Evaluation Boards - Expansion Boards, Daughter Cards

Image Part Number Description / PDF Quantity Rfq
MIKROE-3012

MIKROE-3012

MikroElektronika

HEART RATE 5 CLICK

5

MIKROE-4127

MIKROE-4127

MikroElektronika

ALTITUDE 4 CLICK

8

MIKROE-1909

MIKROE-1909

MikroElektronika

BOARD EEPROM 2 CLICK

2

MIKROE-3311

MIKROE-3311

MikroElektronika

RMS TO DC CLICK

1

MIKROE-2889

MIKROE-2889

MikroElektronika

V TO HZ CLICK

0

MIKROE-4132

MIKROE-4132

MikroElektronika

THERMO 14 CLICK

13

MIKROE-2937

MIKROE-2937

MikroElektronika

SENSORS

36

MIKROE-4366

MIKROE-4366

MikroElektronika

COMPASS 5 CLICK

2

MIKROE-3357

MIKROE-3357

MikroElektronika

RELAY 3 CLICK

40

MIKROE-2848

MIKROE-2848

MikroElektronika

CHARGER 5 CLICK

0

MIKROE-3508

MIKROE-3508

MikroElektronika

TFT BOARD 4 CAPACITIVE

2

MIKROE-2826

MIKROE-2826

MikroElektronika

VIBRO MOTOR CLICK

4

MIKROE-439

MIKROE-439

MikroElektronika

EASYAVR6 PROTO BOARD

0

MIKROE-1587

MIKROE-1587

MikroElektronika

BOARD LPG CLICK MQ-5 SENSOR

1

MIKROE-3465

MIKROE-3465

MikroElektronika

PROXIMITY 9 CLICK

4

MIKROE-2079

MIKROE-2079

MikroElektronika

MASTER CHEF CLICK PACK

0

MIKROE-1375

MIKROE-1375

MikroElektronika

RF TXRX MODULE CELLULAR SMA ANT

70

MIKROE-2659

MIKROE-2659

MikroElektronika

EINK CLICK

5

MIKROE-1417

MIKROE-1417

MikroElektronika

MIKROMEDIA PLUS STM32 SHIELD

0

MIKROE-1985

MIKROE-1985

MikroElektronika

CLICK BOARD USB I2C MCP2221

32

Evaluation Boards - Expansion Boards, Daughter Cards

1. Overview

Evaluation Boards (EVBs), Expansion Boards, and Daughter Cards are essential hardware tools for embedded system development, prototyping, and testing. These platforms enable engineers to assess processor capabilities, interface peripherals, and validate designs before mass production. Their modular architecture supports rapid innovation in IoT, automotive, industrial automation, and consumer electronics sectors.

2. Main Types and Functional Classification

TypeFunctional FeaturesApplication Examples
Microcontroller EVBsARM/FPGA SoC integration, onboard sensors, debug interfacesIoT edge devices, smart sensors
Expansion BoardsStandard interfaces (PCIe, USB-C), protocol convertersIndustrial gateways, communication modules
Daughter CardsSpecialized functionality modules (ADC/DAC, RF transceivers)Medical imaging equipment, test instruments
Programmer KitsFlash programming, JTAG/SWD debugging, voltage monitoringAutomotive ECUs, aerospace controllers

3. Structure and Components

Typical architecture includes:

  • Multi-layer PCB with high-speed traces
  • Processor sockets or soldered-down SoCs
  • Standardized connectors (2.54mm headers, M.2)
  • Onboard memory (RAM, Flash storage)
  • Power management ICs and voltage regulators
  • Debug interfaces (SWD, JTAG, UART)

4. Key Technical Specifications

ParameterDescription
Clock SpeedDetermines processing capability (1MHz-2GHz range)
Bus WidthMemory bandwidth (8/16/32-bit configurations)
Interface SupportUSB 3.0, Ethernet, CAN, SPI/I2C compatibility
Power ConsumptionTypical range: 0.5W-25W (varies with workload)
Operating TemperatureIndustrial (-40 C to +85 C) or commercial grade

5. Application Areas

Major industries include:

  • Telecommunications (5G base stations, optical transceivers)
  • Medical equipment (MRI scanners, patient monitors)
  • Industrial automation (PLC controllers, robotics)
  • Consumer electronics (smart home devices, wearables)
  • Automotive (ADAS systems, V2X communication)

6. Leading Manufacturers and Products

VendorProduct Series
XilinxZynq UltraScale+ MPSoC Evaluation Kit
IntelStratix 10 GX FPGA Development Board
STMicroelectronicsSTM32 Nucleo Expansion Boards
Texas InstrumentsProcessor DKx Daughter Cards

7. Selection Guidelines

Key considerations:

  • Match SoC architecture to target application requirements
  • Verify interface compatibility with existing systems
  • Evaluate available ecosystem (IDE support, middleware)
  • Consider power budget and thermal management needs
  • Assess long-term availability and RoHS compliance

8. Industry Trends

Future developments include:

  • Integration of AI accelerators (NPU modules)
  • Adoption of 5nm/3nm process technologies
  • Expansion of RISC-V based evaluation platforms
  • Increased focus on functional safety (ISO 26262 compliance)
  • Growing adoption of modular "Lego-style" prototyping systems
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