S6SAE100A00VA1001 Energy Harvesting PMIC S6AE10xA Evaluation Board Operation Guide Doc No. 002-08728 Rev.*A Cypress Semiconductor 198 Champion Court San Jose, CA 95134-1709 Phone (USA): 800.858.1810 Phone (Intnl): 408.943.2600 http://www.cypress.com Copyrights Copyrights Copyright © 2010-2016 Cypress Semiconductor Corporation. All rights reserved. TM TM TM TM Spansion®, the Spansion logo, MirrorBit®, MirrorBit® Eclipse , ORNAND , Easy DesignSim , Traveo and combinations thereof, are trademarks and registered trademarks of Cypress Semiconductor Corp. ARM and Cortex are the registered trademarks of ARM Limited in the EU and other countries. 2 Purchase of I C components from Cypress or one of its sublicensed Associated Companies conveys a license under the 2 2 2 Philips I C Patent Rights to use these components in an I C system, provided that the system conforms to the I C Standard Specification as defined by Philips. As from October 1st, 2006 Philips Semiconductors has a new trade name - NXP Semiconductors. The information in this document is subject to change without notice and should not be construed as a commitment by Cypress. While reasonable precautions have been taken, Cypress assumes no responsibility for any errors that may appear in this document. No part of this document may be copied or reproduced in any form or by any means without the prior written consent of Cypress. Disclaimer CYPRESS MAKES NO WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, WITH REGARD TO THIS MATERIAL, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE. Cypress reserves the right to make changes without further notice to the materials described herein. Cypress does not assume any liability arising out of the application or use of any product or circuit described herein. Cypress does not authorize its products for use as critical components in life-support systems where a malfunction or failure may reasonably be expected to result in significant injury to the user. The inclusion of Cypress’ product in a life-support systems application implies that the manufacturer assumes all risk of such use and in doing so indemnifies Cypress against all charges. Flash Code Protection Cypress products meet the specifications contained in their particular Cypress PSoC Data Sheets. Cypress believes that its family of PSoC products is one of the most secure families of its kind on the market today, regardless of how they are used. There may be methods, unknown to Cypress, that can breach the code protection features. Any of these methods, to our knowledge, would be dishonest and possibly illegal. Neither Cypress nor any other semiconductor manufacturer can guarantee the security of their code. Code protection does not mean that we are guaranteeing the product as “unbreakable.” Cypress is willing to work with the customer who is concerned about the integrity of their code. Code protection is constantly evolving. We at Cypress are committed to continuously improving the code protection features of our products. S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 2 Preface This manual explains how to use the evaluation board. Be sure to read this manual before using the product. For this product, please consult with sales representatives or support representatives. Handling and Use Handling and use of this product and notes regarding its safe use are described in the manuals. Follow the instructions in the manuals to use this product. Keep this manual at hand so that you can refer to it anytime during use of this product. Notice on This Document All information included in this document is current as of the date it is issued. Such information is subject to change without any prior notice. Please confirm the latest relevant information with the sales representatives. S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 3 Preface Caution of the Products Described in This Document The following precautions apply to the product described in this manual. WARNING Electric shock, Damage Indicates a potentially hazardous situation which could result in death or serious injury and/or a fault in the user’s system if the product is not used correctly. Before performing any operation described in this manual, turn off all the power supplies to the system. Performing such an operation with the power on may cause an electric shock or device fault. Electric shock, Once the product has been turned on, do not