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IRI BIENNIAL REPORT 2015 / 2016

IRI · in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant,

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Page 1: IRI · in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant,

IRIBIENNIALREPORT2015 / 2016

Page 2: IRI · in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant,
Page 3: IRI · in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant,

IRI

BIENNIALREPORT2015 / 2016

Page 4: IRI · in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant,

IND

EX

Page 5: IRI · in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant,

OVERVIEWOrganization

Special research recognition for the next years

ERC Advanced Grant

María de Maeztu

IRI in numbers

Facilities

Services

67

8

8

9

10

12

14

REsEaRchResearch lines

Kinematics and Robot Design

Mobile Robotics

Perception and Manipulation

Automatic Control

Regional research group recognition

Upcoming H2020 research projects

IRI Research seminar series

1617

18

24

34

44

54

56

58

PUBLIcaTIONs

EDUcaTION

TEchNOLOGY TRaNsFERTechnology transfer projects

Expertise

Services and clients

OUTREachActivities

Social networks & Media appearances

FUNDING

7677

78

7071

74

75

80

68

1

2

3

4

5

6

7

60

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Juan andradeDirector

"The immediate future at Institut de

Robòtica i Informàtica Industrial is

posed with plenty of stimulating

activity"

IRI celebrated in 2015 its 20th anniversary. The-se two decades have consolidated IRI as a re-ference center in Spain for research in robotics and automatic control. We saw this year the culmination of this growth process with the re-cognition of IRI as a María de Maeztu Center of Excellence for the forthcoming four-year period (7/2017-6/2021) with a strategic research pro-gram on human-centered robotics. The research activities that have led us to this success are of varied nature. We can highlight in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant, and deep convolutional feature descriptors in computer vision, and the estimation of sequen-tial non-rigid structure from motion in the EU project VISEN and the national project RO-BINSTRUCT; methods for the computation of closed-loop inverse kinematics for redundant robots; fault tolerant control with applications

to aerial robotics and wind farm fault isolation; and the modelling and control of fuel cell-based hybrid energy systems of the PUMAMIND EU project, or the modelling and control of urban drainage systems within the EU EFFINET pro-ject.

All in all, IRI’s researchers published 86 indexed journal papers during this period, 60% of them in journals positioned in the first quartile of their disciplines; 9 book chapters, 1 edited book, and 100 conference papers. Of these, we celebrate 5 articles in the IEEE Transactions on Industrial Electronics, the highest-ranked journal in the automation and control systems subject cate-gory, 2 articles in the IEEE Transactions on Pa-ttern Analysis and Machine Intelligence, and 1 article in the International Journal on Computer Vision, the second and third-ranked journals in the computer science-artificial intelligence sub-ject category.

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cesses for the company Ikercon, on modelling of sewage systems for the University of Los Andes, on computer vision for the automotive sector for the company Ficosa, on medical imaging for Janelia Research USA, on automatic audiovisual production for the company Mediapro, and on visual inspection of pad printing for GDE Group.Moreover, we continued during this period our long-term partnership with Cetaqua for contri-butions in the development of innovative solu-tions for the water cycle management. The period ended with fantastic news. Prof. Car-me Torras was Awarded the prestigious ERC Advanced Grant for her project CLOTHILDE, a 5-year project to develop a theory of robo-tic manipulation of textiles. This ERC grant and the María de Maeztu research program on hu-man-centerd robotics amount to a 30% increase of the institute’s activity for the coming years.

The immediate future is posed with plenty of stimulating activity at IRI, and I am sure that our scientists and collaborators worldwide will find a great setting for their scientific success.

Fifteen PhD students completed their studies during this period. Special recognition is given to Gonzalo Ferrer, finalist of the 2016 euRobo-tics Georges Giralt PhD Award to the best Euro-pean PhD in robotics, for his work on social ro-bot navigation in urban dynamic environments; and to Edgar Simó, who obtained the 2016 Este-va-Vivanco Prize to the Best PhD Thesis on Ar-tifical Intelligence awarded by the Catalan As-sociation for Artificial Intelligence. Edgar’s work on the use of deep learning in computer vision for the creation of recommendation systems for the fashion industry received significant natio-nal and international media attention.

Other achievements during this period include the first prize in the CEABOT humanoid robo-tics contest awarded to Laia Freixas and Alejan-dro Suárez, the best oral paper to Congcon Sun in the WRE conference, and the participation of Prof. Carme Torras in the all-women organizing committee of the 2015 IEEE International Confe-rence on Robotics and Automation.

Our scientists continue to be very active in the procurement of competitive funds to support their research. This period we ran 38 projects with a total budget of 7.6M€, 70% of which co-mes from EU competitive calls.

Most funds are linked to competitive research projects, although other relevant initiatives are also worth mentioning, such as IRI’s participa-tion in two Maria Sklodowska Curie Innovative Training Networks, or the coordination of the public end-user driven technology innovation efforts of the EU ECHORD++ project, identif-ying cities and citizens needs and selecting the robotics technologies that meet such demands.

Technology transfer has been strengthened du-ring this period at IRI. We initiated a Technology Transfer Action Plan, supported by the Genera-litat the Catalunya, which helped us to deliver technology solutions on advanced control pro-

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6

1. O

VE

RV

IEW

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7

The Institut de Robòtica i Informàtica Industrial is a Joint University Research Institute of the Spanish Council for Scientific Research (CSIC) and the Technical University of Catalonia (UPC).

The Institute conducts basic and appplied research in robotics and automatic control.

It was created in November 1995 and is located in the Parc Tecnològic de Barcelona, in the Faculty of Mathematics and Statistics building in the South Campus of UPC in Barcelona, Spain.

ORGANIZATION

ADDRESS:Parc Tecnològic de Barcelona, C/ Llorens i Artigas 4-6. 08028 Barcelona, Spain

DIRECTORJuan Andrade

DEPUTY DIRECTORCarlos Ocampo

REPRESENTATIVES:PhD Members: Antonio Agudo

PhD Students: Àngel Santamaria

Support Personnel: Evili del Rio

DEPARTMENT HEAD:Pablo Jiménez

RESEARCH LINE LEADERS:

MOBILE ROBOTICSAlberto Sanfeliu

PERCEPTION AND MANIPULATIONCarme Torras

KINEMATICS AND ROBOT DESIGNJosep Maria Porta

AUTOMATIC CONTROLMaria serra

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Textile objects pervade human environments and their versatile manipulation by robots would open up a whole range of possibilities, from increasing the autonomy of elderly and disabled people, hou-sekeeping and hospital logistics, to novel automation in the clothing internet business and upholste-red product manufacturing.

Although efficient procedures exist for the robotic handling of rigid objects and the virtual rende-ring of deformable objects, cloth manipulation in the real world has proven elusive, because the vast number of degrees of freedom involved in non-rigid deformations leads to unbearable uncertainties in perception and action outcomes.

This proposal aims at developing a theory of cloth manipulation and carrying it all the way down to prototype implementation in our Lab. By combining powerful recent tools from computational topology and machine learning, we plan to characterize the state of textile objects and their transfor-mations under given actions in a compact operational way (i.e., encoding task-relevant topological changes), which would permit probabilistic planning of actions (first one handed, then bimanual) that ensure reaching a desired cloth configuration despite noisy perceptions and inaccurate actions.

In our approach, the robot will learn manipulation skills from an initial human demonstration, subse-quently refined through reinforcement learning, plus occasional requests for user advice. The skills will be encoded as parameterised dynamical systems, and safe interaction with humans will be gua-ranteed by using a predictive controller based on a model of the robot dynamics. Prototypes will be developed for 3 envisaged applications: recognizing and folding clothes, putting an elastic cover on a mattress or a car seat, and helping elderly and disabled people to dress.

SPECIAL RESEARCH RECOGNITIONSFOR THE NEXT YEARS

ERC Advanced Grant:

Period

Carme Torras

October 2017 /September 2022

Principal Investigator

Maria AlberichGuillem AlenyàJuan AndradePablo JiménezFrancesc MorenoVicente Ruiz de AnguloFederico Thomas

Researchers

Budget

2,5 M€

Project description

Cloth manipulation Learning from demonstrations / CLOTHILDE

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The María de Maeztu scientific excellence seal has been awarded to IRI by the Spanish State Research Agency for the period 01/07/2017-30/06/2021.

Beneficiary entities are both CSIC and UPC as a joint research unit.

A 4-year Strategic Research Programme will be developed in Human-Centered Robotics.

The concept of human-centered robotics is meant to include the many different situations in which robots are in close contact and interact with humans. These include, but is not limited to, social robotics with significant human-robot interaction, collaborative robotics in which humans and robots work together to achieve a common task, or assistive robotics in which robotic technologies are exploited to help the elderly or the impaired.

7 key core challenges were identified that apply to all these domains, and translate into these 7 specific scientific objectives of significant relevance and novelty.

Project description

- Emphatic natural human robot interaction and collaboration

- Robust localization and mapping

- Dexterous textile manipulation

- Robot learning using natural communication

- Energy supply and management

- Advanced supervision and control

- Ethical, regulatory and philosophical aspects of social robotics

María de Maeztu: Unit of Excellence

Period

Alberto Sanfeliu

July 2017 /June 2021

Principal Investigator

Juan AndradeGabriela CembranoFrancesc MorenoJosep Maria PortaFederico ThomasCarme Torras

Guarantors

Budget

2 M€

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10

313431293032292925

1917

1169811710

14

8

55

1515151615161715

10

812

363628

36393733

27

28

2017

3339

43

282434

27

22

17

1717

20162015201420132012201120102009200820072006

Researchers Support Services PhD Students Students

STAFFevolutionsince 2006 (stacked chart)

IRI IN NUMBERS

In the biennium 2015-2016, our center has continued being a scientific leader in the fields of robotics and automatic control in Spain. We have seen significant strengthening in many aspects such as scientific production and fundraising.

Our research staff published 207 scientific papers in journals and conferences in the period 2015-2016, more than in the previous two years. Growth is appreciated not only in the quantity of publications, but also in quality, increasing by 29% the number of articles published in highly-ranked journals.

Regarding the procurement of competitive funds for research, we have signed 19 new projects this two-year period, nearly reaching more than 3.8 million Euros of secured research funds.

MEMBERSIN THE StAFFduring 2016

Support and Technical Staff

Permanent Research Staff and Postdocs

PhD Students

Undergraduate and Master Students

Services Staff

Robots

31

41

15

11

>21

36

total: 134 persons

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11

10

100

11

86

1214

10

5

6

2127,9

1019,7

165,9

169

332

9

6

in 2015/2016 in 2015/2016

207 15

47 3814,4

SCIENTIFICPUBLICATIONS

RESEARCHPROJECTS

PhD THESESDEFENDED

BUDGETOF THE PROJECTS

Technical Reports

Books and Book chapters

Journal Articles

Conferences 2015

2016

CSIC Projects

Regional Projects

European Projects

National Projects

Tech. Transfer Projects

see page 60 see page 69

see page 16 see page 16

Secured funds of the project

initiated in period 2015/2016

(in thousand of €)

CSIC Projects

Regional Projects

European Projects

National Projects

Tech. Transfer Projects

Running projects in

period 2015/2016

Page 14: IRI · in the period 2015-2016 contributions on visual servoing for aerial robotic manipulation within the ARCAS and AEROARMS EU projects; the development of deformable, light invariant,

12

FACILITIES

Barcelona Robot Laboratory The Barcelona Robot Lab encompasses an outdoor pedestrian area of 10.000 sq m., provided with 21 fixed cameras, a set of heterogeneous robots, full wifi co-verage and partial GPS coverage. It has the capability to process real time images for robotic applications. This laboratory is used for urban pedestrian mobile robotics research in national and European projects.

Mobile Robotics Laboratory

The Mobile Robotics Laboratory is an experimental area primarily devoted to hands-on research with mobile robot devices. The lab includes two service robots for urban robotics research based on Segway platforms, a 4-wheel rough outdoor mobile robot, a fully automated electric vehicle, a six-legged LAURON-III walking robot, 3 Pioneer robots, three aerial autonomous robots (from 500gr to 5Kg of payload) and a vast number of sensors and cameras. The laboratory is also equipped with an aerial trial area (4x7m2) which includes a 12-IR-camera Optitrack positioning system.

LABORATORIES

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FACILITIES

Fuel cell control Laboratory

The objective of the Fuel Cell Control Laboratory is the validation and testing of control strategies that maximi-ze energy efficiency and extend the life of high and low temperature PEM fuel cell systems. The laboratory has five fuel cell test stations equipped with the necessary sensors and actuators to operate the systems in a safe and automated way, as well as the capability to imple-ment a great variety of high level and low level con-trollers. The facilities are equipped with a monitoring system to comply with the necessary safety conditions.

Kinematics and Robot Design Laboratory

The Kinematics and Robot Design Laboratory was ini-tially created to validate the practical interest of our parallel robot designs, but it has rapidly derived into an active lab where the prototypes designed by the re-searchers of the Kinematics and Robot Design Group are implemented as proofs of concept. Such prototypes include reconfigurable mechanisms, rolling robots, acti-ve surfaces, force-sensing structures, and cable-driven platforms.

Water-cycle control systems Laboratory

The aim of this laboratory is to test and validate mo-delling and control developments for dynamic systems associated to the water cycle. Hence, it provides plat-forms of pressure, flow and level processes, over which it is possible to implement real-time advanced control strategies.

Perception and Manipulation Laboratory

The lab is equipped with 2 workcells: one with 2 indus-trial manipulators and an XY positioner, and the other with 2 WAM arms in a reconfigurable arrangement. Ad-ditionally, researchers can find a 3 fingered hand, a Del-ta haptic interface, force sensors, several conventional cameras, and high speed, high resolution, and 3D came-ras. The laboratory service offers quick experimental se-tup, several standardized software tools, and expertise in robot control and perception algorithms.

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SERVICES

IT services

The IRI IT service (IRITIC) is responsible for all the computer and communications infrastructure of the Institute, as well as user support. We have a small data center properly suited with rack ser-vers and communications devices.

The Institute has the support of an administrative service in charge of all accounting related to pro-jects and contracts as well as the management of the whole Institute’s human resources, space and equipment.

administration

The Workshop provides support in the design, construction, and maintenance of electric, elec-tronic, and mechanical devices and prototypes for the research projects carried out at IRI, as well as a warehouse of spare parts and materials. Cu-rrent rapid prototyping equipment at the Works-hop includes CNC machinery, 3D plastic printers and an electronic design workbench.

Mechatronics Workshop

Outreach and Tech Transfer Office

The Outreach and Tech Transfer office was cons-tituted in 2015 as part of the Tecnio certification program funded by ACCIÓ and with personnel from the Plan de Garantía Juvenil. It is in charge of managing dissemination and outreach acti-vities, incluiding press releases, visits, social ne-tworks; as well negotiation and management of tech transfer agreements with industry.

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SERVICES

IT Services Staff:

José Lázaro

Evili del Rio

José Luis Roncero

Mechatronics Workshop & Lab Staff:

Ferran Cortés

Sergi Hernández

Administration Staff:

Eduardo Ballesteros

David Casabuena

Esther Expósito

Carme Fernández

César González

Eva Llaveria

Outreach and Tech Transfer Office

Anaís Morales

Víctor Vílchez

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2. RESEARCH2

. R

Es

Ea

Rc

h

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RESEARCH LINESIRI's research activities are funded primarily by grants from the EU Research Framework Programme and by competitive funds from the Spanish Ministry of Economy, Industry and Competitiviness through various research funding programs.

Other sources that support our research include projects funded by the Government of Catalonia, by our hosting institutions (CSIC and UPC), and through technology transfer contracts.

The Institute's research activities are organized in four research lines: (1) Kinematics and Robot Design, (2) Mobile Robotics, (3) Perception and Manipulation and (4) Automatic Control.

Three of them tackle various aspects of robotics research, including indoor and outdoor human-centered human-safe robotics systems, and the design and construction of novel robotic mechanisms. Efforts in the fourth line are aimed at research on modeling, supervision and control on energy systems and the water cycle.

RESEARCH PROJECTS

Kinematics and Robot Design

AutomaticControl

MobileRobotics

Perception and Manipulation

page 44

page 18 page 24

page 34

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KINEMATICS AND ROBOT DESIGN

Group Leader:Josep Maria Porta

Researchers:Enric Celaya

Patrick Grosch

Lluís Ros

Vicente Ruiz de

Angulo

Federico Thomas

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The Kinematics and Robot Design Group carries out research on the design, construction, and motion analysis of complex mechanisms and structures. In Robotics, these devices are parallel manipulators, multi-fingered hands, reconfigurable mechanisms, or cooperating robots, to name a few, but they appear in other domains too, as mechanistic models of locomo-tive organisms, molecular compounds, or nano-struc-tures.

The group seeks to extend the current knowledge on complex articulated systems, and how the motions of such systems can be planned, simulated, and contro-lled in an efficient and reliable way. Broadening such knowledge is essential for the development of the increasingly-sophisticated devices of today’s Robo-tics, which must be designed to operate within pres-cribed workspaces, dexterously manipulating objects, and avoiding singular configurations and collisions with the environment at all times. Our efforts focus on developing theories to analyze the behavior of such systems, and on experimentation with physical constructions of the systems. The group activity or-ganizes around four principal lines: robot design and construction, position analysis of multi-loop linkages, motion planning and singularity analysis.

During the period 2015-2016, the efforts of the group have covered a wide range of activities including the development of fundamental theoretical methods ba-sed on distance-geometry, the implementation of ki-nodynamic planning methods for constrained robotic systems, and the construction of original mechanis-ms to validate the results. The latter include a rolling robot, several parallel mechanisms, a programmable surface, an educational ball-and-plate system, and a six-degrees-of-freedom cable-driven parallel robot. The research results have been published in selective conferences, high-ranked international journals, and in two books of the Springer collection in Mechanisms and Machine Science.

