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Ingot feeders

Used Ingot Feeders for Hot Chamber Die Casting Machines
Store. Feed. Replenish.

Ingot feeding systems automatically transfer metal ingots from a storage position to the melting or holding unit of a hot chamber die casting machine. They support a continuous material supply and reduce recurring manual loading operations in the immediate area around the furnace.

The material route from the storage position to the molten bath

A feeding system connects material storage with furnace operation. Every transfer point must be designed so that ingots are received in a defined manner, moved safely and delivered at the intended position.

Storage Store the ingots The metal ingots are stored in a magazine, on a conveyor section or at a defined loading position for automatic feeding.
Singulation Receive the material in a controlled manner The system must handle individual ingots without several material pieces becoming jammed, overlapping or sliding forward uncontrollably.
Transport Move the ingot to the furnace position A chain, pusher, lifting unit or combined mechanism transports the ingot to the defined transfer position.
Feeding Feed the furnace in a defined manner Drop distance, transfer angle and release signal must be matched to the charging opening, melting area and safety concept.
The illustrated sequence is general. The actual configuration depends on the ingot format, alloy, furnace, available space and required level of automation.

When should the next ingot be fed?

The feeding process should operate in accordance with the material demand of the system. Depending on the equipment, the request may be triggered by the fill level, consumption, a timed interval, machine release or a combination of several signals.

Detect demand
Monitor the fill level or consumption A signal from the furnace control system, sensors or higher-level cell control indicates that additional material is required.
Check release
Secure the feeding route Before movement begins, end positions, protective systems, transfer positions and any blocking signals must be checked.
Feed the ingot
Execute the transport movement The system singulates and moves an ingot along the intended route to the charging position of the furnace.
Confirm the process
Report the end position and material transfer Sensors and the control system confirm the completed feeding operation or issue a fault message if the ingot was not transferred correctly.

Possible ingot-feeder configurations

The appropriate construction depends on the ingot format, storage requirement, charging height and available space. Used systems must therefore be assessed according to their actual mechanical design rather than their designation alone.

Magazine

Store several ingots for an extended production period

A magazine holds a defined number of ingots and feeds them one after another to the singulation mechanism. Important factors include usable magazine capacity, refilling access, ingot guidance and behaviour with different surface conditions or dimensional tolerances.

Chain

Move ingots along a mechanical conveying section

Chain, carrier or plate conveyor systems can move material along a horizontal or inclined route. Pitch, carrier spacing, chain guidance and drive power must match the ingot weight.

Lift

Overcome height differences between storage and furnace

Lifting, tilting or pushing mechanisms can move an ingot from a low loading position to the required charging height. Safe end positions, retention and controlled transfer are particularly important.

Which data determine technical suitability?

When selecting a used ingot feeding system, the material, furnace, installation space and control system must be considered together. The manufacturer and year of manufacture alone are not sufficient for a reliable technical assignment.

Ingot format
Length, width, height, weight and shape tolerances determine the magazine guidance, carriers, singulation mechanism and permissible transport load.
Alloy
The system must be suitable for the material used, its surface condition and the operational safety requirements.
Magazine capacity
The number or total weight of the stored ingots influences the refilling interval and possible operating time without manual intervention.
Feeding capacity
Feeding time, ingots per hour and actual material consumption must be coordinated with one another.
Charging height
The loading position, conveying route, furnace opening and discharge height must fit spatially within the existing system layout.
Installation area
The overall length, width, construction height, maintenance access and refilling area must be available within the hot chamber cell.
Drive system
The motor, gearbox, chain, cylinders, brakes and possible speed control determine the load capacity and movement sequence.
Control system
Start, request, end positions, fault messages, material shortage, machine release and the safety circuit must be able to communicate with the new system.

The most important interface is located directly at the furnace

The transfer of the ingot influences safety, material flow and operability. The feeding system must therefore be adapted to the specific charging opening and operating condition of the furnace.

Mechanical interface

The ingot must reach the intended position safely

The inlet, chute, drop distance and any retention devices must prevent material from missing the opening or becoming jammed within the feeding route.

Charging opening Record the dimensions, position and accessibility of the furnace.
Transfer angle Guide the ingot in a controlled manner and prevent unintended backward movement.
Drop distance Limit impact and possible splashing through an appropriate transfer arrangement.
Control-system interface

The furnace must request material and release the feeding operation

The existing furnace or cell control system determines when an ingot may be fed. All involved release and fault signals must be clearly defined.

