ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide
UG-967
One Technology Way • P. O. Box 9106 • Norwood, MA 02062-9106, U.S.A. • Tel: 781.329.4700 • Fax: 781.461.3113 • www.analog.com
Evaluation Board for the ADP5091/ADP5092 Ultralow Power Energy Harvesting
PMU
PLEASE SEE THE LAST PAGE FOR AN IMPORTANT
WARNING AND LEGAL TERMS AND CONDITIONS. Rev. 0 | Page 1 of 12
GENERAL DESCRIPTION
The ADP5091/ADP5092 is a 2-channel ultralow power energy
harvesting PMU in a compact 4 mm × 4 mm LFCSP package.
The ADP5091-1-E VA L Z and ADP5092-1-E VA L Z run from
input voltages of 0.38 V to 3.3 V and require minimal external
components to provide a high efficiency solution with
integrated power switches, synchronous rectifier, battery
management, and hybrid controlled and regulated output.
The ADP5091-1-E VA L Z and ADP5092-1-E VA L Z evaluation
boards provide an easy way to evaluate the device. This user
guide describes how to quickly set up the evaluation board and
deliver up to 3.5 V maximum voltage to the SYS output using an
external resistor divide. The internal switches turn on as long as
the storage element voltage at BAT pin is above the externally
programmed SETSD of 2.4 V. The PGOOD indicator toggles
high when SYS ramps up to 3 V. The REG_OUT is set to 2.5 V
as the default output voltage. Complete information about the
ADP5091/ADP5092 is available in the ADP5091/ADP5092 data
sheet. Consult the data sheet in conjunction with this user guide
when using the evaluation boards.
ADP5091/ADP5092 EVALUATION BOARDS
14443-001
Figure 1. ADP5091-1-EVALZ
14443-002
Figure 2. ADP5092-1-EVALZ
ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide UG-967
Rev. 0 | Page 2 of 12
TABLE OF CONTENTS
General Description ......................................................................... 1
ADP5091/ADP5092 Evaluation Boards ........................................ 1
Revision History ............................................................................... 2
Setting Up the Evaluation Board .................................................... 3
Powering Up the Evaluation Board ............................................ 3
Measuring Evaluation Board Performance ................................. 4
Evaluation Board Schematics...........................................................6
Evaluation Board Layout ..................................................................8
Ordering Information .................................................................... 10
Bill of Materials ........................................................................... 10
Notes................................................................................................. 12
REVISION HISTORY
5/2016—Revision 0: Initial Version
UG-967 ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide
Rev. 0 | Page 3 of 12
SETTING UP THE EVALUATION BOARD
POWERING UP THE EVALUATION BOARD
The ADP5091-1-E VA L Z and ADP5092-1-EVA L Z evaluation
boards are fully assembled and tested. Before applying power to
the evaluation board, follow the setup procedures in this
section.
Jumper Settings
Table 1 describes the jumper settings.
Table 1. Jumper Settings.
Jumper
State or
Connection Function
J1
(DIS_SW)
SYS Disables the main boost
GND Enables the main boost
J2 (VID) Floating Set REG_OUT as 2.5 V
RES Set output voltage by an external
resistor through VID to ground
GND Set output voltage by external
resistor divide at REG_FB pin
J3
(REG_D1)
SYS Enable LDO mode of the REG_OUT
GND Disable LDO mode of the REG_OUT
J4
(PGOOD)
Pull high when the SYS voltage
ramps up to preset the SETPG rising
threshold
J5
(REG_D0)
SYS Enable boost mode of the REG_OUT
GND Disable boost mode of the REG_OUT
J12
(RDIV)
MPPT With MPPT sensing function
Floating
Without MPPT dynamic sensing
function, provide an external voltage
at CBP pin as MPPT voltage
J13 (FIX
MPPT)
Floating Dynamic MPPT sensing mode
Connected MPPT fixed mode
Input Power Source Connection
Energy harvesting power sources are high impedance sources.
Figure 3 shows that a source meter configured as a current
source with a voltage limit set to the open circuit voltage of the
harvester is the best way to simulate the harvester. For low
output impedance power supply (voltage source), it is necessary
to simulate the impedance of the harvester with a physical
external resistor (R) between the supply and the VIN pin. If the
input current source includes a voltage meter, use the meter to
monitor the input voltage as follows:
1. Connect the positive terminal (+) of the power source to
the VIN terminal (J11) on the evaluation board.