touch any metal part of it. Damage Doing so may cause an electric shock or device fault. Indicates the presence of a hazard that may cause a minor or moderate injury, damages to this CAUTION product or devices connected to it, or may cause to loose software resources and other properties such as data, if the device is not used appropriately. Before moving the product, be sure to turn off all the power supplies and unplug the cables. Cuts, Damage Watch your step when carrying the product. Do not use the product in an unstable location such as a place exposed to strong vibration or a sloping surface. Doing so may cause the product to fall, resulting in an injury or fault. The product contains sharp edges that are left unavoidably exposed, such as jumper plugs. Cuts Handle the product with due care not to get injured with such pointed parts. Do not place anything on the product or expose the product to physical shocks. Do not carry the Damage product after the power has been turned on. Doing so may cause a malfunction due to overloading or shock. Since the product contains many electronic components, keep it away from direct sunlight, high Damage temperature, and high humidity to prevent condensation. Do not use or store the product where it is exposed to much dust or a strong magnetic or electric field for an extended period of time. Inappropriate operating or storage environments may cause a fault. Use the product within the ranges given in the specifications. Damage Operation over the specified ranges may cause a fault. To prevent electrostatic breakdown, do not let your finger or other object come into contact with Damage the metal parts of any of the connectors. Before handling the product, touch a metal object (such as a door knob) to discharge any static electricity from your body. When turning the power on or off, follow the relevant procedure as described in this document. Damage Before turning the power on, in particular, be sure to finish making all the required connections. Furthermore, be sure to configure and use the product by following the instructions given in this document. Using the product incorrectly or inappropriately may cause a fault. Because the product has no casing, it is recommended that it be stored in the original Damage packaging. Transporting the product may cause a damage or fault. Therefore, keep the packaging materials and use them when re-shipping the product. S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 4 Table of Contents 1. Description .......................................................................................................................................................................... 6 2. Evaluation Board Specification ............................................................................................................................................ 7 3. Pin and Function Descriptions ............................................................................................................................................. 8 3.1. Input/Output Pin Descriptions ..................................................................................................................................... 8 3.2. Jumper/Switch Setting .............................................................................................................................................. 11 3.3. Output Voltage Setting .............................................................................................................................................. 13 4. Setup and Verification ....................................................................................................................................................... 14 4.1. Contents in a Package .............................................................................................................................................. 14 4.2. Operation .................................................................................................................................................................. 14 4.2.1. Connection of Indoor Type Solar Cell ............................................................................................................... 14 4.2.2. Hybrid Connection of Indoor Type Solar Cell and Primary Battery ................................................................... 