Group Leader:Josep Maria Porta

Researchers:Enric Celaya

Patrick Grosch

Lluís Ros

Vicente Ruiz de

Angulo

Federico Thomas

PhD Students:Ricard Bordalba

Aleix Rull

Support Staff:Daniel González

Juan Viana

OVERVIEw

Robots:E-Bola

White Herpes

Gonorobot

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RESEARCH AREAS

Robotic systems typically exhibit singularity subsets. These are loci of configurations where problematic losses of control or dexterity arise. They also reveal the boundaries of the task and joint workspaces, and all motion barriers that may be encountered in their interior. The ability to compute these loci is thus essential, not only to anticipate possible problems during robot operation, but also to provide valuable informa-tion to the robot designer.

Singularity analysis

The group also develops methods for clo-sed-chain motion planning. In Robotics this pro-blem appears, for instance, in motion planning for parallel manipulators, in object manipulation with anthropomorphic hands, in constraint-ba-sed object positioning, or in surgery or huma-noid robots. In all cases, a number of loop-closu-re constraints give rise to a configuration space of a complex structure in which standard algo-rithms for motion planning cannot be directly applied.

Path planning

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The group designs and constructs innovative mechatronic devices mainly based on parallel architectures.

Robot design and

The group develops techniques for linkage po-sition analysis, i.e., for computing all possible configurations that a linkage can adopt, while respecting the kinematic constraints imposed by its joints. The problem finds applications to robotics, structural biology and computer-aided design. During the period, the group contribu-ted with distance-geometry methods to simplify the motion analysis of linkages, with novel gras-ping methods, and with the development and distribution of the CuikSuite, a general a softwa-re toolbox for the kinematic analysis of general multibody systems.

construction

Position analysis

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Period

Funding org.

RESEARCH PROJECTS

Budget

Federico ThomasJosep M. Porta

January 2015 /December 2017

168 432 €

Principal Investigators

Control strategies for cable-driven robot for low-gravity simulationRobcab

In the past few years, cable-driven parallel mechanisms have been increasingly studied since they are low-cost, light-weight robots that have all the required physical featu-res in industry regarding the load capacity or the workspace size. Up to now, in most applications involving cable-driven robots, the platform moves the load freely in open space at high speeds and without any for-ce feedback. However, a fully autonomous and safe cable-driven robot must be able to properly react to the contacts between the load and the environment. Thus, the ob-jective of this project is to design and build a force-controlled cable-driven robot and to use it to simulate low gravity conditions, such as those of the underwater environ-ments. The main scientific and technologi-cal contribution of this project will be within the frame of robots with force-position hy-brid control. Despite their relevance, there are very few commercial robots with such hybrid controllers and, the one proposed herein will be the first cable-driven robot with such type of control.

Beside the simulation of low gravity condi-tions, such novel devices would easily find applications in many areas. The easy trans-portation of heavy loads is a demanding ne-cessity in civil infrastructure services, disas-ter management, automated warehouses,

and manufacturing companies, just to name a few. Moreover, a low-gravity simulation such as the one proposed in this project, can be used, or instance, in the rehabilita-tion of lower limb injuries, where the robot movements and the interaction forces with the environment should be soften.

The project addressed the design of a ca-ble-driven robot, its physical construction, and the development of all the modeling and control tools necessary to properly si-mulate and command it.

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MOBILEROBOTICS

Group Leader:Alberto Sanfeliu

Tibi

Dabo

Kinton

IRICar

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The research activities of the Mobile Robotics line are aimed to endow mobile robots and ubiquitous com-puting devices the necessary skills to aid humans in everyday life activities. These skills range from pure perceptual activities such as tracking, recognition or situation awareness, to motion skills, such as localiza-tion, mapping, autonomous navigation, path planning or exploration.

During the period 2015-2016 the group successfully completed the EU ARCAS project, demonstrating to-gether with the other members of the consortia, the first-in-the-world aerial manipulation devices, and continued their work on perception and control of ae-rial manipulators with a new EU project, AEROARMS.

Furthermore, this period also saw the conclusion of the EU CargoANTs project in which simultaneous lo-calization and mapping, and autonomous navigation solutions were developed and successfully demons-trated for truck trailers in port container terminals. These efforts are now continued for the case of stra-ddle carriers in the EU project LOGIMATIC, which commenced in March 2016.

The group also continued leading the public end user driven technology innovation efforts of the EU ECHORD++ project on the Urban Robotics field, iden-tifying cities and citizens needs and selecting the ro-botics technologies that meet such demands.In the social robotics topic, the group continued providing solutions for the safe motion of robots alongside hu-mans in pedestrian areas in the national projects Col-RobTransp, RobIntCoop, and RobInstruct.

During this period, the group has also contributed with solutions to the private sector in the field of hu-man-robot collaboration for the factories of the futu-re, on human-robot collaboration for the automotive sector, and on the validation of computer vision sys-tems also for the automotive sector.

The immediate future presents new challenges for the group. We have secured funding through two new EU projects, one to continue our research on aerial robotics, and one more for the sharing of robotics in-frastructures across Europe. Moreover, the scientific leadership of the MdM project, and the participation of the group researchers in the ERC Clothilde project provides plenty of stimulating activity for the group for the years to come.

Researchers:René Alquezar

Juan Andrade

Andreu Corominas

Anaís Garrell

Joan Solà

Michael Villamizar

PhD Students:Adrián Amor

Alejandro Delgado

Iván Del Pino

Jérémie Deray

Diego Escudero

Gonzalo Ferrer

Luis Alberto Garza

Alex Goldhoorn

Edmundo Guerra

Manuel Igelmo

Agustín Ortega

Adrián Peñate

Albert Pumarola

Ely Repiso

Eloy Retamino

Àngel Santamaria

Ernesto Teniente

Joan Vallvé

Víctor Vaquero

Support Staff:Fernando Herrero

Ana Puig-Pey

Alejandro López

Xavier Rebato

OVERVIEw

Group Leader:Alberto Sanfeliu

Robots:

Helena

IRIkobukis

Ona

Teo

Tibi

Dabo

Kinton

IRICar

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RESEARCH AREAS

The group focuses on the design and develop-ment of service mobile robots for human assis-tance and human robot interaction. This inclu-des research on novel hardware and software solutions to urban robotic services such as sur-veillance, exploration, cleaning, transportation, human tracking, human assistance and human guiding.

Urban

service

robotics

The group’s work on social robotics has an em-phasis in human robot interaction and collabora-tion, developing new techniques to predict and learn human behavior, human-robot task colla-boration, and the generation of emphatic robot behaviors using all types of sensors, computer vision techniques and cognitive systems techno-logies.

Social

Robotics

We develop solutions for indoor and outdoor simultaneous localization and mapping using computer vision and three-dimensional range sensing using Bayesian estimation. The research includes the development of new filtering and smoothing algorithms that limit the load of maps using information theoretic measures; as well as the design and construction of novel sensors for outdoor mapping. This research area also studies methods for autonomous robotic exploration.

SLAM

and

robot exploration

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This research area tackles the creation of robust single and cooperative, indoor and outdoor ro-bot localization solutions, using multiple sensor modalities such as GPS, computer vision and la-ser range finding, INS sensors and raw odome-try. The area also seeks methods and algorithms for autonomous robot navigation, and robot for-mation; and the application of these methods on a variety of indoor and outdoor mobile robot platforms.

Robot localization

and

robot navigation

The group also performs research on object de-tection and object recognition in computer vi-sion. Current research is heavily based on boos-ting, deep learning and other machine learning methodologies that make extensive use of mul-tiple view geometry. We also study the develo-pment of unique feature and scene descriptors, invariant to changes in illumination, cast sha-dows, or deformations.

Object

recognition

We study the development of robust algorithms for the detection and tracking of human activities in indoor and outdoor areas, with applications to service robotics, surveillance, and human-robot interaction. This includes the development of fixed/moving single camera tracking algorithms as well as detection and tracking methods over large camera networks.

Tracking in

computer vision

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Period

Funding org.

IRI Budget

Alberto Sanfeliu

October 2013 /September 2018

941 225 € (Total 19,75M€)

Leader for IRI

European clearing house for openrobotics development plus plus

ECHORD ++

The European Commission funded ECHORD++, a 5-year project (2013-2018), which aims at strengthening the coopera-tion between public bodies, scientific re-search, and industry in robotics.

IRI is leading the ECHORD++ PDTI instru-ment in Urban Robotics that wants to brid-ge the technical innovation through public demand “identifying the cities and citizens needs and selecting the tailor-made hi-gh-quality robotic technology to close the gap between demand and supply”.

The first phase - Activities for public de-mand knowledge - finalized with the selec-tion of the Urban Challenge “To mechanize sewer inspections in order to reduce the la-bour risks, objectify sewer inspections and optimize sewer cleaning expenses” of the City of Barcelona.

In January of 2015, the call for RTD propo-sals was launched and IRI managed the de-velopment of the Solutions Design, Proto-types and Small Scale series of the selected proposals arriving to innovative pre-com-mercial robotic products at the end of 2018.

RESEARCH PROJECTS

Period

Funding org.

IRI Budget

Juan Andrade

September 2013 /August 2016

333 215 € (Total 2,49M€)

Leader for IRI

Cargo handling by automated next generation Transportation Systems for ports and terminal

CARGO-ANTS

Cargo-Ants aimed to create smart Auto-mated Guided Vehicles (AGVs) and Auto-mated Trucks (ATs) that can co-operate in shared workspaces for efficient and safe freight transportation in main ports and freight terminals. The specific objectives were:

1. Increase performance and throughput of freight transportation in main ports and freight terminals and maintain a high level of safety.

2. Develop an automated shared work yard for smart AGVs and ATs.

3. Develop and demonstrate a robust grid-independent positioning system and an environmental perception system that oversees safety of operations.

4. Develop and demonstrate planning, de-cision, control and safety strategies for Au-tomated Next generation Transportation systems (ANTs), i.e. smart AGVs and ATs.

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Period

Funding org.

IRI Budget

Alberto Sanfeliu

November 2011 /October 2015

767 177 € (Total 6,15M€)

Leader for IRI

Aerial robotics cooperative assembly system

ARCAS

The ARCAS project proposed the develo-pment and experimental validation of the first cooperative free-flying robot system for assembly and structure construction. The project paved the way for a large num-ber of applications including the building of platforms for evacuation of people or landing aircrafts, the inspection and main-tenance of facilities and the construction of structures in inaccessible sites and in the space.

The detailed scientific and technological objectives were: new methods for motion control of a free-flying robot with moun-ted manipulators in contact with a grasped object as well as for coordinated control of multiple cooperating flying robots with manipulators in contact with the same ob-ject; new flying robot perception methods to model, identify and recognize the scena-rio and to be used for the guidance in the assembly operation; new methods for the cooperative assembly planning and struc-ture construction by means of multiple fl-ying robots with application to inspection and maintenance activities; and strategies for operator assistance in manipulation tas-ks involving multiple cooperating flying ro-bots the possibility of distributing the ope-rations on highly-parallel processing units. A final goal is to demonstrate the useful-ness of the platform on complex problems of Robotics, such as grasp synthesis for a

thropomorphic hands.anthopomorphic hands.

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Period

Funding org.

IRI Budget

Alberto Sanfeliu

September 2010 /February 2015

419 000 € (Total 6,5M €)

Leader for IRI

The collective experience of empathic data systems

CEEDS

The Collective Experience of Empathic Data Systems (CEEDS) project addressed the creation of a novel integrated technology that supports the experiencing, analyzing and understanding of massive datasets. A key axiom of CEEDS is that discovery is the identification of patterns in complex data sets by the human brain. It is these impli-cit information processing capabilities that CEEDS seeks to exploit.

The implicit cues, as measured through no-vel sensing systems, including bio-signals and non-verbal behaviour form the core in-formation based on which the CEEDS sys-tem will process data and present them to the user(s).

Confluence is achieved firstly, through immersion of the user in synthetic reali-ty spaces, that allow to explore complex data spaces following narrative structu-res of varying spatio-temporal complexi-ty, and secondly, through an unobtrusive multi-modal wearable technology that will provide an assessment of the behavioural, physiological and mental states of the user.

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Period

Funding org.

IRI Budget

Alberto Sanfeliu

June 2015 /May 2019

563 881 € (Total 4,72M €)

Leader for IRI

Aerial robotics system integrating multiple arms and advanced manipulation capabi-lities for inspection and maintenance

AEROARMS

AEROARMS proposes the development of the first aerial robotic system with multiple arms and advanced manipulation capabi-lities to be applied in industrial inspection and maintenance (I&M).

The objectives are: R&D on aerial manipu-lation to perform I&M; developing systems which are able to grab and dock with one or more arms and perform dexterous ac-curate manipulation with another arm. Also develop helicopter-based aerial manipula-tors.

New methods and technologies for platfor-ms which can fly and manipulate with the coordinated motion of the arms.Installation and maintenance of permanent NDT sensors on remote components; De-ploy and maintain a mobile robotic system permanently installed on a remote structu-re.

To achieve the above objectives AEROAR-MS will develop the first aerial telemanipu-lation system with advanced haptic capa-bilities able to exert significant forces with an industrial robotic arm, as well as auto-nomous control, perception and planning capabilities. Special attention will be paid to the design and system development in order to receive future certification taking into account ATEX and RPAS regulations.

HORIZON2020

Period

Funding org.

IRI Budget

Juan Andrade

February 2016 /January 2019

328 750 € (Total 2 M €)

Leader for IRI

Tight integration of EGNSS and on-board sensors for port vehicle auto-mation

LOGIMATIC

LOGIMATIC proposes an ad-hoc advanced location and navigation solution to enable the automation of existing port vehicles with a significantly lower cost which will allow short-medium term investments until the whole port fleet is renewed with tota-lly autonomous vehicles in the long term. The project will develop and demonstrate an innovative location and navigation solu-tion for the automation of the operations of straddle carriers in container terminals.Objectives:

1 - To develop an advanced automated navi-gation solution based on the integration of Global Navigation Satellite Systems (GNSS) and sensors onboard the SC vehicles.

2 - To implement a GIS-based control mo-dule compatible with existing Terminal Operating Systems (TOS) for optimized global (yard level) route planning and fleet management.

3 - To implement security mechanism in order to detect and avoid spoofing and/or jamming attacks

4 - To assess the impact of application of such automated approach at large scale through simulation

5 - To integrate, validate and demonstrate the proposed solution in a real port yard.

HORIZON2020

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32

Period

Budget

Juan Andrade

September 2012 /August 2015

100 000 €

P. Investigator

Autonomous vision for unmaned aerial vehicles

VAVAT

In this project we developed guiding stra-tegies for unmanned aerial vehicles (UAVs) for the cooperative building of structures. This required the use of computer vision techniques for the detection, identification, and tracking of the structure elements. The detection and identification tasks are ne-cessary for the localization of objects and to determine grasping and assembly poses. Experiments were performed both in in-door and outdoor settings where illumina-tion, wind, and other enviromental factors cannot be predicted.

Funding org.

Period

Budget

Juan Andrade

January 2014 /June 2017

193 600 €

P. Investigator

Perception and action in robotics pro-blems with large state spaces

PAU+

Contribution to the theoretical foundations of computational models of perception and action and their application to the solution of challenging robotics problems with large state spaces. The contributions include efficient online probabilistic inference algorithms on gra-phical models with applications to SLAM and for rigid shape estimation;extension to non-rigid object reconstruction and pose estimation using geometric and appearan-ce constraints; as well as robust pose esti-mation for uncalibrated vision systems.

Funding org.

Period

Budget

Alberto Sanfeliu

December 2016 /December 2019

217 800 €

P. Investigator

Human-robot colaboration for the transportation of goods in urban areas

ColRobTransp

The main objective in this project is to ad-vance in the design of new mobile robots that are capable to transport products in the last mile of urban areas, overcoming with the help of humans complex situations in navigation and product delivery. Not only navigation in urban crowded areas is complex, but also it is important how the robots overcome complex street situations, for example, streets semi-blocked due to street repairing or vehicles not well parked that do not allow to reach the delivery pla-ce.

Type

Period

Budget

Alberto Sanfeliu

January 2014 /June 2017

147 620 €

P. Investigator

Robot-human interaction, cooperation and learning in urban areas

Robot-Int-Coop

The main goal of this project is to advance in the design of mobile and flying robots that can interact, learn and cooperate with people for urban tasks, adapting them-selves to the environment and changing conditions. Developing new perception te-chniques for robots based on learning and adaptation, to incorporate visual-servoing techniques for the interaction between hu-mans-robots, to explore new interaction techniques between mobile-aerial robots with humans and to develop new coopera-tion techniques.

Funding org.

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33

Period

Budget

Alberto Sanfeliu

April 2013/March 2015

100 000 €

P. Investigator

Human-robot colaboration in mani-pulation, navigation and explanation tasks

COLAROB

The COLAROB project tackled the integra-tion of software and hardware subsystems in the robotic platforms at IRI to provide support to the EU projects IntellAct and Cargo-ANTs. In particular, we adapted the backdrivable robotic WAM arm to the mo-bile outdoor platform TEO for the manipu-lation of deformable objects, and adapted the 3D Velodyne sensor and migrated the PoseSLAM software to the ROS program-ming environment for their use with IRI’s electric vehicle.

Funding org.

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PERCEPTION ANDMANIPULATION

Group Leader:Carme Torras

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Research of this line focuses on enhancing the per-ception, learning, and planning capabilities of ro-bots to achieve higher degrees of autonomy and user-friendliness during everyday manipulation tasks for assistive, service and collaborative robotics.

