The Impact of Innovation Management Systems on Firms’
Innovation Performance: The Mediating Role of Openness to
Innovation
Rita Giordano, Gian Marco Miele, Filippo Frangi, Antonio Ghezzi and Andrea Rangone
Politecnico di Milano, Department of Management, Economics and Industrial Engineering,
Via Lambruschini 4B, 20156, Milan, Italy
Keywords: Innovation Management Systems, ISO 56002, Open Innovation, Openness Innovation Performance,
Innovation, Innovation Management, Digital Transformation, Business Model.
Abstract: This study examines the impact of Innovation Management Systems (IMS) maturity on companies' Innovation
Performance, specifically emphasizing the ISO 56002 standard as a guiding framework. The present
investigation explores the mediating role of Open Innovation (OI) in this relationship, investigating how
openness to external collaboration affects the effectiveness of structured innovation processes. A Systematic
Literature Review (SLR) identifies significant gaps, notably the scarcity of empirical evidence regarding the
integration of IMS with OI techniques and their collective impact on performance outcomes. Empirical data
were gathered via a survey of 139 medium-to-large Italian enterprises spanning several sectors. The study
assesses organizations' IMS maturity, their openness to innovation, and the interaction between these factors
in influencing Innovation Performance. Structural Equation Modeling (SEM) demonstrates that an established
Innovation Management System (IMS) enhances Innovation Performance both directly and indirectly by
promoting openness to external knowledge transfer and collaboration. The results enhance the current IMS
literature by illustrating that a systematic approach to innovation management, in conjunction with Open
Innovation methods, can yield exceptional innovation results. These findings provide practical guidance for
managers and decision-makers aiming to improve their organizations' innovation capacities and attain durable
competitive advantages in progressively interconnected markets.
1 INTRODUCTION
In today's dynamic business landscape, innovation
serves as a cornerstone of competitive advantage,
enabling firms to adapt to rapid technological
advancements and shifting market demands. The
accelerating pace of change necessitates structured
approaches to innovation management, fostering the
ability to integrate new knowledge, enhance
operational efficiency, and sustain long-term growth.
Organizations are progressively implementing
organized frameworks, such as Innovation
Management Systems (IMS), to synchronize
innovation activities with strategic objectives and
improve efficiency. ISO 56002 has emerged as a
significant guideline for the implementation and
optimization of IMS across various sectors.
Nonetheless, whereas IMS frameworks are
acknowledged for their capacity to organize
innovation, empirical studies regarding their direct
influence on Innovation Performance (IP) and the
function of Openness to Innovation (OI) as a
mediating factor are still insufficiently established.
The current literature emphasizes that IMS improve
innovative capabilities by formalizing innovation
processes, optimizing resource allocation, and
minimizing inefficiencies. By offering a structured
framework for innovation management, IMS assists
organizations in aligning their innovation strategies
with overarching organizational objectives, hence
promoting both incremental and radical innovation
(Giménez et al., 2023; Silva, 2021). Research on
Open Innovation underscores the significance of
external information flows and collaborations in
enhancing innovation skills (Chesbrough, 2003;
Laursen & Salter, 2006; Ghezzi et al.,2022).
Notwithstanding these improvements, the interaction
between IMS and OI and their collective impact on IP
remains poorly investigated. Furthermore, the
absence of standardized instruments to assess IMS
maturity constrains both scholarly research and
Giordano, R., Miele, G. M., Frangi, F., Ghezzi, A. and Rangone, A.
The Impact of Innovation Management Systems on Firms’ Innovation Performance: The Mediating Role of Openness to Innovation.
DOI: 10.5220/0013470900003929
Paper published under CC license (CC BY-NC-ND 4.0)
In Proceedings of the 27th International Conference on Enterprise Information Systems (ICEIS 2025) - Volume 2, pages 907-914
ISBN: 978-989-758-749-8; ISSN: 2184-4992
Proceedings Copyright © 2025 by SCITEPRESS Science and Technology Publications, Lda.
907
practical implementation. The deficiencies in the
literature pose considerable obstacles. Theoretically,
they impede the advancement of integrated models
that incorporate both internal structures and exterior
interactions. In practice, they provide managers with
insufficient guidance on optimizing IMS and OI to
attain sustained innovation results. Addressing these
deficiencies is essential for enhancing knowledge and
providing practical guidance for companies operating
in increasingly competitive contexts. This study seeks
to address these deficiencies by investigating the
correlation between IMS maturity, OI, and IP. It
specifically addresses two research inquiries: What is
the correlation between IMS maturity and IP? What
function does OI serve in this relationship?
