
RAKON
TX6287-20.480M
VECTRON
VCC1-1541-98M304000
MICROSEMI
Figure 17
MICROSEMI
MAX24410EXG+
VECTRON
VCC1-1539-78M1250000
ATM
8 DIP SOCKET
MAX24310 EVKIT Specific Components
U5
1
Y7
1
Y8
1
NA
1
10-Output Any-Rate Timing IC w ith Internal
EEPROM
OSC ILLATOR, RAKON TCXO, 3.3V, 20.48 MHZ,
3mmX5mm SMD
OSCILLATOR, VECTRON XO, 3.3V, 98.304MHZ,
4 PIN 5x7mm SMD
49.152MHz Crystal Daugher Card
MAX24410 EVKIT Specific Components
U5
1
Y8
1
Y4
1
U3
1
NA
1
10-Output Any-Rate Clock Multiplier
OSCILLATOR, VECTRON XO, 3.3V, 78.125MHZ,
4 PIN 5x7mm SMD
8 PIN DIP SOCKET
SPI SERIAL EEPROM 2M 8 PIN SOIC 2.7V TO
3.6V
50MHz Crystal Daugher Card
ATMEL
AT25160B-SSHL-B
MICROSEMI
Figure 16
MICROSEMI
MAX24510EXG+
VECTRON
VCC1-1539-78M1250000
MICROSEMI
Figure 16
MAX24510 EVKIT Specific Components
U5
1
Y8
1
NA
1
10-Output Any-Rate Clock Multiplier w ith Internal
EEPROM
OSCILLATOR, VECTRON XO, 3.3V, 78.125MHZ,
4 PIN 5x7mm SMD
49.152MHz Crystal Daugher Card
33
MAX24000-SERIES EVALUATION KIT
MAX24610 EVKIT Specific Components
U5
1
Y7
1
Y8
1
Y4
1
U3
1
NA
1
10-Output Any-Rate Line Card Timing IC
OSC ILLATOR, RAKON TCXO, 3.3V, 20.48 MHZ,
3mmX5mm SMD
OSCILLATOR, VECTRON XO, 3.3V, 98.304MHZ,
4 PIN 5x7mm SMD
8 PIN DIP SOCKET
SPI SERIAL EEPROM 2M 8 PIN SOIC 2.7V TO
3.6V
49.152MHz Crystal Daugher Card
MICROSEMI
MAX24610EXG+
RAKON
TX6287-20.480M
VECTRON
VCC1-1541-98M304000
ATM
8 DIP SOCKET
ATMEL
AT25160B-SSHL-B
MICROSEMI
Figure 17
MICROSEMI
MAX24710EXG+
RAKON
TX6287-20.480M
MAX24710 EVKIT Specific Components
U5
1
Y7
1
Y8
1
NA
1
10-Output Any-Rate Line Card Timing IC w ith
Internal EEPROM
OSC ILLATOR, RAKON TCXO, 3.3V, 20.48 MHZ,
3mmX5mm SMD
OSCILLATOR, VECTRON XO, 3.3V, 98.304MHZ,
4 PIN 5x7mm SMD
49.152MHz Crystal Daugher Card
VECTRON
VCC1-1541-98M304000
MICROSEMI
Figure 17
VECTRON
AVX
PAN
PAN
VXM7-1148-50M000000
06031U160FAT2A
ERJ-3EKF1004V
ERJ-3EKF1211V
VECTRON
AVX
PAN
PAN
VXM7-1149-49M152000
06031U160FAT2A
ERJ-3EKF1004V
ERJ-3EKF1211V
Figure 16. EVKIT 50MHz Crystal Daughter Card Bill of Materials
50MHz Crystal Daugher Card
XDC_X1
XDC_C1, XDC_C2
XDC_R1
XDC_R2
1
2
1
1
Crystal, 50MHz +/-20ppm, CL=10pf
Capacitor, ceramic, 16PF, 100V, 1%, 0603
RES 0603 1.00M Ohm 1/16W 1%
RES 0603 1.21M Ohm 1/16W 1%
Figure 17. EVKIT 49.152MHz Crystal Daught er Card Bill of Materials
49.152MHz Crystal Daugher Card
XDC_X1
XDC_C1, XDC_C2
XDC_R1
XDC_R2
1
2
1
1
Crystal, 49.152MHz +/-20ppm, CL=10pf
Capacitor, ceramic, 16PF, 100V, 1%, 0603
RES 0603 1.00M Ohm 1/16W 1%
RES 0603 1.21M Ohm 1/16W 1%
8. Schematics
See the following pages.
