Why We Started Using Structured Text for Elevator PLC Programming

In the lift industry, Ladder Logic has been the traditional programming method for many years. Because it closely resembles electrical relay circuits, it has been widely accepted by electricians and maintenance engineers.

Our company has also relied on Ladder Logic for many of our lift control systems.

However, as projects become more sophisticated and customer requirements continue to increase, we began looking for programming methods that provide greater flexibility and better readability.

Recently, we completed our first elevator PLC program written entirely in Structured Text.

From Electrical Logic to Software Logic

Traditional ladder diagrams work very well for simple applications. But when more functions, safety devices, and operating conditions are added, the program can quickly become large and difficult to maintain.

Structured Text allows us to write control logic in a more concise way.

Complex conditions can be expressed in a single statement, making the control sequence easier to understand.

For engineers who come from both electrical and programming backgrounds, ST provides an excellent bridge between machine control and software development.

Our First Practical Project

Our first Structured Text application was a simple two-floor lift.

The program successfully controls:

• Upward movement.

• Downward movement.

• Safety circuit monitoring.

• Safety edge protection.

• Upper limit safety.

• Basic motor interlocking.

Although this is a small project, it demonstrates that Structured Text can be applied successfully to standard lift applications.

Benefits We Observed

After completing the project, several advantages became clear.

Improved readability

The control logic is easier to follow compared with large ladder diagrams.

Easier troubleshooting

Conditions can be reviewed quickly without tracing numerous ladder rungs.

Better scalability

Future functions can be added without dramatically increasing program complexity.

More flexible development

Structured Text allows engineers to think about control systems in a more structured and software-oriented way.

Looking Ahead

This first program is only the beginning of our Structured Text journey.

Future developments may include:

• Multi-floor lift control.

• Automatic door systems.

• Fault diagnosis functions.

• Human-machine interfaces.

• Maintenance modes.

• Parameter configuration.

• Remote monitoring.

As the lift industry continues to evolve, we believe that combining traditional electrical experience with modern programming techniques will create better and more reliable control systems.

You can read the complete article here:

https://beaconindustriesltd.com/blogs/news/from-ladder-logic-to-structured-text-plc-elevator-program

 

Is It Worth Creating a Facebook Group for an Industrial Equipment Company?

Many industrial equipment manufacturers already have websites, company pages, YouTube channels, and social media accounts.

At first glance, creating a Facebook Group may seem unnecessary.

After all, industrial equipment is a specialized market. The audience is relatively small, and customers often communicate directly through email, phone calls, or messaging applications.

So why would an industrial equipment company create a Facebook Group?

Recently, we decided to do exactly that.

Our Original Marketing Approach

Our company has spent considerable time building:

• Product pages

• Project case studies

• Technical blogs

• Troubleshooting articles

• Installation guides

• Short videos and social media content

These efforts help customers learn about our products and solutions.

However, we noticed that many conversations continued after the content was published.

Customers asked additional questions.

Installers shared field experiences.

Technicians discussed solutions.

Many of these discussions happened privately.

We began to wonder whether these conversations could become useful resources for a larger audience.

Why Groups Are Different

A company page is designed for publishing.

A group is designed for discussion.

This difference may seem small, but it changes how people interact.

Within a group, members can:

• Ask questions.

• Share experiences.

• Post photos.

• Discuss problems.

• Recommend solutions.

• Help one another.

For technical industries, these discussions can become extremely valuable.

Facebook group link: https://www.facebook.com/share/g/1FsD9D2Md4/

Possible Topics

For our business, possible discussion topics include:

Home Lift Installation

Customers and installers often encounter questions regarding:

• Shaft dimensions

• Door configurations

• Wiring

• Hydraulic systems

• Safety devices

Dock Ramp Maintenance

Users may discuss:

• Hydraulic oil

• Cylinder maintenance

• Tire replacement

• Loading capacity

• Daily inspection procedures

Troubleshooting

Fault diagnosis is one of the most valuable forms of shared knowledge.

Many technical problems have already been solved by someone else.

A community allows these experiences to be shared.

The Benefits

Creating a Facebook Group may provide several long-term benefits.

Knowledge Sharing

Questions and answers become useful resources for future members.

Customer Support

Common issues can be discussed openly.

