Dates
April 20-24, 2026
WAIN Location
Hall 27, Stand F06, HANNOVER MESSE 2026
Register Here
We cordially invite you to visit the WAIN booth at Hannover Messe 2026, where you can gain in-depth insights into our innovative connectivity solutions and explore possibilities for meeting your specific application needs together.
Scan the QR code below to register for your visit now!
As the manufacturing industry advances toward high-quality development, sustainability and carbon neutrality have shifted from optional initiatives to essential imperatives. WAIN Electrical has systematically translated its carbon neutrality vision into a set of actionable, measurable, and sustainable management practices—establishing a robust pathway from strategy to execution.
Commitment:Anchored at the Highest Level
1
WAIN Electrical has formally signed the Zero-Carbon Factory Top Management Commitment Letter, establishing the development of zero-carbon factories as a long-term strategic priority. The company is committed to providing continuous strategic leadership and resource support to achieve this objective.
Organization: Ensuring Accountability and Execution
2
To ensure that strategy is effectively implemented, WAIN Electrical has established a dedicated zero-carbon factory management structure, including a permanent office and a comprehensive Zero-Carbon Factory Management System with clearly defined departmental responsibilities.
The core responsibility of this specialized team is to translate strategic goals into actionable and measurable annual plans, ensuring consistent implementation across the organization.
Action:Defined,Measurable Pathways to Results
3
All initiatives are results-driven. WAIN Electrical has established clear mid- and long-term quantitative targets to ensure that every improvement is directionally aligned and measurable:
|
Initiative |
Target |
|
Raw Material Sustainability |
Apply green design principles based on the “3R” framework (Reduce, Reuse, Recycle) to enhance product sustainability |
|
Energy Consumption per Unit Product |
Apply green design principles based on the “3R” framework (Reduce, Reuse, Recycle) to enhance product sustainability |
|
Water Consumption per Unit Product |
Reduce annually; decrease by ≥1.5% per year from 2026–2028 and ≥1% per year from 2029–2030 |
|
Pollutant Emissions per Unit Product |
Reduce annually; decrease by ≥1.5% by 2030 and ≥1% annually from 2030–2034 |
|
Low-Carbon Energy Transition |
Reduce CO₂ emissions per unit product annually; achieve a 30% reduction by 2030 and 40% by 2035 |
|
Waste Resource Utilization |
Increase recycling and reuse rates to improve overall resource efficiency |
The results of our actions have earned broad recognition from leading institutions and industry authorities.
Our standardized management systems have been formally recognized. We have consecutively obtained certifications from the China Quality Certification Centre (CQC) for:
ISO 50001 – Energy Management System
ISO 14001 – Environmental Management System
ISO 45001 – Occupational Health and Safety Management System
These three certifications together form a strong management foundation for achieving safe, sustainable, and efficient operations.
At the national level, we have been awarded the title of “National Green Factory” by China’s Ministry of Industry and Information Technology. This recognition reflects our high standards in infrastructure, energy and resource utilization, and environmental emissions, in full alignment with China’s green manufacturing system.
In addition, we received the Siemens “Zero-Carbon Pioneer – Operational Excellence Award” (3rd Edition), which recognizes outstanding achievements in improving energy efficiency and reducing carbon emissions through best-in-class operational practices.
These recognitions—from national systems, and industry benchmarks—validate both the direction of our strategy and the effectiveness of our execution. They will continue to motivate us as we advance on this path.
These recognitions—from international ratings, national systems, and industry benchmarks—validate both the direction of our strategy and the effectiveness of our execution. They will continue to motivate us as we advance on this path.
END
WAIN is not only manufacturing, but also creating!
Any questions and ideas related to industrial connectors,
we welcome to discuss with you.
In modern commercial interiors, magnetic track lighting is no longer just a visual design element.
It has evolved into a functional lighting infrastructure used in hotels, retail stores, galleries, and office spaces where lighting needs to adapt over time.
Unlike traditional fixed lighting systems, modern magnetic track lighting allows fixtures to be repositioned freely along the track. This means the same ceiling system can support different lighting layouts without reconstruction.
In real projects, designers often choose this system when they expect:
This is why magnetic track lighting is widely adopted in contemporary commercial architecture.
