How Robots Are Helping The Environment – Emagazine.com – E/The Environmental Magazine

Robots dont always get a good rep. Theyre depicted in sci-fi movies taking over the world or (more immediately) taking peoples jobs. The truth is, we owe a lot to robots and the people who create them. They do a world of goodquite literallyso its about time they get their due. Lets dive into how were using robotics to help the environment and save the planet.

Stated by Ecorobotics, bots can be used to clean up oil spills and fight biofouling. Some of them can even ingest microbes and turn them into energy. A robot can function for months using this method, and generates more energy than it consumes. In non-oil-related cleanup efforts, robots can be used to collect plastic wastea dire need for our polluted oceans. Robots are slowly helping us reverse this danger.

Humans constantly produce waste that needs to be disposed of in an environmentally friendly way. Automating waste treatment and recycling procedures can help reduce carbon dioxide emissions that come from these procedures. They can help sort recycled materials more quickly than humans, too, so the products can be put to use sooner.

Robots can also collect sludge and waste materials from industrial tanksa much safer and efficient alternative to a human employee scrubbing toxic material. They can remove waste and transport it to an appropriate place so it doesnt seep into our water supply or soil.

Planting trees helps stop climate change by removing carbon dioxide from the air and releasing oxygen into the atmosphere. Engineers are focusing on robotics that plant fully grown treesrather than seedlingsbecause they have a better chance of survival. Forests are incredibly important. Not only do they clean the air, but they also create a thriving habitat for animals; theyre critical to a healthy food chain and ecosystem. Deforestation can easily upset the balance, and robots are helping us prevent this.

Robots are helping to prevent soil erosion as well. Normally, sheet piles are driven into the ground with a pile driver. The process is loud, dangerous for surrounding structures, and requires lots of toxic pollutants to complete the job. With new, eco-friendly vibrational mechanisms, sheet piles can be driven into the ground using minimal gas and energy.

Special bots also help with soil sustainability. They are able to detect chemical levels in the soil so that humans can assess and take proper measures to protect it. Identifying the problem is the first step to a solution, after all.

When we combine the efforts of people and robots in just the right way, we can save the environment. Our world is our only homewe can show it some love by using man-made solutions to clean up our man-made messes, protecting it for the future.

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How Robots Are Helping The Environment - Emagazine.com - E/The Environmental Magazine

GreenPower and Perrone Robotics Deliver Nation’s First Fully Autonomous EV Star to Jacksonville Transportation Authority – PRNewswire

The JTA is currently working with local colleges, medical campuses, and other partners to create the nation's first public transportation network powered by autonomous vehicles. GreenPower's fully autonomous EV Star, developed in collaboration with Perrone Robotics, is expected to enter service in February 2021 after an initial calibration period.

Introducing GreenPower's AV Star: Click Here

Brendan Riley, President of GreenPower commented, "We are seeing a dramatic increase in autonomous vehicle demand and this vehicle demonstrates the compelling marriage of advanced technologies with the customer's own unique requirements. An autonomous vehicle like our EV Star really opens the door for other automated applications, such as delivery services, and we really see a wide-open market. With a fully autonomous EV Star, GreenPower can lead the way in this exciting, disruptive space."

Ryne Shetterly, VP of Sales and Marketing at GreenPower added, "The collaboration between Perrone Robotics and GreenPower Motor Company has proved successful and we are excited to deliver the first unit to JTA." Shetterly continued, "As a result, we are in the process of building a second unit in partnership with both First Transit and Perrone Robotics for a nationwide sales demo tour scheduled to begin in March 2021. First Transit is one of the leading transit solutions providers to transit properties all across country and this tour will allow GreenPower to leverage their reach and influence within the space."

About GreenPower Motor Company Inc.GreenPower designs, builds and distributes a full suite of high-floor and low-floor vehicles, including transit buses, school buses, shuttles, a cargo van and a double decker. GreenPower employs a clean-sheet design to manufacture all-electric buses that are purpose built to be battery powered with zero emissions. GreenPower integrates global suppliers for key components, such as Siemens or TM4 for the drive motors, Knorr for the brakes, ZF for the axles and Parker for the dash and control systems. This OEM platform allows GreenPower to meet the specifications of various operators while providing standard parts for ease of maintenance and accessibility for warranty requirements. For further information go to http://www.greenpowerbus.com

Forward-Looking StatementsThis document contains forward-looking statements relating to, among other things, GreenPower's business and operations and the environment in which it operates, which are based on GreenPower's operations, estimates, forecasts and projections.Forward-looking statements are not based on historical facts, but rather on current expectations and projections about future events, and are therefore subject to risks and uncertainties which could cause actual results to differ materially from the future results expressed or implied by the forward-looking statements. These statements generally can be identified by the use of forward-looking words such as "upon", "may", "should", "will", "could", "intend", "estimate", "plan", "anticipate", "expect", "believe" or "continue", or the negative thereof or similar variations. These statements are not guarantees of future performance or are beyond GreenPower's control. A number of important factors including those set forth in other public filings (filed under the Company's profile on http://www.sedar.com)could cause actual outcomes and results to differ materially from those expressed in these forward-looking statements. Consequently, readers should not place any undue reliance on such forward-looking statements. In addition, these forward-looking statements relate to the date on which they are made. GreenPower disclaims any intention or obligation to update or revise any forward-looking statements whether as a result of new information, future events or otherwise.

Neither the TSX Venture Exchange nor its Regulation Services Provider (as that term is defined in the policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release. 2020 GreenPower Motor Company Inc. All rights reserved.

SOURCE GreenPower Motor Company

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GreenPower and Perrone Robotics Deliver Nation's First Fully Autonomous EV Star to Jacksonville Transportation Authority - PRNewswire

Carlotta Berry’s talk Robotics Education to Robotics Research (with video) – Robohub

A few days ago, Robotics Today hosted an online seminar with Professor Carlotta Berry from the Rose-Hulman Institute of Technology. In her talk, Carlotta presented the multidisciplinary benefits of robotics in engineering education. In is worth highlighting that Carlotta Berry is one of the 30 women in robotics you need to know about in 2020.

This presentation summarizes the multidisciplinary benefits of robotics in engineering education. I will describe how it is used at a primarily undergraduate institution to encourage robotics education and research. There will be a review of how robotics is used in several courses to illustrate engineering design concepts as well as controls, artificial intelligence, human-robot interaction, and software development. This will be a multimedia presentation of student projects in freshman design, mobile robotics, independent research and graduate theses.

Carlotta A. Berry is a Professor in the Department of Electrical and Computer Engineering at Rose-Hulman Institute of Technology. She has a bachelors degree in mathematics from Spelman College, bachelors degree in electrical engineering from Georgia Institute of Technology, masters in electrical engineering from Wayne State University, and PhD from Vanderbilt University. She is one of a team of faculty in ECE, ME and CSSE at Rose-Hulman to create and direct the first multidisciplinary minor in robotics. She is the Co-Director of the NSF S-STEM Rose Building Undergraduate Diversity (ROSE-BUD) Program and advisor for the National Society of Black Engineers. She was previously the President of the Technical Editor Board for the ASEE Computers in Education Journal. Dr. Berry has been selected as one of 30 Women in Robotics You Need to Know About 2020 by robohub.org, Reinvented Magazine Interview of the Year Award on Purpose and Passion, Women and Hi Tech Leading Light Award You Inspire Me and Insight Into Diversity Inspiring Women in STEM. She has taught undergraduate courses in Human-Robot Interaction, Mobile Robotics, circuits, controls, signals and system, freshman and senior design. Her research interests are in robotics education, interface design, human-robot interaction, and increasing underrepresented populations in STEM fields. She has a special passion for diversifying the engineering profession by encouraging more women and underrepresented minorities to pursue undergraduate and graduate degrees. She feels that the profession should reflect the world that we live in in order to solve the unique problems that we face.

You can also view past seminars on the Robotics Today YouTube Channel.

