kt13892ug, mc13892 evaluation board supports
TRANSCRIPT
© Freescale Semiconductor, Inc., 2011-2014. All rights reserved.
Freescale SemiconductorUser’s Guide
Document Number: KT13892UGRev. 4.0, 8/2014
MC13892 Evaluation BoardSupports KIT13892VKEVBEJ and KIT13892VLEVBEJ
Figure 1. MC13892 Evaluation Boards
Table of Contents1 Kit Contents / Packing List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .2
2 Important Notice . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .3
3 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4
4 Required Equipment . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8
5 Setup Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8
6 Schematics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .16
7 Software . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .20
8 KIT13892VKEVBEJ Board Layout . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .40
9 KIT13892VLEVBEJ Board Layout . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .45
10 KITUSBCOMDGL Board Layout . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .50
11 KIT13892VxEVBEJ Bill of Material . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54
12 KITUSBCOMDGLEVME Bill of Material . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .56
13 References . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .58
14 Revision History . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .59
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
2 Freescale Semiconductor
Kit Contents / Packing List
1 Kit Contents / Packing List• KIT13892VxEVBEJ
• Kit KITUSBCOMDGLEVME
• Cables (8):
• 7x2 Flat Ribbon Cable (GPIO)• 8x2 Flat Ribbon Cable (SPI)• 3x2 Flat Ribbon Cable (I2C)• 1x12 Flat Ribbon Cable (3 each) (Application Peripherals)• 1x8 Flat Ribbon Cable (Touch Screen)• USB extension cable
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
3 Freescale Semiconductor
Important Notice
2 Important NoticeFreescale provides the enclosed product(s) under the following conditions:
This evaluation kit is intended for use of ENGINEERING DEVELOPMENT OR EVALUATION PURPOSES ONLY. It is provided as a sample IC pre-soldered to a printed circuit board to make it easier to access inputs, outputs, and supply terminals. This EVB may be used with any development system or other source of I/O signals by simply connecting it to the host MCU or computer board via off-the-shelf cables. This EVB is not a Reference Design and is not intended to represent a final design recommendation for any particular application. Final device in an application will be heavily dependent on proper printed circuit board layout and heat sinking design as well as attention to supply filtering, transient suppression, and I/O signal quality.
The goods provided may not be complete in terms of required design, marketing, and or manufacturing related protective considerations, including product safety measures typically found in the end product incorporating the goods. Due to the open construction of the product, it is the user's responsibility to take any and all appropriate precautions with regard to electrostatic discharge. In order to minimize risks associated with the customers applications, adequate design and operating safeguards must be provided by the customer to minimize inherent or procedural hazards. For any safety concerns, contact Freescale sales and technical support services.
Should this evaluation kit not meet the specifications indicated in the kit, it may be returned within 30 days from the date of delivery and will be replaced by a new kit.
Freescale reserves the right to make changes without further notice to any products herein. Freescale makes no warranty, representation or guarantee regarding the suitability of its products for any particular purpose, nor does Freescale assume any liability arising out of the application or use of any product or circuit, and specifically disclaims any and all liability, including without limitation consequential or incidental damages. “Typical” parameters can and do vary in different applications and actual performance may vary over time. All operating parameters, including “Typical”, must be validated for each customer application by customer’s technical experts.
Freescale does not convey any license under its patent rights nor the rights of others. Freescale products are not designed, intended, or authorized for use as components in systems intended for surgical implant into the body, or other applications intended to support or sustain life, or for any other application in which the failure of the Freescale product could create a situation where personal injury or death may occur. Should the Buyer purchase or use Freescale products for any such unintended or unauthorized application, the Buyer shall indemnify and hold Freescale and its officers, employees, subsidiaries, affiliates, and distributors harmless against all claims, costs, damages, and expenses, and reasonable attorney fees arising out of, directly or indirectly, any claim of personal injury or death associated with such unintended or unauthorized use, even if such claim alleges that Freescale was negligent regarding the design or manufacture of the part.Freescale™ and the Freescale logo are trademarks of Freescale Semiconductor, Inc. All other product or service names are the property of their respective owners. © Freescale Semiconductor, Inc., 2011-2014. All rights reserved.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
4 Freescale Semiconductor
Introduction
3 IntroductionKIT13892VXEVBEJ
This EVB shows the functionality of the MC13892JVxx device set up under specific operation parameters.
The MC13892 is a SMARTMOS Power Management Integrated Circuit (PMIC) component for Freescale's i.MX51, i.MX37, i.MX35, and i.MX27 application processors, targeting netbooks, ebooks, mobile internet devices, smart phones, personal media players, and personal navigation devices. For evaluation purposes this KIT13892KVXXEVBE comes with the KITUSBCOMDGLEVME board for communication and control purposes.
KITUSBCOMDGLEVME
This KIT is a USB communication dongle that uses the MC9S08JM8CLC MCU to enable communication between a PC/laptop with a USB port, and the KIT13892VXEVBEJ, through SPI or I2C terminals.
Beside communication, this board also provides two pins for quick “plug in” identification as well as three GPIO, four PWM signals, and two ADC. All of these pins can be configured and used as general purpose I/O pins, getting 11 GPIOs in total, if needed.
These communication signals and GPIOs can be level shifted to 5.0 V, 3.3 V, and 1.8 V, in order to cover most of the application voltage requirements.
3.1 KIT13892VXEVBEJ Functional Blocks• Charger: The charge path can be configured for single or serial path using jumpers J5 and J9 to
enable/disable the M3 transistor. CHRGSE1B pin is driven by the USB dongle MCU through a FET. This saves the need to specify if the charger connected is a wall or USB charger through hardware.
• LED Backlighting: RGB and backlighting LEDs are provided on the board to test these features. Jumpers (J4, J7, and J3) have been placed to connect or disconnect the backlighting LEDs to their respective channel.
• Power: All the regulators and regulators signals have been connected to J17, J18, and J24 so they can be loaded and tested from there. They also have their respective test point on the board. Regulators have a 0 resistor that allows the output to be connected to the feedback signal on the board. The feedback signals are also available on the load connectors, so the feedback point can be connected directly to the load by removing these resistors. These resistors are populated by default. The DVS feature of the regulators can be controlled by means of J31/32 and J35/38 jumpers. LDOs that can be used with either internal or external pass devices (VCAM and VGEN3) can be set for either one of both configurations by changing the J27 and J30 jumpers positions.
• Programmability and Control: The MC13892 can be configured to be controlled by I2C or SPI communication. In I2C mode, J19 ties the CS pin to VCORE, J20 and J21 connect the pull-up resistors on MISO and CLK respectively, and J22/23 are intended to set the A0 address at the MOSI pin. The following pins are connected to the KITUSBCOMDGLEVME, so they can be controlled/monitored through the GUI: CS, CLK, MISO, MOSI, WDI, INT, RESETB, RESETBMCU, STANDBY, STANDBYSEC, and PWRON1. The SPIVCC pin can be supplied by SW4 of the MC13892, by placing the J16 jumper, or by the LDO on the KITUSBCOMDGLEVME through the SPIVCC signals on the J10, J14, and J15 connectors. PUMS and MODE pins can be configured through the J36/37, J40/41, and J12/13 jumpers on the board.
• LICELL: The coin cell holder offers the possibility to keep the RTC running and save the contents of some registers, even if the device is in Off mode.
• USB: The VBUSEN and UID pins can be configured through the J26/28 and J34/39 jumpers. The VBUS of the KITUSBCOMDGLEVME can be connected to the UVBUS pin of the, by means of the J29 jumper. The UVBUS pin is also available at J2 for OTG mode.
• ADC: The ADC block can be triggered by hardware by using the SW1 push button. The J25 connector contains all the necessary signals to connect a touch screen panel. The R13 potentiometer is provided in order to test the ADIN5 input, as well as giving the possibility to bias a battery thermistor connected there. ADIN6 and ADIN7 have their respective test point in order to connect a specific voltage there and test these inputs.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
5 Freescale Semiconductor
Introduction
3.2 KITUSBCOMDGLEVME Functional Blocks
Table 1. SPI Interface.- Pin Header Configuration for SPI Interface at J9
PIN NUMBER DESCRIPTION PIN NUMBER DESCRIPTION
1 GND - Ground 9 SPSCK - SPI Serial Clock
2 ADC1 - Analog-to-Digital Regulator 10 PWM3 - Pulse Width Modulation Signal
3 COMM_V - Communication Voltage 11 MOSI - SPI Master Output Slave Input
4 ADC0 - Analog-to-Digital Regulator 12 PWMSYNC - PWM Synchronization Signal
5 5.0 V - Voltage from USB Port 13 MISO - SPI MAster Input Slave Output
6 PWM0 - Pulse Width Modulation Signal 14 ID1 - Board Identifier 1
7 PWM2 - Pulse Width Modulation Signal 15 SS - Slave Select
8 PWM1 - Pulse Width Modulation Signal 16 ID0 - Board Identifier 0
Table 2. I2C Interface.- Pin Header Configuration for I2C Interface at J7
PIN NUMBER DESCRIPTION PIN NUMBER DESCRIPTION
1 ID0 - Board Identifier 0 4 GND - Ground
2 ID0 - Board Identifier 1 5 SCL - I2C Serial Clock
3 SDA - 12C Serial Data 6 COMM_V - Communication Voltage
Table 3. UART Interface.- Pin Header Configuration for UART Interface at J6
PIN NUMBER DESCRIPTION PIN NUMBER DESCRIPTION
1 ID0 - Board Identifier 0 4 GND - Ground
2 ID0 - Board Identifier 1 5 RXD - Receive Data
3 TXD - Transmit Data 6 GND - Ground
Table 4. GPIO Interface.- Pin Header Configuration for GPIOs Interface at J8
PIN NUMBER DESCRIPTION PIN NUMBER DESCRIPTION
1 ID0 - Board Identifier 0 8 PWM2 - Pulse Width Modulation Signal
2 ID0 - Board Identifier 1 9 PWM1 - Pulse Width Modulation Signal
3 GPIO2 - General Purpose I/O 10 PWM0 - Pulse Width Modulation Signal
4 GPIO1 - General Purpose I/O 11 ADC0 - Analog-to-Digital Regulator
5 GPIO0 - General Purpose I/O 12 ADC1 - Analog-to-Digital Regulator
6 PWMSYNC - PWM Synchronization Signal
13 GND - Ground
7 PWM3 - Pulse Width Modulation Signal 14 COMM_V - Communication Voltage
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
6 Freescale Semiconductor
Introduction
Communication voltage selection - This communication board allows the user to select one of the following three communication voltages through hardware, which are very common on most of the applications:
• 5.0 V - This voltage comes directly from the USB port and can be selected by connecting J3(1-2). This selection ignores the voltage coming from the LDO, and sets the USB voltage as the maximum level for communication.
• 3.3 V - This voltage can be selected by connecting J5(1-2) and J3(2-3).This selection configures the LDO to supply 3.3 V, and set the voltage as the maximum voltage reference of communication.
• 1.8 V - This communication voltage is selected by connecting J5(2-3) and J3(2-3). By connecting these two jumpers, the LDO supplies 1.8 V, and set this voltage level as the maximum voltage reference of communication.
3.3 EVBs Operating ParametersKIT13892VXEVBEJ Board
• Input voltages:
• Battery: 3.7 V• USB/Wall charger: 5.0 V• Power supply for backlighting: 9.0 V
• Default output voltages:
• Regulators: SW1 = 1.05 V; SW2 = 1.22 V; SW3 = 1.2 V; SW4 = 1.8 V; SWBST = 5.0 V (when a charger is attached, otherwise 0 V).
• Linear regulators: VUSB = 3.3 V; VUSB2 = 2.6 V; VPLL = 1.8 V; VDIG = 1.25 V; VIOHI = 2.775 V; VGEN1 = 0 V; VGEN2 = 3.15 V; VGEN3 = 0 V; VSD = 0 V; VVIDEO = 0 V; VAUDIO = 0 V; VCAM = 0 V.
• Switching frequency in regulators: 3.1457 MHz (SWBST operates at 2.0 MHz).• Communication interfaces:
• SPI - Frequency up to 26 MHz• I2C - Frequency at 400 kHz
• Power control signals - RESETB, RESETBMCU, WDI, INT, STANDBY, STANDBYSEC, CHRGSE1B, and CS
KITUSBCOMDGLEVME Board
• Power supply = 5.0 V (supplied by computer USB port)
• Communication Interfaces:
• I2C - Frequency up to 3.5 MHz (100 kHz, 400 kHz or 3.5 MHz); Voltage Level = Selectable (5.0 V, 3.3 V, or 1.8 V)
• SPI - Frequency up to 4.0 MHz; Voltage Level = Selectable (5.0 V, 3.3 V, or 1.8 V)• UART - Frequency from 2400 bps to 115200 bps; Voltage Level = 12 V (Typ.)• USB - Frequency fixed at 12 Mbps; Voltage Level = 5.0 V (Typ.)
• Other Signals:
• Four PWM signals (Adjustable frequency up to 4.0 MHz)• Open Drain signals with selectable voltage Level (5.0 V, 3.3 V or 1.8 V)• Three GPIOs (General Purpose I/O pins) Open Drain signals with selectable voltage Level (5.0 V, 3.3 V,
or 1.8 V)• Two ADCs (10 bits)• Identifiers - Two ADC signals pulled up to 5.0 V thru 10 kohm resistors. These inputs are designated to
identify the Slave device and automatically OPEN its corresponding Graphical User Interface (GUI). This feature only applies if a slave board was designed for it.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
7 Freescale Semiconductor
Introduction
3.4 EVBs FeaturesKIT13892KVxEVBEJ Board
• Four Layer Board
• Low Noise Design
• Top and bottom Layer component placement
• Three 12 pin connectors (J17, J18, and J24) for regulators, linear regulators, and NMOS power gate switches accessibility. Review Figures 9 and 10 schematics for connections
• Banana jack connectors (J6-J8 and J1-J2) for battery and charger attachments
• Battery holder for a CR2477 Li-Ion/Li-Pol coin cell
• Several jumper configurations for PMIC mode of operation
• Scattered test points for different measurements
• I2C and SPI communication interface connectors (J10 and J14)
• Power control interface connector (J15)
• Three RGB LEDs for color mixing or general purpose signaling
• 17 white LEDs for backlighting applications. Note that an external Boost regulator voltage needs to be attached at TP SWLED
• Two green LEDs for RESETB and RESETBMCU signaling
• One red LED for charger attachment signaling
• Four-wire resistive touch screen interface connector (J25)
KITUSBCOMDGLEVME Board
• Four Layer Board
• Low Noise Design
• Top Layer Placement
• UART, I2C, and SPI communication interface connectors (J6, J7, and J9)
• USB type A connector
• Communication Voltage Level Shifting configuration (J3 and J5)
• BDM connector for MCU programming (J2)
• Pull-up resistors for I2C and SPI line communication voltage jumper configurations (J4)
3.5 MC13892 Device Description/Features• Battery charger system for wall charging and USB charging
• 10 bit ADC for monitoring battery and other inputs, plus a coulomb counter support module
• Four adjustable output buck regulators for direct supply of the processor core and memory
• 12 adjustable output LDOs with internal and external pass devices
• Boost regulator for supplying RGB LEDs
• Serial backlight drivers for displays and keypad, plus RGB LED drivers
• Power control logic with processor interface and event detection
• Real time clock and crystal oscillator circuitry, with coin cell backup and support for external secure real time clock, on a companion system processor IC
• Touch screen interface
• SPI/I2C bus interface for control and register access
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
8 Freescale Semiconductor
Required Equipment
4 Required Equipment• 3.7 V Li-Ion battery to be connected at J6-J8
• 9.0 V, 500 mA power supply to be connected at test point SWLED.
