Equipment

The redesigned New Holland T7 Standard Wheelbase tractor, now available in the new Dynamic Blue colour. (Image credit: New Holland)

New Holland has given its T7 Standard Wheelbase tractor range a thorough rethink, and the result is a machine that feels genuinely fresh from the ground up.

Covering the 180 to 225hp bracket, the updated lineup brings a sharper look, smarter technology and some meaningful mechanical changes that will matter to anyone spending long days behind the wheel.

"We've completely reimagined the key design features of the T7 Standard Wheelbase tractor range," says New Holland Standard Wheelbase Global Product Manager, Manfred Pfleger. "Significant upgrades include a new cab design, a new operator interface and armrest, and a more compact front end, core for a tractor range that competes in an important sector of the market with a broad customer base. The redesigned suspension delivers greater comfort and control, and complements the light weight, high-capacity design of this range to boost productivity and performance."

One of the standout changes is the new front axle, offered in standard or heavy duty form, with dual accumulators delivering a noticeably smoother ride. Combined with a redesigned bonnet and a new axle support, the turning circle has been slashed by 17%, dropping from 14.3 metres down to 11.4 metres. That kind of improvement makes headland manoeuvring far less of a chore.

Under the new sloping bonnet sits a Stage V FPT NEF 6.7 litre engine, now reaching peak power at just 1,500rpm to keep fuel consumption and noise in check. Service intervals stretch to 750 hours, and diesel capacity has grown to 350 litres. The T7.225 with Dynamic Command transmission recently posted best-in-class fuel efficiency at the German DLG test centre, consuming just 243g/kWh.

Inside the cab, the new SideWinder armrest puts everything within easy reach, with the option to specify the IntelliView 12 touchscreen, electronic remote valves and a refined CommandGrip multifunction handle. Cab space has grown, climate control is improved and storage has been expanded throughout.

All models come with connectivity included as standard, supporting remote dealer monitoring and data driven efficiency. The range also debuts New Holland's striking new Dynamic Blue colour scheme, which will roll out across future models.

Rainbow Colors pioneering hydrogen technology in agriculture. (Image credit: New Energy Coalition)

A tulip forcing company in the Netherlands is breaking new ground in clean energy.

Rainbow Colors, based in Andijk in North Holland, has installed a solid oxide electrolyser to produce green hydrogen. Project partners say it is the first agricultural business in the world to apply this advanced technology. With a capacity of one megawatt, the system is also among the largest operational solid oxide electrolysers currently in use, marking a major step forward for hydrogen development in North Holland North.

The project is being delivered in partnership with Danish technology firm Dynelectro, while Dutch company Ekinetix is responsible for building the required infrastructure. The installation forms part of the regional programme Fieldlab Waterstof in de Agri, which focuses on creating a hydrogen network tailored to the agricultural sector.

Rainbow Colors has been involved in the initiative since 2023 as a pilot site for hydrogen production. By using surplus solar energy along with battery storage, the company aims to ensure a steady and reliable supply of hydrogen. The technology partners explain that solid oxide electrolysers are more efficient and experience less wear than conventional systems. Their longer operational life and improved performance are expected to lower the overall cost of hydrogen production. The system also offers a practical response to grid congestion, while increasing access to clean energy within the region.

The installation is described as pioneering not only because it is the first of its kind in agriculture, but also because it ranks as the third largest operational unit of this type worldwide. It is expected to serve as a model for other agricultural businesses seeking solutions to high energy costs and limited grid capacity.

Beau Broen, project leader at New Energy Coalition and coordinator of the hydrogen pilot projects within Fieldlab Waterstof in de Agri, said: "It is impressive to see how international innovation comes together in this project. By implementing Dynelectro's electrolyser at project partner Rainbow Colors, the region is taking an important step towards decentralized hydrogen production. It also provides an economic boost by making affordable green hydrogen available. The project underlines the innovative role North Holland North plays in the energy transition."

With this facility now operational, locally produced green hydrogen becomes available in the Netherlands, helping to address the balance between supply and demand. By using surplus renewable electricity, hydrogen can be produced for less than ten euros per kilogram and used locally. The wider programme brings together businesses and knowledge institutions across North Holland North, positioning the province as a leading hydrogen region and showing that emission free energy solutions are already within reach for agriculture.

FAO drone training for effective pest management for Locusts. (Image credit: FAO)

The Food and Agriculture Organization of the United Nations has taken a major step towards modernising desert locust management with the launch of its first regional drone pilot training programme.

