1
H e may be 74, but age hasn’t dimmed his maverick spirit. Kota Harinarayana, the man who shaped India’s dream of build- ing its own Light Combat Aircraft (LCA), or Tejas, is busy working on realising one more dream. Along with a bunch of former colleagues, researchers and young engineers, Harinarayana is building drones and other unmanned aerial vehicles that can be deployed in mission critical activities. Their use will range from aerial sur- veillance, terrain mapping and spraying of pes- ticides in fields to more ambitious tasks such as transporting live organs from the rooftop of one hospital to another. General Aeronautics (GA), the company Harinarayana co-founded a year-and-a-half ago, consists of a mostly young team with a solid leader- ship. Helming the project are: Anutosh Moitra, who has 35 years’ experience working for Boeing, NASA and Tata; PK Choudhary, retired Air Commodore who worked with Harinarayana on validating sys- tems of the LCA; and Abhishek Burman who has 15 years’ experience as an aerodynamicist. Based out of the entrepreneurship centre at the Indian Institute of Science (IISc) in Bengaluru, where Harinarayana had studied many decades ago, GA is working on three concepts — a con- ventional quadcopter, hexacopter or octocopter, depending on their use and requirements. The second is a hybrid vehicle, which can take off and land vertically while flying like a regular aircraft. His ultimate goal, however, is to build an unmanned helicopter which is capable of carrying payloads of 40-50 kg. As of now, GA has designed and developed five different drone models based on the first two con- cepts. The unmanned helicopter is still in the design stage, as trying to build even a prototype requires a lot of capital, which the startup doesn’t have as yet. “We have done some design work, but these vehicles would cost around Rs 10-15 crore each to make which a startup like us can’t afford. But we are looking for someone to fund us,” says Harinarayana, who has the distinction of being the first Indian to get a PhD in aircraft design. So far, General Aeronautics has raised an undisclosed amount of seed funding from an overseas investor. It hopes to develop a revenue stream soon by sell- ing its drones as well as offering them to customers and partners it has identified. The helicopter will be mostly indigenous as the company plans to use either an electric engine or the wankel engines that have been jointly devel- oped by National Aerospace Laboratories and Defence Research and Development Organisation, and which are usually used for bigger unmanned aerial vehicles. “The whole idea is to make it as indigenous as possible. That way the costs will be low,” says Harinarayana. When he was programme director for the LCA, Harinarayana was a big proponent of using indigenous components. In the course of building India’s first fighter jet, he worked closely with 40 laboratories, 25 academic institutions and almost 300 companies. As a result, outside of the engine, almost 80 components of the aircraft were designed and developed locally. This is one reason Harinarayana and his team decided to work out of the IISc, which they say will help them collaborate with researchers at the institute who are already working on affiliate technologies. GA is targeting three different sectors with its drones — defence, agriculture and medicine. Five drone models have already been developed: two quadcopters — one tethered and one untethered; one agricultural drone that has the capacity to carry 15 litres of liquid and can be used for precision spraying of pesticides; and two winged drones that can take off and land vertically. They can be used for medical emergencies where drones can carry emergency medical sup- plies to an accident site in a remote location or even in gridlocked city streets. The requirements are different in the defence sector. The drones suitable in this field are those that can be assembled and deployed quickly, are relatively noise free, and come equipped with infrared and regular cameras. They should also be able to transmit video and data in real time. Moreover, the devices should be small, light and be able to navigate autonomously. Some weeks ago, GA simulated a real-life recon- naissance mission with its drones when it partic- ipated in a technical evaluation done by the Central Reserve Police Force (CRPF) in the jungles of Naxal-infested Chhattisgarh. The quadcopter, which is equipped with day and night vision cameras, took part in multiple exercises that tested its ability to fly in the dark, its autonomous flying capabilities and so on. GA, along with two other drone manufacturing com- panies that participated in the tests, await further feedback from the CRPF. “It was a great experience for our young team. How does our vehicle work in a real jungle? How does our software work? How do our communications work,” says Harinarayana. “I think the CRPF is using some drones, but they require many more. Rather than import them, the government is pushing them to use indigenous drones.” A big challenge to developing drones in India is the lack of policy. GA jumped at the opportuni- ty of participating in the CRPF trials not just in the hope of winning an order, but also to validate and test its systems in a real-world simulation. The lack of a drone policy in India forces companies like GA to conduct small trials on private land which is unsuitable for the complete validation of drone systems. Harinarayana knows only too well that getting policies drafted is an arduous task. Even so, he is confident that the Directorate General