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  • Rubber Deodorant: The Key to Odor-Free Rubber Products

    Rubber Deodorant: The Key to Odor-Free Rubber Products

    Rubber products are ubiquitous in daily life and industrial settings, from car tires and household gloves to industrial seals and sports equipment. However, a common drawback of rubber items is the unpleasant odor they often emit, which stems from volatile organic compounds (VOCs) released by rubber polymers, vulcanization agents, plasticizers, and other additives during production and use. This odor not only affects user experience but may also cause discomfort to sensitive individuals. Rubber deodorant emerges as a practical solution to this problem, effectively eliminating or reducing unwanted smells while preserving the performance of rubber materials.

    The working principle of rubber deodorant varies based on its composition. Adsorptive deodorants, typically containing activated carbon or zeolite, trap odor molecules through porous structures, preventing their release into the air. Chemical neutralizing deodorants react with VOCs and sulfur-containing compounds—major odor sources—to form non-volatile, odorless substances. Additionally, biological deodorants use enzymes or microorganisms to break down odor-causing molecules, offering an eco-friendly alternative. These mechanisms ensure targeted odor elimination without altering the rubber’s elasticity, durability, or structural integrity.

    Rubber deodorant finds applications across numerous industries. In the automotive sector, it is added to tires, door seals, and dashboard materials to reduce interior odors. For household products, it enhances the usability of rubber gloves, yoga mats, and kitchen utensils by eliminating lingering smells. In industrial settings, it improves workplace air quality by treating rubber hoses, conveyor belts, and gaskets. Even in medical devices, such as rubber catheters and gloves, hypoallergenic deodorants ensure patient comfort without compromising safety.

    When selecting a rubber deodorant, key factors include compatibility with the rubber type, odor-removal efficiency, and environmental friendliness. High-quality deodorants are non-toxic, non-corrosive, and comply with international safety standards. As consumer demand for odor-free and eco-friendly products grows, manufacturers are developing advanced formulas that offer long-lasting effects while minimizing environmental impact.

    In conclusion, rubber deodorant plays a vital role in enhancing the functionality and user experience of rubber products. By addressing the root cause of rubber odors, it bridges the gap between performance and comfort across various sectors. As technology advances, rubber deodorants will continue to evolve, providing more efficient and sustainable solutions for a odor-free future.

  • Sustainable Versatile Flat Roof Solar Mounting Systems

    Sustainable Versatile Flat Roof Solar Mounting Systems

    Flat roof solar mounting systems have emerged as a cornerstone of renewable energy infrastructure, unlocking the solar potential of commercial, industrial, and residential flat rooftops worldwide. Unlike sloped roof systems, these specialized structures are engineered to maximize energy production on level surfaces, addressing the growing demand for space-efficient, low-impact solar installations. As the global shift toward clean energy accelerates, these systems play a pivotal role in making solar power accessible for buildings with underutilized flat roof spaces.

    At their core, flat roof solar mounting systems consist of four key components: lightweight aluminum or stainless-steel rails, adjustable brackets, secure fasteners, and ballast or penetration bases. Ballast-mounted systems—using concrete blocks or weighted frames—eliminate the need for roof drilling, preserving waterproofing and ideal for fragile rooftops. Penetration-mounted systems, by contrast, anchor directly to the roof structure via bolts, offering enhanced stability in high-wind or snow-prone regions. Many modern systems feature modular designs, allowing for easy scalability and customization to fit roof dimensions and solar panel layouts.

    The advantages of flat roof solar mounting systems are multifaceted. Their adjustable tilt angles (typically 10–30 degrees) optimize sun exposure, boosting energy output compared to horizontal installations. The open design beneath panels facilitates airflow, reducing heat buildup and improving panel efficiency. Additionally, these systems require minimal roof modification, lowering installation costs and minimizing disruption to building operations. Their durability—resistant to corrosion, UV radiation, and extreme weather—ensures a long service life of 25+ years, aligning with the lifespan of solar panels.

