Friday, 16 October 2026

New buildings for analytic leader.

Company expands capacity for development, production and sales of laboratory measurement technology.

Analytik Jena has inaugurated two new buildings in Jena and Ilmenau, Germany. The Endress+Hauser Group, to which the company belongs, invested a total of 96 million euros at the two sites in the federal state of Thuringia (D).

At its headquarters in Jena, Analytik Jena has constructed a new 19,000-square-meter building. The facility replaces an existing building on the company campus and provides around 420 employees with a modern working environment featuring production, warehouse, development, laboratory and office facilities. The investment amounted to approximately 64 million euros. The new building’s sustainable energy supply combines district heating, heat recovery systems and solar power.

At the production site in Ilmenau, a new facility of approximately 10,000 square meters was constructed for its 80-plus employees. The Endress+Hauser Group invested around 32 million euros in the project. The new building brings together development, laboratories, production and warehousing under one roof. Two business units that were previously located separately in Ilmenau will now work at the same site. The facility gets some of its energy from a photovoltaic system and a connection to a local biogas power plant.

“With these new buildings, we are investing in the future of Analytik Jena and creating the best possible conditions for innovation and collaboration. At the same time, we are laying the groundwork for growth and strengthening our position as a reliable partner for customers worldwide,” says Oliver Klaeffling, Managing Director of Analytik Jena. “At the same time, we are enhancing our ability to support customers around the world with our solutions.”

Dr Peter Selders, CEO of the Endress+Hauser Group, adds, “We aim to support our customers from the laboratory to industrial production. We are investing consistently in this strategy.” Steven Endress, President of the Supervisory Board of the Endress+Hauser Group, emphasized, “As a family-owned company, we think and act with a long-term perspective. The new buildings will strengthen two key sites for development and production.”

Analytik Jena develops, manufactures and markets solutions for combustion and total parameter analysis, elemental and trace element analysis, liquid handling and automation, as well as molecular biology systems for PCR and qPCR. These products help detect contaminants in water, ensure the quality of pharmaceutical products, and analyze metals, raw materials and other substances for their composition and purity.


• See also: Takeover of German analyser manufacturer completed.(1/4/2026)

@AnalytikJena_ @Endress_US @Endress_Hauser @Endress_UK #PAuto #Germany

Clamping screw.

Generates 25 tons of clamping force with only 130 Nm of tightening torque.

New investments should provide sustainable added value—for example, by simplifying and accelerating setup processes, reducing potential hazards, or creating more ergonomic workstations. Other desired benefits include longer tool life and improved product quality. Solutions that address several of these requirements simultaneously are particularly attractive. Jakob’s clamping elements often achieve this, thanks to their innovative and well-engineered internal design.

SC Power Clamping Screw.
Clamping Screw with Force Intensifier
At the heart of the SC power clamping screw lies a unique internal mechanism: a specially developed wedge-clamping system. This system acts as a powerful force multiplier, enabling extremely high clamping forces while requiring only low tightening torques. Its simple, manual operation ensures maximum operational safety.

The SC series of power clamping screws is suitable for a wide range of applications, including presses, stamping machines, machine tools, fixture construction, and the design of production equipment. Various sizes—featuring a range of thread diameters and clamping forces—allow for a selection tailored to specific needs.

Self-locking wedge-clamping system with versatile applications.
Thanks to their specialiaed geometry, SC clamping screws are self-locking in any clamping position and offer a clamping stroke of up to 3 mm. This ensures that clamping forces—up to the nominal value—can be reliably achieved, regardless of the tightening torque applied.

Maximum performance with simple operation.
In addition to the standard models—available with thread diameters of M36, M48, M64, and M80—Jakob also offers the special SC 100 version. It achieves a maximum clamping force of 250 kN with an M100 × 6 thread—all with a tightening torque of just 130 Nm.

Operation is simple, requiring only a 14 mm hex key (Allen key). For precise and reproducible clamping force values, the use of a torque wrench is recommended.

For specific requirements, custom-engineered threads can be provided upon request, allowing for the realisation of tailored, precision-fit solutions.

@UnnGmbh @PresseBox #jakobantriebstechnik #PAuto

Thursday, 15 October 2026

High-performance robots.

Meeting growing demand for high-speed and precision manufacturing, from electronics to automotive.

The industrial robot portfolio of ABB is being expanded with two new compact, high-performance robots, the IRB 1700 and IRB 1700ID, delivering up to 20% shorter cycle times than comparable robots on the market.

