=Paper= {{Paper |id=None |storemode=property |title=Towards an Open and Scientific Approach to Innovation Processes |pdfUrl=https://ceur-ws.org/Vol-864/paper_2.pdf |volume=Vol-864 |dblpUrl=https://dblp.org/rec/conf/caise/DiamantiniPS12 }} ==Towards an Open and Scientific Approach to Innovation Processes== https://ceur-ws.org/Vol-864/paper_2.pdf
      Towards an Open and S ienti Approa h to
                 Innovation Pro esses
            Claudia Diamantini, Domeni o Potena and Emanuele Storti


                      Dipartimento di Ingegneria dell'Informazione,
      Università Polite ni a delle Mar he - via Bre e Bian he, 60131 An ona, Italy
                    { .diamantini,d.potena,e.storti}univpm.it



         Abstra t. Being the modern e onomy onstantly hanging and evolv-
         ing, organizations are asked to develop a more exible, open and ol-
         laborative mindset. In parti ular, an attitude towards ontinuous prod-
         u t/pro ess innovation is seen as one of the potential solutions apable
         to ee tively address the dynamism of the market. However, Business
         Innovation (BI) still la ks methodologies and best pra ti es apable to
         ee tively drive business users from an innovative idea to its realization
         and evaluation. This work investigates the possibility to adopt a prag-
         mati and systemati approa h to support business users in the manage-
         ment of an innovation pro ess, with the aim to in rease the ontrol over
         the pro ess and redu e the risks of failure 1 .


1 Introdu tion
Profound hanges in e onomy, so iety and te hnology are nowadays dramati ally
reshaping the environment in whi h         ompanies, nations and people are used to
live. Moreover, in last years a more open so iety and e onomy is           ontributing to
tear down      ommer ial barriers, allowing more highly        ompetitive businesses to
join the global market. Being the modern e onomy             ontinuously    hanging and
evolving, organizations are asked to develop a more exible, open and             ollabo-
rative mindset. In parti ular, innovation is seen as one of the potential solutions
 apable to ee tively address su h        hallenges. Anyway, it is widely re ognized
that Business Innovation (BI) is also a risky pro ess whose out omes are often
unpredi table, ae ted by multiple internal and external variable              onditions,
many of whi h are non-observable and therefore             annot be properly kept un-
der    ontrol. For su h reasons, design and management of innovation pro esses,
espe ially in highly      ollaborative Virtual Enterprises (VE) environments, are
 hallenging tasks. This is the main reason why, in fa t, there is still a la k of
methodologies      apable to provide dire tions and best pra ti es to innovation, as
well as a theoreti al systematization of the notions related to BI, often             onsid-
ered more an art than a s ien e. In last years several tools and heuristi s have

1
    This work has been partially funded by the European Commission through the
    Proje t BIVEE: Business Innovation and Virtual Enterprise Environment (Grant
    Agreement No. 285746).
been proposed as solutions to support an innovation pro ess, even though they
are mainly based on suggestions and 10-best-rules lists derived by personal
experien e of business experts or innovation guru. Su h attempts, although not
always parti ularly ee tive, share the idea that business have to master the
variables behind the innovation pro ess.
      This work is a     ontribution to investigate the adoption of a pragmati     and
systemati     approa h to support business users in the management of an innova-
tion pro ess, with the aim to drive business innovation from the art towards
the s ien e side, by also indi ating solutions that are already available for spe-
 i    s ienti   elds, espe ially in e-S ien e. In more details, Se tion 2 dis usses
the main similarities and dieren es between a s ienti         pro ess and an innova-
tion pro ess,      omparing the formulation of a hypothesis to the denition of an
innovative idea, and proposing a s ienti        approa h to estimate the ee tiveness
of the latter; an open innovation perspe tive is introdu ed in the      ontext of Vir-
tual Enterprises. In Se tion 3 we re ognize some fun tional and non-fun tional
requirements for an ideal BI framework, together with some basi           te hnologies
and tools that      an be able to support it, while in Se tion 4 we make referen e to
some spe i       existing platforms supporting experimentations in e-S ien e, whose
fun tionalities     an be reused or adapted to provide more advan ed support for
BI. Finally, Se tion 5      ontains some nal remarks.




