Around 100 engineers work at the location to develop complex product solutions for electric drive systems, actuators, and electric auxiliaries for vehicles with hybrid, hydrogen, or battery electric drives. MAHLE has invested mid-double-digit millions to set up the centre. At the start of the year, MAHLE founded a dedicated business unit for electronics and mechatronics. The technology group expects sales growth in this business segment to be well into double digits in the next 10 years.

“Our new mechatronics development centre is another important step in MAHLE’s technological transformation,” says Wilhelm Emperhoff, Member of the MAHLE Management Board and responsible for the Electronics and Mechatronics business unit. “It’s now particularly important that we develop the right know-how and portfolio so that we can emerge from the current crisis in a stronger position as an established technology and development partner in the automotive industry.” 

The new development facility in Kornwestheim joins MAHLE’s most important electronics and mechatronics development locations worldwide. At centres in Sempeter pri Gorici/Slovenia, Valencia/Spain, and Changshu/China, its engineers are working hard to drive forward the company’s research and development activities in this field.

Product innovations from Kornwestheim
The priority areas for the new development centre are mechatronics, electrics/electronics, and the programming and software needed for complex product solutions and systems. “Our work here will particularly focus on the development of complete systems. This is an area in which we have a lot of experience—experience that we can combine with our expertise in electric actuators and electronic controls to achieve optimum results,” says Dr. Armin Messerer, head of the global Mechatronics business segment. 

One example of a product solution in this field that has recently been developed at the location is the electric expansion valve (EXV). The EXV is used in refrigerant circuits to ensure that the air-conditioning system and the cooling of the traction batteries is optimally controlled. These components will go into series production starting in 2022 and can be used in vehicles with conventional combustion engines as well as in battery electric or hybrid applications. Products like this expansion valve can be comprehensively tested and validated in state-of-the-art test facilities, such as those now also located in Kornwestheim.

In its new technology centre, MAHLE has created modern office areas with open-plan workplaces, co-working and meeting areas, and redesigned social spaces. “The working environment reflects the latest findings in terms of safety at work and workplace design. It’s modern and flexible, and intended to encourage communication and creativity,” explains Messerer.

The post MAHLE sets up global development centre for mechatronics near Stuttgart appeared first on Artificial Intelligence.

Yokogawa has released the DLM5000, a new generation mixed-signal oscilloscope with options for four or eight analog inputs.

The new oscilloscope succeeds the previous eight-channel DLM4000 model. With redesigned hardware, the device provides major improvements in both performance and operability, incorporating a sampling rate double that of the previous model.

Created to be extremely adaptable and flexible, the device satisfies the precise demands of companies in industries such as automotive, aerospace, mechatronics, power electronics, railway and consumer electronics.

The device is excellent for developing high-performance and intelligent power-semiconductor technologies and mechatronics applied in modern electric vehicles, motor controls and energy-efficient electronic designs.

Terry Marrinan, VP sales and marketing Yokogawa Europe and South-East Asia, says: “With its eight analog channels and the ability to link up with other units, the DLM5000 sets a new standard in measurement flexibility. The large number of data points needed in the analysis of inverters, motors and mechatronic systems means that more channels are needed to capture that data. The Yokogawa DLM5000 meets the demands of today’s development engineers, giving them the features they need to analyse thousands of captured waveforms.”

The post Next-generation mixed signal oscilloscope provides major improvements appeared first on Artificial Intelligence.

The global He-Ne Laser market report offers complete overview of various aspects. The report includes the major market conditions across the globe such as the product profit, price, production, capacity, demand, supply, as well as market growth structure. In addition, this report offers significant data through the SWOT analysis and Porter’s five forces investment return data, and investment feasibility analysis. The Global He-Ne Laser Market study is major compilation of significant information with respect to the competitor details of this market.