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Carlotta Berry's talk Robotics Education to Robotics Research (with video) - Robohub

TOP 10 robotic and artificial intelligence stories of 2020 – Designboom

in 2020, robotics and their artificial intelligence truly became humans best friends and even saviors in many instances. the bots proved to be more than just cool gadgets; they evolved to step in as doctors, law-enforcement and builders as the world was and still is battling to understand, control and live with COVID-19. our TOP 10 robotic and artificial intelligence stories of 2020 highlight these moments of positivity. they showcase our smart technologies in function, from artistic, musical and conceptual through to the down-right practical.

continuing ourTOP 10round-ups of 2020, we look back at 10 virtual and augmented reality stories that attracted our and, most importantly, designboom readers attention over the past 12 months.

images via bas uterwijk

based in amsterdam, bas uterwijk is a freelance photographer that uses GAN (generative adversarial network) to generate hyper-realistic portraits of famous historical figures.trained with thousands of photographs, these deep learning networks are able to generate photographs that look at least superficially genuine to the human eye. from michelangelos david and napoleon to the statue of liberty, uterwijk usesartificial intelligenceto create photography-type images that might give us an idea of how these people really looked like.

image courtesy of UVD robots

out TOP 10 robotic and artificial intelligence stories of 2020 needed to include our battle against coronavirus. as the world was faced with the initial challenge of COVID-19 as the pandemic first started robots began to be designed to help the fight by disinfecting hospital rooms with concentrated UV light.developed by danish companyUVD robots,the autonomous machines are used as part of regular cleaning cycles and are extremely helpful at preventing and reducing the spread of infectious diseases, viral infections, bacteria and other types of harmful organic microorganisms in the environment by breaking down their DNA-structure.

image courtesy of BBT

the business breakthrough university in tokyo, who werent allowed to have a traditional graduation ceremony due to coronavirus, used remote controlled robots to hold a virtual graduation. also referred to as avatar robots, students called into the ceremony using video-conferencing tool zoom to display their faces on the mobile devices. the newme telepresence robots were designed byANA group and work as remotely controlled, customizable avatars. the robots, which were dressed in typical graduation caps and gowns, used tablets in place of the face allowing the students to see one another.

screenshot the strait times

as a bot that featured many times throughout 2020, the boston dynamics spot dog was a must-feature in our TOP 10 robotic and artificial intelligence stories of 2020. the brand explored its many different uses: first we reported how the dog bot is protecting frontline healthcare workers by helping doctors treat infected patients by minimizing their exposure; then, the strait timespublished a video of how singapore is deploying them at the bishan-ang mo kio park to remind visitors of safesocial distancingmeasures.

image aaron hargreaves / foster + partners

architecture firmfoster + partners has also been using spot boston dynamics agile robot dog as a tool to capture and monitor construction progression on-site.the two companies have been working together to explore the potential of a robot in a dynamic environment such as a construction site, capturing changes on a regular basis, and being able to easily compare the as-designed models against the as-built reality.

image bylucianr/ BIG

terminus group, a chinese technology firm,unveiled a design by bjarke ingels groupfor its future headquarters in chongqing,china.named AI CITY, the development will be dedicated to terminus aspirations in the fields ofartificial intelligenceof things (AIoT),robotics, networking, and big data. the first phase of the hi-tech campus, dubbed cloud valley, takes inspiration from the regions undulating landscape.

edge innovations a san francisco-based design, development, and production studio has delivered some of the worlds most innovative, technical and artistic creations to visionaries including james cameron andfrank gehry.the team, led by formerwalt disney imagineeringcreatives, has been working on a hyper-realroboticdolphin intended on reimagining the entertainment, educational, and business potential of the marine animal industry. these real-time animatronics (or mechatronic puppets) bring together live puppeteering, programmed behavior, andartificial intelligenceto create a totally unique experience.

image courtesy of microsoft

bjrk collaborated with microsoft to create AI-generated music based on on the changing weather patterns and position of the sun. called krsafn, which means choir archive in icelandic, the composition will be played continuously in the lobby of sister city, a hotel in new yorks lower east side that opened in the spring of 2019.krsafn uses sounds from bjrks musical archives, which she has compiled over the last 17 years, to create new arrangements.

images courtesy of neofect

koreon start-up neofect developed a roboticglove which can help patients suffering from paralysis for grabbing and picking up the product prototype, named neomano, is a smart glove designed to help those rehabilitating after a stroke and spinal cord injuries (SCI).SCI can cause weakness or complete loss of muscle function and loss of sensation in the body below the level of injury, among others.

image courtesy ofpixabay

our TOP 10 robotic and artificial intelligence stories of 2020 would not be complete without mention of the black lives matter movement. a giant gundamrobot showed its first signs of life in footage shared on social media. modeled after a character from mobile suit gundam, a 1979 televised anime series, the 18-meter-tall (59 ft) robot has been under construction in the japanese city of yokohama for years. filmed at the gundam factory yokohama, the speeded-up video shows the automaton taking a knee before demonstrating its ability to move its arms, hands, and fingers.

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TOP 10 robotic and artificial intelligence stories of 2020 - Designboom

Global Industrial Robotics Market Outlook Report 2020-2027 with COVID-19 Impact Insights on the $100+ Billion Industry – GlobeNewswire

Dublin, Dec. 18, 2020 (GLOBE NEWSWIRE) -- The "COVID-19 Impact on Industrial Robotics - Global Market Outlook (2019-2027)" report has been added to ResearchAndMarkets.com's offering.

Global Industrial Robotics market accounted for $39.64 billion in 2019 and is expected to reach $101.72 billion by 2027 growing at a CAGR of 12.5% during the forecast period.

Some of the key factors propelling the market growth include Dearth of skilled labor and solicitation of proposals by governments, public-private companies to mitigate the adverse impact of COVID-19, increasing investments for innovations and automation in industries. However, high installation cost of industrial robots, especially for small and medium-sized enterprises is likely to hamper the market.

An industrial robot is a robot system used in manufacturing industries. These are automated, programmable and capable of movement on three or more axis. In simple terms, it is described as a programmable, mechanical device used in place of a person to perform dangerous or repetitive tasks with a high degree of accuracy. They are designed specifically for different applications such as welding, painting, assembly, pick and place for printed circuit boards, packaging and labeling, palletizing, product inspection, and testing in manufacturing industries.

By end user, automotive segment is anticipated to grow at the significant rate during the forecast period. The automotive industry continues to use industrial robots in their assembly line. The industry has seen the most extensive use for robots in manufacturing and assembling components such as engines, chassis, axles, and brakes. The automotive industry is one of the largest users of industrial robots; however, the market is expected to be severely affected due to the COVID-19 pandemic. The pandemic has hindered production and significantly reduced consumer demand. Due to this, vehicle manufacturers are expected to reduce their investments in automation, affecting the market for industrial robots.

On the basis of geography, APAC is projected to have considerable market growth during the forecast period, owing to decrease in the sales of industrial robots in countries like China due to the falling demand from the automotive sector and the effects of the US-China trade war. The automotive and electrical & electronics industries are the most important drivers for traditional industrial robots in APAC. Although China is expected to witness a decline in growth from 2020 onwards, due to trade restrictions and the COVID-19 pandemic, it is still likely to remain a significant market in APAC.

Some of the key players in the Industrial Robotics Market include FANUC, KUKA, Omron Adept, Doosan Robotics, ABB Group, Yaskawa Electric Corporation, Durr AG, Cyberdyne, Stryker, Kawasaki Heavy Industries Ltd., Mitsubishi Electric Corporation, B+M Surface Systems, Bosch Group, General Electric, Northrop Grumman, Denso Corporation, Nachi-Fujikoshi Corp., Seiko Epson Corporation, Panasonic Corporation, and Yamaha Motor Co., Ltd.

What the Report offers:

Key Topics Covered:

1 Executive Summary

2 Preface2.1 Abstract 2.2 Stake Holders 2.3 Research Scope 2.4 Research Methodology 2.5 Research Sources

3 Market Trend Analysis3.1 Introduction 3.2 Drivers 3.3 Restraints 3.4 Opportunities 3.5 Threats 3.6 End User Analysis 3.7 Emerging Markets 3.8 Impact of Covid-19

4 Porters Five Force Analysis4.1 Bargaining power of suppliers 4.2 Bargaining power of buyers 4.3 Threat of substitutes 4.4 Threat of new entrants 4.5 Competitive rivalry

5 Global COVID-19 Impact on Industrial Robotics Market, By Type5.1 Introduction 5.2 Traditional Industrial Robots 5.2.1 Parallel/Delta Robots 5.2.2 Cartesian/Gantry/Linear Robots 5.2.3 Articulated Robots 5.2.4 SCARA Robots 5.3 Vacuum Robotics 5.4 Laser Processing Robotics 5.5 Automated Guided Vehicles (AGVs) 5.6 Collaborative Robots 5.7 Other Robots 5.7.1 Swing Arm 5.7.2 Cylindrical 5.7.3 Spherical

6 Global COVID-19 Impact on Industrial Robotics Market, By Function6.1 Introduction 6.2 Material Handling 6.3 Cutting and Processing 6.4 Assembling & Disassembling 6.5 Painting & Dispensing 6.6 Soldering & Welding 6.7 Milling & Grinding

7 Global COVID-19 Impact on Industrial Robotics Market, By Configuration7.1 Introduction 7.2 Mobile Robots 7.3 Mounted Robots

8 Global COVID-19 Impact on Industrial Robotics Market, By Payload8.1 Introduction 8.2 0-20 KG 8.3 20-80 KG 8.4 80-300 KG 8.5 300-1000 KG 8.6 1000-3000 KG

9 Global COVID-19 Impact on Industrial Robotics Market, By Component9.1 Introduction 9.2 End Effector 9.3 Drive 9.4 Sensors 9.5 Power Supply 9.6 Motors 9.7 Robot Controller Unit 9.8 Robotic Arm

10 Global COVID-19 Impact on Industrial Robotics Market, By End User10.1 Introduction 10.2 Precision Engineering and Optics 10.3 Pharmaceuticals and Cosmetics 10.4 Automotive 10.5 Electrical and Electronics 10.6 Metals and Machinery 10.7 Chemicals, Rubber, and Plastics 10.8 Food & Beverages 10.9 Construction 10.10 Home Appliances 10.11 Agriculture

