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As of 2026-08-25

Data Sheets

Here, we provide the specifications of our products.

1 - TWELITE

Wireless Microcontroller Module

TWELITE is a microcontroller module with wireless functionality.

By mounting it on a parent board connected to sensors, switches, LEDs, etc., you can build compact wireless devices.

It consumes very little power and can operate for long periods on batteries.

It is suitable for mass production due to its surface-mount compatibility with automated assembly machines.

1.1 - TWELITE BLUE / RED Wireless Microcontroller

Model: TWE-L-(WX/U) / MW-R-(WX/U)
TWELITE BLUE / RED is the first generation of the TWELITE series.

1.1.1 - TWELITE Wireless Microcontroller Datasheet

Latest Edition
TWELITE BLUE (Certification Model: TWE-001 Lite) and TWELITE RED (Certification Model: TWELITE RED) are compact modules integrating an ultra-low-power, high-performance microcontroller, flash memory, and a high-performance wireless interface compliant with IEEE802.15.4. The modules operate by connecting power and sensors, and storing programs in the flash memory or EEPROM. They support SPI, I2C, and UART interfaces, enabling connection to various sensors or microcontrollers. Certified for use in Japan, these modules can be incorporated into products immediately.

Features

  • Compliant with the global IEEE802.15.4 standard
  • Supports our proprietary protocol stack “TWELITE NET”
  • Ultra-compact module (13.97 × 13.97 × 2.5 mm)
  • PCB design maximizes chip performance for stable long-range communication
  • Equipped with 32KB RAM and 160KB/512KB flash memory, enabling high-performance communication applications
  • Extremely low standby current of 0.1μA (RAMOFF sleep), extending battery life
  • Rich I/O including 4 or 6 ADCs, 1 comparator, and 20 general-purpose I/O ports for direct sensor connection
  • On-board flash memory allows firmware updates
  • Firmware development supported by free GNU and Eclipse-based environments
  • Robust 128-bit AES encryption ensures security
  • Certified under Japan’s ARIB STD-T66 (Technical Conformity), usable without additional license or application
  • RoHS compliant, meeting new environmental standards

Specifications

Product Variants

TWELITE BLUE and TWELITE RED are available in the variations shown below. Please select the most suitable model for your application.

Sales codes may change over time. Please refer to our website for the latest sales codes.

Common NameSales CodeAntenna TerminalNotes
TWELITE BLUETWE-L-WXWire antenna terminal typeAntenna not included (reel only)
TWE-L-UCoaxial antenna typeAntenna not included
TWELITE REDMW-R-WXWire antenna terminal typeAntenna not included
MW-R-UCoaxial antenna typeAntenna not included

Wireless Section

TWELITE
BLUE
TWELITE
RED
Notes
Communication Method2.4GHz
IEEE 802.15.4 compliant
2.4GHz
IEEE 802.15.4 compliant
Protocol StackTWELITE NET and
IEEE 802.15.4 MAC
TWELITE NET and
IEEE 802.15.4 MAC
Data RateUp to 250kbpsUp to 250kbps
ModulationO-QPSK, DSSSO-QPSK, DSSS
Number of Channels1616May vary by country
TX Output Power2.5dBm9.19dBm25°C, 3V
RX Sensitivity-95dBm-96dBm25°C, 3V, typ
TX Current15.3mA23.3mA25°C, 3V, typ at max output
14.0mAAt 3dBm output
RX Current17.0mA14.7mA25°C, 3V, typ

Microcontroller Section

  • 32-bit RISC processor
  • Variable clock for power optimization
  • RAM: 32kBytes
  • EEPROM: 4kBytes
  • Flash memory: 160kBytes (TWELITE BLUE) / 512kBytes (TWELITE RED)
  • Watchdog timer, brown-out detection
  • Fine-grained power control for each block (digital/analog/RAM/wireless)
  • Built-in AES 128-bit encryption circuit and 16-bit random number generator

Interfaces

QtyNotes
ADC4/610-bit. 4 ports for TWELITE BLUE, 6 ports for TWELITE RED
PWM4
Timer/PWM15 modes including PWM, Δ∑. 16MHz, 16-bit resolution
Pulse Counter2Operates in sleep mode. Max 100kHz, 16-bit
UART216550A compatible
SPI
Master/Slave
13 chip selects, up to 16MHz
Comparator1
2-wire Serial
Master/Slave
(I2C, SMBUS compatible)
1Up to 100kHz or 400kHz, 7/10-bit address modes
General-purpose Digital20Shared with other interfaces
  • Many pins are shared; some combinations may not be available simultaneously.

Certifications and Compliance

TWELITE BLUETWELITE RED
Certification ModelTWE-001 LiteTWELITE RED
Technical Conformity Number007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
NotesRoHS compliantRoHS compliant

※1. When using TWELITE outside Japan, there may be restrictions on antennas and other components. Please consult us at the early stage of your development.

※2. Depending on the country, it may be necessary to display the FCC ID or IC ID on TWELITE or your product. If applicable, please contact us.

Export Precautions

  • The built-in AES 128-bit encryption circuit in TWELITE is subject to export control. We will issue an export control statement as needed; please contact us when exporting.
  • In some countries, customs clearance may not be possible unless TWELITE has obtained local radio certification. Please inquire about regulations for each export destination.

Product Labeling

The product is marked with a logo, certification numbers, etc., which are subject to change without notice.

Block Diagram

Block diagram of the TWELITE series

External Dimensions

External dimensions

Dimensions: 13.97 × 13.97 × 2.5 mm Weight: 0.93 g

DXF data for TWELITE BLUE/TWELITE RED outlines is available for download from our website.

Recommended pad diagram
  • The mating PCB contacting the module’s underside must not have silkscreen or through-holes.
  • When soldering a wire antenna (such as a matchstick antenna), provide a rectangular hole in the mating PCB and solder from the underside of the module. (See Chapter 7 for details.)
  • Use a metal mask thickness in the range of t=0.12–0.15mm. Depending on the mask and reflow conditions, solder fillets may not form on one side of the module’s half-through-holes.

Antenna Mounting Opening

Antenna mounting opening diagram

When mounting TWELITE on your custom PCB, it is efficient to provide an opening for connecting a wire antenna (matchstick antenna) and solder from the underside.

This drawing shows an example of such an opening.

In this example, pins 29, 30, 31, and 32 (NC, GND, GND, GND) are left unconnected to allow for a larger opening.

Note: Connecting GND pins 28, 30–32 on the SMD version is recommended, but operation without connection is also possible. No significant change in wireless performance has been observed even if left unconnected.

Pin Assignment

Pin Numbers

Antenna mounting opening diagram

Pin Assignment

# (Note 1)IO Name (Note 2)Function Assignment (Note 3)Alternate Assignment (Note 4)Super Easy! Standard App Function Name (Note 5)
1DO0SPICLKPWM2(※6)PWM2
2DO1SPIMISOPWM3(※6)PWM3
3DIO18SPIMOSIDO1
4DIO19SPISEL0DO2
5VCCVCCVCC
6DIO4CTS0TIM0OUTPC0DO3
7DIO5RTS0PWM1PC1PWM1
8DIO6TXD0PWM2TX
9DIO7RXD0PWM3RX
10DIO8TIM0CK_GTPC1PWM4PWM4
11DIO9TIM0CAP32KTALINRXD1DO4
12DIO10TIM0OUT32KTALOUTM1
13DIO12PWM2CTS0DI1
14DIO14SIF_CLKTXD1TXD0SPISEL1SCL
15DIO13PWM3RTS0DI2
16DIO11PWM1TXD1DI3
17DIO15SIF_DRXD1RXD0SPISEL2SDA
18DIO16COMP1PSIF_CLkDI4
19DIO17COMP1MPWM4SIF_DBPS
20GNDGND
21RESETNRESETNRST
22ADC2VREFAI3
23ADC1AI1
24DIO0SPISEL1ADC3AI2
25DIO1SPISEL2ADC4PC0AI4
26DIO2ADC5(※7)TIM0CK_GTM2
27DIO3ADC6(※7)TIM0CAPM3
28GNDGNDGND
29NCRFN/A
30GNDGNDGND
31GNDGNDGND
32GNDGNDGND

Note 1. Pin number. Note that the number and assignment may differ from TWELITE DIP. IO name is usually used to identify pins. Note 2. IO name. This is used in semiconductor datasheets, TWELITE app development, and technical support. Note 3. Each pin can be used as simple I/O or analog input, but can also be initialized for other functions via API. The table lists typical functions. Note 4. Alternate functions assignable via API. The table lists typical alternate functions. Note 5. Pin names used by the “Super Easy! Standard App (App_Twelite)”. These are similar to IO names but take care to avoid confusion. Note 6. PWM2,3 can be assigned to DO0,1 by releasing DIO6,7 or DIO12,13 assignments. Note 7. ADC5,6 are available only on TWELITE RED.

Function Reference

Signal NameFunction
PCPulse Counter
SPICLKSPI Master Clock
SPISELSPI Select Output
SPIMISOSPI Master Input
SPIMOSISPI Master Output
TIM0CK_GTTimer Clock, Gate Input
TIM0CAPTimer Capture Input
TIM0OUTTimer PWM Output
32KTALINCrystal Input
32KTALOUTCrystal Output
VREFReference Voltage
COMP1MComparator + Input
COMP1PComparator - Input
SIF_D2-wire Serial Data
SIF_CLK2-wire Serial Clock
RXDUART RX
TXDUART TX
RTSUART RTS
CTSUART CTS
PWMPulse Width Modulation Output

Special Pin Handling

DO0 (Function: SPICLK)

This pin is used as an output. If an external voltage is applied (even with some output impedance), there have been reports that the TWE module may fail to enter programming mode.
When connecting LEDs or transistors, the pin may enter an intermediate state at startup or wakeup from sleep, possibly causing malfunction. Always use an external circuit that pulls up to Vcc.

DO1 (Function: SPIMISO)

This pin is typically used as an output, but at power-on or reset, it behaves as an input. If a low level is detected at this time, the module boots in programming mode. Pay attention to the voltage at startup on this pin.

DIO0 (Function: ADC3), DIO1 (Function: ADC4)

These pins are shared with analog input. In firmware, the internal pull-up must be disabled when reading AD values .

ADC2

ADC2 can be used as a reference voltage input. Software implementation is required. There is no pin for outputting the reference voltage.

GND

Connecting GND pins 28, 30–32 on the SMD version is recommended, but operation without connection is possible. No significant change in wireless performance has been observed even if left unconnected.

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.33.6V
Analog IO (VREF/ADC)-0.3VCC+0.3V
Digital IO-0.3VCC+0.3V

Characteristics

SymbolConditionmintypmax
Power Supply VoltageVCC2.03.03.6V
Startup VoltageVboot2.05V
Operating TemperatureTOPRNo condensationTWELITE BLUE-4025105(Note 1)
90(Note 2)
°C
TWELITE RED-302590
Operating HumidityHOPRNo condensation85%RH

*Values are based on semiconductor datasheets.
Note 1: Maximum operating temperature for TWE-L-WX/W0/W7
Note 2: Maximum operating temperature for TWE-L-U

DC Characteristics

SymbolConditionmintypmax
Current ConsumptionICCSleep (RAMOFF, no timer)TWELITE BLUE0.1uA
TWELITE RED0.1uA
Sleep (with timer)TWELITE BLUE1.5uA
TWELITE RED1.5uA
Tx (CPU doze)TWELITE BLUE15.3mA
TWELITE RED23.3mA
TWELITE RED
(at 3dBm output)
14.0mA
Rx (CPU doze)TWELITE BLUE17.0mA
TWELITE RED14.7mA
TX Output PowerPoutTWELITE BLUE+0.52.5dBm
TWELITE RED9.14dBm
RX SensitivityTWELITE BLUE-95dBm
TWELITE RED-96dBm

*Values are based on semiconductor datasheets.

I/O Characteristics

SymbolConditionmintypmax
DIO Internal Pull-up405060
DIO Hi InputVIHVCCx0.7VCCV
DIO Lo InputVIL-0.3VCCx0.27V
DIO Input Hysteresis200310400mV
DIO Hi OutputVOHTWELITE BLUEVCCx0.8VCCV
TWELITE REDVCC-0.4
DIO Lo OutputVOL00.4V
DIO Sink CurrentIOLVCC 2.7–3.6V4mA
VCC 2.2–2.7V3mA
VCC 2.0–2.2V2.5mA

*Values are based on semiconductor datasheets.

ADC Characteristics

SymbolConditionmintypmax
Reference VoltageVREF1.1981.2351.260V
ADC Resolution10Bits
ADC Integral Nonlinearity±1.6, ±1.8LSB
ADC Differential Nonlinearity-0.50.5LSB
ADC Offset Error0–VREF-10mV
0–2VREF-20
ADC Gain ErrorTWELITE BLUE
0–VREF
+10mV
TWELITE BLUE
0–2VREF
+20
TWELITE RED
0–VREF
-10
TWELITE RED
0–2VREF
-20
ADC Clock0.25,0.5, 1.0MHz
ADC Input Range0.04VREF2xVREFV

*Values are based on semiconductor datasheets.

Reel Specifications

Taping Dimensions

Taping dimensions

Reel Dimensions

Reel dimensions

Maximum Module Packaging Quantity

Reel/Inner BoxQuantity/ReelOuter BoxQuantity
1100011000

Reflow Conditions

Recommended Reflow Profile

Reflow profile

Reflow profile

PreheatingMain HeatingPeak TempNumber of Reflows
150180°C/6090sec220°C/30~45sec245°C1 time
  • Temperature conditions: One reflow within the recommended temperature profile above.
  • Soldering should be performed by reflow soldering as a general rule.
  • We have confirmed no issues under the above profile, but please verify solderability under your own manufacturing conditions.

Board Mounting Precautions

  1. Only one reflow process is allowed under our recommended conditions. Note that solder inside the module will re-melt during reflow. Reflow soldering is the principle method.
  2. The product absorbs moisture if left in the natural environment. Mount using reflow within 72 hours after opening.
  3. When storing below the above humidity, ensure proper anti-static measures.
  4. If more than 72 hours have passed after opening, bake under the following conditions before use:
    • Do not bake reels directly. Transfer to trays, etc., before baking.
    • Baking conditions: 90°C, 48 hours, up to 1 time.
  5. Please note that multiple lot numbers may be mixed in the same package.
  6. Solder fillets are not required on the soldered parts of components mounted on this product.
  7. This product is intended for mounting on glass epoxy PCBs. If mounting on other materials (e.g., ceramics), evaluate thoroughly before use.
  8. Some internal components are highly sensitive to static electricity. Take adequate ESD precautions.
  9. If stress is applied to the shield case, it may detach. Handle with care.
  10. For hand soldering, follow these conditions: below 350°C, within 3 seconds (surface temperature must not exceed 150°C).

Precautions for Use

Factory Default Application

At the time of shipment (as of this datasheet’s publication), TWELITE is programmed with the “Super Easy! Standard App” firmware. This firmware is intended for production testing during manufacturing. We cannot disclose information about the firmware version or contents programmed on TWELITE, even upon request. In the future, the presence or type of pre-installed firmware may be changed without notice. Please write the required application to TWELITE during your own manufacturing process.

Storage

Store in a cool, dry place. Use the product within six months of delivery.

General Notes

Always evaluate and verify our products in your actual usage environment.

If you intend to use this product in applications requiring high reliability or involving human life, please consult your distributor in advance.

Revision History

VersionDateRevision Details
4.0.22024/11/12Corrected current unit error
4.0.12024/07/12Applied sales code changes; antenna column removed
4.0.02024/02/27Migrated to new website
3.0.42019/1/31Added “Factory Default Application” section
3.0.32018/11/05Corrected section number error in Chapter 8
3.0.22018/3/7Corrected pin function name error in App table
3.0.12017/9/1Corrected TWELITE RED sleep current value
3.0.02017/8/1Initial version

1.2 - TWELITE (GOLD Series)

Model: MW-G-(W/U), MW-G-DIP-(P/U)
TWELITE wireless module (GOLD Series) is the second generation of TWELITE.

1.2.1 - TWELITE (GOLD Series)

Latest Edition

Introduction

TWELITE® is a compact, low-power, and high-performance wireless module.

Equipped with an Arm® Cortex®-M4 core, it supports mid-range wireless communication compliant with IEEE802.15.4 and short-range communication compliant with ISO/IEC 14443.

It has obtained domestic radio certification in Japan, enabling rapid productization of wireless systems.

Features

  • Ultra-compact package (13.97mm × 13.97mm × 2.5mm)
  • Mid-range wireless communication compliant with global standard IEEE802.15.4
  • PCB design that maximizes chip performance and ensures stable communication over long distances
  • Our proprietary simple protocol stack “TWELITE NET”
  • Short-range communication with NFC readers compliant with ISO/IEC 14443
  • Widely used Arm Cortex-M4 architecture
  • Excellent power-saving performance with minimum standby current of 350nA, contributing to battery life
  • Equipped with 152KB SRAM and 640KB flash memory, supporting advanced communication application software
  • 6-channel 12-bit ADC and 22 general-purpose digital I/O ports to connect various sensors
  • 10-channel PWM output, applicable to LEDs and actuators
  • Newly equipped 32-bit real-time clock
  • Firmware development environment based on the free GNU Arm Embedded Toolchain
  • Strong AES encryption with 128bit / 192bit / 256bit
  • Certified under Japan’s ARIB STD-T66 (technical conformity certification)

Product Variants

The TWELITE wireless module (GOLD Series) is available in the following variants. Please select according to your application.

Product NameModel NumberAntenna TerminalRemarks
TWELITEMW-G-WWire antenna terminal
(through-hole)
Antenna sold separately
MW-G-UCoaxial antenna terminal
(U.FL/IPEX)
Antenna sold separately
TWELITE DIPMW-G-DIP-POn-board antenna
MW-G-DIP-UCoaxial antenna terminal
(U.FL/IPEX)
Antenna sold separately
Main unit is MW-G-W

MW-G-W Appearance

MW-G-W Appearance

MW-G-U Appearance

MW-G-U Appearance

MW-G-DIP-P Appearance

MW-G-DIP-P Appearance

MW-G-DIP-U Appearance

MW-G-DIP-U Appearance

In the following document, the tag SMD indicates sections related to MW-G-W/U, DIP for MW-G-DIP-P/U, and ALL for content relevant to all models.

Functions

ALL
  • 32-bit Arm Cortex-M4 processor
  • Operating clock: 32MHz (clock can be adjusted from 12MHz to 48MHz to optimize power consumption)
  • SRAM: 152KB
  • Flash memory: 640KB
  • EEPROM: 2KB (included in the built-in NFC chip)
  • Watchdog timer and brown-out detection
  • Power control for each block (digital/analog/SRAM/wireless)
  • AES encryption circuit supporting 128bit/192bit/256bit
  • 6x ADC (12bit)
  • 10x PWM
  • 2x Timers (32bit)
  • 1x Comparator
  • 2x UART
  • 2x SPI (3 chip selects)
  • 2x I2C
  • 22x Digital IO
  • 1x Quad SPI
  • 1x RTC (32bit)
Block diagram of TWELITE GOLD Series

Block Diagram of TWELITE (GOLD Series)

2.4GHz Wireless

ALL
ItemTWELITE (GOLD Series)Remarks
Communication2.4GHz IEEE 802.15.4
ProtocolTWELITE NET and IEEE 802.15.4 MAC
Data Rate250kbps
ModulationO-QPSK, DSSS
Channels16Varies by country
Max TX Power9.14dBm25°C, 3V, typ
RX Sensitivity-99.7dBm25°C, 3V, typ
Antennas
ALL

For a list of compatible antennas, please refer to our product information.

