Choosing the Right Recolux Lighting LED Linear Lights

Brightness Requirements:
Before selecting Recolux Lighting LED linear lights, consider the size of the space to be illuminated and the level of brightness required. Commercial and industrial environments may require higher levels of brightness, while residential environments may prioritize softer lighting.

Lumen Value Reference: Lumens are a unit of measurement for the brightness of a light source and are typically labeled on the packaging of Recolux Lighting LED Linear Lights. In general, large commercial spaces may require fixtures with higher lumen values, while fixtures with lower lumen values are appropriate for residential environments.
Color Temperature Options:
Understand the concept of color temperature in Kelvin (K). Lower color temperatures result in warmer tones, while higher color temperatures result in cooler tones. Consider application and personal preference.

Commercial Spaces: Medium to high color temperatures (4,000K to 5,000K) are often chosen to enhance product visibility and create a vibrant atmosphere.
Residential: Lower color temperatures (2700K to 3500K) are preferred to create a warm and comfortable atmosphere.
Installation Methods:

Recessed and Suspended Installation: Recolux Lighting LED Linear Lights are available in a variety of installation methods, including recessed and suspended. Installation takes into account factors such as ceiling height, interior design and lighting requirements. Recessed lights are ideal for general illumination, while suspended lights are suitable for localized lighting or areas with decorative needs.
Fixture Length: Choose standard or customized lengths to ensure even light distribution throughout the space.
Installation Complexity: Consider the installation complexity of Recolux Lighting LED Linear Lights and choose the method that is right for your conditions. Some fixtures are designed for user-friendly installation, while others may require professional assistance.
Recolux Lighting LED Linear Lights Benefits and Applications Summary:
Recolux Lighting LED Linear Lights excel in lighting with their energy efficiency, environmental friendliness, dimmability and long life. These features make Recolux Lighting LED linear lights a powerful alternative to traditional lighting for a variety of applications including commercial, industrial and residential environments, providing users with advanced and flexible lighting solutions.

Commercial LED Track Lighting by Recolux: Pros and Cons Unveiled

Recolux is a professional commercial LED track lighting manufacturer providing innovative lighting solutions. Commercial LED track lighting is widely used in different industries, but when choosing a lighting solution, you must weigh the pros and cons. In this article we will analyze the advantages and disadvantages of commercial LED track lighting,

Advantages of commercial LED track lights:

Directional Lighting: Commercial LED track lighting systems support directional lighting, where the direction and angle of light can be adjusted as needed to highlight specific areas or merchandise.

Energy Saving: LED technology is more energy efficient than traditional lighting, reducing energy costs. Commercial operators can achieve significant energy savings by using LED track lighting systems.

Long lifespan: Commercial LED lights typically have a long lifespan, reducing replacement and maintenance costs and increasing equipment reliability.

Environmental protection: LED lamps do not contain harmful substances and are energy-saving, helping to reduce carbon footprint and comply with the concept of sustainable development.

Disadvantages of commercial LED track lights:

Higher Initial Investment: The relatively high initial cost of commercial LED track lighting systems may be prohibitive to some small businesses.

Light color temperature selection: Some commercial operators may have specific light color temperature requirements for LED lights, and choosing lights that suit their commercial atmosphere may require more time and energy.

Compatibility issues: In some old buildings, installing LED track lighting systems may require some structural changes, which may bring some additional investment and trouble.

When choosing commercial LED track lighting, you need to weigh the pros and cons based on your specific needs and scenarios. Recolux is committed to providing high-quality, innovative commercial LED track lighting solutions to light up your business. For more information, please contact us and we will be happy to provide you with professional advice and services.

Meeting the Industrial Challenge: The Recolux Advantage in LED Track Lighting

In the demanding landscape of industrial environments, the choice of LED track lighting plays a pivotal role in achieving optimal illumination and operational efficiency. Recolux, a name synonymous with innovation and reliability, stands out as a leading provider in this domain.

Enduring Harsh Conditions:
Recolux understands the rigorous conditions industrial settings pose — high temperatures, dust, vibrations, and more. Our industrial LED track lighting, fortified with cutting-edge technology, is engineered to endure these challenges seamlessly.

Robust Build for Reliability:
Crafted with precision, Recolux LED track lights boast a robust build that ensures resilience against mechanical stress and vibrations. These fixtures are designed to withstand the toughest industrial environments, maintaining stability and longevity.

Sealed Against Intruders:
Dust and particulate matter are common adversaries in industrial spaces. Recolux addresses this with sealed LED track lights, preventing the ingress of particles and minimizing maintenance requirements, thereby enhancing the durability of the fixtures.

Adaptive to Temperature Extremes:
In the face of temperature fluctuations, Recolux LED track lighting systems demonstrate adaptability. From the heat-intensive operations to cooler environments, our fixtures operate efficiently without compromise, providing consistent and reliable lighting.

Versatile Voltage Operation:
Understanding the variations in industrial voltage, Recolux LED track lights are engineered to operate seamlessly within a wide voltage range. This ensures stability even in situations where voltage fluctuations are common.

