YDCHARGE AC EV Charging Cable
A professional grade AC EV charging cable platform for portable EV chargers, wallboxes, and OEM integration.
A professional grade AC EV charging cable platform designed for portable EV chargers, wallboxes, AC charging stations, and OEM / ODM EVSE integration, built around the EN 50620 / IEC 62893 standard system and available in H05BZ5 F, H05BZ6 F, H07BZ5 F, and H07BZ6 F configurations. EN 50620 and IEC 62893 are widely used as the core cable standards for AC EV charging in Europe and related international projects.
The YDCHARGE AC EV cable platform is developed for portable EVSE manufacturers, wallbox brands, charging cable assemblers, and EV connector integrators that require a reliable AC charging cable solution for BEV and PHEV applications. The platform supports single phase and three phase architectures, power conductor ranges from 1.5 mm² to 35 mm² depending on cable family, and optional signal / control cores for CP, PP, NTC, or project specific monitoring logic. Industry references consistently describe H05BZ5 F and H07BZ5 F as AC EV charging cables under EN 50620, with H05 typically rated 300/500V and H07 typically rated 450/750V.
Global Standards Focus
Built around the recognized AC EV charging cable families under EN 50620 and IEC 62893, suitable for Mode 2 and Mode 3 charging architectures. Industry references also describe these cables as suitable across portable and fixed AC EV charging applications.
Phase Coverage
Supports architectures from 3G1.5 mm² up to 5G6.0 mm² and beyond, covering common 3.0 kW, 3.7 kW, 7.4 kW, 11 kW, and 22 kW AC charging programs. Multiple manufacturers and suppliers market H07BZ5 F as suitable for AC charging up to 22 kW at 32 A.
Durable Sheath
Available with TPU / PUR type high durability sheath platforms. Industry sources commonly highlight abrasion resistance, oil resistance, UV resistance, and flexibility as major benefits of these EV cable constructions.
OEM / ODM Ready
Supports custom conductor structure, signal core count customization, custom length, and project based cable integration for portable EVSE and wallbox programs.
YDCHARGE AC EV Charging Cable Platform
A professional EVSE component cable family developed for portable EV chargers, AC wallboxes, and charging stations.
The YDCHARGE AC EV Charging Cable platform is a professional EVSE component cable family developed for portable EV chargers, AC wallboxes, and AC charging stations. It is designed for BEV and PHEV charging products that require a reliable cable platform under the EN 50620 / IEC 62893 system. Industry references consistently group H05BZ5-F, H05BZ6-F, H07BZ5-F, and H07BZ6-F under this AC EV charging cable standard family.
This product family is positioned as a core cable component platform. It is distinct from complete chargers. Its purpose is to provide the power and signal transmission layer between the charging control architecture and the EV side or infrastructure side AC charging interface.
Standard System and Application Logic
Standard Structure:
- H05BZ5-F / H05BZ6-F: 300/500V rated for lower voltage class applications
- H07BZ5-F / H07BZ6-F: 450/750V rated for higher voltage and power projects
- Alignment with EN 50620:2017 and IEC 62893 series standards
Selection Logic:
- H05 series: Lighter single phase AC charging architectures
- H07 series: Higher voltage and heavier duty three phase systems
- Suitable for both Mode 2 and Mode 3 charging architectures
Typical Configuration Selection
Single Phase Programs
- 3G1.5 mm²: Lighter duty applications
- 3G2.5 mm²: Mainstream 16A class portable charging
- 3G6.0 mm²: 32A / 7.4 kW high power single phase charging
- Supports conductor ranges up to 35 mm² for H07 family
Three Phase Programs
- 5G2.5 mm²: 11 kW / 16A three phase
- 5G6.0 mm²: 22 kW / 32A three phase
- Mainstream wallbox and portable three phase EVSE focus
- Optimized for low voltage drop in high power charging
Signal and Control Flexibility
Core customization options:
- n = 0: Power only architectures
- n = 1 or 2: CP / PP related control logic
- n = 3 to 8: Advanced NTC monitoring, sensing, and communication
- Supports safety accurate charging control protocols
Material and Sheath Strategy
Platform material advantages:
- BZ5: Premium TPU / PUR like flexible, wear resistant platform
- BZ6: Project oriented alternative for industrial or fixed installs
- Resistant to oil, UV, ozone, weathering, and chemicals
- Maintains high flexibility at low temperatures
Engineering Performance Positioning
Conductor and Insulation
- Bare or tinned copper stranded conductors
- Class 5 flexible conductor construction
- XLPE / EV grade insulation systems
- Optimized routing for combined power and signal lines
Mechanical Application
- Suitable for repeated bending and coiling
- Engineered for trailing cable use in portable EVSE
- Minimum bending radius around 5D
- Durable in harsh outdoor and workshop environments
Compliance and OEM Value
Designed for AC EV charging projects requiring alignment with EN 50620:2017 and IEC 62893 series standards.