17 5. Circuit Schematic............................................................................................................................................................... 20 6. Component List ................................................................................................................................................................. 22 7. Components Layout .......................................................................................................................................................... 23 8. Silk and Layout .................................................................................................................................................................. 24 9. Board Splitting ................................................................................................................................................................... 26 10. Ordering Information.......................................................................................................................................................... 27 11. Major Changes .................................................................................................................................................................. 28 Revision History ...................................................................................................................................................................... 29 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 5 1. Description The S6SAE100A00VA1001 is the tiny evaluation board for the ultra-low-power energy harvesting PMIC for indoor type solar cell, S6AE100A series. This evaluation board consists of three independent boards for S6SAE101A, S6SAE102A and S6SAE103A. This board is capable of supporting life extension of primary battery or becoming battery-less solution, and it is for evaluation of diverse power management functions used for wireless sensor network. S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 6 2. Evaluation Board Specification Table 2-1 Evaluation Board Specification Parameter Symbol Conditions Min. Typ. Max. Unit Power supply voltage 1(*1) VVDD VDD1,2,3 pin 3.4(*3) − 5.5 V Power supply voltage 2 VVBAT VBAT1 pin (S6AE101A) 3.4(*3) − 5.5 V Output voltage 1 VVOUTH Rx1=6.8MΩ, Rx2=2.7MΩ, Rx1=9.1MΩ 2.0 − 5.5 V − 3.29 − Output voltage 2 VVOUTL Rx1=6.8MΩ, Rx2=2.7MΩ, Rx1=9.1MΩ V − 2.53 − V OVP detection voltage VOVPH OVP release voltage VOVPL 5.2 5.4 5.5 V 5.1 5.3 5.4 V − 0.1 − V 6 − − mA VBAT2,3 pin (S6AE102A, S6AE103A) OVP detection hysteresis OVP protection current VDD pin(*2) VOVPHYS IOVP VDD pin(*2) input current *1: It is recommended to connect more than six cells in series when solar cells are used. *2: IC (U1,U2,U3) pin *3: Min. value of power supply voltage depends the output voltage setting. Please refer the S6AE101A datasheet (002-08493) for more information. Please refer the S6AE102A and S6AE103A datasheet (002-08501) for more information. Board size: 19 mm × 11 mm for S6AE101A, 20.5 mm × 16 mm for S6AE102A, 23 mm × 16 mm for S6AE103A. S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 7 3. Pin and Function Descriptions 3.1. Input/Output Pin Descriptions Table 3-1 Input/Output Pin Descriptions Pin Symbol I/O Function Descriptions VBAT1 I Primary battery input pin (when being not used, leave this pin open) GND - Ground pin GND - Ground pin VDD1 I Solar cell input pin (when being not used, leave this pin open) VSTORE1_1 - Storage output pin GND - Ground pin GND - Ground pin VOUT1_1 O Output voltage pin Figure 3-1 Pin Layout VBAT1 VSTORE1_1 GND GND GND GND VDD1 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A VOUT1_1 8 3. Pin and Function Descriptions Table 3-2 Input/Output Pin Descriptions Pin Symbol I/O VBAT2 I Primary battery input pin (when being not used, leave this pin open) Function Descriptions GND - Ground pin GND - Ground pin VDD2 I Solar cell input pin (when being not used, leave this pin open) VSTORE1_2 - Storage output pin GND - Ground pin VSTORE2_2 - Storage output pin GND - Ground pin GND - Ground pin VOUT1_2 O Output voltage pin VOUT2_2 O Output voltage pin VOUT_LDO2 O LDO output pin VIN_LDO2 I LDO input pin INT2 I Control signal input for power gating mode Figure 3-2 Pin Layout VOUT_LDO2 VDD2 GND VIN_LDO2 GND GND VBAT2 VOUT2_2 INT2 VOUT1_2 GND VSTORE1_2 VSTORE2_2 GND S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 9 3. Pin and Function Descriptions Table 3-3 