of Civil Aviation (DGCA) will come out with a policy in this regard soon. The DGCA’s app-based permission system to fly drones will be unlike any other in the world, asserts Harinarayana, adding that the gov- ernment realises that it cannot be left behind in building its own drone technologies. The optimist that he is, Harinarayana believes that the future of drones in India will ride on small and medium enterprises, R&D labs and acade- mia. But someone has to hand-hold them all, someone with the capability to design and inte- grate all the various systems that are required to make a fully functional aircraft. As things stand, that someone is clearly none other than Harinarayana. T.E. NARASIMHAN The Hyundai plant in Sriperumbudur in suburban Chennai doesn’t conform to the old- fashioned image of a factory with greasy floors and deafening noise. Instead, it looks clean and welcoming. The rows of brand new cars indicate that the factory is working at full tilt. The plant churns out one car every 30 seconds. And this is thanks not only to the men in blue coveralls who work here. Toiling side by side with the humans are a bunch of yellow-hued robots that help ramp up the unit’s efficiency and productivity. A few hundred kilometres away, Honda's two-wheeler plant near Narsapura in the outskirts of Bengaluru also uses robots to improve efficiencies. Indeed, most automakers who have set up manufacturing plants in India are resorting to automation to boost their productivity. At Hyundai's Sriperumbudur factory, where 580 robots are in use, the defect ratio has dropped from five per cent to less than two. This plant is in the Top 5 in the Qualitivity charts (Quality + Productivity) amongst Hyundai Motor Group’s (HMG) 32 plants worldwide. It was also HMG’s Number 1 performing overseas plant and the No 1 Safety Plant in 2017. Says S Ganesh Mani, vice-president, production, Hyundai Motor India Ltd (HMIL), “Our strategy is to use automation to minimise and eliminate dirty, dull and dangerous jobs and to improve overall efficiencies.” Other auto manufacturers are also using automation in a big way. Sources say that Maruti Suzuki India Ltd now has one robot for almost every four workers and that it has some 5,000 robots at its Manesar and Gurgaon plants. Earlier, welding guns used to be operated manually in the body shop of an auto manufacturing unit. However, as welding became more sophisticated and the guns got heavier, manual operation became tougher. Robots are perfect for this function. They are also employed to conduct quality checks on the engine of a car using the high-speed Vision system. Currently, HMIL’s body shop is more than 95 per cent automated and its paint shop is 65 per cent automated. HMIL has been enhancing automation levels year on year by migrating from third to fourth generation robots. Honda’s new two-wheeler manufacturing unit near Bengaluru is fully automated as well. For example, where earlier humans picked up material from one machine and fed it into another, this task is now done via a robotic hand, from end to end. Thanks to automation, the line that was earlier manned by around 10 workers has upped its productivity with just three or four workers, reveals V Sridhar, group vice president and director, Honda Motorcycle & Scooter India Pvt Ltd (HMSI). In fact, the productivity of this plant is 20 to 25 per cent higher than Honda’s first two- wheeler plant in India, which is minimally automated. The use of automation on the factory floor is no longer sporadic, though. The world over, Industrie 4.0 — the latest technologies in automation and data sharing in manufacturing — is redefining outdated manufacturing processes. And India is catching up as well. "We have many smart sensors installed in the machine, which keep track of various operations,” says Sridhar. For instance, a bearing condition monitoring robot will monitor the temperature of the bearing, take the feedback to the control panel, and thus save the time taken to put the machine back into production. This results in a five to seven per cent increase in asset utilisation, Sridhar explains. HMSI has introduced automation to forecast and pre-empt machine breakdown at its third factory near Bengaluru and plans to extend it to its other units soon. In fact, the emergence of Collaborative Robots (Cobots), which can work with humans has hugely extended the use of robotics on the shop floor. “In the past only big automotive companies used robots. But with Cobots, it has became affordable for small industries and component manufacturers as well,” says Pradeep David, country head (India & Sri Lanka), Universal Robots, which is a pioneer in Cobots. Market intelligence firm IDC estimates that by 2020 nearly two-thirds of all work in factories will be done by Cobots. Would that make human workers redundant? Not necessarily. Companies say that they are now upskilling employees to manage robots and troubleshoot online. The gains of automation are clearly too big to ignore and eventually society will have to find the best human-machine balance for optimising manufacturing processes. Robots building your ride Automobile manufacturing units in India are employing robots to improve efficiency and productivity An intriguing question is being intensely debated in labs, boardrooms and ministerial gatherings in many countries — should robots be soldiers? Should soldiers be robots? Rhetorical as it may be, the fact is that robotic war systems are moving beyond concept to actual usage. Remotely managed drone systems with weaponised capability have been used for almost a decade