NB3N1200KMNGEVB,
NB3W1200LMNGEVB
NB3N1200K/NB3W1200L
Evaluation Board
User'sManual
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EVAL BOARD USER’S MANUAL
Introduction
The NB3N1200KMNGEVB and the NB3W1200LMNG
EVB evaluation boards were developed with a common
PCB layout design to accommodate the NB3N1200K
(standard HCSL outputs) and the NB3W1200L (HCSL
Push-Pull outputs) devices. Each board comes fully
assembled and tested and is ready to evaluate in the lab. This
evaluation board was designed to provide a flexible and
convenient platform to quickly evaluate, characterize and
verify the operation of the NB3N1200K or NB3W1200L
devices. To minimize the board size, six differential outputs
are accessed with SMA connectors. The other six
differential outputs are loaded, terminated and can be
monitored with a high impedance probe as explained later in
the manual.
The NB3N1200K Evaluation Board schematic is the
same as the NB3W1200L schematic except the “1200L” has
some components depopulated (DNI) per the “1200L”
BOM.
• The NB3W1200LMNGEVB does not have RP resistors
Top View
Bottom View
•
•
installed on its differential Push-Pull outputs.
The NB3W1200LMNGEVB does not have
FB_OUT/FB_OUT# resistors installed.
The NB3W1200LMNGEVB does not have RREF
resistor R107 installed.
This manual should be used in conjunction with the device
datasheet which contains full technical details on the device
specifications and operation.
This evaluation board manual contains:
• Information on the NB3N1200K/NB3W1200L
Evaluation Board
• Assembly Instructions
• Test and Measurement Setup Procedures
• Board Schematic and Bill of Materials
Figure 1. NB3N1200KMNGEVB and NB3W1200LMNGEVB Evaluation Board
© Semiconductor Components Industries, LLC, 2013
December, 2013 − Rev. 0
1
Publication Order Number:
EVBUM2216/D
NB3N1200KMNGEVB, NB3W1200LMNGEVB
QUICK START LAB SET-UP USER’S GUIDE
Pre-Power-Up
Table 1. POWER SUPPLY CONNECTIONS
1. The NB3N1200K and NB3W1200L have positive
power supply pins VDD and VDDIO. Connect
power supply cables to VDD, VDDIO and GND
banana jacks; (do not turn power on, yet)
2. Connect a signal generator to the SMA connectors
for the CLK_IN & CLK_IN# inputs.
3. 50-ohm termination resistors are installed for
a signal generator on the board. Set appropriate
input signal levels; (HCSL input, VIL = 0 V,
VIH = 700 mV, Frequency 100 or 133.33 MHz)
4. Ensure the PWRGD/PWRDN# pin is in the Low
state before power up (PWRDN#). There is
a jumper on pin 6 to easily select between High
and Low. See Figure 8.
5. The 100M_133M# and HBW_BYPASS_LBW
pins need to be hardware selected with jumpers.
See Figures 4 and 7.
6. To monitor the DIF_n/DIF_n# outputs, connect the
DIF_n/DIF_n# outputs to the appropriate
oscilloscope.
Device Pin
Power Supply Connector
Power Supply
VDD
3.3 V
VDDIO
1.05 V to 3.3 V
GND
0V
Single Power Supply
+3.3 V
0V
Dual Power Supplies
+3.3 V
1.05 V to 3.3 V
0V
VDDIO
VDD, VDDIO
GND
VDD
1.05 V to 3.3 V
+3.3 V
GND
+3.3 V
Figure 2. Power Supply Connections
Signal Generator
Oscilloscope
OUT
OUTb
0V
3.3 V
3.3 V
IN
INb
Figure 3. Typical Lab Test Set-Up
Power -Up Sequence
Optional
1. Turn on power supply, 3.3 V (VDD & VDDIO).
2. Move PWRGD/PWRDN# jumper from Low to
logic High, PWRGD position.
3. Turn on the Differential Clock Signal for the
CLK_IN inputs. The differential Clock signal for
the CLK_IN inputs can be ON or active before or
after PWRGD is set HIGH.
4. Monitor DIF_n/DIF_n# outputs on oscilloscope.
Graphical User Interface (see page 7)
There is a stand-alone Graphical User Interface software
package and user’s manual that will interface with the DUT
via the USB connector.
1. Connect the USB port on the evaluation board to
a USB port on the PC via cable.
2. See the stand-alone GUI instructions document.
3. Allow Windows to install the necessary drivers for
the eval board USB interface hardware.
4. Start the GUI program.
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NB3N1200KMNGEVB, NB3W1200LMNGEVB
Power Supplies
Control Pins
Each VDD, VDDIO and GND power supply has
a separate side-launch banana jack located on bottom side.
This board is capable of measuring device IDD & IDDIO
separately.
Each control pin can be managed manually with a H/L
jumper header; H = VDD, L = GND.
Tri-Level Input Pins - HBW_BYPASS_LBW#, SA0 and SA1
The three tri-level input pins, HBW_BYPASS_LBW#,
SA0 and SA1, have selectable (with jumper) 4.7 k-ohm
pull-up to VDD and 4.7 k-ohm pull-down to GND resistors;
No jumper defaults to open/float.
• For a HIGH Level – Put Jumper to High
• For a LOW Level − Put Jumper to Low
• For a MID Level − Put Jumper to both High and Low;
this will Enable both Pull-up and Pull-down Resistors
Board Layer #2 = SMA Ground = Device GND = 0 V.
