2020
‘SMART TEXTILES WILL
REVOLUTIONISE THE WORLD OF SPORTS’
MAARTEN GIJSSEL (KINETIC ANALYSIS)
NANO4SPORTS IS TOT STAND GEKOMEN MET DE STEUN VAN VOLGENDE PARTNERS
co-financiering
met de steun van
partners
Sports and Technology
1
‘WE LOOK AT BEST
PRACTICES, THE EXCHANGE OF EXPERIENCES, COLLABORATIONS WITH
PARTNERS’ TINE VAN LOMMEL
2
PRE FACE
SMART SPORT AND EXERCISE THANKS TO NANOTECHNOLOGY! Health is important to everyone, and
Concrete cases were set up with ten
we’re all prepared to do something for
companies and implemented by run-
it. And while it is crystal clear that sport
ners, cyclists and... With very promis-
and exercise are very important factors,
ing results, which are described in this
we like to know how much exercise
magazine.
we are getting and whether we are exercising effectively and safely. This
What is typical about an Interreg
explains the success of pedometers,
project such as Nano4sports, is that
heart rate monitors and similar devices.
knowledge and expertise from both
Top athletes want measurements that
Flanders and the Netherlands are
show their performance in detail.
brought together to develop new business and prepare it to be brought
Technology can of course play an
to market. In these terms, the proj-
important role in this. And it’s here that
ect fits perfectly with the design of
Nano4sports plays a role. They bring
the Interreg Flanders-Netherlands
knowledge institutions, companies
programme, more specifically to
and the end-user into contact with
stimulate innovation around concrete
each other to convert all the available
social needs, which also contribute
knowledge into usable tools. To be
to strengthening the economy in
useful, these tools must be as small
this border region. At the same time,
as possible and very precise. Nano-
the innovation policy of the member
technology is a solution for this, and
states and provinces from the border
knowledge about it is firmly implanted
region is also served. Hence also the
in the Flanders-Netherlands border
willingness of these parties, along with
region thanks to players such as imec
Europe, to contribute and make this
and imec Netherlands. But to be able
project possible.
to develop these tools, test facilities and sports science knowledge are also
With this project, Nano4sports has
required. Nano4sports was able to
contributed to an even stronger field
mobilise this through various research
lab operation in the Netherlands and
groups at Leuven University, Ghent
laid the foundation for this concept in
University, Eindhoven University of
Flanders. The cooperation between
Technology and Fontys University of
these knowledge institutions and
Applied Sciences. The involvement of
companies will undoubtedly continue
companies was absolutely necessary
to ensure a stronger market position
to make certain products effective
for companies that do business in
and to bring them to market later.
sport & health.
SUS BERGMANS PROJECT ADVISER FOR INTERREG FLANDERS-NETHERLANDS
CONCRETE CASES WERE SET UP WITH TEN COMPANIES AND IMPLEMENTED BY RUNNERS, CYCLISTS AND... WITH VERY PROMISING RESULTS 3
2020
THE NANO4SPORTS PROJECT
6 68
The emergence of a special Dutch-Flemish cooperation: to stimulate the technological innovation in the sports world
The review after three years: ‘This is not finished yet. It’s now time for the follow-up’
COLOPHON Nano4sports is published by Arko Sports Media, on behalf of the Nano4Sportspartners (http://www.nano4sports.eu/partners/). Project ‘Nano4Sports’ is funded within the Interreg V Flanders-Netherlands program, a cross border collaboration program with financial support from the European Regional Development Fund. More info: www.grensregio.eu Editor Frans Oosterwijk E-mail: f.oosterwijk@chello.nl
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Contributors Ivan Crabbe, Mark van der Heijden Production editor Joost de Jong E-mail: joost.de.jong@sportsmedia.nl Design www.ikgraphicdesign.com Pictures Shutterstock a.o.
Print Drukkerij Van der Poorten, Leuven (Belgium) Arko Sports Media Wiersedreef 7 3433 ZX Nieuwegein The Netherlands Phone: +31 30 707 30 00 E-mail: info@sportsmedia.nl © 2019 Arko Sports Media
CON TENT
CYCLING 14
CASE: Bike2Know
16
IN DEPTH: Developing a smart shirt for cyclists
RUNNING 20
CASE: Running technique feedback
22
CASE: Bladerunner
24
CASE: Ultrasound
26
CASE: Sprint analysis
28
CASE: Fatigue, performance and injury risk
30
CASE: Pertex
32
CASE: Lower impact running
34
IN DEPTH: Sports doctor Ruben De Gendt
believes in the huge potential of nanotechnology
REHABILITATION 38
CASE: 24/7 monitoring of team sports athletes
40
CASE: Fitbox2Go 2.0
42
CASE: Smart brace
43
IN DEPTH: Back in motion just in time
MOTIVATION & FEEDBACK 48
CASE: Support and engage women to go running
50
CASE: Sonification
52
CASE: Perform under pressure
54
CASE: Engage people through data
56
CASE: Prevent dropout
58
IN DEPTH: ‘People tend to be more active when
they are encouraged’
URBAN SPORTS 62
CASE: The impact of freerunning
64
CASE: Senskate
66
IN DEPTH: 360-degree view on the skateboard
5
NANO4SPORTS
STIMULATES
technological innovation
SPORTS WORLD in the
The emergence of a special Dutch-Flemish cooperation project
Technological innovations have a major impact on the way we enjoy sport and exercise. Nano4Sports uses sensor technology to develop smart, innovative solutions that enable us to exercise safely, better and for longer. But Nano4sports is also a unique partnership between Flemish and Dutch knowledge institutions, across different disciplines, and in which the relevant border region business community is explicitly involved. BY FRANS OOSTERWIJK
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INTRO DUCTION
7
The scientific basis for uniting sport and sensor technology was already present in both countries: eminent, renowned knowledge and research institutions that have had sport innovation high on the agenda for some time. And on both sides of the border, equally renowned sports innovation-oriented companies that can convert scientific knowledge and insights into concrete products and applications. Moreover, there are parties that have been working
Steven Vos is head of the Move to Be research group at Fontys University of Applied Sciences and professor of Design and Analysis of Intelligent Systems for Vitality and Leisure Time Sports at Eindhoven University of Technology.
together and exchanging knowledge, data and people for a long time.
international stage, seven partners
and through co-financing by the
Based on the conviction that we have
(see box) worked in 2016 with Tine
province of Flemish Brabant, the
all the expertise to develop smart
Van Lommel (Leuven University in-
province of East Flanders, the Flem-
tools and apps based on sensor tech-
novation manager), who acted as
ish government, the province of
nology, and driven by the ambition
lead party, to apply for a subsidy with
North Brabant and the Dutch Ministry
to expose the Flemish-Dutch border
Interreg Vl-NL, the cross-border
of Economic Affairs. The project
region as a sports innovator on the
cooperation programme between
started with mutual commitment.
Flanders and the Netherlands.
You can only do that if you believe
Project coordinator Tine Van Lom-
in the development and power of
mel: “The parties and institutions
bundling.”
Partners The following organisations are partners in the Nano4Sports project: • imec Nederland • Leuven University • imec Vlaanderen • Fontys University of Applied Sciences • Ghent University • Eindhoven University of Technology • Cluster Sports & Technology
8
were doing similar things on both sides of the border. A joint project
TWO WORLDS
like this provides an opportunity for
The purpose of Nano4sports is easy
the parties to get to know each oth-
to describe: develop sensor systems
er better and to join forces in order
(‘tools’) that the athlete can wear
to compete with other regions and
while exercising and that enable him
centres in Europe where the same
or her to improve their sports perfor-
thing is being worked on.”
mance and reduce the risk of injury.
Nano4sports started as a three-year
This sounds like a piece of cake
investment project by the partners
in the age of heart rate monitors,
involved, clarifies Steven Vos, repre-
pedometers and cycle computers.
sentative of the Dutch contributor to
But that is just scratching the sur-
the project. “We have received more
face. You can have instruments and
than €2 million in subsidies, 50% of
equipment that measure and record
the budget, from Interreg. The other
everything, but the cyclist looking
50%, also more than €2 million, was
for the most ergonomic position on
raised by the partners themselves
the bike needs different data than
INTRO DUCTION
‘THE BASIS OF NANO4SPORTS IS EXPERIMENTAL RESEARCH, WHICH PROVIDES AS MANY QUESTIONS AS CHALLENGES. IT IS VERY EXCITING AND COMPLEX’
University Indoor Athletics Hall, Ghent University Sport Science Lab and Topsporthal and the Eddy Merckx Cycling Centre. In the Netherlands, the existing field laboratories of the Sports & Technology cluster participated in these pilot tests. In all cases, demand-driven work was carried out. Athletes, both elite and recreational, were involved in the measurements
STEVEN VOS
at an early stage in order to take specific questions and needs into account.
injury-free gait, or the hockey player
WALKING, CYCLING, 24-HOUR MONITORING
who wants to improve his/her pen-
The focus at Nano4sports was pri-
sor systems. The availability of data
alty corner. You want to be able to
marily on measuring and monitoring
is also a major challenge. It must be
invent a sensor system that can not
walking and cycling. And this meant
possible to read and analyse the data
only measure, but also analyse the
24-hour monitoring in which spe-
immediately so immediate action can
available data and translate it into
cific parameters such as heart rate,
be taken.”
targeted feedback.
oxygen intake, muscle tension, body
“But other things need to be consid-
Vos: “The basis of Nano4sports is
temperature, hours of sleep, stress
ered when taking measurements for
experimental research, which pro-
level, etc. are measured over a longer
recreational sport. These activities
vides as many questions as challeng-
period of time, both before, during
don’t generally take place in a labora-
es. What are you going to measure,
and after physical exertion.
tory, they take place in a park, sports
for which sport, how are you going
In Flanders, these measurements
field or other public space where it
to measure it, and for what purpose?
often took place in the living lab
is not possible to hang a full set of
How solid must your research base
platform Run4Sports & Bike4Sports,
cables. This is why one of the twen-
be before you can convert it into
a collaboration between Leuven
ty cases (see page XX et seq.) was
the runner who wants to develop an
a product? How long does it take before a product comes to market? You are working with fundamental researchers and researchers who are more focused on implementation and design. And these worlds are controlled very differently. What language do you speak? How do you make those worlds more aware of each other? All in all, it is very excit-
Vos: “Measurements in elite sport require more accuracy from the sen-
‘WHEN USING NANOTECHNOLOGY, THERE IS NO ONE SIZE FITS ALL’ STEVEN VOS
ing and complex.”
9
focused on devising and designing ‘smart’ textiles, in which movement sensors are integrated into the shirt.” In addition to running, cycling and 24-hour monitoring, Nano4sports also included cases in adapted sports and skateboarding. Vos: “There too, the question was about which sport-relevant information and feedback you could extract from the multitude of data and how to provide that as feedback to the athlete as quickly as possible.”
SELF-MANAGEMENT
Tine Van Lommel is an innovation manager at Leuven University Research & Development, Spin-off & Innovation department.