SMD

A PCB-mountable antenna MW-A-P1934 is also available.

Certifications
ALL
TWELITE (GOLD Series)
Certification ModelTWELITE GOLD
Technical Conformity Certification Number007-AL0022

NFC Tag

ALL
ItemTWELITE (GOLD Series)Remarks
CommunicationISO/IEC 14443 Type A
ProtocolNFC Forum Type 2 TagNXP® NTAG®
Data Rate106kbps
SRAM64bytes
EEPROM2KB
Write Speed4.8ms4bytes, EEPROM
0.8ms4bytes, SRAM
6.1ms64bytes, SRAM (FAST_WRITE)
Max Distance100mmDepends on antenna configuration

Development Environment

ALL

TWELITE STAGE SDK

TWELITE STAGE SDK is a dedicated firmware development environment for the TWELITE series provided by our company. Using the included application TWELITE STAGE APP, you can build and write firmware, as well as check the operation and change settings of existing firmware.

The TWELITE STAGE SDK consists of the following:

  • TWELITE STAGE APP (frontend for building, which uses command-line make for compilation and performs firmware writing): all except MWSDK (Note 1) and Tools under MWSTAGE/

  • Toolchain (utilities and command-line tools such as compiler): under MWSTAGE/Tools

  • MWSDK library (libraries used in builds): under MWSTAGE/MWSDK (Note 1)

Distribution of TWELITE STAGE SDK

The TWELITE STAGE SDK for TWELITE GOLD is distributed through our support service.

Below are the major versions currently available:

  • MWSTAGE2025_08 distributed in August 2025
    • STAGE App: 2.4.4
    • Toolchain: gcc 12.2.1 20221205
    • MWSDK Library: MWSDK2025_08

TWELITE GOLD-Specific Development Information

The .../MWSDK/TWENET/current/index.html file under the MWSDK folder contains descriptions about build methods and APIs.

About MCUXpresso

MCUXpresso is a firmware development environment provided by NXP Semiconductors N.V., the manufacturer of the JN5189 semiconductor used in TWELITE (GOLD Series). It allows not only building and writing firmware but also debugging using MCU-Link.

About Software Licensing

When developing firmware using the TWELITE STAGE SDK provided by Mono Wireless Inc., please refer to the license descriptions in the LICENSE folder under the MWSDK library as the primary source. English versions of the licenses are available, but in the event of any dispute or discrepancy, the Japanese version shall take precedence.

  • MW-SLA-1J — Mono Wireless Software License Agreement (intended for commercial use)
  • MW-OSSLA-1J — Mono Wireless Open Source Software License Agreement (considering non-commercial use)
  • MW-SLA-1E1, MW-OSSLA-1E — English versions of the above

Pin Assignment

Pin Number

SMD
Pin Number Assignment

Pin Number Assignment

DIP
Pin Number Assignment (DIP)

Pin Number Assignment (DIP)

Pin Functions

ALL

The typical functions are shown in the table below.

NameFunction
PIOPeripheral Input/Output
PWMPulse Width Modulation Output
TXDUART Data Transmission
RXDUART Data Reception
RTSUART Data Transmission Request Output
CTSUART Data Transmission Request Input
SCLI2C Serial Clock
SDAI2C Serial Data
SCKSPI Serial Clock
MOSISPI Controller Output (PICO)
MISOSPI Controller Input (POCI)
SSELNSPI Peripheral Select (CS)
NameFunction
IOQuad SPI Serial Data
CSNQuad SPI Chip Select
CLKQuad SPI Serial Clock
MATTimer Output
CAPTimer Input
OUTComparator Output
ACPComparator + Input
ACMComparator - Input
SWDIOSWD Serial Data
SWOSWD Trace Port
SWCLKSWD Serial Clock
ISPENTISP Entry
ISPSELISP Mode Select

The typical assignments of functions are shown in the table below.

SMD#
Note1
DIP# (14P)
Note1
IO
Note2
PWM
Note3
ADC
Note3
UART
Note3
I2C
Note3
SPI
Note3
Quad
SPI
Note3
Timer
(CT32)
Note3
Comparator
Note3
SWD
ISP
Note3
16PIO0PWM0TXD1SCK1
27
(PRG)
PIO5RTS0SSELN0
MISO1
SSELN1(2)
ISPENT
35PIO2PWM2RXD0SCK0
MOSI1
48PIO3PWM3TXD0MISO0
SSELN1(0)
528
(VCC)
VCC
69PIO7PWM7CTS0
RXD1
SDA1MISO0CT32B1
MAT1
74PIO6PWM6RTS0
TXD1
SCL1SCK0CT32B1
MAT0
810
(TXD)
PIO8PWM8TXD0MOSI0CT32B0
MAT0
OUT
93
(RXD)
PIO9PWM9RXD0SSELN0CT32B1
CAP1
1011
(A)
PIO14PWM1ADC0SSELN1(1)CT32B0
CAP1
SWO
1112PIO12PWM0SCL1MOSI0OUTSWCLK
1213PIO4PWM4CTS0MOSI0
SSELN1(1)
ISPSEL
1315
(SET)
PIO13PWM2SDA1MOSI0SWDIO
142PIO10TXD1SCL0SCK0CT32B0
CAP0
1516PIO1PWM1RXD1MISO1
1617PIO0PWM0TXD1SCK1
1719PIO11RXD1SDA0MISO0CT32B1
CAP0
1818PIO20PWM8TXD1IO2ACP
1920PIO21PWM9IO1ACMSWO
201,14GND
2121
(RST)
RSTN
2224
(A)
PIO14PWM1ADC0SSELN1(1)CT32B0
CAP1
SWO
2322
(B)
PIO15PWM3ADC1SCL0SCK1OUT
2423
(C)
PIO16PWM5ADC2SDA0SSELN1(0)CSN
2525
(D)
PIO17PWM6ADC3MOSI1IO3SWO
2626
(E)
PIO18PWM7ADC4TXD0MISO1CLKCT32B0
MAT1
2727PIO19PWM4ADC5RXD0
RXD1
IO0
281,14
(GND)
GND
29N/A
(ANT R)
LA
301,14
GND
GND
31N/A
(ANT L)
LB
321,14
GND
GND

※1. Pin numbers. The number and assignment of pin numbers differ between TWELITE and TWELITE DIP. Normally, IO names are used to identify pins.

※2. IO names of the pins. These names are used in semiconductor datasheets and TWELITE application development. Our technical support also refers to pins by IO names in principle.

※3. This table lists representative functions. Only a portion of these functions may be supported by the TWENET library.

Electrical Characteristics

ALL

Absolute Maximum Ratings

MinMax
Power Supply-0.33.96V
Reset-0.33.96V
Digital IO-0.33.96V
ADC-0.33.96V
NFC (LA/LB)-0.34.6V
  • The values are based on the semiconductor datasheet.
SymbolConditionMinMax
Supply VoltageVCC1.93.6V
Operating TempTJNo condensation
MW-G-W
-40105°C
No condensation
MW-G-U
-4090°C
  • The values are based on the semiconductor datasheet.

DC Characteristics

SymbolConditionMinTypMax
Current Consump.ICCSleep, SRAM not retained, no timer350nA
Sleep, SRAM not retained, timer enabled800nA
Sleep, SRAM retained (4KB), timer enabled1025nA
Sleep, SRAM retained (8KB), timer enabled1120nA
Active, TX (10dBm)20.28mA
Active, TX (3dBm)9.44mA
Active, TX (0dBm)7.36mA
Active, RX4.3mA
  • The values are based on the semiconductor datasheet.

I/O Characteristics

SymbolConditionMinTypMax
PIO Internal Pull-upRpu(int)(PIO)405060
RSTN Internal Pull-upRpu(int)(RSTN)405060
PIO Internal Pull-downRpdn(int)(PIO)405060
IO High InputVIH0.7*VCCVCCV
IO Low InputVIL-0.30.27*VCCV
IO High OutputVOHPIO0-9,12-16
2mA load (VCC=3.6V)
3.3VCCV
PIO0-9,12-16
2mA load (VCC=3.0V)
2.65VCCV
PIO0-9,12-16
2mA load (VCC=2.4V)
2VCCV
PIO0-9,12-16
2mA load (VCC=1.9V)
1.4VCCV
PIO17-21
5mA load (VCC=3.6V)
3.2VCCV
PIO17-21
5mA load (VCC=3.0V)
2.6VCCV
PIO17-21
5mA load (VCC=2.4V)
2.05VCCV
PIO17-21
5mA load (VCC=1.9V)
1.35VCCV
PIO10,11
2mA load (VCC=3.6V)
3.3VCCV
PIO10,11
2mA load (VCC=3.0V)
2.66VCCV
PIO10,11
2mA load (VCC=2.4V)
2.1VCCV
PIO10,11
2mA load (VCC=1.9V)
1.15VCCV
IO Low OutputVOL00.4V
  • The values are based on the semiconductor datasheet.

ADC Characteristics

SymbolConditionMinTypMax
Input VoltageVi0VCCV
Full Scale RangeFSRAfter calibration3.563.63.62V
Resolution12bits
Current ConsumptionIADCxx=05100uA
Integral NonlinearityINL1.1LSB
Differential NonlinearityDNL0.85LSB
Offset ErrorEOAfter calibration-4.54.5mV
Gain ErrorEGAfter calibration-40020mV
Sampling FrequencyfsSingle channel78.4100190ksps
  • The values are based on the semiconductor datasheet.

Mechanical Characteristics

External Dimensions

SMD
Outline Drawing

Outline Drawing

  • Dimensions: 13.97mm x 13.97mm x 2.5mm
  • Weight: 0.84g (MW-G-W), 0.86g (MW-G-U)
DIP
Outline Drawing (Board Antenna)

Outline Drawing (Board Antenna)

Outline Drawing (U.FL)

Outline Drawing (U.FL)

  • Dimensions: 44.7mm x 18.3mm x 8.1mm
  • Weight: 3.81g (MW-G-DIP-P), 3.83g (MW-G-DIP-U)
SMD
Recommended Pad Layout
  • Do not place silkscreen or through-holes on the receiving PCB area that contacts the module underside.
  • When connecting a wire antenna such as a stick antenna, provide a slot on the receiving PCB and solder from the underside of the module. (See Antenna Opening)
  • Use a metal mask thickness in the range of t = 0.12–0.15mm. Due to the metal mask and reflow conditions, solder fillets may not form on some half-cut vias on one side of the module.

Environmental Regulations

  • Compliant with RoHS (10 substances)

Shield Can

The shield can is soldered at two diagonal points.

Antenna Opening

SMD

When mounting TWELITE to a custom PCB and using a wire antenna such as a stick antenna, create an opening on the board and solder from the underside.

The figure below shows an example opening.

Antenna Opening Example

In this example, pins 29, 30, 31, and 32 (LA, GND, LB, GND) are left unconnected to allow for a wider opening.

Reflow Conditions

SMD

Recommended Reflow Profile

Reflow Profile

Reflow Profile

PreheatingMain HeatingPeak TempReflow Count
150180°C/6090sec220°C/30-45sec245°C1

Ordering Information

Product Codes

ALL
Product NameProduct CodeSales TypePackagingMOQSPQ
TWELITEMW-G-WRetailIndividual Pack11
MW-G-W-BULKWholesaleCut Tape/Tray100100
MW-G-W-REELWholesaleReel10001000
MW-G-URetailIndividual Pack11
MW-G-U-BULKWholesaleCut Tape/Tray100100
MW-G-U-REELWholesaleReel10001000
TWELITE DIPMW-G-DIP-PRetailIndividual Pack11
MW-G-DIP-P-BULKWholesaleTray100100
MW-G-DIP-URetailIndividual Pack11
MW-G-DIP-U-BULKWholesaleTray100100

Product codes are subject to change. For the latest codes, please refer to our website.

Packaging

SMD

Taping Dimensions

Taping Dimensions

Reel Dimensions

Reel Dimensions

Precautions

Mounting Precautions

SMD
  1. The product should be reflow soldered only once under our recommended reflow conditions. Please note that solder inside the product will re-melt during reflow.
  2. This product absorbs moisture when left in a natural environment. Please perform reflow mounting within 72 hours after opening.
  3. Ensure adequate electrostatic discharge (ESD) protection.
  4. If more than 72 hours have passed after opening, perform baking under the following conditions before use:
    • Baking in reels is not allowed; transfer to trays, etc., before baking.
    • Bake at 90°C for 48 hours, up to one time only.
  5. Please note that multiple LOT numbers may be mixed in a single package.
  6. Solder fillets on soldered parts of components mounted inside the product are not required.
  7. This product is intended for mounting on glass epoxy substrates. If mounting on substrates made of materials other than glass epoxy (e.g., ceramics), please conduct thorough evaluation before use.
  8. Due to the nature of components mounted inside the product, they are highly sensitive to static electricity. Ensure full ESD protection when handling.
  9. If stress is applied to the shield case, it may come off. Please handle with care.
  10. For hand soldering, please follow these conditions: temperature below 350°C, within 3 seconds (package surface temperature should be below 150°C).

Export Regulations

ALL

TWELITE is equipped with an AES encryption circuit, and we judge it as a product subject to export control classification. If you require a parameter sheet for export classification, please contact us.

In overseas markets, radio certification may be required. Please consult us at an early stage.

Product Markings

ALL

Product logos, certification numbers, and other markings printed on the product may change without notice.

Factory Firmware

ALL

Writing of TWELITE firmware is performed as part of product inspection during manufacturing (to confirm that information such as serial number and MAC address written to the chip is valid). We cannot guarantee information such as firmware version even upon customer request. The presence or type of firmware written to TWELITE STICK at the time of factory shipment may change without notice. We do not rewrite firmware on shipped products. Please use the TWELITE STAGE App or the Python tweliter module.

Storage Precautions

ALL

Store between 0°C and 40°C, avoiding high temperature and humidity.

SMD

Use the product within 6 months after delivery.

Usage Precautions

ALL

When using the product, always conduct evaluations and confirmations in the actual environment. For applications requiring very high reliability or those involving human life, please contact your distributor in advance.

Revision History

VersionRevision DateDetails of Changes
1.0.0b2025-08-08Updated SDK version information
1.0.02025-06-04First Edition
1.0.0rc22024-07-16Pre-release Version



Arm® and Cortex® are registered trademarks of Arm Limited.

NXP® and NTAG® are registered trademarks of NXP B.V.

1.2.2 - TWELITE (GOLD Series)

Pre-release version

Introduction

TWELITE® is a compact, low-power, high-performance wireless module.

Equipped with an Arm® Cortex®-M4 core, it supports medium-range wireless communication compliant with IEEE802.15.4 and short-range communication compliant with ISO/IEC 14443.

Certified for radio use in Japan, it enables rapid product development for wireless systems.

Features

  • Ultra-compact body package (13.97mm × 13.97mm × 2.5mm)
  • Medium-range wireless communication compliant with the global standard IEEE802.15.4
  • PCB design that maximizes chip performance and ensures stable communication over long distances
  • Our proprietary simple protocol stack “TWELITE NET”
  • Short-range wireless communication with NFC readers compliant with ISO/IEC 14443
  • Widely used Arm Cortex-M4 architecture
  • Excellent power-saving performance with standby current as low as 350nA, contributing to longer battery life
  • Equipped with 152KB SRAM and 640KB flash memory to support advanced communication application software
  • Six-channel 12-bit ADC and 22 general-purpose digital I/O ports to connect various sensors
  • Ten channels of PWM output usable for LEDs and actuators
  • Newly added 32-bit real-time clock
  • Firmware development environment based on the freely available GNU Arm Embedded Toolchain
  • Strong AES encryption: 128bit / 192bit / 256bit
  • Certified under Japan’s ARIB STD-T66 construction design certification (technical conformity)

Product Variants

The TWELITE Wireless Module (GOLD Series) comes in the following variations. Please select according to your application.

Product NameModel No.Antenna TerminalRemarks
TWELITEMW-G-WWire antenna terminal
(through-hole)
Antenna sold separately
MW-G-UCoaxial antenna terminal
(U.FL/IPEX)
Antenna sold separately
TWELITE DIPMW-G-DIP-PPCB antenna
MW-G-DIP-UCoaxial antenna terminal
(U.FL/IPEX)
Antenna sold separately
Main body: MW-G-W

MW-G-W Appearance

MW-G-W Appearance

MW-G-U Appearance

MW-G-U Appearance

MW-G-DIP-P Appearance

MW-G-DIP-P Appearance

MW-G-DIP-U Appearance

MW-G-DIP-U Appearance

In the following documentation, references related to MW-G-W/U are marked as SMD , those related to MW-G-DIP-P/U as DIP , and those applicable to all as ALL .

Functions

ALL
  • 32-bit Arm Cortex-M4 processor
  • Operating clock: 32MHz (variable between 12MHz and 48MHz to optimize power consumption)
  • SRAM: 152KB
  • Flash memory: 640KB
  • EEPROM: 2KB (mounted on internal NFC chip)
  • Watchdog timer, brown-out detection
  • Power control for each block (Digital/Analog/SRAM/Wireless)
  • AES encryption circuit: 128bit / 192bit / 256bit
  • 6x ADC (12-bit)
  • 10x PWM
  • 2x Timer (32-bit)
  • 1x Comparator
  • 2x UART
  • 2x SPI (with 3 chip selects)
  • 2x I2C
  • 22x Digital IO
  • 1x Quad SPI
  • 1x RTC (32-bit)
Block diagram of TWELITE GOLD series

Block Diagram of TWELITE (GOLD Series)

2.4GHz Wireless

ALL
ItemTWELITE (GOLD Series)Remarks
Communication2.4GHz IEEE 802.15.4
ProtocolTWELITE NET and IEEE 802.15.4 MAC
Data Rate250kbps
ModulationO-QPSK, DSSS
Channels16Varies depending on country
Max TX Power9.14dBm25°C, 3V, typical
RX Sensitivity-99.7dBm25°C, 3V, typical
Antenna
ALL

For a list of compatible antennas, refer to our product information.

SMD

A board antenna that can be mounted on the PCB (MW-A-P1934) is also available. See Board antenna (MW-A-P1934).

Certification
ALL
TWELITE (GOLD Series)
Certification Model NameTWELITE GOLD
Technical Conformity ID007-AL0022
FCC IDTBA
IC IDTBA

NFC Tag

ALL
ItemTWELITE (GOLD Series)Remarks
CommunicationISO/IEC 14443 Type A
ProtocolNFC Forum Type 2 TagNXP® NTAG®
Data Rate106kbps
SRAM64 bytes
EEPROM2KB
Write Time4.8ms4 bytes, EEPROM
0.8ms4 bytes, SRAM
6.1ms64 bytes, SRAM (FAST_WRITE)
Max Range100mmDepends on antenna, etc.

