XIHE Graphene Technology Platform
From Material Engineering To Product Innovation
Graphene technology only creates real value when it moves beyond laboratory concepts and becomes reliable, scalable, and repeatable in real products. At XIHE, we build the complete technology pathway — from graphene material engineering and precision manufacturing to graphene electrothermal films, far-infrared performance validation, and product integration.
From Material To Integrated Product
01
Graphene Material Engineering
Conductive Ink
02
Precision Manufacturing Capability
Printing + Process Control
03
Graphene Functional Film Platform
Flexible Electrothermal Film
04
Scientific Validation
Standard + Data
05
Product Integration
Partner Applications
Graphene Conductive Ink
The performance of graphene-based heating systems begins with precise material engineering. XIHE develops graphene conductive ink formulations with controlled dispersion, conductivity, adhesion, and processing characteristics.
Engineering The Foundation Material
Unlike simple graphene additives or powder-based solutions, XIHE focuses on engineering stable conductive networks that can be integrated into scalable manufacturing processes.
Our material engineering capabilities span graphene dispersion optimization, conductive network design, ink formulation control, printing process compatibility, and electrical performance optimization.
| Parameter | XH-1 (Oil-based) | XH-2 (Water-based) |
|---|---|---|
| Solid Content | 6 ± 1% | 6 ± 1% |
| Particle Size | ≤10 μm | ≤10 μm |
| Volume Resistivity | ~1.2 Ω/□ @25 μm | ~5 Ω/□ @25 μm |
| Adhesion | 5B | 5B |
| Acid Resistance | No change | No change |
| Alkali Resistance | No change | No change |
Graphene dispersion optimization
Conductive network design
Ink formulation control
Printing process compatibility
Electrical performance optimization
| Product | Resistivity (mΩ·cm) | Sheet Resistance | Viscosity (Pa·s) | Particle D50 (μm) | Conductive Additive | Density (kg/L) | Adhesion |
|---|---|---|---|---|---|---|---|
| Competitor A CH-8 carbon paste | 22.1 | 8.84 Ω/□ @25 μm | 30 ± 6.5 | — | — | 1.15 | 5B |
| Competitor B graphene ink | 18.7 | 7.49 Ω/□ @25 μm | ~25 | — | 35–45% | 1.1–1.2 | 5B |
| Competitor C TB-009 | 20.9 | 8.39 Ω/□ @25 μm | ~25 | — | — | — | 5B |
| XIHE XH-1 | 3 | 1.2 Ω/□ @25 μm | ~4 | 11.04 | 6.79% | 1.1–1.2 | 5B |
Patent-Protected Ink Formulations
XIHE's conductive ink technology is supported by granted invention patents covering graphene-based, copper-doped, and oxidation-resistant conductive ink systems.
Porous conductive ink, preparation method and application thereof
CN202211708311.4
Granted InventionCopper-doped graphene ink, preparation method and application thereof
CN202211694985.3
Granted InventionConductive ink and preparation method, plastic material and preparation method, electroplated plastic
CN202211698816.7
Granted InventionOxidation-resistant copper-graphene composite conductive ink and preparation method thereof
CN201710750564.0
GrantedPrecision Printing & Manufacturing
Advanced materials require advanced manufacturing. XIHE bridges the gap between graphene material development and industrial production through precision printing, coating, curing, and quality control processes.
Turning Materials Into Functional Films
Our manufacturing approach focuses on consistent electrical performance, uniform graphene layer distribution, stable thermal output, and scalable production capability.
From laboratory formulation to industrial manufacturing, every process step is designed to ensure repeatability and reliability.
Graphene Electrothermal Film
XIHE graphene electrothermal film transforms electrical energy into controlled thermal output and far-infrared radiation through an engineered graphene functional layer.
Engineering Graphene Into Flexible Energy Systems
Designed for flexible integration, the film platform enables manufacturers to develop thinner, lighter, and more adaptable heating solutions.
The graphene layer becomes a controllable energy conversion interface — not a rigid heating element, but a material platform that adapts to product geometry.
Protective Layer
Provides durability and environmental protection.
