E-E-A-T Certified Supplier

Best EV Station Manufacturer & Supplier

High-Power DC Charger Piles, Advanced Liquid-Cooled Systems, and Integrated BESS Solutions Engineered for Global Fleets, Operators, and Electric Mobility Infrastructure.

Welcome to MIDA GROUP

A vertically integrated global leader in new energy cable systems, fast-charging hardware, and power modules.

Shanghai Mida Cable Group Ltd. operates dynamically through its dedicated, wholly owned subsidiaries: Shanghai Mida EV Power Co., Ltd., Shenzhen Mida EV Power Co., Ltd., and Shanghai Mida New Energy Co., Ltd. This tripartite structure enables us to maintain absolute quality control across every layer of the electric vehicle infrastructure value chain.

Mida Cable manufactures an exhaustive portfolio of high-durability EV charging cables. This includes robust 16A–80A J1772 (Type 1) cables, highly conductive 16A–63A IEC 62196-2 Type 2 cables, and liquid-cooled DC fast charging cables built to handle harsh outdoor environments: CCS1 (80A–500A), CCS2 (125A–1000A), CHAdeMO (125A–300A), GBT (200A–1000A), and NACS connectors (250A–600A).

MIDA EV Power focus on structural design and integration, yielding a versatile lineup of charging systems. Our offerings range from 7kW–50kW mobile chargers for emergency recovery to 3.6kW–7.2kW portable DC fast units, 20kW–50kW wall-mounted DC chargers, 60kW–480kW floor-standing stations, and industrial-scale 360kW–1440kW split-type DC fast charging architectures.

MIDA New Energy sits at the heart of our technical R&D, specializing in modular power units. We produce 20kW–60kW standard air-cooled modules, 40kW–125kW liquid-cooled modules with exceptional thermal efficiency, 30kW–62.5kW bidirectional charging modules, and advanced 20kW–45kW V2G (Vehicle-to-Grid) power modules that support intelligent grid balancing.

MIDA EV Power logo
Advanced Technology Divisions

Engineered to exceed Tier-1 CPO standards, our product divisions cover the entire EV charging ecosystem.

AC EV Chargers

Type 1 & Type 2

Wall-mounted and mobile AC systems ranging from 7kW to 80kW, certified for private residential and commercial destination operations.

AC EV Charger
AC EV Charger Module >

DC Charger Stations

60kW–1440kW

Ultra-fast high-capacity charging cabinets equipped with dynamic power routing, low noise, and active liquid cooling systems.

DC Charger Station
DC Charger Station Module >

BESS Charging

60kWh–2MkWh

Battery Energy Storage Systems configured with integrated EV chargers, designed to deliver high-current charging off-grid or in grid-limited locations.

BESS Charging Station
BESS Charging Station Module >
High-Efficiency Power Metrics

Our industrial scaling delivers reliability, low lifecycle costs, and high performance across major international markets.

1500+ A
MCS Max Current Capacity
125 kW
Liquid Cooled Module Power
96.5%
Peak Conversion Efficiency
120+
Exported Countries & Regions

1. Global EV Infrastructure Megatrends (2025–2030)

The global electric vehicle charging ecosystem is transitioning from slow, overnight AC replenishment models to ultra-fast, megawatt-class DC architectures. Key technological developments include:

  • Megawatt Charging Systems (MCS): Emerging standardizations are pushing currents past 1000A at up to 1250V, designed primarily for heavy commercial transport, maritime vessels, and freight logistics fleets.
  • Liquid-Cooled Cable Infrastructure: By circulating environmentally safe cooling mediums inside the charging cable, manufacturers can reduce copper diameter by up to 50% while operating safely at sustained currents of 500A–1000A without overheating.
  • Active Power Allocation: Rather than allocating fixed, dedicated power to individual pillars, modern split-type power hubs utilize dynamic matrix switching to direct variable load capacity depending on the vehicle's State of Charge (SoC).
  • Bidirectional Grid Interaction (V2X & V2G): Charging hardware is evolving from simple consumption nodes into local power plants. Utilizing advanced bidirectional converter modules, parked vehicle fleets can inject energy back to the grid to stabilize local distribution networks.

2. Global B2B Procurement Priorities & Decision Vectors

CPOs, municipal authorities, logistics corporations, and commercial real estate buyers evaluate EV station suppliers based on four key operational pillars:

  • Total Cost of Ownership (TCO): Long-term efficiency, serviceability, and sub-component reliability far outweigh initial capital costs. Power module mean-time-between-failures (MTBF) and thermal management methods are major factors in total cost calculations.
  • Interoperability and Software Compliance: Station hardware must run seamlessly on diverse back-end management networks. High compliance with OCPP 1.6J and OCPP 2.0.1 (JSON) ensures smooth firmware integration, user authorization, and local billing processes.
  • Hardware Compliance and Certifications: Compliance with local legal standards like PTB MID (Germany), CE (Europe), UL 2202 (North America), KC (South Korea), and GB/T (China) is mandatory for grid integration and public operations.
  • Scalability via Modular Designs: Operators prefer scalable, split-type architectures where a central power cabinet feeds several compact user pillars. This design allows operators to upgrade power capabilities later by inserting modular power blocks into empty slots.

3. China Industry 4.0: Supply Chain Resilience & Production Advantage

Operating out of major technical hubs like Shenzhen and Shanghai, MIDA GROUP leverages China’s highly integrated industrial ecosystem to secure distinct supply chain advantages:

Through vertical integration, we process raw materials directly into finished units, handling copper cable drawing, polymer insulation extrusion, SMT PCB printing, structural steel cabinet fabrication, and high-load factory testing under one QA framework. This eliminates third-party component bottlenecks, reduces transit times, and allows us to quickly adapt to evolving international standards like NACS or CCS2.