34
8
7
6
5
4
3
2
1
D
D
C
C
B
B
A
A
TITLE:
DATE:
MAX24310
REV B
ENGINEER:
8
7
6
5
4
3
12-20-2012
PAGE:
2
1 OF 15
1
8
7
6
5
4
3
2
1
RB30
1.00K
V3_3
D
3
OC9NEG
F2
MCLKOSCN
OC8POS
J1
OC8NEG
H1
OC7POS
J2
OC7NEG
H2
OC6POS
J3
OC6NEG
H3
OC5POS
J7
OC5NEG
H7
OC4POS
J8
OC4NEG
H8
OC3POS
J9
OC3NEG
H9
OC2POS
F9
OC2NEG
F8
OC1POS
E9
OC1NEG
E8
IC2POS
B1
IC2NEG
C
A9
IC1POS
B9
U5
SPI1_MISO
SPI1_MOSI
SPI1_SCK
RST_811*
GPIO4
B2
CS_N
GPIO3
A2
A5
SDO
GPIO2
B8
A7
SDI
GPIO1
A8
A6
SCLK
RST_N
JTRST_N
C6
C8
JTMS
C7
JTCLK
B5
JTDI
C5
JTDO
B6
JTRST
JTMS
JTCLK
JTDI
JTDO
2
TMS
4
6
V3_3
VCC
1
TCK
3
3
TDI
RST
5
8
TDO
7
7
10
10
GND
9
C
CONN_10P
JTRST
JTCLK
RB38 1.00K
RB36 10.0K
EEPROM SOCKET+SOIC
PAGE 7
2
R148
B
1.00M
XDC_X1
XDC_R2
YB1
16PF
XDC_C2
16PF
XDC_C1
DNP
6
5
A
DS10
50MHZ
TITLE:
DATE:
REV B
ENGINEER:
7
UB194
49.152MHZ
MAX24310
8
1
2
ECS_N
MAX24405
MAX24410
MAX24505
MAX24510
CASE
18PF
CB100
4
2
18PF
CB121
DNP
GND=GND
NC7SZ86_U
BUFFER
RED
3
CASE
XDC_X1 FREQ
MAX24205
MAX24210
MAX24305
MAX24310
MAX24605
MAX24610
MAX24705
MAX24710
332
XDC_R2
DEVICE
RB33
DAUGHTER CARD
XTAL CIRCUIT
11
1
XOUT
EVKIT ONBOARD XTAL
CIRCUIT REPLACED BY
DAUGHTER CARD XTAL
CIRCUIT
DNP
50.0000MHZ
A
XIN
2
EVKIT ONBOARD
XTAL CIRCUIT
1.21K
XOUT
XIN
XOUT J5
XIN H5
B
GPIO4
GPIO3
GPIO2
GPIO1
J26
XOUT
XIN
IC1NEG
MAX24310
B7
1
MCLKOSCP
B3
2
JMP10
SPI1_SS*
0.0
F1
1
E2
OC9POS
A3
A1
IC1POS
IC1NEG
OC10NEG
OC10POS
OC10NEG
OC9POS
OC9NEG
OC8POS
OC8NEG
OC7POS
OC7NEG
OC6POS
OC6NEG
OC5POS
OC5NEG
OC4POS
OC4NEG
OC3POS
OC3NEG
OC2POS
OC2NEG
OC1POS
OC1NEG
ESDO
ESDI
ESCLK
ECS_N
TEST
IC2POS
IC2NEG
E1
ESDO C4
ESDI B4
ESCLK A4
ECS_N C3
C2
TEST
MCLKOSCPOS
MCLKOSCNEG
OC10POS
D
U5
MAX24310
4
3
12-20-2012
PAGE:
2
2 OF 15
1
3
2
UB14
1
50V/V
OUT
MAX9610
GND
GND
V3_3_OSC
2
4
1
1
C13
2
RB11
1
B5
2
2
SHDN*
CB55
RST*
6
7
1.0UF
15
2
14
OUT4
3
B6
2
OUT3
IN4
10UF
2
IN3
5
CB63
4.7UF
CB46
1
C28
4
V3_3_OSC_F
1
2
13
1
12
OUT2
0.02
10UF
OUT1
IN2
1
IN1
3
2
2
GREEN
1.0UF
1
4.7UF
C25
+
2
68UF
11
CB20
332
1
NC
DS1
2
2
R3
1
BARREL
DB3
4
1
2
CENTER POST
2
1
2
J3
R_SENSE
1
UB13
TP2
D
4
1
5
V5_0
VSENSE_33OSC
1
2
RS-
RS+
D
3
4.7UF
4
CB150
5
2
6
1.0UF
7
CB65
8
3
C
SET
11
GND
10
C
MAX1793_U2
VCC
UB5
2
IN1
OUT1
12
3
IN2
OUT2
13
4
IN3
OUT3
14
5
IN4
OUT4
15
RST*
6
V3_3
TP3
1
10UF
CB36
2
2
CB15
4.7UF
1
GND_TP5
GND_TP6
GND_TP4
GND_TP2
GND_TP3
3.3V
B
7
SHDN*
SET
11
GND
10
B
MAX1793_U2
3.3V
UB6
V3_3_ANA
IN1
OUT1
12
3
IN2
OUT2
13
4
IN3
OUT3
14
5
IN4
OUT4
15
RST*
6
7
SHDN*
1
A
2
10UF
CB16
2
1
4.7UF
2
CB26
1
4.7UF
CB62
