Isolated Single-Channel Grow Light Drivers

FAHOLD isolated single-channel grow light drivers provide one regulated constant-current output for quantum-board fixtures, propagation lights, indoor grow lights and high-power commercial horticulture luminaires. The current range includes compact F1-H drivers and high-power H2 / H2E programmable platforms for different fixture sizes and facility input voltages.

Available products cover approximately 40W to 1500W with 100–277Vac, 120–277Vac and 200–277Vac rated-input options. Output platforms extend from 27–54V / 27–56V compact grow-light systems to 36–56V, 42–56V and 42–62V high-current horticulture loads.

Depending on series and configuration, available functions include plug-and-play connections, local knob dimming, offline programmable output, 0–10V / PWM / resistor control, Dim-to-Off and IP65 / IP67 protection. Compare models below by input voltage, wattage, LED voltage window, output current and fixture-control requirements.

17 products
Page 1 of 2

Isolated Single-Channel LED Drivers for Grow Lights

A single-channel horticulture LED driver provides one regulated output for one primary LED load or electrically combined LED-board system. This architecture is widely used in quantum-board grow lights, propagation fixtures, commercial indoor-grow luminaires and high-power horticulture systems where the fixture is designed around one main constant-current output.

FAHOLD isolated single-channel grow-light drivers combine input-to-output electrical isolation with several power, voltage and control platforms. The current product range covers compact 40W fixtures through professional 1500W grow lights, allowing fixture manufacturers to select the driver according to the actual LED-board voltage, output current, facility input voltage and control strategy.

Single-channel does not mean low power. A single regulated output can be used for both compact horticulture fixtures and very high-power LED boards when the voltage, current, wiring and thermal architecture of the luminaire are designed accordingly.

Single-Channel vs Multi-Channel Grow Light Drivers

The choice between single-channel and multi-channel power architecture should be based on the electrical design of the grow-light fixture rather than total wattage alone.

ArchitectureTypical Fixture DesignSelection Focus
Single-ChannelQuantum boards, propagation fixtures and high-power grow lights using one primary regulated LED loadLED voltage window, output current, total wattage and dimming method
Multi-ChannelFixtures using separate LED loads, spectral sections or independently managed lighting zonesIndividual channel voltage, current, power distribution and control strategy

If all LED boards in the fixture operate as one electrical load, a single-channel driver can provide a simpler power architecture. When separate LED loads require independent power distribution or control, a multi-channel platform may be more appropriate.

For those applications, compare

Isolated Multi-Channel Grow Light Drivers
.

Choose a Single-Channel Grow Light Driver by Power Range

FAHOLD isolated single-channel platforms cover a wide range of horticulture fixture power levels. The appropriate product family changes significantly between compact quantum-board lighting and high-output commercial grow lights.

Power RangeTypical PlatformTypical Fixture Direction
40W–100WF1-HSeedling lights, propagation fixtures, compact quantum boards and small indoor grow lights
150W–320WF1-HMedium quantum boards, vertical-farm fixtures and compact commercial horticulture luminaires
650W–800WH2 / H2ECommercial bar lights, indoor-grow fixtures and greenhouse lighting
1000W–1200WH2 / H2EHigh-output commercial horticulture and greenhouse fixtures
1300W–1500WH2EVery high-power grow-light systems using 200–277Vac facility infrastructure

Driver wattage alone is not sufficient for product selection. The connected LED load must also remain within the output-voltage and current range of the selected model across expected operating temperature and production tolerances.

100–277V F1-H Drivers for Quantum Boards and Compact Grow Lights

F1-H is the lower- and medium-power platform within the isolated single-channel category. It covers 40W to 320W with 100–277Vac rated input and 27–54V or 27–56V output-voltage ranges.

The series is designed around compact horticulture fixture integration and includes built-in five-step knob dimming, Dim-to-Off, plug-and-play AC and DC connection options and IP67 enclosure protection.