Led through the Desert Locust Control Commission in the Central Region and the Desert Locust Control Commission in the Western Region, the initiative is being implemented in close cooperation with the Ministry of Agriculture, Fisheries and Water Resources of the Sultanate of Oman.

Hosted in Oman, the programme brings together technical specialists from countries most affected by desert locust infestations across the Central and Western Regions. Its aim is to strengthen national and regional capacity in using unmanned aerial systems for desert locust survey, monitoring and control. The initiative reflects a growing shift towards digital agriculture and precision technologies to protect crops, livelihoods and food security.

The training marks an important transition from limited pilot trials to a structured and institutional approach to drone use in locust operations. By focusing on standardised procedures and certified skills, FAO is ensuring that Member States are better prepared to respond quickly and safely to emerging locust threats. The five day programme combines classroom learning, simulator sessions and extensive hands on field exercises, offering participants a practical and immersive experience.

The programme is delivered in partnership with Micron, a leading provider of aerial spraying systems, and is supported by the FAO office in Muscat alongside strong logistical backing from Oman’s Ministry of Agriculture, Fisheries and Water Resources and local partner Ankaa Space Company.

Speaking at the opening ceremony, Dr Mamoon Al Sarai Al Alawi, Executive Secretary of the Desert Locust Control Commission in the Central Region, said, “This training marks a critical step in moving from pilot initiatives to full operational integration of drone technology in desert locust management. It will empower national teams with advanced technical skills, enhance operational safety, and ensure the effective and sustainable use of these tools in protecting crops, livelihoods, and food security.”

Beyond technical skills, the programme strengthens regional cooperation and encourages the sharing of experience and best practice. It also supports FAO’s wider strategy to modernise desert locust control through digital tools such as remote sensing, satellite monitoring, geographic information systems and eLocust platforms.

Through initiatives like this, FAO continues to support Member States in building resilient systems to manage transboundary pests, contributing directly to global food security, sustainable development and the organisation’s Four Betters agenda.

Limex unveils Modular 8 washing system for crates. (Image credit: Limex)

Limex has unveiled its latest innovation in industrial washing technology with the introduction of the Modular 8, a highly flexible and configurable washing machine platform designed for crates, seed trays, flower buckets and floats.

The new line marks a significant shift towards modular engineering, allowing customers to build exactly the washing solution they need using standardised components rather than costly custom-built systems.

Unlike traditional crate and tray washers that often require extensive engineering work to meet specific customer requirements, the Modular 8 is built from individual modules that connect seamlessly into a single washing line. These include pre-wash units, one or more main wash modules, rinse sections and blow-off units. This modular approach enables users to tailor the system precisely to their operational layout, hygiene standards and processing capacity.

By installing multiple main wash modules in sequence, the system increases soaking time and washing power, delivering higher throughput without compromising cleaning performance. Each standard module also offers multiple configuration options, such as higher-pressure pumps or advanced filtration technologies. The platform supports both left-hand and right-hand configurations, ensuring maximum flexibility for different production environments.

"With the Modular 8, we make it easier to choose exactly the configuration that matches the customer's capacity, hygiene requirements, and budget," says Joep Janssen, owner of Limex. "Our engineers have designed the machines in such a way that they follow each other seamlessly."

With a tunnel width of 800 millimetres, the Modular 8 is suitable for a broad range of applications, including harvest crates, seed trays, flower buckets and DWC floats. The system has also been designed with maintenance efficiency in mind. Improved accessibility of components simplifies cleaning, inspection and servicing, helping to reduce downtime and improve overall operational efficiency.

The Modular 8 builds on Limex’s reputation for proven, high-quality engineering. Constructed from robust stainless steel, the platform delivers durability, reliability and long service life. Twelve Modular 8 lines are already in operation across multiple countries, demonstrating strong market acceptance.

This launch sets the foundation for future developments, with the Modular 10, Modular 14 and Modular 18 planned to follow. These larger, configurable models will eventually replace Limex’s existing cart washers and big box washers, reinforcing the company’s commitment to modular, future-ready industrial washing solutions.

The initiative is part of the PDTS call.(Image credit: INTA)

INTA and the National University of La Matanza (UNLAM) are working on the optimisation and fine-tuning of a compact, controlled and affordable hydroponic system designed to enable the domestic production of fresh food in small spaces and under variable climatic conditions.

The prototype builds on the experience gained through the Antarctic Hydroponic Production Module (MAPHI).

INTA and UNLAM are jointly developing a module aimed at facilitating vegetable production in reduced spaces, regardless of external climatic variability. The goal is for the final prototype to be economically accessible and simple enough to be used by anyone in a household setting.

