On February 7, Syntegon reopened its expanded site in Weert with the inauguration of a new office building and additional production space. The expansion allows for an increase in production and labor flexibility, a stronger customer focus, and support for the group’s overall sustainability goals. The conversion of the site began in mid-March 2023 and has now been officially completed. The ceremony was attended by Torsten Türling, Chief Executive Officer of the Syntegon Group, Ann Cuylaerts, Executive Vice President Food Vertical, and Paul Derckx from main contractor DGA Derckx BV.
“Process efficiency, a reduction of the carbon footprint, and modern working requirements were the main drivers of this project. We are looking forward to welcoming our customers in this new state-of-the-art environment,” says Managing Director Frank van Kuijk.
Rethinking the use of existing buildings and reducing distances have been a key concern during the entire site conversion – all with the aim of creating seamless processes that meet customer requirements in the best possible way. From now on, Syntegon will manufacture, assemble as well as test and ship packaging equipment under one roof. To this effect, the company has invested in new warehouse and production facilities with a total surface area of 4,000 square meters, thus adding flexibility to the site’s manufacturing capacities. Part of the new production space can be used either for testing or manufacture of packaging solutions, thereby enabling a substantial increase in output. The production facility’s increased height of 11 meters offers ample space for large constructions.
Syntegon previously maintained three buildings for a variety of purposes in Weert. Two of them housed mechanical publication, a Customer Experience and Innovation Center, and office spaces in the north-west part of the site, near Weert’s main canal. A third building served as a final-assembly unit and warehouse in the south-east part of the site, close to a main transport route.
Minimizing the carbon footprint
Another important aspect of the redesign is the site’s energy usage. Syntegon aims to reduce its overall carbon footprint by 50 percent over the period from 2019 to 2030. The Weert site has identified important levers to help meet this goal, all of which were taken into consideration during the site expansion. “Thanks to the new site layout, we now have the potential to reduce our gas consumption by up to 60 percent. This would amount to an annual CO2 reduction of 240 tons,” van Kuijk explains. The gas currently used in the final-assembly building will be offset by the use of heat pumps to supply heating for the manufacturing and office buildings. On this basis, and in combination with LED lighting and a photovoltaic system, Syntegon plans to gradually increase the share of renewable energy consumed at the Weert site over the medium term and thereby ensure a sustainable future.
Both will initially remain with the family shareholders of Pepperl+Fuchs in an advisory capacity. They will be succeeded by Dr. Wilhelm Nehring as the new CEO and Martin Walter as the new CFO – a deliberate and long-planned rejuvenation to actively shape the future of the company. Both will take up their duties on May 1, 2025.
Dr. Wilhelm Nehring most recently served as CEO of a mechanical engineering company, and previously held senior leadership positions in the electrical industry. Martin Walter was formerly Senior Vice President of Controlling & Accounting at a globally active German industrial company. Both have built impressive careers and bring fresh perspectives and new impulses to Pepperl+Fuchs' leadership, which the Mannheim-based company seeks to leverage for its continued success. The entire executive board is convinced that the expertise, strategic mindset, and innovative approaches of Dr. Wilhelm Nehring and Martin Walter will enrich Pepperl+Fuchs with fresh ideas and a modern leadership culture, bridging the significant gap left by Dr.-Ing. Gunther Kegel and Werner Guthier.
"After more than 30 years of responsibility for this company, it is naturally not easy to let go of the reins. One does not want to leave the role without knowing that a successor will continue the task with just as much passion. However, I am absolutely confident in Dr. Wilhelm Nehring and Martin Walter: they have great potential and also possess the spirit and vision needed to lead Pepperl+Fuchs into a successful future. They will do a fantastic job!" said Dr.-Ing. Gunther Kegel. Together with the family shareholders and CHRO Florian Ochs, he has carefully prepared this transition over an extended period to ensure the company’s continuity and stability.
With this generational change, Pepperl+Fuchs is sending a clear signal for the future: The new executive leadership will continue the company’s successful trajectory while also exploring innovative paths to ensure long-term growth
When it comes to building hydrogen infrastructure, the safety of pipelines, tanks and connectors is crucial, as the invisible, odorless gas is highly flammable and explosive. The Fraunhofer Institute for Physical Measurement Techniques IPM in Freiburg has developed sensor and measurement systems that reliably detect even the slightest amount of hydrogen. This makes it quick and easy to detect leaks of all kinds.
The research work was part of the TransHyDE hydrogen flagship project initiated by the German Federal Ministry of Education and Research (BMBF) and project management organization Projektträger Jülich (PtJ). Partners from the research sector and industry are working together in the project to develop solutions for transporting and storing gaseous hydrogen. Dr. Carolin Pannek and the team at Fraunhofer IPM were in charge of the subproject on safe infrastructure.
Hydrogen is used across a wide range of different scenarios and applications, so the Fraunhofer researchers developed three different sensor systems.
Light can cause a gas to vibrate, thereby generating sound waves. The researchers use this photoacoustic effect for their ultrasonic sensor. In this technology, light is beamed into the device from a light source, generating resonant sound waves in the gas at a frequency in the ultrasonic range. When hydrogen enters the container through a membrane, there is a shift in resonance, which changes the tone. MEMS (micro-electromechanical systems) microphones register the change in tone. This method can be used to detect hydrogen leaking out of tanks or pipelines, for example. “This sensor could be used to check containers, pipelines or connectors. It would also be possible to place multiple devices around a room like smoke detectors and combine them into a sensor network,” explains Pannek, the project manager at Fraunhofer.
But the ultrasonic sensor can do even more. It is so accurate and precise that it even registers when molecules of other substances are present in the hydrogen as minimal levels of contamination. Fuel cells like those used to generate electricity in trucks require high-purity hydrogen. The slightest contamination could damage the sensitive membranes. The sensor can be used in these applications to check whether the hydrogen is truly pure.
One alternative to laborious storage of hydrogen in high-pressure tanks in gaseous form or at negative 253 degrees Celsius in cryotanks in liquid form is the use of ammonia (NH3) as a carrier matrix. This method considerably simplifies both storage and transportation. But because ammonia is highly toxic, rapid and reliable leak detection is vital. Fraunhofer IPM developed a laser spectrometer for remote detection of ammonia. It absorbs the wavelength of ammonia, so it reacts immediately. The system then shows the result on a display. “Specialists can hold our compact device in their hand to check pipelines or tanks from a safe distance of as much as 50 meters. Mounted on a robot or drone, it can be used to check industrial facilities or fly over pipelines,” Pannek says.