11 Global COVID-19 Impact on Industrial Robotics Market, By Subsystem11.1 Introduction 11.2 Software 11.3 Robot Machines 11.4 Peripherals & System Engineering

12 Global COVID-19 Impact on Industrial Robotics Market, By Geography12.1 Introduction 12.2 North America 12.2.1 US 12.2.2 Canada 12.2.3 Mexico 12.3 Europe 12.3.1 Germany 12.3.2 UK 12.3.3 Italy 12.3.4 France 12.3.5 Spain 12.3.6 Rest of Europe 12.4 Asia Pacific 12.4.1 Japan 12.4.2 China 12.4.3 India 12.4.4 Australia 12.4.5 New Zealand 12.4.6 South Korea 12.4.7 Rest of Asia Pacific 12.5 South America 12.5.1 Argentina 12.5.2 Brazil 12.5.3 Chile 12.5.4 Rest of South America 12.6 Middle East & Africa 12.6.1 Saudi Arabia 12.6.2 UAE 12.6.3 Qatar 12.6.4 South Africa 12.6.5 Rest of Middle East & Africa

13 Key Developments13.1 Agreements, Partnerships, Collaborations and Joint Ventures 13.2 Acquisitions & Mergers 13.3 New Product Launch 13.4 Expansions 13.5 Other Key Strategies

14 Company Profiling14.1 FANUC 14.2 KUKA 14.3 Omron Adept 14.4 Doosan Robotics 14.5 ABB Group 14.6 Yaskawa Electric Corporation 14.7 Durr AG 14.8 Cyberdyne 14.9 Stryker 14.10 Kawasaki Heavy Industries Ltd. 14.11 Mitsubishi Electric Corporation 14.12 B+M Surface Systems 14.13 Bosch Group 14.14 General Electric 14.15 Northrop Grumman 14.16 Denso Corporation 14.17 Nachi-Fujikoshi Corp. 14.18 Seiko Epson Corporation 14.19 Panasonic Corporation 14.20 Yamaha Motor Co., Ltd.

For more information about this report visit https://www.researchandmarkets.com/r/u6nkmr

Research and Markets also offers Custom Research services providing focused, comprehensive and tailored research.

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Global Industrial Robotics Market Outlook Report 2020-2027 with COVID-19 Impact Insights on the $100+ Billion Industry - GlobeNewswire

Going retro: A perspective on robotic retroperitoneal renal surgery – Urology Times

The majority of the literature on urologic robotic surgery centers around the transperitoneal approach. However, the robotic retroperitoneal approach is gaining momentum. The minimally invasive retroperitoneal approach to renal surgery was initially developed in the 1990s by urologists performing laparoscopic nephrectomies for benign conditions.1 They found that patients undergoing retroperitoneal laparoscopic nephrectomy resumed normal oral intake faster and had a trend toward lower postoperative narcotic requirements compared to their transperitoneal counterparts. Other groups adopted this technique and demonstrated shorter operative time,2,3 warm ischemia time, and hospital stay.3 However, the challenge of laparoscopic suturing in the retroperitoneal space may have prevented the widespread adoption of this approach. In the 2000s, urologists quickly embraced the robotic platform and now routinely perform robotic renal surgery employing the benefits of instrument articulation and 3D view.

These improvements in robotic technology have reinvigorated interest in retroperitoneal access for renal surgery. The robotic retroperitoneal approach again has been shown to decrease the length of hospital stay,4-6 decrease intraoperative blood loss,4,5 and shorten operative time.5,7 It offers direct access to the kidney without the need to mobilize the bowel and provides an avenue for urologists to avoid the hostile abdomen of a patient with prior abdominal surgery.8 Barriers to learning this technique may include the different perspective of hilar and renal anatomy, the smaller working space, and unfamiliarity with positioning, access, and docking the robot. However, once these are overcome, the benefits of retroperitoneal surgery are readily apparent.

Applications

The robotic retroperitoneal approach has been primarily implemented in partial nephrectomy cases but has also been used to perform radical nephrectomies,9 nephroureterectomies,10 pyeloplasties,11-13 and adrenalectomies.14,15 In the domain of partial nephrectomy, the retroperitoneal approach is thought to be especially useful for posterior and lateral tumors,15 but Arora et al showed that surgeons can take a retroperitoneal approach to anterior tumors without any difference in operative time, estimated blood loss, intra-operative complications, or postoperative complications.4

Benefits of the retroperitoneal approach

In retroperitoneal renal surgery, the kidney is quickly encountered after a brief dissection of the retroperitoneal space. Unlike transperitoneal surgery, there is no need to mobilize the bowel. The surgeon never encounters nor has to retract the liver or spleen. There is no need to kocherize the duodenum for right-sided cases, and the tail of the pancreas is never encountered on the left. The hilum, and particularly the renal artery, is readily accessible for clamping within minutes of docking without navigating the renal vein. This direct approach to the kidney and rapid hilar access with minimal dissection allows for a much shorter operative time compared with the transperitoneal approach.8 Any postoperative bleed or urine leak is contained in the retroperitoneum, which may prevent the development of an ileus and other morbidities.16 These benefits can be especially useful in patients with intra-abdominal adhesions, ventral hernias, or colostomies, or those who are on peritoneal dialysis, but can also be applied to routine renal or adrenal surgery. The proximal ureter, renal pelvis, adrenal gland, and regional lymph nodes have all been accessed using the retroperitoneal approach.

Key points on surgical technique

Patients should be placed in a full lateral decubitus position with the table slightly flexed to increase space between the ribs and iliac crest (Figure 1). An axillary roll is utilized, and the patient is secured and padded using a beanbag, foam, and tape. The camera port incision is made 2 fingerbreadths above the iliac crest in the midaxillary line. Blunt finger dissection is carried down to the thoracolumbar fascia, which is divided sharply with scissors. Development of the retroperitoneal space can be performed either using a finger or small balloon dissector. At this point, pneumo-retroperitoneum is established. Landmarks are identified, including the psoas muscle as the floor and transversus abdominus muscle as the ceiling, with the peritoneal reflection draping medially. A posterior 8-mm robotic port is placed under direct vision 8 cm from the camera port, and through this a Kittner laparoscopic dissector is used to medialize the peritoneal reflection. A second 8-mm robotic port is placed after the peritoneum has been mobilized. It is critical to place the anterior port after mobilizing the peritoneum to prevent the port from being placed transperitoneally. A 12-mm assistant port is subsequently placed just inferior and medial to the camera port in a similar fashion. Robotic port placement can be varied to optimize access to the lower versus upper pole of the kidney or retroperitoneal space. The robot is docked over the 12-mm camera port with a slight anterior rotation (Figure 2). Once the robot is docked, the kidney is elevated off the psoas muscle and the hilum is identified by the pulsation of the renal artery. When approaching the hilum, the renal artery is usually the first vessel encountered. If needed, the renal vein can be skeletonized. We do not routinely close the fascia of the port sites.

Conclusions

Robotic retroperitoneal surgery is a valuable technique in the surgeons toolbox. With more familiarity, surgeons can employ the benefits offered by this approach. We anticipate further advancements in this field in an effort to minimize postoperative morbidity and the use of health care resources. We also imagine the retroperitoneal approach in novel applications such as ureteroplasty and ureterolithotomy. The continued miniaturization and refinement of the robotic platform combined with improved surgeon comfort will facilitate future innovation and refinement of urologic surgery in the retroperitoneal space.

Koehne is a 5th-year urology resident at Loyola University Medical Center, Maywood, Illinois. Radtke completed a robotics/endourology fellowship at Loyola University Medical Center in June 2020 and is now in community practice in Green Bay, Wisconsin. Gupta is associate professor of urology, radiology, and surgery at Loyola University Medical Center.