2
2
CB86
4.7UF
1
V3_3
CB34
A
4.7UF
1
2
SET
11
GND
10
TITLE:
MAX1793_U2
8
7
6
5
DATE:
MAX24310
3.3V
4
REV B
ENGINEER:
3
12-20-2012
PAGE:
2
3 OF 15
1
5
4
50V/V
OUT
UB1
MAX9610
GND
GND
V3_3
10UF
1
1
RB3
2
2
VDD33
1
3
2
1
1.0UF
C7
CB12
1
0.02
4
V3_3_ANA
D
4
R_SENSE
1
2
JMP1
VSENSE_33DIG
1
2
CB5
3
5
2
1
RS-
RS+
V3_3_DIG
3
2
4.7UF
D
3
CB97
6
2
7
1.0UF
8
C
C
B
B
50V/V
OUT
UB8
MAX9610
GND
GND
4
2
TITLE:
6
1
4.7UF
2
CB92
1
1.0UF
2
CB79
1
4.7UF
REV B
ENGINEER:
7
2
DATE:
MAX24310
8
CB91
1
1.0UF
2
CB81
1
2
4.7UF
CB138
1
1.0UF
CB140
2
1.0UF
CB74
2
2
2
1
1
CB54
2
1
TP4
2
1
B3
1
1
10UF
3
B4
RB9
10UF
CB19
1.0UF
C10
1
4
A
V3_3_ANA_F
1
C17
0.02
2
R_SENSE
1.0UF
2
VSENSE_33ANA
1
2
RS-
RS+
5
V3_3_ANA
3
5
4
3
12-20-2012
PAGE:
2
4 OF 15
1
A
8
7
6
5
4
3
2
1
NOTES:
1. CB109 IS NOT POPULATED TO PROVIDE
A CLEAR MOUNTING AREA FOR THE
CRYSTAL DAUGHTER CARD
D
D
50V/V
OUT
UB2
MAX9610
GND
GND
VSENSE_18DIG
1
2
1
2
4.7UF
CB118
1
2
1.0UF
CB115
1
2
4.7UF
CB105
1
1.0UF
2
CB93
1
4.7UF
2
VDD_DIG_18
1.0UF
CB129
1
3
C
1
1.0UF
CB99
10UF
CB125
1
10UF
1
TP5
RB4
2
2
2
2
CB11
1.0UF
C8
1
4
2
1
V1_8_ANA
0.02
1
2
JMP2
C
4
R_SENSE
1.0UF
2
2
5
CB8
3
V1_8_DIG
CB135
1
RS-
RS+
V1_8_D
3
B
B
1
2
4.7UF
CB122
1
1.0UF
2
CB139
CB144
1
4.7UF
4.7UF
CB134
2
CB87
1
1.0UF
1.0UF
CB147
2
4.7UF
1
1
1.0UF
4.7UF
DNP
CB84
1
CB109
1
1.0UF
1
1
4.7UF
CB76
1
CB126
CB71
2
2
2
2
2
2
2
TITLE:
DATE:
MAX24310
REV B
ENGINEER:
8
7
6
5
A
2
10UF
CB48
2
1.0UF
1
1
CB82
1
1
TP7
2
1
B1
2
2
CB90
1
2
1
1
2
3
B2
RB8
10UF
1.0UF
C9
1
CB18
V1_8_ANA_F
1
1.0UF
0.02
4
A
2
4
R_SENSE
CB72
5
2
1
2
RS-
RS+
V1_8_ANA
VSENSE_18ANA
2
GND
GND
3
1.0UF
MAX9610
1.0UF
UB7
CB78
50V/V
OUT
4
3
12-20-2012
PAGE:
2
5 OF 15
1
7
6
UB9
2
1
15
10UF CB21
SHDN*
11
GND
10
SENSO
1
2
2
3
4
4
5
5
6
6
8
7
7
8
9
9
10
VDDOA
1
B7
D
2
10
2
SET
V1_5
SENSO
1
10UF
CB30
2
6
RST*
1
3
1
14
OUT4
4.7UF
OUT3
IN4
CB89
IN3
5
2
4
J5
V1_5
V1_8_D
V2_5
V3_3
1
13
1.0UF
OUT2
CB73
IN2
V3_3
3
10UF CB17
12
V1_8_D
V2_5
OUT1
10UF CB13
IN1
7
3
V2_5
2
1
4.7UF
CB60
2
D
4
10UF CB9
V5_0
5
10UF CB7
8
CONN_10P
MAX1793_U2
J6
OUT2
13
14
OUT4
15
RST*
6
1
6
7
8
8
9
9
10
B8
2
10
2
IN4
10UF
5
5
7
VDDOB
1
C
2
OUT3
CB32
4.7UF
CB59
2
IN3
SENSO
6
1
IN2
4
4
5
4.7UF
3
2
4
CB88
12
2
2
OUT1
1
3
1.0UF
IN1
1
3
1
2
1
C
V1_5
UB10
V5_0
V1_5
V1_8_D
V2_5
V3_3
CB77
2.5V
7
SHDN*
CONN_10P
SET
11
GND
10
J7
4
4
5
6
7
8
8
2
7
10
4
0.02
1
J8
V1_5
V1_8_D
V2_5
V3_3
SENSO
R5
1
CB132
CONN_10P
1
3
B
2
2
1
2
4
R_SENSE
10
4.7UF
8
10
10UF
SENSO
1
1
2
2
3
3
4
4
5
5
6
6
7
7
8
8
9
9
10
