Wireless Remote-Controlled Trackless Electric Transfer Flatbed Cart

I. Application Scenarios
* **Intra-workshop heavy material transfer:** Handling of molds, large workpieces, machine tool parts, heavy boxes, steel structural components, etc., over short distances and with high frequency within workshops.
* **Production line and assembly line material handling in automotive manufacturing, construction machinery, motors, transformers, wind power components, etc.**
* **Warehouse & Logistics Turnover:** Transfer between warehouses and workshops, and across factory buildings, without the need for tracks, allowing for flexible route changes.
* **Narrow/Complex Passages:** Allows for turning on the spot and 360° rotation in narrow/turning/unpredictable passageways.
* **High-Temperature/Dust/Hazardous Environments:** Suitable for metallurgy, casting, chemical, and other environments where remote control allows operation away from hazardous areas.
* **Outdoor/Construction Site/Port Short-Distance Equipment Transfer, Building Material Transportation, and Maintenance Handling:** Unrestricted by tracks.

II. Core Advantages (Most Suitable for Customers)
* **Trackless Design:** Flexible and free; requires no tracks, can move on flat ground, routes can be adjusted at any time, low investment, and quick modification. Wireless remote control: Simple operation with a remote wireless handle for one-button control of forward, backward, turn, and lift. Even beginners can quickly learn how to use it.

High safety factor: Keeps personnel away from heavy objects, high temperatures, and hazardous areas.
Features emergency stop, collision avoidance, audible and visual alarms, and low-voltage protection.
Better field of vision, reducing the risk of collisions with equipment and personnel.
Spot-on-the-spot turning: Small turning radius allows for in-spot rotation, side shifting, and differential turning, enabling easy operation even in confined spaces.

High load capacity and stable operation: Load capacity is available from 1 ton to hundreds of tons. Smooth operation without damaging goods or the ground.

Electric and environmentally friendly: Powered by low-cost rechargeable batteries, producing no exhaust fumes, low noise, and simple maintenance. Lower operating costs than fuel-powered or rail-mounted vehicles.

Highly customizable: Platform size, load capacity, lifting function, explosion-proof design, high-temperature resistance, anti-slip features, and PLC linkage can all be customized. 

6 Core Steps for Modular Spreader Selection

1. Determine the Object to be Lifted

Cargo Type: Steel Plate / Steel Pipe / Coil / Container / Mold / Equipment

Cargo Weight: Maximum Weight for Single Lift

Cargo Dimensions: Length × Width × Height

Lifting Point Location: Whether there are lifting lugs, whether balanced lifting is required

→ Determine: Rated Load Capacity, Number of Lifting Points, Spreader Structure

2. Determine the Rated Load Capacity (WLL)

Total Load Capacity of Modular Spreader = Load Capacity of Single Chain / Sling × Number of Chains × Angle Coefficient

Vertical Lift: Coefficient 1.0

45° Lift: Coefficient ≈0.7

60° Lift: Coefficient 0.5
A safety margin must be left: ≥1.25 times

3. 4. Selecting the Main Structure of Lifting Gear

Single-limb lifting gear: For light and small items, with a central lifting point

Double-limb lifting gear: For long and narrow goods, sheet metal

Four-limb lifting gear: For boxes, equipment, molds, where high stability is required

Combined beam lifting gear: For extra-long, extra-wide goods, and goods susceptible to deformation

4. Selecting the Sling Material

Alloy steel chain: Wear-resistant, high-temperature resistant, durable, the first choice for heavy industry

Flexible slings: Do not damage paint, lightweight, suitable for precision equipment

Wire rope: High strength, inexpensive, commonly used outdoors

Steel plate clamps/clamps: Specifically for lifting steel plates and coils

5. Determining the Connection Method

Upper end: Hook, lifting ring, connecting pin

Lower end: Snap ring, hook, shackle, lifting lug, clamp

On-site cranes: Overhead cranes, port cranes, truck cranes, gantry cranes

→ Determine the upper connection dimensions

6. Environment and Special Requirements

Temperature: Choose chains for high temperatures, choose low-temperature grade materials for low temperatures

Corrosion: Seawater/Chemicals → Stainless steel or anti-corrosion treatment

Ports/Exports: Requires CE, GS, ISO certifications Certification

Ports like Sri Lanka: Load markings, inspection reports, and a safety factor ≥ 4 are mandatory.

Quick Selection Guide:
1. Heavy load;
2. Long load;
3. Lifting points;
4. Angle calculation for safety.