Community Building

Customers become part of a larger network.

Trust

Real conversations often build more confidence than advertisements.

The Challenges

Building a group is not easy.

Growth may be slow.

Engagement may be limited.

Members may need encouragement to participate.

For industrial businesses, patience is especially important.

The goal should not be rapid growth.

The goal should be useful discussions.

Our Expectations

We do not expect thousands of members.

We do not expect immediate business opportunities.

Instead, we hope to create a small but valuable space where people involved in industrial equipment can exchange knowledge and experiences.

If one installation experience helps another installer, the group has value.

If one troubleshooting discussion saves someone several hours, the group has value.

If one customer receives useful advice, the group has value.

Conclusion

Industrial equipment companies traditionally focus on products.

However, customers also value experience, knowledge, and practical advice.

A Facebook Group may not replace websites, blogs, or social media pages.

But it can become an additional place where people learn from one another.

For us, building a community is not about increasing follower numbers.

It is about creating conversations that may continue long after a product has been delivered.

Do Hydraulic Home Lifts Really Need Upper and Lower Final Limit Switches?

 Most elevators use upper and lower final limit switches as the last line of protection.

The upper final limit prevents the car from traveling too high, while the lower final limit prevents the car from hitting the pit floor.

For many people, removing these switches sounds dangerous.

However, our hydraulic home lifts are designed differently.

The hydraulic cylinder itself determines both the upper and lower travel limits.

When the cylinder is fully retracted, the platform still stays about 20–30 mm above the pit floor. The cabin can never touch the bottom.

When the cylinder reaches its maximum extension, the platform still remains within the safe travel zone. The cabin cannot hit the top of the shaft.

Because every lift is custom-built, we calculate the exact cylinder stroke according to the customer's required travel height.

This means the maximum and minimum positions are mechanically limited.

The advantages include:

• Fewer electrical components

• Less wiring

• Simpler installation

• Reduced maintenance

• Fewer possible failures

Our current controllers still provide an upper limit input, and in some projects we continue to install an upper limit switch as an additional safety layer.

However, it is no longer the primary protection.

For low-speed hydraulic home lifts, mechanical design can sometimes provide a safer and more reliable solution than additional electrical components.

Good engineering is not always about adding more devices.

Sometimes it is about eliminating the unnecessary ones.

 

Why Proper Grounding Is Essential for Control Cabinets

Grounding is one of the most important but often overlooked aspects of electrical control cabinet design.

Many engineers focus on PLC programming, electrical wiring, and component selection while paying less attention to grounding systems. However, inadequate grounding can create both safety issues and control problems.

Symptoms of Poor Grounding

During the commissioning of a lift control cabinet, a slight electric shock was felt when touching the cabinet enclosure.

Initial inspection found:

• No insulation damage.

• No wiring mistakes.

• No actual leakage current.

• No faulty components.

The problem was eventually traced to induced voltage generated by electrical equipment.

Sources of Induced Voltage

Several common components can generate electrical noise or induced voltage:

Variable Frequency Drives

VFDs generate high-frequency switching signals that can introduce electrical noise.

Switching Power Supplies

DC power supplies contain filtering circuits that may create small leakage currents.

Motor Cables

Long motor cables can act as antennas and introduce electromagnetic interference.

Potential Problems

Poor grounding can lead to:

• Electric shock sensation when touching the cabinet.

• PLC input signal interference.

• Relay instability.

• Display screen abnormalities.

• Communication problems.

• Increased electromagnetic interference.

Although the current involved may be very small, the resulting electrical noise can affect system reliability.

Grounding Improvement

To solve these issues, a dedicated grounding terminal was installed inside the control cabinet.

The following components were connected:

• VFD grounding terminals.

• DC power supply grounds.

• Motor ground wires.

• Cabinet grounding points.

The grounding terminal was then connected to an effective external earth ground.

Results

After implementing proper grounding:

• The shock sensation disappeared.

• Electrical interference was reduced.

• PLC operation became more stable.

• Display screens worked normally.

• System reliability improved.

Conclusion

Grounding should never be considered optional in industrial control systems.

A proper grounding system improves:

• Personnel safety.

• Electrical stability.

• Signal reliability.

• Electromagnetic compatibility.

• Overall system performance.