Some topics addressed are the geometric interpre-tation of perceptual information, construction of 3D models of both rigid and deformable objects, human pose and behavior recognition, robot action selection and planning, reinforcement learning, and teaching by demonstration.

Domestic, service and industrial robotics require the easy acquisition of 3D object models and user-friend-ly programming of manipulation tasks. Therefore, the efforts of our group are oriented toward 3D active perception combining several sensory modalities, such as color vision, depth from time-of-flight, struc-tured light, stereo, and haptics; teaching manipulation skills to a robot under a learning by demonstration approach, as well as teaching the robot to accompli-sh tasks requiring planning through rule learning; and computer vision and deep learning techniques for the detection of human body configurations and recogni-tion of user actions and intentions.

OVERVIEwDuring the 2015-2016 period, the group centered efforts in developing technologies to provide proacti-ve assistance with dressing to disabled users or elder-ly people, under the ERA-NET project I-DRESS and national project RobInstruct. In the coming years, the perception and manipulation of textiles research will continue under the recently awarded ERC Advanced Grant project CLOTHILDE.

Researchers:Antonio Agudo

Maria Alberich

Guillem Alenyà

Pablo Jiménez

Francesc Moreno

Sergi Foix

Jan Funke

Aleksandar Jevtic

Babette Dellen

Arnau Ramisa

Ricardo Téllez

PhD Students:Gerard Canal

Adrià Colomé

Farzad Husain

Javier García

Alejandro Hernández

David Martínez

Miguel Picallo

Antonio Rubio

Edgar Simó

Eduard Trulls

Group Leader:Carme Torras

Robots:

Estirabot

Stäubli

Zyonz

Support Staff:Alejandro Suárez

Clea Parcerisas

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RESEARCH AREAS

We devise methods to learn object-action rela-tions to accomplish tasks at different levels of abstraction, where object models are generated from visual and depth information, and actions, involving manipulation skills, are learned from demonstrations provided by a human using mul-timodal algorithms that combine vision and hap-tics.

Learning

We are interested in planning algorithms for object modeling, with special interest in defor-mable objects. High-level task formulations are integrated with low-level geometry-based me-thods and simplified physical models, as well as with an on-line sensory-based treatment of un-certainty so as to come up with specific sequen-ces of motion commands.

by

demonstration

Planning

for perception

and manipulation

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Our objective is to investigate computer vision algorithms for interpreting and understanding scenes from images, with applications in robo-tics and medical imaging. In particular, our ac-tivities are concentrated on retrieving rigid and non-rigid shape, motion and camera pose from single images and video sequences.

Perception of

rigid and non-rigid

objects

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38

Period

Funding org.

IRI Budget

Francesc Moreno

July 2013 /June 2016

130 000 € (Total 1,2M€)

Leader for IRI

Visual sense, tagging visual data with semantic descriptions

VISEN

Today a typical Web document will contain a mix of visual and textual content. Most traditional tools for search and retrieval can successfully handle textual content, but are not prepared to handle hetereogeneous documents. The new type of content de-mands the development of new efficient tools for search and retrieval.

The visual sense project aims at mining automatically the semantic content of vi-sual data to enable “machine reading” of images. In recent years, we have witnes-sed significant advances in the automa-tic recognition of visual concepts (VCR). These advances allowed for the creation of systems that can automatically gene-rate keyword-based image annotations. The goal of this project is to move a step forward and predict semantic image repre-sentations that can be used to generate more informative sentence-based image annotations. Thus, facilitating search and browsing of large multimodal collections. More specifically, the project targets three case studies, namely image annotation, re-ranking for image search, and automatic image illustration of articles.

RESEARCH PROJECTS

Period

Funding org.

IRI Budget

Carme Torras

December 2015 /November 2018

140 000 € (Total 740 000 €)

Coordinator &IRI Leader

Assistive interactive robotic system for support in dressing

I-DRESS

The main objective of the project is to de-velop a system that will provide proactive assistance with dressing to disabled users or users such as high-risk health-care wor-kers, whose physical contact with the gar-ments must be limited to avoid contamina-tion. The proposed robotic system consists of two highly dexterous robotic arms, sen-sors for multi-modal human-robot interac-tion and safety features.

The system will comprise three major com-ponents, each of strong impact to the field of assistive service robotics:

(a) intelligent algorithms for user and gar-ment detection and tracking, specifically designed for close and physical human-ro-bot interaction,

(b) cognitive functions based on the mul-ti-modal user input, environment modelling and safety, allowing the robot to decide when and how to assist the user, and

(c) advanced user interface that facilitates intuitive and safe physical and cognitive in-teraction for support in dressing. The deve-loped interactive system will be integrated on commercial WAM robotic arms and va-lidated through experimentation with users and human factor analysis in two assisti-ve-dressing scenarios.

Funds are provided by national research funding organisations (MINECO)

Funds are provided by national research funding organisations (MINECO)

HORIZON2020

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39

Period

Funding org.

IRI Budget

Guillem Alenyà

November 2016 /October 2020

495 745 €

Leader for IRI

Social cognitive robotics in the euro-pean society

SOCRATES

The research in social robotics has a com-mon theme of interaction quality, which is a concept for characterization of how a spe-cific mode of interaction is fit for a given task, situation, and user. Interaction quality often changes, for instance if an older adult gets tired and loses focus when interac-ting with a robot. Interaction quality also depends on the robot’s functionality and design. In general, Interaction Quality is a complex interplay between several perfor-mance measures and design parameters. In SOCRATES we address these issues from a range of perspectives

To address the aim of successful multidisci-plinary and intersectoral training, SOCRA-TES training is structured along two dimen-sions: thematic areas and disciplinary areas. The thematic perspective encapsulates functional challenges that apply to R&D.

The following five thematic areas are iden-tified as particularly important, and hence are given special attention in the project: Emotion, Intention, Adaptivity, Design, and Acceptance. The disciplinary perspective encapsulates the necessity of inter/multi- disciplinary and intersectoral solutions.

HORIZON2020

MSCA-ITN

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Period

Funding org.

IRI Budget

Carme Torras

March 2011 /May 2015

367 000 € (Total 2,96M€)

Leader for IRI

Intelligent observation and execution of actions and manipulation

IntellAct

IntellAct addressed the problem of unders-tanding and exploiting the meaning (se-mantics) of manipulations in terms of ob-jects, actions and their consequences for reproducing human actions with machines. It comprised three building blocks: lear-ning, monitoring and execution.

The analysis of low-level observation data for semantic content (learning) and the synthesis of concrete behavior (execution) constituted the major scientific challenge of IntellAct. Based on the semantic inter-pretation and description and enhanced with low-level trajectory data for groun-ding, two major application areas were addressed by IntellAct: the monitoring of human manipulations for correctness and the efficient teaching of cognitive robots for manipulation.

To achieve these goals, IntellAct brings to-gether recent methods for

(1) parsing scenes into spatio-temporal gra-phs and so called ‘semantic event chains’,

(2) probabilistic models of objects and their manipulation,

(3) probabilistic rule learning, and

(4) dynamic motion primitives for trainable and flexible descriptions of robotic motor behavior.

Period

Funding org.

IRI Budget

Francesc MorenoJuan Andrade

January 2015 /December 2017

160 688€

P. Investigators

Instructing robots using natural com-munication skills

RobInstruct

Putting together tools from computer vi-sion, machine learning, natural language processing and robotics. Specifically, to teach robots in a natural and human-like manner we will first develop parsers to re-present both video and natural language data using an intermediate abstraction le-vel.

We will then investigate learning approa-ches to discover mappings between the visual/textual content and the robot action space. In order to bring these assistive ro-bots to outdoor and uncontrolled scena-rios. , the human-to- robot communication skills will be combined with new algorithms to reliably localize the robot in very large 3D maps and for long periods of time, even in GPS-denied areas.

For this purpose, we will integrate novel computer vision pose estimation algori-thms with inertial sensors.

The two main objectives we pursue are commercially and socially relevant robo-tics technologies, as endorsed by our three EPOs. With the development of such te-chnologies, the project will contribute to more flexible and general use of robots in assistive tasks, as well as more robust ser-vice robots able to navigate and interact in previously unknown and unstructured en-vironments.

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Period

Funding org.

IRI Budget

Carme Torras

December 2013 /November 2016

150 000 €

P. Investigator

Robotic manipulation of deformable objects

MANIPlus

While the manipulation of rigid objects has been widely addressed in the robotics community, the manipulation of deformable objects is an incipient research field, on which the Perception and Manipulation group has centered its activity.

In this project the algorithms developed for the perception, learning and manipulation planning of plant leaves (within the Garnics project) and clothing (within the PAU+ project) are being integrated and placed in a common framework, so as to turn them into software infrastructure of the lab available to future projects and contracts with industry.

Period

Funding org.

IRI Budget

Carme Torras

January 2016 /December 2017

19 000 €

P. Investigator

Safe multi-modal interaction with robot manipulators

SAMMIR

Human-robot collaborative tasks require close interaction through the use of natural interfaces while maintaining a high level of safety for both the human and the robot. The project will focus on human-robot in-teraction as the key robotics technology by advancing the robot abilities for physi-cal, social, and cognitive interaction while taking into account safety as an essential criterion for collaborative task execution.

The proposed research will be performed in collaboration between CSIC and three re-nowned international research centers and will allow the integration of CSIC knowle-dge in perception, vision-based interaction and robot control with each of the partners main expertise domains, namely natural language processing for robotics (Umea University, Sweden), human-robot collabo-ration (Ben-Gurion University, Israel) and robot safety (Bristol Robotics Lab, UK). The Spanish company Pal Robotics will provi-de access to their newly-developed robotic platform and technical expertise to imple-ment the project research results, which ensures relevant industrial involvement in the project.

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Period

Funding org.

IRI Budget

Carme Torras

March 2015 /March 2018

150 000 €

P. Investigator

Robots for handling clothingTextilRob

Whereas handling a rigid object changes only its pose, namely six parameters (three for position and three for orientation), the manipulation of a piece of clothing takes place in a potentially infinite-dimensional shape-state space.

This huge dimensionality jump renders geometry-based perception techniques developed for rigid objects non-applicable in this context, and calls for the use of machine learning approaches as well as applying motions to the object to aid perception.

In this project, the algorithms specifically developed for RGB-D perception and manipulation of textile objects are being integrated and placed in a common framework, so as to establish a software infrastructure in the lab to facilitate the implementation tasks in research projects such as the ERA-Net project I-DRESS and the recently obtained ERC AdG project CLOTHILDE.

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Group Leader:Maria Serra

Support Staff:Tom Creemers

Brais González

Uxía Reija

Maite Urrea

AUTOMATICCONTROL

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The main objectives of this research developed by this line are to contribute in the development of new me-thodologies of modeling, control and supervision of complex and large-scale dynamic systems; to impro-ve the efficiency and performance of industrial pro-cesses, specially in the fields of water and energy; to implement these methodologies and designs in real systems; and to train research staff and students in the field of automatic control.

The group’s general scientific objective is the advan-cement in the field of modeling, control and super-vision of complex and large scale systems, including nonlinearities and uncertainty with the aim to impro-ve efficiency, reliability and sustainability of processes and systems.

The most relevant application fields, for which the group has acquired recognised expertise are: systems in the water cycle (water resources management, wa-ter distribution, urban drainage) and energy systems (fuel cells, hydrogen-based energy systems, energy generation for automobile systems, power manage-ment).

OVERVIEwDuring the period 2015-2016 the group commen-ced its participation in two EU projects for “Global systems rapid assessment tools through constraint functional Languages”, and for “Efficient integrated real-time control in urban drainage and wastewater treatment plants for environmental protection”.

Furthermore, it started participation in the MSC trai-ning netwok INCITE on the topic of renewable sour-ces integration in energy systems, as well as two na-tional projects, three regional projects and four tech transfer contracts with industry.

Researchers:Joaquim Blesa

Gabriela Cembrano

Attila Husar

Bernat Joseph

Carlos Ocampo

Vincenç Puig

Jordi Riera

Héctor Rodríguez

Congcong Sun

Sebastian Tornil

PhD Students:Eugenio Alcalá

Wicak Ananduta

Julián Barreiro

Juan Manuel Grosso

Alejandro Gracia

Fatemeh Karimi

Julio Alberto Luna

Mohamadou Nassourou

Masoud Pourasghar

José L. Sampietro

Elma Sanz

Sara Siniscalchi

Ye Wang

Group Leader:Maria Serra

Support Staff:Tom Creemers

Brais González

Uxía Reija

Maite Urrea

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RESEARCH AREAS

Modeling, supervision

and control

of large-scale systems

Control-oriented system

design for

efficient operation

The study of large-scale systems requires new methodologies for modeling, supervision and control. The main research issues of the group within this topic include structural analysis, de-centralized hierarchical and/or distributed con-trol using Model Optimal/Predictive Control, real-time fault detection and isolation, fault-tole-rant control, optimization in resource allocation and optimal management of resource flows.

Application fields: water and gas distribution ne-tworks, water abduction and transport, power grids, hybrid autonomous generation systems based on fuel cell and petrochemical plants.

Efficiency, reliability and sustainability of pro-cesses and systems depend on different design aspects which are also addressed by the group researchers. This includes topology selection or reconfiguration, sizing of components, structu-ral analysis, and sensor and actuator location. Application fields: water networks, electrical grids, autonomous power generation systems and robotics.

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Modeling, diagnosis and

control of complex

multidomain systems

The development of control-oriented models and the design of advanced controllers for com-plex dynamic systems where phenomena of di-fferent nature are interrelated is another funda-mental research topic of the group, where the experimental work and the real implementation is a fundamental aspect.

It includes distributed and lumped parameter control-oriented modeling, experimental charac-terization techniques, identification, diagnosis, design of observers, sliding mode control, robust control and predictive control. Application fields: polymeric exchange membrane fuel cells, power generation systems and ethanol reformers for hydrogen production.

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Period

Funding org.

IRI Budget

Carlos Ocampo

December 2015 /November 2019

495 746 € (Total 3,52M€)

Leader for IRI

Innovative controls for renewable sources integration into smart energy systems

INCITE

Nowadays, both consumers and genera-tors are active agents that are capable of coordinating the extraction and injection of power into the electrical grid depending on the energy cost, energy availability and even the behavior of electrical variables. This new reality is a great opportunity to improve energy efficiency and reduce CO2 footprints by using clean energy sources. But it is also a big challenge. The electri-cal network is one of the most complex systems ever made, with this new reality the additional controllability and the great number of actors may lead to undesirable results and even to network outages.

In order to take full advantage of these new electrical networks, it is necessary a coor-dinated and harmonic interaction among all actors in the network. This is the role of the control algorithms, thought to act at several levels to conduct the extraction and injection of the electrical power and impro-ve efficiency, reliability and resilience of the network. INCITE aims to this target, to pro-pose new control algorithms with an inte-gral view of the future electrical networks, covering aspects like energy management, stability of electrical variables, monitoring and communication implementation, ener-gy storage, among others. The objective is to create an interdisciplinary (control, elec-trical and management fields), cross-secto-rial (academic and industry) and internatio-nal research environment.

HORIZON2020

RESEARCH PROJECTS

Period

Funding org.

IRI Budget

Gabriela Cembrano

October 2015 /March 2019

152 825 M€ (Total 1,29 M€)

Leader for IRI

Efficient integrated real-time control in urban drainage and wastewater treatment plants for environmental protection

EFFIDRAIN

The main goal is to demonstrate an inte-grated real time control (RTC) strategy of UDNs and WWTP to minimize the pollution of receiving waters, through the use of re-al-time quantity and quality data. Real-time control (RTC) based on model predictive control (MPC) has been shown to produce efficient management strategies for UDNs. However, up to date, RTC developments have been based on managing flows, not taking into account the polluting load (quality) of the carried water, which varies considerably throughout the rain events and the storage periods. Similarly, the effi-ciency of the processes depends on both the quantity and the quality of the treated water and untreated water may be refused at different by-pass points producing CSO. 1. Extending existing MPC techniques in use by the consortium, to include both quality and quantity control;2. Including fault tolerance mechanisms in RTC, so that the system may cope with sensor, actuator, network integrity or com-munication malfunction;3. Demonstrating the functionality of the proposed control system in two pilots to prove wide applicability;4. Disseminating the results of integrated management of UDN and WWTP for awa-reness of public and private administrations through project stakeholders;5. Derive guidelines for replication and for European environmental regulation.

MSCA-ITN

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Period

Funding org.

IRI Budget

Tom Creemers

February 2015 /January 2018

357 311 € (Total 2,40M€)

Coordinator &IRI Leader

Global systems rapid assessment tools through constraint functional langua-ges

GRACeFUL

The making of policies coping with global systems is a process that necessarily invol-ves stakeholders from diverse disciplines, each with their own interests, constraints and objectives. People play a central role in such collective decision making and the quest for solutions to a problem generally intertwines its very specification. Simula-tors can assist in this process provided they employ adequate high-level modelling to separate the political question from the un-derlying scientific details.

This project lays the base for a DSL aimed at building scalable rapid assessment tools for collective policy making in global sys-tems. This can be achieved through foun-dational scientific work at different levels: from the high-level, political modelling, adapting the social discipline of group mo-del building (as used in business organiza-tions), through visual forms of CP as well as gamification aspects, down to the needs for a host language, combining CP and FP. Special emphasis is put on domain-speci-fic constraints, constraint composition, and composable solvers and heuristics. Results are applied and validated for the problem case of climate-resilient urban design, but the ambition is a general framework appli-cable to many other systems. The case study is assessed by an external multi-dis-ciplinary advisory board of stakeholders that guides the specification process and evaluates needs and usability of the tools.

HORIZON2020

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Period

Funding org.

