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​Installing LED strips enhances your space with a subtle, ambient glow (indirect LED Lighting) or lines of light that create a modern aesthetically appealing installation. below you will find the LED Strip Installation guide​ Plan Your Layout Determine where you want to install the LED Strip, such as in bulkheads or coves. Determine whether the strip will be direct or indirect lighting. This will influence the type of LED strip and profile that would be most suitable for the application. Measure the installation area to know the length of LED strips and aluminium profiles required.​ Remember to take into account off cuts. It is recommended to have 10% additional strip on hand before you start the installation. Choose the Right LED Strips Select LED strips based on brightness, colour temperature, and chip type.​ For direct lighting, higher LED density helps achieve a uniform glow.​ Consider using 2110, 2116 or high output COB strip Consider the cutting length you require. Dark spots or hot spots look visually unappealing Be careful to cut only on the copper cutting pads as indicated on the image below Select Appropriate Aluminium Profiles Aluminium profiles house the LED strips, aiding in heat dissipation and providing a polished look.​ The depth of the profile affects light diffusion and uniformity.​ Install the Aluminium Profiles Mount the profiles securely in the chosen location, ensuring they are straight and level.​ Consider the depth of the mounting groove and the thickness of the surface.​ You may require cutting of the LED Strip to fit into the profile. You may also be required to extend the LED strip through soldering which means you will need a soldering iron, solder and flux. (and a whole lot of patience) Be careful to connect the LED strip with the correct polarity You can also use quick connectors to extend LED strip , which is much more reliable and faster Attach the LED Strips Clean the surface inside the aluminium profile.​ Ensure the profile is wiped clean of all dust and human sweat and oils Use gloves to ensure that you are not touching the LED chips when installing Peel off the adhesive backing from the LED strip and press it firmly into the profile.​ Be careful not to remove the strip once installed. This may affect the 3M tape on the back of the LED Strip and not stick on the profile as expected Connect to Power Supply Wire the LED strips to a compatible power supply, following the manufacturer's instructions.​ Ensure all connections are secure and insulated. Ensure that you are using the correct Voltage driver to match the LED Strip. This could be 12v, 24v or 48v. Test the Installation Before finalizing, turn on the lights to check for uniformity and desired brightness.​ Make any necessary adjustments.​ LED Chip Types and Recommended Aluminium Profile Depths The combination of LED chip type and aluminium profile depth influences the uniformity of the emitted light. Here's a guide:​ LED Chip Type Chip Size (mm) Recommended Profile Depth (mm) Notes 2835 2.8 x 3.5 12–15 Suitable for general indirect lighting with moderate diffusion. 3528 3.5 x 2.8 12–15 Similar to 2835; offers a balance between brightness and diffusion. 5050 5.0 x 5.0 12–50 Larger chips require deeper profiles for uniform light distribution. COB N/A 8–12 Chip-on-Board design allows for shallower profiles with even lighting. Deeper profiles help in reducing visible spotting, especially with larger LED chips.  >12mm deep profile can minimize spotting even with standard non-COB LED strips. ​ By carefully selecting your LED strips and matching them with appropriate aluminium profiles, you can achieve a seamless and aesthetically pleasing indirect lighting effect in your space.​ For more information, please contact our sales office on +27(0)11 4620251, send a mail to sales@genesisone.co.za  or visit our website www.genesisonelighting.com Visit our google business profile https://g.co/kgs/FPEZzs6 Unit 27, Northlands retail park, 210 Epsom Avenue, Hoogland, Randburg, 2169

There is a saying that the only moment in time that anyone is happy with a cheaper product is the day they part with their money in exchange for the product. From that point on, it is often the case that discontent and ongoing problems erode the memory of happiness. From harsh glares to yellowing, or premature lumen depreciation, failing lights and the constant worry of replacements, is often an afterthought until something goes wrong. Genesis One Lighting has introduced the modular LED panels range These aren't your standard LED panels. These are thoughtfully designed and built around the idea of flexibility, ease of maintenance and performance. Imagine sleek, modern panels, available in both classic square and streamlined linear designs, that seamlessly integrate into any setting. One of the standout features is their incredible low maintenance requirements and longevity. Forget about having to swap out an entire fixture when a component fails. With these modular panels, each light unit can be individually popped out and replaced with ease. This not only