The history of SCARA robots is extensive and cooperative. Yamanashi University professor Hiroshi Makino went to Tokyo, Japan, in 1977 to attend the International Symposium on Industrial Robots. He saw the SIGMA assembly robot, a ground-breaking device, at this event.
SCARA robots typically have four axes. They can move in a single plane because to their two parallel arms. The last axis is compliant and perpendicular to the others.
Those robots’ straightforward design allows them to move swiftly while always remaining precise and accurate. They are therefore ideal for intricate assembling jobs.
Since their inverse kinematics are far simpler than those of industrial robotic arms with six degrees of freedom, they are straightforward to program. Their joints’ fixed locations also make them very predictable because there is only one way to approach any position in the robot’s workspace.
Because of their great versatility, SCARAs can simultaneously improve task speed, accuracy, and productivity.
Workflows are streamlined via robotic automation, increasing an organization’s responsiveness, flexibility, and profitability. By eliminating repetitive chores from their workdays, it also improves employee engagement, contentment, and productivity.
RPA may be quickly used to speed up digital transformation and is noninvasive. Additionally, it is perfect for automating processes involving legacy systems that do not have virtual desktop infrastructures (VDIs), database access, or APIs.
All manufacturing factories rely heavily on precision engineering. Because the factory must maintain precise and accurate quality control within the established standard range when producing a product.
Precision engineering : The desired precision value must constantly be met by every factory production and control, which mostly depends on the requirements of each component. For both great production efficiency and keeping overall costs under control. Even though some parts might not need a lot of precision, using expensive tools or too-good materials to measure them could take longer and cost more money.
Industrial robotics are automated devices used in production. These multifunctional devices usually include a manipulator that can move in three or more directions, or at least one reprogrammable robotic arm. Because industrial robots can do repeated operations at fast speeds with great precision and no breaks, they are widely used in warehouses and on manufacturing assembly lines.
“To control movement” is what motion control means. The use of different motors for positional control is one notable example. A motor runs by receiving electronic energy, which it then transforms into motional energy. Injection moulding machines, robotic control, machining tools, semiconductor production equipment, and digital home electronics inspection machines all heavily rely on this technology. This field has seen a significant increase in equipment investment in recent years.
Automation solutions use a range of features and applications that are applicable to different sectors and require little human involvement.
Solutions that automates repetitive operations are known as automation solutions. It can be found in intelligent automation (IA) technologies, which integrate artificial intelligence (AI), machine learning (ML), and robotic process automation (RPA). Software robots are used in robotic process automation (RPA) to replicate human tasks like data entry. Desktop automation (RDA), sometimes referred to as robotic desktop automation, uses software robots to automate tasks on employees’ workstations.
Computer simulation of intelligent activity is known as artificial intelligence (AI).
By integrating fresh data, machine learning (ML), an AI application, allows a system to learn and continuously enhance its performance. In order to increase the quantity and complexity of operations that can be automated, intelligent automation (IA) combines artificial intelligence with RPA and other cognitive technologies.
Growth in need for mass production with reduced operation cost, surge in adoption of industry 4.0 and enabling technologies industries, increase in demand for IoT-based smart solution & automation in several industries for qualitative and reliable manufacturing drive the growth of the global SCARA robot market.
However, high expenditure associated with implementation of SCARA robots hampers the market growth.
On the contrary, rise in application areas of collaborative robots and increase in demand for automation in Asian countries are expected to create lucrative opportunities in the near future.Material handling segment dominated the marketBy type, the material handling segment held the largest share in 2019, contributing to nearly one-third of the global SCARA robot market, due to growth in electrical, food & beverages, and electronics sectors.
