Microchip ATA6570 Manual

Microchip Ikke kategoriseret ATA6570

Læs gratis den danske manual til Microchip ATA6570 (82 sider) i kategorien Ikke kategoriseret. Denne vejledning er vurderet som hjælpsom af 13 personer og har en gennemsnitlig bedømmelse på 4.4 stjerner ud af 7 anmeldelser. Har du et spørgsmål om Microchip ATA6570, eller vil du spørge andre brugere om produktet?

Download PDF

Side 1/82

ATAB657XA Development Board User's Guide

Introduction

The development board ATAB657XA is a hardware platform to evaluate the new ATA657X CAN device

family and it enables users to rapidly prototype and test new CAN designs with the ATA657X ICs.

The ATA657X device family includes three high-speed controller area network (CAN) transceivers, which

interface a CAN protocol controller and the physical two-wire CAN bus designed for high-speed CAN

applications (up to 5 Mbit/s) in the automotive environment. Two of them also support partial networking.

All offer improved electromagnetic compatibility (EMC) and electrostatic discharge (ESD) performance

and very low-power consumption in Standby and Sleep modes:

• Besides local wake-up via WAKE and remote wake-up pattern in accordance with ISO 11898-5, the

ATA6570 is fully compliant to the ISO 11898-6 supporting CAN partial networking. The ATA6570

additionally supports a CAN-FD device and can be easily configured via the SPI as Non-FD

(meaning classical CAN 2.0), CAN FD silent, CAN FD passive or as CAN FD active device, in order

to fulfill the corresponding application requirements. The VIO pin allows the automatic adjustment

of the I/O levels to the I/O level of the connected microcontroller.

• The ATA6571 has ideal passive behavior to the CAN bus when the supply voltage is off.

Microcontrollers with supply voltages from 3V to 5V can be directly interfaced via the VIO pin. Its

advanced low-power management with local and remote wake-up support makes it possible to

achieve very low current consumption in Standby and Sleep mode, even when the internal VIO and

VCC supplies are switched off. Diagnostic and protection functions, including bus line short-circuit

detection and battery connection detection, are also part of the ATA6571's features.

• The ATA6572 is a CAN Partial Networking transceiver and is very similar to the ATA6570. The only

difference is that instead of the WAKE pin, it has a dedicated reset pin indicating a watchdog failure or

an undervoltage event.

Various operating modes together with the dedicated fail-safe features make the ATA657X an excellent

choice for all types of high-speed CAN networks, especially in nodes requiring low-power mode with local

wake-up capability or via the CAN bus. With the INH output they have the capability to power down the

complete CAN node.

The ATA657X devices are available in a SOIC14 package as well as in a VDFN14 package, for space-saving

application. The development board ATAB657XA supports only SOIC14 packages. However, an adaptor

board can be plugged in using the adaptor board-header, if a device in a VDFN package is used (the adaptor

board is within the not scope of supply and services of this demo kit/board).

Figure 1. SOIC14 Pinning

SOIC14

4ATA6570

TXD

GND

VCC

RXD

VIO

INH

CANH

CANL

4ATA6571

TXD

GND

VCC

RXD

VIO

INH

CANH

CANL

4ATA6572

TXD

GND

VCC

RXD

VIO

INH

CANH

CANL

WAKE

NCS

MOSI

SCK

MISO MISO

SCK

NRES

MOSI

NCS

NSTBY

WAKE

NERR

SOIC14 SOIC14

Development Board Features

The development board for the ATA657X ICs supports the following features:

• All components necessary to put the ATA6570, ATA6571 or ATA6572 into operation are included

• Placeholders for some optional components for extended functions

• All pins are easily accessible

• Switching into Normal, Standby or Sleep mode via two jumpers (ATA6571)

• Push button included for creating a local wake-up after entering Sleep mode

• LEDs for operation indication

• Ground coulter clip for easy probe connection while measuring with oscilloscope

• Connectors for direct plug-in with the C21-XPRO Xplained board (only ATA6570 and ATA6572 with

SPI)

WHAT DOES THE ATAB657XA DEVELOPMENT BOARD KIT CONTAIN?