The study employs data from 139 Italian
companies along with Partial Least Squares
Structural Equation Modeling (PLS-SEM) to
examine these correlations. IMS maturity is evaluated
using a scale derived from ISO 56002, whilst OI and
IP are tested by recognized multi-item assessments.
This research enhances the literature by providing
empirical proof of the positive correlation between
IMS maturity and IP, while recognizing OI as a
significant mediator. The validated IMS maturity
scale serves as a significant instrument for future
study and practice, facilitating more uniform
evaluations across various contexts. The study
illustrates the synergistic functions of IMS and OI,
offering practical guidance for managers and
enhancing theoretical comprehension, while
underscoring the need of cohesive innovation
strategies for attaining exceptional performance.
2 THEORETICAL
BACKGROUND
Innovation is crucial for sustaining competitiveness
in the contemporary business landscape, fostering
flexibility and growth in ever-changing markets
(Schumpeter, 1983; Hansen, 2014; Ghezzi et
al.,2016). Innovation, broadly defined as the
introduction of new products, processes, or practices,
spans various dimensions, including radical and
incremental methods, as well as modular and
architectural transformations (Goffin & Mitchell,
2005; Henderson & Clark, 1990). Value creation and
differentiation in competitive environments are
uniquely influenced by each of these dimensions
(Damanpour et al., 2009; OECD, 2005; Ghezzi et
al.,2014). The mechanisms of invention encompass
both internal and external factors. Internally,
organizations depend on the absorptive capacity to
recognize and apply external knowledge,
organizational structures that foster collaboration,
and research and development (R&D) capabilities
(Cohen & Levinthal, 1990; Burns & Stalker, 1961).
Externally, innovation success is increasingly
acknowledged to be contingent upon collaboration
with a variety of stakeholders, such as customers,
suppliers, universities, and entrepreneurs. Open
Innovation, as defined by Chesbrough (2003),
emphasizes the significance of integrating external
knowledge streams into internal processes. Von
Hippel’s (1988) user innovation framework similarly
underscores the essential significance of involving
lead users in the co-creation of new solutions,
accentuating their impact on market relevance.
2.1 Innovation Management System
Innovation Management Systems (IMS) provide
structured methods for the promotion, coordination,
and expansion of innovation initiatives. As defined in
ISO 56002:2019, IMS represents a comprehensive
and integrated framework including strategic,
tactical, and operational duties to systematically plan,
coordinate, and control innovation activities
(International Organization for Standardization,
2019). The maturity of an IMS indicates its degree of
implementation, optimization, and alignment with
strategic objectives, significantly contributing to the
enhancement of organizations' innovation capabilities
and outcomes (Santos & Almeida, 2022). Elevated
IMS maturity, defined by systematic management
and ongoing optimization, is associated with
enhanced innovation results, particularly in balancing
exploratory and exploitative innovation endeavours
(March, 1991; Martínez-Costa et al., 2019).
Research on standardized frameworks, such UNE
166002 and ISO 56002, indicates that companies with
high IMS maturity attain enhanced innovation
efficiency, customer satisfaction, and
competitiveness (Giménez et al., 2023; Mir et al.,
2016).
2.2 Innovation Performance
Innovation Performance evaluates the effectiveness
of a company's innovation initiatives in terms of
outputs, processes, and strategic results (Crossan &
Apaydin, 2010). It encompasses quantifiable
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indicators, like patents and product launches
(Hagedoorn & Cloodt, 2003), alongside more
extensive effects such as improved strategic
positioning and competitiveness (Tidd & Bessant,
2018). Quantitative metrics, such as R&D
expenditure and market share from new goods,
frequently function as benchmarks, whereas
qualitative assessments evaluate the congruence of
innovation endeavours with strategic objectives
(Gopalakrishnan & Damanpour, 1997; Camisón &
Villar-López, 2014).
The correlation between IMS maturity and
Innovation Performance is extensively recorded, with
advanced systems promoting both incremental
improvements and radical innovations (Martínez-
Costa et al., 2019). By leveraging structured
frameworks, organizations align their innovation
efforts with organizational strategy, attaining
quantifiable results such as enhanced operational
efficiency and market responsiveness (Mir et al.,
2016).
