Über uns | Detaina

Unternehmensprofil

Die Wuhan Detaina New Energy Technology Co., Ltd. wurde im Juni 2016 gegründet. Als staatlich anerkanntes Hightech-Unternehmen (Nr. GR201942001858) ist sie ein privatwirtschaftliches Technologieunternehmen mit Beteiligung von Suzhou Yihang Electronic Technology, Wuhan Dechun Management Partnership (LP) und Xinzhifeng (Wuhan) Equity Investment Fund. Entwickelt und gefertigt werden Ladeanschluss- und HV-Verteilerkomponenten für NEV: Ladeterminals, fahrzeugtaugliche E-Locks (Ladebuchsen-Aktuatoren), HV-Kabelbäume auf Geräteseite, Thermomanagementprodukte und Busbars. Der Betrieb folgt IATF 16949, das Labor ist CNAS-akkreditiert. Mit über 400 Mitarbeitern bestehen Standorte in Wuhan, Xiaogan, Liuzhou, Hefei und Zhejiang; der neue Standort Xiaogan umfasst 58 Mu Grundfläche und 68.000 m² Gebäudefläche und wird im Juli 2026 bezogen.

Ladebuchsen-Produktlinie HV-Kabelbäume (inkl. Fahrzeugbuchsen)Ladeterminals Fahrzeugtaugliche E-Locks Busbar-Produkte Thermomanagementprodukte

Neuer Standort Xiaogan (58 Mu Grundfläche, 68.000 m² Gebäudefläche)

Meilensteine

2016Gründung von Detaina (Juni 2016)
2017Lieferfreigabe für Peugeot; Nominierung für Dongfeng eD53
2018Angel-Runde vom Provinzfonds; GM-Audit (Nordamerika) und Wuling-Nominierung
2019Lieferfreigabe für GAC Honda; Tier-2-Nominierung auf der VW-MEB-Plattform
2020PDU-Busbar für Joyson entwickelt; strategische Partnerschaft mit Suzhou Yihang
2021Gründung Liuzhou Detaina; Serie A abgeschlossen
2022Gründung Hefei Detaina; A+-Runde mit Kabayi Electric; Zertifikat als staatliches Hightech-Unternehmen
2023Umzug der Zentrale (15.000 m²); Auszeichnung als New-Species-Unternehmen des China Car Valley
2024Anerkennung als Key-Gazelle-Unternehmen Wuhan; Übernahme eines key R&D-Programms der Stadt Wuhan
2025Serie B abgeschlossen; Gründung Zhejiang Detaina

R&D Capability

Six R&D directions for new-energy HV power distribution — e-lock design, terminal design, HV electric design, aluminium conductor technology, CAE simulation and test capability — forming a complete design-simulation-test loop.

01 · E-Lock Design

E-Lock Design

Full in-house capability for vehicle-grade e-lock development: design definition of key parts such as motor, gear set and micro switch, through lock structure and control strategy, to validation. A modular platform covers GB, European and NACS series, providing one e-lock solution for EVs, charging stations and wall boxes.

In-house design of key parts: motor, gearbox, latch and micro switch selection and definition
Modular platform: GB / European / NACS series share one platform, shortening lead time and part variety
Forward development flow: requirement breakdown, concept, detail design, prototype, validation loop
Adaptation to AC piles, DC piles, wall boxes and portable chargers

02 · Terminal Design

Terminal Design

Definition and design know-how for charging inlet terminals: three generations developed — stamped, slotted and cold-headed terminals — forming DTN fast/slow charging strategies and replaceable terminal solutions. Stamped terminals meet 10,000 mating cycles; DFM, tooling design and process implementation are in-house.

Product series: stamped, slotted and cold-headed terminals from three generations of know-how
Fast/slow charging strategy: replaceable terminal solutions by current rating
Validation: 10,000 mating cycles, with contact resistance and temperature rise checked together
Manufacturing synergy: DFM review, tooling design and process implementation in one team

03 · HV Electric Design

HV Electric Design

End-to-end HV electrical design: component selection, current analysis and validation, 3D routing (layout) and system-level (SYS) verification, ensuring the high-current path meets vehicle requirements for ampacity, temperature rise, voltage drop and clearances.

Component selection: connectors, contactors, fuses and cable specification matching
Current analysis & validation: ampacity, temperature rise, contact resistance, voltage drop
3D layout: routing, installation space, bend radius and fixation points
System-level check: SYS architecture with current validation

04 · HV Aluminum Conductor Tech.

HV Aluminium Conductor Technology

Aluminium busbar fast-charging harnesses are lighter, lower cost, better cooled, space saving and automation friendly, meeting customer ultra-fast charging needs. Busbar harness concept and key component design are complete, with patents filed against benchmark solutions.

Key figures: relative bend radius R/t ≥ 1; busbar temperature difference < 37.9 °C; part tolerance controlled to ± 2 mm
Key components: direct connection, connector, inlet, grommet, fixation, protection, bending and reserved shielding design
Material & process research: bending characteristics, arrangement and combination, material parameters
Cu-Al dissimilar joining: ultrasonic welding and electromagnetic pulse welding (50 mm² aluminium cable to copper terminal, insulated crimp wing terminal)
Fatigue reliability: bending fatigue life simulation, bending fatigue test and S-N curve

05 · CAE Capability

CAE Simulation Capability

A CAE simulation system covering structural, thermal, electrical and fatigue multi-physics analyses moves the design-simulation-test loop into early development, cutting prototype iterations and lead time. Typical uses: cable bending fatigue life simulation, layout verification and animation studies.

Multi-physics simulation: structural strength, thermal management, electrical performance, fatigue life
Cable bending fatigue life simulation and S-N curve fitting
Layout verification and interference checking (3D layout review)
Animation studies: motion and failure visualisation for design reviews

Environmental

High/low temperature
Thermal shock
Rapid temperature change
Humidity & heat
Salt spray
High temperature

Electrical

IP protection
Crimp / contact resistance
Voltage drop
Insulation & withstand voltage
E-lock performance
Data transmission
High-power liquid-cooled charging

Mechanical

Vibration
Shock
Tensile
Terminal mating
Cable bending

Material

Ozone
Horizontal/vertical flame
Tracking resistance
Metallography
Coating thickness

06 · Test Capability · CNAS

Test Capability

The CNAS-accredited laboratory validates products across four test categories — environmental, electrical, mechanical and material performance — covering components through assemblies, providing third-party accredited testing and reports that cross-check the simulation results.

Four-category test matrix: environmental, electrical, mechanical and material performance
Specialised tests: e-lock comprehensive performance, high-power liquid-cooled charging, data transmission
Cross-checked with simulation data to close the simulation-test loop

Key R&D Programme

Wuhan key R&D programme "Key technologies of high-voltage high-power charging aluminium conductors for new-energy vehicles" (No. 2024010702030118), with granted invention patents on image-based weld quality inspection for Cu-Al dissimilar metals and on a high-power charging aluminium conductor connection device. Starting from lightweighting and dissimilar-metal joining, the project defines three technical problems (oxide-driven contact resistance rise, Cu-Al galvanic corrosion, high-reliability Cu-Al welding) and three overall goals: overcome aluminium creep, solve Cu-Al welding, and control contact resistance within a proper range.