MICROCHIP ATBTLC1000-XPRO Xplained Pro User Guide
- June 17, 2024
- MICROCHIP
Table of Contents
- Introduction
- Features
- Kit Overview
- Getting Started
- Xplained Pro
- Hardware Specifications
- Headers and Connectors
- Related Links
- Peripherals
- Hardware Revision History and Known Issues
- ATBTLC1000XPRO-ADP Adapter Board
- Evaluation Kit Interface Details (Without Adapter Board)
- Document Revision History
- The Microchip Web Site
- Customer Support
- Microchip Devices Code Protection Feature
- Legal Notice
- Trademarks
- Quality Management System Certified by DNV
- References
- Read User Manual Online (PDF format)
- Download This Manual (PDF format)
MICROCHIP ATBTLC1000-XPRO Xplained Pro User Guide
Introduction
The ATBTLC1000 Xplained Pro is an extension board to evaluate the performance of the ultra-low power Bluetooth® Low Energy 5.0 ATBTLC1000-MR110CA module. The ATBTLC1000 Xplained Pro board is designed to provide BLE functionality to the Xplained Pro evaluation platform. This kit provides access to the features of the ATBTLC1000-MR110CA module and explains how to integrate the module in a custom design.
Features
- ATBTLC1000-MR110CA Bluetooth Module
- Compliant with Bluetooth V5.0 Core Specification, ETSI EN 300 328 and EN 300 440 Class 2, FCC CFR47 Part 15, and ARIB STD-T66
- ARM® Cortex®
- M0 32-bit processor
- AT30TSE758A Digital Temperature Sensor
- Integrated temperature sensor, non-volatile registers, and serial EEPROM
- Two wire I2C and SMBus compatible serial interface
- Xplained Pro Hardware Identification System using ATSHA204A
- Power LED
- Power Debugger Support using Current Measurement Header
- Provision for External Flash (Footprint Only). Recommended MPN: IS25LD020-JNLE.
- Debug I2C Header
- Debug UART/SPI Extension Port
- CHIP EN Switch for ATBTLC1000 Module (Footprint Only)
- SWD Header
- 32 kHz Crystal
Kit Overview
The ATBTLC1000 Xplained Pro is an extension board containing the ultra-low power Bluetooth module ATBTLC1000-MR110CA for the Xplained Pro platform. The kit can be connected to any extension header on an Xplained Pro MCU board.
Figure 1-1. ATBTLC1000 Xplained Pro Extension Board
Getting Started
Xplained Pro Quick Start
Steps to start exploring the Xplained Pro platform:
- Download and install Atmel Studio.
- Launch Atmel Studio.
- Connect the ATBTLC1000 Explained Pro extension board with an Explained Pro MCU board and connect a USB cable to the DEBUG USB port on the Explained Pro MCU board.
When the Xplained Pro MCU kit is connected to the computer for the first time, the operating system installs the driver software automatically. This driver supports 32-bit and 64-bit versions of Microsoft® Windows® XP, Windows Vista®, Windows 7, Windows 8, Windows 10, and Windows Server 2012.
When the Xplained Pro MCU board is powered, the power LED (green) glows, and Atmel Studio automatically detects the specific Xplained Pro MCU and extension board(s) that are connected. The landing page of the kit in the Atmel Studio has an option to launch the Atmel Software Framework (ASF) and the Atmel START example application codes for the kit. The target device is programmed and debugged by the on-board embedded debugger and therefore no external programmer or debugger tool is required.
Design Documentation and Relevant Links
The following list contains links to the most relevant documents and software
for the ATBTLC1000 Xplained Pro.
-
Xplained Products – Xplained evaluation kits are a series of easy-to-use evaluation kits for Microchip microcontrollers and other Microchip products.
- Xplained Nano – used for low pin count devices and provides a minimalistic solution with access to all I/O pins of the target microcontroller.
- Xplained Mini – used for medium pin count devices and adds Arduino Uno compatible header footprint and a prototyping area.