Input/Output Pin Descriptions Pin Symbol I/O Function Descriptions VBAT3 I Primary battery input pin (when being not used, leave this pin open) GND - Ground pin GND - Ground pin VDD3 I Solar cell input pin (when being not used, leave this pin open) VSTORE1_3 - Storage output pin GND - Ground pin VSTORE2_3 - Storage output pin GND - Ground pin GND - Ground pin VOUT1_3 O Output voltage pin VOUT2_3 O Output voltage pin VOUT_LDO3 O LDO output pin VIN_LDO3 I LDO input pin INT3 I Control signal input for power gating mode COMPM3 I Comparator input pin COMPP3 I Comparator input pin Figure 3-3 Pin Layout VDD3 VOUT_LDO3 GND VIN_LDO3 GND GND VBAT3 VOUT2_3 VOUT1_3 COMPM3 INT3 GND COMPP3 VSTORE1_3 VSTORE2_3 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A GND 10 3. Pin and Function Descriptions 3.2. Jumper/Switch Setting Table 3-4 Jumper Description for S6AE102A Jumper/Switch Function Initial Setting J21 Shorted between VIN_LDO2 pin and VOUT2_2 pin Short J22 Shorted between INT2 pin and VINT2 pin Short J23 Shorted between CIN2 pin and GND Short SW21 Shorted ENA_LDO2 pin to VINT2 pin or GND Short ENA_LDO2-VINT2(H) SW22 Shorted STBY_LDO2 pin to VINT2 or GND Short STBY_LDO2-GND(L) Figure 3-4 Jumper/Switch Layout S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 11 3. Pin and Function Descriptions Table 3-5 Jumper Description for S6AE103A Jumper/Switch Function J31 Shorted between VIN_LDO3 pin and VOUT2_3 pin J32 Shorted between INT3 pin and VINT3 pin Initial Setting Short Short SW31 Shorted ENA_LDO3 pin to VINT3 pin or GND Short ENA_LDO3-VINT3(H) SW32 Shorted STBY_LDO3 pin to VINT3 or GND Short STBY_LDO3-GND(L) SW33 Shorted ENA_COMP3 pin to VINT3 pin or GND SW34 Shorted COMPM3 pin or COMPP3 pin to VINT3 pin Short ENA_COMP3-GND(L) Short COMPM3-VINT3(H) Short COMPP3-VINT3(H) Figure 3-5 Jumper/Switch Layout S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 12 3. Pin and Function Descriptions 3.3. Output Voltage Setting Output voltage of S6AE100A PMIC is set by changing resistor values of Rx1, Rx2, and Rx3 on the board. Rx1, Rx2, Rx3 = (R11, R12, R13/ R21, R22, R23/ R31, R32, R33) Initial setting value of output voltage of the board is VVOUTH3.29V、VVOUTL2.53V To change output voltage, derive Rx1, Rx2, and Rx3 values by using following calculation formulas. Then the sum of Rx1, Rx2, and Rx3 must be set to more than 10 MΩ. VVOUTH VVOUTH = 57.5×(Rx2+Rx3) [V] 11.1×(Rx1+Rx2+Rx3) VVOUTL VVOUTL = 57.5×Rx3 [V] 11.1×(Rx1+Rx2+Rx3) Calculation Example: VVOUTH VVOUTH = 57.5×(R12+R13) 57.5×(2.7M+9.1M) = = 3.29[V] 11.1×(R11+R12+R13) 11.1×(6.8M+2.7M+9.1M) VVOUTL VVOUTL = 57.5×R13 57.5×9.1M = = 2.53[V] 11.1×(R11+R12+R13) 11.1×(6.8M+2.7M+9.1M) LDO output voltage of S6AE102A and S6AE103A PMIC is set by changing resistor values of Rx4 and Rx5. Rx4, Rx5 = (R24, R25 / R34, R35) Initial setting value of output voltage of the board is VOUT_LDOx2.55V To change output voltage, derive Rx4 and Rx5 values by using following calculation formulas VOUT_LDOx VOUT_LDOx = 1.15×(Rx4+Rx5) [V] Rx5 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 13 4. Setup and Verification 4.1. Contents in a Package Contents Description S6SAE100A00VA1001 Evaluation board of S6AE101A, S6AE102A and S6AE103A Quantity Notes 1 - It is recommended to prepare the solar cell (e.g. Panasonic AM-1801 ) and coin battery (or stabilized power supply is available ) by user as input power source for evaluation. 4.2. Operation 4.2.1. Connection of Indoor Type Solar Cell 1. To output 3.3V (initial setting value) to VOUT1_1 pin, input a DC voltage more than 3.4V into VDD1 pin. (It is recommended to connect more than six cells in series if you use solar cells.) 2. Then, confirm that 3.3V is output to VOUT1 _1 pin. When you measure voltage change during charging, monitor the voltage on VSTORE1_1 pin. 3. To change the output voltage setting, change the resistor value of R11, R12 and R13 with referring section 3.3 Output Voltage Setting. Figure 4-1 Connection of Indoor Type Solar Cell (S6AE101A) + Multimeter VSTORE1_1 - Solar Cell + VDD1 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A + Multimeter VOUT1_1 14 4. Setup and Verification 1. To output 3.3V (initial setting value) to VOUT1_2 pin, input a DC voltage more than 3.4V into VDD2 pin. (It is recommended to connect more than six cells in series if you use solar cells.) 