2 S ienti and open approa h to Business Innovation
A rigorous and methodi al approa h distinguishes s ien e from other forms of
explanation be ause of its requirement of systemati        experimentation and repro-
du ibility. The s ienti     method is re ognized as the basi    resear h paradigm for
understanding the validity of a hypothesis. Given the phenomenon to be studied,
this in ludes the following ma ro-a tivities, with possible iterations, overlapping
and parallelization:


  Observation: the a tivity of gathering fa ts and data about the phenomenon
      under study, often driven by the re ognition of an open problem or the draft
      of a hypothesis.
  Analysis: the a tivity of understanding, by means of manual or automati
      tools, the gathered data, in order to gain insights, and possibly new knowl-
      edge   apable to better explain the phenomenon.
  Formation of a hypothesis or a onje ture apable to explain the phenomenon,
      and the formulation of a testable predi tion. Note that the pro ess often
      starts with a draft of su h a   onje ture.
  Evaluation, whi h in ludes the planning of an experiment able to assess
      whether the predi tion o     urs or not.


      Several elds of study and resear h, although not dire tly denable as s i-
enti    dis iplines, nd in the s ienti   method an approa h to      onsistently sys-
tematize and formalize their method of inquiry, in order to develop more useful,
a    urate and     omprehensive models and methods. In this broader sense, a s i-
enti    approa h, based on methodi al management and analysis of data,             ould
provide a valuable improvement for innovation pro esses in the evaluation of an
innovation idea [1℄.
     Nowadays, su h a perspe tive        an be ee tively put in pra ti e [2℄. In fa t,
massive volumes of data are produ ed by organizations daily: every produ t,
task, a tivity and pro ess that is planned or realized           an be potentially tra ed
and logged, and this       onstitutes the pre onditions on whi h an observation       an
be performed. Moreover, ee tive and mature te hniques are available to analyse
data and to extra t knowledge from them.
     It is to be noted that innovation pro esses, however, are in general mu h
less stru tured than s ienti      experimentations, and often      hara terized by non-
 ontrollable or non-observable variables that ould strongly ae t the nal result.
Moreover, while s ienti       investigation is aimed to dis over the stati     rules un-
derlying some phenomenon in the physi al world, innovation pro esses has a
fo us on the market, whi h is dynami            and subje t to    ontinuous and frequent
 hanges. For su h a reason, the re-exe ution of a BI pro ess, in general, may not
produ e identi al out omes. The s ienti            method relies on a set of pra ti es
and formalizations whi h        onstitutes a    ommon ba kground for s ientists. This
in ludes, among others, methods and proto ols for evaluation and analysis, units
of measurements, standards and theories that represent a theoreti al framework
for planning and exe ution of a s ienti           pro ess. Conversely, Business Innova-
tion is a less mature dis ipline, whi h still la ks enough ba kground knowledge
and theoreti al analysis to depi t a spe i         methodology.
     Besides su h dieren es, the two types of pro esses share some similarities.
The starting point of the investigation is represented by an idea, or a hypothe-
sis, whi h often arises from previous knowledge and the re ognition of an open
problem. Both pro esses has a dynami            and risky nature, be ause the output is
not known in advan e, and         ould either    ontradi t or validate the idea (hypoth-
esis). Su      essive iterations allows, in both    ases, to make use of the   urrent and
previous out omes in order to        ome out with a better explained or dened idea
(hypothesis).
     A      ording to su h a perspe tive, a general meta-pro ess      an be devised for
innovation pro esses, in luding the following a tivities:


     Observation, whi h is driven by prior knowledge or the draft of the idea,
      and in ludes data trails about previous related innovation pro esses, busi-
      ness pro esses, logs about internal produ ts and tasks, together with related
      external data from the market,       lients, and suppliers. Data about     ompeti-
      tors and ba kground knowledge        ould be     onsidered as well.
     Analysis of data in order to      learly re ognize open problems and opportu-
      nities. In fa t, the proper denition of an idea requires, at rst, to identify
      the    ause-ee t relations between the open issues to solve and the stru tural
      elements of the produ t/servi e or pro ess at hand. Su h a systemati            ap-
      proa h     ould help to point out whi h internal variables       an be adjusted or
      what part of the internal pro ess should be modied.
  Formulation of an innovation idea, starting from the onsideration provided
      by the previous step.
  Planning of an implementation and experimentation pro ess, whi h is fol-
      lowed by an evaluation phase aimed at assessing the validity of the idea in
      terms of a set of indi ators and measures.