This makes F1-H particularly relevant to quantum-board grow lights, propagation fixtures, vertical-farm racks and other products where simple installation and local output adjustment are important.

Compare the complete

F1-H Plug-and-Play Grow Light LED Driver Series

for detailed power, current and mechanical specifications.

120–277V H2 High-Power Single-Channel Grow Light Drivers

H2 extends the isolated single-channel architecture into higher-power commercial horticulture fixtures. Current H2 models use 120–277Vac input and cover 650W, 800W, 1000W and 1200W power classes.

Available output platforms include 36–56V, 42–56V and 42–62V, with high-current configurations designed for professional LED boards used in commercial grow lights and greenhouse luminaires.

Unlike the simpler F1-H architecture, H2 supports offline programmable output, adaptive output-voltage operation and compatible 0–10V / PWM / resistor-based control. This allows the same driver platform to support different fixture power and current requirements within its rated operating range.

For detailed model comparison, review the

H2 Single-Channel Grow Light LED Driver Series
.

200–277V H2E Grow Light Drivers from 800W to 1500W

H2E is the 200–277Vac branch of the high-power single-channel horticulture platform. It is intended for commercial grow-light fixtures that operate from higher-voltage facility infrastructure and require one dedicated high-current isolated LED output.

Current H2E products cover 800W, 1000W, 1200W, 1300W and 1500W power classes. The series uses 42–56V and 42–62V output platforms, with the 1500W configuration reaching output-current capability up to approximately 31A.

H2E also provides offline programming, 0–10V / PWM / Rx dimming, Dim-to-Off and optional fixture-integration interfaces for demanding commercial horticulture projects.

See the

H2E 200–277Vac Grow Light LED Driver Series

for complete 800W–1500W model specifications.

Choose by LED Output-Voltage Window

The output-voltage window is one of the most important specifications when matching a constant-current driver to a horticulture LED board. The complete LED forward-voltage range must overlap correctly with the supported driver output range.

Output PlatformTypical SeriesTypical Fixture Direction
27–54VF1-HLower- and medium-power quantum boards and compact LED modules
27–56VF1-HHigher-power F1-H quantum-board and horticulture fixtures
36–56VH2High-current commercial LED-board architecture
42–56VH2 / H2EHigh-power grow-light LED boards and commercial horticulture fixtures
42–62VH2 / H2EVery high-power LED-board platforms requiring an extended voltage window

Do not select a driver simply because its maximum wattage matches the fixture. Provide the minimum, nominal and maximum LED forward voltage together with the required current so the operating point can be checked against the driver window.

High-Current LED Drivers for Commercial Grow Lights

Single-channel horticulture fixtures can require substantial DC current as fixture wattage increases while the LED operating voltage remains relatively low. H2 and H2E are designed around this type of high-current grow-light architecture.

Current H2 models extend to approximately 24A depending on model, while the 1500W H2E platform reaches up to approximately 31A. At these current levels, LED-board design, output cables, connectors, PCB current paths and thermal management all become important parts of the complete luminaire system.

The driver output-current capability should therefore be matched to the complete fixture architecture rather than treated as an isolated product specification.

Programmable Single-Channel Grow Light LED Drivers

Offline programmable output allows supported H2 and H2E models to be configured for different LED-board current or fixture-power requirements within the electrical limits of the selected driver.

This can help OEM grow-light manufacturers reduce the number of unique power platforms used across a product family. Several fixture SKUs may share one driver hardware platform while using different programmed operating points when the required voltage, current and power remain within the approved range.

Programming requirements should be defined during product development so the correct current limits and power settings can be applied consistently during production.

0–10V, PWM and Rx Dimming for Horticulture Fixtures

H2 and H2E support compatible 3-in-1 control using 0–10V, PWM and resistor-based Rx input. These control methods allow commercial grow-light output to be adjusted according to cultivation stage, daylight availability, facility energy strategy or centralized environmental-control systems.