2. Connect the negative terminal (−) of the power source to
the GND terminal (J11) on the evaluation board.
If the input power supply does not include a current meter,
connect a current meter in series with the input power supply as
follows:
1. Connect the external series resistor of the power source to
the positive terminal (+) of the current meter.
2. Connect the negative terminal (−) of the power source to
the GND terminal (J10) on the evaluation board.
3. Connect the negative terminal (−) of the current meter to
the VIN terminal (J11) on the evaluation board.
SYS Load Connection
Before connecting the load to the ADP5091-1-E VA L Z and
ADP5092-1-EVA L Z evaluation boards, ensure that the SYS
voltage is higher than 2 V, or that the power-good signal is high. If
the load includes a current meter, or if the current is not
measured, connect the load directly to the evaluation board as
follows:
1. Connect the positive load connection (+) to the SYS
terminal (J9) on the evaluation board.
2. Connect the negative load connection (−) to the GND
terminal (J9) on the evaluation board.
If a current meter is used, connect it in series with the load as
follows:
1. Connect the positive terminal (+) of the current meter to
the SYS terminal (J9) on the evaluation board.
2. Connect the negative terminal (−) of the current meter to
the positive terminal (+) of the load.
3. Connect the negative terminal (−) of the load to the GND
terminal (J9) on the evaluation board.
Storage Elements Connection
The ADP5091-1-E VA L Z and ADP5092-1-E VA L Z evaluation
boards can charge some types of energy storage elements, such
as: rechargeable batteries, super capacitors, and conventional
capacitors. In general, the storage elements maintain constant
power or peak power of the system that cannot directly come
from the input source. It is necessary to consider the significant
leakage current of batteries and super capacitors. For the
application information, refer to the ADP5091/ADP5092 data
sheets.
ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide UG-967
Rev. 0 | Page 4 of 12
CURRENT S OURCE
WITH
VOLTAGE LIMIT
SUPER CAPACITOR
OR
RECHARGEABLE
BATTERY
–+
14443-003
+
VOLTAGE S OURCE
– +
Figure 3. Setup for the ADP5091-1-EVALZ and ADP5092-1-EVALZ
Input and SYS Voltmeter Connections
Measure the input and SYS voltages with voltmeters. Ensure
that the voltmeters connect to the appropriate test points on
the board. If the voltmeters are not connected to the correct
test points, the measured voltages may be incorrect due to the
voltage drop across the leads, or due to the connections
between the board, the power source, and/or the load.
1. Connect the positive terminal (+) of the input voltage
measuring voltmeter to Test Point TP6 on the evaluation
board.
2. Connect the negative terminal (−) of the input voltage
measuring voltmeter to Test Point TP10 on the board.
3. Connect the positive terminal (+) of the output voltage
measuring voltmeter to Test Point TP5 on the board.
4. Connect the negative terminal (−) of the output voltage
measuring voltmeter to Test Point TP7 on the board.
REG_OUT Load Connection
REG_OUT is a regulated output that can be set via the VID pin.
REG_D0 and REG_D1 control the operation mode of the
REG_OUT. See the detailed configuration in Table 1. If the load
includes a current meter, or if the current is not measured,
connect the load directly to the evaluation board as follows:
1. Connect the positive load connection (+) to the
REG_OUT terminal (J8) on the evaluation board.
2. Connect the negative load connection (−) to the
GND terminal (J8) on the evaluation board.
If a current meter is used, connect it in series with the load as
follows:
1. Connect the positive terminal (+) of the current meter to
the REG_OUT terminal (J8) on the evaluation board.
2. Connect the negative terminal (−) of the current meter to
the positive terminal (+) of the load.
3. Connect the negative terminal (−) of the load to the
GND terminal (J8) on the evaluation board.
Powering On the Evaluation Board
As long as the input current source open circuit voltage is above
a minimum input voltage of cold start (0.38 V), and the input
power is above a minimum input power of cold start (6 µW), the
ADP5091-1-EVA L Z and ADP5092-1-E VA L Z enter cold start, if
the SYS voltage is lower than end of the cold start-up threshold
(1.93 V). Otherwise, the evaluation board enables the main
boost instead of the cold start.