“Precision manufacturing across sectors from electronics, automotive, to general industries is facing the pres-sure to produce more, while maintaining quality and reducing operating costs,” said Craig McDonnell, Managing Director, Business Line Industries, ABB Robotics. “The IRB 1700 family addresses these challenges with a new level of speed, accuracy, reliability and energy efficiency. It gives manufacturers and system inte-grators a flexible platform for high-performance automation.”

Offering payloads from 6 kg to 12 kg across five variants and powered by OmniCoreTM controllers, the new robots help manufacturers increase productivity, with up to 20% shorter cycle times, and improve uptime and reduce operating costs, with up to 15% lower power consumption and service intervals of up to 20,000 hours between oil changes.

Precise path repeatability of down to 0.03 mm and joint speeds of up to 700 degrees per second make the new robots ideal for high-speed precision tasks such as material handling, arc welding, deburring, sanding, and machine tending. The high-performance robots are also suited to new electronics applications such as AI server rack assembly, meeting the surging demand for AI servers and computing.

The new robot offers a footprint 50% smaller than its predecessor, and for even greater packaging efficiency, the IRB 1700ID model features ABB Robotics’ Integrated Dressing (ID) design, routing cables and hoses inside the robot arm, simplifying installation across industrial applications.

The IRB 1700 family extends ABB Robotics’ comprehensive mechatronics portfolio and ABB Robotics’ development of more autonomous and versatile robotics (AVRTM), with access to an expanding portfolio of programming and AI-powered software, including RobotStudio®, AI Robot Trainer, OmniCore EyeMotion and automatic collision-free path planning.


@ABBRobotics @ABBgroupnews @abb_automation  @NapierPR #PAuto #Manufacturing

Wednesday, 14 October 2026

New-Generation Gas Detector range.

Comprises three models with Bluetooth-based configuration and maintenance tools.

The new-generation FREEDOM range of gas detectors has been unveiled by Teledyne Gas and Flame Detection. The series is designed for industrial sites where gas detection technologies must demonstrate reliable monitoring with minimal maintenance requirements.

Available in three models - FREEDOM GP, XP and Xi - the range provides detection solutions for applications spanning oil and gas, general industry, utilities, water treatment, laboratories and hazardous environments among others. Built around a common electronic architecture, the new FREEDOM series is designed to simplify servicing and standardize components - and reduce TCO across the product lifecycle.

“FREEDOM represents a step forward in providing customers with a gas detection solution that is both more intuitive and serviceable, as well as more cost-effective,” said Régis Prévost, Product Line Manager, Teledyne Gas and Flame Detection. “By combining a common platform with intelligent connectivity and features such as cartridge replacement under power in a hazardous area, without compromising certification compliance, we’re helping users maintain safety and operational continuity while reducing the demands of routine maintenance.”

With a broad selection of detection technologies and designs that withstand demanding operating conditions, the FREEDOM family is able to deliver user-friendly, reliable gas detection across diverse industrial environments. The FREEDOM Xi model, for example, is built to allow uninterrupted operation and optimal detection in the harshest domains. Another model, FREEDOM XP, is engineered for explosive atmospheres, meeting stringent performance and functional safety requirements that include SIL2/SC3 High Demand certification.

A key feature arrives courtesy of Teledyne Gas and Flame SYNC (GF Sync), a dedicated Bluetooth app that enables users to configure, calibrate and diagnose FREEDOM gas detectors directly from a mobile device. The app also supports automatic certificate generation, simplifying compliance and reporting while providing convenient access to essential functions.

Across the range, multicolor displays and peripheral LEDs provide clear visual indications of normal operation, faults and alarms, making detector status easier to identify at a glance.


@mepaxIntPR #TeledyneGFD #PAuto #Utilities 

New digitiser option.

A new firmware option that enables its high-resolution 59xx series digitisers to perform onboard summation averaging has been introduced by Spectrum Instrumentation. Averaging is a useful tool for reducing unwanted signal noise while, at the same time, improving measurement resolution, dynamic range, and signal-to-noise ratio (SNR). By performing the averaging directly in the onboard FPGA, the option significantly reduces the amount of data that must be stored or transferred for analysis. The result is a processing tool that allows the averaging of high-repetition-rate signals at up to 2 million events per second.

“This new option for the 59xx series provides an exceptional waveform averaging capability for users who need to characterise signals that may be masked or distorted by unwanted noise,” said Spectrum’s Director of Technology, Oliver Rovini. “The FPGA-based processing allows ultrafast averaging, even on waveforms that contain as many as 64 KiSamples per acquisition. It’s ideal for users working with signals or pulses that are low level, or where signal details are being lost due to high amounts of noise. This includes applications such as mass spectrometry, lidar, radio astronomy, automation, radar, biomedicine, nuclear physics, communications, sonar, and many more.”