VDDOD
1
B9
2
10
A
2
2
2
CONN_10P
8
9
2
2
10
1.0UF
CB56
9
C14
9
1
5
6
7
9
B10
1
3
5
7
VDDOC
1
4.7UF
2
3
6
CB133
1
2
6
1.0UF
1
5
RS-
V3_3
GND
GND
RS+
V1_5
V1_8_D
V2_5
SENSO
VSENSE_SENSO
4
5
1
MAX9610
J9
3
2
4
CB142
50V/V
OUT
U2
2
3
1.0UF
1.5V
B
1
3
1
MAX1793_U2
1
CB143
V1_5
V1_8_D
V2_5
V3_3
A
CONN_10P
TITLE:
DATE:
MAX24310
REV B
ENGINEER:
8
7
6
5
4
3
12-20-2012
PAGE:
2
6 OF 15
1
8
7
6
5
4
3
2
1
2.7V
V3_3
UB3
Y4
IN1
OUT1
12
OUT2
13
4
IN3
OUT3
14
5
IN4
OUT4
15
RST*
6
7
SHDN*
1
V3_3
10UF
IN2
CB38
3
RB29
1
2
10.0K
2
2
CB10
4.7UF
1
2
SET
11
GND
10
ESDI
ESDO
ESCLK
ECS_NJ
5
SI
8DIP
VCC
8
2
SO
WP*
3
6
SCK
HOLD*
7
1
CS*
GND
4
E_WP
E_HOLD
D
1.00K
D
RB32
V1_8_D
RB31 1.00K
V5_0
AT25160A_U
SOCKET FOR 8 PIN DIP
MAX1793_U2
C
3
1.8V
ECS_N
UB4
2
OUT2
13
4
IN3
OUT3
14
5
IN4
OUT4
15
RST*
6
V3_3
1
2
1
10UF
CB35
4.7UF
CB14
2
SET
11
GND
10
2.7V
CB75
SHDN*
U3
V3_3
B
MAX1793_U2
1
RB28
2
10.0K
1.8V
ESDI
ESDO
ESCLK
2
7
1
IN2
5
SI
VCC
8
2
SO
WP*
3
6
SCK
HOLD*
7
1
CS*
GND
4
4.7UF
3
CB80
12
2
OUT1
1
IN1
1
V1_8_ANA
2
I342
JMP8
4.7UF
C
B
E_WP
E_HOLD
AT25160A_U
8 PIN SOIC
A
A
1
4.7UF
2
CB33
1
4.7UF
CB22
2
2
CB6
4.7UF
1
V1_8_DIG
TITLE:
DATE:
MAX24310
REV B
ENGINEER:
8
7
6
5
4
3
12-20-2012
PAGE:
2
7 OF 15
1
5
4
3
2
1
V5_0
UB12
3
4
4
5
5
6
6
7
7
8
8
9
1
9
10
UGIO_1
UGIO_2
UGIO_3
UGIO_4
1
1
2
2 RB13
1.00K
3
3
4
4 RB15
1.00K
5
5
6
6 RB16
1.00K
7
7
8
8 RB19
1.00K
9
9
10
V3_3
10
VSENSE_SENSO
50
SENSO
PTD5
51
PTB0/MISO2/ADP0
PTD6
52
PTB1/MOSI2/ADP1
PTD7
53
PTB2/SPSCK2/ADP2
PTE0/TXD1
13
37
PTB3/SS2/ADP3
PTE1/RXD1
14
38
PTB4/KBIP4/ADP4
PTE2/TMP1CH0
15
39
PTB5/KBIP5/ADP5
PTE3/TPM1CH1
16
40
PTB6/ADP6
PTE4/MISO1
41
PTB7/ADP7
PTE5/MOSI1
60
PTC0/SCL
61
PTC1/SDA
62
PTC2
PTF0/TPM1CH2
63
PTC3/TXD2
PTF1/TPM1CH3
PTC4
PTF2/TPM1CH4
PTC5/RXD2
PTF3/TPM1CH5
9
PTC6
PTF4/TPM2CH0
3
RESET*
PTF5/TPM2CH1
PTA5
U1
V3_3_ANA
V3_3_DIG
V1_8_ANA
V1_8_DIG
34
35
36
VSENSE_33ANA
VSENSE_33DIG
VSENSE_18ANA
VSENSE_18DIG
I2C_SCL
I2C_SDA
VBUSDET
PTE6/SPSCK1
PTE7/SS1
2
1
1
4
3
2
MR*
4
GND
RESET*
2
V3_3
PTF7
24
USBDP
PTG0/KBIP0
23
USBDN
PTG1/KBIP1
RST_811*
PTG2/KBIP6
2
33.2
RB6
USBDN_A 1
55
PTG4/XTAL
57
PTG5/EXTAL
58
7
2
22
47
46
59
A
RB7
2
1
CB25
BKGDMS
1
2
2
3
3
4
4
5
5
6
6
2
V5_0
J2
1
RST*
TITLE:
6
5
REV B
ENGINEER:
4
3
1.00M
DATE:
MAX24310
CONN_2x3
8
1
12.0000MHZ
X1
1
1
1
2
3
4
B
54
PTG3/KBIP7
10.0K
VDD
DATDAT+
GND
SH
3.3UF
SPI1_MISO
SPI1_MOSI
19 SPI1_SCK
V3_3
20 SPI1_SS*
RED
4
UGIO_1 RB12 330 DS2
RED
5
UGIO_2 RB14 330 DS3
6
UGIO_3 RB17 330 DS4 GREEN
7
UGIO_4 RB18 330 DS5 GREEN