2.3 Openness to Innovation
Open innovation enhances companies' capacity to
generate and implement novel concepts by promoting
information transfer beyond organizational limits
(Chesbrough, 2003; Chesbrough & Bogers, 2014). It
encompasses inbound innovation, wherein
companies assimilate external information via
collaborations, partnerships, and licensing, and
outbound innovation, which entails externalizing
internal innovations to optimize their value (van de
Vrande et al., 2009). Research has investigated its
influence on business performance through
theoretical frameworks such as the knowledge-based
view and resource-based view, emphasizing its effect
on innovation results (Ahn et al., 2015; Greco et al.,
2016). Diverse methodologies have been suggested to
evaluate openness, encompassing firm-level metrics
that consider external search breadth and depth
(Laursen & Salter, 2006) and project-level
frameworks like the IFO-Scale and ATOM method,
which assess openness via collaboration intensity,
transparency, and knowledge exchange (Alam et al.,
2022; Bellantuono et al., 2021).
3 METHODOLOGY
Innovation Management Systems (IMS) have
emerged as significant frameworks for aligning
organizational activities with strategic innovation
objectives. Despite their extensive use and the
systematic frameworks established by standards such
as ISO 56002, comprehending their concrete
influence on companies' Innovation Performance
necessitates additional investigation (Silva, 2021;
Idris & Durmusoglu, 2021). A crucial part of this
relationship involves evaluating how the maturity of
these systems results in quantifiable outcomes,
especially when firms embrace external knowledge
and collaboration (Chesbrough, 2003).
This research operationalizes three main
dimensions drawn from the theoretical framework:
IMS Maturity, Innovation Performance, and
Openness to Innovation. These notions establish the
basis for exploring the subsequent research questions:
RQ1: What is the relationship between IMS
Maturity and Innovation Performance?
RQ2: What role does a firm’s openness to
innovation play in this relationship?
3.1 Hypothesis Development
For a better overview, the hypothesized connections
between the study constructs, have been summarized
and displayed in Figure 1
Figure 1. Conceptual Framework.
Evidence from the literature indicates that the
implementation of a mature IMS improves innovation
performance across a variety of categories, including
product, process, organizational, and marketing
innovations. Standards like UNE 166002 and ISO
56002 assist organizations in fostering a culture that
optimizes both novel and established ideas (Martínez-
Costa et al., 2019).
In turn, it is reasonable to hypothesize that:
H1: A mature Innovation Management System
positively affects a company's Innovation
Performance.
As organizations advance their Innovation
Management Systems, it is likely that they will
incorporate increasingly advanced techniques for
The Impact of Innovation Management Systems on Firms’ Innovation Performance: The Mediating Role of Openness to Innovation
909
sourcing innovation from both internal and external
sources (Garechana et al., 2017). Consequently, it
may be posited that as firms' IMS maturity escalates,
they are likely to seek increased external
collaborations, promoting better transparency and
enhancing the formation of a more resilient
innovation ecosystem. Thus, it is hypothesized that:
H2: A mature Innovation Management System will
be positively related to company’s Openness to
Innovation.
Open Innovation (OI) enables companies to
utilize external knowledge resources, hence
enhancing their innovation capacity. Researches
show that firms implementing Open Innovation
exhibit enhanced R&D productivity, superior market
performance, and increased innovation output
(Laursen and Salter, 2006; West & Bogers, 2017).
Consequently, based on the literature, it is
hypothesized that:
H3: Firm’s Openness to Innovation positively
influences company's Innovation Performance.
The final inquiry focuses on assessing whether
companies that actively participate in Open
Innovation activities may moderate the beneficial
effects of mature IMS on innovation results. This
investigation explores if Openness to Innovation
serves as a mediator (Igartua et al., 2010), elucidating
the influence of innovation management systems on
innovation performance. Consequently, it is
postulated that:
H4: Firm’s Openness to Innovation mediates the
relationship between Innovation Management
Systems Maturity and Innovation Performance.
3.2 Research Design
The research relies on a quantitative methodology,
employing Partial Least Squares Structural Equation
Modeling (PLS-SEM) to evaluate the offered
hypotheses. PLS-SEM is especially appropriate for
models with numerous components and small to
medium sample sizes, as it does not necessitate
stringent normality assumptions (Hair et al., 2020).
This method facilitates concurrent assessment of
measurement and structural models, permitting
thorough investigation of direct, indirect, and
mediating impacts.
Data was gathered from July 8 to September 16,
2024, focusing on medium and large firms in Italy. A
survey was administered to 850 professionals,
comprising CIOs, CInOs, Innovation Managers, and
IT Directors, yielding 144 replies, of which 139 were
deemed valid following data cleansing.
