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OEM/ODM Bench & Tray

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Bench & Tray Manufacturers

Taizhou Sunshine Garden Products Co.,Ltd is a leading home garden and hydroponic grow equipments manufacturer and supplier from China with 12 years OEM & ODM experience. Specialized Bench & Tray Manufacturers, Our main products can be divided into two series, including Hydroponic Grow Equipmentslike Full completed grow tents and kits, Grow tables and trays, Grow bags, Seeding propagation, another series is Home Garden Products like Mini Greenhouses, Hanging planters, Garden waste bags and so on. We wholesale Bench & Tray, We could also make customized products according to your needs. We helped a lot of clients creating their own brand with our strict quality raw material select, higher quality production technology and professional services. Warmly welcome to visit our Bench & Tray factory.

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Our factories are supervised carefully, we have strict quality assurance test and lab test and multiple inspections. This means we find glitches before they become problems, thus preventing you from disastrous quality problems. We guarantee your satisfaction from start to finish.

We helped a lot of clients creating their own brand with our strict quality raw material select, higher quality production technology and professional services.

We could also make customized products according to your needs. you can talk to our customer service center about your sourcing requirements, whether selecting a current product from our catalog or seeking assistance for your application.

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News
How about CMH Sodium Light Performance in Conditions
Sep 19.2025
Lighting systems in horticulture and commercial applications often face challenging conditions, including high temperatures and high humidity. CMH Sodium Light has gained popularity due to its full-spectrum output, energy efficiency, and long lifespan. However, environmental factors such as excessive heat or moisture can influence the stability, performance, and longevity of these lamps. Understanding how these lights behave under conditions is critical for ensuring consistent growth, energy efficiency, and safety. Effects of High Temperature on Lamp Stability High temperatures can impact both the electrical and mechanical components of CMH Sodium Light. The lamp’s arc tube and ceramic components are designed to withstand significant heat, but prolonged exposure to elevated temperatures can accelerate material degradation. Excessive heat can cause thermal expansion of internal components, potentially altering the arc path and reducing light output. Additionally, the ballast or driver connected to the lamp may also experience reduced efficiency and increased stress under sustained high temperatures. Ensuring proper ventilation and heat dissipation is therefore crucial to maintain stable performance. Influence of Humidity and Moisture Moisture is another factor that can affect the operational stability of CMH Sodium Light. High-humidity environments, such as greenhouses or tropical indoor facilities, can cause condensation on lamp surfaces or within fixtures. While the lamps themselves are generally sealed, prolonged exposure to moisture can cause corrosion of metallic contacts and electrical connections, reducing lifespan and reliability. Proper sealing, protective housings, and regular maintenance can mitigate these risks, preserving both light quality and energy efficiency. Impact on Light Output and Efficiency Environmental stressors can also influence the luminous output and spectral consistency of CMH Sodium Light. High temperatures may cause slight color shifts in the emitted light, potentially affecting plant growth if used in horticultural settings. Similarly, moisture-related issues, such as contact corrosion or ballast degradation, can reduce overall light output and stability. These variations highlight the importance of monitoring lamp performance in challenging conditions and implementing preventive measures to ensure consistent lighting. Mitigation Strategies for Extreme Environments Several strategies can enhance the stability of CMH Sodium Light in high-temperature or humid conditions. First, using fixtures with adequate ventilation or active cooling helps dissipate heat and maintain suitable operating temperatures. Second, selecting lamps with high-quality construction, including robust arc tubes and corrosion-resistant connectors, increases tolerance to moisture. Third, incorporating environmental monitoring, such as temperature and humidity sensors, allows facility managers to take proactive measures, preventing lamp failure and ensuring consistent performance. Practical Applications and Considerations Understanding environmental stability is particularly important in commercial horticulture, industrial facilities, and outdoor installations. In these scenarios, consistent light output directly affects plant growth, productivity, and operational efficiency. Choosing CMH Sodium Light models rated for conditions, combined with proper fixture design and maintenance practices, ensures reliable performance. This approach minimizes downtime, reduces replacement costs, and protects investment in lighting infrastructure. CMH Sodium Light demonstrates strong performance in standard conditions but can be affected by high temperatures and high humidity. Thermal stress can impact the arc tube and ballast, while moisture may degrade electrical connections and reduce light output. Implementing proper ventilation, using corrosion-resistant fixtures, and conducting regular maintenance are essential to maintain stability. By understanding and addressing environmental challenges, users can ensure consistent performance, extend lamp lifespan, and optimize efficiency in demanding horticultural and commercial applications.
