CROSS-STANDARD public interest · EV charger
China-to-Hungary EV Charger Compliance Gap Matrix
AI-compiled from official public sources — cross-checked by multiple AI models, not human-verified. Informational only; see disclaimer. Public-interest, source-linked comparison of common China EV charger documentation against Hungary (MSZT/MEKH/MAVIR) and EU CE framework expectations, including IEC 61851, IEC 62196-2 Type 2/CCS2 compatibility, AFIR obligations, electrical protection-device requirements, and national installation rules. Hungary is a landlocked EU member state with a 230/400 V 50 Hz grid and significant EV infrastructure investment linked to its role as a Central European automotive hub.
Dataset 2026-06-11
Last verified 2026-06-15
12 rows
GAP MATRIX
Compliance Gap Matrix
| Compliance item | Common China baseline | Hungary (MSZT / MEKH / MAVIR) | Gap / action | Source + verification date |
|---|---|---|---|---|
| AC Charging Connector Standard (Type 2) — Hungary | China uses GB/T 20234.2 for AC charging, which defines a physically distinct 7-pin connector incompatible with IEC Type 2. GB/T plugs cannot mate with EU Type 2 sockets.GB/T 20234.2-2015 (AC EV charging connector, China) | EU public AC recharging points are subject to AFIR (Regulation (EU) 2023/1804) requirements for connector availability. AFIR Annex II specifies Type 2 for normal-power AC recharging points. IEC/EN 62196-2 describes the Type 2 technical connector design; the legal obligation is AFIR, while the IEC/EN standard is the technical specification route. AFIR is directly applicable in Hungary without transposition. Hungary, as a Central European automotive manufacturing hub, has substantial EV charging infrastructure investment and applies AFIR requirements fully.IEC 62196-2 (Type 2 AC connector) EN 62196-2 Regulation (EU) 2023/1804 (AFIR), Art. 4 Directive 2014/94/EU (AFID) [superseded by AFIR] |
Hardware connector is physically incompatible. A Chinese EV or EVSE designed only around a GB/T AC interface cannot interoperate with EU/Hungary public Type 2 AC infrastructure without a physical inlet/socket and control-interface redesign. The connector body, pin count, and locking mechanism all differ. Any adapter strategy for public infrastructure must be checked against AFIR and Hungarian national implementation rules rather than treated as a substitute for compliant connector design.[INFORMATIONAL] Non-compliant for Hungary/EU public charging interoperability as-is if the product only supports GB/T AC. AFIR creates the binding EU obligation for in-scope public infrastructure; IEC/EN 62196-2 Type 2 is the technical specification used for that route. GB/T AC interfaces are not a substitute for AFIR-compliant Type 2 compatibility. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| DC Fast-Charging Connector Standard (CCS Combo 2) — Hungary | China uses GB/T 20234.3 for DC fast charging, defining a physically distinct 9-pin connector (CHAdeMO-influenced design) incompatible with CCS Combo 2. The pin layout, communication protocol (CAN vs. PLC), and inlet shape all differ.GB/T 20234.3-2023 (DC EV charging connector, China) | EU public DC recharging points are subject to AFIR (Regulation (EU) 2023/1804) requirements for connector availability. AFIR Annex II specifies Combo 2 for high-power DC recharging points. IEC/EN 62196-3 describes the CCS Combo 2 technical connector design; the legal obligation is AFIR, while the IEC/EN standard is the technical specification route. Hungary, as a major EV battery production country (CATL, BYD, Samsung SDI plants), has strong automotive OEM demand for CCS2-compliant public and private charging infrastructure.IEC 62196-3 (CCS Combo 2 DC connector) EN 62196-3 Regulation (EU) 2023/1804 (AFIR), Art. 4 & Annex II Directive 2014/94/EU (AFID) [superseded] |