The third measurement system builds on the principle of Raman spectroscopy. The Raman effect, named for scientist C. V. Raman, is produced by interactions between light and matter. The light reflected off the matter has a different wavelength than the light emitted at the source. This means that every kind of matter has its own spectroscopic “fingerprint.”
Fraunhofer IPM has years of experience in designing and configuring Raman systems. For the TransHyDE project, the researchers developed a filter-based Raman sensor that selectively detects hydrogen in complex media. The device works with low-cost components including an inexpensive CMOS camera, plus it is portable, so it can be used as a mobile testing station for quantifying hydrogen. The system is used in applications including production of hydrogen in the energy sector.
All of the sensor systems are designed to be versatile so they can be adapted for a wide range of different scenarios. The Fraunhofer experts step in as needed to provide advice to industry customers, energy suppliers and operators of hydrogen projects on all kinds of issues surrounding safe use.
Pannek is a firm believer in the future of hydrogen: “The expansion of the hydrogen economy can start now.”
In June last year, the cooperation between NAMUR, ZVEI and PI (PROFIBUS & PROFINET International) was officially sealed. The goal is to prepare and deliver NOA (Namur Open Architecture), an open standard for efficient and secure vertical communication at process automation production plants. The task here is to define NOA as a standardized channel for the feedback-free transmission of required digital data to a parallel second channel from the field for the purposes of monitoring, process optimization and predictive maintenance. The work in the cooperation has now begun and is bearing its first fruits.
Utilizing previously developed use cases as a basis, and with the support of available test plants for determining the degree of interoperability of NOA implementations in different applications, valuable experience revealing achievable potential savings — which in turn can point out the possibility of cost reductions — is being gained. This is all taking place with the aim of achieving a long-lasting interoperable standard. To this end, the cooperating partners have already started agreements within the framework of the established NOA Steering Committee.
At a joint workshop attended by experts of the cooperating partners, the members of the Steering Committee have evaluated the use cases described in the NAMUR recommendations for relevance and urgency. Crucial topics have been defined, and the priorities and necessary steps for the work to come have been specified.
In this context, the Steering Committee decided to optimize the practical suitability of provisions with the aid of a pilot plant as soon as work on the specification begins. The implementations currently available are based on the requirements and implementation hints specified in the NAMUR recommendations, making them an excellent foundation for further work. They also show that the technology is available and can now be scaled in a large number of plants so urgently needed savings potential can also be realized in short order. The pilot plant provides practical infrastructure similar to a Plug Fest into which additional new implementations are to be integrated on a continual basis. Both this approach and plant testing under real-world conditions have already proven themselves in the cooperative efforts of NAMUR and ZVEI over the past few years.
Utilizing findings from the pilot applications, test scenarios are being created which in turn substantially contribute to the evaluation of specification document quality and the quality of implementation in interoperable NOA products—and they do it early in the process of creating the specification. These test scenarios then form the basis for the establishment of certification testing and provision of the required tools in the following step.
The Steering Committee will establish Joint Working Groups to carry out specification work, define quality assurance measures and implement marketing projects.
HANNOVER MESSE 2025 was a powerful commitment to the future viability of industry in Germany and Europe – in close cooperation with its international partners,” said Dr. Jochen Köckler, CEO of Deutsche Messe AG. "In a global situation characterized by uncertainty, it more than lived up to its role as a tech show, business exhibition, and platform for economic policy dialog and international cooperation. HANNOVER MESSE is the place where the analog world of machines is networked with digital intelligence – here, you can see how digitalization and AI are making industrial progress possible.”
Around 127,000 visitors from 150 countries exchanged ideas with the 4,000 exhibiting companies on how they can use AI profitably, automate their factories, or become more energy efficient. More than 40 percent of visitors came from abroad. The most important attendee countries after Germany were China, the Netherlands, Canada, Poland, South Korea, and Japan.
“The exhibiting companies have impressively demonstrated that, technologically, we hold all the cards for competitive, sustainable and innovative production in Germany and Europe. The trade fair has provided industry with orientation and given it a boost – in what really are challenging times. In many conversations, exhibitors reported a burgeoning confidence that now needs to be consolidated,” said Köckler.
At the same time, HANNOVER MESSE was a week of clear political signals: “However, industry also needs positive signals from Berlin and Brussels by consistently eliminating red tape, setting out a strong and coordinated European industrial policy with new free trade agreements, and establishing reliable general conditions for investment, innovation, and energy supply. Only if politicians and industry act together can Europe secure and systematically expand its competitiveness,” stated Köckler.
The exhibiting companies and partner associations also drew a positive balance:
Dr. Gunther Kegel, President of the German Electrical and Electronic Manufacturers' Association (ZVEI) and Chairman of the HANNOVER MESSE Exhibitors’ Advisory Board: “HANNOVER MESSE has once again shown that it is the most important platform for industrial innovation. AI in industrial applications was of particular interest to visitors, especially those from abroad. This shows that German industry can continue to offer a global orientation in times of technological change. Our companies are leaders in Industrie 4.0, and we are convinced that we can further expand this very good starting position. Industrial AI is a new growth area that will continue to drive the automation and digitalization of industry. HANNOVER MESSE will reflect this development in the coming years.”
Thilo Brodtmann, Managing Director of the German Mechanical Engineering Industry Association (VDMA): “This year's HANNOVER MESSE has shown in particular how important good partnerships and open markets are for an export and innovation-driven industry such as machine building and plant engineering. The willingness of host country Canada to deepen trade with Europe is welcome and encouraging news in a world increasingly characterized by trade disputes. In order to master the major tasks that lie ahead of us, we need innovations such as those impressively demonstrated in all halls at the event. This year, HANNOVER MESSE also sent a particularly strong economic policy signal to Berlin: The industrial sector urgently needs a location upgrade in order to continue demonstrating its innovative strength here in the country.”
The number one topic at this year's trade fair concerned AI applications for industry. “AI has the potential to change industry more in just a few years than it has changed in the entire past decade,” says Köckler. The exhibiting companies used specific examples to show how manufacturing companies can benefit from artificial intelligence. “Through the targeted use of these technologies, small and medium-sized enterprises can also increase their efficiency, reduce costs, and significantly increase their competitiveness,” said Köckler.
Partner Country Canada presented itself impressively at HANNOVER MESSE. The innovative role of Canadian companies and institutions in key areas such as artificial intelligence, digitalization and renewable energies is particularly noteworthy. The close cooperation with international partners and the strong focus on sustainable technologies underline Canada's importance as a dynamic player in the global markets of the future.