This ATAB657XA Development Board kit includes:

• ATAB657XA Development Board (ADM00870)

• Important Information Sheet

Table of Contents

Introduction......................................................................................................................1

Development Board Features..........................................................................................2

WHAT DOES THE ATAB657XA DEVELOPMENT BOARD KIT CONTAIN?...................2

1. Hardware Description................................................................................................ 6

1.1. Power Supply............................................................................................................................... 7

1.2. Headers, Connectors and Jumpers .............................................................................................7

1.3. Mechanical Buttons......................................................................................................................8

1.4. LEDs.............................................................................................................................................8

2. Crypto Authentication Device.................................................................................. 10

3. Mode Control........................................................................................................... 11

4. Graphical User Interface (GUI)................................................................................13

4.1. Features..................................................................................................................................... 13

4.2. Maintab.......................................................................................................................................14

4.3. Registers.................................................................................................................................... 17

4.4. SPI..............................................................................................................................................17

4.5. CAN............................................................................................................................................18

5. Test Setups and Measurements ............................................................................. 19

5.1. Various Measurements...............................................................................................................19

5.2. Measurement Hints.................................................................................................................... 21

6. Schematics and Layout........................................................................................... 23

6.1. ATAB657XA Board Schematic................................................................................................... 23

6.2. Board - Top Silk..........................................................................................................................25

6.3. Board - Top Copper and Silk...................................................................................................... 26

6.4. Board - Top Copper.................................................................................................................... 27

6.5. Board - Bottom Copper.............................................................................................................. 28

7. ATAB657XA Board BOM......................................................................................... 29

8. Register Description................................................................................................ 34

8.1. Device Mode Control Register (Address 0x01)..........................................................................35

8.2. Device Mode Status Register (Address 0x03)........................................................................... 36

8.3. CAN Transceiver Control Register (Address 0x20)....................................................................37

8.4. CAN Transceiver Status Register (Address 0x22)..................................................................... 38

8.5. Bus Failure Indication Register (Address 0x33).........................................................................39

8.6. Transceiver Event Status Register 2 (Address 0x35).................................................................40

8.7. Data Rate Configuration Register (Address 0x26).....................................................................41

8.8. CAN ID Register 0 (Address 0x27)............................................................................................ 42

8.9. CAN ID Register 1 (Address 0x28)............................................................................................ 43

8.10. CAN ID Register 2 (Address 0x29)............................................................................................ 44

8.11. CAN ID Register 3 (Address 0x2A)............................................................................................ 45

8.12. CAN ID Mask Register 0 (Address 0x2B).................................................................................. 46

8.13. CAN ID Mask Register 1 (Address 0x2C).................................................................................. 47

8.14. CAN ID Mask Register 2 (Address 0x2D).................................................................................. 48

8.15. CAN ID Mask Register 3 (Address 0x2E).................................................................................. 49

8.16. CAN Frame Configuration Register (Address 0x2F).................................................................. 50

8.17. Error Frame Counter Threshold Register (Address 0x3A).........................................................51

8.18. Failure Error Counter Register (Address 0x3B)......................................................................... 52

8.19. Glitch Filter Threshold Register (Address 0x67)........................................................................ 53

8.20. CAN Data Mask Registers 0...7 (Address 0x68…0x6F)............................................................ 54

8.21. Bus Failure Event Capture Enable Register (Address 0x32)..................................................... 55

8.22. Pin WAKE Status Register (Address 0x4B)............................................................................... 56

8.23. Global Event Status Register (Address 0x60)............................................................................57

8.24. System Event Status Register (Address 0x61).......................................................................... 58

8.25. Transceiver Event Status Register (Address 0x63)....................................................................59

8.26. WAKE Event Status Register (Address 0x64)............................................................................60

8.27. Bus Failure Event Indication Status Register (Address 0x65)....................................................61

8.28. System Event Capture Enable Register (Address 0x04)........................................................... 62

8.29. Transceiver Event Capture Enable Register (Address 0x23).....................................................63

8.30. Transceiver Event Capture Enable Register 2 (Address 0x34)..................................................64

8.31. WAKE Event Capture Enable Register (Address 0x4C)............................................................ 65

8.32. Device ID Register (Address 0x7E)............................................................................................66

