DIODES EVB1 45W Dual Port PD3.0 Adapter User Guide

June 10, 2024
DIODES

DIODES EVB1 45W Dual Port PD3.0 Adapter

DIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-product

Summary

Chapter 1 provides a general description of the product and lists its key features.

General Description

The 45W Dual Port PD3.0 Adapter EVB1 is a product that provides charging capabilities for electronic devices. It is designed to be cost-effective and has a high-voltage startup with low standby power.

Key Features

The key features of the 45W Dual Port PD3.0 Adapter EVB1 are:

  • CCM+Quasi-Resonant operation for NMOSFET switch Operation and
    Efficiency Improvement Approaches

  • Cost-Effective Implementation for HPD Chargers

  • High-Voltage Startup

  • Low standby power

Testing the Evaluation Board

Chapter 5 provides instructions on how to test the evaluation board.

Input & Output Characteristics

This section provides information on the input standby power and multiple output average efficiency at different loading.

  • Input Standby Power: This tests the amount of power used by the adapter when it is not in use.
  • Multiple Output Average Efficiency at Different Loading: This tests the efficiency of the adapter at different loads.

Key Performance Waveforms

This section provides information on the performance waveforms of the product.

  • 45W PD3.0 System Start-up Time: This tests the time it takes for the adapter to start up.

EMI (Conduction) Testing

This section provides information on the EMI (conduction) testing of the product.

Product Usage Instructions

To use the 45W Dual Port PD3.0 Adapter EVB1, follow these instructions:

  1. Connect the adapter to a power source.
  2. Connect your electronic device to the adapter using a compatible cable.
  3. The adapter will start charging your device.
  4. When your device is fully charged, disconnect it from the adapter and unplug the adapter from the power source.

Note: Refer to the user manual for further instructions on testing and troubleshooting the product.

Summary

General Description

  • The 45W 67CC Dual USB Type-C® Ports PD3.0 PPS Evaluation Board (EVB) is composed of four main controllers, DIODES AP3304A, DIODES APR34910, DIODESTM AP43771V and Canyon Semiconductor’s CY6572. The AP3304A is a peak-current control, multi-mode CCM+QR PWM controller, which is optimized for high performance, low standby power and is a cost-effective offline flyback converter. The APR34910 is a secondary-side combo IC combining an N-Channel MOSFET and a driver circuit designed for synchronous rectification (SR).
  • The AP43771V, a PD3.0 PPS protocol controller, automatically manages the PD3.0 PPS attachment process for the attached USB Type-C-equipped Device Under Charged (DUC), as well as regulates the feedback information of the charger to fulfill voltage and current requirements from DUC. The CY6572 is a synchronous buck controller. By communication between two separate channel AP43771V, two ports can realize plug in/out detection, dynamic Vbus adjustment to get best system efficiency, automatic power sharing once two ports both insert etc. By adopting the cost-effectiveness of NMOS FETs, the 45W 67CC EVB exemplifies HPD charger design with system BOM optimization to meet the market trend.
Key Features

System Key Features

  • CCM+Quasi-Resonant operation for NMOSFET switch Operation and Efficiency Improvement Approaches
  • Cost-Effective Implementation for HPD Chargers
  • High-Voltage Startup low standby power (<20mW)
  • Meets DOE VI and COC Tier 2 Efficiency Requirement
  • USB Type-C® Port – Supports the Maximum Output of 45W PD3.0 PPS (3.3V to 21V@20mV/step, 50mA/step)
  • SSR Topology Implementation with an Opto-coupler for Accurate Step Voltage / Current Control
  • Low overall system BOM cost

AP3304A Key Features

  • Operate CCM at low line and QR at high line
  • QR Flyback Topology with Valley-on
  • Wide VCC range(60V) to Guarantee Wide Range Output Voltage
  • Soft Start During Startup Process
  • Frequency Fold Back for High Average Efficiency
  • Secondary Winding Short Protection with FOCP
  • Frequency Dithering for Reducing EMI
  • Useful Pin fault protection:
  • SENSE Pin Floating Protection/
  • FB/Opto-Coupler Open/Short Protection
  • Comprehensive System Protection Feature: VOVP/OLP/BNO/SOVP/SUVP
  • Mini Size Package of SOT26 (Type A1)