simplifies maintenance but also makes it incredibly cost-effective in the long run. Think of the reduced downtime and the savings on replacing entire light fittings. Boasting a high lumen efficiency of 150 lumens per watt, they deliver a significant amount of light while keeping energy consumption impressively low. This translates directly to lower electricity bills and a smaller carbon footprint. This is a perfect solution and strong consideration for green building projects. And for those sensitive to glare, the anti-glare design with a UGR (Unified Glare Ratio) of less than 16. This ensures a comfortable and visually soothing environment, perfect for offices, hospitals, clinics, laboratories, and anywhere prolonged focus is needed. We've even taken it a step further with a secondary optical design specifically for enhanced eye protection, minimizing eye fatigue and discomfort. But what truly sets these panels apart, especially in environments like medical facilities , is their optional Medical Grade Light Spectrum (COI<3) and a CRI of over 93. Traditional LED panels often have a CRI of around 80, but these go above and beyond. This high Colour Rendering Index means that colours appear incredibly accurate, which is absolutely crucial in healthcare settings where precision is paramount – for example accurately identifying tissue colours or drawing blood with confidence. The low Cyanosis Observation Index further ensures the light is suitable for medical observation without distorting skin tones.   Safety is also a top priority. These lights are constructed with fire-resistant materials capable of withstanding extreme temperatures, providing an extra layer of security and peace of mind.   We understand that different spaces have different needs, which is why these modular LED panels come with optional smart sensor integration. Whether you need microwave sensors for detecting movement, PIR (passive infrared) sensors for occupancy detection, or daylight sensors to adjust brightness based on natural light, these panels can be customized to optimize energy usage and convenience.   Each panel, typically featuring four square modules, is powered by two external, flicker-free drivers. This ensures stable and consistent light output, contributing to a healthier and more comfortable working environment by eliminating potential eye strain and headaches. Further, in the event of driver failure, the fitting will still boast >3000 lumen.   The Modular LED Panels offer versatile dimming options, including Traic, 0-10V, and DALI. This allows you to easily adjust the light levels to suit different tasks, moods, or energy-saving requirements.   We stand behind the quality and durability of these modular LED panels , which is why they come with a comprehensive 5-year warranty. Furthermore, the LEDs themselves boast a lifespan exceeding 50,000 L70 hours, meaning they're built to last, offering years of reliable illumination with minimal maintenance.   The modular LED panels represent a significant leap forward in lighting technology. They combine energy efficiency, exceptional light quality, user-friendly design, and advanced features to create a lighting solution that truly works for you. Whether you're outfitting an office, a healthcare facility, or any space where quality lighting matters.For more information, please contact our sales office on +27(0)11 4620251, send a mail to sales@genesisone.co.za  or visit our website www.genesisonelighting.com Visit our google business profile https://g.co/kgs/FPEZzs6 Unit 27, Northlands retail park, 210 Epsom Avenue, Hoogland, Randburg, 2169

We are often asked the question whether 4000k or 6000k lighting is best suited for healthcare and clinical environments. In our opinion there are many advantages of using 4000K Correlated Colour Temperature (CCT) lighting in hospital environments compared to 6000K CCT. While 6000K lighting offers a cool, bright appearance, we argue that 4000K lighting provides a more balanced spectral power distribution that is beneficial for patient well-being, staff comfort, and crucially, the accurate visual diagnosis of critical conditions like hypoxia and cyanosis. 1.  Introduction : The lighting within a hospital plays an important role in creating a healing environment, supporting staff efficiency, and enabling accurate medical assessments. Correlated Colour Temperature (CCT), measured in Kelvin (K), describes the perceived warmth or coolness of white light. Hospitals often consider high CCTs (e.g., 6000K) for their perceived brightness and cleanliness. However, this is more a perception than a scientific reality. We believe and detail below why a warmer, more neutral 4000K CCT offers significant advantages, particularly concerning visual diagnosis. Lets consider the benefits of using 4000K CCT Lighting in Hospitals. 2. Understanding CCT and its Impact :  6000K CCT (Cool White/Daylight): This light source emits a higher proportion of blue wavelengths, resulting in a crisp, bright, and often stark appearance similar to daylight. While it can enhance alertness, it can also increase glare and perceived harshness.  