Even when there is no actual electrical leakage, induced voltage and electrical noise can create unexpected problems.

The complete case study and practical experience can be found blog.

 

Custom Home Lift Project: Design, Manufacturing, and Export Process

Order No.: 260513

A recently completed custom home lift project demonstrates the complete process from engineering design to manufacturing and export preparation.

Project Requirements

The European customer required a residential lift solution designed specifically for the installation environment.

The project involved:

• Customized dimensions

• Residential application

• Safety-oriented design

• Export packaging requirements

Engineering Design

Engineers prepared the lift layout according to the customer's building conditions.

Factors considered included:

• Available installation space

• Lifting height

• Cabin dimensions

• Safety devices

• User convenience

Production Stage

Manufacturing included:

• Steel fabrication

• Welding and assembly

• Hydraulic system installation

• Electrical wiring

• Functional testing

All major components were inspected during production.

Quality Inspection

Before shipment, the lift completed:

• Operational testing

• Safety inspection

• Electrical verification

• Final quality control

Export Packaging

The equipment was protected using export packaging methods suitable for international transportation.

Proper packaging helps reduce the risk of damage during shipping and handling.

Conclusion

Custom residential lifts require close cooperation between customer requirements, engineering design, manufacturing, and quality control.

Additional photos and complete project information are available here:

https://beaconindustriesltd.com/blogs/case-studies/custom-home-lift-project-european-customer-order-260513

Making PLC Signals Easy to Understand

PLC systems often use addresses such as X0, X1, Y0, and Y5 to represent inputs and outputs.

While these addresses are useful for programmers, they can make installation and troubleshooting difficult for technicians who do not have access to the original PLC program.

To solve this problem, we developed a PLC status screen that converts these addresses into descriptive text and displays their real-time ON/OFF status.

Examples include:

• Upper limit switch — ON

• Door signal — OFF

• Motor running — ON

This allows installers and maintenance personnel to quickly understand machine conditions without connecting programming software.

The system is suitable for:

✔ Home lifts
✔ Freight elevators
✔ Scissor lifts
✔ Hydraulic lifting equipment

In our experience, clear text information is often more useful than complicated graphical interfaces when performing maintenance and troubleshooting.

Read the complete article here:

https://beaconindustriesltd.com/blogs/knowledge/how-a-plc-status-screen-makes-lift-installation-and-troubleshooting-easier

 

Blog Version

Why Does a Home Lift Stop Immediately? Understanding Low Voltage Faults in VFDs

Variable Frequency Drives (VFDs) are widely used in hydraulic home lifts. They not only convert single-phase 220V power into three-phase 380V power for the hydraulic pump, but also control motor speed for smoother operation.

Recently, one of our customers reported that his home lift stopped immediately after pressing the UP button. The inverter displayed the fault code:

ELUO

The inverter installed in the control cabinet was a SU-600 VFD.

According to the operation manual, ELUO indicates an input under-voltage fault.

Why Low Voltage Causes a Fault

When the input voltage becomes too low, the inverter must draw higher current to maintain output power.

Higher current places additional stress on the DC bus capacitors inside the inverter. Excessive current can shorten capacitor life or even damage internal components.

To protect itself, the inverter automatically stops operating and displays the ELUO fault code.

Why Manual Mode Still Worked

The customer noticed that the lift operated normally in manual mode.

This is because manual operation runs at approximately 25 Hz, requiring less power from the motor.

Lower frequency means:

• Lower motor load

• Lower current demand

• Reduced voltage drop

Therefore, the inverter does not enter under-voltage protection.

Wiring Matters

Low voltage problems are not always caused by the power supply itself.

Small cable sizes, loose terminals, and poor electrical connections can also cause voltage drops.

Always ensure:

• Proper cable sizing

• Tight terminal connections

• Stable input voltage

• Secure breaker connections

Ignoring these details may eventually damage the inverter capacitors or other internal components.

Conclusion

An ELUO fault does not necessarily mean the inverter has failed.

Before replacing the VFD, users should first inspect the incoming voltage, cable size, and wiring conditions.

Proper installation and maintenance can significantly increase the service life of both the inverter and the hydraulic lift system.

 European Mobile Dock Ramp Project Completed

Beacon Industries has completed production of 15 sets of 10-ton mobile dock ramps for a European customer.