When the MPPT sampling circuit is active, the harvester open
circuit voltage is detectable because there is no input current to
create a drop across the impedance. The main boost runs and
draws current until the VIN voltage drops to the sampled
MPPT voltage stored at CBP pin.
Optional BACK_UP Setup
An optional primary battery connected to the BACK_UP pin
can accelerate the cold start or maintain the system load. When
VBAT < VBACK_UP and VBAT < VSET_BK, the ADP5091-1-E VA L Z and
ADP5092-1-EVA L Z turn on the internal power switches
between the BACK_UP pin and the SYS pin. When VBAT >
VBACK_UP and VBAT > VSET_BK, the internal power switches turn off.
MEASURING EVALUATION BOARD PERFORMANCE
Measuring the Switching Waveform
To observe the switching waveform with an oscilloscope, place
the oscilloscope probe tip at Test Point TP4 with the probe ground
connected to the Test Point TP12 GND Set the oscilloscope to a dc
coupling, 2 V/division, 10 µs/division time base. The switching
waveform alternates between 0 V and the approximate SYS voltage.
Measuring Efficiency
Measure the efficiency (η) by comparing the input power with the
output power. Figure 4 shows the test setup. Float the RDIV jumper
(J12) and provide an external voltage at CBP pin as MPPT voltage
so that the input voltage is regulated to this voltage. With a voltage
source meter, which can sink current to connect to SYS pin, the
output voltage and output current can be obtained.
IN
IN
SYSSYS
IV
IV
η×
×
=
UG-967 ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide
Rev. 0 | Page 5 of 12
CURRENT S OURCE
WITH
VOLTAGE LIMIT
INPUT
VOLTAGE
REGULATION
REFERENCE
(MPPT RATIO
× OCV )
VOLTAGE
SOURCE
METER
(CURRENT
SINK)
– +
14443-004
Figure 4. Setup for Measuring Efficiency
Measuring the Inductor Current
Measure the inductor current by removing one end of the
inductor from the pad on the board and using a wire connected
between the pad and the inductor. Then, use a current probe to
measure the inductor current.
Measuring the Output Voltage Ripple
To observe the output voltage ripple, place an oscilloscope
probe across output Capacitors C2 and C3 with the probe
ground lead placed at the negative capacitor terminal (−) and
the probe tip placed at the positive capacitor terminal (+). Set
the oscilloscope to an ac coupling, 50 mV/division, 1
seconds/division time base and a 20 MHz bandwidth.
A standard oscilloscope probe has a long wire ground clip. For
high frequency measurements, this ground clip picks up high
frequency noise and injects it into the measured output ripple.
To eliminate the noise injection, it requires removing the
oscilloscope probe sheath and wrapping a nonshielded wire
around the oscilloscope probe. By keeping the ground lengths
of the oscilloscope probe as short as possible, true ripple can be
measured.
BAT Voltage Change
The ADP5091-1-E VA L Z and ADP5092-1-E VA L Z output
voltages are preset to 3.5 V. However, the output voltage can be
adjusted using the following equation:
+= R12
R5
VV
REF
SYS
1
2
3
To prevent deeply discharging storage elements at BAT, the
voltage threshold can be programmed using the following
equation:
+= R10
R3
V
VREF
SETSD 1
where the typical VREF value is 1.0 V.
REG_OUT Voltage Change
The regulated output voltage of the ADP5091-1-E VA L Z and
ADP5092-1-EVA L Z can be set via VID jumper (J2). The
detailed configuration is shown in Table 1. For more
information on the VID resistors configuration, see the
ADP5091/ADP5092 data sheetsPtent. The output voltage can
also be programmable via the external feedback resistor divide
using the following equation:
+= R9
R7
VV
REF
OUTREG
1
_
where the typical VREF value is 1.0 V.
ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide UG-967
Rev. 0 | Page 6 of 12
EVALUATION BOARD SCHEMATICS
J10
LLD
1
2
J6
BACK_UP
1
2
TP4
SW
1
J13
FIX MPPT
1
2
R16
200kΩ
J11
VIN
1
2
R14
4.7MΩ C6
0.1µF
C4
0.1µF
J9
SYS
1
2
J4
PGOOD
1
2
J8
REG_OUT
1
2
TP3
REG_OUT
1
TP8
GND
1TP9
GND
1
J2
VID
1
2
3
C3
4.7µF/10V
U1
ADP5091
REF
1
SETSD
2
SETBK
3
TERM
4
SETPG
5
SETHYST
6
AGND
7
CBP
8
MPPT
9
VIN
10
LLD
11
PGND
12
SW 13
REG_OUT 14
REG_FB 15
SYS 16
BAT 17
BACK_UP 18
PGGOD 19
VID 20
MINOP 21
DIS_SW 22
REG_D1 23
REG_D0 24
EXP 25
J12
RDIV 1
2
3
R13
3.83MΩ
R6
6.19MΩ
TP6
VIN
1
R8
100kΩ
TP2
BAT
1
TP1
BACK_UP
1
TP11
GND
1TP12
GND
1
TP7
GND
1
TP10
GND
1
TP5
SYS
1
CBP
MPPT
RES
GND
C2
10µF/10V
L1
22µH
12
R9
NC
R7
0Ω
R15
18MΩ
C5
10nF
R1
1kΩ
SYS
J5
REG_D0 1
2
3
GND
R12
4.12MΩ
R5
5.9MΩ
SYS
R11
4.02MΩ
J3
REG_D1 1
2
3
GND
R4
6.04MΩ
R10
4.12MΩ
R3
5.9MΩ
SYS
J1
DIS_SW 1
2
3
GND
C7
10µF/10V
R2
113kΩ
J7
BAT
1
2
C1
220µF/6.3V
14443-005
Figure 5. Schematic of the ADP5091-1-EVALZ Evaluation Board
UG-967 ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide
Rev. 0 | Page 7 of 12
ADP5092
REF
SETSD
SETBK
TERM
SETPG
SETHYST
AGND
CBP
MPPT
VIN
REG_GOOD
PGND
SW
REG_OUT
REG_FB
SYS
BAT
BACK_UP
PGGOD
VID
MINOP
DIS_SW
REG_D1
REG_D0
EXP
J10
LLD
1
2
J6
BACK_UP
1
2
TP4
SW
1
J13
FIX MPPT
1
2
R16
200kΩ
J11
VIN
1
2
R14
4.7MΩ C6
0.1µF
C4
0.1µF
J9
SYS
1
2
J4
PGOOD
1
2
J8
REG_OUT
1
2
TP3
REG_OUT
1
TP8
GND
1TP9
GND
1
J2
VID
1
2
3
C3
4.7µF/10V
U1
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
J12
RDIV 1
2
3
R13
3.83MΩ
R6
6.19MΩ
TP6
VIN
1
R8
100kΩ
TP2
BAT
1
TP1
BACK_UP
1
TP11
GND
1TP12
GND
1
TP7
GND
1
TP10
GND
1
TP5
SYS
1
CBP
MPPT
RES
GND
C2
10µF/10V
L1
22µH
12
R9
NC
R7
0Ω
R15
18MΩ
C5
10nF
R1
1kΩ
SYS
J5
REG_D0 1
2
3
GND
R12
4.12MΩ
R5
5.9MΩ
SYS
R11
4.02MΩ
J3
REG_D1 1
2
3
GND
R4
6.04MΩ
R10
4.12MΩ
R3
5.9MΩ
SYS
J1
DIS_SW 1
2
3
GND
C7
10µF/10V
R2
113kΩ
J7
BAT
1
2
C1
220µF/6.3V
14443-006
Figure 6. Schematic of the ADP5092-1-EVALZ Evaluation Board)
ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide UG-967
Rev. 0 | Page 10 of 12
ORDERING INFORMATION
BILL OF MATERIALS
Table 2. ADP5091-1-EVALZ Evaluation Board Bill of Materials
Quantity Reference Designator Description Part Number PCB Footprint Vendor
1 C1 220 µF/6.3 V GRM32ER60J107ME20 C1210 Murata
2 C2, C7 10 µF/10 V GRM21BR71A106KE51 C0805 Murata
1 C3 4.7 µF/10 V GRM21BR61A475KA73 C0805 Murata
2 C4, C6 0.1 µF GRM188R71H104KA93 C0603 Murata
1 C5 10 nF GRM188R71H103KA01 C0603 Murata
1 J1 DIS_SW M20-9990246 SIP3 Harwin
1 J2 VID M20-9990246 SIP3 Harwin
1 J3 REG_D1 M20-9990246 SIP3 Harwin
1 J4 PGOOD M20-9990245 SIP2 Harwin
1
J5
REG_D0
M20-9990246
SIP3
Harwin
1 J6 BACK_UP 61900211121 SIP2 Würth
1 J7 BAT 61900211121? SIP2 Harwin
1 J8 REG_OUT 61900211121? SIP2 Harwin
1 J9 SYS 61900211121? SIP2 Harwin
1 J10 LLD M20-9990245 SIP2 Harwin