      Despite its rigorous approa h, the s ienti     pro ess is far from being an au-
tomatable pre-dened pro edure to follow, be ause it strongly relies also on
imagination and      reativity, espe ially for what   on erns data understanding, hy-
pothesis generation and experiment planning. Similarly, an innovation pro ess
requires a deep intera tion with business users. As a matter of fa t, the role of
 reativity and human evaluation in the         ontext of business innovation is even
more important than in s ien e, be ause the pro ess is more strongly ae ted by
human de ision-making, and the         ollaborative dimension (even within the same
 ompany) is mu h more prominent.
      Conventionally, the a hievement of innovation is based on the skills avail-
able within the boundaries of the       ompany, and every improvement and idea is
 onsidered a      ompetitive advantage.Su h a perspe tive, known as        losed inno-
vation, ultimately refers to    ompanies as     losed systems, and strongly relies on
the    ontrol and ownership of intelle tual property. Re ently, also thanks to the
improvement of IT te hnologies for        ommuni ation and information/knowledge
sharing, a new paradigm of open innovation is emerging [3℄. Open innovation is
based on the usage of both internal and external resour es and ideas          apable to
 reate opportunities for generating signi ant value. It is based on the notion
that knowledge       annot be   onstrained within a single    ompany, team, and uni-
versity: as a matter of fa t, the availability of pre- ompetitive knowledge proved
to be    apable to    reate a more dynami      market.Open innovation pra ti es in-
 lude the exploitation of new        ollaborative business models and strategies like
 o-produ tion and      o- reation,    rowd-sour ing, peer produ tion, as well as the
usage of so ial te hnologies to support and       oordinate   ollaboration.
      Companies    ould greatly benet from exploiting both a s ienti    approa h in
the innovation pro ess and a more open attitude towards          ollaboration. In fa t,
 ollaborative environments, like Virtual Enterprises, where information and ideas
 an be    ooperatively   olle ted and organized, are both a sour e and a driver for
innovation. Then, the usage of proper tools and shared methodologies within
the VE, together with a s ienti         approa h to experimentation,     an enhan e
the su    ess rate of innovation ideas and provide a basis useful as a referen e for
future pro esses in the VE.




3 Requirements for a BI support framework
A     ording to the data-driven/open perspe tive introdu ed in the previous se -
tion, for ea h of the ma ro-a tivity of an innovation pro ess we identify the main
fun tional requirements of an ideal BI framework, together with the available
te hnologies useful to provide the needed support:
  Observation: the system should provide tools to support data gathering and
    storage from (possibly) multiple sour es, whi h allow to have eviden es and
    fa ts at disposal about the produ t or pro ess under study. Useful te hnolo-
    gies in lude, besides databases and data warehouses, Customer Relationship
    Management systems (CRM), Workow Management Systems, Enterprise
    Resour e Planning, market analysis.
  Data analysis and denition of an innovation idea: the framework should in-
     lude support tools to analyse the    olle ted observations, in order to obtain
    both a summarized view of them and to extra t possible relevant hidden
    relations, patterns or regularities, useful to gain new or   learer knowledge
    about the domain and its open issues or aws. Data Mining and Knowl-
    edge Dis overy in Databases (KDD) algorithms, together with statisti al
    methods are ee tive solutions for su h a purpose. Systems for      ollaborative
    dis ussions and knowledge sharing, then, allow new ideas and suggestions to
    emerge.
  Experimentation and evaluation, whi h require tools useful to support busi-
    ness users in planning the innovation pro ess, in luding suggestions about
    whi h steps ought to be taken in given      ir umstan es, and whi h Key Per-
    forman e Indi ators (KPI) should be used to gain insights about the pro ess
    status. Moreover, during and after the exe ution, tools   an be used to    olle t
    intermediate and output results, for instan e tra ing and logging systems,
    CRM or surveys for information about       ustomer satisfa tion and feedba k,
    systems to analyse data in order to evaluate previously dened KPIs,      apable
    to   at h and show the impa t or the su     ess of the innovation idea.