In commercial lighting design, lighting is rarely placed randomly.
Instead, designers typically divide the space into functional zones:
This zoning approach directly affects how the magnetic track lighting system is installed.
The track is usually planned during the early architectural stage, before furniture or display layouts are finalized.
Once installed, lighting heads can be adjusted later according to actual usage.
This flexibility is the key reason why magnetic track lighting installation is preferred in commercial projects where layouts may evolve over time.
Different lighting effects require different modules within the same system.
Common types of magnetic track light include:
In higher-end projects, designers may also use ultra thin magnetic track light systems to maintain a minimal ceiling appearance while still achieving layered lighting effects.
Each module serves a different function, but they all work within the same track infrastructure.
In real project sourcing, decision-making rarely starts from a single fixture.
Instead, buyers and developers search in a more system-oriented way, using terms like:
This shift shows an important trend in the industry:
👉 Lighting is no longer seen as a product
👉 It is now treated as a complete project system
At this stage, LED magnetic track light becomes part of a larger supply chain that includes design coordination, installation planning, and long-term maintenance.
During early project planning and installation, engineers often raise practical questions such as:
These questions are especially common in commercial projects where ceiling design is complex and lighting flexibility is critical.
In practice, the installation quality of the track system directly determines how adaptable the lighting will be in the future.
A well-planned system allows lighting scenes to change without affecting the ceiling structure.
Today, magnet lighting systems are widely applied in:
The main reason is simple:
👉 A single magnetic track light system can support multiple lighting scenes without rebuilding the ceiling.
As interior design trends continue to move toward minimalism and flexibility, more designers are choosing magnetic track lighting as a long-term lighting infrastructure rather than a temporary solution.
It is not only about achieving good lighting effects, but also about giving spaces the ability to change — whether it is for seasonal displays in retail, new exhibitions in galleries, or rebranding in commercial environments.
In many projects, the lighting system becomes part of the architecture itself, shaping how people experience and perceive the space.
Magnetic track lighting represents a shift in modern lighting design — from fixed illumination to adaptable lighting systems.
It combines functionality, aesthetics, and flexibility in a way that traditional lighting systems cannot easily achieve.
For commercial spaces, this means more than just better lighting. It means a system that can evolve with business needs, design updates, and spatial changes over time.
As a result, magnetic track lighting is no longer just a design option. It has become a practical standard for modern commercial lighting projects.
Industrial automation. Smart control board design.
What’s most important?
Fast installation. Easy maintenance later.
That’s the core need.
Old connection methods? They’re on their way out.Engineers? They want easy, time-saving electronic connections.No more hassle.
This guide? It tells you briefly.How to pick the right parts for your industrial design project.Simple, no fancy stuff.
Back in the day, lots of old equipment used PCB screw connectors.Yeah, they’re cheap.But fixing them later? Such a pain. So time-consuming.
Electricians on site? They have to take out every wire one by one.In tiny spaces. So frustrating.
Now? Plug-in terminal blocks fix this problem.Plug and play. Done.
They save so much time on the production line.When equipment breaks? Swap it in seconds. Hot swap too.Maintenance costs drop a lot. A whole lot.
Designing a circuit board?Matching the physical specs right is super important.No mistakes here.
First, pick the pitch.A standard PCB mount terminal block factory?The pin pitch decides two things.Max voltage it can handle. And how much panel space it takes.
Industrial control? 5.08 mm terminal blocks are still the best.Why? Good electrical safety clearance. Great creepage performance.They’re the gold standard for automation equipment right now.Everyone uses them.
Then, the number of poles.Three-phase power control? Signal transmission with separate grounding?Terminal block 4 pin is the most common.Buys the most often.Fits most regular wiring logic. Neat and perfect.
Global market is tough. Competitive.Batch stability of products? It decides the final quality.
To make sure your equipment meets international safety certifications?More buyers skip middlemen.They go straight to pluggable terminal block manufacturers.The ones with their own testing labs.Buy in bulk directly.
Working with the source factory?No more late deliveries. Stable lead times.And you can make sure the plastic housing has good flame retardant rating.Metal contacts last long, too. Conduct well, no issues.
Whether it’s EV charging stations for new energy vehicles,or large power cabinets in regular factories,safe electrical connection always comes first.