Development Environment

ALL

TWELITE STAGE SDK

TWELITE STAGE SDK is a dedicated firmware development environment for the TWELITE series provided by our company. By using the included TWELITE STAGE APP, you can build, write firmware, verify operation, and configure settings.

The TWELITE STAGE SDK includes the following components:

  • TWELITE STAGE APP (frontend for build operations; executes builds via make using the command-line tool and writes firmware) Located in MWSTAGE/, excluding MWSDK (note 1) and Tools.

  • Toolchain (compiler and other command-line utilities) Located under the MWSTAGE/Tools folder.

  • MWSDK Libraries (used during builds) Located under MWSTAGE/MWSDK (note 1)

Distribution of TWELITE STAGE SDK

The TWELITE STAGE SDK for TWELITE GOLD is distributed by our support team.

Below are the currently distributed versions:

  • MWSTAGE2024_07G (Distributed in July 2024)
    • STAGE App: 2.4.1
    • Toolchain: gcc 12.2.1 20221205
    • MWSDK Library: MWSDK2024_07G

Development Information Specific to TWELITE GOLD

Details on build methods and APIs are documented in .../MWSDK/TWENET/current/index.html under the MWSDK folder.

About MCUXpresso

MCUXpresso is a firmware development environment provided by NXP Semiconductors N.V., the manufacturer of the JN5189 semiconductor mounted on the TWELITE (GOLD Series). In addition to build and write capabilities, it also supports debugging using MCU-Link.

Software License Agreement

For software provided by MONO WIRELESS Inc., please refer to the license descriptions in the LICENSE folder under the MWSDK library within the TWELITE STAGE SDK when developing firmware. Although English versions are available, in the event of conflicting interpretations, the Japanese version shall take precedence.

  • MW-SLA-1J ・・・ MONO WIRELESS Software License Agreement (for commercial use)
  • MW-OSSLA-1J ・・・ MONO WIRELESS Open Source Software License Agreement (includes non-commercial use)
  • MW-SLA-1E1, MW-OSSLA-1E・・・ English versions of the above

Pin Assignment

Pin Number

SMD
Pin Number Assignment

Pin Number Assignment

DIP
Pin Number Assignment

Pin Number Assignment (DIP)

Functions of Each Pin

ALL

The representative functions are shown in the table below.

NameFunction
PIOPeripheral input/output
PWMPulse-width modulation output
TXDUART Data Transmission
RXDUART Data Reception
RTSUART Request to Send (output)
CTSUART Clear to Send (input)
SCLI2C Serial Clock
SDAI2C Serial Data
SCKSPI Serial Clock
MOSISPI Controller Output (PICO)
MISOSPI Controller Input (POCI)
SSELNSPI Peripheral Select (CS)
NameFunction
IOQuad SPI Serial Data
CSNQuad SPI Chip Select
CLKQuad SPI Serial Clock
MATTimer Output
CAPTimer Input
OUTComparator Output
ACPComparator + Input
ACMComparator - Input
SWDIOSWD Serial Data
SWOSWD Trace Port
SWCLKSWD Serial Clock
ISPENTISP Entry
ISPSELISP Mode Select

The typical function assignments are shown in the following table.

SMD
#
Note 1
DIP
# (14P)
Note 1
IO
Note 2
PWM
Note 3
ADC
Note 3
UART
Note 3
I2C
Note 3
SPI
Note 3
Quad
SPI
Note 3
Timer
(CT32)
Note 3
Comparator
Note 3
SWD
ISP
Note 3
16PIO0PWM0TXD1SCK1
27
(PRG)
PIO5RTS0SSELN0
MISO1
SSELN1(2)
ISPENT
35PIO2PWM2RXD0SCK0
MOSI1
48PIO3PWM3TXD0MISO0
SSELN1(0)
528
(VCC)
VCC
69PIO7PWM7CTS0
RXD1
SDA1MISO0CT32B1
MAT1
74PIO6PWM6RTS0
TXD1
SCL1SCK0CT32B1
MAT0
810
(TXD)
PIO8PWM8TXD0MOSI0CT32B0
MAT0
OUT
93
(RXD)
PIO9PWM9RXD0SSELN0CT32B1
CAP1
1011
(A)
PIO14PWM1ADC0SSELN1(1)CT32B0
CAP1
SWO
1112PIO12PWM0SCL1MOSI0OUTSWCLK
1213PIO4PWM4CTS0MOSI0
SSELN1(1)
ISPSEL
1315
(SET)
PIO13PWM2SDA1MOSI0SWDIO
142PIO10TXD1SCL0SCK0CT32B0
CAP0
1516PIO1PWM1RXD1MISO1
1617PIO0PWM0TXD1SCK1
1719PIO11RXD1SDA0MISO0CT32B1
CAP0
1818PIO20PWM8TXD1IO2ACP
1920PIO21PWM9IO1ACMSWO
201,14GND
2121
(RST)
RSTN
2224
(A)
PIO14PWM1ADC0SSELN1(1)CT32B0
CAP1
SWO
2322
(B)
PIO15PWM3ADC1SCL0SCK1OUT
2423
(C)
PIO16PWM5ADC2SDA0SSELN1(0)CSN
2525
(D)
PIO17PWM6ADC3MOSI1IO3SWO
2626
(E)
PIO18PWM7ADC4TXD0MISO1CLKCT32B0
MAT1
2727PIO19PWM4ADC5RXD0
RXD1
IO0
281,14
(GND)
GND
29N/A
(ANT R)
LA
301,14
GND
GND
31N/A
(ANT L)
LB
321,14
GND
GND

Note 1. These are the pin numbers. TWELITE and TWELITE DIP have different counts and assignments. IO names are generally used to identify pins.

Note 2. IO names of the pins. These names are used in semiconductor datasheets and TWELITE application development. Our technical support also refers to pins by IO names in principle.

Note 3. This table lists representative functions. Only a subset is supported in the TWENET library.

Electrical Characteristics

ALL

Absolute Maximum Ratings

MinMax
Power Supply-0.33.96V
Reset-0.33.96V
Digital I/O-0.33.96V
ADC-0.33.96V
NFC (LA/LB)-0.34.6V

Values are based on the semiconductor datasheet.

SymbolConditionMinMax
Supply VoltageVCC1.93.6V
Operating TempTJNo condensation
MW-G-W
-40105°C
No condensation
MW-G-U
-4090°C

Values are based on the semiconductor datasheet.

DC Characteristics

SymbolConditionMinTypMax
Current Cons.ICCSleep, SRAM not retained, no timer350nA
Sleep, SRAM not retained, with timer800nA
Sleep, 4KB SRAM retained, with timer1025nA
Sleep, 8KB SRAM retained, with timer1120nA
Active, TX (10dBm)20.28mA
Active, TX (3dBm)9.44mA
Active, TX (0dBm)7.36mA
Active, RX4.3mA

Values are based on the semiconductor datasheet.

I/O Characteristics

SymbolConditionMinTypMax
PIO Pull-up ResistorRpu(int)(PIO)405060
RSTN Pull-up ResistorRpu(int)(RSTN)405060
PIO Pull-down ResistorRpdn(int)(PIO)405060
IO Input HighVIH0.7 * VCCVCCV
IO Input LowVIL-0.30.27 * VCCV
IO Output HighVOHPIO0-9,12-16, 2mA load (VCC=3.6V)3.3VCCV
PIO0-9,12-16, 2mA load (VCC=3.0V)2.65VCCV
PIO0-9,12-16, 2mA load (VCC=2.4V)2.0VCCV
PIO0-9,12-16, 2mA load (VCC=1.9V)1.4VCCV
PIO17-21, 5mA load (VCC=3.6V)3.2VCCV
PIO17-21, 5mA load (VCC=3.0V)2.6VCCV
PIO17-21, 5mA load (VCC=2.4V)2.05VCCV
PIO17-21, 5mA load (VCC=1.9V)1.35VCCV
PIO10,11, 2mA load (VCC=3.6V)3.3VCCV
PIO10,11, 2mA load (VCC=3.0V)2.66VCCV
PIO10,11, 2mA load (VCC=2.4V)2.1VCCV
PIO10,11, 2mA load (VCC=1.9V)1.15VCCV
IO Output LowVOL00.4V

Values are based on the semiconductor datasheet.

ADC Characteristics

SymbolConditionMinTypMax
Input VoltageVi0VCCV
Full Scale RangeFSRAfter calibration3.563.63.62V
Resolution12bits
Current ConsumptionIADCxx=05100µA
Integral Non-linearityINL1.1LSB
Differential Non-linearityDNL0.85LSB
Offset ErrorEOAfter calibration-4.54.5mV
Gain ErrorEGAfter calibration-40020mV
Sampling FrequencyfsSingle channel78.4100190ksps

Values are based on the semiconductor datasheet.

Mechanical Characteristics

External Dimensions

SMD
Outline Drawing

Outline Drawing

  • Dimensions: 13.97mm x 13.97 mm x 2.5mm
  • Weight: 0.84g (MW-G-W), 0.86g (MW-G-U)
DIP
Outline Drawing (PCB Antenna)

Outline Drawing (PCB Antenna)

Outline Drawing (U.FL)

Outline Drawing (U.FL)

  • Dimensions: 44.7mm x 18.3 mm x 8.1mm
  • Weight: 3.81g (MW-G-DIP-P), 3.83g (MW-G-DIP-U)
SMD
Recommended Pad Layout
  • Do not place silk screen or through-holes on the receiving PCB area that contacts the back of the module.
  • When connecting wire antennas such as matchstick antennas, create a rectangular hole in the receiving PCB and solder from the back side. (See Antenna Mounting Opening)
  • Use a metal mask thickness in the range of t = 0.12 to 0.15mm. Depending on the metal mask and reflow conditions, solder fillets may not form on some half-holes of the module.

Environmental Regulations

RoHS (10 substances) compliance is planned (note: under analysis).

Shield Can

The shield can is soldered at two diagonal points.

Antenna Mounting Opening

SMD

To connect a matchstick or similar wire antenna when mounting TWELITE on a custom board, create an opening on the board and solder from the back side.

The following figure is one example of such an opening.

Antenna Mounting Opening

In this example, pins 29, 30, 31, 32 (LA, GND, LB, GND) are left unconnected to allow for a larger opening.

Reflow Conditions

SMD

Recommended Reflow Profile

Reflow Profile

Reflow Profile

PreheatingMain HeatingPeak TempReflow Count
150180°C/6090sec220°C/30-45sec245°C1

Ordering Information

Sales Code

ALL
Product NameSales CodeSales TypePackagingMOQSPQ
TWELITEMW-G-WRetailIndividual Pack11
MW-G-W-BULKWholesaleCut Tape / Tray100100
MW-G-W-REELWholesaleReel10001000
MW-G-URetailIndividual Pack11
MW-G-U-BULKWholesaleCut Tape / Tray100100
MW-G-U-REELWholesaleReel10001000
TWELITE DIPMW-G-DIP-PRetailIndividual Pack11
MW-G-DIP-P-BULKWholesaleTray100100
MW-G-DIP-URetailIndividual Pack11
MW-G-DIP-U-BULKWholesaleTray100100

Sales codes are subject to change. Please refer to our website for the latest information.

Packaging

SMD

Taping Dimensions

Taping Dimensions

Reel Dimensions

Reel Dimensions

Notes

Mounting Precautions

SMD
  1. The recommended number of reflows is one. During reflow, internal solder may re-melt; handle with care.
  2. This product is moisture-sensitive. Please perform reflow within 72 hours after opening.
  3. Use proper anti-static precautions.
  4. If 72 hours have passed after opening, perform a baking process under the following conditions before use:
    • Do not bake in the reel. Transfer to a tray or similar.
    • Bake at 90°C for 48 hours, only once.
  5. Multiple LOT numbers may be mixed in one package.
  6. Presence or absence of solder fillets on mounted parts is not guaranteed.
  7. Designed for mounting on FR-4 (glass epoxy). If using a different substrate (e.g., ceramic), evaluate thoroughly beforehand.
  8. Components mounted inside the product are highly sensitive to static electricity. Ensure sufficient static protection.
  9. The shield case may come off under stress. Please handle with care.
  10. For hand soldering, follow these conditions: ≤350°C, ≤3 seconds (≤150°C on package surface).

Export Control

ALL
  • The AES encryption circuit in TWELITE falls under controlled goods. Contact us for the parameter sheet.
  • Depending on the destination, radio certification may be required for customs clearance. Contact us regarding country-specific regulations.

Product Marking

ALL

Product logos and certification numbers printed on the product may change without notice.

Factory Default Firmware

ALL

TWELITE (MW-G-W/U, MW-G-DIP-P/U) is shipped with the “Extremely Simple! Standard App (App_Twelite)” pre-installed (at the time of this datasheet’s creation). This app is written during manufacturing to verify chip configuration (e.g., serial number and MAC address), and firmware version information will not be disclosed upon request.

Please note that the presence or type of pre-installed firmware may change without notice. Always write the necessary firmware in your own manufacturing process. We do not provide reflashing services for shipped products.

Storage Precautions

ALL

Store at temperatures between 0°C and 40°C, avoiding high temperature and humidity.

SMD

Use the product within 6 months of delivery.

Usage Notes

ALL

Always evaluate and verify in your actual usage environment. For high-reliability or life-critical applications, consult your distributor beforehand.

Revision History

VersionDateDescription
1.0.0rc22024-07-16Initial version released



Arm® and Cortex® are registered trademarks of Arm Limited.

NXP® and NTAG® are registered trademarks of NXP B.V.

2 - TWELITE DIP

Wireless Microcontroller Module

TWELITE DIP is a 28-pin DIP type module that mounts the TWELITE on a 2.54 mm pitch board. It allows for easy manual wiring.

It can be directly mounted on universal boards, sockets, or breadboards, making it suitable for prototyping and small-lot production.

2.1 - TWELITE DIP (BLUE / RED) Wireless Microcontroller

Model: TWE-L-D(I/P)-(W/U) / MW-R-D(I/P)-(W/U)
TWELITE DIP (BLUE / RED) is a wireless microcontroller module based on the first-generation TWELITE series.

2.1.1 - TWELITE DIP Wireless Microcontroller Datasheet

Latest Edition

TWELITE DIP BLUE (Certification Model: TWE-001 Lite) / TWELITE DIP RED (Certification Model: TWELITE RED) are TWELITE modules in an easy-to-handle DIP format. They feature an ultra-low power and high-performance microcontroller, flash memory, and a high-performance IEEE802.15.4-compliant wireless transceiver.

By connecting power and sensors and storing programs in flash memory or EEPROM, the module can be operated.

Supports SPI, I2C, and UART, allowing connection to various sensors and microcontrollers.

Certified for use in Japan, making it ready for immediate productization.

Features

  • Compliant with the globally standardized IEEE802.15.4
  • Proprietary protocol stack “TWELITE NET” available
  • 2.54mm pitch, 28-pin (600mil) DIP IC form factor
  • Stable long-distance communication enabled by board design maximizing chip performance
  • Equipped with 32KB RAM and 160KB/512KB flash memory for high-performance communication applications
  • Standby current is as low as 0.1μA (RAMOFF sleep), contributing to long battery life
  • Rich I/O including 4 or 6 AD converters, 1 comparator, and 20 GPIOs enables direct sensor connection
  • Firmware can be modified thanks to onboard flash memory
  • Firmware development supported by free GNU-based development environment
  • Secure communication enabled via powerful 128-bit AES encryption
  • Certified under Japan’s ARIB STD-T66 (technical compliance), allowing use without licensing or additional applications
  • RoHS compliant, meeting new environmental standards

Specifications

Product Variations

TWELITE DIP BLUE and TWELITE DIP RED come in the variations listed below. Please select the most suitable one for your application.

Sales codes are subject to change. Please refer to our website for the latest codes.

TWELITE NameSales CodeAntennaRemarks
TWELITE DIP BLUETWE-L-DI-WMatchstick Antenna TypeWith Pin Headers
TWE-L-DP-WWithout Pin Headers
TWE-L-DI-UCoaxial Connector TypeWith Pin Headers, Antenna Sold Separately
TWE-L-DP-UWithout Pin Headers, Antenna Sold Separately
TWELITE DIP REDMW-R-DI-WMatchstick Antenna TypeWith Pin Headers
MW-R-DI-WWithout Pin Headers
MW-R-DI-UCoaxial Connector TypeWith Pin Headers, Antenna Sold Separately
MW-R-DI-UWithout Pin Headers, Antenna Sold Separately

Radio Section

TWELITE DIP BLUETWELITE DIP REDRemarks
Communication Method2.4GHz
Compliant with IEEE 802.15.4
2.4GHz
Compliant with IEEE 802.15.4
Protocol StackTWELITE NET and
IEEE 802.15.4 MAC
TWELITE NET and
IEEE 802.15.4 MAC
Communication SpeedUp to 250kbpsUp to 250kbps
Modulation MethodO-QPSK, DSSSO-QPSK, DSSS
Number of Channels1616May vary by country
Transmit Power2.5dBm9.19dBm25℃,3V
Receiver Sensitivity-95dBm-96dBm25℃,3V,typ
Transmit Current15.3mA23.3mA25℃,3V,typ At max output
-14.0mAAt 3dBm output
Receive Current17.0mA14.7mA25℃,3V,typ

Microcontroller Section

  • 32-bit RISC processor
  • Variable clock enables optimized power consumption
  • RAM: 32kBytes
  • EEPROM: 4kBytes
  • Flash memory: 160kBytes (TWELITE DIP BLUE), 512kBytes (TWELITE DIP RED)
  • Watchdog timer, brown-out detection
  • Fine-grained power control per block (Digital/Analog/RAM/Wireless)
  • Built-in AES 128-bit encryption circuit and 16-bit random number generator

Interfaces

QtyRemarks
ADC4/610bit. 4 ports for TWELITE BLUE, 6 ports for TWELITE RED
PWM4
Timer/PWM15 modes including PWM, Δ∑. 16MHz, 16-bit precision
Pulse Counter2Operates in sleep mode. Up to 100kHz, 16-bit
UART216550A compatible
SPI
Master/Slave
13 chip selects, up to 16MHz
Comparator1
2-wire Serial
Master/Slave
(I2C, SMBUS compatible)
1Up to 100kHz or 400kHz, 7/10bit address mode
General-purpose Digital20Shared with other I/F
  • Many pins are shared; availability depends on usage combinations.

Certifications and Regulatory

TWELITE DIP BLUETWELITE DIP RED
Certification ModelTWE-001 LiteTWELITE RED
Technical Conformity Certification Number007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
RemarksRoHS CompliantRoHS Compliant

*1. When using TWELITE overseas, please check with us early in development due to restrictions on antennas, etc.

*2. Some countries may require labeling of FCC ID or IC ID on TWELITE or products. Contact us if applicable.

