MAX5110 Evaluation Kit
General Description
The MAX5110 evaluation kit (EV kit) provides a proven
design to evaluate the MAX5110 9-channel, 14-bit current
DAC. The EV kit also includes Windows XP®-, Windows
Vista®-, and Windows® 7-compatible software that provides a simple graphical user interface (GUI) for exercising the features of the device.
The EV kit comes with a MAX5110GTJ+ installed.
Contact the factory for free samples of the pin-compatible
MAX5111GTJ+ to evaluate this device.
Evaluates: MAX5110/MAX5111
Features
●● On-Board +3.0V Regulator Accepts +5.5V to +3.35V
Supply Range
●● On-Board -5.2V Regulator Accepts -6.5V to -5.24V
Supply Range
●● Windows XP-, Windows Vista-, and Windows
7-Compatible Software
●● USB-PC Connection (Cable Included)
●● On-Board Diode and Resistive Loads
●● SPI™ Interface Terminals (MAX5110)
●● I2C Interface Terminals (MAX5111)
●● Proven PCB Layout
●● Fully Assembled and Tested
Ordering Information
TYPE
EV Kit
+Denotes lead(Pb)-free and RoHS compliant.
Component List
DESIGNATION
QTY
C10–C18,
C100–C104, C111,
C121, C122
17
0.1µF ±10%, 25V X7R
ceramic capacitors (0603)
TDK C1608X7R1E104K
C21, C22, C31, C32,
C108, C131, C141
7
1µF ±10%, 16V X7R ceramic
capacitors (0603)
TDK C1608X7R1C105K
C23, C109, C132,
C142
4
10µF ±10%, 6.3V X7R
ceramic capacitors (0805)
Murata GRM21BR70J106K
C33
0
Not installed, ceramic
capacitor (0805)
C105
1
0.01µF ±10%, 16V X7R
ceramic capacitor (0402)
Murata GRM155R71C103K
C106, C107
2
22pF ±5%, 50V C0G
ceramic capacitors (0603)
Murata GRM1885C1H220J
DESCRIPTION
Windows, Windows XP, and Windows Vista are registered
trademarks of Microsoft Corp.
SPI is a trademark of Motorola, Inc.
19-5600; Rev 0; 10/10
PART
MAX5110EVKIT+
DESIGNATION
QTY
DESCRIPTION
C110
1
33000pF ±10%, 25V X7R
ceramic capacitor (0603)
Murata GRM188R71E333K
C123, C124
2
10pF ±5%, 50V C0G
ceramic capacitors (0603)
Murata GRM1885C1H100J
D11A–D14A, D11B–
D14B, D11C–D14C,
D11D–D14D, D21A–
D24A, D21B–D24B,
D21C–D24C, D21D–
D24D, D31, D32,
D34, D35, D36, D41,
D42, D43, D51, D52,
D61, D62, D71, D72,
D73, D81–D85,
D91–D95
57
200mA, 25V Schottky
diodes (SOT23)
Fairchild BAT54
D33
1
1N4001 diode
Diodes Inc. 1N4001
D44, D53, D74
3
1N4148 diodes (SOT23)
Fairchild MMBD4148
(Top Mark: 5H)
Evaluates: MAX5110/MAX5111
MAX5110 Evaluation Kit
Component List (continued)
DESIGNATION
QTY
H1
1
36-pin (2 x 18) header
DESCRIPTION
DESIGNATION
QTY
R101, R102
2
27Ω ±5% resistors (0603)
DESCRIPTION
H2
1
8-pin header
R103
1
1.5kΩ ±5% resistor (0603)
H120, H123
0
Not installed, 9-pin headers
R104
1
470Ω ±5% resistor (0603)
HOUT1A–HOUT1D,
HOUT2A–HOUT2D,
HOUT3–HOUT9
R111
1
2.2kΩ ±5% resistor (0603)
