GEA Direct Sprayer DS 25 delivering powerful cleaning performance with five kilograms of spray force and a full-cone jet reaching up to five metres. (Image source: GEA)

GEA has introduced its new patented technology – the GEA Direct Sprayer DS 25 – for industrial tank cleaning in the food and beverage industry

The patented spray technology effectively removes residues from the undersides of agitators, pipes, and flow breakers. It has been developed for use in the beverage, food, dairy, pharmaceutical, and home and personal care industries, and is particularly advantageous in production environments with frequent recipe changes, strict hygiene standards, and demanding cleaning requirements. 

In the food and beverage industry, cleaning tanks with internal installations often go through a major challenge. The undersides of agitator blades being in the spray shadow, prevents them from being adequately cleaned by conventional methods. This is where the Direct Sprayer DS 25 comes into picture. This technology sprays directly onto the undersides of the agitator blades while ensuring that the agitator mechanics remain unaffected. The cleaner is flush-mounted into the tank wall and can be positioned flexibly, ensuring full coverage inside the tank. The patented valve disc only opens when activated, ensuring an even distribution of the cleaning fluid. Since the valve plate opens inward, it does not interfere with the agitator.

The mechanically powerful full-cone spray targets the undersides of the agitators and efficiently removes residues. While conventional cleaning systems operate at lower forces, the GEA Direct Sprayer DS 25 operates with a spray force of up to 5 kg, allowing it to remove even tough residues. A case study from yogurt production has revealed the ability of the GEA Direct Sprayer DS 25 technology to reduce water usage by 84.5% and cleaning time by 87.5%, making it one of the most efficient cleaning methods for tanks with agitators.

“This time saving can be directly used for additional production capacity,” explained product sales manager for Cleaning Technology at GEA, Jana Zimpel. “In yogurt production, for example, this means more batches per day or faster recipe changes without compromising efficiency.”  

Agmatix BASF Partner to develop Soybean Cyst Nematode detection tool. (Image source: BASF)

Leading AI-powered solutions provider, Agmatix recently announced a strategic collaboration with BASF, one of the world’s largest chemical and agricultural solutions companies, to develop a cutting-edge digital solution aimed at detecting and predicting the presence of soybean cyst nematode (SCN) 

The collaboration began through AgroStart, an open innovation and partnership platform by BASF, that aims to empower soybean growers with real-time, scalable insights to mitigate yield losses caused by SCN, one of the most damaging and often invisible soybean pests. Axiom, an advanced AI technology engine developed by Agmatix is the core of this initiative. It transforms vast amounts of raw agronomic data into highly standardised and enriched datasets. This rigorous data process enables the development of a robust machine-learning model capable of detecting and predicting SCN infestations with unprecedented accuracy and scalability.

Developed through AgroStart by BASF, this initiative combines Agmatix’s AI-driven agronomic platform with the deep expertise of BASF in seed and crop protection solutions and will foster the development of a scalable, user-friendly digital model. The tool will integrate with existing farm management practices, enabling users to access near real-time SCN risk assessments and tailor their pest management strategies accordingly.

SCN remains the leading pest in soybeans, with infestations frequently going undetected until yields are significantly affected. Traditional detection methods, such as soil sampling or mid-season root digs, are time-consuming, labour-intensive and not widely adopted. A digital tool could help create awareness and compliment these traditional methods.

By providing accurate, predictive data on SCN infestations, the Agmatix-BASF collaboration paves the way for future innovations in pest management and digital agriculture. The joint effort represents a significant leap forward in integrating digital agriculture with crop protection strategies, demonstrating how advanced analytics can drive on-farm decision-making and improve agronomic outcomes.

“Our collaboration with BASF is driven by the urgent need to provide a practical, data-backed tool that helps growers minimise yield losses caused by SCN,” added Ron Baruchi, president & CEO at Agmatix. “By digitising large volumes of field trial data within Axiom, we believe our machine learning model will give growers the power to act before SCN causes irreversible damage.”

By controlling the moisture during the weighing up of the raw materials, it is possible to correctly control the protein content of the final pellet and guarantee superior product quality. (Image source: Hydronix)

Knowing and controlling the moisture content of your materials from the introduction of the raw materials to the packaging of the final product is key to maximising efficiency, optimising yield and producing a high-quality, consistent product

The perfect solution is to constantly measure the flowing materials’ moisture content and correct moisture variations in real-time. The use of online moisture measurement sensors enables the control system to automatically react to changes and adjust the process to achieve a continuous and precise moisture level in the material, whether for storage, further processing, or final packaging.