According to Vos, the challenge is to provide feedback in a meaningful
the feedback to be absorbed and to
sport, can a pedometer do so? Nat-
way so athletes and coaches can
encourage him or her to adjust their
urally, such nanotechnology-based
gain useful insights into their sporting
behaviour accordingly. That’s pretty
tools and apps must be accompanied
performance before, during and after
hard to do. You do not want to over-
by tips and recommendations about
the exercise. Based on this feedback,
load them with advice, nor do you
how to make use of them. Measuring
want to provide excessive guidance.”
is one thing, designing sports and
targeted action can then be taken to increase sports performance, to
Van Lommel: “Nanotechnology low-
exercise programmes based on the
exercise in a ‘safer’ way (to reduce
ers the threshold for sport and exer-
measured data is another.
injuries), or to increase motivation for
cise. But technology on its own does
Vos: “When using nanotechnology,
continuing to exercise. The ultimate
nothing, you have to be open to it.
there is no one size fits all; everything
goal is to ensure the athlete not only
If a doctor or physical therapist can-
depends on the research question
responds to external stimuli (such as
not tempt you to exercise and enjoy
and the target group on which your
the instructions of a coach, trainer, doctor, etc.), but also receives appropriate feedback about his/her own performance via a tool that is provided to independently suggest, learn and retain optimal behaviour over the long term. Vos: “You can give technical feedback to an experienced athlete. He or she can then use his or her own experience to convert that into coaching ideas. But someone who is already finding it difficult to start exercising, or who is exercising from a non-sports background, needs to be approached differently to allow
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‘A CERTAIN PROPORTION OF THE 35 PERCENT WHO DO NOT TAKE PART IN SPORT AND EXERCISE MAY FEEL ENCOURAGED TO PARTICIPATE THROUGH INNOVATIONS THAT INCREASE CONVENIENCE’ TINE VAN LOMMEL
INTRO DUCTION
Project Partners Light (PPL) As part of the project, Flemish and Dutch companies were able to submit an innovation project for collaboration with one or more Nano4Sports partners. Eight innovation projects were selected. These companies are the Project Partners Light (PPL). These include: • Ready2Improve • Nea International • Kinetic Analysis (2 projects) • WeWatt • 2M-Engineering • Usono • Topsportslab
Vos: “I hope this project contributes
DRIVER AND PIONEER
to positioning nanotechnology in
Nano4sports has not yet resulted
an accessible way, in the sense that
in products and inventions that are
people are not afraid of it. But we
available on the market. Vos: “We are
have to be realistic about our ex-
not there yet. We are still investigat-
pectations with regard to the effect
ing where the greatest commercial
on sport and exercise participation.
potential lies. For example, we are
There will always be a part of the
working on a feedback mechanism
population who don’t care for sport
that visualises information and makes
and exercise. Those who don’t want
it available on a screen through audio,
to or can’t take part.”
but that still needs to be developed
Van Lommel: “A certain proportion
in the form of a design and proto-
of the 35 percent who do not take
type. Other tools are already closer
part in sport and exercise may feel
to the market. Ghent University has
encouraged to participate through
developed a system that measures
innovations that increase conveni-
the impact on running and converts
ence. But I think these tools will be
this data into targeted running advice,
research is focused. Take the measur-
received most enthusiastically by
which will probably be in stores soon.
ing equipment alone. You can devel-
those people who have already made
And other companies participating
op a super-measuring instrument for
a commitment to sports and exercise
in Nano4sports, such as Usono, who
top athletes in a laboratory situation,
and who want to remain injury-free
are active in mobile ultrasound, and
but this would be meaningless and
and motivated. Cycling and running
2M Engineering, who are active in
useless in the normal world. And
are the most practised sports, but
sensor solutions that are already on
looking at it the other way round: you
both also have quite a few drop-outs.
the market, have joined up to broaden
may end up with attractive, integrated
This is due to injuries or because
their knowledge base and refine and
measurement and sensor systems
people do not make enough pro-
further develop existing products.”
that are too limited for improving and
gress and become demotivated. How
Van Lommel: “Nano4sports was a
optimising elite sports performance.”
can you prevent this? A lot of things
three-year project. But the institu-
that have been done in Nano4sports
tions and companies involved will
affect this group.”
continue the cooperation in all kinds
Vos: “Technology has a unique ca-
of follow-up processes. In any case,
In the Netherlands and Flanders,
pacity to influence, but it must fit the
that aspect has been very successful:
sports and exercise participation is
context and the person. Its use will
the ties between the participants
around 60-65 percent. Neither Vos
always be a combination between
have been strengthened and the
nor Van Lommel believes the arrival
the end user, the technology, and in
Flemish-Dutch border region has
of new nanotechnology-based tools
many cases, the doctor, coach, train-
once again been able to profile itself
and equipment will remove the ex-
er or lifestyle consultant.”
as a successful sports innovator, this
SPORT AND EXERCISE PARTICIPATION
isting barriers to sports and exercise
time as a driver and pioneer in the
participation.
use of nanotechnology.”
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12
INTRO DUCTION
CYCLING
Cycling is a pre-eminent sport in which endurance plays a significant role and where back problems are lurking because of the long-term sitting in the same position. What can nanotechnology mean for this sport, while cyclists are also known as ‘early adopters’?
14
Case: Bike2Know
16
In depth: Developing a smart shirt for cyclists
13
LESS LOWER BACK PAIN FOR CYCLISTS CASE: BIKE2KNOW Brief description of the research
related muscle efforts and fatigue during voluminous and
The purpose was to decrease the overuse injury burden
intense cycling efforts This validates the need for a respec-
in road cycling by creating a device that allows the cyclist
tive real-time motion tracking system for injury prevention
to monitor and control the posture and movements of his
and performance optimisation in cycling.
spine and pelvis during regular cycling training. This device consists of an Inertial Measurement Unit (IMU) cluster, in-
Which parties are involved in the research?
tegrated into an athletic cycling shirt. Because lower back
This case was enrolled at the Department of Rehabilitation
pain is highly common in cyclists, and due to the fact that
Sciences (Joke Schuermans), Faculty of Medicine and Health
these complaints are significantly correlated with muscle
Sciences, Ghent University, in collaboration with the Depart-
fatigue due to incorrect lower back and pelvis posture and
ment of Electronics and Information Systems, Faculty of En-
kinematics, the development of an integrated real-time mo-
gineering Sciences and Architecture, Ghent University. Kinet-
tion tracking device is not only believed to significantly
ic Analysis, a small company located in the Netherlands and
lower the prevalence of lower back pain during (volumi-
engaged in motion tracking for sports performance optimi-
nous) rides, it is also believed to contribute to improvements
sation (https://www.kinetic-analysis.com/about), was also
in comfort and performance capacity. Our first scientific
involved within the context of the ‘Cytex’ project, within
paper, written on the basis of the first results obtained from
which the input of the Bike2Know case was used to man-
our field-lab analyses, demonstrated that lower back and
ufacture an integrated motion tracking system to facilitate
pelvis kinematics are indeed related to the (former) pres-
movement quality in road cycling. Next to the above men-
ence of lower back complaints. Athletes who reported suf-
tioned IMU system, Cytex also used strain gauges to check
fering from (cycling-related) lower back pain from time to
for deficient posture in the coronal, transverse and sagittal
time presented significantly more movement of the entire
planes. Moreover, Cytex did not want to solely focus on the
lumbopelvis unit in both the coronal and transverse planes
lower back unit, but intended to take the entire kinetic chain
when compared to cyclists reporting not to have experi-
into account.
enced any lower back pain at present or in their recent past. These results indicate that posture and motion of the lower
Where did the research take place?
back and pelvis play a crucial role in the joint balance and
The field-lab was installed in the motion laboratory of the Department of Rehabilitation Sciences (Ghent University) at the University Hospital Campus in Ghent.
‘THERE ARE CHALLENGES AHEAD TO ACHIEVE A FULLY-FLEDGED, ROBUST PROTOTYPE’ 14
CASE
When did the research take place? The field-lab testing series were conducted in two extensive rounds, the first from December 2017 until April 2018, the second round took place in June and July 2019. For the first testing series, 90 amateur cyclists were recruited (both male and female). The second series consisted of 120 amateur cyclists. The first field-lab testing protocol (20172018) consisted of a maximal exercise capacity test on a cycling ergometer (upon which the athlete’s racing bike was mounted), during which the intensity was increased progressively every 2 minutes by increasing the load level;
mapping.”) The exact role of the athlete’s exercise capacity
at the same time, the athlete was instructed to keep his/her
and his/her muscle recruitment patterns in the association
cadance constant. During the last 30 seconds of each load
between kinematics and injury prevalence is subject to
level, full body kinematics (representing the segment posi-
ongoing data processing and analysis.
tions and joint angles during each pedal cycle, acquired at a sampling frequency of 250Hz) were gathered. Afterwards,
For which group of athletes is the research intended?
kinematic profiles (mainly of the trunk and pelvis) were an-
The amateur road cyclist (at least 5 years of cycling experi-
alysed for cycling intensity and the presence of, or (recent)
ence and annual cycling distance of 70 – 100 km on aver-
history of, lower back complaints within our athletes. The
age), both male and female.
testing protocol of 2019 consisted of the same exertional protocol during which the load level was systematically
Is there already a prototype of a possible product?
increased until full exertion was reached, but in this case,
What is currently available is just an intial proof-of-concept.
muscle activation patterns (using surface Electromyography
We have looked at a few methods to integrate the sensors
(sEMG)), oxygen consumption and blood lactate accumu-
with minimal impact on the cycling clothing, and we know
lation) were registered as well. These parameters were in-
that, using this method, we can get a picture of the cyclist’s
cluded so insights into the relationship between injury sus-
posture. But there is still too much work to be done to be
ceptibility and kinematics could be obtained. This is because
able to talk about a real prototype. We are looking hard
the latter is substantially influenced by the athlete’s physical
to do so, but there are challenges ahead to achieve a ful-
capacity and his/her motor unit recruitment patterns (mus-
ly-fledged, robust prototype.
cle activity). The relationship between kinematics and injury prevalence has already been demonstrated (“Changes in
When can the product be ready for use or be available
cycling kinematics in terms of exercise intensity and asso-
in the store?
ciation with injury prevalence in amateur road cyclists. A 3D
This is currently quite difficult to estimate. Maybe a few
kinematic motion analysis study using statistical parametric
years.
15
‘ CYCLING WORLD WILL BE EARLY ADOPTERS’ Maarten Gijssel of Kinetic Analysis is developing a smart shirt
Data gathering plays an important role in the sporting world. Maarten Gijssel and his company Kinetic Analysis are going a step further in this innovation. They created a shirt that delivers a huge amount of posture data while bike riding. “We think smart textiles will revolutionise the world of sports”, Gijssel says. “In 2020 our shirt will be ready for large scale production.”
BY IVAN CRABBE Smart textiles are a booming business. Athletes at the Tokyo Olympics will possibly use different products that provide physiological measurements of the human body. The benefits are massive; fewer injuries and a better training schedule, for example. Due to the high production costs and the corresponding high price for the smart sportswear products, the focus of developers and producers is currently on professional athletes and increasingly on the high-end con-
16
‘IN 2020 OUR SHIRT WILL BE READY FOR LARGE SCALE PRODUCTION’
sumer market. Further development of the technology and the introduction of large-scale manufacturing will lead to lower costs and thus pave the way for targeting the broader mass consumer segments in the future.