4000K CCT (Neutral White): This light source offers a more balanced spectral power distribution, appearing less blue and closer to natural sunlight around midday. It provides good visual acuity without the harshness associated with higher CCTs. 3. General Benefits of 4000K CCT in Hospitals :  * Improved Patient Comfort and Well-being : Studies suggest that warmer, more natural light temperatures can contribute to a more calming and less institutional atmosphere, potentially reducing patient anxiety and promoting better sleep. The strong blue light component in 6000K can suppress melatonin production, potentially disrupting circadian rhythms and hindering recovery.  * Enhanced Staff Comfort and Reduced Eye Strain : The high blue light content and potential for glare in 6000K lighting can contribute to eye strain and fatigue among hospital staff who spend long hours under artificial light. 4000K offers a softer light that is less likely to cause discomfort, improving staff well-being and potentially reducing errors. According to a study at Harvard University “Blue light from LED lamps can be harmful to the eye if it is too bright or too close. Blue light can also disrupt the circadian rhythm and affect sleep quality if it is overexposed during evening hours. Blue light is similar to caffeine, and similar common-sense precautions should be taken, such as filtering, shielding, or avoiding blue light before bedtime”  * More Accurate Colour Rendering : While both 4000K and 6000K can have high Colour Rendering Indices (CRI), which indicate how accurately colours are perceived, the balanced spectrum of 4000K tends to render a wider range of colours more naturally. This is crucial for various medical assessments beyond skin tone. This is especially true for medical COI led panels / light sources 4. Impact on Visual Diagnosis of Hypoxia and Cyanosis : Accurate visual assessment of cyanosis (bluish discolouration of the skin and mucous membranes due to deoxygenated hemoglobin) and hypoxia (oxygen deficiency in the body) is a crucial diagnostic tool in clinical settings. However, the perceived colour of a patient's skin can be significantly influenced by the ambient lighting conditions. The key lighting parameters recommended for optimal visual observation of these conditions, specifically focusing on Correlated Colour Temperature (CCT), Colour Rendering Index (CRI), and the Cyanosis Observation Index (COI). Recommended Lighting Parameters for Cyanosis and Hypoxia Observation: Based on research and clinical best practices, the following lighting parameters are crucial for accurate visual assessment of cyanosis and hypoxia: A.     Correlated Colour Temperature (CCT): 3500K - 5300K  CCT describes the "warmth" or "coolness" of a white light source, measured in Kelvin (K). Lower CCT values (e.g., 2700K) indicate warmer, more yellowish light, while higher values (e.g., 6500K) indicate cooler, bluer light.   Light with excessive blue content (higher CCT) can mask the subtle bluish hues associated with cyanosis . Conversely, overly warm light (lower CCT) can introduce a yellowish cast that might interfere with accurate colour perception. The recommended window of 3500K to 5300K provides a balanced spectral distribution that allows for the reliable detection of subtle blue discolouration without significant colour distortion. This range generally encompasses "neutral white" to "cool white" light sources. B. Colour Rendering Index (CRI): Greater than 93  CRI is a quantitative measure of a light source's ability to accurately reproduce the colours of objects compared to an ideal light source (like daylight or a black body radiator). It is expressed on a scale of 0 to 100, with 100 representing perfect colour rendering. A high CRI is essential for accurately perceiving the subtle colour changes associated with cyanosis. Light sources with a low CRI may distort the true colours of the skin and mucous membranes, making it difficult to distinguish between normal skin tones and the bluish tinge of cyanosis. A CRI greater than 93 ensures that the light source renders colours with high fidelity, allowing clinicians to reliably detect subtle colour variations. C. Cyanosis Observation Index (COI): Less than 3.3 The COI is a specific metric designed to predict how well cyanosis will be visible under a given light source. It takes into account the spectral power distribution of the light source and the spectral reflectance of cyanotic skin. Lower COI values indicate better visibility of cyanosis .  