8.33. Register Write Protection Register (Address 0x0A)................................................................... 67

8.34. Watchdog Configuration Register 1 (Address 0x36).................................................................. 68

8.35. Watchdog Control Register 2 (Address 0x37)............................................................................ 70

8.36. Watchdog Status Register (Address 0x38)................................................................................ 72

8.37. Watchdog Trigger Register (Address 0x39)............................................................................... 73

8.38. General purpose memory 0 (Address 0x06).............................................................................. 74

8.39. General purpose memory 1 (Address 0x07).............................................................................. 75

8.40. General purpose memory 2 (Address 0x08).............................................................................. 76

8.41. General purpose memory 3 (Address 0x09).............................................................................. 77

9. Revision History.......................................................................................................78

The Microchip Web Site................................................................................................ 79

Customer Change Notification Service..........................................................................79

Customer Support......................................................................................................... 79

Microchip Devices Code Protection Feature................................................................. 79

Legal Notice...................................................................................................................80

Trademarks................................................................................................................... 80

Quality Management System Certified by DNV.............................................................81

Worldwide Sales and Service........................................................................................82

1. Hardware Description

The development board for the ATA657X is shipped with all components necessary to start developing a

CAN node immediately. However, commands, data and status information are transferred to and from the

ATA6570 and ATA6572 via SPI. This is how the ATA6570 and the ATA6572 can be configured and

operated.

Microchip offers an Xplained Pro board (ATSAMC21-XPRO Xplained board), which can be used to

interface with the ATA657X GUI to operate and control the ATA6570 and ATA6572. This Xplained Pro

board must be ordered separately, as the ATAB657XA board comes as a stand-alone board. The

ATA657X GUI can be downloaded directly from Microchip’s web site: http://www.microchip.com/.

Figure 1-1. ATAB657XB Evaluation Board Overview

After correctly connecting an external 12V DC power supply (Power Header VS) to the power connector

of the ATAB657X A board and connecting the Xplained Pro interface board to the PC via the USB cable,

the kit is ready to use. To start working with the kit, execute the .ATA6570/72.exe

The ATA6570/72 IC starts in Standby mode, INH is active (if jumper J4 is set the LED LD1 is ON) and the

window watchdog is switched off at the ATA6570 and switched on at the ATA6572. A quick check to

determine if everything is working properly can be done by executing the following:

CAN Communication Check:

• Click the button in the sectionNormal Mode Operating mode

• Click the button in the sectionNormal Mode CAN transceiver

• Set “TXD Pulsed”

• Choose 250 kHz as “Frequency” and press the button. A 250 kHz signal should be visible onSet

the CANH and CANL pins, when you put oscilloscope probes on those pins.

Sleep/Wake-up Check:

Hardware Description

• Select or in the Falling edge Rising edge Wake-up settings section

• Click the button in the section. Please keep in mind that at least oneSleep Mode Operating mode

wake-up source should be selected prior putting the ATA657X device into Sleep mode (to avoid

dead lock). Otherwise the go to sleep command will be ignored and the device will switch to

Standby mode.

• The INH will be switched off and if the jumper J4 is set the LED “LD1” will be switched off

• Press the local wake-up button (ATAB657X board) -> the LED LD1 will be switched on (the

ATA657X device switches from Sleep to Standby mode and the INH becomes active)

Watchdog Check:

• Press the button in the sectionSTBY Mode Operating mode

• Select “Window mode”

• The LED LD1 should be flashing – Watchdog resets at INH, because the watchdog is not triggered

• Set 100 ms for the “Trigger period” in the Watchdog section

• Set “Trigger On”

• The LED LD1 should be permanently on – Watchdog is working properly and no resets are

generated at the INH pin

1.1 Power Supply

The ATAB657XA board can be powered by an external power source (4.5V to 28V) through the X1

connector or the 2-pin power header X4.