Highlights:

• 15 Units

• 10 Ton Capacity

• 1.1–1.8 m Service Height

• New Welded Guardrail Design

• Six Custom Colors

The first container shipment is now being prepared, with additional shipments planned later.

Read the complete project story here:

https://beaconindustriesltd.com/collections/dock-ramp

Mechanical vs Magnetic Limit Switches for Lift Systems

If you have ever wondered how a lift knows exactly when to stop at each floor, the answer is usually a limit switch.

A limit switch acts as a sensor that communicates with the lift's control system. When the cabin reaches a designated position, the switch sends a signal to the PLC or relay controller, which then stops the motor.

There are two common configurations:

✔ Normally Open (NO)

✔ Normally Closed (NC)

Both methods are widely used throughout industrial automation.

In recent years, magnetic strip positioning systems have also appeared in the lift industry. These systems use magnetic sensors to detect floor positions without physical contact.

The main benefit is quieter operation because there is no mechanical clicking sound.

However, mechanical limit switches continue to be widely used because they offer:

• Proven reliability

• Easy installation

• Easy replacement

• Low maintenance cost

• Decades of successful field applications

At Beacon Industries, we currently use adjustable Chint YBLX-ME/8101 mechanical limit switches on many lift products because they provide dependable performance and have been tested in real-world applications for many years.

Technology continues to evolve, but reliability remains one of the most important considerations in lift design.

 

A New Way to See How Our Lifts Are Made

Over the years, many customers have asked us:

"How are your lifts manufactured?"
"What kind of quality control do you have?"
"How do you test the equipment before delivery?"

Instead of simply explaining with words, we decided to show the entire process through real engineering projects.

That's why we have launched a new case studies on our website.

In this section, we will regularly share actual projects completed for customers around the world.

You'll be able to see:

✔ Production and fabrication processes

✔ Electrical control system design

✔ PLC programming and safety logic

✔ Assembly and testing procedures

✔ Installation and commissioning progress

✔ Final project results

We believe that seeing the real manufacturing process provides much more confidence than looking at finished product photos alone.

Every project tells a story—from raw materials entering the factory to a fully operational lift serving the customer.

We look forward to sharing more projects and giving customers a closer look at how quality lifting equipment is built.

Stay connected for future updates.

LH1044 Leaf Chain vs Composite Steel Belt in Hydraulic Home Elevator Engineering

 In hydraulic residential elevator manufacturing, optimizing mechanical efficiency while ensuring ultimate tensile strength is the core objective. One of the most critical engineering debates revolves around the lifting medium: Steel Wire Ropes vs. Composite Steel Belts vs. Heavy-Duty Leaf Chains.

At Beacon Industries, we prioritize long-term structural rigidity and zero-maintenance operation for our global clients. This technical analysis explains why our heavy-duty home lift systems utilize industrial LH1044 Leaf Chains instead of standard ropes or commercial steel belts.

Mechanical Disadvantages of Wire Ropes and Steel Belts

From an engineering standpoint, steel wire ropes suffer from high elastic deformation under tension, leading to frequent leveling inaccuracies at lift stops. On the other hand, composite steel belts pose significant safety risks due to tracking misalignment. If the pulley structure is misaligned during installation, severe edge friction occurs, leading to rapid degradation of the composite core and potential sudden snapping. Furthermore, steel belts cannot endure multi-pulley stress, restricting them to single-pulley 1:2 configurations.

The Structural Superiority of LH1044 Leaf Chains

To eliminate these engineering vulnerabilities, Beacon Industries integrates dual LH1044 leaf chains into our premium custom villa residential elevator lines.

• Tensile Safety: Our synchronized dual leaf chain system delivers an ultimate breaking strength that far surpasses standard residential load demands, eliminating the risk of stretching or mechanical fatigue.

• Maintenance-Free Lifecycle: This setup completely cuts out the need for periodic rope tensioning or costly belt replacements. The structural integrity remains uncompromised for 10 to 20 years, requiring only routine surface lubrication.