• 5.0 V, 5.0 A, Adjustable Power Source to be connected at J1-J2
• Computer Central Processing Unit (CPU) System Requirements:
• Windows eXPerience (XP) (Note: The USB drivers for the KITUSBCOMDGLEVME MCU were developed under Windows XP operating system)
• 1.0 Gigabyte Random Access Memory
• 100 Megabyte Hard Disc Drive Available Memory
5 Setup ConfigurationPlease refer to the following figures for setting up the connections between the USBCOMDGL, and either the KIT13892VKEVBEJ or the KIT13892VLEVBEJ, by I2C or SPI communication.
Figure 1. MC13892 Basic Hardware Setup
(+) (+)(‐) (‐)
Wall/USB charger
Voltages and currents for i.MX
processor and application peripherals
USB Cable
KITUSBCOMDGLEVME
3.7 V 5.0 V
TouchScreen
LiCell(Coin Cell)
Battery
(J18, J24, J17)Cables (Fig. 3, 4, 5, and 6)
9.0 V
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
9 Freescale Semiconductor
Setup Configuration
Figure 2. SPI Configuration for the MC13892JVL Board alongside the USB Dongle
Figure 3. I2C Configuration for the MC13892JVL Board alongside the USB Dongle
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
10 Freescale Semiconductor
Setup Configuration
Figure 4. SPI Configuration for the MC13892JVK Board alongside the USB Dongle
Figure 5. I2C Configuration for the MC13892JVK Board alongside the USB Dongle
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
11 Freescale Semiconductor
Setup Configuration
5.1 KIT13892VxEVBEJ Jumper Location and Configuration
Figure 6. KIT13892VLEVBEJ Default Jumper Location and Configuration
Location Jumper Reference Position
1 J40-41 2
2 J7 Shorted
3 J9 Shorted
4 J27 2-3
5 J30 2-3
6 J16 Shorted
7 J22-23 3
8 J33 Shorted
9 J36-37 3
2
3
45
6
7
8
9
1
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
12 Freescale Semiconductor
Setup Configuration
Figure 7. KIT13892VKEVBEJ Default Jumper Location and Configuration
Location Jumper Reference Position
1 J40-41 2
2 J36-37 3
3 J33 Shorted
4 J9 Shorted
5 J30 2-3
6 J22-23 3
7 J27 2-3
8 J16 Shorted
9 J7 Shorted
1
2
3
4
5
6
7
8
9
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
13 Freescale Semiconductor
Setup Configuration
JumperReference
GeneralDescription Position Function
J34-J39 USB ID Connection Open (default) B type plug (USB Host, OTG default master or no device) is attached
1 Grounded: A type plug (USB default slave) is attached
2 Resistor to ground: Non-USB accessory is attached
3 Tied to SWBST: Factory mode
J26-J28 Control VBUSEN pin Open (default) VBUSEN feature not used
1 Grounded: VBUS supplied from USB cable
2 For future usage
3 Tied to SW4: VBUS supplied from SWBST if VUSBIN and OTGSWBSTEN bits = 1 (OTG mode), or VUSB supplied from VBUS if VUSBIN = 0 and a valid VBUS is present
J31-J32 DVS1 Control Open (default) Dynamic Voltage Scaling feature disabled for SW1
1 Tied to SW4: DVS feature activated. The regulator output voltage will transition to the set point indicated in the SW1DVS bits on programmed steps
2 For future usage
3 Grounded: DVS feature deactivated and the regulator will be working on the set point indicated by the SW1 bits
J35-J38 DVS2 Control Open (default) Dynamic Voltage Scaling feature disabled for SW2
1 Tied to SW4: DVS feature activated. The regulator output voltage will transition to the set point indicated in the SW2DVS bits on programmed steps
2 For future usage
3 Grounded: DVS feature deactivated and the regulator will be working on the set point indicated by the SW2 bits
J40-J41 PUMS1 Control (Controls the power up default values of
the regulators)
Open Open (Check MC13892 Data Sheet for further reference on the default values)
1 Tied to VCORE (Check MC13892 Data Sheet for further reference on the default values)
2 (default) Tied to VCOREDIG (Check MC13892 Data Sheet for further reference on the default values)
3 Grounded (Check MC13892 Data Sheet for further reference on the default values)
J13-J12 PUMS2 Control (Controls the power
up default values and sequence of the
regulators)
Open (default) Open (Check MC13892 Data Sheet for further reference on the default values)
1 Tied to VCORE: No usage on version 2.0 A of the device. For future usage
2 Tied to VCOREDIG: No usage on version 2.0 A of the device. For future usage
3 Grounded (Check MC13892 Data Sheet for further reference on the default values)
J36-J37 Control MODE pin Open No mode selected, the device will not work
1 Tied to VCORE: Test mode
2 Tied to VCOREDIG: Low Power Boot allowed
3 (default) Grounded: Normal operation
J3 LEDMD String Control
Open
(default)LEDMD string open. LEDMD pin unconnected
Shorted LEDMD string enabled and connected to LEDMD pin
J4 LEDAD String Control Open
(default)LEDAD string open. LEDAD pin unconnected
Shorted LEDAD string enabled and connected to LEDAD pin
J7 LEDKP String Control Open LEDKP string open. LEDKP pin unconnected
Shorted (default)
LEDKP string enabled and connected to LEDKP pin
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
14 Freescale Semiconductor
Setup Configuration
J16 SPIVCC Supply Open SPIVCC pin allowed to be supplied through connectors J10, J15, or J14
Shorted (default)
SPIVCC supplied by SW4 (1)
J19 CS pin Control Open (default) CS pin allowed to be controlled by connector J15. If it is grounded or left open at startup, the device will be configured on SPI mode.
Shorted Tied to VCORE: If this pin is tied to VCORE at startup, the device will be configured for I2C mode.
J20 MISO Pull-up Open (default) Pull-up resistor on MISO pin disabled for SPI communication
Shorted Pull-up resistor on MISO pin enabled for I2C communication
J21 CLK Pull-up Open (default) Pull-up resistor on CLK pin disabled for SPI communication
Shorted Pull-up resistor on CLK pin enabled for I2C communication
J29 UVBUS Supply Open (default) UVBUS pin disconnected from J14
Shorted UVBUS pin connected to J14 connector for it to be supplied from the USB cable connected to the MCU board, or to supply a USB cable in OTG mode
J27 VCAMDRV Open VCAM regulator not used
1-2 VCAM regulator configured with external pass device (VCAMCONFIG bit needs to be set to 1)
2-3 (default) VCAM regulator configured with internal pass device (VCAMCONFIG bit needs to be cleared
J30 VGEN3DRV Open VGEN3 regulator not used
1-2 VGEN3 regulator configured with external pass device (VGEN3CONFIG bit needs to be set to 1)
2-3 (default) VGEN3 regulator configured with internal pass device (VGEN3CONFIG bit needs to be cleared
J5 M3 FET Control 1 Open (default) Charge path configured as Serial Path (J9 needs to be shorted)
Shorted Charge path configured as Single Path (J9 needs to be open)
J9 M3 FET Control 2 Open M3 FET not controlled. Charge path configured as Single Path
Shorted (default)
M3 FET controlled by BATTFET pin. Charge path configured as Serial Path
J33 PWRON1 pin Control Open PWRON1 pin can only be controlled through Switch 2
Shorted (default)
PWRON1 pin can be controlled by either Switch 2 or an MCU board connected to J15 connector
J22-J23 MOSI Control Open MOSI pin not connected. Not recommended
1 Grounded: A0 address = 0 on I2C communication
2 Tied to VCORE: A0 address = 1 on I2C communication
3 (default) MOSI pin tied to J14 connector for SPI communication
Notes: 1. Due to the effect the level shifter of the KITUSBCOMDGLEVME produces on SW4, the latter will need a minimum extra load of 10 kOhm to work
properly when it is supplying SPIVCC.
JumperReference
GeneralDescription Position Function
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
15 Freescale Semiconductor
Setup Configuration
5.2 KITUSBCOMDGLEVME Jumper Location and Configuration
Figure 8. KITUSBCOMDGLEVME Default Jumper Location and Configuration
Location Jumper Reference Position
1 J5 2-3
2 J3 2-3
Jumper Reference General description Position Function
J5 Level shifted Communication voltage
1 - 2 Adjust LDO voltage to 3.3 V
2 – 3 (Default) Adjust LDO voltage to 1.8 V
J3 Level shifting Communication voltage enablement
1 - 2 Set communication voltage to 5.0 V
2 – 3 (Default) Set communication voltage to LDO voltage
J4
Pull up resistor enablement for low voltage side
1 - 2 SDA pull-up resistor enable
3 - 4 SCL pull-up resistor enable
5 - 6 MISO pull-up resistor enable
7 - 8 SS pull-up resistor enable
9 - 10 SPSCK pull-up resistor enable
11 - 12 MOSI pull-up resistor enable
1 2
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
16 Freescale Semiconductor
Schematics
6 Schematics
Figure 9. KIT13892VKEVBEJ Schematic (7.0x7.0)
5 5
4 4
3 3
2 2
1 1
DD
CC
BB
AA
Batte
ry
Lice
ll ba
se m
ust b
e po
pula
ted
but b
atte
ry m
ust n
ot b
e pl
aced
1.2/
1.25
/1.6
5/1.
8V 5
0mA
1.05
/1.2
5/1.
65/1
.8V
50m
A
DN
P
DN
P
2.40
/2.6
0/2.
70/2
.775
V 50
mA
DN
P
2.3/
2.5/
2.77
5/3.
0V 1
50m
A
1.8/
2.0/
2.6/
2.7/
2.8/
2.9/
3.0/
3.15
250
mA
2.5/
2.6/
2.75
/3.0
V 65
/250
mA
1.8/
2.9
250m
A
3.3V
100
mA
VCC_
BP =
3.6V
Cha
rger
GN
D
2.77
5V 1
00m
A
1.2/
1.5/
2.77
5/3.
15V
200m
A
1.2/
1.5/
1.6/
1.8/
2.7/
2.8/
3.0/
3.15
V 35
0mA
2.7/
2.77
5/2.
5/2.
6V 2
50/3
50m
A
GN
D
DN
PBe
caus
e of
an
orde
r fro
m th
e U
nite
d St
ates
Inte
rnat
iona
l Tra
de C
omm
issi
on,
BGA-
pack
aged
pro
duct
line
s an
d pa
rt nu
mbe
rs in
dica
ted
her
e cu
rrent
ly a
re n
otav
aila
ble
from
Fre
esca
le fo
r im
port
or s
ale
in th
e U
nite
d St
ates
prio
r to
Sept
embe
r20
10: M
C13
892V
K an
d M
C13
892V
L in
139
, 186
MAP
BGA
pack
ages
.
DN
P DN
P
DN
P
RES
ETBM
CU
RES
ETB
VCO
RED
IG
ID0
VCO
RE
VCO
RED
IG
VCO
RE
ADIN
5
INT
GPO
1
TSY2
TSR
EF
TSX1
TSX2
TSY1
GPO
2VC
OR
EDIG
VCO
RE
WD
I
GPO
3
ADIN
6AD
IN7
BATT
ISN
S
CH
RG
ISN
S
TSX2
TSY1
TSY2
TSX1
UID
STAN
DBY
Lice
ll
PWR
ON
3
ID1
UVB
US
BATT
ISN
S
WD
I
TSR
EF
STAN
DBY
SEC
CLK
32K
UVB
US
ID0
GPO
4
BATT
VCO
RE
VCO
RED
IG
REF
CO
RE
ID0
CLK
32KM
CU IN
T
RES
ETBM
CU
STAN
DBY
RES
ETB
STAN
DBY
SEC
UVB
US
PWR
ON
2
ID1
BATT
PWR
ON
1
RES
ETB
RES
ETBM
CU
VCO
RE
BATT
ID0
ID1
GPO
1
PWR
ON
1
ID1
ACIC
_SW
1FB
ACIC
_SW
1
ACIC
_SW
4PW
R_G
T2_S
W4
ACIC
_VIO
HI
ACIC
_SW
4
VBU
SEN
ACIC
_VG
EN3
ACIC
_SW
BSTF
B
DVS
1
CLK
SPIV
CC
DVS
2
ACIC
_SW
1FB
ACIC
_SW
BST
ACIC
_SW
BSTF
B
ACIC
_SW
4
ACIC
_VAU
DIO
MIS
O/S
DA
PWR
_GT1
_SW
1
VCC
_BP
VCC
_BP
ACIC
_SW
4
VCC
_BP
SPIV
CC
VCC
_BP
VCC
_BP
VCC
_BP
ACIC
_VPL
L
ACIC
_VIO
HI
ACIC
_VG
EN1
ACIC
_VG
EN2
ACIC
_SW
4FB
VCC
_BP
VCC
_BP
VCC
_BP
ACIC
_VVI
DEO
VCC
_BP
ACIC
_VU
SB2
ACIC
_SW
BST
VCC
_BP
VCC
_BP
VCC
_BP
VCC
_BP
ACIC
_SW
BST
ACIC
_SW
LED
VCC
_BP
ACIC
_VPL
L
CS
ACIC
_SW
BST
SPIV
CC
ACIC
_VU
SB
ACIC
_SW
2FB
ACIC
_VIO
HI
ACIC
_VD
IG
ACIC
_SW
4
ACIC
_SW
BSTF
B
VCC
_BP
ACIC
_SW
1
VCC
_BP
VCC
_BP
VCC
_BP
ADTR
IG
ACIC
_SW
2
ACIC
_SW
3
ACIC
_SW
4
VCC
_BP
SPIV
CC
ACIC
_SW
4
ACIC_VSRTC
ACIC
_VG
EN1
ACIC
_VG
EN2
ACIC
_VSR
TC
ACIC
_VU
SB
ACIC
_VG
EN3
ACIC
_VC
AM
ACIC
_VSD
ACIC
_SW
4
ACIC
_VC
AM
ACIC
_SW
LED
ACIC
_VIO
HI
CLK
SPIV
CC
ACIC
_SW
4
CH
RG
SE1B
_CTR
L
ACIC
_SW
2FB
VCO
RE
ACIC
_VD
IG
ACIC
_VSD
ACIC
_SW
3FB
ACIC
_SW
4
ACIC
_SW
2
CLK
MO
SI/A
0M
ISO
/SD
AC
S
MO
SI/A
0
ACIC
_SW
4FB
CH
RG
SE1B
_CTR
L
VCC
_BP
PWR
_GT1
_SW
2
MIS
O/S
DA
ACIC
_SW
3FB
CS
ACIC
_VVI
DEO
ACIC
_VU
SB2
ACIC
_VAU
DIO
ACIC
_SW
1
ACIC
_SW
2AC
IC_S
W2F
B
ACIC
_SW
1FB
ACIC
_SW
3AC
IC_S
W3F
B
ACIC
_SW
4
PWR
_GT1
_SW
1
PWR
_GT2
_SW
4
PWR
_GT1
_SW
2
PWR
_GT1
_SW
3
ACIC
_SW
4FB
ACIC
_SW
3PW
R_G
T1_S
W3
ACIC
_VIO
HI
ACIC
_SW
BST
SPIV
CC
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X
VSW
3VS
W3
SW4
FSM
SM
SW4
FSM
SM
12
RST
BR
STB
C51
0.1U
FC
510.
1UF
M2
FDZ1
93P
M2
FDZ1
93P
B2
C2A1C1
A2
B1
C45
0.1U
F
C45
0.1U
F
TPG
ND
7TP
GN
D7
D9
LED
WH
ITED9
LED
WH
ITE
21
D16
LED
WH
ITED16
LED
WH
ITE
21
SW3
FSM
SM
SW3
FSM
SM
12
Q10
NSS
1210
0UW
3Q
10N
SS12
100U
W3
1
2 3
R20
560
R20
560
C19
0.1U
FC
190.
