Custom Temperature Sensor LoRaWAN Supplier & Factory

Enterprise-Grade IoT Sensing Solutions Powered by Swiss Calibration & High-Precision Infrastructure Compatibility

Featured Low-Power Environmental Nodes

Explore our flagship high-reliability LoRaWAN and Ethernet sensor assemblies built for critical telemetry, smart storage, and facility controls.

OEM APEM-5930E Ethernet Temperature Humidity Sensor

OEM APEM-5930E Ethernet Temperature Humidity Sensor

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LoRaWAN Indoor Environmental Sensor APEM-5616 Pro

China LoRaWAN Indoor Environmental Sensor APEM-5616 Pro

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OEM APEM-5736 LoRa Temperature and Humidity Sensor

OEM APEM-5736 LoRa Temperature and Humidity Sensor

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Custom APEM-5930 Power over Ethernet Sensor

Custom APEM-5930 Power over Ethernet Sensor

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China APEM-5930G Ethernet Multi-Parameter Sensor

China APEM-5930G Ethernet Multi-Parameter Sensor

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China APEM-5930G Ethernet IAQ & CO Sensor

China APEM-5930G Ethernet IAQ & CO Sensor

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Custom High-Performance APEM-5930G IAQ & CO Data Logger

Custom High-Performance APEM-5930G IAQ & CO Data Logger

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Wholesale APEM-5930G TVOC and O₃ Ethernet Sensor

Wholesale APEM-5930G TVOC and O₃ Ethernet Sensor

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LoRaWAN Integration: Elevating Industrial Temperature Telemetry

A white paper overview on long-range RF metrics, calibration integrity, and why customized LoRaWAN nodes surpass traditional wireline setups in hostile electromagnetic environments.

Modern smart structures, industrial operations, and cleanroom environments necessitate real-time, non-disruptive monitoring of ambient metrics. As organizations transition toward dense cyber-physical ecosystems, wireline configurations become economically prohibitive and physically restrictive. Herein lies the value of Low-Range Wide Area Network (LoRaWAN) technology. Utilizing spread-spectrum modulation derived from Chirp Spread Spectrum (CSS) technology, our custom LoRaWAN sensor arrays (such as the APEM-5736 and APEM-5616 Pro) optimize link budget parameters, ensuring transmission distances exceeding 15 km in Line-of-Sight (LoS) environments, and up to 3 km in highly dense structural zones.

Key Technical Parameters of our LoRaWAN Implementation:

  • Sensitivity: Down to -137 dBm sensitivity, securing operations even beneath concrete slabs and underground utility tunnels.
  • Adaptive Data Rate (ADR): Dynamically scales transmission intervals and Spreading Factors (SF7 to SF12) to optimize battery life vs. signal attenuation.
  • Frequency Agility: Supports regional sub-GHz ISM configurations (EU868, US915, AS923, AU915, and CN470) utilizing high-efficiency internal or high-gain external SMA whip antennas.

By bypassing standard wired architectures, our custom deployments mitigate ground-loop risks, eliminate electrical drift across long cable runs, and drastically lower capital expenditure. Whether deployed in autonomous vehicle processing zones, deep smart wells, or pharmaceutical storage environments, our devices utilize premium imported chipsets from Switzerland and Germany to guarantee drift-free calibration profiles over extended life cycles.

Macro Industry Solutions: Integrated Environmental Architectures

Deploying multi-parameter telemetry across complex sectors, from autonomous roadway boxes to water supply pipeline networks.

Data Centers & High-Density Compute

Providing micro-climate mapping across data server racks. Our legacy deployment at Baidu's Yangquan Data Center monitors rack intake air velocity, absolute humidity, and dew point variables to prevent electrostatic accumulation or condensing humidity, thereby maximizing energy metrics under PUE targets.

Smart Well & Water Utilities

In collaboration with Beijing Enterprises Water Group, we deploy hermetically sealed sensors within smart well systems, tracking relative humidity, water leakage, and potential gas accumulations (H2S, CO) to secure maintenance technicians and ensure pipeline system integrity.

Autonomous Driving Infrastructure

Edge computing boxes deployed along autonomous driving test routes operate under harsh, fluctuating environments. Our ruggedized sensors are embedded within these roadside enclosures to trace thermal profiles, preventing component failures in critical real-time communication modules.

Cleanrooms, Labs & Museums

Delivering hyper-precise measurement with Swiss Sensirion micro-chips. Museums, cleanrooms, and medical storage sectors utilize our multi-parameter assemblies to log humidity and chemical pollutants (TVOC, Formaldehyde, O3) and secure strict regulatory compliance.

