type 2 portable ev charger

Portable EV chargers sit in a strange middle ground. They look like a simple cable with a box in the middle, but in real life they decide whether you can charge at a friend’s house, in a rented parking space, or in a village with no public chargers at all. They are worth the money for some drivers and almost useless for others. The key is to see how a portable EV charger fits into your daily routine, not just its rated kilowatts.   1. Quick answer: when a portable EV chargers worth it? A portable EV charger is worth it if you often park near a normal outlet and need flexible, backup charging; it is not ideal as your only long-term charging solution because it is slow, outlet-limited and easy to misuse.       2. How portable EV chargers work and where they fit A portable EV charger is a Mode 2 or Mode 3 charging cable with built-in electronics. On one side there is a household or industrial plug, such as Schuko, CEE, NEMA or BS. In the middle there is a small control box that handles safety checks and communication with the vehicle. On the other side there is a vehicle connector (for example Type 1 or Type 2) that plugs into your car.   Three hard limits decide how fast it can charge: ·The circuit rating of the outlet (often 10–16 A at 220–240 V, or 15–20 A at 120 V). ·The maximum current the portable unit allows. ·The onboard charger limit of the vehicle.   In many homes this means 1.4–3.7 kW. That is enough to refill a daily commute overnight, but it is far from fast charging. Portable units are better understood as a flexible tool than a performance upgrade.   From the outlet to your battery, the process looks like this: 1. You plug the portable EV charger into a suitable outlet on a correctly rated circuit. 2. The control box checks ground connection, wiring, residual current and communication lines. 3. Once safety checks pass, it sends a signal to the vehicle to request a certain current. 4. The onboard charger in the vehicle decides how much current to accept. 5. Power flows through the cable and contacts, while the portable unit monitors temperature and leakage. 6. If anything goes wrong, the unit trips and stops the charge.   This is why the quality of the control box, cable and vehicle connector matters as much as the plug type. A cheap, badly designed device may skip protections or react slowly to faults.     3. When a portable EV charger makes sense 3.1 Situations where it is worth the money You get real value from a portable EV charger when at least one of these is true. ·You cannot install a fixed wallboxRenting, shared parking, no permission to add a new circuit, or you move often. A portable unit and a suitable outlet may be your only stable source of home charging. ·You use several parking locationsFor example, you split time between two homes, or you regularly park at a workplace with only standard sockets or CEE outlets. Carrying one portable EV charger is easier than installing two wallboxes. ·You need a reliable backupEven if you already have a wallbox, a portable EV charger gives you a plan B for power cuts, wallbox failures, or trips to relatives who do not have EV infrastructure. ·You drive modest daily mileageTypical commute under 60–80 km a day. A few kilowatts of overnight charging can cover this easily, so speed is less important than convenience. ·You run a small fleet or business with temporary parkingCar rental yards, pop-up test drive events, car transporters, or dealer forecourts. Portable EV chargers let you top up vehicles wherever a safe outlet exists, without major electrical work.   3.2 Situations where it is not a good fit In other situations, money and effort are better spent on a wallbox or better public charging access. ·You already have easy access to public AC or DC chargingDense charging networks near home and work can make a portable unit stay in the trunk unused. ·You need high daily energy throughputLong highway commutes or heavy commercial use quickly show the limits of 2–3 kW charging. ·Your electrical installation is old or overloadedOld wiring, unknown breakers, shared circuits with heating or cooking appliances. Pushing these outlets hard just to gain slow charging adds risk and stress. ·You want set-and-forget smart featuresLoad balancing, PV surplus charging, detailed consumption reports and OCPP backends are usually better handled by a fixed smart wallbox.   