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United Airlines to provide free Wi-Fi using Elon Musk’s SpaceX Starlink

United Airlines plans to use Elon Musk’s SpaceX’s Starlink to offer free in-flight Wi-Fi on hundreds of its jetliners, the company said Friday, marking the satellite service provider’s largest in-flight internet deal yet.

Currently, airlines have been investing in offering faster in-flight Wi-Fi, sometimes even for free, to attract high-income customers such as business travelers.

Delta Airways and Hawaiian Airlines announced in early 2023 that in-flight internet would be free to members of their SkyMiles loyalty program. JetBlue Airways, which has a deal with Starlink, also offers free in-flight Wi-Fi. It has been offering free Wi-Fi for years.

SpaceX also previously reached a deal with semi-private airline JSX.

Currently, United offers in-flight internet from a number of providers, including ViaSat as well as Panasonic, and charges loyalty program members $8 and everyone else $10 on domestic and short-haul international flights.

The airline said it expects more than 1,000 of its aircraft to be equipped with Starlink in the “next few years,” with the first passenger flights equipped with the service beginning early next year. United said Wi-Fi will provide “board-to-board” connectivity.

United praised SpaceX’s satellite service, saying it provides “global internet access, including oceans, polar regions and other remote areas previously unreachable by traditional cell or Wi-Fi signals,” a selling point for the U.S. airline with the most service in the Atlantic and Pacific Oceans.

Since its debut in 2020, SpaceX has been steadily expanding its Starlink network and product offerings. According to the company, there are currently about 6,000 Starlink satellites in orbit, connecting more than 3 million customers in 100 countries. SpaceX initially targeted consumer customers but has expanded into other markets, including aviation.

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Airlines, theme parks and cruise lines warn travelers of disruptions from Hurricane Milton

Airlines are canceling hundreds of flights, theme parks are preparing to close and cruise lines are rerouting as Floridians prepare for Hurricane Milton to make landfall.

The Category 4 storm, with top sustained winds near 145 mph, is expected to hit Florida’s west coast on Wednesday, NOAA said. More than 50 Florida counties are under a state of emergency.

Tampa International Airport suspended operations at 9 a.m. ET Tuesday and said it would “resume operations when it is safe to do so.”

Orlando International Airport will close at 8 a.m. Wednesday. Southwest Airlines, which has about a fifth of the market share in Orlando, has canceled 402 flights on Wednesday, according to FlightAware.

Orlando has more than 750 cancellations, more than 85% of flights scheduled for Wednesday, according to FlightAware. Most flights in and out of Tampa and Southwest Florida International Airport (to Fort Myers) were also canceled on Wednesday.

The airline is waiving change fees and fare differences for affected passengers. American Airlines and United Airlines added flights from Florida ahead of Milton’s expected landfall.

Disney will close its Orlando-area theme parks starting at 1 p.m. ET on Wednesday and they may remain closed Thursday, the company said Tuesday.

“We will consider opening Disney Springs with limited service late Thursday afternoon,” the company said.

Universal Orlando Resorts said Tuesday that Universal Studios Florida, Islands of Adventure and Universal CityWalk will close at 2 p.m. ET on Wednesday and remain closed Thursday.

United Parks said Busch Gardens Tampa will be closed Tuesday through Thursday and SeaWorld Orlando will be closed Wednesday and Thursday.