GND Banana Jack = negative power supply for
DUTGND and SMAGND.
Exposed Pad (EP): The exposed pad footprint on the
board is soldered to the exposed pad of the QFN-64
package, and is electrically connected to GND power
supply.
HBW_BYPASS_LBW#
At J65 and J66 headers, there is a 4.7 kW pull-up to VDD
and a 4.7 kW pull-down resistor to GND for manual control.
See Figure 4.
Board Layer #3 = VDD and VDDIO Power Supplies
VDD = positive power supply for core and inputs;
VDD/VDDA/VDDR (pins #1, 8, 24, 40, 57)
VDDIO = positive power supply for outputs; VDDIO
(pins #25, 32, 49, 56)
SA0 & SA1
At J67 and J69 headers, there are 4.7 kW pull-ups to VDD
and at J68 and J70, there are 4.7 kW pull-down resistors to
GND for manual control. See Figure 5.
VDD & VDDIO have the power supply filtering per
datasheet by the banana jacks.
All VDD/VDDA/VDDR/VDDIO device pins have
a 0.1 mF bypass capacitor installed on top side next to
package pins.
VDD
1
R57
2
J65
HBW HI
1
2
4.7K
1
J66
HBW
2
1
R58
5
HBW_BYP_LBW
2
4.7K
HBW LO
Figure 4. HBW_BYPASS_LBW# Schematic/PCB Configuration
SA0 SA1
VDD
GND
1
R79
2
1
4.7K
VDD
GND
VDD
1
R85
J67
SA0 HI
2
1
4.7K
J69
SA1 HI
SA0
2
1
2
J68
2
SA0 LO
1
J70
2
SA1 LO
VDD
Figure 5. SA0 & SA1 Schematic/PCB Configuration
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3
1
SA1
1
11
R82
SA0
2
4.7K
14
R88
4.7K
2
SA1
NB3N1200KMNGEVB, NB3W1200LMNGEVB
Control Pins (Continued)
All twelve of the OE_n#s can be controlled individually/
automatically by using the software GUI. GUI control is
accomplished via the USB when the OE_n# jumper is
installed on the middle header position. See Figure 6.
OE_n# Pins (Output Enable/Disable Function)
Six of the twelve differential outputs that have metal
traces going to SMA connectors have OE_n# pins on the left
side of the board that can be controlled manually using the
convenient High/Low OE_n# jumpers. See Figure 6.
37
OE#
USB GUI
J47
1
3
5
OE#
VDD
2
4
6
HI − Jumper to VDD
USB − Jumper to Mid
LO − Jumper to GND
Figure 6. OE_n# Pins Schematic/PCB Configuration
100M_133M# - Frequency Selection (J55)
The 100M_133M# frequency selection pin can be
controlled manually with the High/Low header jumper J55,
H = 100 MHz, L = 133 MHz.
4
J55
1
2
3
100M_133M_N
VDD
Figure 7. 100M_133M# Pin Schematic/PCB Configuration
PWRGD/PWRDN# (J56)
The PWRGD/PWRDN# pin can be controlled manually
with the High/Low header jumper J56; H = PWRGD,
L = PWRDN#.
6
J56
1
2
3
VDD
Figure 8. PWRGD/PWRDN# Pin Schematic/PCB Configuration
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4
PWRGD
NB3N1200KMNGEVB, NB3W1200LMNGEVB
Differential Clock Inputs and Outputs
Six of the twelve differential outputs are designed to have
equal length metal traces from the device pins to the SMA
connectors.
The other six differential outputs have shortened metal
traces, do not have SMA connectors and can be observed
with a high-impedance probe on the metal pads provided.
Each DIF_n/DIF_n# output has a provision for CLoad;
2 pF capacitors are installed on all outputs.
Rs & Rp pads are located close to the DUT. Rs = 33-W is
installed for both the NB3N1200K and NB3W1200L.
CLK_IN & CLK_IN# - Differential Clock Inputs
The differential Clock input traces, CLK_IN/CLK_IN#,
are equal length routed straight from the SMA connectors on
the left side directly to the DUT; there are no vias on metal
traces.
CLK_IN & CLK_IN# have resistor pads (R51 & R52) to
GND to terminate a signal generator, if used. 50-ohm
resistors are installed. Remove these resistors if CLK_IN
& CLK_IN# are driven by another IC device.
NB3N1200K (HCSL Outputs)
RP is not installed on the six output pair with long metal
traces to SMA connectors; Use 50-W to GND of the
oscilloscope head for RP.
Rp is installed (50-W to GND) on the short metal traces
without SMA connectors and will use Hi-Z probes.