   Given that in this work we refer espe ially to environments like Virtual En-
terprise's, we envisage in the following the most   hallenging problems that arise
from the pe uliarities of su h an open,   ollaborative and distributed s enario. On
su h a basis we   ontextually dene non-fun tional requirements for a framework
 apable to support a data-driven innovation pro ess:



Integration A distin tive feature of the s ienti       ommunity is the existen e
of a shared   orpus of standards, norms, rules, aimed at produ ing      omparable,
measurable and reliable results. Integration of knowledge from dierent s ienti
elds is feasible thanks to the usage (and the sharing) of the same   ommuni ation
language, the same measurements units and        ommon pra ti es and methodolo-
gies. Conversely, standards and pra ti es for BI have not been identied yet.
Apart    ommon ba kground knowledge like logi s or statisti s, spe i      business
domains may require spe i     solutions. For su h a reason, a framework should
provide means to identify and des ribe resour es within the Virtual Enterprise
by referring to the same terminology, to over ome the heterogeneities among the
partners.



Complexity The la k of standard pro edures and best pra ti es ae ts also
the planning and exe ution of an innovation pro ess. The framework should al-
low to   odify the dependen ies among the innovation pro ess' a tivities, provide
suggestions about whi h spe i       resour e to use in a given   ontext, and in the
 hoi e of the best output indi ators. Complexity management also involves to
keep tra k of the status of an innovation pro ess, its variables and outputs. Com-
mon IT te hnologies in lude data management systems, optimization algorithms
and planning te hniques.



Distribution Given the data-intensive dimension of modern s ien e, espe ially
in   ertain elds, a re ent trend is the     onstitution of virtual laboratories, in
whi h      omputation of massive datasets    an be performed in a distributed man-
ner. Also an innovation pro ess     ould be potentially based on several distributed
resour es, whi h are to be managed through spe i          te hnologies, espe ially in
environments like Virtual Enterprise's. Besides traditional ommuni ation infras-
tru tures like internet and the Web, spe i       instruments are needed whenever
the enterprise follows a more open approa h towards innovation, for instan e in
sharing of knowledge/data, of distributed tools and even of        omputation, espe-
 ially when innovation is highly data-driven or requires simulation.



Collaboration and oordination Sin e the ooperative planning and exe u-
tion of a    omplex pro ess typi ally require several skills, both te hni al and man-
agerial,    ollaboration   an easily be ome a sour e of   omplexity if not supported
by any kind of      oordination. In last years the s ienti    ommunity is showing
a    ontinuously growing interest in te hnologies for data, model and workow
sharing (e.g., [4℄), whi h    onstitute the ba kbone of a more networked and       ol-
laborative way to s ien e. Similarly, Virtual Enterprises     ould greatly benet of
systems to share information, data and ideas among the distributed partners,
and to support a virtual team by putting together diverse           ompeten ies and
 apabilities, and providing means to manage       oordination and to    o-operatively
perform tasks and a tivities.



4 Te hnologies for a BI framework
In this se tion more spe i     solutions for a BI framework are introdu ed, taking
into a     ount previously identied requirements to sket h up the general approa h
of su h a system, aimed at supporting business innovation pro esses.
     Aspe ts of this proposal involve not only the adoption of       ertain te hnolo-
gies, but also several organizational hanges. This often requires the organization
to reshape itself, and adopt a more exible attitude towards revision and im-
provement of internal pro esses and pro edures, and the        on epts around whi h
the enterprise is organized. In this sense, one of the emerging solutions is the
appli ation of servi e approa h to enterprises [5℄.
     Servi e orientation, in whi h single tasks and a tivities may be       onsidered
as modular and (possible) distributed servi es, is        apable to improve exibil-
ity and e ien y. In order to further maximize modularity and interoperability,
like in traditional SO ar hite tures, servi es   an be des ribed by using the same
format, in order to provide a synta ti ally homogeneous representation of their
 apabilities and fun tionalities. Su h an approa h allows to reuse some of the
methodologies and tools     urrently implemented in SO frameworks, whi h             an
be fruitfully exploited to respond to some requirements. One of the distin tive
aspe ts of SOA is related to the distin tion among servi e publisher (e.g., inter-
nal or external suppliers), servi e   onsumer and servi e registry, where servi es
holding ertain hara teristi s or aimed at     ertain fun tionalities   an be retrieved
through sear hing me hanisms. Within the business domain, su h a repository
 ould enable the dis overy of business servi es useful in a given stage of the in-
novation pro ess or for supporting     ertain business tasks, like the evaluation of
a KPI, or the optimization of a business pro ess.