“Canada’s partner country year at HANNOVER MESSE 2025 was a resounding success and significantly advanced our market diversification goals, as Canada continues its efforts to grow its presence in the German and European markets. We have brought the most impressive Canadian delegation ever to attend an industrial fair. Over 500 Canadian exhibitors and delegates from startups to large corporations leveraged the access to German, European and international companies to expand their international footprint. In addition, Canadian innovators, researchers, academics, and business development organizations showcased Canada’s talent and technology solutions for a global audience. Canada is excited to play a pivotal role, with Germans and Europeans, in shaping a future that is green, digital and resilient. We look forward to continued collaboration and growth across borders,” said Stéphane Dion, Special Envoy to the European Union and Europe and Canada’s Head of Delegation at HANNOVER MESSE 2025.
The next edition runs in Hannover from 20 to 24 April 2026. Brazil is Partner Country.
Companies don’t always package their own products themselves. In many cases, they outsource this step to contract packers. Outsourcing gives companies access to an extensive portfolio of cutting-edge machines – thereby saving time and money. The ‘MultiPac Verpackung + Montage GmbH’ co-packer, based in Ellwangen in the German state of Baden-Württemberg, is specialised in packaging services for several leading consumer goods brands. They package a wide range of products in medium and large quantities into folding boxes, blister packs, trays, shrink film and cartons, among many other types of packaging.
The company’s own machine fleet is therefore quite extensive, and since the summer of 2024, it has also included two tog.519 cobots from Schubert. Due to an increasing variety of products and variants, as well as rising labour and site costs, the company needed an efficient and flexible solution for packaging processes that had previously been done manually. The specific challenge was to pick up a wide variety of unsorted products such as tubes, glue sticks and air freshener clips from the conveyor belt – using a pick & place system – and place them into prepared trays.
MultiPac needed a high-performance, state-of-the-art automation solution that could achieve up to 60 picks per minute. Achraf Ben Salem, Head of Cobot Development at Schubert, reports: “When the decision-makers at MultiPac thought of us, they initially had our ultra-efficient TLM machines in mind – and ruled us out at first. In this case, our top-loading systems could not be connected to an existing packaging line. Also, this solution would have required more space than was available at MultiPac. Fortunately, our tog.519 cobot proved to be a very convincing alternative.”
Schubert’s tog.519 cobot can pick up to 70 products one by one from a disordered pile and place them accurately into the designated location. Its success is ensured by the AI-supported image processing developed by Schubert which recognises the products it picks up and the environment in which they are to be placed. As a result, MultiPac can dispense with the laborious task of separating tubes, pens or fragrance clips, for example.
The tog.519 cobot has another unique feature as well: as soon as it has picked up a product, it continues to collect information about its condition, checks it and adjusts its work steps accordingly. For example, when placing an item into a tray, the cobot has to make sure that the product opening points in a certain direction. This involves the cobot holding the items briefly in front of a camera, which recognises the opening. Depending on where the opening is located, the cobot either places the product as it is or first turns it.
The cobot also excels when it comes to format changes. A simple manual adjustment is all it takes to change the pick & place tool. Ben Salem explains: “In a production space of only six square metres, we have provided MultiPac with a compact, high-performance cobot that enables efficient, flexible and reliable production. This example shows that we not only support big-name manufacturers, but also smaller companies with a high number of variants – with innovative systems that meet their specific needs."
The tog.519 cobot:
Hilscher has introduced a new SPE Media Switch designed to integrate Single Pair Ethernet (SPE) into industrial Ethernet networks. The new SPE Media Switch, based on Hilscher’s multiprotocol-capable netX90 communication controller, provides seamless connectivity for SPE applications with PROFINET, Open Modbus/TCP, and EtherNet/IP networks. This ready-to-use device offers a cost-effective solution for implementing SPE in industrial field environments.
The SPE Media Switch enables seamless IP-based communication from sensors to the cloud without the need for additional, expensive network components. This allows devices to be easily and affordably connected over distances of up to 1.000 meters using the 10BASE-T1L standard, making it ideal for large production facilities or widely distributed applications.
As a member of both the Single Pair Ethernet System Alliance (SPE SA) and the SPE Industrial Partner Network (SPE PN), Hilscher supports both SPE connector standards. The SPE Media Switch is compatible with IEC 63171-2 (SPE SA) and IEC 63171-6 (SPE PN) connectors, giving users the flexibility to choose the option that best meets their needs.
The SPE Media Switch is based on Hilscher’s netX 90 communication controller, offering users several advantages:
In PROFINET and EtherNet/IP networks, the SPE Media Switch can operate in either transparent or configured modes. In transparent mode, data is simply routed through the SPE Media Switch, which is invisible to the controller. In configured mode, the switch is mapped in the controller and can, for example, be assigned a fixed IP address. For Open Modbus/TCP networks, only transparent mode is available.
To ensure stable network performance and reliable data transfer, Hilscher has integrated a rate limiter function into the SPE Media Switch. This feature helps prevent data loss when bandwidth decreases from 100 Mbit Industrial Ethernet to 10 Mbit SPE.
The unique rate limiter function manages network traffic during high data loads by prioritizing and processing Industrial Ethernet frames based on predefined parameters. Additionally, a flow meter mechanism allocates bandwidth across various types of messages. For example, a minimum of 5 Mbit can be reserved for Industrial Ethernet messages from PROFINET and EtherNet/IP in the SPE network, while up to 3 Mbit is allocated to unicast messages, and a maximum of 1 Mbit for multicast or broadcast messages with lower priority.
Advantech introduces the SPC-618WE RPL, the first explosion-proof touch panel computer in the SPC-600 series to achieve both IECEx/ATEX Zone and Class I Division II (C1D2) certification. This new product integrates the latest 13th generation Intel® Core™ i7 processor and a special impact-resistant touch panel designed specifically for high-risk industrial environments, including the oil and gas, chemical and pharmaceutical sectors.
The SPC-618WE RPL features a 13th-generation Intel® Core™ i7-1365URE deca-core processor integrated with 32GB of high-speed DDR5 memory and an industrial-grade sTLC SSD, enabling smart operations while maintaining explosion-proof integrity. This high-performance configuration enables digital transformation in hazardous areas and supports demanding applications such as real-time process monitoring and multi-parameter analysis in chemical plants, AI-based visual inspection in pharmaceutical production lines, and big data analysis in oil refineries. The use of the latest processor platform also ensures long-term product availability, helping customers to minimise future upgrade and maintenance costs.