Additionally, a 5V external power source should be connected to the X5 connector (VCC) and the power

source (2.8V to 5.5V) used to supply the used microcontroller should be connected to the X5 connector

(VIO), when working in stand-alone mode. When the ATAB657XA board is connected to a C21-XPRO

Xplained Pro board, VIO and VCC will be delivered from the Xplained Pro board through the X3 power

header. However if it is necessary to have an external VIO and/or VCC power supply while an Xplained

Pro board is connected to the ATAB657XA board, the trace at BR5 and BR6 should be cut. This cut-

connection can be at any time restored by soldering a 0Ω resistance on the BR5 and/or BR6 footprint.

1.1.1 Measuring the ATA657X Current Consumption

As part of an evaluation of the ATA657X device it can be of interest to measure its current consumption.

Because the device has different power supplies (VBAT, VCC and VIO) it is possible to measure the

current consumption via separate jumpers. By replacing the jumper J6 by an ampere-meter it is possible

to determine the current consumption at VIO and by replacing the jumper J7 it is possible to measure the

current consumption at VCC.

1.2 Headers, Connectors and Jumpers

The following table describes the implementation of the relevant connectors, headers and jumpers on the

ATAB657XA evaluation board.

Table 1-1. Headers, Connectors and Jumpers

Type Name Description

Switch Jumper J1

NSTBY-pin mode control jumper. The NSTBY pin together

with the EN pin controls the operating mode of the device.

Available only on the ATAB6571A board.

Hardware Description

Type Name Description

Switch Jumper J2

EN-pin mode control jumper. The EN pin together with the

NSTBY pin controls the operating mode of the device.

Available only on the ATAB6571A board.

Jumper J3

VIO to VCC jumper. If the VIO voltage is same as VCC

(5V) this jumper can be set and only one supply can be

applied at header X5. If VIO is different than VCC this

jumper should be removed.

Jumper J4

When replacing the jumper J4 by an amperemeter it is

possible to determine the current consumption at INH, or

connect an external circuitry. When measuring the allover

current consumption of the device this jumper should be

removed in order to disconnect the LD1 LED from the INH

pin.

Jumper J5

When replacing the jumper J5 by an amperemeter it is

possible to determine the current consumption at NERR.

Or connect an external circuitry. Or when measuring the

all-over current consumption of the device this jumper

should be removed in order to disconnect the LD2 LED

from the NERR pin. Available only on the ATAB6571A

board

Jumper J6 When replacing the jumper J6 by an amperemeter it is

possible to determine the current consumption at VIO.

Jumper J7 When replacing the jumper J7 by an amperemeter it is

possible to determine the current consumption at VCC.

Connector X1 Main power supply connector – VBAT

Header X2 Interface header to C21-XPRO Xplained board

Header X3 External supply power header – GND, VIO and VCC

supplied from C21-XPRO Xplained board.

Header X4 Optional main power supply connector – VBAT

Header X5 VCC and VIO power supply header

Header X6 CAN bus connection header

1.3 Mechanical Buttons

There is one mechanical button on the ATAB657XA board. It is only mounted at the ATAB6570A and

ATAB6571A boards and is used to generate a local wake-up. At the ATAB6572A variant this button is not

assembled.

1.4 LEDs

There are two LEDs available on the ATAB657XA board (LD1 and LD2) indicating activity on INH pin and

NERR pin respectively. Via the jumpers J4 and J5, the LEDs can be deactivated if necessary (for

Hardware Description

example for current measurements, or if an external circuitry should be connected to the INH pin or to

NERR pin).

Hardware Description

2. Crypto Authentication Device

On the ATAB657XA board two crypto authentication devices are mounted. The ATSHA204 contains

information that identifies the extension with its name and some extra data. When an ATAB657XA board

is connected through an interface Xplained Pro board to a PC, the information is read and sent to the

GUI. The table below shows the data fields stored in the ID chip with example content.