8 UGIO USAGE:
DRIVE HIGH TO TURN OFF LED
11 INSTALL JUMPER TO PULL PIN LOW
REMOVE JUMPER AND INTERNAL
12
PULLUP WILL BIAS
TEMPORARILY TRISTATE TO READ PIN
10
ASSIGNMENTS:
26
UGIO_1 = POWER CONSUMPTION
UGIO_2 UNASSIGNED
27
UGIO_3 UNASSIGNED
UGIO_4 UNASSIGNED
18
VBUSDET
2
5
USB
J4
1
C
17
R4
VBUS
2
UART1_TXD
UART1_RXD
2
33.2
A
VSSOSC
USBDP_A 1
VREFL
100K
RB5
1
3.08V
PTF6
2
1
VCC
RB10
3
IRQ/TPMCLK
BKGD/MS
VSS
.1UF
C15
BKGDMS 56
MAX811_U
2
1
2
SW1
1
UB11
VSSAD
RST*
64
1
2
49
PTD4/ADP11
33
0.1UF
CB61
1
48
PTD3/KBIP3/ADP10
MC9S08JM
10.0K
R6
B
10UF
0.1UF
CB57
2
C12
1
CB29
4.7UF
2
CB31 .47UF
1
VREFH
VDD
VDDAD
21
44
45
25
2
10UF
CB24
2
.1UF
PTD2/KBIP2/ACMPO
PTA3
PTA4
D
4.096V
PTA2
32
CONN_10P
3
V3_3_OSC
31
J14
GND
VSENSE_33OSC
30
C
IC8
43
PTA1
CONN_10P
8
PTD1/ADP9/ACMP-
29
PROCESSOR PULLS UP MOSI AND MISO
4
42
PTA0
10
1
GNDS
22PF
3
NR
IC5
PTD0/ADP8/ACMP+
28
I2C_SCL
I2C_SDA
UART1_RXD
UART1_TXD
OUTS
5
1
2
6
CB27
2
2
IN
2
1
OUTF
MAX6126
VUSB33
1
0.1UF
2
C11
ECS_N
7
22PF
JMP7
2
J1
SPI1_SS*
SPI1_SCK
SPI1_MOSI
SPI1_MISO
CB28
2
10.0K
1
RB2
2
10.0K
1
RB1
D
1
VREFH
CB53
V5_0
1
V5_0
1
6
2
7
CB58 0.1UF
8
12-20-2012
PAGE:
2
8 OF 15
1
8
7
6
5
4
3
2
V3_3_OSC_F
J53
NOTES:
1. U6 AND UB22 REMOVED, UB22 WIRED ACCROSS
TO REMOVE THESE COMPONENTS FROM THE
MCLKOSC SIGNAL PATH. THE ADDITIVE
JITTER OF THESE COMPONENTS WAS TOO HIGH.
2. OSCILLATOR COMPONENT SITE Y6 IS NOT
AVAILABLE FOR USE.
3. SMB CONNECTOR INPUTS J33 AND J41 ARE NOT
AVAILABLE FOR USE.
CONN_6P_U
2
3
3
4
4
5
5
6
6
V3_3_OSC_F
RB40
3
10
3.3UF
10
5
NC5
OUT-
8
4
GND
NC6
6
2
C53
2
3
U6 DNP
R51
30.0
2
VCC
2
IN-
OUT1+
10
4
PD1
OUT1-
9
5
PD0
OUT0+
7
3
GND
OUT0-
6
JMP24
DIFFOSC_ED2
GND
OUTN
OUT
4
DIFFOSC_ED1
DIFFOSC_ED2
0.1UF
2
CB149
1
ED1
ED2
1
A
MAX9175
11
1
.001UF
3
2
JUMPER WIRE
2
Y6 DNP
VCC
2
CB148
1
.1UF
CB146
V3_3_OSC_F
8
IN+
JMP27
6
2
1
2
1
5 1
V3_3_OSC_F
C47
.001UF
1
R42
EX_MCLKOSC-
1
2
3X5MM
5
TITLE:
DATE:
MAX24310
REV B
12-20-2012
OSC_XO
ENGINEER:
5X7MM DIFF OUT
7
B
3
3
8
RF_OUT
3.3UF
DIFFOSC_ED1
49.9
R41
21
1
1
3.3UF
C50
JMP26
A
2
2
2
EX_MCLKOSC+
12
VCC
GND
JMP23
2
2
OSC_TCXO
NC
1
C46
12
C51
1
J33
2
.1UF
R52
30.0
C54
3 1
RF_OUT
49.9
GND
J41
4
MCLKOSCNEG
1
0.1UF
4
VS
Y7
1
C
V3_3_OSC_F
VC
2
C60
1
.01UF
2
CB156
1
0.1UF
C59
2
OUT+
V3_3_OSC_F
JMP25
1
MCLKOSCPOS
0.0
MAX9110
5X7MM
.01UF
NC3
3
C58
2
B
CB166
C52
7
OSC_TCXO
1
2
1
100
8
9
VCC
RB35
7
9
DIN
3
1
7
DNP
2
8
5
UB22
Y8
2
.01UF
1
6
6
5
2
CONN_10P
2
CB167
1
0.1UF
2
C61
1
.01UF
CB157
2
4
4
DNP
OSC_MC853X4