DIF_n and DIF_n# - Differential Outputs
NB3N1200KMNGEVB and NB3W1200LMNGEVB
were designed with a flexible PCB layout configuration to
measure the differential HCSL (1200K) or Push-Pull
(1200L) outputs with a 50-ohm scope head or
high-impedance FET probe. (See Output Layout in
Figures 8 and 9)
NB3W1200L (Push-Pull Outputs)
Rp is not installed
Table 2. NB3N1200KMNGEVB AND NB3W1200LMNGEVB OUTPUT LOAD AND TERMINATION
VS. OSCILLOSCOPE MEASUREMENT
Device
DIF_4
Output Traces
Rs
Rp
CLoad
Scope
1200K
Long
33-W
Open (DNI)
2 pF
50-W
1200K
Short
33-W
50-W
2 pF
Hi-Z
1200L
Long or Short
33-W
Open (DNI)
2 pF
Hi-Z
34
1
R33
35
DIF_5
38
DIF_N4
1
R37
2
33
D IF_5
1
R41
2
DIF_N5
1
R45
1 R35 2
1
49.9
C9
1 R39 2
1
49.9
1 R43 2
33
39
OUT4
2
33
DIF_4#
DIF_5#
D IF_4
2
33
49.9
1 R47 2
49.9
C10
1
C11
1
C12
2
2.0pF
OUT_N4
2
From: DUT Output
From: DUT Output
DIF_4#
DIF_4
TP20 DIF_4#
2.0pF
OUT5
1 R125 2
2
0
2.0pF
PR6
OUT_N5
1 R42 2
J11
0
1
R46
1 R126 2
2
2
J12
0
DIF_5
DIF_5#
0
2.0pF
Rp
Rs
DIF_5#
DIF_5
TP19 DIF_4
GND
Long Output Traces:
Use 50-W Scope via SMA Connector
DIF_5#
Rp
Rs
GND
CL
CL is at SMA
Connector
DIF_5
DIF_4#
DIF_4
Short Output Traces:
Use High-Z Probe
Figure 9. Differential Outputs Schematic/PCB Configuration: Long vs. Short Metal Traces
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NB3N1200KMNGEVB, NB3W1200LMNGEVB
HCSL Output Measurement
NB3W1200L (Push-Pull Outputs) − Use Hi-Z Probe
Rp is not installed
• A 0-W series resistor is installed between the end of the
transmission line and the SMA connector. This resistor
can be removed, if needed, to eliminate any SMA
impedance/stub when using Hi-Z probes.
• As a feature, an optional component can be installed on
each output, ie. additional capacitance loading etc.
HCSL outputs are typically terminated with 50-W to
ground. Measuring HCSL outputs can be easily
accomplished by:
NB3N1200K (HCSL Outputs) − 50-W Oscilloscope Head
With RP removed from board, connect the HCSL outputs
through the SMA connectors to the 50-W internal impedance
of the oscilloscope sampling head.
The following figures describe the boards’ output
features:
NB3N1200K (HCSL Outputs) − Use Hi-Z Probe
With RP installed, use a high-impedance probe on the
output’s metal trace. Holes for headers to connect to Hi-Z
probes are available, but the header pins are not installed.
• Single-ended Hi-Z probes or,
• Differential Hi-Z probe; (see layout below)
Optional component to Ground, if
needed, when shorted to output trace.
Ground
CLoad (2 pF), installed
Series R = 0-W installed
Hi-Z probe
Short with 0-W resistor for use
with Hi-Z probe; 0-W installed.
From: DUT Output
Figure 10. Differential Outputs Schematic/PCB Configuration: Use Hi-Z Probe Scope for NB3W1200L
Misc. Pins
IREF Pin
NB3N1200K (HCSL):
The RREF resistor (R107) to GND for the HCSL output
part device.
RREF = 475-W is installed for the 100-W board.
NB3W1200L (Push-Pull)
RREF is not installed for the NB3W1200L device.
FB_OUT & FB_OUT# − External Termination
of Feedback Pins
FB_OUT & FB_OUT# have convenient “test point
anvils” to monitor these pins with Hi-Z probe.
NB3N1200K (HCSL):
Since the FB_OUT & FB_OUT# pins do not drive
transmission lines (no SMAs), the board layout has these
pins loaded/terminated at the DUT per datasheet; 83-W to
GND is installed for the 100-W board.
NB3W1200L (Push-Pull):
FB_OUT & FB_OUT# resistors are not installed.
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NB3N1200KMNGEVB, NB3W1200LMNGEVB
In order to enable the I2C control of the DUT, header
jumpers J63 & J64 must be shorted.
The I2C/SMBus interface circuitry is powered separately
from the USB type-B connection and is isolated from device
VDD and VDDIO.
The SDA and SCL pins can also be externally accessed by
an off-board programmer, allowing other SMBus emulators
to be used to program the DUT. If used, remove both jumpers
J63 & J64. “Test-point anvils” TP5 & TP6 are available for
external control of the device with the use with mini-grabber
cables.
Graphical User Interface (GUI)
USB & I 2C/SMBus Interface
The NB3N1200K EVB has an on-board I2C/SMBus
interface circuitry located in the upper left section of the
board.
This circuitry will interface with the software program
and the device via the SDA and SCL input pins, and can
control all twelve of the OE_n# pins, PLL Mode and
Frequency Select directly from the GUI.
SCL & SDA
The SMBus Clock (SCL) and Data (SDA) pins are
exercised through the on-board I2C interface.
BOARD FEATURES
Single Board Design/Layout for NB3N1200K or
NB3W1200L:
environment (100-W line-to-line differential) and is
implemented in four layers.
• All layers are constructed with FR4 dielectric material.
• The first layer is the primary signal layer, including all
of the differential inputs and outputs.
• The second layer is the ground plane. It is dedicated for
the DUT ground/SMA ground plane.
• The third layer is dedicated as the power plane.
A portion of this 3rd layer is designated for the device
VDD and VDDIO power planes.
