A Networked Analysis and Engineering Framework for New Business Models
Abstract
:1. Motivation
- Inclusion and management of social, technological, economic and ecological aspects in information systems engineering to foster service design, aiming at ensuring successful integration and acceptance of digital artifacts in STSs.
- Fostering sustainable business model analysis and design by providing multifaceted insights into needs of users and service providers, legal constraints and dynamics of value exchanges.
2. Introduction
3. The Need for a Networked Values-Based Modeling Tool Complementing Existing Frameworks
- Network perspective: As indicated above, business model innovation frameworks need to take a network-centric perspective on the entire ecosystem of actors co-creating value propositions, rather than focusing on a single firm or actor (ego-centric). Regarding this aspect, we analyzed if the framework includes a network perspective as a conceptual or theoretical underpinning depicted as “implicit” and if this network perspective is also represented in the visualization of the framework, depicted as “explicit”.
- Type of visual representation: According to the categorization of visualization forms of business model frameworks of Täuscher and Abdelkafi [36], we structured this criterion into:
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- Elements or component based view: A typical example for this form of business model frameworks is the BMC where predefined tiles provide a basic static structure to be filled. According to Täuscher and Abdelkafi [36] (pp. 164f), a framework “[…] is assigned to the elements view when it contains a specific specification of different business model elements, or if it represents a template to be filled out with such information.”
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- Transactional view: This category is characterized by elements representing actors or stakeholders of a business model and arrows in between them which represent value exchanges [36]. Typical examples thereof are value network notations such as e3 Gordijn et al. [37], Allee’s framework [38] or Biem and Caswell’s value network notation [39]. However, as stated by Breuer and Lüdeke-Freund [17] (p. 162):“While the traditional view of value networks focuses on the creation of competitive advantages and economic value for network members, it does not consider their notions of the desirable and normative orientations, which may motivate the formation and persistence of networks, or which may lead to their collapse in the case of diverging and incompatible values. Although the value network framework by Allee (2000, 2011), as a prominent example, extends the notion of value to account for the exchange of goods and services, knowledge, and intangible benefits such as customer loyalty or image enhancement, it does not include the underlying value commitments and normative orientations of exchange partners.”
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- Stakeholder needs and satisfiers: As described by Breuer and Lüdeke-Freund [17] (p. 162) referring to Peppard and Rylander [40] (p. 135) “[p]erceived value is a key driver of behaviour which in turn is a key force of network development.” By explicitly representing the needs and the satisfiers of an actor, the perceived value may be anticipated and visually represented. As described by Täuscher and Abdelkafi [36], visual representation of business model systems supports experts to cope with complexity and analyze the relationships of a system [41,42]. Furthermore, Täuscher and Abdelkafi [36] highlighted that it frees cognitive processing power [43] and fosters communication with other experts on different organizational levels and external stakeholders [44]. Therefore, the visual representation of values, their satisfiers and the level of needs met is seen as important for analyzing values-based networks and as a consequence is included into the analysis structure of existing NBMs as follows:
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- Explicating needs: The needs of the actors or stakeholders are explicitly represented in a visual form.
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- Explicating satisfiers and needs met: The satisfiers and results of satisfiers as level of needs met are explicitly represented in a visual form.
“The end-user is the person who ‘consumes’ the value proposition. This space is concerned with how the value proposition addresses the needs of the end-user, contributing to his/her quality of life. Users with similar needs have typically been segmented based on relevant demographics—e.g., age, income, ethnicity, education level, etc.”.[33] (p. 1481)
This networked aspect is not represented in the visualization of the framework. It can be categorized as a component based framework [34] (p. 10). It does not explicitly visualize needs. The concept of satisfiers can be interpreted to be implicitly covered by the extensions for social and environmental value streams and propositions [34] (pp. 1ff). Nevertheless, there is no networked visualization of these aspects provided by the framework.“Energy systems are inherently complex, large sociotechnical systems, in that they consist of large number of actors, interacting through networks under changing infrastructures and institutional structures, aiming to provide services including warmth, power and lighting to users”.[45]
4. Contribution to Related Fields
4.1. Business Information Systems Engineering and Business Model Innovation
- Static business model frameworks: These frameworks structure aspects of a business model and describe business model elements in a static way. Frameworks such as [2,54,55,56,57] provide important elements or building blocks of business models including the value proposition aspect. The value proposition and how it is realized in a value network is, beside the structure inherent to value distribution for customers including revenue mechanisms and cost structures and the strategic position of the firm, also an important aspect of the more descriptive concept of a business model provided by Chesbrough [1]. Analog to this, various sustainable business model frameworks emerged in recent years. Prominent examples of these frameworks are analyzed in detail in Section 3 and are therefore not explained in more detail here.