References

1. McDougall EM, Clayman RV. Laparoscopic nephrectomy for benign disease: comparison of the transperitoneal and retroperitoneal approaches. J Endourol. 1996;10(1):45-49. doi:10.1089/end.1996.10.45

2. Desai MM, Strzempkowski B, Matin SF, et al. Prospective randomized comparison of transperitoneal versus retroperitoneal laparoscopic radical nephrectomy. J Urol. 2005;173(1):38-41. doi:10.1097/01.ju.0000145886.26719.73

3. Ng CS, Gill IS, Ramani AP, et al. Transperitoneal versus retroperitoneal laparoscopic partial nephrectomy: patient selection and perioperative outcomes. J Urol. 2005;174(3):846-849. doi:10.1097/01.ju.0000169259.49754.02

4. Arora S, Heulitt G, Menon M, et al. Retroperitoneal vs transperitoneal robot-assisted partial nephrectomy: comparison in a multi-institutional setting. Urology. 2018;120:131-137. doi:10.1016/j.urology.2018.06.026

5. Hughes-Hallett A, Patki P, Patel N, Barber NJ, Sullivan S, Thilagarajah R. Robot-assisted partial nephrectomy: a comparison of the transperitoneal and retroperitoneal approaches. J Endourol. 2013;27(7):869-874. doi:10.1089/end.2013.0023

6. Maurice MJ, Kaouk JH, Ramirez D, et al. Robotic partial nephrectomy for posterior tumors through a retroperitoneal approach offers decreased length of stay compared with the transperitoneal approach: a propensity-matched analysis. J Endourol. 2017;31(2):158-162. doi:10.1089/end.2016.0603

7. Choo SH, Lee SY, Sung HH, et al. Transperitoneal versus retroperitoneal robotic partial nephrectomy: matched-pair comparisons by nephrometry scores. World J Urol. 2014;32(6):1523-1529. doi:10.1007/s00345-014-1312-7

8. Wetterlin JJ, Blackwell RH, Capodice S, Kliethermes S, Quek ML, Gupta GN. Robotic-assisted laparoscopic partial nephrectomy: a comparison of approaches to the posterior renal mass. World J Clin Urol. 2016;5(1):60-65. doi:10.5410/wjcu.v5.i1.60

9. Patel MN, Kaul SA, Laungani R, et al. Retroperitoneal robotic renal surgery: technique and early results. J Robot Surg. 2009;3(1):1. doi:10.1007/s11701-009-0123-0

10. Rose K, Khan S, Godbole H, Olsburgh J, GUYs and St. Thomas Robotics Group. Robotic assisted retroperitoneoscopic nephroureterectomy: first experience and the hybrid port technique. Int J Clin Pract. 2006;60(1):12-14. doi:10.1111/j.1368-5031.2006.00703.x

11. Kaouk JH, Hafron J, Parekattil S, et al. Is retroperitoneal approach feasible for robotic dismembered pyeloplasty: initial experience and long-term results. J Endourol. 2008;22(9):2153-2159. doi:10.1089/end.2008.0130

12. Cestari A, Buffi NM, Lista G, et al. Retroperitoneal and transperitoneal robot-assisted pyeloplasty in adults: techniques and results. Eur Urol. 2010;58(5):711-718. doi:10.1016/j.eururo.2010.07.020

13. Olsen LH, Rawashdeh YF, Jorgensen TM. Pediatric robot assisted retroperitoneoscopic pyeloplasty: a 5-year experience. J Urol. 2007;178(5):2137-2141. doi:10.1016/j.juro.2007.07.057

14. Park JH, Kim SY, Lee CR, et al. Robot-assisted posterior retroperitoneoscopic adrenalectomy using single-port access: technical feasibility and preliminary results. Ann Surg Oncol. 2013;20(8):2741-2745. doi:10.1245/s10434-013-2891-z

15. Koehne EL, Bajic P, Gupta GN. Robotic-assisted laparoscopic retroperitoneal adrenalectomy. Surg Oncol. 2019;31:7. doi:10.1016/j.suronc.2019.06.005

16. Patel M, Porter J. Robotic retroperitoneal surgery: a contemporary review. Curr Opin Urol. 2013;23(1):51-56. doi:10.1097/MOU.0b013e32835b61f4

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Going retro: A perspective on robotic retroperitoneal renal surgery - Urology Times

Global Telepresence Robots Market 2020 | (COVID 19 Analysis) Offered In New Most recent Research Report with Forecast 2026 – The Courier

The globalTelepresence Robots Marketresearch report enlists the vital and practical information with regards to market situation. The present scenario of Telepresence Robots market, along with its previous performance as well as future scope are covered in the report. This eases the users understanding of the market thoroughly, while also gaining knowledge about market opportunities and the dominant players DJI, Inbot Technology PadBot, Revolve Robotics, Suitable Technologies, Orbis Robotics, QinetiQ, Vgo, Vecna Technologies, iRobot, InTouch Technologies, Double Robotics, Mantaro Product Development Services, Awabot, Anybots in the Telepresence Robots market.

Request for a FREE sample of Telepresence Robots market research report@https://www.marketresearchstore.com/report/global-telepresence-robots-market-report-2020-industry-analysis-765303#RequestSample

The Global Telepresence Robots Market Research Report Details

The beginning of the report summarizes the market with the definition of the overall Telepresence Robots market.

The following section includes Telepresence Robots market segmentation Static Telepresence Robots, Moving Telepresence Robots. Segmentation is done on the basis of application, type, end-user industries, and several such factors among others.

We have strived to include sub-segments Corporate, Healthcare, Homecare & Rehabilitation, Education, Others in segmentation section, wherever possible. Also included are details regarding the dominant segments in the worldwide Telepresence Robots market.

The global Telepresence Robots market has also been classified on the basis of regions. On the basis of the regional diversification, details regarding market share and size have also been obtained.

In the succeeding part, growth factors for the Telepresence Robots market have been elucidated. This section also explains the technological advancements made to improve market size and position. Also enlisted is the information pertaining to the end-use industries for the Telepresence Robots market.

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Telepresence Robots Market COVID-19 Impact Analysis

As the world is still dealing with COVID-19 situation, many of the countries have slowly started to revive its economic situation by starting its trade and businesses. There has been enormous loss in these few months both in terms of economy and human lives. As the WHO has already suggested that there are very less chances that the virus will completely go, hence we will have start living with it. Many of the drug companies are getting positive response of their COVID-19 vaccines, but there is still time for its availability in the global market.

There are 15 Sections to show the global Telepresence Robots market

Sections 1, Definition, Specifications and Classification of Telepresence Robots , Applications of Telepresence Robots , Market Segment by Regions;Section 2, Assembling Cost Structure, Crude Material and Providers, Assembling Procedure, Industry Chain Structure;Sections 3,Technical Data and Manufacturing Plants Analysis of Telepresence Robots , Capacity and Commercial Production Date, Manufacturing Plants Distribution, R&D Status and Technology Source, Raw Materials Sources Analysis;Sections 4, Generally Market Analysis, Limit Examination (Organization Fragment), Sales Examination (Organization Portion), sales Value Investigation (Organization Section);Sections 5 and Six, Regional Market Investigation that incorporates United States, China, Europe, Japan, Korea and Taiwan, Telepresence Robots segment Market Examination (by Sort);Sections 7 and Eight, The Telepresence Robots Segment Market Analysis (by Application) Major Manufacturers Analysis of Telepresence Robots ;Sections Nine, Market Trend Analysis, Regional Market Trend, Market Trend by Product Type Static Telepresence Robots, Moving Telepresence Robots Market Trend by Application Corporate, Healthcare, Homecare & Rehabilitation, Education, Others;Sections 10, Regional Promoting Type Investigation, Worldwide Exchange Type Examination, Inventory network Investigation;Sections 11, The Customers Examination of global Telepresence Robots;Sections 12, Telepresence Robots Research Findings and Conclusion, Appendix, system and information source;Sections 13, 14 and 15, Telepresence Robots deals channel, wholesalers, merchants, traders, Exploration Discoveries and End, appendix and data source.

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Particulars Of The Global Telepresence Robots Market Research Report

Further part in the report enlists the restraining factors for the Telepresence Robots market growth. The restraints are explained comprehensively and with details in order that the client can comprehend how these factors are affecting the global Telepresence Robots market and how such factors can be tackled effectively using suitable measures.

Also, regional study and analysis of global Telepresence Robots market focused on in the report. Here, the major regions with Telepresence Robots market establishment have been explained thoroughly. Due to this, our clients will have clarity in understanding the booming markets as well as the potential Telepresence Robots markets in the near future.

The concluding section relates to the conclusions and observations regarding the global Telepresence Robots market.

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Global Telepresence Robots Market 2020 | (COVID 19 Analysis) Offered In New Most recent Research Report with Forecast 2026 - The Courier

Can We Make Our Robots Less Biased Than We Are? – The New York Times

Adhering to the declaration would prohibit researchers from working on robots that conduct search-and-rescue operations, or in the new field of social robotics. One of Dr. Bethels research projects is developing technology that would use small, humanlike robots to interview children who have been abused, sexually assaulted, trafficked or otherwise traumatized. In one of her recent studies, 250 children and adolescents who were interviewed about bullying were often willing to confide information in a robot that they would not disclose to an adult.

Having an investigator drive a robot in another room thus could yield less painful, more informative interviews of child survivors, said Dr. Bethel, who is a trained forensic interviewer.

You have to understand the problem space before you can talk about robotics and police work, she said. Theyre making a lot of generalizations without a lot of information.

Dr. Crawford is among the signers of both No Justice, No Robots and the Black in Computing open letter. And you know, anytime something like this happens, or awareness is made, especially in the community that I function in, I try to make sure that I support it, he said.

Dr. Jenkins declined to sign the No Justice statement. I thought it was worth consideration, he said. But in the end, I thought the bigger issue is, really, representation in the room in the research lab, in the classroom, and the development team, the executive board. Ethics discussions should be rooted in that first fundamental civil-rights question, he said.

Dr. Howard has not signed either statement. She reiterated her point that biased algorithms are the result, in part, of the skewed demographic white, male, able-bodied that designs and tests the software.

If external people who have ethical values arent working with these law enforcement entities, then who is? she said. When you say no, others are going to say yes. Its not good if theres no one in the room to say, Um, I dont believe the robot should kill.