now. The Obama administration would be remembered for triggering the deployment of weaponised drones in conflict zones. Other countries too have brought remotely managed drones for attacks and assassinations. This wave of killing machines are called lethal autonomous weapons systems (LAWs), or simply killer robots. The military industry complexes in various countries are eagerly working with labs to develop LAWs that span a spectrum of capabilities. Drones are now capable of using artificial intelligence to choose their targets. So, the decision of killing is moving from the human managing the drone to an algorithm. Drones were the beginning. Similar weapons are being created and tested for ground assault. The US army already has remote-managed reconnaissance robots that can also be weaponised. These can sneak up to the target on ground and shoot them while its operating soldier is safe at a distance. The level of autonomy is in three categories broadly, depending on the configuration. The weapon can be remotely operated, remotely monitored but operated only as an intervention; and finally, a fully autonomous land- based or flying machine. The United Nations Convention on Certain Weapons has been holding meetings of experts and governments to consider a global treaty on LAWs. In the last meeting in April, many countries called for a ban on LAWs. But some others including the US, UK, Russia and Israel are focused on creating a treaty that establishes a framework for use of LAWs. For many countries a robotic soldier is the ideal weapon. Attacking the enemy from a remote location or some distance offers advantages of reduced body count. The political system that may push for war also recoils from the prospect of body bags. Some developed countries are eagerly but quietly investing in LAWs. This is creating a new category within the armaments industry,w hich is getting closer to new tech companies for collaborative efforts. Boston Dynamics has already stunned the world with it dexterous autonomous robots that can do backflips and open doors. It is just a matter of time before someone mounts a gun on it to sneak around battlefields. However, some tech companies are facing a dilemma now. Should they develop AI-based systems for weapons sector? There are reports that a few thousand Google employees have protested the company’s collaboration with the Department of Defence. Such protests notwithstanding, the two industries are coming together to create the third big shift in weaponry. After gunpowder and nuclear weapons, AI and autonomous killing machines will soon decide the fate of armed conflict. The question then is of framing rules that govern ethics, accountability and oversight of independent-minded robot soldiers. Among emerging markets, China has invested in technologies that will enable it to build LAWs. China’s Anbot robo-cop which looks like Star Wars’ R2D2, is not far from being weaponised. India’s Centre for Artificial Intelligence and Robotics under the Defence Research and Development Organisation is experimenting with its own robotic soldiers. Most countries are keeping their plans under cover but the direction and intention is clear. After the deterrence achieved by nuclear weapons, robotic warfare will be easier to unleash. KRANTI NATION PRANJAL SHARMA For many countries, a robotic soldier is the ideal weapon. Attacking the enemy from a remote location or some distance offers advantages of reduced body count AUTO ZONE Robotic soldiers march on MHEALTH AND TELEMEDICINE IN INDIA Indians living in rural regions spend up to 1.5 times more on health care than urban dwellers, primarily due to a lack of access which prevents early detection of diseases. mHealth and Telemedicine could potentially disrupt the market by bridging the gap between rural and urban health in India, which also makes it a great economic opportunity for technology companies and health care companies, and in many cases the lines between the two are blurring fast. This also opens the door for new technologies such as Artificial Intelligence (AI) to be used to augment the speed, scale and effectiveness of doctors and other health care professionals. $800 million size of the mHealth market in India 9% amount of a doctor’s time saved using mHealth technologies 76% patients in rural areas can gain access to medicine in their own villages 105 million additional population that will gain access to health care if digital health care techniques are adopted more broadly 15-20% reduction in the cost of health care for a patient mHealth in India in 2020 Too few proven business models Changing patient behaviour Lack of information Application of inappropriate regulations Hurdles in adoption of digital healthcare AI in healthcare $6.6 billion Global health AI market by 2021 50% reduction in the cost of treatment using AI 30-40% improvement in outcomes of treatment due to early detection and better accuracy of diagnosis Source: IBM Kalaari Research Report 2018, PWC, Accenture, Frost & Sullivan Hyundai's automated multi-model paint shop at Sriperumbudur can handle multiple colours in the same line without the need for a setup change ALGO RHYTHMS The age of drones Kota Harinarayana, the man who helped build India’s LCA, is now developing a range of sophisticated drones, write Bibhu Ranjan Mishra & Alnoor Peermohamed Kota Harinarayana’s team testing the features of the quadcopter drone, a model similar to the one that took part in the CRPF trials, before a demo flight ILLUSTRATION: BINAY SINHA PHOTO: SAGGERE RADHAKRISHNA 18 TECHNOLOGY 4.0 MUMBAI | THURSDAY, 17 MAY 2018 1 >