2. Then, confirm that 3.3V is output to VOUT1_2 pin and VOUT2_2 pin. When you measure voltage change during charging, monitor the voltage on VSTORE1_2 pin. 3. Also, confirm that 2.5V is output to VOUT_LDO2 pin. 4. To change the output voltage setting of VOUT, change the resistor value of R21, R22 and R23 with referring section 3.3 Output Voltage Setting. 5. To change the output voltage setting of LDO, change the resistor value of R24 and R25 with referring section 3.3 Output Voltage Setting. Figure 4-2 Connection of Indoor Type Solar Cell (S6AE102A) Solar Cell + VDD2 + Multimeter VOUT_LDO2 - - + + + Multimeter VOUT2_2 Multimeter VOUT1_2 Multimeter VSTORE1_2 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 15 4. Setup and Verification 1. To output 3.3V (initial setting value) to VOUT1_3 pin, input a DC voltage more than 3.4V into VDD3 pin. (It is recommended to connect more than six cells in series if you use solar cells.) 2. Then, confirm that pulsed 3.3V is output to VOUT1_3 pin and VOUT2_3 pin by timer control. Please refer the datasheet "Timer Driven Mode in 12.2 Power Gating" for more detailed information about the operation. When you measure voltage change during charging, monitor the voltage on VSTORE1_3 pin. 3. Also, confirm that pulsed 2.5V is output to VOUT_LDO3 pin. LDO output is synchronized with the VOUT2_3, because the LDO is supplied from VOUT2_3 as input power source at the initial setting. 4. To change the output voltage setting of VOUT, change the resistor value of R31, R32 and R33 with referring section 3.3 Output Voltage Setting. 5. To change the output voltage setting of LDO, change the resistor value of R34 and R35 with referring section 3.3 Output Voltage Setting. Figure 4-3 Connection of Indoor Type Solar Cell (S6AE103A) Solar Cell VDD3 + + Multimeter VOUT_LDO3 - - Multimeter VOUT2_3 + - Multimeter VOUT1_3 + + Multimeter VSTORE1_3 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 16 4. Setup and Verification 4.2.2. Hybrid Connection of Indoor Type Solar Cell and Primary Battery 1. To output 3.3V (initial setting value) to VOUT1_1 pin, input a DC voltage more than 3.4V into VDD1 pin and VBAT1 pin. VDD1 pin is for solar cell and VBAT1 is for 3V coin battery etc. 2. Confirm that 3.3V is output to VOUT1_1 pin. When you measure voltage change during charging, monitor the voltage on VSTORE1_1 pin. 3. Connect the load to VOUT1_1 pin in order to make VDD1 pin voltage dropping under 1.45V. After the VDD1 pin voltage becomes under 1.45V, VBAT1 pin voltage is directly supplied to VOUT1_1 pin. 4. To change the output voltage setting, change the resistor value of R11, R12 and R13 with referring section 3.3 Output Voltage Setting. Figure 4-4 Hybrid Connection of Indoor Type Solar Cell and Primary Battery with Board (S6AE101A) VBAT1 + + - Solar Cell Multimeter VSTORE1_1 - - + + Multimeter/ Electric load VOUT1_1 VDD1 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 17 4. Setup and Verification 1. To output 3.3V (initial setting value) to VOUT1 _2 pin and VOUT2_2 pin, input a DC voltage more than 3.4V into VDD2 pin (e.g. solar battery). And input the over 2V into VBAT2 pin (e.g. 3V coin battery). When the VSTORE1_2 pin voltage drops, VBAT2 pin voltage is directly supplied to VOUT1_2 pin and VOUT2_2 pin. 2. Confirm that 3.3V is output to VOUT1_2 pin and VOUT2_2 pin. When you measure voltage change during charging, monitor the voltage on VSTORE1_2 pin. 3. Confirm that 2.5V is output to VOUT_LDO2 pin. 4. Connect the load to VOUT1_2 pin in order to make VSTORE1_2 pin voltage dropping under 2.5V. VBAT2 pin voltage is directly supplied to VOUT1_2 pin and VOUT2_2 pin. 5. To change the output voltage setting, change the resistor value of R21, R22 and R23 with referring section 3.3 Output Voltage Setting. 6. To change the output voltage setting of LDO, change the resistor value of R24 and R25 with referring section 3.3 Output Voltage Setting. Figure 4-5 Hybrid Connection of Indoor Type Solar Cell and Primary Battery with Board (S6AE102A) Solar Cell + VDD2 + - Multimeter VOUT_LDO2 - + + VBAT2 + + Multimeter VOUT2_2 Multimeter/ Electric load VOUT1_2 Multimeter VSTORE1_2 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 18 4. Setup and Verification 1. To output 3.3V (initial setting value) to VOUT1 _3 pin and VOUT2_3 pin, input a DC voltage more than 3.4V into VDD3 pin (e.g. solar battery). And input the over 2V into VBAT3 pin (e.g. 3V coin battery). When the VSTORE1_3 pin voltage drops, VBAT3 pin voltage is directly supplied to VOUT1_3 pin and VOUT2_3 pin. 2. Confirm that pulsed 3.3V is output to VOUT1_3 pin and VOUT2_3 pin by timer control. Please refer the datasheet "Timer Driven Mode in 12.2 Power Gating" for more detailed information about the operation. When you measure voltage change during charging, monitor the voltage on VSTORE1_3 pin. 3. Also confirm that pulsed 2.5V is output to VOUT_LDO3 pin. LDO output is synchronized with the VOUT2_3, because the LDO is supplied from VOUT2_3 as input power source at the initial setting. 