15
2-pin headers
R112
1
10kΩ ±5% resistor (0603)
200Ω ±5% resistors (0603)
0
Not installed, 10-pin (2 x 5)
header
8
JTAGU120
RL1A–RL1D,
RL2A–RL2D
RL4, RL7
2
22Ω ±5% resistors (1206)
JU10, JU11, JU16,
JU17
4
2-pin headers
JU12, JU13,
JUOUT1A–
JUOUT1D,
JUOUT2A–
JUOUT2D, JUOUT4,
JUOUT5, JUOUT7,
JUOUT8, JUOUT9
RL5
1
11Ω ±1%, 0.5W resistor
(1210)
KOA Speer
RK73H2ETTD11R0F
15
JU14, JU15,
JUOUT6
3-pin headers
RL31
1
100Ω ±5% resistor (0603)
RL81, RL82, RL91,
RL92
4
270Ω ±5% resistors (0603)
RLEDPWR
1
330Ω ±5% resistor (0603)
TP0
1
Black multipurpose test
point
3
4-pin headers
JU101–JU108
0
Not installed, headers—
shorted with PCB trace
TP1, TP22
2
Red multipurpose test
points
JUOUT3
1
5-pin header
TP2, TP32
2
L101
1
Ferrite bead (0603)
TDK MMZ1608R301A
Yellow multipurpose test
points
LEDPWR
1
Red LED (0805)
TP00, TP10, TP100,
TP101, TP108,
TP132, TP142
0
Not installed, multipurpose
test points
Q100
1
p-channel FET (SOT223)
Fairchild Semi NDT456P
R11
1
1MΩ ±5% resistor (0603)
U1
1
R16, R17
2
4.7kΩ ±5% resistors (0603)
9-channel, 14-bit current
DAC (32 TQFN-EP*)
Maxim MAX5110GTJ+
R21
1
220kΩ ±1% resistor (0603)
R22
1
80.6kΩ ±1% resistor (0603)
U2
1
R31
1
316kΩ ±1% resistor (0603)
3.3V at 1000mA LDO
regulator (16 TSSOP-EP*)
Maxim MAX8869EUE33+
R32
1
100kΩ ±1% resistor (0603)
R41, R42, R43, R51,
R52, R71, R72, R73
8
10Ω ±5% resistors (0603)
U3
1
-5V at 200mA LDO
regulator (5 SOT23)
Maxim MAX1735EUK30+
(Top Mark: ADOY)
2
6.8Ω ±5%, 1W resistors
(2512)
Vishay/Dale
CRCW25126R80JNEG
U100
1
UART-to-USB converter
(32 TQFP)
U110
0
Not installed, 93C46-type
3-wire EEPROM 16-bit
architecture (8 SO)
R61, RL61
R62, RL62
2
33Ω ±5% resistors (0805)
R100, RL32
2
1kΩ ±5% resistors (0603)
www.maximintegrated.com
Maxim Integrated │ 2
Evaluates: MAX5110/MAX5111
MAX5110 Evaluation Kit
Component List (continued)
DESIGNATION
QTY
DESCRIPTION
U120
1
Low-power microcontroller
(68 QFN-EP*)
Maxim MAXQ2000-RAX+
U130
1
2.5V regulator (5 SC70)
Maxim MAX8511EXK25+T
(Top Mark: ADV)
U140
1
3.3V regulator (5 SC70)
Maxim MAX8511EXK33+T
(Top Mark: AEI)
1
USB type-B right-angle
female receptacle
USB1
DESIGNATION
QTY
DESCRIPTION
Y100
1
6MHz crystal
Hong Kong X’tals
SSL60000N1HK188F0-0
Y120
1
16MHz crystal
Hong Kong X’tals
SSM16000N1HK188F0-0
—
1
USB high-speed A-to-B
cables, 6ft
—
23
Shunts
—
1
PCB: MAX5110
EVALUATION KIT+
*EP = Exposed pad.
Component Suppliers
SUPPLIER
PHONE
WEBSITE
Diodes Incorporated
Fairchild Semiconductor
805-446-4800
888-522-5372
www.diodes.com
www.fairchildsemi.com
Hong Kong X’tals Ltd.
Murata Electronics North America, Inc.
852-35112388
770-436-1300
www.hongkongcrystal.com
www.murata-northamerica.com
TDK Corp.