To guarantee representativeness, the sample
encompasses several sectors and organization sizes:
Company Size: Medium (26%), Large
(29%), Very Large (45%).
Sectors: Manufacturing (34%), Services
(32%), Energy (11%), Retail (18%), and
Construction (5%).
Innovative Sectors: Pharmaceuticals (7%),
ICT (9%), Electronics (6%), and
Automotive & Transportation (12%).
The experimental design for this study was
developed in collaboration with Startup Thinking
Observatory of School of Management of Politecnico
di Milano.
In addition to the survey data, secondary data was
sourced from the AIDA database, providing firm-
specific information such as revenues and 2007
ATECO codes for sectoral classification. Market
concentration (CR4) metrics were calculated to assess
competitive dynamics within industries.
3.3 Conceptual Framework
This study employs a conceptual framework to
analyze the interaction among three key constructs:
Innovation Management System (IMS) Maturity,
Openness to Innovation (OI), and Innovation
Performance (IP). The framework establishes a basis
for examining the interconnections among structured
internal procedures, external collaborations, and
innovative outputs. The model asserts that a firm's
IMS Maturity directly affects its Openness to
Innovation and Innovation Performance, with
Openness to Innovation acting as a mediating variable
that enhances the influence of IMS on IP. This
framework facilitates a comprehensive understanding
of how internal mechanisms and external interactions
collectively influence innovation success.
To augment the explanatory capacity, the model
integrates control variables including Firm Size
(SIZE), Market Concentration (CR4), and Sector-
Specific Dynamics. These variables account for
disparities in resources, competitive landscapes, and
industry-specific innovation practices.
3.4 Operationalization of Constructs
The study operationalizes the three constructs—IMS
Maturity, Openness to Innovation, and Innovation
Performance—using established psychometric scales
and measurement frameworks to guarantee reliability
and validity.
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3.4.1 IMS Maturity
Drawing on the framework proposed by Santos &
Almeida (2022), IMS Maturity is conceptualized as a
multi-level construct reflecting the degree to which
firms have implemented, optimized, and aligned their
innovation systems with strategic objectives.
A five-point maturity scale grounded in ISO 56002
standards is employed to evaluate essential
dimensions, such as leadership, planning, support,
operations, and performance assessment.
3.4.2 Innovation Performance
Innovation Performance is conceptualized as a
multidimensional construct that includes innovation
outputs (e.g., patents, product launches), processes
(e.g., R&D activities), and strategic results (e.g.,
market share increase, profitability) (Crossan &
Apaydin, 2010; Martínez-Costa et al., 2019).
Quantitative metrics, including the percentage of
revenue generated from new goods and the count of
innovations launched, are utilized in conjunction with
qualitative assessments of strategic alignment.
3.4.3 Openness to Innovation
The operationalization of the third construct
concerning a firm's Openness to Innovation, was
developed in accordance with Startup Thinking
Observatory of School of Management of Politecnico
di Milano definitions. The measurement framework
is based on Laursen and Salter's (2006) framework,
which quantifies external search breadth (number of
external sources leveraged) and depth (extent of
reliance on specific external partners). This construct
captures both inbound (knowledge absorption) and
outbound (knowledge sharing) innovation practices
(Chesbrough, 2003).
3.5 Experimental Procedure
The research used Partial Least Squares Structural
Equation Modeling (PLS-SEM) to investigate the
relationships among IMS Maturity, Openness to
Innovation, and Innovation Performance. This
methodology, executed with SmartPLS software, is
appropriate for the exploratory characteristics of the
research and the comparatively limited sample size.
The analysis consists of two primary stages:
assessing the measuring model to verify the reliability
and validity of constructs, and examining the
structural model to evaluate the importance and
strength of links. Essential measures, including factor
loadings, composite reliability, and the coefficient,
are employed to assess the model's robustness.
Bootstrapping techniques are utilized to assess the
relevance of both direct and indirect impacts,
encompassing mediation pathways. This
methodological rigor facilitates a deeper
comprehension of how organizational systems and
openness affect innovation outcomes.