However, the assembling and disassembling segment is expected to register the fastest CAGR of 12.6% during the forecast period, owing to high growth in the electronic industry that demands SCARA robots for high-speed assembly task.Learn More on SCARA Robots: https://www.alliedmarketresearch.com/scara-robot-market-A06048 Pharmaceuticals segment to portray the fastest CAGR by 2026The pharmaceutical segment is expected to manifest the highest CAGR of 13.1% through 2026, owing to increased demand from the pharmaceutical industry to reduce repetitive tasks, save workers for hazardous environments, and reduce training overhead.
However, the electrical and electronics segment held the largest share in 2019, accounting for nearly one-third of the global SCARA robot market, due to high robot investment in production automation, retooling for new production process, and performing the handling operations in the industry.Europe held the lion's share, followed by Asia-Pacific and North AmericaThe market across Europe, followed by Asia-Pacific and North America, dominated in 2019, contributing to more than one-third of the market.
However, the global SCARA robot market across Asia-Pacific is expected to portray the fastest CAGR of 11.9% during the forecast period, owing to high adoption of robotics technology in small & medium enterprise and rise in investments in education and research infrastructure.Major market playersSeiko Epson CorporationABBOMRAN CorporationKawasaki RoboticsKUKA AGMitsubishi Electric CorporationDENSO Corporation (DENSO Robotics)Fanuc CorporationStäubli International AGYaskawa Electric Corporation
SCARA Robots Industry research report delivers a close watch on leading competitors with strategic analysis, micro and macro market trend and scenarios, pricing analysis and a holistic overview of the market situations in the forecast period.
Get FREE Sample Report Before Buying @ https://www.upmarketresearch.com/home/requested_sample/7296 UpMarketResearch offers a latest published report on “Global SCARA Robots Market Analysis and Forecast 2018-2023” delivering key insights and providing a competitive advantage to clients through a detailed report.
Further, key players, major collaborations, merger & acquisitions along with trending innovation and business policies are reviewed in the report.
The numerical data is backed up by statistical tools such as SWOT analysis, BCG matrix, SCOT analysis, PESTLE analysis and so on.
The statistics are represented in graphical format for a clear understanding on facts and figures.
The generated report is firmly based on primary research, interviews with top executives, news sources and information insiders.
In this report, global Industrial Robot Market will reach 17545 Million USD by the end of 2022 with a CAGR of 12.17% The global Industrial Robot market is valued at 8807 Million USD in 2016 and will reach 17545 Million USD by the end of 2022, growing at a CAGR of 12.17% during 2016-2022.
Articulated robots accounted for the highest proportion in output share, with a figure of 56.19% in 2017, followed by SCARA robots, account for 20.31%.
Download Free Sample Report @ https://www.radiantinsights.com/research/global-industrial-robot-market-research-report-2020/request-sample The consumption market share of global Industrial Robot in automotive, electrical & electronics, chemical & rubber & plastic, metal & machinery, food & beverages & pharmaceuticals and others has been stable year by year, at 40.11%, 22.45%, 6.31%, 12.60%, 5.40% and 13.14% respectively in 2017, and for several consecutive years, the amplitude was within 2 percent.
China has surpassed Japan as the largest market of industrial robots since 2013, and sold 86,415 units in 2016.
Europe is the second market, and sold 56414 units in 2016, while 30457 units sold in United States, 36241 units sold in Japan, 42151 units sold in Korea, 7614 sold in Taiwan and 2445 sold in India in 2016.
FANUC is the largest company in the global Industrial Robot market, accounted for 17.4/% of the revenue market share in 2017, followed by followed by Yaskawa, ABB and KUKA, accounted for 14.8%, 11.5% and 11.1% of the revenue market share in 2017.The top four producers account for more than 50% of revenue.
The wafer handling automation is not a new field; it is known for many years, but several years ago, only the manual strategies were used to increase the performance of the semiconductors.
Due to the latest technologies and new innovations, the leading manufacturer of wafer handling robots, Kensington Labs, has shown considerable interest in providing the customized services of automated and unique products such as SCARA Robots, pre-aligners, precision control motion stages, ADOs.
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