Temperature Control Board STXF-TCB-NC-PT1000
Note: NE/NE-AH/NC use a 10k NTC temperature sensor by default, with optional PT100 or PT1000; other models support NTC only. High-precision semiconductor-cooler temperature-control board STXF-TCB-NE-AH details: STXF-TCB-NE-AH controls semiconductor coolers, also called thermoelectric coolers (TEC), with a complete PID algorithm and continuous output mode, providing temperature-control accuracy of 0.01 degrees. It supports commonly used 10k NTC temperature sensors, multiple TEC configurations and DC power. This board is the high-current version of STXF-TCB-NE and suits high-power, high-precision temperature control such as high-power LDs. The board uses serial communication for settings and monitoring, with three control methods. STXF-DISP-TCB(DW) temperature-control display board details: STXF-DISP-TCB(DW) supports STXF-TCB-NA, STXF-TCB-NE/NE-AH and STXF-TCB-SA temperature-control boards. It sets temperature and related parameters and clearly displays current temperature-control information. It can serve as a setup tool or be mounted directly on a panel as a monitoring interface. Control methods: our dedicated STXF-DISP-TCB temperature-control display, connecting the board serial port to the display; our dedicated STXF-TCBMate PC software, connecting the serial port to a computer; or direct serial commands from a microcontroller or PC.
Save to Favorites
Overview
Applications
Key Features
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
ZTOF-4424-10A-Z45 Sensors Zgy-led
Dimensions: 4.4 mm × 2.4 mm × 1.0 mm Detection distance: 2cm~5m Detection Accuracy [Indoors]: ±3%
The ZTOF-4424-10A-Z45 is a highly integrated, compact single-point dTOF (direct Time of Flight) sensor. It integrates a VCSEL emitter, single-photon avalanche diode (SPAD) array, microlenses, TDC (Time Digital Converter), and MCU. dTOF technology and built-in sunlight-rejection and cover-contamination algorithms maintain measurement accuracy independently of target reflectance in varied environments, enabling precise ranging up to5m. The ZTOF-4424-10A-Z45 supports firmware updates through IIC, with modes and algorithms customizable to customer needs. An eye-safety control circuit meets Class I requirements. 1.Product Dimensions:the ZTOF-4424-10A-Z45 uses a12-pin LGA package measuring4.4mm (±0.05mm) x2.4mm (±0.05mm) x1.0mm (±0.075mm); unspecified tolerance is±0.05mm. 2.PCB Pad Dimensions:Figure11, PCB pads, top view. 3.Application Circuit:ZTOF-4424-10A-Z45 block diagram. Notes:1.The external AVDD capacitor should be as close as possible to the AVDDVCSEL and AVSSVCSEL pins. 2.HOST must always drive XSHUT; use a pull-up if host state is unknown. XSHUT requires HW standby mode without IIC communication. Soldering and Storage:1.Soldering Requirements:recommended reflow peak240ºC~260ºC, never exceeding260ºC. The source references a lead-free SMT profile and parameters:Figure13,recommended reflow profile;Table13,recommended oven-temperature test controls. Notes:1.Temperatures are measured at the package top. 2.Maximum reflow cycles:three. 2.Storage Instructions:ZTOF-4424-10A-Z45 is supplied in sealed moisture-barrier bags, with moisture sensitivity level3 (MSL3). Moisture absorbed during packaging can be released and evaporated during soldering, adversely affecting optical characteristics. Each device is baked before dry packing to minimize moisture. Sealed aluminized bags protect against ambient humidity during shipping and storage. Shelf Life:an unopened bag provides12 months from its marked date under the stated conditions:Shelf Life12 months;Ambient Temperature<40℃;Relative Humidity<90%. Beyond12 months, or if the humidity indicator shows excessive storage humidity, rebake the device. Floor Life:ZTOF-4424-10A-Z45 has MSL3 sensitivity, giving168 hours from bag opening under these conditions:Floor Life168 hours;Ambient Temperature<30℃;Relative Humidity<60%. Exceeding floor life or these conditions requires rebaking before reflow or dry packing. Baking:125±5℃ for8 hours;do not bake directly in carrier tape;avoid excessive vibration or impact that could seriously deform or damage packaging. IIC Communication:device address0x41, or0x82 when adding a1bit read/write bit to form8bit;maximum transfer speed1Mbits/s.
