TITAN scrap balers compact loose scrap metal, including offcuts and light scrap, into dense, uniform bales. The resulting bales take up less space and are easier to store, transport, charge into furnaces, and handle in downstream recycling. Scrap size and form, together with throughput requirements, vary widely by application. These factors determine the required baling force, compression chamber dimensions, and bale specifications. TITAN selects the appropriate model based on the material, required throughput, target bale size, and site material-flow conditions. Bale discharge and conveying arrangements are then configured to suit the project.
Scrap balers are suited to loose, light, sheet, and irregularly shaped metal scrap, compacting it into dense, stable bales. Actual baling results depend not only on metal type, but also on scrap size, form, material mix, and machine configuration.
TITAN balers can be configured for different metals and scrap forms. Typical feed materials include:
Material type is only a starting point for selection. Even within the same metal category, differences in scrap size, thickness, form, and bulk density can affect the required machine specification and the resulting bale.
Light scrap, sheet offcuts, stamping scrap, and other irregular loose scrap can usually be baled directly. Long materials such as rebar that exceed the compression chamber dimensions should first be cut to a length suitable for loading and compaction.
Scrap balers are primarily intended for larger, lighter, or irregular loose scrap. Fine machining scrap such as copper chips and aluminium chips should be evaluated based on scrap form and the required final product. When the goal is to produce high-density briquettes, a metal briquetting machine is usually the more suitable equipment type.
If the scrap contains significant amounts of plastic, rubber, or other non-metallic contaminants, appropriate sorting or pretreatment should be carried out before baling so that the feed condition matches downstream recycling requirements.
Different scrap types produce bales with different sizes, weights, and forms. The data below are actual baling results from specific TITAN Y81 models, showing the bale outcomes achieved with the corresponding materials and machine configurations.
Actual bale size, weight, and throughput vary with scrap type, size, form, loading condition, and machine configuration. These figures apply only to the specified materials and models and should not be treated as fixed performance values across all operating conditions.
TITAN selects the appropriate Y81 series model based on the scrap metal type, size and form, required throughput, target bale specifications, and site feeding and bale-discharge conditions. Compression chamber dimensions, machine specifications, and conveying arrangements are then matched to the actual production flow to provide a suitable scrap metal baling solution.
The TITAN Y81 series currently includes the Y81-1250, Y81-1600, Y81-2000, Y81-2500, Y81-3150, and Y81-4000. The models differ mainly in baling force, compression chamber dimensions, bale size, and motor power.
| Model | Configuration | Baling Force | Compression Chamber Dimensions | Bale Size | Motor Power |
|---|---|---|---|---|---|
| Y81-1250 | Standard | 1250 kN | 1200×700×600 mm | 300×300 mm | 15 kW |
| Y81-1600 | Standard | 1600 kN | 1600×1000×800 mm | 400×400 mm | 22 kW |
| Y81-2000 | Configuration A | 2000 kN | 1800×1400×800 mm | 400×400 / 450×450 mm | 30 kW |
| Y81-2000 | Configuration B | 2000 kN | 2000×1400×800 mm | 400×400 / 450×450 mm | 18.5×2 kW |
| Y81-2500 | Configuration A | 2500 kN | 2000×1750×1000 mm | 500×500 mm | 22×2 kW |
| Y81-2500 | Configuration B | 2500 kN | 2000×1750×1200 mm | 600×600 mm | 30×2 kW |
| Y81-3150 | Standard | 3150 kN | 2500×2000×1200 mm | 600×600 mm | 45×2 kW |
Y81-2000 and Y81-2500 are available in different standard configuration combinations. Final equipment specifications should be determined according to the actual scrap, required throughput, and target bale requirements. The figures above are standard specifications and do not represent fixed throughput, bale weight, or baling results under actual scrap conditions. Actual results depend on operating conditions and, where necessary, can be further confirmed through a baling test with actual material.
Selecting a scrap metal baler is not simply a matter of comparing baling force. Machine specifications need to be matched to the actual scrap, target bale, and site processing flow.
Confirm whether the main scrap is steel, iron, stainless steel, aluminium, copper, or another metal. Different materials vary in strength and compaction behaviour, affecting both the required baling force and bale formation.
Confirm whether the material consists of light scrap, sheet offcuts, stamping scrap, metal containers, or other irregular forms, and provide the actual size range. Scrap size and form directly affect compression chamber dimensions, loading method, and machine selection.
Define how much scrap needs to be processed per hour or per day and the actual production rhythm. This determines the required machine throughput so that the equipment matches the rate at which scrap is generated on site.
Confirm the desired bale size and shape, together with downstream storage, handling, transport, or processing requirements. These factors determine the required bale specifications.
Consider the installation space, how scrap enters the machine, how bales leave it, and how they will be handled afterward. These factors determine equipment layout, bale discharge method, and any required conveying arrangements.
A scrap metal baler can operate as a standalone machine or, depending on scrap condition and site material flow, be combined with the necessary pretreatment, conveying, and bale-handling stages.