1 J11 VIN 61900211121? SIP Harwin
1 J12 RDIV M20-9990246 SIP3 Harwin
1 J13 FIX MPPT M20-9990245 SIP2 Harwin
1 L1 22 µH LPS4018-223MLB 4 mm × 4 mm Coilcraft
1 L1 22 µH 74437324220 4 mm × 4 mm Würth
1
R1
1 kΩ
CRCW06031K00FKEA
R0603
Vishay Dale
1 R2 113 kΩ CRCW0603113KFKEA R0603 Vishay Dale
2 R3, R5 5.9 MΩ CRCW06035M90FKEA R0603 Vishay Dale
1 R4 6.04 MΩ CRCW06036M04FKEA R0603 Vishay Dale
1 R6 6.19 MΩ CRCW06036M19FKEA R0603 Vishay Dale
1 R7 0 Ω CRCW06030000FKEA R0603 Vishay Dale
1 R8 100 kΩ CRCW0603100K0FKEA R0603 Vishay Dale
1 R9 NC N/A R0603 Vishay Dale
2 R10, R12 4.12 MΩ CRCW06034M12FKEA R0603 Vishay Dale
1 R11 4.02 MΩ CRCW06034M02FKEA R0603 Vishay Dale
1 R13 3.83 MΩ CRCW06033M83FKEA R0603 Vishay Dale
1 R14 4.7 MΩ CRCW06034M70FKEA R0603 Vishay Dale
1 R15 18 MΩ RK73B1JTTD186J R0603 KOA
1 R16 200 kΩ CRCW0603200KFKEA R0603 Vishay Dale
1 TP1 BACK_UP M20-9990245 SIP1 Harwin
1 TP2 BAT M20-9990245 SIP1 Harwin
1 TP3 REG_OUT M20-9990245 SIP1 Harwin
1
TP4
SW
M20-9990245
SIP1
Harwin
1 TP5 SYS M20-9990245 SIP1 Harwin
1 TP6 VIN M20-9990245 SIP1 Harwin
6 TP7, TP8, TP9, TP10, TP11, TP12 GND M20-9990245 SIP1 Harwin
1 U1 ADP5091 ADP5091-ACZP-1-R7 24-lead LFCSP Analog Devices,
Inc.
UG-967 ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide
Rev. 0 | Page 11 of 12
Table 3. ADP5092-1-EVALZ Evaluation Board Bill of Materials
Quantity Reference Designator Description Part Number PCB Footprint Vendor
1 C1 220 µF/6.3 V GRM32ER60J107ME20 C1210 Murata
2 C2, C7 10 µF/10 V GRM21BR71A106KE51 C0805 Murata
1 C3 4.7 µF/10 V GRM21BR61A475KA73 C0805 Murata
2 C4, C6 0.1 µF GRM188R71H104KA93 C0603 Murata
1 C5 10 nF GRM188R71H103KA01 C0603 Murata
1 J1 DIS_SW M20-9990246 SIP3 Harwin
1 J2 VID M20-9990246 SIP3 Harwin
1 J3 REG_D1 M20-9990246 SIP3 Harwin
1 J4 PGOOD M20-9990245 SIP2 Harwin
1 J5 REG_D0 M20-9990246 SIP3 Harwin
1 J6 BACK_UP 601900211121 SIP2 Würth
1 J7 BAT 601900211121 SIP2 Harwin
1 J8 REG_OUT 601900211121 SIP2 Harwin
1 J9 SYS 601900211121 SIP2 Harwin
1 J10 REG_OUT M20-9990245 SIP2 Harwin
1
J11
VIN
601900211121
SIP2
Harwin
1 J12 RDIV M20-9990246 SIP3 Harwin
1 J13 FIX MPPT M20-9990245 SIP2 Harwin
1 L1 22 µH LPS4018-223MLB 4 mm × 4 mm Coilcraft
1 L1 22 µH 74437324220 4 mm × 4 mm Würth
1
R1
1 kΩ
CRCW06031K00FKEA
R0603
Vishay Dale
1 R2 113 kΩ CRCW0603113KFKEA R0603 Vishay Dale
2 R3, R5 5.9 MΩ CRCW06035M90FKEA R0603 Vishay Dale
1 R4 6.04 MΩ CRCW06036M04FKEA R0603 Vishay Dale
1 R6 6.19 MΩ CRCW06036M19FKEA R0603 Vishay Dale
1 R7 0 Ω CRCW06030000FKEA R0603 Vishay Dale
1 R8 100 kΩ CRCW0603100K0FKEA R0603 Vishay Dale
1 R9 NC N/A R0603 Vishay Dale
2 R10, R12 4.12 MΩ CRCW06034M12FKEA R0603 Vishay Dale
1 R11 4.02 MΩ CRCW06034M02FKEA R0603 Vishay Dale
1 R13 3.83 MΩ CRCW06033M83FKEA R0603 Vishay Dale
1 R14 4.7 MΩ CRCW06034M70FKEA R0603 Vishay Dale
1 R15 18 MΩ RK73B1JTTD186J R0603 KOA