• The fourth layer contains control lines, power supply
banana jacks and device power pin bypass capacitors.
• The single board design and layout accommodates the
•
•
•
•
electrical characterization of either the NB3N1200K
(standard HCSL outputs) or the NB3W1200L (HCSL
Push-Pull outputs).
Incorporates on-board I2C/SMBus interface circuitry
powered from a USB connection, minimizing cabling.
Convenient and compact board layout.
3.3 V power supply device operation.
Differential inputs/outputs signals are accessed via
SMA connectors or high impedance probes.
Other Board Features
There are no vias on the high-speed differential I/O metal
traces so as to eliminate via impedance and stub affects.
Board stand-offs are installed.
Layer Stack
L1 (Top) Signal
L2 Device Ground and SMA Ground
L3 VDD, VDDIO (Separate Device Power Supplies)
L4 (Bottom), Power Supply By-pass Capacitors,
Control Pin Traces and Banana Jacks
•
•
•
•
Board Layout
The NB3N1200K QFN-64 Evaluation Board provides
a high bandwidth, 50-W controlled trace impedance
Figure 11. NB3N1200KMNGEVB and NB3W1200LMNGEVB Evaluation Board Layer Stack-Up
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8
Figure 12. NB3N1200KMNGEVB & NB3W1200LMNGEVB Board Schematic
GND
J61
VDDIO
J60
VDD
J59
SCL
SDA
CLKIN#
CLKIN
OE_IO[0..11]
2
1
10uF
10V
1
10uF
10V
+ C32
1
2
+ C22
1
J38
J37
600
FB2
600
FB1
2
2
2
1
2
1
2.2
R93
C33
10uF
10V
C27
10uF
10V
1
IN_N
CLK
IN
CLK
TP4
TP3
2
2.2
IO
VDD
VDD
1
R94
OE_IO11
OE_IO10
OE_
I O9
I O8
OE_
I O7
OE_
OE_
I O6
OE_
I O5
I O4
OE_
I O3
OE_
I O2
OE_
OE_
I O1
OE_
I O0
2
2
1
VDD
VDD
2
2
2
1
SA1
R88
4.7K
R82
2
VDDR
C57
1uF
10V
1 C34 1 C35 1 C36 1 C37
100nF 100nF 100nF 100nF
2
2
2
2
2
1
VDD
IO
VDD
1 C25
100nF
2
1
2
1
2
4.7K
SA1 LO
V DDA
VDDR
J70
1
2
SA0 LO
1 C28 1 C29 1 C30
100nF 100nF 100nF
2
2
2
TP2
TP1
V DDA
J69
1
2
SA1 HI
J68
VDD
1
2
3
J56
SA0
VDD
J67
1
2
SA0 HI
49.9
R52
HBW
R58
1
2
4.7K
1
1
2
3
J66
1
2
HBWLO
J65
HBWHI
1
2
49.9
J55
VDD R57
1
2
4.7K
1 C24
100nF
2
4.7K
R85
4.7K
R79
C56
1uF
10V
1
1
R51
VDD
1 2
3 4
J52 5 6
1
VDD
VDD
1 2
3 4
J48 5 6
1 2
3 4
J51 5 6
VDD
VDD
1 2
3 4
J44 5 6
1 2
3 4
J47 5 6
VDD
1 2
3 4
J43 5 6
2
DIF1 21
28 OE_N2
DIF3 30
44 OE_N6
DIF5 38
61 OE_N10
1
DIF_
N4
GNDA
GND
GND
GND
GND
GND
GND
VDD
VDD
VDD
VDD
EP 65
2
7
23
33
41
48
58
25
32
49
56
24 VDD
40 VDD
57 VDD
1 VDDA
8 VDDR
14 SA1
11 SA0
13 SCL
12 SDA
FBOUT 16
FBOUT_N 15
IREF 3
DIF_N11 64
DIF11 63
DIF_N10 60
DIF10 59
DIF_N9 55
DIF9 54
DIF_N8 51
DIF8 50
1
1
0
0
R113
R112
2
2
DIF _N11
DIF11
DIF _N10
DIF10
DIF_
N9
D IF9
N8
DIF_
D IF8
DIF_
N7
DIF_N7 47
100M_133M_N
4
6 PWRGD
D IF7
N6
DIF_
D IF6
DIF_
N5
33
R25
33
R21
33
R17
2
2
2
33
R95
33
R89
33
R83
33
R77
33
R73
33
R69
33
R65
33
R61
33
R55
33
R49
33
R45
33
R41
33
R37
33
R33
2
2
2
2
2
2
2
2
2
2
2
2
2
2
R103
2
33
R3
49.9
2
49.9
R11
2
R19
49.9
R59
49.9
R53
49.9
R47
49.9
R43
49.9
R39
49.9
R35
49.9
R31
49.9
R27
49.9
R23
49.9
2
2
2
2
2
2
2
2
2
2
R67
49.9
2
R75
49.9
2
R86
49.9
2
97
49.9
2
1
49.9
R107
R105
2
1 R1012
49.9
1
1 R91 2
49.9
1
1 R80 2
49.9
1
1 R71 2
49.9
1
1 R63 2
49.9
1
1
1
1
1
1
1
1
1
1
