1.   Technology overview

Based on laser technology, FHA10 is a brand new product designed and produced by Unionlux. With high brightness, compact-designed, long lifetime and stability and strong direction, it offers premium beam lighting for flashlight or long-distance searching light . It combines the novel, proprietary technology and advanced production together, which will make you product powerful.

Features

Technology: High power laser stimulates phosphor to emit visible light

High luminous intensity, twice of the xenon lamp

Long lifetime, more than 10,000 hours

Stability and reliability

Low operating voltage, cool start

Cover visible spectrum, no IR and UV component

2. Performance Characteristics

2.1 Absolute Maximum Ratings

Notes for the above table:

*1) Test Condition: Tm =25°C, ACC (Auto Current Control) Operation

Individual LD light source module.

*2) Refer to Figure 4.

2.2 Electrical Characteristics

Notes for the above table:

*3) Based on CW operation.

    Test Condition: Tm =25°C, ACC (Auto Current Control) Operation

Figure 1.Pin assignment

2.3 Initial Optical Parameter based on integrating sphere testing

Notes for the above table:

All parameters in this specification are measured by Unionlux's method and may contain measurement deviations.

*4) Test Condition: Tm =25°C, ACC, If=2.5A (CW)

2.4 Initial Optical Parameter based on spot on wall

Notes for the above table:

All parameters in this specification are measured by Unionlux's method and may contain measurement deviations.

*5) Test Condition: Tm =25°C, ACC, If=2.5A (CW)

    Center Point [P0] refers to Figure 3.

Figure 2.Illumination parameters for further distance^*6)

2.5 Lifetime Characteristics

Notes for the above table:

*7) Test Condition: Tm =65°C, ACC, If=2.5A (CW)

2.6 Thermal Characteristics

Figure 3.Schematic diagram of measurement system

Heat Dissipation System: Ensure the temperature of the Copperplate[T_m] ≤65℃.

Calculating method of Thermal Power [P_th]: P_th = Operating Power * 75%

3. Characteristics Curves

Figure 4. Relative Luminous Flux vs. Forward Current^*8)

Figure 5. Forward Voltage vs. Forward Current^*8)

Figure 6. CCT vs. Copperplate Temperature[T_m] at If=2.5A (CW) ^*8)

Figure 7. Relative Luminous Flux vs. Copperplate Temperature[T_m] at I_f=2.5A (CW) ^*8)

Figure 8. Forward Voltage vs. Copperplate Temperature[T_m] at I_f=2.5A(CW) ^*8)

4. Spectral Power Distribution Characteristics

Figure 9. Typical normalized power vs. wavelength at T_m =25°C, ACC, I_f=2.5A (CW)

5. Mechanical Dimensions

The mechancial dimensions will be sent upon customers' request.