Hardware connector is physically incompatible. Chinese EVs or EVSE with only a GB/T DC interface cannot fast-charge at Hungary/EU CCS2 public stations without hardware and communication-stack redesign. The vehicle/charger communication stack (GB/T 27930 CAN vs. ISO 15118 / DIN 70121 PLC pathways in common EU CCS practice) also differs. In Hungary, automotive OEM expectations (BMW, Mercedes, Stellantis plants in Hungary) and fleet operators increasingly mandate CCS2 for all commercial charging deployments, making this a market-access hard requirement beyond the legal AFIR mandate.[INFORMATIONAL] Non-compliant for Hungary/EU public DC charging interoperability as-is if the product only supports GB/T DC. AFIR creates the binding EU obligation for in-scope public infrastructure; IEC/EN 62196-3 CCS Combo 2 is the technical specification used for that route. Hungary's automotive OEM and fleet-operator market context makes CCS2 a practical hard requirement even beyond AFIR scope. GB/T DC interfaces are not a substitute for AFIR-compliant Combo 2 compatibility. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| Legal Mandate: AFIR vs. AFID and Transition Timeline — Hungary | China's equivalent policy mandate is GB/T 20234 series (enforced via MIIT type-approval). No bilateral connector recognition or mutual acceptance agreement exists between China GB/T and EU IEC 62196 standards. (Confirmed: no bilateral connector or certification mutual recognition treaty between CN GB/T 20234 and EU IEC 62196 has been concluded as of June 2026.)GB/T 20234.1-2023 (general requirements) GB/T 20234.2-2015 (AC) GB/T 20234.3-2023 (DC) MIIT EV type-approval requirements (China) |
Regulation (EU) 2023/1804 (AFIR) replaced Directive 2014/94/EU (AFID) with binding targets. AFIR entered into force 13 April 2024. New public charging pools must comply from that date; all existing pools must be upgraded to Type 2 / CCS2 by 2025–2026 depending on power level. AFIR is a Regulation (not a Directive) and is directly applicable in all EU member states including Hungary without transposition. Hungary must also meet AFIR's TEN-T deployment targets for the Trans-European Transport Network corridors crossing Hungarian territory.Regulation (EU) 2023/1804 (AFIR) — OJ L 2023/1804, 22 Sep 2023 Directive 2014/94/EU (AFID) [superseded] |
No harmonisation or mutual recognition between GB/T and IEC 62196 series. AFIR is a binding EU Regulation directly applicable in Hungary, meaning no member-state flexibility to accept GB/T connectors. Any EV or EVSE destined for the Hungarian market must carry Type 2 (AC) and CCS Combo 2 (DC) inlets as a hard market-entry requirement. Hungary's TEN-T corridor obligations under AFIR add deployment-timeline pressure for CPOs operating along major transit routes through Hungary.[INFORMATIONAL] Non-compliant as-is for Hungary/EU public charging infrastructure where a product relies on Chinese GB/T connectors only. AFIR creates the binding EU obligation directly applicable in Hungary for in-scope public infrastructure; Type 2 / Combo 2 technical compatibility is the practical redesign item. This is a product and infrastructure interoperability gap, not merely a documentation gap. Hungary's TEN-T corridor obligations under AFIR create additional deployment urgency for CPOs. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| MEKH / MAVIR Grid Connection — 230/400 V 50 Hz Hungarian Network | China domestic charger installations are commonly documented under GB/T 18487.1-2023, GB/T 20234 connector standards, GB/T 27930-2023 for DC communication, and local grid-operator acceptance. China domestic supply is 220 V single-phase / 380 V three-phase at 50 Hz. The shared 50 Hz frequency does not mean voltage equivalence: Hungary 230/400 V requires input-voltage, protection-threshold, thermal, and metering validation beyond the China baseline. Chinese grid-operator acceptance certificates are not valid for Hungarian DSO or MEKH project review.GB/T 18487.1-2023 GB/T 20234.2-2015 GB/T 20234.3-2023 GB/T 27930-2023 China local grid operator project-acceptance requirements |
