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Honeywell and Google sign agreement to bring Gemini generative AI to industry

Google Gemini, Alphabet’s flagship generative AI, is being acquired by Honeywell to reduce maintenance costs, increase productivity and upskill employees by providing insights into massive data sets for industrial giants.

“Moving toward automation requires assets to work harder, people to work smarter and processes to operate more efficiently,” Honeywell CEO Vimal Kapur said in a statement announcing the partnership. Honeywell will begin providing AI insights to industrial customers in 2025.

Kapur recently told CNBC that the biggest problem AI can solve in the industrial sector is first and foremost a generational shortage of workers, with falling birth rates in industrialized countries leading to a smaller workforce for jobs that were popular 25 years ago. “Everyone in industry has this problem,” he said at a recent CNBC event on AI opportunities. Kapur told CNBC that with the help of an AI co-pilot, AI will enable an employee with five years of experience to work at the same level as an employee with 15 years of experience.

The AI ​​agents provided by Google will help engineers automate tasks and help technicians solve maintenance problems. Kapoor told CNBC at a recent event that Honeywell will soon embed connectivity in jet engines to enable predictive maintenance and reduce the time needed to work on the shop floor.

While AI is already being used in the industrial sector, the partnership will take it a step beyond current “AI point solutions,” Honeywell said, and will take AI “beyond simple chat and predictions” by connecting Google AI to the Honeywell Forge IoT platform.

Honeywell Forge, an IoT platform that contains information from Honeywell products’ industrial designs, manuals, and real-world performance, will leverage Google Cloud’s Vertex AI and Google’s large language models to build AI agents trained on that data.

“We are moving from automation to autonomy,” Suresh Venkatarayalu, Honeywell CTO and president of Honeywell Connected Enterprise, said in a Google blog post about the deal. “Our goal is to equip enterprises with AI agents that assist workers in real time — both on the factory floor and in the field.”

Workers can ask AI questions like “How did this department perform last night?” or “Why is my system making that sound?” according to the company.

Google AI will provide engineers with images, videos, text and sensor readings.

Carrie Tharp, vice president of strategic industries at Google Cloud, said in a blog post: “Industrial companies play a vital role in our daily lives, whether it’s the planes we fly, the medical devices we use, or the sensors that manage the air conditioning in our offices. As an entire generation of workers retires and, in many cases, there is no one to replace them, industrial companies are under tremendous pressure.”

Honeywell said the company is also exploring the use of Gemini Nano, a version of AI built into the device, to operate in locations such as data centers, hospitals, refineries and warehouses, especially in rural areas where internet connectivity may be problematic. Gemini Nano can provide AI directly on scanners, sensors and controllers to enable autonomous operations.

For AI giants like Google, getting industries across the economy to adopt AI is critical to turning capital-intensive technology into profitable opportunities. According to Honeywell, 82% of companies in the industrial sector that consider themselves AI leaders are lagging in adoption, and only 17% have fully launched initial AI programs.

Businesses in the economy also want their internal data to be as valuable as large language models like Gemini, which is the engine driving the next generation of AI. Hugging Face is one of the world’s most highly valued next-generation AI startups, with investments from Amazon, Nvidia and Google. “Data and datasets are the next frontier in AI,” said Clément Delangue, co-founder and CEO of the company, at the CNBC Evolve AI Opportunity event. He pointed out that more than 200,000 public datasets have been shared on the Hugging Face platform, which uses open source to develop AI models, and the data sets on the platform are growing faster than the growth of new large language models.

“The world will continue to evolve, and every company, every industry, and even every use case will have its own specific customized model,” said Delangue.

Siemens and Microsoft announced an AI agreement for the industrial sector late last year, which includes an AI co-pilot that can be used across industries.

Kapur believes that AI is a growth opportunity for the labor-starved industrial sector, which will bring new revenue opportunities rather than using it as a productivity tool first, and he is optimistic about the adoption curve quickly steepening. “Awareness is high, adoption is low, but there will be an inflection point,” he said at a recent CNBC AI event. “I do believe 2025-2026 will be a big year for AI adoption in the industrial sector.”
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Embraer CEO says aircraft maker studying possibility of new aircraft

Francisco Gomes Neto, CEO of Brazilian aircraft maker Embraer, told CNBC that the company is studying markets and new technologies that might warrant it building an all-new jet.