APR34910 Key Features

  • SR Works with CCM / DCM / QR operation modes
  • Integrate 100V, 9mOhm SR MOS
  • Eliminate Resonant Ringing Interference
  • Fewest External Components used
  • SO-8 package

AP43771V Key Feature

  • Supports USB PD Rev 3.0 V1.2
  • USB-IF PD3.0/PPS Certified TID 4312
  • Qualcomm® QC5 Certified: QC20201127203
  • MTP for System Configuration
  • OTP for Main Firmware
  • Operating Voltage Range: 3.3V to 21V
  • Built-In Regulator for CV and CC Control
  • Programmable OVP/UVP/OCP/OTP
  • Support Power Saving Mode
  • External N -MOSFET Control for VBUS Power Delivery
  • Support e-Marker Cable Detection
  • QFN-14 and QFN-24

CY6572 Key Feature

  • Wide Input Voltage from 4.5V to 40V
  • Adjustable Switching Frequency to get high Efficiency
  • High Duty-Cycle Up to 99%
  • CC/CV Control
  • Auto Recovery after Faults
  • System Protection Feature
  • Thermal Enhanced TSSOP-14 Package

Applications

  • Quick Charger with full power range of PD3.0 PPS
Main Power Specifications
Parameter Value
Input Voltage 90VAC to 264VAC
Input standby power < 200mW
Master port/Slave port (Vo / Io) PDO: 5V/3A, 9V/3A, 15V/3A, 20V/2.25A,

APDO: 3.3 to 11V/4.05A; 3.3V to

16V/3A: 3.3V to 21V/2.25A

Voltage Step| PPS 20mV step voltage, 3.3V-21V
Efficiency| Comply with DoE 6
Total Output Power| 45W
Protections| OCP, OVP, UVP, OLP, OTP, SCP
Dimensions| PCB: 44 41.5 21 mm3,

1.732” 1.634” 0.827” inch3

Case: 49 49 28 mm3, 67CC, 4.1 CI

Power Density Index| 0.67 W/CC; 10.98 W/CI

Evaluation Board Pictures

DIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-
fig-1

Power Supply Specification

Specification and Test Results

Parameter Value Test Summary
Input Voltage / Frequency 90VAC to 264VAC / 50Hz or 60Hz Test Condition
Input Current <2ARMS PASS
Standby Power < 300mW, load disconnected PASS, 191mW@230VAC/50Hz
C#1: 20V/2.25A + C#2: No load Average Efficiency **** DoE VI Efficiency
>87.4% PASS, 91.1%@115VAC/60Hz 91.46%@230VAC/50Hz
C#1: 20V/2.25A + C#2: No load (10% Load) PASS, 84.78%@115VAC/60Hz

83.44%@230VAC/50Hz
C#1:15V/3A + C#2: No Load Average Efficiency| **** DoE VI Efficiency

87.3%| PASS, 90.95%@115VAC/60Hz 90.92@230VAC/50Hz
C#1:15V/3A + C#2: No Load (10%

Load)

| | PASS, 88.15%@115VAC/60Hz 85.68@230VAC/50Hz
C#1:15V/1.67A + C#2: 9V/2.2A

Average Efficiency

| ** DoE VI Efficiency >87.4%| PASS,** 88.74@115VAC/60Hz 88.70@230VAC/50Hz
C#1:15V/1.67A + C#2: 9V/2.2A

Efficiency (10% Load)

| | PASS, 82.37%@115VAC/60Hz

80.1@230VAC/50Hz

Output Voltage Regulation Tolerance| +/- 5%| PASS
16V PPS| 3.3V – 16V +/- 5%, 0~3A +/-150mA| PASS
21V PPS| 3.3V – 21V +/- 5%, 0~2.25A +/-150mA| PASS
Conducted EMI| >6dB Margin; according to EN55032 Class B| PASS

Compliance

Parameter| Test conditions| Transition time| standard| Test Summary
---|---|---|---|---




Output Voltage Transition time

| 5V to 9V| 57.2ms| ****



<275ms

| Pass
9V to 15V| 96.7ms| Pass
15V to 20V| 74.4ms| Pass
20V to 15V| 70.6ms| Pass
15V to 9V| 84.9ms| Pass
9V to 5V| 57.7ms| Pass
20V to 5V| 108.4ms| Pass
 |  | Pass
Output Connector| USB Type-C *2-
Temperature| Rise time @ 90Vac , Full Load; Fall time @ 264Vac , No Load;
Dimensions (W /D/ H)| L49mm x49mm x 28mm (with foldable AC pin)