HUMAN MOTION DATA Physiotherapist and clinical scientist Maarten Gijssel (32) is the founder and owner of Kinetic Analysis, a Dutch company that specialises in human motion data. The company is active in
IN DEPTH sports, healthcare and the vitality sector. In the first five years, Kinetic Analysis has collected large data sets from approximately 25.000 unique individuals. Now the focus is on integrating sensors in textiles in order to get bet-
‘SMART TEXTILES WILL REVOLUTIONISE THE WORLD OF SPORTS’
ter insights for specific populations.
plains. “After studying different sensor
revolutionise the world of sports. The
Based on the measurements, posture
technologies, we fabricated the best
product is now in its test phase, sev-
and physiological measurements of
possible product. Our main concern
eral riders have used it in our lab. It
the body and movements can be
is being innovative, and that’s not an
can provide a poor posture warning
accurately mapped out. Gijssel cur-
easy task. We need a highly skilled
to the cyclist and detect the level of
rently works on a cycling project with
team of various experts to make these
fatigue. Nowadays, shirts like this are
Nano4sports partners such as Ghent
smart textiles a success. We work
forbidden in a race. We expect the
University. Bike fitting is currently a
with our engineers, human move-
UCI (The Union Cycliste Internation-
big trend in cycling. Customers pay
ment scientists, textile experts and IT
ale) will allow them in the future. I
for their bike to be adjusted perfectly,
specialists, as well as external experts.
also had some contacts with people
but after that, there is no continuous
At the moment there is not much
from the rowing world who would
monitoring on the use of the bike.
competition in our niche of delivering
also like a shirt like that. With small
The Kinetic Analysis’s project focuses
highly accurate measurement data of
adjustments, it’s possible to make
on that missing aspect. “We measure
different body parameters. There are
something for rowers, and I think we
the position of the bike rider on the
products on a gadget level, but the
can provide shirts for multiple sports
bike while it is moving using a special
more serious applications are often
in which back problems occur, al-
shirt that contains sensors”, Gijssel ex-
still in their feasibility phase. This is
though that may require more than
because you need expertise in differ-
just one shirt. The potential of smart
ent fields.”
textiles is almost endless, and we
RULES IN CYCLING The shirt is designed for cycling, but Gijssel expects other sports will follow. “We think smart textiles will
are currently developing shirts that measure other vital functions of the human body for different purposes.”
IMPLEMENTATION When could this nanotechnology be implemented? “I think we will be ready for large-scale production next year. And when the cycling teams and clubs decide to buy it, it may be a fast uptake. We are currently negotiating with a few professional cycling teams. Right now, I can’t talk about price, but our main goal is to make it available to the masses. Many people in our society suffer from back problems. This tool could help them and fundamentally reduce the number of back injuries in the world.”
17
18
INTRO DUCTION
RUNNING
Running is not only a sport that is practiced by millions at top and recreational level, it is also the basis for countless other sports. Innovations and smart solutions in the field of running can have a huge impact on sport as a whole.
20
Case: Running technique feedback
22
Case: Bladerunner
24
Case: Ultrasound
26
Case: Sprint analysis
28
Case: Fatigue, performance and injury risk
30
Case: Pertex
32
Case: Lower impact running
34
In depth: Sports doctor Ruben De Gendt believes
in the huge potential of nanotechnology
19
STAYING MOTIVATED THROUGH PERSONALIZED FEEDBACK CASE: RUNNING TECHNIQUE FEEDBACK
20
Brief description of the research
enjoying exercise more often. At present, mobile applica-
For recreational runners it is important to remain injury-free.
tions and associated sensors are primarily aimed at improv-
Without injuries, runners remain motivated and will keep
ing performance and the feedback is not personalized.
CASE
What is the objective?
event of the Marathon Eindhoven 2018. The last study was
Imec the Netherlands in cooperation with Fontys School
performed at the fieldlab athletics in Vught to test different
of Sport Studies started a research project to develop a
types of feedback. The prototypes have been shown at the
sensor-based system that is able to give feedback about
Dutch Design Week 2019 in Eindhoven.
running technique on individual level. When did the research take place? Which parties are involved in the research?
The studies were performed over the timeline of the whole
Imec the Netherlands, Fontys School of Sport Studies,
project, starting in 2017 and ending in 2019.
fieldlab Atletiek Vught and Eindhoven University of Technology department of Industrial Design.
For which group of athletes is the research intended? Mainly recreational runners.
Where did the research take place? The first study was done with cameras at the Marathon
Is there already a prototype of a possible product?
Eindhoven 2017, to get an idea of the key parameters to
We did our data collection using off-the-shelf sensors (i.e.
measure using the sensor-based system. The second study
Byteflies, LPresearch and Xsens). The algorithms which
took place in the lab, to reduce the number of sensors we
have been developed now run offline, but it would be easy
needed in the field. The third study took place at the 10km
to implement them to run real-time.
‘WITHOUT INJURIES, RUNNERS REMAIN MOTIVATED AND WILL KEEP ENJOYING EXERCISE MORE OFTEN’
When can the product be ready for use or be available in the store? The algorithms developed in this study can be used with off-the-shelf sensors to further develop a personalized feedback method for running technique. This can be used as a starting point for product development. The feedback methods tested have been primarily designed by Fontys and TU/e for research purposes. These need to be further refined and tested in a larger study, before starting product development. If these studies are successful, it is likely that these algorithms and feedback methods will, in a few years, end up in commercial products.
21
‘GAIN MORE INSIGHT INTO THE BLADE’ CASE: BLADERUNNER 2020 Brief description of the research
Where did the research take place?
People who lose a leg and want to participate in sports may
Currently it is taking place at a training group in Eindhoven.
be eligible for a blade – a carbon fibre lower leg designed for running or jumping. However, they may currently be
When did the research take place?
able to get a blade, but trainers and trainees do not fully
Still taking place.
understand what the blade exactly does and how it perFor which group of athletes is the research intended?
forms.
Both amateur and elite athletes, as both have the same What is the objective?
questions and the pool is small.
The objective of Bladerunner 2020 is to gain more insight into the deformation and stiffness of the blade during run-
Is there already a prototype of a possible product?
ning.
Yes that is what we are testing.
Which parties are involved in the research?
When can the product be ready for use or be available
Several parties are involved, including imec, Libra revali-
in the store?
datie, trainers and blade runners.
Hard to say, testing ongoing, the market is so small that even if it does work it may always remain a (nice) prototype.
‘THE BLADERUNNER 2020 PROJECT IS INTENDED FOR BOTH AMATEUR AND ELITE ATHLETES’
22
CASE
A Bladerunner 2020 prototype.
23
PREVENT MUSCLE INJURIES & BETTER MUSCLE REHABILITATION
Outside testing of the ProbeFix Dynamic during the half marathon in Eindhoven.
24
CASE CASE: DYNAMIC ULTRASOUND 4 SPORTS - MUSCLE FUNCTION UNRAVELLED Brief description of the research It is important to understand the muscle function and mechanical load during sports. This is crucial in order to let sports athletes achieve higher performance, while not rupturing their muscles. Next, it is good to get better understanding of the rehabilitation of muscles after an injury occurred. During this study, an innovative product of Usono will be used named the ProbeFix Dynamic. The
The ProbeFix Dynamic prototype.
ProbeFix Dynamic allows for echo measurements of the muscles during dynamic movement. Eventually this research will lead to better insight of muscle behaviour during sports and rehabilitation process (return to play). What is the objective?
Philips and Usono perform lab test
The goal of the project is to develop a product and software in order to prevent muscle injuries and have better
Which parties are involved in the
understanding of muscle rehabilitation process during
research?
dynamic movement with ultrasound. Ultrasound allows for
Usono B.V. and Eindhoven University of
a non-invasive way to monitor muscles in real time during
Technology
exercise; instead of before or after in an artificial clinical setting. This increases the accuracy and comprehensive
Where did the research take place?
nature of the research and data collection, as well as the
In the lab and outside.
user comfort for athletes and doctors.
‘THE PROBEFIX DYNAMIC ALLOWS FOR ECHO MEASUREMENTS OF THE MUSCLES DURING DYNAMIC MOVEMENT’
When did the research take place? From January 25 2019 untill November 30 2019. For which group of athletes is the research intended? Athletes competing in top sports and athletes who are in a rehabilitation process. Is there already a prototype of a possible product? Yes, there is already a prototype. When can the product be ready for use or be available in the store? ProbeFix Dynamic is already being offered to research institutions. So it’s already available. The final product including detection of muscle rupture will only be on the market after 2022.
25
IMPROVING SPRINTING SKILLS CASE: SPRINT ANALYSIS
26
Brief description of the research
imal power output a player’s neuromuscular system can
Sprinting plays an important role in many different sports,
generate (Pmax). This maximal power output is determined
including field hockey and soccer. Improving sprinting
by the theoretical maximal horizontal force production (F0)
skills has become a crucial issue in field hockey training.
and the theoretical maximal running velocity (v0). Based on
To enable the development of more targeted training
this, force-velocity profiles are created to identify the play-
programs and improve sprint performance, a clear insight
er’s strength and weaknesses, which are used to optimize
in which parameters determine sprint performance [1]
individuals’ training protocols. In this study we investigated
and how these parameters evolved during the season is
the potential differences in force-velocity (Fv) profiles in
needed. Recent investigations demonstrated that a major
both male and female soccer players of different playing
determinant parameter of sprint performance is the max-
levels. 163 soccer players (63 women and 100 men) com-
CASE
peting from the Regional to the National Belgian league were recruited. The participants performed two maximal 60-m sprints monitored via a 312 Hz laser. For each participant, the theoretical maximal force (F0) and velocity (v0), maximal power (Pmax), maximal ratio of force (RF) and the slope of the Fv profile (Sfv) were computed. This study shows that the determinants of sprint performance increase with soccer playing level in both men and women, but that the contribution of each variable varies with sex.
‘THE STUDY SHOWS THAT THE DETERMINANTS OF SPRINT PERFORMANCE INCREASE WITH SOCCER PLAYING LEVEL IN BOTH MEN AND WOMEN’
We also investigate changes in the sprint performance of the Belgian National Field Hockey team during the season leading up to the World Cup. We found a significant increase in maximal velocity and maximal power but not in horizontal force production. What is the objective? The aim of this study was to gain more insight in sprint performance of individual players (hockey and soccer). Which parties are involved in the research? FaBeR and imec were involved. Where did the research take place? In the field lab, indoor athletic hall and at soccer clubs. When did the research take place? Several measurements between 2017 – 2019. For which group of athletes is the research intended? For the national hockey team as well as more recreational athletes. Is there already a prototype of a possible product? An improved measurement method was developped including laser and video. Synchronasation with the IMU was not accurate enough to include in the system.