Vishay
847-803-6100
402-563-6866
www.component.tdk.com
www.vishay.com
Note: Indicate that you are using the MAX5110 when contacting these component suppliers.
MAX5110 EV Kit Files
FILE
DESCRIPTION
INSTALL.EXE
Installs the EV kit files on your computer
MAX5110.EXE
Application program
CDM20600.EXE
Installs the USB device driver
UNINSTALL.EXE
Uninstalls the EV kit software
USB_Driver_Help_200.PDF
Uninstalls the EV kit software
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Maxim Integrated │ 3
MAX5110 Evaluation Kit
Quick Start
Required Equipment
● MAX5110 EV kit (USB cable included)
● Windows XP, Windows Vista, or Windows 7 PC with a
spare USB port
● User-supplied +5V DC at 750mA power supply
● User-supplied -5.5V DC at 100mA power supply
● Digital voltmeters (DVMs)
Note: In the following sections, software-related items are
identified by bolding. Text in bold refers to items directly
from the EV kit software. Text in bold and underlined
refers to items from the Windows operating system.
Procedure
The EV kit is fully assembled and tested. Follow the steps
below to verify board operation:
1) Visit www.maximintegrated.com/evkitsoftware to
download the latest version of the EV kit software,
5110Rxx.ZIP. Save the EV kit software to a temporary folder and uncompress the ZIP file.
2) Install the EV kit software and USB driver on your
computer by running the INSTALL.EXE program
inside the temporary folder. The program files are
copied to your PC and icons are created in the
Windows Start | Programs menu. During software
installation, some versions of Windows may show
a warning message indicating that this software
is from an unknown publisher. This is not an error
condition and it is safe to proceed with installation.
Administrator privileges are required to install the
USB device driver on Windows.
3) Verify that all jumpers (JU10–JU17, JUOUT1A–
JUOUT2D, JUOUT3–JUOUT9) are in their default
positions, as shown in Tables 1 and 2.
4) To measure OP9, connect the DVM between HOUT9
(OP9) and GND (optionally, outputs can be monitored at the labeled test points on header H1).
5) Connect the +5V DC power supply between TP1
(+5V) and TP0 (GND).
6) Connect the -5.5V DC power supply between TP2
(-5.5V) and TP0 (GND).
www.maximintegrated.com
Evaluates: MAX5110/MAX5111
7) Enable both power supplies.
8) Connect the USB cable from the PC to the EV kit
board. A Windows message appears when connecting the EV kit board to the PC for the first time. Each
version of Windows has a slightly different message.
If you see a Windows message stating ready to
use, then proceed to the next step. Otherwise, open
the USB_Driver_Help_200.PDF document in the
Windows Start | Programs menu to verify that the
USB driver was installed successfully.
9) Start the EV kit software by opening its icon in the
Windows Start | Programs menu. The EV kit software main window appears, as shown in Figure 1.
DAC1 Output MUX Test
1) Press F1 to return to the block diagram. Click on OP1
to drill down to IDAC Configuration for OP1.
2) Connect a DVM to HOUT1A.
3) Under the Output pin to drive drop-down list, select
OP1A.
4) Drag the Source Mode Code track bar to the right.
5) Verify that the DVM connected to HOUT1A shows
approximately +2.0V (10mA output current).
6) Connect a DVM to HOUT1B.
7) Verify that the DVM connected to HOUT1B shows
approximately 0V (0mA output current).
8) Under the Output pin to drive drop-down list, select
OP1B.
9) Verify that the DVM connected to HOUT1B shows
approximately +2.0V (10mA output current).
10) Connect a DVM to HOUT1C.
11) Verify that the DVM connected to HOUT1C shows
approximately 0V (0mA output current).
12) Under the Output pin to drive drop-down list, select
OP1C.
13) Verify that the DVM connected to HOUT1C shows
approximately +2.0V (10mA output current).
14) Connect a DVM to HOUT1D.
15) Verify that the DVM connected to HOUT1D shows
approximately 0V (0mA output current).
Maxim Integrated │ 4
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
16) Under the Output pin to drive drop-down list, select
OP1D.