3.3 Quick decision table You can use this table as a simple decision tool. Typical scenario Portable EV charger Better alternative Reason Renting an apartment, no wallbox allowed Useful primary solution None, unless dedicated socket No permission for fixed installation Homeowner with dedicated parking and budget Good backup only Fixed wallbox Safer, faster, tidier, smart options Two homes, one without charging infrastructure Very useful Mix of wallbox and portable Avoid installing two wallboxes High-mileage driver, frequent road trips Occasional backup Public DC and home wallbox Needs high daily energy intake Car dealer, small fleet, event charging Extremely useful Temporary AC posts plus some portables Maximum flexibility with limited infrastructure Occasional EV use, short urban trips Can be the main solution Either portable or low-cost wallbox Charging volume is low     4. Choosing and using a portable EV charger safely 4.1 Key factors when choosing a portable EV charger If you decide a portable EV charger fits your life, the next step is to choose one that matches your grid, plugs and vehicle.   ·Plug type and voltageConfirm whether you need NEMA, CEE, Schuko or another regional standard, and whether you will use it on 120 V, 230 V or three-phase power.   ·Current settings and flexibilityA good portable EV charger allows stepped current settings (for example 8–10–13–16 A), so you can reduce load on weaker circuits and avoid nuisance tripping.   ·Safety protectionsLook for integrated residual current protection, temperature monitoring at the plug and connector, and clear fault indication. Safety labels and testing standards should be easy to verify.   ·IP rating and durabilityIf you plan to use the charger outdoors, an appropriate IP rating, robust strain relief and abrasion-resistant cable are essential. Cheap plastics age quickly in sun and cold.   ·Connector standard on the vehicle sideMatch the handle to your car (Type 1, Type 2, GB/T and so on). If you plan to change cars, think about how future-proof that connector type is in your region.   ·Cable length and handlingToo short and you cannot reach the inlet; too long and it becomes heavy and messy. Most users find 5–8 m workable for everyday use.   ·Smart or basicSome portable EV chargers add displays, Bluetooth or Wi-Fi controls, while others stay simple. Smart features help with monitoring, but they should never replace core protections.     4.2 Practical safety tips A portable EV charger is safe when used as intended and risky when used as a shortcut.   ·Use dedicated circuits where possibleAvoid sharing the same outlet with heat pumps, ovens or dryers. Continuous EV charging is a heavy, long-duration load.   ·Avoid cheap extension cords and coiled reelsLong, thin, coiled cables heat up quickly. If an extension is unavoidable, it must be correctly rated, fully uncoiled and checked for heat during the first sessions.   ·Check outlets regularlyDiscoloration, soft plastics or hot faceplates are warning signs. Stop charging and ask an electrician to inspect the circuit.   ·Store the charger correctlyKeep the control box and connectors dry, avoid tight bends and sharp edges, and do not leave the handle on the ground where vehicles can run over it.     4.3 Where a hardware manufacturer fits in For drivers and businesses that decide a portable EV charger is worth it, the next question is who designed and built the hardware they rely on every night. A specialist supplier such as Workersbee, who develops portable EV chargers alongside vehicle connectors and high current DC components, can help match cable, plugs and safety features to real-world use instead of building a one-off gadget.   On the B2B side, this also makes it easier for charge-point operators, installers and brands to source complete portable EV charger solutions with consistent connectors, strain-relief boots and enclosure design, rather than mixing parts from different vendors. That consistency is what many owners notice later as fewer hot plugs, fewer failures and a charger they forget is even there, because it simply works.     5.FAQ on portable EV chargers Can I use a portable EV charger every day? Yes, many drivers use a portable EV charger every day, as long as the outlet and wiring are properly rated and checked. The important part is not the form factor, but whether the circuit is designed for continuous EV charging and the device has the right protections.   Is it safe to use a portable EV charger in the rain? Most quality portable EV chargers and vehicle inlets are designed to cope with normal rain when used as intended. The weak points are usually the household outlet and any makeshift connections. Keep plugs and sockets off the ground, avoid standing water and follow the manufacturer’s guidance on outdoor use.   Do portable EV chargers damage the EV battery? No, a correctly designed portable EV charger does not harm the battery. The battery sees AC charging in the same way as from a wallbox, and the onboard charger in the vehicle controls charging current. What matters for battery health is overall charging pattern and temperature, not whether the AC came from a fixed wallbox or a portable unit.