-
T05603 Z0S-T05603N-Z2 Sensors Zgy-led
Maximum Power Power Dissipation Pd [Absolute Maximum Ratings; Ta=25℃; Input Emitter]: 75 mW Maximum Reverse Voltage VR [Absolute Maximum Ratings; Ta=25℃; Input Emitter]: 6 V Maximum Continuous Forward Current IF [Absolute Maximum Ratings; Ta=25℃; Input Emitter]: 50 mA
The ZOS-T05603N-Z2 is a compact dual-channel transmissive photo-interrupter combining a high-output GaAsIrED with high-sensitivity dual phototransistors. Its emitter and detector form a transmissive optical circuit interrupter for non-contact sensing.
-
ZCS-2016C ZCS-2016C-08D-Z4 Sensors Zgy-led
Power-Supply Voltage VDD [Absolute Maximum Ratings;All Voltage Values Are Relative to VSS]: min ：-0.5； max ：3.6 Voltage Input Input Voltage Vin [Absolute Maximum Ratings;All Voltage Values Are Relative to VSS]: min ：-0.5； max ：VDD Output Voltage Vout [Absolute Maximum Ratings;All Voltage Values Are Relative to VSS]: min ：-0.5； max ：VDD
The ZCS-2016C-08D-Z4 performs color-temperature measurement and brightness sensing. An internal state machine places it in a low-power state between color-temperature measurements for very low average power consumption. Pin Configuration and Functions. Product Specifications. Electrical Characteristics (VDD=3V, Ta=25℃). Optical Characteristics (VDD=3V, Ta=25℃).
-
ZCS-2020C ZCS-2020C-07D-Z4-1 Sensors Zgy-led
Power-Supply Voltage VDD [Absolute Maximum Ratings;All Voltage Values Are Relative to VSS]: min ：-0.5； max ：3.6 Voltage Input Input Voltage Vin [Absolute Maximum Ratings;All Voltage Values Are Relative to VSS]: min ：-0.5； max ：VDD Output Voltage Vout [Absolute Maximum Ratings;All Voltage Values Are Relative to VSS]: min ：-0.5； max ：VDD
The ZCS-2020C-07D-Z4 - 1 device performs color-temperature measurement and brightness sensing. An internal state machine can place the device in a low-power state between color-temperature measurements, providing very low average power consumption.
-
Zero-Field Atomic Magnetometer QZFM Gen-3 Sensors Spectra-line
Magnetic-Field Sensitivity [Dual-Axis Version; 3-100 Hz Band]: <15 fT/√Hz,3-100 Hz Band (Typical7-10 fT/√Hz) Magnetic-Field Sensitivity [Triaxial Version; 3-100 Hz Band]: <23 fT/√Hz,3-100 Hz Band (Typical15 fT/√Hz, All Three Axes Simultaneously) Dynamic Range: ±5 nT
The source announces the release of QUSPIN's third-generation QZFM sensor Gen-3, completing the final stage of its three-step development of mature zero-field OPM technology. Gen-1(2016) was a proof-of-principle prototype. Gen-2(2019) prioritized user comfort and miniaturization for dense multichannel imaging. Gen-3(2021) resolved the preceding generations' issues and integrated the technology into a powerful platform for practical problems. Gen-3 includes several upgrades, but prioritizes a robust, reliable sensor for future biomagnetic imaging systems.
Related Articles
Ytterbium‑doped fiber serves as the core energy‑conversion component inside a fiber laser. Pump light emitted by laser diodes is coupled into the gain fiber, and energy is transferred to signal laser beams via ytterbium ion energy‑level transition for power amplification. Two dominant pump wavelengths, 915 nm and 976 nm, have been widely adopted over decades. With the rapid progress of pump chip and wavelength‑locking technology, 976 nm edge‑emitting laser (EEL) pumps have gradually surpassed the 915 nm route and become the new industry mainstream. Shenzhen Lemon Photonics Technology Co., Ltd keeps developing high‑performance pump chips for fiber laser manufacturers.
The 850 nm and 940 nm infrared narrow‑bandpass filters launched by Innovation Photoelectric are core optical components specially designed for day‑and‑night security cameras. They effectively eliminate image interference during visible‑light and infrared‑illumination switching, delivering stable round‑the‑clock monitoring performance.
For low-frequency RF, electromagnetic testing and power combining systems, conventional resistive power dividers bring high insertion loss, while standard directional couplers cannot provide equal-amplitude signals with 180° phase shift. They fail differential circuits, balanced amplifiers and signal cancellation systems.
As fundamental refractive optical components, plano‑convex spherical lenses consist of one convex spherical surface and one flat surface.
Loading...
Name
Phone
Organization
Use Case
Database Platform