1 R15 2
49.9
1
1 R7 2
49.9
1
1
2
475
TP13
FBOUT# R108
1
2
82.5
TP14
FBOUT R109
1
2
82.5
1
1 R99 2
33
1
1
1
1
1
1
1
1
1
1
1
1
1
D IF5
2
2
2
1 R29 2
33
D IF4
DIF_
N3
DIF7 46
HBW_BYP_LBW
DIF_N6 43
DIF6 42
1
DIF_
N2
1
1
D IF3
33
R9
33
R5
33
R1
1 R13 2
33
D IF2
N1
DIF_
1
1
DIF_
N0
D IF1
1
D IF0
5
10 CLKIN_N
9 CLKIN
DIF_N5 39
DIF_N4 35
53 OE_N9
62 OE_N11
DIF4 34
52 OE_N8
DIF_N3 31
DIF_N2 27
37 OE_N5
45 OE_N7
DIF2 26
36 OE_N4
DIF_N1 22
DIF_N0 18
20 OE_N1
29 OE_N3
DIF0 17
19 OE_N0
DNI NB3N1200K
U1
1
C31
1
C26
1
C23
1
C21
1
C20
1
C19
1
C18
1
C17
1
C16
1
C15
1
C14
1
C13
1
C12
1
C11
1
C10
1
C9
1
C8
1
C7
1
C6
1
C5
1
C4
1
C3
1
C2
1
C1
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
2
2.0pF
OUT_N11
OUT11
OUT_N8
OUT8
OUT_N7
OUT7
OUT_N4
OUT4
OUT_N3
OUT3
OUT_N0
OUT0
TP26
TP25
TP24
TP23
TP22
TP21
TP20
TP19
TP18
TP17
TP16
TP15
1 R1322
0
1 R1312
0
1 R1302
0
1 R1292
0
1 R1282
0
1 R1272
0
1 R1262
0
1 R1252
0
1 R1242
0
1 R1232
0
1 R1222
0
1 R1212
0
1
1
1
1
1
1
1
1
1
1
1
OUT_N10 1
PR11
OUT10
OUT_N9
PR10
OUT9
OUT_N6
PR7
OUT6
OUT_N5
PR6
OUT5
OUT_N2
PR3
OUT2
OUT_N1
PR2
OUT1
0
R96
0
R90
0
R84
0
R78
0
R56
0
R50
0
R46
0
R42
0
R22
0
R18
0
R14
0
R10
2
2
2
2
2
2
2
2
2
2
2
2
J22
J21
J20
J19
J14
J13
J12
J11
J6
J5
J4
J3
DIF10#
DIF10
DIF9#
DIF9
DIF6#
DIF6
DIF5#
DIF5
DIF2#
DIF2
DIF1#
DIF1
NB3N1200KMNGEVB, NB3W1200LMNGEVB
NB3N1200K/NB3W1200L EVALUATION BOARD SCHEMATIC
http://onsemi.com
9
Figure 13. USB Circuitry Schematic
2
1
3V3
C52
100nF
10V
OE_IO[0..11]
SDA
SCL
5
6
7
8
DIN
CLK
CS
SDA
SCL
DOUT
U3
93LC46B
GND
NC
NC
VCC
TP6
TP5
4
3
2
1
2
1
J64
R116
10K
3V3
2
2
J63
2
1
1
1
R117
10K
2
1
1
R118
10K
27
28
29
30
32
33
34
OE_IO5
OE_IO6
OE_IO7
OE_IO8
OE_IO9
OE_IO10
OE_IO11
2.2K
2
26
OE_IO4
R120
24
OE_IO3
10
1
5
11
15
25
35
47
51
61
62
63
48
52
53
54
55
57
58
59
38
39
40
41
43
44
45
46
23
OE_IO2
19
18
17
16
22
R111
10K
OE_IO1
2
1
21
R110
10K
OE_IO0
2
1
3V3
AGND
GND
GND
GND
GND
GND
GND
GND
GND
EEDATA
EECLK
EECS
BCBUS0
BCBUS1
BCBUS2
BCBUS3
BCBUS4
BCBUS5
BCBUS6
BCBUS7
BDBUS0
BDBUS1
BDBUS2
BDBUS3
BDBUS4
BDBUS5
BDBUS6
BDBUS7
GPIOH7
GPIOH6
GPIOH5
GPIOH4
GPIOH3
GPIOH2
GPIOH1
GPIOH0
GPIOL3
GPIOL2
GPIOL1
GPIOL0
TMS
TDO
TDI
TCK
20
31
42
56
VREGIN 50
VCCIO
VCCIO
VCCIO
VCCIO
TEST
PWREN_N
SUSPEND_N
OSCO
OSCI
REF
RESET_N
DP
DM
VPHY
VPLL
VCORE
VCORE
VCORE
2
600
FB3
3V3
1
C45
100nF
C41
100nF
C55
1uF
10V
2
1
1
600
FB4
D1
USB_5V
2
3V3
4
2
2
1
USB
2
1
13
60
36
3
2
6
14
12K
1%
3
1
R115
Y1
12 MHz
1
2
1
1
10pF
C53
10pF
2
2
C 4
C
2
2
1
10K
C50
10nF
16V
2
1
2
TP12
TP11
TP10
TP9
C58
100nF
TP7
GND
GND
GND
GND
2
3
1
USB 5V
1
PACDN004
GND
EN
NC
4
U4
NCP4586,3.3V
IN
OUT 5
470
R119
1
3
2
1
3V3
LED1
C59
1uF
10V
TP8
4
3
1
2
1
2
1
C49
100nF
R114
2
1
C44
100nF
C40
100nF
C48
4.7uF
6.3V
2
1
2
1
2
2
1
C43
100nF
C39
100nF
USB_DP
C51
C47
100nF
2
1
2
1
8
USB_RST_N
2
1
C42
4.7uF
6.3V
C38
100nF
C46
4.7uF
6.3V
2
1
2
1
USB_DM
2
1
3V3
7
4
9
12
37
64
VREGOUT 49
U2
FT2232H
5
3V3
6
USB
J62
NB3N1200KMNGEVB, NB3W1200LMNGEVB
NB3N1200KMNGEVB, NB3W1200LMNGEVB
Table 3. BILL OF MATERIALS FOR THE NB3N1200KMNGEVB EVALUATION BOARD
Substitution
Allowed
Lead
Free
Designator
Qty.