- Xplained Pro – used for medium-to-high pin count devices that features advanced debugging and standardized extensions for peripheral functions.
Note: All the above kits have on-board programmers/debuggers, which creates a set of low-cost boards for evaluation and demonstration of features and capabilities of different Microchip products.
-
Atmel Studio – Free IDE for the development of C/C++ and assembler code for microcontrollers.
-
EDBG User Guide – User guide containing more information about the on-board Embedded Debugger.
-
Data Visualizer – Data Visualizer is a program used for processing and visualizing data. The Data Visualizer can receive data from various sources such as the EDBG Data Gateway Interface found on Curiosity Nano and Xplained Pro boards and COM Ports.
-
Advanced Software Framework – MCU software library providing a large collection of embedded software for MCUs.
-
Design Documentation – Package containing CAD source, schematics, BOM, assembly drawings, 3D plots, layer plots, and so on.
-
ATBTLC1000 Xplained Pro on Microchip website – Microchip website link.
Xplained Pro
Xplained Pro is an evaluation platform which contains a series of microcontroller boards (evaluation kits) and extension boards. Atmel Studio is used to program and debug the microcontrollers on these boards. Atmel Studio includes Advanced Software Framework (ASF) and Atmel START, which has drivers and demo code, and Data Visualizer, which supports data streaming and advanced debugging. Xplained Pro evaluation kits can be connected to a wide range of Xplained Pro extension boards through standardized headers and connectors. Xplained Pro extension boards have identification (ID) chips to uniquely identify which boards are connected to the Xplained Pro evaluation kits.
Hardware Identification System
All Xplained Pro extension boards come with an identification chip (ATSHA204A Crypto Authentication™ chip) to uniquely identify the boards that are connected to the Xplained Pro Evaluation Kit. This chip contains information that identifies the extension with its name and some extra data. When an Xplained Pro extension is connected to an Xplained Pro Evaluation Kit, the information is read and sent to the Atmel Studio. The following table shows the data fields stored in the ID chip with example content.
Table 3-1. Xplained Pro ID Chip Content
| Data Field | Data Type | Example Content |
|---|---|---|
| Manufacturer | ASCII string | Microchip’\0′ |
| Product name | ASCII string | Segment LCD1 Xplained Pro’\0′ |
| Product revision | ASCII string | 02’\0′ |
| Product serial number | ASCII string | 1774020200000010’\0’ |
| Minimum voltage [mV] | uint16_t | 3000 |
| Maximum voltage [mV] | uint16_t | 3600 |
| Maximum current [mA] | uint16_t | 30 |
Xplained Pro Standard Extension Header
All Xplained Pro kits have many dual-row, 20-pin, 100 mil extension headers.
The Xplained Pro MCU boards have male headers, while the Xplained Pro
extensions have their female counterparts. The following table provides the
pin description of all the connected pins.
Info: Not all pins are always connected on all extension headers.
The extension headers can be used to connect a variety of Xplained Pro extensions to Xplained Pro MCU boards or to access the pins of the target microcontroller on the Xplained Pro boards.
Table 3-2. Xplained Pro Standard Extension Header
| Pin Number | Pin Name | Description |
|---|---|---|
| 1 | ID | Pin to communicate with the ID chip on an extension board. |
| 2 | GND | Ground |
| 3 | ADC(+) | Analog-to-Digital Converter; alternatively, a pin for the positive |
terminal of a differential ADC.
4| ADC(-)| Analog-to-Digital Converter; alternatively, a pin for the negative
terminal of a differential ADC.
5| GPIO1| General purpose I/O pin.
6| GPIO2| General purpose I/O pin.
7| PWM(+)| Pulse-Width Modulation; alternatively, a pin for the positive part
of a differential PWM.
8| PWM(-)| Pulse-Width Modulation; alternatively, a pin for the negative part
of a differential PWM.
9| IRQ/GPIO| Interrupt request pin and/or general purpose I/O pin.
10| SPI_SS_B/ GPIO| Slave select pin for Serial Peripheral Interface (SPI)
and/or general purpose I/O pin.