Table 2-1. ID Chip Content

Data Field Name Example Content

Manufacturer ASCII string Atmel’\0’

Product Name ASCII string ATAB657xA’\0’

Product Revision ASCII string 01’\0’

Product Serial Number ASCII string 1774020200000010’\0’

Minimum Voltage [mV] uint16_t 3300

Maximum Voltage [mV] uint16_t 5500

Maximum Current [mA] uint16_t 50

The second crypto authentication device is the Microchip ATECC508A. It integrates ECDH (Elliptic Curve

Diffie-Hellman) security protocol — an ultra-secure method to provide key agreement for encryption/

decryption, along with ECDSA (Elliptic Curve Digital Signature Algorithm) sign-verify authentication.

Similar to all Microchip CryptoAuthentication products, ATECC508A employs ultra-secure hardware-

based cryptographic key storage and cryptographic countermeasures that are more secure than

software-based key storage.

The device is compatible with any microprocessor (MPU) or microcontroller (MCU) including Microchip

and Microchip AVR MCUs or MPUs. As with all CryptoAuthentication devices, the ATECCC508A delivers

extremely low power consumption, requires only a single GPIO over a wide voltage range and has a tiny

form factor making it ideal for a variety of applications that require longer battery life and flexible form

factors.

The ATECC508A can be used together with the ATA657X can transceiver in order to provide secured

CAN communication. For more information about the ATECC508A crypto authentication device and how

it can be configured please visit our web site: http://www.microchip.com/wwwproducts/en/ATECC508A.

Crypto Authentication Device

3. Mode Control

The ATA657X devices offer various operation modes.

The desired operating mode of the ATA6570 and the ATA6572 devices can be set via the SPI interface.

With the dedicated GUI and the connected Xplained Pro interface board (C21-XPRO) configuring the

ATA6570 and the ATA6572 devices can be easily done (for more information please see section 4.

Graphical User Interface (GUI)).

The ATA6571 can be set into its different operating modes via the switch jumpers J1 and J2, which are

connected with the NSTBY pin respectively the EN pin. The following table shows the switch jumper

setting and the corresponding selected mode.

Table 3-1. Mode Control Jumper Settings

Mode J1 (NSTBY) Position J2 (EN) Position

Sleep Mode In the middle In the middle

Standby Mode Left (VIO) In the middle

Standby Mode Right (GND) In the middle

Standby Mode Right (GND) Up (GND)

Sleep Mode Right (GND) In the middle

Silent Mode Left (VIO) Up (GND)

Normal Left (VIO) Down (VIO)

Figure 3-1. ATAB6571A Evaluation Board Mode Change Jumpers

Normal Mode

A high level on the NSTBY pin and a high level on the EN pin selects Normal mode. In this mode, the

transceiver is able to transmit and receive data via the CANH and CANL bus lines. The output driver

stage is active and drives data from the TXD input to the CAN bus. The differential receiver converts the

Mode Control

analog data on the bus lines into digital data that is output to pin RXD. The bus biasing is set to VCC/2

and the undervoltage monitoring of VCC is active. Also the INH output is switched on.

The slope of the output signals on the bus lines is controlled and optimized in a way that guarantees the

lowest possible electromagnetic emission (EME).

To switch the device in normal operating mode, set the NSTBY pin to high (jumper J1 set to the left side)

and the EN pin to high (jumper J2 set to lower position).

The STBY and the EN pins each provide a pull-down current to GND, thus ensuring defined levels if the

pins are open.

Silent Mode

A high level on the NSTBY pin and a low level on the EN pin selects Silent mode. This receive-only mode

can be used to test the connection of the bus medium. In Silent mode, the ATA6571 can still receive data

from the bus, but the transmitter is disabled and therefore no data can be sent to the CAN bus. The bus

pins are released to recessive state (VCC/2) and the INH output remains active. All other IC functions,

including the receiver, continue to operate as they do in Normal mode. Silent mode can be used to

prevent a faulty CAN controller from disrupting all network communications.

Standby Mode

A low level on the NSTBY pin selects Standby mode. In this mode, the transceiver is not able to transmit

or correctly receive data via the bus lines. The transmitter and the Normal-mode receiver are switched off

to reduce current consumption and only a low power differential receiver monitors the bus line for a valid

wake-up signal. If a dominant state longer than twake is received, the RXD switches to low to signal a

wake-up request.