27
FATIGUE, PERFORMANCE AND INJURY RISK CASE: MEASURING FATIGUE AND POTENTIAL PERFORMANCE AND INJURY RELATED PARAMETER DURING A 12 MINUTE ALL OUT TEST Brief description of the research There exists contradicting information about most biomechanical parameters as predictors for running related injuries and/or performance. Parameters related to dynamic loading and dynamic stability have been linked with fatigue as well as performance during a run (1). In addition, these parameters change differently in runners with a history of Medial Tibial Stress Syndrome compared to controls (2). The aim of the current study was to prospectively investigate the association between biomechanical variables and performance, running fatigue, and running related injury risk. What is the objective? The aim of this study was to gain more insight in which parameter based on 3D trunk based accelerometers can be used to determine performance and injury risk during an exhaustive run.
‘THERE EXISTS CONTRADICTING INFORMATION ABOUT MOST BIOMECHANICAL PARAMETERS AS PREDICTORS FOR RUNNING RELATED INJURIES AND/OR PERFORMANCE’
Which parties are involved in the research? FaBeR, imec and computer science were involved.
Where did the research take place? In the field lab and at an outdoor athletic track. When did the research take place? Several measurements between 2017 – 2019. For which group of athletes is the research intended? Recreational runners.
28
CASE
29
PERFORMANCE METRICSÂ FROM A SMART SHIRT CASE: PERFORMANCE TEXTILES (PERTEX)
30
CASE Brief description of the research Developing a new wearable for performance tracking and validating the sensor in practice. What is the objective? The aim of this project is to develop a product that is used
‘MARKET RELEASE IS PLANNED FOR DECEMBER 2019’
for taking performance measurements such as sprint and jump tests. At present, such tests require mainly the use of multiple measurement techniques such as jump platforms and laser gates. Multiple measurement techniques are combined by obtaining these performance metrics from a smart shirt. In addition to registering the test values such as a reaction time or jump height, this shirt can also look at the quality of the movement during execution. By extracting biomechanical parameters from the shirt, movement technique can be mapped and, for example, when fatigue (applicable in a later phase of the project) occurs during a performance measurement. Mapping exercise technique
Which parties are involved in the research?
is interesting for every branch of sport because of the rela-
Kinetic Analysis B.V., FaBeR.
tionship with the performance outcome and/or a possible risk of getting injuries.
Where did the research take place? Development in Kinetic Analysis premisses and field testing at KU Leuven. When did the research take place? From February 2018 – February 2019. For which group of athletes is the research intended? Affordable final sensor aims to target grass root sports market. Is there already a prototype of a possible product? MVP was finalized by August 2019. When can the product be ready for use or be available in the store? Webshop: market release is planned for December 2019.
31
MUSIC BASED BIOFEEDBACK FOR
SHOCK REDUCTION CASE: LOWER IMPACT RUNNING Brief description of the research
Live feedback at running speed is given because prop-
Running is popular, but many distance runners develop inju-
er retraining occurs without speed changes. A 30 per-
ries. Retraining running technique may help in the reduction
cent reduction in impact shock has been achieved by high
and management of injuries. Retraining running technique
impact runners running at a common running speed.
has been done on treadmills using biofeedback to measure
32
impact shock. To get out of the lab and clinics, we devel-
What is the objective?
oped a wearable tool that provides music-based feedback
Running is popular and good for health. Unfortunately
to measure a runner’s impact shock. The shocks impacting
many distance runners develop injuries. Retraining your
the lower leg are immediately and reliably captured by this
running technique based on personalized feedback may
system*. You can explore your own lower impact running
help in the reduction and management of injuries. Retrain-
technique by activating the music-based biofeedback.
ing running technique has been done on treadmills using
CASE ‘A 30 PERCENT REDUCTION IN IMPACT SHOCK HAS BEEN ACHIEVED BY HIGH IMPACT RUNNERS RUNNING AT A COMMON RUNNING SPEED’ Schematic representation of the biofeedback system’s components for realtime, music-based biofeedback on impact shock.
biofeedback to measure impact shock, one of the identified
that uses radio technology and transmits accurate speed
risk factors. To get out of the lab and clinics, we developed
feedback that is compatible with the tool for running mon-
a wearable tool that provides music-based biofeedback to
itoring/retraining.
measure a runner’s impact shock. The shocks impacting the lower leg are immediately and reliably captured by
When did the research take place?
this system*. As such you can explore and alter your own
2017 – 2019.
running technique and lower impact by activating the music-based biofeedback. Live feedback at running speed
For which group of athletes is the research intended?
is given because proper retraining occurs without speed
Monitoring of impact loading may be useful for everyone,
changes. A 30 percent reduction in impact shock has been
from new runners to those competing at the highest level.
achieved by high impact runners at a common running
The biofeedback tool is particularly of interest for distance
speed.
runners experiencing high impact loading. The indoor localisation system is a cornerstone of a training facility
Which parties are involved in the research?
permitting over-ground retraining.
The research units of imec and UGent (Biomechanics and Motor Control of Human Movement, the Institute for Psy-
Is there already a prototype of a possible product?
choacoustics and Electronic Music, the Internet Technolo-
The research-grade biofeedback system consists of smart
gy and Data Science Lab, and the Centre for Microsystems
clothing and a lightweight trail backpack. The runner wears
Technology) collaborated to build cutting-edge systems
a miniaturised sensor embedded in a leg compression
for sportspeople. The research foundation-Flanders funded
sleeve, a processing unit on their back, and earphones.
the research on retraining running technique. Victoris and TechTransfer assist in its commercial valorisation.
When can the product be ready for use or be available in the store?
Where did the research take place?
Leading businesses and organizations are invited to
The shock level of more than 100 runners was screened.
contact Prof. dr. Veerle Segers (veerle.segers@ugent.be)
The training track at the Flanders Sports Arena acted as a
and Victoris (kristof.demey@ugent.be) for commercial
lab-in-the-field. It was set up with a positioning system
valorisation.
33
‘PERFORMANCES OF ATHLETES WILL GET A MASSIVE BOOST’ Sports doctor Ruben De Gendt believes in the huge potential of nanotechnology Nanotechnology will change the world of sports. It is a great tool that can generate accurate training methods and provide high-quality injury prevention. Sports doctor Ruben De Gendt is also positive. “Many sports can benefit from the technology. Technical sports like rowing could be the first to use these nanosensors.” BY IVAN CRABBE
34
Running is a crucial aspect of many
The 32-year-old Belgian was a
collaborate with the Flemish rowing
sports. Is a forty-metre sprint better
successful lightweight rower. He
federation and the AA Gent and Zulte
than a twenty-metre sprint during
participated at all international cham-
Waregem football teams for their
training? Nowadays, coaches can’t
pionships except the Olympics and
medical testing.”
work out which running methods are
was Belgian champion more than
the best for athletes. In the future,
twenty times. In 2010, De Gendt end-
INJURY PREVENTION
using microsensors and a compact
ed his rowing career and focused on
Sports doctor De Gendt thinks that
laser, the performance of athletes
his medical studies. Four years later
nanotechnology would improve his
can be measured in their natural
he opened his practice, close to the
diagnoses massively. He strongly
environment and analysed later. But
water sports course in Ghent. He also
believes in the technology. “Most of
to move beyond the lab to the out-
works part-time at the UZ hospital
the applications that contain nano-
side world, engineers and computer
in Ghent. “Sports have always been
technology are still in a development
scientists are needed. What is the
my passion and I am delighted they
phase. We will have to wait a few
impact such technology can have on
are staying in my life now I work as a
years before they are operational.
sports? We asked sports doctor, Ru-
doctor”, De Gendt states. “I need to
A sports doctor can analyse a large
ben De Gendt.
be active, so after I ended my rowing
amount of data with nanosensors,
career I switched to triathlon, but it’s
and he can do this outside the hospi-
more of a hobby. As a doctor, I also
tal where an athlete is practising. This
IN DEPTH
can be very useful for prevention and
sport. After carrying out a few meas-
hunger at the World Cycling Champi-
treatment. For example, injuries and
urements, the perfect posture could
onships and was unable to maintain a
bad posture can be detected quickly,
be determined. For the technique of
decent rhythm, should be minimised
and the proper remedy can be put in
rowing, the movements have to be
with the use of nanotechnology. If this
place immediately. If the technology
analysed. Having trousers and a shirt
technology is allowed by the sports
is reliable in the future, I would cer-
full of sensors is a possible application
federations, the richest teams and
tainly use it in my practice.”
for rowing. Nanotechnology could
athletes will use it first. This will create
also be used in extreme weather con-
a new inequality. For example, ketones
ditions and massively boost the per-
are performance-enhanced medi-
The new nanotechnology is still very
formance of an athlete. For example,
cines but are very expensive. Only the
expensive. De Gendt expects elite
during an Ironman in Hawaii, triath-
top teams in the cycling peloton can
athletes will be the first to adopt it.
letes are pushed to the limit. Smart
afford them. With new technological
“It will take a while before large scale
sensors could measure salt loss, sweat
tools, the same thing will happen; the
production starts. I think everybody
loss, body temperature and heart
gap will only get bigger.”
can benefit from it, but professional
rhythm. The athlete will have a better
athletes will be the first. The sensors
idea about when to drink or eat and/or
PUSHED BOUNDARIES
could be used in rowing for track-
when there is a potential problem. Sit-
But apart from this issue, De Gendt
ing the athlete accurately because
uations, such as that with Mathieu van
thinks technology will have a positive
technique is very important in that
der Poel, who suffered from severe
effect on sports. “I believe in techno-
NEW INEQUALITY
‘A SPORTS DOCTOR CAN ANALYSE A LARGE AMOUNT OF DATA WITH NANOSENSORS’
logical evolution. Many problems in medicine can be solved with technology. And it has also changed the world of sports enormously. Every year the boundaries are pushed. Athletes are becoming stronger and faster. World records don’t last long anymore. Technology is taking over, and we don’t know when it will end.”
35
36
INTRO DUCTION
REHABILITATION Smart apps, inventive measurement systems, new applications or modern medical instruments can help prevent injuries and contribute to rehabilitation as quickly and efficiently as possible if an injury does occur. A great opportunity for nanotechnology! 38 40 42 43
Case: 24/7 monitoring of team sports athletes Case: Fitbox2Go 2.0 Case: Smart brace In depth: Back in motion just in time
37
MONITORING RECOVERY OF TEAM SPORTS ATHLETES CASE: 24/7 MONITORING OF TEAM SPORT ATHLETES Brief description of the research
After training the body should go into recovery mode,
In (semi-)professional team sports, training load is largely
which is regulated by the autonomous nervous system.
determined using heart rate sensors, GPS data and some-
Within the project Nano4Sports, imec developed a smart
times even accelerometers. However, to get a complete
watch (CHILL+) which measures the response of the au-
profile of the training load on the athletes, the recovery
tonomous nervous system. We conducted studies with
process is crucial. One player might recover in a very differ-
semi-professional team sports athletes to study the individ-
ent way, compared to his or her teammates.
ual differences in recovery.
Smart watch imec to measure autonomous nervous system reponse.