Schematic

Board SchematicDIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-
fig-2

Bill of Material (BOM)

Mainboard BOM

Description Sign Footprint Quantity
2.2UF/50V C1, C2 0805C 2
1nF/500V C3 0805C 1
1NF/16V C4 0603C 1
100pF 16V C5 0603C 1
2.2UF/25V C6 0805C 1
15pF 1KV C7 1206C 1
NC C8 0603C 1
3.3uF/16V C9 0603C 1
1nF/250V C20 0805C 1
3.3nF/25V C22 0603C 1
1U/50V C23 0805C 1
10NF/50V C24 0603C 1
1M R1, R1A 1206R 2
2.2R R2 0805R 1
180K 1% R3 0603R 1
15K 1% R4 0603R 1
30R R5 1206R 1
300K R6 1206R 1
5.1R R7 0603R 1
47R R8 0603R 1
1k R9 0603R 1
20K R10 0603R 1
10R R20 1206R 1
5.1K R22 0603R 1
4.7K R23 0603R 1
300R R24 0603R 1
91K R25 0402R 1
51K R26 0402R 1
47K R27 0402R 1
100K R28, R30 0402R 2
22K R29 0402R 1
0.75R RS1 1206R 1
0.68R RS2, RS3 1206R 2
10mH T16x12x8 CM1 LF10*5.3 1
0.22uF/275V CX1 CAP_X04A(10_6_7.5) 1
1nF/400V CY1 CY-SMD 1
FR107 D3 SOD-123 1
FR207 D4 SMA 1
1N4148 D5 SOD-323-T 1
4A 800V DB1 BRID 1
15UF/400V EC1 CAP-DIP(16-8-3.5A) 1
--- --- --- ---
22UF/400V EC2, EC3 CAP-AI (10_5) 2
560UF/25V EC6 EC6.0 1
T3.15A/250V F1 FUSE4*8 1
4.7UH L1 1206R 1
10uH L2 INDUCTOR SMD 1
WMO26N65C4 Q1 TO-252 1
DMZ0615E Q2 SOT-23 1
2N7002 Q3, Q4 SOT-23 2
PQ2016 T1 PQ20 1
AP3304A U1 SOT23-6 1
OR1009 U2 PC-SMD 1
APR34910 U3 SO-8 1
TL431 U4 SOT-23-431 1

Master/Slave daughter board BOM

Comment Designator Footprint Quantity
220pF/50V C16, C17, C18, C19 C-0402 4
100nF/50V C24 0603C 1
10 nF/25V C25,C49 0402R 2
1nF/50V C26 C-0603 1
10nF/16V C27 0402R 1
100nF/16V C28 C-0402 1
4.7uF/10V C29, C47 C-0603 2
5.6nF/25V C30 0402R 1
680pF/25V C58 0402R 1
470R R34 0402R 1
2.2uF/50V C45 0805C 1
100nF/16V C46 0402R 1
0.1uF/16V C48 0402R 1
0.1uF/50V C56 C-0603 1
47n C31 0402R 1
1N4148WS D6 SOD-323 1
220UF/25V EC11 EC5.5MM – 1 1
TYPE-C J1 USBC2 1
22UH/5A L3 L5 1
AGM306A Q11, Q12, Q13 DFN3*3 3
200K R26 0402R 1
10mR R27 1206R 1
4.7K R28, R29 0402R 2
0R R30 0402R 1
15K R31, R35 0402R 2
4.7R R32 0603R 1
NC R33 0402R 1
3K R36 0402R 1
10R R52 0402R 1
13K R53 0402R 1
1.5K R54 0402R 1
100K R60 0402R 1
--- --- --- ---
5.1R R70 0402R 1
AP43771V U1 QFN_24_CY2311 1
CY6572 U5 TSSOP-15 1

Transformer DesignDIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-
fig-3

Item Test Condition Rating
Primary Inductance Pin 1-2, all other windings open, measured at 20kHz / 1V

420uH+/- 5%
Note| Bobbin/ Core:

PQ2016 (Ae=62mm²)

|

Schematics Description

AC Input Circuit & Differential Filter

The Fuse F1 protects against over-current conditions which occur when some main components fails. The CM1 are common mode chocks for the common mode noise suppression. The DB is a bridge rectifier which converts alternating current and voltage into direct current and voltage. The EC1, L2, EC2, EC3 are composed of the Pi filter for filtering the differential switching noise back to AC source.