EV range is the distance an electric vehicle can travel on a full charge under a defined test cycle. It’s a benchmark, not a promise. Real driving shifts the number up or down with temperature, speed, terrain, wind, and how you use heating or A/C.     Why lab numbers differ from daily drivingTest labs fix temperature and driving patterns. Your commute doesn’t. Cars also spend energy warming or cooling the battery to protect it. At higher speeds, air drag grows quickly, and headwinds behave like driving faster. That is why the sticker is a starting point, not your guaranteed outcome.     How Range Is Measured (EPA, WLTP, Road Tests) EPA mixed-cycle basicsIn the U.S., the EPA combines simulated city and highway driving into one rating. The cycle includes cold starts, stops, and steady cruises, then applies adjustments so the result reflects typical use. You see one number on the window label to keep things simple.   WLTP regional differencesWLTP is common in Europe and many export markets. It uses a different speed profile and temperature window, usually producing a higher figure than EPA for the same car. Numbers are comparable within one region’s system, but not always apples to apples across systems.   Why media tests and owner reports varyMany outlets run a steady 70–75 mph highway loop; owners drive mixed routes at mixed temperatures. Both can be valid, but they answer different questions. Highway-only tests reflect road trips; mixed cycles reflect everyday use.     What Changes Your Actual Range Temperature and battery conditioningBatteries are happiest in mild weather. In the cold, the pack is less efficient and the cabin needs heat. Preconditioning while plugged in—warming the pack and cabin before you depart—can recover a lot of winter loss. In extreme heat, the system may cool the pack to protect longevity.   Speed and driving styleEnergy use climbs sharply with speed. A steady 65–70 mph cruise is usually better than running at 80 mph or repeatedly accelerating hard. Smooth inputs, anticipation, and coasting into traffic lights help more than any single gadget.   HVAC loadsHeat is the big penalty in winter, especially with resistive heaters. A/C in summer costs something, but usually less than heat in freezing weather. Seat and wheel heaters keep you comfortable with relatively little draw.   Terrain, wind, and elevationLong climbs spend energy; descents return some through regeneration, but not all. Headwinds and crosswinds add drag. Route choice matters: a slightly slower but flatter road can beat a shorter, steeper one.   Tires, racks, and weightUnder-inflated tires, all-terrain tread, bigger wheels, roof boxes, and bike racks all increase drag or rolling resistance. Keep tires at the recommended pressure and remove racks when not in use. Extra cargo weight hurts range, especially in hilly areas.   Software and eco modesEco profiles temper throttle, optimize HVAC, and can schedule battery conditioning before a DC fast charge. Over-the-air updates sometimes bring efficiency tweaks—worth keeping current.     One-screen adjustment tableStart with your rated range (EPA or WLTP). Multiply by the scenario factor to get a practical planning number. Use the low end of the range for cautious planning, the high end if you know your route and conditions well.   Ambient temperature Driving pattern HVAC use Scenario factor 15–25 °C (59–77 °F) Mixed city/highway Light A/C 0.95–1.00 15–25 °C (59–77 °F) 70–75 mph highway A/C off or light 0.85–0.92 >30 °C (>86 °F) Urban stop-and-go A/C medium 0.90–0.95 >30 °C (>86 °F) 70–75 mph highway A/C medium 0.82–0.90 0–10 °C (32–50 °F) Mixed Heat low 0.80–0.90 <0 °C (<32 °F) Mixed Heat medium 0.70–0.85 <0 °C (<32 °F) 70–75 mph highway Heat medium/high 0.60–0.80   Two quick examplesWinter commute: Rated 400 km. Morning is −5 °C with heat on, mixed roads. Apply 0.75. Planning range ≈ 300 km.Summer highway: Rated 300 miles. Afternoon 32 °C, steady 72 mph with moderate A/C. Apply 0.86. Planning range ≈ 258 miles.     BEV vs PHEV: What Electric Range Means Electric-only vs total rangeA battery-electric vehicle (BEV) lists a single all-electric range. A plug-in hybrid (PHEV) lists electric-only miles; after that, it runs as a hybrid on liquid fuel. If your days are short hops and you rarely exceed the electric-only distance, a PHEV may fit. If you prefer one energy system and have regular access to charging, a BEV keeps it simpler.   