The project originates from the know-how developed through MAPHI, a system designed to produce vegetables under the extreme conditions of Antarctica. Drawing on that experience, INTA Santa Cruz, in collaboration with the National University of La Matanza, is now adapting and optimising the technology at a smaller scale, specifically targeted at domestic use.

Jorge Birgi, researcher at the INTA Santa Cruz Experimental Station, said,"we were able to design a production module that condenses the technologies used in the Antarctic system, while adding new features. Given the scale, this is a module that allows a family to produce their own food."

The initial objective was to transform a highly complex system, originally conceived for hostile and isolated environments, into a compact, efficient and economically accessible prototype capable of producing fresh food in limited spaces and under variable climatic conditions.

Martín Díaz, project director overseeing the optimisation phase,said, "this collaboration will provide technical tools that strengthen the prototype and make it possible to reach the goal of developing a product that can be commercialised."

Among its defining features, Díaz explained that "the module is designed to produce vegetables independently of external environmental conditions. It controls all key variables — temperature, light and nutrients  to ensure production regardless of location."

During its deployment in Antarctica, the MAPHI project led to the development of a complete technological package. This included compatible substrates, specific seed types, seed treatments and dedicated protocols. A tailored nutrient solution adapted to Antarctic conditions was also developed, along with a monitoring system incorporating sensors and custom-designed electronic boards. These components allowed data to be collected, processed and presented in a way that was easy for operators to interpret.

At this stage, efforts are focused on transforming MAPHI's technologies into a product that can be utilised by society and the productive sector. In other words, the project that proved capable of producing vegetables under extreme Antarctic conditions is now being used as a springboard for the development of commercial products.

In this regard, Birgi noted that "to achieve this objective, the MAPHI team developed a reduced-size prototype that incorporates new functionalities, making it easier to operate in a domestic environment."

Through the joint project, INTA and UNLAM will now contribute a business plan aimed at turning the prototype developed by the Santa Cruz Experimental Station into a commercial product. This phase will include a market study to identify potential user profiles, as well as the development of an intuitive interface allowing the system to be managed via a mobile phone application.

The final outcome will consist of a series of technical documents defining target users, the final price of the production system, the data collection platform to be used, and the materials required for construction.

The initiative is part of the Technological and Social Development Project (PDTS) call, a joint programme promoted by Argentina's National Interuniversity Council (CIN) and the European Union (UNIUEAR).

Hydroponic Systems recommends the Agrifresh aluminium thermodiffuser mesh as a proven solution. (Image credit:Hydroponic Systems)

Hydroponic Systems is helping greenhouse growers tackle the challenge of optimising microclimates without compromising light or productivity.

In warm regions, particularly for heat-sensitive crops like strawberries, tomatoes, and peppers, managing radiation, temperature, and heat stress is critical. Heat-diffusing mesh has become an essential tool in balancing light levels and reducing heat buildup inside greenhouses, proving to be one of the most effective solutions for these challenges.

The mesh works by partially blocking infrared radiation while allowing useful diffuse light to pass through. This reduces internal temperatures, alleviates heat stress, and sustains photosynthetic activity. According to Hydroponic Systems, this approach helps "improve fruit quality, reduce plant stress, and stabilise growing conditions," especially during periods of high radiation.

The mesh achieves this through a combination of light diffusion and thermal reflection. The diffusion process disperses light, preventing hot spots and ensuring even distribution of photosynthetically active radiation (PAR) across the plant canopy. This enables middle and lower leaves to contribute more effectively to photosynthesis. Aluminium particles embedded in the polymer structure reflect infrared radiation, which helps control heat accumulation. The result is a more stable greenhouse environment with fewer temperature spikes.

Hydroponic Systems recommends the Agrifresh aluminium thermodiffuser mesh as a proven solution. This patented fabric creates an effective thermal barrier without compromising light quality. According to the company, it works best in professional greenhouses of around half a hectare or more, where managing temperature and radiation is crucial for maintaining high yield and quality.

In practice, reduced infrared radiation leads to lower heat accumulation and fewer temperature fluctuations, especially during critical growth stages. Increased diffuse light improves PAR distribution, supports stable photosynthesis, and reduces the risk of heat stress. As a result, growers experience "more uniform fruit, fewer deformities, and better colour and firmness."

Strawberries, in particular, show significant benefits, with improved uniformity, firmness, colour, and crop stability. Similar positive trends have been observed in tomatoes, peppers, cucumbers, and other crops.

For optimal performance, proper installation is key. Correct height, tension, and orientation affect the mesh's effectiveness. Hydroponic Systems advises careful integration with ventilation systems for best results.