11| I2C_SDA| Data pin for I2C interface. Always connected, bus type.
12| I2C_SCL| Clock pin for I2C interface. Always connected, bus type.
13| UART_RX| Receiver pin of target device UART.
14| UART_TX| Transmitter pin of target device UART.
15| SPI_SS_A| Slave select for SPI. This pin should preferably not be
connected to anything else.
16| SPI_MOSI| SPI master out slave in pin. Always connected, bus type.
17| SPI_MISO| SPI master in slave out pin. Always connected, bus type.
18| SPI_SCK| SPI clock pin. Always connected, bus type.
19| GND| Ground pin for extension boards.
20| VCC| Power pin for extension boards.
Hardware Specifications
Electrical Characteristics
ATBTLC1000 Xplained Pro can be connected to several Xplained Pro MCU boards
and manually connected to other hardware. Xplained Pro MCU board(s) that does
not have 3.3V as its primary target voltage will read all ID devices on
connected extensions to check if they support the target voltage before
enabling it to the extension headers. The table below shows the static content
written in the ID chip.
Table 4-1. ATBTLC1000 Xplained Pro ID Chip Content
| Data field | Content |
|---|---|
| Product name | ATBTLC1000-XPRO |
| Minimum operation voltage | 1.8V |
| Maximum operation voltage | 3.6V |
| Maximum current | 10mA |
See also Hardware Identification System.
Headers and Connectors
ATBTLC1000 Xplained Pro Extension Header
The ATBTLC1000 Xplained Pro implements one Xplained Pro standard extension
header marked with EXT1 in silkscreen. This header helps to connect the board
to an Xplained Pro MCU board. The pinout definition for the extension header
is shown in the following table.
Table 4-2. ATBTLC1000 Xplained Pro Extension Header EXT1
| Pin on EXT1 | Function | Description |
|---|---|---|
| 1 | ID | Communication line to the ID chip |
| 2 | GND | Ground |
| 3 | NC | Not connected |
| 4 | NC | Not connected |
| 5 | NC | Not connected |
| 6 | GPIO/WAKE | Always-on external wake up |
| 7 | NC | Not connected |
| 8 | PWM-/RTC_CLKP | 32.768 kHz RTC clock (optional feature) |
| 9 | GPIO_MS1 | Mixed signal/Analog interface pin |
| 10 | GPIO/CHIP_EN | Master enable for chip |
| 11 | TWI_SDA | I2C SDA |
………..continued
Pin on EXT1| Function| Description
12| TWI_SCL| I2C SCL
13| UART_TX| UART TX
14| UART_RX| UART RX
15| SPI_SS_A| SPI SS
16| SPI_MOSI| SPI MOSI
17| SPI_MISO| SPI MISO
18| SPI_SCK| SPI Clock
19| GND| Ground
20| VCC| Target supply voltage
Related Links
Xplained Pro Standard Extension Header
Current Measurement Header
The current measurement header (J101) can be used to measure the current
consumed by the ATBTLC1000 module using an ammeter. The two 0Ω resistors R112
and R113 can be removed to measure the current consumed by individual power
rails, VDDIO and VBAT respectively, by soldering in wires for an ammeter.
Debug Connectors
The Debug I2C (J104) and Extension port (J105) are not mounted on the board.
Table 4-3. Debug I2C Connector
Pin on I 2 C connector| Pin on ATBTLC1000 Module|
Function
---|---|---
1| 8| I2C SCL
2| 1| Ground
3| 7| I2C SDA
4| –| Not connected
Table 4-4. Extension Port
| Pin on Extension Port | Pin on ATBTLC1000 Module | Function |
|---|---|---|
| 1 | 4 | UART RX/ SPI SCK |
| 2 | 5 | UART TX/SPI MOSI |
| 3 | 21 | DBG_UART_RX/SPI SSN |
| 4 | 23 | DBG_UART_TX/SPI MISO |
| 5 | 1 | Ground |
| 6 | 1 | Ground |
Note: Blu SDK does not support debug information through the debug I2C and debug UART. The debug I 2C and the debug UART headers are placeholders for future use.