Building on hazardous area certifications, Advantech has gained global recognition in explosion-proof markets with the SPC-618WE RPL through IECEx/ATEX Zone 2/22 and C1D2 certifications. The product incorporates industrial-grade safety features, including an Ex-rated tempered glass touch panel with PCAP technology that passes rigorous impact tests and achieves IP66 ingress protection. It operates reliably in temperatures from -20 to 60°C, meeting the stringent requirements of various hazardous environments.
The SPC-618WE RPL's multiple certifications enable seamless integration into hazardous applications in key global markets. Advantech plans to expand the SPC-600 Series product line in the second half of 2025 by introducing multiple display sizes.
Turck's new UHF-SYS-TUNNEL RFID tunnel offers a ready-to-use, flexible detection solution for the automation of intralogistics processes. The no-code technology and a standardized interface simplify integration into existing systems and thus accelerate data acquisition and process integration. The RFID tunnel is designed for a wide range of applications in the flow of goods on conveyor belt applications and is ideal for incoming and outgoing inspections as well as bulk detection in production and warehouse logistics. The multi-tag function and the closed housing ensure reliable detection, even with large quantities of goods.
The all-in-one solution consists of a UHF reader with four powerful antennas, matching coaxial cables and a closed tunnel housing with all brackets and screws for quick installation. The prefabricated mechanical structure and the standardized set with just one part number enable error-free and fast commissioning.
To provide its customers in the pharmaceutical industry with worry-free operation and data integrity in compliance with international pharmaceutical regulations and standards, Analytik Jena has released a new FDA 21 CFR Part 11 software module for their new TOC/TNb analyzers of the multi N/C x300 series. Thanks to the new functions, customers benefit from significant time saving and ease of use when carrying-out audit-proof analyses in this strictly regulated industry. The new software offers many comfortable functions: It eliminates manual calculation and documentation steps, like for system suitability tests (SST), thus reducing effort to a minimum. It also provides a clear overview over user roles and method or result versions. With it, customers work much more conveniently and efficiently and reduce the risk of errors associated with manual documentation.
New features include, amongst others, a user management system for assigning roles and editing rights to team members, server-based central data management to store data from multiple instruments and access them from any computer, detailed audit trail and versioning with comment functions, and electronic signatures following the dual control principle. The new module ensures conformity with international guidelines, such as FDA 21 CFR part 11, and provides built-in TOC SST functions compliant to USP <643> standards for bulk water and sterile water, EP 2.2.44, JP 2.59, and the KP. The new software module is available as an additional option and is compatible with all multi N/C x300 analyzers operating under multiWin pro.
Software validation services for this module are available as part of Analytik Jena’s equipment qualification service package. It shortens the time until the operational release of the device and significantly reduces customers efforts.
This introduced prototype is the result of intensive collaboration between Yokogawa and Pepperl+Fuchs and demonstrates the possibilities. The developers showed live at the fair how cyclic data traffic works simply and transparently. Engineering is based on the controller's standard tools using FF-H1 function blocks.
Proxy technology, which acts as an intelligent interface between FF-H1 and Profinet, provides the basis. The control system and FieldConnex field switch communicate via the Profinet protocol. Controlled and configured by the control system, the switch seamlessly translates the process values into the FF-H1 protocol and ensures that existing devices can remain in operation without restrictions. The system automatically handles standard tasks such as setting addresses and communications parameters. The switch provides a separate link master for each device, thus ensuring the fastest possible response times.
The engineering system uses the existing and certified device descriptions of the field devices. This implementation based on standards ensures a high degree of functional reliability and interoperability while avoiding the expense of product maintenance and re-certification. This solution concept impresses with its ease of implementation for users and manufacturers alike - as they are entitled to expect in times of digitalization.
Connection beyond instrumentation with Ethernet-APL, Pepperl+Fuchs has also showcased in Hannover connecting instruments. Available today are: Profibus PA via Proxy in Profinet and 4-20 mA signal and HART via remote I/O. Pepperl+Fuchs invites users and suppliers to talk shop, discuss the protection of the existing instrumentation and the future of digital communication in the field of process plants.
Recently, the European Union (EU) announced its highly anticipated legal requirement concerning methane regulation (https://eur-lex.europa.eu/legal-content/EN/TXT/PDF/?uri=OJ:L_202401787). Unlike the recently finalized methane and oil and gas emissions leak detection and repair (LDAR) rules from the United States Environmental Protection Agency (EPA) late last year, this rule is significantly more stringent, requiring both detection AND quantification of methane gas. With this additional layer of detail, companies can better understand their emission impact and produce more accurate inventories of methane emissions.
This requirement builds on the final approval EU ministers gave their respective governments’ to impose methane emissions limits on Europe's oil and gas imports from 2030 (https://www.reuters.com/sustainability/climate-energy/eu-approves-law-hit-gas-imports-with-methane-emissions-limit-2024-05-27), pressuring international suppliers to cut leaks of the potent greenhouse gas.
This latest announcement (https://energy.ec.europa.eu/news/new-eu-methane-regulation-reduce-harmful-emissions-fossil-fuels-europe-and-abroad-2024-05-27_en) puts the rule in place, requiring methane leak detection capabilities specifically of upstream exploration and production, including all types of wells, along with fossil gas gathering, processing, transmission, distribution, and underground storage including liquefied natural gas terminals. This ruling also applies to operating underground and surface coal mines along with closed or abandoned underground coal mines.
The ruling reflects the EU’s long-term commitment to reducing emissions. According to data from the EU’s Green House Gas (GHG) Inventory Report (https://www.eea.europa.eu/en/analysis/publications/annual-european-union-greenhouse-gas-2), more than half of all direct energy sector methane emissions is due to unintentional release of emissions into the atmosphere. Therefore, EU authorities believe that focusing on locating and fixing methane leaks, or LDAR, can create a substantial dent in emissions towards achieving its respective climate goals.
Now that the rule is implemented, affected organizations have various timelines to consider for conducting different types of leak tests as part of comprehensive LDAR program. For all aboveground and underground components, excluding transmission and distribution networks, leak detection and repair surveys shall be conducted based on the following timelines:
Type of LDAR survey | Type of component | Frequency |
Type 1 LDAR survey | Compressor station | 4 months |
| Valve Station | 9 months |
Type 2 LDAR survey | Compressor station | 8 months |
| Valve Station | 18 months |
The following table outlines the leak detection and repair surveys minimum frequencies for all components of transmission and distribution networks:
Type of LDAR survey | Type of component | Frequency of survey |
Type 1 LDAR survey | Compressor station | 4 months |
| Valve Station | 9 months |
Type 2 LDAR survey | Compressor station | 8 months |
| Valve Station | 18 months |
Type 2 LDAR survey | Regulating and metering station | 9 months |
| Valve Station | 21 months |
In the above tables, Tyle 1 LDAR surveys refer generally to gross leak detection and repair surveys, essentially the larger leaks that have the greatest influence on the environment, and thus generally require more frequent inspection. In contrast, Type 2 LDAR surveys refer to locating smaller, more granular leaks, and thus those inspections are generally longer in frequency.