Hungary's electricity supply network is operated by regional DSOs under MEKH (Magyar Energetikai és Közmű-szabályozási Hivatal) regulatory oversight, with MAVIR as the transmission system operator. The low-voltage context is 230 V single-phase / 400 V three-phase at 50 Hz. That is the same frequency as China but a different nominal voltage from China's 220/380 V baseline. Grid-connected EV charger projects should be treated as site-specific electrical installations requiring DSO supply-capacity review, protection coordination, metering, earthing, harmonic and power-quality review, commissioning, and written project acceptance before energisation. Large fast-charging deployments above defined capacity thresholds may require MEKH energy-sector licensing. Grid-connection applications and technical documentation must be submitted in Hungarian.MEKH (Hungarian Energy and Public Utility Regulatory Authority) electricity-sector regulatory framework MAVIR transmission system operator requirements Regional DSO grid-connection and project-acceptance requirements (Hungary) IEC 61000 series — electromagnetic compatibility and power quality IEC 61851-1 — EV conductive charging system general requirements Hungary low-voltage grid — 230 V single-phase / 400 V three-phase, 50 Hz |
Exporters must confirm that the charger covers 230 V single-phase / 400 V three-phase at 50 Hz, not only China's 220/380 V settings. Protection thresholds, leakage-current devices (Type B RCD or equivalent per IEC 60364-7-722), metering accuracy, harmonic emissions, supply-capacity calculations, earthing, surge protection, and commissioning documents should be prepared for Hungarian DSO review. Large fast-charging installations (typically above 50 kW or multiple-unit sites) may require MEKH energy-sector licensing. All grid-connection applications, technical documentation, and commissioning records must be in Hungarian. Hungary's continental climate (temperature range -20°C to +40°C) should be reflected in charger environmental ratings.[INFORMATIONAL] Hungary-ready EVSE needs Hungarian DSO project acceptance, explicit 230/400 V 50 Hz validation, and for large installations, MEKH energy-sector licensing. Do not describe the voltage as matching China: only the 50 Hz frequency matches, while nominal voltage differs from China's 220/380 V baseline. All grid-connection applications and technical documentation must be submitted in Hungarian. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| CE Conformity Assessment — LVD, EMC, RED (if wireless) — Hungary | In China, EV chargers require China Compulsory Certification (CCC) under the GB/T and GB standards regime. Key standards include GB/T 18487.1 (AC charging system) and GB/T 20234 series (connectors). CCC is a mandatory third-party certification through designated bodies (CABs); it does not involve self-declaration and is structurally different from CE's conformity-based model.GB/T 18487.1-2015 (AC EV charging system) GB/T 20234.1-2023 (general requirements for connectors) GB/T 20234.2-2015 (AC charging interface) GB/T 20234.3-2023 (DC charging interface) CCC certification (CNCA mandatory) |
EV chargers sold in Hungary/EU must bear the CE marking, demonstrating conformity with all applicable EU legislation. Wired AC/DC chargers typically fall under LVD (2014/35/EU) and EMC Directive (2014/30/EU); chargers with wireless communication (e.g., Wi-Fi, Bluetooth for smart charging) additionally require conformity with RED (2014/53/EU). Conformity is generally established by manufacturer self-declaration supported by a technical file. Harmonised EN standards are voluntary routes to presumption of conformity, not mandatory legal requirements in themselves. MSZT adopts EU harmonised standards as MSZ EN standards. Market surveillance in Hungary is conducted by MKEH (Magyar Kereskedelmi Engedélyezési Hivatal) and sector-specific authorities.Directive 2014/35/EU (LVD) Directive 2014/30/EU (EMCD) Directive 2014/53/EU (RED) EN 61851-1 (AC EV charging) EN IEC 61851-21-2 (EMC for off-board EV chargers) EN 55032 / EN 55035 (EMC emissions/immunity) |
Chinese manufacturers must obtain CE marking via EU-recognised conformity assessment routes (self-declaration under harmonised EN standards or notified-body involvement for certain RED equipment). CCC certification is not recognised in Hungary/EU and does not substitute for CE. Manufacturers must generate EU-specific technical documentation, test reports referencing EN standards, and an EU Declaration of Conformity — none of which are produced as part of the CCC process. In Hungary, documentation may need to be available in Hungarian on request from MKEH during market surveillance inspections.