Revel warned customers that ports in Jacksonville, Tampa and Miami may close and that some routes and destinations will be changed to avoid the storm. aAirlines are canceling hundreds of flights, theme parks are preparing to close and cruise lines are rerouting as Floridians prepare for Hurricane Milton to make landfall. The Category 4 storm, with top sustained winds near 145 mph, is expected to hit Florida’s west coast on Wednesday, NOAA said. More than 50 Florida counties are under a state of emergency. Tampa International Airport suspended operations at 9 a.m. ET Tuesday and said it would “resume operations when it is safe to do so.” Orlando International Airport will close at 8 a.m. Wednesday. Southwest Airlines, which has about a fifth of the market share in Orlando, has canceled 402 flights on Wednesday, according to FlightAware. Orlando has more than 750 cancellations, more than 85% of flights scheduled for Wednesday, according to FlightAware. Most flights in and out of Tampa and Southwest Florida International Airport (to Fort Myers) were also canceled on Wednesday. The airline is waiving change fees and fare differences for affected passengers. American Airlines and United Airlines added flights from Florida ahead of Milton’s expected landfall. Disney will close its Orlando-area theme parks starting at 1 p.m. ET on Wednesday and they may remain closed Thursday, the company said Tuesday. “We will consider opening Disney Springs with limited service late Thursday afternoon,” the company said. Universal Orlando Resorts said Tuesday that Universal Studios Florida, Islands of Adventure and Universal CityWalk will close at 2 p.m. ET on Wednesday and remain closed Thursday. United Parks said Busch Gardens Tampa will be closed Tuesday through Thursday and SeaWorld Orlando will be closed Wednesday and Thursday. Revel warned customers that ports in Jacksonville, Tampa and Miami may close and that some routes and destinations will be changed to avoid the storm.
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GE Fanuc IC695MDL940 Digital I/O Module, Modular Control Systems

GE Fanuc / SBS / Greenspring IP-ENCODER-6 Manual

The Encoder-6 I/O module is accessed using the IndustryPack® I/O space. Each channel’s count can be read with a 16 bit wide read access. A single read access resets all the channel counters. The overflow, index, and up/down registers can be read indicating the state of each channel. A write to the overflow and index register command clears the state of all channels. The interrupt vector can be programmed by writing the register bits d1 thru d7, (d0 is automatically determined by which of the two interrupts is active.) Each of the channels interrupts may be masked by setting the interrupt mask register; the overflow and index register will have the channel’s bit latched asserted but will not cause an interrupt to the host.

Programming

The Encoder-6 module will in general be programmed in the following manner:

1. At initialization the channels will be reset to zero by reading to offset 0x0C. Both the overflow and index registers should also be cleared. If a virtual counter of greater than 16 bits is desired, set up an interrupt service routine for INTRQ0 to increment or decrement the virtual counter upon receipt of the interrupt. If indexing is implemented, setup an interrupt service routine for INTRQ1 that saves the counter, or resets the counter upon receipt of the interrupt.

1.B (Rev B only) A vector can be set to respond to those carrier boards that implement the interrupt acknowledge, IntSel*, signal. A byte value should be placed on the low 8 bits of the IndustryPack® data bus using the I/O write access to the address specified in Table 1. The vector is presented on the bus when the IntSel* access is done with the value in the lowest bit, d0, indicating whether Int0 or Int1 is being requested; low for Int0 and high for Int1. For example, if the vector 0xaa is configured, then an acknowledgment of Int0 will yield the vector 0xaa, while an acknowledgment of Int1 will yield the vector 0xab.

1.C (Rev B only) The overflow and index capture mask registers should be set so that only channels required to interrupt the host have their bits unmasked.

2. To read a counter, do a word wide read of the desired channel.

3. If the virtual counter is implemented, the interrupt service routine upon receiving the interrupt, reads the overflow register to see which channel overflowed, reads the up/down register to see if it overflowed up or down, updates the virtual counter, and then clears the overflow register. Note that when reading the overflow register all channels should be checked as two or more channels may have overflowed at the same time.

. If the index capture input is implemented, the interrupt service routine upon receiving the interrupt, reads the index register to see which channel or channels had its index input asserted, records or initializes the corresponding counter, and then clears the index register.

Notes: – The overflow and index input capture signals are latched into their corresponding registers and thus the registers must be cleared in the interrupt service routine. – The HCTL-2020 counters multiply the resolution of the input signals by four.
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3500-40M Proximitor Monitor

Description

The 3500/40M Proximitor Monitor is a four-channel monitor that accepts input from Bently Nevada proximity transducers, conditions the signal to provide various vibration and position measurements, and compares the conditioned signals with user-programmable alarms. The user can program each channel of the 3500/40M with the 3500 Rack Configuration Software to perform any of the following functions:

Radial vibration

Eccentricity

REBAM

Thrust positionBENTLY 3500/15 - Advanced Industrial Vibration Monitoring System

Differential expansion

The primary purpose of the 3500/40M Proximitor Monitor is to provide the following:

Machinery protection by continuously comparing monitored parameters against configured alarm setpoints to drive alarms

Essential machine information for both operations and maintenance personnel

Each channel, depending on configuration, typically conditions its input signal to generate various parameters called static values. You can configure alert setpoints for each active static value and danger setpoints for any two of the active static values.
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Schneider Electric: Laying the foundation for new industrialization with “artificial intelligence +”

Industry 4.0″, “new quality productivity”, “artificial intelligence +”… We are experiencing an era of productivity transformation. New quality productivity with technological innovation as the core and breaking the boundaries of industrial scenarios has emerged, and the important representative force is the development of artificial intelligence.