The COI directly addresses the challenge of light source influence on cyanosis detection. A COI below 3.3 signifies that the light source has a spectral composition that minimizes the masking effect on the bluish discolouration of cyanosis, thereby enhancing its visual detection. This parameter provides a more direct and specific measure for optimizing lighting for this particular clinical observation compared to CCT and CRI alone. Observe the R9 (RED Spectrum) of a medical grade light (CRI 90) vs a standard (CRI 80) light source. How does this compare with a Typical Office Light (6000K)?: CCT : 6000K falls outside the recommended window of 3500K to 5300K. This higher CCT indicates a cooler, more blue-rich light. This increased blue content can potentially mask the subtle bluish discolouration of cyanosis, making its visual detection more challenging. CRI : While modern office lighting often aims for a CRI of 80 or higher, it may not consistently achieve a CRI greater than 93. A lower CRI means that the light source might distort the true colours of the skin, potentially making it difficult to differentiate normal skin tones from subtle cyanosis. Even with a relatively high CRI of 80-90, the subtle spectral differences compared to a CRI above 93 can still impact the accurate perception of delicate colour variations. COI : A light source with a high CCT (like 6000K) and potentially a lower CRI is likely to have a higher COI value, potentially exceeding the recommended threshold of 3.3. This indicates that cyanosis may be less visible under such lighting conditions due to the spectral characteristics that can obscure the bluish hues. Typical office lighting with a CCT of 6000K may not be optimal for the accurate visual observation of cyanosis and hypoxia . Its higher blue content (higher CCT) can mask the subtle bluish discolouration, and a potentially lower CRI might distort skin tones, making detection challenging. Furthermore, this combination likely results in a higher COI, indicating reduced visibility of cyanosis. To ensure reliable visual assessment of cyanosis and hypoxia, healthcare settings should prioritize lighting systems that adhere to the recommended parameters: 1. a CCT within the 3500K to 5300K range, 2. a CRI greater than 93, and a 3. COI less than 3.3. References: 1. Dain SJ, Hood JW. Lighting for cyanosis identification, Conference Proceedings IES Convention, 1997. 2. AS 1765:1975, Artificial lighting for clinical observation, Standards Australia, 1975. 3. AS/NZS 1680.2.5:1997, Interior lighting, Part 2.5: Hospital and medical tasks, Standards Australia, 1997. 4. LightLab International. Why tri-phosphor lamps are unsuitable for hospital lighting, Lab Notes Issue 4. For more information, please contact our sales office on +27(0)11 4620251, send a mail to sales@genesisone.co.za  or visit our website www.genesisonelighting.com Visit our google business profile https://g.co/kgs/FPEZzs6 Unit 27, Northlands retail park, 210 Epsom Avenue, Hoogland, Randburg, 2169

We are often approached with requests for pricing on LED High bays , typically with only the wattage as the prescribed specification. Why do some LED high bay lights have a bigger price tag than others? Lets compare the LED High bay price vs the quality in the review below It can be a bit confusing, but it often boils down to the quality of the parts inside. Think of it like buying electronics – certain brands are known for their reliability and performance. With LED lights, two main parts really make a difference in price and how good the light is: the LED driver  and the LED chip . If price is the dictate to your procurement decision, understanding the information below may be of great benefit to you. Let's think of the LED driver  as the power source for your light. It makes sure the LED chip gets the right amount of electricity to shine brightly and consistently. Different companies make these drivers, and some are known for their quality and longevity. Our table shows a few categories of LED drivers by brand: Category A:  Drivers made by Company A . This brand is often known for its reliability and good performance. Category B:  Drivers made by Company B . These are well-established companies in the lighting industry, often associated with quality. Category C:  Drivers from Company C . These brands are also known for producing good quality drivers. Category D:  Drivers made by the manufacturer in-house Company D . The quality here can vary quite a bit depending on the manufacturer. Category E:   Cheap low-quality drivers Company E . These are typically used to keep the cost of the light down. Now, the LED chip  is the part that actually produces the light. Different companies make these chips, and some are better at producing bright, long-lasting, and efficient light. Our table also shows categories of LED chips by brand: Category A:  Chips from Company A . This is a well-regarded brand known for high-quality LED chips. Category B:  Chips from Company B . These are also reputable manufacturers of LED chips. Category C:  Chips from Company C . Again, established brands in the lighting component market. Category D:  Chips made by the manufacturer in-house Company D . Similar to drivers, the quality can vary. Category E:   Cheap low-quality LED chips Company E . These are used in more budget-friendly lights. When you combine different types of LED drivers with different types of LED chips, you get different levels of price and quality. For Example: AE (High quality driver + Cheap low-quality LED chip):  Here, you have a more reputable driver but a lower-quality chip. This might lead to a COMPETITIVE  price but a LOWER END quality. The driver might be good, but the light output