{"id":2396,"date":"2026-11-15T02:45:07","date_gmt":"2026-11-15T02:45:07","guid":{"rendered":"https:\/\/huadaenergy.com\/ccs2-dc-fast-charger-2026\/"},"modified":"2026-11-15T02:45:12","modified_gmt":"2026-11-15T02:45:12","slug":"chargeur-rapide-dc-ccs2-2026","status":"publish","type":"post","link":"https:\/\/huadaenergy.com\/fr\/chargeur-rapide-dc-ccs2-2026\/","title":{"rendered":"Chargeur rapide DC JS-DC CCS2 : R\u00e8gles AFIR 2027 et CRA"},"content":{"rendered":"

For a charging-network operator, EPC contractor or distributor buying a CCS2 DC fast charger<\/strong> in late 2026, the power rating is no longer the decisive document. AFIR raises the minimum TEN-T recharging pool to 600 kW by 31 December 2027, and the EU Cyber Resilience Act (CRA) has required vulnerability reporting for connected products since 11 September 2026. The huadaenergy JS-DC is listed at 60-240 kW with 200-1000 V DC output, IP55 \/ IK10 enclosure and CCS2, CCS1, CHAdeMO or GB\/T connectors. This guide covers those rules, the standards the product page cites and the documents to request.<\/p>\n

\"Original
Application scene: a solar-canopy DC fast charging hub with a buffer battery cabinet. Original illustration by huadaenergy, no third-party branding.<\/figcaption><\/figure>\n

What Is a CCS2 DC Fast Charger?<\/h2>\n

A CCS2 DC fast charger converts three-phase AC grid power into regulated DC inside the cabinet and delivers it straight to the battery, bypassing the onboard AC charger. That is why a 60-240 kW unit adds range in minutes: the vehicle’s own 7-22 kW rectifier is no longer the bottleneck. The huadaenergy JS-DC DC fast charging station<\/a> serves public networks, parking, highway areas and fleet depots.<\/p>\n

How the AC-to-DC conversion works<\/h3>\n

The JS-DC accepts three-phase 260-530 Vac at 50\/60 Hz and outputs 200-1000 Vdc at 0-200 Adc, per the product page spec table. Internal modules rectify the supply while the vehicle negotiates voltage and current over the CCS2 control pilot. A 1000 V ceiling covers 400 V and 800 V platforms.<\/p>\n

Connector options by destination market<\/h3>\n

The page lists CCS2 for Europe, CCS1 for North America, CHAdeMO for Japan and GB\/T for China, with single or dual ports per order. Guns and firmware are set before shipment, so state the market in the RFQ.<\/p>\n

\"huadaenergy
The huadaenergy JS-DC, shown with dual charging ports. Image: huadaenergy.com product page.<\/figcaption><\/figure>\n

Why 2026 Changed the Buying Criteria<\/h2>\n

Two EU rules tightening in 2026-2027 turn documented conformity and cybersecurity into purchase conditions while installed capacity keeps growing. Buyers now verify power, payment behaviour and software support before ordering a cabinet.<\/p>\n

AFIR 2027: 600 kW pools and per-kWh pricing<\/h3>\n

Regulation (EU) 2023\/1804 (AFIR) required 400 kW pools every 60 km per direction on the TEN-T core network by 31 December 2025, with one 150 kW point; by 31 December 2027 each pool must deliver 600 kW with two 150 kW points, and half the comprehensive network needs 300 kW pools (European Parliament, 2023; ZEVI, 2026). Points of 50 kW and above must price by kWh, display prices on site and accept ad-hoc card payment. Every JS-DC variant exceeds that threshold, so payment hardware and backend protocol belong in the specification.<\/p>\n

AFIR minimum TEN-T core recharging pool power<\/text>Source: Regulation (EU) 2023\/1804, European Parliament 2023<\/text>400 kW<\/text>600 kW<\/text>31 Dec 2025<\/text>31 Dec 2027<\/text>one 150 kW point<\/text>two 150 kW points<\/text><\/svg>
AFIR core-network pool requirements step up from 400 kW to 600 kW between the 2025 and 2027 deadlines. Original diagram based on Regulation (EU) 2023\/1804.<\/figcaption><\/figure>\n

EU CRA: connected chargers are in scope<\/h3>\n

Regulation (EU) 2024\/2847 (CRA) has required reporting of actively exploited vulnerabilities and severe incidents since 11 September 2026, with an early warning within 24 hours and full notification within 72 hours via the ENISA platform; main obligations apply from 11 December 2027 (European Commission, 2026). The JS-DC ships with Ethernet, WiFi, 4G, OTA updates, RFID, QR and VIN authentication, so it is a product with digital elements. Request the vulnerability process, security-update support period and software bill of materials alongside electrical test reports.<\/p>\n