Loose wiring is a huge hidden risk.It causes random shutdowns.It leads to local overheating.In the worst cases, it even sparks fire hazards.
Below we break down how to pick the right terminal blocksfor different working conditions.
Heavy-duty power cabinets often run with thick wiresand sudden high current surges.In these scenarios, barrier screw terminal blocksstill stay as the most reliable option.
It features raised insulated baffles on every pole.This simple structure stops messy wires and stray debrisfrom causing short circuits.
For three-phase main power input,engineers widely use standard 3 pole terminal blocks.Strong screw clamping force holds wires firmly in place.It keeps high current stable,and greatly cuts down overheating risks.
Many devices work under continuous strong vibration.Wind power units, heavy industrial machinery, you name it.Standard screw terminals will slowly loosen over time,purely from constant shaking.
This is why spring terminal blocks are getting more popular.Built-in high-toughness springs deliver steady, lasting pressure.Wires stay locked tight all the time, no loosening at all.
This screwless design saves plenty of on-site work.Workers don’t need to keep checking and tightening screws.No routine re-tightening work later on.It speeds up field installation and daily maintenance a lot.
If you manage procurement for smart buildingsor large-scale lighting projects,bulk sourcing cost-effective low-voltage terminal blocksis an easy way to keep your budget under control.
Unstable product quality always brings extra rework cost.It’s smarter to team up with a qualified terminal block wholesaler.Look for suppliers with full product lines and complete certifications.
Long-term cooperation lets you finish one-stop purchasing.It also meets the complicated power distribution needsof modern building systems.
In the world of power electronics and industrial controls, even one tiny component failure can lead to catastrophic results, ranging from ruined equipment to hazardous electrical fires. When you are sourcing connectors for new control boards, cutting corners on safety is a risk that your business simply cannot afford to take.
While good conductivity is essential, it is not enough on its own. The quality terminal block factory you choose must adhere to rigorous international safety regulations to ensure long-term stability. This guide will walk you through the critical tests and certifications that define a high-performance, reliable terminal block.
1. Flame-Retardant Materials: Your First Line of Defense
During a current overload or a short circuit, the terminal's plastic shell must be capable of self-extinguishing to prevent fire from spreading. Leading factories prioritize the use of PA66 with a UL94V-0 flame rating as a non-negotiable standard for both traditional screw terminals and modern spring terminal blocks.
A high-quality housing is engineered to withstand an 850°C glow-wire test without issue. By stopping fire at the source, these materials keep the entire power cabinet secure, providing a truly safe environment for sensitive electronic components.
Selling equipment to North America or Europe without certified parts poses a massive risk at customs and within the legal market. Using UL-listed pluggable PCB terminal blocks ensures that your product has passed tough evaluations for temperature rise, electrical clearance, and tracking index.
Similarly, a CE-certified plug-in terminal block is your essential ticket to the EU market, confirming that your equipment meets the stringent requirements of the Low Voltage Directive (LVD). Without these marks, international expansion becomes nearly impossible.
Running a terminal at high load for extended periods requires that the contacts remain cool to avoid thermal failure. For industrial applications demanding high current, it is vital to use pcb mount screw terminal blocks that have been validated through repeated temperature rise cycles.
Our high-grade copper contacts are designed to resist loosening caused by constant heating and cooling. This structural integrity prevents bad connections and ensures zero-failure performance in even the harshest electrical environments.
Homnecks is a globally trusted screwless terminal block manufacturer dedicated to quality and safety. All our products listed on www.homnecksterminal.com undergo rigorous internal lab testing, including plug-in life tests, salt spray tests, and extreme thermal cycling.
No matter how tough your conditions, Homnecks delivers 100% compliant, reliable connections you can trust. Click here to view our certifications and technical specifications—let’s ensure your next project is safe and successful.
Standard parts work for 80% of cases.But if your R&D team is designing a new, breakthrough hardware product?Off-the-shelf connectors won’t fit.Not your PCB layout. Not your design.
That’s when you need an OEM pluggable terminal block factory.One with strong engineering skills.It’s the key to getting your product to market faster.Faster, way faster.
Compact devices. Odd-shaped PCBs.They always run out of wiring space. Always.
