Getting Started with the EVBMLC2PER Evaluation Board

Last Modified: Aug 14, 2025Supports EVBMLC2PER

Contents of this document

  • 1

    Out of the Box

  • 2

    Get to Know the Hardware

  • 3

    Configure Hardware

Purchase your EVBMLC2PER

Contents of this document

1. Out of the Box

The NXP analog product development boards provide an easy-to-use platform for evaluating NXP products. The boards support a range of analog, mixed-signal and power solutions. They incorporate monolithic integrated circuits and system-in-package devices that use proven high-volume technology. NXP products offer longer battery life, a smaller form factor, reduced component counts, lower cost, and improved performance in powering state-of-the-art systems.

This page will guide you through the process of setting up and using the EVBMLC2HOST and EVBMLC2PER evaluation boards.

1.1 Kit Content and Packing List

The kit contents include:

  • Assembled and tested EVBMLC2HOST evaluation board in an antistatic bag. It includes an ASL6112SHN and an UJA1163ATK
  • One cable consisting of a yellow/green twisted pair for CAN communication and a red/black cable pair for external power supply at 12 V. The yellow/green cable is terminated with male and female D-Sub 9 connectors. The red/black cable is terminated with banana jacks

Figure 1. Kit Including Host EVB and Cable

Figure 1. Kit Including Host EVB and Cable

1.2 Additional Hardware

In addition to the kit contents, the following hardware can be either beneficial or even necessary when working with the kit.

  • EVBMLC2PER, the peripheral EVB that can be used to expand the capability of the host EVB, to handle more LEDs. Indeed, the kit can be expanded adding multiple peripheral EVBs. If multiple peripherals are used, no external power is needed, as the power supply comes via the connected host EVB or the adjacent peripheral EVB
  • LED board. Although an LED board is essential, the one shown in this manual is not for sale, as customers have their own LED configurations - normally different from each other - resulting from their own requirements
  • ASL45XASLX41 evaluation board. It includes both the ASL4500SHN and ASL3416SHN integrated circuits (IC). The board is useful for individually powering up to six LED boards with a DC voltage of up to 60 V, while respecting a desired maximum current limit
  • S32K144 evaluation board. The board, highly recommended, includes a microcontroller (MCU) for managing via CAN interface both EVBMLC2HOST and EVBMLC2PER. It also manages the ASL45XASLX41
  • Power supply. A single supply with multiple 12 V outputs or multiple 12 V supplies are necessary for the following boards: EVBMLC2HOST, ASL45XASLX41, and S32K144
  • External CAN interface. This optional hardware can be, for example, a Vector VN1630A CAN/CAN FD interface or similar, manageable with the Vector CANoe software

Figure 2. Kit Expanded by Adding One EVBMLC2PER to the EVBMLC2HOST

Figure 2. Kit Expanded by Adding One EVBMLC2PER to the EVBMLC2HOST

Figure 3. Additional Material

Figure 3. Additional Material

Figure 4. Additional Material Adding An Optional Vector CAN Interface

Figure 4. Additional Material Adding An Optional Vector CAN Interface

1.3 Minimum System Requirements (optional)

This evaluation board requires a laptop with Windows 10 or Windows 11 OS. The laptop must have at least one.

1.4 Software

Installing the software - NXP MLC GUI or, as an alternative, CANoe based GUI, is essential for being able to work with the evaluation kit.

  • NXP MLC GUI. The required material and setup information are shown in Figure 3. If using this option, there is no need for an external CAN interface and the CANoe software. The available firmware can be downloaded to the flash memory of the MCU mounted on the S32K144 evaluation board. The graphical user interface (GUI) runs on a Microsoft-Windows-based laptop. In addition to the software, in the download you find detailed documentation with installation instructions and a user manual
  • MLC2 CANoe project. The required material and setup information are shown in Figure 4. This is an option needing additional hardware - a Vector CAN interface - and the CANoe software. Detailed usage instructions can be found in ASL61XXYHZ_AN - an application note

NextGet to Know the Hardware

2. Get to Know the Hardware

2.1 Board Features

The EVBMLC2HOST has the following features built into the ASL6112SHN:

  • 200 MHz oscillator
  • 16 channels, arranged in four configurable blocks of four switches
  • Flexible PWM driver for the individual channel
  • LED temperature measurement via NTC
  • Advanced diagnosis for LED open/short detection, nonfunctional switch detection, individual channel voltage measurement, and so on
  • Synchronized frequencies when using multiple MLC devices
  • CAN communication logic

The EVBMLC2HOST offers the possibility to modify the least significant part of the CAN address by positioning five switches.