Resisting Corrosion with Precision:
Exposure to corrosive elements is a constant concern in industrial setups. Recolux combats this challenge with LED track lights constructed from materials resistant to corrosion, safeguarding against deterioration over time.

Smart Solutions for Efficiency:
Recolux integrates smart features into its LED track lighting, enhancing efficiency without compromising on reliability. Our fixtures provide a beacon of light in industrial spaces, adapting to the dynamic requirements of modern manufacturing environments.

In the realm of industrial LED track lighting, Recolux emerges not just as a manufacturer but as a partner, offering solutions that transcend the ordinary. Choose Recolux — where durability meets brilliance, and lighting becomes an experience tailored for the challenges of industrial landscapes.

Does the linear lamp’s black and white shell affect the brightness?

Whether or not the color of the housing affects the brightness is a common and important question when considering linear luminaires. This question is especially critical when selecting lighting products as it directly relates to the lighting effect and overall visual experience. In this article, we will take an in-depth look at the potential impact of a linear luminaire’s housing color on brightness, and take the opportunity to introduce Recolux as a professional brand in the lighting field.

Technical analysis of the relationship between housing color and luminance

First, we need to understand how linear luminaires work. The brightness of a lighting product is mainly determined by the power of the internal light source and the designed reflection system. The housing color usually does not directly affect the brightness of the light source, because the power of the light source will not be changed by the housing color.

However, housing color may affect the reflection and distribution of light to some extent. Light-colored housings may reflect light more favorably, thereby distributing it more evenly in the space. Conversely, dark-colored housings may absorb some of the light, making the illumination relatively weak in certain areas. However, this effect is usually minor and requires careful observation in actual use.

Recolux: the choice of a professional lighting brand


When choosing a linear luminaire, it is vital to select a professional lighting brand. recolux is a brand known for its exceptional lighting solutions, providing customers with high-quality, innovative, and reliable lighting products.

Recolux is committed to continually pushing the boundaries of lighting technology, ensuring that its products meet the highest standards of design, performance, and energy efficiency. Whether you are using linear fixtures in commercial spaces, home environments, or elsewhere, Recolux offers a diverse line of products to meet a variety of lighting needs.


Overall, the color of a linear luminaire’s housing has less of an impact on brightness and depends more on the power and design of the light source. When choosing lighting products, it is important to focus on the overall brand reputation and product quality. Recolux, as a professional lighting brand, not only leads in technology but also excels in design and user experience. By choosing Recolux, you can be assured of superior lighting and long-lasting product quality.

Four key points about LED efficiency

LEDs are now an important part of semiconductor light sources for general lighting applications due to their various advantages. For some time now, LEDs have been significantly more efficient than traditional lighting technologies. But how do you define the efficiency of a solid-state lighting (SSL) system? In common, everyday language, when talking about the efficiency of light sources, we usually refer to their luminous efficacy, measured in lumens per watt (lm/W). Another measure is radiant power. The implications of effectiveness and efficiency need to be considered, discussing the decision-making process that product developers must follow, as this affects the efficiency of the overall system.
Calculating a functional metric involves determining the luminous flux of a light source (lm) versus the electrical input power (W). In contrast, the corresponding photometric radiance does not take into account the sensitivity of the human eye, but is purely a measure of efficiency. The electrical input power (W) is divided by the photometric output power (W) to give the percentage efficiency.The efficiency of an LED depends on many different factors. We will cover some of them in detail in this article.
Color Temperature Affects LED Efficiency
The choice of color temperature has a significant impact on lighting efficiency and can be used as a way to efficiently plan lighting solutions within the framework of existing lighting regulations. LEDs with high color temperatures (e.g. 5000K) are typically more efficient than
those with a lower color temperature (e.g. 3000K) are more efficient. The graphs in Figure 1 show the spectra (or spectral power distribution – SPD) of LEDs for different CCT values at color rendering index (CRI) Ra> 80. The SPD curves are built on the human sensitivity curve Vλ.

Figure 1 Spectral power distribution of 80-CRI LEDs at different CCT values
In order for LEDs to produce white light, LED chips that emit blue light are usually used. Some of the light from these lamps is converted to longer wavelengths (green, yellow, and red light) through a converter or phosphor, which adds all these colors together and then produces white light. But there are losses in the conversion process, and the more the wavelengths of the converted light increase, the more the losses increase, because the difference in energy between the higher energy level (blue) light and the lower energy level (red) light is converted to heat.
Minimizing losses requires accurate calculation of the absorbing and emitting wavelengths of the converter. However, a simplified situation is sufficient to explain the basic principles. For example, for a warm color temperature of 3000 K, a large amount of red light needs to be converted. However, this requirement results in greater losses and reduced luminous efficiency compared to 4000K. For a high color temperature of 5000K, blue light only needs to be converted to green light and less to red, which is why the luminous efficacy is increased compared to 4000K. The comparison of efficacy is shown in Figure 2.