A good factory? They don’t just do standard 5.08mm or 3.81mm pitch.Give them your Gerber files.They’ll redesign pin length. Bend angles. Even multi-layer stacking.
This custom pluggable PCB terminal blocks service?Game-changer.Hardware engineers don’t have to change their perfect circuit designjust to fit a terminal block.No more compromising.
Complex control cabinets?Wiring mistakes are the main reason tests fail.So annoying.
With custom services?You can order custom color plug-in terminal blocks.Special printing. Specific colors.Green for power. Blue for signals. Whatever you need.
Even add unique physical keying on plugs and sockets.No more wrong connections.Installers won’t mess up. At all.
Need an OEM PCB mount terminal block with stronger clamping force?Or a bespoke spring terminal block with special vibration resistance?
Factories with in-house mold shops?They cut prototype time way down.Way down.
So your product can finish prototype testing on time.Smoothly move to mass production.No delays. No hold-ups.
Work with Homnecks: Turn Your Connection Idea into Reality
Homnecks isn’t just a standard parts supplier.We’re an extension of your R&D team.Really.
We have experienced structural engineers.Advanced mold processing centers.
Need to tweak an existing product?Or design a fully customized screwless terminal block from scratch?We do it fast. We do it right.Top-notch OEM/ODM services.
Go to www.homnecksterminal.com.Contact our engineering support team.Let’s talk about your next innovative project.We’ll build the perfect custom connection solution for you.Easy. No hassle.
With the rapid development of fine-pitch LED technology, COB (Chip on Board) is regarded by many as the future of the LED industry due to its higher contrast, better flatness, and more delicate image quality.
While COB has demonstrated impressive visual performance indoors, it faces multiple stringent challenges when deployed outdoors. Many clients, engineers, and industry peers often ask:
Why is it difficult for COB LED to operate stably outdoors for the long term?
In fact, this is not due to limitations of COB technology itself. The outdoor environment imposes extremely high requirements on COB, and traditional improvements or simply adding air conditioning are not sufficient. Heat accumulation, UV aging, rain and humidity, dust, and day-night temperature fluctuations are all “multiple challenges” that COB faces outdoors.
The industry has long lacked COB products truly designed for outdoor environments, and CNLC’s air-conditioned COB P1.25 offers a complete, system-level solution, making outdoor COB operation possible.
High-density chips + full encapsulation → Heat dissipation difficulties
COB mounts a large number of LED chips directly on the PCB and covers them with full-surface encapsulation. Traditional fans or passive cooling are far from sufficient under strong sunlight. Long-term operation can lead to brightness decay, color shifts, and chip aging.
UV radiation → Encapsulation aging
The encapsulation can yellow and become brittle under sunlight, reducing light transmittance and affecting overall screen color uniformity. SMD screens, with protective housings, are better suited for outdoor use as they resist UV radiation more effectively.
Humidity, dust, temperature fluctuations → Encapsulation damage
If micro-cracks appear in the full-surface COB encapsulation, moisture can penetrate and affect chip stability. Ordinary glass covers or added waterproof strips can only partially mitigate these issues and cannot fundamentally solve the problem.
Summary: The challenges for outdoor COB are multi-dimensional, not limited to heat or protection alone.
CNLC’s innovation lies in a fully systemized design:
Built-in air conditioning + optimized internal airflow: Maintains the cabinet interior at around 40°C, allowing chips to operate in a stable environment even when outdoor temperatures range from 0–60°C.
99% UV-blocking optical glass + IK10 impact resistance: Blocks ultraviolet light, enhances hardness, reduces glare, and withstands outdoor impacts.
IP66 fully enclosed cabinet: Keeps electronic components shielded from the air, combined with air-conditioned circulation for true protection against water, dust, and humidity.
3500 nits high brightness: Solves traditional COB brightness deficiencies, ensuring clear visibility under direct sunlight.
This is not simply “adding air conditioning.” It is a full-chain optimization from PCB encapsulation to cabinet structure, thermal management, optical glass, and protection rating, allowing COB to achieve long-term, stable outdoor operation. Previously, the industry often said: “COB cannot be used outdoors.” Now we can say:
COB is not inherently unsuitable for outdoor use; the problem has been the lack of a system-level, outdoor-focused solution.