In Standby mode, the bus lines are biased to ground to reduce current consumption to a minimum. The

low-power differential receiver monitors the bus lines for a valid wake-up signal. When the RXD pin

switches to low to signal a wake-up request, a transition to Normal mode is not triggered until the STBY

pin is forced back to low by the microcontroller.

In the event the NSIL input pin is set to low in Standby mode, the internal pull-up resistor causes an

additional quiescent current from VIO to GND. Microchip therefore recommends setting the NSIL to high

in Standby mode.

Sleep Mode

In Sleep Mode the current into the VS pin is reduced to a minimum. The behavior of the transceiver is the

same as in Standby mode, but the INH output is switched off.

Mode Control

4. Graphical User Interface (GUI)

Figure 4-1. ATA6570/72 Graphical User Interface

Note: The root directory of the GUI contains installers for the Visual C# runtime from Microsoft and for

the Microchip USB drivers. Both are necessary to run the GUI and must be run before the GUI is

launched. should be installed for x86/x64 based systems. For the USB driver thevc_redist.x86.exe

correct installer should be chosen depending on the host computer.

4.1 Features

• Configuration of functions

– Operating mode

– CAN Transceiver mode

Graphical User Interface (GUI)

– Watchdog

– System events

– Wake-up settings

– CAN-PN settings

– General-purpose memory

– Status bits

– Lock Control

• Direct read/write to all registers

• Configuration for Xplained Pro

– Watchdog trigger

– CAN TXD pin static/pulsed/data

• SPI commands

The ATA657X GUI is a PC software application that graphically displays configuration of an ATA657X

device received through the PC’s USB connection. The received data is shown in different tabs.

4.2 Maintab

This tab gives access to most of the functionality from a feature perspective. The device can be

configured without accessing the registers directly. Register accesses (read and write) will happen in the

background and will be printed to the SPI log window.

This tab is not refreshed periodically. Instead, relevant parts are refreshed when performing an action. For

example, when configuring the operating mode, the mode is read back and updated accordingly. There

are two ways to refresh the complete tab:

• Switch from a different tab

• Select a different SAMC21 Xplained Pro board in the section and press Serial Selection Refresh

Both methods will refresh the entire .Maintab

4.2.1 Serial Selection

The GUI supports connecting to multiple SAMC21 Xplained Pro boards, hence it is necessary to select

which one to send the command to. In the drop-down menu, all boards with a suitable firmware are

shown. Commands are sent to the currently selected one. The board can be identified by the Serial

number that is also shown in this window. This serial number is printed on a sticker on the bottom of the

PCB. To help identifying the board the LED0 close to the SW0 can be toggled by the GUI.

4.2.2 Operating Mode

The operating mode of the device can be chosen in this section. Available are Standby, Normal and

Sleep modes, as described in the data sheet. Additionally, the state of the INH pin is continuously

monitored and shown in a check box. The switch to Normal and Standby mode can always be executed

by issuing the corresponding write to the DCMR register. To enter Sleep mode, certain conditions must be

fulfilled, which are described in the data sheet. The GUI checks for these conditions and if they are not

fulfilled logs an error in the SPI log window. The mode will remain as before. A write attempt to DCMR will

not happen.

4.2.3 CAN Transceiver

In this section the transceiver part can be configured. For the CAN Transceiver the following modes are

accessible

Graphical User Interface (GUI)

• Standby mode

• Normal mode

• Normal mode with undervoltage detection active

• Silent mode

Note: To use the transceiver the device operating mode has to be Normal mode. This mode can be

changed as described in 4.2.2 Operating Mode

In this section it is also possible to control an output of the SAMC21 connected to the TXD input.

Available options are

• TXD pulsed - this will pulse the TXD with a 50% duty cycle

• TXD static low

• TXD static high

• TXD tristate - in this case the internal pull-up on the ATA657X will pull the pin high

When the pulse option is selected, the nearest possible value for the frequency will be selected and the

Freq. cell will be updated accordingly.

4.2.4 Watchdog

In this section, the watchdog can be configured. Available modes are:

• “Off”

• “Window mode”

• “Time-Out mode”

Additionally, all the configuration bits for the watchdog can be controlled.