AP3304A PWM Controller

  • The AP3304A is a peak-current control, multi-mode CCM+QR PWM controller which is optimized for high performance, and cost effective offline flyback converters. The AP3304A provides Mini Size Package of SOT23-6 and achieve high-power density charger applications. At no load or light load, the AP3304A enters the burst mode to minimize standby power consumption.

APR34910 Synchronous Rectification (SR) Switcher

  • As a high-performance solution, The APR34910 is a secondary-side combo IC combining an N-channel MOSFET and a driver circuit designed for synchronous rectification (SR). The APR34910 effectively reduces the secondary side rectifier power dissipation which works in
    QR/DCM/CCM operation.

AP43771V PD 3.0 Decoder Interface to CY6572 Sync Buck and Power Devices

Few important pins provide critical protocol decoding and regulation functions in AP43771V:

  1. CC1 & CC2 (Pin 11, 10): CC1 & CC2 (Configuration Channel 1 & 2) are defined by USB Type-C spec to provide the channel communication link between power source and sink device.
  2. Constant Voltage (CV): The CV is implemented by sensing VFB (pin 8) and comparing with internal reference voltage to generate a CV compensation signal on the OCDRV pin (pin 5). The output voltage is controlled by firmware through CC1/CC2 channel communication with the sink device.
  3. Constant Current (CC): The CC is implemented by sensing the current sense resistor (RCS, 10mΩ, 1%, Low TCR) and compared with internal programmable reference voltage. The output current is controlled by firmware through CC1/CC2 channel communication with the sink device.
  4. OCDRV (Pin5) to CY6572 COMP (Pin 4): It is the key interface link from CC/CV loop on AP43771V to Sync Buck COMP Pin (COMP) to realize Output CC/CV control. OCDRV is connected to CY6572 Pin 4(COMP) for feedback desired information based on all sensed Vbus, Current sense and CC1 & CC2 signals for getting desired Vbus voltage and current.
  5. PWR_EN (Pin2) to N-MOSFET Gate: The pin is used to turn on/off N-MOSFET (Q9) to enable/disable voltage output to the Vbus.

The interface between Master and Slave Board

Master and Slave boards build interface via I2C communication. AP43771V SDA & SDL (Pin 16, 17) are defined by I2C spec to provide the channel communication link between Master and Slave, such as plug in/out, power sharing info. etc.

The Evaluation Board (EVB) Connections

EVB PCB Layout

Main BoardDIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-
fig-4

Master/Slave Daughter BoardDIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-
fig-5

Quick Start Guide Before Connection

  1. Before starting the 45W EVB test, the end user needs to prepare the following tool, software and manuals. For details, please consult USBCEE sales through the below link for further information.
  2. Prepare a certified three-foot Type-C cable and a Standard-A to Micro-B Cable.
  3. Connect the AC inputs: L & N wires of EVB to AC power supply output “L and N “wires.
  4. Ensure that the AC source is switched OFF or disconnected before the connection steps.
  5. A Type-C cable for the connection between EVBs and Type-C receptacles of the test kit.
  6. The output of the Type-C port & USB A-port is connected to E-load + & – terminals by cables.DIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-fig-7

Connection with E-Load

Testing the Evaluation Board

Input & Output Characteristics Input Standby Power

Vin(Vac) F(Hz) Pin(mW)
115 60 147
230 50 191

Average Efficiency at Different Loading

Smart Power Sharing Strategy:

  **** C1 **** C2
**** Single Port Plug in **** 45W **** X
**** X **** 45W
**** Dual Port Plug in 15W

(First Plug in, Request 5V below Voltage)

| 30W

(Second Plug in)

30W

(First Plug in, Request 15V,20V Voltage)

| 15W

(Second Plug in, Request 5V below Voltage)

18W

(First Plug in, Request 9V, 9V PPS)

| 27W

(Second Plug in, Request 15V, 20V, 15VPPS,

20VPPS)