Description
Value
Tolerance
Footprint
Manufacturer
Manufacturer
Part Number
B1
1
PC Board,
Demo Board
−
−
−
−
−
−
Yes
C1-C21, C23,
C26, C31
24
Capacitor
2.0 pF
12%
0402
TDK
C1005C0G1H020C
Yes
Yes
C22, C32
2
Capacitor
10 mF
10%
1206
Vishay
TR3A106K010C2000
Yes
Yes
C24, C25,
C2-C30,
C34-C41,
C43-C45, C47,
C49, C52, C58
20
Capacitor
100 nF
10%
0402
AVX
0402ZD104KAT2A
Yes
Yes
C27, C33
2
Capacitor
10 mF
20%
0603
TDK
C1608X5R1A106M
Yes
Yes
C42, C46, C48
3
Capacitor
4.7 mF
20%
0402
TDK
C1005X5R0J475M
Yes
Yes
C50
1
Capacitor
10 nF
10%
0402
AVX
0402YC103KAT2A
Yes
Yes
C51, C53
2
Capacitor
10 pF
5%
0402
Murata
GRM1555C1H100JZ01D
Yes
Yes
C55-C57, C59
4
Capacitor
1 mF
20%
0402
Murata
GRM155R61A105ME15D
Yes
Yes
D1
1
ESD
Suppressor
4 CHANNEL
PROTECTION
PACDN004
−
SOT-143
ON Semiconductor
PACDN004SR
No
Yes
FB1, FB2
2
EMI Filter
Bead
600 W
−
0603
Murata
BLM18KG601SN1D
Yes
Yes
FB3, FB4
2
EMI Filter
Bead
600 W
25%
0402
Murata
BLM15AG601SN1D
Yes
Yes
J3-J6, J11-J14,
J19-J22, J37,
J38
14
RF Connectors
PC END MT
JCK GLD
.062″
−
−
SMA_END_LA
UNCH_0.062″
Johnson
Components
142-0701-801
Yes
Yes
J43, J44, J47,
J48, J51, J52
6
Header
−
−
Header
Thru-Hole 2 × 3
FCI
67996-206HLF
Yes
Yes
J56, J55
2
Header
Header
3-pin
−
3-pin Header,
thru-hole 0.1
3M
961103-6404-AR
Yes
Yes
J59
1
Banana Jack,
Thru-Hole,
Red
−
−
CON2_571-050
0_DELTRON
Deltron
571-0500
Yes
Yes
J60
1
Banana Jack,
Thru-Hole,
Yellow
−
−
CON2_571-050
0_DELTRON
Deltron
571-0700
Yes
Yes
J61
1
Banana Jack,
Thru-Hole,
Black
−
−
CON2_571-050
0_DELTRON
Deltron
571-0100
Yes
Yes
J62
1
CONN USB
TYPE B R/A
HORIZ SMD
−
−
SMT USB
Conn B
On Shore
Technology
USB-B1SMHSW6
Yes
Yes
J63-J70
8
Header
Header
2-pin
−
2-pin Header,
thru-hole 0.1
3M
961102-6404-AR
Yes
Yes
LED1
1
LED GREEN
CLEAR 0603
SMD
LED, Green
−
0603 LED
Lite-On
LTST-C190KGKT
Yes
Yes
M1-M8, M10,
M12, M14,
M17, M19,
M21, M23-M25
17
CONN
JUMPER
SHORTING
.100″ GOLD
Shunt
−
2.54 × 5.97
(mm)
Sullins
QPC02SXGN-RC
Yes
Yes
M9, M11, M13,
M15
4
STANDOFF
4-40
ALUMINUM
5/8″
Standoff,
4-40
1/4 × 5/8
−
−
Keystone
1808
Yes
Yes
M16, M18,
M20, M22
4
Screw,
4-40 x 0.25,
PHP
−
−
−
Building Fasteners
PMS 440 0025 PH
Yes
Yes
R1,R5,R9, R13,
R17, R21, R25,
R29, R33, R37,
R41, R45, R49,
R55, R61, R65,
R69, R73, R77,
R83, R89, R95,
R99, R103
24
Resistor
33 W
1%
0402
Panasonic
ERJ-2RKF33R0X
Yes
Yes
http://onsemi.com
10
NB3N1200KMNGEVB, NB3W1200LMNGEVB
Table 3. BILL OF MATERIALS FOR THE NB3N1200KMNGEVB EVALUATION BOARD (continued)
Substitution
Allowed
Lead
Free
Designator
Qty.