IRI Budget

Gabriela Cembrano

October 2012 /September 2015

273 534 € (Total 3,19M€)

Leader for IRI

Efficient integrated real-time monitoring and control of drinking water networks

EFFINET

Drinking water utilities in urban areas are facing new challenges in their real-time operation because of limited water re-sources, intensive energy requirements, a growing population, a costly and ageing in-frastructure, increasingly stringent regula-tions, and increased attention towards the environmental impact of water use.

Such challenges force water managers to monitor and control not only water su-pply and distribution, but also consumer demand. This project proposes a novel in-tegrated water resource management sys-tem based on advanced ICT technologies of automation and telecommunications for largely improving the efficiency of drinking water networks in terms of water use, ener-gy consumption, water loss minimization, and water quality guarantees.

Two real-life pilot demonstrations in Barce-lona, Spain, and Lemesos, Cyprus, respecti-vely, will prove the general applicability of the proposed integrated ICT solution and its effectiveness in the management of drinking water networks, with considera-ble savings of electricity costs and reduced water loss while ensuring the high Euro-pean standards of water quality to citizens.

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Period

Funding org.

IRI Budget

Jordi Riera

December 2012 /December 2015

273 495 € (Total 2,29M€)

Leader for IRI

Physical bottom up multiscale modelling for automotive PEMFC innovative perfor-mance and durability optimization

PUMA MIND

Proton exchange membrane fuel cells (PEMFCs) are complex nonlinear systems. In order to improve their durability, efficien-cy and to decrease the cost, time of deve-lopment, design of new diagnostic tools is crucial. Powerful mathematical models of the dynamic behaviour of PEMFCs are ne-cessary for the design and improvement of diagnostic tools. The project PUMA MIND will enhance the understanding of interac-tion, competitions and synergies among the mechanisms at multiple scales and lead to the development of robust dynamic ma-croscopic models for control-command purposes with predictive capabilities.

The novel mathematical models developed by PUMA MIND will be tested by an expe-rimental work, in order to ensure the appli-cability on commercial attainable com-ponents and catalysts. The most suitable catalysts for the MEA manufacturing tech-nology will be used for these experiments. The implementation of the developed mo-dels on the mentioned above catalysts mi-ght allow a significant impact, and might also contribute to the most promising solu-tions based on current EU industrial availa-ble components.

Operation conditions and control strate-gies to enhance the durability of automo-tive PEMFC will be derived on the basis of the multi-scale modeling approach propo-sed by PUMA MIND.

Period

Funding org.

IRI Budget

Gabriela Cembrano

December 2016 /December 2019

136 000 €

Leader for IRI

Monitoring, diagnostics and fault tole-rant control of cyberphisical systems with data-based methods

DEOCS

The final goal of DEOCS is the validation of the developed techniques though their application to two real case studies: the Besòs waste treatment plant and the Bar-celona’s drinking water network.

Goals of DEOCS are the development of:1-Pattern recognition techniques than can determine the actual operation mode of CPS and predict their behavior in the futu-re.

2-Data-driven methodologies for state esti-mation of cyber-physical systems.

3-Hybrid architectures that exploit the complementarities between data-driven and model-based fault diagnosis methods.

4-Distributed data-driven strategies that allow monitoring and diagnosing large-sca-le CPS.

5-Strategies for including fault tolerance in data-driven control techniques exploiting the spatial and temporal redundancy avai-lable in the system.

6-Data validation methodologies to gua-rantee the reliability of the proposed data driven monitoring and control methods.

7-Methodology and performance indica-tors for assessing the impact of the propo-sed monitoring and control solutions.

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52

Period

Budget

Gabriela Cembrano

January 2014 /December 2016

158 510 €

P. Investigator

Economic operation of critical infras-tructure systems

ECOCIS

ECOCIS is a coordinated project of IRI with the University of Seville and CETAQUA, which aims to develop automatic control solutions for critical infrastructure systems (CIS) such as water, gas or electricity su-pply networks. Specifically, the project develops techniques of structural analysis, fault diagnosis and economic predictive control for efficient, economic and reliable operation of CIS. The project solutions will be validated in problems proposed by the companies: Aigües de Barcelona, CEPSA, Gaz de France and Emasesa.

Funding org.

Period

Budget

Maria Serra

January 2012 /December 2014

130 680 €

P. Investigator

Development of control systems for the impro-vement of the efficiency and the useful life in systems based on fuel cells PEM

MESPEM

Focused on the automatic control of sys-tems based on Polymer Electrolyte Mem-brane (PEM) fuel cells. The project made innovative contributions to control oriented and distributed modelling, dynamic obser-vation, diagnosis and nonlinear control of PEM fuel cells. Also addressed the control of open cathode and high temperature PEM fuel cells as well as the control of low tempe-rature ethanol reformers for the production of hydrogen; considered the integration of PEM fuel cells in hybrid power generation systems and the supervisory control strate-gies necessary.

Funding org.

Period

Budget

Maria Serra

January 2016 /December 2018

171 820 €

P. Investigator

Parameter estimation, diagnosis and control for the improvement of effi-ciency and durability of PEM fuel cells

MICAPEM

The main objective of the project is to de-velop controllers that operate the PEM fuel cell based systems with maximum efficien-cy and minimum degradation. Additionally, the properties of these controlled systems for stationary combined heat & power (CH&P) applications will be shown. Speci-fically, the tasks of the project include the design, development and implementation of the control system of a CH&P high tem-perature PEM fuel cell based unit that will be manufactured and integrated to a pro-totype home by the other two partners.

Funding org.

Period

Budget

Maria Serra

June 2016 /December 2018

49 995 €

P. Investigator

Energy reduction and flexibility in rehabilitation buildings

REFER

The REFER project aims to improve the available energy alternatives for buildings, providing them with flexibility with several options to face the generation of renewa-ble energy and energy efficiency.

In order to offer alternatives beyond solar panels and relatively well-known battery packs, the project aims to increase the competitiveness of new relevant techno-logical solutions in buildings, such as fuel cells, photovoltaic cell improvements and the reuse of batteries of electric vehicles.

Funding org.

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Period

Budget

Maria Serra

November 2016 /October 2019

80 000 €

P. Investigator

Synthetic fuels COSIN

The Synthetic Fuels Project (COSIN) is a project structured in three large bloc-ks. On the one hand, efforts will focus on the controlled production of enriched bio-gas having separated CO2 from CH4. On the other hand, more efficient systems of electrolysis and co-electrolysis will be de-veloped. Finally, a substantial effort will be devoted to tasks that will be directed at im-proving the methanation systems themsel-ves, including the half-life and efficiency of all components as well as evaluation.

Funding org.

Period

Budget

Jordi Riera

May 2015 /December 2015

24 000 €

P. Investigator

Polymer electrolyte membrane fuel cell Stack diagnosis system

DiaPEM

This LLAVOR project is dedicated to the proof of concept of an inexpensive PEMFC diagnosis system for future implementation on a small electronic module. The output of this diagnosis system will be the numerical estimation of important internal stack va-riables i.e. Tafel slope, mass transport over-voltage and membraneresistance that de-termine the internal fuel cell state in terms of water distribution and explain its voltage losses. Therefore a novel and cost effective PEMFC diagnosis hardware module design will be created based on a validated me-thodology.

Funding org.

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Period

Type

Carme Torras

January 2014December 2016

Regional Funds

Principal Investigator

Period

Type

Josep Maria Porta

January 2014December 2016

Regional Funds

Principal Investigator

The IRI Robotics group has a long tradition as it has been run-ning continuously since 1997. The group concentrates its efforts on robot perception and manipulation for assistive, service and collaborative robotics. One objective of the group is to impro-ve the understanding of perceptual data to build 3D models of both rigid and deformable objects, as well as determining human pose.

Following the approach of cognitive robotics, the group wor-ks on planning and action selection, reinforcement learning, and learning from demonstration. In the coming years, an important research focus will be the perception and manipulation of tex-tiles, as well as teaching robots to help people to dress, under the recently awarded ERC Advanced Grant for the project CLO-

THILDE.

The Consolidated Research Group on Kinematics and Robot Design studies the behavior of articulated mechanisms focus-sing on the planning, simulation, and efficient and safe control of the motions of such systems. All these aspects are essential in the development of the increasingly complex robots deman-ded by industry and research nowadays.

These robots have to be designed such that they operate in pre-defined workspaces, need to dexterously manipulated objects, and must avoid singular configurations and collisions with the environment at any moment.

REGIONAL RESEARCHGROUP RECOGNITION

SGR-ROBIRI

SGR-KRD

Consolidated research group on Robotics

Consolidated research group on Kinematics and Robot Design

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Period

Alberto Sanfeliu

January 2014December 2016

Regional Funds

Principal Investigator

Period

Vincenç Puig

January 2014December 2016

Regional Funds

Principal Investigator

Type

Type

Budget

50000 €

The Vision and Intelligent Systems Group (VIS) carries out basic and applied research with the aim of understanding and desig-ning intelligent systems that are capable of interacting with the real world in an autonomous and wide-reaching manner. Such intelligent systems must perceive, reason, plan, act and learn from previous experiences. The group works on the following topics: Computer Vision techniques, for example in color image segmentation and labeling, semantic segmentation, object lear-ning and recognition, object tracking, person tracking, face trac-king and biometrics; Robotics techniques, for example in mobile (ground and aerial) robot navigation, simultaneous localization and map building, visual-servoing, 3D object tracking, sensor fu-sion, human-robot interaction and human-robot collaboration; and in Pattern Recognition and Machine Learning techniques, for example in supervised and unsupervised classifiers, graph matching, on-line boosting and CNNs for computer vision and robotics applications.

The “Advanced Control Systems” (SAC) research group is the most important and largest in the automatic control groups at the Universitat Politècnica de Catalunya (UPC). SAC research group has been involved in an intense research activity, in basic and applied fields in the last ten years, namely: optimal/predic-tive control of large scale systems (in particular, drinking, sewer and irrigation networks), fault diagnosis and fault tolerant con-trol of gas turbines, PEM fuel cells, aerogenevrators, UAVs and robots.

SAC research group has several experimental labs. One lab is devoted the research of modelling, control, fault diagnosis and tolerant control of PEM fuel cells and the other is devoted to the research in fault diagnosis.The SAC group has also organized several important internatio-nal conferences in the field of automatic control.

SGR- SAC

SGR-VISConsolidated research group in Vision and Intelligent Systems

Consolidated research group on Advanced Control Systems

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Period

Funding org.

IRI Budget

Attila husar

January 2017 /December 2019

240 125 € (Total 6,16M €)

Leader for IRI

Innovative cost improvements for ba-lance of plant components of automo-tive PEMFC systems

INN-Balance

The aim of INN-BALANCE is to develop a novel and integrated development plat-form for developing advanced Balance of Plant components in current fuel cell based vehicles, in order to improve their efficiency and reliability, reducing costs and presen-ting a stable supply.

Technical objectives are to develop highly efficient and reliable fuel cell BoP compo-nents; to reduce costs of current market products in fuel cell systems;to achieve high technology readiness levels in all the tackled developments; and to improve and tailor development tools for design, mode-lling and testing innovative components in fuel cell based vehicles.

INN-BALANCE will be focused on four main general topics; first of all on new com-ponents developments; secondly, on the vehicle integration and validation of the components in a TRL7 platform placed at a well-known car manufacturing platform; thirdly, providing innovative and cost opti-mized manufacturing processes especially developed for automotive BoP compo-nents; finally, on the results dissemination and exploitation, new technology broad-casting and public awareness of new, low-cost and reliable clean energy solutions in Europe bringing at the same time highly qualified new job opportunities.

HORIZON2020

UPCOMING H2020RESEARCH PROJECTS

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Period

Funding org.

Budget

Carme TorrasGuillem Alenyà

January 2017 /December 2020

500 625 € (Total 3,79M€)

Leaders for IRI

Robots understanding their actions by imagining their effects

IMAGINE

IMAGINE seeks to enable robots to unders-tand the structure of their environment and how it is affected by their actions. “Unders-tanding” here means the ability of the robot (a) to determine the applicability of an ac-tion along with parameters to achieve the desired effect, and (b) to discern to what extent an action succeeded, and to infer possible causes of failure and generate re-covery actions.

The core functional element is a generati-ve model based on an association engine and a physics simulator. “Understanding” is given by the robot´s ability to predict the effects of its actions, before and during their execution. This allows the robot to choose actions and parameters based on their simulated performance, and to moni-tor their progress by comparing observed to simulated behavior. For robotic disas-sembly, IMAGINE will develop a multi-func-tional gripper capable of multiple types of manipulation without tool changes.

IMAGINE raises the ability level of robotic systems in core areas of the work program-me, including adaptability, manipulation, perception, decisional autonomy, and cog-nitive ability. Since only one-third of EU e-waste is currently recovered, IMAGINE addresses an area of high economical and ecological impact.

HORIZON2020

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Throghout the year IRI holds a series of invited seminars and lectures, featuring invited speakers

and our own researchers presenting the results of their work prior to attending international

conferences or in preparation of their PhD defense.

29 January 2015Hilario Tomé, PAL Robotics Whole body control using Robust & Online hierarchical quadratic optimi-zation

12 February 2015Adrià Colomé, IRIReinforcement Learning of Robotic Tasks: Policy Search with Movement Primitives

2 March 2015Gerard Pons-Moll, Max Planck IISModeling Humans in Motion: Capture and Animation

12 March 2015Arturo Ribes, IIIAActive Learning of Object and Body Models with Time Constraints on a Humanoid Robot

16 March 2015Keith Clark, Imperial CollegeProgramming Robotic Agents: A Multi-tasking Teleo-Reactive Approach

9 April 2015Ricardo Téllez, IRIRobots that build concepts I: building the concept of space

16 April 2015Stuart Maggs, MinibuildersMinibuilders small robot 3D printing large scale objects, automating the construction site

23 April 2015Joan Vallvé, IRIActive Pose SLAM with RRT*

23 April 2015Adrià Colomé, IRI A Friction-Model-Based Framework for Reinforcement Learning of Robo-tic Tasks in Non-Rigid Environments

27 April 2015 Jan Funke, ETHZNeuron Reconstruction from Aniso-tropic Electron Microscopy Volumes

8 May 2015Gerhard Neumann, TU Darmstadt Learning Modular Control Policies in Robotics

14 May 2015Michael Villamizar, IRIModeling Robot’s World with Minimal Effort

14 May 2015Michael Villamizar, IRIEfficient Monocular Pose Estimation for Complex 3D Models

27 May 2015Federico Thomas, IRIApproaching Dual Quaternions from Matrix Algebra

11 June 2015Ricardo Téllez, IRIThe Construct: robotics simulations in the cloud

6 July 2015Vincent Lepetit, TU GrazHands Deep in Deep Learning for Hand Pose Estimation

16 July 2015Oscar Martinez Mozos, University of LincolnMonitoring Technologies to Support Robotic Assistants

17 July 2015Antonio Torralba, MITLarge Scale Visual Scene Recognition

15 October 2015David Martinez, IRISafe Robot Execution in Model-Ba-sed Reinforcement Learning

12 November 2015Angel Santamaria, IRIHigh-Frequency MAV State Esti-mation Using Low-Cost Inertial and Optical Flow Measurement Units

16 November 2015Victor Vaquero, IRIReal Time People Detection Combi-ning Appearance and Depth Image Spaces using Boosted Random Ferns

16 November 2015Victor Vaquero, IRILow Cost, Robust and Real Time System for Detecting and Tracking Moving Objects to Automate Cargo Handling in Port Terminals

26 November 2015Sergi Foix, IRI3D Sensor planning framework for leaf probing

17 December 2015Francesc Serratosa, URVMachine Learning, Human Interac-tion and Graph Matching applied to Mobile Robots

IRI RESEARCH SEMINAR SERIES

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59

15 February 2016Javier Civera, Universidad de Zaragoza Mid and high-level features for dense monocular SLAM

10 March 2016Joan Solà, IRIWOLF: a versatile framework for localization and mapping

7 April 2016Adrià Colomé, IRIUsing bad data for Reinforcement Learning with Policy Search algori-thms to obtain better convergence to solutions

13 April 2016Aleix Martínez, Ohio State University My Adventured with Bayes: In search of optimal solutions in machine lear-ning, computer vision and beyond

5 May 2016Andreu Corominas, IRIObservability Analysis and Optimal Sensor Placement in Stereo Radar Odometry

5 May 2016Patrick Grosch, IRI Geometric Path Planning without Maneuvers for Non-Holonomic Para-llel Orienting Robots

12 May 2016Farzad Husain, IRI Action Recognition based on Effi-cient Deep Feature Learning in the Spatio-Temporal Domain

12 May 2016Farzad Husain, IRICombining Semantic and Geometric Features for Object Class Segmenta-tion of Indoor Scenes

2 June 2016Germán Ros, CVCSemantic Segmentation for Driving Scenarios: On virtual worlds and embedded platforms

9 June 2016David Martínez, IRILearning Relational Dynamics of Stochastic Domains for Planning

16 June 2016Edmundo Guerra, IRI Data association and validation for probabilistic localization and mapping

30 June 2016Antonio Agudo, IRIReconstructing a dynamic world

4 July 2016Xavier Alameda-Pineda, INRIAMatrix Completion: A vision-oriented perspective

20 October 2016Edgar Simo, Waseda UniversityFusing Global and Local Image Priors for Automatic Image Colorization

3 November 2016Jesús Bermúdez, Universidad de ZaragozaMinimal solutions for line fitting in omnidirectional vision

1 December 2016Brais Cancela, Universidade da CoruñaA dynamic scene modeling approach to model human behavior in crowded scenes

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IRI's scientific production is published in the top journals of our fields of interest. This allows for an adequate dissemination of our findings to the scientific community.