Peripherals
External Flash
The ATBTLC1000 Explained Pro provides a footprint for an external Flash
(U103). The design is tested with an ISSI IS25LD020-JNLE 2 Mb Flash. By
default, the Flash is connected to the SPI master/slave interface of the
ATBTLC1000 module, which is also connected to the Xplained Pro extension
header.
The SPI Flash master interface of the ATBTLC1000 can also be used to control the external Flash by reconfiguring the jumper straps (J109-J112) as following.
External Flash Configuration 1:
ATBTLC1000 SPI0 peripheral connected (default)
Short straps J109, J110, J111, and J112
Open straps J113, J114, J115, and J116
External Flash Configuration 2:
ATBTLC1000 SPI Flash peripheral connected
Short straps J113, J114, J115, and J116
Open straps J109, J110, J111, and J112
Refer to Design Documentation and the ATBTLC1000-MR110CA datasheet for further reference.
Table 4-5. External Flash Pin Configuration
External Flash| Configuration 1, ATBTLC1000 Signals|
Configuration 2, ATBTLC1000 Signals
---|---|---
Pin| Name| Pin| Name| Function| Pin| Name|
Function
1| CE#| 12| LP_GPIO_12| SPI0_SSN| 21| LP_GPIO_16| SPI Flash SSN
2| SO| 14| LP_GPIO_13| SPI0_MISO| 23| LP_GPIO_18| SPI Flash RxD
5| SIO| 11| LP_GPIO_11| SPI0_MOSI| 5| LP_GPIO_3| SPI Flash TxD
6| SCK| 10| LP_GPIO_10| SPI0_SCK| 4| LP_GPIO_2| SPI Flash SCK
Note: Connecting the ATBTLC1000-ZR module to the external Flash is not supported.
Temperature Sensor
he ATBTLC1000 Xplained Pro extension board features an AT30TSE758 temperature
sensor with an 8 kb serial EEPROM inside. The sensor includes programmable
high and low temperature alarms, users electable temperature resolution up to
12 bits, and an I2C/SMBus compatible serial interface.
Table 4-6. Temperature Sensor Connections
Pin on EXT Connector| **Pin Name| AT30TSE758 Temperature
Sensor Pin| Comment
---|---|---|---
11| SDA| 1| Data line of serial interface
12| SCL| 2| Clock line of serial interface
………..continued**
Pin on EXT Connector| **Pin Name| AT30TSE758 Temperature
Sensor Pin| Comment**
–| ALERT| 3| Temperature alarm signaling pin
2, 19| GND| 4|
–| A2| 5| Address line for serial interface, shorted to GND
–| A1| 6| Address line for serial interface, shorted to GND
–| A0| 7| Address line for serial interface, shorted to GND
20| VCC| 8|
The temperature sensor has two I2C addresses, one for the temperature sensor and one for the EEPROM. The addresses are “0b1001 A2 A1 A0” for the temperature sensor and “0b1010 A2 A1 A0” for the EEPROM. The address selection lines (A2, A1, and A0) of the temperature sensor are shorted to GND, which makes the default addresses 0b1001000 and 0b1010000. When communicating with the EEPROM, parts of the TWI address are used as a page address. For more details, see the device (AT30TSE752A/754A/758A) datasheet.
Power LED
The power LED (D101) is connected to the power rail from the extension header.
The current measurement jumper must be closed to enable power to the
ATBTLC1000 module.
Reset Switch
The ATBTLC1000 Xplained Pro contains footprint of switch (SW100) along with
resistor R111 and capacitor C107 that can be mounted to reset the ATBTLC1000.
The switch is connected to the CHIP_EN pin of the ATBTLC1000, which is pulled
up by default.
Attention: When this switch is used to reset the device, the host MCU loses the status of the ATBTLC1000 device. It is recommended not to reset the device using this switch when it is controlled by the host MCU.