AC EV Charging Cable Platform Technical Specifications
AC EV Charging Cable Platform Overview
| Cable Model | Standard Designation | Rated Voltage | Typical Conductor Range | Signal / Control Cores |
|---|---|---|---|---|
| H05BZ5-F | 62893 IEC 121 | 300/500V | 3G1.5 mm² to 2.5 mm² | n × 0.5 to 1.0 mm² |
| H05BZ6-F | 62893 IEC 122 | 300/500V | 3G1.5 mm² to 2.5 mm² | n × 0.5 to 1.0 mm² |
| H07BZ5-F | 62893 IEC 123 | 450/750V | 3G to 5G, 2.5 mm² to 35 mm² | n × 0.5 to 1.0 mm² |
| H07BZ6-F | 62893 IEC 124 | 450/750V | 3G to 5G, 2.5 mm² to 16 mm² | n × 0.5 to 1.0 mm² |
This structure is broadly consistent with commercial and technical references describing the IEC 62893 family and EN 50620 cable designations.
Typical Application Matrix
| Conductor Structure | Recommended Cable Family | Typical Current Class | Typical Power Use Case | Typical Application |
|---|---|---|---|---|
| 3G1.5 mm² | H05BZ5-F / H07BZ5-F | up to 13A class | ~3.0 kW single-phase | Light-duty portable EV charging |
| 3G2.5 mm² | H05BZ5-F / H07BZ5-F | 16A to 20A class | 3.7 to 4.6 kW | Mainstream portable EVSE |
| 3G4.0 mm² | H07BZ5-F / H07BZ6-F | 25A class | ~5.8 kW | Custom higher-current single-phase charging |
| 3G6.0 mm² | H07BZ5-F / H07BZ6-F | 32A class | 7.4 kW | High-power single-phase wallbox / EVSE |
| 5G1.5 mm² | H07BZ5-F / H07BZ6-F | 13A class | ~9.0 kW | Lower-power three-phase charging |
| 5G2.5 mm² | H07BZ5-F / H07BZ6-F | 16A class | 11 kW | Mainstream three-phase portable EVSE |
| 5G4.0 mm² | H07BZ5-F / H07BZ6-F | 25A class | ~17 kW | Mid-power industrial three-phase charging |
| 5G6.0 mm² | H07BZ5-F / H07BZ6-F | 32A class | 22 kW | High-power three-phase charging |
The 11 kW and 22 kW positioning is especially well aligned with common H07BZ5-F AC charging applications in the market.
Material and Environmental Positioning
| Core Standards | EN 50620:2017 / IEC 62893 series |
| Conductor Material | Bare or tinned copper stranded |
| Conductor Flexibility | Class 5 or comparable flexible construction |
| Insulation | EV-grade / XLPE-oriented insulation platform |
| Sheath Options | TPU / PUR-type high-durability or project-oriented alternatives |
| Bending Radius | Approx. 5D positioning |
| Environmental Positioning | UV, oil, abrasion, ozone, and weather resistance |
| Certification Positioning | TÜV-oriented, RoHS, and REACH-facing project support |
These attributes are consistently highlighted across multiple technical references and supplier product sheets for H05BZ5-F / H07BZ5-F EV charging cables.
AC EV Charging Cable FAQs
B2B OEM/ODM Frequently Asked Questions
Product Fundamentals & Standards
Q1. What is this AC EV cable designed for?
Q2. Is this product a complete charger?
Q3. What standards does this cable family align with?
Technical Classifications
Q4. What is the difference between H05 and H07?
Q5. What is the difference between BZ5 and BZ6?
Application Recommendations
Q6. Which cable is recommended for 7.4 kW single-phase charging?
Q7. Which cable is recommended for 11 kW three-phase charging?
Q8. Which cable is recommended for 22 kW three-phase charging?
Engineering & Material Features
Q9. Why are additional signal cores important?
Q10. What material advantages should be emphasized?
Emphasize:
- abrasion resistance
- oil resistance
- UV resistance
- weather resistance
- flexibility at low temperature
- suitability for repeated bending and portable use