Kinematics Innovation: The 1:3 Dual-Pulley Velocity Advantage

The unique geometric flexibility and high tensile load capacity of leaf chains allow for advanced multi-pulley synchronization. While steel belt elevators are restricted to slow, single-pulley setups, Beacon Industries utilizes a proprietary dual-pulley network achieving a 1:3 transmission ratio:

1. The hydraulic cylinder extends by 1 meter.

2. The synchronized LH1044 chain assembly drives the elevator cabin upward by 3 meters.

3. This mechanism successfully breaks the speed barrier of hydraulic lifts, achieving an operational velocity of 12 to 14 meters per minute with zero structural vibration.

Operational stability also depends heavily on the initial integration of the structural frame. For a deep-dive case study on structural alignment on-site, review our engineering article on home lift cabin installation errors.

📊 Looking for high-performance OEM lifting machinery or custom CAD layouts? 

👉 Visit our engineering portal to Get a Custom Quote today. 

💬 Connect directly with our Jinan factory technical team via WhatsApp Chat.

Understanding the Difference Between Total Height and Net Lifting Height of a Scissor Lift

When discussing a scissor lift project with customers, one common misunderstanding is the difference between total height and net lifting height.

Although the two terms sound similar, confusing them can create serious problems during production and installation.

What Is Net Lifting Height?

Net lifting height means the actual vertical travel distance of the platform from its lowered position to its fully raised position.

For example:

• Lowered platform height: 0.8 m
• Fully raised platform height: 4.8 m

Then:

• Net lifting height = 4.0 m

This is the effective lifting movement of the scissor lift.

What Is Total Height?

Total height refers to the final maximum platform height after lifting.

Using the same example:

• Lowered height: 0.8 m
• Net lifting height: 4.0 m

Therefore:

• Total height = 4.8 m

In simple words:

Total Height = Net Lifting Height + Lowered Height

 

Important Detail About Single Scissor Structure

For single-stage scissor lift structures, there is another important mechanical detail.

In theory, the scissor arms could fully close together. However, if the scissor structure is completely folded flat, the hydraulic cylinder would need to generate extremely large starting force to begin lifting.

Because of this, most single-stage scissor lifts are designed with support blocks or structural spacing that keep the lift slightly higher than the fully collapsed position.

This design greatly reduces the starting load on the hydraulic cylinder and improves:

• Starting efficiency
• Hydraulic system lifespan
• Stability during lifting
• Overall mechanical reliability

Therefore, the actual minimum height of a single scissor lift is usually slightly higher than the fully folded theoretical height.

Why Misunderstanding These Heights Causes Serious Problems

This is one of the most important points during communication between supplier and customer.

In many lift projects, the final designed maximum height is usually only about:

• 10–20 cm higher than the agreed specification.

If the customer accidentally treats net lifting height as total height, the final platform height after production may be significantly lower than expected.

For example:

Customer expects:

• Platform final height: 4.5 m

But supplier interprets:

• Net lifting height: 4.5 m

If the lowered height is 0.8 m, the actual total height becomes:

• 5.3 m

Or the opposite situation may happen:

• Supplier designs total height as 4.5 m
• Actual net lifting height becomes only 3.7 m

This can create major issues including:

• Installation failure
• Inability to reach working position
• Site operation problems
• Costly redesign or modification

Conclusion

Before designing or ordering a scissor lift, it is very important to clearly confirm:

• Lowered height
• Net lifting height
• Total platform height

Clear communication avoids production mistakes and ensures the lift will meet the actual working requirements.

At Beacon Industries, we always confirm all lifting dimensions carefully before production to avoid misunderstandings and ensure every lift matches the customer’s real application needs.

Why a Home Lift Cabin Can Shake After Installation — And How to Fix It Properly

Recently, we assisted a customer with the installation of a home lift from Beacon Industries. After the cabin was installed, the customer noticed that the cabin had some shaking and movement during operation.

After checking the installation details together, we quickly found the main reason:

The platform and frame had only been fixed with bolts, but they were not welded together.

This is one of the most direct reasons that can cause cabin vibration or instability on a home lift platform.

Why We Do Not Fully Weld the Platform Before Shipping

Some customers may wonder:

“Why not weld everything completely at the factory?”

The answer is simple: shipping cost.

If the platform is fully welded before shipment, the overall package size becomes much larger. International sea freight charges are heavily based on cargo volume. A larger package can significantly increase shipping costs for the customer.