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Evaluating How Power Ratings Influence CMH Sodium Light Efficiency
Sep 12.2025
CMH Sodium Light has become a popular choice in horticulture and commercial lighting due to its full-spectrum output and relative energy efficiency. One key consideration when selecting these lamps is the relationship between power rating and luminous efficiency. Luminous efficiency, often measured in lumens per watt (lm/W), indicates how effectively a light converts electrical energy into visible light. Understanding how different power levels affect performance can help growers, facility managers, and engineers make informed decisions regarding energy use, lighting coverage, and overall system performance. Understanding Luminous Efficiency Luminous efficiency reflects the amount of usable light produced per unit of electrical power consumed. In CMH Sodium Light, efficiency is influenced by both lamp design and operating conditions. Lower-power lamps typically operate at cooler temperatures and may achieve slightly higher efficiency per watt, but they produce less total light, which may not be sufficient for larger cultivation areas or commercial spaces. Conversely, higher-power lamps provide greater total light output, but heat buildup and electrical losses can sometimes reduce overall efficiency on a per-watt basis. Efficiency Differences Across Power Ratings The efficiency of CMH Sodium Light varies depending on wattage. For example, a 315-watt CMH lamp might deliver high lumens per watt in compact spaces, making it suitable for smaller grow tents or confined areas. A 630-watt lamp, while producing double the total lumens, may show slightly lower efficiency per watt due to increased thermal losses and electrical resistance. This does not necessarily mean that higher-power lamps are inefficient; rather, their design balances high total light output with energy consumption, making them ideal for large-scale operations where total coverage is a priority. Impact on Plant Growth and Coverage From a horticultural perspective, choosing the appropriate lamp power affects both plant growth and canopy coverage. Lower-power lamps provide more focused light, ideal for smaller setups or specific plant zones. Higher-power lamps illuminate larger areas and penetrate deeper into the canopy, enhancing overall photosynthesis and growth uniformity. The slight variations in luminous efficiency are generally offset by the benefits of higher light intensity and broader coverage, making power selection a trade-off between energy efficiency per watt and total light output. Practical Considerations for Energy Use When selecting CMH Sodium Light, power, energy costs, and heat management are important considerations. Lower-power lamps consume less electricity, potentially lowering operating costs, but may require multiple fixtures to achieve adequate light levels. Higher-power lamps increase energy use and generate more heat, necessitating proper ventilation and cooling systems. Evaluating luminous efficiency in combination with power requirements ensures suitable performance while maintaining energy and cost efficiency. The luminous efficiency of CMH Sodium Light is influenced by its power rating, with lower-power lamps often achieving slightly higher efficiency per watt and higher-power lamps producing greater total light output. Understanding these differences is essential for balancing energy consumption, light coverage, and plant growth requirements. Selecting the appropriate wattage allows growers and facility managers to optimize lighting performance, maximize plant productivity, and ensure energy-efficient operation. By considering both efficiency and total output, users can make informed decisions tailored to their specific horticultural or commercial lighting needs.
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The Role of CMH Sodium Light Spectrum in Plant Development .
Sep 05.2025
