FJ-IL-G01 Series High Bay Light - IEE-Business

English
RFQ

Download the app

FJ-IL-G01 Series High Bay Light

discuss personally

Model

Basic info Product Detail Supplier

Basic info

Brand	Wone Store
Model NO.	FJ-IL-G01 Series High Bay Light
Ingress Protection	IP65
Rated power	300W
Wide voltage input range	AC 100-265V
Lumen efficiency	130lm/W
CCT(color temperature)	3000-6000K
CRI(color render index)	≥80
beam angle	45°/60°/90°/120°
PF(Power Factor)	≥0.95
Series	FJ-IL-G01 Series

Product Detail

Overview

Professional finned heat sink, air convection design, optimized air ducts,all-round three-dimensional heat dissipation.

Adopt heat pipe riveting technology, combined with HDT technology and die-casting technology, fast heat conduction.

No lead, mercury and other pollutants.

Fast startup.

Long life time.

80% less power consumption than traditional lamps.

technical parameters

Model	Power	Lumen efficiency	CCT	CRI	Input voltage	IP	Beam angel	PF	Dimension
FJ-IL-G01-60W	60W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH382
FJ-IL-G01-80W	80W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH382
FJ-IL-G01-100W	100W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH414
FJ-IL-G01-120W	120W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH414
FJ-IL-G01-150W	150W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH454
FJ-IL-G01-240W	200W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH489
FJ-IL-G01-240W	240W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH510
FJ-IL-G01-300W	300W	130lm/w	3000-6000K	>80	AC100-265V	IP65	45°/60°/90°/120°	≥0.95	φ435xH510

Know your supplier

Wone Store

Main Categories

High Voltage Electrical Apparatus/Low Voltage Electrical Apparatus/Wire cable/Instrument meters/New energy/Tester/Production equipment/Generator/Electrical fittings/Integrated Electrical Equipment/Instrument Transformer/Equipment Parts

Business Type

Sales

Highest Annual Export (USD)

$300000000

Professional Experience

1 years

Workplace

1000m²

占位

占位

Related Products

Related Knowledges

What factors need to be considered when designing a transformer?

What factors need to be considered when designing a transformer?

Transformer design is a complex process that requires consideration of multiple factors to ensure safe and efficient operation. In addition, compliance with international and local regulations is essential to guarantee that transformers meet safety and performance standards. Below are key factors to consider in transformer design and the relevant regulations to follow:Transformer Design Factors: Voltage and Frequency: Determine the input and output voltage levels and the operating frequency. The

What failure modes are possible in a transformer? How to identify and fix these failures?

What failure modes are possible in a transformer? How to identify and fix these failures?

Transformers are critical components in power systems, and various failure modes can affect their operation. Timely identification and resolution of these failure modes are essential to prevent costly downtime and ensure system reliability. Below are some common transformer failure modes, along with methods to identify and address them: Insulation FailureIdentification: Insulation failure leads to decreased insulation resistance, which can be detected through insulation resistance testing (megge

A hybrid DC circuit breaker

A hybrid DC circuit breaker

Most DC molded-case circuit breakers use natural air arc extinction, and there are typically two arc extinguishing methods: one is conventional opening and closing, where the contacts axially stretch the arc, while the conductive circuit generates a magnetic field that bends and elongates the arc, pulling it lengthwise perpendicular to the arc axis. This not only increases the arc length but also induces lateral motion, enabling air cooling to achieve arc extinction.The other method involves the

Working Principle and Arc Extinction Mechanism of Magnetic Blowout Device in DC Circuit Breakers

Working Principle and Arc Extinction Mechanism of Magnetic Blowout Device in DC Circuit Breakers

The arc extinguishing system of a DC circuit breaker is crucial for the safe operation of equipment, as the arc generated during current interruption can damage contacts and compromise insulation.In AC systems, the current naturally passes through zero twice per cycle, and AC circuit breakers take full advantage of these zero-crossing points to extinguish the arc.However, DC systems lack natural current zero crossings, making arc extinction significantly more difficult for DC circuit breakers. T

Key Technologies of Low-Voltage DC Solid-State Circuit Breakers

Key Technologies of Low-Voltage DC Solid-State Circuit Breakers

1 Technical Challenges1.1Stability of Device ParallelingIn practical applications, the current-carrying capacity of a single power electronic device is relatively limited. To meet high-current requirements, multiple devices are often connected in parallel. However, parameter variations between devices—such as slight differences in on-resistance and threshold voltage—can cause uneven current distribution during parallel operation. During switching transients, parasitic inductance and capacitance

Can AC and DC circuit breakers be used interchangeably?

Can AC and DC circuit breakers be used interchangeably?

First of all, it must be clarified: AC circuit breakers must not be used to replace DC circuit breakers in DC circuits!Due to differences in arc generation and extinction processes between AC and DC, AC and DC circuit breakers with the same rated values do not have identical capabilities when interrupting DC power. Using AC circuit breakers in place of DC ones, or mixing AC and DC breakers, is one of the main causes of protection miscoordination and unintended upstream tripping.Circuit breakers