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Can We Make Our Robots Less Biased Than We Are? - The New York Times

Robotics elective offered at South for the first time – Times-Mail

The idea to offer the course, which is open to ninth through 12th graders, came from teacher David Ericson, who also leads the Quadrangles robotics team at South. In the class, students build and program robots and learn about the history of robotics, automation, motors and other topics. Ericson has been navigating how to adapt the class for online students.

The idea is to be able to expand on real world situations and then incorporate that into the classroom, and thats what were doing, Ericson said. Robots can be a really good thing. For example, robotic firemen why have a human go into a fire when we can program a robot to do that same function?

London Mitchell, a freshman, said prior to the class she had no experience with robotics, but had an interest in STEM.

I saw robotics as an elective and that just seemed like a really neat thing, Mitchell said. Im really glad that I ended up deciding to take it because its been really cool and interesting and Ive learned a lot already.

Ericson said hes aware that some students have no experience with robotics, so students read about the history of robotics before moving on to learning about automation and pneumatics and hydraulic systems. With their reading assignments, students do online discussion posts.

Other topics of the class include circuits, motors, how pumps and compressors work together to make pneumatic hydraulics work, the structure of a robot and motion subsystems, so how a robot moves forward or backwards and how it turns or lifts things. The class discusses if controls are autonomous or teleoperation. In other words, are things being done via remote control or automatically through programming.

Right now were in the coding stage of robots and thats been really fascinating, Mitchell said. Ive never really done that before. Its really interesting just to think through how that works. Then also, the readings that were doing are kind of learning about the history of robotics. Thats also really interesting to me like how it has come so far from where we started.

Ericson said even though the idea of a robot has been around for a long time, its a relatively new field. Ericson said he has the ability to provide one robot kit per student, up to 30 students, and has around 15 programming kits, so students are paired up with those. Students use the programming software called ROBOTC on desktops in the classroom.

The difficulty curve for getting ROBOTC set up and getting your first program written is a bit of a steep one, Hazel Roeder, a sophomore, said. So I try to assist with that and getting peoples first program down so that way they can have their robot run and actually do tasks.

As a teacher, some of Ericsons proudest moments come when he teaches a concept or idea that students can use to formulate into solutions for problems.

Thats what its all about to me, thats how I teach, Ericson said. I teach that using the applied problem, project based approach.

Ericson said it can be very difficult as a teacher to watch students struggle to figure things out, but he realizes that if he does the work for students, they wont learn anything. Thats why teamwork is a part of his class. Brock Teagarden, a junior, said students helping one another gives the class a good and fun environment.

The education level seems to increase higher when a student helps another student as opposed to the teacher helping the student, Ericson said. This is a very student centered environment. It is the students working with the students and theyre producing their results. And thats exactly what STEM education is. Thats exactly what its all about. Were practicing it here at Bloomington High School South and Im proud to be part of it.

Online and in person

Payton Gross, a senior, said its kind of hard to be an online student right now, because as someone who was already on the robotics team, she enjoys the hands-on aspect of building a robot.

But also, being online and not having the chance to do that, it gives me more of an opportunity to analyze the basics of robotics and really build my own foundation of knowledge that I can then use later on, Gross said.

Ericson said with his online students, he gives them curriculum in a written form, but they dont get the active engagement of being in class and being able to be hands-on or the ability to use ROBOTC, which is on the desktops in the classroom but not laptops, he said.

From a teaching standpoint, its very difficult, Ericson said. I feel that the students that are out there online, dont get the same level that you get being in person. But I also understand why parents and students would want to stay home, too. I understand that totally.

As of right now, the Monroe County Community School Corp. will be in phase yellow on Nov. 30, following the districts Thanksgiving break, which means high schoolers will be on a hybrid schedule.

Online, I mean, I cant pass the projects through the computer, Ericson said. And I cant ask them to try to gather up materials to be able to do stuff.

Ericson also teaches a construction class, so students are working with saws and drills, quite different from other subjects, like art, where some supplies might be able to be sent home.

For the robotics club, one of the things that we did do is we have taken tubs of parts to certain students to build prototypes with, Ericson said. So there is some active stuff going on. But the students by themselves, they can come and talk to the mentors, but as far as being able to interact together as a team, and in person were not doing that, its all virtual.

Diversity in robotics and STEM

I am a diversity STEM instructor, so Im engaging everybody and showing their perspective on things, Ericson said. And Im encouraging people to work together. Robotics is something that men and women both should be involved with.

Gross said For Inspiration and Recognition of Science and Technology (FIRST), is an organization that the robotics club at South is involved in.

Its this whole global program that has different levels of robotics for different ages, Gross said. In 2019 for the overall program, 48% of any of the participants were actually women. So thats almost a 50/50 divide, which is a really good number, considering how STEM is often male dominated. And FIRST is really working to change that.

Gross said in past years, the robotics team at South has done programs with Girls in Engineering, Math and Science (GEMS) at the Bloomington High School North library and does middle school outreach programs to expand diversity, including racial diversity. Due to COVID-19, those kind of outreach efforts have been more difficult.

Gross said as a freshman on the robotics team, she was able to volunteer at the FIRST World Championship competition in Detroit, Michigan, and she saw a lot of teams of all girls from Japan, Pakistan and other areas of the world.

It really, really helped inspire me to stay in the program and really help develop the diversity within not only our Bloomington area, but hopefully someday across the world, Gross said.

Contact Emily Cox at 812-331-4243, ecox@heraldt.com or follow @HT_InSchool on Twitter.

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Robotics elective offered at South for the first time - Times-Mail

Fusion Robotics Awarded Best Spine Technology by Orthopedics This Week – PRNewswire

"We thank Orthopedics This Week for recognizing Fusion Robotics and our vision to remove economic and efficiency barriers from the robotics equation in spine surgery. Congratulations to Kevin Frank, Dave Vaughan, Pedro Costa, Michael Vogele, MD, Kirstin Boes and Kevin Foley, MD for inventing and guiding this system to fruition. Congratulations also to our partners Interventional Systems and Intellijoint Surgical, for their creation of the robot and camera components, respectively," said Brad Clayton, Fusion Robotics CEO.

Fusion Robotics is focused on addressing the issues limiting the adoption of spinal robotics. These include navigation line-of-sight interference, inefficient surgical operation, and time-consuming system setup and breakdown. These problems, combined with prohibitive up-front and on-going cost structures, limit the use of robotics for the vast majority of spine procedures.

Kevin Foley, MD, Chief Medical Officer of Fusion Robotics, commented on these constraints. "Spine surgeons are looking for ways to increase their surgical efficiency, reduce radiation exposure, standardize their practices, and extend their careers. Surgical robotics have the potential to help them achieve each of these objectives, and more. However, inefficiency, impracticality and cost continue to be substantial barriers to adoption. We believe that our system substantially lowers these barriers and will allow many more physicians to explore how robotics can be deployed to enhance their practices."

Fusion Robotics has assembled unique system components around an exceptionally easy-to-use and streamlined workflow which eliminates line-of-sight constraints and anticipates the surgeon's next step. The company believes numerous pivotal robotics innovations, combined with approximately 80% reduced cost, will enable the use of robotics in the majority of lumbar fusion procedures. Fusion Robotics has submitted a premarket notification 510(k) to FDA, which is pending, for its 3D imaging integrated robotics platform, and is also developing fluoroscopy-guided robotics capabilities for use in Ambulatory Surgery Centers. The company plans to commercialize both capabilities in 2021 with leadership assistance from its Chairman and major investor, Alex Lukianov (NuVasive founder and past CEO).

About Fusion Robotics, LLCFusion Robotics, LLC is a medical device manufacturer, headquartered in Boulder CO, which is focused on the research, development and commercialization of robotics technologies for spinal surgical applications.

About Interventional Systems / iSYS Medizintechnik GmbHInterventional Systems, founded in 2010 and located in Austria, is focused on development, engineering and clinical integration of value-based robotic solution for various clinical applications.

About Intellijoint Surgical Inc.Intellijoint Surgical (Ontario, Canada) develops and commercializes surgical navigation solutions for total joint replacements. It is committed to improving patients' lives by providing every surgeon with effective, easy-to-use technology. For more information on Intellijoint Surgical visit http://www.intellijointsurgical.com.

Contact Information[emailprotected]

SOURCE Fusion Robotics

http://www.fusionroboticsusa.com

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Fusion Robotics Awarded Best Spine Technology by Orthopedics This Week - PRNewswire

Underwater Robotics Market 2020 |Global Industry Analysis by Size, Growth Rate, Share, Trends, Key Players, COVID-19 Impact, Opportunity, and Regional…

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Few of the major competitors currently working in global underwater robotics market are Atlas Maridan ApS, Deep Ocean Engineering, Inc., General Dynamics Mission Systems, Inc., ECA GROUP, International Submarine Engineering Limited, Inuktun Services Ltd., Oceaneering International, Inc., Saab AB, Soil Machine Dynamics Ltd., Phoenix International, MacArtney A/S, Hydrovision.