Export Notes

  • The built-in AES 128-bit encryption circuit in TWELITE is subject to export control classification. We will issue a classification document upon request.
  • Depending on the country, products may not pass customs unless TWELITE has wireless certification. Please inquire for details.

Product Labeling

Product labels, certification numbers, etc., are printed on the device but may change without notice.

Block Diagram

Block diagram of TWELITE DIP series

Block diagram of TWELITE DIP series

Dimensions

External dimensions of TWE-L-DI-W

External dimensions of TWE-L-DI-W

DimensionsWeightRemarks
35.56mm x 17.8mm x 3.5mm2.2gExcluding antenna, connector, and terminals

Pin Assignment

Pin Number

Pin Numbers and Assignments

Pin Numbers and Assignments

Pin Assignment

#(*1)IO Name (*2)Function Assignment (*3)Alternate Assignment (*4)Feature Name in “Extremely Simple! Standard App” (*5)
1GNDGND
2DIO14SIF_CLKTXD1TXD0SPISEL1SCL
3DIO7RXD0PWM3RX
4DIO5RTS0PWM1PC1PWM1
5DIO18SPIMOSIDO1
6DO0SPICLKPWM2(*6)PWM2
7DO1SPIMISOPWM3(*6)PWM3
8DIO19SPISEL0DO2
9DIO4CTS0TIM0OUTPC0DO3
10DIO6TXD0PWM2TX
11DIO8TIM0CK_GTPC1PWM4PWM4
12DIO9TIM0CAP32KTALINRXD1DO4
13DIO10TIM0OUT32KTALOUTM1
14GNDGND
15DIO12PWM2CTS0DI1
16DIO13PWM3RTS0DI2
17DIO11PWM1TXD1DI3
18DIO16COMP1PSIF_CLKDI4
19DIO15SIF_DRXD1RXD0SPISEL2SDA
20DIO17COMP1MPWM4SIF_DBPS
21RESETNRESETNRST
22ADC1AI1
23DIO0SPISEL1ADC3AI2
24ADC2VREFAI3
25DIO1SPISEL2ADC4PC0AI4
26DIO2ADC5(*7)TIM0CK_GTM2
27DIO3ADC6(*7)TIM0CAPM3
28VCCVCCVCC

(*1) Pin number. The number and assignment of pins differ from TWELITE (SMD version). Usually, use the IO Name to specify pins.

(*2) Pin definition name. This is used in semiconductor datasheets and TWELITE app development; our technical support also refers to pins by their IO Name.

(*3) Each pin can be used as simple I/O or analog input, but you can assign other functions via API initialization. This table lists typical functions.

(*4) By initializing via API, you can move functions to alternate assignment pins. This table lists typical alternate functions.

(*5) Pin names specific to the “Extremely Simple! Standard App” (App_Twelite). These are similar to IO Names; take care not to confuse them.

(*6) PWM2,3 can be assigned to DO0,1 by releasing the assignment of DIO6,7 or DIO12,13.

(*7) ADC5 and ADC6 are available only on TWELITE RED.

Function Overview

Signal NameFunction
PCPulse Counter
SPICLKSPI Clock
SPISELSPI Select Output
SPIMISOSPI Controller Input (SDI)
SPIMOSISPI Controller Output (SDO)
TIM0CK_GTTimer Clock, Gate Input
TIM0CAPTimer Capture Input
TIM0OUTTimer PWM Output
32KTALINCrystal Input
32KTALOUTCrystal Output
VREFReference Voltage
COMP1MComparator + Input
COMP1PComparator - Input
SIF_D2-wire Serial Data
SIF_CLK2-wire Serial Clock
RXDUART RX
TXDUART TX
RTSUART RTS
CTSUART CTS
PWMPulse Width Modulation Output

Handling of Special Pins

DO0 (Function: SPICLK)

This pin is used as an output. Applying voltage from external sources (even with some output impedance) has been reported to cause the TWE module to not enter programming mode.
When connecting LEDs or transistors, the pin may enter an intermediate state upon startup or wake from sleep, potentially causing malfunction. We recommend configuring the external circuit so that it is always pulled up to Vcc.

DO1 (Function: SPIMISO)

This pin is often used as an output, but at module power-up or reset, it behaves as an input. If the voltage is judged as Low at that time, the module will start in programming mode. Pay attention to the voltage level at startup on this pin.

DIO0 (Function: ADC3), DIO1 (Function: ADC4)

These pins are shared with analog input. In firmware, the internal pull-up must be disabled when reading AD values .

ADC2

ADC2 can be used as a reference voltage input. Software implementation is required to use this. Note that there is no pin to output the reference voltage.

GND

It is recommended to connect both pins 1 and 14 to GND, but operation is possible with either unconnected. No significant change in wireless performance has been observed if one is left unconnected.

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.33.6V
Analog IO (VREF/ADC)-0.3VCC+0.3V
Digital IO-0.3VCC+0.3V

Characteristics

SymbolConditionmintypmax
Power Supply VoltageVCC2.03.03.6V
Startup VoltageVboot2.05V
Operating TemperatureTOPRNo condensationTWELITE DIP BLUE-4025105(*1)
90(*2)
TWELITE DIP RED-302590
Operating HumidityHOPRNo condensation85%RH
  • Values are based on semiconductor datasheet.
    *1 Max operating temperature of TWE-L-WX
    *2 Max operating temperature of TWE-L-U

DC Characteristics

SymbolConditionmintypmax
Current ConsumptionICCSleep
(RAMOFF, no timer)
TWELITE DIP BLUE0.1uA
TWELITE DIP RED0.1uA
Sleep
(with timer)
TWELITE DIP BLUE1.5uA
TWELITE DIP RED1.5uA
Transmit (CPU doze)TWELITE DIP BLUE15.3mA
TWELITE DIP RED23.3mA
TWELITE DIP RED
(at 3dBm output)
14.0mA
Receive (CPU doze)TWELITE DIP BLUE17.0mA
TWELITE DIP RED14.7mA
Transmit PowerPoutTWELITE DIP BLUE+0.52.5dBm
TWELITE DIP RED9.14dBm
Receiver SensitivityTWELITE DIP BLUE-95dBm
TWELITE DIP RED-96dBm
  • Values are based on semiconductor datasheet.

I/O Characteristics

SymbolConditionmintypmax
Internal Pull-up on DIO405060
DIO High InputVIHVCCx0.7VCCV
DIO Low InputVIL-0.3VCCx0.27V
DIO Input Hysteresis200310400mV
DIO High OutputVOHTWELITE DIP BLUEVCCx0.8VCCV
TWELITE DIP REDVCC-0.4
DIO Low OutputVOL00.4V
DIO Load, Sink CurrentIOLVCC 2.7~3.6V4mA
VCC 2.2~2.7V3mA
VCC 2.0~2.2V2.5mA
  • Values are based on semiconductor datasheet.

ADC Characteristics

SymbolConditionmintypmax
Reference VoltageVREF1.1981.2351.260V
ADC Resolution10Bits
ADC Integral Nonlinearity±1.6, ±1.8LSB
ADC Differential Nonlinearity-0.50.5LSB
ADC Offset Error0~VREF-10mV
0~2VREF-20
ADC Gain ErrorTWELITE DIP BLUE
0~VREF
+10mV
TWELITE DIP BLUE
0~2VREF
+20
TWELITE DIP RED
0~VREF
-10
TWELITE DIP RED
0~2VREF
-20
ADC Clock0.25,0.5, 1.0MHz
ADC Input Range0.04VREF2xVREFV
  • Values are based on semiconductor datasheet.

Precautions for Use

Storage

Avoid high temperature and humidity. Use the product within six months of delivery.

General Notes

Please be sure to evaluate and verify the product in your actual usage environment.

For applications requiring high reliability or involving human safety, please consult with your distributor in advance.

Revision History

VersionRevision DateRevision Details
2.0.12024/11/12Corrected unit mislabeling for current consumption
2.0.02024/07/12Updated due to PCB design change
1.1.12024/03/04Corrected annotation in pin assignment table
1.1.02024/02/27Migrated to new website
1.0.22018/11/5Added explanation for Table 6
1.0.12018/3/13Corrected errors in pin assignment table
1.0.02018/2/6Initial version

2.1.2 - TWELITE DIP Wireless Microcontroller Datasheet

v1.1.1

TWELITE DIP BLUE (Certification Model: TWE-001 Lite) / TWELITE DIP RED (Certification Model: TWELITE RED) are TWELITE modules in an easy-to-handle DIP format. They feature an ultra-low power and high-performance microcontroller, flash memory, and a high-performance IEEE802.15.4-compliant wireless transceiver.

By connecting power and sensors and storing programs in flash memory or EEPROM, the module can be operated.

Supports SPI, I2C, and UART, allowing connection to various sensors and microcontrollers.

Certified for use in Japan, making it ready for immediate productization.

Features

  • Compliant with the global standard IEEE802.15.4
  • Supports proprietary protocol stack “TWELITE NET”
  • 28-pin (600mil) DIP IC form factor with 2.54mm pitch
  • PCB design maximizes chip performance enabling stable long-range communication
  • Equipped with 32KB RAM and 160KB/512KB flash memory, capable of running high-performance communication applications
  • Ultra-low standby current of 0.1μA (RAMOFF sleep mode) extends battery life
  • Rich I/O including 4 or 6 AD converters, 1 comparator, and 20 general-purpose I/Os allow direct connection to sensors
  • Built-in flash memory allows firmware updates
  • Firmware can be developed using free GNU and Eclipse-based environments
  • Robust 128-bit AES encryption ensures security
  • Certified under Japan’s ARIB STD-T66, no license or application required for domestic use
  • RoHS compliant, meets new environmental standards

Specifications

Product Model Numbers

TWELITE DIP BLUE and TWELITE DIP RED are available in the variations shown in the table below. Please select the most appropriate one for your application.

Since sales codes may change from time to time, please refer to our website for the latest information.

Common NameSales CodeAntennaRemarks
TWELITE DIP BLUETWE-L-DI-WStick Antenna TypePin header mounted
TWE-L-DP-WPin header not mounted
TWE-L-DI-P2D Stick Antenna TypePin header mounted
TWE-L-DP-PPin header not mounted
TWE-L-DI-UCoaxial Connector TypePin header mounted, antenna not included
TWE-L-DP-UPin header not mounted, antenna not included
TWELITE DIP REDMW-R-DI-WStick Antenna TypePin header mounted
MW-R-DI-WPin header not mounted
MW-R-DI-UCoaxial Connector TypePin header mounted, antenna not included
MW-R-DI-UPin header not mounted, antenna not included

Wireless Section

TWELITE DIP BLUETWELITE DIP REDRemarks
Communication Method2.4GHz
IEEE 802.15.4 compliant
2.4GHz
IEEE 802.15.4 compliant
Protocol StackTWELITE NET and
IEEE 802.15.4 MAC
TWELITE NET and
IEEE 802.15.4 MAC
Data RateUp to 250kbpsUp to 250kbps
ModulationO-QPSK, DSSSO-QPSK, DSSS
Number of Channels1616May differ by country
Transmit Power2.5dBm9.19dBm25℃, 3V
Receiver Sensitivity-95dBm-96dBm25℃, 3V, typ
Transmit Current15.3mA23.3mA25℃, 3V, typ, max output
-14.0mAAt 3dBm output
Receive Current17.0mA14.7mA25℃, 3V, typ

Microcontroller Section

  • 32-bit RISC processor
  • Variable clock for optimized power consumption
  • RAM: 32kBytes
  • EEPROM: 4kBytes
  • Flash memory: TWELITE DIP BLUE 160kBytes / TWELITE DIP RED 512kBytes
  • Watchdog timer, brown-out detection
  • Fine-grained power control for each block (digital/analog/RAM/wireless)
  • Built-in AES 128bit encryption circuit, 16bit random number generator

Interfaces

QtyRemarks
ADC4/610bit. TWELITE BLUE: 4 ports, TWELITE RED: 6 ports
PWM4
Timer/PWM15 modes including PWM, Δ∑. 16MHz, 16bit precision
Pulse Counter2Can operate in sleep mode. Up to 100kHz, 16bit
UART216550A compatible
SPI
Master/Slave
13 chip select, up to 16MHz
Comparator1
2-wire Serial
Master/Slave
(I2C, SMBUS compatible)
1Up to 100kHz or 400kHz, 7/10bit address mode
General-purpose Digital20Shared with other interfaces
  • Many are shared pins and may not be available depending on the combination used.

Antenna

TWE-*-W0 comes with a stick antenna, W7 comes with a question-mark type antenna.

There is also a board antenna that can be mounted on the PCB. If you wish to use it, we will provide drawings, so please contact us via the inquiry form on our website.

For TWE-*-U external antenna versions, please refer to our website.

If you wish to use antennas other than the supported types with TWELITE, separate radio certification is required. Please contact us.

Certifications

TWELITE DIP BLUETWELITE DIP RED
Certification ModelTWE-001 LiteTWELITE RED
Technical Conformity Certification Number007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
RemarksRoHS compliantRoHS compliant

※1. When using TWELITE overseas, there may be various restrictions such as permitted antennas. Please consult us in the early stage of development.

※2. Depending on the country, it may be necessary to display FCC ID, IC ID, etc. on TWELITE or the product. If you think this applies, please contact us.

Notes on Export

  • The built-in AES 128bit encryption circuit in TWELITE is subject to export control judgment. When exporting, we will issue an export control certificate, so please contact us.
  • In some countries, customs clearance may not be possible unless TWELITE has obtained radio certification in the exporting country. Please inquire about regulations for each country.

Product Labeling

The product bears product logos, certification numbers, etc., but these may change without notice.

Block Diagram

Block Diagram of TWELITE DIP Series

Dimensions

Outline Drawing of TWE-L-DI-W
Sales CodeDimensionsWeightRemarks
TWE-L-DI-W/TWE-L-DP-W35.7mm x 17.7mm x 3.5mm2.2gExcluding antenna, connector, and terminals
TWE-L-DI-U/TWE-L-DP-U35.7mm x 17.7mm x 3.5mm2.2g
TWE-L-DI-P/TWE-L-DP-P47.5mm x 17.7mm x 3.5mm2.7g
MW-R-DI-W/ MW-R -DP-W35.7mm x 17.7mm x 3.5mm2.2g
MW-R-DI-U/ MW-R-DP-U35.7mm x 17.7mm x 3.5mm2.2g

DXF data for TWE-L-DI-W outline is available for download on our website.

Pin Assignment

Pin Number

Pin Number

Pin Mapping

#(*1)IO Name (*2)Function Assignment (*3)Alternative Assignment (*4)Extremely Simple! Standard App Function Name (*5)
1GNDGND
2DIO14SIF_CLKTXD1TXD0SPISEL1SCL
3DIO7RXD0PWM3RX
4DIO5RTS0PWM1PC1PWM1
5DIO18SPIMOSIDO1
6DO0SPICLKPWM2(*6)PWM2
7DO1SPIMISOPWM3(*6)PWM3
8DIO19SPISEL0DO2
9DIO4CTS0TIM0OUTPC0DO3
10DIO6TXD0PWM2TX
11DIO8TIM0CK_GTPC1PWM4PWM4
12DIO9TIM0CAP32KTALINRXD1DO4
13DIO10TIM0OUT32KTALOUTM1
14GNDGND
15DIO12PWM2CTS0DI1
16DIO13PWM3RTS0DI2
17DIO11PWM1TXD1DI3
18DIO16COMP1PSIF_CLKDI4
19DIO15SIF_DRXD1RXD0SPISEL2SDA
20DIO17COMP1MPWM4SIF_DBPS
21RESETNRESETNRST
22ADC1AI1
23DIO0SPISEL1ADC3AI2
24ADC2VREFAI3
25DIO1SPISEL2ADC4PC0AI4
26DIO2ADC5(*7)TIM0CK_GTM2
27DIO3ADC6(*7)TIM0CAPM3
28VCCVCCVCC

*1. Pin number. Different from TWELITE (SMD version) in numbering and assignment. Use IO Name to identify pins.

*2. IO Name is the pin’s defined name, used in semiconductor datasheets and TWELITE app development. This is also the default naming used in our technical support.

*3. Each pin can be used for general input/output or analog input, but can also be initialized via API to assign alternative functions. This column lists representative assignments.

*4. Functions listed here are available when the pin is initialized via API for alternate use.

*5. Function names specific to the “Extremely Simple! Standard App” (App_Twelite). These may resemble IO names but are distinct.

*6. PWM2 and PWM3 can be reassigned from DIO6,7 or DIO12,13 to DO0,1.

*7. ADC5 and ADC6 are available only on TWELITE RED.

Function Description

Signal NameFunction
PCPulse Counter
SPICLKSPI Master Clock
SPISELSPI Select Output
SPIMISOSPI Master Input
SPIMOSISPI Master Output
TIM0CK_GTTimer Clock, Gate Input
TIM0CAPTimer Capture Input
TIM0OUTTimer PWM Output
32KTALINCrystal Input
32KTALOUTCrystal Output
VREFReference Voltage
COMP1MComparator + Input
COMP1PComparator - Input
SIF_D2-wire Serial Data
SIF_CLK2-wire Serial Clock
RXDUART RX
TXDUART TX
RTSUART RTS
CTSUART CTS
PWMPulse Width Modulation Output

Handling of Special Pins

DO0 (Function Name: SPICLK)

This pin is used as an output pin. Applying voltage externally (even with some output impedance) has been reported to prevent the TWE module from entering program mode.
When connecting LEDs or transistors, the pin may be in an intermediate state at startup or when waking from sleep, causing abnormal operation. It is recommended to always use an external circuit that pulls up to Vcc.

DO1 (Function Name: SPIMISO)

This pin is often used as an output pin, but at module power-on or reset it behaves as an input. If a low voltage is detected at that time, the module starts in program mode. Please pay attention to the voltage at startup on this pin.

DIO0 (Function Name: ADC3), DIO1 (Function Name: ADC4)

These pins are shared with analog input. In firmware, internal pull-up must be disabled when reading AD values .

ADC2

ADC2 can be used as an input for reference voltage. Software implementation is required to use this. Note, there is no pin that outputs the reference voltage.

GND

It is recommended to connect both pins 1 and 14 to GND, but it is also possible to operate with one unconnected. No significant change in wireless performance has been observed even if either is left unconnected.

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.33.6V
Analog IO (VREF/ADC)-0.3VCC+0.3V
Digital IO-0.3VCC+0.3V

Characteristics

SymbolConditionmintypmax
Supply VoltageVCC2.03.03.6V
Startup VoltageVboot2.05V
Operating TemperatureTOPRNo condensationTWELITE DIP BLUE-4025105(*1)
90(*2)
TWELITE DIP RED-302590
Operating HumidityHOPRNo condensation85%RH
  • Values based on semiconductor datasheet.
    *1 Maximum operating temperature for TWE-L-WX/W0/W7
    *2 Maximum operating temperature for TWE-L-U

DC Characteristics

SymbolConditionmintypmax
Current ConsumptionICCSleep
(RAMOFF no timer)
TWELITE DIP BLUE0.1uA
TWELITE DIP RED0.1uA
Sleep
(with timer)
TWELITE DIP BLUE1.5uA
TWELITE DIP RED1.5uA
Tx (CPU doze)TWELITE DIP BLUE15.3mA
TWELITE DIP RED23.3uA
TWELITE DIP RED
(at 3dBm output)
14.0uA
Rx (CPU doze)TWELITE DIP BLUE17.0mA
TWELITE DIP RED14.7mA
Transmit PowerPoutTWELITE DIP BLUE+0.52.5dBm
TWELITE DIP RED9.14dBm
Receiver SensitivityTWELITE DIP BLUE-95dBm
TWELITE DIP RED-96dBm
  • Values based on semiconductor datasheet.