In March of this year, “artificial intelligence +” was written into the government work report for the first time, which means that China will accelerate the formation of new quality productivity with artificial intelligence as the engine. This coincides with Schneider Electric’s long-term layout of digitalization and intelligence. Schneider Electric firmly believes that putting AI technology into practical applications in the industrial industry will stimulate unlimited potential for the “advancement” of China’s industry.

With the continuous iteration and evolution of AI technology, how to play its value in the complex and changeable industrial field to promote the development of new quality productivity? What scenarios can make AI play its greatest role and realize the large-scale application of AI, thereby accelerating the new industrialization?

Efficiency evolution, exponential transformation of productivity

In the transformation from traditional industry to new industry In the process, creating tangible value with cutting-edge technology is the only way – Schneider Electric is further breaking down the barriers between IT and OT, penetrating into the entire life cycle of enterprises from design, construction to operation and maintenance, and putting AI technology into practice.

In the early R&D and design stages, Schneider Electric is using AI technology to innovate the traditional software development methods, such as using large models to assist in generating basic code and help check code integrity, saving engineers a lot of repetitive work, and injecting more vitality into the development of new technologies and new functions. In the key production and manufacturing stages, AI technology is used to help factories improve quality and efficiency, such as using AI intelligent decision-making to help coordinate multiple factors and formulate accurate production plans; using AI visual inspection to efficiently identify product defects and improve product quality. In the process of operation and maintenance management, Schneider Electric is using AI algorithms and machine learning to help companies efficiently manage assets and equipment, improve operational efficiency, optimize energy use, and help companies improve the efficiency and resilience of operation and maintenance.

It can be seen that whether it is visual recognition, machine learning, large language models, or generative AI, they have now penetrated into all aspects of the industrial production process. So what is the key to maximizing the value of AI scenarios?

In-depth scenarios, deep integration of technology and applications

The key to unleashing the potential of AI technology lies in promoting the integration and innovation of AI technology and actual application scenarios. As a “practitioner” and “enabler” of AI scenario applications, Schneider Electric is committed to deeply integrating AI technology with a series of vertical industry scenarios to enable production quality and efficiency:

Process optimization: Schneider Electric uses AI algorithms to formulate intelligent control strategies and provides a disruptive production line optimization solution for a beer manufacturer. By aggregating, analyzing, and sensitively monitoring the working conditions of the entire production data, and predicting and fine-tuning the optimal control strategy, it helps customers achieve 20% material savings and 15% production efficiency improvement while achieving safe and high-quality production.
Industrial full-process carbon reduction: In an application example of a chemical company, Schneider Electric deployed a customized machine learning model to monitor six carbon emission sources in a vacuum distillation unit. The model uses the AVEVA PI System operational big data management platform to analyze data streams every 5 minutes, providing timely feedback on potential deviations in CO2 emissions. This enables operators to respond quickly, investigate root causes, and make targeted adjustments to optimize processes and minimize CO2 emissions. The model is not only applicable to vacuum distillation units, but can also be migrated to different industrial processes.
Refined management of energy consumption: Schneider Electric provides a semiconductor company with an ice machine cooling capacity prediction solution. Based on AI algorithms, it accurately predicts the cooling capacity on the demand side based on the historical data of ice machine operation. Refined management of energy consumption is achieved through more accurate control of energy demand. Actual measured data shows that the solution has an energy saving effect of 3-5%. If hardware modification is provided, a comprehensive energy saving of 5-10% can be achieved.
Improved energy efficiency of air compressors: Schneider Electric uses AI intelligent algorithms to achieve optimized control and intelligent management of air compressor stations, helping companies significantly improve energy efficiency. In a station management system project of a new energy vehicle company, through data collection, modeling and analysis, the optimal operating parameter suggestions are provided for the factory’s integrated station air compressor station control system and HVAC control system, achieving control logic optimization and energy saving and efficiency improvement, so that the company can achieve twice the result with half the effort on the road to building an efficient, energy-saving modern and green factory.
Dynamic refrigeration efficiency improvement: In a HVAC energy-saving renovation project of a data center, Schneider Electric injected AI modeling and data analysis algorithms into traditional PID closed-loop control. Through modeling and data collection, accurate prediction, optimization solution and strategy output, the terminal precision air conditioner in the computer room is optimized to dynamically output refrigeration according to actual needs. At the same time, the cold station control system is globally optimized to achieve 31% power saving of the terminal air conditioning system, and the cold station refrigeration efficiency is expected to increase by 20%.
Predictive maintenance: The equipment fault prediction and diagnosis system based on vibration mechanism + mathematical model, combined with the process mathematical model fault diagnosis tool, can not only help users diagnose mechanical aging and wear problems, but also diagnose equipment failures caused by electrical faults or process changes for users. Schneider Electric’s Xiamen factory has deployed an AI-based predictive maintenance solution for vacuum furnace equipment, enabling real-time data monitoring of equipment status 24 hours a day, 7 days a week throughout the year, and scheduling equipment maintenance according to prediction curves, saving approximately RMB 1.2 million in maintenance costs each year.With the rapid development of digital technologies such as artificial intelligence, the global industry is undergoing major changes. Schneider Electric will continue to be innovation-driven, promote the deep integration of AI technology with specific application scenarios in more industries, and work with more partners to create industry influence and move towards a smarter, innovative and sustainable future industry.
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ABB launches new SIL2 certified NINVA™ for safer and simpler temperature measurement

Enhanced NINVA™ TSP341-N is the first non-invasive temperature sensor with SIL2 certification

To meet customer demand for simpler and safer temperature measurement, NINVA™ reduces the installation and maintenance costs of the protection tube without affecting the measurement performance

Quick installation and no protection tube testing means savings of up to 75% and lower operating costs

ABB has launched the enhanced NINVA™ TSP341-N non-invasive temperature sensor, providing safer and simpler temperature measurement for chemical, oil and gas industry applications. The new NINVA is the first non-invasive temperature sensor with SIL2 certification and is the safest non-invasive temperature measurement sensor on the market.

ABB’s innovative non-intrusive temperature sensor technology, with proven performance over the past few years, offers an alternative solution to traditional invasive thermowells, greatly simplifying temperature measurement.

Using the surface temperature of the pipe to infer the process temperature, NINVA™ offers the same accuracy and performance as invasive measurement devices, while avoiding the risks and lifecycle costs associated with design, installation and maintenance.

The SIL2 certified NINVA TSP341-N is based on the proven TTH300 temperature transmitter and offers a range of new features based on customer feedback. These include a unique split-mount capability, enhanced vibration resistance, optional configuration for applications up to 550°C (1022°F), and simpler calibration and maintenance through a removable sensor measuring insert with independent sensor calibration and zeroing capabilities. Without sacrificing accuracy and performance, NINVA™ eliminates complex thermowell designs for small pipes by adopting a precise clamping method for different pipe diameters from 40mm to 2500mm and less than 40mm.

“The market for non-intrusive process measurement is being driven by customers,” said Dr. Guruprasad Sosale, ABB’s Measurement & Analytics business unit. “As the need for sensing continues to grow, professionals in the global chemical, oil and gas industries see the value of this technology, which provides them with more detailed information about their processes without having to stop the process or cut the pipe. By turning a section of process pipe into a temperature measurement point, NINVA™ gives plant operators a simpler and safer way to measure process temperature without compromising performance – no downtime, no holes to cut, and significantly simplifies engineering.”

NINVA™’s rugged clamp-on mounting eliminates the risks, inspections and administrative costs associated with maintaining welded mounting connections. By eliminating the need to drill holes in the pipe wall, NINVA™ eliminates potential leaks and reduces points of failure during plant commissioning. Even for the simplest temperature measurement points in a plant, NINVA™ provides a more cost-effective measurement solution, reducing expenditure, administration, installation and commissioning costs by up to 75%.
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