Furthermore, the EVBMLC2HOST has the following features embedded in the UJA1163ATK system basis chip (SBC):

  • 5 V low dropout regulator (LDO)
  • CAN transceiver

The EVBMLC2PER has the following features built into the ASL6112SHN:

  • 200 MHz oscillator
  • 16 channels, arranged in four configurable blocks of four switches
  • Flexible PWM driver for the individual channel
  • LED temperature measurement via NTC
  • Advanced diagnosis for LED open/short detection, nonfunctional switch detection, individual channel voltage measurement, and so on
  • Synchronized frequencies when using multiple MLC devices
  • CAN communication logic

The EVBMLC2PER offers the possibility to modify the least significant part of the CAN address by positioning five switches.

However, as the EVBMLC2PER has no UJA1163ATK SBC, it misses the 5 V LDO and the CAN transceiver. The reason is, for the EVBMLC2PER to work, it must be connected to the EVBMLC2HOST. The connection allows the EVBMLC2PER to access the 5 V LDO and the CAN transceiver present on the host board, which are shared hardware resources.

2.2 Board Description

The EVBMLC2HOST, whose appearance is shown in Figure 5 and whose schematic is given in Figure 7, includes the following components:

  • ASL6112SHN matrix LED controller
  • UJA1163ATK system basis chip (SBC) – Uses a 12 V input supply
  • J1 female DB9 sub connector – Supplies the board with 12 V and communication via the CAN cable
  • J2 female connector – Connects to EVBMLC2PER

Plug the six-pin J1 male connector belonging to the EVBMLC2PER board into this connector.

  • J3 male connector – Connects to LED board
  • J4 jumper – Controls supply to the board

Add a short to this jumper, otherwise the board remains unsupplied. When the board is supplied, a red LED emits light.

  • LED – Emits red light only if 12 V comes through the DB9 sub connector and the J4 jumper has been provided with a short
  • S1 five-switch block – Sets the board physical address

The initial address is 0b11111, equivalent to decimal 32. The switch at position 5 corresponds to the least significant bit, while position 1 corresponds to the most significant bit. It is highly recommended to change the switch positions to get a small address. For instance, 0b00000 = 0 decimal. To get this address value, move all five switches shown in Figure 5 to the opposite position.

Notice that the ID resistor and the NTC have not been populated. This is because they belong to the domain of the LED board.

Figure 5. Host EVB (EVBMLC2HOST)

Figure 5. Host EVB (EVBMLC2HOST)

The EVBMLC2PER, whose appearance is shown in Figure 6 and whose schematic is given in Figure 8, includes the following components:

  • ASL6112SHN matrix LED controller
  • J1 male connector – Connects to EVBMLC2HOST

Plug the six-socket J2 female connector belonging to the EVBMLC2HOST board onto this connector.

  • J2 female connector – Plugs onto the six pins J1 male connector belonging to the adjacent board
  • J3 male connector – Connects to LED board
  • S1 five-switch block – Sets the physical address of the ASL6112SHN

The initial address is 0b11111, equivalent to decimal 32. The switch at position 5 corresponds to the least significant bit, while position 1 corresponds to the most significant bit. It is highly recommended to change the switch positions to get a small address, for instance 0b00001 = 1 decimal. To get this address value, the four switches labeled 1 to 4, shown in Figure 6, must be moved to the opposite position. For a peripheral board, it is good practice to use a higher address than the host card address. If more peripherals needed, keep on incrementing the address by one unit.

Notice that the ID resistor and the NTC have not been populated. This is because they belong to the domain of the LED board.

Figure 6. Peripheral EVB (EVBMLC2PER)

Figure 6. Peripheral EVB (EVBMLC2PER)

PreviousOut of the Box
NextConfigure Hardware

3. Configure Hardware

3.1 Board Information

The schematics of the boards follow. For board layout and routing information, see reference 1 in Section 3.2.

Figure 7. EVBMLC2HOST Schematics

Figure 7. EVBMLC2HOST Schematic

Figure 8. EVBMLC2PER Schematics

Figure 8. EVBMLC2PER Schematic

3.2 Additional References

NXP Semiconductors provides online resources for this evaluation board and its supported devices on NXP.

Once in the page, look for the GUI App for Matrix LED Controller (MLC).

  • Link to EVBMLC2PER (an optional EVB you can buy to expand the kit)

An alternative evaluation GUI, usable under the CANoe environment, can be downloaded by accessing your secured area at NXP. Once in the page, type the following string in the search bar: ASL6112SHN CANoe project. You are redirected to the download. Downloading the Vector CANoe project only makes sense if you have a Vector CAN interface, such as the VN1630A.

PreviousGet to Know the Hardware
NextDesign Resources

Design Resources

Board Documents

Additional References

In addition to our ASL61XXYHZ, you may also want to visit: Automotive Advanced Exterior Lighting.

PreviousConfigure Hardware