5. Sufficient number of structural members;
6. Material resistance to environmental conditions.

Complete certifications ensure smooth customs clearance; load markings are essential.

Maintaining lithium batteries for industrial electric transfer carts hinges on controlling charging and discharging, strictly controlling temperature and humidity, keeping them clean, conducting regular inspections, and storing them properly. This can significantly extend battery life and reduce malfunctions. Below are practical maintenance solutions for different scenarios:

I. Daily Use and Charging/Discharging (Most Critical)

Shallow charging and discharging, avoid deep discharge.

Recharge immediately when the remaining charge is below 20%, never let it run completely out of power (depleted).

For daily use, disconnect the power when the charge reaches 80%–90%. For emergency operations, it can be fully charged, but disconnect the power immediately afterward to avoid prolonged float charging.

Never charge while operating the cart. Maintain ventilation and keep the cart away from heat sources and flammable materials while charging.

Use the original/matched charger.

The dedicated charger配套 with the cart must be used. Never mix chargers of different voltages or power ratings.

Control the charging environment temperature between 0℃ and 45℃, ideally 20℃–30℃. Stop charging immediately if the temperature exceeds 45℃.

Overcharging, over-current, and reverse connection are strictly prohibited. Before charging, check the plug and socket for looseness or burning; tighten the terminals to prevent overheating from loose connections.

Do not cover the battery while charging to ensure heat dissipation; if the battery is abnormally hot, bulging, or has an unusual odor, immediately disconnect the power and stop using it.

II. Environment and Storage (Determines Lifespan)
Temperature Control
Operating/Storage Temperature: 0℃–35℃, optimal 15℃–25℃.

Avoid direct sunlight and proximity to heat sources such as furnaces/steam pipes; in winter, at low temperatures (<0℃), preheat before high-power discharge.

Moisture-proof, Dust-proof, and Corrosion-proof
Keep the battery surface dry and clean. Workshop dust, oil, and moisture can cause short circuits and corrosion.

Never wash directly with water; clean with a dry cloth or compressed air; avoid contact with acids, alkalis, and corrosive gases.

Long-term Storage (>1 month)
Charge the battery to approximately 50% (30%–70%) before disconnecting the power and storing.

Recharge the battery every 30–90 days to complete a full charge-discharge cycle and maintain cell activity.

Store in a cool, dry, and well-ventilated place, away from metal objects and to prevent short circuits.

III. Regular Inspection and Maintenance (Prevention is Better than Cure)

Daily Inspection: Check the battery appearance for bulges, deformation, leakage, damage, and unusual odors.

Check the terminals for looseness, oxidation, and blackening; tighten and clean the oxide layer promptly.

Confirm that the BMS (Battery Management System) has no alarms and that voltage and temperature are normal.

Weekly Maintenance: Clean the battery surface and terminals; apply a small amount of petroleum jelly to the terminals to prevent rust and oxidation.

Check the charging cable and plug for damage and overheating; replace aging cables promptly.

Monthly/Quarterly In-Depth Inspection: Use a multimeter to measure the voltage of individual cells and the total voltage, ensuring the voltage difference is normal (generally <0.1V).

Check that the battery compartment cooling fan and vents are unobstructed.

Record charge/discharge time and driving range to compare and determine the capacity degradation trend. IV. Operation and Safety Precautions

**Do not drop, impact, squeeze, or puncture the battery pack to prevent internal short circuits.**

**Do not place heavy objects or metal tools on the battery to avoid short circuit risks.**

**If you find the battery bulging, leaking, smoking, or on fire, immediately disconnect the main power supply and move it to a safe area. Do not pour water on it; use a dry powder fire extinguisher.**

**Discarded batteries must be handed over to a professional recycling organization. Do not discard or disassemble them arbitrarily.**

V. Maintenance Cycle Overview (Easy to Follow)**

The lead time (production plus delivery cycle) for industrial electric flat cars.

the exact time-frame depends primarily on the load capacity, power supply method, platform dimensions, and degree of customization.