Engineered for Performance & Scalability

Combining proprietary designs, advanced calibration, and high-volume capability to serve system integrators worldwide.

18+
Years Industry Experience
1500+
Modern Workshop (㎡)
5+
Automated Production Lines
100+
Dedicated Staff Members

Our Production Capabilities & Dynamic OEM/ODM Services

Operating a state-of-the-art 1,500 square meter ISO-compliant production floor in Beijing, Yingchuanglihe integrates design, SMT, wave soldering, sensor calibration, environmental chamber aging tests, and multi-step QC checking protocols. Our technical infrastructure supports complete customization: from bespoke casing geometries (IP65, IP67, IP68 rated), custom communication protocols (Modbus, LoRaWAN, SNMP, MQTT, PoE), to integrated multi-sensor modules tracking TVOC, Formaldehyde, SO2, CO, and atmospheric pressure.

Our commitment to reliability is demonstrated through direct calibration processes traceable to national measurement standards. We deploy automated test equipment (ATE) systems on our five production lines, maintaining rapid deployment turnarounds while retaining individual device verification files for CE, FCC, and RoHS audits. Standard technical inquiries are parsed and responded to by certified engineers within an 8-hour window.

Our Historical Journey

From our founding in 2007 to high-precision Beidou positioning integrations in 2024, exploration of our major milestones.

2007

Beijing Yingchuanglihe was founded, pioneering intelligent environmental monitoring terminals based on the TCP/IP network protocol alongside our initial environmental monitoring software engine.

2008

Collaborated with Mocha Software, a key local IT management platform developer, launching the TH-5939 series of network-monitoring devices featuring direct SNMP native communication support.

2009

Partnered with Switzerland's COMLAB to design and supply the TH-5869 ruggedized environmental monitoring system, deployed in challenging high-speed rail lines including the Beijing-Kowloon and Wuhan-Guangzhou railway links.

2010

Cooperated with Founder Technology to deploy the APEM-6100 series, pioneering Power over Ethernet (PoE) utility integrations across dense campus local networks.

2012

Collaborated with Taiwan's Foxconn, setting new benchmarks for real-time temperature, humidity, and micro-climate compliance checks inside automated SMT production facilities.

2015

In partnership with Baidu, launched the APEM-5900 series for Yangquan Data Center, optimizing compute infrastructure control using high-granularity thermodynamic monitoring systems.

2018

Horizontal expansion of our central environmental monitoring software, establishing multi-node cloud systems handling thousands of devices in complex industrial installations.

2019

Introduced the integrated outdoor cabinet monitoring system, deployed across complex networks such as Huawei and China Merchants Huaruan ETC expressway initiatives.

2021

Advanced road test equipment design, integrating autonomous vehicle test track communication boxes and high-throughput edge computing gateway nodes.

2023

Participated in national intelligent computing center buildouts, providing core temperature/humidity sensors to optimize computing center energy efficiency.

2024

Established the Beijing Enterprises Water Group joint division and co-founded a Beidou business division with BUCEA. Advanced pipeline monitoring and Beidou-integrated high-precision deformation tracking, alongside obtaining our IDC business license.

Technological Roadmap & Supply Chain Resilience

Driving the transition toward intelligent edge processing, low-power optimization, and localization safety.

As the Internet of Things shifts towards edge processing, our R&D team is embedding micro-Machine Learning (tinyML) algorithms onto our ARM Cortex-M4 microcontroller architectures. This enables our future LoRaWAN nodes to evaluate thermodynamic anomalies at the node level before routing telemetry packages, saving transmission energy and optimizing bandwidth usage.

Moreover, coupling Beidou Satellite high-precision positioning coordinates with pipeline and structural deformation monitoring allows our sensors to track not only ambient temperatures but also physical displacement, providing comprehensive multi-dimensional data for smart city systems and geological hazard detection structures.

Supply chain integrity remains our cornerstone. We maintain long-term partnerships with leading semiconductor and sensor die manufacturers (including Sensirion in Switzerland and Bosch in Germany), shielding our clients from silicon shortage cycles. Our local manufacturing capability in Beijing ensures that standard or modified-off-the-shelf OEM runs bypass long shipping timelines, securing timely delivery even for challenging projects.

Exhibitions & Quality Accreditations

Our global footprint and compliance credentials, reflecting a commitment to international standards.