1UF
SW2
FSM
SM
SW2
FSM
SM1
2
D24
LED
_GR
EEN
D24
LED
_GR
EEN
12
C48
2.2U
FC
482.
2UF
TSR
EFTS
REF
VCO
RE
VCO
RE
C8
10.0
uF
C8
10.0
uF
Q7
NSS
1210
0UW
3Q
7N
SS12
100U
W3
1
2 3
VUSB
VUSB
Q11
NSS
1210
0UW
3Q
11N
SS12
100U
W3
1
2 3
J35
HD
R_1
X3J3
5H
DR
_1X3
123
J24
CO
N P
LUG
12
J24
CO
N P
LUG
12
1 2 3 4 5 6 7 8 9 10 1211
STBY
SEC
STBY
SEC
C13
10U
FC
1310
UF
MIS
O/S
DA
MIS
O/S
DA
DVS
1D
VS1
R9
51R
951
VSW
1VS
W1
STBY
STBY
Q2
MG
SF1N
02LT
1GQ
2M
GSF
1N02
LT1G
1
23
VSD
VSD
J41
HD
R_1
X3
J41
HD
R_1
X3123
TPG
ND
13TP
GN
D13
TSX2
TSX2
D17
LED
WH
ITED17
LED
WH
ITE
21
D8
LED
WH
ITED8
LED
WH
ITE
21
Q5
MG
SF1N
02LT
1GQ
5M
GSF
1N02
LT1G
1
23
D13LED_ORANGE D13LED_ORANGE 1 2
C34 2.
2UF
C34 2.
2UF
D21
LED
WH
ITED21
LED
WH
ITE
21
TPG
ND
10TP
GN
D10
J39
HD
R_1
X3
J39
HD
R_1
X3123
C50
2.2U
FC
502.
2UF
J32
HD
R_1
X3J3
2H
DR
_1X3
123
R30
200K
R30
200K
INT
INT
J19
HD
R 1
X2 T
HJ1
9H
DR
1X2
TH
1 2
D2
LED
WH
ITED2
LED
WH
ITE
21
J29
HD
R 1
X2 T
HJ2
9H
DR
1X2
TH 1
2
R32
200
R32
200
J30
HD
R_1
X3J3
0H
DR
_1X3
123
TPG
ND
3TP
GN
D3
SWLE
DSW
LED
TP1
TP1
ADIN
7AD
IN7
L21.
5UH
L21.
5UH
12
WD
IW
DI
R26
200K
R26
200K
D19
LED
WH
ITED19
LED
WH
ITE
21
Q1
2N70
02Q
12N
7002
3
1
2
C1
4.7u
FC
14.
7uF
BATT
BATT
R34
10M
R34
10M
C3
2.2u
F
C3
2.2u
F
ADIN
5AD
IN5
C65
2.2U
FC
652.
2UF
C20
4.7u
FC
204.
7uF
C18
22U
FC
1822
UF
C30
2.2U
FC
302.
2UF
J12
HD
R_1
X3J12
HD
R_1
X3
123
J15
HD
R 2
X7
J15
HD
R 2
X7
12
34
56
78
910
1112
1314
R29
200K
R29
200K
GPO
1G
PO1
VGEN
3VG
EN3
C26
0.1U
FC
260.
1UF
GPO
4G
PO4
R22
0R
220
C61
18PF
C61
18PF
TPG
ND
6TP
GN
D6
Q4
MG
SF1N
02LT
1GQ
4M
GSF
1N02
LT1G
1
23
R5
1.0M
R5
1.0M
J2 BAN
ANA
J2 BAN
ANA
IN1
PWR
GT_
SW3
PWR
GT_
SW3
MO
SI/A
0M
OSI
/A0
TP2
TP2
VGEN
1VG
EN1
C58
2.2U
FC
582.
2UF
TPG
ND
9TP
GN
D9
R10
0R10
0
D23
MBR
120L
SFT1
G
D23
MBR
120L
SFT1
G
21
C41
0.1U
F
C41
0.1U
F
R1 0.02
R1 0.02
C22
0.1U
FC
220.
1UF
R12
0R
120
R14
0R
140
L52.
2uH
L52.
2uH
12
R13
20K
R13
20K
13
2
D5
LED
WH
ITED5
LED
WH
ITE
21
VCO
RED
IGVC
OR
EDIG
R27
200K
R27
200K
C10
22U
FC
1022
UF
C36
2.2U
FC
362.
2UF
R35
200K
R35
200K
C56
2.2U
FC
562.
2UF
C62
18PF
C62
18PF
C31
0.1U
F
C31
0.1U
F
VSW
4VS
W4
VDIG
VDIG
J22
HD
R_1
X3J22
HD
R_1
X3
123
J36
HD
R_1
X3J36
HD
R_1
X3
123
R6
51R
651
CLK
32K
CLK
32K
Q8
NSS
1210
0UW
3Q
8N
SS12
100U
W3
1
2 3
C16
10U
FC
1610
UF
R4
0R
40
VVID
EOVV
IDEO
CH
RG
RAW
CH
RG
RAW
C64
2.2U
FC
642.
2UF
D6
LED
WH
ITED6
LED
WH
ITE
21
J21
HD
R 1
X2 T
HJ2
1H
DR
1X2
TH
12
TPG
ND
11TP
GN
D11
VBU
SEN
VBU
SEN
C47
2.2U
FC
472.
2UF
R31
200
R31
200
J31
HD
R_1
X3J3
1H
DR
_1X3
123
J1
BAN
ANA
J1
BAN
ANA
IN1
VIO
HI
VIO
HI
C28
2.2U
FC
282.
2UF
LIC
ELL
LIC
ELL
TSX1
TSX1
C44
2.2U
FC
442.
2UF
TPG
ND
2TP
GN
D2
D22
LED
WH
ITED22
LED
WH
ITE
21
J6 BAN
ANA
J6 BAN
ANA
IN1
BPBP
C43
2.2U
FC
432.
2UF
C60
2.2U
FC
602.
2UF
J26
HD
R_1
X3J26
HD
R_1
X3
123
CS
CS
C59
0.1U
FC
590.
1UF
C6
10.0
uF
C6
10.0
uF
C32
2.2U
FC
322.
2UF
C11
0.1U
FC
110.
1UF
R19
0R
190
J40
HD
R_1
X3J40
HD
R_1
X3
123
TPG
ND
4TP
GN
D4
R8
1.0M
R8
1.0M
R28
200K
R28
200K
VSW
2VS
W2
C5
10.0
uF
C5
10.0
uF
VCAM
VCAM
GPO
2G
PO2
J8 BAN
ANA
J8 BAN
ANA
IN1
ADIN
6AD
IN6
R17
0R
170
TPG
ND
8TP
GN
D8
GPO
3G
PO3
C40
2.2U
FC
402.
2UF
J25
CO
N_1
X8
J25
CO
N_1
X8
1 2 3 4 5 6 7 8
PWR
GT_
SW1
PWR
GT_
SW1
D10
LED
WH
ITED10
LED
WH
ITE
21
R33
200K
R33
200K
SWBS
TSW
BST
R2
0.1R2
0.1
D14LED_GREEN D14LED_GREEN 1 2
L42.
2uH
L42.
2uH
12
TSY1
TSY1
D3
LED
WH
ITED3
LED
WH
ITE
21
D18
LED
WH
ITED18
LED
WH
ITE
21
J7 HD
R 1
X2 T
HJ7 H
DR
1X2
TH
12
J5 HD
R 1
X2 T
HJ5 H
DR
1X2
TH
12
TPG
ND
12TP
GN
D12
SW1 FS
MSM
SW1 FS
MSM
12
J10
HD
R_2
X3
J10
HD
R_2
X3
12
34 6
5
J4 HD
R 1
X2 T
HJ4 H
DR
1X2
TH
12
J23
HD
R_1
X3
J23
HD
R_1
X3123
J20
HD
R 1
X2 T
HJ2
0H
DR
1X2
TH 12
J14
HD
R_2
X8
J14
HD
R_2
X8
12
34 6
5 78
910
1112
1314
1516
D25
LED
_GR
EEN
D25
LED
_GR
EEN
12
R7
51R
751
VGEN
2VG
EN2
TPG
ND
5TP
GN
D5
SW1
1050
mA
Buck
SW2
800m
ABu
ck
SW3
800m
ABu
ck
SW4
800m
ABu
ck
SWBS
T35
0mA
Boos
t
VVID
EO35
0mA
VUSB
250
mA
VAUD
IO15
0mA
VVIO
HI10
0mA
VPLL
50m
A
VDIG
50m
A
VCAM
250m
A
VSD
250m
A
VGEN
120
0mA
VGEN
235
0mA
VGEN
350
mA
SPI/I
2Cin
terfa
ce
Touc
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inte
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Batte
ryIn
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ce &
Prot
ectio
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terfa
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ntro
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Back
light
LED
Drive
Tri-C
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LED
Drive
Refe
renc
eG
ener
atio
n
VUSB
100m
A
U1
MC
1389
2
SW1
1050
mA
Buck
SW2
800m
ABu
ck
SW3
800m
ABu
ck
SW4
800m
ABu
ck
SWBS
T35
0mA
Boos
t
VVID
EO35
0mA
VUSB
250
mA
VAUD
IO15
0mA
VVIO
HI10
0mA
VPLL
50m
A
VDIG
50m
A
VCAM
250m
A
VSD
250m
A
VGEN
120
0mA
VGEN
235
0mA
VGEN
350
mA
SPI/I
2Cin
terfa
ce
Touc
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Batte
ryIn
terfa
ce &
Prot
ectio
nCh
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terfa
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ntro
l
Back
light
LED
Drive
Tri-C
olor
LED
Drive
Refe
renc
eG
ener
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n
VUSB
100m
A
U1
MC
1389
2
PWG
TDR
V1K4
PWG
TDR
V2M
7
SW1I
NG
13
SW1O
UT
F13
GN
DSW
1E1
3SW
1FB
H10
SW2I
NH
13
SW2O
UT
J13
GN
DSW
2K1
3SW
2FB
J10
SW3I
NH
1
SW3O
UT
G1
GN
DSW
3F1
SW3F
BF4
SW4I
NJ1
SW4O
UT
K1
GN
DSW
4L1
SW4F
BG
4
DVS1D6DVS2B3
SWBS
TIN
A4
SWBS
TOU
TB4
SWBS
TFB
D4
GN
DSW
BST
A5
VVID
EOD
RV
K12
VVID
EOL1
3
VIN
USB
2A3
VUSB
2_1
A1
VAU
DIO
N8
VIN
IOH
IN
10
VIO
HI
N9
VPLL
E2
VIN
DIG
M9
VDIG
M8
VCAM
DR
VM
6
VCAM
K6
VSD
DR
VC
2
VSD
D2
VGEN
1DR
VM
10
VGEN
1N
11
VGEN
2DR
VN
4
VGEN
2M
3
VIN
GEN
3DR
VN
3
VGEN
3_1
M1
GNDREG1J7GNDREG2G5
XTAL1N6
GNDRTCM5XTAL2N5
GNDCTRLH9
MODEA8
PUMS1G9
PWRON1D13
STANDBYJ5
INTE12
WDIG10
RESETBMCUF11
RESETBF12
STANDBYSECH12
CLK32KK5
CLK32KMCUJ4
VSRTCM4
GPO1B2
GPO2F10
GPO3F9
GPO4G12
GNDSUB1F6
GNDSUB2F7
GNDSUB3F8
GNDSUB4G6
GNDSUB5G7
GNDSUB6G8
GNDSUB7H6
GNDSUB8H7
GNDSUB9H8
GN
DAD
CJ6
ADIN
5K9
ADIN
6K1
0
ADIN
7M
11
TSX1
J9
TSX2
J12
TSY1
M12
TSY2
L12
TSR
EF_1
M13
ADTR
IGE1
1
CFP
K7
CFM
K8
SPIV
CC
K2
CS
L2
CLK
M2
MO
SIJ2
MIS
OH
2
GN
DSP
IH
4
VCO
RE
A9
VCO
RED
IGB9
REF
CO
RE
D7
GN
DC
OR
EB8
UID
E6
UVB
US
E1
VBU
SEN
F2
VIN
USB
G2
VUSB
D1
LIC
ELL
D9
BATTA10
BATTISNSC13
BATTFETD10
BPB10
BPSNSD12
CHRGISNSC12
CHRGCTRL2_1A12
CHRGCTRL1B11
CHRGRAWA11
CHRGLEDE9
CHRGSE1BD8
GNDCHRGE8
NCA7
LEDMDD5
LEDADF5
LEDKPB6
GNDSWLEDA6
LEDRB7
LEDGE4
LEDBB5
GNDLEDE5
VUSB
2_2
A2
VUSB
2_3
B1
CHRGCTRL2_2A13
CHRGCTRL2_3B13
VIN
PLL
C1
PWRON2E10
PWRON3J8
PUM
S2E7
GNDREG3H5VG
EN3_
2N
1
VGEN
3_3
N2
TSR
EF_2
N12
TSR
EF_3
N13
BATT
ISN
SCC
B12
VIN
AUD
ION
7
VPLL
VPLL
J38
HD
R_1
X3J3
8H
DR
_1X3
123
C67
2.2U
FC
672.
2UF
J33
HD
R 1
X2 T
HJ3
3H
DR
1X2
TH 1
2
CLK
32KM
CU
CLK
32KM
CU
Q12
2N70
02Q
122N
7002
3
1
2
C27
2.2U
FC
272.
2UF
C23
4.7u
FC
234.
7uF
C24
10.0
uF
C24
10.0
uF
C52
2.2U
FC
522.
2UF
C37
0.1U
F
C37
0.1U
FC
382.
2UF
C38
2.2U
F
R21
560
R21
560
C53
0.1U
F
C53
0.1U
F
D7
MBR
140S
FTD
7M
BR14
0SFT
21
Y1
32.7
68KH
Z
Y1
32.7
68KH
Z
21
C21
10U
FC
2110
UF
C54
2.2U
FC
542.
2UF
Q9
NSS
1210
0UW
3Q
9N
SS12
100U
W3
1
2 3
J27
HD
R_1
X3J2
7H
DR
_1X3
123
C49
0.1U
FC49
0.1U
F
R3
0R
30
Q3
MG
SF1N
02LT
1GQ
3M
GSF
1N02
LT1G
1
23
REF
CO
RE
REF
CO
RE
PWR
GT_
SW4
PWR
GT_
SW4
J13
HD
R_1
X3
J13
HD
R_1
X3123
C12
4.7u
FC
124.
7uF
TPG
ND
1TP
GN
D1
J16
HD
R 1
X2 T
HJ16
HD
R 1
X2 T
H
12
C39
0.1U
F
C39
0.1U
F
C4
10.0
uF
C4
10.0
uF
D15 BL
UE
D15 BL
UE
1 2
C15
4.7u
FC
154.
7uF
CLK
CLK
M3
NTH
S210
1PM
3N
THS2
101P
8
241
5
367
L32.
2uH
L32.
2uH
12
J37
HD
R_1
X3
J37
HD
R_1
X3123
PWR
GT_
SW2
PWR
GT_
SW2
C9
4.7u
FC
94.
7uF
RST
BMC
UR
STBM
CU
C29
0.1U
F
C29
0.1U
F
J17
CO
N P
LUG
12
J17
CO
N P
LUG
12
1 2 3 4 5 6 7 8 9 10 1211
D4
LED
WH
ITED4
LED
WH
ITE
21
C35
0.1U
FC
350.
1UF
C25
10.0
uFC
2510
.0uF
DVS
2D
VS2
J18
CO
N P
LUG
12
J18
CO
N P
LUG
12
1234567891012 11
TSY2
TSY2
R11
0R11
0
R18
0R
180
C7
10.0
uF
C7
10.0
uF
Q6
NSS
1210
0UW
3Q
6N
SS12
100U
W3
1
2 3
M1FD
Z193
P
M1FD
Z193
P
B2
C2A1C1
A2
B1
VUSB
2VU
SB2
C63
2.2U
FC
632.