- Service and business model innovation process frameworks: These frameworks guide the development process of new products and services and are often combined with the static business model representations or frameworks discussed above. They range from more design oriented frameworks such as the service design thinking process of Stickdorn and Schneider [58], to frameworks targeted at business ventures such as the “Five E” framework consisting of exploration, elaboration, evaluation, experimentation and evolution activities of Breuer [59]. Another important framework specifically targeted at business models with service-dominant logics was provided by Ojasalo et al. [60], who defined four phases: (1) Map and Understand; (2) Forecast and Ideate; (3) Model and Evaluate; and (4) Conceptualize and Influence. In the area of viable and societally acceptable business models, the already aforementioned “Value Mapping Tool” by Bocken et al. [16] is intended to be applied in a workshop setting to facilitate the innovation process of business models from a multi-stakeholder perspective. Beside the analysis of the current value proposition, the tool helps to identify: (1) opportunities for the creation of new values (e.g., potential new services or products); (2) values that are currently missed (e.g., potentials that are not realized by partners); and (3) values that are currently destroyed (e.g., negative social impacts, or pollution of environment) as a result of current value creation practices [16], Furthermore, Breuer and Lüdeke-Freund [17] also provided a structured process for their values-based innovation management approach as a part of their business innovation kit.
4.2. Sustainable Development and New Business Models
4.3. Responsible Research and Innovation, and Value Sensitive Design
- Upstream activities: These activities can be seen as pre-project activities, which include for example strategic planning of research strategies of funding agencies and also the phase of writing research bids from a researcher’s perspective.
- Midstream activities: These activities include actions aimed at ensuring sustainable design during the research or development project.
- Downstream activities: Activities in this phase include actions related to sustainability when the developed services or products reach a maturity level of a marketable product.
“Responsible Innovation is an activity or process which may give rise to previously unknown designs pertaining either to the physical world (e.g., designs of buildings and infrastructure), the conceptual world (e.g., conceptual frameworks, mathematics, logic, theory, software), the institutional world (social and legal institutions, procedures, and organization) or combinations of these, which—when implemented—’expand the set of relevant feasible options regarding solving a set of moral problems’ ”.[71] (p. 82)
5. Methods
6. The Layers and Concepts of the Service Analysis and Engineering Framework for New Business Models
6.1. Value Exchange and Resources Layer
- Name: The name or designation of the actor.
- Capabilities: The capabilities are all dynamic aspects such as activities or processes an actor contributes to the value network.
- Assets: The assets are all the tangible and intangible resources (e.g., IT-systems or knowledge) an actor can contribute to the network.
6.2. Values and Needs Layer
- The explicit consideration of social and sustainable aspects during detailed service and value network design.
- The inclusion of a networked and holistic view of the values and needs of all actors in a value network.
- Functional Needs (FN): Needs for a specific functionality to, e.g., support in getting a job or a process done. According to Partsch [82], functional requirements define functional aspects of a system, or what a system or process should be able to accomplish.
- Non-functional needs represent the human side of needs and can further be classified into
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- Technical non-functional needs (TNFN): Non-functional needs of actors which need to be fulfilled by the system/service such as handling and design of the user interface and quality requirements to determine the quality of the system (based on Rupp [83]).
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- Social economic needs (SEN): Needs of customers (actors) in terms of how customers (actors) want to be perceived by others in economic terms, e.g., bragging and feeling better than others (based on the concept of social jobs in [3]).
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- Social human needs (SHN): Needs of customers (actors) in terms of doing good to others or the environment. This aspect covers all three dimensions of a sustainable development including environmental societal and economic aspects, which need to be arranged in a livable, equitable, and viable way to create sustainable business models [51] (based on Environment [8]). This aspect is thus focused more on a person’s external environment in a societal, economic and ecological sense.
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- Ethical needs (EN): The need of complying with an individual’s (actor’s) ethics theory [51]. In contrast to the aspect of social human needs, ethical needs are more person centric and focused on a person’s ethical theory. For example, the ethical need of privacy is represented by the fact that an employee wants to know and determine what information about himself or herself is communicated to others (e.g., current location of employee in a plant).
