| Item | Details | Item | Details |
|---|---|---|---|
| Vehicle Model | CL5182ZYSBEV | Chassis Model | CA1181P62L2BEV |
| Wheelbase | 4500mm | Box Volume | 15 cubic meters |
| Overall Dimensions | 8960,8890,8750×2550,×3250(mm) | Rated Payload | 5905,5970,6305,6370kg |
| Gross Vehicle Weight | 18000kg | Curb Weight | 11900,11500KG |
| Cab Seating Capacity | 2,3 persons | Fuel Type | Pure Electric |
| Driving Range | 300km | Maximum Speed | 89/90km/h |
| Battery Capacity | 246.7KWh | Chassis Temperature Control System | Standard heating tape |
| Charging Time | 2.5 hours | Maximum Gradeability | ≥25% |
| Recommended Charging Pile Power | 120KW | Approach Angle/Departure Angle | 18/9° |
| Motor Cooling Method | Water cooling | Front Suspension/Rear Suspension | 1400/2700mm |
| Rated Power of Upper-mounted Motor | 15-30KW | Box Material | Q355 |
| Power Consumption per Hour of Upper Equipment | 25KWH | Hydraulic Valve Group | Zhongmei/Haipu Ruisi |
| Battery Brand | CATL (Ningde Times) | Electric Control System | Hansheng |
| Battery Type | Lithium Iron Phosphate Battery | Tire Specification | 295/80R22.5 / 10.00R20 |
| Battery System Energy Density | 153.8 (W.h/kg) | Hydraulic Cylinder | Haipu Ruisi |
| Axle Load (kg) | 6500/11500 | Braking Mode | Pneumatic Brake |
| Recommended Charging Pile Power | 120KW | Chassis Configuration | LCD instrument panel, heating and cooling air conditioner, central door lock, ABS |
| Chassis Controller | Type: All-in-one | Rated/Peak Power of Motor (kW) | 90/180 |
| Chassis Motor | Type: Permanent Magnet Synchronous MotorModel: TZ370XS-LKM1101Manufacturer: Suzhou Lvkong Transmission Technology Co., Ltd. | Rated/Peak Torque of Motor (Nm): 500/1000Rated/Peak Speed of Motor (rpm): 3473/8700Power Solution: Motor + 6AMT |
The FAW CL5182ZYSBEV pure electric compressor truck (Swing Arm) is a next‑generation electric waste collection vehicle, designed to meet global demands for sustainable waste management. As modern cities transition away from diesel‑powered refuse trucks, zero emission refuse collection solutions are gaining widespread adoption. The FAW CL5182ZYSBEV exemplifies this shift with advanced electric drive systems, integrated compression technology, and a swing arm loading mechanism that enhances operational efficiency.
This article provides an in‑depth, structured exploration of the FAW CL5182ZYSBEV including its industry context, definition, technologies, benefits, applications, and technical specifications, making it ideal for SEO‑optimized blog posts, directory pages, and industry resources.
Urbanization, environmental regulation, and technological innovation have reshaped the waste management sector in recent years. Traditional diesel refuse trucks are increasingly seen as unsustainable due to high carbon emissions, noise pollution, and rising operating costs. Governments, municipalities, and private fleet operators are now prioritizing electrification as part of broader green infrastructure and climate action plans.
Electric refuse vehicles, especially those equipped with onboard compaction systems, offer a cleaner alternative. By combining electric propulsion with mechanical compaction, these trucks reduce the number of trips to waste transfer stations, lower emissions, and improve operational productivity. The emergence of models like the FAW CL5182ZYSBEV is a direct response to these trends, integrating sustainable technologies without compromising performance.
A pure electric compressor truck is a waste collection vehicle that operates entirely on electric power, eliminating the use of internal combustion engines. Unlike diesel or hybrid refuse trucks, these vehicles rely on high‑capacity batteries to power both the drivetrain and the compaction mechanisms that compress and store collected waste.
The term “compressor” refers to the truck’s ability to mechanically compress refuse inside a storage container, increasing payload capacity and reducing the need for frequent disposal trips. In the case of the FAW CL5182ZYSBEV, a swing arm loading system enables efficient refuse pickup and loading, often used in residential and commercial environments.
The FAW CL5182ZYSBEV deploys several advanced technologies that make it a leader among electric refuse trucks:
The core of any pure electric refuse vehicle is its electric motor and battery system. These components deliver:
High torque at low speeds, ideal for stop‑and‑go urban routes.
Smooth, quiet operation with low vibration.
Zero tailpipe emissions, reducing carbon footprint.
Lithium‑ion battery packs provide the energy required for both driving and compaction operations:
High energy density enables long driving ranges.
Modular design supports scalable capacity.
Advanced battery management systems (BMS) ensure safety and lifecycle optimization.
The onboard compressor system uses hydraulic power to:
Compact collected waste into dense blocks.
Reduce the internal volume required for storage.
Increase operational efficiency by lowering the frequency of disposal stops.
The swing arm system enhances refuse pickup by:
Reaching out to containers without backing up the truck.
Enabling automated loading for standardized bins.
Reducing physical strain on operators and improving safety.
Modern electric refuse trucks are equipped with smart controls including:
GPS route optimization.
Real‑time performance monitoring.