I. Standard Electric Flat Cars (In-Stock / Regular Models)
Load Capacity: 2 t, 5 t, 10 t, 16 t, 20 t, 30 t (standard specifications)
Power Supply: KPT (Cable Reel), KPD (Low-Voltage Rail), Battery (BWP)
Platform: Standard dimensions (e.g., 3 m × 2 m, 4 m × 2.5 m)
Lead Time: 15–30 days (calculated from the date of payment)
Note: Most manufacturers possess established design drawings and stocked components, allowing for rapid assembly.
II. Non-Standard Custom Electric Flat Cars (Most Common)
Load Capacity: 40 t – 100 t and above
Platform: Extra-long, extra-wide, raised height, or equipped with V-frames, hydraulic lifting systems, or rotating platforms
Power Supply: Specialized sliding contact lines, low-voltage rails, or explosion-proof/corrosion-resistant/high-temperature-resistant systems
Functions: Remote control, AGV integration, synchronized linkage, weighing systems, explosion-proof features
Lead Time: 30–60 days
Note: These require custom design work as well as the fabrication of specialized steel structures and electrical components, resulting in a longer production cycle.
III. Extra-Heavy-Duty / Large-Scale Models (≥ 150 t)
Load Capacity: 150 t – 500 t and above
Structure: Heavy-duty frame, multi-wheel assemblies, specialized drive systems
Operating Conditions: High temperatures, explosive environments, highly corrosive environments, long-distance rail tracks
Lead Time: 60–90 days (inclusive of design, manufacturing, and testing phases)
Example: A 450 t flat car designed for transporting forgings has a manufacturing cycle of approximately 60 days.
IV. Key Factors Influencing Lead Time (Must Read)
Load Capacity and Tonnage
The greater the tonnage, the more complex the structural design becomes, resulting in a longer lead time.
Degree of Customization
The lead time increases incrementally as the design complexity progresses from standard models to non-standard customizations, and finally to specialized, unique designs. **Power Supply Method**
Battery / Trailing Cable: Faster lead times; Low-voltage Rail / Conductor Rail: Requires installation of matching rails or wiring, resulting in longer lead times.
**Manufacturer Production Capacity & Scheduling**
During peak seasons (e.g., March–May, September–November), lead times may be extended by 5–10 days.
**Payment & Drawing Confirmation**
Formal production scheduling commences only after the advance payment has been received and the technical drawings have been signed and confirmed.
**V. Industry-Standard Lead Time Reference (2026)**
Standard 10 t Rail Transfer Cart: 15–20 days
Standard 20 t Battery-Powered Transfer Cart: 20–25 days
Non-standard 30 t Hydraulic Lift Transfer Cart: 30–40 days
50 t Explosion-proof Rail Transfer Cart: 40–50 days
100 t–200 t Heavy-duty Transfer Cart: 50–70 days
Over 300 t Ultra-heavy-duty Cart: 70–90 days
**VI. Practical Tips for Shortening Lead Times**
Prioritize standard models to avoid excessive non-standard modifications.
Confirm technical parameters and drawings in advance to minimize iterative revisions.
Communicate with the manufacturer regarding expedited production scheduling (some manufacturers can reduce lead times by 30%–50%, subject to additional fees).
Select manufacturers with a high rate of in-house production for key components (e.g., ≥80%) to ensure more stable delivery times.
**VII. One-Sentence Summary (Suitable for Direct Use in Procurement/Quotation)**
Industrial Electric Transfer Cart Lead Times: Standard models take 15–30 days; non-standard models take 30–60 days; and ultra-heavy/large-scale models take 60–90 days. Load capacity, degree of customization, and power supply method are the primary influencing factors; confirming technical parameters in advance can effectively shorten the overall production cycle.

Here is a set of highly practical, field-proven methods—suitable for direct inclusion in project proposals and client training materials—specifically designed to reduce sensor failures in laser-guided AGVs. The core focus areas are: protection against drops, dust, contamination, interference, and collisions.