    Applications span diverse sectors. Commercial buildings (offices, retail centers) and industrial facilities (factories, warehouses) leverage large flat rooftops for on-site power generation, reducing electricity bills and carbon footprints. Residential properties with flat roofs benefit from space-saving installations that avoid altering roof aesthetics. These systems also support utility-scale solar projects on flat industrial lands, contributing to grid decarbonization.

    As solar technology advances, flat roof mounting systems are evolving with innovations like lightweight ballast materials, integrated grounding solutions, and compatibility with bifacial solar panels. In an era of increasing renewable energy adoption, these systems stand as a practical, efficient solution to harness solar power, bridging the gap between energy needs and sustainability goals for buildings worldwide.

    Flat-Roof-Solar-Mounting-Systems

     

  • Kossel Debuts at CCT 2025, Deepening Penetration in the Asian Market

    From October 23 to 24, 2025, the 2025 Complex Cardiovascular Therapeutics (CCT 2025) was grandly held in Kobe, Japan. As one of the most influential academic conferences on cardiovascular interventional therapy in Asia, it shares the latest advancements in PCI therapy, structural heart disease, and surgical treatment through live surgical demonstrations, special seminars, and academic reports. The conference attracts cardiovascular experts from around the world and has become an internationally recognized high-level academic exchange platform.

    As one of the few Chinese manufacturers exhibiting at CCT, Kossel made a focused appearance with a range of star products and localized solutions, showcasing the company’s latest technologies and achievements to medical professionals.

    Kossel’s exhibition team received doctors and agents from Japan and other Asian countries during the conference, and conducted in-depth exchanges on concepts, strategies, new devices, and clinical research.

    Focused on the pan-vascular intervention field, Kossel has been committed to bringing original Chinese medical technologies and achievements to more doctors and patients. In 2021, Kossel’s PTCA balloon obtained certification in Japan. In addition, Japan serves as one of the clinical centers for Kossel’s coronary product, the MiStent® coronary drug-eluting stent, which has gained partial market recognition and laid a foundation for product promotion. More localized products and solutions will be developed and launched in the future.

    Going forward, Kossel will continue to deepen innovative R&D in the pan-vascular intervention field, advance the layout of the Asian market simultaneously, and focus closely on application needs in the pan-vascular intervention sector. It aims to provide more innovative and practical products and solutions for doctors and patients in Asia and beyond.

  • Common Camlock Coupling Mistakes & How to Avoid Them

    Common Camlock Coupling Mistakes & How to Avoid Them

    Camlock couplings are famously reliable, but even the best equipment can fail if used incorrectly. These common mistakes lead to downtime, product loss, safety incidents, and unnecessary costs. Learn how to identify and avoid these pitfalls to ensure your operations run smoothly and safely.

    Mistake #1: Mismatching Coupling Types

    • The Error: Trying to connect two male (Type A) or two female (Type B) ends, or using incompatible adapter types.

    • The Risk: It won’t seal, causing immediate and catastrophic leaks. It can also damage the coupling lugs and grooves.

    • The Solution: Remember the golden rule: Type A (Male) always connects to Type B (Female). Double-check the types before connection.

    Mistake #2: Ignoring Chemical Compatibility

    • The Error: Using an aluminum or polypropylene coupling with a chemically aggressive fluid it can’t handle.

    • The Risk: Rapid corrosion, degradation, coupling failure, fluid contamination, and dangerous spills.

    • The Solution: Always consult a chemical compatibility chart before selecting your coupling material. When unsure, opt for 316 stainless steel.

    Mistake #3: Connecting or Disconnecting Under Pressure

    • The Error: Failing to fully depressurize the system before attempting to disconnect the coupling.

    • The Risk: The coupling can violently separate, turning the pressurized fluid into a dangerous projectile, causing whipping hoses, injuries, and spills.