CNLC’s air-conditioned COB P1.25 redefines the possibilities of outdoor COB through full-chain optimization from chip encapsulation to cabinet structure, thermal management, optical glass, and protection rating.
It is not simply an indoor screen placed outdoors; it is a true technological reconstruction—each component is carefully designed to ensure COB can operate stably outdoors over the long term.
As a milestone achievement of CNLC’s years of R&D, the air-conditioned COB LED P1.25 will officially debut at ISE 2026.
This will mark the first time the industry sees a COB product genuinely capable of long-term stable outdoor operation, representing an important moment as CNLC and global partners explore the future of outdoor LED displays.
We sincerely invite you to visit ISE 2026, experience this breakthrough technology firsthand, and witness the future possibilities of outdoor COB.
Outdoor digital signage, bus shelter displays, and other public-facing display systems are now exposed to increasingly demanding environments: intense sunlight, continuous high temperatures, 24/7 operation, and strict public safety requirements.
Under these conditions, traditional glass can no longer meet the needs of brightness transmission, heat management, safety, and long-term stability.
To address these real-world challenges, CNLC has developed a high-performance optical laminated glass solution specifically engineered for Outdoor Digital Signage and Bus Shelter Displays. By enhancing light transmission, reducing heat ingress, and improving safety performance, this optical glass provides a more reliable protective layer for any high-brightness outdoor LCD or LED display.
Outdoor displays typically reach 3000–7000 nits.
If the cover glass has low transmittance, the actual perceived brightness will drop dramatically, reducing daylight visibility—a critical factor for high-brightness outdoor screens.
Infrared radiation accelerates internal heat buildup, causing:
brightness degradation
component aging
reduced operational stability
IR-cut laminated glass helps block external heat, enabling the display system to operate within a safer temperature range.
Bus shelters, transportation hubs, and roadside digital signage require:
anti-shatter performance
explosion-proof structure
safety glass certified for public environments
High-strength laminated safety glass has therefore become the industry standard.
2. CNLC High-Performance Optical Laminated Glass: Structure & Functional Layers
Ultra-white Glass / AG / AR + PVB + IR + PVB + Ultra-white Glass / AG / AR
Provides extremely high visible light transmittance, offering a clean and accurate visual base for outdoor LCD and LED displays.
Reduces surface reflections and improves display readability under strong sunlight.
Further boosts light transmission, delivering clearer, brighter, and more vibrant images.
Adds impact resistance, anti-shatter performance, and acoustic damping—essential for public installations such as outdoor kiosks and Bus Shelter Displays.
Effectively blocks infrared heat, lowering internal temperature load and enhancing long-term display stability.
The high transmittance minimizes brightness loss, allowing the display to deliver:
higher visibility
optimized color performance
superior sunlight readability
The dual anti-glare and anti-reflective system enhances visual contrast and reduces unwanted reflections—key to premium Outdoor Digital Signage.
The IR layer:
lowers external heat ingress
reduces internal temperature rise
supports more stable performance in hot climates
While optical laminated glass greatly assists in thermal control, overall thermal stability still depends on:
display module heat output
internal airflow design
cooling/ventilation system
enclosure structure
Thus, high-performance glass is a critical component, but it must work in synergy with the full system design.
The laminated structure prevents glass fragments from scattering upon breakage, providing the safety level required for:
public transportation displays
roadside advertising
urban outdoor applications
High brightness + direct sunlight + 24/7 operation
→ Requires high-light-transmission and IR-cut laminated glass to maintain image clarity and long-term stability.
High foot traffic + prolonged exposure to sunlight + strict safety requirements
→ Laminated safety glass becomes essential for durability and public protection.
Conclusion
High-performance optical laminated glass has become an essential component in premium outdoor display systems. It significantly enhances light transmission, improves image clarity, reduces thermal load, and ensures higher safety levels.
However, achieving true all-weather stability requires synergy between:
the optical glass
the display module
the cooling and ventilation system
the entire structural design of the outdoor enclosure
With its Ultra-white + AG/AR + PVB + IR + PVB structure, CNLC’s optical laminated glass is rapidly becoming the industry-standard choice for high-end Outdoor Digital Signage and Bus Shelter Display solutions.