3) Verify that the DVM connected to HOUT3 shows
approximately 0V (0mA output current).
17) Verify that the DVM connected to HOUT1D shows
approximately +2.0V (10mA output current).
4) Click on the High current range radio button.
DAC2 Output MUX Test
6) Verify that the DVM connected to HOUT3 shows
approximately +2.0V (20mA output current).
1) Under the IDAC to configure drop-down list, select
OP2.
2) Connect a DVM to HOUT2A.
3) Under the Output pin to drive drop-down list, select
OP2A.
4) Drag the Source Mode Code track bar to the right.
5) Verify that the DVM connected to HOUT2A shows
approximately +2.0V (10mA output current).
6) Connect a DVM to HOUT2B.
7) Verify that the DVM connected to HOUT2B shows
approximately 0V (0mA output current).
8) Under the Output pin to drive drop-down list, select
OP2B.
9) Verify that the DVM connected to HOUT2B shows
approximately +2.0V (10mA output current).
10) Connect a DVM to HOUT2C.
11) Verify that the DVM connected to HOUT2C shows
approximately 0V (0mA output current).
12) Under the Output pin to drive drop-down list, select
OP2C.
13) Verify that the DVM connected to HOUT2C shows
approximately +2.0V (10mA output current).
14) Connect a DVM to HOUT2D.
15) Verify that the DVM connected to HOUT2D shows
approximately 0V (0mA output current).
16) Under the Output pin to drive drop-down list, select
OP2D.
17) Verify that the DVM connected to HOUT2D shows
approximately +2.0V (10mA output current).
5) Drag the Source Mode Code track bar to the right.
7) Click on the Low current range radio button.
8) Verify that the DVM connected to HOUT3 shows
approximately +0.2V (2mA output current).
DAC4 Current-Source Test
1) Click on OP4 to drill down to IDAC Configuration for
OP4.
2) Connect a DVM to HOUT4.
3) Drag the Source Mode Code track bar to the right.
4) Verify that the DVM connected to HOUT4 shows
approximately +2.0V (90mA output current).
DAC5 Current-Source Test
1) Click on OP5 to drill down to IDAC Configuration for
OP5.
2) Connect a DVM to HOUT5.
3) Drag the Source Mode Code track bar to the right.
4) Verify that the DVM connected to HOUT5 shows
approximately +2.0V (180mA output current).
DAC6 Source-Mode Test
1) Press F1 to return to the block diagram. Click on OP6
to drill down to IDAC Configuration for OP6.
2) Connect a DVM to HOUT6.
3) Drag the Source Mode Code track bar to the right.
4) Verify that the DVM connected to HOUT6 shows
approximately +2.0V (300mA output current).
DAC6 Sink-Mode Test
1) Press F1 to return to the block diagram. Click on OP6
to drill down to IDAC Configuration for OP6.
DAC3 Range Test
2) Connect a DVM to HOUT6.
1) Press F1 to return to the block diagram. Click on OP3
to drill down to IDAC Configuration for OP3.
3) Drag the Sink Mode Code track bar to the right.
2) Connect a DVM to HOUT3.
5) Verify that the DVM connected to HOUT6 shows
approximately -0.4V (-60mA output current).
www.maximintegrated.com
4) Click on the Low current range radio button.
Maxim Integrated │ 5
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
DAC6 Shutter-Mode Test
DAC9 Current-Source Test
1) Press F1 to return to the block diagram. Click on OP6
to drill down to IDAC Configuration for OP6.
1) Click on OP9 to drill down to IDAC Configuration for
OP9.
2) Connect a DVM to HOUT6.
2) Connect a DVM to HOUT9.
3) Drag the Shutter Mode Code track bar to the center.
3) Drag the Source Mode Code track bar to the right.
4) Click on the High current range radio button.
4) Verify that the DVM connected to HOUT9 shows
approximately +2.0V (15mA output current).
5) Under CLR pin action, click on the SHUTTER radio
button.
6) Set CLR pin to High to enter shutter mode.
7) Verify that the DVM connected to HOUT6 shows
approximately -0.2V (-30mA output current).
8) Set CLR pin to Low to exit shutter mode.