    • The Solution: Always depressurize and drain the line before disconnecting. Make this a non-negotiable safety protocol.

    Mistake #4: Incomplete Locking

    • The Error: Not pulling the cam arms down fully into the locked position.

    • The Risk: The coupling may hold initially but can blow apart under pressure, causing a sudden leak or failure.

    • The Solution: After connection, always verify the cam arms are fully down and perform a tug test. You should feel a positive lock.

    Mistake #5: Using Damaged or Worn-Out Couplings

    • The Error: Continuing to use couplings with damaged cam arms, cracked bodies, worn-out threads, or missing O-rings.

    • The Risk: A single damaged component compromises the entire coupling’s integrity, leading to leaks and failures.

    • The Solution: Implement a regular inspection schedule. Replace worn O-rings, damaged dust plugs, and any coupling that shows signs of excessive wear or cracks.

    Mistake #6: Mixing and Matching Standards

    • The Error: Assuming all “Camlock” couplings from different brands or countries are identical.

    • The Risk: While many are interchangeable, slight variations in dimensions between standards (e.g., ISO vs. AAR) can lead to poor seals, leaks, and difficulty connecting.

    • The Solution: Specify the standard you need (e.g., ISO 2852) when ordering and try to stick to one standard within your operation.

    Mistake #7: Neglecting the O-Ring

    • The Error: Forgetting that the O-ring is a critical sealing component and not specifying the right material for the fluid.

    • The Risk: A standard Buna-N O-ring will swell and fail if used with gasoline, just as an EPDM O-ring will fail with petroleum oils.

    • The Solution: Specify the O-ring material when ordering. Keep a stock of common replacement O-rings (Buna-N, Viton®, EPDM) and replace them during maintenance.

    Avoid Costly Downtime. Shop our online store for replacement parts, O-ring kits, and high-quality Camlock couplings designed to prevent these common errors.

  • Solar Structures: The Backbone of Efficient Photovoltaic Systems

    Solar Structures: The Backbone of Efficient Photovoltaic Systems

    Solar structures, the unsung heroes of photovoltaic (PV) systems, provide critical support for solar panels while optimizing energy capture. As the foundation of residential, commercial, and utility-scale solar projects, they directly impact a system’s efficiency, durability, and cost-effectiveness.
    There are three primary types of solar structures, each tailored to specific needs. Rooftop-mounted structures, the most common for homes and small businesses, are lightweight and adjustable, fitting various roof angles to maximize sun exposure. Ground-mounted systems, used in large solar farms, feature sturdy frames that can be fixed or equipped with tracking technology to follow the sun’s path. Portable solar structures, ideal for outdoor activities or emergency power, are foldable and compact, balancing portability with stability.
    Beyond support, these structures serve two core functions. First, they optimize tilt and orientation: by aligning panels with the sun’s trajectory (typically 30–45 degrees in temperate regions), they boost energy output by 15–20% compared to misaligned setups. Second, they protect PV panels from environmental damage—high-quality structures resist wind speeds up to 120 mph, prevent water accumulation, and withstand extreme temperatures, extending panel lifespans to 25+ years.
    Design considerations for solar structures prioritize material and durability. Aluminum alloy and galvanized steel are preferred for their corrosion resistance and strength-to-weight ratio. Engineers also factor in local weather conditions, roof load capacity, and installation ease to ensure safety and efficiency.
    Recent innovations are making solar structures more versatile. Smart tracking systems with sensors adjust panel angles in real time, while integrated storage compartments combine structure and battery storage for off-grid use. As global demand for renewable energy grows, solar structures remain essential—turning sunlight into usable energy reliably and efficiently.