4. Connect the load to VOUT1_3 pin or VOUT2_3 pin in order to make VSTORE1_3 pin voltage dropping under 2.5V. VBAT3 pin voltage is directly supplied to VOUT1_3 pin and VOUT2_3 pin. 5. To change the output voltage setting, change the resistor value of R31, R32 and R33 with referring section 3.3 Output Voltage Setting. 6. To change the output voltage setting of LDO, change the resistor value of R34 and R35 with referring section 3.3 Output Voltage Setting. Figure 4-6 Hybrid Connection of Indoor Type Solar Cell and Primary Battery with Board (S6AE103A) Solar Cell + VDD3 + - Multimeter VOUT_LDO3 - + Multimeter VOUT2_3 + VBAT3 + + Multimeter/ Electric load VOUT1_3 Multimeter VSTORE1_3 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 19 5. Circuit Schematic Figure 5-1 Circuit Schematic S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 20 5. Circuit Schematic S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 21 6. Component List Table 6-1 Component List No Reference Parts Number Description Manufacture Note 1 C11, C21, C31 C1608X6S1A106M080AC 10 μF/10V/1608 TDK Corporation - C1005X7S1A105K050BC 1 μF/10V/1005 TDK Corporation - 2 C12, C22, C32, C28, C38 3 C13, C23, C33 C3216X5R0J107M160AB 100 μF/6.3V/3216 TDK Corporation - 4 C24, C34 C2012X5R1V226M125AC 22 μF/10V/2012 TDK Corporation - 5 C25, C35 C1608C0G1H151J080AA 150 pF/50V/1608 TDK Corporation - 6 C36, C37 C1608C0G1H331J080AA 330 pF/50V/1608 TDK Corporation - 7 C29, C39 C1608C0G1H221J080AA 220 pF/50V/1608 TDK Corporation - - 100 μF/6.3V/3216 - non mount 1SS417 Diode 40V/1006 TOSHIBA Corporation - 8 9 C71, C72, C81, C82, C91, C92 D11, D21, D31 Cypress Semiconductor 10 U1 S6AE101A Energy Harvesting PMIC 11 U2 S6AE102A Energy Harvesting PMIC 12 U3 S6AE103A Energy Harvesting PMIC 13 R11, R21, R31 ESR03EZPF6804 6.8 M/1608/1% Rohm Semiconductor - 14 R12, R22, R32 ESR03EZPF2704 2.7 M/1608/1% Rohm Semiconductor - 15 R13, R23, R33 ESR03EZPF9104 9.1 M/1608/1% Rohm Semiconductor - 16 R24, R34 ESR03EZPF1005 10 M/1608/1% Rohm Semiconductor - 17 R25, R35 ESR03EZPF8204 8.2 M/1608/1% Rohm Semiconductor - 18 R81, R91 - 1608 - Pattern short 2.54 mm 4pin - - non mount 2.54 mm 3pin - - non mount 2.54 mm 2pin - - non mount 2.54 mm 1pin - - non mount 19 20 CN11, CN21, CN22, CN31, CN32 CN36 Corporation Cypress Semiconductor Corporation Cypress Semiconductor Corporation - CN12, CN13, CN23, 21 CN24, CN25, CN33, CN34, CN35 22 CN26 These components are compliant with RoHS, but ask each vender for details if necessary. S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 22 7. Components Layout Figure 7-1 Top, Bottom S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 23 8. Silk and Layout Figure 8-1 Layer1 Figure 8-2 Layer2 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 24 8. Silk and Layout Figure 8-3 Layer3 Figure 8-4 Layer4 S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 25 9. Board Splitting The PCB can be cut along the V-cut line. The torsional stress on the board is reduced, when a force is applied to the entire V-cut line. Figure 9-1 Board S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 26 10. Ordering Information Table 10-1 Ordering Information Part Number EVB Revision Note S6SAE100A00VA1001 Rev. 1.0 - S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 27 11. Major Changes Spansion Publication Number: S6SAE100A00VA1001_SS901-00040 Table 11-1 Major Changes Page Section Change Results Revision 1.0 - - Initial release NOTE: Please see “Revision History” about later revised information. S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 28 Revision History Document Revision History Document Title: S6SAE100A00VA1001 Energy Harvesting PMIC S6AE10xA Evaluation Board Operation Guide Document Number: 002-08728 Revision ECN No. Origin of Description of Change Change ** *A 5131017 TAOA New Specification ATTS Table2-1 Description of output voltage is changed S6SAE100A00VA1001 Evaluation Board Operation Guide, Doc No. 002-08728 Rev.*A 29