2UF
C66
2.2U
FC
662.
2UF
UID
UID
L6
2.2u
H
L6
2.2u
H1
2
J28
HD
R_1
X3
J28
HD
R_1
X3123
R15
0R
150
L13.
3uH
L13.
3uH
12
C42
0.1U
F
C42
0.1U
F
C2
10.0
uF
C2
10.0
uF
D11
LED
WH
ITED11
LED
WH
ITE
21
D12
LED_ORANGE
D12
LED_ORANGE1 2
D20
LED
WH
ITED20
LED
WH
ITE
21
C33
2.2U
FC
332.
2UF
VAU
DIO
VAU
DIO
D1
LED
WH
ITED1
LED
WH
ITE
21
J3 HD
R 1
X2 T
HJ3 H
DR
1X2
TH
12
C55
0.1U
F
C55
0.1U
F
J34
HD
R_1
X3J34
HD
R_1
X3
123
J9 HD
R 1
X2 T
H
J9 HD
R 1
X2 T
H
12
C57
0.1U
FC
570.
1UF
C14
0.1U
FC
140.
1UF
Q13
2N70
02Q
132N
7002
3
1
2
C46
2.2U
FC
462.
2UF
BT1
HU
2477
N-L
FBT1
HU
2477
N-L
F
2 1
C17
2.2U
FC
172.
2UF
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
17 Freescale Semiconductor
Schematics
Figure 10. KIT13892VLEVBEJ Schematic (12x12)
5 5
4 4
3 3
2 2
1 1
DD
CC
BB
AA
1.2/
1.25
/1.6
5/1.
8V 5
0mA
1.05
/1.2
5/1.
65/1
.8V
50m
A
2.40
/2.6
0/2.
70/2
.775
V 50
mA
2.3/
2.5/
2.77
5/3.
0V 1
50m
A
1.8/
2.0/
2.6/
2.7/
2.8/
2.9/
3.0/
3.15
250
mA
2.5/
2.6/
2.75
/3.0
V 65
/250
mA
1.8/
2.9
250m
A
3.3V
100
mA
VCC_
BP =
3.6V
Cha
rger
GN
D
2.77
5V 1
00m
A
1.2/
1.5/
2.77
5/3.
15V
200m
A
1.2/
1.5/
1.6/
1.8/
2.7/
2.8/
3.0/
3.15
V 35
0mA
2.7/
2.77
5/2.
5/2.
6V 2
50/3
50m
A
GN
D
Batte
ry
Lice
ll ba
se m
ust b
e po
pula
ted
but b
atte
ry m
ust n
ot b
e pl
aced
VCO
RED
IGVC
OR
E
ADIN
6AD
IN5
ADIN
7
BATT
ISN
S
CH
RG
ISN
S
TSX2
TSY1
TSY2
TSX1
UID
TSR
EF
Lice
ll
GPO1GPO2GPO3GPO4
PWR
ON
3
ID1
UVB
US
BATT
ISN
S
UVB
US
ID0
BATT
VCO
RE
VCO
RED
IG
REF
CO
RE
ID0
UVB
US
PWR
ON
2
VCO
RE
ID1
BATT
PWR
ON
1
VCO
RE
BATT
VCO
RED
IG
ID0
VCO
RE
VCO
RED
IG
VCO
RE
ID0
ID1
PWR
ON
1
TSY2
TSR
EF
TSX1
TSX2
TSY1
ID1
ACIC
_VG
EN3
ACIC
_SW
BSTF
B
DVS
1
CLK
RES
ETB
SPIV
CC
RES
ETBM
CU
DVS
2
ACIC
_SW
1FB
ACIC
_SW
4
ACIC
_VAU
DIO
MIS
O/S
DA
PWR
_GT1
_SW
1
VCC
_BP
VCC
_BP
ACIC
_SW
4
VCC
_BP
SPIV
CC
VCC
_BP
VCC
_BP
VCC
_BP
ACIC
_VPL
L
ACIC
_VIO
HI
ACIC
_VG
EN1
ACIC
_VG
EN2
ACIC
_SW
4FB
VCC
_BP
VCC
_BP
VCC
_BP
INT
ACIC
_VVI
DEO
VCC
_BP
GPO
4
ACIC
_VU
SB2
ACIC
_SW
BST
CLK
32K
VCC
_BP
VCC
_BP
VCC
_BP
VCC
_BP
ACIC
_SW
BST
ACIC
_SW
LED
VCC
_BP
CS
ACIC
_SW
BST
SPIV
CC
ACIC
_VU
SB
ACIC
_SW
2FB
ACIC
_VIO
HI
ACIC
_VD
IG
ACIC
_SW
4
ACIC
_SW
BSTF
B
RES
ETB
RES
ETBM
CU
VCC
_BP
ACIC
_SW
1
VCC
_BP
VCC
_BP
VCC
_BP
ADTR
IG
ACIC
_SW
2
ACIC
_SW
3
ACIC
_SW
4
VCC
_BP
SPIV
CC
ACIC
_SW
4
GPO
1
ACIC_VSRTC
GPO
3
ACIC
_SW
4
ACIC
_VC
AM
ACIC
_SW
LED
ACIC
_VIO
HI
CLK
WD
I
SPIV
CC
ACIC
_SW
4
WD
IC
HR
GSE
1B_C
TRL
STAN
DBY
SEC
RES
ETB
RES
ETBM
CU
STAN
DBY
ACIC
_SW
2FB
STAN
DBY
SEC
GPO
2
ACIC
_VSD
ACIC
_SW
3FB
ACIC
_SW
4
ACIC
_SW
2
CLK
MO
SIM
ISO
/SD
AC
S
MO
SI
ACIC
_SW
4FB
CH
RG
SE1B
_CTR
L
VCC
_BP
PWR
_GT1
_SW
2
MIS
O/S
DA
ACIC
_SW
3FB
CS
INT
GPO
1
ACIC
_SW
3PW
R_G
T1_S
W3
ACIC
_VIO
HI
CLK
32KM
CU
ACIC
_SW
1FB
ACIC
_SW
1
ACIC
_SW
4PW
R_G
T2_S
W4
STAN
DBY
ACIC
_SW
4
VBU
SEN
ACIC
_SW
BST
ACIC
_SW
BST
ACIC
_SW
BSTF
B
ACIC
_VPL
L
ACIC
_VG
EN1
ACIC
_VG
EN2
ACIC
_VSR
TC
ACIC
_VU
SB
ACIC
_VG
EN3
ACIC
_VC
AM
ACIC
_VSD
ACIC
_VD
IG
ACIC
_VVI
DEO
ACIC
_VU
SB2
ACIC
_VAU
DIO
ACIC
_SW
1
ACIC
_SW
2AC
IC_S
W2F
B
ACIC
_SW
1FB
ACIC
_SW
3AC
IC_S
W3F
B
ACIC
_SW
4
PWR
_GT1
_SW
1
PWR
_GT2
_SW
4
PWR
_GT1
_SW
2
PWR
_GT1
_SW
3
ACIC
_SW
4FB
ACIC
_VIO
HI
SPIV
CC
Dra
win
g Ti
tle:
Size
Doc
umen
t Num
ber
Rev
Dat
e:Sh
eet
of
Page
Titl
e:
ICAP
Cla
ssifi
catio
n:FC
P:FI
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3X64062-FPS :F
DP 64062-H
CS
MC
1389
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Wed
nesd
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03, 2
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MC
1389
2VL
INTE
RFA
CE
33
______
XD
raw
ing
Title
:
Size
Doc
umen
t Num
ber
Rev
Dat
e:Sh
eet
of
Page
Titl
e:
ICAP
Cla
ssifi
catio
n:FC
P:FI
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BI:
3X64062-FPS :F
DP 64062-H
CS
MC
1389
2VL
EV
B
C
Wed
nesd
ay, J
une
03, 2
009
MC
1389
2VL
INTE
RFA
CE
33
______
XD
raw
ing
Title
:
Size
Doc
umen
t Num
ber
Rev
Dat
e:Sh
eet
of
Page
Titl
e:
ICAP
Cla
ssifi
catio
n:FC
P:FI
UO
:PU
BI:
3X64062-FPS :F
DP 64062-H
CS
MC
1389
2VL
EV
B
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Wed
nesd
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03, 2
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MC
1389
2VL
INTE
RFA
CE
33
______
X
C15
4.7u
FC
154.
7uF
J38
HD
R_1
X3J3
8H
DR
_1X3
123
R34
10M
DN
PR
3410
MD
NP
TP55
TP55
TP33
TP33
J29
HD
R 1
X2 T
HJ2
9H
DR
1X2
TH 1
2
C3
2.2u
F
C3
2.2u
F
SW2
FSM
SM
SW2
FSM
SM1
2
TPG
ND
1TP
GN
D1
D2
LED
WH
ITED2
LED
WH
ITE
21
C17
2.2U
FC
172.
2UF
L52.
2uH
L52.
2uH
12
C29
0.1U
FC
290.
1UF
TP39
TP39
TPG
ND
7TP
GN
D7
R28
200K
R28
200K
C11
0.1U
FC
110.
1UF
R12
0R
120
Y1
32.7
68KH
Z
Y1
32.7
68KH
Z
21
C54
2.2U
FC
542.
2UF
R22
0R
220
R26
200K
R26
200K
J23
HD
R_1
X3
J23
HD
R_1
X3123
TP8
TP8
TP23
TP23
TP29
TP29
TP18
TP18
R13
20K
R13
20K
13
2
TP31
TP31
TP2
TP2
TP34
TP34
C65
2.2U
FC
652.
2UF
Q8
NSS
1210
0UW
3Q
8N
SS12
100U
W3
1
2 3
TP26
TP26
C2
10.0
uF
C2
10.0
uF
D25
LED
_GR
EEN
D25
LED
_GR
EEN
12
Q12
2N70
02Q
122N
7002
3
1
2
TP27
TP27
Q10
NSS
1210
0UW
3Q
10N
SS12
100U
W3
1
2 3
C47
2.2U
FC
472.
2UF
TP35
TP35
C63
2.2U
FC
632.
2UF
D7
MBR
140S
FTD
7M
BR14
0SFT
21
J15
HD
R 2
X7
J15
HD
R 2
X7
12
34
56
78
910
1112
1314
J28
HD
R_1
X3
J28
HD
R_1
X3123
TP14
TP14
J6 BAN
ANA
J6 BAN
ANA
IN1
TPG
ND
12TP
GN
D12
R8
1.0M
R8
1.0M
C14
0.1U
FC
140.
1UF
C42
0.1U
F
C42
0.1U
F
TPG
ND
8TP
GN
D8
C43
2.2U
FC
432.
2UF
R31
200
R31
200
D16
LED
WH
ITED16
LED
WH
ITE
21
Q3
MG
SF1N
02LT
1GQ
3M
GSF
1N02
LT1G
1
23
D12
LED_ORANGE D12
LED_ORANGE1 2
C32
2.2U
FC
322.
2UF
D4
LED
WH
ITED4
LED
WH
ITE
21
C12
4.7u
FC
124.
7uF
R3
0R
30
C55
0.1U
F
C55
0.1U
F
M3
NTH
S210
1PM
3N
THS2
101P
8
241
5
367
TP22
TP22
C16
10U
FC
1610
UF
J34
HD
R_1
X3J34
HD
R_1
X3
123
C57
0.1U
FC
570.
1UF
C53
0.1U
F
C53
0.1U
F
C9
4.7u
FC
94.
7uF L4
2.2u
HL4
2.2u
H1
2
TP9
TP9
C20
4.7u
FC
204.
7uF
C52
2.2U
FC
522.
2UF
C35
0.1U
FC
350.
1UF
TPG
ND
4TP
GN
D4
L13.
3uH
L13.
3uH
12
TP4
TP4
TP46
TP46
C7
10.0
uF
C7
10.0
uF
TPG
ND
3TP
GN
D3
C59
0.1U
FC
590.
1UF
C1
4.7u
FC
14.
7uF
TP37
TP37
SW1
1050
mA
Buck
SW2
800m
ABu
ck
SW3
800m
ABu
ck
SW4
800m
ABu
ck
SWBS
T35
0mA
Boos
t
VVID
EO35
0mA
VUSB
250
mA
VAUD
IO15
0mA
VVIO
HI10
0mA
VPLL
50m
A
VDIG
50m
A
VCAM
250m
A
VSD
250m
A
VGEN
120
0mA
VGEN
235
0mA
VGEN
350
mA
SPI/I
2Cin
terfa
ce
Touc
hSc
reen
inte
rface
Batte
ryIn
terfa
ce &
Prot
ectio
nCh
arge
rIn
terfa
cean
d Co
ntro
l
Back
light
LED
Drive
Tri-C
olor
LED
Drive
Refe
renc
eG
ener
atio
n
VUSB
100m
A
U1A
MC
1389
2_BG
A186
SW1
1050
mA
Buck
SW2
800m
ABu
ck
SW3
800m
ABu
ck
SW4
800m
ABu
ck
SWBS
T35
0mA
Boos
t
VVID
EO35
0mA
VUSB
250
mA
VAUD
IO15
0mA
VVIO
HI10
0mA
VPLL
50m
A
VDIG
50m
A
VCAM
250m
A
VSD
250m
A
VGEN
120
0mA
VGEN
235
0mA
VGEN
350
mA
SPI/I
2Cin
terfa
ce
Touc
hSc
reen
inte
rface
Batte
ryIn
terfa
ce &
Prot
ectio
nCh
arge
rIn
terfa
cean
d Co
ntro
l
Back
light
LED
Drive
Tri-C
olor
LED
Drive
Refe
renc
eG
ener
atio
n
VUSB
100m
A
U1A
MC
1389
2_BG
A186
PWG
TDR
V1P3
PWG
TDR
V2N
8
SW1I
N_1
H13
SW1O
UT
F14
GN
DSW
1_1
G13
SW1F
BG
12
SW2I
N_1
J13
SW2O
UT
L14
GN
DSW
2_1
K13
SW2F
BJ1
2
SW3I
N_1
H1
SW3O
UT
F1
GN
DSW
3_1
G1
SW3F
BG
3
SW4I
N_1
J1
SW4O
UT
L1
GN
DSW
4_1
K1SW
4FB
J3
DVS1B7DVS2C2
SWBS
TIN
A5
SWBS
TOU
TA4
SWBS
TFB
C3
GN
DSW
BST
D5
VVID
EOD
RV
K12
VVID
EOL1
3
VIN
USB
2A3
VUSB
2A2
VAU
DIO
N7
VIN
IOH
IN
10
VIO
HI
N9
VPLL
D2
VIN
DIG
P11
VDIG
L9
VCAM
DR
VM
7
VCAM
L7
VSD
DR
VB1
VSD
C1
VGEN
1DR
VM
10
VGEN
1M
11
VGEN
2DR
VP4
VGEN
2N
3
VIN
GEN
3DR
VM
2
VGEN
3N
1
GNDREG1P12GNDREG2E2
XTAL1N6
GNDRTCP6XTAL2N5
GNDCTRLF11
MODEA8
PUMS1C14
PWRON1D11
STANDBYM6
INTE13
WDIF12
RESETBMCUE14
RESETBF13
STANDBYSECL12
CLK32KM4
CLK32KMCUM3
VSRTCM5
GPO1B2
GPO2E12
GPO3C13
GPO4D14
GN
DAD
CN
11
ADIN
5N
12
ADIN
6P1
3
ADIN
7N
13
TSX1
M12
TSX2
M13
TSY1
M14
TSY2
L11
TSR
EF_1
N14
ADTR
IGD
13
CFP
M8
CFM
M9
SPIV
CC
K3
CS
L2
CLK
M1
MO
SIN
2
MIS
OP2
GN
DSP
IL3
VCO
RE
A9
VCO
RED
IGC
9
REF
CO
RE
B8
GN
DC
OR
EB9
UID
B6
UVB
US
E1
VBU
SEN
F2
VIN
USB
F3
VUSB
D1
LIC
ELL
C10
BATTA10
BATTISNSB14
BATTFETC11
BPB11
BPSNSC12
CHRGISNSA13
CHRGCTRL2A12
CHRGCTRL1D9
CHRGRAWA11
CHRGLEDD10
CHRGSE1BB10
GNDCHRGB12
SWLEDOUTA7
LEDMDD7
LEDADC7
LEDKPC6
GNDSWLEDD8
LEDRB5
LEDGC5
LEDBC4
GNDLEDD6
VIN
PLL
E3
PWRON2E11
PWRON3D12
PUM
S2C
8
GNDREG3N4
BATT
ISN
SCC
B13
VIN
AUD
IOL8
SW1I
N_2
H14
SW2I
N_2
J14
GN
DSW
1_2
G14
GN
DSW
2_2
K14
GN
DSW
3_2
G2
GN
DSW
4_2
K2
SW3I
N_2
H2
SW4I
N_2
J2
D10
LED
WH
ITED10
LED
WH
ITE
21
TP32
TP32
J24
CO
N P
LUG
12
J24
CO
N P
LUG
12
1 2 3 4 5 6 7 8 9 10 1211C
332.