32kHz RTC Oscillator
The ATBTLC1000 has a 32.768kHz RTC oscillator that is used for BLE activities
involving connection events. There is also a provision to reconfigure the
ATBTLC1000 Xplained Pro board to bypass the external crystal oscillator with
an external signal capable of driving 2pF on the RTC_CLK_P pin of the
ATBTLC1000-MR110CA.
Table 4-7. Configuring the RTC Oscillator
| Configuration option | Board configuration |
|---|---|
| 32.768kHz RTC oscillator | Open R105, Close J107 |
| External signal on RTC_CLK_P | Close R105, Open J107, J106 |
Hardware Revision History and Known Issues
Identifying Product ID and Revision
There are two ways to find the revision and product identifier of the Xplained
Pro boards: either through Atmel Studio or by looking at the sticker on the
bottom side of the PCB.
When an Xplained Pro MCU board is connected to a computer with Atmel Studio running, an information window with the serial number is shown. The first six digits of the serial number contain the product identifier and revision. Information about connected Xplained Pro extension boards is also shown in the window.
The same information can be found on the sticker on the bottom side of the PCB. Most kits have stickers that have the identifier and revision printed in plain text as A09-nnnn/rr, where nnnn is the identifier and rr is the revision. Boards with limited space have a sticker with only a data matrix code, which contains a serial number string.
The serial number string has the following format
nnnnrrssssssssss”
n = product identifier
r = revision
s = serial number
The product identifier for the ATBTLC1000 Explained Pro is A09-2528.
Revision 2
Revision 2 is the initially released revision.
The ATBTLC1000 Xplained Pro revision 2 is partially incompatible with SAM L21
Xplained Pro extension header EXT1; pin 10 (Chip Enable) is shared with the
user button SW0 on the SAM L21 Xplained Pro. A workaround for the
incompatibility is to modify the kit by cutting a track in the PCB from pin
10, and soldering a wire from a test point to pin 4 of the Xplained Pro
extension header as shown in the following image.
Figure 5-1. Chip Enable Workaround
When the modification is done, the pinout table in Table 4-2 is changed
according to the following table.
Table 5-1. ATBTLC1000 Xplained Pro Extension Header EXT1 Modification
| Pin on EXT1 | Function | Description |
|---|---|---|
| 4 | GPIO/CHIP_EN | Master Enable for chip |
| 10 | NC | Not Connected |
Some ATBTLC1000 Xplained Pro kits are already modified according to the instructions above. These kits are marked with a round, green sticker in the upper right corner as shown in the following image.
Figure 5-2. Modified ATBTLC1000 Xplained Pro Kits
ATBTLC1000XPRO-ADP Adapter Board
Kit Overview
The ATBTLC1000XPRO-ADP is an adapter board designed for the ATBTLC1000
Xplained Pro with the ATBTLC1000-MR110CA Bluetooth module. It is designed to
allow direct connection of the ATBTLC1000 Xplained Pro with different Xplained
Pro MCU boards for providing UART hardware flow control functionality.
Need for the Kit
Due to the non-standard mapping of the UART flow control lines on the
extension headers, the
ATBTLC1000 Xplained Pro is incompatible for direct connection with some Xplained Pro platforms. Loose wire connections are required between the Xplained Pro boards and the ATBTLC1000 Xplained Pro extension board to support the UART flow control functionality.
The adapter board has been designed to avoid these loose wire connections. It has jumper configurations to support this functionality across different Xplained Pro MCU boards. The Xplained Pro boards and the corresponding UART flow control mode supported by the adapter board is shown in the table below.
Table 6-1. Xplained Pro Boards Support
| XPLAINED PRO BOARD | UART FLOW CONTROL MODE |
|---|---|
| SAM L21 Xplained Pro | 4-Wire Mode |
| SAM D21 Xplained Pro | 4-Wire Mode |
| SAM 4S Xplained Pro | 4-Wire Mode |
| SAM G55 Xplained Pro | 4-Wire and 6-Wire Mode |
Hardware
The ATBTLC1000XPRO-ADP adapter board has the following headers:
- Female extension header (J100) – 1
- Male extension header (J105) – 1
- 1×3 pin headers (J101, J102, J103, J104, J106, J107) – 6
- 2×5 pin headers (J108, J109) – 2
The adapter board can be connected to several Xplained Pro MCU boards using a female extension header. The male extension header is used to connect it to the ATBTLC1000 Xplained Pro.