9) Verify that the DVM connected to HOUT6 shows
approximately +2.0V (300mA output current).
DAC7 Current-Source Test
1) Click on OP7 to drill down to IDAC Configuration for
OP7.
2) Connect a DVM to HOUT7.
3) Drag the Source Mode Code track bar to the right.
4) Verify that the DVM connected to HOUT7 shows
approximately +2.0V (90mA output current).
DAC8 Current-Source Test
1) Click on OP8 to drill down to IDAC Configuration for
OP8.
2) Connect a DVM to HOUT8.
3) Drag the Source Mode Code track bar to the right.
Detailed Description of Software
The main window of the evaluation software (Figure 1)
displays the output code for all DAC outputs. In addition,
the main window has four tabs. The Block Diagram
tab sheet shows the status of all nine DACs. Click on a
DAC to drill down to the IDAC Configuration tab sheet
(Figure 2). The Registers tab sheet (Figure 3) provides
low-level access to all device registers. The Interface
History tab sheet (Figure 4) shows the sequence of I2C
or SPI operations that have been performed.
Advanced User Interface
There are two methods for communicating with the
device. The first is through the windows shown in Figures
1–4. The second is through the Advanced User Interface
window shown in Figures 5 and 6. The Advanced User
Interface window becomes available by selecting the
Option | Interface (Advanced User) menu item and
allows execution of serial commands manually.
The Advanced User Interface window can also be used
as a debug tool because it is capable of manually reading
and writing to every register of the device.
4) Verify that the DVM connected to HOUT8 shows
approximately +2.0V (15mA output current).
www.maximintegrated.com
Maxim Integrated │ 6
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 1. MAX5110 EV Kit Software Main Window (Block Diagram Tab)
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Maxim Integrated │ 7
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 2. MAX5110 EV Kit Software Main Window (IDAC Configuration Tab)
www.maximintegrated.com
Maxim Integrated │ 8
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 3. MAX5110 EV Kit Software Main Window (Registers Tab)
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Maxim Integrated │ 9
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 4. MAX5110 EV Kit Software Main Window (Interface History Tab)
www.maximintegrated.com
Maxim Integrated │ 10
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 5. Advanced User Interface Window (3-Wire Interface Tab)
Figure 6. Advanced User Interface Window (2-Wire Interface Tab)
www.maximintegrated.com
Maxim Integrated │ 11
Evaluates: MAX5110/MAX5111
MAX5110 Evaluation Kit
Detailed Description of Hardware
The MAX5110 EV kit provides a proven layout for the
MAX5110 in a 32-pin TQFN package with an exposed
pad. I2C and SPI interface pads and easy-to-use USBPC
connection are included on the EV kit.
Standard MINIQUSB-equivalent microcontroller circuits
(U100–U140) connect from the USB to the SPI and I2C
interfaces. The MINIQUSB circuit powers its +2.5V and
+3.3V supplies from the +5V USB.
External user-supplied power connects to the device
through test points TP0, TP1, and TP2. The MAX8869
LDO linear regulator (U2) supplies +3V at 1000mA powered from the external TP1 positive supply. The MAX1735
negative LDO linear regulator (U3) supplies -5.2V at
200mA powered from the external TP2 negative supply.
TP0 is the ground return.
Jumpers JU10–JU17 connect the MINIQUSB SPI bus,
I2C bus, and GPIO signal to the CLR pin, as well as the
MINIQUSB +3.3V VDDIO power supply.
Each of the outputs has its own dedicated 2-pin output
header with GND and a jumper-selectable choice of
onboard loads, including both resistive loads and diode
loads. The resistive loads produce a voltage drop on the
order of +2V at full-scale current. The diode loads mimic a
typical fiber-optic system. Output 3 has two resistive loads
and two diode loads to support both the 2mA and the
20mA ranges. Output 6 has two parallel strings of diodes,
one for source load and the other for sink load.
Header H1 connects outputs 1–9 with ground returns and
power-supply connections for optional external-user hardware connections. If a standard ribbon cable is connected
to H1, ground returns are on alternating wires.