When each makes senseChoose a PHEV if charging is intermittent and your daily distance is modest. Choose a BEV if you can charge at home or work and want the smoothest electric drive every day. For fleets, think about route repeatability and depot charging windows.     Range Over Time Battery health and agingCapacity declines gradually with age and cycles. The pattern is often a small early drop, then a slower long glide. Avoid sitting at 0% or 100% for extended periods. At home, keeping the car plugged in lets thermal management work and prevents deep swings.   Seasonal swingsIt’s normal to see 10–30% swings between winter and summer in colder climates. Don’t chase day-to-day changes on the in-car estimate; judge trends over weeks and across similar conditions.     Simple habits that helpPrecondition when plugged in. Maintain tire pressure. Remove roof loads when not needed. Drive smoothly and pick steady speeds. These basics deliver most of the gain without micromanaging.     FAQ Why does range drop so much in winter?Cold chemistry and cabin heat both add load. Preheat while plugged in and use seat heaters to cut the penalty.   Why is highway range sometimes lower than city?At steady high speed, aerodynamic drag dominates. In city driving, regeneration recovers energy from braking; the gap can narrow or even reverse.   How much do A/C and heat matter?A/C tends to be a light to moderate hit. Heat in freezing conditions can be significant. Heat pumps help, but they are not magic at very low temperatures.   Do bigger wheels or all-terrain tires matter?Yes. Heavier, wider, or knobbier setups increase rolling resistance and drag. Expect a few to several percent depending on the change.   Can I trust the in-car range estimate?Treat it as a guide based on recent driving and current conditions. For trips, use the scenario table, map elevation, and weather to plan with a buffer.     If you’re planning a range with buffers and smart stop choices, it also helps to make home and on-the-go charging simple. For apartments, rentals, road trips, or as a winter backup, a portable EV charger with adjustable amperage and interchangeable plugs lets you charge from common outlets without installing a wallbox.   In Europe and many export markets, our Type 2 portable EV charger series focuses on safe thermal design, clear status feedback, and tough strain-relief for daily use. Tell us your plug types and typical circuits—we’ll suggest a portable setup that fits your car and routines.

In today’s business landscape, the transition to electric vehicles (EVs) is accelerating, and companies are seeking ways to power their fleets efficiently. With the rise of EV adoption, many businesses are exploring the use of portable EV chargers to meet their charging needs.   Whether you're running a fleet of delivery trucks, providing services on the go, or managing a construction site, portable EV chargers offer a flexible and cost-effective solution to ensure your operations keep moving.       Who actually benefits from portable chargers 1. Fleets on leased or shifting lots that need flexible capacity and a spare unit for downtime coverage. 2. Field teams and roadside service working at sites with unknown wiring; adjustable current prevents nuisance trips. 3. Event, demo, and pop-up operations that need reliable, low-to-mid power all day and a quick pack-up afterward. 4. Dealerships and hand-off areas that need short sessions to deliver vehicles at a reasonable state of charge.     Region, plug, and usable power North America: 120 V Level 1 (≈1.4–1.9 kW) for slow top-ups; 208–240 V Level 2 at 16–40 A (≈3.3–9.6 kW) covers most overnight turns; 48 A (≈11.5 kW) when wiring supports it. J1772 remains common; J3400/NACS is growing—choose the plug your fleet actually uses.   Europe/most Type 2 regions: 230–240 V single-phase at 10–32 A (≈2.3–7.4 kW) fits most depots and mobile work; three-phase portables exist but are heavier and less common for field use.     Regional Specs: Inlet, Power, and Approvals Region Inlet family (AC) Common supply Useful current steps* Typical certifications / standards Practical notes North America Type 1 (J1772) 120 V; 208–240 V 12 / 16 / 24 / 32 / 40 A UL/ETL as applicable; IEC 62752 reference Works across legacy mixed lots; pair with region-correct mains plugs. North America NACS (SAE J3400, AC) 120 V; 208–240 V 16 / 24 / 32 / 40 A UL/ETL; SAE J3400 family Reduces adapter use on newer fleets; same AC safety expectations. Europe & Type 2 regions Type 2 220–240 V (single-phase) 10 / 13 / 16 / 24 / 32 A CE route; IEC 62752 Single-phase focus; choose IP54+ and the shortest cable that reaches. China GB/T (AC) 220–240 V (single-phase) 10 / 16 / 32 A CCC; IEC 62752 reference Prioritize operating temp range and robust cable strain relief. * Adjustable steps let you derate on aging outlets or in warm ambient; this is often more valuable than chasing a higher “max” spec.     