38
CASE What is the objective? This study is a start to determine how we can monitor recovery of team sports athletes using a wearable sensor outside the training. However, monitoring of recovery is not straight forward and will require further personalization of algorithms. Which parties are involved in the research? Imec and field lab PSV. Where did the research take place? We have measured semi-professional rowers with the smartwatch and a custom-made mobile application for 7 days in a row, day and night. Within these 7 days they did 7 training sessions and 2 days of races. When did the research take place? The development and tests of the smartwatch was done in the period 2017 - begin 2019. The custom-made app was developed in spring 2019. The data was collected in summer of 2019. The data is analysed at the moment. For which group of athletes is the research intended? The 24/7 monitoring case is directed at team sports on a
Custom-made mobile application for data collection.
(semi-)professional level. In team sports, there is a large variety in individual profiles, but they must adhere to the
Is there already a prototype of a possible product?
same training moments and races. This makes it particularly
The smartwatch was developed by imec as a prototype to
interesting to study this group.
conduct long term measurements in the field. The prototype is used to collect data, and algorithms are further developed to analyse this data. When can the product be ready for use or be available in the store? This study is just a beginning to determine the possibilities of monitoring athletes with a wearable device. A larger study in multiple team sports is required to further develop the algorithms and methods for personalization of these algorithms. The CHILL+ watch is a prototype device developed for use in these types of scientific studies. The industrial partners of imec use our research results as starting point for their own product development. If our studies are successful, it is likely that certain technology and techniques developed during Nano4Sports will, in a few years,
In the field measurement with rower.
end up in commercial products.
39
TRAINING FOR PEOPLE WHO HAVE DIFFICULTY STANDING AND WALKING CASE: FITBOX2GO 2.0 Brief description of the research Between June 2018 and February 2019, the Ir. Otten Fieldlab Aangepast Sporten (part of Libra Rehabilitation & Audiology, also Sport Innovator centre) worked closely together with physiotherapists and potential end users to design and develop a unique prototype wooden training device, as well as an associated training schedule in the form of an app. The purpose of the product, called the Fitbox2Go, is to allow people who have difficulty standing and walking (such as the elderly and people with a physical disability) to safely and reliably train for (muscle) strength and stamina, using a special exercise schedule. What makes this product unique is not only the fact that it can be used for five different exercises, but also that no similar device yet exists for the
A senior woman training with the Fitbox2Go, under guidance of a physiotherapist.
intended target group. An evaluation study showed that the Fitbox2Go has been
What is the objective?
well-received and that the application of sensor technolo-
The ultimate objective is to develop a Fitbox2Go2.0: A
gy can be used to increase ease of use, training enthusiasm
Fitbox2Go equipped with sensor technology supplying
and performance.
the user and the support user (e.g. physiotherapist) with
To this end, a project was initiated in collaboration with
relevant digital information, in real-time or otherwise, while
Fontys Hogescholen (Fontys Engineering) as well as with
using the training device. This data is then stored, pro-
imec to equip the Fitbox2Go with sensors and data pro-
cessed and fed back to the user and their supervisor(s) as
cessing software.
a performance overview and as advice (for example, on a dashboard). Which parties are involved in the research? Libra - the Ir. Otten Fieldlab voor Aangepast Sporten (FAS, Sport Innovator Centre); Fontys - Hogescholen, Fontys Engineering (Mechatronics); Stichting imec Nederland.
40
CASE
Where did the research take place?
more and even start exercising. Secondly, the product is
The sensor development and its subsequent installation
also suitable for people who already exercise regularly, and
into the Fitbox2Go mainly took place at Fontys Engineer-
who can use the Fitbox2Go to maintain and even increase
ing, in the Mechatronics department and ir. Otten Fieldlab
their muscle strength and stamina.
Aangepast sporten. Is there already a prototype of a possible product? When did the research take place?
The Fitbox2Go as a training device, but without sensors, is
The preparatory works were completed in the last quarter
already available. In the present project, sensor modules
of 2018, and the creation/installation activities of the de-
have been developed for the dumbbell (monitoring move-
veloped sensor technology were carried out in the first half
ments) and in the frame (load measurement). These mod-
of 2019.
ules still need to be further developed when it comes to the display of the signals and the connection with the app.
For which group of athletes is the research intended? The final product is initially intended for people who have
When can the product be ready for use or be available
reduced leg function (such as the elderly and people with
in the store?
neurological disorders) and who have been stimulated to
Further development of the technology is foreseen, includ-
increase their muscle strength so they can (start to) move
ing its evaluation, until the end of 2020.
‘THE FINAL PRODUCT IS INITIALLY INTENDED FOR PEOPLE WHO HAVE REDUCED LEG FUNCTION, SUCH AS THE ELDERLY AND PEOPLE WITH NEUROLOGICAL DISORDERS’ 41
‘PERFORMANCES OF ATHLETES WILL GET A MASSIVE BOOST BY
NANOTECHNOLOGY’ SPORTS DOCTOR RUBEN DE GENDT
CASE
A SMART BRACE TO ‘REPLACE’ THE PHYSIO CASE: SMART BRACE Brief description of the research
For which group of athletes is the research intended?
Lots of people, young and old, suffer from (severe) ankle
Any sports will do, but for now they will need an ankle
injuries every year. Some go to the physiotherapist, but
injury to participate.
many do not and may walk around with the injury for a while. A brace can help, but it does not currently tell you
Is there already a prototype of a possible product?
how well rehabilitation is progressing, nor does it tell you
There is a prototype.
when to stop using the brace. A smart brace can help ‘replace’ the physiotherapist and help the injured at home
When can the product be ready for use or be available
during rehab.
in the store? Still to be determined, but in about 5 years.
What is the objective? The goal is to test a prototype ankle brace containing sensors, and to determine if it is possible to measure similar parameters as the physiotherapist would by using a brace. Which parties are involved in the research? Imec, Nea International, PECE-zorg. Where did the research take place? At the physiotherapist. When did the research take place? Still running.
43
BACK IN MOTION JUST IN TIME How a smart brace can be an extension of a physiotherapist
Most amateur athletes who sprain their ankle often cannot wait to get active again. But how can you know when the ankle was sufficiently recovered? Nea International’s smart brace may be able to give the answer in the future. BY MARK VAN DER HEIJDEN Nea International produces braces
an injury come together. “We see this
under the brand name Push: from
as a research project, to see what we
the wrist and knee to the back and
can do with it.”
neck. “If I may be so immodest”,
“There are two types of people. Some
starts Annette Voskuilen, R&D man-
people start moving again too quick-
ager at Nea International, “our braces
ly, others don’t start moving quickly
achieve good functionality. We de-
enough at a time when the musculo-
velop them ourselves, look for the
skeletal system would benefit. When is
right materials ourselves, and take
the right time to get moving again? An
care of all the production ourselves.”
athlete has a whole team around him. Recreational athletes don’t have that.
It is her responsibility to develop new
The question is whether we can guide
products. “We stay in touch with
them by measuring how far along they
doctors and track developments
are in their recovery and thus predict
in the field of materials. We look
what the next step might be.”
particularly at sports and outdoor.
44
And there is an international trend
TWO TYPES OF PEOPLE
Voskuilen sees two applications. “The
for braces to increasingly become
She says she’s always looking for
smart brace can be an extension of
a product for the end-user, with no
ways to look at things from a new
a physiotherapist. He only sees his
reimbursement from a health insur-
perspective, but a smart brace for
patients once a week. With this brace,
ance company. End-users who pay
the ankle goes a step further. This is
the patient can receive more support
for the braces themselves makes
where the rise of sensors, the wear-
from the physiotherapist. In addition,
different demands.”
ing of braces on the skin, and the fact
it can also be seen as a support ob-
that people often don’t know when
ject for the patient. Many ankle inju-
they can return to being active after
ries are recidivism injuries. If someone
IN DEPTH
has sprained their ankle before, they already know what is wrong.”
PROTOTYPE
tified or allowed. We can carry out measurements with the brace while
This project started by holding a
the patient is with the physiothera-
workshop for doctors and athletes to
pist. And we can test this with what
find out what information they would
the physiotherapist can actually see
like to get from the smart brace.
in order to check whether the brace
Then Nea International and imec
is actually providing the information
worked together to look at what was
we had thought of beforehand.”
technically possible. “Some sensors
‘SOME PEOPLE START MOVING AGAIN TOO QUICKLY, OTHERS DON’T START MOVING QUICKLY ENOUGH’ user. Partners of Nano4Sports will also be involved in this.”
are built into the brace: motion
This prototype would never have
sensors, pressure sensors and tem-
been possible without Nano4Sports,
“The third workshop relates to the
perature sensors. And we can ask for
Voskuilen says. “Nano4Sports has
business case. Will the smart brace
things like pain, discolouration and
brought the parties together. Imec
become a tool in the medical circuit?
swelling via an app.”
makes the sensors for the brace. We
And if so, how are we going to offer
came into contact with Paul Maas
it? Will it be a product that the con-
By combining this information, it
of PECE Zorg, a physiotherapist in
sumer will buy, or will it be provided
is possible to let the athlete know
Eindhoven, through the Nano4Sports
by a health insurance company? We
when he or she can begin to use his
network.”
also want to look at this with partners
of her ankle again. “During recovery,
of Nano4Sports.”
the ankle becomes thinner, less stiff
BUSINESS CASE
and the patient is able to walk better.
The contribution of Nano4Sports
She particularly praises the contribu-
Based on this, we hope to be able to
does not stop there. “It is the inten-
tion of imec. “For me, the knowledge
say: you can start training again. This
tion to organise two more work-
imec brings to the table is the result
is useful advice that will help people
shops. The first workshop will focus
of this project. This project was cre-
recover better.”
on feedback. The sensors provide us
ated thanks to this collaboration. As
with different measurement data. The
an SME, we benefit from it. The fact
A prototype is now ready and will
question now is, of what use will this
that Nano4sports had a structure
soon be tested by a physiotherapist.
be to the user. In a certain way, we
where these aspects can be inves-
“At the moment, giving this this new
have to convert the measurements
tigated has a lot of added value. We
product to a patient is not yet jus-
into information that is useful to the
learn a lot from that.”
45
46
INTRO DUCTION
MOTIVATION & FEEDBACK How do we encourage people to exercise? And how do we ensure that they keep exercising? That is where nanotechnology can play a role.
48
Case: Support and engage women to go running
50
Case: Sonification
52
Case: Perform under pressure
54
Case: Engage people through data
56
Case: Prevent dropout
58
In depth: ‘People tend to be more active when they are
encouraged’
47
‘SUPPORT AND ENGAGE WOMEN TO GO RUNNING’ CASE: DESIGNING TO ENGAGE AND SUPPORT FEMALE RUNNERS Brief description of the research
running, when they are in doubt of going. First we designed
Running is a popular recreational sport due to its low
Faye, a running shirt that reveals a motivational quote in
threshold to start. Yet it has a high drop-out rate due to
the warm-up phase of the run. To share running inten-
motivational loss among novice runners, in which female
tions among friends and be able to cheer for each other,
runners have a large share. Although there are many mon-
we designed the bracelet Grace. When having an inner
itoring devices that aim to motivate runners, these often
dialogue of ‘should I stay or should I go’, Raya, a tangible
focus on the training itself and not on demotivation experi-
sports buddy, can guide you. Finally, to remind you of your
enced before the run. In this case, we designed four differ-
intentions, we designed Iris, a clothing hanger that reminds
ent artifacts that aim to support and engage women to go
you it is time to get dressed for sporting.