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Global Underwater Robotics Market is expected to rise from its initial estimated value of USD 2.79 billion in 2018 to an estimated value of USD 7.74 billion by 2026, registering a CAGR of 13.61% in the forecast period of 2019-2026. Increasing demand of underwater robotics from various end-user is major factor for the growth of this market.

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Underwater Robotics Market 2020 |Global Industry Analysis by Size, Growth Rate, Share, Trends, Key Players, COVID-19 Impact, Opportunity, and Regional...

Magnetic spray turns objects into robots that walk, roll and crawl – New Atlas

By combining magnetic materials with magnetic fields, robotics researchers continue to develop machines that can be remotely manipulated in all kinds of useful ways, such as somersault through the colon or crawl through blood vessels to deliver drugs. Scientists at the City University of Hong Kong have developed a new type of spray-on coating they say can give regular objects these kinds of capabilities, with particular potential in biomedical applications.

The research focuses on expanding the use of insect-scale robots measured in mere millimeters, the tiny size of which lends itself to applications in the human body. Back in 2018, we looked at an interesting example of these types of "millirobot," where scientists embedded magnetic microparticles into a rubbery silicon robot body, which could then be made to walk, crawl, jump and roll via application of an external magnetic field.

Rather than build a magnetic millirobot from the ground up, the authors of the new study set out to develop a tool that could be used to construct magnetic millirobots from regular objects. This tool comes in the form of a magnetic coating called M-spray, which is made of polyvinyl alcohol, gluten and iron particles, and can adhere to smooth and textured surfaces of all kinds of materials.

Our idea is that by putting on this magnetic coat, we can turn any objects into a robot and control their locomotion, says Dr Shen Yajing, who led the research team. The M-spray we developed can stick on the targeted object and activate the object when driven by a magnetic field.

City University of Hong Kong

The film formed by the M-spray is less than a quarter of a millimeter thick, which the team says is key to maintaining the form and size of the original object. The team demonstrated the approach using cotton threads, thin films and plastic pipes as their starting objects, which became soft tiny robots capable of walking, crawl and rolling with the help of a magnetic field. But interestingly, the mode of locomotion isnt set in stone once the coating is applied.

The locomotion mode can actually be reprogrammed on demand by wetting the solidified coating, turning it into a glue-like substance. Then, by applying a strong magnetic field, the magnetic particles within the coating can be redistributed and realigned, changing the way the robot reacts to the magnetic field.

The team demonstrated this by having the same millirobot change from a caterpillar-like movement to a slower concertina-like movement, as a way of squeezing through a narrow gap. In another experiment, the researchers coated a catheter in the M-spray and reprogrammed its locomotion mode on the fly to have it perform both smooth and sharp turns, which could help avoid injury when these medical devices are inserted into the human body.

In vivo experiments followed, involving capsules coated with M-spray and anesthetized rabbits. The rabbits were administered the capsules and the team tracked them as they moved through the stomach with radiology imaging, before dissolving the coating when the capsules reached a targeted location. This is made possible by the makeup of the M-spray that enables it to disintegrate into powder under a magnetic field or acidic environments.

All the raw materials of M-spray, namely PVA, gluten and iron particles, are biocompatible, says Shen. The disintegrated coating could be absorbed or excreted by the human body.

Beyond biomedical applications, the team sees a range of potential uses for the technology.

"We hope this construction strategy can contribute to the development and application of millirobots in different fields, such as active transportation, moveable sensor and devices, particularly for the tasks in limited space, said Dr Shen.

The research was published in the journal Science Robotics, while you can see a demonstration of the robots in the video below.

Novel magnetic spray transforms objects into millirobots for biomedical applications

Source: City University of Hong Kong

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Magnetic spray turns objects into robots that walk, roll and crawl - New Atlas

Robots Invade the Construction Site – WIRED

Theresa Arevalo was in high school when she first tried finishing drywall at her brothers construction company. Its a fine art, she says of muddingapplying and smoothing drywall. Like frosting a cake, you have to give the illusion that the wall is flat.

Fast-forward a few decades: Arevalo now works at Canvas, a company thats built a robot using artificial intelligence thats capable of drywalling with almost as much artistry as a skilled human worker.

The robot has been deployed, under Arevalos supervision, at several construction sites in recent months, including the new Harvey Milk Terminal at San Francisco International Airport and an office building connected to the Chase Center arena in San Francisco.

About the size of a kitchen stove, the four-wheeled robot navigates an unfinished building carrying laser scanners and a robotic arm fitted to a vertical platform. When placed in a room, the robot scans the unfinished walls using lidar, then gets to work smoothing the surface before applying a near perfect layer of drywall compound; sensors help it steer clear of human workers.

The Canvas robot can help companies do more drywalling in less time. It requires human oversight, but its operator does not need to be an expert drywaller or roboticist.

It has long been impractical to deploy robots at construction sites, because the environment is so varied, complex, and changing. In the past few years however, advances including low-cost laser sensors, cheaper robotic arms and grippers, and open source software for navigation and computer vision have made it possible to automate and analyze more construction.

The more advanced machines marching onto construction sites will help make construction less wasteful. According to McKinsey, productivity in construction has improved less than in any other industry over the past couple of decades. The arrival of more automation may also alter demand for labor in a number of building trades.

They love the fact that its so consistent, that the wall is gorgeous. But then the next question is, When is it going to take my job?

Theresa Arevalo, Canvas

Kevin Albert, cofounder and CEO of Canvas, previously worked at Boston Dynamics, a company famous for its lifelike walking robots, and in the manufacturing industry. He says theres great opportunity in construction, which generates about $1.4 trillion annually and accounts for around 7 percent of US GDP but has seen relatively little use of computerization and automation. We really see construction as mobile manufacturing, he says. There's this natural extension of what machines are now capable of out in the real world.

Canvas is part of a boom in construction technology, says Alex Schreyer, director of the Building and Construction Technology Program at the University of Massachusetts, Amherst. He says some of the biggest progress is being made in prefabrication of buildings, using robotic processes to construct large parts of buildings that are then assembled on-site. But increasingly, he says, robots and AI are also finding their way onto conventional work sites.

Autonomous vehicles made by Volvo ferry materials and tools around some large sites. Technology from San Francisco startup Built Robotics lets construction machinery such as diggers and dozers operate autonomously. A growing array of robotic equipment can take over specialized construction tasks including welding, drilling, and brick-laying. There are some really interesting things happening, Schreyer says.

An IDC report published in January 2020 forecasts that demand for construction robots will grow about 25 percent annually through 2023.

One big opportunity in construction, Schreyer says, is using computer vision and other sensing technologies to track the movement of materials and workers around a work site. Software can automatically flag if a job is falling behind, or if something has been installed in the wrong place. There is so much potential to do something with that using AI, Schreyer says. More companies are going to move into that AI space.

Doxel, based in Redwood City, California, makes a mobile robot that scans work sites in 3- so that software can calculate how the project is progressing. A four-legged Boston Dynamics robot called Spot is being tested for the same purpose at a number of sites. Several companies sell drones for automated construction site inspection, including Propeller, vHive, ABJ Drones, and DJI.

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Robots Invade the Construction Site - WIRED

Global Modular Robotics Markets, 2019-2020 & 2030: Market will Rise from $5.6 Billion to $15.1 Billion – GlobeNewswire

Dublin, Nov. 18, 2020 (GLOBE NEWSWIRE) -- The "Modular Robotics Market Research Report: By Offering, Robot Type, Payload Capacity, End User - Global Industry Analysis and Growth Forecast to 2030" report has been added to ResearchAndMarkets.com's offering.

The revenue of the market will rise from $5.6 billion to $15.1 billion from 2019 to 2030, with the market demonstrating a CAGR of 9.9% from 2020 to 2030.

The rising requirement for automation in manufacturing and warehouse operations is pushing up the global demand for collaborative modular robotics systems. This is, in turn, boosting the sales of modular robotics systems all over the world, which is causing the surge of the global modular robotics market.

A key market driver is the rising usage of collaborative modular robotics systems or cobots as they are sometimes called, in the logistics industry. With the adoption of these robots, the operators can hand over the parts to the robots for performing the rest of the tasks, which results in faster production processes, lesser expenditure, and lesser floor space requirements. These robots are also being used for load carrying and transporting tasks, because of their versatility.

Another factor fueling the progress of the market is the rising requirement for automation in manufacturing processes. The increasing requirements for faster manufacturing times, high efficiency in production processes, and higher manufacturing outputs are augmenting the need for automation in industries. As a result, modular robotics systems are being increasingly used in various operations in factories and warehouses. When offering is taken into consideration, the modular robotics market is classified into software, hardware, and services.

Out of these categories, the software category is predicted to exhibit the fastest growth in the market in the future years, mainly due to the burgeoning requirement for software for checking the real-time functioning of a modular robotics system and the growing integration of IoT and AI in these robots. However, despite this factor, the highest market growth will be demonstrated by the hardware category, under the offering segment, in the upcoming years.

According to the forecast of the market research company this category will hold the highest revenue share in the market in the future. Depending on robot type, the market is divided into SCARA (selective compliance assistance robot arm) modular robotics systems, collaborative modular robots, cartesian modular robots, parallel modular robots, and articulated modular robotics systems, out of which, the articulated modular robotics system division will register the highest growth in the market in the forthcoming years.