Moreover, our researchers present also their work in the top conferences in our fields, thus promo-ting the exchange of ideas with our peers at other research institutions and related companies.

The evolution of IRI's scientific production in bi-bliometric terms has grown streadily for over a de-cade, and continued to do so during this period.

3.

PU

BL

Ica

TIO

Ns

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IRI members participate in the Editorial Board of

the following journals:

- IEEE Transactions on Robotics

- ASME Journal of Mechanisms and Robotics

- International Journal of Mechanics and Control

- Pattern Recognition Letters

- International Journal of Pattern Recognition

and Artificial Intelligence

- Computer Vision and Image Understanding

- Electronic Letters on Computer Vision and

Image Analysis

-20

20

60

100

140

180

220

2 0 1 5 / 2 0 1 62 0 1 3 / 2 0 1 42 0 1 1 / 2 0 1 22 0 0 9 / 2 0 1 02 0 0 7 / 2 0 0 82 0 0 5 / 2 0 0 6

Journal Articles Conferences Others (Books, book chapters, tech.reports)

EVOLUTION IN SCIENTIFIC PRODUCTION EDITORIAL TASK

2005-20062007-2008

2009-20102011-2012

2013-20142015-2016

220

180

140

100

60

20

JOURNAL ARTICLES CONFERENCES OTHERS(books, book chapters, tech. reports)

Number of publications:

2005-20062007-2008

2009-20102011-2012

2013-20142015-2016

Q1 Q4Q2 Q3 No ISI

* The quartiles Q1 to Q4 indicate the quality of a journal with regards to its impact in a field, measured by the number of citations received. Source: ISI Journal Citation Report

90

50

70

80

Journal articles quality*:

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JOURNAL ARTICLES2015E.E. Aksoy, A. Abramov, F. Wörgötter, H. Scharr, A. Fisch-bach and B. Dellen. Modeling leaf growth of rosette plants using infrared stereo image sequences. Computers and Electronics in Agriculture, 110: 78-90, 2015.

G. Alexandre, J. Cristophe, V. Ruiz de Angulo and C. Torras. Variable symmetry breaking in numerical constraint pro-blems. Artificial Intelligence, 229: 105-125, 2015.

J. Andrade-Cetto, U. Frese and M. Tenorth. ECMR’13 Special Issue. Robotics and Autonomous Systems, 69: 1-2, 2015.

C. Angulo, S. Pfeiffer, R. Tellez and G. Alenyà. Evaluating the use of robots to enlarge AAL services. Journal of Ambient Intelligence and Smart Environments, 7(3): 301-313, 2015.

F. Bianchi, C. Ocampo-Martínez, C. Kunusch and R. Sán-chez-Peña. Fault-tolerant unfalsified control for PEM fuel cell systems. IEEE Transactions on Energy Conversion, 30(1): 307-315, 2015

J. Blesa, P. Jiménez, D. Rotondo, F. Nejjari and V. Puig. An interval NLPV parity equations approach for fault detection and isolation of a wind farm. IEEE Transactions on Indus-trial Electronics, 62(6): 3794-3805, 2015.

F. Castaños and C. Kunusch. Dither-less extremum seeking for hydrogen minimization in PEM fuel cells. IEEE Transac-tions on Industrial Electronics, 62(8): 5218-5226, 2015.

E. Celaya and A. Agostini. Online EM with weight-based forgetting. Neural Computation, 27(5): 1142–1157, 2015.

A. Colomé and C. Torras. Closed-loop inverse kinematics for redundant robots: Comparative assessment and two enhancements. IEEE/ASME Transactions on Mechatronics, 20(2): 944-955, 2015.

B. Dellen, H. Scharr and C. Torras. Growth signature of rose-tte plants from time-lapse video. IEEE/ACM Transactions on Computational Biology and Bioinformatics, 12(6): 1470-1478, 2015.

R.M. Fernandez-Cantí, J. Blesa, S. Tornil and V. Puig. Fault detection and isolation for a wind turbine benchmark using a mixed Bayesian/set-membership approach. Annual Re-views in Control, 40: 59-69, 2015.

R.M. Fernandez-Cantí, S. Tornil, J. Blesa and V. Puig. Non-li-near set-membership identification approach based on the Bayesian framework. IET Control Theory and Applica-tions, 9(9): 1392-1398, 2015.

R. Galego, A.A. Ortega, R. Ferreira, A.J. Bernardino Malhei-ro, J. Andrade-Cetto and J. Gaspar. Uncertainty analysis of the DLT-lines calibration algorithm for cameras with radial distortion. Computer Vision and Image Understanding, 140: 115-126, 2015.

L. García, J. Barreiro-Gomez, E. Escobar, D. Téllez, N. Qui-jano and C. Ocampo-Martínez. Modeling and real-time control of urban drainage systems: A review. Advances in Water Resources, 85:120-132, 2015.

I. Huerta, M.B. Holte, T. Moeslund and J. Gonzàlez. Chroma-tic shadow detection and tracking for moving foreground segmentation. Image and Vision Computing, 41: 42–53, 2015.

I. Huerta, M. Pedersoli, J. Gonzàlez and A. Sanfeliu. Combi-ning where and what in change detection for unsupervised foreground learning in surveillance. Pattern Recognition, 48(3): 709-719, 2015.

F. Husain, B. Dellen and C. Torras. Consistent depth video segmentation using adaptive surface models. IEEE Tran-sactions on Cybernetics, 45(2): 266-278, 2015.

A. Jevtic, G. Doisy, Y. Parmet and Y. Edan. Comparison of interaction modalities for mobile indoor robot guidance: Direct physical interaction, person following, and pointing control. IEEE Transactions on Human-Machine Systems, 45(6): 653-663, 2015.

B. Joseph, C. Ocampo-Martínez and G. Cembrano. Ou-tput-feedback control of combined sewer networks throu-gh receding horizon control with moving horizon estima-tion. Water Resources Research, 51(10): 8129-8145, 2015.

C. König, M.I. Cárdenas, J. Giraldo, R. Alquézar Mancho and A. Vellido. Label noise in subtype discrimination of class C G protein-coupled receptors: A systematic approach to the analysis of classification errors. BMC Bioinformatics, 16(314): 1-14, 2015.

C. Kunusch, C. Ocampo-Martínez, M.I. Valla. Modeling, diag-nosis, and control of fuel-cell-based technologies and their integration in smart-grids and automotive systems. IEEE Transactions on Industrial Electronics, 62(8): 5143-5, 2015.

J.A. Luna, A.P. Husar and M. Serra. Nonlinear distributed pa-rameter observer design for fuel cell systems. International Journal of Hydrogen Energy, 40(34): 11322-11332, 2015.

J.A. Luna, C. Ocampo-Martínez and M. Serra. Nonlinear predictive control for the concentrations profile regulation under unknown reaction disturbances in a fuel cell anode gas channel. Journal of Power Sources, 282: 129-139, 2015.

D. Martínez, G. Alenyà and C. Torras. Planning robot mani-pulation to clean planar surfaces. Engineering Applic. of Artificial Intelligence, 39: 23-32, 2015.

M.Mayur, S. Strahl, A.P. Husar and W. Bessler. A multi-times-cale modeling methodology for PEMFC performance and durability in a virtual fuel cell car. International Journal of Hydrogen Energy, 40(46): 16466-16476, 2015

J. Moré, P.F. Puleston, C. Kunusch and M. Allué. Development and implementation of a supervisor strategy and sliding mode control setup for fuel-cell-based hybrid generation systems. IEEE Tran-sactions on Energy Conversion, 30(1): 218-225, 2015.

A. Nunez, C. Ocampo-Martínez, J.M. Maestre and B. De Schutter. Time-varying scheme for non-centralized model

predictive control of large-scale systems. Mathematica Problems in Engineering, 2015(560702): 1-17, 2015. J.D. Rojas, C. Kunusch, C. Ocampo-Martínez and V. Puig. Control-Oriented Thermal Modeling Methodology for Wa-ter-Cooled PEM Fuel-Cell-Based Systems. IEEE Transac-tions on Industrial Electronics, 62(8): 5146-5154, 2015.

N. Rojas, A. Dollar and F. Thomas. A unified position analy-sis of the Dixon and the generalized Peaucellier linkages. Mechanism and Machine Theory, 94: 28-40, 2015.

D. Rotondo, F. Nejjari and V. Puig. Robust quasi–LPV mo-del reference FTC of a quadrotor UAV subject to actuator faults. International Journal of Applied Mathematics and Computer Science, 25(1): 7-22, 2015

D. Rotondo, V. Puig, F. Nejjari and J. Romera. A fault-hiding approach for the switching quasi-LPV fault-tolerant control of a four-wheeled omnidirectional mobile robot. IEEE Tran-sactions on Industrial Electronics, 62(6): 3932-3944, 2015.

D. Rotondo, V. Puig, F. Nejjaria, M. Witczakc, Automated ge-neration and comparison of Takagi-Sugeno and polytopic quasi-LPV models, Fuzzy Sets and Systems , 277: 44-64, 2015

A. Santamaria-Navarro, E.H. Teniente, M. Morta and J. An-drade-Cetto. Terrain classification in complex three-dimen-sional outdoor environments. Journal of Field Robotics, 32(1): 42-60, 2015.

E. Serradell, M.A. Pinheiro, R. Sznitman, J. Kybic, F. More-no-Noguer and P. Fua. Non-rigid graph registration using active testing search. IEEE Transactions on Pattern Analy-sis and Machine Intelligence, 37(3): 625-638, 2015.

E. Simo-Serra, C. Torras and F. Moreno-Noguer. DaLI: Defor-mation and light invariant descriptor. International Journal of Computer Vision, 115(2): 136–154, 2015.

C. Sun, V. Puig and G. Cembrano. Integrated simulation and optimization scheme of real-time large-scale water supply network: applied to Catalunya case study. Simulation, 91(1): 59-70, 2015.

F. Thomas. A distance geometry approach to the singu-larity analysis of 3R robots. Journal of Mechanisms and Robotics, 8(1): 1-11, 2015.

J. Vallvé and J. Andrade-Cetto. Potential information fields for mobile robot exploration. Robotics and Autonomous Systems, 69: 68-79, 2015.

J. Vento, J. Blesa, V. Puig and R. Sarrate. Set-membership parity space hybrid system diagnosis. International Jour-nal of Systems Science, 46(5):790–807, 2015.

M. Witczak, D. Rotondo, V. Puig, P. Witczak. A practical test for assessing the reachability of discrete-time Takagi-Su-geno fuzzy systems. Journal of the Franklin Institute, 352(12), 5936-5951, 2015

F. Xu, V. Puig, C. Ocampo-Martínez, S. Olaru and F. Stoican. Set-theoretic methods in robust detection and isolation of sensor faults. International Journal of Systems Science, 46(13): 2317-2334, 2015.

PUBLICATIONS

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2016A. Agudo, F. Moreno-Noguer, B. Calvo and J.M. Martínez. Sequential non-rigid structure from motion using physical priors. IEEE Trans. on Pattern Analysis and Machine Intell., 38(5): 979-994, 2016. A. Agudo, F. Moreno-Noguer, B. Calvo and J.M. Martínez. Real-time 3D reconstruction of non-rigid shapes with a sin-gle moving camera. Computer Vision and Image Unders-tanding, 153(12): 37-54, 2016.

M. Alberich, F. Dachs and J. Álvarez. Multiplier ideals in two-dimensional local rings with rational singularities. Mi-chigan Mathematical Journal. 65(2): 287-320, 2016. M. Alberich and V. González. Determining plane curve sin-gularities from its polars. Advances in Mathematics. 287(1): 788-822, 2016.

J. Barreiro-Gomez, N. Quijano and C. Ocampo-Martí-nez. Constrained distributed optimization: A popula-tion dynamics approach. Automatica, 69(2016): 101-116, 2016. Z. Baroud, A. Benalia and C. Ocampo-Martínez. Air flow regulation in fuel cells: An efficient design of hybrid fuzzy-PID control. Electrotehnica, Electronica, Automatica, 64(4): 28-32, 2016

J. Blesa, F. Nejjari and R. Sarrate. Robust sensor placement for leak location: Analysis and design. Journal of Hydroin-formatics, 18(1): 136-148, 2016.

J. Blesa, V. Puig, J. Saludes and R.M. Fernandez-Cantí. Set-membership parity space approach for fault detection in linear uncertain dynamic systems. International Journal of Adaptive Control and Signal Processing, 30(2): 186-205, 2016

O. Bohigas, M. Manubens and L. Ros. Planning wrench-fea-sible motions for cable-driven hexapods. IEEE Transac-tions on Robotics, 32(2): 442-451, 2016.

Y. Bolea, A. Grau and A. Sanfeliu. From research to tea-ching: Integrating social robotics in engineering degrees. International Journal of Computer, Electrical, Automa-tion, Control and Information Engineering, 10(6): 1020-1023, 2016.

G. Canal, S. Escalera and C. Angulo. A real-time human-ro-bot interaction system based on gestures for assistive sce-narios. Computer Vision and Image Understanding, 149: 65-77, 2016.

R.M. Fernandez-Cantí, J. Blesa, V. Puig and S. Tornil. Set-membership identification and fault detection using a Bayesian framework. International Journal of Sys-tems Science, 47(7): 1710-1724, 2016. P. Grosch and F. Thomas. Geometric path planning without maneuvers for nonholonomic parallel orienting robots. IEEE Robotics and Automation Letters, 1(2): 1066-1072, 2016.

J.M. Grosso, C. Ocampo-Martínez and V. Puig. Reliabili-ty-based economic model predictive control for generali-zed flow-based networks including actuators’ health-awa-re capabilities. Intern. Journal of Applied Mathematics and Computer Science, 26(3), 2016.

J.G. Hoyos, F. Prieto, G. Alenyà and C. Torras. Execution Fault Recovery in Robot Programming by Demonstration Using Multiple Models. IEEE Latin America Transactions, 14(2): 517-523, 2016.

J.G. Hoyos, F. Prieto, G. Alenyà and C. Torras. Incremental learning of skills in a task-parameterized Gaussian mixture model. Journal of Intelligent & Robotic Systems, 82(1): 81-99, 2016.

F. Husain, B. Dellen and C. Torras. Action recognition based on efficient deep feature learning in the spatio-temporal domain. IEEE Robotics and Automation Letters, 1(2): 984-991, 2016. F. Husain, H. Schulz, B. Dellen, C. Torras and S. Behnke. Combining semantic and geometric features for object class segmentation of indoor scenes. IEEE Robotics and Automation Letters, 2(1): 49-55, 2016.

M. Igelmo and A. Sanfeliu. Filtering graphs to check isomor-phism and extracting mapping by using the conductance electrical model. Pattern Recognition, 58: 68-82, 2016.

T. Jahnke, et al (S. Strahl, M. Serra, ...). Performance and degradation of proton exchange membrane fuel cells: Sta-te of the art in modeling from atomistic to system scale. Journal of Power Sources, 304(1): 207-233, 2016.

I. Jurado, J.M. Maestre, P. Velarde, C. Ocampo-Martínez, I. Fernández, B. Isla and J. del Prado. Stock management in hospital pharmacy using chance-constrained model pre-dictive control. Computers in Biology and Medicine, 72: 248-255, 2016. V. Lippiello, J. Cacace, A. Santamaria-Navarro, J. Andra-de-Cetto, M.A. Trujillo, Y. Rodriguez and A. Viguria. Hybrid visual servoing with hierarchical task composition for aerial manipulation. IEEE Robotics and Automation Letters, 1(1): 259-266, 2016.

J.A. Luna, S. Jemei, N. Yousfi, A.P. Husar, M. Serra and D. Hissel. Nonlinear predictive control for durability enhance-ment and efficiency improvement in a fuel cell power sys-tem. Journal of Power Sources, 328: 250-261, 2016.

J.A. Luna, E. Usai, A.P. Husar and M. Serra. Nonlinear obser-vation in fuel cell systems: A comparison between distur-bance estimation and high-order sliding-mode techniques. International Journal of Hydrogen Energy, 41(43): 19737-19748, 2016.

F. Moreno and J.M. Porta. A Bayesian approach to simul-taneously recover càmera pose and non-rigid shape from monocular images. Image and Vision Computing. 52: 141-153, 2016. J.M. Porta and S. Hernández. Path planning for active ten-segrity structures. International Journal of Solids and Structures, 78: 47-56, 2016.

J.M. Porta, A. Rull and F. Thomas. Sensor localization from distance and orientation constraints. Sensors. 16(7): 1096, 2016.

A. Ramisa, G. Alenyà, F. Moreno-Noguer, C. Torras. A 3D descriptor to detect task-oriented grasping points in clo-thing. Pattern Recognition, 60:936-948, 2016. G. Riaño-Briceño, J. Barreiro-Gomez, A. Ramirez-Jaime, N. Quijano and C. Ocampo-Martínez. MatSWMM - An open-source toolbox for designing real-time control of urban drainage systems. Environmental Modelling & Sof-tware, 83: 143-154, 2016.

D. Robles, V. Puig, C. Ocampo-Martínez and L. E. Garza. Reliable fault-tolerant model predictive control of drinking water transport networks, Control Engineering Practice, 55: 197-211, 2016. D.Rotondo, R.M. Fernandez-Cantí, J. Blesa and V. Puig. Ro-bust fault diagnosis of proton Exchange membrane fuel cells using a Takagi-Sugeno interval observar approach. International Journal of Hydrogen Energy. 41(4): 2875-2886, 2016.

D. Rotondo, M. Witczakc, V. Puig, F. Nejjari and M. Pazera. Robust unknown input observar for State and fault estima-tion in discrete-time Takagi-Sugeno Systems. International Journal of Systems Science, 47(14): 3409-3424, 2016. D. Rotondo, F.R. Lopez, F. Nejjari, J.C. Ponsart, D. Theilliol and V. Puig. Actuator multiplicative fault estimation in dis-crete-time LPV Systems using switched observers. Journal of Franklin Institute, 353(13): 3176-3191, 2016. D. Rotondo, F. Nejjari and V. Puig. Fault tolerant control of a proton Exchange membrane fuel cell usgin Takagi-Suge-no virtual actuators. Journal of Process Control, 45: 12-29, 2016.

D. Rotondo, F. Nejjari and V. Puig. Dilated LMI characte-rization for the robust finite time control of discrete-time uncertain linear Systems. Automatica, 63(16): 16-20, 2016.

L. Rozo, S. Calinon, D. Caldwell, P. Jiménez and C. Torras. Learning physical collaborative robot behaviors from hu-man demonstrations. IEEE Transactions on Robotics, 32(3): 513-527, 2016.

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G. Sanromà, A. Penate-Sanchez, R. Alquézar Mancho, F. Serratosa, F. Moreno-Noguer, J. Andrade-Cetto and M.A. González. MSClique: Multiple structure discovery through the maximum weighted clique problem. PLOS One, 11(1): e0145846, 2016.

F. Soriano, J.M. Moreno-Eguilaz, J.A. Álvarez and J. Riera. Topological analysis of powertrains for refusecollecting ve-hicles based on real routes – Part I: Hybrid hydraulic power-train. International Journal of Automotive Technology, 17(5): 873-882, 2016.

F. Soriano, J.M. Moreno-Eguilaz, J.A. Álvarez and J. Riera. Topological analysis of powertrains for refuse-collecting vehicles based on real routes-Part II: Hybrid electric power-train. International Journal of Automotive Technology, 17(5): 883-894, 2016

S. Strahl and R. Costa. Model-based analysis for the ther-mal management of open-cathode proton Exchange mem-brane fuel cell Systems concerning efficiency and stability. Journal of Process Control,47:201-2012,2016. A. Soldevila, J. Blesa, S. Tornil, E. Duviella, R.M. Fernan-dez-Cantí and V. Puig. Leak localization in water Distri-bution networks using a mixed model-based/data-driven approach. Control Engineering Practice. 55: 162-173, 2016.

C. Sun, V. Puig and G. Cembrano. Combining CSP and MPC for the operational control of water networks. Engineering Applications of Artificial Intelligence, 49: 126-140, 2016. C. Torras. Service robots for citizens of the future. Euro-pean Review, 24(1): 17-30, 2016.

M.A. Villamizar, A. Garrell, A. Sanfeliu and F. Moreno. Inte-ractive multiple object learning with scanty human super-vision. Computer Vision and Image Understanding. 149: 51-64, 2016. Y. Wang, C. Ocampo-Martínez and V. Puig. Stochastic mo-del predictive control based on Gaussian processes applied to drinking water networks. IET Control Theory and Appli-cat., 10(8): 947-955, 2016.

BOOK CHAPTERS2015G. Alenyà, S. Foix and C. Torras. ToF cameras for eye-in-hand robotics. In Optical Imaging Devices: New Techno-logies and Applications, 117-147. CRC Press - Francis Taylor Group, 2015.

J. Barreiro-Gomez, C. Ocampo-Martínez and N. Quijano. Evolutionary-game-based dynamical tuning for multi-ob-jective model predictive control. In Developments in Mo-del-Based Optimization and Control, Springer Verlag, 2015.

K. Horváth, L. Rajaoarisoa, E. Duviella, J. Blesa and M. Petrec-zky. Enhancing inland navigation by model predictive control of water levels: The Cuinchy-Fontinettes case. In Transport of Water versus Transport over Water, 211-234. Springer, 2015.

R. Negenborn and C. Ocampo-Martínez. Perspectives on transport of water versus transport over water. In Trans-port of Water versus Transport over Water, 1-10. Springer, 2015.

V. Puig, C. Ocampo-Martínez and R. Negenborn. Model pre-dictive control for combined water supply and navigability/sustainability in river systems. In Transport of Water versus Transport over Water, 13-33. Springer, 2015.

A. Rosich and C. Ocampo-Martínez. Real-time experi-mental implementation of predictive control schemes in a small-scale pasteurization plant. In Developments in Mo-del-Based Optimization and Control, 255-273. Springer Verlag, 2015.

C. Sun, V. Puig and G. Cembrano. Coordinating Model Pre-dictive Control of Transport and Supply Water Systems. In Transport of Water versus Transport over Water, 111-130. Springer, 2015.

2016C. Torras. Robot pain: A speculative review of its functions. In Pain and the Conscious Brain, 235-246. Wolters Kluwer, 2016. E. Trulls Fortuny, I. Kokkinos, A. Sanfeliu and F. Moreno-No-guer. Dense segmentation-aware descriptors. In Dense Image Correspondences for Computer Vision, 83-107. Springer, 2016.

CONFERENCES2015A. Agudo and F. Moreno-Noguer. Simultaneous pose and non-rigid shape with particle dynamics, IEEE Computer Society Conference on Computer Vision and Pattern Re-cognition, 2015, Boston, pp. 2179-2187.

A. Agudo and F. Moreno-Noguer. Learning shape, motion and elastic models in force space, International Conferen-ce on Computer Vision, 2015, Santiago de Chile, pp. 756-764

J.E. Arango, C. Ocampo-Martínez, F. Bianchi and G.A. Oso-rio. Unfalsified adaptive control for manipulators with para-meter uncertainties, 2nd Colombian Conference on Auto-matic Control, 2015, Manizales, Colombia, pp. 1-6.

J. Barreiro-Gomez, G. Obando, C. Ocampo-Martínez and N. Quijano. Making non-centralized a model predictive con-trol scheme by using distributed Smith dynamics, 5th IFAC Conf. on Nonlinear Model Predictive Control, Seville, Vol 48:23 of IFAC-PapersOnLine, pp. 501-506, 2015.

J. Barreiro-Gomez, G. Obando, G. Riaño-Briceño, N. Quijano and C. Ocampo-Martínez. Decentralized control for urban drainage systems via population dynamics: Bogota case study, European Control Conference, 2015, Linz, Austria, pp. 2426-2431.

J. Barreiro-Gomez, C. Ocampo-Martínez, F. Bianchi and N.

Quijano. Model-free control for wind farms using a gradient

estimation-based algorithm, European Control Conferen-

ce, 2015, Linz, Austria, pp. 2426-2431.

J. Barreiro-Gomez, C. Ocampo-Martínez, J.M. Maestre and

N. Quijano. Multi-objective model-free control based on po-

pulation dynamics and cooperative games, 54th Conf. on

Decision and Control, 2015, Osaka, Japan, p. 5296-5301.

J. Barreiro-Gomez, N. Quijano and C. Ocampo-Martínez.

Distributed resource management by using population dy-

namics: Wastewater treatment application, 2nd Colombian

Conference on Automatic Control, 2015, Manizales,pp.1-6.

J. Blesa, F. Le Gall, C. Jauberthie and L. Trave-Massuyes.

State estimation and fault detection using box particle filte-

ring with stochastic measurements, 26th Intern. Works.on

Principles of Diagnosis, 2015, Paris, pp. 67-73.

A. Colomé, A. Planells and C. Torras. A friction-model-ba-

sed framework for reinforcement learning of robotic tasks

in non-rigid environments, IEEE International Conference

on Robotics and Automation, 2015, Seattle, pp. 5649-

5654.

A. Corominas Murtra, S. Pfeiffer and J. Pagès. Multi-target

& multi-detector people tracker for mobile robots, 2015 Eu-

ropean Conference on Mobile Robots, 2015, Lincoln, UK,

pp. 1-6

L.D. Ellebracht, A. Ramisa, P. Swaroop, J.A. Cordero, F.

Moreno-Noguer and A. Quattoni. Semantic tuples for eva-

luation of image sentence generation, 4th Workshop on

Vision and Language, 2015, Lisbon.

D. Escudero and R. Alquézar Mancho. Distance-based

kernels for dynamical movement primitives, 18th Catalan

Conference on Artificial Intelligence, 2015, Valencia, in Ar-

tificial Intelligence Research and Development, Vol 277 of

Frontiers in Artif. Intell. and Applications, pp. 133-142, 2015

G. Ferrer and A. Sanfeliu. Multi-objective cost-to-go func-

tions on robot navigation in dynamic environments, IEEE/

RSJ International Conference on Intelligent Robots and

Systems, 2015,Hamburg, pp. 3824-3829.

L. Ferrandez-Gamot, P. Busson, J. Blesa, S. Tornil, V. Puig

and A. Soldevila. Leak Localization in Water Distribution

Networks using Pressure Residuals and Classifiers, IFAC

Symposium on Fault Detection Supervision and Safety

for Technical Processes, 2015, Paris, pp. 220–225,

S. Foix, G. Alenyà and C. Torras. 3D sensor planning fra-

mework for leaf probing, IEEE/RSJ International Confe-

rence on Intelligent Robots and Systems, 2015, Hamburg,

pp. 6501-6506, pp. 6501-6506.

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F.-J. Heredia, J. Riera, M. Mata, J.. Escuer and J. Romeu. Economic analysis of battery electric storage systems ope-rating in electricity markets, 12th International Conference on the European Energy Market, 2015, Lisbon, Portugal, pp. 1-5

A.P. Husar, G. D’Elia and V. Roda. Experimental decoupling of single cell polarization losses, 5th Iberian Symposium on Hydrogen, Fuel Cells and Advanced Batteries, 2015, Te-nerife.

Y. Isleyici and G. Alenyà. Teaching grasping points using na-tural movements, 18th Catalan Conference on Artificial In-telligence, Valencia, in Artificial Intelligence Research and Development, Vol 277 of Frontiers in Artificial Intelligence and Applications, pp. 275-278, 2015

J.A. Luna, E. Usai, A.P. Husar and M. Serra. Distributed pa-rameter nonlinear state observer with unmatched distur-bance estimation for PEMFC systems, International Con-ference on Fundamentals & Development of Fuel Cells, 2015, Toulouse, pp. 8

J.A. Luna, E. Usai, A.P. Husar and M. Serra. State estimation in fuel cell systems: A sliding mode approach, 5th Iberian Symposium on Hydrogen, Fuel Cells and Advanced Bat-teries, 2015, Tenerife.

D. Martínez, G. Alenyà and C. Torras. Safe robot execution in model-based reinforcement learning, IEEE/RSJ Inter-national Conference on Intelligent Robots and Systems, 2015, Hamburg, pp. 6422-6427.

D. Martínez, T. Ribeiro, K. Inoue, G. Alenyà and C. Torras. Learning probabilistic action models from interpretation transitions, 31st Technical Communications of the Inter-national Conference on Logic Programming, 2015, Cork, Ireland, in Technical Communications of ICLP 2015, Vol 1433 of CEUR Workshop Proceedings.

D. Martínez, G. Alenyà and C. Torras. V-MIN: Efficient rein-forcement learning through demonstrations and relaxed reward demands, 29th AAAI Conference on Artificial In-telligence, 2015, Austin, Texas, pp. 2857-2863.

J. Meseguer, J.M. Mirats, G. Cembrano and V. Puig. Mo-del-based monitoring techniques for leakage localization in distribution water networks, 13th Computing and Control for the Water Industry Conference, 2015, Leicester, Vol 119 of Procedia Engineering, pp. 1399-1408, Elsevier.

F. Muros, J.M. Maestre, E. Algaba, C. Ocampo-Martínez and E. Fernández. An application of the Shapley value to per-form system partitioning, American Control Conference, 2015, Chicago, Illinois, pp. 2143-2148.

F. Nejjari, R. Sarrate and J. Blesa. Optimal pressure sensor placement in water distribution networks minimizing leak location uncertainty, 13th Computing and Control for the Water Industry Conference, 2015, Leicester, Vol 119 of Pro-cedia Engineering, pp. 953–962

A. Penate-Sanchez, L. Porzi and F. Moreno-Noguer. Mat-chability prediction for full-search template matching algo-rithms, International Conference on 3D Vision, 2015, Lyon, pp. 353-361.

V. Puig and C. Ocampo-Martínez. Decentralised fault diag-nosis of large-scale systems: Application to water transport networks, 26th International Workshop on Principles of Diagnosis, 2015, Paris, pp. 99-104.

A. Ramisa, J. Wang, Y. Lu, E. Dellandrea, F. Moreno-Noguer and R. Gaizauskas. Combining geometric, textual and vi-sual features for predicting prepositions in image descrip-tions, Conference on Empirical Methods in Natural Lan-guage Processing, 2015, Lisbon, pp. 214-220.

G. Riaño-Briceño, A. Ramirez-Jaime, J. Barreiro-Gomez, N. Quijano and C. Ocampo-Martínez. Co-simulation for the design of controllers in urban drainage systems, 2nd Co-lombian Conference on Automatic Control, 2015, Maniza-les, Colombia, pp. 1-6.

N. Rosanas, C. Ocampo-Martínez and C. Kunusch. On the anode pressure and humidity regulation in PEM fuel cells: a nonlinear predictive control approach, 5th IFAC Conferen-ce on Nonlinear Model Predictive Control, 2015, Seville, Vol 48:23 of IFAC-PapersOnLine, pp. 434-439, 2015.

A. Rubio, M. Villamizar, L. Ferraz, A. Penate-Sanchez, A. Ra-misa, E. Simo-Serra, A. Sanfeliu and F. Moreno-Noguer. Effi-cient monocular pose estimation for complex 3D models, IEEE International Conference on Robotics and Automa-tion, 2015, Seattle, pp. 1397-1402.

A. Rull, J.M. Porta and F. Thomas. Distance bound smoo-thing under orientation constraints, IEEE International Conference on Robotics and Automation, 2015, Seattle, pp. 1431-1436.

J. Sánchez, J.D. Ortega and C. Ocampo-Martínez. Tempe-rature regulation of a pilot-scale batch reaction system via explicit model predictive control, 2nd Colombian Confe-rence on Automatic Control, 2015, Manizales, Colombia, pp. 1-6.

A. Santamaria-Navarro, J. Solà and J. Andrade-Cetto. Hi-gh-frequency MAV state estimation using low-cost inertial and optical flow measurement units, IEEE/RSJ Internatio-nal Conference on Intelligent Robots and Systems, 2015, Hamburg, pp. 1864-1871

E. Simo-Serra, S. Fidler, F. Moreno-Noguer and R. Urtasun. Neuroaesthetics in fashion: Modeling the perception of fas-hionability, IEEE Computer Society Conference on Com-puter Vision and Pattern Recognition, 2015, Boston.

E. Simo-Serra, C. Torras and F. Moreno-Noguer. Lie alge-bra-based kinematic prior for 3D human pose tracking, 14th IAPR International Conference on Machine Vision Applications, 2015, Tokyo, Japan, pp. 394-397.

E. Simo-Serra, E. Trulls Fortuny, L. Ferraz, I. Kokkinos, P. Fua and F. Moreno-Noguer. Discriminative learning of deep convolutional feature point descriptors, 2015 International Conference on Computer Vision, 2015, Santiago de Chile, IEEE, pp. 118-126

C. Sun, M. Morley, D. Savic, V. Puig, G. Cembrano and Z. Zhang. Combining model predictive control with constra-int-satisfaction formulation for the operative pumping con-trol in water networks, 13th Computer Control for Water Industry Conference, 2015, Leicester, Vol 119 ofProcedia Eng., pp. 963-972

J. Vallvé and J. Andrade-Cetto. Active Pose SLAM with RRT*, IEEE Intern. Conference on Robotics and Automa-tion, 2015, Seattle, pp. 2167-2173.

V. Vaquero, M. Villamizar and A. Sanfeliu. Real time people detection combining appearance and depth image spaces using boosted random ferns, 2nd Iberian Robotics Confe-rence, Lisbon, Vol 418 of Advances in Intelligent Systems and Computing, pp. 587–598, 2015.

V. Vaquero, E. Repiso, A. Sanfeliu, J. Vissers and M.. Kwakker-naat. Low cost, robust and real time system for detecting and tracking moving objects to automate cargo handling in port terminals, 2nd Iberian Robotics Conference ,Lisbon, Vol 418 of Advances in Intelligent Systems and Computing, pp. 491–502, 2015

M. Villamizar, A. Garrell Zulueta, A. Sanfeliu and F. More-no-Noguer. Modeling robot’s world with minimal effort, IEEE International Conference on Robotics and Automa-tion, 2015, Seattle, pp. 4890-4896.

M. Villamizar, A. Garrell Zulueta, A. Sanfeliu and F. More-no-Noguer. Multimodal object recognition using random clustering trees, 7th Iberian Conference on Pattern Recog-nition and Image Analysis, 2015, Santiago de Compostela, Vol 9117 of Lecture Notes in Computer Science, pp. 496-504, Springer.

Y. Wang, C. Ocampo-Martínez and V. Puig. Robust model predictive control based on Gaussian processes: Applica-tion to drinking water networks, European Control Confe-rence, 2015, Linz, Austria, pp. 3292-3297.

M. Witczakc, V. Puig, D. Rotondo, M. de Rozprza and M.. Mrugalski. A robust H∞ observer design for unknown input nonlinear systems: Application to fault diagnosis of a wind turbine, 23rd Mediterranean Conference on Control and Automation, 2015, Torremolinos, pp. 162-167.

2016

V. Vaquero, E. Repiso, A. Sanfeliu, J. Vissers and M.. Kwakker-naat. Low cost, robust and real time system for detecting and tracking moving objects to automate cargo handling in port terminals, 2nd Iberian Robotics Conference ,Lisbon, Vol 418 of Advances in Intelligent Systems and Computing, pp. 491–502, 2015

M. Villamizar, A. Garrell Zulueta, A. Sanfeliu and F. Moreno-No-guer. Modeling robot’s world with minimal effort, IEEE Inter-national Conference on Robotics and Automation, 2015, Seattle, pp. 4890-4896.

A. Agudo and F. Moreno-Noguer. Recovering pose and 3D deformable shape from multi-instance image ensembles, 13th Asian Conference on Computer Vision, 2016, Taipei, Taiwan, Vol 10114 of Lecture Notes in Computer Science, pp. 291-307, 2017, Springer. A. Agudo, J.M. Martínez, B. Calvo and F. Moreno-Noguer. Mode-shape interpretation: Re-thinking modal space for recovering deformable shapes, 2016 IEEE Winter Conf. on Applic. of Computer Vision, 2016, Lake Placid, USA, pp. 1-8

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M. Villamizar, A. Garrell Zulueta, A. Sanfeliu and F. More-no-Noguer. Multimodal object recognition using random clustering trees, 7th Iberian Conference on Pattern Re-cognition and Image Analysis, 2015, Santiago de Compos-tela, Vol 9117 of Lecture Notes in Computer Science, pp. 496-504, Springer.

Y. Wang, C. Ocampo-Martínez and V. Puig. Robust model predictive control based on Gaussian processes: Applica-tion to drinking water networks, European Control Confe-rence, 2015, Linz, Austria, pp. 3292-3297.

M. Witczakc, V. Puig, D. Rotondo, M. de Rozprza and M.. Mrugalski. A robust H∞ observer design for unknown input nonlinear systems: Application to fault diagnosis of a wind turbine, 23rd Mediterranean Conference on Control and Automation, 2015, Torremolinos, pp. 162-167.

I. Alzugaray and A. Sanfeliu. Learning the hidden human knowledge of UAV pilots when navigating in a cluttered environment for improving path planning, IEEE/RSJ Inter-national Conference on Intelligent Robots and Systems (IROS), 2016, Daejeon, Korea, pp. 1589-1594.

A. Amor, A. Santamaría, F. Herrero, A. Ruiz and A. Sanfeliu. Planar PoP: feature-less pose estimation with Applications in UAV localization, IEEE International Symposium on Sa-fety, Security and Rescue Robotics (SSRR) 2016, Lausan-ne, pp. 15-20.

Z. Baroud, N. Gazzam, A. Benalia and C. Ocampo-Martínez. Algebraic observer design for PEM fuel cell System, 8th In-ternational conference on Modelling, Identification and Control, 2016, Argel, Argelia, pp. 966-970.

J. Barreiro-Gomez, I. Mas, C. Ocampo-Martinez, R. Sánchez and N. Quijano. Distributed formation control of multiple unmanned aerial vehicles over time-varying graphs using population games, 55th IEEE Conference con Decision an Control (CDC), 2016, Las Vegas, EEUU, pp. 5245-5250

J. Barreiro-Gomez, N. Quijano and C. Ocampo-Martínez. Distributed MPC with time varying communication ne-twork: A density-dependent population games approach, 55th IEEE Conference on Decision and Control (CDC), 2016, Las Vegas, EEUU, pp. 6068-6073

J. Buhmann, S. Gerhard, M. Cook and J. Funke. Tracking of microtubules in anisotropic volumes of neural tissue, 13th IEEE International Symposium on Biomedical Imaging, 2016, Prague, Czech Republic, pp. 326-329.

G. Canal, G. Alenyá and C. Torras. Personalization fra-mework for adaptive robotic feeding assistance. 8th In-ternational Conference on Social Robotics, 2016, Kansas City, USA, pp. 22-31 E. Codres, A. Stancu and V. Puig. A fault hiding approach for the sliding mode fault-tolerant control of a non-holo-nomic mobile robot, 3rd Conference on control and Fault Tolerant Systems, 2016, Barcelona, pp. 7-17

A. Corominas Murtra, J. Vallvé, J. Solà, I. Flores and J. An-drade-Cetto. Observability analysis and optimal sensor pla-cement in stereo radar odometry, IEEE International Con-ference on Robotics and Automation, 2016, Stockholm, pp. 3161-3166.

D. Escudero and R. Alquézar Mancho. Study of the ancho-ring problem in generalist robots based on ROSPlan, 19th Catalan Conference on Artificial Intelligence, Barcelona, in Artificial Intelligence Research and Development, Vol 288 of Frontiers in Artificial Intelligence and Applications, pp. 45-50, 2016, IOS Press.

J. Funke, J. Klein, F. Moreno, A. Cardona and M. Cook. Struc-tured learning of assignment models for neuron recons-truction to minimize topological errors, 13th IEEE Interna-tional Symposium on Biomedical Imaging, 2016, Prague, Czech Republic, pp. 607-611.

A. Gabás, E. Corona, G. Alenyà and C. Torras. Robot-aided cloth classification using depth information and CNNs, 9th Conference on Articulated Motion and Deformable Ob-jects, Palma de Mallorca, Spain, Vol 9756 of Lecture NotesM. Ghaniee Zarch, J. Poshtan and V. Puig. Fault tolerance evaluation of nonlinear Systems using viability theory, 3rd Conference on Control and Fault Tolerant Systems, 2016, Barcelona, pp 717-723,

A. Goldhoorn, A. Garrell, R. Alquézar and A. Sanfeliu. Un nuevo método cooperativo para encontrar persones en un entorno urbano con robots móviles, 2016, XXXVII Jorna-das de Automática, Madrid, pp. 209-213. A. Grau, Y. Bolea, A. Sanfeliu, J. Casanovas and A.M. Puig-Pey. Robotic solutions for sewage systems in urban envi-ronments, 13th International Conference on Protection and Restoration of the Environment, 2016, Mykonos, Gree-ce, pp. 61-61.

A. Grau, Y. Bolea and A. Sanfeliu. Solutions to reduce CO2 emissions for autonomous robotics, 18th International Conference on Computer and Automation Technology, 2016, Zurich, pp. 1173-1176.

A. Jevtic, A. Colomé, G. Alenyá and C. Torras. User eva-luation of an interactive learning framework for single-arm and dual-arm robots, 8th International Conference on So-cial Robotics, 2016, Kansas City, USA, pp. 52-61. F. Karimi, C. Ocampo-Martínez and V. Puig. Output-fee-dback model predictive control of a pasteurization pilot plant based on an LPV model, 13th European Workshop on Advanced Control and Diagnosis, 2016, Lille, France, in Journal of Physics: Conf. Series Collection N.783, pp. 012029. F. Xu, J. Tan, X, Wang, V. Puig, B. Liang and B. Yuan. A novel design of unknown input observers using set-theoretic me-thods for robust fault detection, American Control Confe-rence, 2016, Boston, MA, pp. 5957-5961.

F. Karimi, V. Puig and C. Ocampo-Martínez. Health-aware model predictive control of pasteurization plant, 13th Eu-ropean Workshop on Advanced Control and Diagnosis, 2016, Lille, France, in Journal of Physics: Conf. Series Collec-tion N. 783, pp. 012030.

J.A. Luna, A.P. Husar, M. Serra, S. Jemei and N. Yousfi. Non-linear model predictive control methodology for efficiency and durability improvement in a fuel cell power system, 21st World Hydrogen Energy Conference, 2016, Zaragoza, pp. 1-2.

J.A. Luna, E. Usai, A.P. Husar and M. Serra. Observation of the electrochemically active surface area in a proton ex-change membrane fuel cell, 42nd Annual Conference of the IEEE Industrial Electronics Society, 2016, Florence, pp. 5483-5488

G. Martín, S. F. Husain, H. Schulz, S. Frintrop, C. Torras and S. Behnke. Semantic segmentation priors for object disco-very, 23rd International Conference on Pattern Recogni-tion, 2016, Cancún, México.

D. Martínez, G. Alenyà, C. Torras, T. Ribeiro and K. Inoue. Learning relational dynamics of stochastic domains for planning, 26th International Conference on Automated Planning and Scheduling, 2016, London, pp. 235-243. M. Nassourou, V. Puig and J. Blesa. Robust optimization based energy dispatch in smart grids considerin demand uncertainty, 13th European Workshop on Advanced Control and Diagnosis, 2016, Lille, France, in Journal of Physics: Conference Series Colection Number 783, pp. 012033.

G. Obando, J. Barreiro-Gomez and N. Quijano. A class of population dynamics for reaching epsilon-equilibria: Engi-neering applications, American Control Conference, 2016, Boston, pp. 4713-4718.

R. Pérez, J. Cugueró, J. Blesa, M. Cugueró and G. Sanz. Uncertainty effect on leak localisation in a DMA, 3rd In-tern. Conf. on Control and Fault Tolerant Systems, 2016, Barcelona, Spain, pp. 313-318

E. Pérez, M. Serra, C. Ocampo-Martínez and J. Llorca. Non-linear model predictive control for hydrogen production in an ethanol steam reformer with membrane separation, IEEE Multi-Conference on Systems and Control, 2016, Buenos Aires, pp. 1155-1160

M. Pourasghar, V. Puig and C. Ocampo-Martínez. Compari-son of set-membership and interval observer approaches for state estimation of uncertain systems, European Con-trol Conference, 2016, Aalborg, Denmark, pp. 1111-1116.

M. Pourasghar, V. Puig and C. Ocampo-Martínez. Cha-racterization of the minimum detectable fault of interval observers by using set-invariance theory, 3rd Internatio-nal Conference on Control and Fault Tolerant Systems, 2016, Barcelona, pp. 79-86

A. Quattoni, A. Ramisa, P. Swaroop, E. Simo and F. More-no. Structured Prediction with Output Embeddings for Semantic Image Annotation, North American Chapter of the Association for Computational Linguistics, 2016, pp. 552-557.

A.F. Ramírez, N. Quijano and C. Ocampo-Martínez. A diffe-rential game approach to urban drainage systems control, American Control Conference, 2016, Boston, pp. 3796-3801.

H. Rodriguez, V. Puig, J.J. Flores and R. Lopez. Combined holt-winters and GA trained ANN approach for sensor va-lidation an reconstruction: application to water demand flowmeters, 3rd Conference on Control and Fault Tolerant Systems, 2016, Barcelona, pp. 202-207

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D. Rotondo, J.C. Ponsart, F. Nejjari, D. Theilliol and V. Puig. Virtual actuator-vased FTC for LPV Systems with satura-ting actuators and FDI delays, 3rd Conference Control and Fault tolerant Systems, 2016, Barcelona, pp. 7-14

A. Rubio, L. Yu, E. Simo and F. Moreno. BASS: Boun-dary-aware superpixel segmentation, 23rd International Conference on Pattern Recognition, 2016, Cancún, México.

R. Sarrate, J. Blesa, F. Nejjari. Sensor placement for leak mo-nitoring in drinking water networks combining clustering techniques and a semi-exhaustive search, 3rd Internatio-nal Conference on Control and Fault Tolerant Systems, 2016, Barcelona, Spain, pp. 419-424

H. Rodriguez, V. Puig, J.J. Flores and R. Lopez. Flow meter data validation and reconstruction using neural networks: Application to the Barcelona water network, European Control Conference, 2016, Aalborg, Denmark, pp. 1746-1751.

P. Segovia, L. Rajaoarisoa, F. Nejjari, J. Blesa, V. Puig and E. Duviella. Decentralized fault-tolerant control of inland na-vigation networks: a challenge, 13th European Workshop on Advanced control and Diagnosis, 2016, Lille, France, in Journal of Physics: Conference Series Colection Number 783, PP. 012018.

A. Soldevila, R. M. Fernandez-Cantí, J. Blesa, S. Tornil and V. Puig. Leak localization in water Distribution networks using model-based Bayesian reasoning, European Control Con-ference, 2016, Aalborg, Denmark, pp. 1758-1763.

A. Soldevila, S. Tornil, R. M. Fernandez-Cantí, J. Blesa and V. Puig. Leak localization in wàter Distribution networks using a mixed model-based/data-driven approach, 3rd Interna-tional Conference on Control and Fault Tolerant Systems, 2016, Barcelona, Spain, pp. 319-324

M. Torchio, C. Ocampo-Martínez, L. Magni, M. Serra, R. Bra-atz and D. Raimondo. Fast model predictive control for hydrogen outflow regulation in ethanol steam reformers, American Control Conference, 2016, Boston, pp. 5044-5049.

A. Vakhitov, J. Funke and F. Moreno. Accurate and linear time pose estimation from points and lines, 14th European Conference on Computer Vision, Amsterdam, Nether-lands, in Lecture Notes in Computer Science Colection Number 9911, pp. 583-599.

P. Velarde, J.M. Maestre, C. Ocampo-Martínez and C. Bor-dons. Application of robust model predictive control to a renewable hydrogen-based microgrid, European Control Conference, 2016, Aalborg, Denmark, pp. 1209-1214.

Y. Wang, V. Puig and G. Cembrano. Economic MPC with periodic terminal constraints of nonlinear differential-al-gebraic-equation systems: Application to drinking water networks, European Control Conference, 2016, Aalborg, Denmark, pp. 1013-1018

Y. Wang, A.F. Ramírez, F. Xu and V. Puig. Nonlinear model predictive control with constraint satisfactions for a qua-dcopter. 13th European Workshop on Advanced Control and Diagnosis, 2016, Lille, Vol 783 of Journal of Physics: conference Series, pp. 1-12,

Y. Wang, T. Álamo, V. Puig and G. Cembrano. Periodic eco-nomic model predictive control with nonlinear-constraint relaxation for water distribution networks, IEEE Conferen-ce on Control Applications, 2016, Buenos Aires, pp. 1167-1172.

Y. Wang and V. Puig. Zonotopic extended Kalman filter and fault detection of discrete-time nonlinear systems applied to a quadrotor helicopter, 3rd International Conference on Control and Fault Tolerant Systems, 2016, Barcelona, pp. 367-372

Y. Wang, V. Puig and G. Cembrano. Fault-tolerant periodic economic model predictive control of differential-alge-braic-equation systems, 3rd International Conference on Control and Fault Tolerant Systems, 2016, Barcelona, pp. 704-710

Y. Wang, V. Puig, G. Cembrano and T. Álamo. Guaranteed state estimation and fault detection based on zonotopes for differential-algebraic-equation systems, 3rd Internatio-nal Conference on Control and Fault Tolerant Systems, 2016, Barcelona, pp. 478-484

F. Xu, J. Tan, X, Wang, V. Puig, H. Liu, B. Liang and B. Yuan. Robust State estimation and fault detection combining unknown input observer and set-membership approach, 3rd Conference on Control and Fault Tolerant Systems, 2016, Barcelona, pp. 67-72,

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4.

ED

Uc

aT

ION We are committed to excellence in higher scientific edu-

cation, through the mentoring of undergraduate, mas-ters and PhD students. Our teaching activity is varied and active. The number of PhD students and PhD theses defended has increased in the last years. Furthermore, we also support students who work in their master the-ses and final year projects.

TEACHING ACTIVITIES

MASTER STUDIES:

Our postgraduate teaching activities at UPC are included in:

- Master in Automatics and Robotics

- Master in Artificial Intelligence

- Master in Engineering of Automatic Syst. and Power Electr.

- Master in Industrial Engineering

- Master in Chemical Engineering

UNDERGRADUATE STUDIES:

Our faculty teaches undergraduate courses at UPC in:

- Industrial Engineering (ETSEIB, ETSEIAT)

- Informatics Engineering (FIB)

- Mathematics and Statistics (FME)

- Industrial and Aeronautic Engineering (EIEAT)

- Industrial Electronics and Automatic Control Eng (EET)

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STUDENT SUPERVISION IN 2015 / 2016

PhD THESES

The Institute hosts the Humanoid Lab, an initiati-ve addressed to undergraduate students interes-ted in learning basic concepts of robotics.

Its goal is to introduce engineering and mathe-matics students to the robotics world.

Eduard Trulls, Enhancing low-level features with mid-level cues

Juan Manuel Grosso, On model predictive control for econo-mic and robust operation of generali-sed flow-based networks

Edgar Simo-Serra, Understanding human-centric images: from geometry to fashion*

Gonzalo Ferrer, Social robot navigation in urban dyna-mic environments**

Agustín A. Ortega, Perception and interpretation of dy-namic scenarios using lidar data and images

Valeria Javalera, Distributed large scale Systems: A mul-ti-agent RL_MPC Architecture

Ferran Dachs, Multiplier ideals in two-dimensional lo-cal rings with rational singularities

Patrick Grosch, Parallel Robots with Unconventional Joints to Achieve Under-Actuation and Reconfigurability

Sergi Foix, Task-oriented viewpoint planning for free-form objects

Syed Farzad Husain, Perceiving dynamic environments: from surface geometry to semantic re-presentation

15

MASTER THESES26UNDERGRADUATE /LAST YEAR PROJECTS

23

HUmANOID LAB INITIATIVE

Congcong Sun,Multi-layer model predictive control of complex water systems

María del Carmen Ortega, Síntesis y caracterización de un nue-vo polímero conductor basado en bi-imidazol para pilas de combustible de electrolito polimérico

Manuel Igelmo Ganzo, El modelo eléctrico de conductancias aplicado al isomorfismo de grafos: el método de la estrella

Ernesto Homar Teniente,3D mapping and path planning from range data

Damiano Rotondo, Advances in gain-scheduling and fault tolerant control techniques

** Finalist of the George Giralt PhD Award 2016, the prize that recognizes the best doctoral theses in robotics in Europe,

awarded by EuRobotics

* Esteva-Vivanco Award to the best thesis in Artificial Intelligence of the Catalan Association of Artificial Intelligence

(ACIA)

Humanoid Lab members develop small projects and participate at humanoid robot competitions. In the last few years, different Humanoid Lab teams from IRI have won contest as CEABOT.