FAYE COULD BE AVAILABLE VERY SOON
Faye
48
CASE Iris
Grace
What is the objective? With these designs, we aim to support and engage women to go running, and gain more knowledge on how to prevent a potential drop-out due to motivational loss. Which parties are involved in the research? Eindhoven University of Technology, Fontys University of Applied Sciences, KU Leuven. Where did the research take place? Faye was tested during the Ladiesrun Eindhoven 2018. Grace, Raya and Iris were tested in-context, in the homes of the participants. When did the research take place? The research was ongoing from May 2017 till now, where we iterated upon several designs. For which group of athletes is the research intended? Recreational female runners Is there already a prototype of a possible product? We developed four designs within this research: Faye, Grace, Raya and Iris. When can the product be ready for use or be available in the store?
Raya
This is hard to indicate, however, Faye could be available very soon.
49
HELP RUNNERS TO IMPROVE THEIR RUNNING STYLE CASE: MUSIC ENABLED RUNNING Brief description of the research
What is the objective?
This is an exploration of a feedback/feedforward loop that
The goal is to influence running technique in a controlled
helps runners to improve their running style. We built an
direction. Possible reasons are the reduction of impact
open system allowing the use of a range of sensors. We
while running or improvement of technique.
developed machine learning algorithms that are trained with available running data. We are currently able to ana-
Which parties are involved in the research?
lyze running patterns. We explored the influence of music
Fontys University of Applied Sciences, ISA bewegingsanalyse.
on the running patterns, and it becomes possible to steer individual running technique into a controlled direction by
Where did the research take place?
exposing the runner to music with the appropriate musical
Most of the development and testing has been done under
parameters.
controlled lab conditions, also field tests have been done with a mobile version of the platform.
50
CASE
When did the research take place? Throughout 2018 and 2019. For which group of athletes is the research intended? The primary focus is on amateur runners. Is there already a prototype of a possible product? Two prototype systems have been developed: a lab setup with a tread mill, sound and video setup and a wearable implementation using a smart phone as a sensor hub. When can the product be ready for use or be available in the store? As a research platform it can be made available to a larger
‘THE GOAL IS TO INFLUENCE RUNNING TECHNIQUE IN A CONTROLLED DIRECTION’
user group within a few months. For use as a consumer platform the music feedforward/feedback loop needs further development. We estimate that for a commercial service a year of development is needed by a suitable party.
51
CHOKE OR SHINE? CASE: CHOKE OR SHINE? QUANTIFYING SOCCER PLAYERS’ ABILITIES TO PERFORM UNDER MENTAL PRESSURE Brief description of the research
What is the objective?
Increasing amounts of data are collected during football
Our work is a first step towards objectively understanding
matches to help clubs answer the multitude of questions
how high-mental pressure situations affect the perfor-
they are faced with every day. While most existing soccer
mances and behaviour of football players. The developed
performance metrics defined on top of this data focus on a
metrics can help clubs, managers and coaches in address-
player’s technical and physical performances, they typically
ing the following key questions:
ignore the mental pressure under which these performances
• Player acquisition: Does a player perform well under
were delivered. Yet, mental pressure is a recurrent concept in the analysis of a player’s or a team’s performance. We used
pressure? • Training: What are a player’s recurring poor decisions in
machine learning to develop a metric that quantifies how
certain tense circumstances, such that they can be ad-
mental pressure affects the performance of football players.
dressed during training?
Neymar’s performance crumbles under pressure.
52
CASE ‘THE DEVELOPED METRICS CAN HELP CLUBS, MANAGERS AND COACHES IN PLAYER ACQUISITION, TRAINING, TACTICAL GUIDELINES, LINE-UPS AND SUBSTITUTIONS’ Tactical guidelines: What tactical plans are more likely to
For which group of athletes is the research intended?
succeed in high-pressure situations?
Professional football players
• Line-ups and substitutions: Which players should a man-
Is there already a prototype of a possible product?
ager line up in anticipation of a crucial game, or substi-
We implemented a prototype and used it to analyse data
tute when a game gets tense?
from 6,858 matches from 7 leagues. The results were presented at the MIT Sloan Sports Analytics Conference (SSAC
Which parties are involved in the research?
2019), which is the premier conference on sports analytics.
DTAI (Prof. Jesse Davis, Pieter Robberechts) and the Dutch football analytics company SciSports.
When can the product be ready for use or be available in the store?
Where did the research take place?
SciSports has plans to integrate the metrics into their In-
In the lab, on a computer.
sight platform. With this platform, SciSports supports its clients in the recruitment of players by quantifying the
When did the research take place?
quality and potential of all professional football players
May 2018 – March 2019.
around the world. However, concrete timing has not yet been determined.
53
ENGAGE PEOPLE ABOUT SPORTS THROUGH DATA-IN-PLACE CASE: CONTEXTUAL SPORTS FEEDBACK: ENGAGING PEOPLE ABOUT SPORTS DATA THROUGH HYPERCONTEXTUAL FEEDBACK Brief description of the research? Our research explores how sports-related data can be shown in public contexts. Most sports feedback systems such as smart watches and smartphone apps are used in private and individual contexts. We believe that when sports performance data is consumed in shared, public space, sportspeople can make sense of this data in participative ways, engage in different types of social interaction, and perhaps nudge passers-by to engage with sport. We thus designed, developed and evaluated six working prototypes: 1. Parallel Runners invites sportspeople to collaboratively compare their live performance statistics at large sports events. 2. Chrono Displays playfully nudge passers-by to engage in sport by recording the time it takes between two locations along a route. 3. Runner Counter allows sportspeople to publicly record the type of their physical activity they engage in. 4. WeWatt Physicalisation invites users of the WeWatt smartphone-charging bicycles to socially interact with each other in order to synchronise their peddling. 5. Traject Yourself invites casual passers-by to actively dis-
What is the objective? To understand the true impact and potential of publicly
cover and interact with five interactive displays that are
providing sports feedback to multiple people and at the
hidden in an urban neighbourhood.
location where the sports activity took place.
6. Situated Sports Stories conveys a set of interactive data visualisations about the running statistics (e.g. Strava
Which parties are involved in the research?
data) of a specific location.
We collaborated with several timekeeping companies that track sportspeople at sports events. For our Physicalisation prototype, we collaborated with WeWatt, a Flemish manufacturer of public cycling furniture that generate energy to charge mobile phones.
54
CASE ‘ENCOUNTERING SPORTS DATA IN PUBLIC SPACE CAN LEAD TO DIFFERENT INSIGHTS AND SOCIAL INTERACTIONS’ Where did the research take place? We tested our prototypes in diverse real-world situations, such as at running events in Flanders and at the widely used public sports facilities of our university. When did the research take place? Following a user-centred research methodology, we iteratively finetuned our designs, from low-fidelity mock-ups to working prototypes, which were then deployed at different situations during the duration of the project. For which group of athletes is the research intended? Our intended users range from casual passers-by who might appreciate that sports activities have happened, to casual sportspeople who might be interested in socially interacting with each other, to recreational sportspeople who want useful insights about their sports performance. Is there already a prototype of a possible product? Following a design-oriented research methodology, we fabricated, programmed and assembled physical prototypes from concept to realisation. This process is crucial in order to derive fundamental knowledge that can only be attained if design thinking forms a vital part of the research process. When can the product be ready for use or be available in the store? Several prototypes have shown great potential for further development and commercialisation, but we have not put forward a concrete plan to achieve this yet.
55
PREVENT DROPOUT THROUGH TAILORED INTERVENTIONS CASE: MOTIVATION IN MOTION Brief description of the research
Where did the research take place?
Ready2improve supports people in improving their person-
The first part of the research took place in the lab, where
al health. Our service started merely face-2-face. Nowa-
our dataset was analysed. Next, the profiling system will
days much has been digitised. Since we aim for a sustain-
be evaluated via a field study. Every year, Ready2improve
able behaviour change, it is crucial that a person is and
organises ‘The Fittest Company’ (www.fitstebedrijf.com), a
stays motivated. This is not an easy task. Especially within
competition between companies who strive to make the
a merely digitised trajectory. Our aim is to extend our
most progress in improving their fitness. All contestants use
coaching platform with a profiling system that can measure
our coaching platform. A perfect opportunity to evaluate
motivation, create a motivational profile for each user, and
the prototype.
automatically select and tailor interventions (based on the motivational profile).
When did the research take place? The first part of the project took place in summer 2019.
What is the objective?
The evaluation of the profiling system is planned during the
The aim of this project is to learn the effect of tailored
2020 edition of ‘The Fittest Company’, since we did not fin-
interventions (designed to encourage people to be more
ish the research on time to test during the edition this year.
active) on different motivational profiles. And to identify dropout predictors that will enable us to prevent dropout
For which group of athletes is the research intended?
by activating interventions when needed.
Ready2improve supports recreational sportspeople and, more generally, people who want to improve their personal
More specific:
health and are willing to follow a health trajectory to ac-
1. Establishment of a baseline for the profiling types and
complish that.
identification of dropout predictors. We have a large dataset available for data-analysis.
Is there already a prototype of a possible product?
2. Building a prototype of the profiling system.
A prototype of the profiling system is built as an extension
3. Evaluation of the prototype via a field study. We will focus
of our current coaching platform.
on automated feedback which will be tailored (content and language) to the motivational profile. In the long term,
When can the product be ready for use or be available
other interventions and tailoring methods will be added.
in the store? We are currently implementing parts of the profiling sys-
Which parties are involved in the case/ research?
tem, which will be available for our users. The starting point
Ready2improve, KULeuven, imec, imec Nederland, Fontys
of a continuous learning and development process.
Hogescholen and Eindhoven University of Technology.