Control MethodTypical ApplicationWhat to Confirm
0–10VGreenhouse and indoor-grow control systemsControl signal range, wiring and controller compatibility
PWMFixture controllers and automation systemsSignal level, PWM requirements and driver compatibility
Rx / ResistorExternal resistance-based output adjustmentSupported resistance range and control-interface requirements

F1-H uses a different control strategy based primarily on built-in knob dimming, so the required control architecture should be defined before choosing between F1-H and the H2 family.

Dim-to-Off and No-Afterglow Operation

A true off state can be important in horticulture lighting because some cultivation schedules require complete darkness. Residual LED output after a dimming command reaches minimum level can create visible afterglow when the grow light should be off.

F1-H supports Dim-to-Off through its local control architecture, while H2 and H2E support Dim-to-Off together with compatible external dimming control. The H2 family is specifically designed for shutdown without afterglow on applicable configurations.

IP67 vs IP65 Single-Channel Grow Light Drivers

The F1-H and H2-family platforms use different enclosure strategies according to their application and power level.

ProtectionPlatformTypical Application
IP67F1-HQuantum boards, compact grow lights and horticulture fixtures requiring greater ingress protection
IP65H2 / H2EHigh-power commercial grow lights and greenhouse fixtures using protected driver integration

The driver IP rating applies to the driver enclosure itself. Connectors, cable seals, fixture housing, mounting orientation, thermal design and other system components must also be suitable for the actual horticulture environment.

Plug-and-Play vs Programmable Grow Light Driver Platforms

F1-H and H2/H2E solve different fixture-design problems even though all three belong to the isolated single-channel category.

RequirementF1-HH2 / H2E
Typical Power40W–320W650W–1500W
Primary PositioningCompact plug-and-play horticulture driverHigh-power programmable grow-light driver
Control DirectionBuilt-in knob dimming0–10V / PWM / Rx external control
ProgrammingFixture-level configuration focused on plug-and-play integrationOffline programmable output for OEM fixture matching
Ingress ProtectionIP67IP65

Choose F1-H when compact size, local control and simplified fixture connection are priorities. Choose H2 or H2E when the project requires substantially higher power, programmable output and external commercial lighting control.

Surge Protection for High-Power Grow Light Drivers

Commercial horticulture lighting can operate on large electrical systems where switching events and transients must be considered. H2 and H2E provide differential-mode surge protection up to 6kV and common-mode protection up to 10kV, together with short-circuit, over-voltage and over-temperature protection.

Driver-level protection does not replace correct facility grounding, branch-circuit design or system-level surge protection. The complete grow-light installation should be engineered according to the electrical environment of the facility.

How to Select an Isolated Single-Channel Grow Light Driver

  1. Confirm the facility AC input.
    Determine whether the fixture needs 100–277Vac, 120–277Vac or 200–277Vac operation.
  2. Define the LED forward-voltage window.
    Provide the minimum, nominal and maximum voltage of the LED board.
  3. Confirm the required output current.
    The driver must support the required LED current at the intended operating voltage.
  4. Calculate the maximum fixture power.
    Use the actual LED electrical load to select the appropriate driver power class.
  5. Choose the driver platform.
    Use F1-H for compact plug-and-play applications or H2 / H2E for high-power programmable horticulture systems.
  6. Define the control requirement.
    Specify local knob dimming, 0–10V, PWM, Rx or non-dimming operation according to the fixture design.
  7. Determine whether programmable output is required.
    Offline programming can simplify OEM product families that use different current and wattage settings.
  8. Confirm Dim-to-Off requirements.
    Specify complete LED shutdown where cultivation schedules require a true dark period.
  9. Review IP and thermal requirements.
    Check humidity, temperature, fixture enclosure, connectors, mounting position and heat management.
  10. Confirm certification and target market.
    Verify the applicable driver and finished-luminaire compliance requirements for the destination market.