2UF
C33
2.2U
F
TP6
TP6
J37
HD
R_1
X3
J37
HD
R_1
X3123
TPG
ND
11TP
GN
D11
TP28
TP28
R19
0R
190
J5 HD
R 1
X2 T
HJ5 H
DR
1X2
TH
12
TP47
TP47
D3
LED
WH
ITED3
LED
WH
ITE
21
TP11
TP11
TP16
TP16
C13
10U
FC
1310
UF
TP50
TP50
C4
10.0
uF
C4
10.0
uF
Q6
NSS
1210
0UW
3
Q6
NSS
1210
0UW
31
2 3
C48
2.2U
FC
482.
2UF
D17
LED
WH
ITED17
LED
WH
ITE
21
D11
LED
WH
ITED11
LED
WH
ITE
21
C46
2.2U
FC
462.
2UF
C40
2.2U
FC
402.
2UF
TP53
TP53
D21
LED
WH
ITED21
LED
WH
ITE
21
J39
HD
R_1
X3
J39
HD
R_1
X3123
C23
4.7u
FC
234.
7uF
C39
0.1U
FC39
0.1U
F
J8 BAN
ANA
J8 BAN
ANA
IN1
C66
2.2U
FC
662.
2UF
J3 HD
R 1
X2 T
HJ3 H
DR
1X2
TH
12
BT1
HU
2477
N-L
FBT1
HU
2477
N-L
F
2 1
D24
LED
_GR
EEN
D24
LED
_GR
EEN
12
C61
18PF
C61
18PF
TP43
TP43
TP15
TP15
R5
1.0M
R5
1.0M
J35
HD
R_1
X3J3
5H
DR
_1X3
123
C31 0.
1UF
C31 0.
1UF
TP19
TP19
TP5
TP5
TP10
TP10
TP30
TP30
R21
560
R21
560
Q7
NSS
1210
0UW
3Q
7N
SS12
100U
W3
1
2 3
L21.
5UH
L21.
5UH
12
R10
0R10
0
J14
HD
R_2
X8
J14
HD
R_2
X8
12
346
578
910
1112
1314
1516
J27
HD
R_1
X3J2
7H
DR
_1X3
123
Q2
MG
SF1N
02LT
1GQ
2M
GSF
1N02
LT1G
1
23
C56
2.2U
FC
562.
2UF
TP58
TP58
J16
HD
R 1
X2 T
HJ16
HD
R 1
X2 T
H
12
L6
2.2u
H
L6
2.2u
H1
2
D9
LED
WH
ITED9
LED
WH
ITE
21
J12
HD
R_1
X3
J12
HD
R_1
X3
123
L32.
2uH
L32.
2uH
12
SW4
FSM
SM
SW4
FSM
SM
12
R14
0R
140
R20
560
R20
560
C5
10.0
uF
C5
10.0
uF
C26
0.1U
FC
260.
1UF
R17
0R
170
TP38
TP38
C27
2.2U
FC
272.
2UF
D20
LED
WH
ITED20
LED
WH
ITE
21
M1FD
Z193
P
M1FD
Z193
P
B2
C2A1C1
A2
B1
J30
HD
R_1
X3J3
0H
DR
_1X3
123
R29
200K
DN
P
R29
200K
DN
P
J32
HD
R_1
X3J3
2H
DR
_1X3
123
D15 BL
UE
D15 BL
UE
1 2
TP41
TP41
J10
HD
R_2
X3
J10
HD
R_2
X3
12
34 6
5
R1 0.02
R1 0.02
TP56
TP56
J41
HD
R_1
X3
J41
HD
R_1
X3123
TPG
ND
10TP
GN
D10
D6
LED
WH
ITED6
LED
WH
ITE
21
D1
LED
WH
ITED1
LED
WH
ITE
21
C51
0.1U
FC
510.
1UF
Q4
MG
SF1N
02LT
1GQ
4M
GSF
1N02
LT1G
1
23
R7
51R
751
C21
10U
FC
2110
UF
TPG
ND
5TP
GN
D5
TP12
TP12
TPG
ND
13TP
GN
D13
C18
22U
FC
1822
UF
J13 H
DR
_1X3
J13 H
DR
_1X3
123
J2 BAN
ANA
J2 BAN
ANA
IN1
C60
2.2U
FC
602.
2UF
TP52
TP52
Q1
2N70
02Q
12N
7002
3
1
2
C58
2.2U
FC
582.
2UF
J26
HD
R_1
X3J26
HD
R_1
X3
123
C67
2.2U
FC
672.
2UF
D18
LED
WH
ITED18
LED
WH
ITE
21
TP3
TP3
Q13
2N70
02Q
132N
7002
3
1
2
C49
0.1U
F
C49
0.1U
F
J7 HD
R 1
X2 T
HJ7 H
DR
1X2
TH
12
C6
10.0
uF
C6
10.0
uF
D22
LED
WH
ITED22
LED
WH
ITE
21
TPG
ND
6TP
GN
D6
TP40
TP40
TP42
TP42
M2
FDZ1
93P
M2
FDZ1
93P
B2
C2A1C1
A2
B1
TP20
TP20
R35
200K
R35
200K
C8
10.0
uF
C8
10.0
uF
C37
0.1U
FC37
0.1U
F
R4
0R
40
D5
LED
WH
ITED5
LED
WH
ITE
21
Q11
NSS
1210
0UW
3Q
11N
SS12
100U
W3
1
2 3
TP21
TP21
C41
0.1U
F
C41
0.1U
F
R11
0R11
0
J22
HD
R_1
X3J22
HD
R_1
X3
123
SW3
FSM
SM
SW3
FSM
SM
12
R30
200K
R30
200K
C22
0.1U
FC
220.
1UF
C24
10.0
uF
C24
10.0
uFJ9 HD
R 1
X2 T
H
J9 HD
R 1
X2 T
H
12
TP36
TP36
C19
0.1U
FC
190.
1UF
R32
200
R32
200
TP54
TP54
TP45
TP45
C34
2.2U
FC
342.
2UF
R9
51R
951
C62
18PF
C62
18PF
J17
CO
N P
LUG
12
J17
CO
N P
LUG
12
1 2 3 4 5 6 7 8 9 10 1211
TP51
TP51
TP44
TP44
J33
HD
R 1
X2 T
HJ3
3H
DR
1X2
TH 1
2
R27
200K
DN
P
R27
200K
DN
P
C10
22U
FC
1022
UF
TPG
ND
9TP
GN
D9
J1
BAN
ANA
J1
BAN
ANA
IN1
D19
LED
WH
ITED19
LED
WH
ITE
21
Q5
MG
SF1N
02LT
1GQ
5M
GSF
1N02
LT1G
1
23
TP17
TP17
TP13
TP13
R6
51R
651
C45
0.1U
F
C45
0.1U
F
TP49
TP49
J19
HD
R 1
X2 T
HJ1
9H
DR
1X2
TH
1 2
R18
0R
180
TP24
TP24
J31
HD
R_1
X3J3
1H
DR
_1X3
123
C36
2.2U
FC
362.
2UF
D14LED_GREEN D14LED_GREEN 1 2
J4 HD
R 1
X2 T
HJ4 H
DR
1X2
TH
12
J18
CO
N P
LUG
12
J18
CO
N P
LUG
12
1234567891012 11
TPG
ND
2TP
GN
D2
TP48
TP48
C25
10.0
uFC
2510
.0uF
TP59
TP59
J36
HD
R_1
X3J36
HD
R_1
X3
123
J25
CO
N_1
X8
J25
CO
N_1
X8
1 2 3 4 5 6 7 8
D13LED_ORANGE D13LED_ORANGE 1 2
TP25
TP25
C30
2.2U
FC
302.
2UF
J21
HD
R 1
X2 T
HJ2
1H
DR
1X2
TH
12
D23
MBR
120L
SFT1
G
D23
MBR
120L
SFT1
G
21
C64
2.2U
FC
642.
2UF
TP1
TP1
R33
200K
DN
P
R33
200K
DN
P
SW1 FS
MSM
SW1 FS
MSM
12
TP57
TP57
Q9
NSS
1210
0UW
3Q
9N
SS12
100U
W3
1
2 3
J20
HD
R 1
X2 T
HJ2
0H
DR
1X2
TH 12
C38
2.2U
FC
382.
2UF
C44
2.2U
FC
442.
2UF
R2
0.1R2
0.1
C50
2.2U
FC
502.
2UF
R15
0R
150
U1B MC
1389
2_BG
A186
U1B MC
1389
2_BG
A186
GN
DSU
B1_1
A6
GN
DSU
B1_2
B3
GN
DSU
B1_3
B4
GN
DSU
B1_4
D3
GN
DSU
B1_5
D4
GN
DSU
B1_6
E4
GN
DSU
B1_7
E5
GN
DSU
B1_8
E6
GN
DSU
B2_1
E7
GN
DSU
B2_2
E8
GN
DSU
B2_3
E9
GN
DSU
B2_4
E10
GN
DSU
B2_5
F4
GN
DSU
B2_6
F5
GN
DSU
B2_7
F6
GN
DSU
B3_9
G8
GN
DSU
B3_1
F7
GN
DSU
B3_2
F8
GN
DSU
B3_3
F9
GN
DSU
B3_4
F10
GN
DSU
B3_5
G4
GN
DSU
B3_6
G5
GN
DSU
B3_7
G6
GN
DSU
B3_8
G7
GN
DSU
B4_1
G9
GN
DSU
B4_2
G10
GN
DSU
B4_3
G11
GN
DSU
B4_4
H3
GN
DSU
B4_5
H5
GN
DSU
B4_6
H6
GN
DSU
B4_7
H7
GN
DSU
B4_8
H8
GN
DSU
B5_1
H9
GN
DSU
B5_2
H10
GN
DSU
B5_3
H12
GN
DSU
B5_4
J5
GN
DSU
B5_5
J6
GN
DSU
B5_6
J7
GN
DSU
B6_1
J8
GN
DSU
B6_2
J9
GN
DSU
B6_3
J10
GN
DSU
B6_4
K4
GN
DSU
B6_5
K5
GN
DSU
B6_6
K6
GN
DSU
B6_7
K7
GN
DSU
B7_1
K8
GN
DSU
B7_2
K10
GN
DSU
B7_3
L4
GN
DSU
B7_4
L5
GN
DSU
B7_5
L6
GN
DSU
B7_6
L10
GN
DSU
B8_1
P5
GN
DSU
B8_2
P7
GN
DSU
B8_3
P8
GN
DSU
B8_4
P9
GN
DSU
B8_5
P10
D8
LED
WH
ITED8
LED
WH
ITE
21
J40
HD
R_1
X3J40
HD
R_1
X3
123
C28
2.2U
FC
282.