QOGI – the Most Effective Technology for Completing Type 1 LDAR Surveys
For Type 1 LDAR surveys, specifically, QOGI (Quantitative Optical Gas Imaging) offers an extremely effective and efficient method to quickly locate large leaks defined as those “17 grams/hour at standard temperature and pressure” as outlined in Article 14 of the regulation literature (https://eur-lex.europa.eu/legal-content/EN/TXT/PDF/?uri=OJ:L_202401787). In contrast, Type 2 LDAR leaks are defined as 5 grams/hour at standard temperature and pressure.
To achieve effective Type 1 LDAR survey capability, QOGI offers numerous advantages. First, not only will inspectors need to detect methane leaks, they must also detect the size of such leaks and act quickly to remediate leaks at 17 grams/hour or more, as noted above.
Furthermore, the rule states that inspectors must measure emissions at “each potential emissions source,” and as close as possible, meaning inspectors cannot rely on aerial inspection tools alone. Instead, inspectors will need QOGI devices to get close enough to detect and measure the exact leak points for repair, but still remain at a safe standoff distance. This issue is compounded by the fact the rule requires repairs to be attempted quickly--within 5 days of detection and then completed within 30 days.
According to Steve Beynon, Director of Sales for FLIR’s Optical Gas Imaging vertical, utilizing the latest OGI technology has always been at the forefront to empower companies to meet regulatory goals.
“We have been working with all aspects of the EU for years to help empower the industry to leverage technology in methane emissions mitigation and feel that Optical Gas Imaging has a fundamental role in the future of methane mitigation in the EU,” said Beynon.
Tools such as the FLIR QL320 OGI companion device (https://www.flir.de/products/flir-ql320) as well as built-in quantification from the latest FLIR G-Series cameras (https://www.flir.de/products/flir-g-series) provide effective methods to satisfy the latest EU regulations around methane leak detection and mitigation. These highly advanced solutions allow operators to quantify emissions at a safe distance through advanced analytics leveraging FLIR’s OGI camera technology.
However, the use of such tools requires some technological knowledge, understanding of the application and training on the science of OGI and use of the cameras. This regulation requires LDAR operators to be trained. There are other considerations to review when acquiring the most effective tool for the job and Flir can help when training or support is needed.
WIKA's digital temperature transmitter, the T38, has all the major international approvals and is available worldwide just one year after its market launch. Thanks to its innovative drift detection, the transmitter ensures an even higher level of process reliability. The T38 can also be used flexibly, as its six sensor connection terminals allow countless possible combinations with input sensors.
True Drift Detection is a new monitoring function developed by WIKA. Thanks to the permanent monitoring by means of two perfectly matched sensors, a drifting sensor can be detected immediately. This allows the operator to intervene immediately in the event of faulty measurements to guarantee process reliability at all times. The temperature transmitter meets all the requirements of IEC 61508 and is designed for universal use. A head-mounted and rail-mounted version, as well as SIL and various Ex versions of the T38 are available for customised integration. All versions can be programmed using the HART® protocol with a wide range of open configuration tools.
During a month-long field test conducted by KECO in collaboration with a leading vapor recovery unit (VRU) manufacturer, KECO's OxyHound process gas analyzer demonstrated superior performance compared to traditional electrochemical analyzers. The test focused on measuring oxygen levels in gas streams. During the test, both the OxyHound and a conventional electrochemical analyser were set up to measure oxygen levels in a gas stream. The data collected was integrated into the VRU company's SCADA system, which took readings every two minutes. The results showed that the OxyHound significantly outperformed the electrochemical analyser in terms of accuracy and reliability.
The OxyHound uses advanced quench luminescence technology for gas sampling to ensure accurate oxygen measurement. This method uses the decay of light emitted by a specific luminophore over time to accurately determine the partial pressure of oxygen. The analyser tracks changes in light phase and intensity between the excitation light and the fluorescence response. The on-board computer uses this data to calculate oxygen levels in real time.
Long sensor life
A cost analysis between the two technologies revealed that the electrochemical instruments required cell replacement at least twice a year due to exposure to water. The estimated annual replacement cost was approximately $1,000. In contrast, OxyHound's quench luminescence technology is non-consumable, requires no consumables and only occasional sensor recalibration. These factors significantly reduced both cost and labour.
While electrochemical analysers are susceptible to liquid contamination, the OxyHound can operate in environments with contaminants such as H2S, CO2, H2, propylene, methanol and ethanol mixtures. Its insensitivity to various gases makes it ideal for applications in natural gas pipelines, refineries, biogas production, chemical plants, landfills, wastewater treatment, manufacturing, food and beverage, and renewable energy sectors. The analyser is designed for use in Division 2 & Zone 2 hazardous locations.
Metering batches of liquids may seem straightforward at first glance - install a flowmeter in the product line, connect it to an instrument, control the measurement with on-board software, wire in a valve, enter your required volume, press a button and the right amount of liquid is dispensed into your vessel. However, real-world applications reveal a host of complexities that must be addressed to achieve precise and repeatable results.
Today’s advanced process and liquid handling systems demand highly precise flow measurement. From adding water to food production mixers, dispensing flavourings to beer or cider at point of sale, to handling aggressive chemicals, even slight inconsistencies in system design can lead to inaccuracies, wasted product, or disrupted processes.
For batching systems, the critical factor is repeatability – ensuring the required volume is delivered consistently every time. To achieve this, ideally the system should maintain consistent process conditions, however, this is not always feasible. For instance, temperature fluctuations throughout the day can alter fluid viscosity and volumetric flow measurements. Similarly, a decrease in the feed liquid tank level supplying the process pump can reduce the dispensing rate, impacting the accuracy of the flow meter and the flow control valve. Therefore, as a starting point, batching system designs should aim to minimise as many variables as possible within a reasonable cost. Once this foundation is established, equipment such as flow meters, pumps, and valves can be selected to effectively compensate for any parameter variations.
Titan’s NSF-Approved Beverage Flowmeter is designed specifically as a flow measurement solution for the drink dispensing market. With its exceptional repeatability, this low-cost device is installed around the world enabling industries to unlock higher yields, whether in beverage processing equipment or a bar tap wall in a restaurant.