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- Safety needs (SN): The need for preserving the customer’s (actor’s) need of safety when using the service (e.g., work and consumer safety).
6.3. Legal Layer
6.4. Dynamics and Motivation Layer
- Endogenous motivation: This aspect describes the level of motivation of persons within an economic entity or actor and is based on the “expectancy theory” of Vroom [85]. The level of motivation is determined by the expected valued outcome for the person when performing the value provision.
7. Case Study
8. Discussion
- Approaching business models with a network-focused rather than an ego-centric view, as highlighted by Bocken et al. [16] (p. 488) and Breuer and Lüdeke-Freund [24]. Based on this, the networked approach in the presented framework facilitates the quest for a balanced optimum on a network level rather than a local optimum for single actors resulting in possible negative effects on the value dynamics perspective. Our merit here is to provide a multi-layered toolbox that facilitates the modeling, analysis and communication of multiple aspects on the detailed level of value networks.
- Integration of values in an extended sense including social, ecological and technical aspects in addition to economic aspects into service and business model innovation. This aspect is built on various pillars from different research strands such as Responsible Research and Innovation [52], Value Sensitive Design [69] and New Business Models [24]. Our merit here is the integration of these aspects on a detailed, but from our point of view necessary fine grained level in the form of the multi-layered analysis and design toolbox presented above.
9. Conclusion and Outlook
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
References
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Framework | Network Perspective | Type of Representation | Stakeholder Needs | ||||
---|---|---|---|---|---|---|---|
Implicit | Explicit | Component Based | Transaction Based | Causality Based | Explicating Needs | Explicating Satisfiers | |
Strongly Sustainable Business Model Canvas [31] | business’ value network [31] (p. 2) | - | yes | - | - | visualization not networked | through value propositions [31] (p. 5) visualization not networked |
Value Mapping Tool [16] | stakeholder network [16] (pp. 485, 488) | stakeholder groups [16] (pp. 489f), but no networked representa- tion [16] (p. 488) | yes | - | - | implicit in value dimensions [16] (p. 488) | implicit in value dimensions [16] (p. 488), visualization not networked |
Values-based Innovation [17,24] | network of actors [24] (pp. 1ff) | networked structure [24] (p. 16) | yes, in the Business Innovation Kit [17] (p. 194) | - | - | implicit in [24] (pp. 15f), visualization of needs not networked | implicit [24] (p. 16), visualization not networked |
Sustainable Business Canvas [32] | analysis of environ- ment [32] (p. 6) | - | representation in [32] (p. 7) | - | - | questions in [32] (p. 12), no explicit modeling | questions in [32] (pp. 10, 12), no explicit modeling |
Triple Layered Business Model Canvas [33] | - | - | yes [33] (p. 1483) | - | - | through value proposition [33] (p. 1481), visualization not networked | indirect in value proposition and social stakeholder layer [33] (p. 1481), no networked visualization |
BMC extended for infrastruc- ture [34] | STS, actors, networks [34] (p. 4) | - | yes [34] (p. 10) | - | - | value proposition [34] (p. 10), no networked visualization | value proposition and stream extensions [34] (p. 10), no networked visualization |
Value triangle and VT BMC [19] | co-creation [19] (pp. 755f) | - | yes [19] (pp. 755ff) | - | - | through value propositions [19] (pp. 755ff), no networked visualization | through value propositions [19] (pp. 755ff), no networked visualization |
Visual Coding Scheme for Sustainable Business Models [35] | boundary-spanning perspective [35] (p. 4514) | yes [35] (p. 4517) | - | yes [35] (p.4516) | - | - | implicit through value transfer [35] (p. 4516) |
Symbol | Existing Business Model | Planned Business Model |
---|---|---|
An “L” covered with a green rectangle | The value exchange is compliant with legal regulations | The value exchange is compliant with legal regulations |
An “L” covered with a yellow rectangle | The value exchange needs special attention (e.g., due to anticipated changes of legal regulations in near future) | Minor actions (e.g., notification of the data protection board about planned data exchanges between actors) need to be done to be compliant with existing legal regulations |
A crossed out “L” covered with a red rectangle | The value exchange is not compliant with existing law. Action required | The planned value exchange is not compliant with existing legal regulations and an amendment of these regulations would be required to permit the value exchange |
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Vorraber, W.; Müller, M. A Networked Analysis and Engineering Framework for New Business Models. Sustainability 2019, 11, 6018. https://doi.org/10.3390/su11216018
Vorraber W, