Tecnologie ICT e Robotiche per l'autonomia delle persone anziane e per il supporto al caregiver - Ansdipp
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Tecnologie ICT e Robotiche per l’autonomia delle persone anziane e per il supporto al caregiver Filippo Cavallo Assistant Professor The BioRobotics Institute, Scuola Superiore Sant’Anna Head of the Assistive Robotics Laboratory filippo.cavallo@santannapisa.it
Assistive Robotics Laboratory Advanced ICT Robotics for better Quality of Life (active and healthy ageing, neurodegenerative and chronic diseases, co-working, home consumer) • To promote and evaluate novel service robotics for active and healthy ageing in order to foster independent living • To identify and validate disruptive healthcare paradigms for neurodegenerative and chronic diseases, focusing on prevention and support for physical and cognitive declines • To optimize the management of working life for improving efficiency, security and QoL of workers in industrial settings.
Assistive Robotics Laboratory Advanced ICT Robotics for better Quality of Life (active and healthy ageing, neurodegenerative and chronic diseases, co-working, home consumer) - Large experimental sites in assisted living (150+ elderly, 200+ stakeholders) - Clinical validation for early diagnosis and therapies in Parkinson (800+ subjects) - Cognitive Frailty studies and adaptive coaching support (30+ subjects and MCI)
Questions! • Are ICT and Robotics a reasonable solution for future caring scenarios? • What kind of integration is required to achieve technically feasible and human centred acceptable solutions? • Are these scenarios sustainable for the society, by an economic, social and ethical point of view? • Do we have already concrete solutions and / or best practices?
Peter Wintlev-Jensen Demographic Ageing: Deputy Head of Unit European Commission DG CONNECT H2 societal needs and opportunities Social Necessity Major Opportunity Dependency Ratio Empowerment •From 1:4 to 1:2 • Active Ageing •80+ doubles by 2025 Cost of Care New Care Models •Up by 4-8 % of GDP by 2025 •Integrated care •Large Efficiency gains Human Resources Growth and Markets •Shrinking work force •3000 B€ Wealth •Lacking 20 million carers by 2020 •85 Million Consumers and growing ••• 5
Demographic dependency ratio • In 2060 one potential carer (i.e. a person aged 45-64) is expected for 51 persons of 80 years old or more. This hints at the potential gap between supply and demand of care • The decrease of working-age population will lead to an increase in the demand for nurse practitioners (+94% in 2025) and physicians assistants (+72% in 2025), as well as an increased need for a higher level of care and for future assistance.
Some numbers in Italy * Average cost for one day in hospital: 700-800€ per person; 1 old person out of 6 in Italy is not self-sufficient; 1 old person out of 3 in Italy has suffer from a chronic disease; In Italy Il sistema sanitario nazionale risponde bene a problemi sanitari acuti, ma non all’assistenza in generale; Every 100 young people, threre are 161 elderly 65+; 900.000 «badanti» in Italy (up to 1800€/month); 11M Italians have used private insurance for future assistance; Available beds in residential or semi-residential facilities are 233.000 in Italy (1/3 of France and ¼ of Germany); 760.000 elderly people out of potential 2.7M are using social and health services; In 2035, more than 100.000 additional caregivers and operators are required; Differences between North and Sud, 10:1. * Marcella Cocchi, da La Nazione del 31/03/2017
Service Areas Prevention Compensation and Support Independent and Active Ageing
Robot-Era at a glance Services provided by a set of autonomous and well orchestrated mobile robots integrated in smart environments : outdoor, condominium and domestic (3D service robotics) • Duration 2012 - 2015 • Total Project Cost: € 8.700.000 The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
7 robots developed 1 innovative method for indoor andRobot-Era urban Numberfor acceptability environments 1 day for setting a 6/7 the average robot (almost Technology plug&play) Readiness Level 3 real use-cases 2 Living labs in Italy and Sweden 200+ stakeholders in co-design phases 155 users tested the robots Robot-Era in numbersThe Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
Analysis of end-users needs and service definition Robot-Era Services Definition Communication Indoor escort at night Reminding Outdoor walking support Laundry support Drug and shopping delivery Garbage collection Food delivery Objects transportation The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
Robot-Era innovation Services provided by a set of autonomous and well orchestrated mobile robots integrated in smart environments : outdoor, condominium and domestic (3D service robotics) • Di Nuovo, A., Broz, F., Cavallo, F., & Dario, P. (2016). New Frontiers of Service Robotics for Active and Healthy Ageing. International Journal of Social Robotics, 8(3), 353-354. • Moschetti, A., Fiorini, L., Esposito, D., Dario, P., & Cavallo, F. (2016). Recognition of daily gestures with wearable inertial rings and bracelets. Sensors, 16(8), 1341. • Fiorini, L., Esposito, R., Bonaccorsi, M., Petrazzuolo, C., Saponara, F., Giannantonio, R., De Petris, G., Dario, P. & Cavallo, F. (2016). Enabling personalised medical support for chronic disease management through a hybrid robot-cloud approach. Autonomous Robots, 1-14. • Cavallo, F., Limosani, R., Manzi, A., Bonaccorsi, M., Esposito, R., Di Rocco, M., ... & Dario, P. (2014). Development of a socially believable multi-robot solution from town to home. Cognitive Computation, 6(4), 954-967. The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
Robotic patients lift and transfer • Manual handling is the highest accident trigger reported to the Health and Safety Authority (HSA) by the healthcare sector [1]; • The most common cause of reported incidents was lifting or carrying (41% of reported incidents in 2010); • 1 in every 3 nurses becomes injured from the physical exertion put forth while moving non-ambulatory patients, costing their employers $35,000 per injured nurse; • Over the coming years, the declining ratio of working age adults to elderly will further exacerbate the shortage; [1] Analysis of the causes and costs of Manual Handling Incidents in the Health Care sector, Irish Health and Safety authority 2007. [2] Roger Bostelman, James Albu, “Robotic Patient Lift and Transfer”, National Institute of Standards and Technology, USA
Technical Solutions • Ergonomics • Service robotics with physical interaction abilities
Agile Co-Creation of Robots for Ageing MISSION: ◆Advanced ICT Robotics based solutions for ageing ◆Agile co-creation development process ◆Interoperability and flexibility of platform EU Partners: 1. TRIALOG (France) 2. Scuola Superiore Sant’Anna (Italy) 3. Erasmus University Rotterdam (The Netherlands) 4. Paris Dauphine (France) 5. Bluefrog robotics (France) 6. Fondazione Casa Sollievo della - Horizon 2020 SC1-PM-14-2016 (2M€) Sofferenza (Italy) - EU-Japan cooperation on Novel ICT Robotics based solutions for active JP Partners: 1. Kyoto University and healthy ageing at home or in care 2. Kobe University facilities) 3. Connect Dot Ltd - Horizon 2020 and NICT. ▶15
Robot Companion Evolution in Walking Support 2012 2015 2018 •Active Walking •Handle pressure Support / force sensors •Passive Walking for HRI Support •Handle buttons Astro Roboti-Era for HRI ACCRA •HR Shared •Gentle Spring control based actuation •Obstacle avoidance for •Human walk safety analysis ▶16
Telecare and telemonitoring • The Scottish Telehealth and Telecare Delivery Plan (STTDP) [Edimburg, 2012] generated savings for about € 113 million in the period 2006-2010, offering for example decision support using video conferencing and the remote monitoring of data from alarm/telecare services using call-center. • The US Veterans Health Administration [Darknis, A., 2013], claimed savings for up to 1999$ per patients using telehealth instead of the traditional care paradigm. • Results indicated that elderly persons who perceived telecare as useful in solving health problems, had the intention to use the program, and were willing to continue use, also had a better perception toward quality of life regarding their interpersonal relationships and living environment [Chou, 2013].
Domestic Robot (DORO) Validated in realistic environment Dimensions (W x L x H) 610 x 735 x 1550 mm Weight about 65 kg Actuation differential with two high torque EC gear-motors Speed Typical: 0.8m/s, - Max: 1.4 m/s Localization AMCL algorithm based on laser data Obstacle detection SickS 300 - Hokuyo URG-04LX Laser sensors. Obstacle detection up to 30 m on the front – up to 4 m on the back Power 24 VDC Batteries 24 V lithium batteries with 60 Amp-hrs Battery runtime about 16h, Recharging time: about 6 hours Safety One emergency button, bumper around the base Arm payload 1.5 kg Arm max velocity 20cm/s Arm range 90cm Removable Tablet 10.1 tablet, Apple iPad Software Cognidrive and ROS based. Autonomous navigation with obstacle avoidance provided with common interfaces of the ROS navigation stack. The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
Condominium Robot (CORO) validated in realistic environment Dimensions (W x L x H) 610 x 735 x 1550 mm Weight about 65 kg Actuation differential with two high torque EC gear-motors Speed Typical: 0.8m/s, - Max: 1.4 m/s Localization AMCL algorithm based on laser data Obstacle detection SickS 300 - Hokuyo URG-04LX Laser sensors. Obstacle detection up to 30 m on the front – up to 4 m on the back Power 24 VDC Batteries 24 V lithium batteries with 60 Amp-hrs Battery runtime About 16h, Recharging time: about 6 hours 99Safety One emergency button. Bumper around the base. Roller dimension (W x L) 345 x 345 mm Removable Tablet 7” tablet, Nexus 7 9 Software Cognidrive and ROS based. Autonomous navigation with obstacle avoidance provided with common interfaces of the ROS navigation stack. The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
Outdoor Robot (ORO) Dimensions (W x L x H) 75 x 100 x 145 cm Weight about 150 kg Actuation 2 Swissdrive 400 T hub motor by Micro-Motor AG, 24 VDC, 400W Speed Typical: 3 km/h, 0.83 m/s - Max: 4.5 Km/h 1.25 m/s Maximum slope 20% Localization Novatel FLEX6-D2L-R0G-TTR (GPS) plus FLEX6-D2S-Z00-00N (Align unit) Localization accuracy Position < 3 cm, Heading < 0.1° (NTRIP provided and enough visible satellites) system complete Obstacle detection Hokuyo UTM-30LX Laser and US/IR sensors and qualified Obstacle detection 0.1 – 30m Power 24 VDC Batteries Lead-acid gel batteries 2 x 12V 100Ah Battery runtime About 10h, Recharging time: about 6 hours Safety Two emergency button. Braking distance: 1m at 1.25 m/s Container dimension (W x L x H) 450 x 350 x 400 mm standard container, 450 x 350 x 300 roller container Container Payload 15 Kg Touch Screen 12” touch screen, 800 x 600 pixel Software ROS based. Autonomous navigation with obstacle avoidance provided with common interfaces of the ROS navigation stack. Navigation accuracy Position < 40 cm, Heading < 5° The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
Home Sensors Door/Window Sensors Force Sensors Gas/Water Leak Temperature/ Light/Humidit y Smart Plug Gatway
SMART CAREGIVER SYSTEM L’azienda (Petaluma, California) propone una serie di sensori per il monitoraggio degli anziani in case private ed all’interno di strutture sanitarie. Il sistema proposto comprende sensori per il rilevamento di persone su letti, sedie o aree specifiche di un ambiente (tappetini sensorizzati e sensori di presenza), sistemi per il monitoraggio degli accessi con tecnologia RFID e sistemi di gestione degli allarmi. i materassini o tappetini sensorizzati hanno un costo variabile a seconda della dimensone, tra 38$ e 95$. Gli allarmi individuali per familiari o operatori socio-sanitari, in grado di segnalare l’alzata dal letto/sedia hanno un costo tra i 25$ (solo allarme acustico) e i 49$ (allarme acustico+visivo). Le stazioni di monitoraggio per strutture sanitarie sono in grado di gestire contemporaneamente centinaia di sensori ed il loro costo varia a seconda del numero di dispositivi collegati tra 63$ e 1200$.
TUNSTALL SUITE Il sistema di teleassistenza prevede diversi sensori posizionati all’interno dell’abitazione, collegati a un’unità centrale ad uso domestico oppure un sistema di teleassistenza Tunstall abilitato e monitorato 24/24 ore, 365 giorni all’anno da una centrale di ascolto, in grado di garantire la gestione di una emergenza. I dispositivi tunstall includono sensori di:
EMPATICA E4 (EMPATICA) Empatica ha sviluppato un prodotto composto da un bracciale indossabile sul polso e un’applicazione per smartphone integrata in un sistema di cloud computing. Il device misura vari parametri fisiologici e li interpreta per ricavarne gli stati emotivi dell’utente. L’applicazione per smartphone si presenta come un assistente personale del proprio benessere, fornendo consigli utili al miglioramento personale
Acceptability assessment Quantitative Data Qualitative Data Emotion Emotional status mostly neutral (95%) , and only positive emotion (5%) have been experienced during the interaction, never negative The interaction, even when some technical issues occurred, it was never perceived as annoying or frustrating Gaze Good percentage of directed gaze (52%) Engagement and interest toward the robot Facial expressions and Body gestures Facial expressions and body gestures served also to Scenario1 accepted by 47 users on 50 increase the communicative strength of messages to Scenario2 accepted by 26 users on 30 the robot (smile: 3,6%; laugh: 1,5%; nodding: 1,2%; shaking head: 0,2%) Scenario1 accepted by 17 users on 20 Good degree of engagement during the interaction Interaction with the robot Low degree of no interaction (2,7%) Toward innovative standards to measure the acceptability of Robots, based on user-oriented constructs The Robot-Era Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement num. 288899 - WWW.ROBOT-ERA.EU
System Usability Scale (SUS) Over75 more than Under 75 (p
Preparing the Future of Robotics in Europe with Citizens, Regulatory Agencies and Lawmakers The EU RoboLaw Project The RoboLaw Project has received funding from the European Community's Seventh Framework Programme (FP7/2007-2013) under grant agreement no. 289092 WWW.ROBOLAW.EU Project main goal To elaborate “Guidelines for Regulating Robotics", containing recommendations for the European Commission, in order to establish a solid framework of ‘robolaw’ in Europe Bertolini, A., Salvini, P., Pagliai, T., Morachioli, A., Acerbi, G., Trieste, L., Cavallo, F., … & Dario, P. (2016). On Robots and Insurance (vol 8, pg 381, 2016). International Journal of Social Robotics, 8(5), 763-763.
Robot-Era Video
Pepper robot
Robots and Jobs • Studies are showing the big impact of this revolution (also jointly with Industry 4.0); • Surely, some jobs will be replaced, mainly those more repetitive, risky, boring, etc.; • The technology evolution is moving, difficult to be stopped; • Societal projections seem to clearly ask for robots; • Some studies also demonstrate that technology could increase jobs.
• Results show that RRTC has on net led to positive labor demand effects across 27 European countries over 1999-2010, indicating that labor is racing with the machine; • This is not due to limited scope for human-machine substitution, but rather because sizable substitution effects have been overcompensated by product demand and its associated spillovers.
Conclusions 1. ICT and Robotics are a great opportunity to innovate the healthcare sector and to face the most important challenges at different levels: societal, technological, etc.; 2. Stakeholders’ involvement is fundamental to appropriately shape the new service robotics solutions for healthcare; 3. Elderly people have a good perception of technologies, important is usability and utility; 4. Technology in medicine has already demonstrated important benefits, why not for care?; 5. Regulations and re-organizaton of work is important, but it should be performed at societal level; 6. “Robots are going to steal some jobs”, But we have to shape our best society.
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