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5.

TE

ch

TR

aN

sf

ER

Through agreements with industrial partners we moti-vate technology transfer of the Institute’s achievements on excellence research. One of the main objectives for the Institute is to promote collaboration and find com-mon solutions between industry need and the research done. Since 2015, IRI is carrying out a action plan to foster our technology transfer:

Period

Budget

October 2015 /May 2018

Technology transfer action plan for TECNIO candidates

PLATT

In this plan we are carrying out actions to define and strengthen the technology transfer strategy of the institute. Its main objective is to better valorize our scientific expertise and capacities for the industrial sector. At the same time, we aim at recei-ving the TECNIO certification, a technology transfer quality seal awarded by Govern-ment of Catalonia, through ACCIÓ.

In addition, a Marketing Plan will be defined and a Quality Management System based on ISO 9001:2015 has been deployed.

Funding organisation

Year 1: 51 875 €Year 2: 44 451 €

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TECHNOLOGY TRANSFER PROJECTS IN 2015-2016

Period

IRI Budget

Alberto Sanfeliu

October 2015 /September 2019

30 000 €

P. Investigator

Research on enabling technologies for intelligent systems in the factories of the future

SMART FACTORY

This a CIEN project cofunded by CDTI (Spa-nish Government) and led by the company LEYTEC where IRI acts as subcontractor. Its objective is to conduct research in In-dustry 4.0, i. e. to design robotics systems to cooperate with human workers.

Period

Budget

Alberto Sanfeliu

September 2016 /February 2017

50 000 €

P. Investigator

Development / innovation on “robot-vehi-cle”

Vw_Vehicle-Robot

This collaboration is in the framework of the CARNET project for Volkswagen R&D and managed by CIT UPC. IRI’s role is to propose and analyze a future vehicle-robot concept.

Period

Budget

Juan Andrade

January 2016 /June 2017

37 390 €

P. Investigator

Object localization with LIDAR for the vali-dation of a CMS system

LCAS

LCAS is a project contracted by the com-pany FICOSA ADAS. Its objective is to develope a system for the detection and localization of road vehicles relative to a moving vehicle using LIDAR data.

Robust scalable package targeted specific solutions

PERSEO

PERSEO is a CDTI project where IRI is sub-contracted by the company CIRCUTOR.It deals with the energy management in instrumentation equipment.

Tractor unit for lifts with integrated intelli-gent energy management

3T-SLTE

3T-SLTE, is a project from the company SU-MASA with CDTI funding. It aims at appl-ying artificial intelligence methods to the energy management in elevator systems.

Development of a system based on artificial intelligence techniques for welding inspection in horizontal packaging lines

TERMOSOLD

This CDTI project funded by the company VOLPAK aims at developing a system for detecting anomalies in sealing / welding of flexible packaging that could lead to leaka-ge or contamination of the packaged pro-duct.

Period

IRI Budget

Guillem Alenyà

May 2016 /May 2018

70 000 €

P. Investigator

Period

Budget

Guillem Alenyà

March 2015 /March 2018

35 000 €

P. Investigator

Period

Budget

Guillem Alenyà

March 2015 /October 2017

75 000 €

P. Investigator

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Period

Budget

Guillem Alenyà

March 2015 /March 2017

60 000 €

P. Investigator

Research on technologies for the intelligent robotic manipulation of highly-hydrated bread dough

CRISTALBREAD

In this CDTI project from the company Dextra Global, it is being assessed how a highly-hydrated bread dough can be mani-pulated with a robotic system in an adapti-ve way, in order to ensure every item satis-fies the requirements of the company.

Period

Budget

Francesc Moreno

September 2015 /September 2016

60 000 €

P. Investigator

Semi-automatic neuron reconstruction in CATMAID

SENECA

This project aims at improving the state of the art in getting automated segmenta-tions of neural circuits from brain tissue. Its funding comes from Howard Hughes Me-dical Institute at Janelia Research Campus, USA.

Period

Budget

Guillem Alenyà

September 2015 /June 2016

25 000 €

P. Investigator

Adaptive artificial pad printing inspection system

SITVIA

In this project, funded by the SME company SITVIA, IRi is conducting research to auto-matically inspect the quality of pad printing through computer vision adaptable techni-ques.

Algorithms for automatic audiovisual pro-duction

AUTOMATIC TV

Developing an intelligent system for the au-tomatic production of audiovisual content, in sport events. IRI provides consultancy and im-plement different computer vision algorithms for multiple camera calibration and image re-gistration and integrate them within the Me-diapro’s software pipeline.

Advanced control of complex manufactu-ring processes

IKERCON

This project is focused on developing con-trol systems to be applied to the new ad-vanced manufacturing technologies that are being developed in R&D Unit of the company Ikergune.

Modeling and control of sewage networks in Bogota, Colombia

MODCON

This project is funded by the private Uni-versidad de Los Andes in order to conduct actions related to modeling and control of sewage networks in the city of Bogota in Colombia.

Period

Budget

Francesc Moreno

October 2014 /March 2015

28 800 €

P. Investigator

Period

Budget

Carlos Ocampo

September 2016 /August 2017

38 220 €

P. Investigator

Period

Budget

Carlos Ocampo

September 2015 /November 2016

34 866 €

P. Investigator

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Ph2-Optimal and predictive RTC module interfaced to SWIP

RCT1201

This project addresses the global control of

sewer networks using a predictive optimal

control approach. The sewer network is mo-

delled using a conceptual modelling approach

based on decomposing the network in catch-

ments and representing them as virtual tanks.

Contribution to the promotion and super-vision of research projects on the field of water distribution networks

IRI-CETAQUA

This collaborative project between IRI and CETaqua, a research technological center created in 2006 and cofounded by CSIC, UPC and Agbar; has the objective of deve-loping applied research projects with the water industry. IRI-CETAQUA is focused on the use of au-tomatic control techniques to improve the efficiency in water systems, including wa-ter resource management, drinking water networks, urban drainage and treatment plants.

Its main goal during the last ten years has been to propose to different stakeholders such as companies, Public Bodies and ci-tyzens, innovative solutions for solving en-vironmental and technological problems .All of these problem has been related to all the phases involved in the management of water cycle.

Period

Budget

Vicenç Puig

May 2014 /July 2016

45 000 €

P. Investigator

Period

Budget

Gabriela Cembrano

June 2007 /June 2018

90 000 €

P. Investigator

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TECHNOLOGICAL EXPERTISEMECHANISM DESIGN & ANALYSIS

SOCIAL ROBOTICS

SMART FACTORIES (INDUSTRIES 4.0)

ADVANCED TECHNIQUES IN VISUAL PERCEPTION

URBAN MOBILITY

AERIAL ROBOTICS

ASSISTIVE ROBOTICS

wATER CYCLE CONTROLSYSTEMS

ENERGY SYSTEMS

COMPLEX SYSTEMS CONTROL

Drinking waters networkUrban drainage systems

Fuel cell systemsEnergy management

Modelling, control and supervision of complex systems

Proactive assistance to disabled usersPerception and manipulation objects

Robot companion

Human-Robot cooperationFactory automation

Deep learning applications Geometric computer vision

Autonomous navigationDrive assistance (ADAS)Urban service roboticsHeavy vehicle automation

Aerial robot localization, mapping and navigationAerial perception and manipulationAerial robot control and planning strategies

Mechanism design and constructionMolecular modelling Analysis and planning of mechanism motion

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SERVICES OFFERED TO COMPANINESINNOVATIVE RESEARCH PROJECTS

INDUSTRIAL DOCTORATES

PARTICIPATION IN PROJECT CONSORTIA

USE OF LABORATORY EQUIPMENT

CONSULTING PROTOTYPING

Industrial and technical advice to compa-nies to help them develop new products and services.

Design, rapid prototyping and testing of devices to address specific needs.

We often take part in collaborative projects and initiatives participated by industrial partners (Hori-zon 2020, CDTI, ...).

Supervision of company-hired or grant-supported industrial PhD students.

Answers to singular needs at the sta-te-of-the art, providing solutions with added value.

Facilities are open to our industrial collabo-rators for project development.

SOME OF OUR COLLABORATORS AND CLIENTS

-

-

-

-

-

-

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- Setmana de la Ciència

- European Robotics Week

- Festa de la Ciència

- Barcelona Robotics Meeting

- Smart City Expo World Congress

- CEABOT

- Periodical guided visits to IRI

- Maker Faire Barcelona

OUTREACH ACTIVITIES IN 2015 / 2016

At IRI, we think that it is good to involve all our members in scientific dis-semination activities that attempt to bring our science to all audiences. For this reason, our staff participates frequently in many events such as seminars, workshops, talks, exhibitions and competitions.

wHy wE DO IT?

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NEWS

television programmes that mentioned IRI or interviewed IRI members

TVE1, TV3, 8TV ...

5

@IRI_robotics

institutderobotica

institutderobotica

IRI - Institut de Robòtica i Informàtica Industrial

iri.upc.edu

radio programmes thatmentioned IRI or interviewed IRI members

8RTVE, Catalunya Ràdio, RNE, RAC1, Ràdio4 ...

newspapers and magazines articles58El País, El Mundo, La Vanguardia,

ARA, El Periódico, Daily Mail ...

During the years 2015 and 2016, the presence of IRI in the media has been remarkable, appearing in several newspapers, television and radio programs. This in-creases the visibility of our research activities to a ge-neral audience.

MEDIA APPEARANCES

In order to better reach the society with today's technology, we have decided to become part of social networks. Starting in 2011, we man-tain Twitter and Facebook accounts as well as a Youtube channel, Linkedin and the IRI webpage.

Nowadays, we have developed an integrated communication plan which is helping us to dis-seminate science in a social way.

We use our Twitter account to publish our job offers, to inform about the celebration of our research seminars, and to announce all the in-ternational visitors we receive. We also inform about our attendance to different outreach events, the day to day activities in the centre, news and curiosities about robotics

At the beginning, our Facebook account was used to publish images and answer questions and comments from many users. Now, we com-bine Twitter and Facebook depending on the communication needs. Youtube is mainly used by our researchers, to share videos of their de-mostrations and work.

SOCIAL NETwORKS

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7.

fU

ND

ING

Funding sources of our center are diverse. CSIC and UPC finance salaries of permanent staff belonging to these institutions. In addition, CSIC and UPC also make contributions for general operating expenses of the institute.

Our scientific personnel is committed to excelence in research, and that is why half of our budget is obtained through competitive calls for projects and personnel programmes, as well as technology transfer contracts. This self-funding percentage over 50% is a high figure for a public research institute.

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1,6 %

INSTITUTE’SBUDGET

INSTITUTE’SEXPENSES

CSIC General Budget

Project and Contracts Funds

UPC General Budget

Competitive Personnel Programs

CSIC General Budget

Project and Contracts Funds

UPC General Budget

Competitive Personnel Programs

2015 2016

2015 2016

82,9 %

8,4 %

3,9%

2,9 %

1,8 %

3M€Other project related expenses

Scientific equipment

Personnel

Overheads

General running expenses

78,4 %

2,8 %10,2 %

6,8 %

3,5M€23,9%

8,9% 13,8%

53,1%

3m€2,7M€33,7%

12,6% 18,9%

34,7%

Other project related expenses

Scientific equipment

Personnel

Overheads

General running expenses

3,1M€3,1M€

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PHOTO CREDITS

Pages / Description

Darwin and Tina, educational robots from HumanoidLab.

Juan Andrade, IRI’s Director at the biennial period 2015 - 2016.

Workstation at the Fuel Cell Lab.

Kinton aerial robot at Mobile Robotics Lab.

IRITIC Computer server. IRI services staff.

From left to right (front line):Víctor Vílchez, Sergi Hernán-dez, José Luis Roncero, Ferrán Cortés, Esther Expósito, Eduardo Ballesteros, José Lázaro and Evili del Rio.

From left to right (second line): Alejandro López, David Casabuena, Xavier Rebato, Uxía Reija, Anaís Morales and Eva Llaveria.

Lauron’s robot leg detail.

Paralell robot detail at the Kinematics andRobot Design Lab.

Kinematics and Robot Design Group:

From left to right (front line): LLuis Ros, Ricard Bordalba, Ferrán Cortés, Patrick Grosch and Daniel González.

From left to right (second line): Vicente Ruiz de Angulo Alba Pérez, Federico Thomas, Enric Celaya, Josep Maria Porta, Juan Viana and Xiaoxuan Hu.

Kinematics prototype detail.

White Herpes Robot.

Tibi and Dabo Robot.

Mobile Robotics Group

From left to right (front line): Ely Repiso, Anaís Garrell, Fernando Herrero and Víctor Vaquero.

From left to right (second line):Alex Goldhoorn, Jordi Pé-rez, Alberto Sanfeliu, Juan Andrade, Àngel Santamaria, Ana Puig-Pey, Joan Solà, Joan Vallvé and Albert Puma-rola.

From left to right (robots:) Tibi, Kinton and Teo.Teo Robot at Mobile Robotics Lab.

From top to bottom:

1 - Reference frames 2 - Results of the simulated grasping task and the GAZEBO simulator

[V. Lippiello, J. Cacace, A. Santamaria-Navarro, J. Andra-de-Cetto, M.A. Trujillo, Y. Rodriguez and A. Viguria. Hybrid visual servoing with hierarchical task composition for ae-rial manipulation. IEEE Robotics and Automation Letters, 1(1)].

Tibi Robot.

Iricar performing a navigation experiment at UPC Campus Nord.

Zyonz and Estirabot robots folding a t-shirt at the Percep-tion and Manipulation Lab.

Perception and Manipulation Group.

From left to right (front line): Adrià Colomé, Clea Parce-risas, Pablo Jiménez, Carme Torras, Guillem Alenyà, Fran-cesc Moreno, Laia Freixas and Antonio Agudo.

From left to right (second line): Alejandro Suárez, Gerard Canal, Antonio Rubio, Aleksandar Jevtic, Aleksandar Tara-

novic, Sergi Foix, Antonio Andriella and Alejandro Hernández.

3D Reconstruction of time-varying shapes using our phy-sically-inspired velocity model for different types of defor-mations [A. Agudo and F. Moreno-Noguer. Combining Lo-cal-Physical and Global-Statistical Models for Sequential

Deformable Shape from Motion].

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Robot hand playing board game at the Perception and Manipulation IRI Lab.

Robot arms helping to dress Sergi Fox.

3D reconstruction and spatio-temporal segmentation on multi-subject sequences [A. Agudo and F. Moreno-No-guer. DUST: Dual union of spatio-temporal subspaces for monocular multiple object 3D reconstruction, 2017 IEEE Computer Society Conference on Computer Vision and Pattern Recognition, 2017, Honolulu, USA, IEEE].

Fuel Cell detail.

Automatic Control Group

From left to right (front line): Carlos Ocampo, Víctor Sanz, Vicente Roda, Masoud Pourasghar, Maria Serra, Gabriela Cembrano, Congcong Sun, Joaquim Blesa, Tom Cree-mers, Wicak Ananduta and Vicenç Puig.

From left to right (second line): Julián Barreiro, Fatemeh Karimi, Jenny Lorena Diaz, Maite Urrea, Brais González, Toma Pippia, Unnikrishnan Raveendran and Attila Husar. Water tank at the Water-cycle Control Systems Lab.

Fuel cell parameter detail at PC screen. Water Process Plant Trainer detail.

Water network maps.

Facial MoCap sequence [A. Agudo, J.M. Martínez, L. Aga-pito and B. Calvo. Modal space: A physics-based model for sequential estimation of time-varying shape from mono-cular video. Journal of Mathematical Imaging and Vision, 57(1): 75–98, 2017].

Fuel cell station at Fuel Cell Control Lab.

Alejandro Suárez disassembling a hard drive for the Ima-gine project.

IRI PhD Students defending their PhD Thesis at FME:(front top to bottom)

(1) Julián Barreiro (2) Àngel Santamaria (3) Farzad Husain

Attila Husar taking notes in a seminar at IRI main meeting room.

Port crane.

Vicente Roda working with a fuel cell at Fuel Cell Control Lab.

Collaborator logos:

From left to right (first line): Google, Volkswagen R&D, SEAT, Volvo, Etxe-Tar and Sa-dako Technologies.

From left to right (second line): Idiada, Eurecat, Ficosa, CATEC, AENOR and Ajuntament de Barcelona.

From left to right (third line): PAL Robotics, Mediapro, Wide Eyes, LEITAT, Signadyne and ALSTOM.

From left to right (fourth line): CETAQUA, AQUALOGY, AIN, SITEL, Fundació ACE and Fundació Nexe.

Teo and Tibi robots during a guided visit with students at Mobile Robotics Lab.

Media appearances:

From left to right (first line): Alberto Sanfeliu (El Periódi-co – 02/02/2015); Tibi at Smart City Expo World 2016 (El País - 14/11/2016).

From left to right (second line): Carme Torras (El Perió-dico - 27/11/2016); Tibi at CARNET Project (El Mundo - 07/06/2016 ), IDRESS Project (El Periódico - 05/11/2016).

From left to right (third line): Anaís Garrell (TVE1 - 28/02/2015); Alberto Sanfeliu (8TV-23/11/2015) Edgar Simo-Serra (TVE1 - 08/07/2015) and Michael Villamizar (TVE1 - 28/02/2015).

Detail of the E-bola robot.

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Institut de Robòtica i Informàtica Industrial, CSIC-UPC

C/Llorens i Artigas 4-6, 08028 Barcelona

Tel: +34 93 4015751

Fax: +34 93 4015750

Email: [email protected]

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IRI

BIENNIALREPORT2015 / 2016

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@IRI_robotics

institutderobotica

institutderoboticawww.iri.upc.edu