To reduce transportation cost and make shipping more economical, we design the platform with pre-drilled bolt holes. This allows the structure to be shipped in a more compact form.

This is our platform, we drill the holes by laser cutting and make sure all the bolts exactly in right position:

The Correct Installation Method

We explained to the customer that the correct installation process should be:

Step 1 — Bolt Fixing First

Use bolts first to position and align the platform accurately with the frame.

The bolts are mainly for temporary positioning and alignment.

Step 2 — Spot Welding

After confirming the alignment, perform spot welding at several positions.

This helps hold the structure firmly while still allowing adjustment if needed.

Step 3 — Test Install the Cabin

Before full welding, install the cabin once and test the operation.

Check:

• Cabin stability
• Alignment
• Smooth movement
• Platform level

If everything works correctly, proceed to the next step.

Step 4 — Full Welding

Complete the full welding between the platform and frame.

The welding can be done in sections rather than one continuous weld to help control heat and deformation.

Step 5 — Final Cabin Installation

After welding is completed, reinstall the cabin.

The result should be:

• Much stronger structure
• Reduced vibration
• Better stability
• More solid and reliable operation

Proper Installation Is Just as Important as Manufacturing

Even with a strong structure and quality materials, correct installation remains extremely important for home lifts.

A well-installed platform will greatly improve:

• Safety
• Stability
• Cabin comfort
• Long-term durability

At Beacon Industries, we always try our best to support customers during installation and help solve problems quickly and efficiently.

WhatsApp: https://wa.me/8618663723661

Why Can a Home Lift Stop Exactly at Each Floor Level?

Many people wonder how a home lift can stop accurately at every floor without going too high or too low.

The answer is actually quite simple — it relies on a device called a limit switch together with the lift’s PLC control system.

A limit switch works like a normal electrical switch. Under normal conditions, the circuit is open. In electrical systems, this is called a Normally Open (NO) connection.

When the lift cabin reaches a specific floor, it touches or triggers the limit switch installed at that floor. Once triggered, the circuit becomes closed and sends a signal to the control system.

This signal is then received by the PLC (Programmable Logic Controller).
You can think of the PLC as the “brain” of the lift. It constantly receives and processes signals from different parts of the system.

For example, when the first-floor limit switch is activated, the PLC immediately understands that the cabin has arrived at the first floor. It then sends a command to stop the motor, allowing the lift cabin to stop precisely at the correct floor level.

Each floor has its own dedicated limit switch.
Because of this, the lift can stop accurately and smoothly at every floor.

Although the principle is simple, it is a very reliable and widely used solution in lift systems and many other industrial machines.

In future blogs, we will continue sharing more easy-to-understand knowledge about home lifts, hydraulic lifts, and lifting equipment. If any questions just feel free to Contact Us:

🌐 https://beaconindustries.com

💬 https://wa.me/8618663723661

Why Choose Scissor Lifts and Lift Solutions from Beacon Industries?

When comparing scissor lifts and other lifting equipment from different manufacturers, many products may appear almost identical. They often have similar specifications, similar designs, and can operate reliably for years. However, the true difference lies in the details behind the engineering, production, and after-sales support.

At Beacon Industries, we focus on long-term reliability, ease of maintenance, and customer satisfaction. Here are some of the reasons why customers worldwide choose our lifting solutions.

1. Stronger Structure for Better Stability

While a lighter structure may technically achieve the same lifting capacity, we believe stability and durability are equally important. Our lifts are designed with reinforced structures that provide smoother operation, reduced vibration, and improved long-term performance.

A stronger frame means greater confidence for operators and safer working conditions for daily use.

2. Standardized Components Across Product Lines

We use standardized components within each product grade and capacity range. This allows us to quickly identify replacement parts whenever maintenance is required.

For customers, this means:

• Faster service support

• Easier spare parts management

• Reduced downtime

• Lower maintenance costs

3. Complete 3D Engineering Documentation

Every lift we manufacture is recorded and maintained in detailed 3D engineering models.

This provides significant advantages:

• Easier installation

• Simplified maintenance procedures

• Faster troubleshooting

• Better understanding of the equipment structure

Our customers have access to accurate technical information whenever needed.

4. Standard Electrical Components

All control systems are designed using widely available standard electrical components.