27W

(First Plug in, Request 15V, 20V, 15VPPS,

20VPPS)

| **** 18W

(Second Plug in, Request 9V, 9VPPS)

 |  |
 |  |
 |  |
Source cap|  |
45W (Power limit)| 5V/3A, 9V/3A, 15V/3A, 20V/2.25A, 3.3-11V/4.05A, 3.3-16V/3A, 3.3-21V/2.25A
30W (Power limit)| 5V/3A, 9V/3A, 15V/2A, 20V/1.5A, 3.3-11V/3A|
27W (Power limit)| 5V/3A, 9V/3A, 15V/1.8A, 20V/1.35A, 3.3-11V/3A
18W (Power limit)| 5V/3A, 9V/2A, 15V/1.2A, 20V/0.9A, 3.3-11V/2A
15W (Power limit)| 5V/3A, 9V/1.67A, 15V/1A, 20V/0.75A, 3.3-11V/1.36A

Single Port Output: C#1 or C#2 : 20V / 2.25A

Vin| ****

Load %

| Pin1| Vout| About| Pout| Effi.| Avg. Effi.| DOE 6

required

|
---|---|---|---|---|---|---|---|---|---
(Vrms)| (W)| (V)| (A)| (W)| (%)| (%)
90 Vac| 100%| 50| 20.361| 2.2| 44.7942| 89.59%| 89.63%| 87.60%




115 Vac

| 100%| 49.172| 20.361| 2.2| 44.7942| 91.10%| ****


90.37%

| ****


87.60%

75%| 36.857| 20.312| 1.65| 33.5148| 90.93%
50%| 24.65| 20.265| 1.1| 22.2915| 90.43%
25%| 12.496| 20.222| 0.55| 11.1221| 89.01%
10%| 5.241| 20.197| 0.22| 4.44334| 84.78%|  |



230 Vac

| 100%| 48.99| 20.367| 2.2| 44.8074| 91.46%| ****


90.29%

| ****


87.60%

75%| 36.843| 20.323| 1.65| 33.53295| 91.02%
50%| 24.7| 20.275| 1.1| 22.3025| 90.29%
25%| 12.584| 20.227| 0.55| 11.12485| 88.40%
 | 10%| 5.326| 20.2| 0.22| 4.444| 83.44%|  |
---|---|---|---|---|---|---|---|---
264 Vac| 100%| 49.09| 20.362| 2.2| 44.7964| 91.25%| 90.13%| 87.60%

C#1 or C#2 : 15V / 3A

Vin| ****

Load %

| Pin1| Vout| Iout| Pout| Effi.| Avg. Effi.| DOE 6

required

---|---|---|---|---|---|---|---|---
(Vrms)| (W)| (V)| (A)| (W)| (%)| (%)
90 Vac| 100%| 51.74| 15.377| 3| 46.131| 89.16%| 90.19%| 87.60%




115 Vac

| 100%| 50.77| 15.367| 3| 46.101| 90.80%| ****


90.95%

| ****


87.60%

75%| 37.68| 15.302| 2.25| 34.4295| 91.37%
50%| 25.049| 15.237| 1.5| 22.8555| 91.24%
25%| 12.593| 15.177| 0.75| 11.38275| 90.39%
10%| 5.154| 15.145| 0.3| 4.5435| 88.15%|  |




230 Vac

| 100%| 50.347| 15.37| 3| 46.11| 91.58%| ****


90.92%

| ****


87.60%

75%| 37.68| 15.307| 2.25| 34.44075| 91.40%
50%| 25.124| 15.246| 1.5| 22.869| 91.02%
25%| 12.701| 15.182| 0.75| 11.3865| 89.65%
10%| 5.301| 15.14| 0.3| 4.542| 85.68%|  |
264 Vac| 100%| 50.5| 15.364| 3| 46.092| 91.27%| 90.48%| 87.60%

Dual Port-C Output: 110Vac

 | Load %| 100%| 75%| 50%| 25%|
---|---|---|---|---|---|---















AC110V 57HZ

| ITEM| Voltage/Current: 5V3A+5V3A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| Av eff
CURRENT| 3.00A| 3.00A| 2.25A| 2.25A| 1.50A| 1.50A| 0.75A| 0.75A| ****