Isolated Single-Channel Grow Light Driver Manufacturer for OEM Fixtures

OEM horticulture-lighting projects frequently require more than a standard driver wattage. LED-board voltage, current, programmed output, dimming interface, connectors, cable lengths, auxiliary power, enclosure design and certification requirements can all affect the correct driver configuration.

FAHOLD supports grow-light manufacturers with electrical matching, technical datasheets, samples and project-specific configuration evaluation. Providing the AC input, LED voltage range, output current, fixture wattage, control method, IP requirement, target certification and expected quantity helps narrow the appropriate F1-H, H2 or H2E platform more efficiently.

When Should You Choose an Isolated Single-Channel Driver?

Choose an isolated single-channel platform when the horticulture fixture uses one primary regulated LED load and requires electrical isolation between the AC input and LED output. The architecture can serve both compact quantum-board fixtures and very high-power commercial grow lights when the correct voltage, current and power platform is selected.

For the broader topology comparison, return to

Isolated Horticulture LED Drivers
.
If the fixture requires several separately controlled LED loads, compare

Isolated Multi-Channel Grow Light Drivers
.

Frequently Asked Questions

What is an isolated single-channel grow light driver?

An isolated single-channel grow light driver provides electrical isolation between the AC input and LED output while supplying one regulated constant-current output to the primary LED load. This architecture is used in both compact quantum-board fixtures and high-power commercial horticulture luminaires.

What is the difference between a single-channel and multi-channel grow light driver?

A single-channel driver powers one primary regulated LED load, while a multi-channel driver provides separate outputs for multiple LED loads or fixture sections. The correct architecture should be selected from the electrical design of the luminaire rather than total wattage alone.

What power range is available for FAHOLD isolated single-channel grow light drivers?

The current FAHOLD isolated single-channel range covers approximately 40W to 1500W. F1-H provides 40W–320W options for compact and quantum-board grow lights, while H2 and H2E cover high-power commercial horticulture applications from 650W to 1500W.

What input voltages are available for single-channel horticulture LED drivers?

FAHOLD isolated single-channel platforms include 100–277Vac F1-H models, 120–277Vac H2 models and 200–277Vac H2E models. Select the input platform according to the actual electrical distribution used by the grow-light fixture or cultivation facility.

Which FAHOLD driver is suitable for a quantum-board grow light?

F1-H is designed for quantum-board and compact indoor horticulture fixtures. It covers 40W–320W with 100–277Vac input, 27–54V / 27–56V output, IP67 protection, built-in five-step knob dimming, Dim-to-Off and configurable plug-and-play connection options.

Which single-channel driver should I use for a 1000W or 1200W grow light?

For high-power isolated single-channel fixtures, FAHOLD H2 provides 1000W and 1200W models for 120–277Vac systems, while H2E provides 1000W and 1200W options for 200–277Vac systems. Final selection depends on the facility input, LED voltage range, required current and control requirements.

Are H2 and H2E grow light drivers programmable?

Yes. H2 and H2E support offline programmable output on compatible configurations. Output parameters can be configured within the permitted electrical range to match different LED-board current, fixture-power and product-family requirements.

Do single-channel grow light drivers support 0-10V and PWM dimming?

H2 and H2E support 0–10V, PWM and resistor-based Rx control on compatible dimmable configurations. F1-H uses a different fixture-level control approach based on built-in knob dimming. The required control method should therefore be defined before selecting the driver series.

What is Dim-to-Off in a grow light LED driver?

Dim-to-Off allows a compatible grow-light driver to shut the LED output completely off when the control reaches its lower threshold. This helps prevent visible afterglow during cultivation periods that require complete darkness.

What information should I provide when selecting a single-channel grow light driver?

Provide the AC input voltage, minimum and maximum LED forward voltage, required output current, maximum fixture wattage, dimming method, IP requirement, connector or auxiliary-interface requirements and target certification. These parameters allow the correct F1-H, H2 or H2E model to be matched more accurately.

Scroll to Top