  • Low Volatility Deodorizing Agents: Long-Lasting, Low-Irritation Solutions for Odor Control

    Low Volatility Deodorizing Agents: Long-Lasting, Low-Irritation Solutions for Odor Control

    Unpleasant odors—from household waste, pet dander, industrial emissions, or public spaces—disrupt comfort and pose hidden risks, as many traditional deodorizers rely on high-volatility compounds that fade quickly or irritate skin/respiratory systems. Low volatility deodorizing agents (LVDAs) address these flaws, emerging as a game-changer in odor management by balancing long-lasting efficacy with minimal environmental and health impacts.
    At their core, LVDAs work by slowing the release of active odor-neutralizing components—unlike high-volatility alternatives that evaporate rapidly. These active ingredients vary by use case: plant-derived extracts (e.g., tea polyphenols, citrus terpenes) bind to odor molecules (such as ammonia or hydrogen sulfide) to break them down; microbial enzymes accelerate the decomposition of organic odor sources; and synthetic  (slow-release) compounds form a stable film that gradually interacts with unwanted scents. Their low volatility ensures the active components stay concentrated at the odor source for 24–48 hours, rather than dispersing into the air within hours.
    Compared to conventional deodorizers, LVDAs offer three key advantages. First, their extended efficacy reduces the need for frequent reapplication—critical for high-traffic areas like hotels, garbage disposal sites, or pet shelters. Second, their low evaporation rate minimizes airborne irritants, making them safe for sensitive groups (e.g., children, allergy sufferers) and enclosed spaces (e.g., cars, offices). Third, many LVDAs use biodegradable active ingredients and non-toxic carriers, aligning with eco-friendly trends unlike chemical-heavy, high-volatility products that may contaminate air or water.
    LVDAs find applications across sectors. In households, they are added to laundry detergents, carpet cleaners, and pet litter to target persistent odors. In industry, they are integrated into wastewater treatment plants and food processing facilities to mitigate industrial fume odors. In public spaces, they are used in air fresheners and restroom cleaners that require long-term odor control without harsh fumes.
    As demand for safe, sustainable odor solutions grows, LVDAs are evolving—with innovations like smart-release formulas that adjust efficacy based on odor concentration, and plant-based blends that enhance biodegradability. In short, LVDAs are not just deodorizers; they represent a shift toward smarter, gentler odor management that prioritizes both performance and well-being.

  • How to Connect and Disconnect Camlock Couplings Safely

    Camlock couplings are designed for safety and efficiency, but only when used correctly. Improper operation can lead to sudden releases, spills, and workplace injuries. This step-by-step guide will ensure you and your team handle Camlock couplings safely every time.

    Before You Begin: Essential Safety Precautions

    1. Personal Protective Equipment (PPE): Always wear appropriate PPE, including safety glasses, gloves, and chemical-resistant clothing if handling hazardous media.

    2. Depressurize the Line: Before connecting or disconnecting, ensure the system is fully depressurized and the line is drained if possible.

    3. Inspect the Coupling: Check for damage, worn cam arms, cracks, or a damaged/missing O-ring. Never use a defective coupling.

    4. Check Compatibility: Ensure the two couplers are designed to connect (e.g., Type A to Type B) and are made of compatible materials for the fluid.

    How to CONNECT a Camlock Coupling: A Step-by-Step Guide

    Step 1: Align
    Hold the Type A (Male) Adapter and the Type B (Female) Coupler straight and align them. Ensure the lugs on the male end line up with the openings on the female coupler.

    Step 2: Insert
    Push the male adapter fully into the female coupler until it seats completely. The base of the male adapter should be flush against the face of the female coupler.

    Step 3: Lock
    Grab the cam arms (levers) on the female coupler’s collar. Pull them down firmly until they are in the fully locked position. You should hear or feel a distinct “click” or positive lock.

    Step 4: Verify
    After locking, perform a tug test. Gently try to pull the two halves apart to confirm they are securely locked. Slowly introduce pressure to the system and check for any leaks.

    (Image/Video Suggestion: A short GIF or video showing the smooth motion of insertion and locking would be highly effective here.)