Why should you measure moisture?

1. Raw materials vary in moisture content, and this variation leads to weighing discrepancies.
2. Accurate control of the moisture during the drying process prevents under-drying and over-drying.

Where should you measure moisture?

Moisture control throughout the process allows the production of higher quality, balanced and more valuable feed:

• Drying for Storage at the outlet of a dryer
• Milling / Tempering at the inlet of the tempering system
• Pelleting / Conditioning during the conditioning process
• Drying for packaging at the outlet of a dryer

Online vs offline moisture measurement?

Measuring online in real-time offers significant benefits over offline measurements. Periodic offline sampling is time-consuming and subject to:

• Equipment measurement errors
• Process errors
• Sampling errors

Installing and integrating an online sensor to measure the moisture continuously gives a much better method for monitoring the material flow. 

Benefits

By controlling the moisture during the weighing up of the raw materials, it is possible to correctly control the protein content of the final pellet and guarantee superior product quality. There are also cost benefits of water control ranging from an increase in the yield from a raw material, a reduction in spoiled material and optimisation of the energy input into the processes.

Conclusion

Using a consistent blend of usable materials and maintaining a constant final moisture target saves energy and extends the time between dryer maintenance. Benefits also include producing a consistent feed with a repeatable and homogenous nutritional value and a reliable shelf life.

The Hydronix XT range of sensors use an industry-leading Digital Microwave Measurement Technique and have a proven track record in these types of applications throughout the world. In addition, the sensors are simple to install and require very little maintenance.

Read the entire article: https://hubs.li/Q0375dLh0

BKT has analysed the main trends that will shape the future of agricultural tires, matching the expectations of leading tractor and farm machinery manufacturers. (Image source: BKT)

BKT, as a leading Off-Highway tire manufacturer is pursuing its goal of bringing to life high-performance tires that meet stringent application standards and sustainability criteria

Traditional farming techniques are being overtaken by more efficient and productive operations, partly thanks to the arrival of Agriculture 4.0 applications. These include precision farming, IoT sensors, crop monitoring drones, as well as an entire series of devices and technologies that allow for 360-degree process optimisation. A new scenario where sustainability is at the center of this transformation process. BKT has analysed the main trends that, according to the company, will shape the future of agricultural tires, matching the expectations of leading tractor and farm machinery manufacturers. 

Sustainability and environmentally sustainable materials 

There is a growing industry focus on biodegradable or recycled materials, making sustainability a priority for original equipment. As a response to this trend, tire manufacturers will increase their focus on the use of materials such as natural rubber or recycled compounds to reduce the environmental footprint. Also, the tire design will be conceived with due regard for improved fuel efficiency and thus to lower emissions.

Smart tires and IoT integration 

Next-generation tires will gradually integrate IoT sensors for real-time communication of pressure, wear, and performance data, also preventing maintenance interventions for reduced downtime. Moreover, the sensors will be able to provide relevant information on soil conditions, temperature, and load in view of optimising overall performance and farming yields.

Endurance and durability 

Increasing operational complexity requires ever stronger and more durable solutions. That is why compounds, tread design, and sidewalls will be optimised for an enhanced product life-cycle and increased product suitability for both traditional and modern practices.

Advanced manufacturing techniques 

On the production side, too, we will witness the advancement of cutting-edge techniques, such as 3D printing, which would greatly accelerate a tire’s time-to-market while increasing their customization, thus meeting the specific needs of individual operators in a targeted manner.

Customisation and adaptability 

It is quite likely that in the future we will experience increasing flexibility and modularity of tires, which would then be able to easily adjust tire features according to the season, type of application, and field conditions. Hybrid tires will also gain ground and be able to handle a wide range of agricultural tasks, leading to greater versatility.

Hence, the future of the tire industry, notably the premium tire industry, will therefore be increasingly influenced and determined by the ongoing advancement of technology and an increased focus on sustainability and crop protection. Future-oriented manufacturers like BKT, who make performance, durability, and the environment three main pillars of continuous improvement, will be emerging with a view to growth and their ability to meet the complex needs of modern manufacturers.