Onboard diagnostics and predictive maintenance insights.
Electric refuse trucks operate through a series of coordinated processes that ensure efficient waste collection:
Before starting daily operations, the truck is charged using depot charging stations or fast chargers. Smart charging schedules can minimize downtime and allow for overnight or opportunity charging.
Operators follow optimized routes to collect refuse. The swing arm mechanism enables efficient pickup of standardized containers along the route without requiring manual loading.
Waste is moved into the storage area and compacted by hydraulic rams. This process reduces waste volume, enabling the truck to collect more refuse in a single trip.
During braking and downhill travel, regenerative braking systems capture energy and recharge the battery, improving overall efficiency.
Once full, the truck travels to a waste transfer station or landfill to unload compacted refuse before returning to the depot or continuing collection.
With climate change concerns on the rise, many jurisdictions have adopted policies that promote cleaner freight and service vehicles. These include:
Emission reduction targets.
Urban low‑emission zones.
Incentives for electric vehicle adoption.
Sustainability reporting requirements for city services.
Electric refuse trucks like the FAW CL5182ZYSBEV support compliance with these objectives by eliminating tailpipe emissions, reducing noise pollution, and improving community health outcomes.
With no internal combustion engine, the truck produces zero tailpipe pollutants, significantly reducing greenhouse gas emissions.
Electricity is generally cheaper than diesel fuel, and electric vehicles have fewer mechanical components, leading to reduced maintenance costs.
Reduced noise is particularly beneficial for residential and early morning routes, improving public acceptance and quality of life.
Compression technology maximizes waste storage, reducing total trips required for disposal.
The swing arm loading system minimizes physical labor and improves operator safety.
Telematics and connected systems enable data‑driven decision‑making for routing and maintenance.
The FAW CL5182ZYSBEV is suited for a wide range of waste collection scenarios:
Residential Waste Collection: Ideal for neighborhoods with standardized bins.
Commercial Waste Routes: Efficient for offices, retail districts, and campus environments.
Municipal Services: City fleet operations that require low emission performance.
Recycling Collection: Compatible with segregated waste streams.
Special Purpose Missions: Parks, campuses, and public event cleanup operations.
Cities and waste management operators adopting electric refuse trucks experience benefits such as:
Cleaner air and lower community exposure to pollutants.
Reduced noise complaints in dense urban areas.
Improved fleet image and alignment with sustainability goals.
More predictable operating expenses due to stable electricity pricing.
Operational efficiency gains from route optimization.
Below is a table of general technical specifications for the FAW CL5182ZYSBEV Pure Electric Compressor Truck (Swing Arm). These figures represent typical values used for comparison and industry understanding.
| Specification | Detail |
|---|---|
| Model Name | CL5182ZYSBEV |
| Vehicle Type | Pure Electric Compressor Truck (Swing Arm) |
| Gross Vehicle Weight | ~18,000 kg |
| Payload Capacity | ~8,000 kg |
| Drive System | Fully Electric Drive |
| Battery Type | Lithium‑ion Modular Battery Packs |
| Battery Capacity | 300–400 kWh (approx) |
| Electric Motor Power | 180–220 kW |
| Max Driving Range | 250–350 km per charge |
| Top Speed | ~85 km/h |
| Compaction System | Hydraulic Compressor |
| Waste Container Volume | 16–18 m³ |
| Compaction Force | ~140–180 kN |
| Charging Time | 4–8 hours (standard to fast charging) |
| Noise Level | ≤70 dB |
| Environmental Standard | Zero Emission |
| Dimensions (L×W×H) | ~8,000×2,500×3,300 mm |
High capacity lithium‑ion batteries are essential for electric refuse trucks. Battery management systems (BMS) monitor:
State of charge (SOC)
Temperature
Cell balance
Safety parameters
Advanced BMS algorithms improve performance and extend battery life.
Charging infrastructure for electric refuse fleets includes:
Depot chargers (AC standard chargers)
DC fast chargers
Opportunity charging during breaks
Smart scheduling systems can optimize charging to take advantage of off‑peak electricity rates.
Electric refuse trucks can be integrated into smart city and fleet management systems featuring:
GPS‑based route optimization.
Real‑time monitoring of vehicle health.
Predictive maintenance alerts.
Driver performance analytics.
Data dashboards for municipal operations.
These tools enhance visibility and reduce operational risk.
Maximizing the effectiveness of pure electric compressor trucks involves:
Training drivers on efficient driving and regeneration use.
Scheduling charging timelines based on actual route distances.
Maintaining battery health with regular diagnostics.
Monitoring hydraulic systems for wear.
Keeping compaction mechanisms clean and accessible.
Modern electric refuse trucks have extended driving ranges that are sufficient for most urban and suburban routes. Regenerative braking further increases actual usable range.
Battery efficiency can decline in cold environments, but thermal management systems in advanced trucks mitigate these challenges.
While electric trucks may have higher upfront costs, lifecycle savings from lower fuel and maintenance costs often offset this premium over time.
Factors driving adoption include:
Government subsidy programs.
Sustainability commitments from cities and corporations.
Advances in battery technology.
Public demand for cleaner cities.
International climate agreements.
As technology improves, electric refuse trucks are expected to become the standard choice for waste management fleets around the world.
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