Graphene Functional Layer
Creates a uniform conductive network for efficient energy conversion.
Electrode Layer
Ensures stable electrical connection and power distribution.
Flexible Substrate
Provides mechanical flexibility for diverse product applications.
Flexible Structure
Designed for integration into curved and lightweight products.
Uniform Heating Performance
Engineered conductive pathways enable stable thermal distribution.
Thin Profile
Supports compact product designs without bulky heating components.
Scalable Integration
Compatible with multiple product development scenarios.
Performance Validation
In an industry where graphene performance is often discussed through theoretical possibilities, XIHE believes that technology value must be demonstrated through standardized measurement and product-level validation.
Measured Performance, Not Material Claims
Our graphene far-infrared technology is evaluated through recognized testing methods, connecting material performance with real engineering outcomes.
Material-level performance demonstrates possibility. Product-level validation demonstrates reliability. XIHE focuses on the transition from material capability to engineering validation to real product performance.
Third-party verified: National Infrared & Industrial Electric-Heating Product Quality Inspection Center / Wuhan Product Quality Supervision & Inspection Institute, Report No. (2022)WT-HW-00529, commissioned by Jiageng Innovation Laboratory.
Test context: Sample — graphene electrothermal film; Test date — 2022; Applicable product version — confirm against current production specification.
Download test report (PDF)
| Performance Parameter | Industry Requirement | XIHE Tested Result |
|---|---|---|
| Normal Spectral Emissivity | ≥0.83 | ≥0.88 |
| Electrical-to-Radiative Thermal Conversion Efficiency | ≥55% | 68% |
| Far-Infrared Spectral Range | 5–15 μm evaluation range | Stable emission performance |
| Characteristic Peak Wavelength | — | Around 9.4 μm |
Long-Term Resistance Stability — Internal Benchmark
Long-term resistance drift is one of the most direct indicators of heating film reliability. XIHE conducts internal long-term power-on testing as part of incoming quality control, batch consistency evaluation, and supplier benchmarking.
Internal data: The comparison below is generated from XIHE's internal test protocol (30 days, 8 hours per day) and is used for B2B procurement reference and manufacturing consistency assessment. It is not a third-party certified report.
| Product | Initial Resistance | After 30 Days | Change Rate | Reference Limit |
|---|---|---|---|---|
| Company A | 56.4 Ω | 62.8 Ω | 11.30% | ≤10% |
| Company B | 65.7 Ω | 75.1 Ω | 14.30% | ≤10% |
| Company C | 53.2 Ω | 58.9 Ω | 10.70% | ≤10% |
| XIHE | 55.3 Ω | 57.2 Ω | 3.40% | ≤10% |
Film & Infrared Technology Patents
XIHE's graphene electrothermal film and far-infrared technology are supported by granted patents covering carbon-based flexible conductive films and graphene far-infrared additives, plus a pending application for an infrared emitting film architecture.
Granted Patents
Carbon-based flexible conductive film, preparation method and application thereof
CN202011039128.0
Granted InventionGraphene electromagnetic shielding film and preparation method thereof
CN201910470072.5
Granted InventionPreparation method of graphene far-infrared additive and far-infrared slurry
CN201910773907.4
GrantedPatent Application Under Examination
Product Integration
The purpose of advanced materials is not simply to exist as components. The true value of graphene technology is realized when it becomes part of meaningful products.
Smart Wearables
Flexible graphene heating solutions for intelligent apparel and wearable products.
Automotive Thermal Systems
Advanced heating components designed for next-generation vehicle comfort systems.
Wellness & Lifestyle Products
Graphene far-infrared technology integration for functional wellness applications.
Customized Product Development
Supporting partners from technical evaluation, prototype development, to scalable production.
Contributing to Graphene Flexible Film Standardization
XIHE participates in the development of graphene flexible electrothermal film industry standards, contributing engineering experience from material formulation, functional film development and industrial integration.
Graphene Flexible Electrothermal Film
YB/T 6493-2026
- Status
- Published, coming into effect 2026-11-01
- Drafting role
- Contributing drafting organization (one of eight drafting organizations, including Jiageng Innovation Laboratory, Xiamen University, and others) — XIHE Technology (Xiamen Xihe Technology Co., Ltd.)