Light is one of the crucial factors affecting plant growth and development. The quality, intensity, and spectrum of light determine photosynthesis efficiency, flowering cycles, and overall plant health. Among various horticultural lighting options, CMH Sodium Light has gained attention due to its full-spectrum output and relatively high efficiency. Understanding how the spectral distribution of this type of light affects different stages of plant growth is essential for optimizing yields and maintaining healthy vegetation. Full-Spectrum Lighting Benefits CMH Sodium Light is designed to provide a broad spectrum of light that closely resembles natural sunlight. Unlike traditional high-pressure sodium lamps, which emit primarily in the yellow and red regions, CMH lamps deliver significant blue, red, and green wavelengths. Blue light is particularly important for vegetative growth, influencing leaf development, compactness, and stem strength. Red light, on the other hand, plays a critical role in promoting flowering, fruiting, and overall biomass production. The balanced spectral output ensures that plants receive the right combination of wavelengths throughout their life cycle, promoting consistent growth and higher yields. Effects on Photosynthesis The efficiency of photosynthesis is directly related to the wavelengths of light absorbed by chlorophyll and other pigments. CMH Sodium Light’s spectrum includes strong peaks in both the blue (400–500 nm) and red (600–700 nm) regions, which correspond to the absorption maxima of chlorophyll a and b. By delivering energy in these suitable wavelengths, the lamp enhances photosynthetic activity, causing faster growth and healthier plants. Additionally, the inclusion of green wavelengths allows light to penetrate deeper into the plant canopy, improving overall light utilization and ensuring that lower leaves receive sufficient energy for growth. Influence on Plant Morphology The spectral composition of light also affects plant morphology. Blue light promotes compact growth with shorter internodes and thicker leaves, making plants more robust and better suited for indoor cultivation. Red light, especially when paired with far-red wavelengths, encourages flowering and fruit development. By adjusting the proportion of blue and red light within CMH Sodium Light setups, growers can manipulate plant form and function to suit specific cultivation goals. For example, higher blue ratios can be used during vegetative stages, while red dominance can be emphasized during flowering phases. Practical Implications for Cultivation For commercial growers, understanding the spectral benefits of CMH Sodium Light helps optimize both plant quality and energy efficiency. Its full-spectrum output reduces the need for supplemental lighting, allowing for a more straightforward setup compared to combining multiple light sources. The lamp’s consistent color temperature and spectral balance also minimize stress on plants, which can improve disease resistance and reduce the likelihood of nutrient deficiencies. When paired with appropriate photoperiods, CMH lighting can significantly enhance growth cycles, resulting in faster production and higher yields. The spectral distribution of CMH Sodium Light plays a fundamental role in supporting plant growth from vegetative stages to flowering and fruiting. Its full-spectrum output, with strong contributions in both blue and red wavelengths, enhances photosynthesis, influences plant morphology, and improves overall cultivation efficiency. By leveraging the benefits of this lighting technology, growers can achieve healthier, more productive plants while maintaining energy-efficient and effective horticultural systems. Understanding the impact of the light spectrum is essential for optimizing plant development and achieving desired agricultural outcomes
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When choosing the diameter of the pipe for the greenhouse arch, what factors should be taken into consideration?
Sep 02.2025
When choosing the diameter of the arch support tubes for a home greenhouse, multiple factors need to be systematically considered. The core of this is to find the great balance among safety, durability and cost. 1. Geographical location and climatic conditions (Most important!)This is the primary basis for choosing the pipe diameter and wall thickness.   Wind Load: Wind-prone areas (coastal, plains, mountainous regions): Greater wind resistance is required. The wind will cause uplift and shear forces on the greenhouse. Therefore, it is necessary to select thicker and wider pipes (for example: Φ32mm x 1.2mm). Windless areas (inland, urban courtyards): The requirements can be appropriately lowered, but still need to meet the basic safety standards.   Snow Load: Snowy areas: The accumulated snow acts as a significant static pressure, which may directly collapse the greenhouse. The pipe diameter and wall thickness must be strengthened, and a round-arch roof (which facilitates the sliding of snow) should be preferred over a flat roof. Snow-free areas: The main concern is the issue of wind resistance.   2. Dimensions and Span of the Greenhouse   Span (Width): This is the very direct influencing factor. The larger the span, the higher the strength requirements for the arch members.  ≤ 4 meters span: Consider using a pipe diameter of Φ25mm.  4-meter span: It is strongly recommended to use pipes with a diameter of 32mm or larger. Height: An increase in height will enlarge the wind exposure area and thus require a stronger structure. Length (Length): The length has little impact, but the longer greenhouse requires a greater number of longitudinal braces to ensure overall stability.   3. Types of covering materials The weight of the covering material is directly borne by the arch beam.   