The following bits can be set/cleared:

• “Active in Sleep mode” - sets/clears the WDSLP bit in WDCR1 register

• “Long startup window” - sets/clears the WDLW bit in the WDCR1 register

• “Active Discharge” - sets/clears the ADCH bit in the WDCR1 register

“Watchdog period” and “Reset pulse length” control the settings in WDCR1 and WDCR2.

Note: In order to avoid unwanted configuration of the window watchdog (WWD), the ATA6570 only

allows users to configure the WWD (write access to WDCR1 register and WDCR2) when the device is in

Standby mode. For more information, please see the data sheet.

An appropriate trigger setup should be made that configures the SAMC21 Xplained Pro to generate an

SPI trigger command with the configured frequency. Activating the trigger will first update the frequency

on the SAMC21 Xplained Pro and then activate the continuous triggering.

4.2.5 System Events

This section allows the user to enable/disable the capturing of all events distributed across the different

registers. The current status is indicated next to the button that toggles the status. The following bits can

be configured:

• BOUTE - Bus dominant time-out timer

• BSCE - Bus short circuit event

• SPIFE - SPI failure event

• BSE - CAN bus status detection

• TRXFE - TXD failure status

Graphical User Interface (GUI)

• CWUE - CAN wake-up event

• OTPWE - Overtemperature event

The displayed status is not a live-view and only updates when the corresponding button is pressed or the

complete tab is updated as described in Section .4.2 Maintab

4.2.6 Wake-up Settings

In this section, all wake-up sources supported by the ATA657X device can be activated. For the Local

wake-up on pin Wake, falling, rising or both edges can be configured as a valid wake-up source. For the

Remote wake-up, either wake-up pattern, wake-up frame or none have to be configured. If “Wake-Up

Frame” is selected, the frame must be configured as described in section The4.2.7 CAN PN Settings

SPI wake-up button will wake up the device by setting the device into Standby mode. The four check

boxes are updated when a full refresh on the tab is performed.Maintab

4.2.7 CAN PN Settings

This section allows the user to configure the CAN-PN functionality available in the ATA657X. The wake-

up frame can be configured with either a STD identifier or an extended one, and, if necessary, a data byte

mask can be activated, as well.

Note: It should be noted that the data bytes are a mask of bits expected to be 1, i.e., a data byte of

0xAA on the bus will generate a wake-up for devices configured for 0x01, 0x0A and 0xAA and others

where all bits selected in the mask are fulfilled.

Note: It should be noted that the configuration for the CAN PN only becomes valid and active after the

PNCFOK flag has been set. This can be done by pressing the "Set PNCFOK" button in this section.

4.2.8 General Purpose Memory

This section gives access to the 4 bytes of general purpose memory available on the ATA657X (available

at addresses 0x6-0x9). The bytes read/written are selected with the check boxes. The displayed values

are not a live-view but only update when the corresponding button is pressed or the complete tab is

updated as described in section .4.2 Maintab

4.2.9 Status bits

This section gives an overview of all status bits of the device. The display is not updated continuously but

must be refreshed manually by clicking the button.Read Status bits

Bits can not be manipulated individually but it is possible to clear all status-bits that are writable at once.

The following bits are cleared when clicking the button:Clear status bits

• “BOUTS” - Bus dominant timeout status

• “BS” - Bus silence

• “BSCS” - Bus short circuit

• “CACC” - Corrupted write access to watchdog configuration registers

• “CWUS” - CAN wake-up status

• “ETRIG” - Early watchdog trigger

• “ILLCONF” - Watchdog configuration was written while the device is not in Standby mode

• “LWUFS” - Local wake-up falling edge detected

• “LWURS” - Local wake-up rising edge detected

• “OF” - Watchdog overflow

• “OFSLP” - Watchdog overflow in Sleep mode

Graphical User Interface (GUI)

• “OTPW” - Over-temperature pre-warning

• “PNEFD” - Partial networking frame detection status

• “PWRONS” - Power-on Rteset

• “SPIFS” - SPI failure status

• “TRXF” - Transceiver failure

A list of all status-bits and their descriptions can be found in the data sheet https://www.microchip.com/

wwwproducts/en/ATA6570.