I. The Most Vulnerable Sensors (Prioritizing Key Components)
LiDAR (The most expensive and critical component)
Anti-collision sensors (Infrared / Ultrasonic)
Proximity switches and limit switches
Cameras (For visual assistance)
All the methods outlined below revolve around these specific components.
II. How to Minimize Sensor Failures (Direct Implementation Guide)
1. Physical Protection: Eliminating 80% of Failures at the Source
LiDAR units *must* be fitted with protective covers or anti-collision bumpers.
This prevents direct damage caused by impacts from cargo, forklifts, or shelving units.
Install transparent, dust-proof, and scratch-resistant covers over external sensors.
This ensures detection accuracy remains unaffected while significantly reducing the probability of physical damage.
Route wiring through cable chains or corrugated conduits to prevent pulling, abrasion, and wire breakage.
2. Protection Against Dust, Fog, and Oil Contamination (Common Workshop Issues)
Regularly wipe down the LiDAR unit and camera lenses using a soft, dry cloth.
Strictly *avoid* using alcohol, chemical solvents, or stiff-bristled brushes.
In dusty environments:
Select sensors with an IP65 protection rating or higher.
In workshops with significant temperature fluctuations or a high risk of fogging:
Select LiDAR units equipped with built-in heating and defogging functions.
3. Minimizing Interference from Strong Light and Reflections
Avoid positioning sensors so they directly face light fixtures, windows, or direct sunlight.
Avoid using large areas of highly reflective surfaces or mirror-finish films on the floor, as these can cause the laser system to generate false readings.
Keep the positions of metal shelving units and machine tools as fixed as possible; avoid frequent repositioning.
4. Avoiding Severe Vibration and Shock
Enforce speed limits for AGV operation; avoid sudden braking or sharp turns at high speeds.
Ensure the floor surface is as level as possible, minimizing potholes, large gaps, and raised steel plates.
When transporting heavy loads, ensure the cargo is centered (not off-center) and does not exceed height limits to prevent swaying that could loosen or damage the sensors. 5. Standardized Usage: Minimizing Human Error
Prohibitions:
Do not poke, press, or bend the sensors by hand.
Do not spray water directly onto the upper section of the AGV.
Do not pile debris or hang parts near the sensors.
Operator Training (Brief Guide):
If the sensor appears dirty, wipe only the glass surface; do not dismantle, adjust, or tamper with the wiring.
6. Regular Preventive Inspections (Low Cost, High Return)
Daily / Per Shift:
Check the sensor surface for cleanliness, cracks, or looseness.
Weekly:
Check that connectors are securely seated, free of oxidation, and protected from water ingress.
Monthly:
Check that mounting brackets are secure and free of deformation.
III. One-Sentence Summary (Suitable for Direct Communication with Clients)
For laser AGV sensors, 90% of all failures are caused by physical impact, contamination, vibration, or signal interference.
By installing protective covers, maintaining cleanliness, stabilizing the operating environment, ensuring smooth vehicle movement, and adhering to standardized procedures,
the sensor failure rate can be reduced directly by 70% to 90%.

Laser-Guided AGVs (Laser SLAM)

I. Applicable Scenarios
**Smart Manufacturing Workshops**
Material transfer for flexible production lines involving automotive components, 3C electronics, machining, assembly lines, etc.
**Warehousing & Logistics Centers**
Automated transport and material handling (loading/unloading) between warehouses and production lines, or between specific storage locations.
**Factories with Multiple Stations and Complex Routes**
Scenarios involving numerous aisles, frequent turns, and the need for flexible route modifications.
**Indoor Environments with Relatively Fixed Layouts (Walls/Shelving/Equipment Present)**
Laser navigation relies on reflectors or natural contours; thus, it is well-suited for structured environments.
**Workstations Requiring High-Precision Docking**
Examples include loading/unloading machine tools, connecting to assembly lines, and material handling for automated vertical storage systems.
II. Advantages (Strengths)
**High Positioning Accuracy**
Typically achieves an accuracy of ±5mm to ±10mm, making it ideal for automated docking operations.
**No Need to Install Magnetic Strips, QR Codes, or Tracks**
Results in lower installation costs and avoids damage to the floor surface.
**Flexible Routing; Paths Can Be Modified at Any Time**
Route adjustments can be made simply by updating the software map, making it suitable for flexible manufacturing and multi-product line switching.
**High Stability**
Offers greater resistance to light interference compared to vision-guided systems; highly reliable in environments where conditions do not change significantly.
**High Travel Speed ​​and Efficiency**
Well-suited for long-distance transport and high-frequency material handling tasks.
**Strong Scalability**
Multiple AGVs can be centrally scheduled and coordinated as a fleet, making the system ideal for smart factories.
III. Disadvantages (Weaknesses)
**Higher Cost**
The combination of LiDAR sensors and advanced algorithms is more expensive than simpler guidance methods (e.g., magnetic strips or QR codes).
**Environmental Requirements**
The environment must not undergo frequent or major changes (e.g., moving large equipment or extensive renovations can disrupt navigation).
**Unsuitable for Outdoor, High-Glare, or Extremely Dusty Environments**
Reflector-based versions require the installation of reflective markers (posts/plates).
Reflector-free versions (natural navigation) have strict requirements regarding environmental contours and tend to perform less effectively in large, open factory spaces.
**Slightly Higher Maintenance Threshold**
Requires professional personnel to configure and fine-tune the navigation maps, routes, and obstacle avoidance parameters.
**Less Stable Than Traditional Flatbed Carts for Ultra-Heavy Loads**
For heavy-duty applications, AGVs typically employ a hybrid navigation system combining laser guidance with inertial navigation. IV. One-Sentence Summary (Suitable for Direct Presentation to Clients)
Laser-guided AGVs are ideally suited for modern manufacturing facilities that require high precision, operational flexibility, and complex routing, or where floor integrity must be preserved.
While the initial cost is slightly higher, this solution currently represents the most mainstream and mature option in the industry in terms of efficiency, flexibility, and scalability.