Glass: The heaviest, therefore a very sturdy frame must be used (such as 40x40mm square tubes with a wall thickness of ≥ 1.5mm). PC solar panel / endurance board: Medium weight. Requires precision and strength of the frame (recommended: Φ32mm x 1.0mm or above). Plastic film: The lightest in weight, exerting the least pressure on the framework. The choice is mainly based on considerations of resisting snowstorms.   4. Steel material and anti-corrosion process (affects lifespan)   Material: Prefer galvanized steel. Absolutely avoid using ordinary carbon steel that is prone to rust (even painted steel is not acceptable). Surface treatment (sorted by durability):      Hot-Dip Galvanized: The great choice. The zinc coating is thick, with strong corrosion resistance, and the service life can reach 10-15 years. It is a must-have for outdoor use.     Electro-galvanizing: The zinc layer is thin, has moderate rust prevention ability, has a short lifespan, and is not recommended.     Painting / Applying anti-rust paint: The anti-rust effect is the poorest. Regular maintenance is required. It can generally be used once.
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What are the differences between the transparent plastic film and the knitted polyethylene shading net used in small greenhouses?
Aug 27.2025
The transparent plastic film and the knitted polyethylene shading net used in the small greenhouse are two materials with completely different functions. The core difference between them lies in their main functions: one is to collect and retain heat, while the other is to reflect and dissipate heat. 1. Transparent plastic film (Polyethylene Film) Material and structure: It is usually made by blow molding from continuous polyethylene sheets, and the surface may be coated with various functional additives.  Key Type: Regular PE film: Basic model, prone to forming water droplets on the inner wall, which affects light transmission. Anti-drip film: Highly recommended. The inner surface is treated with anti-drip agent, preventing water droplets from condensing into drops but allowing them to form a water film and flow down the wall. This helps maintain high light transmittance and reduces plant diseases caused by water droplet falls. Insulation film: Equipped with infrared ray barrier agent, it can better prevent heat loss at night and offers a good insulation effect.  Applicable scenarios: In winter, plants protect themselves from frost and maintain their warmth for overwintering. Planting earlier in early spring or later in late autumn can create the suitable growth temperature. During the rainy season, it is necessary to prevent the soil and plants from being washed away by the rain.  2. Knitted Polyethylene Shade Cloth Material and Structure: Made by weaving polyethylene threads together, it features uniform mesh holes. It is usually produced by the "knitting" process, which is less prone to thread breakage and deformation compared to the "weaving" process.  Key type: Functions are mainly distinguished by color and density:  Black net: The commonly used, with good sun protection and cooling effects, and a high cost-performance ratio.  Green Net: Besides providing shade, it also focuses on regulating photosynthesis (filtering certain light spectrums) and has a good aesthetic appearance. Silver-gray mesh/aluminum foil mesh: The shading and reflective capabilities are the strongest. It not only blocks sunlight but also reflects away some light and heat through its silver-gray surface, providing the good cooling effect. At the same time, it has the effect of repelling aphids. Light-blocking rate: For example, "three-needle shading net" has a light-blocking rate of approximately 50-60%, while "six-needle shading net" has a light-blocking rate of approximately 70-90%. The larger the number, the denser the mesh, and the greater the light-blocking effect.  Applicable scenarios:  During summer, provide shade and protection from direct sunlight for plants that are shade-loving and sensitive to excessive exposure (such as hydrangeas, ferns, and some succulents). Reduce the temperature inside the greenhouse to prevent plants from being burned by high heat. Used as a windbreak net, it reduces the physical damage caused by strong winds to plants.  Summary and Recommendations You can understand it this way: The transparent plastic film is like a winter coat, used for keeping warm. The sunshade net is like a summer sun protection shirt and a breathable hat, used for cooling and sun protection.  Practical suggestion: Good gardeners will change the "clothes" of their greenhouse as the seasons change. Winter mode: Use transparent plastic film to retain the warmth of every ray of sunlight. Summer mode: Use knitted polyethylene shading net, which is ventilated and breathable, to drive away the intense heat.  I hope this detailed comparison will help you better understand and apply these two materials!
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Consumption Benefits of CMH Sodium Light Compared to Conventional Lighting Solutions
Aug 26.2025