[INFORMATIONAL] CE marking is mandatory before placing EV chargers on the Hungarian/EU market. CCC does not substitute for CE. Manufacturers must independently build EU technical files and, for wireless-enabled chargers, ensure RED compliance where applicable. Harmonised EN standards may support presumption of conformity but are not the mandatory legal obligation themselves. Hungarian-language documentation may be required by MKEH during market surveillance. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| EU Declaration of Conformity (DoC) and Technical File — Hungary | Under the Chinese CCC regime, the equivalent documentary output is the CCC certificate issued by the designated certification body, accompanied by type-test reports. There is no manufacturer self-declaration equivalent to the EU DoC; the certificate is issued by a third party. Post-certificate, manufacturers must maintain a production consistency system audited periodically by the CAB.CNCA-C25-01:2024 (CCC implementation rules for EV charging equipment — effective 1 March 2025, supersedes any prior voluntary-only scheme; issued CNCA Announcement No. 25/2024) Measures for the Administration of Compulsory Product Certification (SAMR 2020) |
Before placing a product on the Hungarian/EU market, the manufacturer (or its EU authorised representative) must draw up an EU Declaration of Conformity (DoC) listing all applicable directives and the harmonised standards applied, and must compile and retain a technical file for at least 10 years. The DoC must be made available to market surveillance authorities (including MKEH in Hungary) on request. Requirements are set out in each applicable directive (LVD Art. 15, EMCD Art. 14, RED Art. 19) and in Decision 768/2008/EC (modular conformity assessment).Directive 2014/35/EU Art. 15 (LVD DoC) Directive 2014/30/EU Art. 14 (EMCD DoC) Directive 2014/53/EU Art. 19 (RED DoC) Decision 768/2008/EC (modular conformity assessment framework) |
Chinese manufacturers exporting to Hungary/EU must create an EU-format DoC from scratch — listing each applicable EU directive, the specific harmonised standards applied, the manufacturer's name and address (or EU authorised representative's), and a traceable signatory. The CCC certificate neither replaces nor simplifies this; test data generated for CCC may be re-used only if it was produced against equivalent EN test methods, which requires engineering review. MKEH in Hungary may request documentation in Hungarian during market surveillance; manufacturers should ensure key technical summaries are translatable.[INFORMATIONAL] An EU DoC is a legal document that manufacturers or their EU representatives must sign and retain. It cannot be delegated to a test lab or certification body. Chinese exporters with only CCC documentation must draft the DoC in-house or engage an EU-based compliance consultant. Hungarian-language documentation availability is advisable for MKEH market surveillance readiness. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| EU Economic Operator / Authorised Representative — Regulation (EU) 2019/1020 — Hungary | China has no direct regulatory equivalent requiring a domestic responsible operator for export-bound products. Chinese manufacturers exporting abroad appoint foreign distributors or agents commercially, but there is no statutory requirement to designate an EU-resident legal representative responsible for CE compliance and market surveillance cooperation.N/A — no direct Chinese equivalent | Regulation (EU) 2019/1020 on market surveillance and product compliance requires that products placed on the EU market have an identifiable 'responsible economic operator' established in the EU. For products manufactured outside the EU, this means the importer or, if no EU importer, a mandated EU authorised representative (Art. 4). The responsible operator must: hold the DoC and technical file or ensure they are accessible; register in RAPEX/ICSMS where required; cooperate with market surveillance authorities including MKEH in Hungary; and take corrective action if a product is non-compliant. This obligation applies to EV chargers as CE-marked electrical equipment.Regulation (EU) 2019/1020, Art. 4 (responsible economic operator) Regulation (EU) 2019/1020, Art. 5 (obligations of importers) Regulation (EU) 2019/1020, Art. 8 (market surveillance obligations) |