Figure 2 Relative luminous efficacy of different CCTs at CRI Ra 80
Effect of color rendering on LED efficiency
As mentioned above, choosing the right converter, after conversion, the composition of the color spectrum has a decisive impact on the efficiency of the LED. Converter combinations have been developed specifically for different CRIs and are optimized for CRI as well as efficiency. The difference between CRIs 70, 80 and 90 can be seen very clearly when displaying red colors. In order to reproduce these color shades as realistically as possible, a high percentage of long-wave light is required; in other words, light from the red end of the spectrum.
Figure 3 shows the SPD of a 4000K LED at different CRI values. the high percentage of red in the CRI 90 version can be clearly seen. As mentioned above, producing such a high percentage involves high losses. In addition, most of the red energy produced clearly exceeds the sensitivity curve of the human eye for Vλ, which leads to a further reduction in luminous efficiency. The effect of different color temperatures on the luminous efficiency of LEDs is in the range of ±5%, and the effect of CRI at different values is usually in the range of ±15% (Figure 4).

Figure 3 SPD of 4000K-CCT LEDs at different CRI values

Figure 4 Relative luminous efficacy at different color rendering values at 4000K
LED Efficiency Tunable
LED optoelectronic semiconductors offer additional dimensions compared to conventional light sources, and luminaire manufacturers can adjust and set the efficiency or luminous efficacy, i.e. current density, on an application-specific basis.
LEDs are usually grouped according to brightness and color for a given operating current. For specific grouping conditions, it is therefore possible to adjust the efficiency appropriate to the application and desired level of luminous efficacy by varying the current density.
For example, if 130 lm/W luminous efficacy LEDs are used at a specified grouping current, the operating current can be reduced to 40%, which will ultimately increase luminous efficacy by 20% to 156 lm/W. If the operating current is increased to 140%, luminous efficacy will be reduced by 10% to 117 lm/W. Table 1 summarizes the variable current density.
Table 1 Variations in current density have corresponding efficacy effects

Operating conditions 1Grouping conditionsOperating conditions 3
Grouping conditions40%100%140%
Luminous flux(Im)43%100%130%

Table 2 Based on the theory of two different LEDs, product developers
Trade-offs in LED system design

System A composed of LED1System B composed of LED2System C composed of LED2System D composed of LED2
Grouping conditions100%100%136%136%
Luminous flux(Im)100%110%142%100%
LED quantity100%100%100%70%

The efficiency curve also depends on other parameters, such as the operating temperature or the maximum operating conditions to be met. At both points, the absolute luminous flux of the LED varies naturally. We will take a closer look at this effect in the next section.
Reducing system costs with more efficient LEDs
Over the course of development, LEDs have become brighter and therefore more efficient. However, some applications do not necessarily require higher efficiency. So why is there such a demand for brighter LEDs? Undoubtedly, one reason is that more efficient LEDs can significantly reduce costs at the solid-state lighting system level.
Take a look at an example. For the purposes of the following comparison, suppose a product is to be created with 100% efficiency and luminous flux. Here one of two LEDs can be selected: LED 1 with a luminance of 100% and the more efficient LED 2 with a luminance of 110%. Figures 5 and 6 graphically depict the two LEDs under system-level operating conditions.
System A with LED 1 is used as a reference. At a normal operating current of 100%, the system has a relative efficiency of 100% and a relative luminous flux value of 100%. The relative number of LEDs required for the system is also 100%.
If LED 2 is used, system B of FIG. 5 can be realized. in this system, the LEDs are operated at the same current and the same number of LEDs are used. as a result, the efficiency and brightness of system B is increased by 10%. Brighter can be a selling point for the luminaire or can provide options for the luminaire manufacturer to change the operating parameters.

Figure 5 This graph depicts the change in luminous efficacy as the operating current changes.

Figure 6 This graph shows the change in luminous flux relative to the operating current.
If there is no need to improve efficiency at the system level, perhaps because the system has reached the threshold for an energy efficiency rating, the efficiency can be reduced from 110% to 100% by increasing the current density. This means that in addition to the initial 10%, the new System C will be brighter, with a brightness level 42% higher than System A due to the same efficiency as System A.
But suppose the application may not require the greater luminous flux output. Table 2 summarizes this scenario and presents a System D option. Because System C is much brighter than System A, there is an option to reduce the number of LEDs. System D uses 70% of the number of LEDs in System A, thus significantly reducing the cost of the system.
This example can be very easily applied to systems with a large number of LEDs. It can also be used for single LED systems if the luminous flux package can be reduced and packaged LEDs with smaller chips can be used. The level of savings in each case depends on a variety of other parameters and may vary depending on the operating point.
These examples given here show that color temperature as well as CRI have a significant effect on the luminous efficiency of LEDs. Specifically, the higher the color temperature, the higher the luminous efficiency; the higher the CRI, the lower the luminous efficiency. In this regard, the key difference between LEDs and conventional light sources is that the efficiency of LEDs can be adjusted by the operating current. Because of the significant savings in LED costs, this should be fully considered when selecting an LED system.

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