The jumpers on the pin headers have to be placed based on the Xplained Pro board used and the UART Flow Control mode of the ATBTLC1000 Xplained Pro (6-Wire mode or 4-Wire mode), as shown in the following table.
Table 6-2. Jumper Placement on Headers
JUMPERS| SAML21:4- Wire| SAMD21:4- Wire|
SAM4S:4-Wire| SAMG55:4- Wire| SAMG55:6- Wire
---|---|---|---|---|---
J101| J2-3| J2-3| J1-2| J1-2| J1-2
J102| J2-3| J2-3| J1-2| J1-2| J1-2
J103| J2-3| J2-3| J1-2| J1-2| J1-2
J104| J2-3| J2-3| J1-2| J1-2| J1-2
J106| J2-3| J2-3| J1-2| J1-2| J1-2
J107| J2-3| J2-3| J1-2| J1-2| J1-2
J108| J1-2,J3-4| J1-2,J3-4| J1-2,J3-4| J1-2,J3-4| J5-6,J7-8,J9-10
J109| J1-2,J3-4| J1-2,J3-4| J1-2,J3-4| J1-2,J3-4| J5-6,J7-8,J9-10
Note: Ensure that jumpers are not placed in adapter board locations other than those specified in the table above
Evaluation Kit Interface Details (Without Adapter Board)
This section describes the hardware interface details required between the SAMG55/D21/L21/L22 Xplained Pro boards and the ATBTLC1000 Xplained Pro board for both the UART 4-wire and 6-wire configurations. The required connections can be made with loose wires as shown in the following figure.
Figure 7-1. Hardware Interface Details (without Adapter Board)
The following table specifies the hardware interface detail between the
SAMG55/D21/L21/L22 Xplained Pro board with the ATBTLC1000 Xplained Pro board
for UART 4-wire configuration. These connections must be made with loose
wires, if ATBTLC1000XPRO-ADP board is not available.
Table 7-1. Hardware Flow Control 4-Wire Mode Interface Details –
ATBTLC1000-MR110CA Module
Pin Description| SAM G55/SAM 4S XPro (EXT1)| SAM D21/L21/L22 XPro
(EXT1)| ATBTLC1000 XPro
---|---|---|---
ATBTLC1000 Wakeup| (EXT1-PIN4)| (EXT1-PIN6)| PIN6 – ATBTLC1000 Wake up
ATBTLC1000 ChipEnable| (EXT1-PIN10)| (EXT1-PIN4)| PIN4 – ATBTLC1000
ChipEnable(1)
MCU UART Rx| (EXT1-PIN13)| (EXT1-PIN15)| PIN13 – ATBTLC1000 Tx
MCU UART Tx| (EXT1-PIN14)| (EXT1-PIN17)| PIN14 – ATBTLC1000 Rx
MCU UART RTS| (EXT1-PIN5)| (EXT1-PIN16)| PIN11 – ATBTLC1000 CTS
MCU UART CTS| (EXT1-PIN6)| (EXT1-PIN18)| PIN12 – ATBTLC1000 RTS
Host Wake up| (EXT1-PIN9)| (EXT1-PIN9)| PIN9 – GPIO_MS1
GND| (EXT1-PIN19)| (EXT1-PIN19)| PIN19 – GND
VCC| (EXT1-PIN20)| (EXT1-PIN20)| PIN20 – VCC
The following table specifies the hardware interface detail between the SAMG55/D21/L21/L22 Xplained Pro board with the ATBTLC1000 Xplained Pro board for the UART 6-wire configuration. For the SAMD21/L21/L22 Xplained Pro boards, the BTLC1000 Xplained Pro board can be directly plugged into the EXT header. For the SAMG55 Xplained Pro board, the connections must be made as follows with loose wires, if the ATBTLC1000XPRO-ADP board is not available.