4.2.10 Lock Control

In this section, it is possible to control the bits locking specific parts of the device memories. All seven

lock bits can be configured. The configuration is only written/read when pressing the write/read button.

Ticking the check boxes will not update the value on the ATA657X. The displayed status is not a live-view

but only updates when the corresponding button is pressed or the complete tab is updated as described

in section .4.2 Maintab

4.2.11 SPI Log Window

In this section, all SPI communication with the ATA657X will be logged and possible errors are displayed.

The log can be cleared by pressing the log button below it. The log entry will be made as soonClear SPI

as an action in the GUI is performed. If the command was accepted by the ATA657X, it is not actually

checked. As more data is written in the log file, the GUI navigation speed might be affected. In such

cases, try clearing the log.

4.3 Registers

This tab allows the user to manipulate the registers directly. Each column shows the name of the register,

the address, the last read value and gives the option to read from the register or write to it.

Figure 4-2. Registers

name

address value

It is also possible to read all registers at once. When writing registers, it is possible to automatically verify

the value afterward. This is selectable with the check box "Verify after write". Until a value is verified, it will

be shown in a red font.

Note: The displayed values are not a live-view but only updates when the corresponding button is

pressed or the complete tab is updated by a tab-switch.

4.4 SPI

This tab allows to send SPI commands to the ATA657X device directly. This can be useful for writing

multiple registers at the same time or for debugging purposes. To read an address, a valid hex value

must be entered in the Address (hex) field.

Graphical User Interface (GUI)

Figure 4-3. SPI

Note: The data is sent out starting from the lowest significant byte. The order in which the bytes are sent

is from right to left. Writing address 0x06 and data 0xAA55 will write 0x55 to 0x06 and 0xAA to 0x07.

4.5 CAN

This tab allows some very limited sending of CAN messages for testing. Only "singleshot" messages are

supported.

Figure 4-4. CAN

Extended ID

Identifier hex (mandatory)

DLC decimal (mandatory)

Data Speed

To initiate a transmission the identifier, the DLC and at least the number of bytes specified in the DLC

must be given. After clicking send frame, the frame will be sent one time if the configuration is valid. It is

not possible to receive CAN data.

Graphical User Interface (GUI)

Produkt Specifikationer

Mærke:	Microchip
Kategori:	Ikke kategoriseret
Model:	ATA6570

Har du brug for hjælp?

Hvis du har brug for hjælp til Microchip ATA6570 stil et spørgsmål nedenfor, og andre brugere vil svare dig

Dit navn*

Din email*

Skriv dit spørgsmål her

Ikke kategoriseret Microchip Manualer

Microchip MPFS095TS Manual

17 Juni 2025

Microchip 1520 Manual

17 Juni 2025

Microchip MPFS460T Manual

17 Juni 2025

Microchip MPFS160TS Manual

17 Juni 2025

Microchip MPFS025TL Manual

17 Juni 2025

Microchip MPFS025TLS Manual

17 Juni 2025

Microchip MPFS160TLS Manual

17 Juni 2025

Microchip MPFS250TLS Manual

17 Juni 2025

Microchip MPFS250T Manual

17 Juni 2025

Microchip MPFS460TL Manual

17 Juni 2025

Ikke kategoriseret Manualer

Nyeste Ikke kategoriseret Manualer

Tefal Ambiance PR4568 Manual

17 Juni 2025

Royal Catering RCSSCB-200X70-E-B Manual

17 Juni 2025

Synology ActiveProtect DP7200 Manual

17 Juni 2025

Festo DGST-20-40-PA Manual

17 Juni 2025

Stamos SWS03 Manual

17 Juni 2025

Fischer FIS RC II 360 S Manual

17 Juni 2025

Ulsonix ULX-GB4 N Manual

17 Juni 2025

Royal Catering RCSSCB-200X70-E Manual

17 Juni 2025

Texas TPL 560TR/W Manual

17 Juni 2025

Alpine SPC-106S907-2 Manual

17 Juni 2025