Applications of Liquid Flow Measurement and Control in Batch Processes include:
Fruit juice production relies on accurate flow measurement of small quantities of ingredients to maintain product quality. Liquid flow meters monitor and control the dispense of water, flavourings, sweeteners, and other ingredients, ensuring the right proportions for optimal flavour and shelf life. High-precision flowmeters provide repeatable measurements, indispensable for maintaining product consistency.
Incorporated as part of an installed beer wall, the valves and flowmeters count and control the dispensing of beer at the bar taps. Titan’s low-cost NSF-Approved beverage turbine meters are used by long-term American customer, a self-pour technology company, in their self-pour beverage walls, to accurately measure and control dispensed beer at self-serve counters.
Flow Switching in Bottling Operations
In bottling operations, reliable liquid flow indication prevents costly disruptions. Inline flow switches detect and manage critical scenarios such as product flow loss, ensuring efficient operations. Several food and drink manufacturers use Titan’s mini turbine flowmeters as low-cost alternative flow switches. Flow switches also control carbon dioxide addition, halt bottling lines when necessary, and prevent refrigerant or chiller shutdowns, enabling maximum process efficiency.
By accounting for these factors during system design and commissioning, engineers can eliminate common pitfalls in liquid metering and achieve extremely good accuracy. And investing in the appropriate flow measurement technology that suits the application requirements will ensure that the batching system performs with precision and consistency.
The cost of high-end sensors can be negligible in comparison with the processes and assets that they help to manage and protect. Process managers should therefore invest in measurement technologies that have been proven to deliver stable, accurate reliable measurements in the long-term.
The suitability of a sensor for a specific application can be determined by a quick examination of its datasheet. For example, the sensor will need to operate within a known range of temperature and pressure, it will provide an acceptable output signal and it will deliver measurements within a claimed level of accuracy and precision. However, there are several important factors to consider when choosing sensors. Beyond accuracy, these include stability, reliability, and any variance in performance due to process or environmental conditions.
Stability is perhaps the most important criterion because sensors must be accurate and reliable even in demanding environments, following installation and in the long-term. The specifications of different sensor suppliers may state similar accuracies, but this does not provide insights or verification of sensor accuracy after one year, or several years. All sensors drift, but some drift more than others, and some drift more quickly, while others have good stability with minimal drifting, maintaining measurement accuracy for years. Therefore, the stability of sensors should be the most important factor to consider because it influences performance and costs over a long time and is reflected in calibration and maintenance requirements.
Given the potential costs of long-term unreliability, it is important to consider the lifetime cost of sensors, and not just their purchase cost.
In addition to good stability, high-quality instruments are also easy to maintain, calibrate, adjust, and fine-tune, which lowers lifetime costs and is good news for operation and maintenance staff. Having convenient tools for verifying and maintaining the sensors and transmitters enhances reliability and provides peace of mind throughout the life of the instrumentation.
Cooling represents a high proportion of the costs and carbon footprint of running a datacentre. Vaisala participated in a datacentre trial to simulate how much more energy would be used if there was just one-degree of temperature measurement error, causing excessive cooling. The results showed that this one-degree of error increased energy consumption by more than 8.5%. Given the size of modern datacentres and assuming the same deviation can take place over a decade, this seemingly tiny error translates into many millions of euros of extra costs, particularly if server uptime is affected.
Traditionally only large corporations have had the resources to build measurement infrastructures with advanced features such as remote monitoring, firmware updates and easy scalability. Vaisala Echo connects Vaisala measurement devices and monitoring software to create an intelligent measurement infrastructure, without the requirement, and cost, of developing a bespoke solution.
In practice, customers will not need to buy Echo separately, because it is a built-in feature for Echo-compatible Vaisala measurement products. Simple to set up and run, Echo provides reliable, always-on access to data and alerts from all compatible devices, with remote firmware updates for all connected devices.
A major benefit of Echo is easy access to comprehensive reporting – both current and historic. Echo reports current conditions in real-time and enables notifications/alerts, and all data is encrypted in transit and rest, and secured with digital certificates.
A team of UK process engineers has developed a technique for manufacturing collagen sausage casings which protects product quality and trebles output. The process relies on precise monitoring of temperature and humidity with Vaisala sensors, combined with multi-stage feedback control.
The manufacture of collagen sausage skins from animal hide is a good example of sustainable production because it recycles a waste product into a valuable commodity that helps to improve the quality and consistency of sausages. However, all sausage casings are delicate and require precise conditions and careful handling during manufacture, storage and distribution, and throughout the subsequent sausage manufacturing process.
Natural casings from the small intestine of meat animals tend to be variable in length, diameter and thickness, so they are not ideal for high-speed sausage manufacturing processes. In contrast, collagen casings offer reliable, consistent features, and are therefore ideal for fast, efficient processes. Also, collagen casings do not need to be stored in chilled conditions and have a longer shelf-life than traditional casings. However, sausage casings are delicate, so precise management of handling processes and environmental conditions is essential.
Collagen casings are ready to use straight out of the package, horn loading is quick and easy, and there is no requirement for soaking and untangling of bundles. In comparison with sausages in natural casings, there are no seasonal variations, and sausages manufactured in collagen casings offer improved cooking coverage which delivers a superior cooked appearance
Prior to the development of a new product handling system, the sausage skin manufacturer utilised a conveyorised flat sheet collagen dryer, but this created friction that could lead to ripping and product wastage. The process was slow and wasteful, so the engineers were challenged to develop a new, less damaging technique for drying and processing the extruded cylindrical collagen cases. A key feature of the new process would be to minimise friction and optimise both temperature and humidity, irrespective of the plant’s geographical location.
The new processing solution allows the casings to be inflated with hot, dehumidified process air provided by a silica-based desiccant rotor. New equipment was also developed for transporting the inflated gel using an innovative handling system.
The new system employs three precision sensors. A Vaisala HMT120 humidity transmitter monitors environmental humidity, so that dry air can be recirculated when outside conditions are too humid. In addition, two Vaisala DMP5 dewpoint transmitters monitor process air to ensure that the collagen products are maintained in ideal conditions by a multi-stage feedback control system.
The HMT120 transmitter contains Vaisala’s HUMICAP® technology; a thin-film polymer-based capacitive humidity sensor, which delivers accuracy, reliability, long-term stability and is insensitive to condensation or contamination.