18 TECHNOLOGY 4.0 MUMBAI | THURSDAY, 17 MAY 2018 The … › images › blog › The_age... · ing its own Light Combat Aircraft (LCA), or Tejas, is busy working on realising one

  • Upload
    others

  • View
    2

  • Download
    0

Embed Size (px)

Citation preview

Page 1: 18 TECHNOLOGY 4.0 MUMBAI | THURSDAY, 17 MAY 2018 The … › images › blog › The_age... · ing its own Light Combat Aircraft (LCA), or Tejas, is busy working on realising one

He may be 74, but age hasn’t dimmed hismaverick spirit. Kota Harinarayana, theman who shaped India’s dream of build-

ing its own Light Combat Aircraft (LCA), or Tejas,is busy working on realising one more dream.

Along with a bunch of former colleagues,researchers and young engineers, Harinarayanais building drones and other unmanned aerialvehicles that can be deployed in mission criticalactivities. Their use will range from aerial sur-veillance, terrain mapping and spraying of pes-ticides in fields to more ambitious tasks such astransporting live organs from the rooftop of onehospital to another.

General Aeronautics (GA), the companyHarinarayana co-founded a year-and-a-half ago,consists of a mostly young team with a solid leader-ship. Helming the project are: Anutosh Moitra, whohas 35 years’ experience working for Boeing, NASAand Tata; PK Choudhary, retired Air Commodorewho worked with Harinarayana on validating sys-tems of the LCA; and Abhishek Burman who has 15years’ experience as an aerodynamicist.

Based out of the entrepreneurship centre atthe Indian Institute of Science (IISc) in Bengaluru,where Harinarayana had studied many decadesago, GA is working on three concepts — a con-ventional quadcopter, hexacopter or octocopter,depending on their use and requirements. Thesecond is a hybrid vehicle, which can take off andland vertically while flying like a regular aircraft.His ultimate goal, however, is to build anunmanned helicopter which is capable of carryingpayloads of 40-50 kg.

As of now, GA has designed and developed fivedifferent drone models based on the first two con-cepts. The unmanned helicopter is still in thedesign stage, as trying to build even a prototyperequires a lot of capital, which the startup doesn’thave as yet.

“We have done some design work, but thesevehicles would cost around Rs 10-15 crore each tomake which a startup like us can’t afford. But weare looking for someone to fund us,” saysHarinarayana, who has the distinction of beingthe first Indian to get a PhD in aircraft design. Sofar, General Aeronautics has raised an undisclosedamount of seed funding from an overseas investor.It hopes to develop a revenue stream soon by sell-ing its drones as well as offering them to customersand partners it has identified.

The helicopter will be mostly indigenous asthe company plans to use either an electric engineor the wankel engines that have been jointly devel-oped by National Aerospace Laboratories andDefence Research and Development Organisation,and which are usually used for bigger unmannedaerial vehicles. “The whole idea is to make it asindigenous as possible. That way the costs will below,” says Harinarayana.