56
CASE ‘WE ARE CURRENTLY IMPLEMENTING PARTS OF THE PROFILING SYSTEM’
57
‘NANOTECHNOLOGY WILL NOT INCREASE SPORTS PARTICIPATION’ Cindy Winters (director of sport for the city of Leuven) does not expect a revolution
Technological innovations will change sports enormously in the future. And microsensors and data could be available for the masses. They will allow us to exercise better, safer and more over a lifetime. But could they lead to increased participation in sport? “I don’t think so”, says Cindy Winters, director of sports for the city of Leuven. “The social aspect stays important. Elite athletes will benefit more from this new nanotechnology.” BY IVAN CRABBE Enjoying participating in sport is important for people’s health. Nanotechnology will play a crucial role as a provider of information and feedback in the quest for a healthier society. These smart sensors are still in a test phase. The ultimate goal for the scientists involved in the project, is athletes using the feedback from
‘PEOPLE TEND TO BE MORE ACTIVE WHEN THEY ARE ENCOURAGED’
the data to create the perfect sport
58
a guest lecturer for sports management at the UCLL. Four years ago, Winters was appointed president of ISB (Institute for Sport Management and Recreation Policy), a membership association and knowledge centre, responsible for the management of sport, physical activity and recreation at a local and regional level in Flanders.
behaviour and to apply it over a long
Winters has a Master’s Degree in
“Our goal in Leuven is to motivate
period of time. What’s the added
physical education and physiothera-
everybody to participate in sports”,
value of nanotechnology in sports?
py. She worked at the sports depart-
says Winters, already working as the
We asked Cindy Winters, director of
ment of the city of Zaventem for ten
director of sports in Leuven for sev-
sports for the city of Leuven.
years. In 2011, she started working as
en years. “We are currently focused
INTRO DUCTION IN DEPTH such an event. “We have already organised some major cycling events in Leuven, the GP Scherens for example. But the trip to Yorkshire allowed us to gain some extra experience. A World Championship is an incredible platform. It would be great if we could present our newest nanotechnology there. For example, by using sensors and letting the fans in the fan zone experience how a cyclist reacts in a bike race. You can experience Cindy Winters, director of sport for the city of Leuven.
what a football player feels in a football stadium. So why not do the same for cycling soon?”
on running, cycling and walking.
saw that people tend to be more
PROFESSIONAL USES
And we will soon include swimming
active when they are encouraged.
For professional sports, it’s anoth-
and carry out some measurements
I do not believe this will change in
er story. Training, preparation and
with sensors in the pool of Wilsele.
the future. Sensors are a good tool
competition-related activities can
The goal is to install technology
for sport-minded people, but to
be improved gradually with sensors.
that measures how fast a swimmer
reach the masses you need more
Top athletes need this as they strive
completes a lap. In the near future,
social intervention. Competitions and
for success. “Nanotechnology can be
we also want to test what effect
events in neighbourhoods are vital to
highly profitable for them”, Winters
sports and movements have on the
increasing sports participation. Sports
agrees. “In Leuven, we conducted a
human body; hopefully, we can do
clubs, cities and governments still
hockey project in collaboration with
that with nanotechnology. We are
need to work together and create a
KHC Leuven. Sensors were used to
constantly looking for ways to im-
sport-friendly environment.”
measure the game patterns of the
prove our sports policy. Leuven is a
players. In the future, more athletes
room for more activities. Nanotech-
ORGANISATION OF WORLD CHAMPIONSHIPS
nology could be very helpful in gath-
In 2021, Flanders is the organiser of
for sports in Flemish Brabant. There is
ering data and increasing motivation
the World Cycling Championships.
a shift towards technology in sports.
for sports participation. The social
The finish of the road race will be in
We can only benefit from it, but I think
aspect should not be neglected. With
Leuven. Cindy Winters was in York-
it will still take a while before nano-
our ‘Moving Neighbours’ project, we
shire to follow the organisation of
sensors will be commercialised.”
sport-minded city, but there is still
will test some of the new technologies in our SportsTechLab, a living lab
‘SENSORS ARE A GOOD TOOL, BUT TO REACH THE MASSES YOU NEED MORE SOCIAL INTERVENTION’
59
60
INTRO DUCTION
URBAN SPORTS The so-called urban sports are becoming increasingly popular. Skateboarding is even an Olympic sport in Tokyo next year. How can nanotechnology help in the further development of these sports?
62
Case: The impact of freerunning
64
Case: Senskate
66
In depth: 360-degree view on the skateboard
61
‘THE BODY GETS HEAVY STRIKES’ CASE: FREERUNNING IMPACT - MEASURE EXTRAORDINARY LANDING IMPACT
62
Brief description of the research
what are the consequences of the repeated impact on the
Freerunning. A sport where you fearlessly fly countless
occurrence of an injury? Little is known about this new
meters through the air to make that one cool jump. You
sport; however it is known that freerunners benefit from
must not only be mentally on point but also physically.
good landing technique. Working with imec, Urban Sports
Due to the unreal jumps, the body gets heavy strikes. But
Performance Centre started a project to answer these
what is the actual exposure? How large is the impact after
questions. First, information was collected about measuring
a jump of 4 meters, how do we measure the impact, and
impact, and we were advised by the PSV football club. We
CASE ‘THE PREVENTION TOOL CAN REDUCE THE RISK OF INJURY’
first used feet-insoles to measure pressure (impact) and
Which parties are involved in the research?
foot outlet. However, these were insufficient for measuring
Imec NL, Innosportlab Sport & Beweeg (included with Ur-
the high impacts associated with freerunning.
ban Sports Performance Centre).
The next step was to use accelerometers with a high sampling frequency and g-range. These accelerometers are
Where did the research take place?
successful in measuring the landing impact of freerunners!
Lab, outside, practice.
Data showed the first logical results, jumping onto a higher platform gives a lower impact than jumping onto a lower
When did the research take place?
platform; we are now investigating the influence of fatigue
Summer (august) 2018 until July 2019, and now developing
on landing impact and technique.
further until December 2019.
The next step is to give freerunners visual feedback about their landing technique so the product can serve as an
For which group of athletes is the research intended?
injury prevention tool. Freerunners with a poor/lesser land-
Beneral sport and elite sport / recreational and elite sport.
ing technique can use the prevention tool to reduce the risk of injury.
Is there already a prototype of a possible product? Yes.
What is the objective? Give freerunners insight and knowledge about their landing
When can the product be ready for use?
technique to reduce injuries.
Summer 2020, mainly as a service, not a B2C product.
63
PREPARE FOR THE OLYMPICS! CASE: SENSKATE
64
CASE
Brief description of the research Skating becomes an Olympic sport in 2020; however, technology is not present at all to enhance athletes performance. It is lacking in this with respect to other (Olympic) sports. Adding technology could help improve tricks, determine if they were performed correctly, help train/learn new tricks etc. What is the objective? The goal of this project was to build a first prototype to determine if it could be done, and how it would be received. When did the research take place? Which parties are involved in the research?
About 6-8 months ago.
Imec, USPC, Pier 15. For which group of athletes is the research intended? Where did the research take place?
Skaters young, old, pro, starter
Lab and Pier 15. Is there already a prototype of a possible product? Yes, that was the idea. When can the product be ready for use or be available in the store? Still to be determined, need to have interest from device manufacturers first.
65
360-DEGREE VIEW ON THE SKATEBOARD The smart skateboard SenSkate helps skaters improve their tricks If a difficult trick on a skateboard is too much, a smart skateboard might be able to provide the golden tip. This skateboard, the SenSkate, is now available thanks to the collaboration between the Urban Sports Performance Centre (USPC) and imec, initiated by Nano4Sports. BY MARK VAN DER HEIJDEN “The Urban Sports Performance Centre was created by the province of Brabant to support urban athletes”, says Maxime Verdijk, embedded scientist at USPC. “We are now active in three areas. We provide nutritional advice, we offer circuit training in the park, as well as individual strength training, and we look at the types of technology we could apply to urban sports. And we are doing this to raise urban sports in Brabant to a higher level.” Solutions developed by USPC are
66
sometimes small; for example, a time
LIFESTYLE
trick doing differently compared to a
registration for freerunning that can
The size of the SenSkate is average.
skater who can’t?”
be used in competitions. Sometimes
“A long time ago, we carried out a
Thanks to Nano4Sports, USPC came
the innovations are bigger; for exam-
needs assessment among skaters. We
into contact with imec. Working with
ple, USPC is developing a system that
found out that one group of skaters is
USPC, imec was able to make the
uses sensors for BMX riders to ob-
not waiting for technology; they see
smart skateboard a reality. “Without
jectively monitor the use of the track.
skating as a lifestyle. The other group
imec’s help, we wouldn’t have been
USPC is optimising this system so it
wants to improve and to know exactly
able to carry out this project. Imec has
can be used for large events.
what they are doing during a trick.
the knowledge, but also the funding,
What is one skater who can do the
which is why this is also their product.”
IN DEPTH
The SenSkate prototype.
‘SKATERS KNOW BEST WHAT THEY WANT. WE CAN PUT ON ALL KINDS OF SENSORS FROM A SCIENTIFIC POINT OF VIEW, BUT IF THEY DON’T USE THEM, WHAT’S THE POINT?’
Maxime Verdijk, embedded scientist at USPC.
After the first version, which was quite cumbersome and difficult to use, imec and USPC reduced the size of the sensors and removed the speed and altimeter sensors, among other things. There was no need for them. However, pressure on the deck and rotation of the skateboard
An important part of SenSkate are the
board”, Verdijk says. “The idea is to
are still measured. “At first, we did
pressure sensors. “Imec is very busy
see what is happening step by step.
not have pressure sensors all over
with pressure plates in other sectors.
Then you can identify exactly what
the board, only in a few places. This
This is how we came to test pressure
the skater is doing well and where
made it difficult to see where the
plates in skateboarding. A kind of
things are going wrong.”
skater’s feet were, and it was less
conductor between the top layer and
accurate.”
the skateboard measures where the
RECREATIONAL SPORTS
most pressure is, or whether a skat-
The construction of the skateboard
The SenSkate is still a prototype
er is standing on his toes or heels.
started in January, and the result, an
owned by imec. “For imec, this pro-
Trainers often know how to place
initial prototype, was ready in June.
ject was an opportunity to apply
their feet on the skateboard. By using
On the way, USPC had frequent con-
(new) technologies in extreme situa-
this skateboard, you can prove it.”
tact with skaters – both regular skat-
tions. For us, it was an excellent op-
ers and the best amongst the Dutch
portunity to see what is possible. Can
“We also worked with imec to make
ladies who train in Den Bosch. “These
we offer this to recreational sports
a tool in which we link video images
conversations were very important.
as well? Probably not if we leave the
to the data. At the top of the screen
Skaters know best what they want.
pressure sensors attached. What is
you can see what the skater is doing,
We can put on all kinds of sensors
possible is a smaller, less exclusive
at the bottom of the screen you can
from a scientific point of view, but
version. And together with imec, we
see how long the skater hangs in the
if they don’t use them, what’s the
are looking at the options for Sen-
air and where he puts his feet on the
point?”
Skate’s future.”
67
‘THE END OF THIS PROJECT MARKS THE START OF NEXT STEPS’ Three years of Nano4Sports has done much good. New contacts have been made, knowledge shared, and innovative products and services have been produced. The six participants look back on it positively. “All good things come to an end. I think we can be satisfied with the three years we have had. And it’s now time for the follow-up.” BY MARK VAN DER HEIJDEN
‘CONNECTING KNOWLEDGE TO CREATE VALUE’
“We have many qualities in sensor
sport and vitality. This also motivates
technology in the Netherlands and
other parties to join in.