I/O Characteristics

SymbolConditionmintypmax
DIO Internal Pull-Up405060
DIO High-Level InputVIHVCCx0.7VCCV
DIO Low-Level InputVIL-0.3VCCx0.27V
DIO Input Hysteresis200310400mV
DIO High-Level OutputVOHTWELITE DIP BLUEVCCx0.8VCCV
TWELITE DIP REDVCC-0.4
DIO Low-Level OutputVOL00.4V
DIO Drive/Sink CurrentIOLVCC 2.7~3.6V4mA
VCC 2.2~2.7V3mA
VCC 2.0~2.2V2.5mA
  • Values based on semiconductor datasheet.

ADC Characteristics

SymbolConditionmintypmax
Reference VoltageVREF1.1981.2351.260V
ADC Resolution10Bits
ADC Integral Non-Linearity±1.6, ±1.8LSB
ADC Differential Non-Linearity-0.50.5LSB
ADC Offset Error0~VREF-10mV
0~2VREF-20
ADC Gain ErrorTWELITE DIP BLUE
0~VREF
+10mV
TWELITE DIP BLUE
0~2VREF
+20
TWELITE DIP RED
0~VREF
-10
TWELITE DIP RED
0~2VREF
-20
ADC Clock0.25,0.5, 1.0MHz
ADC Input Range0.04VREF2xVREFV
  • Values based on semiconductor datasheet.

Precautions for Use

Storage

Store in a cool, dry place. Use the product within six months of delivery.

General Notes

Please always evaluate and verify the product in your actual usage environment.

For applications requiring high reliability or involving human life, please consult with your distributor in advance.

Revision History

VersionDateDetails of Revision
1.1.12024/03/04Corrected notes in the pin assignment table
1.1.02024/02/27Migrated to new site
1.0.22018/11/5Added explanation to Table 6
1.0.12018/3/13Corrected errors in the pin assignment table
1.0.02018/2/6Initial release

3 - TWELITE PAL

Wireless Tag System
TWELITE PAL is a module equipped with a TWELITE, a coin-type battery (CR2032) holder, and a board antenna.

3.1 - BLUE PAL / RED PAL

Model: MW-B-PAL-P / MW-R-PAL-P
TWELITE PAL BLUE / RED is the main unit of a wireless tag system using the first-generation TWELITE series.

3.1.1 - TWELITE PAL Series BLUE PAL / RED PAL Datasheet

Latest Edition

3.2 - Open-Close Sensor PAL

Model: MW-PAL-MAG-0
Simply connect to BLUE PAL / RED PAL to create a wireless sensor tag that detects the opening and closing of objects.

3.2.1 - SENSE PAL Series Open-Close Sensor PAL Datasheet

Latest Edition

3.3 - Environmental Sensor PAL

Model: MW-PAL-AMB-0
Simply connect to BLUE PAL / RED PAL to create a wireless sensor tag that detects environmental conditions (temperature, humidity, and illuminance).

3.3.1 - SENSE PAL Series Environmental Sensor PAL Datasheet

Latest Edition

3.4 - Motion Sensor PAL

Model: MW-PAL-MOT-0
Simply connect to BLUE PAL / RED PAL to create a wireless sensor tag that detects motion.

3.4.1 - SENSE PAL Series Motion Sensor PAL Datasheet

Latest Edition

3.5 - Notification PAL

Model: MW-PAL-LED-0
Simply connect to BLUE PAL / RED PAL to create a wireless sensor tag equipped with a high-brightness color LED and an accelerometer.

3.5.1 - SENSE PAL Series Notification PAL Datasheet

Latest Edition

3.6 - Dedicated Case for PAL

Model: MW-PAL-CAS-0
This is a dedicated case for TWELITE PAL.

3.6.1 - TWELITE PAL Series PAL Dedicated Case Datasheet

Latest Edition

4 - TWELITE CUE

Wireless tag with magnetic and acceleration sensors
By attaching it to objects, movement and status can be wirelessly transmitted.

4.1 - TWELITE CUE (BLUE / RED)

Model: MW-(B/R)-CUE-0
TWELITE CUE (BLUE / RED) is a wireless tag module equipped with an accelerometer and a Hall sensor.

4.1.1 - TWELITE CUE (BLUE / RED) Datasheet

Latest

TWELITE CUE is a package that integrates the TWELITE wireless microcontroller, a 3-axis accelerometer, magnetic sensor, coin cell battery holder, and antenna. A dedicated CUE application (firmware) is pre-installed, and it starts operating immediately upon inserting a coin cell battery (CR2032). Its low power consumption allows continuous operation for years.

It is ideal for users who have ideas for utilizing wireless tags but lack hardware or software expertise, or have limited development resources.

TWELITE CUE is a compact wireless tag with long battery life and excellent transmission range.

Specifications

Product Code

The model numbers for TWELITE CUE are as follows.

Common NameProduct CodeRemarks
TWELITE CUE (BLUE)MW-B-CUE-0Standard Output
TWELITE CUE (RED)MW-R-CUE-0High Output

Wireless / Microcontroller Section

Antenna

A reverse-F type antenna is used.

ItemSpecification
Antenna TypeMW-A-P1934 (datasheet)
Gain (typical, omni)-1.4[dBi] (without case) / -2.5[dBi] (with case)
PolarizationLinear Polarization

Vertical Directionality

Vertical Directionality

Vertical Directionality

Horizontal Directionality

Horizontal Directionality

Horizontal Directionality

Certifications

MW-B-CUE-0MW-R-CUE-0
Certification TypeTWE-001 LiteTWELITE RED
Radio Law Approval No.007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
RemarksRoHS CompliantRoHS Compliant

Built-in Sensors

  • Accelerometer: mCube MC3630
  • Magnetic Sensor:
    • Initial Version: Texas Instruments DRV5032FD
    • From September 2022: Diodes Incorporated AH1390-HK4-7
  • Watchdog Timer: Texas Instruments TPL5010
  • LED: Rohm SML-D12D8WT86

Parts Description

Parts Description

1. TWELITE

Main wireless microcontroller module

2. LED

Acts as an indicator lamp for status

3. 7P Interface

7P Interface used for app configuration and writing

Below is the correspondence table for signal pins.

NameSignalTWELITE DIPTWELITE (SMD)Description
GNDGND1, 1420, 28, 30, 31, 32Negative terminal of power supply
TXDDIO6108Serial line (connect to RX on PC side)
PRGSPIMISO72Connect to GND to reset; open or connect to VCC to enter programming mode
RXDDIO739Serial line (connect to TX on PC side)
RSTRESETN2121Connect to GND to reset
VCCVCC285Positive terminal of power supply
SET---Extended control signal

4. Accelerometer

Accelerometer for detecting XYZ acceleration

5. I2C Expansion Connector (initial lot only)

I2C Expansion Connector (initial lot only)

6. Magnetic sensor

Magnetic sensor for proximity detection of magnets (not a geomagnetic sensor)

7. Battery holder

Battery holder for CR2032

8. PCB Antenna

PCB Antenna constructed from circuit pattern on the board

Mechanical Drawings

Main Unit

Mechanical Drawing of the Main Unit

Mechanical Drawing of the Main Unit

PDF

Case

Mechanical Drawing of the Case

Mechanical Drawing of the Case

PDF

Circuit Diagram

Circuit Diagram

Circuit Diagram

PDF

Characteristics

TWELITE

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.33.6V
Analog IO (VREF/ADC)-0.3VCC+0.3V
Digital IO-0.3VCC+0.3V
ConditionMinTypMax
Supply Voltage2.03.03.6V
Start-up Voltage2.05V
Operating TemperatureNo condensation-2075°C
Operating HumidityNo condensation85%RH

Current Consumption

ConditionMinTypMax
Sleep (RAM OFF, no timer)0.1uA
Sleep (RAM ON, with timer)1.5uA
Tx (CPU doze)MW-B-CUE-015.3mA
MW-R-CUE-023.3mA
Rx (CPU doze)MW-B-CUE-017.0mA
MW-R-CUE-014.0mA

I/O Characteristics

ConditionMinTypMax
DIO Internal Pull-up405060
DIO High InputVCCx0.7VCCV
DIO Low Input-0.3VCCx0.27V
DIO Input Hysteresis200310400mV
DIO High OutputVCCx0.8VCCV
DIO Low Output00.4V
DIO Sink/Source CurrentVCC 2.7~3.6V4mA
VCC 2.2~2.7V3mA
VCC 2.0~2.2V2.5mA

Accelerometer

ConditionMinTypMax
Current ConsumptionSleep, Vcc=1.8V0.1uA
Ultra-Low Power, 25Hz, Vcc=1.8V0.9uA
Ultra-Low Power, 100Hz, Vcc=1.8V2.8uA
Measurement Range-1616G
Resolution12bit
Sampling Frequency1300Hz

Magnetic Sensor

Initial Version

ConditionMinTypMax
Current ConsumptionVCC=3V1.63.5uA
Sampling Frequency20Hz
Magnetic ThresholdApproaching±1.5±3±4.8mT
Releasing±0.5±1.5±3mT

Units Shipped After September 2022

ConditionMinTypMax
Current ConsumptionVCC=3.6V2.213uA
Sampling Interval304580ms
Magnetic ThresholdWhen S-pole approaches61725Gauss
When N-pole approaches-25-17-6Gauss
When S-pole is removed21120Gauss
When N-pole is removed-20-11-2Gauss

Watchdog Timer

ConditionMinTypMax
Current Consumption3550nA
Pulse Interval6090120s

LED

ConditionMinTypMax
Emission WavelengthVCC=2.2V602605608nm
Luminous IntensityVCC=2.2V40100mcd
Limiting Resistor470Ω

Precautions

Inserting the Coin Cell

Insert the CR2032 battery with the + side facing the + mark on the battery holder. The TWELITE CUE LED will blink three times if inserted correctly.

Battery Insertion Orientation

Battery Insertion Orientation

Due to its structure, the battery holder of TWELITE CUE is prone to detachment at the soldered area. Please follow the precautions below:

  • When removing the coin cell, it is recommended to gently press the battery holder from above to avoid stressing the soldered section.
  • When operating TWELITE CUE, use a dedicated case to hold down the battery holder from above.

Disposal

Dispose of this device in accordance with your local municipality’s ordinances and regulations. Please consult your local authorities for details.

General Notes

When using our products, be sure to evaluate and verify them under the actual conditions of your intended use.

For applications requiring high reliability or involving human safety, please contact your distributor in advance.

Revision History

VersionDateDescription
1.2.12024/5/7Added Parts Description
1.2.02024/2/27Added information about current magnetic sensor
1.1.12024/2/27Migrated to new website, minor edits
1.1.02020/12/10Added information on antenna directionality
1.0.02020/12/3Initial version

4.1.2 - TWELITE CUE (BLUE / RED) Datasheet

Version 1.1.1

TWELITE CUE integrates the TWELITE wireless microcontroller, 3-axis accelerometer, magnetic sensor, coin cell battery holder, and antenna into one package. It comes pre-installed with a dedicated CUE application (firmware), and starts operating immediately when a CR2032 coin cell is inserted. With low power consumption, it can operate continuously for years.

It is ideal for those who have ideas for using wireless tags but are not confident in hardware or software development, or who have limited development resources.

TWELITE CUE is a compact wireless tag with excellent transmission range and long battery life.

Specifications

Model Numbers

The model numbers for TWELITE CUE are as follows.

Common NameProduct CodeRemarks
TWELITE CUE (BLUE)MW-B-CUE-0Standard Output
TWELITE CUE (RED)MW-R-CUE-0High Output

Wireless and MCU Section

Antenna

A reverse-F antenna is used.

ItemSpecification
Antenna TypeMW-A-P1934 (Datasheet)
Gain (typical, omni)-1.4[dBi] (without case) / -2.5[dBi] (with case)
PolarizationLinear Polarization

Vertical Directionality

Vertical Directionality

Vertical Directionality

Horizontal Directionality

Horizontal Directionality

Horizontal Directionality

Certifications

MW-B-CUE-0MW-R-CUE-0
Certification TypeTWE-001 LiteTWELITE RED
Radio Law Approval No.007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
RemarksRoHS CompliantRoHS Compliant

Built-in Sensors

  • Accelerometer: mCube MC3630
  • Magnetic Sensor: Texas Instruments DRV5032FD
  • Watchdog Timer: Texas Instruments TPL5010
  • LED: Rohm SML-D12D8WT86

Mechanical Drawings

Main Unit

Mechanical Drawing of the Main Unit

Mechanical Drawing of the Main Unit

PDF

Case

Mechanical Drawing of the Case

Mechanical Drawing of the Case

PDF

Circuit Diagram

Circuit Diagram

Circuit Diagram

PDF

Characteristics

TWELITE

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.33.6V
Analog IO (VREF/ADC)-0.3VCC+0.3V
Digital IO-0.3VCC+0.3V
ConditionMinTypMaxUnit
Supply Voltage2.03.03.6V
Start-up Voltage2.05V
Operating TemperatureNo condensation-2075°C
Operating HumidityNo condensation85%RH

Current Consumption

ConditionMinTypMaxUnit
Sleep (RAM OFF, no timer)0.1µA
Sleep (RAM ON, with timer)1.5µA
Tx (CPU doze)MW-B-CUE-015.3mA
MW-R-CUE-023.3mA
Rx (CPU doze)MW-B-CUE-017.0mA
MW-R-CUE-014.0mA

I/O Characteristics

ConditionMinTypMaxUnit
DIO Internal Pull-up405060
DIO High InputVCC×0.7VCCV
DIO Low Input-0.3VCC×0.27V
DIO Input Hysteresis200310400mV
DIO High OutputVCC×0.8VCCV
DIO Low Output00.4V
DIO Sink/Source CurrentVCC 2.7–3.6V4mA
VCC 2.2–2.7V3mA
VCC 2.0–2.2V2.5mA

Accelerometer

ConditionMinTypMax
Current ConsumptionSleep, Vcc=1.8V0.1µA
Ultra-Low Power, 25Hz, Vcc=1.8V0.9µA
Ultra-Low Power, 100Hz, Vcc=1.8V2.8µA
Measurement Range-1616G
Resolution12bit
Sampling Frequency1300Hz

Magnetic Sensor

ConditionMinTypMaxUnit
Current ConsumptionVCC=3V1.63.5µA
Sampling Frequency20Hz
Magnetic ThresholdApproaching±1.5±3±4.8mT
Releasing±0.5±1.5±3mT

Watchdog Timer

ConditionMinTypMaxUnit
Current Consumption3550nA
Pulse Interval6090120s

LED

ConditionMinTypMaxUnit
Emission WavelengthVCC=2.2V602605608nm
Luminous IntensityVCC=2.2V40100mcd
Limiting Resistor470Ω

Precautions

Inserting the Coin Cell

Insert the CR2032 coin cell with the positive side facing the positive side of the holder. If the LED on the TWELITE CUE blinks three times, it is functioning properly.

Battery Insertion Orientation

Battery Insertion Orientation

Due to its structure, the battery holder of TWELITE CUE is prone to detachment at the soldered area. Please follow the precautions below:

  • When removing the coin cell, it is recommended to gently press the battery holder from above to avoid stressing the soldered section.
  • When operating TWELITE CUE, use a dedicated case to hold down the battery holder from above.

Disposal

Dispose of this device in accordance with your local municipality’s ordinances and regulations. Please consult your local authorities for details.

General Notes

When using our products, be sure to evaluate and verify them under the actual conditions of your intended use.

For applications requiring high reliability or involving human safety, please contact your distributor in advance.

Revision History

VersionDateDescription
1.1.12024/2/26Migrated to new website, minor edits
1.1.02020/12/10Added antenna directionality info
1.0.02020/12/3Initial version

5 - TWELITE ARIA

Wireless tag with magnetic, temperature, and humidity sensors
By attaching it to objects, temperature and humidity data can be wirelessly transmitted.

5.1 - TWELITE ARIA (BLUE / RED)

Model MW-(B/R)-ARIA-0
TWELITE ARIA (BLUE / RED) is a wireless tag module equipped with a temperature/humidity sensor and a Hall sensor.

5.1.1 - TWELITE ARIA (BLUE / RED) Datasheet

Latest

TWELITE ARIA is a wireless tag that integrates the TWELITE wireless microcontroller, a temperature/humidity sensor, magnetic sensor, coin cell battery holder, and antenna into a single package. It can wirelessly transmit temperature, humidity, and door open/close status.

A dedicated ARIA application (firmware) is pre-installed. It starts operating immediately when a coin cell (CR2032) is inserted. With low power consumption, it can operate continuously for years.

It is ideal for those who have ideas for using wireless tags but are not confident in hardware or software development, or who have limited development resources.

TWELITE ARIA is a compact wireless tag with excellent transmission range and long battery life.

Specifications

Model Numbers

The model numbers for TWELITE ARIA are as follows.

Common NameProduct CodeRemarks
TWELITE ARIA (BLUE)MW-B-ARIA-0Standard Output
TWELITE ARIA (RED)MW-R-ARIA-0High Output

Wireless and MCU Section

Antenna

A reverse-F type antenna is adopted.

ItemSpecification
Antenna TypeMW-A-P1934 (Datasheet)
Gain (typical, omni)1.8[dBi] (without case) / -0.46[dBi] (with case)
PolarizationLinear polarization

Vertical Radiation Pattern

Vertical Directionality

Vertical Directionality

Horizontal Radiation Pattern

Horizontal Directionality

Horizontal Directionality

Certifications

MW-B-ARIA-0MW-R-ARIA-0
Certification TypeTWE-001 LiteTWELITE RED
MIC Certification No.007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
RemarksRoHS CompliantRoHS Compliant

Built-in Sensors

  • Temperature and Humidity Sensor: Sensirion SHT40
  • Magnetic Sensor:
    • Initial version: Texas Instruments DRV5032FD
    • Units shipped from April 2024: Diodes Incorporated AH1390-HK4-7
  • Watchdog Timer: Texas Instruments TPL5010
  • LED: OSRAM Opto Semiconductors LB Q39E-L2OO-35-1

Component Names

1. TWELITE

This is the core wireless microcontroller module.

2. LED

Functions as a lamp to indicate status, etc.

3. 7P Interface

Interface used for configuring and writing the application.

Below is the correspondence table of signal pins.