Market pull: seven million public points<\/h3>\n

IEA Global EV Outlook 2026 estimates the global public charging stock above 7 million points at end-2025 after nearly 1.8 million additions, up over 33 percent; fast and ultra-fast points rose 40 percent to about 2.2 million (IEA, 2026). EAFO counted 1,157,551 EU27 public points in August 2026 against 632,423 at end-2023 (EAFO, 2026). Average public power stays near 50 kW.<\/p>\n

Certifications Explained: What the JS-DC Product Page Actually Lists<\/h2>\n

The JS-DC page cites EN 61851-1, -21 and -22, UL 2202, UL 2231 and CSA C22.2 counterparts, but publishes no certificate numbers, so treat the list as a conformance checklist and request the underlying documents. Citing a standard and holding a third-party certification mark are different claims in a tender.<\/p>\n

European reference: the EN 61851 series<\/h3>\n

The page says the platform complies with EN 61851-1 \/ -21 \/ -22 and names the 2001 editions. Those predate the current framework: IEC 61851-1:2017, adopted as EN IEC 61851-1:2019, replaced the 2010 edition and absorbed IEC 61851-22 content, while EMC moved to IEC 61851-21-2 (national standards bodies, 2019-2020). Ask which edition the test report follows and request the EU declaration of conformity.<\/p>\n

North American reference: UL 2202, UL 2231 and CSA C22.2<\/h3>\n

The spec table lists UL 2202 and UL 2231 with CSA-C22.2 No. 107.1-16 and CSA C22.2 No. 281. ANSI\/UL 2202 covers AC-to-DC charging equipment, while ANSI\/UL 2231-1 and -2 cover personnel protection for EV supply circuits (UL Solutions, 2026). For North America, request the NRTL listing number, model coverage and permitted field configurations; a module listing does not automatically cover the complete dispenser.<\/p>\n

IP55 \/ IK10 and what they do not cover<\/h3>\n

IP55 denotes dust-protected, water-jet-resistant enclosure performance under IEC 60529, and IK10 impact protection under IEC 62262. Both are enclosure ratings; neither evidences electrical safety, EMC, metering, payment compliance or cybersecurity.<\/p>\n\n\n\n\n\n\n\n\n\n\n
Reference on the product page<\/th>\nWhat it covers<\/th>\nWhat it does not cover<\/th>\nDocument to request<\/th>\n<\/tr>\n<\/thead>\n
EN 61851-1 \/ -21 \/ -22 (2001 editions named in spec table)<\/td>\nEV conductive charging system safety and EMC framework<\/td>\nNo evidence of a third-party certificate<\/td>\nTest report naming the current edition; EU declaration of conformity<\/td>\n<\/tr>\n
UL 2202<\/td>\nAC-to-DC EV charging system equipment safety<\/td>\nNot a certification mark by itself<\/td>\nNRTL listing number and model coverage<\/td>\n<\/tr>\n
UL 2231, CSA C22.2 No. 281<\/td>\nPersonnel protection systems for EV supply circuits<\/td>\nDoes not replace an equipment-level listing<\/td>\nProtection-system evaluation within the listing scope<\/td>\n<\/tr>\n
CSA C22.2 No. 107.1-16<\/td>\nCanadian counterpart equipment requirements<\/td>\nDoes not cover field installation approval<\/td>\nCanadian certification evidence and local AHJ acceptance<\/td>\n<\/tr>\n
IP55 \/ IK10<\/td>\nEnclosure ingress and impact ratings (IEC 60529 \/ IEC 62262)<\/td>\nNo electrical, EMC, metering or cyber scope<\/td>\nEnclosure test records<\/td>\n<\/tr>\n
CRA (EU) 2024\/2847<\/td>\nCybersecurity duties for connected products from 2026 and 2027<\/td>\nNot a product certificate shown on the page<\/td>\nVulnerability process, update support period, software bill of materials<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