The new plane could help the planemaker compete with larger rivals Airbus and Boeing, which deliver hundreds of planes a year, while Embraer delivers just a few dozen.

But Gomes Neto noted that no decisions have been made.

“At this point, we have no concrete plans to launch a large narrow-body aircraft,” he said, adding that studies of new engine technology, avionics and potential demand “are yet to be prepared.”

Meanwhile, Gomes Neto said Embraer is focusing on improving performance and sales of its regional jets, which won an order from American Airlines earlier this year to build its E2 jet, and “delivering on our commitments to our customers.”

Embraer said on Friday it delivered 16 commercial aircraft in the third quarter, up more than 5% from the same period last year. Including defense and business aircraft, the company delivered 57 aircraft in the quarter, up a third from the same period last year.

Earlier this month, the Federal Aviation Administration (FAA) approved the freighter version of the E190 passenger-to-freighter aircraft, paving the way for its commercial launch.

“That’s probably our advantage: we have a great product,” Gomez Neto said.

Both Airbus and Boeing have struggled to increase production and deliver aircraft on time after the outbreak. Boeing also faces the additional challenges of a safety crisis and a mechanics strike.

Boeing had planned to take over Embraer’s commercial aircraft business but ended negotiations in early 2020. Last month, Embraer said Boeing would pay it $150 million for the failure of the plan.

Like its competitors, Embraer is also facing supply chain pressures brought on by the pandemic, and the company is taking a deeper look at its delivery capabilities.

Gomez Neto said engines, hydraulic valves, cabin interiors and their components are some of the areas where suppliers are struggling to increase production. He added that he expected supply chain issues could ease by 2026.
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Bently Nevada 1900/65A 167699-02 General Purpose Equipment Monitor

1900-65A General Purpose Equipment Monitor Datasheet

Description

The 1900/65A General Purpose Equipment Monitor is designed to continuously monitor and protect equipment that is used in a variety of applications and industries. The monitor’s low cost makes it an ideal solution for generalpurpose machines and processes that can benefit from continuous monitoring and protection.

Inputs

The 1900/65A provides four transducer inputs and four temperature inputs. Software can configure each transducer input to support 2- and 3-wire accelerometers, velocity sensors or proximity sensors. Each temperature input supports Type E, J, K, and T thermocouples, and 2- or 3-wire RTDs.

Outputs

The 1900/65A provides six relay outputs, four 4-20 mA recorder outputs, and a dedicated buffered output. The user can use the 1900 Configuration software to configure the relay contacts to open or close according to the OK, Alert and Danger statuses of any channel or combination of channels, and to provide data from any variable from any channel on any recorder output. The dedicated buffer output can provide the signal for each transducer input.

A Modbus Gateway option allows the monitor to provide static variables, statuses, event list, time and date information directly to any Modbus client, including Distributed Control Systems (DCSs), Supervisory Control and Data Acquisition (SCADA) systems, Programmable Logic Controllers (PLCs), or System 1 software. The monitor uses an internal counter and a Modbus client/master time reference to generate time and date information. Users can upgrade monitors without the Modbus Gateway by ordering the 1900/01 Communications Upgrade (see the Ordering Information section). The 1900/65A supports Modbus communications via Ethernet and a software-configurable RS232/485 serial port.

Configuration

The user defines monitor operation and the Modbus Gateway register map by using software running on a laptop or PC to create a configuration file and download the file to the monitor through the built-in Ethernet connection. The 1900/65A permanently stores configuration information in non-volatile memory, and can upload this information to the PC for changes.

Display Module

The 1900/65A supports an optional display/keypad to view channel information or make minor configuration changes. This allows the 1900/65A to operate as a stand-alone package. If desired, the user can mount the display up to 75 metres (250 feet) from the Monitor Module.
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Pressductor Pillowblock Load Cells Vertical Measuring PFCL201CE-50kN 3BSE006699D0005

Load Cells PFCL201CE-50kN 3BSE006699D0005

The load cells are installed under the roll bearings, where they measure forces at right angles to the mounting surface.