NameSignal NameDescription
GNDGNDGround (negative power line)
TXDDIO6Serial line (connect to RX on PC side)
PRGSPIMISOConnect to GND to reset; when open or connected to VCC, enters programming mode
RXDDIO7Serial line (connect to TX on PC side)
RSTRESETNConnect to GND to reset
VCCVCCPositive power supply
SET-Extended control signal

4. Temperature and Humidity Sensor

This is the temperature and humidity sensor.

5. I2C Expansion Port (Initial Lot Only)

Terminal for connecting I2C sensors. Only available on initial lots.

6. Magnetic Sensor

Sensor that detects proximity of a magnet. It is not a geomagnetic sensor.

7. Battery Holder

Coin cell holder for CR2032.

8. PCB Antenna

A PCB antenna formed by circuit patterns on the board.

Mechanical Drawings

Main Unit

Outline Drawing of Main Unit

Outline Drawing of Main Unit

PDF

Case

Outline Drawing of Case

Outline Drawing of Case

PDF

Circuit Diagram

Circuit Diagram

Circuit Diagram

PDF

Characteristics

TWELITE

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.33.6V
Analog IO (VREF/ADC)-0.3VCC+0.3V
Digital IO-0.3VCC+0.3V
ConditionMinTypMaxUnit
Supply Voltage2.03.03.6V
Start-up Voltage2.05V
Operating TemperatureNo condensation-2075°C
Operating HumidityNo condensation85%RH

Current Consumption

ConditionMinTypMaxUnit
Sleep (RAM OFF, no timer)0.1µA
Sleep (RAM ON, with timer)1.5µA
Tx (CPU doze)MW-B-ARIA-015.3mA
MW-R-ARIA-023.3mA
Rx (CPU doze)MW-B-ARIA-017.0mA
MW-R-ARIA-014.0mA

I/O Characteristics

ConditionMinTypMaxUnit
DIO Internal Pull-up405060
DIO High InputVCC×0.7VCCV
DIO Low Input-0.3VCC×0.27V
DIO Input Hysteresis200310400mV
DIO High OutputVCC×0.8VCCV
DIO Low Output00.4V
DIO Sink/Source CurrentVCC 2.7–3.6V4mA
VCC 2.2–2.7V3mA
VCC 2.0–2.2V2.5mA

Temperature and Humidity Sensor

ConditionMinTypMaxUnit
Current ConsumptionIdle, 25°C0.11.0µA
During measurement350500µA
Measurement RangeTemperature-40125°C
Humidity0100%RH
ResolutionTemperature0.01°C
Humidity0.01%RH

Magnetic Sensor

Initial Version

ConditionMinTypMaxUnit
Current ConsumptionVCC=3V1.63.5µA
Sampling Frequency20Hz
Magnetic ThresholdWhen approaching±1.5±3±4.8mT
When releasing±0.5±1.5±3mT

Units Shipped from April 2024

ConditionMinTypMaxUnit
Current ConsumptionVCC=3.6V2.213µA
Sampling Period304580ms
Magnetic ThresholdS-pole approaching61725Gauss
N-pole approaching-25-17-6Gauss
S-pole releasing21120Gauss
N-pole releasing-20-11-2Gauss

Watchdog Timer

ConditionMinTypMaxUnit
Current Consumption3550nA
Pulse Interval6090120sec

LED

ConditionMinTypMaxUnit
Emission WavelengthIf=5mA470nm
Luminous IntensityIf=5mA45mcd
Limiting Resistor220Ω

Precautions

Inserting the Coin Cell

Insert the CR2032 coin cell with the positive side facing the positive side of the holder. If the LED on the TWELITE ARIA blinks three times, it is functioning properly.

Battery Insertion Orientation

Battery Insertion Orientation

Due to its structure, the battery holder of TWELITE ARIA is prone to detachment at the soldered area. Please follow the precautions below:

  • When removing the coin cell, it is recommended to gently press the battery holder from above to avoid stressing the soldered section.
  • When operating TWELITE ARIA, use a dedicated case to hold down the battery holder from above.

Waterproof Performance

The TWELITE ARIA case is not waterproof.

Disposal

Dispose of this device in accordance with your local municipality’s ordinances and regulations. Please consult your local authorities for details.

General Notes

When using our products, be sure to evaluate and verify them under the actual conditions of your intended use.

For applications requiring high reliability or involving human safety, please contact your distributor in advance.

Revision History

VersionDateDescription
1.2.12024/5/7Added Component Names
1.2.02024/2/27Added information about the new magnetic sensor
1.1.12024/2/27Migrated to new website, minor corrections
1.1.02020/12/10Added antenna radiation pattern details
1.0.02020/12/3Initial version

5.1.2 - TWELITE ARIA (BLUE / RED) Datasheet

v1.0.1

TWELITE ARIA is a wireless tag that integrates the wireless microcontroller TWELITE, a temperature/humidity sensor, magnetic sensor, coin cell battery holder, and antenna into a single package. It can wirelessly transmit temperature, humidity, and door open/close status.

A dedicated ARIA application (firmware) is pre-installed, so it starts operating as soon as a coin cell (CR2032) is inserted. It features low power consumption and can operate continuously for years.

It is ideal for those who have ideas for using wireless tags but are not confident in hardware or software development, or who have limited development resources.

TWELITE ARIA offers excellent wireless range, long battery life, and a compact form factor.

Specifications

製品型番

The model numbers for TWELITE ARIA are as follows.

Common NameProduct CodeRemarks
TWELITE ARIA (BLUE)MW-B-ARIA-0Standard Power
TWELITE ARIA (RED)MW-R-ARIA-0High Power

Wireless and MCU Section

Antenna

The inverted-F antenna is adopted.

ItemSpecification
Antenna TypeMW-A-P1934 (Datasheet)
Gain (Typical, Omni)1.8[dBi] (without case) / -0.46[dBi] (with case)
PolarizationLinear Polarization

Vertical Radiation Pattern

垂直方向の指向性

垂直方向の指向性

Horizontal Radiation Pattern

水平方向の指向性

水平方向の指向性

Certifications

ItemMW-B-ARIA-0MW-R-ARIA-0
Certification TypeTWE-001 LiteTWELITE RED
Japan MIC Certification No.007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
RemarksRoHS CompliantRoHS Compliant

Built-in Sensors

  • Temperature/Humidity Sensor: Sensirion SHT40
  • Magnetic Sensor: Texas Instruments DRV5032FD
  • Watchdog Timer: Texas Instruments TPL5010
  • LED: OSRAM Opto Semiconductors LB Q39E-L2OO-35-1

Mechanical Drawings

Main Unit

Outline Drawing of Main Unit

Outline Drawing of Main Unit

PDF

Case

Outline Drawing of Case

Outline Drawing of Case

PDF

Circuit Diagram

Circuit Diagram

Circuit Diagram

PDF

Characteristics

TWELITE

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.33.6V
Analog I/O (VREF/ADC)-0.3VCC+0.3V
Digital I/O-0.3VCC+0.3V
ConditionMinTypMax
Supply Voltage2.03.03.6V
Start-up Voltage2.05V
Operating TemperatureNo condensation-2075°C
Operating HumidityNo condensation85%RH

Current Consumption

ConditionMinTypMax
Sleep (Without Timer)0.1uA
Sleep (With Timer)1.5uA
Tx (CPU doze)MW-B-ARIA-015.3mA
MW-R-ARIA-023.3mA
Rx (CPU doze)MW-B-ARIA-017.0mA
MW-R-ARIA-014.0mA

I/O Characteristics

ConditionMinTypMax
DIO Internal Pull-up405060
DIO Hi InputVCCx0.7VCCV
DIO Lo Input-0.3VCCx0.27V
DIO Input Hysteresis200310400mV
DIO Hi OutputVCCx0.8VCCV
DIO Lo Input00.4V
Load/Sink CurrentVCC 2.7~3.6V4mA
VCC 2.2~2.7V3mA
VCC 2.0~2.2V2.5mA

Temperature and Humidity Sensor

ConditionMinTypMaxUnit
Current ConsumptionIdle state, 25°C0.11.0µA
Measurement350500µA
Measurement RangeTemperature-40125°C
Humidity0100%RH
ResolutionTemperature0.01°C
Humidity0.01%RH

Magnetic Sensor

ConditionMinTypMaxUnit
Current ConsumptionVCC = 3V1.63.5µA
Sampling Frequency20Hz
Magnetic ThresholdApproaching±1.5±3.0±4.8mT
Receding±0.5±1.5±3.0mT

Watchdog Timer

ConditionMinTypMaxUnit
Current Consumption3550nA
Pulse Interval6090120sec

LED

ConditionMinTypMaxUnit
Emission WavelengthIf = 5mA470nm
Luminous IntensityVf = 5mA45mcd
Limiting Resistor220Ω

Precautions

Inserting the Coin Cell

Insert the CR2032 coin cell with the positive side facing the positive side of the holder. If the LED on the TWELITE ARIA blinks three times, it is operating correctly.

Battery Insertion Orientation

Battery Insertion Orientation

Also, due to the structure of the TWELITE ARIA’s battery holder, the soldered joints may come loose. Please observe the following precautions:

  • When removing the coin cell, it is recommended to gently press down on the battery holder from above with your finger to avoid stressing the solder joints.
  • When using TWELITE ARIA, it is recommended to operate it while pressing the battery holder down with a dedicated case.

Disposal

When disposing of this device, please follow the ordinances and regulations of your local municipality. For details, consult your local government.

General Notes

When using our products, be sure to evaluate and verify them under the actual conditions of your usage environment.

For applications requiring high reliability or involving human safety, please consult your distributor in advance.

Revision History

VersionDateDetails
1.1.12024/2/27Migrated to new website, minor corrections
1.1.02020/12/10Added information on antenna radiation pattern
1.0.02020/12/3Initial release

6 - TWELITE STICK

USB Dongle
TWELITE STICK is a TWELITE module that connects to a USB Type-A port. By connecting it to a PC or single-board computer, it functions as a parent or repeater device. It is the successor to the MONOSTICK.

6.1 - TWELITE STICK

Model: MW-G-STICK
TWELITE STICK is a USB dongle that contains a TWELITE module (GOLD series).

6.1.1 - TWELITE STICK Datasheet

Latest Edition

Introduction

TWELITE® STICK is a USB dongle equipped with a TWELITE wireless module.

It serves as a parent or repeater device in the TWELITE series.

Features

  • Smaller than the MONOSTICK series, designed to avoid obstructing adjacent USB ports
  • Equipped with the TWELITE GOLD series
    • Improved power efficiency; standby current reduced by approximately 10 mA*
    • Same transmit power as the TWELITE RED series (9.14 dBm)
    • Better receive sensitivity than the TWELITE RED series (-99.7 dBm)
  • Based on measured values

Model Number

Product NameModel NumberRemarks
TWELITE STICKMW-G-STICKEquipped with TWELITE (GOLD series)

Functionality

TWELITE STICK integrates the TWELITE module and the functions of the USB adapter TWELITE R series into a single case.

TWELITE STICK Configuration

TWELITE STICK Configuration

2.4GHz Wireless

Equipped with the TWELITE wireless module (GOLD series, model: MW-G-W).

Antenna

Adopts the Inverted-F PCB Antenna (Model: MW-A-P1934).

  • Antenna Type: Inverted-F antenna
  • Nominal Gain: -2.0 [dBi] (Typical omnidirectional plane)
  • Polarization: Linear polarization
Omnidirectional Radiation Pattern

Omnidirectional Radiation Pattern

Certification
TWELITE (GOLD series)
Certification ModelTWELITE GOLD
Construction Design Certification Number007-AL0022

USB Serial Conversion

Power supply to TWELITE and communication with the host are handled by the FTDI USB serial conversion chip FT230X.

LED

Equipped with the ROHM RGB LED chip MSL0402RGBU1 for status indication.

Internal Pin Assignment

The following pins of the TWELITE wireless module body are used.

SMD Pin NumberConnected ToRemarks
1 / 16LED (R)Connected to Nch MOSFET
2FT230XQ CBUS3PRG pin
5FT230XQ 3V3OUTVCC pin, max 50mA
6FT230XQ RTSNot used under normal conditions
7FT230XQ CTSNot used under normal conditions
8FT230XQ RXDRXD pin
9FT230XQ TXDTXD pin
13FT230XQ CBUS1SET pin
15LED (G)Connected to Nch MOSFET
19LED (B)Connected to Nch MOSFET
21FT230XQ CBUS2RST pin

Circuit Diagram

Circuit Diagram

Circuit Diagram

Electrical Characteristics

SymbolConditionMinTypMax
Power Supply VoltageVCC4.005.005.25V
Current Consumption *1ICCTransmission with all LEDs on75mA
Current Consumption (Measured) *2ICCRX only, Parent, LED off10.7mA
RX only, Parent, LED on13.5mA
RX/TX, Repeater, LED off10.832.4mA
RX/TX, Repeater, LED on13.238.2mA
Operating Temperature *3TOPRNo condensation-2075°C
Operating HumidityHOPRNo condensation85%RH
  • Values are based on the datasheets of components.
  • *1 Theoretical maximum total current of TWELITE transmission + CPU + USB serial IC + LEDs.
  • *2 Using App_Wings v1.3.2; child device runs App_Twelite v1.4.7 in continuous mode with 1s interval; measured at max power with 3 retransmissions for one minute.
  • *3 The resin case may become brittle at subzero temperatures.

Mechanical Characteristics

External Dimensions

External Dimensions

External Dimensions

Environmental Regulations

  • Compliant with RoHS (10 substances)

Enclosure

  • Material: High Impact Polystyrene (HIPS)
  • Flame Resistance Grade: UL-94HB

Ordering Information

Sales Codes

Product NameSales CodeSales TypePackagingMOQSPQ
TWELITE STICKMW-G-STICKRetailIndividual Package11
MW-G-STICK-BULKWholesaleTray100100

Notes

Export Regulations

TWELITE is equipped with AES encryption circuitry, and we classify it as a product subject to export control. If you require a parameter sheet for classification judgment, please contact us.

Overseas, radio certification may be required. Please consult with us early in your planning process.

Firmware at Factory Shipment

TWELITE STICK ships with firmware written.

Firmware writing is intended for product inspection during TWELITE manufacturing and the firmware version or information is not guaranteed even if requested. The presence or type of firmware written at factory shipment may change without notice. We do not perform firmware rewriting on shipped products. Please use the TWELITE STAGE App or the Python tweliter module.

Storage Precautions

Store between 0°C and 40°C, avoiding high temperature and humidity.

Usage Precautions

Please ensure to conduct evaluations and verifications in the actual environment when using the product. For applications requiring very high reliability or involving human life, please contact your point of purchase in advance.

Revision History

VersionDateDetails
1.0.02025-07-17First Edition

7 - TWELITE UART Datasheet

TWELITE module specialized for serial communication
A TWELITE module with a 7P interface, specialized for serial communication.

7.1 - TWELITE UART (BLUE / RED) Datasheet

Model: MW-(B/R)-UART-(P/U)
TWELITE UART (BLUE / RED) is a wireless module equipped with a 7P interface.

7.1.1 - TWELITE UART (BLUE / RED) Datasheet

Latest Edition

TWELITE UART is ideal for connecting to external microcontrollers via UART. It implements a 7P interface that includes TX, RX, VCC, and GND.

The Serial Communication App (App_Uart) is pre-installed, allowing immediate wireless communication with microcontrollers, etc., simply by wiring.

Users can also edit and rewrite the application (firmware) themselves.

Specifications

Product Model

The model numbers of TWELITE UART are as follows.

Common NameSales CodeRemarks
TWELITE UART (BLUE)MW-B-UART-PStandard Output, Built-in Antenna
MW-B-UART-UStandard Output, Coaxial Connector
TWELITE UART (RED)MW-R-UART-PHigh Output, Built-in Antenna
MW-R-UART-UHigh Output, Coaxial Connector

Radio / Microcontroller

Antenna

ItemSpecification
Antenna TypeMW-A-P1934 (Datasheet)
Gain (Typical Omnidirectional Plane)1.4[dBi]
PolarizationLinear Polarization

Vertical Directional Pattern

Vertical Directional Pattern

Vertical Directional Pattern

Horizontal Directional Pattern

Horizontal Directional Pattern

Horizontal Directional Pattern

Certifications

MW-B-UART-(P/U)MW-R-UART-(P/U)
Certification ModelTWE-001 LiteTWELITE RED
Construction Design Certification Number007-AB0031007-AF0062
FCC ID2AINN-L1-
IC ID21544-L1-
RemarksRoHS CompliantRoHS Compliant

Dimensions

MW-(B/R)-UART-P

Dimensions for Antenna Type

Dimensions for Antenna Type

PDF

MW-(B/R)-UART-U

Dimensions for Coaxial Connector Type

Dimensions for Coaxial Connector Type

PDF

Circuit Diagram

Circuit Diagram

Circuit Diagram

PDF

Characteristics

TWELITE

Absolute Maximum Ratings

ParameterMinMaxUnit
Power Supply (VCC)-0.33.6V
Analog IO (VREF/ADC)-0.3VCC+0.3V
Digital IO-0.3VCC+0.3V
ParameterConditionMinTypMaxUnit
Supply Voltage2.03.03.6V
Start Voltage2.05V
Operating TemperatureNo condensation-2075°C
Operating HumidityNo condensation85%RH

Current Consumption

ConditionMinTypMaxUnit
Sleep (RAMOFF, no timer)0.1uA
Sleep (RAMON, with timer)1.5uA
Tx (CPU doze) MW-B-UART-(P/U)15.3mA
Tx (CPU doze) MW-R-UART-(P/U)23.3mA
Rx (CPU doze) MW-B-UART-(P/U)17.0mA
Rx (CPU doze) MW-R-UART-(P/U)14.0mA

I/O Characteristics

ParameterConditionMinTypMaxUnit
DIO Internal Pull-up405060
DIO High InputVCC×0.7VCCV
DIO Low Input-0.3VCC×0.27V
DIO Input Hysteresis200310400mV
DIO High OutputVCC×0.8VCCV
DIO Low Output00.4V
DIO Load, Sink CurrentVCC 2.7~3.6V4mA
VCC 2.2~2.7V3mA
VCC 2.0~2.2V2.5mA

Precautions

Wiring Precautions

Inputting signals that do not meet I/O characteristics may damage the product.

For example, microcontrollers operating at 5V cannot be connected directly. Please use voltage level conversion (level shifting).

Also, RS232C cannot be connected directly due to different operating voltages. Use a signal converter between RS232C and UART.

General Notes

Please always evaluate and verify the product in your own usage environment.

For applications requiring high reliability or related to human life, please consult your distributor in advance.

Revision History

VersionDateDetails
1.0.22024/3/15Added examples to Wiring Precautions
1.0.12024/2/27Migrated to new site; minor corrections
1.0.02021/9/9Initial Version

8 - MONOSTICK

USB Stick
MONOSTICK is a TWELITE device that can be connected to a USB port. It functions effectively as a parent or repeater when connected to a PC or single-board computer.

8.1 - MONOSTICK BLUE / RED

Model: MONOSTICK-B / MONOSTICK-R
TWELITE BLUE / RED is a USB stick that incorporates the first-generation TWELITE series.