Our best analysts have surveyed the market report with the reference of inventories and data given by the key players:

Olympus
Thorlabs
Holmarc Opto-Mechatronics
RP Photonics
LASOS
IDEX Health & Science
Lumentum Operations
PHYWE
CrystaLaser
Photonic Solutions
REO
Neoark

The Global He-Ne Laser market report covers deep insights of various vital aspects of the market. Report of He-Ne Laser provides the summarized study of several factors encouraging the growth of the market such as manufacturers, market size, types, applications, and regions. Likewise, to assess the market size, this study offers a precise analysis of the provider’s landscape as well as a corresponding detailed study about the manufacturers operating in the He-Ne Laser market. Moreover, in past few years owing to the new innovations and strategic ideas the He-Ne Laser market has recorded a significant development and is anticipated to further rise over the forecast period. Likewise, the information is also inclusive of the several regions where the global He-Ne Laser market has successfully gained the position.

The He-Ne Laser market report offers an in depth analysis about the cost structure, market size and PESTEL analysis which offers market outlook. Likewise, the global He-Ne Laser market report focuses on the major economies across the globe. Geographically, the He-Ne Laser market report covers the key regions and countries along with their revenue analysis. Using the report, consumer can identify several key dynamics of the market that holds an effective impact and govern. Moreover, the report is describing several types of He-Ne Laser market. Likewise, this report includes primary and secondary drivers, leading segments, market share, drivers, and the geographical landscape of the He-Ne Laser market. This study offers a separate analysis of the major trends in the existing market, mandates and regulations, micro & macroeconomic indicators is also comprised in the global He-Ne Laser market report. By doing so, the study estimated the attractiveness of every major segment during the prediction period.

Global He-Ne Laser Market Split by Product Type and Applications:

On the basis of Types:

He: Ne 5:1-8:1
He: Ne 8:1-15:1
He: Ne 15:1-20:1
Other
On the basis of Application:

Scientific Use
Commercial Use
Industrial Use
Military Use
Geographically, the detailed analysis of consumption, revenue, He-Ne Laser market share and growth rate, historic and forecast (2015-2026) of the following regions are covered-

– North America (USA, Canada and Mexico)
– Europe (Germany, France, UK, Russia and Italy)
– Asia-Pacific (China, Japan, Korea, India and Southeast Asia)
– South America (Brazil, Argentina, Columbia etc.)
– Middle East and Africa (Saudi Arabia, UAE, Egypt, Nigeria and South Africa)

The research report of global He-Ne Laser market comprises significant insights for the clients and vendors that are looking to maintain their market position as well as to expand the business in current and upcoming market scenario. Furthermore, the report provides the detailed study of the facts and figures, as viewer search for the scope in market growth related to the category of the product.

The global He-Ne Laser market report is designed through the detailed qualitative insights, verifiable projections, and historical data about the He-Ne Laser market size. This research report evaluates the market growth rate and the industry value on the basis of growth inducing factors, market dynamics, and other related data. Furthermore, report covers all the rule and regulations by government which are likely to impact on the market dynamics across the globe. In addition, government, policy makers and other regulatory associations are taking initiatives to promote the He-Ne Laser market. Hence, the study report on global He-Ne Laser market is beneficial for teachers, financial experts and other organizations.

The post GLOBAL HE-NE LASER MARKET 2020 VARIOUS MANUFACTURING INDUSTRIES appeared first on Artificial Intelligence.

Where is the fun in a pinball machine that can play itself? How about pancakes that can cook themselves?

For students in Kennesaw State University’s Department of Mechatronic Engineering, the intrigue is less about the act and more about what goes on behind the scenes to make it possible. From a fully automated pinball machine to a pancake vending system that can cook without human intervention, several student teams recently took full advantage of their senior capstone coursework to prove that engineering can be creative while practical.

Since its inception, the mechatronics engineering department has emphasized building physical prototypes for its senior capstone coursework, allowing students to pitch projects of their own or select one from a pool of industry sponsors, said Kevin McFall, associate professor of mechatronics engineering and assistant dean for research in the Southern Polytechnic College of Engineering and Engineering Technology. However, what makes the mechatronics capstone process distinct from others across the college is that the students can select the minimum success criteria for their project. This means each team creates their own criteria for judgement, reports it to their professors and is solely judged on those self-made parameters.