Request Fill-level, timed or consumption-based signal for replenishment.
Release Feeding only when the operating and safety conditions permit it.
Feedback Confirm the end position, successful transfer and possible faults.

What are the effects of controlled material feeding?

An ingot feeding system does not replace the process control of the furnace. It does, however, support predictable material replenishment and creates defined procedures between storage, operating personnel and the molten metal.

Continuous material replenishment A sufficiently filled magazine and reliable singulation can support longer production periods without repeated manual loading of individual ingots.
Repeatable feeding process Defined movements, end positions and control signals ensure that every ingot follows the same intended route to the furnace.
Reduced operator workload Automatic feeding reduces recurring manual handling operations in the direct vicinity of hot system components.
Improved integration into the complete system Material shortages, feeding requests and faults can be recorded by the central control system and coordinated with operation of the hot chamber machine.

Ingot feeding within hot chamber automation

Material feeding is positioned at the beginning of the production flow. Die preparation, the casting cycle, extraction, separation, transport and quality control follow afterward.

Hot Chamber Automation Overview of material supply, die spraying, extraction, separation, transport and process control. View overview
Hot Chamber Die Casting Machines Used machines and complete systems for hot chamber die casting. View category
Crucible Furnaces Melting and holding equipment to which a material feeding system can be technically adapted. View category
Spraying Machines Automatic preparation and conditioning of the open die casting die. View category
Extractor Units Automated removal of castings after the die has opened. View category
Conveyor Belts Further transport of castings, sprues and separated material fractions. View category

Technical inspection of a used ingot feeding system

In addition to the external dimensions, the magazine, singulation mechanism, conveying system, control system, safety equipment and actual scope of supply should be fully documented.

Mag
Magazine and material guidance Inspect guides, supports, limits and the refilling opening for wear, deformation and suitability for the intended ingot format.
Sep
Singulation mechanism Stops, pushers, flaps, limiters and sensors must release individual ingots reliably and prevent multiple feeding.
Drv
Drive and power transmission Inspect the motor, gearbox, chains, belts, couplings, cylinders and lubrication points for condition and sufficient load capacity.
Pos
End positions and position monitoring Check limit switches, proximity sensors, stops, brakes and feedback signals for function and positioning repeatability.
Ctl
Control system and interfaces Record the electrical cabinet, operator panel, PLC, programmes, circuit diagrams and communication signals to the hot chamber system.
Saf
Protective equipment Assess covers, doors, interlocks, emergency stop, access protection and safe shutdown of the movement axes.
Lay
Installation and furnace connection Compare the charging height, conveying route, interference contours, maintenance access and mounting points with the new system layout.

Which components are actually included?

The offered scope of used feeding systems can vary considerably. Before purchase, it should be clarified which mechanical, electrical and safety-related components are included.

Base machine Magazine, frame, conveyor section, lifting unit, pusher, transfer device and existing furnace connection.
Drive equipment Motors, gearboxes, cylinders, valves, chains, belts, frequency converters and required supply modules.
Electrical equipment Electrical cabinet, PLC, operator panel, sensors, limit switches, cables, programmes and available documentation.
Safety equipment Safety guards, covers, doors, interlocks, emergency stop and interfaces to the safety circuit of the complete system.
Peripheral equipment Chutes, mounting components, platforms, material containers, fill-level sensors and additional transfer elements.

Refurbishment and adaptation to a new system

Depending on their condition, used ingot feeding systems can be cleaned, mechanically inspected, refurbished and adapted to a new ingot format or a different installation situation.

A feeding system is only suitable when the ingot, conveying route, furnace and control system work together.
Mechanical refurbishment Inspect or replace guides, bearings, chains, gearboxes, drive systems, cylinders and singulation components.
Format adaptation Adapt the magazine width, guides, carriers, stops and transfer position to new ingot dimensions.
Furnace connection Coordinate the charging height, chute, drop distance, mounting arrangement and safety area with the new melting or holding furnace.
Control-system integration Integrate requests, release signals, end positions, material shortages, faults and safety signals into the new cell control system.

Buy or sell used ingot feeding systems

FISS supports the search for a suitable ingot feeding system and its technical assignment based on the ingot format, magazine capacity, feeding capacity, charging height, installation area, furnace connection and control system. If no suitable used system is currently available online, FISS can search specifically for a suitable solution through its international network.

When selling equipment, FISS supports condition assessment, technical documentation and international marketing of individual feeding systems and complete hot chamber die casting cells. In addition to brokerage and international marketing, direct purchase by FISS may also be an option depending on the project.