Below, we will explain the differences in application scenarios for laser-guided AGVs, magnetic stripe-guided AGVs, and QR code-guided AGVs in a clear, practical, and easy-to-understand way to help you choose the right model or develop a solution.

I. Laser-Guided AGVs: The Most Flexible and Versatile

Working Principle: Scans the environment using laser radar to create a real-time map, locate, and avoid obstacles.

No physical tracks/magnetic strips/QR codes are required; navigation is purely software-based.

Advantages:
High flexibility: Routes can be modified and expanded at any time.

Adaptable to complex environments: Multiple turns, forks in the road, and numerous obstacles.

Strong scalability: Suitable for multi-vehicle collaboration and dynamic scheduling.

Disadvantages:
High environmental requirements: Flat ground, minimal reflection, and no large mirrored/transparent objects.

Relatively high cost.

Typical Application Scenarios:
Flexible production lines: Factories that require frequent adjustments to processes and whose production line layouts change frequently.

Warehousing and Logistics Centers: Many SKUs, frequent warehouse location adjustments, and variable picking routes.

Electronics/Automotive/3C Assembly Workshops: Multiple processes, multiple workstations, and complex routes.

Scenarios requiring multi-vehicle scheduling: Multiple AGVs operating simultaneously, dynamic obstacle avoidance.

In short: Use laser AGVs where changes are frequent, routes are complex, and flexibility is needed.

II. Magnetic Strip Navigation AGVs: Stable, Simple, and Low-Cost

Working Principle: Magnetic strips/nail-shaped markers are attached to the ground. The AGV moves along these strips using magnetic sensors.

Advantages: Stable and reliable: Minimal impact from light, dust, and ground color.

Low cost, mature technology, and simple maintenance.

Fixed routes, less prone to accidental modification.

Disadvantages: Fixed routes make rerouting difficult and require reattaching magnetic strips.

Can only follow magnetic strips, resulting in poor flexibility.

Typical Use Cases: Production lines with fixed, long-term processes: such as assembly lines and fixed-process material handling.

**Scenarios where cost is sensitive and flexibility is not a primary concern:** Small and medium-sized factories, traditional logistics lines.

**Environments with poor performance:** Workshops with high dust levels, oil stains, and unstable lighting.

**Summary in one sentence:** For fixed routes, long-term stability, cost-effectiveness, and reliability, use magnetic stripe AGVs.

**III. QR Code Navigation AGVs:** Precise positioning, moderate cost.

**Working Principle:** QR codes/reflective panels are affixed to the ground. The AGV uses a camera to recognize the QR codes for positioning and navigation.

**Advantages:** High positioning accuracy, suitable for scenarios requiring precise stopping.

Cost is between laser and magnetic stripe AGVs.

Route can be flexibly adjusted using the QR code position.

**Disadvantages:** QR codes are easily worn and dirty, requiring regular maintenance and replacement.

Requires certain levels of lighting and ground flatness.

**Typical Use Cases:** Workstations requiring precise stopping: such as loading/unloading, tool changing, and equipment docking.

Warehouse picking and palletizing/depalletizing: requiring precise stopping at designated locations.

**Suitable for small and medium-sized factories that are cost-sensitive but require a certain degree of flexibility.**

**Workstations requiring precise stopping:** Workstations requiring precise stopping, such as loading/unloading, tool changing, and equipment docking.

**Warehouse picking and depalletizing/depalletizing:** Requires precise stopping at designated locations.

**Suitable for small and medium-sized factories that are cost-sensitive but require a certain degree of flexibility.** In short: For precise docking without spending too much money, use a QR code AGV.