When he was programme director for the LCA,Harinarayana was a big proponent of usingindigenous components. In the course of building

India’s first fighter jet, he worked closely with 40laboratories, 25 academic institutions and almost300 companies. As a result, outside of the engine,almost 80 components of the aircraft weredesigned and developed locally.

This is one reason Harinarayana and his teamdecided to work out of the IISc, which they saywill help them collaborate with researchers atthe institute who are already working on affiliate

technologies.GA is targeting three different

sectors with its drones — defence,agriculture and medicine. Five drone

models have already been developed:two quadcopters — one tethered and

one untethered; one agricultural dronethat has the capacity to carry 15 litres of

liquid and can be used for precision sprayingof pesticides; and two winged drones that can

take off and land vertically.They can be used for medical emergencies

where drones can carry emergency medical sup-plies to an accident site in a remote location or evenin gridlocked city streets.

The requirements are different in the defencesector. The drones suitable in this field are thosethat can be assembled and deployed quickly, arerelatively noise free, and come equipped withinfrared and regular cameras. They should also beable to transmit video and data in real time.Moreover, the devices should be small, light and beable to navigate autonomously.

Some weeks ago, GA simulated a real-life recon-naissance mission with its drones when it partic-ipated in a technical evaluation done by theCentral Reserve Police Force (CRPF) in the junglesof Naxal-infested Chhattisgarh. The quadcopter,

which is equipped with day and nightvision cameras, took part in multipleexercises that tested its ability to flyin the dark, its autonomous flyingcapabilities and so on. GA, along withtwo other drone manufacturing com-panies that participated in the tests,await further feedback from the CRPF.

“It was a great experience for ouryoung team. How does our vehicle

work in a real jungle? How does our software work?How do our communications work,” saysHarinarayana. “I think the CRPF is using somedrones, but they require many more. Rather thanimport them, the government is pushing them touse indigenous drones.”

A big challenge to developing drones in Indiais the lack of policy. GA jumped at the opportuni-ty of participating in the CRPF trials not just in thehope of winning an order, but also to validate andtest its systems in a real-world simulation. Thelack of a drone policy in India forces companieslike GA to conduct small trials on private landwhich is unsuitable for the complete validation ofdrone systems.

Harinarayana knows only too well that gettingpolicies drafted is an arduous task. Even so, he isconfident that the Directorate General of CivilAviation (DGCA) will come out with a policy in thisregard soon. The DGCA’s app-based permissionsystem to fly drones will be unlike any other in theworld, asserts Harinarayana, adding that the gov-ernment realises that it cannot be left behind inbuilding its own drone technologies.

The optimist that he is, Harinarayana believesthat the future of drones in India will ride on smalland medium enterprises, R&D labs and acade-mia. But someone has to hand-hold them all,someone with the capability to design and inte-grate all the various systems that are required tomake a fully functional aircraft.

As things stand, that someone is clearly noneother than Harinarayana.

T.E. NARASIMHAN

The Hyundai plant in Sriperumbudur insuburban Chennai doesn’t conform to the old-fashioned image of a factory with greasy floorsand deafening noise. Instead, it looks clean andwelcoming. The rows of brand new cars indicatethat the factory is working at full tilt. The plantchurns out one car every 30 seconds. And this isthanks not only to the men in blue coveralls whowork here. Toiling side by side with the humansare a bunch of yellow-hued robots that helpramp up the unit’s efficiency and productivity.

A few hundred kilometres away, Honda'stwo-wheeler plant near Narsapura in theoutskirts of Bengaluru also uses robots toimprove efficiencies. Indeed, most automakerswho have set up manufacturing plants in Indiaare resorting to automation to boost theirproductivity.

At Hyundai's Sriperumbudur factory, where580 robots are in use, the defect ratio hasdropped from five per cent to less than two. Thisplant is in the Top 5 in the Qualitivity charts(Quality + Productivity) amongst HyundaiMotor Group’s (HMG) 32 plants worldwide. It

was also HMG’s Number 1 performing overseasplant and the No 1 Safety Plant in 2017.