Based on scrap condition
Configured to site material flow
Core volume-reduction and bale-forming stage
Connects to storage, transport, or downstream processing
Scrap metal baling is not a single pressing action. Inside the compression box, loose scrap passes through four stages: confinement, compression and bale formation, bale ejection, and mechanism reset. The hydraulic system, compression structure, and control system work together to determine how the complete baling cycle operates and the final bale condition.
Loose scrap metal is loaded into the compression box. The actual load volume and material condition must be matched to the compression chamber dimensions, scrap form, and machine configuration.
After loading, the compression lid closes the compression space and confines loose or bulky scrap. Depending on the machine design, it may also take part in pre-compression or auxiliary compression, gradually bringing the material into a condition suitable for main compression.
The hydraulic system drives the main compression mechanism, which continues to apply force to the scrap inside the compression box. As the scrap volume decreases, the material is progressively compacted within the confined space until a bale of the specified dimensions is formed.
Once the specified compression condition is reached, the system completes the pressure-holding or forming stage according to the machine settings, allowing the bale to maintain the required dimensions and compacted condition before discharge.
After compression, the bale is ejected from the compression area or removed by the corresponding method, depending on the machine configuration. The actuators then return to their initial positions, ready for the next baling cycle.
Lid movement, compression stroke, and bale discharge method may vary by model and discharge configuration. The core process, however, is the same: loose scrap metal is confined within the compression space and hydraulically compacted into smaller, stable bales.
Before main compression, loose, light-gauge, or irregularly shaped scrap metal must first be confined within the effective compression space. Once closed, the compression lid restrains the scrap and, depending on the machine design, may participate in pre-compression or auxiliary compression to gradually gather the loose material. The main compression mechanism then continues to apply force and completes final bale formation within the confined space.
This staged compression process assigns different functions to the compression lid, compression box, and main compression mechanism: material confinement, auxiliary pre-compression, and final bale formation. This avoids relying solely on increased main compression force to accommodate different scrap conditions.
Stable scrap metal baling depends not only on baling force, but also on the coordination of hydraulic pressure and stroke, effective compression space, and the complete baling cycle.
Baling requires sufficient compression force, along with hydraulic pressure and actuator stroke properly matched to the scrap condition and target bale specifications. Different materials, scrap forms, and bale specifications place different demands on the compression process, so machine selection should not be based on baling force alone.
The compression box defines the effective working space available to the scrap after loading. The loading area, compression space, and target bale specifications must be matched to one another; if the available space does not match the scrap condition, it changes the loading condition, compression process, and final bale formation.
Compression-lid operation, main compression, pressure holding or forming, bale ejection, and reset are not independent actions. The control system must coordinate the actuators according to the machine’s defined process sequence so that each baling cycle transitions smoothly into the next.
From scrap yards to large steel scrap recycling facilities, each operation handles different scrap types, processing volumes, and material-flow conditions. The projects below show how TITAN Y81 series balers are configured around actual scrap conditions and processing requirements to convert loose scrap metal into bales that are easier to store, transport, and handle in downstream recycling.
The customer operates a large steel scrap recycling facility where scrap car bodies, domestic appliance casings, and industrial offcuts continuously enter the site. Large volumes of bulky loose scrap occupied substantial yard space and increased manual handling requirements, while the existing processing capacity was no longer sufficient for the growing scrap volume.
The customer handles a wide range of scrap materials. Large quantities of light-gauge and bulky metal scrap occupied valuable yard space and resulted in poor truck load utilization. TITAN configured a Y81-1600 baler to compact the loose metal scrap into dense bales, improving on-site storage and transport organization.
The customer regularly handles bulky scrap iron plates and pipes, and loose storage was already occupying a substantial part of the yard. Instead of expanding the storage area, the customer introduced a Y81-1250 baler to compact the scrap into consistently shaped bales for centralized handling and stacking, improving the use of the existing yard space.
The results above are actual records from the corresponding customer projects and are specific to the scrap materials, equipment configurations, site-management practices, and local recycling conditions involved. Results such as scrap volume reduction, bale density, throughput, logistics costs, and selling prices should not be interpreted as fixed performance guarantees for other projects.
Feedback from a customer using this TITAN machine in a real scrap processing project.
The TITAN Y81-1250 baling system was built to handle the demands of processing our stainless steel scrap. Its performance and durability improved our handling efficiency and increased the value of our recycled materials.
TITAN support extends beyond equipment delivery. Depending on project requirements, we can provide equipment installation and commissioning, operator training, and, once the equipment is in operation, technical support through remote diagnostics, field service, and spare parts supply to support continued operation.
Based on the equipment and project configuration, the main machine is positioned and the required piping and electrical connections are completed, preparing the equipment for integrated commissioning.
The hydraulic, electrical, and control systems are commissioned together, while the sequence of operations and operating status are checked to verify that the actuators complete a full baling cycle according to the configured control logic.
Training covers start-up and shutdown, parameter settings, handling of abnormal conditions, safe operation, and routine maintenance, helping operators understand the machine’s fundamental operating procedures and response steps.
Once the equipment is in operation, TITAN can assist with remote diagnostics based on fault symptoms, alarm information, and operating status. Where further intervention is required, field service and the corresponding spare parts can be provided.
Specific installation arrangements, field-service scope, and warranty coverage are determined by the project configuration, delivery region, and contractual terms.