The reactive force from the strip, which is proportional to the strip tension, is transferred to the load cells via the roll and the bearings.

The load cells are connected to the control unit via a junction box. The control unit converts the load cell signals to DC voltages that are proportional to the reaction force. Depending on which control unit is chosen, it is possible to have the analog signals for the two individual load cells (A and B), the sum of the load cell signals (A+B), and/or the difference between the load cell signals (A-B).

Principle of Measurement

The load cell only measures force in the direction FR. The measurement force may be positive or negative. The load cell is normally installed under the roll bearings. When there is a strip in tension over the roll, the tension (T) gives rise to two force components, one in the direction of measurement of the load cell (FR) and one at right angles (FV).

The measuring force depends on the relationship between the tension (T) and the wrap angle formed by the strip around the measuring roll.

General

The load cell is machined from a single piece of stainless steel. The sensors are machined directly in the piece of steel and are positioned so that they are sensitive to force in the direction of measurement and insensitive in other directions.

The load cell is mounted on a base with four screws, and the bearing housing is mounted on top of the load cell with four screws.

Every load cell comes calibrated and temperature compensated.

The load cells PFCL 201C/201CE/201CD are available in four measurement ranges, all variants have the same external dimensions.

The load cell PFCL 201C is equipped with a connector for the pluggable connection cable.

The load cell PFCL 201CE has a fiWed connection cable with protective hose.

The load cell PFCL 201CD is provided with an acid-proof cable gland with a fiWed PTFE- insulated connection cable.

Accuracy and Accuracy Class

Accuracy class is defined as the maximum deviation, and is expressed as a percentage of the sensitivity at nominal load. This includes linearity deviation, hysteresis and repeatability error.

Linearity Deviation

Linearity deviation is the maximum deviation from a straight line drawn between the output values at zero load and nominal load. Linearity deviation is related to the sensitivity.

Hysteresis

Hysteresis is the maximum difference in the output signal at the same load during a cycle from zero load to nominal load and back to zero load, related to the sensitivity at nominal load. The hysteresis of a Pressductor transducer is proportional to the load cycle.

Repeatability error

Repeatability error is defined as the maximum deviation between repeated readings under identical

conditions. It is expressed as a percentage of the sensitivity at nominal load.

Compensated temperature range

The temperature drifts of the load cell have been compensated for in certain temperature ranges. That is the temperature range within which the specHfied permitted temperature drifts (i.e. zero point and sensitivity drifts) of the load cell are maintained.

Working temperature range

Working temperature range is the temperature range within which the load cell can operate within a specHfied accuracy. The maximum permitted temperature drifts (i.e. zero point and sensitivity drifts) of the load cell are not necessarily maintained in the whole working temperature range.

Storage temperature range

Storage temperature range is the temperature range within which the load cell can be stored.

Zero point drift with temperature

Zero point drift is defined as the signal change with temperature, related to the sensitivity, when there is zero load on the load cell.

Sensitivity drift with temperature

Sensitivity drift is defined as the signal change with temperature at nominal load, related to the sensitivity, excluding the zero point drift.

Compression

Compression is the total reduction in the height of the load cell when the load is increased from zero to the nominal value.
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Pressductor PillowBlock Load Cells PFCL201

These units are designed for strip tension measurement in applications where it is essential or advantageous to determine the vertical force component.

Machined from a single block of stainless steel, they have exceptionally high tolerance for overloads, shock and impact, in addition to high immunity to dust and corrosion.

The standard construction is of high resistant stainless steel with potted internal components. Mill-duty versions are available for exceptionally hostile environments in i.e. galvanizing or pickling lines.

Pressductor® Technology

The first Pressductor transducer was developed in Västerås, Sweden, in the early 1950’s and patented in 1954.

ABB’s well-known Pressductor® Technology is a measurement principle based on the magnetoelastic effect – the magnetic properties of a material are influenced by the mechanical force applied to it.

When exposed to mechanical force, ABB’s Pressductor transducer produces measurement signals as a result of changes in magnetic fields. (Move your mouse over the illustration to see these changes.) Because these signals are not contingent upon physical movement or deformation, the load cells combine sensitivity with extraordinary tolerance to overloads and virtually no built-in limit to the number of load cycles.