Corporate & Product Certificates

Certificate 1 Certificate 2 Certificate 3 Certificate 4 Certificate 5 Certificate 6 Certificate 7 Certificate 8 Certificate 9 Certificate 10 Certificate 11 Certificate 12 Certificate 13 Certificate 14 Certificate 15 Certificate 16 Certificate 17 Certificate 18 Product Certificate 1 Product Certificate 2 Product Certificate 3 Product Certificate 4 Product Certificate 5 Product Certificate 6 Product Certificate 7 Product Certificate 8 Product Certificate 9 Product Certificate 10 Product Certificate 11 Product Certificate 12 Product Certificate 13 Product Certificate 14

Corporate Exhibitions

Exhibition Photo 1 Exhibition Photo 2 Exhibition Photo 3 Exhibition Photo 4 Exhibition Photo 5 Exhibition Photo 6 Exhibition Photo 7 Exhibition Photo 8 Exhibition Photo 9

Frequently Asked Questions (FAQ)

Addressing critical engineering inquiries regarding LoRaWAN configuration, power management, and integration.

How does Adaptive Data Rate (ADR) optimize battery life in custom LoRaWAN sensor nodes?
Adaptive Data Rate (ADR) is a mechanism where the LoRaWAN network server instructs the sensor node to adjust its Spreading Factor (SF) and Transmit Power (Tx) based on prevailing link conditions. If a sensor node is located close to a gateway and exhibits high RSSI and SNR values, the server transitions it to a lower SF (e.g., SF7). This decreases the time-on-air (ToA), reducing power consumption during transmission. Conversely, for remote nodes, the server increases the SF to ensure packet delivery, sacrificing battery efficiency to maintain connectivity.
What sensor chips are used in Yingchuanglihe assemblies, and what is their drift threshold?
We integrate imported solid-state sensing elements from leading suppliers, primarily Sensirion (Switzerland) and Bosch (Germany). The relative humidity drift is kept under <0.25% RH/year, while temperature drift is minimized at <0.03°C/year. This level of stability is ideal for high-spec pharmaceutical warehouses, semiconductor laboratories, and deep-well environments where recurring physical calibration is not feasible.
Do your devices support multi-frequency ISM band localization?
Yes, our hardware architecture features modular RF front-ends. When placing an OEM/ODM order, you can specify configurations for EU868 (Europe), US915 (North America), AS923 (Asia-Pacific), AU915 (Australia), or CN470 (China). This ensures compliant, out-of-the-box operations with localized regional spectrum guidelines.
Can you provide custom enclosures with high IP protection for corrosive or marine environments?
Certainly. We offer custom enclosure designs using UV-stabilized polycarbonate, ABS, or aluminum alloys, with protection ratings up to IP67 or IP68. For corrosive chemical plants or marine coastal applications, we utilize PTFE breathable membrane vents that allow atmospheric pressure and water vapor exchange while completely blocking liquid water, salts, and chemical droplets.
What is the turnaround time for an ODM product development cycle?
Our standard customization cycle begins with engineering schematic validation within 3-5 business days. Prototyping and 3D housing prints are delivered within 10 days, followed by pre-compliance testing and regulatory evaluations. We typically reach low-volume production within 4-6 weeks, allowing clients to accelerate their deployment schedules.

Explore the Rest of our Telemetry Range

From multi-parameter sensors monitoring TVOC and ozone to high-precision remote probe extensions.

China APEM-5930E Ethernet Temperature Humidity Sensor

China APEM-5930E Ethernet Temperature Humidity Sensor

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CE Certification APEM-5930G Ethernet Indoor Air Quality & Ozone Sensor

CE Certification APEM-5930G Ethernet Indoor Air Quality & Ozone Sensor

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China APEM-5736 LORA Temperature and Humidity Sensor

China APEM-5736 LORA Temperature and Humidity Sensor

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China APEM-5930E Ethernet Temperature Humidity Sensor Probes

China APEM-5930E Ethernet Temperature Humidity Sensor Probes

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Custom APEM-5930P Ethernet Temperature Humidity Pressure Sensor

Custom APEM-5930P Ethernet Temperature Humidity Pressure Sensor

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China APEM-5930G Ethernet Temperature Humidity SO2 NO2 Sensor

China APEM-5930G Ethernet Temperature Humidity SO2 NO2 Sensor

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Custom APEM-5736 LORA Temperature and Humidity Sensor

Custom APEM-5736 LORA Temperature and Humidity Sensor

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CE Certification APEM-5930G Ethernet Multi-Parameter Sensor

CE Certification APEM-5930G Ethernet Multi-Parameter Sensor

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