4 EMPIRICAL RESULTS
4.1 Measurement Model Evaluation
The statistical evaluation of the measurement model
demonstrated robust internal consistency and
convergent validity for the constructs involved. The
Innovation Management System (IMS) exhibited
factor loadings ranging from 0.711 to 0.897, alongside
a high Cronbach’s alpha of 0.923 and a composite
reliability (CR) of 0.938. The average variance
extracted (AVE) for IMS was 0.686. Openness to
Innovation (OI) exhibited factor loadings between
0.526 and 0.853, with a Cronbach’s alpha of 0.794, a
composite reliability (CR) of 0.859, and an average
variance extracted (AVE) of 0.554. Notwithstanding
the reduced loading of 0.526 for a single OI item, it
was preserved due to its theoretical significance. The
variables of Innovation Performance (IP) exhibited
Table 1: Psychometric properties of the measures.
Construct Factor Loading
(t-value)
Cronbachs’𝜶
Innovation
Management
System
Maturity
IMS1
IMS2
IMS3
IMS4
IMS5
IMS6
IMS7
0.871 (36.939)
0.875 (37.708)
0.778 (22.178)
0.897 (52.946)
0.868 (43.391)
0.711 (16.152)
0.782 (16.449)
0.923
Openness to
Innovation
OI1
OI2
OI3
OI4
OI5
0.853 (36.107)
0.526 (7.796)
0.751 (19.052)
0.780 (21.757)
0.771 (20.370)
0.794
Innovation
Performance
IP1
IP2
IP3
IP4
IP5
0.616 (7.296)
0.793 (19.140)
0.788 (17.942)
0.848 (30738)
0.790 (20.857)
0.830
Construct
Cronbachs’𝜶
CR AVE
Innovation
Management
System
Maturity
0.923 0.938 0.686
Openness to
Innovation
0.794 0.859 0.554
Innovation
Performance
0.830 0.879 0.595
The Impact of Innovation Management Systems on Firms’ Innovation Performance: The Mediating Role of Openness to Innovation
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Table 2: Hypothesis Testing and Control Variables.
Model Relationship
Path
Value
St-Dev p-value
Empirical
Evidence
Hypothesis H1
IMS IP
0.411 0.100 0.000 Yes
Hypothesis H2
IMS OI
0.583 0.061 0.000 Yes
Hypothesis H3
OI IP
0.205 0.097 0.035 Yes
Hypothesis H4
Direct Effect
IMS IP
0.411 0.100 0.000 Yes
Indirect Effect
IMS OI IP
0.119 0.058 0.041 Yes
Total Effect
IMS IP
0.531 0.072 0.000 Yes
Control Variables
SIZE IMS
0.240 0.080 0.003
ICT IMS
0.904 0.349 0.010
ELT IMS
0.612 0.243 0.012
SIZE OI
0.149 0.071 0.036
CR4 OI
0.189 0.061 0.002
PHA OI
0.849 0.274 0.002
loadings ranging from 0.616 to 0.848, with a
Cronbach’s alpha of 0.830, a composite reliability
(CR) of 0.879, and an average variance extracted
(AVE) of 0.595. The model's robustness corresponds
with the literature indicating that loadings between
0.50 and 0.70 are acceptable when overall construct
reliability and validity are substantial (Hair et al.,
2017).
4.2 Structural Model Evaluation
The results presented in Table 2 demonstrate that a
mature Innovation Management System (IMS)
substantially improves Innovation Performance (IP),
as evidenced by a path coefficient of 0.411 and a p-
value of 0.000. This underscores the critical role of
the IMS. Firm size has a positive impact on IMS, but
it does not directly affect IP. Sectors such as ICT and
Electronics exhibit a significant influence on IMS
maturity. Furthermore, IMS maturity significantly
enhances Openness to Innovation (OI), evidenced by
a path coefficient of 0.583 and a p-value of 0.000,
indicating that organizations with advanced IMS are
generally more receptive to innovation. This
transparency enhances IP, as evidenced by a positive
correlation (path coefficient of 0.205, p = 0.035).
Moreover, OI serves as a partial mediator in the IMS-
IP interaction, demonstrated by a notable indirect
effect (path coefficient of 0.119, p = 0.041), while the
overall IMS-IP effect remains robust at 0.531 (p <
0.001). The CR4 concentration ratio of the sector
positively influences OI (path coefficient = 0.189, p
= 0.002), while the pharmaceuticals sector (PHA)
demonstrates a strong positive effect on OI (path
coefficient = 0.849, p = 0.002).