2UF
TP7
TP7
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
18 Freescale Semiconductor
Schematics
Figure 11. KITUSBCOMDGL Schematic
USBDPUSBDN
VUSB33
EXTAL_JM60XTAL_JM60
GND
RST_JM60
BKGD_JM60
VUSB33USB_PWR
USB_PWR
SPSCKMOSIMISO
/SS
TxD_JMRxD_JM
PWM3PWM2
PWM1PWM0
PWMSYNC
GPIO0GPIO1GPIO2ADC0ADC1ID0ID1
SCLSDA
USB_PWR MAIN ICMC9S08JM8CLC
R181.50K
DNP
R181.50K
DNP
C35
0.10UF
C35
0.10UF
C8
0.10UF
C8
0.10UF
C10.47UFC10.47UF
C34
0.10UF
C34
0.10UF
R201.50KDNP
R201.50KDNP
+ C310UF
+ C310UF
C36
0.10UF
C36
0.10UF
U1
MC9S08JM8CLCE
U1
MC9S08JM8CLCE
IRQ/TPMCLK1RESET2PTF4/TPM2CH03PTF5/TPM2CH14PTE0/TXD15PTE1/RXD16PTE2/TPM1CH07PTE3/TPM1CH18PTE4/MISO19PTE5/MOSI110PTE6/SPSCK111PTE7/SS112
VD
D13
VS
S14
USBDN15USBDP16
VU
SB
3317
PTB4/KBIP4/ADP4 18PTB5/KBIP5/ADP5 19PTD0/ADP8/ACMP+ 20PTD1/ADP9/ACMP- 21
VD
DA
D/V
RE
FH22
VS
SA
D/V
RE
FL23
PTD2/KBIP2/ACMP0 24PTG2/KBIP6 25PTG3/KBIP7 26BKGD/MS 27PTG4/XTAL 28PTG5/EXTAL 29
VS
SO
SC
30
PTC0/SCL 31PTC1/SDA 32
C2
0.10UF
C2
0.10UF
C5
0.10UF
C5
0.10UF
+ C4
4.7UF
+ C4
4.7UF
C33
0.10UF
C33
0.10UF
USBDN
USB_PWR
USBDP
GNDGND
D-D+G
VV
USB_PWR
USB_PWR
USB Connector Type A
R1633
R1633
1 2
L1HI1812V101R-10L1HI1812V101R-10
12
D1HSMG-C170
D1HSMG-C170
21
R1270.0
R1270.0
1 2
L2HI1812V101R-10L2HI1812V101R-10
12
R1733
R1733
1 2
F10.5AF10.5A
12
TP1TP1
1
VD-D+G
J1USB_TYPE_A
VD-D+G
J1USB_TYPE_A
S1
A1A2A3A4
S2
ID0 ID1GNDGND
ID0 ID1GNDLDO_VSCL_VT
SDA_VT
MISO_VTMOSI_VTSPSCK_VT
USB_PWRLDO_V
ID0ID1
ADC0ADC1
LDO_VGNDADC0 ADC1
TxDRxD
GPIO2_VT GPIO1_VTGPIO0_VT PWMSYNC_VTPWM3_VT PWM2_VTPWM1_VT PWM0_VT
GND
/SS_VT
PWMSYNC_VTPWM3_VT
PWM2_VT PWM1_VTPWM0_VT
ID0 ID1
CONNECTORS
( COMM_V )
( COMM_V )
( COMM_V )
C40
0.10UF
C40
0.10UF
C39
0.10UF
C39
0.10UF
J9
HDR_2X8
J9
HDR_2X8
1 23 4
657 89 10
11 1213 1415 16
C37
0.10UF
C37
0.10UF
J8
HDR_2X7
J8
HDR_2X7
1 23 45 67 89 10
11 1213 14
J6
HDR 2X3
J6
HDR 2X3
1 23 4
65C38
0.10UF
C38
0.10UF
J7
HDR 2X3
J7
HDR 2X3
1 23 4
65
EXTAL_JM60XTAL_JM60 EXTAL_JM60
GND
GND
Crystal
Y1
12 MHz
Y1
12 MHz
I/O11 GND4 4
I/O3 3GND22
R21 1.0MR21 1.0M12
C1122PFC1122PF
12
C1022PFC1022PF
12
USB_PWR
BKGD_JM60 GNDRST_JM60
USB_PWR
BDM Programmer
J2
HDR 2X3
J2
HDR 2X3
1 23 4
65
R254.70KR254.70K R26
4.70KR264.70K
LDO_OUTUSB_PWR
LDO_OUT
USB_PWR
LDO_V
VOUT = 1.242 X ( (R2/R1) + 1) R2 = ((VOUT/1.242) -1) X R1
R2
R1
LDO REGULATOR
J5 (1-2) for 3.3VJ5 (2-3) for 1.8V
or MIC5235 (Ceramic Cap)
( COMM_V )
C211.0UFC211.0UF
J5J5
123 + C242.2UF
+ C242.2UF
U8
MIC5205
U8
MIC5205
IN1
GND2
ADJ4
EN3
OUT 5
J3J3
123C232.2uFDNP
C232.2uFDNP
R3120KR3120K
R305.36KR305.36K
C22470PFC22470PF
R2712.0KR2712.0K
FIDDUCIALSFID2
FID100 Mil Mask
FID2FID
100 Mil Mask
FID3FID
100 Mil Mask
FID3FID
100 Mil Mask
FID1FID
100 Mil Mask
FID1FID
100 Mil Mask
GPIO2_VTGPIO1_VTGPIO0_VT
ADC1ADC0
ID1ID0
SPSCK_VTMOSI_VTMISO_VT
/SS_VT
SDA_VTSCL_VT
RxDTxD
PWM0_VTPWM1_VTPWM2_VTPWM3_VT
GPIO PORT
ADC PORT
IDENTIFIERS
UART PORT
SPI PORT
I2C PORT
USER INTERFACE SIGNALS
PWM PORT
ID0 ID1
USB_PWR
IDENTIFIERS
R2910.0KR2910.0K
R2810.0KR2810.0K
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
19 Freescale Semiconductor
Schematics
Figure 12. KITUSBCOMDGL Schematic
RxD_JM
TxD_JM
RxD
TxD
USB_PWR
UART CIRCUIT
C170.10UFC170.10UF
C130.10UFC130.10UF
C120.10UFC120.10UF
C150.10UF
C150.10UF
U3
MAX232ACSE+
U3
MAX232ACSE+
C1+1C1-3
C2-5C2+4
V+ 2
V- 6
T1OUT 14T2OUT 7T1IN11
T2IN10
R1IN 13R2IN 8R1OUT12
R2OUT9
GN
D15
VC
C16
C180.10UF
C180.10UF
SCLSDA
MO
SI
MIS
O
SP
SC
K
/SS
PW
M3
PW
M2
PW
M1
PW
M0
PW
MS
YN
C
GP
IO2
GP
IO0
GP
IO1
USB_PWR
PULL-UP Resistors HIGH VOLTAGE SIDE ( 5.0 V )
R132.2KR132.2K
C710PFC710PF
R122.2KR122.2K
R72.2KR72.2K
C6
10PF
C6
10PF
R112.2KR112.2K
R42.2KR42.2K
R62.2KR62.2K
R102.2KR102.2K
R92.2KR92.2K
R52.2KR52.2K
R152.2KR152.2K
R32.2KR32.2K
R82.2KR82.2K
R142.2KR142.2K
R22.2KR22.2K
GREF2DREF2
GREF4DREF4
SCLSDA
GND
SCL_VTSDA_VTGND
GND
GREF3DREF3
MOSI_VTMISO_VT MOSI
MISO
GP
IO1_
VT
GP
IO1
DREF1GREF1
/SSSPSCK
SPSCK_VT/SS_VT
PW
M2_
VT
PW
MS
YN
CP
WM
3P
WM
2P
WM
1
PWM0
PWM0_VT
PW
M1_
VT
PW
M3_
VT
PW
MS
YN
C_V
T
GPIO2_VT
GP
IO0_
VT
GPIO2
GP
IO0
USB_PWR
LDO_V USB_PWR
USB_PWR
USB_PWR
LDO_V
LDO_V
VOLTAGE TRANSLATORS
GPIOs
SPI
I2C
( COMM_V )
( COMM_V )
( COMM_V )
R24220KR24220K
R23220KR23220K
U5
GTL2002DC
U5
GTL2002DCGND4
SREF1S12S23
D2 5D1 6
GREF 8DREF 7
C16
0.10UF
C16
0.10UF
U4
GTL2002DC
U4
GTL2002DCGND4
SREF1S12S23
D2 5D1 6
GREF 8DREF 7
C14
0.10UF
C14
0.10UF
C19
0.10UF
C19
0.10UF
U6
GTL2002DC
U6
GTL2002DCGND4
SREF1S12S23
D2 5D1 6
GREF 8DREF 7
R19220KR19220K
U2GTL2010BSU2GTL2010BS
S2
1S
32
S4
3S
54
S6
5
S1 24SREF 23GND 22
GREF 21DREF 20
D1 19
S7
6
D2
18D
317
D4
16D
515
D6
14
S87S98S109D1010D911D812
EXP 25
D7
13
C9
0.10UF
C9
0.10UF
R22220KR22220K
SC
L_LV
PU
SD
A_L
VP
U
/SS
_LV
PU
MO
SI_
LVP
U
SP
SC
K_L
VP
U
MIS
O_L
VP
U
MO
SI_
VT
SP
SC
K_V
TSCL_VT
SDA_VT
/SS
_VT
MIS
O_V
T
SD
A_L
VP
US
CL_
LVP
UM
ISO
_LV
PU
SP
SC
K_L
VP
U/S
S_L
VP
U
MO
SI_
LVP
U
LDO_V
PULL-UP RES LOW VOLTAGE SIDE
For 5.0 V, J5(1-2) ConnectedFor 3.3 V and 1.8 V, J5 (2-3) Connected
(LDO_V = 5.0 V, 3.3 V or 1.8 V)
( COMM_V )
C29
10PFDNP
C29
10PFDNP
C2710PFC2710PF
R372.2KR372.2K
C30
10PFDNP
C30
10PFDNP
C26
10PF
C26
10PF
R342.2KR342.2K
R332.2KR332.2K
C31
10PFDNP
C31
10PFDNP
J4HDR_2X6J4
HDR_2X6
12
34 6
5 78
910
1112
R352.2KR352.2K
R322.2KR322.2K
C28
10PFDNP
C28
10PFDNP
R362.2KR362.2K
AD
C1
/SS
_VT
SP
SC
K_V
TM
OS
I_V
T
MIS
O_V
T
AD
C0
GP
IO0_
VT
GP
IO1_
VT
GP
IO2_
VT
PW
MS
YN
C_V
T
PW
M3_
VT
PW
M2_
VT
SC
L_V
T
SD
A_V
T
ID1
ID0
PW
M1_
VT
PW
M0_
VT
ESD PROTECTION
D14D14
D4D4
D9D9
D15D15
D10D10
D5D5
D16D16
D11D11
D6D6
D17D17
D12D12
D18D18
D7D7
D13D13
D19D19
D2D2 D3D3
D8D8
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
20 Freescale Semiconductor
Software
7 Software
7.1 Installing the MC13892 GUI. The Setup installer will be provided as the MC13892 Installer.exe file.
1. Double-Click to the executable file. The installer shall run immediately and will look like as depicted in Figure 13.
Figure 13. License Agreement
2. Press the “I Agree” button to continue with the installation process.
3. Figure 14 shows the application components and the device drivers for the USB Dongle. There is no reason for users to uncheck the options to install the files.
4. All these files need to be installed for the proper run of the MC13892 Installer.exe application.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
21 Freescale Semiconductor
Software
Figure 14. Choose Component Window
Figure 15. Choose Install Location5. Before the installer runs, all needed files are stored in the C:/Program Files/MC13892 folder.
6. Once the destination folder is selected, click “Install”. The installation of the necessary drivers begins (Figure 16).
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
22 Freescale Semiconductor
Software
Figure 16. Software Install Window7. Following the correct installation of the GUI and device drivers, the KIT13892VxEVBEJ board is ready to
receive and send commands to the MC13892 Installer.exe application thru the KITUSBCOMDGLEVME board. To finish the installation process, select the “Close” button (Figure 17).
Figure 17. Installation Complete Window
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
23 Freescale Semiconductor
Software
7.2 Controlling the Hardware from the Graphical User interfaceTo interface the KITUSBCOMDGLEVME with KIT13892VxEVBEJ, the following connections should be made:
After plugging the KITUSBCOMDGLEVME to the USB port of the PC/Laptop, open the MC13892 Graphical User Interface program and click “Open USB Communications” on the main window (See Figure 18).
Figure 18. Main Screen of the MC13892 Graphical User Interface Program
A window will appear on which the desired type of communication must be chosen (See Figure 19).
KITUSBCOMDGLEVME Connector
KIT13892Vx EVBEJ Connector Function
J8 J15 For Control signals: WDI, INT, RESETB, RESETBMCU, STANDBY, STANDBYSEC, CHRGSE1B, CS, and PWRON1.
J9 J14 If SPI communication is desired.
J7 J10 If I2C communication is desired.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
24 Freescale Semiconductor
Software
Figure 19. Communication Type Selection Window for the SPI
Figure 20. Communication Type Selection Window for SCI
After selecting the communication type, go to the “Board Validation” tab (reference Figure 31 {5}) and set the WDI pin high, toggle the PWRON1 button to ON, and the MC13892 will turn on. If the I2C mode is selected (Figure 20), the user must select the I2C address to operate the MC13892 device, depending on the status of the A0 (MOSI) pin. At this point the user can start configuring the rest of the tabs to test all the MC13892 features.
The structure of the GUI is divided in different tabs, which control different blocks of the MC13892. Each one of these tabs controls a specific register and block of the device. From this point forward, this document will refer to specific parts of the figures with a number in parenthesis, i.e. (1). Refer to the figure following each paragraph, to locate the referred section.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
25 Freescale Semiconductor
Software
On the example (Figure 22), the “Power” tab has been selected (1); this tab controls the registers for the Linear Regulators, Backlight, and RGB LED blocks. On the Buck Regulators 1 and 2/PLL sub tab (2), all the functions of these two regulators and the PLL frequency can be changed.
The window shows the value of the register and how it changes, depending on command (3). Remember that a SPI command consists of a Read/Write bit, six Address bits, and 24 Data bits (Figure 21).
Figure 21. Register Value Changes with Commands
After the registers have been configured on the selected tab, the “Send Command” button (4) must be selected for the information to be sent and the registers to be written*. The button will send commands only when an open USB communication has being established. In the current operation mode proposed earlier (Enabled Without communication opened), these bytes will not be sent to the board. When the command has been sent, the “Command Status” bar (5) will read “Done!”. At this point, the next command can be assembled.
When a USB communication has being established, every time a tab is being selected, the GUI will request data from the MC13892 device and update the current tab with the received data from the board.
Figure 22. Writing and Reading Commands thru the Software Program
3
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
26 Freescale Semiconductor
Software
7.3 Power Tab
Figure 23. Linear Regulator Configuration Screen
The POWER tab includes all the controls to configure the set point of all the LDOs and regulators (1), as well as enable/disable them (2), configure the operation mode (3), and in the case of VGEN3 and VCAM, configure them to work with their internal or external pass device (4).
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
27 Freescale Semiconductor
Software
Figure 24. Regulators Configuration Tab Screen
In the case of the regulators, the configuration features include for example, other than the normal mode set point, the standby set point (1), the operating mode in normal and standby modes (2), whether they will be enabled or disabled in Memory Hold and User Off modes (3), and in the case of regulators 1 and 2, the Dynamic Voltage Scaling (DVS settings) and the Regulator Increment/Decrement set point (SIDMIN, SIDMAX) (4 and 5 respectively).
The PLL frequency can also be configured on this tab (6).
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
28 Freescale Semiconductor
Software
Figure 25. White LED Backlighting Configuration Tab Screen
The Backlight and Tri-color LED sub-tabs include the controls to configure the Ramp and High Current Mode of the LED drivers (1), and combo boxes to set the duty cycle and current setting of the PWM drivers (2). The Continuously On/Off buttons (3) set the duty cycle of the corresponding PWM controller to 32/32 or 0/32 respectively.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
29 Freescale Semiconductor
Software
7.4 Charger/Power Control Tab
Figure 26. Battery Charger Configuration Tab Screen
The charger settings can be configured on the Charger sub-tab: The charger Voltage and Current (1), Power Limiter settings (2), Trickle LED (3), and bits for Software Controlled Charging configuration (4).
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
30 Freescale Semiconductor
Software
7.5 ADC and Coulomb Counter Tabs
Figure 27. ADC Configuration Tab Screen
The MC13892 Graphical User Interface can control the ADC module in an automatic or manual method. For automatic mode, the ADC tab has two special buttons:
• Read ADC Channel (Single Mode) (1)• Read ADC Channels (Multi Mode) (2)
Both buttons enable and trigger the ADC before starting the conversions.
The Single mode performs eight readings of the same channel [the channel has to be selected on the Channel Selection 1 combo box (6)], and shows the results on the Read Out Value text boxes (3).
The Multi mode performs one reading of each one of the eight ADC channels, and returns eight different results shown on the text boxes. This ADC mode automatically sets and clears specific ADC register bits to complete the readings of all channels.
In the case of channels 6 and 7, which can be configured to read different parameters, the returned results will depend on the LICELLCON (4) and ADIN7SEL bits (5) configuration.
The tab also includes all the necessary bit controls to manually use the ADC module (6). As an example, follow these steps. Remember to select the “Send Command” button after each step to execute the command:
• Set the “Enable the AD Regulator” button to ON• Set the ADCCAL bit to calibrate the ADC• Select the channels to be read with the Channel Selection 1 and 2 combo boxes, then set the RAND
bit, if a single channel is to be read, or clear it if a multiple channel read is desired• Move the “Select Trigger” switch to the ASC position and click the “Send Command” button• The result of the conversions will be available on the ADC2 register (6), which can be read by clicking
the “Read ADCs” button (7). The format of the reading can be changed with the “Register Format Display” controls (8)
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
31 Freescale Semiconductor
Software
Figure 28. Coulomb Counter Configuration Tab Screen
On the Coulomb Counter tab, a function called “Initialize CC Counter Automatically” (1) performs the following sequence of commands:
• Start the Coulomb Counter• Reset the Coulomb Counter• Set the CCDITHER bit, which applies a dithering to the A to D regulator to avoid any error in the
measurement, due to repetitive events• Set the CCCALA bit, which calibrates the Coulomb Counter• Set ONEC Value for Coulomb Counter accuracy• Clear CCCALA bit
This module can also be manually controlled through the CC Setting section bits (2).
The CC Counter section (3) displays the value in decimal of the module counter in the MC13892 device. Every time user reads the counter value, this section will display the current value in the MC13892 register.
7.5.1 Sampling Periodicity (4)The sampling periodicity section in the coulomb counter tab allows the user to retrieve the CC counter value from MC13892 device at certain rate. The field called “Sampling Interval” lets the user request data from the Coulomb Counter in milliseconds.
Once the “Start” button is pressed, the application automatically starts collecting data from the CC Counter and displays it in the graph section.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
32 Freescale Semiconductor
Software
7.5.2 Plot Settings (5)The plot setting section manages the general settings of the graphical section in the CC Counter tab. The “Line Style” option tells the graph to display data using different painting styles such as solid, dash, and dot type lines.