The 59xx series digitiser range includes 24 PCIe card variants and 28 Ethernet-based instruments. The products offer maximum real-time sampling rates from 5 MS/s up to 125 MS/s, with 16-bit resolution and a choice of input channels ranging from 1 to 8 per PCIe card or from 4 to 48 per stand-alone instrument. Connecting the PCIe cards together with the company’s proprietary Star-Hub system also enables the creation of acquisition systems with up to 128 fully synchronised channels. The PCIe cards allow streaming of acquired data to PCs or GPUs over the bus at rates of up to 700 MB/s.

Summation averaging is a time-domain-based processing technique that reduces the random (uncorrelated) noise component of a signal and improves its signal-to-noise ratio (SNR). At the same time, the process increases a digitiser’s measurement resolution and dynamic range. Figure 2 illustrates how summation averaging can reveal signal details that would otherwise remain hidden by excessive noise.

Low level pulses are extracted from noise by averaging the waveform up to 64 times.

In the example, a low-level signal (approximately 300 µV) is acquired by an M2p.5962 digitiser sampling at 125 MS/s. The signal is completely buried by random noise (top trace). Averaging eight times (middle trace) reveals details invisible in the original single-shot acquisition, with three pulses that occur every 3.6 µs. Averaging 64 times (lower trace) improves the signal quality even further, exposing a pulse with an amplitude of approximately 300 µV, together with smaller pulses after it.

Ideally, if the noise is random while the signal is repetitive, then the summation averaging function can improve the SNR in proportion to the square root of the number of measurements (or averages). For example, averaging a signal 64 times may improve the SNR by as much as 12 dB or increase measurement resolution by around 2 bits. As such, summation averaging is a valuable tool that can be used to improve and extend the 16-bit resolution of the 59xx series digitisers. The new option, named M2p.xxxx-spavg, is available immediately for new 59xx series digitisers and can also be installed as a field upgrade on existing units.


@SpecInstruments @mepaxIntPR #TandM #PAuto #Laboratory

Identifying risks in graped and wine.

Researchers have demonstrated the ability to identify the complex chemical signatures emitted from grapes and wine to predict quality risks in wine production faster and more affordably than conventional methods.

Moët Hennessy, the wine and spirits division of LVMH, Analog Devices, Inc. (ADI), a global semiconductor leader, and University of California, Davis, a world-renowned leading research university, has announced a groundbreaking joint effort to deploy a new generation of technology aimed at enhancing wine quality and supporting the long-term vitality of vineyards.

The collaboration builds on a breakthrough technology that has its roots in early research at the Massachusetts Institute of Technology (MIT). Today, ADI continues to advance this technology platform for analysing chemical signatures across a broad range of applications and, together with teams from Moët Hennessy and UC Davis, is exploring its use in viticulture and winemaking. The joint effort aims to detect and interpret volatile chemical signatures emitted by grapevines, juice, and wine, giving viticulture and winemaking teams much earlier insights into biological processes and potential quality risks.

A world first demonstration: predicting Fresh Mushroom Aroma before it develops The collaboration’s first major achievement addresses one of the wine industry’s most complex quality challenges: Fresh Mushroom Aroma (FMA). Researchers at Moët Hennessy’s Robert-Jean de Vogüé Research Center have built a unique library of samples and associated data to train machine learning algorithms to recognise the chemical signatures associated with this quality risk.

For the first time, the technology successfully identified samples presenting an elevated risk of developing FMA at an early stage, well before the defect would traditionally be detected. This breakthrough creates entirely new possibilities for proactive quality management, enabling earlier interventions and fundamentally changing how quality risks may be monitored throughout the winemaking process.

Powered by ADI's sensing and machine learning platform, the system analyses a broad spectrum of chemical information and uses Ai to identify which signals matter most, revealing patterns that may otherwise go undetected. Rather than looking only for predefined conditions, the platform continuously learns from complex chemical data, enabling a deeper understanding of biological activity and emerging quality risks.

A technology platform with multiple future applications.
Beyond FMA, the organisations view this technology as a scalable platform for living systems analysis, with potential applications wherever biological processes generate meaningful chemical signatures that can be measured, interpreted and acted upon. Additional applications being researched include early detection of vine diseases, soil assessment, and identification of other defects, especially those linked to climate change and related events (e.g., wildfires).