NO-POP, W/ HEADER
2
10.0K
0.0
3
2
RB41
RF_OUT
1
3
DNP
GND
1
1
1
R50
2
JUMPER WIRE
J44
1
6
7
5
SUPPLY_V
C
8
D
1
Y9
2
CB169
3.3UF
1
2
CB168
.01UF
1
0.1UF
C62
2
2
CB159
.01UF
1
2
1
2
C57
1 2
.1UF
CB151
JMP28
10.0K
J46
CB153
1
1
1
2
.001UF
1
2
D
1
1
6
5
4
3
PAGE:
2
9 OF 15
1
7
6
5
JMP12
1
2
R22
1
1
IC1POS
2
0.0
RB34
1
0.1UF
2
1
1
2
J54
CONN_6P_U
1
1
2
2
3
3
4
4
5
5
6
6
C
IC1NEG
SINGLE ENDED:
INSTALL JMP12, J54.1+3
DNI JMP14, JMP13
DIFFERENTIAL:
INSTALL JMP14, JMP13
DNI JMP12, J54
R30
1
IC2POS
2
1
2
2
100
2
CB136
1
0.0
CB145
R32
1
0.1UF
1
2
1
1
2
RB37
100
JMP18
JMP17
IC2NEG
2
J30
2
C
JMP19
1
1
0.0
0.1UF
J27
D
JMP14
2
1
JMP13
R20
C16
J21
1
2
1
2
1
J23
3
2
C18
D
4
1
8
0.0
0.1UF
J31
CONN_6P_U
B
1
1
2
2
3
3
4
4
5
5
6
6
SINGLE ENDED:
INSTALL JMP19, J31.1+3
DNI JMP17, JMP18
DIFFERENTIAL:
INSTALL JMP17, JMP18
DNI JMP19, J31
B
V3_3
1
0.1UF
2
A
CB64
1
0.1UF
2
C24
A
TITLE:
DATE:
MAX24310
REV B
ENGINEER:
8
7
6
5
4
3
12-20-2012
PAGE:
2
10 OF 15
1
8
7
6
R63
OC1NEG
2
2
2
2
0.0
2
OC6POS
J18
2
1
OC7NEG
J15
2
2
1
OC7POS
J16
2
1
1
1
1
1
J28
1
NOTES:
1. THE TERMINATION NETWORKS FOR OC1P/N
THROUGH OC8P/N ARE CONFIGURED AS
DC-COUPLED DIFFERENTIAL CML.
2. THE TERMATION NETWORKS FOR OC9P/N
AND OC10P/N ARE CONFIGURED AS DUAL
SINGLE-ENDED CMOS
D
R48
1
2
J49
0.0
R76
1
1
J32
0.0
0.0
R12
2
1
R31
1
R75
1
1
0.0
0.0
0.0
1
2
R74
1
2
R33
1
0.0
1
2
R66
2
2
R11
1
0.0
OC3POS
OC6NEG
J17
0.0
R65
OC3NEG
1
R13
1
3
R73
1
0.0
R64
OC1POS
4
R14
1
0.0
D
5
R49
1
2
0.0
0.0
0.0
0.0
R67
R7
R77
R37
J50
C
C
OC2POS
2
1
2
0.0
R68
OC2NEG
2
2
2
0.0
1
1
2
0.0
2
2
0.0
1
J20
1
1
1
1
1
J47
J40
R38
OC10NEG
0.0
1
0.0
R82
1
B
R39
2
30.0
R18
1
J48
0.0
OC10POS
0.0
R72
OC5NEG
A
J22
1
R46
2
R81
1
1
J37
0.0
30.0
1
1
R47
2
OC9POS
J13
1
J38
0.0
R80
1
R21
1
2
30.0
1
1
R36
1
OC9NEG
J12
0.0
R71
2
2
1
0.0
R79
1
2
2
0.0
R9
1
0.0
OC5POS
OC8NEG
J11
0.0
R70
1
R78
1
R10
1
2
2
0.0
B
OC4POS
OC8POS
J10
0.0
R69
2
1
R8
1
0.0
OC4NEG
1
0.0
2
30.0
A
J39
0.0
TITLE:
DATE:
MAX24310
REV B
ENGINEER:
8
7
6
5
4
3
12-20-2012
PAGE:
2
11 OF 15
1
8
7
6
5
4
3
2
1
V3_3_PA
C49
5
REFIN
4
2
1
10.0K
1
CB158 0.1UF
1
1
C
2
2
R57
49.9
1
2
1
J52
JMP11
0.0
2
1
49.9
R56
1
2
R58
0.0
1
GND_PA
GND_TP7
1
1
CB163 0.1UF
2
2
CB164 0.1UF
CB165 0.1UF
2
1
GND_PA
2
1
C65 4.7UF
0.1UF C37
I261
2
2
CB154 0.1UF
GND_PA
2
JMP9
TP11
2
TP12
1
C63 4.7UF
1
V1_5_PA
R53
JMP32
1
1
FB4
2
2
CB155 0.1UF
68UF
1
1
GND_PA
2
1
FB2
B
D
GND_PA
R54
1
CB161
DB6
2
0.1UF
2
PGOOD
2
C32
2
7
10.0K
3
VCC
SHDN*
2
REFOUT
1
1
JMP29
2
5
3
1
TP10