If a component ever needs replacement, customers can often source equivalent parts from their local market instead of waiting for special factory orders. This minimizes downtime and reduces maintenance expenses.

5. 3D Installation Guidance and Support

To simplify installation, we provide detailed 3D installation videos and guidance materials.

This allows customers to:

• Complete installation more efficiently

• Reduce dependence on overseas technicians

• Save significant installation costs

• Improve project scheduling

In many cases, there is no need to send factory personnel to the job site.

6. Attention to Every Detail

We believe that small details make a big difference.

For example, we record the exact RAL paint code used for every project. If welding modifications or touch-up painting are required on-site in the future, customers can easily obtain matching paint colors and maintain a professional appearance.

The Beacon Industries Difference

At Beacon Industries, we do more than manufacture lifting equipment. We build solutions that are easier to install, easier to maintain, and designed to provide reliable service for many years.

The visible product may look similar to others on the market, but the engineering standards, documentation, service preparation, and attention to detail behind it make all the difference.

 

Why More Warehouses Are Choosing Mobile Dock Ramps

Loading and unloading containers can be one of the most time-consuming tasks in a warehouse. Without a proper loading platform, workers often need extra equipment and additional labor to move cargo.

A mobile dock ramp solves this problem by creating a smooth bridge between the ground and the shipping container. Forklifts can simply drive up the ramp and enter the container directly, making the entire loading process faster and safer.

In this demonstration, the forklift carries cargo across the dock ramp and into the container with ease. The adjustable hydraulic system allows the ramp to match different truck and container heights, while the anti-slip deck provides excellent traction.

Key Benefits:

• Faster container loading and unloading.
• Reduce manual handling and labor costs.
• No permanent loading dock required.
• Easy to move and operate.
• Suitable for factories, warehouses, and logistics centers.

For businesses handling frequent container shipments, a mobile dock ramp is a practical investment that improves efficiency and streamlines daily operations.

📩 Custom sizes and capacities are available.

🌐 https://beaconindustries.com

💬 https://wa.me/8618663723661

Why Two Hydraulic Cylinders Are Enough for This 1.5 Ton Scissor Lift

 

When designing a hydraulic scissor lift, the lifting system should always match the actual working load.

This custom project features a 5.2 × 2.1 meter platform, a 2.6 meter lifting height, and a 1.5-ton capacity. To achieve the right balance between performance and cost, we selected a dual-cylinder hydraulic system.

The main structure is fabricated from 200 × 100 mm manganese steel tubing with a 3.75 mm wall thickness, offering excellent rigidity and durability for long-term industrial use.

Rather than simply increasing the number of cylinders, proper engineering ensures that two hydraulic cylinders can safely and efficiently handle the required load while providing smooth and stable operation.

Every project has different requirements, and we can customize platform size, lifting height, capacity, color, and control systems according to customer needs. Industrial lifting solutions should be strong, practical, and built for the job.

📩 Want to Learn More?

If you’re exploring ways to improve loading efficiency, feel free to reach out or connect.

📩 WhatsApp: Beacon Industries

Company: BEACON INDUSTRIES LTD

Google Business Profile: Click here

We support global inquiries and OEM customization. 

 

Why Use a Twin Scissor Structure for Large Lift Platforms?

When platform size and load capacity increase, structural stability becomes increasingly important.

https://www.youtube.com/shorts/dVZFcGs8Qn4?feature=share

This hydraulic scissor lift was designed with:

• 5-ton lifting capacity
• 5950 × 3350 mm platform
• 4450 mm lifting height
• 7.5 kW hydraulic power unit
• Four hydraulic cylinders
• Twin-scissor configuration

Unlike a conventional single scissor assembly, the twin-scissor design utilizes two complete scissor structures working together. This helps distribute loads more evenly across the platform, improves overall rigidity, and provides smoother lifting performance.

For large industrial platforms, the twin-scissor arrangement can significantly enhance operational stability while reducing stress concentration on individual structural components.

The result is a safer, stronger, and more reliable lifting solution for demanding industrial applications.

📩 Want to Learn More?

If you’re exploring ways to improve loading efficiency, feel free to reach out or connect.

📩 WhatsApp: Beacon Industries

Company: BEACON INDUSTRIES LTD

Google Business Profile: Click here

We support global inquiries and OEM customization.