Small choices that pay off every day Use the shortest cable that still reaches with a relaxed bend to cut losses and reduce trip hazards. Avoid charging on a coiled reel. Favor clear status indicators that are easy to read in low light. A carry case that survives daily handling is not a luxury — it preserves connectors and keeps kits where they belong.   Workersbee products and services Portable AC chargers by inlet family Type 1 J1772 series for North America — Adjustable steps for both 120-volt and 240-volt sites, pin-temperature sensing at the connector, clear status window, rugged carry case. Serial and QR ready for asset tracking. Type 2 series for Europe and other Type 2 regions — Single-phase Level 2 focus, IP-rated enclosures, strain-relieved cables, consistent ergonomics that keep training short across depots. NACS AC options for North America — For fleets moving to NACS and wanting fewer adapters while retaining the same safety envelope and asset-tracking finish. GB/T AC options for China — Stable day-to-day operation on local standards with business-grade materials and serviceability.     What comes with us Evidence pack (by model/region): Safety/EMC test & inspection reports (incl. Mode 2 IC-CPD references such as IEC 62752 where applicable)   Declarations of Conformity and labeling dossiers   Certificates: CE (EU), UKCA (UK), ETL (North America, NRTL), TÜV (where applicable), and IECEE CB Scheme (CB Test Certificate/Report to support local approvals)   Serial lists and traceability records   After-sales & RMA: SLAs aligned to fleet downtime; advance replacement available on batch orders.   Deployment support: recommended current steps by region, practical cable-length guidance, day-one bay markers for posting default settings.   Customization options: labeling, cable length, packaging to match site policies or channel requirements.   Discover the Right Charging Solution for Your Business Interested in exploring your options for portable EV chargers? Find out more about a range of solutions designed to meet the diverse needs of businesses like yours. Learn More About Our Products.

Short answer: decide first between single-phase 230 V and three-phase 400 V. For most homes, 7.4 kW (32 A, single-phase) is the sweet spot. If you have a three-phase supply and approval, 11 kW (16 A × 3) is widely practical; 22 kW (32 A × 3) is site-dependent and often needs notification or limits from your DSO/DNO.     What amps really change Amperage sets the charging speed and installation complexity. Three-phase spreads current across phases, reducing per-conductor load and keeping cables manageable.     Your real-world constraints   Supply type: many homes are single-phase; three-phase opens the door to 11–22 kW.   Main fuse / contracted capacity: your DSO/DNO may cap available current.   Onboard charger (OBC): many EVs accept 7.4 kW (1×32 A) or 11 kW (3×16 A); fewer make full use of 22 kW (3×32 A).   Local regulations: notification/approval thresholds and load management rules differ by country.     Common EU charging tiers 3.7 kW = 1×16 A; 7.4 kW = 1×32 A; 11 kW = 3×16 A; 22 kW = 3×32 A.     What to pick and when • 1×32 A (7.4 kW): default for single-phase homes—fast enough overnight without stressing the main fuse. • 3×16 A (11 kW): balanced three-phase choice; many EVs top out here on AC. • 3×32 A (22 kW): only if your car and contract allow it, and cable runs and switchgear are sized accordingly.   Cost levers you feel Run length, cable cross-section, protection devices (RCD type/RCBO), and whether load management is needed alongside heat pumps or induction hobs.   A 30-second decision path   Confirm single-phase vs three-phase supply and contracted capacity.   Check your car’s OBC (7.4 vs 11 vs 22 kW).   Pick 7.4 kW (1×32 A) for most single-phase homes; 11 kW (3×16 A) for most three-phase homes.   Use load management if the main fuse is modest or you plan multiple EVs.   