   Advan ed fun tionalities     an rely both on servi e and pro ess repositories
(1) to understand whi h servi es are usually applied after a given one, or (2)
to provide suggestions about whi h (typology of ) servi e is re ommended in a
 ertain stage of the innovation pro ess, and (3) to dis overy the most        ommon
pra ti es of usage of   ertain servi es. Moreover, the des ription of su h servi es
by using semanti    te hnologies to dene a   ommon terminology (at least, shared
among the members of an organization or among the partners of a VE) allows
to address integration problems.


   Some general-purpose te hnologies to support ea h of the phases of an in-
novation pro esses have been introdu ed in the previous se tion. Anyway, es-
pe ially in last years, several solutions have been investigated in the s ienti
 ommunity to solve similar tasks. In parti ular we refer to those s ienti         elds
that are mostly     on erned either with data-intensive     omputation or      ollabo-
rative issues, and that have at disposal advan ed tools that       ould be adapted
or reused in the    ontext of BI. Among them: biology and bioinformati s frame-
works, e.g. Taverna [6℄ and Kepler [7℄, support users in the design of pro esses
and workows. Also the Data Mining/KDD domains are parti ularly a tive in
providing support for users with diverse      ompeten ies in designing and exe ut-
ing a data analysis/manipulation pro ess for knowledge extra tion. Some of the
frameworks, like NeXT [8℄ or KDDVM [9℄ provide advan ed support for pro ess
semi-automati      planning and algorithm/servi e mat hmaking, given that ea h
appli ative bri k of the pro ess is des ribed through some spe i      language. KD-
DVM platform, moreover, in ludes a pro ess repository, useful for keeping tra k
of all the pro esses developed in the past, together with all their temporary ver-
sions. Su h a repository is used both as a referen e for next proje ts, in order
to retrieve information and details about past exe utions, and also to under-
stand whi h algorithm/servi e's sequen es performed better over ertain data.
                                                 my
For what on erns ollaborative platforms, while      Experiment proje t [4℄ is
aimed at pro ess sharing within a      ommunity, KDDVM provides team building
fun tionalities with fun tionalities for retrieving users with a spe i   set of    om-
peten ies or that were involved in a    ertain past proje t. Some of su h solutions
 an be reused or adapted for this purpose, in parti ular the support for pro ess
design,   omposition and exe ution.
5 Con lusion
The dis ussion provided in this work is aimed at analysing at what extent a
s ienti   and methodi al approa h      an be adopted in the      ontext of innovation
pro esses to estimate the ee tiveness of an innovative idea, in reasing the         on-
trol over the pro ess and redu ing the risks of failure. Currently, the la k of
methodologies for BI represents the major hindran e against the a tual appli a-
tion of su h prin iples. To this aim, we proposed a set requirements and te h-
nologi al solutions that    an   onstitute the basis of a future framework, aimed
both to provide support to BI pro esses design and management, and a means to
devise and test theoreti al and pra ti al models and methods for BI. Ultimately,
a BI framework     ould signi antly help in better dis riminating the best from
the worst pra ti es in business innovation pro esses, whi h        an be   onsidered as
the rst step towards the denition of methodologies for BI. Although it            ould
be useful to make innovation pro esses more e ient/ee tive within a single
organization, this is espe ially true in   ollaborative environments, where shared
methodologies    ould be identied starting from the information/pro esses that
are shared among the partners. As future work we would like both to deepen
the theoreti al analysis and to propose an ar hite ture of su h a BI framework.



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