In order to pass, McFall said students must demonstrate their ability to build something that achieves the three fundamental principles of mechatronics engineering: sense, think and act. All projects must have a mechanical design, a way to acquire data from a series of sensors, some sort of programmable device and a way to control an actual moving part.

Some students, like student Tyler Gragg, embrace the freedom to generate a unique project. A self-declared pinball machine aficionado, Gragg has always felt the desire to build a machine of his own. When he pitched the idea to teammates Kevin Kamperman, Cody Meier and Omar Salazar Lima, they conceived a design that would allow the pinball machine to play itself using a video camera to detect when the ball enters the “flipper zone,” which then triggers the flippers to move automatically and keep the ball in play.

Following the spread of the coronavirus, the team worked with staff members in the Department of Architecture to fabricate final pieces while they remained off campus. Since most teams completed most of their design work and built their components in advance, they were able to the see their projects to completion amidst the changes caused by COVID-19.

For Tim Ervin, inspiration for his senior capstone project came in the form of a YouTube video in which a team of engineers cooked a four-foot pancake using a robotic arm. Rather than make an impractical and gargantuan pancake, teammate Jay Strickland suggested that they make something that can cook several smaller pancakes. Along with fellow former students Brittney Smith and Ryan McHale, they built what they call a pancake vending machine, which can accept digital payment in exchange for one perfectly cooked pancake.

The self-contained machine is able to dispense the correct amount of batter onto a griddle, and then, with a spatula attached to a robotic arm, flip the pancake for an even cook on each side. The entire process can be done in just five minutes.

The post Mechatronics projects mesh creativity with engineering appeared first on Artificial Intelligence.

Quetzal-1, the first Guatemalan satellite, developed by students, teachers, researchers, and graduates of the Universidad del Valle de Guatemala (UVG), will be launched into orbit next Tuesday, April 28, at 09:00 a.m. m. (Guatemala time). The CubeSat 1U satellite will be released from the Kibo module of the Japan Aerospace Exploration Agency (JAXA) and communication with it is expected to be achieved from the Control Center, located at UVG, at the time it orbits near Guatemala.

UVG will broadcast the preview of the satellite’s release on their social networks with interviews with team members. During the interviews, the lessons learned, achievements, challenges and stories that these six years of work have left will be discussed. The release can be seen in a live broadcast on JAXA’s official YouTube channel.

This project is one of the efforts of the Universidad del Valle de Guatemala to put science at the service of society. The competencies developed and put into practice by UVG students, graduates and researchers promote the local development of technologies, research and ventures with a view to creating a positive impact in the country.

“Personally, the most enriching aspect of this project is human capital because we are developing the next generation of engineers in the country and this will change history,” says Dr. Luis Zea, co-director of the project.

More than 100 people collaborated in this project, including students, teachers, engineers, and graduates of mechanical engineering, industrial mechanics, mechatronics, electronics, computing, and physics. The project seeks to train in Guatemala the human resources trained to develop and operate this type of satellites. The complexity of its development lies in the fact that more than 70% of the modules were developed at UVG by students and graduates.

A learning opportunity

This project is for educational, research and capacity building purposes for students of all levels. Since 2016, the project has been part of UVG’s agenda of taking knowledge outside the University with talks, lessons and presentations on the subject to students at the secondary and primary levels.

This event and the theme of the space is part of the lessons that UVG offers to all educational centres to work during this period of suspension of classroom classes. Thus, UVG ​​also seeks to motivate more children and young people to study science and engineering programs.

Transfer to space

The first Guatemalan satellite was transferred from Earth to the International Space Station (ISS) in the Dragon-powered capsule by the SpaceX-based Falcon 9 rocket on March 6, 2020, and was stored until programming of the launch.

This is the second satellite that, thanks to the support of the Japan Aerospace Exploration Agency (JAXA) and the United Nations Office for Outer Space Affairs (UNOOSA), will be launched into space through the KiboCube program.

The post The first Guatemalan satellite will be released into space appeared first on Artificial Intelligence.