User-Supplied SPI Interface
To use the EV kit with a user-supplied SPI interface,
remove the shunts on JU10–JU17. Connect the DIN,
SCLK, CS, DOUT, VDD, GND, and CLR signals to the
corresponding pads on header H2 on the EV kit board.
Evaluating the MAX5111
The MAX5111 is the I2C version of the MAX5110.
To evaluate this device, request a free sample of the
MAX5111GTJ+ when ordering the EV kit. With power
off, replace U1 with the MAX5111. Move JU12 and JU13
shunts to 2-3. Move JU14 and JU15 shunts to 1-2. Move
JU16 and JU17 shunts to 1-2 (see Table 1).
User-Supplied I2C Interface
To evaluate the MAX5111 using the EV kit with a usersupplied I2C interface, remove the shunts from JU10–
JU17. Connect the SDA, SCL, A0, A1, VDD, GND, and
CLR signals to the corresponding pads on header H2 on
the EV kit board.
Table 1. Jumper Descriptions (JU10–JU17)
JUMPER
SIGNAL
JU10
VDDI
JU11
JU12
CLR
DIN/SDA
SHUNT
POSITION
1-2*
JU14
SCLK/SCL
CS/A0
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MINIQUSB powers digital interface VDDI with 3.3V from U14.
Open
User-supplied interface powers VDDI logic supply.
1-2*
MINIQUSB drives CLR pin under software control.
Open
User-supplied interface drives CLR, pulled low (inactive) by R11.
1-2*
MINIQUSB SPI interface (master-out/slave-in data).
2-3
MINIQUSB I2C interface (SDA).
Open
JU13
DESCRIPTION
User-supplied interface connected to header H2.
1-2*
MINIQUSB SPI interface (clock).
2-3
MINIQUSB I2C interface (SCL).
Open
User-supplied interface connected to header H2.
1-2
MINIQUSB I2C interface address select A0 = 0.
1-3*
MINIQUSB SPI interface (chip select).
1-4
MINIQUSB I2C interface address select A0 = 1.
Open
User-supplied interface connected to header H2.
Maxim Integrated │ 12
Evaluates: MAX5110/MAX5111
MAX5110 Evaluation Kit
Table 1. Jumper Descriptions (JU10–JU17) (continued)
JUMPER
JU15
SIGNAL
DOUT/A1
JU16
SCL
JU17
SDA
SHUNT
POSITION
DESCRIPTION
1-2
MINIQUSB I2C interface address select A1 = 0.
1-3*
MINIQUSB SPI interface (master-in/slave-out data).
1-4
MINIQUSB I2C interface address select A1 = 1.
Open
User-supplied interface connected to header H2.
1-2
Open*
1-2
Open*
MINIQUSB I2C SCL pullup resistor R16 is enabled.
MINIQUSB SPI does not require pullup R16.
MINIQUSB I2C SCL pullup resistor R17 is enabled.
MINIQUSB SPI does not require pullup R17.
*Default position.
Table 2. Load Jumper Descriptions (JUOUT1A–JUOUT9)
JUMPER
SIGNAL
SHUNT
POSITION
1-2
Output connects to 10mA diode load.
JUOUT1A
OUT1A
2-3*
Output connects to 10mA resistive load.
Open
JUOUT1B
OUT1B
OUT1C
1-2
Output connects to 10mA diode load.
Output connects to 10mA resistive load.
OUT1D
Output connects to 10mA diode load.
2-3*
Output connects to 10mA resistive load.
OUT2A
Output connects to 10mA diode load.
2-3*
Output connects to10mA resistive load.
OUT2B
1-2
Output connects to10mA diode load.
Output connects to 10mA resistive load.
OUT2C
Output connects to 10mA diode load.
2-3*
Output connects to 10mA resistive load.
OUT2D
Output connects to 10mA diode load.
2-3*
Output connects to 10mA resistive load.
Output requires user-supplied current load.
1-2
Output connects to 10mA diode load.
2-3*
Output connects to 10mA resistive load.
Open
www.maximintegrated.com
Output requires user-supplied current load.
1-2
Open
JUOUT2D
Output requires user-supplied current load.