Furthermore, our automated assembly facilities utilize advanced testing protocols to guarantee consistent calibration across high-load operations. Automated testing chambers simulate environmental extremes from -35°C to +55°C, ensuring that every shipped unit delivers stable performance right out of the box.

4. Localized Application Scenarios & Architectural Integration

EV charging equipment must perform reliably under varying geographic and environmental conditions:

  • High-Transit Highway Hubs: Requires ultra-fast liquid-cooled split charging hubs (360kW–1200kW) with multi-gun configurations. This setup helps reduce charge-queue latency on busy highways.
  • Municipal Bus & Commercial Heavy Duty Depots: Employs overhead automated pantographs (300kW–600kW) and split-type DC power cabinets. These systems automate fleet charging during short off-service windows.
  • Off-Grid Industrial Operations: In mining and remote construction sites, standard grid infrastructure is often unavailable. Deploying solar photovoltaic arrays coupled with high-capacity BESS containers and mobile DC fast-charging modules provides reliable off-grid power.
  • Retail Centers and Commercial Parking Lots: Uses floor-standing DC charging stations configured with high-brightness outdoor advertising LCD displays. This architecture offers local operators an additional advertising revenue stream alongside charge session fees.
Technical Specifications Directory

Detailed sub-component options, power configurations, and structural classifications.

EV Charging Power Module

  • 30kW to 80kW AC/DC charging modules
  • 40kW to 125kW Liquid-cooled modules
  • 20kW to 62.5kW Bidirectional converters
  • MPPT solar integrations & V2G solutions
Request Datasheet
EV Charging Power Module

DC Connectors & Cooling Units

  • 500A–600A liquid-cooled CCS1 & CCS2 cables
  • NACS, CHAdeMO & 1500A MCS plugs
  • Integrated & Split-type cooling units
  • Thermal monitoring & active safety shutdowns
Request Datasheet
DC Charging Connector & Liquid Cooling Unit

DC Fast Charger Stations

  • 7kW–60kW Mobile & Wall-mounted options
  • 60kW–480kW Standalone charging systems
  • Up to 1680kW liquid-cooled split layouts
  • Advertising screens and POS integrations
Request Datasheet
DC Fast Charger Station

BESS Charging Stations

  • 15kW–480kW Mobile BESS carts
  • 60kW–400kW Integrated storage units
  • Automatic charging robots
  • 800kWh–2000kWh solar microgrid systems
Request Datasheet
Energy Storage Charging Station
Corporate Insights & News

Technical analyses, fleet electrification strategies, and charging infrastructure reports.

e-bus pantograph dome advantages

What are the advantages of an e-bus pantograph dome?

Unlike traditional manual cable configurations, automatic pantograph structures support higher currents, reduce station foot-print, and ensure touch-free charging safety for municipal transit hubs.

Date: 26-07-12 Read Article
e-bus pantograph charging time

How long does it take to charge with an e-bus pantograph?

By delivering charge currents up to 1000A, pantographs can replenish transit bus batteries from 20% to 80% SoC within 10 to 20 minutes, maximizing route run-times.

Date: 26-07-12 Read Article
Pantograph installation guide

How to Install the Pantograph Up Charger System Dome

An in-depth look at civil engineering, structural steel framing, communications interfaces, and grid safety steps involved in installing bus pantographs.

Date: 26-07-12 Read Article
EV Charging Infrastructure FAQ

Answers to common technical, compliance, and integration questions from commercial buyers and charging operators.

1. What are the advantages of liquid-cooled systems for DC charging stations?
Liquid cooling systems circulate a specialized heat-transfer fluid through the internal power modules and charging cables. This active thermal control keeps the system running efficiently without power reduction (derating) even in high ambient temperatures (up to 50°C). Additionally, it allows for lighter, more flexible charging cables at high power ratings (360kW to 1000kW).
2. How does OCPP 2.0.1 compliance benefit Charge Point Operators (CPOs)?
Compared to older OCPP 1.6J protocols, OCPP 2.0.1 provides improved transactional security, advanced diagnostics, and simplified native support for ISO 15118 "Plug & Charge" features. It also enables smart grid load profiles, helping operators optimize charging schedules based on real-time grid prices.
3. What is the impact of V2G power modules on grid stability?
Vehicle-to-Grid (V2G) modules enable bidirectional power transfer. When energy demand peaks, parked vehicles can discharge stored power back into the grid, helping to stabilize grid frequencies and offering fleet operators a way to offset energy costs through peak-shaving programs.
4. How do split-type charging systems optimize station costs?
Split systems house the main power conversion electronics in a single central enclosure located away from the primary parking spaces, running simple cables to slim user satellites. This reduces the size of the equipment installed in parking spaces, minimizes noise at the point of charge, and allows for cost-effective power upgrades by adding modules to the central hub as demand grows.
5. Can MIDA GROUP chargers be integrated with on-site solar and battery storage (BESS)?
Yes. Our product range includes specialized DC-DC converter modules and MPPT units designed to directly integrate solar arrays and battery energy storage. This enables operators to set up microgrid stations that charge vehicles using clean solar energy without drawing high peak loads from the utility grid.
6. What certifications do your products carry for European and North American markets?
Our EV chargers, cables, and sub-components carry all major regional certifications, including CE, TUV, CB, and UKCA for Europe, as well as UL-listed profiles and NEMA ratings for North America, ensuring compliance with local grid safety codes.
MIDA EV Power factory manufacturing line