This is a structural gap with no Chinese regulatory analogue. A Chinese EV charger manufacturer shipping directly to Hungarian customers (e.g., via e-commerce or direct B2B) must appoint an EU-established authorised representative before the first unit enters the Hungarian market. Without one, the product cannot legally be placed on the EU market under Regulation 2019/1020. The AR must be named on the product label or documentation. The AR must be able to cooperate with MKEH and other EU market surveillance authorities in the official language(s) of the relevant member state.[INFORMATIONAL] Chinese manufacturers without an EU importer must appoint an EU-established authorised representative. This is a hard legal gate under Regulation 2019/1020 — no EU AR means the product cannot lawfully enter the Hungarian/EU market, regardless of CE marking status. The AR must be capable of cooperating with MKEH in Hungarian when required. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| AFIR — Public EV Charging: Ad-hoc Payment, Interoperability, TEN-T Obligations and Technical Specifications — Hungary | China has no direct regulatory equivalent to AFIR's functional public-charging requirements. The closest standards are GB/T 34658 (interoperability requirements) and NB/T 33025 (communication protocols for EV charging), plus GB/T 27930 (DC charging communication). Chinese public chargers are increasingly connected via operator platforms (e.g., State Grid, Southern Grid, TELD), but AFIR-equivalent ad-hoc payment, data-access, smart recharging and EU connector requirements are not mandated by Chinese regulation.GB/T 34658-2017 (EV conductive charging interoperability requirements) NB/T 33025-2016 (EV DC charging communication protocol — EVSE side) GB/T 27930-2015 (communication protocol between off-board charger and BMS) |
Regulation (EU) 2023/1804 (AFIR) mandates functional requirements for publicly accessible EV recharging points. AFIR-confirmed requirements include: (1) ad-hoc charging without a subscription or contract, with the payment instruments required by AFIR for relevant publicly accessible recharging points; (2) transparent price information before a charging session starts; (3) digital connectivity, smart recharging capability, static data and dynamic data obligations for publicly accessible infrastructure; (4) AFIR Annex II technical specifications for publicly accessible recharging points, including Type 2 for normal-power AC recharging points and Combo 2 for high-power DC recharging points; and (5) TEN-T deployment targets for recharging pools. Hungary is traversed by major TEN-T corridors (Orient/East-Med, Rhine-Danube, Mediterranean), creating specific AFIR deployment obligations for CPOs operating charging infrastructure along these routes. AFIR replaces Directive 2014/94/EU (AFID).Regulation (EU) 2023/1804 (AFIR) — full text AFIR Annex II (technical specifications for publicly accessible recharging points) TEN-T Regulation (EU) 2024/1679 (revised TEN-T framework) |
Significant functional gap for public charging deployments in Hungary: (1) ad-hoc payment functionality may need to be added for EU/Hungary public deployments; (2) digital connectivity, smart recharging, data-access and roaming/data exchange obligations may differ from proprietary Chinese operator platforms; (3) AFIR Annex II connector specifications differ from Chinese GB/T connector practice; (4) Hungary's TEN-T corridor obligations (Orient/East-Med, Rhine-Danube, Mediterranean corridors) create specific deployment-timeline requirements for CPOs along motorways and major transit routes. These AFIR requirements apply primarily to charge point operators (CPOs), but hardware and software capability must be available at installation.[INFORMATIONAL] AFIR introduces functional requirements for publicly accessible charging points in Hungary, including ad-hoc payment, price transparency, digital connectivity, smart recharging, data obligations and Annex II connector specifications. Hungarian TEN-T corridor obligations add deployment urgency for CPOs on major transit routes. Chinese charger hardware intended for Hungary public deployment must be verified for AFIR compliance before installation. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| OCPP, EMC, Radio Modules, and Power Quality — Hungary | China DC fast chargers commonly use GB/T 27930-2023 CAN communication between the off-board charger and vehicle BMS. This is not OCPP back-office communication and is not the CCS2 communication direction. China-market chargers may also include China-specific payment (WeChat Pay, Alipay), SIM-card integration, Chinese cloud-operator platforms, and Mandarin-language UI that need full reconfiguration for Hungarian operators, roaming, Hungarian-language interface, HUF currency, and EU data-protection requirements (GDPR).GB/T 27930-2023 GB/T 18487.1-2023 China operator-specific back-office protocols (WeChat Pay, Alipay, State Grid/Southern Grid platforms) China radio module approvals (SRRC — State Radio Regulation of China) where applicable |
Networked EV chargers in Hungary should be specified for OCPP back-office interoperability where a charge-point operator, corporate fleet, public-sector project, motorway service area, or MEKH/DSO-linked programme requires remote monitoring, billing, diagnostics, or load management. Electrical and electronic emissions and immunity evidence should align with IEC 61000 EMC and power-quality standards and the EU EMC Directive 2014/30/EU. Cellular, Wi-Fi, RFID, payment, or smart-metering modules may trigger additional radio spectrum, cybersecurity, and data-interface requirements under RED 2014/53/EU and Hungarian national implementation. Hungary's high density of automotive OEM plants (BMW Debrecen, Mercedes Kecskemét, Stellantis Esztergom, Suzuki Esztergom, Audi Győr) creates strong commercial demand for OCPP-compliant fleet and workplace charging, making OCPP interoperability a practical market requirement beyond regulatory mandate.OCPP — Open Charge Point Protocol (version 1.6 or 2.0.1 as commonly specified by Hungarian CPOs and EU smart charging programmes) Directive 2014/30/EU (EMC Directive) — CE marking requirement for EV chargers Directive 2014/53/EU (RED) — applicable where wireless communication modules are built in IEC 61000 series — electromagnetic compatibility and power quality IEC 61851-24 — digital communication between DC EV charging station and EV NMHH (Nemzeti Média- és Hírközlési Hatóság) — Hungarian National Media and Infocommunications Authority requirements for radio spectrum and communications equipment |
Exporters targeting Hungary must confirm the OCPP version (1.6 or 2.0.1 as required by the CPO), charge-point-management-system integration, remote diagnostics, load management, ad-hoc payment flow (bank card, contactless per AFIR), RFID or roaming, SIM or communications module approval path under RED and NMHH, and IEC 61000 EMC and power-quality reports for the final Hungarian configuration. For DC CCS2 products, GB/T 27930 must not be presented as the relevant communication evidence. Chinese-language UI and Chinese payment integrations must be replaced with Hungarian/EU-compatible alternatives. GDPR compliance for data collected by networked chargers (user payment data, session data) must be assessed for Hungarian/EU deployment.[INFORMATIONAL] Hungary-bound networked EV chargers should be validated for OCPP integration, IEC 61000 EMC and power quality, RED compliance for wireless modules with NMHH spectrum approval, EU-compatible payment flows per AFIR, Hungarian/EU-language UI, and GDPR-compliant data handling. GB/T 27930 alone does not satisfy OCPP, CCS2 communication, or back-office interoperability needs. Chinese payment and cloud integrations must be replaced for Hungarian deployment. | Hungarian Energy and Public Utility Regulatory Authority (MEKH)2026-06-15 · reference |
| Low Voltage Safety — EV Charging Equipment (General) — Hungary | China commonly references GB/T 18487.1-2015 (Electric vehicle conductive charging system — General requirements), which is technically aligned with IEC 61851-1 but incorporates national deviations. It is enforced under the GB framework administered by SAMR/SAC. GB/T 18487.1 testing and certification by a Chinese CNAS-accredited lab is NOT recognised as equivalent to EN IEC 61851-1 testing under the EU LVD conformity assessment pathway.GB/T 18487.1-2015 — Electric vehicle conductive charging system — General requirements (SAMR/SAC) | EV charging equipment placed on the Hungarian/EU market must comply with the Low Voltage Directive 2014/35/EU, ensuring it is designed and manufactured to