- Technical support
- Jiageng Innovation Laboratory (IKKEM), Xiamen University
- Scope
- Terminology, classification, technical requirements, test methods, inspection rules, marking, packaging, instructions, transport and storage for graphene flexible electrothermal films
YB/T 6493-2026 raises the industry benchmark for two key electro-thermal performance indicators compared to JG/T 286-2010 Electric radiant heating film for low temperature:
| Performance Parameter | JG/T 286-2010 Reference | YB/T 6493-2026 Indicator |
|---|---|---|
| Normal Spectral Emissivity | ≥0.83 | ≥0.85 |
| Electric-to-Radiant Power Transfer Efficiency | ≥55% | ≥65% |
YB/T 6493-2026 is published by the Ministry of Industry and Information Technology of the People's Republic of China and is under the jurisdiction of the National Technical Committee on Steel of SAC/TC 183. XIHE Technology is listed as a drafting organization.
View YB/T 6493-2026 on spc.org.cnScience, Standards & Scalable Integration
Scientific Foundation
Developed with scientific and engineering expertise from Jiageng Innovation Laboratory and Xiamen University.
Standard-Based Validation
Performance is supported by third-party testing documentation and a portfolio of granted patents.
Industrial Integration
Integrated capabilities across material formulation, conductive ink, precision printing, coating, curing and roll-to-roll manufacturing.
Frequently Asked Questions
What is the XIHE Graphene Technology Platform?
The XIHE Graphene Technology Platform integrates graphene material formulation, conductive ink development, precision printing and coating, flexible electrothermal film engineering, far-infrared performance validation, and industrial-scale product integration. It is designed to help partners transform graphene-based innovations into commercially viable products.
What is graphene conductive ink used for?
Graphene conductive ink is used to create electrically conductive patterns and functional layers through printing or coating processes. XIHE develops conductive ink formulations for applications that require flexible electrical and thermal functionality, such as wearable heaters, wellness devices, and smart textile systems.
What is the emissivity of XIHE graphene film?
XIHE graphene film has a measured normal spectral emissivity of ≥0.88 under the test conditions documented in report (2022)WT-HW-00529 conducted by the National Infrared & Industrial Electric-Heating Product Quality Inspection Center / Wuhan Product Quality Supervision & Inspection Institute.
Specific performance in a finished product depends on construction, electrode design, operating conditions, and integration method.
How does XIHE validate graphene heating film reliability?
XIHE evaluates graphene heating films through electrical characterization, thermal distribution testing, long-term power-on resistance-drift monitoring, and third-party standard-based testing. Internal benchmark protocols are used for procurement reference and batch consistency evaluation.
What standards does XIHE use for far-infrared testing?
XIHE references Chinese industry standards including JG/T 286-2010 for low-temperature electric radiant heating films and GB/T 7287-2008 for infrared radiation heater test methods. XIHE also participates as a contributing drafting organization in the development of the YB/T industry standard for graphene flexible electrothermal film (2024-0923T-YB).
What is the difference between 68% electrical-to-radiative conversion and Joule heating efficiency?
Joule heating efficiency describes how much input electrical energy is converted into thermal energy by electrical resistance. Because almost all electrical energy in a resistive element becomes heat, this value can approach 100% in principle. Electrical-to-radiative thermal conversion efficiency is different: it measures what share of the generated thermal energy is emitted from the film surface as infrared radiation rather than lost through convection or conduction. The 68% value is a radiometric measurement under YB/T 6493-2026, not a statement that 32% of electrical energy is wasted.
What products can integrate XIHE graphene technology?
XIHE graphene technology can be integrated into smart wearables, heated apparel, automotive thermal comfort systems, wellness and lifestyle products, far-infrared recovery devices, functional textiles, and customized product development programs.
Build The Next Generation Of Functional Products With Graphene Technology
XIHE provides graphene-based far-infrared technology solutions, helping product companies transform advanced materials into reliable commercial products.