8.1.1 - MONOSTICK Data Sheet

Latest Edition

9 - TWELITE R

USB Adapter
TWELITE R is an adapter for USB connection. It is used to connect to a PC via USB for advanced application settings and writing applications.

9.1 - TWELITE R2

Model: MW-LITER2
TWELITE R2 is an adapter that connects TWELITE to a PC via USB. It is used for detailed application settings and writing applications.

9.1.1 - TWELITE R2 Datasheet

Latest Edition
TWELITE R2 is an adapter for connecting TWELITE DIP and TWELITE PAL via USB. It enables communication with TWELITE DIP/PAL from a computer over USB and is used for application configuration and programming.

Features

  • Compatible with TWELITE series such as TWELITE DIP and TWELITE PAL
  • Enables configuration and application rewriting of the TWELITE series on a PC
  • Can supply power to TWELITE from a mobile battery or USB power source
  • RoHS compliant, meeting new environmental standards

Precautions

About the DIP Connection Connector

外形図

図1 外形図

As shown in Figure 1, the spacing between pins on the TWELITE DIP connection connector may vary by up to ±0.7 mm. When connecting TWELITE DIP to TWELITE R2, please bend the TWELITE DIP’s pin header slightly if needed before insertion, or use the dedicated TWELITE R attachment. Repeated insertion and removal of TWELITE DIP may result in poor connectivity.

Using the Attachment

A kit for converting the TWELITE R2’s DIP connector to a ZIF socket is sold separately.

If any of the following conditions apply to your use case, using the TWELITE R attachment is recommended.

  • When a quick connection to TWELITE DIP is desired
  • When TWELITE DIP is inserted and removed frequently
  • When connecting TWELITE PAL to the DIP connector

Components

  • USB Connector Type: USB Type-C
    * The USB connector manufacturer is subject to change without notice.
  • USB-UART Conversion IC: FTDI FT230XQ

FT230XQ General-Purpose DIO Wiring

The general-purpose DIO wiring of FT230XQ is shown below.

汎用DIOの配線図

図2 汎用DIOの配線図

Also, SET, RST, and PRG are connected to the TWELITE DIP connector as shown below. The connections are as follows.

Name on TWELITE R2Pin Number on TWELITE DIP Connector
SET15
RST21
PRG7

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.35.5V

Characteristics

SymbolConditionMinTypMax
Power Supply VoltageVcc4.505.005.50V
Operating TemperatureTOPRNo condensation-402585°C
  • Values are based on the semiconductor datasheet.

DC Characteristics

SymbolMinTypMaxRemarks
Current ConsumptionIcc18.00mAExcludes TWELITE current consumption
TWELITE Supply VoltageVto3.30V
TWELITE Supply CurrentIto50mA
  • Values are based on the semiconductor datasheet.

Revision History

VersionRevision DateRevision Details
2.0.02023/05/15Changed to new format
1.0.12020/6/1Added precautions, revised external diagram
1.0.02020/3/13Initial version

9.2 - TWELITE R3

Model: MW-LITER3
TWELITE R3 is an adapter that connects TWELITE to a PC via USB. It is used for detailed application configuration and programming.

9.2.1 - TWELITE R3 Datasheet

Latest Edition
TWELITE R3 is an adapter that connects TWELITE models with a 7P interface, such as TWELITE CUE and TWELITE ARIA, to a PC via USB. It enables communication with TWELITE CUE/ARIA over USB and is also used for application configuration and programming.

Features

  • Compatible with TWELITE series such as TWELITE CUE and TWELITE ARIA
  • Enables configuration and rewriting of applications for TWELITE series on a PC
  • Can supply power to TWELITE from a mobile battery or USB power source
  • Compliant with RoHS, conforming to new environmental standards

Components

  • USB Connector Type: USB Type-C
    The manufacturer of the USB connector used is subject to change without notice.
  • USB-UART Conversion IC: FTDI FT230XQ

Dimensions

外形図

Dimensions

Pin Assignment

The correspondence table of signal pins is as follows.

TWELITE
R3
Name
TWELITE
Name
TWELITE
DIP#
TWELITE
SMD#
Description
GNDGND1, 1420, 28, 30, 31, 32Negative side of power supply
(one connection is sufficient)
TXDTXD0 (DIO6)108Serial communication line
(Connect to RX terminal on PC)
PRGSPIMISO72Connect to GND for reset, then release or connect to VCC to enter programming mode
RXDRXD0 (DIO7)39Serial communication line
(Connect to TX terminal on PC)
RSTRESETN2121Connect to GND to reset
VCCVCC285Positive side of power supply
(avoid collision with board power)
SETDIO121513Extended control signal
(used for entering interactive mode on TWELITE CUE, etc.)

When Using with TWELITE without a 7P Interface

When using TWELITE without a 7P interface, such as TWELITE DIP BLUE/RED, refer to the diagram below for wiring before use.

Connection with TWELITE DIP BLUE/RED

Connection with TWELITE DIP BLUE/RED

FT230XQ General-Purpose DIO Wiring

The general-purpose DIO wiring of FT230XQ is shown below.

Figure 2 General-Purpose DIO Wiring Diagram

Figure 2 General-Purpose DIO Wiring Diagram

Absolute Maximum Ratings

MinMax
Power Supply (VCC)-0.35.5V

Characteristics

SymbolConditionMinTypMax
Power Supply VoltageVcc4.505.005.50V
Operating TemperatureTOPRNo condensation-402585°C
  • Values are based on the semiconductor datasheet.

DC Characteristics

SymbolMinTypMaxRemarks
Current ConsumptionIcc18.00mAExcludes TWELITE current consumption
TWELITE Supply VoltageVto3.30V
TWELITE Supply CurrentIto50mA
  • Values are based on the semiconductor datasheet.

Revision History

VersionRevision DateRevision Details
2.0.02023/05/15Changed to new format
1.0.02023/1/17Initial version

10 - TWELITE STAGE

Evaluation and Development Tools
The TWELITE STAGE series is a collection of evaluation and development tools for TWELITE.

10.1 - TWELITE STAGE HAT

Model: MW-STA-RPi-1
TWELITE STAGE HAT is a HAT board for connecting TWELITE DIP to a Raspberry Pi.

10.1.1 - TWELITE STAGE HAT Datasheet

Latest Edition

TWELITE STAGE HAT is a board that enables easy connection between Raspberry Pi and TWELITE DIP.

When used with the TWELITE STAGE APP, it can send commands such as monitoring data from TWELITE or TWELITE PAL, or turning on child device LEDs. Additionally, it allows configuration and rewriting of TWELITE without the need for TWELITE R2.

Appearance

Appearance

Component Names

1 Raspberry Pi Connector

Connector for connecting to the GPIO port of the Raspberry Pi.

2 HAT Test Terminals

Test terminals for Raspberry Pi GPIO pins.

3 DIP Connector

Connector for connecting TWELITE DIP or PAL.

4 DIP Test Terminals

Terminals to check input/output of TWELITE DIP or PAL.

5 Power Check Terminals

Connects GND between TWELITE and Raspberry Pi via jumper pin.

6 Operation Check Terminals

Used to check signals between Raspberry Pi and TWELITE.

How to Use

Connect TWELITE to TWELITE STAGE HAT

Connect TWELITE DIP or PAL to the TWELITE STAGE HAT.

TWELITE DIP connected

TWELITE DIP connected

Connect TWELITE STAGE HAT to Raspberry Pi

Connect the TWELITE STAGE HAT to the Raspberry Pi.

Connected to Raspberry Pi

Connected to Raspberry Pi

Power On the Raspberry Pi

Connect the power cable to the Raspberry Pi power connector and turn on the power.

Launch the TWELITE STAGE App

Launch the TWELITE STAGE App and select ‘UART (serial0)’ in Serial Port Selection.

Hardware Specifications

Dimensions

Dimensions

Dimensions

Pin Mapping

TWELITE DIP/PALRaspberry Pi
#3 / DIO7 / RX#8 / GPIO14
#10 / DIO6 / TX#10 / GPIO15
#7 / DO1 / PWM3 / PRG#16 / GPIO23
#21 / RST#15 / GPIO22
#15 / DIO12 / DI1 / SET#32 / GPIO12

Circuit Diagram

Circuit Diagram

Circuit Diagram

Precautions

During Raspberry Pi Startup

Due to GPIO23 behavior on boot, TWELITE may start in program mode. Before communicating, reset TWELITE by setting GPIO22 Low for approx. 10 ms.

Static Electricity and Short-Circuit Precautions

This is an electronic component. Observe general handling precautions, particularly avoiding short-circuits or ESD during operation.

Revision History

VersionDateDetails
1.0.02021-02-26Initial Version
1.0.12025-03-18Migrated to this site; updated structure

11 - TWELITE SPOT

Wi-Fi Gateway
TWELITE SPOT is a Wi-Fi gateway with a built-in TWELITE.

11.1 - TWELITE SPOT Datasheet

Wi-Fi Gateway
TWELITE SPOT is a Wi-Fi gateway with a built-in TWELITE BLUE.

11.1.1 - TWELITE SPOT Datasheet

Latest Edition
The TWELITE® SPOT Wi-Fi gateway is a product that combines the low-power wireless microcontroller module TWELITE with the ESP32 wireless LAN microcontroller module. By developing firmware for the ESP32, it is possible to link the TWELITE network with the Wi-Fi network.

Features

  • Compact package (45mm x 70mm x 22mm)
  • Low power communication with many TWELITE series products via TWELITE NET
  • Dedicated parent and relay device apps (App_Wings) pre-installed on TWELITE
  • Equipped with widely used ESP32 wireless LAN module
  • Free Arduino-based firmware development environment (ESP32)
  • Arduino library MWings available for easy communication with TWELITE
  • Easy-to-use USB-C power supply
  • Case that can be easily mounted on walls with screws
  • Built-in PCB antenna
  • Approved under Japan’s ARIB STD-T66 technical standards (Giteki)
  • RoHS compliant (10 substances)

Model Number

The model number of TWELITE SPOT is as follows. Please check the sales model number on our website before purchasing.

Product NameModel NumberRemarks
TWELITE SPOTMW-B-SPOT-0

Major Components

TWELITE

  • TWELITE BLUE (TWE-L-WX)

TWELITE Dedicated Antenna

ItemSpecification
Antenna TypeInverted F Antenna (MW-A-P1934)
Gain (Typical on Omnidirectional Plane)-4.0[dBi] (without case) / -3.0[dBi] (with case)
PolarizationLinear Polarization

Vertical Radiation Pattern

Vertical Radiation Pattern

Vertical Radiation Pattern

Horizontal Radiation Pattern

Horizontal Radiation Pattern

Horizontal Radiation Pattern

Wireless LAN Module

  • The Wi-Fi module may be changed without notice.

Enclosure

  • The enclosure may be changed without notice.

Description of Components

Description of Components

Description of Components

① TWELITE

TWELITE is a wireless microcontroller module used for communication with other TWELITE modules.

② ESP32

Wireless LAN module by Espressif Systems.

③ 7P Interface (TWELITE)

Interface used for updating the TWELITE application. Normally not used.

The following is the signal pin correspondence table:

NameSignal NameTWELITEDescription
GNDGND20, 28,
30, 31,
32
GND
TXDDIO68UART (PC RX)
PRGSPIMISO2Enter program mode at startup when Low level
RXDDIO79UART (PC TX)
RSTRESETN21Reset at Low level
VCC--Not connected (Power supplied from side)
SETDIO1213Extended control signal

④ 7P Interface (ESP32)

Interface used for writing ESP32 applications. Normally used for firmware development.

The following is the signal pin correspondence table:

NameSignal NameESP32Description
GNDGND1, 38GND
TXDIO135UART (PC RX)
PRGIO025Enter program mode at startup when Low level
RXDIO334UART (PC TX)
RSTEN3Reset at Low level
VCC--Not connected (Power supplied from side)
SETIO224Extended control signal

⑤ Reset Switch (TWELITE)

Resets TWELITE.

⑥ Reset Switch (ESP32)

EN switch of ESP32. Resets ESP32.

⑦ Boot Switch (ESP32)

BOOT switch of ESP32.

⑧ LED (TWELITE)

Status LED for TWELITE.

⑨ LED (ESP32)

Status LED for ESP32.

⑩ USB-C Connector

Power supply only. No signal lines connected.

⑪ Grove I2C Connector (ESP32)

Connected to ESP32’s I2C port (IO21, 22). Can be used to connect OLED displays, etc.

⑫ TWELITE PCB Antenna

MW-A-P1934 PCB antenna.

TWELITE dedicated 2.4GHz inverted F-type antenna formed by circuit patterns on the board.

⑬ Antenna Direction Mark

Indicates the polarization direction of the antenna.

External Dimensions

External Dimensions

External Dimensions

Download the PDF file here

Circuit Diagram

Circuit Diagram

Circuit Diagram

Download the PDF file here

Specifications

ItemSymbolConditionmintypmax
Power Supply VoltageVCCCompliant with USB spec4.55.05.5V
Operating TemperatureTOPRNo condensation060°C
Operating HumidityHOPRNo condensation85%

Precautions

Changing TWELITE Settings

Frequency channels and other settings are changed from the ESP32. Unlike other products, interactive mode cannot be used from the 7P interface. Settings are done using the TWELITE dedicated Arduino library prepared for ESP32.

  • The 7P interface on the TWELITE side is only used for updating the SPOT dedicated parent app.

About the 7P Interface

Power supply is not provided from the 7P interface. When connecting TWELITE R series, please supply power from the USB-C connector.

About USB Power Supply

Please use an AC adapter that can supply 5V / 1A or more with low noise.

Connecting to a PC

When rewriting the ESP32 firmware, remove the cover of the TWELITE SPOT and connect the TWELITE R3 / R2 to the 7P interface (side marked ESP) as shown below.

ESP32 Connection

ESP32 Connection

TWELITE Connection

TWELITE Connection

Installation

Please satisfy the following conditions as much as possible.

  • Point the antenna direction mark vertically (up/down)
    • It is preferable to install with the antenna direction mark facing up, but facing down does not cause significant impact.
  • Align the antenna direction mark of TWELITE SPOT and the child device.
  • Do not place obstacles between TWELITE SPOT and child devices.

Disposal

When disposing of this device, please follow the ordinances and regulations of your local government. For details, please contact your local government.

Revision History

VersionDateSummary
1.0.12023/06/14Added Precautions
1.0.02023/05/15Initial Version

12 - Energy Harvesting Modules

Energy harvesting modules

Energy harvesting is a technology that collects and utilizes small amounts of environmental energy from light, vibration, heat, and other sources that are otherwise wasted in our surroundings.

By combining TWELITE’s low power consumption characteristics with energy harvesting technology, we can realize battery-free wireless sensors that do not require battery replacement.

12.1 - TWE-EH SOLAR

Solar power management module
TWE-EH SOLAR (Energy Harvest Solar) is a power management module that converts light energy into electrical power for use as a power source for TWELITE. It can be used as a replacement for batteries to operate TWELITE.

12.1.1 - TWE-EH SOLAR

Latest version
TWE-EH SOLAR (Energy Harvest Solar) is a power management module that converts light energy into electrical power for use as a power source for TWELITE. It can be used as a replacement for batteries to operate TWELITE.

Power radio transmission with the force of light!

Dedicated to TWELITE series! Energy harvest control board TWE-EH-S

With pin headersTWE-EH-S-DI

With pin headers
TWE-EH-S-DI

Without pin headersTWE-EH-S-DP

Without pin headers
TWE-EH-S-DP

Thank you for purchasing our product.

Features

  • An energy harvest control board designed for use with TWELITE modules.
  • Stores energy from solar panels in capacitors and uses that energy to operate wireless modules for very short periods.
  • Built-in circuit charges excess energy to storage devices (electric double layer capacitors), enabling continuous operation even at night when solar panels are not generating power.
  • Various solar panels can be used with external circuits or additional resistors.

Precautions for use

This evaluation board is designed to be used in combination with TWELITE modules.

Software acquisition

Please write the Wireless Tag App (App_Tag) firmware to TWELITE.

Available solar panels

As a guideline, solar panels with open-circuit voltage of 4V-6V and maximum output power of 300mW or less can be used.

To use solar panels with maximum output power of 10mW or more, connect an additional resistor \(R_{EX}\) between TWE_VCC and EX_REG. This prevents failure or fire due to overvoltage or overcurrent.

The value of the additional resistor \(R_{EX}\) can be calculated using the following formula:

$$R_{EX} [Ω] \leqq \frac{11.5}{Solar panel maximum output power [mW]} \times 1000$$

Let’s get it running!

Simple wireless thermometer

Please configure the circuit as follows:

Example of transmitter circuit

Example of transmitter circuit

By writing the Wireless Tag App (App_Tag) to the TWELITE module and setting the sensor type to 0x11 LM61 analog temperature sensor, data transmission can be performed.

For the parent device, write the Parent/Repeater App (App_Wings) and match the frequency channel and application ID.

How it works

Voltage changes on each pin

Voltage changes on each pin

  1. Energy from the solar panel is charged to the built-in capacitor C1 (220uF).
  2. When the voltage \(V_{C1}\) of C1 reaches approximately 2.9V \(=V_{ON}\), TWE_VCC is connected to GND and TWELITE starts operating.
  3. TWELITE immediately sets the DO1 \(V_{BOOT}\) output to Low right after startup.
  4. TWELITE performs wireless transmission.
  5. After wireless transmission, TWELITE enters sleep state.
  6. When the voltage drops below approximately 2.0V \(=V_{OFF}\) due to insufficient energy supply, TWELITE stops operating. The Low output of DO1 \(V_{BOOT}\) is released and returns to step 1.

In steps 4’ and 5’, it repeats the operation of wireless transmission after wake-up from sleep, then going back to sleep.

Pin assignment

Signal namePin numberPin numberSignal name
TWE_GND116TWE_VCC
BOOT215EX_REG
BYP314VC2
(-)413RSTN
(-)512C2+
(-)611(-)
(-)710EX_C1+
(-)89(+)

TWE_GND

Connect to TWELITE’s GND.

BOOT

Connect to TWELITE’s DO1.

For wireless tag app. For act, etc., connect to any pin

Set to Low state promptly after TWELITE startup. Voltage conditions follow TWELITE specifications.

BYP

Connect to TWELITE’s DO2.

For wireless tag app. For act, etc., connect to any pin

When set to High state, it bypasses the diode connected between the storage device and TWE_VCC.

When power is supplied to TWELITE with the storage device at 2.3V, TWE_VCC becomes approximately 2.0V due to diode voltage drop and operation stops. By bypassing, TWELITE can operate until the storage device voltage drops to approximately 2.0V. Voltage conditions follow TWELITE specifications.

GND / (-)

Connect the negative terminals of the solar panel, storage device, and capacitors added to EX_C1.

(+)

Connect the positive terminal of the solar panel.

EX_C1+

Connected to the positive terminal of the built-in capacitor C1 (220uF).

By adding a capacitor between EX_C1+ and GND, it is connected in parallel with the built-in capacitor C1 (220uF), increasing the capacity. The voltage range is 0-3.6V.