be safe when correctly installed and maintained. Equipment must meet the Essential Safety Requirements (Annex I) covering protection against electric shock, insulation, overcurrent/overtemperature protection, and clearances. Harmonised standard EN IEC 61851-1:2019 (Mode 1–4 conductive charging, AC and DC, general requirements) provides a presumption of conformity. In Hungary, MSZT adopts harmonised standards as MSZ EN standards; market surveillance is conducted by MKEH and sector-specific authorities.Directive 2014/35/EU (Low Voltage Directive) EN IEC 61851-1:2019 — Electric vehicle conductive charging system — Part 1: General requirements |
Exporters should build an EU conformity file against the LVD essential safety requirements and may use EN IEC 61851-1:2019 testing as evidence for presumption of conformity. Existing Chinese GB/T 18487.1 test reports do not automatically substitute because scope, deviations, connector assumptions and documentation differ. A Notified Body is not mandatory for LVD; manufacturer self-declaration with a Technical File is the normal route. Documentation gap: EU Declaration of Conformity, CE marking, and user instructions available in Hungarian are all required for Hungarian market access.[INFORMATIONAL] CE marking under LVD 2014/35/EU is mandatory. EN IEC 61851-1:2019 is a voluntary harmonised standard that can grant presumption of conformity for general EV conductive charging; it is not the legal obligation itself. Chinese GB/T 18487.1 certification does not by itself satisfy the EU conformity assessment pathway; EU evidence against the LVD requirements is needed. Hungarian-language user instructions are required for the Hungarian market. | Hungarian Standards Institution (MSZT)2026-06-15 · reference |
| DC Charging Station Safety — EV Conductive Charging — Hungary | China's DC charging station domestic equivalent is GB/T 18487.3-2001 (AC/DC electric vehicle charging station — the only published Part 3 of the 18487 series). The current DC system standard is GB/T 18487.5-2024 (DC charging system for GB/T 20234.3 connector). The DC coupler standard is GB/T 20234.3-2023 (supports up to 1500 V / 800 A). CQC or CNAS certification to these Chinese standards is not accepted under the EU LVD CE marking pathway.GB/T 18487.3-2001 — Electric vehicle conductive charging system — AC/DC electric vehicle charging station (only published edition; no 2015 revision exists) GB/T 18487.5-2024 — Electric vehicle conductive charging system — Part 5: DC charging system for GB/T 20234.3 (current DC system standard) GB/T 20234.3-2023 — Connection set for conductive charging of electric vehicles — Part 3: DC charging coupler (supersedes 2015 edition) |
DC charging stations (Mode 4, off-board chargers) placed on the Hungarian/EU market must comply with the Low Voltage Directive 2014/35/EU where within scope. EN IEC 61851-23:2023 (Electric vehicle conductive charging system — Part 23: DC EV charging station) is a current product standard that may be used as technical evidence and, where cited as harmonised, gives presumption of conformity; it is not itself the mandatory legal obligation. Key technical topics include isolation monitoring, interlock systems, control pilot functions, maximum voltage/current ratings, and communication protocols for DC supply. Hungary's automotive OEM environment creates demand for high-power DC stations (up to 350 kW) compatible with latest vehicle platforms.EN IEC 61851-23:2023 — Electric vehicle conductive charging system — Part 23: DC EV charging station (current edition, supersedes 2014) Directive 2014/35/EU (Low Voltage Directive) |
DC charging stations exported to Hungary should be assessed against the LVD essential safety requirements and may use EN IEC 61851-23:2023 testing as presumption-of-conformity evidence where applicable. Particular attention is needed for: (1) CCS2 (Combined Charging System Type 2) connector compliance vs. Chinese GB/T connector; (2) ISO 15118 / DIN 70121 communication protocol compatibility (required by automotive OEMs in Hungary for smart charging); (3) high-power station design (up to 350 kW) thermal management for Hungary's continental climate (-20°C to +40°C range); and (4) Hungarian-language safety labels, installation manuals, and operator documentation.