0.1UF C33
1
4.7UF
C34
0.1UF C31
2
2
FB3
2
1
1
V5_0
1
TP9
10
6
4
2
R45
1
V1_5_PA
FB1
J51
V5_0_PA
V3_3_PA
V3_3
2
1
GND_PA
2
R55
DIFFERENTIAL PROTO AREA
1
PGND
EP
AGND
MAX1510
GND_PA
GND_PA
V1_5
OUTS
1
GND_PA
JMP31
GND_PA
6
8
11
3
IN
2
JMP30
GND_PA
OUT
1
1
2
CB152 4.7UF
1
100
R44
12
DNP
R43
J45
2
1
1
C55
J42
V3_3_PA
3 4
GND_PA
9
RB42 2
0.0
TP8
CONN_6P_U
DNP
2
2
C56
1
5 6
C
AC 50OHM TO 3.3V
GND_PA
1
0.1UF
6
4
2
GND_PA
J43
V1.5/2VTT
V3_3_PA
CB162
5
3
1
DNP
2
1
R40
49.9
R35
R34
1.5V
UB23
J36
2
49.9
1
1
3 4
C48
J34
CONN_6P_U
V3_3_PA
GND_PA
CB160 4.7UF
V1_5_PA
1
5 6
D
AC 100 OHM
J35
B
GND_PA
POWER SIGNALS ON THIS PAGE
HAVE THE PA SUFFIX AND CONNECT TO MAIN SUPPLY USING FERRITE BEAD
THIS ISOLATES THE PROTOTYPE AREA FROM THE MAIN BOARD
GND_PA
50 OHM TO 0.75V
1
4.7UF
C40
2
CB131 0.1UF
2
1
SING_DIF_3.3V
V5_0_PA
UB21
TP6
1
J29
0.0
GND_PA
GND_PA
GND_PA
GND_PA
GND_PA
7
6
3
14
OUT3
IN3
4
15
OUT4
IN4
5
6
RST*
SHDN*
7
GND_PA
1
2
IN2
A
11
SET
10
GND
PLUGINS. CABLE FROM SMB TO THIS PAGE FOR
ACTIVE TERMINATION OR 100OHM DIFFERENTIAL
TITLE:
5
DATE:
MAX24310
MAX1793_U2
4
REV B
ENGINEER:
3.3V
DIFFERENTIAL TO SINGLE ENDED
8
IN1
OUT2
4.7UF
1
7
GND
OUT1
13
CB141
2
10.0K
12
1
1
RB39
3 2
CB137
8
2
R28
R27
MAX9111
VCC
10UF
2
1
49.9
CB112
1
1
UB20
2
GND_PA
J24
GND_PA
R26 10.0K
1
R29
49.9
1
A
2
CB113
J25
3
12-20-2012
PAGE:
2
12 OF 15
1
8
7
6
2
2
1
STATUS
STATUS
AT RESET AUTO CONFIGURE IF GPIO3 IS HIGH
SOURCE SWITCHING CONTROL INPUT
D
UB164
330
2
RB21
2
1
11
3
332
0.0
1
RB20
1
V3_3
GPIO1:
GPIO2:
GPIO3:
GPIO4:
3
NC7SZ86_U
BUFFER
R15
GPIO1
4
GPIO1_HDR
GND=GND
D
5
DS6
JMP3
2
RED
GPIO2_HDR
GND=GND
NC7SZ86_U
BUFFER
R16
C
1
2
1
C
UB154
2
GPIO2
2
1
11
3
332
RB22
330
2
V3_3
RB23
0.0
DS7
JMP4
J19
2
RED
GPIO3_HDR
GND=GND
NC7SZ86_U
BUFFER
R17
GPIO3
1
2
1
UB184
1
1
2
2
3
3
4
4
5
5
6
6
7
7
8
8
9
9
10
2
B
GPIO1_HDR
GPIO2_HDR
GPIO3_HDR
GPIO4_HDR
10
B
2
1
CONN_10P
11
3
332
RB25
330
2
V3_3
RB24
0.0
DS8
JMP5
2
RED
GPIO4_HDR
GND=GND
NC7SZ86_U
BUFFER
R19
1
2
1
UB174
2
GPIO4
332
RB26
330
3
A
1
1
V3_3
2
A
2
RB27
0.0
V3_3
DS9
JMP6
1
.1UF
TITLE:
DATE:
MAX24310
2
CB23
1
.1UF
2
CB83
1
2
CB40
.1UF
1
.1UF
2
CB69
1
.1UF
2
CB70
1
.1UF
2
CB66
1
.1UF
CB67
2
2
CB68
.1UF
1
2
RED
REV B
ENGINEER:
8
7
6
5
4
3
12-20-2012
PAGE:
2
13 OF 15
1
2
2
2
2
2
TP.VDD33
TP.V3_3_ANA_F
TP.VDD_DIG_18
TP.V1_8_ANA_F
TP.VDDOA
TP.VDDOB
TP.VDDOC
TP.VDDOD
VSS_APLL2
VSS_APLL2
VSS_XO
VSS_OC
VSS_APLL1
VSS_APLL1
VDD_33
0.1UF
0.1UF
CB95
VDDOA
VDDOB
VDDOC
VDDOD
4
4
4
TESTPOINTS FOR POWER.