Key Specifications and What They Mean<\/h2>\n

The JS-DC spec table lists 60, 120, 160 and 240 kW, 200-1000 V DC output, 0-200 A DC and three-phase 260-530 Vac at 50\/60 Hz. These figures set vehicle compatibility, cable sizing and grid connection.<\/p>\n\n\n\n\n\n\n\n\n\n\n\n\n\n
Parameter<\/th>\nValue on the product page<\/th>\nWhat it means for a buyer<\/th>\n<\/tr>\n<\/thead>\n
Rated power<\/td>\n60 \/ 120 \/ 160 \/ 240 kW (spec table)<\/td>\nMatch bay power to grid capacity and AFIR pool targets<\/td>\n<\/tr>\n
AC input<\/td>\n3-phase 260-530 Vac, 50\/60 Hz<\/td>\nStandard commercial supply in most markets<\/td>\n<\/tr>\n
DC output voltage<\/td>\n200-1000 Vdc<\/td>\nCovers 400 V and 800 V vehicle platforms<\/td>\n<\/tr>\n
DC output current<\/td>\n0-200 Adc<\/td>\nSets cable, connector and thermal limits<\/td>\n<\/tr>\n
Connectors<\/td>\nCCS2 \/ CCS1 \/ CHAdeMO \/ GB\/T, single or dual port<\/td>\nSpecify per destination market<\/td>\n<\/tr>\n
Protection<\/td>\nIP55 \/ IK10<\/td>\nOutdoor dust, water-jet and impact resistance<\/td>\n<\/tr>\n
Dimensions<\/td>\n650 x 700 x 1700 mm<\/td>\nPlan bollards, cable sweep and accessibility clearances<\/td>\n<\/tr>\n
Weight<\/td>\n230-260 kg<\/td>\nFoundation and handling requirements<\/td>\n<\/tr>\n
Networking<\/td>\nEthernet \/ WiFi \/ 4G<\/td>\nRemote status, pricing and OTA; also brings CRA scope<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

The 200-1000 V window and 800 V platforms<\/h3>\n

A 1000 V ceiling covers 400 V and 800 V passenger EVs, while the 200 V floor supports lower-voltage commercial vehicles. Check the vehicle’s maximum charge voltage against the cabinet range, not nominal pack voltage. With 0-200 Adc, a 240 kW unit reaches rated power only near the upper voltage region, so power tapers at low pack voltages.<\/p>\n

Power variants and footprint<\/h3>\n

The spec table lists 60\/120\/160\/240 kW, while the overview and FAQ describe 30\/60\/120 kW; the lists disagree, so confirm the rated model on the quotation. The table gives 650 x 700 x 1700 mm and 230-260 kg, while the overview quotes a 70 x 170 cm footprint. Ethernet, WiFi and 4G handle status, pricing and OTA updates.<\/p>\n

Real-World Applications<\/h2>\n

A 60-240 kW DC fast charger fits four site types: highway service areas, commercial parking, fleet depots and solar-plus-storage hubs. Power, dwell time and grid capacity decide which applies.<\/p>\n

Highway service areas and TEN-T corridors<\/h3>\n

Corridor sites need high power per bay and short dwell times. Two 240 kW cabinets can form the 600 kW pool AFIR requires on the TEN-T core network by end-2027. The utility connection and transformer upgrade often set the real schedule.<\/p>\n

Commercial parking and fleet depots<\/h3>\n

Malls, hotels and office car parks typically run 60-120 kW units with 30-90 minute dwell times, while logistics fleets return on predictable overnight schedules. Scheduled charging and per-kWh tariffs steer sessions off-peak, and VIN identification removes manual check-in.<\/p>\n

Solar-plus-storage charging hubs<\/h3>\n

Where the grid connection is constrained, a buffer battery charges slowly and discharges into the vehicle. huadaenergy lists a 193 kWh off-grid EV charging station<\/a>, 100 kW \/ 215 kWh<\/a> and 150 kW \/ 315 kWh<\/a> cabinets and a 250 kW \/ 500 kWh containerised ESS<\/a> alongside the JS-DC. The JS-DC has no PV input, so solar couples through separate equipment.<\/p>\n

\"Ground-mounted
Ground-mounted PV array of the type paired with a buffer battery at a constrained-grid charging hub. Photo: Pexels photo 33537433, Pexels License.<\/figcaption><\/figure>\n

CCS2 DC Fast Charger vs AC Charging and Lower-Power DC<\/h2>\n

A DC fast charger bypasses the onboard AC charger, so its output is not capped by the 7-22 kW rectifier; an AC post cannot deliver DC to the battery directly. The table below is illustrative and based on assumptions, not a performance commitment.<\/p>\n