[INFORMATIONAL] DC charging stations require CE marking under the applicable EU legislation, including LVD where in scope. EN IEC 61851-23:2023 is a voluntary product standard used as technical evidence or presumption-of-conformity support where harmonised; it is not mandatory in itself. Chinese GB/T 18487.3 certification is not accepted as an EU conformity assessment substitute. A significant hardware gap exists where Chinese DC stations use GB/T connectors incompatible with EU CCS2 practice. Hungarian automotive OEM clients additionally require ISO 15118 smart-charging communication capability. | Hungarian Standards Institution (MSZT)2026-06-15 · reference |
| Electrical Installation Safety — EV Charging in Buildings (IEC 60364-7-722) — Hungary | China addresses EV charging installation primarily through GB 50966-2014 (Code for design of electric vehicle charging station) and GB/T 51313-2018 (Technical standard for electric vehicle charging infrastructure), administered by the Ministry of Housing and Urban-Rural Development (MOHURD). These cover site design and installation but differ from IEC 60364-7-722 in RCD type requirements, earthing system assumptions (TN-S vs. Chinese practice), and load management protocols. Chinese installation documentation is not accepted as evidence of compliance with Hungarian/EU member-state installation standards.GB 50966-2014 — Code for design of electric vehicle charging station (MOHURD) (confirmed to exist; enforced by MOHURD/MIIT) GB/T 51313-2018 — Technical standard for electric vehicle charging infrastructure (confirmed to exist; enforced by MOHURD/MIIT) |
Hungarian member-state electrical installation law and DSO/installer rules govern the building-side circuits supplying EV charging points. IEC 60364-7-722 / HD 60364-7-722 provide the commonly adopted technical installation route covering protective measures (RCD type B or A+DC detection), wiring, earthing, and load management. These standards apply to the building-side installation infrastructure, not the charger product itself, but exported EV chargers should be compatible with these installation requirements so they can be accepted by Hungarian installers, DSOs, and building inspectors. Hungary uses a TN-C-S earthing system as standard, consistent with general EU practice.IEC 60364-7-722:2018 — Low-voltage electrical installations — Part 7-722: Requirements for special installations or locations — Supply of electric vehicles HD 60364-7-722 (CENELEC harmonised document, adopted by Hungary via MSZT as MSZ HD 60364-7-722) Hungarian electrical installation regulations and building codes administered by relevant national authorities |
IEC 60364-7-722 / HD 60364-7-722 / MSZ HD 60364-7-722 are installation standards — they govern fixed wiring and protection devices at the building side, not the charger product itself. However, exported EV chargers should declare compatibility with Type B RCDs or incorporate internal DC fault protection to allow Type A RCDs under Hungarian/EU installation practice. A charger that requires installation conditions not achievable under Hungarian electrical codes will fail building inspection. Chinese charger datasheets often omit compatibility statements expected by Hungarian installers and DSOs. Hungarian-language installation instructions and wiring diagrams are expected by local installers.[INFORMATIONAL] IEC 60364-7-722 / HD 60364-7-722 / MSZ HD 60364-7-722 govern building-side installation practice as adopted through Hungarian national rules. EV chargers exported to Hungary should be compatible with the RCD and earthing requirements expected by installers and DSOs. This is distinct from product-level CE marking under LVD, but non-compatibility can block building inspection sign-off. Chinese installation standards (GB 50966 / GB/T 51313) are not substitutes. Hungarian-language installation instructions are expected by local installers and building inspectors. | Hungarian Standards Institution (MSZT)2026-06-15 · reference |
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- Hungarian Energy and Public Utility Regulatory Authority (MEKH) · accessed 2026-06-15 · reference · used in 9 rows
- Hungarian Standards Institution (MSZT) · accessed 2026-06-15 · reference · used in 3 rows