Description
Value
Tolerance
Footprint
Manufacturer
Manufacturer
Part Number
R3, R7, R11,
R15, R19, R23,
R27, R31, R35,
R39, R43, R47,
R53, R59, R63,
R67, R71, R75,
R80, R86, R91,
R97, R101,
R105
24
Resistor
49.9 W
1%
0402
Panasonic
ERJ-2RKF49R9X
Yes
Yes
R10, R14, R18,
R22, R42, R46,
R50, R56, R78,
R84, R90, R96
12
Resistor
0W
Jumper
0402
Vishay
CRCW04020000Z0ED
Yes
Yes
R51, R52
2
Resistor
49.9 W
1%
0603
Panasonic
ERJ-3EKF49R9V
Yes
Yes
R57, R58, R79,
R82, R85, R88
6
Resistor
4.7 kW
5%
0603
Panasonic
ERJ-3GEYJ472V
Yes
Yes
R94, R93
2
Resistor
2.2 W
5%
0603
Panasonic
ERJ-3GEYJ2R2V
Yes
Yes
R107
1
Resistor
475 W
1%
0402
Panasonic
ERJ-2RKF4750X
Yes
Yes
R108, R109
2
Resistor
82.5 W
1%
0402
Panasonic
ERJ-2RKF82R5X
Yes
Yes
R110, R111,
R114,
R116-R118
6
Resistor
10 kW
5%
0402
Panasonic
ERJ-2GEJ103X
Yes
Yes
R112, R113,
R121-R132
14
Resistor
0W
Jumper
0201
Panasonic
ERJ-1GE0R00C
Yes
Yes
R115
1
Resistor
12 kW
1%
0402
Panasonic
ERJ-2RKF1202X
Yes
Yes
R119
1
Resistor
470 W
5%
0402
Panasonic
ERJ-2GEJ471X
Yes
Yes
R120
1
Resistor
2.2 kW
5%
0402
Panasonic
ERJ-2GEJ222X
Yes
Yes
TP1, TP2, TP3,
TP4, TP5, TP6,
TP13, TP14
8
Test Point
Test Point,
SMT
−
TP_5015_KEY
STONE
Keystone
5015
Yes
Yes
U1
1
−
NB3N1200K
−
64-QFN 9 mm
ON Semiconductor
NB3W1200KMNG
No
Yes
U2
1
−
FT2232H
−
64-QFN
FTDI
FT2232HQ-REEL
No
Yes
U3
1
−
93LC46B
−
8-TSSOP
Microchip
93LC46BT-I/ST
No
Yes
U4
1
−
NCP4586,
3.3 V
−
SOT-23-5
ON Semiconductor
NCP4586DSN33T1G
No
Yes
Y1
1
−
12 MHz
−
2.5 × 3.2 (mm)
SMT
Abracon Corp
ABM8G-12.000MHZ-4Y-T3
Yes
Yes
http://onsemi.com
11
NB3N1200KMNGEVB, NB3W1200LMNGEVB
Table 4. BILL OF MATERIALS FOR THE NB3W1200LMNGEVB EVALUATION BOARD
Substitution
Allowed
Lead
Free
Designator
Qty.
Description
Value
Tolerance
Footprint
Manufacturer
Manufacturer
Part Number
B1
1
PC Board,
Demo Board
−
−
−
−
−
−
Yes
C1-C21, C23,
C26, C31
24
Capacitor
2.0 pF
12%
0402
TDK
C1005C0G1H020C
Yes
Yes
C22, C32
2
Capacitor
10 mF
10%
1206
Vishay
TR3A106K010C2000
Yes
Yes
C24, C25,
C28-C30,
C34-C41,
C43-C45, C47,
C49, C52, C58
20
Capacitor
100 nF
10%
0402
AVX
0402ZD104KAT2A
Yes
Yes
C27, C33
2
Capacitor
10 mF
20%
0603
TDK
C1608X5R1A106M
Yes
Yes
C42, C46, C48
3
Capacitor
4.7 mF
20%
0402
TDK
C1005X5R0J475M
Yes
Yes
C50
1
Capacitor
10 nF
10%
0402
AVX
0402YC103KAT2A
Yes
Yes
C51, C53
2
Capacitor
10 pF
5%
0402
Murata
GRM1555C1H100JZ01D
Yes
Yes
C55-C57, C59
4
Capacitor
1 mF
20%
0402
Murata
GRM155R61A105ME15D
Yes
Yes
D1
1
ESD
Suppressor
4 CHANNEL
PROTECTION
PACDN004
−
SOT-143
ON Semiconductor
PACDN004SR
No
Yes
FB1, FB2
2
EMI Filter
Bead
600 W
−
0603
Murata
BLM18KG601SN1D
Yes
Yes
FB3, FB4
2
EMI Filter
Bead
600 W
25%
0402
Murata
BLM15AG601SN1D
Yes
Yes
J3-J6, J11-J14,
J19-J22, J37,
J38
14
RF Connectors
PC END MT
JCK GLD
.062″
−
−
SMA_END_LA
UNCH_0.062″
Johnson
Components
142-0701-801
Yes
Yes
J43, J44, J47,
J48, J51, J52
6
Header
−
−
Header
Thru-Hole 2 × 3
FCI
67996-206HLF
Yes
Yes
J56, J55
2
Header
Header
3-pin
−
3-pin Header,
thru-hole 0.1
3M
961103-6404-AR
Yes
Yes
J59
1
Banana Jack,
Thru-Hole,
Red
−
−
CON2_571-050
0_DELTRON
Deltron
571-0500
Yes
Yes
J60
1
Banana Jack,
Thru-Hole,
Yellow
−
−
CON2_571-050