Where the time difference comes from<\/h3>\n

For a 60 kWh battery charged from 10 to 80 percent, about 42 kWh must be delivered: roughly 3.8 hours at a sustained 11 kW AC rate, or 21 minutes at 120 kW DC. These figures assume constant power and no derating; real sessions take longer.<\/p>\n\n\n\n\n\n\n\n\n
Charging method<\/th>\nTypical sustained power<\/th>\nTime to deliver 42 kWh (illustrative)<\/th>\nLimiting factor<\/th>\n<\/tr>\n<\/thead>\n
AC on-board charger<\/td>\n7-22 kW<\/td>\nAbout 1.9-6.0 h<\/td>\nVehicle’s onboard rectifier<\/td>\n<\/tr>\n
DC fast charger, 60 kW<\/td>\nUp to 60 kW<\/td>\nAbout 42 min<\/td>\nVehicle acceptance and cable current<\/td>\n<\/tr>\n
DC fast charger, 120 kW<\/td>\nUp to 120 kW<\/td>\nAbout 21 min<\/td>\nCharging curve taper and cell temperature<\/td>\n<\/tr>\n
DC fast charger, 240 kW<\/td>\nUp to 240 kW<\/td>\nAbout 11 min<\/td>\nVehicle platform and grid connection<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n
Illustrative time to deliver 42 kWh (10 to 80 percent of a 60 kWh pack)<\/text>AC 11 kW<\/text>DC 60 kW<\/text>DC 120 kW<\/text>DC 240 kW<\/text>3.8 h<\/text>42 min<\/text>21 min<\/text>11 min<\/text>Based on assumptions: constant power, no tapering or conversion losses. Original diagram.<\/text><\/svg>
Illustrative session-time comparison. Based on assumptions; actual results vary by vehicle and site conditions.<\/figcaption><\/figure>\n

How to Choose the Right CCS2 DC Fast Charger<\/h2>\n

Select on five verifiable items: grid connection, connector standard, output voltage and current window, AFIR payment and pricing compliance, and the conformity documentation package. A quotation answering those five is comparable across suppliers.<\/p>\n

Grid and site checks<\/h3>\n
    \n
  • Confirm 260-530 Vac three-phase supply and the utility’s approved capacity before choosing 160 kW or 240 kW.<\/li>\n
  • State connector, port count and cable length per order.<\/li>\n
  • Verify footprint, 230-260 kg mass and accessibility clearances.<\/li>\n<\/ul>\n

    Documentation and cyber-readiness checklist<\/h3>\n
      \n
    • Test reports naming the standard edition, plus the EU declaration of conformity where CE is claimed.<\/li>\n
    • For North America, the NRTL listing number and model coverage.<\/li>\n
    • Vulnerability process, update support period and software bill of materials for the CRA.<\/li>\n
    • Payment terminal evidence and per-kWh tariff display.<\/li>\n
    • Factory test records and warranty terms.<\/li>\n<\/ul>\n

      Frequently Asked Questions<\/h2>\n

      What is the difference between CCS2 and CCS1?<\/h3>\n

      CCS2 is the European combined charging standard and CCS1 the North American variant; the inlets are not interchangeable. The JS-DC page lists both, plus CHAdeMO and GB\/T, per order. State the market in the RFQ.<\/p>\n

      How fast can a 120 kW CCS2 DC fast charger charge an EV?<\/h3>\n

      A 120 kW unit can add roughly 200-400 km of range in 20-30 minutes, according to the product page FAQ, provided the vehicle accepts that power. For a 60 kWh pack from 10 to 80 percent, 42 kWh at 120 kW is about 21 minutes before tapering, based on assumptions. Actual time depends on cell temperature and the charging curve.<\/p>\n

      Does the JS-DC have CE or UL certification?<\/h3>\n

      The product page cites EN 61851, UL 2202, UL 2231 and CSA C22.2 standards, but publishes no certificate numbers or marks. Treat those as standards the design is stated to follow, and request test reports, the EU declaration of conformity and any NRTL listing.<\/p>\n

      Do I need a battery buffer for a DC fast charging site?<\/h3>\n

      A buffer battery helps when the grid connection cannot supply peak power or demand charges dominate the bill. huadaenergy lists cabinet and containerised BESS alongside the JS-DC. The JS-DC has no PV input, so solar or storage couples through separate equipment.<\/p>\n

      Can I manage multiple stations remotely?<\/h3>\n

      Yes. Ethernet, WiFi and 4G link each unit to the backend for status, pricing control, OTA updates and authentication, so one operator can manage a network from one dashboard. Since CRA reporting duties applied from September 2026, confirm the security-update support period.<\/p>\n

      Which standards should I ask for before placing an order?<\/h3>\n

      Ask for a test report against the current EN IEC 61851-1 edition, the IEC 61851-21-2 EMC report, any NRTL listing to UL 2202 and UL 2231, and IP55 \/ IK10 records. Add the EU declaration of conformity and CRA vulnerability documentation. Confirm the rated model, since the page lists two power ranges.<\/p>\n

      About huadaenergy<\/h2>\n

      huadaenergy (Huizhou Huada Technology Co., Ltd.) manufactures from Huizhou Daya Bay: portable power stations, lead-acid replacement LiFePO4 batteries, golf cart batteries, home storage, commercial cabinets and containerised BESS, plus DC fast chargers. Each JS-DC undergoes full-function testing and multi-round inspection before export packing; OEM\/ODM covers power ratings, connectors, branding and backend protocols. Send your market and rated power to request a quotation<\/a>.<\/p>\n

      Last updated: 2026-11-15<\/em><\/p>\n