Says S Ganesh Mani, vice-president,production, Hyundai Motor India Ltd (HMIL),“Our strategy is to use automation to minimiseand eliminate dirty, dull and dangerous jobs andto improve overall efficiencies.”

Other auto manufacturers are also usingautomation in a big way. Sources say that MarutiSuzuki India Ltd now has one robot for almostevery four workers and that it has some 5,000robots at its Manesar and Gurgaon plants.

Earlier, welding guns used to be operatedmanually in the body shop of an automanufacturing unit. However, as weldingbecame more sophisticated and the guns gotheavier, manual operation became tougher.Robots are perfect for this function. They arealso employed to conduct quality checks on theengine of a car using the high-speed Visionsystem.

Currently, HMIL’s body shop is more than 95per cent automated and its paint shop is 65 percent automated. HMIL has been enhancingautomation levels year on year by migratingfrom third to fourth generation robots.

Honda’s new two-wheelermanufacturing unit nearBengaluru is fully automatedas well. For example, whereearlier humans picked upmaterial from one machineand fed it into another, thistask is now done via a robotichand, from end to end.Thanks to automation, theline that was earlier mannedby around 10 workers hasupped its productivity withjust three or four workers,reveals V Sridhar, group vicepresident and director,Honda Motorcycle & ScooterIndia Pvt Ltd (HMSI).

In fact, the productivity ofthis plant is 20 to 25 per centhigher than Honda’s first two-wheeler plant in India, whichis minimally automated.

The use of automation on the factory floor isno longer sporadic, though.

The world over, Industrie 4.0 — the latesttechnologies in automation and data sharing inmanufacturing — is redefining outdatedmanufacturing processes. And India is catchingup as well.

"We have many smart sensors installed in the

machine, which keep track of variousoperations,” says Sridhar.

For instance, a bearing conditionmonitoring robot will monitor the temperatureof the bearing, take the feedback to the controlpanel, and thus save the time taken to put themachine back into production. This results in afive to seven per cent increase in assetutilisation, Sridhar explains. HMSI has

introduced automation toforecast and pre-emptmachine breakdown at itsthird factory near Bengaluruand plans to extend it to itsother units soon.

In fact, the emergence ofCollaborative Robots(Cobots), which can workwith humans has hugelyextended the use of roboticson the shop floor. “In thepast only big automotivecompanies used robots. Butwith Cobots, it has becameaffordable for smallindustries and componentmanufacturers as well,” saysPradeep David, countryhead (India & Sri Lanka),Universal Robots, which is apioneer in Cobots.

Market intelligence firmIDC estimates that by 2020nearly two-thirds of all work in factories will be

done by Cobots.Would that make human workers

redundant? Not necessarily. Companies say thatthey are now upskilling employees to managerobots and troubleshoot online. The gains ofautomation are clearly too big to ignore andeventually society will have to find the besthuman-machine balance for optimisingmanufacturing processes.

Robots building your rideAutomobile manufacturing units in India are employingrobots to improve efficiency and productivity

An intriguingquestion is beingintensely debated inlabs, boardrooms andministerial gatheringsin many countries —should robots besoldiers? Shouldsoldiers be robots?

Rhetorical as itmay be, the fact is thatrobotic war systemsare moving beyondconcept to actualusage. Remotelymanaged drone

systems with weaponised capability have beenused for almost a decade now. The Obamaadministration would be remembered fortriggering the deployment of weaponised dronesin conflict zones. Other countries too have broughtremotely managed drones for attacks andassassinations.

This wave of killing machines are called lethalautonomous weapons systems (LAWs), or simplykiller robots. The military industry complexes invarious countries are eagerly working with labs todevelop LAWs that span a spectrum of capabilities.Drones are now capable of using artificialintelligence to choose their targets. So, thedecision of killing is moving from the humanmanaging the drone to an algorithm.

Drones were the beginning. Similar weaponsare being created and tested for ground assault.The US army already has remote-managedreconnaissance robots that can also beweaponised. These can sneak up to the target onground and shoot them while its operating soldieris safe at a distance. The level of autonomy is inthree categories broadly, depending on theconfiguration. The weapon can be remotely

operated, remotelymonitored butoperated only as anintervention; andfinally, a fullyautonomous land-based or flyingmachine.