Flanders. Thanks to Nano4Sports, we can connect the underlying knowl-
Nano4Sports has therefore ensured
René Wijlens, manager Cluster
edge more consciously by working
that the knowledge concerning the
Sports & Technology
on cases together and arriving at in-
questions that live in society become
novative cases that can be of value in
accessible for companies. This allows
‘IT IS GOOD TO EMPHASISE THE SPIN-OFF AND MARKET OPPORTUNITIES IN NANO4SPORTS’ RENÉ WIJLENS
68
NANO4SPORTS
THE REVIEW
‘THERE IS STILL MUCH ROOM FOR FURTHER RESEARCH AND DEVELOPMENT’ PIETER BAUWENS the creation of value because you
and market in the field of sports
Nano4Sports has helped us incor-
can’t do so much with a sensor alone,
and vitality from our cluster. I have
porate our technologies into textiles,
and neither can you do something
noticed that the relationship with
not only through the integration of
with demand alone. Creating value
Belgian parties has become stronger
the technology itself, but also through
is only possible by bringing sensor
and that tastes like more.”
collaboration, co-design, electronics
knowledge and demand together. Nano4Sports also makes it possible
‘CHALLENGED TO EXPAND KNOWLEDGE’
design and integration. A more lasting contribution of Nano4Sports is the introduction to specific cases that have challenged us to expand our knowl-
to develop cross-border connections. This project has enabled us to bridge
Pieter Bauwens, postdoctoral
the gap between demand in Flanders
researcher at Ghent University
edge. Perhaps even more important is the extensive network that has been
for which the Dutch ecosystem can
built up. It has brought us into contact
be used. Conversely, we can also
with a number of companies active in
acquire technology and knowledge
the sports world.
in Flanders that we do not have in the It is clear that there is interest in our
Netherlands.
integration techniques, be it to deAn example. Field labs are typically
velop a custom test set-up for our
something that we in the Neth-
own research, or to expand our own
erlands have been working on for
range with intelligent monitoring
some time. These are ideal because
for elite athletes and recreational
we work there with the end-user in
athletes. I think there are still many opportunities to be found here, and
co-creation. In Flanders, they link value creation to the university world.
“In the Nano4Sports project, I was
I hope to be able to help with this
It’s also interesting that in certain
involved in the development of
progress.
areas (cycling, biomechanics, etc.)
two cases. The first concerns the
we can find experts in Flanders that
‘Low-Impact-Runner’, in which we
At the end of the project, there is
we don’t have in the South of the
measure the impact of running on the
still much room for further research
Netherlands.
tibia to retrain potential high-impact
and development. The products are
runners to use a low-impact running
not yet ready to be taken over by
It is good to emphasise the spin-off
technique, which should reduce the
industry. Sufficient robustness and
and market opportunities in projects
injury susceptibility. In the second
preferably the ability to wash the
such as Nano4Sports. In my opinion,
case, ’Bike-2-Know’, we tried to inte-
products are currently lacking. In any
a project should not start without
grate motion sensors in a cycling suit
case, concrete plans have already
that intention. We will gladly support
to monitor the posture of the lower
been made with the current partners
connections between knowledge
back, again to avoid injuries.
to continue our project.”
69
‘TO MAKE A DIFFERENCE, A BUNDLING OF EXPERTISE IS NECESSARY’
In order to be able to make a real difference, we need to combine our expertise. To do this well, you need time to get to know each other, and
Steven Vos, Professor of Design
it helps if you can work on concrete
‘THE FIRST STEP TOWARDS EVEN MORE INTENSE AND EXTENSIVE COOPERATION’
& Analysis of Intelligent Systems
cases. We were able to do this in the
Rik van de Wiel, R&D Manager
for Leisure Time Sports & Vitality
project. In particular, we worked on
Connected Health Solutions imec
at TU Eindhoven and Fontys
the design of feedback principles for
University of Applied Sciences
recreational runners. To do this, you need to have various insights from different perspectives. It’s not the first time I’ve worked on a project such as this. At the start of a project, ambitions are always high, but in reality, it takes time to get to know each other. The latter went very smoothly with many partners. Thanks to the project, I also got to know many new companies. It was also easy for
“Our group within imec carries out
me to come into contact with fellow
research and development in the
Thanks to the Nano4Sports project,
researchers, which led to the creation
field of health care, in particular, new
we have been able to strengthen
of new collaborative relationships.
technology that makes it possible to
the exchange of knowledge and
monitor the health of people in their
experience between the different
Of interest now is how the first steps
project partners, as well as
taken in the project will be continued,
cooperation between the partners.
and how new innovations will find
We use our knowledge and tech-
And we have done this across the
their way into marketable products.
nology in Nano4Sports to monitor
borders with Flemish and Dutch
I expect that parts of the project will
athletes. For example, we analyse
project partners, as well as with the
certainly be continued in new collab-
the movement of runners to improve
Dutch project partners themselves.
orations.”
their gait so they can increase their
‘I EXPECT THAT PARTS OF THE PROJECT WILL CERTAINLY BE CONTINUED IN NEW COLLABORATIONS’
daily lives.
performance and reduce injuries. Another example is our CHILL+ wristwatch, which we developed for medical studies into stress. This watch was developed further within Nano4Sports and now gives athletes and trainers a better picture of the recovery and load capacity of an athlete.
STEVEN VOS The greatest value of the project is that it has brought different parties with different knowledge together. In
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THE REVIEW
‘THE COOPERATION BETWEEN LABS HAS GIVEN US MANY NEW IDEAS AND SOLUTIONS’ RIK VAN DE WIEL particular, the cooperation between the sports and field labs in the Netherlands and Flanders has given us many new ideas and solutions. An example of this is our collaboration with the Fieldlab Adapted Sports. Not much is known about how a blade behaves while running. That’s why we developed a sensor that can measure the deformation of the blade during exercise. We hope to be able to optimise a blade for a runner. We also started a new project with a large number of partners from Nano4Sports to look at vitality. We are using much of what we have built up in Nano4Sports in this project to achieve a broader goal: to keep people active and vital. For imec, this is the first step towards even more intensive cooperation with the Nano4Sports partners and regional parties in the field of sport and vitality.”
These institutions and people were involved in the Nano4Sports project: Ghent University – Victoris Em. Prof. Dirk De Clercq Prof. Veerle Segers Rud Derie Pieter Van den Berghe Bastiaan Breine Joeri Gerlo Davy Spiessens Movement and Sports Sciences Prof. Marc Leman Joren Six Valerio Lorenzoni Art, Music and Theatre Sciences Prof. Philip Roosen Joke Schuermans Cedric Deblaiser Tanneke Palmans Rehabilitation Sciences Prof. Eli De Poorter Prof. Jeroen Hoebeke Jen Rossey Matteo Ridolfi Mathias Baert Internet and Data Science Lab Ghent University – imec Gent Prof. Jan Vanfleteren Pieter Bauwens Tom Sterken Centre for MicroSystems Technology KU Leuven Prof. Benedicte Vanwanseele Faculty of Movement and Rehabilitation Sciences Prof. Jesse Davis Pieter Robberechts Arne De Brabandere Machine Learning and Data Analytics Lab Prof. Andrew Vande Moere Jorgos Coenen Architecture, Research & Design
Prof. Sabine Vanhuffel Jonathan Moeyersons ESAT - STADIUS imec Nederland Connected Health Solutions: ir. Patrick van Deursen, MBA Eva Wentink Heleen Boers Jesse Kling Patrick van der Heijden Andrejs Fedjajevs Shrishail Patki Rik van de Wiel imec Leuven Connected Health Solutions: Prof. Dr. Chris Van Hoof Jan Cornelis Erika Lutin Walter De Raedt Cluster Sports & Technology: Rene Wijlens Marc van der Zande NL living labs: InnoSportLab Sport&Beweeg: Harmen Bijsterbosch (coordinator activiteiten labs in NL) Fontys University of Applied Sciences, School of Sport Studies Prof. dr. Steven Vos Jos Goudsmit Fontys University of Applied Sciences, School of School of Information and Communication Technology dr. Mark de Graaf Olaf Janssen Tom Langhorst Bernd-Jan Witkamp Eindhoven University of Technology Prof. dr. Steven Vos Prof. dr. ir. Aarnout Brombacher Daphne Menheere Industrial Design
71
‘PARTIES FROM FLANDERS AND THE NETHERLANDS HAVE GROWN CLOSER TOGETHER’
Through the project, a good overview
development of a framework with
was formed of the various cases the
clear agreements describing which
project partners were either already
area each partner would work on
working on, or started working on
with the other partners would cer-
during the course of the project.
tainly be an added value. In the pro-
Kristof De Mey, sports technology,
Through the ‘Meet the partners’
ject, this has been achieved on an ad-
innovation & business developer at
events, researchers were able to
hoc basis. A structured approach that
exchange ideas with each other and
is well-founded and contains clear
recognize and discuss the similarities
commitments from each party could
and differences between each other’s
possibly facilitate this even more.”
Ghent University
work. Projects and collaborations often end where the step between research and application in broad sports practice
‘BOUNDARIES BETWEEN SPORT AND TECHNOLOGY ARE BLURRING’
is discussed. The general objective of the project was to facilitate the devel-
Tine Van Lommel, Spin-off and
opment of technologies from a labo-
Innovation KU Leuven
ratory setting towards their use in the field. We have largely succeeded in this. Together with the other partners, “The Nano4Sports project has
we are now looking at how the vari-
brought various parties from Flanders
ous prototypes can be further devel-
and the Netherlands closer togeth-
oped so they can ultimately be used
er. Each organisation has its own
by a larger number of people and
DNA. And through the project, more
thus generate the intended impact.
insights into this have been gained, with the results being more coherent
Projects such as Nano4Sports
at both case, project and partner
also have challenges in terms of
level. This has put the region firmly
cross-border cooperation, especially
on the map.
between academic institutions. The
“The approach taken by Nano4Sports was to blur the border between Flan-
‘PROJECTS SUCH AS NANO4SPORTS ALSO HAVE CHALLENGES IN TERMS OF CROSS-BORDER COOPERATION’
ders and the Netherlands in the field
KRISTOF DE MEY
have their advantages and disadvan-
of sports and technology. I think it was very useful for that purpose. Because there are differences. The field labs, in which tests are carried out with end users, are an entity in themselves. If we want to test in Flanders, we put something together on an ad hoc basis. Both models tages. And it is not about seamless copying. We look at best practices,
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NANO4SPORTS
THE REVIEW
‘WE LOOK AT BEST PRACTICES, THE EXCHANGE OF EXPERIENCES, COLLABORATIONS WITH PARTNERS’
It sounds easy, but it wasn’t always. Sports and technology are also two different disciplines, and they don’t always speak the same language. The fact that the two have come closer together is an important result. Of course, this is not yet finished. No products have been developed that will be brought to market. In the final
TINE VAN LOMMEL
months of the project, we will try to map out follow-up routes. The phys-
the exchange of experiences, collab-
University. How can technology
ical contacts are now there; hopeful-
orations with partners.
motivate people to do more sports
ly they will continue.
and improve, and how can we give In Leuven, we did this with cases
back sensor data to people so they
All good things come to an end. I
involving running. For example, there
can link an action to it?
think we can be satisfied with the
is a collaboration between the arti-
The aim of the project was to work
three years we have had. It is now
ficial intelligence group and Ghent
together, preferably across borders.
time for the follow-up.”
73
‘THE BODY GETS HEAVY
STRIKES’ THE FREERUNNING IMPACT CASE
‘THIS IS NOT FINISHED YET. IT’S NOW TIME FOR THE
FOLLOW-UP’