    How to DISCONNECT a Camlock Coupling: A Step-by-Step Guide

    Step 1: Depressurize and Drain
    This is the most critical safety step. Fully depressurize the system and drain any residual fluid from the line. Be aware that fluid may be released during disconnection.

    Step 2: Unlock
    Lift the cam arms on the female coupler to their fully upright and unlocked position.

    Step 3: Separate
    Pull the two halves straight apart. If they are stuck, do not use excessive force. Check that the system is fully depressurized and that the cam arms are completely unlocked.

    Step 4: Cap (If not in use)
    Immediately cap open ends with Type M (Blanking Plugs) and Type DP (Dust Plugs) to prevent contamination and damage.

    What NEVER to Do

    • NEVER try to connect or disconnect under pressure.

    • NEVER use a hammer, pipe, or other tool for extra leverage on the cam arms.

    • NEVER modify, weld, or alter a coupling.

    • NEVER force a connection if the halves don’t align easily.

  • Iron Roof Solar Mounting Systems: The Durable, Efficient Choice for Solar Adoption

    As global demand for renewable energy surges, solar power has become a go-to solution for homes and businesses alike. For properties with iron roofs—common in residential, industrial, and commercial buildings—iron roof solar mounting systems stand out as a tailored, high-performance option that balances durability, ease of installation, and long-term efficiency.

    Designed specifically to adapt to iron roofs’ structural traits, these mounting systems prioritize  durability above all. Most use corrosion-resistant materials like hot-dip galvanized steel or aluminum alloys, which resist rust and wear caused by rain, snow, high winds, and extreme temperatures. Unlike generic mounts, they leverage iron roofs’ inherent strength—iron’s high load-bearing capacity eliminates the need for extra structural reinforcement, reducing both material costs and installation complexity. This robustness ensures the system can support solar panels securely for 25+ years, matching the typical lifespan of solar modules.

    Installation convenience is another key advantage. Iron roof solar mounts feature a  modular design  that simplifies on-site assembly. They often use clamp-on or bolt-on fixtures that attach directly to iron roof rails or purlins, minimizing roof penetration. This not only speeds up installation (cutting labor time by 20–30% compared to custom mounts) but also protects the roof’s waterproof layer, preventing leaks—a common concern with improper mounting. Many systems also offer adjustable angles, allowing installers to tilt panels for optimal sun exposure, boosting energy output by up to 15% in regions with variable sunlight.

    Compatibility and versatility further enhance their appeal. These systems work with all standard solar panel sizes and types (monocrystalline, polycrystalline, thin-film) and adapt to different iron roof styles, from corrugated iron to standing-seam iron. For businesses or homeowners aiming to expand their solar setup later, modular mounts enable easy scaling without major roof modifications.

    Beyond performance, iron roof solar mounting systems align with sustainability goals. Most components are made from recyclable metals, and their long lifespan reduces waste from frequent replacements. By maximizing solar energy capture on iron roofs—one of the most widely used roofing materials—they help unlock untapped renewable energy potential, lowering carbon footprints for both residential and commercial users.

    In short, iron roof solar mounting systems are more than just a “holder” for solar panels. They are a reliable, cost-effective bridge between iron roofs and clean energy, making solar adoption accessible and sustainable for properties with this popular roofing type.

    Iron-Roof-Solar-Mounting-Systems

  • CENTERSKY‘s Red Pomegranates

    CENTERSKY‘s Red Pomegranates

    The October breeze swept through the pomegranate tree in front of the R&D center, its branches laden with fruit, their burnt-yellow, translucent red skins enveloping the glittering seeds. Light and shadow flickered beneath the tree, perfectly reflecting CENTERSKY (EI LAMINATION) ‘s flourishing glory.