If capacity is tight or you switch between locations, a Portable EV Charger (Type 2) with adjustable current ensures a safe and adaptable setup. Pair it with an EV Charging Gun Holster & Cable Dock to protect the connector and keep cables tidy day to day.     Installer checklist • Confirm supply and main fuse • Select breaker and cable cross-section for 1φ/3φ tier • RCD type per EVSE spec • Labeling, torque, and functional test • Configure load management where required     FAQ  Do I need a three-phase charger to charge fast at home? Not necessarily. 7.4 kW (1×32 A) on single-phase covers most overnight needs. Three-phase helps if you want 11 kW (3×16 A), have higher daily mileage, or need to balance loads across phases.   Is 22 kW (3×32 A) worth it? Only if your car supports 22 kW AC, your contracted capacity and switchgear allow it, and run lengths/cable cross-sections are sized accordingly. Otherwise, you pay more for infrastructure with little real-world gain.   Which RCD/protection do I need for my wallbox? Follow the EVSE spec and local rules. Many units integrate 6 mA DC detection, allowing an upstream Type A device; others require Type B. Your installer will size the breaker, RCD/RCBO, and cable cross-section per 1φ/3φ tier and national code.

Portable charging removes friction for new EV owners, dealerships, and fleets. The guidance below answers the most common questions in plain language and gives selection criteria you can apply across regions.     Are portable EV chargers safeYes—when they are true EVSE devices from certified suppliers and used on suitable circuits. A portable EVSE communicates with the vehicle, verifies earth/ground, limits current, and shuts down if a fault occurs. For procurement, require third-party approvals (ETL or UL in North America, CE in Europe) and built-in protection: ground-fault detection, over/under-voltage, over-current, over-temperature, and welded-relay checks. Connector-side temperature sensing further reduces heat at the pins during long sessions.     Can I plug my EV into a wall outletYou can, within limits.• North America: a 120 V receptacle supports slow charging for overnight top-ups.• 230 V regions: 10–16 A on a standard socket is common; 32 A typically needs a dedicated circuit and the correct receptacle (for example CEE or NEMA 14-50). Use one properly rated outlet on a protected breaker. Avoid adaptor chains or light-duty extension leads. If the outlet or plug feels warm, stop and have an electrician inspect the circuit.     How to charge an EV without a home chargerCombine a portable EVSE with workplace sockets, public AC posts where the car will sit for a few hours, and DC fast only when time is tight. For distributors, stocking one EVSE body with market-specific supply plugs and adjustable current steps covers more sites with fewer SKUs.     Can you charge an EV from an outside socketYes, provided the socket is weather-protected and on a GFCI/RCD circuit. Keep the control box off the ground and away from standing water. After unplugging, cap the vehicle connector to keep dust and spray out of the pin cavity.     Can I install an EV charger outside my houseA portable unit requires only a compliant outdoor socket. For permanent outdoor charging, choose hardware with robust ingress protection, a holster to keep contacts clean when parked, and cable management to prevent trip hazards. On exposed sites, prefer enclosures and connectors verified for water-jet conditions and mount them above the splash zone.     Can you charge an EV on single phaseAbsolutely. Most homes and small businesses use single phase, and portable EVSE is designed for it. In Europe and parts of APAC, some Type 2 vehicles and equipment also support three-phase AC for faster charging. Adjustable current lets households fit charging around other loads without tripping breakers.     Can I install an EV charger without a driveYes. Owners who park on the street generally pair a portable EVSE with workplace or neighborhood AC charging. Where local rules allow, permanent wallboxes may be installed with approved cable covers across private walkways, but many councils restrict crossing public paths. In practice, a portable unit plus nearby AC posts covers daily use without long leads.     Can my house support an EV chargerThink in circuit capacity rather than the physical outlet. A portable EVSE set to 10–16 A at 230 V is within the capability of many homes. Higher power—32 A at 230 V or 32–40 A at 240 V—usually requires a dedicated breaker and appropriate receptacle. If the panel is already busy with cooking, HVAC, or water heating, derate the EVSE current or schedule charging off-peak.     