The DMP5 dewpoint transmitters incorporate the Vaisala DRYCAP® sensor, which is also designed for accuracy, reliability and stability. The sensor is condensation-resistant and is immune to contamination, however, the high level of performance delivered by this technology is based on a capacitive thin-film polymer sensor and an autocalibration function. The sensor also has a rapid response time and fast recovery after wetting.
Climate change, environmental concerns and rising energy prices are driving demand for improved efficiency across all industries; not least in food production where processes involving baking ovens can run at temperatures of up to 325°C. Bühler’s latest indirect-fired convection ovens, therefore aim to increase efficiency in line with the company’s strategic commitment to help customers make substantial savings in energy, water, and product wastage.
By monitoring humidity levels accurately inside an oven, it is possible control the process to maintain a consistent baking profile, even with fluctuations in ambient conditions or ingredient quality. This enables a more consistent product in terms of spread, thickness, colouring, and other important indicators of quality. This improved consistency also helps to minimise wastage.
Ovens with built-in measurement technology enable process managers to control the humidity and temperature of their ovens more effectively, which can be particularly valuable for those producing multiple products with different baking profiles.
The applications highlighted above demonstrate the critically important role of accurate stable measurements, which highlights the need to invest in proven, high-quality sensors, particularly when the costs of not doing so can be so great.
In datacentres accurate temperature measurement can save enormous energy costs, in baking ovens accurate sensors can improve product quality, save energy and reduce wastage, and in sausage skin manufacture accurate sensors save time, reduce waste and increase productivity three-fold.
ProMinent's new beta/X smart metering pump utilises the company's latest technology. It is ideal for a wide range of metering applications, providing reliable, robust and versatile performance. An environmentally friendly PFAS-free version of the beta/ X is also available. Every aspect of the beta/X is designed to simplify use. In a first for the beta range, dose rate is set with a simple turn of an intuitive click wheel and displayed on an LCD screen. This eliminates the need for complex stroke or frequency calculations. With a wide range of dosing capacities from 10 ml/h to 50 l/h, this pump is a versatile solution. It is ideal for a wide range of dosing applications.
The new range also allows you to see the pump's performance from a distance with a 360-degree status display with three coloured LED lights. An improved mounting system allows the pump to be installed and serviced in a single click, either horizontally or vertically on a wall, using a side or base mounted bracket.
Compared to the previous model, the redesigned dosing heads offer even greater precision of ± 1%, improved suction power and a 1:1000 turndown ratio. Thanks to the wide adjustment range, beta/X requires only four dosing heads in total. This simplifies selection and reduces the number of spare parts required for maintenance. A Near Field Communication (NFC) interface makes it easy to transfer beta/X device and status information to a mobile phone. Quick programming and configuration of the pump can also be carried out via an app using the integrated Bluetooth® wireless technology.
With Dulconnex, a cloud-based monitoring system, you can take remote monitoring to the next level and view the beta/X along with all your ProMinent smart products in one place and use its inventory management capabilities to keep an eye on tank levels remotely.
Liquid and gas flow control specialist Bürkert has launched a range of valves designed to control ultra high-pressure flow for hydrogen infrastructure applications. The range includes solenoid valves and process valves that can control hydrogen up to 1,000 bar, suitable for grid infrastructure and vehicle fuelling stations. The valves are designed for a long service life and meet all the required safety conformance for hydrogen infrastructure.
The valves are designed for high-pressure hydrogen applications including compression, storage, and transport. The range comes into its own downstream of Hydrogen Production via electrolysis when the gas needs to be compressed to either store it or transport it. Bürkert’s new range is also capable of managing hydrogen supply for vehicle fuelling stations.
The solenoid valve range for on/off control consists of a direct acting valve and two servo-assisted valves. The Type 6080 direct acting valve can open or close without any assistance from the media passing through the valve and can operate from 0 Barg. It can manage pressures up to 900 bar, and is available with orifice diameters including 0.5 mm and 0.7 mm.
The Type 6480 and 6481 servo-assisted valves rely on a pressure differential across the valve to help it open and close. The type 6480 requires a 5-bar pressure differential while the 6481 needs a 1 bar pressure differential. The Type 6480 servo piston valve can control hydrogen flow up to 1,000 bar and is available with an 8 mm orifice. The Type 6481 is suitable for hydrogen pressures up to 450 bar and is available in orifice diameters between 12 mm and 50 mm.
The valves can achieve higher switching cycles and extended maintenance intervals thanks to special coatings applied to the wetted components that extend the service life.
Bürkert’s new range for ultra high-pressure hydrogen applications also includes the Type 2111 and Type 2121 process valves for on/off control, which are pneumatically operated. The Type 2121 is available with 12 mm to 50 mm orifice diameters and can manage hydrogen up to 600 bar. The Type 2111 features 4 mm and 8 mm orifice diameters and is able to handle hydrogen up to 1,000 bar.
The process valves achieve high tightness for dynamic sealing thanks to a dynamic sealing ring on the spindle. The valves are also designed for reliable and long-life use, featuring a robust one-piece design that minimises wear. In addition, they are highly resistant to hydrogen embrittlement, thanks to stainless steel construction, and feature additional finishing on pressure-bearing, moving parts.
All the valves in Bürkert’s new range for ultra high-pressure hydrogen applications pass conformance to ensure safety. The valves are designed to withstand twice the stated hydrogen pressure and all valves in series production are tested to one-and-a-half times the working pressure. To prevent leakage, all valves are tested in series production to 5 x 10-5 mbar l/s. Meanwhile, resilient materials including 316Ti stainless steel reinforced with titanium, prevent hydrogen embrittlement.
Stringent design and testing mean the valves achieve ISO 19880-3 for gaseous hydrogen – fuelling stations. This covers the requirements and test methods for the safety performance of high-pressure gas valves used in hydrogen stations up to the H70 designation. The valves also meet Pressure Equipment Directive 2014/68/EU, and for use in hazardous areas, they achieve ATEX Zone 1 IECEx Cat. II.
LEWA GmbH has significantly improved the performance of its LEWA ecoflow® LDG process pump. Pumps of the ecoflow series are hydraulically actuated process diaphragm pump in modular construction.
The upgraded model delivers a 15% increase in hydraulic power within the same footprint. The development enables operators to benefit from better performance with no increase in installation space or cost. For example, applying the improved ecoflow LDG at a flow rate of 300 l/h increases the maximum discharge pressure from 659 bar to 713 bar. Conversely, at 100 bar discharge pressure the maximum flow rate increases from 2600 l/h to 2950 l/h.