0_DELTRON
Deltron
571-0700
Yes
Yes
J61
1
Banana Jack,
Thru-Hole,
Black
−
−
CON2_571-050
0_DELTRON
Deltron
571-0100
Yes
Yes
J62
1
CONN USB
TYPE B R/A
HORIZ SMD
−
−
SMT USB
Conn B
On Shore
Technology
USB-B1SMHSW6
Yes
Yes
J63-J70
8
Header
Header
2-pin
−
2-pin Header,
thru-hole 0.1
3M
961102-6404-AR
Yes
Yes
LED1
1
LED GREEN
CLEAR 0603
SMD
LED, Green
−
0603 LED
Lite-On
LTST-C190KGKT
Yes
Yes
M1-M8, M10,
M12, M14,
M17, M19,
M21, M23-M25
17
CONN
JUMPER
SHORTING
.100″ GOLD
Shunt
−
2.54 × 5.97
(mm)
Sullins
QPC02SXGN-RC
Yes
Yes
M9, M11, M13,
M15
4
STANDOFF
4-40
ALUMINUM
5/8″
Standoff,
4-40
1/4 × 5/8
−
−
Keystone
1808
Yes
Yes
M16, M18,
M20, M22
4
Screw,
4-40 × 0.25,
PHP
−
−
−
Building Fasteners
PMS 440 0025 PH
Yes
Yes
R1, R5, R9,
R13, R17, R21,
R25, R29, R33,
R37, R41, R45,
R49, R55, R61,
R65, R69, R73,
R77, R83, R89,
R95, R99, R103
24
Resistor
33 W
1%
0402
Panasonic
ERJ-2RKF33R0X
Yes
Yes
http://onsemi.com
12
NB3N1200KMNGEVB, NB3W1200LMNGEVB
Table 4. BILL OF MATERIALS FOR THE NB3W1200LMNGEVB EVALUATION BOARD (continued)
Substitution
Allowed
Lead
Free
Designator
Qty.
Description
Value
Tolerance
Footprint
Manufacturer
Manufacturer
Part Number
R3, R7, R11,
R15, R19, R23,
R27, R31, R35,
R39, R43, R47,
R53, R59, R63,
R67, R71, R75,
R80, R86, R91,
R97, R101,
R105
0
DNI
−
−
0402
−
−
−
Yes
R10, R14, R18,
R22, R42, R46,
R50, R56, R78,
R84, R90, R96
12
Resistor
0W
Jumper
0402
Vishay
CRCW04020000Z0ED
Yes
Yes
R51, R52
2
Resistor
49.9 W
1%
0603
Panasonic
ERJ-3EKF49R9V
Yes
Yes
R57, R58, R79,
R82, R85, R88
6
Resistor
4.7 kW
5%
0603
Panasonic
ERJ-3GEYJ472V
Yes
Yes
R93, R94
2
Resistor
2.2 W
5%
0603
Panasonic
ERJ-3GEYJ2R2V
Yes
Yes
R107
1
Resistor
475 W
1%
0402
Panasonic
ERJ-2RKF4750X
Yes
Yes
R108, R109
0
DNI
−
−
0402
−
−
−
Yes
R110, R111,
R114,
R116-R118
6
Resistor
10 kW
5%
0402
Panasonic
ERJ-2GEJ103X
Yes
Yes
R112, R113,
R121-R132
14
Resistor
0W
Jumper
0201
Panasonic
ERJ-1GE0R00C
Yes
Yes
R115
1
Resistor
12 kW
1%
0402
Panasonic
ERJ-2RKF1202X
Yes
Yes
R119
1
Resistor
470 W
5%
0402
Panasonic
ERJ-2GEJ471X
Yes
Yes
R120
1
Resistor
2.2 kW
5%
0402
Panasonic
ERJ-2GEJ222X
Yes
Yes
TP1-TP6,
TP13, TP14
8
Test Point
Test Point,
SMT
−
TP_5015_
KEYSTONE
Keystone
5015
Yes
Yes
U1
1
−
NB3W1200L
−
64-QFN 9 mm
ON Semiconductor
NB3W1200LMNG
No
Yes
U2
1
−
FT2232H
−
64-QFN
FTDI
FT2232HQ-REEL
No
Yes
U3
1
−
93LC46B
−
8-TSSOP
Microchip
93LC46BT-I/ST
No
Yes
U4
1
−
NCP4586,
3.3 V
−
SOT-23-5
ON Semiconductor
NCP4586DSN33T1G
No
Yes
Y1
1
−
12 MHz
−
2.5 × 3.2 (mm)
SMT
Abracon Corp
ABM8G-12.000MHZ-4Y-T3
Yes
Yes
http://onsemi.com
13
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to part 15 of FCC rules, which are designed to provide reasonable protection against radio frequency interference. Operation of this equipment may cause interference with radio
communications, in which case the user shall be responsible, at its expense, to take whatever measures may be required to correct this interference.
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www.onsemi.com.
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LITERATURE FULFILLMENT:
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