2PIN JMP USED TO ENSURE GND IS CLOSE
3
HB7 HB2
4
HB3 HB5 HB10 HB1
4
4
MAX24310
HB8
4
ENGINEER:
2
4
4
TITLE:
HB4 HB11 HB6
4
REV B
C42
VDDOA
VDDOB
VDDOC
VDDOD
CB43
CB45
CB52
CB51
CB41
0.1UF
0.1UF
0.1UF
0.1UF
V3_3_OSC
2
2
2
2
1
1
1
1
V1_8_ANA
V1_8_DIG
V3_3_ANA
V3_3_DIG
DB4
C41
C20
C22
V1_8_ANA_F
CB49
0.1UF
0.1UF
0.1UF
V1_8_ANA
C43
C38
C29
C19
VDD_DIG_18
0.1UF
0.1UF
DB1
C30
CB117
V3_3_ANA_F
CB47
0.1UF
0.1UF
CB42
0.1UF
VSENSE_33OSC
SENSO
VSENSE_SENSO
CB39
VSENSE_33ANA
CB50
VSENSE_33DIG
CB44
VSENSE_18ANA
CB37
VSENSE_18DIG
V1_8_ANA_F
3
C36
C44
C26
C35
C45
C23
C39
VDD33
VDDOA
VDDOB
VDDOC
VDDOD
VDD_DIG_18
V3_3_ANA_F
VDD33
4
C21
C27
V1_8_ANA_F
VDD_DIG_18
V3_3_ANA_F
VDD33
CB128 0.1UF
CB127 0.1UF
0.1UF
CB98
CB130 0.1UF
CB119 0.1UF
CB106 0.1UF
CB94
CB108 0.1UF
CB116 0.1UF
CB111 0.1UF
CB123 0.1UF
CB104 0.1UF
VDD_XO_18
VDD_XO_33
VDD_OC_18
VDD_DIG_18
VDD_DIG_18
VDD_18
VDDO18A
VDDO18B
VDDO18C
VDDO18D
VDDOA
VDDOB
VDDOC
VDDOD
CB110 0.1UF VDD_APLL2_33
CB124 0.1UF VDD_APLL1_33
CB102 0.1UF VDD_APLL2_18
D7
E6
E4
E7
E3
G5
G6
G3
E5
D4
D6
C9
H6
H4
C1
D8
G8
G2
D2
5
1
1
1
1
1
5
2
6
1
VSUB
VSSOD
VSSOC
VSSOC
VSSOB
VSSOB
VSSOA
VSS_DIG
VSS_DIG
U5
2
7
6
2
8
7
1
A
CB120 0.1UF VDD_APLL1_18
C
CB107 0.1UF
D
1
D3
D1
J4
G1
J6
G9
D9
D5
F5
G7
G4
F7
F6
F4
F3
B
CB103 0.1UF
8
2
1
V3_3_DIG V3_3_ANA
V3_3_ANA V3_3_DIG
DB5
DB2
V1_8_DIG
D
LEVEL PROTECTION
FILTERING FOR A/D AT MICRO
C
B
MAX24310
3.3UF CAPACITORS 0402, TOP SIDE OF PCB
4
A
HB9
4
DATE:
PAGE:
12-20-2012
1
14 OF 15
8
7
6
5
4
3
2
1
D
D
OSCILLATOR DAUGHTER CARD
1
3.3UF
2
C6
1
.01UF
CB1
2
0.1UF
2
2
C3
1
.01UF
CB4
1
C2
10UF
Y3
OSC_TCXO
6
7
5
SUPPLY_V
2
2
C1
C
3.3UF
1
Y1
1
VOSC
TP1
1
2
2
GND
1
RF_OUT
4
VS
VC
GND
C
3 1
RF_OUT
R1
30.0
2
CLOCK
5X7MM
OSC_MC853X4
1
3.3UF
Y2
2
C4
1
.01UF
2
CB2
1
0.1UF
C5
2
2
CB3
.01UF
1
WITH 10PIN ADAPTER
1
OSC_TCXO
NC
VCC
8
B
B
4
GND
RF_OUT
5 1
R2
30.0
2
3X5MM
A
A
TITLE:
DATE:
MAX24310
REV B
ENGINEER:
8
7
6
5
4
3
12-20-2012
PAGE:
2
15 OF 15
1
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