The “Display Mode” has two different options indicating how data will be displayed and saved into the graph tool. The “Pan” mode will scroll the data continuously across the screen like a standard Strip Chart. The “Wrap mode” allows the data to remain static on the screen, while a line moves across the plot area, and everything behind the line is repainted with the new data.
The “Plot XSpan” option sets the viewable extents of the X-Axis. When you are using the X-Axis to display Time, setting XSpan = 1 is equivalent to setting it to 24 hours. For instance, if you want to display five seconds of data on the viewable area, you would set XSpan = 0.00005787037037037 (1/24/60/60*5).
The button called “Line Color” lets the user change the color of the printing line in the graph. In the same row, the button called “Print”, allows the user to print the currently displayed data in the graph.
7.5.3 XY Coordinates (6)This section shows the exact position of the cursor in the graph area. The user is able to select any point in the graph, and the XY Coordinates box will display the coordinates of the selected point.
7.5.4 Plot Band Track (7)This option lets the user create a bound area between the delimited low and high sections in the graph. For instance, if the user needs to check a specific area in the graph between 0 and 50 (shown in Figure 28), they need to set the boundaries in the “Track Start” and “Track Stop” components accordingly, to create a delimited band.
7.6 RTC Tab
Figure 29. Real Time Clock Configuration Screen
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
33 Freescale Semiconductor
Software
The digital clock control (1) shows the current time of the RTC register of the MC13892. It is important to enable the RTC (2) and click on the “Send Command” button for it to begin. The time can be changed at any moment using the control text boxes (3). This tab also includes the RTC calibration controls (4).
If the “Start Read RTC” button (5) is enabled, the RTC will automatically refresh each second. This way its accuracy can be corroborated. It is important to mention that while the RTC is being automatically refreshed, the rest of the commands will be disabled.
As a special feature, a “Current PC Time” button (6) is available. This button reads the value of the computer clock, which can be sent later to the RTC time register by clicking the “Send Command” button. The “Use Current PC Day”, “Use current PC Time as Alarm”, and “Use current PC Day as Alarm” buttons will similarly set the corresponding time or day on their respective blocks.
7.7 GPO/Sense and USB Control TabsThe GPO/Sense tab contains the controls for the GPO pins, and allows them to turn on and off, and configure their standby mode setting, as well as the ADC input control for GPO4. This tab also controls the Power Gating feature of the MC13892, and senses the state of the PUMS, MODE, CHRGSE1B pins, and whether the charger is configured in Single or Serial mode.
The USB Control tab, as its name indicates, contains all the controls of the bits that configure the USB block of the MC13892, including the enable bit of the VUSB regulator and the bits for OTG mode control.
7.8 Interrupts TabThis tab contains a list of all the interrupt bits of the MC13892, their masks, and sense bits. For an interrupt bit to be reflected on the INT pin, its corresponding mask must be set to Off, and the “Send Command” button must be selected. The INT pin status can be read in the bottom right section of the Board Validation tab. Its status can be refreshed by clicking on the “Read Pin Status” button on top of the window. Note that the Interrupts tab indicates if the bits contained in each column are Read or Read/Write (1), signaling that the read only bits cannot be modified through the interrupt status tab.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
34 Freescale Semiconductor
Software
Figure 30. Interrupts Status Tab Screen
7.9 Board Validation and Scripts TabsThese are two special tabs that control the overall functionality of the device, instead of a specific block like the rest of the tabs.
The “Register” combo box (1) contains a list of all the MC13892 registers, in which contents will be shown on the “Bytes” buttons (2) when they are selected in the combo box. The user can manually modify the contents of the registers by clicking on the buttons and sending the command with the “Send Command” button. The command to be sent will be shown in the “Command Assembled” text box (3).
A specific register can be read in the “Auxiliary Read Bytes” section (4) using the “Register” combo box placed there. The value of the register to be read will be shown in the “Bytes” text boxed on that section. This way, the user can (for example) check the result of an ADC conversion on the ADC2 register. They configure and trigger the ADC on the rest of the ADC registers using sections (1) and (2). The main purpose of the Auxiliary Read Bytes section is to read the contents from the MC13892, but not to write the registers.
In section (5), the CS, CHRGESE1B, STANDBY, STANDBYSEC, WDI, and PWRON1 pins can be controlled by clicking their respective buttons.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
35 Freescale Semiconductor
Software
Figure 31. Board Validation Configuration Screen
7.9.1 Writing and Running a Script
Figure 32. Script Writing Configuration Command Section
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
36 Freescale Semiconductor
Software
A complete list of commands can be saved in a file to be run in series as a script. This is done with the “Board Validation” and “Scripts” tabs. To accomplish this, first click on the “Normal Mode” button (1) in Figure 31. After clicking it, it will show that the tab is working in “Script Mode”, in which the “Send Command” button is disabled and the commands assembled are only intended to be saved into a file. A Read/Write button will appear (2). This button is to indicate if the assembled command is to read or write to a specific register.
Script writing steps to write a script are listed by the following:
1. Click the “Normal Mode” button (1) to go into Script Mode
2. Select the register to be read/written in the “Register” combo box right above the “Normal Mode” button
3. Specify if it will be a Read or Write command with the Read/Write button
4. Configure the data bits using the “Bytes” buttons on the right of the Read/Write button
5. Select the Command Iterations, Limits and Delay in section (3) of the window
– Command Iterations indicate the number of times the command will be repeated
– Command Limits is for Read commands. The user can set the limits that indicate if the read of a register is valid or not (as a decimal number). When the script runs, a write command will compare the read value with these limits and show if the command passed or failed. This is useful for example for ADC readings
– The Command Delay box is to specify a determined delay after the command is executed. It is given in milliseconds
6. Click on the “Create Command” button on section (4) of the window. The command will be saved with the characteristics specified on section (3)
7. The software gives the possibility to iterate a bunch of commands that are saved in a group. To do this, after creating a bunch of commands and selecting the number of group iterations, click on the “Create Group” button, and all the commands will be saved under that specific group. After saving the commands into a group, they will be removed from the command list and a new group will begin. A specific name can be assigned to a group with the “Assign Name to Group” check box. All scripts must have at least one group in order to save them and all the commands must belong to a group, even if the group consists of a single command.
8. After all the commands and groups have been created and saved, click on the “Save Script” button to save the file
The “Delete Command” button shows a list of all the created commands. The user can select a specific one and delete it.
The “Delete All Groups” button deletes all the created groups from the RAM memory.
The “New Script” button removes all the commands and groups from the RAM memory after they have been saved to disk, to start a new script file.
7.9.2 Special RTC Commands and GPIO CommandsWhen running in Script Mode, special commands are added at the end of the list in the “Register” combo box. These commands are:
RTC Set Time of Computer Clock: Takes the value of the computer clock and writes it in the RTC time register.
RTC Time Compare Between Computer Clock and MC13892: Compares the value of the MC13892 RTC with the time of the computer clock.
GPIO “x” Write High/Low State: Where “x” represents CS, CHRGSE1B, STANDBY, STANDBYSEC, WDI, and PWRON1. These commands simply configure the state of the listed pins.
GPIO “x” Read State: Where “x” represents CS, CHRGSE1B, STANDBY, WDI, STANDBYSEC, PWRON1, RESETB, RESETBMCU, and INT. These commands read the state of the listed pins.
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
37 Freescale Semiconductor
Software
7.10 Running a ScriptOnce the script has been saved, the “Scripts” tab has all the controls to run it. In the “Control Panel” section (1), click on the “Read Script File” button and load the script. A list of all the commands of the loaded script will appear in the “Command” window (2). A summarized view of the script can be selected with the “Collapse Command Nodes” option on the Control Panel. After the script has been loaded, click on the “Start” button on the Control Panel, and all the commands will be executed.
The “Input and Output Monitor Terminal” (3) will show a detailed list of all the commands sent and received, and whether they passed or failed, according to the limits set when created. The log on this window can be saved after the script has finished by going to the Script – Save Log Into RTF File menu at the top of the screen.
The “Compare Read Values” (4) also shows if the command currently being executed passes or fails a comparison to the limits.
Figure 33. Script Configuration Tab Screen
7.11 Brief Example: Writing a Quick ScriptThe following example shows the steps to follow to write a script that will turn on the MC13892, then turn on and off the RGB LEDs:
1. Go to the “Board Validation” tab and click on the “Normal Mode” button to select Script Mode
2. In the “Registers” combo box select the “GPIO WDI Write High State” command
3. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
4. Click on the “Create Command” button
5. In the “Registers” combo box select the “GPIO PWRON1 Write High State” command
6. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
7. Click on the “Create Command” button
8. In the “Registers” combo box select the “GPIO PWRON1 Write High State” command
9. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
38 Freescale Semiconductor
Software
10. Click on the “Create Command” button
11. Select the “Assign Name to Group” option, and write “Turn on Sequence” in the group name text box
12. Click on the “Create Group” button
13. In the “Registers” combo box, select the “LED Control 2” register, and with the “Bytes” buttons set the following value: 10010000 00001001 00000000. This will turn on the red and green LEDs
14. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
15. Click on the “Create Command” button
16. In the “Registers” combo box, select the “LED Control 3” register, and with the “Bytes” buttons set the following value: 00000000 00011001 00000000. This will turn on the blue LED and the SWBST for supplying the LEDs
17. Set a command delay of 1000 ms. The command iterations and limits can be left with the default values
18. Click on the “Create Command” button
19. In the “Registers” combo box, select the “LED Control 2” register, and with the “Bytes” buttons set the following value: 00000000 00000000 00000000. This will turn off the red and green LEDs
20. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
21. Click on the “Create Command” button
22. In the “Registers” combo box, select the “LED Control 3” register, and with the “Bytes” buttons set the following value: 00000000 00000000 00000000. This will turn off the blue LED and the SWBST for supplying the LEDs
23. Set a command delay of 1000 ms. The command iterations and limits can be left with the default values
24. Click on the “Create Command” button
25. Select the “Assign Name to Group” option, and write “Loop” on the group name text box
26. Set a group iterations value of 3
27. Click on the “Create Group” button
28. Click on the “Save Script” button and select a location and a name for the script
29. Load the script in the “Scripts” tab using the “Read Script File” button
30. Verify the connections of the KITUSBCOMDGLEVME and the KIT13892VxEVBEJ.
31. Click on the “Start” button of the “Scripts” tab to run the script
The following example shows a script that will read, and compare the battery voltage and the RTC time. This is a more complex script with which the user will start getting acquainted with the read value comparator:
1. Go to the “Board Validation” tab and click on the “Normal Mode” button to select Script Mode
2. In the “Registers” combo box, select the “GPIO WDI Write High State” command
3. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
4. Click on the “Create Command” button
5. In the “Registers” combo box, select the “GPIO PWRON1 Write High State” command
6. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
7. Click on the “Create Command” button
8. In the “Registers” combo box, select the “GPIO PWRON1 Write High State” command
9. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
10. Click on the “Create Command” button
11. Select the “Assign Name to Group” option and write “Turn on Sequence” on the group name text box
12. Click on the “Create Group” button
13. In the “Registers” combo box, select the “RTC Set Time From Computer Clock” command
14. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
15. Click on the “Create Command” button
16. In the “Registers” combo box, select the “ADC 1” register, and with the “Bytes” buttons set the following value: 00000000 00000000 00000001. This will set the ADEN bit to enable the ADC
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
39 Freescale Semiconductor
Software
17. Ensure the Read/Write button says “Write” and set a command delay of 100 ms. The command iterations and limits can be left with the default values
18. Click on the “Create Command” button
19. In the “Registers” combo box, select the “ADC 1” register, and with the “Bytes” buttons set the following value: 00000000 00000000 00000111. This will set the ADCCAL bit to calibrate the ADC, set the RAND bit in order to make a single channel conversion, and configure the ADAx bits to 000 (channel 0 – Battery Voltage)
20. Set a command delay of 100 ms. The command iterations and limits can be left with the default values
21. Click on the “Create Command” button
22. Select the “Assign Name to Group” option and write “Initialization” on the group name text box
23. Click on the “Create Group” button
24. In the “Registers” combo box, select the “ADC 1” register, and with the “Bytes” buttons set the following value: 00010000 00000000 00000011. This will trigger the ADC to start a conversion
25. Set a command delay of 1000 ms. The command iterations and limits can be left with the default values
26. Click on the “Create Command” button
27. In the “Registers” combo box, select the “ADC 2” register. Ensure the Read/Write button says “Read”. The GUI will disregard the value contained on the “Bytes” buttons since this is a read command, so they can be left as zeroes
28. Set a command delay of 100 ms. Set the commands limits as min = 10488320 and max = 12585984 (equivalent to a min of 3.0 V and a max of 3.3 V on the battery voltage)
29. Click on the “Create Command” button
30. In the “Registers” combo box, select the “RTC Time Compare Between Computer Clock and MC13892” command. This command will ignore the Read/Write button and the values contained on the “Bytes” buttons
31. Click on the “Create Command” button
32. Select the “Assign Name to Group” option and write “Loop” on the group name text box
33. Set a group iterations value of 3
34. Click on the “Create Group” button
35. Click on the “Save Script” button and select a location and a name for the script
36. Load the script on the “Scripts” tab using the “Read Script File” button
37. Verify the connections of the KITUSBCOMDGLEVME and the KIT13892VxEVBEJ.
38. Ensure the MC13892 has 3.3 V on the BATT pin
39. Click on the “Start” button of the “Scripts” tab in order to run the script
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
40 Freescale Semiconductor
KIT13892VKEVBEJ Board Layout
8 KIT13892VKEVBEJ Board Layout
8.1 Assembly Top
Figure 34. 13892VK Top Assembly Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
41 Freescale Semiconductor
KIT13892VKEVBEJ Board Layout
8.2 Top Layout
Figure 35. 13892VK Top Layout Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
42 Freescale Semiconductor
KIT13892VKEVBEJ Board Layout
8.3 Bottom Layout
Figure 36. 13892VK Bottom Layout Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
43 Freescale Semiconductor
KIT13892VKEVBEJ Board Layout
8.4 Bottom Assembly and Silk Screen
Figure 37. 13892VJ bottom assembly and silk screen layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
44 Freescale Semiconductor
KIT13892VKEVBEJ Board Layout
8.5 Fabrication Drawing
Figure 38. 13892VK Fabrication Drawing
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
45 Freescale Semiconductor
KIT13892VLEVBEJ Board Layout
9 KIT13892VLEVBEJ Board Layout
9.1 Assembly Top
Figure 39. 13892VL Top Assembly and Silk Screen Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
46 Freescale Semiconductor
KIT13892VLEVBEJ Board Layout
9.2 Top Layout
Figure 40. 13892VL Top Layout Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
47 Freescale Semiconductor
KIT13892VLEVBEJ Board Layout
9.3 Bottom Layout
Figure 41. 13892VL Bottom Layout Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
48 Freescale Semiconductor
KIT13892VLEVBEJ Board Layout
9.4 Bottom Assembly and Silk Screen
Figure 42. 13892 Bottom Assembly and Silk Screen Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
49 Freescale Semiconductor
KIT13892VLEVBEJ Board Layout
9.5 Fabrication Drawing
Figure 43. 13892VL Fabrication Drawing
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
50 Freescale Semiconductor
KITUSBCOMDGL Board Layout
10 KITUSBCOMDGL Board Layout
10.1 Assembly Top
Figure 44. USBCONDG Top Assembly Layer
10.2 Bottom Layout
Figure 45. USBCOMDG Bottom Layout Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
51 Freescale Semiconductor
KITUSBCOMDGL Board Layout
10.3 Top Layout
Figure 46. USBCOMDG Top Layout Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
52 Freescale Semiconductor
KITUSBCOMDGL Board Layout
10.4 Fabrication Drawing
Figure 47. USBCOMDG Fabrication Drawing
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
53 Freescale Semiconductor
KITUSBCOMDGL Board Layout
10.5 Silk Screen Bottom
Figure 48. USBCOMDG Bottom Silk Screen Layer.