The UnitedNations Conventionon Certain Weaponshas been holdingmeetings of expertsand governments toconsider a globaltreaty on LAWs. In the

last meeting in April, many countries called for aban on LAWs. But some others including the US,UK, Russia and Israel are focused on creating atreaty that establishes a framework for use ofLAWs.

For many countries a robotic soldier is the idealweapon. Attacking the enemy from a remote locationor some distance offers advantages of reduced bodycount. The political system that may push for war alsorecoils from the prospect of body bags.

Some developed countries are eagerly butquietly investing in LAWs. This is creating a newcategory within the armaments industry,w hich isgetting closer to new tech companies forcollaborative efforts. Boston Dynamics hasalready stunned the world with it dexterousautonomous robots that can do backflips and opendoors. It is just a matter of time before someonemounts a gun on it to sneak around battlefields.

However, some tech companies are facing adilemma now. Should they develop AI-basedsystems for weapons sector? There are reports thata few thousand Google employees have protestedthe company’s collaboration with the Departmentof Defence.

Such protests notwithstanding, the twoindustries are coming together to create the thirdbig shift in weaponry. After gunpowder and nuclearweapons, AI and autonomous killing machines willsoon decide the fate of armed conflict.

The question then is of framing rules thatgovern ethics, accountability and oversight ofindependent-minded robot soldiers.

Among emerging markets, China has investedin technologies that will enable it to build LAWs.China’s Anbot robo-cop which looks like Star Wars’R2D2, is not far from being weaponised. India’sCentre for Artificial Intelligence and Roboticsunder the Defence Research and DevelopmentOrganisation is experimenting with its ownrobotic soldiers. Most countries are keeping theirplans under cover but the direction and intentionis clear. After the deterrence achieved by nuclearweapons, robotic warfare will be easier to unleash.

KRANTI NATIONPRANJAL SHARMA

For manycountries, arobotic soldier isthe ideal weapon.Attacking theenemy from aremote locationor some distanceoffers advantagesof reduced bodycount

AUTO ZONE

Robotic soldiersmarch on

MHEALTH ANDTELEMEDICINE IN INDIAIndians living in rural regions spend up to 1.5 times more onhealth care than urban dwellers,primarilydue to a lackof accesswhich prevents earlydetectionof diseases.mHealth andTelemedicine could potentiallydisrupt the market by bridging thegap between rural and urbanhealth in India, which also makes ita great economic opportunity fortechnology companies and health care companies,and in many cases the lines between the two areblurring fast. This also opens the door for newtechnologies such as Artificial Intelligence (AI) to beused to augment the speed, scale and effectiveness of doctors and other health care professionals.

$800 millionsize of the mHealthmarket in India

9%amount of adoctor’s time savedusing mHealthtechnologies

76%patients in ruralareas can gainaccess to medicinein their own villages

105 millionadditionalpopulation thatwill gain access tohealth care ifdigital health caretechniques areadopted morebroadly

15-20%reduction in the cost of healthcare for a patient

mHealth in India in 2020

Too few proven business models

Changingpatient behaviour

Lack ofinformation

Application ofinappropriateregulations

Hurdles in adoption ofdigital healthcare

AI inhealthcare$6.6 billionGlobal health AImarket by 2021

50%reduction in thecost of treatmentusing AI

30-40%improvement inoutcomes oftreatment due toearly detectionand betteraccuracy ofdiagnosis

Source: IBM KalaariResearch Report 2018,PWC, Accenture, Frost& Sullivan

Hyundai's automated multi-model paint shop at Sriperumbudur can handle multiplecolours in the same line without the need for a setup change

ALGO RHYTHMS

The age of dronesKota Harinarayana, the man who helped build India’s LCA, is now developing a range of sophisticated drones,write Bibhu Ranjan Mishra & AlnoorPeermohamed

Kota Harinarayana’steam testing thefeatures of thequadcopter drone, amodel similar to theone that took part inthe CRPF trials, beforea demo flight

ILLU

STRA

TION

: BIN

AY S

INH

A

PHOTO: SAGGERE RADHAKRISHNA

18 TECHNOLOGY 4.0 MUMBAI | THURSDAY, 17 MAY 2018 1>