87.67%

VOLTAGE| 5.30V| 5.32V| 5.23V| 5.24V| 5.16V| 5.16V| 5.08V| 5.09V
INPUT POWER| 36.87W| 26.88W| 17.47W| 8.66W
EFFICIENCE| 86.41%| 87.64%| 88.57%| 88.06%
ITEM| Voltage/Current: 9V2A+9V3A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| Av eff
CURRENT| 2.00A| 3.00A| 1.50A| 2.25A| 1.00A| 1.50A| 0.50A| 0.75A| ****


89.01%

VOLTAGE| 9.21V| 9.31V| 9.16V| 9.23V| 9.11V| 9.16V| 9.06V| 9.08V
INPUT POWER| 52.56W| 38.72W| 25.40W| 12.77W
EFFICIENCE| 88.17%| 89.12%| 89.93%| 88.80%
ITEM| Voltage/Current: 15V1.8A+9V2A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| Av eff
CURRENT| 1.80A| 2.00A| 1.35A| 1.50A| 0.90A| 1.00A| 0.45A| 0.50A| ****


89.05%

VOLTAGE| 15.23V| 9.21V| 15.18V| 9.16V| 15.14V| 9.10V| 15.10V| 9.05V
INPUT POWER| 51.35W| 38.10W| 25.41W| 12.91W
EFFICIENCE| 89.26%| 89.83%| 89.44%| 87.68%
ITEM| Voltage/Current: 15V2A+5V3A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| Av eff
CURRENT| 2.00A| 3.00A| 1.500A| 2.250A| 1.000A| 1.500A| 0.500A| 0.750A| ****

88.74%

VOLTAGE| 15.26V| 5.32V| 15.20V| 5.24V| 15.15V| 5.16V| 15.10V| 5.09V
INPUT POWER| 52.38W| 38.56W| 25.73W| 12.98W
 | EFFICIENCY| 88.74%| 89.70%| 88.96%| 87.58%|
---|---|---|---|---|---|---
ITEM| Voltage/Current: PPS 3.3V3.3A+3.3V3.3A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| Av eff
CURRENT| 3.30A| 3.30A| 2.475A| 2.475A| 1.650A| 1.650A| 0.825A| 0.825A| ****


85.36%

VOLTAGE| 3.290V| 3.300V| 3.290V| 3.300V| 3.297V| 3.306V| 3.301V| 3.307V
INPUT POWER| 25.79W| 19.41W| 12.69W| 6.25W
EFFICIENCE| 84.32%| 84.03%| 85.85%| 87.23%

Dual Port-C Output: 230Vac


















AC230V 50HZ

| Load %| 100%| 75%| 50%| 25%|
---|---|---|---|---|---|---
ITEM| Voltage/Current: 5V3A+5V3A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| AV EFF
CURRENT| 3.00A| 3.00A| 2.25A| 2.25A| 1.50A| 1.50A| 0.75A| 0.75A| ****


87.45%

VOLTAGE| 5.31V| 5.32V| 5.23V| 5.24V| 5.16V| 5.16V| 5.08V| 5.08V
INPUT POWER| 36.85W| 26.71W| 17.57W| 8.76W
EFFICIENCE| 86.51%| 88.20%| 88.07%| 87.02%
ITEM| Voltage/Current: 9V2A+9V3A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| AV EFF
CURRENT| 2.00A| 3.00A| 1.50A| 2.25A| 1.00A| 1.50A| 0.50A| 0.75A| ****


89.23%

VOLTAGE| 9.21V| 9.31V| 9.16V| 9.23V| 9.11V| 9.15V| 9.06V| 9.07V
INPUT POWER| 51.88W| 38.35W| 25.54W| 12.85W
EFFICIENCE| 89.34%| 89.98%| 89.41%| 88.19%
ITEM| Voltage/Current: 15V1.8A+9V2A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| AV EFF
CURRENT| 1.80A| 2.00A| 1.35A| 1.50A| 0.90A| 1.00A| 0.45A| 0.50A| ****


89.30%

VOLTAGE| 15.23V| 9.21V| 15.18V| 9.16V| 15.14V| 9.10V| 15.10V| 9.05V
INPUT POWER| 50.67W| 38.00W| 25.41W| 12.98W
EFFICIENCE| 90.46%| 90.09%| 89.44%| 87.21%
ITEM| Voltage/Current: 15V2A+5V3A|
PORT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| AV EFF
CURRENT| 2.00A| 3.00A| 1.500A| 2.250A| 1.000A| 1.500A| 0.500A| 0.750A| ****