10.6 Silk Screen Top
Figure 49. USBCOMDG Top Silk Screen Layer
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
54 Freescale Semiconductor
KIT13892VxEVBEJ Bill of Material
11 KIT13892VxEVBEJ Bill of Material
Qty Reference Value Description Manufacturer Part Number
1 BT1 HU2477N-LF Battery Holder CR2477 Top Load Horizontal TH Renata Batteries HU2477N-LF
6 C1, C9, C12, C15, C20, C23
4.7F CAP CER 4.7F 10V 10% X5R 0603 Taiyo Yuden LMK107BJ475KA-T
8 C2, C4, C5(2), C6(2), C7(2), C8(2), C24, C25
10.0F CAP CER 10F 16V 10% X7R 0805Capax Technologies Inc.
0805X106K160SNT
1 C3 2.2F CAP CER 2.2F 16V 10% X5R 0603 Murata GRM188R61C225KE15D
2 C10,C18 22F CAP CER 22F 10V 20% X5R 0805 Taiyo Yuden LMK212BJ226MG-T
17 C11,C14,C19,C22,C26, C29,C31,C37,C39,C41, C42,C45,C49,C51,C53, C55,C59
0.1F CAP CER 0.1F 10V 10% X5R 0402 Kemet C0402C104K8PAC
3 C13,C16,C21 10F CAP CER 10F 6.3V 20% X5R 0603 Panasonic ECJ1VB0J106M
26 C17,C27,C28,C30,C32, C33,C34,C36,C38,C40, C43,C44,C46,C47,C48, C50,C52,C54,C56,C58, C60,C63,C64, C65,C66, C67
2.2F CAP CER 2.2F 6.3V 20% X5R 0402 Murata GRM155R60J225ME15D
2 C35,C57 0.1F CAP CER 0.1F 16V 10% X7R 0402 Venkel Company C0402X7R160-104KNE
2 C61,C62 18PF CAP CER 18PF 50V 1% C0G 0402Capax Technologies Inc.
0402G180F500SNT
19 D1,D2,D3,D4,D5,D6,D8,D9,D10,D11,D16,D17, D18,D19,D20,D21,D22
LED WHITE LED White SGL 35MA SMT Nichia NSSW100CT
1 D7(2) MBR140SFT Diode SCH PWR RECT 1A 40V SOD123 ON Semiconductor MBR140SFT1G
2 D12,D13 LED_RED LED Super Bright Red SMD 0603 Kingbright AP1608SRC
3 D14,D24,D25LED_GREEN
LED GRN SGL 30MA SMT 0603 Kingbright AP1608MGC
1 D15 BLUE LED BL SGL 30MA SMT 0603 Kingbright APT1608QBC/D
1 D23MBR120LSFT1G
Diode SCH PWR RECT 1A 20V SMT ON Semiconductor MBR120LSFT1G
4 J1,J2,J6,J8 BANANA CON 1 Banana Uninsulated TH -- 531H NIJohnson Components Inc.
108-0740-001
11 J3,J4,J5,J7,J9,J16,J19, J20,J21,J29,J33
HDR 1X2 TH HDR 1X2 TH 100MIL SP 330H AU 100L 3M 929647-01-02-EU
18 J12,J13,J22,J23,J26,J27,J28,J30,J31,J32,J34,J35,J36,J37,J38,J39,J40,J41
HDR_1X3 HDR 1X3 TH 100MIL SP 330H SN 95LFramatome Connectors International
68001-403HLF
1 J10 HDR_2x3 HDR 2X3 TH 100MIL CTR 330H SN 115L Samtec TSW-103-23-T-D
1 J14 HDR_2X8 HDR 2X8 TH 100MIL CTR 330H AU Samtec TSW-108-07-G-D
1 J15 HDR_2X7 HDR 2X7 TH 100MIL CTR 330H AU Samtec TSW-107-23-T-D
3 J17,J18,J24CON PLUG 12
CON 1X12 PLUG SHRD TH 2.5MM SP 346H SN 110L
JST MFG. CO B12B-XASK-1N-A
1 J25 CON_1X8 CON 1X8 PLUG SHRD TH 2.5MM SP 346H SN JST MFG. CO B08B-XASK-1-A(LF)(SN)
1 L1(2) 3.3H IND PWR 3.3H@100KHZ 1.4A 20% SMT TDK VLS252012T-3R3MR99
1 L2 1.5H IND PWR 1.5H@1MHZ 2A 30% SMT TDK VLS252012T-1R5N1R4
4 L3,L4,L5,L6 2.2H IND PWR 2.2H@1MHZ 1.8A 20% SMT TDK VLS252012T-2R2M1R3
2 M1,M2 FDZ193P TRAN PMOS PWR 20V 3A BGA6 Fairchild FDZ193P
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
55 Freescale Semiconductor
KIT13892VxEVBEJ Bill of Material
1 M3 NTHS2101PTRAN MOSFET PWR SGL P-CHANNEL 8V 7.5A CHIPFET
ON Semiconductor NTHS2101PT1G
3 Q1,Q12,Q13 2N7002 TRAN NMOS 60V 115MA SOT23 ON Semiconductor 2N7002LT1G
4 Q2,Q3,Q4,Q5MGSF1N02LT1G
TRAN NMOS PWR 20V 750MA ON Semiconductor MGSF1N02LT1G
6 Q6,Q7,Q8,Q9,Q10,Q11NSS12100UW3
TRAN PNP PWR 1A 12V WDFN3 ON Semiconductor NSS12100UW3TCG
1 R1 0.02 RES MF 0.02 OHM 1/5W 1% 0603Vishay Intertechnology
CRCW0603R020FKEAEL
1 R2 0.1 RES MF 0.10 OHM 1/8W 5% 0603 Venkel Company LCR0603-R100JT
11 R3,R4,R10,R11,R12,R14R15,R17,R18,R19,R22
0 RES MF ZERO OHM 1/16W 5% 0402 ROHM MCR01MZPJ000
2 R5(2),R8(2) 1.0M RES MF 1.0M 1/10W 1% 0603 KOA Speer RK73H1JTTD1004F
3 R6,R7,R9 51 RES MF 51 OHM 1/10W 5% 0603 KOA Speer RK73B1JTTD510J
1 R13 20K RES POT 20K 1/4W 10% SMT Bourns 3224W-1-203E
2 R20,R21 560 RES MF 560 OHM 1/16W 5% 0402 Venkel Company CR0402-16W561JT
7 R26(2), R27, R28(2), R29, R30(2), R33, R35
200K RES MF 200K 1/16W 5% 0402 Yageo America RC0402JR-07200KL
2 R31,R32 200 RES MF 200 OHM 1/16W 0.1% 0402Vishay Intertechnology
MCS04020D2000BE100
4 SW1,SW2,SW3,SW4 FSMSM SW SPST PB 12V 50MA SMT Tyco Electronics 1437566-4
13 TPGND1,TPGND2, TPGND3,TPGND4, TPGND5,TPGND6, TPGND7,TPGND8, TPGND9,TPGND10, TPGND11,TPGND12, TPGND13
BLACK Test Point Pad Size 3.4MM X 1.8MM SMTKeystone Electronics
5015
26 TP1,TP2,TP3,TP4,TP5, TP6,TP7,TP8,TP9,TP14, TP19,TP22,TP23,TP26, TP28,TP33,TP34,TP35, TP37,TP39,TP40,TP41, TP42,TP43,TP44,TP45
33 TP10,TP11,TP12,TP13, TP15,TP16,TP17,TP18, TP20,TP21,TP24,TP25, TP27,TP29,TP30,TP31, TP32TP36,TP38,TP46, TP47,TP48,TP49,TP50, TP51,TP52,TP53,TP54, TP55,TP56,TP57,TP58, TP59
1U1
MC13892MC13892
IC MCU PWR Management BGA 186 (12X12MM)IC MCU PWR Management BGA139(7X7MM)
Freescale Semiconductor
MC13892VLMC13892VK
1 Y1 32.768KHZ XTAL 32.768KHZ RSN -- SMT Micro CrystalCC7V-T1A 32.768KHZ 9PF+/-30PPM
9 Extra Jumper Shorting Jumper Unplated BLK 3M 929950-00
3 Extra Cable 1x12 Custom 600-76735
1 Extra Cable 1x8 Custom 600-76838
Notes: 1. Freescale does not assume liability, endorse, or warrant components from external manufacturers that are referenced in circuit drawings or tables.
While Freescale offers component recommendations in this configuration, it is the customer’s responsibility to validate their application.2. Do NOT populate
Qty Reference Value Description Manufacturer Part Number
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
56 Freescale Semiconductor
KITUSBCOMDGLEVME Bill of Material
12 KITUSBCOMDGLEVME Bill of Material
Reference Value Description Manufacturer Part Number
U1 MC9S08JM8CLCE IC MCU 8BIT 8K FLASH 1K RAM 48MHZ 2.7-5.5 LQFP32Freescale Semiconductor
MC9S08JM8CLCE
C1 0.47F CAP CER 0.47F 16V 10% X7R 0603 Kemet C0603C474K4RAC
C2, C5, C8, C9, C14, C16, C19, C33, C34, C35, C36, C37, C38, C39, C40
0.10F
CAP CER 0.10F 16V 5% X7R 0603 AVX 0603YC104JAT2A
C3 10F CAP CER 10F 16V 5% X7R 0603 AVX TAJA106K016R
C4 4.7F CAP TANT 4.7F 10V 10% -3216-18 AVX TAJA475K010R
C6, C7, C26, C27
10PF CAP CER 10PF 50V 1% COG0603 Kemet C0603C100F5GAC
C10, C11 22PF CAP CER 22PF 16V 1% COG0603 Kemet C0603C22F4GAC
C12, C13, C15, C17, C18
0.10FCAP CER 0.10F 16V 5% X7R 0603 AVX 0603YC104JAT2A
C21 1.0F CAP CER 1.0F 16V 10% X5R 0603 TDK C1608X5R1C105K
C22 470PF CAP CER 470PF 50V 5% COG 0603 Panasonic ECJ1VC1H471J
C23 2.2F CAP CER 2.2F 16V 10% X5R 0603 Murata GRM188R61C225KE15D
C24 2.2F CAP TANT ESR = 1.800 OHMS 2.2F 10V 10% 3216-18 AVX TPSA225K010R1800
C28, C29, C30, C31
10PF CAP CER 10PF 50V 1% COG 0603 Kemet C0603C100F5GAC
D1 HSMG-C170 LED Green SGL 2.2V 20MA 0805 Avago Technologies HSMG-C170
D2-D19 ESD9L5.0ST5G Diode TVS ESD PROT ULT LOW CAP 5-5.4V SOD-923 ON Semiconductor ESD9L5.0ST5G
FID1, FID2, FID3
FID FIDUCIAL Generic FID-040
F1 0.5A FUSE PLYSW 0.5A 13.2V SMT Raychem MICROSMD050F-2
J1 USB_TYPE_A CON 1X4 USB TYPE A MALE RA TH 178h AU Samtec USB-AM-S-S-B-TH
J2, J6, J7 HDR 2X3 HDR 2X3 TH 100MIL CTR 335H AU Samtec TSW-103-07-S-D
J3, J5 HDR 1X3 HDR 1X3 TH 100MIL SP 330H AU Samtec HTSW-103-07-S-S
J4, J8 HDR 2X6 HDR 2X6 TH 100MIL CTR 330H AU Samtec TSW-106-07-S-D
J9 HDR 2X8 HDR 2X8 TH 100MIL CTR 330H AU Samtec TSW-106-07-G-D
L1 H1812V101R-10 IND FER 100 OHM@100MHZ 8A 25% SMD/1812 Laird Technologies H1812V101R-10
L2 H1812V101R-10 IND FER 100 OHM@100MHZ 8A 25% SMD/1812 Laird Technologies H1812V101R-10
R1 270 RES MF 270.0 OHM 1/10W 1% 0603 KOA Speer RK73H1JTTD2700F
R2-R15, R32-R37
2.2K RES TF 2.20K 1/10W 1% RC0503 Bourns CRO603FX2201E
R16, R17 33 RES MF 33.0 OHM 1/10W 1% 0603 KOA Speer RK73H1JTTD33R0F
R18, R20 1.50K RES MF 1.50K 1/10W 1% 0603 KOA Speer RK73H1JTTD1501F
R19, R22, R23, R24
220K RES MF 220K 1/10W 5% 0603 Venkel Company CR0603-10W-224JT
R21 1.0M RES MF 1.0M 1/10W 1% 0603 KOA Speer RK73H1JTTD1004F
R25, R26 4.70K RES MF 4.70K 1/10W 1% 0603 KOA Speer RK73H1JTTD4701F
R27 12.0K RES MF 12.0K 1/10W 1% 0603 KOA Speer RK73H1JTTD1202F
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
57 Freescale Semiconductor
KITUSBCOMDGLEVME Bill of Material
R28, R29 10.0K RES MF 10.0K 1/10W 1% 0603 KOA Speer RK73H1JTTD1002F
R30 5.36K RES MF 5.36K 1/10W 1% 0603 KOA Speer RK73H1JTTD5361F
R31 20K RES MF 20K 1/10W 5% 0603 Bourns CR0603-JW-203ELF
TP1 TEST POINT Test Point Pin.138X.059 SMT Nicomatic C12000B
U2 GTL2010BS IC VXLTR BIDIR 10BIT GTL-TVC 1.0-5.0V HVQFN24 NXP Semiconductors GTL2010BS
U3 MAX232A IC,L,MAX232A,RS232 SO16 Maxim MAX232ACSE
U4, U5, U6 GTL2002DC IC VXLTR BIDIR 2BIT GTL-TVC 1.0-5.0V VSSOP8 NXP Semiconductors GTL2002DC
U8 MIC5205 IC LIN VREG LDO 1.5-15V 150MA 2-5-16V SOT23-5 Micrel MIC5205YM5
Qty. 2 Jumper Shorting Jumper Unplated BLK 3M 929950-00
Y1 12 MHZ XTAL 12MHZ SER 9PF SMTECS INC. International
ECS-120-9-42X-CKM-TR
Notes: 1. Freescale does not assume liability, endorse, or warrant components from external manufacturers that are referenced in circuit drawings or tables.
While Freescale offers component recommendations in this configuration, it is the customer’s responsibility to validate their application.
Reference Value Description Manufacturer Part Number
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
58 Freescale Semiconductor
References
13 ReferencesThe following list contains URLs where you can obtain information on other Freescale products and application solutions:
Description URL
Reference Web Sites Reference URL Locations
Freescale Web Site http://www.freescale.com/
Freescale’s Analog Web Site www.freescale.com/analog
Data Sheet MC13892 http://www.freescale.com/files/analog/doc/data_sheet/MC13892.pdf
Freescale Power Management Web Site http://www.freescale.com/webapp/sps/site/taxonomy.jsp?nodeId=01435979961182
MC13892 Evaluation Board Supports KIT13892VKEVBEJ and KIT13892VLEVBEJ, Rev. 4.0
59 Freescale Semiconductor
Revision History
14 Revision History
Revision Date Description of Changes
4.0 8/2014 • Updated kit contents/packing list • Added revision history page • Updated back page
Document Number: KT13892UGRev. 4.0
8/2014
Information in this document is provided solely to enable system and software implementers to use Freescale products.
There are no express or implied copyright licenses granted hereunder to design or fabricate any integrated circuits based
on the information in this document.
Freescale reserves the right to make changes without further notice to any products herein. Freescale makes no
warranty, representation, or guarantee regarding the suitability of its products for any particular purpose, nor does
Freescale assume any liability arising out of the application or use of any product or circuit, and specifically disclaims any
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