Historically, the modular robotics market exhibited the highest growth in the Asia-Pacific (APAC) region and this trend will continue in the coming years as well, primarily because of the ballooning investments being made in electricals, electronics, and automotive industries, especially in the regional nations such as China, South Korea, and India. In addition to this, the rising usage of collaborative modular robotics systems in manufacturing operations is massively propelling the sales of these robots in the region.

Hence, it can be inferred from the above paragraphs that the sales of modular robotics systems will rise steeply throughout the world in the coming years, mainly because of the growing requirement for automation in factory, warehouse, and logistics operations and the rising usage of collaborative modular robotics systems in various industries.

Key Topics Covered:

Chapter 1. Research Background1.1 Research Objectives1.2 Market Definition1.3 Research Scope1.4 Key Stakeholders

Chapter 2. Research Methodology2.1 Secondary Research2.2 Primary Research2.3 Market Size Estimation2.4 Data Triangulation2.5 Currency Conversion Rates2.6 Assumptions for the Study2.7 Notes and Caveats2.8 Impact of COVID-19 Outbreak

Chapter 3. Executive Summary

Chapter 4. Introduction4.1 Definition of Market Segments4.1.1 By Offering4.1.1.1 Hardware4.1.1.1.1 Controller4.1.1.1.2 Driver module4.1.1.1.3 Manipulator4.1.1.1.4 Sensor4.1.1.1.5 Other4.1.1.2 Software4.1.1.3 Services4.1.2 By Robot Type4.1.2.1 Articulated modular robots4.1.2.2 Cartesian modular robots4.1.2.3 SCARA modular robots4.1.2.4 Parallel modular robots4.1.2.5 Collaborative modular robots4.1.2.6 Others4.1.3 By Payload Capacity4.1.3.1 1-16.0 Kg4.1.3.2 16.1-60.0 Kg4.1.3.3 60.1-225.0 Kg4.1.3.4 More Than 225.0 Kg4.1.4 By End User4.1.4.1 Industrial4.1.4.1.1 Automotive4.1.4.1.2 Electrical & electronics4.1.4.1.3 Plastics & rubber4.1.4.1.4 Metals & machinery4.1.4.1.5 Food & beverages4.1.4.1.6 Healthcare4.1.4.1.7 Others4.1.4.2 Commercial4.1.4.3 Residential4.2 Value Chain Analysis4.3 Market Dynamics4.3.1 Trends4.3.1.1 Penetration of IIoT in industrial manufacturing4.3.2 Drivers4.3.2.1 Surging demand for automation in manufacturing industry4.3.2.2 Growing demand for collaborative modular robots4.3.2.3 Impact analysis of drivers on market forecast4.3.3 Restraints4.3.3.1 Complexity in design of modular robots4.3.3.2 Impact analysis of restraints on market forecast4.3.4 Opportunities4.3.4.1 Use of artificial intelligence to improve productivity4.4 Porter's Five Forces Analysis

Chapter 5. Global Market Size and Forecast5.1 By Offering5.1.1 Hardware, by Type5.2 By Robot Type5.3 By Payload Capacity5.4 By End User5.4.1 Industrial, by Type5.5 By Region

Chapter 6. North America Market Size and Forecast

Chapter 7. Europe Market Size and Forecast

Chapter 8. APAC Market Size and Forecast

Chapter 9. LATAM Market Size and Forecast

Chapter 10. MEA Market Size and Forecast

Chapter 11. Competitive Landscape11.1 List of Players and Their Offerings11.2 Ranking Analysis of Key Players11.3 Competitive Benchmarking of Key Players11.4 Global Strategic Developments in the Market11.4.1 Product Launches11.4.2 Facility Expansions11.4.3 Partnerships11.4.4 Client Wins

Chapter 12. Company Profiles12.1 Business Overview12.2 Product and Service Offerings12.3 Key Financial Summary

For more information about this report visit https://www.researchandmarkets.com/r/2cn6vp

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Global Modular Robotics Markets, 2019-2020 & 2030: Market will Rise from $5.6 Billion to $15.1 Billion - GlobeNewswire

Robots are not immune to bias and injustice – Science

Abstract

Human-human social constructs drive human-robot interactions; robotics is thus intertwined with issues surrounding inequity and racial injustices.

Most roboticists focus on the design of intelligent machines with the goal of positively affecting the world, i.e., building robots in service to humanity. To this end, roboticists should embrace the concept in which our robot systems are explicitly designed to work with uniformly positive performance across the diversity of users. Unfortunately, researchers have shown that this is not always the case. Object detection systems, of the kinds used in autonomous vehicles, have uniformly poorer performance when it comes to detecting pedestrians with darker skin tones (1). Researchers have also shown that racial bias exists in commercial facial recognition application programming interfaces or APIs (2).

It is not just the responsibility of society or governing bodies to take on the challenge of fixing racial bias and inequity. Roboticists also need to take on the responsibility to make sure we do not cause equivalent harm in developing new technologies. And if the harm we are creating is negatively affecting one group or groups more than another, it is our responsibility to fix that. After all, roboticists are pretty skilled at finding solutions to hard, seemingly unsolvable problems. It is time to apply those skills to fix this one.

We propose that developers should consider the ethical implications of robotic usagenamely, ethical use and equity in performanceespecially when robot use could result in harm to any group. We define ethical use as the process for weighing the potential benefits against the possible risk of harm to all affected groups; only when this weighting factor is positive and sufficiently mitigates harm should deployment of the technology be considered. We define equity in performance as a metric to determine to what extent a deployed technologys performance is uncorrelated with a groups protected characteristics (race, ethnicity, age, gender, sex, etc.). If there is lack of equity in performance, then the implications deploying such technology should be carefully considered as well as the reliance of the technology.

We believe that an important step in addressing equity in performance as well as ethical use is to ensure more diverse teams are the creators of these technologies and to understand how to draw on their diverse backgrounds for team success (3); the very practical consequence of this concept is that diverse backgrounds will allow use and implications of the technology to be seen from unique perspectives, increasing the chances for equity and ethics. Diverse teams can also lead to better performancethis fact has been shown time and time again (4). Thus, to begin the process of addressing this problem, a new organization was founded: Black in Robotics (BiR) (www.blackinrobotics.org). BiR is an organization that was born to address the systemic inequities found in our robotics community by focusing on three primary pillarscommunity, advocacy, and accountability.

This can be defined as a sense of fellowship with those that share similar characteristics and goals and has been shown to directly correlate with success in STEM higher education for underrepresented minorities (5). As discussed in (6), while there are no U.S. statistics collected specifically about the demographics of the robotics workforce, we can examine the engineering workforce statistics as an indicative metric. In 2018, 12.7% of the U.S. population was Black or African American (7), but only 4.2% of bachelors degrees in engineering went to Black scholars (8). This issue of lack of diversity is also found in the tightly integrated field of artificial intelligence (AI), particularly when it comes to algorithm design and testing for AI systems that affect diverse populations (9). BiR plans to build community through networking and mentorship. We believe that establishing community is the first step to increasing the presence of Black and other diverse groups in the field of robotics.

For robotics, advocacy is defined as explicit action that supports or defends equity in performance as well as ethical use on the behalf of all, with a focus on ensuring equal outcomes across diverse communities. BiRs contribution toward the goal of advocacy is to showcase Black excellence in our community and to help connect academia and industry to the talent found in diverse communities. One such activity is the Black in Robotics Reading List, with objectives to provide academic role models for aspiring researchers and to normalize Black scholarship (6).

Our pillar of accountability is to design pathways for all roboticists, including allies, to participate in the solution. Just as being Black does not exclude those that identify as Black from being discriminated against based on their skin color, not identifying as Black should not exclude ones involvement in dismantling issues around robotics and race. For accountability, BiR seeks to function as the conduit to engage communities, to identify best practices, and to hold all of us accountable for making the robots that we design and deploy usable for all groups and communities.

We hope that the BiR organization inspires individuals to increase diversity in their spaces. We believe that this diversity is crucial for us to answer the next big questions for robotics as we integrate them more into our daily lives. Therefore, our mission is a call to action for the entire robotics community to increase diversity and to build with thoughtfulness for disadvantaged groups.

Complicity through silence is not an option.

M. Wang, W. Deng, J. Hu, X. Tao, Y. Huang, Racial faces in the wild: Reducing racial bias by information maximization adaptation network, in Proceedings of the IEEE/CVF International Conference on Computer Vision (ICCV), Seoul, Korea, 27 October to 2 November 2019.

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Robots are not immune to bias and injustice - Science

How AI and Robotics are Transforming Recycling | Greenbiz – GreenBiz

Date/Time: December 10, 2020 (1-2PM ET / 10-11AM PT)

The challenges facing recycling in the U.S. may seem daunting but cross-sector collaboration is providing a path forward on many of its toughest issues. This kind of collaboration - CPG companies working hand-in-hand with technological innovators, MRF operators and investors - will be critical to solving logjams and current hurdles to improving recycling in the United States. Leaders from AMP Robotics, GFL Environmental, Keurig Dr Pepper and Sidewalk Infrastructures sit down to discuss how their work together is bringing about much needed change to our recycling systems and how this collaborative systems approach proves the power of cross-sector action to address critical issues.