The goal is to support, not replace, human expertise by equipping researchers, viticulturists, and winemakers with decision-support tools for earlier detection and deeper insights. The technology is designed to augment the expertise of growers and winemakers, providing additional information and context while preserving the craftsmanship, experience, and judgment that remain central to exceptional winemaking.

An international collaboration uniting technology, Ai and life sciences.
The effort combines complementary expertise from:

  • Moët Hennessy, the world leader in premium and super-premium wines and spirits
  • ADI, a global semiconductor leader that bridges the physical and digital worlds to enable breakthroughs at the Intelligent Edge; ADI Health Solutions, ADI’s business unit focused on developing Ai-driven solutions that contribute to the health of people and the planet
  • UC Davis, internationally recognised as a global leader in viticulture and enology

Together, the organisations aim to unlock new capabilities for observing, understanding and interpreting the complex grape and wine matrix in support of quality and resilience across the wine industry. Beyond this initial collaboration, ADI intends to make this technology broadly available for future industrial applications, while Moët Hennessy and UC Davis are exploring how shared reference libraries could benefit the wider grape and wine industry.

Manuel Reman, member of the Moët Hennessy Executive Committee, overseeing R&D, and Member of the Comité Champagne: "This breakthrough marks the beginning of a new chapter for viticulture and winemaking. We can rapidly detect and interpret the chemical language of grapes and wine to anticipate quality risks before they become visible. Beyond a technological achievement, this opens an entirely new way of understanding and working, one that will help us produce exceptional wines while building greater resilience for the future."

Max Shulaker, Chief of ADI's Health Solutions Business Unit: "This collaboration unites world-class expertise in cutting-edge Ai-enabled sensing systems and viticulture to accomplish something previously impossible: reading the chemical language that living systems emit themselves. By recognising these signatures before conventional methods can, this technology can help winemakers shift from reacting to quality risks to anticipating them. Our first breakthrough addresses Fresh Mushroom Aroma, but it marks the beginning of a much broader platform for understanding living systems, one that can improve quality and resilience in ways that are just now being explored and unlocked."

Ben Montpetit, Ph.D, UC Davis: "In the face of major global challenges, the continued advancement and resilience of the grape and wine sectors will depend on two things: better knowledge and people equipped to put that knowledge into practice. What is especially powerful about this collaboration is that we are advancing both. We are developing technology that can give viticulturists and winemakers the right information at the right time to make informed decisions, while also training the next generation of experts who will know how to interpret and act on those insights."


@ADI_News  @LVMH @ucdavis #Pauto #Food_Drink

Industrial Ai for energy agreement.

Seeq and Applied Computing, creator of Orbital, the first foundation model built for energy operations, today announced a commercial agreement that pairs Orbital's physics-grounded detection and diagnosis with Seeq's industrial intelligence platform. The partnership will enable operators to make better decisions that lead to measurable improvements in efficiency, emissions, and reliability across energy environments.

“By bringing together physics-based Ai and advanced industrial analytics, Applied Computing and Seeq can help operations teams turn complex data into faster, more robust decisions,”
said Dr. Lisa Graham, CEO of Seeq. “Both companies are committed to building and supporting an industrial Ai ecosystem for our customers, bringing the best innovations together to help the industries we serve adopt Ai more productively and scale more quickly.”

Under the agreement, Orbital identifies equipment and process issues across some of the most complex industrial systems , while Seeq provides decision intelligence through analytics capabilities that teams use to investigate those findings and visualise operational data. Together, the solutions will help customers use anomaly detection and root cause analysis, understand their operational context, and deliver insights that guide high-impact decisions and actions across both daily execution and strategic long-term outcomes.

The initial application will support INSITE , the digital platform from global science, technology and engineering solutions company KBR (NYSE: KBR) that provides technical and advisory services for operating plants, powered by Applied Computing's Orbital foundation model and serving the ammonia, petrochemical, LNG and oil and gas industries. Analysts at the KBR Innovation Studio Bengaluru will use Seeq to investigate anomalies identified by Orbital and create customer-facing reports and recommendations.

"Orbital was built to detect and diagnose issues in the world's most complex energy environments, and Seeq gives operations teams a powerful way to investigate, contextualise, and act on what it finds," said Dan Jeavons, President of Applied Computing. "This partnership closes the loop between physics-grounded Ai insight and the daily decisions that determine plant performance, and it reflects our shared commitment to an open industrial Ai ecosystem."

The companies also plan to explore a bidirectional integration between Orbital and Seeq, enabling shared context and more streamlined AI-driven investigations.


@SeeqCorporation #appliedcomputing #PAuto  #Ai #Energy