Optimising productivity in processing applications is a constant challenge. It requires the right combination of pressure and flow rate, and space is always at a premium. Enhancing the power-to-footprint ratio of the ecoflow LDG pump enables customers to specify a smaller unit and achieve higher performance. Compared to the next pump size in the ecoflow range, the LDG can reduce space requirements by up to 40%.
Reinforcing LEWA's commitment to continuous innovation, the upgraded ecoflow LDG represents a power increase from 35kN to 40kN. This innovative approach is aligned with the improvements made last year to its larger sister pump, the LEWA ecoflow LDZ, which raised power output from 45kN to 50kN and improved its performance by 10%.
The LDG is part of the LEWA ecoflow family, an extensive modular system of diaphragm and packed plunger metering pumps that combines eight drive sizes with six different pump heads. This modular design allows for a high degree of customisation. Further options include different materials and valve types that can be combined to meet specific application criteria including temperature, compressibility, flow rate and pressure. The ecoflow can handle aggressive, abrasive, toxic, and flammable fluids to meet diverse applications in the energy sector, chemical production, pharma, and food and beverage.
Renowned for leak tightness, operational safety and reliability, LEWA ecoflow pumps provide highest metering accuracy, even at high pressures. Their precise and reproducible flow rate can be adapted via stroke length and speed, offering a broad metering range of 1:100 for flexible adjustment to different tasks.
ControlAir is pleased to announce the release of the CG330 and CG340 gas regulators. This innovative range has been specifically designed to meet the growing demand for low emission solutions in industrial applications using compressed gases such as inert gases, natural gas and other sensitive media. The range of compressed gas filter regulators is designed to provide accurate pressure control with near-zero atmospheric leakage under dynamic or steady-state flow conditions. Ideal for applications that must comply with stringent fugitive emission regulations, these rugged regulators provide users with exceptional reliability, operational efficiency and environmental safety.
The series ensures near-zero atmospheric leakage (less than 0.1 scfh (0.05 Nl/min)) for regulatory compliance. They are available in 1/4" and 1/2" NPT port sizes with output pressure ranges of 0-30 psig, 0-60 psig and 0-120 psig to meet various application requirements. Constructed of die-cast aluminium alloy with an iridite and baked epoxy finish for long-term performance in harsh environments and a wide range of media compatibility, the regulators can handle air, inert gas and sweet natural gas within temperature limits of 0°F to 160°F (manual drain) or 32°F to 160°F (automatic drain).
The CG330/CG340 regulators are ideal for industries such as oil and gas, chemical processing and any operation where precise pressure control and environmental safety are critical.
The new double-stage air compressors of the DS series from AERZEN compress absolutely oil-free in accordance with ISO 8573-1, class 0 and guarantee outstanding performance in almost all application areas at differential pressures between 5.5 and 10.5 bar. Applications in sectors such as the food and beverage industry, chemical and process engineering as well as medical and pharmaceutical technology place the highest requirements on compressed air quality. After all, impurities in the compressed air such as dust, moisture, oils or microorganisms have an impact on product quality and the production process. With its DS series, AERZEN now offers new smart and efficient air compressors for oil-free compression.
The new double-stage screw compressors are available in nine sizes from 55 to 315 kW and volume flows from 180 to 2,920 m3/h. They reliably provide 100% oil-free process air (certified according to ISO 8573-1 Class 0) and achieve energy savings of up to 12% compared with the best-performing compressor models currently available on the market. This leap in efficiency is achieved by innovative bare-shaft compressors with new, highly efficient 4+6 rotor profiles in the low and high-pressure stages and motors with energy efficiency class IE4 or IE5. A variable frequency drive is integrated and guarantees optimum operation with a large turndown. The DS series is equipped with a direct drive using a coupling and gear drive for optimum drive efficiency and has stainless steel rotors in both stages to prevent corrosion.
The compressed air packages have been designed for maximal reliability and durability, and they achieve outstanding performance even in extreme climatic conditions. An effective sealing concept for the drive shaft and conveying chamber minimises natural seal wear. The smart oil concept with oil cooler, electrical oil pressure switch for a constant oil level check and a mechanical oil pump contribute to the high level of robustness and energy efficiency. The oil-lubricated anti-friction bearings with pressure lubrication achieve a service life of at least 40,000 hours.
Maximum energy efficiency, quality, durability and reliability, paired with minimal maintenance effort/costs and low noise levels - these are the new double-stage, oil-free screw compressors in the DS series. The process air generation is of course PFAS-free, without compromising on performance and durability. Thanks to the extremely compact design, the machine footprint is small. The smart package concept even facilitates side-by-side installation, as maintenance can be carried out from both the operating and the rear sides. The entire package can easily be transported using a pallet truck, forklift truck or crane.
Although relatively new, the MAXXDRIVE® industrial gear units from NORD DRIVESYSTEMS are among the established drive solutions for heavy-duty applications. Apart from conveying, lifting and driving, mixing and agitating are among the most important application areas.
MAXXDRIVE® industrial gear units from NORD DRIVESYSTEMS can be found in all industrial applications, where high performance and high ratios are required. They achieve output torques of up to 282,000 Nm and powers of up to 6,000 kW. Their torsionally rigid, one-piece UNICASE™ housing ensures a long service life as it can handle high axial and radial loads. Through continuous development of the series, the system manufacturer of drive solutions serves more and more industry-specific requirements, for example sizes with extended centre distance for use in lifting gear.
An important application area is agitating and mixing, which is essential in biogas plants, for example. Only by thoroughly blending the products to be fermented, a homogeneous mass is obtained that provides optimum ambient conditions for microbes with regard to temperature, viscosity and acidity. If the microbes are active, they produce sufficient biogas. The biogas plant expansion of the Dutch Smits Groep’s large-scale agricultural unit, however, presented the designers of the mixing technology with a challenge. Contrary to standard practice, the rotating agitators had to blend a rectangular base of about 1,200 m² instead of a circular one. Another difficulty was the fact that more concrete pillars than roof girders had been placed in the towers.
The Dutch system manufacturer Jongia Mixing Technology developed a concept, where two high-performance agitators per tower ensure the biogas production. This is implemented using MAXXDRIVE® industrial gear units. Each agitator with 4.5-metre agitator shafts is driven by a NORD industrial gear unit. The application uses a total of 16 ATEX-compliant gear units with a speed ratio of 123:1, powers of 37 kW and an output torque of almost 29,000 Nm. The biogas plant has been in operation for almost one year now. The Smits Group is satisfied. They already plan the construction of another biogas plant with eight fermenters to further increase their biogas volume. Once again with the participation of: Jongia and NORD.
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