    CENTERSKY

    The story of this pomegranate tree dates back to 2003, the year CENTERSKY Electric moved into its brand-new factory. Mr. Xu, the general manager, said, “I hope that CENTERSKY will be like the pomegranate seeds, united and unyielding.” So, he planted a pomegranate tree, barely one meter tall, in the yard. In 2005, the tree bloomed for the first time. The vibrant orange-red petals, resplendent in the May sun, became a symbol of CENTERSKY’s early bloom.

    Time passed, and in 2020, when CENTERSKY ‘s new office building rose from the grounds, no one was willing to part with the old tree, a treasure trove of memories and companionship. So, workers carefully transplanted it, along with its soil, to the green belt of the old office building, now located below the R&D center. From then on, a new story was added to the annual rings of this pomegranate tree.

    EI-LAMINATION
    Through the passage of seasons, the pomegranate tree bears witness to far more than this.
    Twenty-two years have flown by, and the once one-meter-tall pomegranate seedling is now nearly two stories tall. Its branches are twisted, its crown like an umbrella, its roots straining through the cracks in the concrete, yet it always produces flowers more vibrant than ever. It has witnessed every step of CENTERSKY’s transition from semi-manual and semi-automated production to intelligent manufacturing: its continuous expansion from Phase I to Phase IV; its international expansion and global success; and its unwavering dedication to the electrical industry over the past half century, as CENTERSKY employees have transformed from “followers” to “leaders,” carving their own unique mark in the
    tide of the time.

    EI-LAMINATIONs
    Now, the pomegranate tree in front of the R&D center has grown tall and majestic.
    Month by month, year by year, this pomegranate tree grows alongside those who pass beneath it! Apprentices entering the workplace shed their youthful innocence in the tree’s shadow, newly graduated interns take root and grow here, and once-young professionals shoulder the responsibilities of the department. Generations of CENTERSKY employees, their successes and failures, are all inextricably linked to the pomegranate tree and the splendor of CENTERSKY.

    silicon steel sheet
    Today, the first thing anyone sees when entering CENTERSKY(EI LAMINATION) is the pomegranate tree. It stands quietly at the entrance, silently accompanying the peaceful years here. The scars on its branches are medals of growth, and the pomegranate red on its branches is the background of its splendor. Beneath the pomegranate tree, CENTERSKY’s story continues. Its original aspiration of “dedication and dedication” and the soil that nurtures dreams are as fiery and bright as the pomegranate red!

  • Low Volatility Deodorizing Agent: An Efficient and Eco-Friendly Odor Solution

    Low Volatility Deodorizing Agent (LVDA) is a innovative odor-control product designed to address the limitations of traditional deodorizers. Unlike conventional options that rely on high-volatility components (such as alcohol or strong fragrances) to temporarily mask smells, LVDA features low vapor pressure, ensuring long-lasting efficacy and minimal environmental impact.
    The core advantage of LVDA lies in its working mechanism. Instead of just covering odors, it targets odor-causing molecules (like ammonia, hydrogen sulfide, and volatile fatty acids) through chemical adsorption or enzymatic decomposition. Its low volatility means active ingredients remain stable on surfaces or in air for extended periods—often 2–3 times longer than traditional deodorizers—without evaporating into the atmosphere and causing secondary pollution. For instance, in household use, LVDA-based sprays can keep bathrooms or kitchens odor-free for up to 48 hours, compared to 12–16 hours for regular products.
    LVDA also finds wide applications in industrial and public sectors. In waste treatment plants, it is mixed into compost to neutralize rotten odors without releasing harmful volatile organic compounds (VOCs). In public spaces like hospitals or schools, LVDA-based air fresheners are preferred for their mildness, as they do not irritate sensitive groups such as patients or children.
    Moreover, LVDA aligns with global environmental trends. With stricter regulations on VOC emissions, its low volatility reduces air pollution risks, making it a sustainable choice for both daily and industrial use. As research advances, LVDA is expected to become more cost-effective, further expanding its market potential.
    In summary, LVDA combines efficiency, durability, and eco-friendliness, offering a reliable solution to odor problems across various scenarios.