1 R16 200 kΩ CRCW0603200KFKEA R0603 Vishay Dale
1 TP1 BACK_UP M20-9990245 SIP1 Harwin
1 TP2 BAT M20-9990245 SIP1 Harwin
1 TP3 REG_OUT M20-9990245 SIP1 Harwin
1
TP4
SW
M20-9990245
SIP1
Harwin
1 TP5 SYS M20-9990245 SIP1 Harwin
1 TP6 VIN M20-9990245 SIP1 Harwin
6 TP7, TP8, TP9, TP10, TP11, TP12 GND M20-9990245 SIP1 Harwin
1 U1 ADP5092 ADP5092-ACPZ-1-R7 24-lead LFCSP Analog Devices,
Inc.
ADP5091-1-EVALZ/ADP5092-1-EVALZ User Guide UG-967
Rev. 0 | Page 12 of 12
NOTES
ESD Caution
ESD (electrostatic discharge) sensitive device. Charged devices and circuit boards can discharge without detection. Although this product features patented or proprietary protection
circuitry, damage may occur on devices subjected to high energy ESD. Therefore, proper ESD precautions should be taken to avoid performance degradation or loss of functionality.
Legal Terms and Conditions
By using the evaluation board discussed herein (together with any tools, components documentation or support materials, the “Evaluation Board”), you are agreeing to be bound by the terms and conditions
set forth below (“Agreement”) unless you have purchased the Evaluation Board, in which case the Analog Devices Standard Terms and Conditions of Sale shall govern. Do not use the Evaluation Board until you
have read and agreed to the Agreement. Your use of the Evaluation Board shall signify your acceptance of the Agreement. This Agreement is made by and between you (“Customer”) and Analog Devices, Inc.
(“ADI”), with its principal place of business at One Technology Way, Norwood, MA 02062, USA. Subject to the terms and conditions of the Agreement, ADI hereby grants to Customer a free, limited, personal,
temporary, non-exclusive, non-sublicensable, non-transferable license to use the Evaluation Board FOR EVALUATION PURPOSES ONLY. Customer understands and agrees that the Evaluation Board is provided
for the sole and exclusive purpose referenced above, and agrees not to use the Evaluation Board for any other purpose. Furthermore, the license granted is expressly made subject to the following additional
limitations: Customer shall not (i) rent, lease, display, sell, transfer, assign, sublicense, or distribute the Evaluation Board; and (ii) permit any Third Party to access the Evaluation Board. As used herein, the term
“Third Party” includes any entity other than ADI, Customer, their employees, affiliates and in-house consultants. The Evaluation Board is NOT sold to Customer; all rights not expressly granted herein, including
ownership of the Evaluation Board, are reserved by ADI. CONFIDENTIALITY. This Agreement and the Evaluation Board shall all be considered the confidential and proprietary information of ADI. Customer may
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UG14443-0-5/16(0)