5 DISCUSSIONS
The findings validate that developed IMS
frameworks, particularly those aligned with ISO
56002, markedly improve innovation outputs by
formalizing systematic procedures and promoting
coherence with strategic goals (Silva, 2021; Rezak et
al., 2023). The formalization of innovation processes
allows firms to deploy resources more efficiently,
minimize inefficiencies, and maintain a competitive
edge through ongoing innovation initiatives. This
study illustrates that a properly executed Innovation
Management System (IMS) can harmonize structure
and adaptability, promoting innovation while
ensuring operational consistency, contrary to the
belief that standardization suppresses creativity
(Blind et al., 2013; Giménez et al., 2023).
Furthermore, the mediating function of OI highlights
its significance in enhancing the advantages of IMS
maturity. Companies that actively pursue external
collaborations—such as alliances with startups,
research institutions, or other enterprises—can
enhance their internal capabilities with external
insights, technology, and skills (Chesbrough, 2003;
West & Bogers, 2017). The integration of internal and
external knowledge flows is especially advantageous
in dynamic sectors such as ICT and Pharmaceuticals,
where innovation frequently relies on the capacity to
access and leverage varied external resources
(Laursen & Salter, 2006). Integrating OI methods into
a systematic IMS enables organizations to improve
their agility, resilience, and ability to sustain
innovation. The research emphasizes sectoral and
firm-specific dynamics, indicating that industries
characterized by high technological intensity derive
the greatest advantages from established IMS and OI
processes. It contests the notion that business size is
directly linked to enhanced innovation performance,
indicating that the strategic management of
innovation processes is more pivotal than mere
resource availability (Tidd & Bessant, 2018).
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6 CONCLUSIONS AND
LIMITATIONS
The interplay between Innovation Management
System (IMS) maturity, Openness to Innovation (OI),
and Innovation Performance (IP) provides new
insights into the domain of innovation management.
This research emphasizes the essential function of
structured innovation frameworks in improving
organizations' innovation results by implementing
IMS maturity according to ISO 56002 (International
Organization for Standardization, 2019). The results
validate that a developed IMS allows firms to manage
resources effectively, synchronize innovation
initiatives with strategic objectives, and establish
mechanisms that maintain competitive advantage
through regular innovation outcomes (Silva, 2021;
Giménez et al., 2023). The mediating role of
Openness to Innovation underscores its significance
as a complementary element in enhancing the
advantages of IMS maturity. Organizations with
robust IMS frameworks exhibit enhanced ability to
assimilate external knowledge and partnerships,
resulting in superior innovation performance
(Chesbrough, 2003; Laursen & Salter, 2006). This
synergy highlights the importance of integrating
strong internal systems with dynamic external
interactions to enhance adaptation and resilience in
innovation efforts (West & Bogers, 2017). Sectoral
differences revealed as a crucial factor affecting the
correlation between IMS maturity and innovation
results. Industries with high technological intensity,
such as ICT and Pharmaceuticals, gain substantial
advantages from organized IMS and OI procedures
due to their dependence on external information flows
and collaborations (Idris & Durmusoglu, 2021).
Conversely, industries characterized by dominant
internal innovation capabilities, such as Automotive,
demonstrate less significant effects, indicative of
sector-specific dynamics.
Despite its merits, this work has specific
limitations requiring consideration. The dependence
on self-reported data creates the potential for
subjective biases, as replies may not accurately reflect
the objective reality of organizations' innovation
activity. Subsequent investigations may rectify this
by incorporating objective criteria, such as patent
tallies or new product introductions, to enhance self-
reported assessments (Mir et al., 2016). The
geographical emphasis on Italian enterprises restricts
the generalizability of the results. Incorporating
organizations from varied cultural and economic
backgrounds might enhance the comprehension of
IMS and OI procedures (Laursen & Salter, 2006). The
application of arithmetic means for calculating IMS
dimensions and the uniform weighting of these
dimensions pose methodological constraints.
Subsequent research may enhance the analysis by
employing weighted scoring models or sophisticated
methods such as factor analysis to address the
differing importance of IMS components in affecting
innovation results (Blind et al., 2013). Moreover,
although Openness to Innovation was recognized as a
mediator, its partial influence indicates that additional
mediators—such as digital transformation or
organizational learning—could elucidate the
relationship between IMS and IP more
comprehensively.
This research highlights the revolutionary potential of
combining structured IMS frameworks with strategic
openness to external innovation. By leveraging these
complimentary dimensions, companies can improve
their innovation capability, sustain competitiveness,
and adapt to evolving market dynamics. Subsequent
research ought to further enhance IMS evaluation
instruments, investigate additional mediating factors,
and broaden the analysis to an international
framework to enrich the understanding of innovation
management practices.
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