C2+

Connect a storage device for charging excess energy between C2+ and GND. The voltage range is 0-3.6V.

For connection details, see Making it work at night too!.

RSTN

Indicates TWELITE’s operating state. (Hi: Operating, Low: Stopped)

VC2

When monitoring the charging status of the storage device, connect to TWELITE’s AI1.

For wireless tag app. For act, etc., connect to any pin

VC2 divides the voltage of C2+ with two resistors (10MΩ). Additionally, to stabilize TWELITE’s voltage measurement, a 0.1uF capacitor is connected between VC2 and TWE_GND. By multiplying TWELITE’s VC2 reading by 2, you can obtain the storage device voltage.

EX_REG

See Available solar panels.

TWE_VCC

Connect to TWELITE’s VCC.

Making it work at night too!

Simple wireless meter (with excess energy charging circuit)

With only C1, the wireless module’s operating time is limited, but by adding a capacitor to EX_C1+, the operating time can be extended.

Example of transmitter circuit

Example of transmitter circuit

13 - Antennas

Various antennas dedicated to TWELITE
Data sheets for various antennas dedicated to the TWELITE series.

13.1 - Inverted-F PCB Antenna Pattern

Model: MW-A-P1934
Inverted-F PCB antenna dedicated to the TWELITE series. Can be implemented on FR-4 printed circuit boards.

13.1.1 - Inverted-F PCB Antenna Data Sheet

Latest Edition

Product Overview

A PCB antenna dedicated to the TWELITE series, designed for small tags.

Features

  • Composed of a copper foil pattern on a printed circuit board (FR-4), enabling a compact, thin, and cost-effective design (antenna characteristics improve with compact design).
  • Dedicated antenna for the TWELITE series (TWE-L-WX / MW-R-WX / MW-G-WX) (cannot be connected to coaxial connector types).

Standard Installation Method

  • To obtain similar radio wave characteristics (omnidirectional) in all directions, install vertically as shown in the figure. For details on omnidirectionality, refer to the section “Directivity”.
Standard Installation Method

Standard Installation Method

  • When installed horizontally, omnidirectionality cannot be obtained.
Non-standard Installation Method

Non-standard Installation Method

Outline Drawing, Dimensions, and TWELITE Mounting Diagram

  • Hatched area: copper foil formed on the printed circuit board.
  • PCB substrate material: FR-4 (unchangeable)
  • PCB substrate thickness: 0.5 [mm], 0.8 [mm], 1 [mm], 1.6 [mm] There are restrictions on the antenna pattern, PCB substrate thickness, and substrate material for radio certification. For details, refer to the section “About Radio Certification”.
  • The antenna pattern is optimized for a PCB substrate thickness of 1 [mm], so characteristics slightly change if the substrate thickness differs. However, these changes are usually minimal. Characteristic patterns on a board based on an ideal GND size show changes of about 1–3 [dB].
Outline Drawing and Dimensions

Outline Drawing and Dimensions

Specifications

Model NumberMW-A-P1934
GainNominal 2.8 [dBi] <Note 1>

Note 1: This is the radio certification application value based on measurements in all directions and may differ from the maximum value in the directivity chart below.

Directivity

Directivity Measurement Method 1 (Standard Installation Method)

  • Measure the vertical plane
Vertical Plane Measurement

Vertical Plane Measurement

  • Vertical plane directivity
MaximumMinimumAverage
-1.92 [dB]-3.27 [dB]-2.52 [dB]
Vertical Plane Directivity

Vertical Plane Directivity

  • Rotation direction of the measurement target and measurement angle
Rotation Direction of Measurement Target and Measurement Angle

Rotation Direction of Measurement Target and Measurement Angle

Directivity Measurement Method 2

  • Measure the horizontal plane
Horizontal Plane Measurement

Horizontal Plane Measurement

  • Horizontal plane directivity
MaximumMinimumAverage
-1.8 [dB]-11.64 [dBi]-4.88 [dBi]
Horizontal Plane Directivity

Horizontal Plane Directivity

  • Rotation direction of the measurement target and measurement angle
Rotation Direction of Measurement Target and Measurement Angle

Rotation Direction of Measurement Target and Measurement Angle

Note: 0 [dB] on the directivity chart corresponds to the gain of a standard dipole antenna. Note: TWELITE was mounted on a printed circuit board measuring 32.75 [mm] × 26.00 [mm] with a substrate thickness of 1 [mm], and gain and directivity were measured.

About Radio Certification

There are restrictions on the antenna pattern, PCB substrate material, and substrate thickness for radio certification.

  • In Japan, radio certification applications are made under the following conditions:

    1. Antenna pattern: design as shown in <Figure: Outline Drawing and Dimensions>
    2. PCB substrate material: FR-4
    3. PCB substrate thickness: 0.5 [mm], 0.8 [mm], 1.0 [mm], 1.6 [mm]
    4. Target modules: TWE-L-WX, MW-R-WX, MW-G-W
  • Outside Japan (FCC, CE), radio certification applications are made under the following conditions:

    1. Antenna pattern: design as shown in <Figure: Outline Drawing and Dimensions>
    2. PCB substrate material: FR-4
    3. PCB substrate thickness: 1 [mm]
    4. Target module: TWE-L-WX
  • For details, please refer to the URL below.

    https://twelite.gitbook.io/general/radio-cert/design-revf-ant

13.2 - Matchstick Antenna

Model: MW-A-W0
Matchstick antenna exclusively for the TWELITE series.

13.2.1 - Matchstick Antenna Data Sheet

Latest Version

Product Overview

A matchstick antenna dedicated to the TWELITE series.

Main Features

  1. Antenna dedicated to TWELITE Twilight and wire antenna types. (Cannot be connected to coaxial connector types.)
  2. Can also be used bent. (When standing upright, it has characteristics closer to a dipole.)
  3. Environmental consideration: RoHS compliant

Standard Installation Method

  1. To obtain similar radiation characteristics (omnidirectional) in all directions, install the matchstick antenna vertically as shown in the figure.
    When installed vertically
  2. When the matchstick antenna is installed horizontally, omnidirectionality cannot be obtained.
    When installed horizontally

External Dimensions

  1. Outline drawing and dimensions
    External dimensions and 3D drawing
  2. MW-A-W0 Mounting diagram
    Mounting diagram

Mounting Example

  • The shape, design, and board thickness of the printed circuit board in <Figures 7~8> are examples and can be changed according to the application. To ensure antenna performance, wiring and electronic components (sensors, switches, etc.) are usually placed on the TWELITE mounting side, and the opposite side has a solid GND and battery holder.
  • <Figures 7~8> are transparent views.
    Mounting example

    Mounting example of printed circuit board (FR-4 t=1.6)

Specifications

Model NumberMW-A-W0
GainNominal 2.0 [dBi] <Note 1>
Operating Temperature RangeWire: -40105 [℃] Cap: -4080 [℃]
Connection MethodInsert into the wire antenna terminal and solder for use.

Note 1: This is the radio certification application value based on measurements in all directions and may differ from the maximum value in the directivity chart below.

Directivity

  1. Directivity Measurement Method 1 (Standard Installation Method)
Measurement result 1

Maximum: -0.8[dB] Minimum: -1.4[dB] Average: -1.2[dB]

  1. Directivity Measurement Method 2
Measurement result 2

Maximum: -0.6[dB] Minimum: -17.4[dB] Average: -3.8[dB]

Note 3: 0[dB] in the directivity chart corresponds to the gain of a standard dipole antenna.

Note 4: TWELITE was mounted on the printed circuit board in <Figures 7~8> (solid GND size 30[mm]×30[mm]) to measure gain and directivity.

Remarks

  1. Gain and directivity vary depending on the solid GND size of the printed circuit board on which TWELITE is mounted, external wiring, batteries, and placement of electronic components (sensors, switches).
  2. If metal parts or wiring are placed around the MW-A-W0, antenna characteristics may be significantly affected. Examples with relatively small impact include resin, printed circuit boards without wiring (thickness: about 1~1.6[mm], material: FR-4, etc.), and resin screws.
  3. When using inside a case, a case thickness of about 1.5~2[mm] and materials such as ABS resin or polycarbonate are recommended.
  4. It is recommended that the solid GND size of the printed circuit board on which TWELITE is mounted be about 20[mm]×20[mm] to 40[mm]×40[mm].

13.2.2 - Matchstick Antenna Data Sheet

v1.0.2

Product Overview

A matchstick antenna dedicated to the TWELITE series.

Main Features

  1. Antenna dedicated to TWELITE Twilight and wire antenna types. (Cannot be connected to coaxial connector types.)
  2. Can also be used bent. (When standing upright, it exhibits characteristics closer to a dipole.)
  3. Environmental consideration: RoHS compliant.

Standard Installation Method

  1. To obtain similar radiation characteristics (omnidirectional) in all directions, install the matchstick antenna vertically as shown in the figure.
    When installed vertically
  2. When the matchstick antenna is installed horizontally, omnidirectionality cannot be obtained.
    When installed horizontally

External Dimensions

  1. Outline drawing and dimensions
    External dimensions and 3D drawing
  2. MW-A-W0 mounting diagram
    Mounting diagram

Mounting Example

  • The shape, design, and board thickness of the printed circuit board in <Figures 7~8> are examples and can be changed according to the application. To ensure antenna performance, wiring and electronic components (sensors, switches, etc.) are usually placed on the TWELITE mounting side, and a solid GND and battery holder are placed on the opposite side.
  • <Figures 7~8> are perspective views.
    Mounting example

    Mounting example of printed circuit board (FR-4 t=1.6)

Specifications

Model NumberMW-A-W0
GainNominal 2.0 [dBi] <Note 1>
Operating Temperature RangeWire: -40105 [℃] Cap: -4080 [℃]
Connection MethodInsert into wire antenna terminal and solder for use.

Note 1: The value for radio certification application is based on measurements in all directions and may differ from the maximum value in the directivity chart below.

Directivity

  1. Directivity Measurement Method 1 (Standard installation method)
Measurement result 1

Maximum: -0.8[dB] Minimum: -1.4[dB] Average: -1.2[dB]

  1. Directivity Measurement Method 2
Measurement result 2

Maximum: -0.6[dB] Minimum: -17.4[dB] Average: -3.8[dB]

Note 3: 0[dB] on the directivity chart corresponds to the gain of a standard dipole antenna.

Note 4: TWELITE mounted on the printed circuit board in <Figures 7~8> (solid GND size 30[mm]×30[mm]) for gain and directivity measurement.

Remarks

  1. Gain and directivity vary depending on the solid GND size of the printed circuit board on which TWELITE is mounted, external wiring, battery, and placement of electronic components (sensors, switches).
  2. If metal parts or wiring are placed around the MW-A-W0, antenna characteristics may be significantly affected. Examples with relatively small influence include resin, printed circuit boards without wiring (thickness: about 1~1.6[mm], material: FR-4, etc.), and resin screws.
  3. When used in a case, a case thickness of about 1.5~2[mm] and materials such as ABS resin or polycarbonate are recommended.
  4. It is recommended that the solid GND size of the printed circuit board on which TWELITE is mounted be about 20[mm]×20[mm] to 40[mm]×40[mm].

13.3 - Key-Shaped Antenna

Model: MW-A-W3
Key-shaped antenna exclusively for the TWELITE series.

13.3.1 - Key-Shaped Antenna Data Sheet

Latest Edition

13.4 - Hook-Shaped Antenna

Model: MW-A-W7
Hook-shaped antenna exclusively for the TWELITE series.

13.4.1 - Hook-Shaped Antenna Data Sheet

Latest Edition

13.5 - Internal Embedded Planar Antenna

Model: MW-A-P2010
Internal embedded planar antenna (20mm x 10mm) dedicated to the TWELITE series.

13.5.1 - Internal Embedded Planar Antenna Data Sheet

Latest Edition

13.6 - Internal Embedded Planar Antenna

Model: MW-A-P4208
Internal embedded planar antenna (42mm x 8mm) dedicated to the TWELITE series.

13.6.1 - Internal Embedded Planar Antenna Data Sheet

Latest Edition

13.7 - Internal Embedded Planar Antenna

Model: MW-A-P1447
Internal embedded planar antenna (14.5mm x 47mm) dedicated to the TWELITE series. Compared to models like the P4208, it exhibits stronger directivity.

13.7.1 - Internal Embedded Planar Antenna Data Sheet

Latest Edition

Overview

TWELITE series coaxial connector dedicated, internal embedded antenna.

Features

  • Unlike conventional antennas, which require vertical installation to handle vertical polarization, this product uses the Hentenna method and radiates vertical polarization waves from both sides when installed horizontally.
  • This product comes with double-sided tape attached, allowing it to be affixed inside an ABS resin case. It is suitable for use like a remote control without protrusions, radiating radio waves towards the communication partner.
Features

Features

Standard Installation Method

  • Install this product facing the communication partner horizontally.

Even when installed horizontally, if the edge side faces the target, communication may become unstable.

Standard Installation Method

Standard Installation Method

  • When installed vertically, communication with the partner may become unstable.
Non-standard Installation Method

Non-standard Installation Method

Outline Drawing and Dimensions

Outline Drawing

Outline Drawing

Outline Drawing

Dimensions

Dimensions

Dimensions

Overall Thickness After Coaxial Connector Connection

Overall Thickness After Coaxial Connector Connection

Specifications

ModelMW-A-P1447-10
Gain2.95 [dBi] <Note 1>
ConnectorSeiko Instruments Inc. MHF I PLUG
Operating Temperature Range-40 [℃] ~ 90 [℃] (Double-sided tape -10 [℃] ~ 60 [℃])
Cable Bending CharacteristicsMinimum bending radius 14[mm]
Connector Mating Cycles25 times
Double-sided TapeSekisui Chemical Co., Ltd. #5782
RemarksDouble-sided tape attached on the back.
1) Recommended to attach to ABS resin about 2 [mm] thick.
2) Recommended to attach at room temperature.

Note 1: The value is based on measurements in each direction for radio certification application and may differ from the maximum value in the directivity chart.

Directivity

  • Directivity Measurement Method 1 (Standard Installation Method) ※ Logo side is at 180° direction
Directivity Measurement Method 1

Directivity Measurement Method 1

MaximumMinimumAverageHalf Power Beamwidth
-0.59 [dB]-6.40 [dB]-3.24 [dB]About 110° (Note 2)
  • Directivity Measurement Method 2 ※ Cable side is at 180° direction
Directivity Measurement Method 2

Directivity Measurement Method 2

MaximumMinimumAverage
-14.31 [dB]-18.70 [dB]-16.59 [dB]
  • Directivity Measurement Method 3 ※ Logo side is at 180° direction
Directivity Measurement Method 3

Directivity Measurement Method 3

MaximumMinimumAverage
-15.00 [dB]-20.17 [dB]-17.11 [dB]
  • Directivity Measurement Method 4 ※ Logo side is at 180° direction
Directivity Measurement Method 4

Directivity Measurement Method 4

MaximumMinimumAverageHalf Power Beamwidth
-0.53 [dB]-17.68 [dB]-4.98 [dB]About 100° (Note 2)

Note 2: Half power beamwidth based on the peak value on the logo side half. The half power beamwidth on the opposite side half is almost the same.

Note 3: 0 [dB] on the directivity chart represents the gain of a standard dipole antenna.

Connection Method

Align the centers of the coaxial connectors of the TWELITE and this product parallel as shown below, then fit only the tip to position it.

Connection Method 2

Correct Connection Method 1

Connection Method 2

Correct Connection Method 2

If the coaxial connectors are misaligned during connection as shown below, it may cause damage to the coaxial connector.

Connection Method 3

Incorrect Connection Method 1

Connection Method 4

Incorrect Connection Method 2

Push the center of the coaxial connector gradually from directly above with your fingertip as shown below; connection is complete when you hear a “click” sound.

During Connection

During Connection

Remarks

  • For connector removal, it is recommended to use the insertion/removal JIG (P/N:90224-001) made by Seiko Instruments Inc. ※ For the latest insertion/removal JIG, please contact Seiko Instruments Inc.

  • Example of mounting inside an ABS resin case.

Mounting Inside Resin Case

Mounting Inside Resin Case

13.8 - Internal Embedded Planar Antenna

Model: MW-A-P2525
Internal embedded planar antenna (25mm x 25mm) dedicated to the TWELITE series.

13.8.1 - 筐体内組込み型平面アンテナ データシート

最新版

13.9 - Indoor Foldable Antenna

Model: MW-A-D85
Indoor foldable antenna dedicated to the TWELITE series.

13.9.1 - Indoor Foldable Antenna Data Sheet

Latest Edition

13.10 - Waterproof Foldable Antenna (114)

Model: MW-A-D114
Waterproof foldable antenna exclusively for the TWELITE series. Scheduled for discontinuation. The successor is MW-A-D123

13.10.1 - Waterproof Foldable Antenna Data Sheet

Latest Edition

13.10.2 - Waterproof Foldable Antenna Data Sheet

v1.0.3

13.11 - Waterproof Foldable Antenna (123)

Model: MW-A-D123
Waterproof foldable antenna exclusively for the TWELITE series. Successor to MW-A-D114.

13.11.1 - Waterproof Foldable Antenna Data Sheet

Latest Edition

13.12 - Dual-Polarized Patch Antenna

Model: MW-A-BP01
Dual-polarized patch antenna exclusively for the TWELITE series.

13.12.1 - Dual-Polarized Patch Antenna Data Sheet

Latest Edition

13.13 - SMA Conversion Cable

Model: MW-C-UJ-xx-1
SMA conversion cable (U.FL plug — SMA jack) exclusively for the TWELITE series.

13.13.1 - SMA Conversion Cable Data Sheet

Latest Edition

13.14 - SMA Cable

Model: MW-C-PJ-2M-1
SMA cable (SMA plug — SMA jack) exclusively for the TWELITE series.

13.14.1 - SMA Cable Data Sheet

Latest Edition

13.15 - SMA Cable

Model: MW-C-PP-xx-1
SMA cable (SMA plug — SMA plug) exclusively for the TWELITE series.

13.15.1 - SMA Cable Data Sheet

Latest Edition

14 - Discontinued Products

Products that have been discontinued
Data sheets of discontinued products.

14.1 - TWELITE STAGE

Evaluation and development tools
The TWELITE STAGE series is a group of evaluation and development tools for TWELITE.

14.1.1 - TWELITE STAGE BOARD

Model: MW-STA-SOLO-0
TWELITE STAGE BOARD is an evaluation and development board for the first-generation TWELITE series.

14.1.1.1 - TWELITE STAGE BOARD Data Sheet

Latest Edition

14.2 - TWELITE 2525A

Wireless tag with accelerometer
TWELITE 2525A is a wireless tag module that integrates TWELITE BLUE, an accelerometer, and a coin battery holder in a single package.

14.2.1 - TWELITE 2525A

Model: TWE-L-2525A
TWELITE 2525A is a wireless tag module incorporating TWELITE BLUE.

14.2.1.1 - TWELITE 2525A Data Sheet

Latest Edition