and lifespan could be limited by the chip. EE (Cheap low-quality driver + Cheap low-quality LED chip):  This combination results in a Cheap  price but poor quality. Both the driver and the chip are likely to be less reliable and offer lower performance. This table shows a range of these combinations and the resulting price and quality: COMBINATIONS PRICE QUALITY AA HIGH EXCELLENT AB HIGH GREAT AC MEDIUM GOOD AD MEDIUM MID RANGE AE COMPETITIVE LOWER END BA HIGH GREAT BB HIGH GOOD BC MEDIUM TO HIGH GOOD BD MEDIUM ACCEPTABLE BE BELOW MEDIUM OK, NOT GREAT CA HIGH GREAT CB MEDIUM GOOD CC MEDIUM MID RANGE CD MEDIUM ACCEPTABLE CE COMPETITIVE LOWER END DA MEDIUM MID RANGE DB MEDIUM ACCEPTABLE DC MEDIUM ACCEPTABLE DD LOWER END OK, NOT GREAT DE LOWER END OK, NOT GREAT EA MEDIUM ACCEPTABLE EB MEDIUM OK, NOT GREAT EC LOWER END NOT GREAT ED LOWER END NOT GREAT EE CHEAP POOR All of these combinations will result in different prices for the product. How therefore is the comparison of price, the final decision-making criteria for your choice of High bays? What does this mean for you when buying LED high bay lights ? Don't just look at the price. Consider the brands of the LED driver and the LED chip inside. Lights that use well-known and reputable brands are generally going to cost more, but they are also likely to offer better performance, longer lifespan, and higher reliability. Choosing a cheaper light with unknown or low-quality drivers and chips might save you money initially, but you could end up spending more in the long run on replacements and higher energy bills due to lower efficiency. Understanding the brands behind the LED driver and chip is a crucial step in making a smart choice for your LED high bay lighting needs. When considering led High bays, consider using combinations of the well-regarded LED chip manufacturers and led driver manufacturers, a list of which is provided below: RECCOMENDED LED CHIP MANUFACTURERS Nichia (Japan):  Often considered a leader in high-quality and innovative LED technology, including the development of the first high-luminous blue LED. Cree LED (USA):  A well-known innovator and manufacturer with a broad portfolio of LED chips for various applications. Samsung LED (South Korea):  A major global technology company with a significant presence in the LED market, offering a wide range of LED solutions. OSRAM Opto Semiconductors (Germany):  A long-established company with a strong reputation for quality and innovation in optoelectronic components, including LEDs. Lumileds (USA/Netherlands):  Known for high-performance LEDs used in various applications, including automotive and general lighting. Epistar (Taiwan):  A leading LED chip manufacturer playing a significant role in the LED industry. San'an Optoelectronics (China):  A major player in the LED chip market, focusing on high-brightness LED wafers and chips. LG Innotek (South Korea):  A global leader in electronic components, including advanced LED technology. Toyoda Gosei (Japan):  Known for its high-quality LED chips and innovations in light quality, sometimes using similar phosphor technology to Nichia. Seoul Semiconductor (South Korea):  A global LED company with a focus on innovation and a wide range of LED products. RECCOMENDED LED DRIVER MANUFACTURERS Meanwell (Taiwan):  A very popular and widely used brand known for its reliable and cost-effective LED drivers with a broad range of options. Inventronics (China):  A reputable manufacturer specializing in high-performance and long-lifespan LED drivers, often used in industrial and outdoor applications. Philips/Signify (Netherlands):  A well-established global lighting company that also produces high-quality and reliable LED drivers. OSRAM (Germany):  Another major player in the lighting industry with a long history of producing quality lighting components, including LED drivers. Tridonic (Austria):  Known for its innovative and intelligent lighting solutions, including efficient and reliable LED drivers and control systems. Moso Power Technology (China):  A significant manufacturer focusing on LED drivers for outdoor, industrial, and smart lighting applications, known for reliable and efficient products. Sosen (China):  Specializes in medium to high-power LED drivers, often used in street and industrial lighting, with a reputation for durability. Lifud (China):  A company focused on providing high-performance and reliable LED drivers for various lighting applications, emphasizing energy efficiency. Eaglerise Electric & Electronic (China):  A long-standing manufacturer of LED drivers known for their stable performance and a wide range of products for different lighting needs. Helvar (Finland):  A company specializing in energy-efficient LED drivers and advanced lighting control systems, often used in commercial and industrial projects. For more information, please contact our sales office on +27(0)11 4620251, send a mail to sales@genesisone.co.za  or visit our website www.genesisonelighting.com Visit our google business profile https://g.co/kgs/FPEZzs6 Unit 27, Northlands retail park, 210 Epsom Avenue, Hoogland, Randburg, 2169