89.17%

VOLTAGE| 15.25V| 5.32V| 15.20V| 5.25V| 15.15V| 5.16V| 15.10V| 5.08V
INPUT POWER| 51.56W| 38.41W| 25.74W| 12.98W
ITEM| 90.11%| 90.11%| 88.93%| 87.52%
PORT| Voltage/Current: PPS 3.3V3.3A+3.3V3.3A|
CURRENT| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| USBC1| USBC2| AV EFF
VOLTAGE| 3.30A| 3.30A| 2.475A| 2.475A| 1.650A| 1.650A| 0.825A| 0.825A| ****


85.74%

INPUT POWER| 3.291V| 3.300V| 3.297V| 3.306V| 3.297V| 3.308V| 3.302V| 3.309V
EFFICIENCY| 25.73W| 18.95W| 12.59W| 6.37W
ITEM| 84.53%| 86.24%| 86.56%| 85.62%

Key Performance Waveforms

45W PD3.0 System Start-up TimeDIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-
fig-9

Q1 / Q2 MOSFET Voltage Stress at Full Load @264Vac

Primary side MOSFET: Q1 and Secondary side SR MOSFET- Q2DIODES-EVB1-45W-
Dual-Port-PD3-0-Adapter-fig-10

Component| Vout| Vds| Vds_Max_Spec| Ratio of voltage stress
---|---|---|---|---
Q1| 20V| 615V| 650V| 94.6%
Q2| 95.6V| 100V| 95.6%

System Output Ripple & Noise with the Cable

Connect 47uF AL Cap and 104MLCC to the cable output unit in parallelDIODES-
EVB1-45W-Dual-Port-PD3-0-Adapter-fig-11DIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-fig-12

Dynamic load —-0% Load~100% Load, T=20mS, Rate=15mA/uS (PCB End)DIODES-
EVB1-45W-Dual-Port-PD3-0-Adapter-fig-13

  Vo_ Undershoot(V) Vo_ Overshoot(V)   Vo_Undershoot(V) Vo_Overshoot(V)
Vin=90Vac@5V 4.54 5.42 Vin=90Vac@9V 8.32 9.59
Vin=264Vac@5V 4.56 5.38 Vin=264Vac@9V 8.29 9.67

DIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-fig-14

 | Vo_ Undershoot(V)| Vo_ Overshoot(V)|  | Vo_Undershoot(V)| Vo_Overshoot(V)
---|---|---|---|---|---
Vin=90Vac@15V| 13.85| 15.79| Vin=90Vac@20V| 19.95| 20.67
Vin=264Vac@15V| 13.72| 15.95| Vin=264Vac@20V| 19.91| 20.68

Output Voltage Transition Time from Low to HighDIODES-EVB1-45W-Dual-Port-
PD3-0-Adapter-fig-15

Output Voltage Transition Time from High to LowDIODES-EVB1-45W-Dual-Port-
PD3-0-Adapter-fig-16

Thermal Testing

Output Condition : 1C:11V/1.64A 2C : 9V3A

Main Voltage

| Temperature (°C)
---|---
Ta| Q1| T1-core| T1-wire| Q2| L3| DB1
90Vac/60Hz| 25| 101| 82.4| 97.6| 111.5| 89.4| 104.8

Test Condition: Vin=90Vac @ 1C: 11V/1.64A 2C : 9V3A Full load Open Frame DIODES-EVB1-45W-Dual-Port-PD3-0-Adapter-fig-17

  • DB1: Bridge Rectifier
  • Q1: Primary Side High Voltage GaN FET T1: Transformer
  • Q2 : Secondary Side Sync-Rectifier
  • L3 : BUCK inductor
  • Note: Component temperature can be further optimized with various system design and thermal management approaches by manufacturers.

