Spreading technology for agriculture

A hose spreader guides the spreading material specifically through hoses to defined outlets. This allows the material to be delivered very evenly and in a controlled manner to the desired placement point. This is particularly interesting for cover crop seeding, fine seed, microgranules or other free-flowing materials where targeted distribution is important.

A disc spreader, on the other hand, distributes the spreading material broadly over the area using a rotating spreading disc. This principle is especially suitable when larger working widths and broad-area application are required.

Put simply: hose spreaders are more about targeted distribution, while disc spreaders are more about broad spreading. Which solution fits better depends on the spreading material, the desired distribution and the respective application area.

Many spreaders in spreading technology are generally suitable for cover crop seeding. However, the key factor is always whether the respective model is designed for the desired seed, the intended application rate and the desired working width.

Especially with smaller seeds, mixtures or sensitive seed, even conveying, clean metering and suitable distribution are essential. That is why you should not only consider the container size, but always also the conveying principle and suitability for the specific spreading material.

To help you find the right machine faster, we offer a filter by spreading material in the shop. If you select the desired application or the suitable spreading material there, you will be shown the models suitable for it.

So the important point is: A spreader can be suitable for cover crop seeding if the model, seed and operating conditions match.

Generally yes – but not with every spreader and not with every version. Whether a spreader is suitable for slug pellets depends above all on the metering capability, material flow and approval of the respective model.

Slug pellets place different demands on a spreader than seed or fertiliser. That is why you should always check before use whether the spreader is intended for this material and whether the desired application rate can be set accurately.

To help you find the right model faster, you can filter specifically by spreading material in our shop. If you select slug pellets there, you will be shown the spreaders suitable for this purpose.

For practical use, the following applies: Slug pellets should only be applied with spreaders suitable for this purpose.

This is always model-dependent. Not every spreader that is suitable for seed, fertiliser or cover crops may automatically also be used for salt, sand or other winter service materials.

These materials differ significantly in weight, flow behaviour and, in some cases, in the stress they place on the machine. That is why the conveying technology, metering and material design must match the respective application.

For better orientation, you can also narrow down the selection in our shop using the spreading material filter. This shows you specifically the models that are suitable for the desired application material.

Important: Salt, sand or similar materials should only be applied if the respective model is expressly intended for this purpose.

A general statement on the permissible grain size is rarely useful, because size alone is not the deciding factor. Equally important are grain shape, moisture, flowability, dust content and the uniformity of the material.

Fine, dry and evenly granulated spreading material is usually easier to meter than coarse, irregular or moist material. Mixtures can also place different demands on the spreader depending on their composition.

Therefore, the following applies: The permissible grain size and suitability of the spreading material always depend on the respective model and the specific material.

There is no fixed driving speed that always fits. The appropriate speed depends on the spreading material, application rate, working width, conveying capacity and desired spreading pattern.

If you drive too fast, it may no longer be possible to maintain the desired amount per area accurately. If you drive too slowly, the application may become unnecessarily uneven or uneconomical.

In practice, the right driving speed is therefore always the one at which application rate and spreading pattern match properly. A test area or a short trial run is often useful for this.

After use with fertiliser, the spreader should be completely emptied and thoroughly cleaned. Residues in the container, in the metering unit or at the outlets can impair function and put long-term strain on components.

In practice, cleaning is primarily carried out with clean water. The container, conveying paths and outlets should be rinsed thoroughly. For exterior cleaning, a high-pressure cleaner can also be used if required. Stubborn residues can additionally be removed with brushes or suitable cleaning agents. Finally, compressed air can be used to loosen remaining particles from hard-to-reach areas and dry the machine.

It is important that especially conveying paths, sliders, metering points and hard-to-reach areas are checked and cleared of residues. Lines, distributors and moving parts should also be kept clean after use.

Anyone who regularly works with fertiliser should maintain the spreader consistently. Careful cleaning after each use contributes significantly to the function and service life of the machine.

There is no blanket better or worse here. Which drive type makes sense depends on which carrier vehicle is available, what area output is required and how flexibly the spreader is to be used.

Electric spreaders are often interesting when flexible retrofitting and a simple 12-volt power supply are desired. Mechanical or hydraulic systems can offer advantages if the carrier vehicle is already designed for them or if there are higher requirements for integration and continuous operation.

The decisive factor is therefore not the drive type alone, but the question of which system best matches the machine, application profile and spreading material.

The right container size depends on operating duration, application rate, refill intervals and the available carrier vehicle. A larger container reduces refill breaks, but at the same time increases weight, space requirements and demands on the machine.

A container that is too small can disrupt the workflow if it has to be refilled very frequently. A container that is too large, on the other hand, is not automatically the better choice if it places unnecessary strain on the carrier vehicle or makes the machine difficult to handle.

The right container size is therefore always the one that enables economical work while also sensibly matching the application and the machine.

Whether a carrier vehicle is suitable depends on several technical points. These include, above all, power supply or hydraulics, mounting options, load capacity, available space and the position of the spreader on the vehicle.

In addition, it should be checked whether the vehicle suits the desired working method in practical use. This includes, for example, operability, visibility of the working area, routing of lines, weight distribution and safe mounting.

Before buying, the following therefore applies: A carrier vehicle is suitable if it meets the technical requirements of the spreader and enables safe, clean application.