Is the tool-brand portable charger any goodEvaluate any brand by engineering and certification, not by category. Look for verifiable safety marks, connector temperature sensing, clear error codes, cable jackets rated for UV and low temperatures, replaceable strain reliefs, and published service terms. For B2B buyers, serialized units, access to test reports, and availability of spare parts reduce returns and downtime.     What is a Type 2 EV chargerType 2 names the vehicle-side AC interface common across Europe and many other regions. A portable Type 2 EVSE supplies single- or three-phase AC through that connector. DC fast charging uses a different interface; in CCS2, a pair of large DC contacts sits below the familiar Type 2 profile. When stocking for multiple countries, keep the car side Type 2 and vary the supply plug (Schuko, BS 1363, CEE) and the current steps to match local circuits.     How do you use a portable EV charger Place the control box where it stays dry and supported. Set the current to match the circuit. Plug the supply side into the socket and wait for self-checks. Push the connector in until it locks, then check the car’s display to confirm the session has started. To finish, stop the session, unplug from the car first, cap the connector, then unplug from the outlet. Coil the cable loosely and store it off the floor.     Can I leave my EV charger outsideShort exposure to rain is fine for outdoor-rated products, but long-term storage outdoors shortens life. Ingress protection matters here, and water-jet tests differ from immersion tests. Performance can also change when the plug is mated versus unmated. Use holsters and caps to protect contacts, keep the control box off the ground, avoid standing water, and store the EVSE indoors between uses whenever possible.     Portable, wallbox, or DC fastSelecting the right tool keeps costs in line with dwell time. Use case Typical power Best fit Reason Apartment living, travel, backup 1.4–3.7 kW Portable EVSE Flexible and low setup effort Home with dedicated parking 7.4–22 kW Wallbox AC Faster daily charging and tidy cable management Dealerships, fleets needing quick turnaround 60–400 kW DC fast charger Rapid energy delivery and uptime     Before you choose specific hardware, it helps to map options to your use case—backup charging, daily home use, or rapid turnaround—and to the market you serve. The product families below align with those scenarios so you can specify by connector type, supply plug, current range, and environmental demands with less guesswork.     Related Workersbee products for further readingPortable SAE J1772 Charger (ETL-certified) Portable Type 2 Charger for EU and APAC Three-phase fast home chariging CCS2 Naturally-Cooled DC Charging Cables Liquid-Cooled High-Power DC Charging Cables

WORKERSBEE type 2 EV Charger is designed strictly according to the IEC 62196 standard    This type 2 EV Charger can be pure electric, hybrid and other electric vehicle charging.The International Electrotechnical Commission (IEC) is a worldwide organization for standardization comprising all national electrotechnical committees (IEC National Committees). All products of WORKERSBEE are designed and produced in accordance with the requirements of vehicle regulations.   Let's take a look at where the new type 2 has made major changes.   1. Stylish appearance, comfortable grip,ergonomic Design 2. High-strength one-piece shell, wear-resistant, crash-resistant and impact-resistant 3. Multiple sealing structures to effectively prevent water from entering the EV Plug 4. 8 layers of intelligent protection to ensure charging safety Customization is also available at WORKERSBEE in addition to standard products   Non-standard products can customize LOGO, and can also put forward higher requirements on the basis of standard products. The following are our most basic advantages of portable ev chargers 1. Designed and produced in strict accordance with the IEC 62196 standard 2. 3 major production bases guarantee supply demand 3. High compatibility, strong and durable   The latest WORKERSBEE type 2 EV charger is sure to come with a host of benefits, so let's see what the new type 2 looks like.   Below is the outline of the shell. Which one do you think will be the new product of WORKERSBEE?   Contact us for a chance to get a free sample.