EMI (Conduction) Testing 115Vac testing results

Output Condition : C1:15V/2A C2 :5V/3ADIODES-EVB1-45W-Dual-Port-PD3-0
-Adapter-fig-18

230Vac testing results

Output Condition : C1:15V/2A C2 :5V/3ADIODES-EVB1-45W-Dual-Port-PD3-0
-Adapter-fig-19

IMPORTANT NOTICE

  1. DIODES INCORPORATED (Diodes) AND ITS SUBSIDIARIES MAKE NO WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, WITH REGARDS TO ANY INFORMATION CONTAINED IN THIS DOCUMENT, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE OR NON-INFRINGEMENT OF THIRD PARTY INTELLECTUAL PROPERTY RIGHTS (AND THEIR EQUIVALENTS UNDER THE LAWS OF ANY JURISDICTION).
  2. The Information contained herein is for informational purpose only and is provided only to illustrate the operation of Diodes’ products described herein and application examples. Diodes does not assume any liability arising out of the application or use of this document or any product described herein. This document is intended for skilled and technically trained engineering customers and users who design with Diodes’ products. Diodes’ products may be used to facilitate safety-related applications; however, in all instances customers and users are responsible for (a) selecting the appropriate Diodes products for their applications, (b) evaluating the suitability of Diodes’ products for their intended applications, (c) ensuring their applications, which incorporate Diodes’ products, comply the applicable legal and r egulatory requirements as well as safety and functional-safety related standards, and (d) ensuring they design with appropriate safeguards (including testing, validation, quality control techniques, redundancy, malfunction prevention, and appropriate treatment for aging degradation) to minimize the risks associated with their applications.
  3. Diodes assumes no liability for any application-related information, support, assistance or feedback that may be provided by Diodes from time to time. Any customer or user of this document or products described herein will assume all risks and liabilities associated with such use, and will hold Diodes and all companies whose products are represented herein or on Diodes’ websites, harmless against all damages and liabilities.
  4. Products described herein may be covered by one or more United States, international or foreign patents and pending patent applications. Product names and markings noted herein may also be covered by one or more United States, international or foreign trademarks and trademark applications. Diodes does not convey any license under any of its intellectual property rights or the rights of any third parties (including third parties whose products and services may be described in this document or on Diodes’ website) under this document.
  5. Diodes’ products are provided subject to Diodes’ Standard Terms and Conditions of Sale (2) or other applicable terms. This document does not alter or expand the applicable warranties provided by Diodes. Diodes does not warrant or accept any liability whatso ever in respect of any products purchased through unauthorized sales channel.
  6. Diodes’ products and technology may not be used for or incorporated into any products or systems whose manufacture, use or sale is prohibited under any applicable laws and regulations. Should customers or users use Diodes’ products in contravention of any applicable laws or regulations, or for any unintended or unauthorized application, customers and users will (a) be solely responsible for any damages, losses or penalties arising in connection therewith or as a result thereof, and (b) indemnify and hold Diodes and its representatives a nd agents harmless against any and all claims, damages, expenses, and attorney fees arising out of, directly or indirectly, any claim relating to any noncompliance with the applicable laws and regulations, as well as any unintended or unauthorized application.
  7. While efforts have been made to ensure the information contained in this document is accurate, complete and current, it may contain technical inaccuracies, omissions and typographical errors. Diodes does not warrant that information contained in this document is error-free and Diodes is under no obligation to update or otherwise correct this information. Notwithstanding the foregoing, Diodes rese rves the right to make modifications, enhancements, improvements, corrections or other changes without further notice to this document and any product described herein. This document is written in English but may be translated into multiple languages for reference. Only the English version of this document is the final and determinative format released by Diodes.
  8. Any unauthorized copying, modification, distribution, transmission, display or other use of this document (or any portion thereof) is prohibited. Diodes assume no responsibility for any losses incurred by the customers or users or any third parties arising from any such unauthorized use.
  9. This Notice may be periodically updated with the most recent version available at https://www.diodes.com/about/company/terms-and-conditions/important-notice
  • The Diodes logo is a registered trademark of Diodes Incorporated in the United States and other countries.
  • All other trademarks are the property of their respective owners.
  • © 2023 Diodes Incorporated. All Rights Reserved.
  • www.diodes.com
  • 45W Dual Port PD3.0 Adapter EVB1 Revision 1.0
  • www.diodes.com
  • March 2023
  • © 2023 Copyright Diodes Incorporated. All Rights Reserved

Documents / Resources

| DIODES EVB1 45W Dual Port PD3.0 Adapter [pdf] User Guide
EVB1 45W Dual Port PD3.0 Adapter, EVB1, 45W Dual Port PD3.0 Adapter, Port PD3.0 Adapter, PD3.0 Adapter, Adapter
---|---

References

Read User Manual Online (PDF format)

Read User Manual Online (PDF format)  >>

Download This Manual (PDF format)

Download this manual  >>

Related Manuals