Table 7-2. Hardware Flow Control 6-Wire Mode Interface Details –
ATBTLC1000-MR110CA
Module
Pin Description| SAM G55 XPro (EXT1)| SAM D21/L21/L22 XPro
(EXT1)| ATBTLC1000 XPro
---|---|---|---
ATBTLC1000 Wake up| (EXT1-PIN4)| (EXT1-PIN6)| PIN6 – ATBTLC1000 Wake up
ATBTLC1000 ChipEnable| (EXT1-PIN10)| (EXT1-PIN4)| PIN4 – ATBTLC1000
ChipEnable(1)
MCU Primary UART Rx| (EXT1-PIN17)| (EXT1-PIN13)| PIN13 – ATBTLC1000 Tx
MCU Primary UART Tx| (EXT1-PIN16)| (EXT1-PIN14)| PIN14 – ATBTLC1000 Rx
MCU Secondary UART Rx| (EXT1-PIN13)| (EXT1-PIN15)| PIN15 – ATBTLC1000 Tx
MCU Secondary UART Tx| (EXT1-PIN14)| (EXT1-PIN17)| PIN17 – ATBTLC1000 Rx
MCU Secondary UART RTS| (EXT1-PIN5)| (EXT1-PIN16)| PIN16 – ATBTLC1000 CTS
MCU Secondary UART CTS| (EXT1-PIN6)| (EXT1-PIN18)| PIN18 – ATBTLC1000 RTS
Host Wake up| (EXT1-PIN9)| (EXT1-PIN9)| PIN9 – GPIO_MS1
GND| (EXT1-PIN19)| (EXT1-PIN19)| PIN19 – GND
VCC| (EXT1-PIN20)| (EXT1-PIN20)| PIN20 – VCC
Note:
- Chip Enable is available on Pin 4 of revised ATBTLC1000 XPRO boards ( see 5.2 Revision 2 ).
- Primary UART is used only for enabling the hardware flow control on the secondary UART. After enabling the hardware flow control on the secondary UART, all the communications between the host MCU and the ATBTLC1000 happen through the secondary UART.
Refer to the following documents for equivalent pin names of the respective platforms:
- SAM L22 Xplained Pro User Guide
- SAM L21 Xplained Pro User Guide
- SAM D21 Xplained Pro User Guide
- SAM G55 Xplained Pro User Guide
- SAM 4S Xplained Pro User Guide
Document Revision History
| Revision | Date | Section | Description |
|---|---|---|---|
| A | 02/2019 | Document |
- Change of document style.
- New Microchip document number.
Evaluation Kit Interface Details (Without Adapter Board)| Added new section
Doc. rev.| Date| Comment
---|---|---
42538C| 05/2016| Added ATBTLC1000XPRO-ADP Adapter Board chapter.
42538B| 11/2015| Added revision 2 ERRATA. Added temperature sensor, and
electrical characteristics chapter. Updated the external flash chapter.
42538A| 09/2015| Initial document release.
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Quality Management System Certified by DNV
ISO/TS 16949
Microchip received ISO/TS-16949:2009 certification for its worldwide
headquarters, design and wafer fabrication facilities in Chandler and Tempe,
Arizona; Gresham, Oregon and design centers in California and India. The
Company’s quality system processes and procedures are for its PIC® MCUs and
dsPIC® DSCs, KEELOQ® code hopping devices, Serial EEPROMs, microperipherals,
nonvolatile memory and analog products. In addition, Microchip’s quality
system for the design and manufacture of development systems is ISO 9001:2000
certified.
References
- Empowering Innovation | Microchip Technology
- Microchip Lightning Support
- Tools and Resources | Microchip Technology
- microchip.com/developmenttools/ProductDetails/ATBTLC1000-XPRO
- Application Notes | Microchip Technology
- microchip.com/wwwproducts/en/AT30TSE758A
- Empowering Innovation | Microchip Technology
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