The ABB Pressductor transducers produces high-power, low-impedance AC signals that are very resistant to electrical interference and earth faults.

ABB’s Pressductor transducer stands for unbeatable load cell performance, thanks to its unique combination of accuracy, overload capacity and ability to withstand harsh environments. By using this technology you will achieve higher quality and reliability, especially under demanding conditions.
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Versatile and reliable – the AC 800PEC PVD164A2059 3BHE014340R2059 adapts to any application 

Seamless integration into plant control

In today’s demanding market, a controller must not only deliver maximum performance but also provide transparency. In this respect, the AC 800PEC provides a large range of possibilities. Integrated communication ensures transparent, plant-wide data exchange and control – from overall plant control down to separate processes.ABB PP D113 PPD113 3BHE023784R2630 B01-26-111000 Modbus RTU - Advanced Industrial Automation Solution

Use of ABB’s System 800xA with the powerful AC 800PEC controller permits uniform automation throughout the plant, seamlessly integrating advanced solutions into the process control system. Strict security procedures and effective firewalls prohibit unauthorized intrusions and ensure permanent system safety.

The AC 800PEC provides connectivity, using either native (built-in) or add-on functionality.

Native (depending on the configuration):

− MMS

− Modbus TCP Slave

− IEC61850

− ABB Powerlink

− ABB Drivebus (DDCS)

− Iba-PDA

− Optical Modulebus (S800)

− CANopen

Add-on:

− Using ABB CEX Modules:

− ABB Drivebus (DDCS)

− Profibus Master DPV1

− Modbus RTU

− S100 I/O

− Masterbus 300

Using Anybus modules:

− CANopen

− ControlNet

− DeviceNet

− Profibus Slave

− Profibus Slave DPV1

− Profibus Master DPV1

− Profinet I/O

− EtherCAT Slave

− Ethernet/IP

Well suited to a harsh environment – the AC 800PEC for traction

Traction with its particularly harsh environmental conditions is one of the most important applications of the AC 800PEC. The controller operates through a wide temperature range (– 40 to + 70 °C), with vibrations according to traction standards. The compact solution is the ideal response to the demands of restricted spaces and allows integration of the processing unit together with all the I/Os in the same compact hardware device.

Top reliability is a must – the AC 800PEC in power generation

Typically, excitation systems are used for generator control in power-plants where high reliability is the No. 1 requirement. Due to the very short process cycles, traditional redundancy concepts are no longer applicable.

The modular architecture of the AC 800PEC not only greatly reduces the complexity of the overall system, but thanks to redundant subsystems also provides increased reliability. In the case of a problem in one subsystem, the main controller switches over to the remaining subsystems, which are scaled in such a way that the overall task can still be fulfilled. Should the main controller fail, a second controller is available in hot-standby.

Precision for optimum quality – the AC 800PEC for industrial processes

The most demanding function in a rolling mill is thickness control. By using the powerful AC 800PEC controller and its ability to implement C-Code beside the standard IEC 61131-3 program level, a new thickness control solution for cold rolling mills has been developed based on an MIMO (MultiInput Multi-Output) control concept. The benefit to the customer is an improvement in thickness deviation by up to 50 percent.

What you simulate is what you implement Straightforward engineering workflow

In the traditional development process, system engineers would define the specifications, which software engineers would then interpret – a time-consuming and error-prone process that also reduced the likelihood that the resultant software would correspond to the original specifications and concept.

The AC 800PEC development workflow uses MathWorks® tools for model-based design as a single development platform for the entire development process.

Simulink® is used to run system simulations. Real-Time Workshop® then automatically generates and downloads controller code from the Simulink® models to the AC 800PEC controller, eliminating the need to translate the models manually into C-code.The use of Real-Time Workshop® allows interactive debugging of the software on the controller. Specification and code are synchronized throughout the development process by using Simulink® models as executable specifications. Parameters can be changed and optimized on the PC, and code can be generated automatically from the models and then transferred to the controller directly via an Ethernet connection.
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