High Power Density
Fast-charge heat in a small footprint.
Application cooling
EV ＆ Automotive
Advanced cooling for EV power electronics and charging.
Electric charging generates intense heat in compact, outdoor-rated enclosures. We support charger, converter and battery cooling with high-airflow, sealed packages that survive weather, dust and years of daily cycling.
Key Challenges
Cycling Heat
Rapid thermal rise and fall, day after day.
Outdoor Exposure
IP67-rated against rain and dust.
Load Reliability
Consistent cooling at full duty.
Cooling Solutions
EV Fast-Charger Cooling in Cold Humid Weather: Validate Fan Start, Condensation and Filter Margin
A practical engineering guide to outdoor EV fast-charger fan selection when cold starts, condensation, salt fog, filter pressure and charging power derating change the real cooling requirement.
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EV Fast-Charger Cooling: Diagnose Filter Pressure, Fan Margin and Thermal Derating
A practical guide to diagnosing EV fast-charger power loss when high ambient, clogged filters, heat-exchanger pressure and fan control interact.
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EV Fast-Charger Cooling: Validate the Fan Working Point Across the Power Cycle, Not Just at Rated kW
A practical thermal-validation guide for EV charging power cabinets: convert power-module losses into fan duty, test variable charging power, filter pressure, fan control and thermal derating before release.
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EV Fast-Charger Cooling in Dust and Salt Fog: Filter Pressure, Fan Protection and Derating Validation
How EV fast-charger engineers can validate cooling fans and filters for dust, salt mist, pressure drop, corrosion, noise and power derating in outdoor installations.
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EV Fast-Charger Fan Selection: From Power-Module Loss to Thermal-Derating Validation
A practical engineering method for converting EV charger power loss into an installed fan requirement, then validating heatsink airflow, pressure, PWM control and thermal derating in the real cabinet.
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EV Fast-Charger Cooling: How Fans Fit Into Air, Liquid and Hybrid Architectures
A practical guide to selecting cooling fans for 60–350 kW EV chargers when SiC power modules, liquid cold plates, cabinet air paths, noise, dust and thermal derating must work together.
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EV Fast Charger Cooling Faults: Why PWM and RPM Do Not Prove Heat-Sink Airflow
A commissioning and fault-diagnosis method for EV fast-charger cooling: separate PWM command and RPM from actual pressure, heat-sink airflow and thermal evidence.
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EV Fast Charger Fan Redundancy: Why N+1 Must Be Tested With Reverse Flow
Why N+1 fan count is not automatically N+1 cooling: test reverse flow, pressure sharing, fault-state airflow and thermal margin in EV fast-charger cabinets.
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EV Fast Charger Airflow Distribution: Why Average Exhaust Temperature Misses Hotspots
How bypass, uneven branch resistance and poor heat-sink airflow can hide local EV charger hotspots behind a normal average exhaust temperature.
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EV Fast Charger Cooling at High Altitude: Why Normal RPM Can Still Lose Thermal Margin
How altitude, high ambient temperature and air density change EV fast-charger fan pressure, mass flow and thermal derating decisions.
Read Article →EV Charger Fan Life: Dust, Heat and Static Pressure
Charger fans die from dust and heat, not rated hours — learn how site-specific fan customization, pressure headroom and sample validation protect useful life.
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EV Battery Cooling: Where Fans Still Matter
Select the battery-loop radiator fan from heat rejection and air-side pressure drop, with duty tables, environment limits and a reusable validation plan.
Read Article →150 kW EV Charger: Calculating 7.5 kW Waste Heat
An illustrative 150 kW charger calculation shows why 7.5 kW of heat needs a tested path out of the cabinet, and how to turn it into a customized fan module.
Read Article →Engineering Guides
View all guides →
High-Temperature Cooling Fan Selection: What Engineers Must Verify
Select a cooling fan for hot or harsh environments by checking the real operating point, air density, bearing life, control interface, protection and sample validation conditions.
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Fan IP Rating, Dust, Humidity and Condensation: What Engineers Must Check
Specify cooling fan protection for dust, water, oil mist, humidity and condensation without confusing a fan IP rating with whole-product qualification.
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Build a Pressure-Drop Budget for an Electronics Enclosure
Build an electronics-enclosure pressure-drop budget for grilles, filters, heatsinks, cable routing and outlets, then decide whether geometry or fan pressure is the first fix.
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Thermal Margin Under Worst Conditions: Validate a Cooling Fan Beyond the Clean Bench
Validate cooling-fan thermal margin at high ambient, degraded filter resistance, low command and realistic heat load before approving a custom sample.
Read Guide →Design Review Checklist
Engineering FAQ →Before you request a sample
Prepare the inputs that decide the fan
Target airflow and static pressure at that airflow, available space, voltage tolerance, control signal, connector, noise limit, quantity and the temperature or ingress conditions. If you have a current fan, send its label and the system context rather than relying on frame size alone.
Start fan selection →