1-2
Open
JUOUT2C
Output requires user-supplied current load.
2-3*
Open
JUOUT2B
Output requires user-supplied current load.
1-2
Open
JUOUT2A
Output requires user-supplied current load.
1-2
Open
JUOUT1D
Output requires user-supplied current load.
2-3*
Open
JUOUT1C
DESCRIPTION
Output requires user-supplied current load.
Maxim Integrated │ 13
Evaluates: MAX5110/MAX5111
MAX5110 Evaluation Kit
Table 2. Load Jumper Descriptions (JUOUT1A–JUOUT9) (continued)
JUMPER
JUOUT3
SIGNAL
OUT3
SHUNT
POSITION
1-2
Output connects to 2mA diode load.
1-3
Output connects to 20mA diode load.
1-4
Output connects to 2mA resistive load.
1-5*
Output connects to 20mA resistive load.
Open
JUOUT4
OUT4
OUT5
Output connects to 90mA diode load.
2-3*
Output connects to 90mA resistive load.
OUT6
Output connects to 180mA diode load.
2-3*
Output connects to 180mA resistive load.
OUT7
Output connects to 300mA/-60mA diode load.
1-3
Output connects to -60mA resistive load.
1-4*
Output connects to 300mA resistive load.
OUT8
Output connects to 90mA diode load.
2-3*
Output connects to 90mA resistive load.
OUT9
Output requires user-supplied current load.
1-2
Output connects to 15mA diode load.
2-3*
Output connects to 15mA resistive load.
Open
JUOUT9
Output requires user-supplied current load.
1-2
Open
JUOUT8
Output requires user-supplied current load.
1-2
Open
JUOUT7
Output requires user-supplied current load.
1-2
Open
JUOUT6
Output requires user-supplied current load.
1-2
Open
JUOUT5
DESCRIPTION
Output requires user-supplied current load.
1-2
Output connects to 15mA diode load.
2-3*
Output connects to 15mA resistive load.
Open
Output requires user-supplied current load.
*Default position.
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Maxim Integrated │ 14
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 7a. MAX5110 EV Kit Schematic (Sheet 1 of 6)
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Maxim Integrated │ 15
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 7b. MAX5110 EV Kit Schematic (Sheet 2 of 6)
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Maxim Integrated │ 16
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 7c. MAX5110 EV Kit Schematic (Sheet 3 of 6)
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Maxim Integrated │ 17
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 7d. MAX5110 EV Kit Schematic (Sheet 4 of 6)
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Maxim Integrated │ 18
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 7e. MAX5110 EV Kit Schematic (Sheet 5 of 6)
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Maxim Integrated │ 19
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
Figure 7f. MAX5110 EV Kit Schematic (Sheet 6 of 6)
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Maxim Integrated │ 20
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
1.0”
Figure 8. MAX5110 EV Kit Component Placement Guide—Component Side
1.0”
Figure 9. MAX5110 EV Kit PCB Layout—Component Side
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Maxim Integrated │ 21
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
1.0”
Figure 10. MAX5110 EV Kit PCB Layout—Ground Layer 2
1.0”
Figure 11. MAX5110 EV Kit PCB Layout—Power Layer 3
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Maxim Integrated │ 22
MAX5110 Evaluation Kit
Evaluates: MAX5110/MAX5111
1.0”
Figure 12. MAX5110 EV Kit PCB Layout—Solder Side
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Maxim Integrated │ 23
Evaluates: MAX5110/MAX5111
MAX5110 Evaluation Kit
Revision History
REVISION
NUMBER
REVISION
DATE
0
10/10
DESCRIPTION
Initial release
PAGES
CHANGED
—
For pricing, delivery, and ordering information, please contact Maxim Direct at 1-888-629-4642, or visit Maxim Integrated’s website at www.maximintegrated.com.
Maxim Integrated cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim Integrated product. No circuit patent licenses
are implied. Maxim Integrated reserves the right to change the circuitry and specifications without notice at any time.
Maxim Integrated and the Maxim Integrated logo are trademarks of Maxim Integrated Products, Inc.
© 2010 Maxim Integrated Products, Inc. │ 24
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