Introduction to Energy Efficiency Concerns in Lighting Energy consumption remains one of the foremost considerations when selecting lighting technologies for both commercial and outdoor applications. With rising electricity costs and increasing environmental regulations, the demand for energy-efficient lighting solutions has surged. The CMH Sodium Light stands out as a notable innovation designed to deliver high-quality illumination while simultaneously reducing power usage. Examining its effects on energy consumption helps illuminate why it is becoming a preferred choice in many sectors. High Luminous Efficacy and Reduced Power Needs A fundamental factor contributing to the energy-saving potential of CMH Sodium Light is its high luminous efficacy, which measures the amount of light produced per unit of electrical power consumed. This technology utilizes ceramic metal halide components that efficiently convert electrical energy into visible light. Compared to traditional high-pressure sodium lamps, it typically achieves good efficacy, meaning it requires less power to generate the same or higher levels of brightness. This reduction in wattage directly translates to lower electricity consumption and operational costs. Improved Light Quality Enhances Energy Savings Beyond raw energy efficiency, the improved spectral output and higher color rendering index of CMH Sodium Light allow for better visual clarity and color perception. Traditional sodium lamps often emit a narrow spectrum dominated by yellow-orange light, which may necessitate higher illumination levels to achieve acceptable visibility. In contrast, the broader and more natural light produced by it enables spaces to be lit effectively at lower light intensities. This capability further reduces the number of fixtures or wattage needed, compounding energy savings. Compatibility with Energy Management Technologies The energy consumption impact of CMH Sodium Light can be amplified when combined with modern energy management systems. Features such as dimming controls, occupancy sensors, and timed lighting schedules allow users to optimize light output based on real-time needs. Its stable performance and quick start-up capabilities make it highly suitable for these applications. Consequently, integrating it with smart controls results in more efficient energy use and reduced waste compared to conventional lighting setups. Longer Lifespan and Maintenance Benefits While primarily focusing on energy consumption, it is important to note that CMH Sodium Light also offers longevity benefits. Longer operational life reduces the frequency of replacements and associated maintenance activities, indirectly contributing to energy savings by lowering manufacturing and transport energy costs over time. Moreover, a well-maintained lighting system retains its efficiency, preventing unnecessary increases in energy consumption due to fixture degradation. Environmental and Economic Implications The reduction in energy consumption afforded by CMH Sodium Light has positive environmental repercussions. Lower electricity demand reduces greenhouse gas emissions from power generation, aiding efforts to mitigate climate change. Economically, reduced energy bills and maintenance costs improve return on investment for businesses and municipalities deploying their systems. These factors make it a sustainable and financially attractive choice for lighting upgrades and new installations. CMH Sodium Light as an Energy-Efficient Lighting Solution The CMH Sodium Light substantially influences energy consumption through its high luminous efficacy, improved light quality, and compatibility with energy-saving technologies. Its ability to deliver bright, natural light at lower power levels offers tangible benefits in cost savings and environmental impact. As energy efficiency remains a critical priority worldwide, adopting it represents a forward-thinking step toward sustainable and economical lighting solutions.
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Industry Knowledge

What is Bench & Tray?

Bench & Tray refers to a type of furniture that combines a bench and a tray in one piece. It typically has a flat seating surface and a raised edge or lip to contain items placed on the tray surface. This type of furniture is often used as a multi-functional piece in living rooms, and bedrooms, or as a decorative accent. The Bench & Tray is a classic design that offers both style and function. Because of its flexible size and shape, it works well in many different environments. It features sturdy steel construction with a powder-coated finish to prevent rusting. 

Advantages of the Bench & Tray

The advantage of a Bench & Tray is its versatility and multi-functionality. Some of the benefits include:
1. Space-saving: It serves as both a bench and a tray, saving space in small rooms or apartments.
2. Extra seating: The bench can provide extra seating for guests.
3. Storage: The tray can be used to store items, keeping them organized and off the floor.
4. Decorative: The bench & tray can add style and elegance to a room, serving as a decorative accent.
5. Multi-purpose: It can be used for various activities, such as a footrest, a place to set drinks or snacks, or a place to store books or magazines.

Benefits of the Bench & Tray

1. Increased productivity by having tools and items within reach.
2. Increased organization and reduced clutter.
3. Customization to fit individual needs.
4. Can be used as a standalone workstation or added to existing work setup.