IV. Comparison of Usage Scenarios (Simplified Table)

V. Simple Selection Recommendations
For flexibility, route modification, and multi-vehicle operation: Choose Laser Navigation AGV
For cost savings, fixed routes, and long-term stability: Choose Magnetic Strip Navigation AGV
For precise docking and moderate cost: Choose QR Code Navigation AGV

The core of battery selection is "first determine the scenario and voltage, then calculate the capacity and rate of change, and finally match the environment and charging." Following these steps can quickly determine the appropriate solution.Preferred Recommendations: 

Choose lithium iron phosphate for regular industrial transport; choose lead-acid for tight budgets and light loads/short distances; choose ternary lithium or low-temperature lithium iron phosphate for low-temperature environments in northern regions.

II. Determine Voltage Rating (Matching Motor/Controller)

Common Specifications: 24 V, 48 V, 72 V (Select according to the rated voltage of the flatbed motor; over-voltage/under-voltage is strictly prohibited.) Quick Reference: Low Power (≤2-kW): 24 V/48 V
Medium Power (2–5 kW): 48 V
High Power (≥5 kW): 48 V/72 V

In the perfume manufacturing industry (especially large-scale fragrance and flavor factories or perfume bottling plants), industrial electric transfer flatbed carts (also called electric flatbed carts, trackless transfer carts, or rail-mounted electric flatbed carts) are typically used for moving heavy objects, liquid containers, and production equipment between workshops or warehouses. Common application scenarios are mainly concentrated in the following areas:

1️⃣ Raw material warehouse → Perfume blending/ingredient workshop

Perfume production requires large quantities of fragrance raw materials, such as:

Alcohol

Natural essential oils

Synthetic fragrances

Solvents

These raw materials are often stored in the form of:

200L iron drums

IBC containers

Large stainless steel storage tanks

Using electric transfer flatbed carts allows for:

Transporting multiple barrels of raw materials at once

Reducing forklift access to clean areas

Improving handling safety

Typical transport items:

IBC containers

Raw material pallets

Stainless steel storage tanks

2️⃣ Transfer between blending tanks/reactors

In perfume production, after fragrance blending, the following processes are typically performed:

Maceration

Filtration

Dilution

If the factory uses mobile stainless steel blending tanks, transfer flatbed carts are used:

Application method:

Fragrance tank → Maceration area

Maceration tank → Filtration equipment

After filtration → Filling line

Advantages:

Avoids complex piping systems

Flexible production of multiple fragrances

3️⃣ Transfer of semi-finished perfumes

In large-scale production, semi-finished perfumes are stored in:

Mobile stainless steel tanks

IBC containers

Food-grade plastic drums

Electric flatbed carts can be used for:

Production workshop → Filling workshop

Filtration area → Filling line

Features:

Load capacity 1–20 tons

Smooth transport, avoiding liquid sloshing

4️⃣ Packaging Material Handling

Perfume packaging materials are numerous, including:

Glass perfume bottles

Sprayer/pump heads

Bottle caps

Color boxes

Pallets

In automated packaging workshops, flatbed carts can be used for:

Warehouse → Packaging line

Packaging line → Finished goods warehouse

Advantages:

Multiple pallets can be handled at once

Reduced manual handling

5️⃣ Finished perfume pallet transfer

After finished product packaging is completed:

Bottling line → Finished goods warehouse

Warehouse → Shipping area

High-end perfume factories often use:

AGV electric flatbed carts

Automated guided transport vehicles

For automated logistics systems.

6️⃣ Equipment Installation and Maintenance

Perfume factories have many large pieces of equipment, such as:

Perfume mixing tanks

Filtration equipment

Bottling line modules

CIP cleaning systems

Electric flatbed carts can be used for:

Equipment transportation

Production line changeover

Equipment maintenance and handling

💡 Why are electric transfer flatbed carts suitable for perfume factories? Main Reasons:

1️⃣ High Environmental Requirements
Perfume production often requires a clean environment, making electric equipment more suitable than fuel-powered equipment.

2️⃣ Heavy Liquid Raw Materials
Monthly drums + stainless steel tanks are heavy.

3️⃣ Fixed Transportation Routes
Transportation routes between workshops are relatively fixed.

4️⃣ High Stability Requirements
Liquid transportation requires smooth operation.

✅ Typical Configuration (Perfume Industry)

Load Capacity: 1–10 tons

Tabletop: Stainless steel or anti-corrosion coating

Drive: Battery powered

Speed: 20–30 m/min

Optional:

Explosion-proof motor (alcohol environment)

AGV navigation

Corrosion-resistant structure

The following information is required:

Maximum load capacity

Flatcar dimensions

Whether turning is required

Travel distance

Working environment (indoor/outdoor)

Automation required