Moderator:

Speakers:

If you can't tune in live, please register and we will email you a link to access the archived webcast footage and resources, available to you on-demand after the webcast.

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How AI and Robotics are Transforming Recycling | Greenbiz - GreenBiz

BMW Group founds company to develop and distribute innovative robots and management software for logistics solutions – Green Car Congress

The BMW Group has founded IDEALworks GmbHa fully-owned subsidiaryheadquartered in Munich. The aim is to become a leading supplier of autonomous robotics solutions in the logistics sector. The name IDEAL stands for Industry-Driven Engineering for Autonomous Logistics.

In founding IDEALworks, we are creating a new business segment for our logistics solutions. In recent years, our logistics innovation team has been working in depth on the digitalization and automatization of production logistics and has developed some unique solutions. The Smart Transport Robot, STR, in particular has met with great response and has seen demand from both within and outside of the BMW Group. Founding IDEALworks GmbH is now the logical next step for the BMW Group as a driver of innovation.

Milan Nedeljkovi, the member of the Board of Management of BMW AG responsible for Production

We are entering completely new terrain with IDEALworks GmbH. Up until now, our development has focused on automotive production and its logistics. Our perspective is changing now. We are becoming a provider of logistics robotics beyond the automotive industry. We are preparing some innovations for the coming months.

Jimmy Nassif, CTO IDEALworks GmbH

Since 2015, the innovations team from BMW Group Logistics has been working on future-focused industry 4.0 solutions in the fields of virtual reality, augmented reality, in- and out-door logistics robots, paperless logistics and smart devices. Many of these solutions are already in series production at BMW Group production locations. In 2019, BMW Group Logistics received the prestigious Deutscher Logistik Preis [German Logistics Award]. The Smart Transport Robot and its management software were also recognized as part of this award.

The Smart Transport Robot, STR, was developed in 2015 in collaboration with the Fraunhofer Institute. The flat, autonomous and mobile robots can transport goods weighing up to one ton to their destination. They independently calculate the best route and move freely around the space using the SLAM (Simultaneous Localization and Mapping) navigation method. The SLAM algorithm does not require permanent navigation transmitters to be installed in buildings and can therefore be set up quickly in a new environment without requiring any structural adjustments.

An integrated battery module from the BMW i3 is able to supply the STR with power for at least an entire shift.

The next generation of the STR will be rolled out at the end of 2020. Currently, more than 130 STRs are already in series production at several different BMW Group production sites.

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BMW Group founds company to develop and distribute innovative robots and management software for logistics solutions - Green Car Congress

Interlocking AIs let robots pick and place faster than ever – TechCrunch

One of the jobs for which robots are best suited is the tedious, repetitive pick and place task common in warehouses but humans are still much better at it. UC Berkeley researchers are picking up the pace with a pair of machine learning models that work together to let a robot arm plan its grasp and path in just milliseconds.

People dont have to think hard about how to pick up an object and put it down somewhere else its not only something weve had years of practice doing every day, but our senses and brains are well adapted for the task. No one thinks, what if I picked up the cup, then jerked it really far up and then sideways, then really slowly down onto the table the paths we might move an object along are limited and usually pretty efficient.

Robots, however, dont have common sense or intuition. Lacking an obvious solution, they need to evaluate thousands of potential paths for picking up an object and moving it, and that involves calculating the forces involved, potential collisions, whether it affects the type of grip that should be used, and so on.

Once the robot decides what to do it can execute quickly, but that decision takes time several seconds at best, and possibly much more depending on the situation. Fortunately, roboticists at UC Berkeley have come up with a solution that cuts the time needed to do it by about 99 percent.

The system uses two machine learning models working in relay. The first is a rapid-fire generator of potential paths for the robot arm to take based on tons of example movements. It creates a bunch of options, and a second ML model, trained to pick the best, chooses from among them. This path tends to be a bit rough, however, and needs fine-tuning by a dedicated motion planner but since the motion planner is given a warm start with the general shape of the path that needs to be taken, its finishing touch is only a moments work.

Diagram showing the decision process the first agent creates potential paths and the second selects the best. A third system optimizes the selected path.

If the motion planner was working on its own, it tended to take between 10 and 40 seconds to finish. With the warm start, however, it rarely took more than a tenth of a second.

Thats a benchtop calculation, however, and not what youd see in an actual warehouse floor situation. The robot in the real world also has to actually accomplish the task, which can only be done so fast. But even if the motion planning period in a real world environment was only two or three seconds, reducing that to near zero adds up extremely fast.

Every second counts. Current systems spend up to half their cycle time on motion planning, so this method has potential to dramatically speed up picks per hour, said lab director and senior author Ken Goldberg. Sensing the environment properly is also time-consuming but being sped up by improved computer vision capabilities, he added.

Right now robots doing pick and place are nowhere near the efficiency of humans, but small improvements will combine to make them competitive and, eventually, more than competitive. The work when done by humans is dangerous and tiring, yet millions do it worldwide because theres no other way to fill the demand created by the growing online retail economy.

The teams research is published this week in the journal Science Robotics.

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Interlocking AIs let robots pick and place faster than ever - TechCrunch

Robotics team mentored by Texas A&M at Qatar finishes 19th at FIRST Global Challenge – The Peninsula Qatar

23 Nov 2020 - 9:01

Participating students at the FIRST Global Challenge pose with their invention.

Doha: Team Qatar, the STEM-vengers, have finished in 19th place among 175 teams worldwide in the FIRST Global Challenge.

The team is part of Texas A&M University at Qatars STEM Hub Robotics Club (SHRC), a joint initiative between the QF partner university and the Qatar National Research Fund (QNRF).

Team Qatar is made up of 25 high school students with interest in robotics from 14 schools across Qatar.

The annual FIRST Global Challenge, an Olympics-style robotics event, is based on the 14 Grand Challenges of Engineering identified by the U.S. National Academy of Engineering. Because of the COVID-19 pandemic, the 2020 competition, Connecting Communities, consisted of three months filled with social media and technical challenges, talks by STEM professionals, and technical training sessions all while connecting the FIRST Global Community around the world.

Mohammed Al Marri said, I have participated in many STEM outreach programs at Texas A&M in Qatar. I aspire to become an engineer who solves various problems from renewable energy methods to global environmental challenges. FIRST Global Challenge 2020 was not only an opportunity for students to consolidate their learning, but a home to a diverse community of members to come together and take on problems of purpose. Team Qatar is keen on delivering results every day to benefit the world by whatever means necessary. Im proud of my contribution to Team Qatars performance this year, and Im most definitely excited about next years competition!

QNRF Executive Director, Dr Abdul Sattar Al Taie, said, I would like to congratulate the team representing Qatar in the FIRST Global Challenge for being ranked in the top 20 among 175 teams from across the world.

"This achievement is a testimony of the success of our partnership with Texas A&M University at Qatar through the state-of-the-art STEM HUB facility, which has been providing training to students from schools across the country and nurturing them as Qatars future researchers and scientists. The teams impressive performance at this high-level robotics competition will greatly motivate other students to pursue STEM education with passion, and through their knowledge, contribute to the development of Qatar.

The team was mentored by Texas A&M at Qatars STEM program specialist Dr. Mohamed Gharib to promote creative applications of engineering and science toward innovative thinking and original design among Qatars youth. Gharib established the SHRC at Texas A&M at Qatar in 2019 in cooperation with QNRF to use robotics to enhance, supplement, and enrich science and math learning experiences for secondary students.

To put together a team of talented students from different schools in Qatar whose interests are in engineering in general and robotics in particular; and prepare them to participate in international competitions.

Team Qatar has shown a strong presence in the FIRST Global competitions since the first participating in 2018 when Qatar achieved the bronze medal in Mexico. In 2019, Gharib won the Outstanding Mentor Award, which is given to mentors committed to their students and inspired them to keep going, despite any challenges.

Gharib said, I am so proud of these students who dedicated their time and effort with passion and creativity for three months. They always have the determination to introduce innovative ideas, and with their talent and teamwork in different areas, they developed impressive solutions for the 25 challenges in the current competition.

"STEM education in Qatar is rapidly developing and directly influences the students knowledge and skills. As a result, Qatar teams have shown a strong presence in the latest competitions by FIRST Global. The support of Texas A&M at Qatar and Qatar National Research Fund was invaluable.

Read also

23 Nov 2020 - 8:55

As part of the Year of Sports initiative, the Indian Sports Center (ISC), under the patronage of the Embassy of India, recently organised for the first time the 'ISC Online Fitness Challenge' where a total of 71 participants registered from Qatar and participated.

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Robotics team mentored by Texas A&M at Qatar finishes 19th at FIRST Global Challenge - The Peninsula Qatar

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Edible Soft Robotics Market Analysis Report with Highest CAGR and Major Players like || Ekso Bionics, ReWalk Robotics, Bioservo Technologies AB and...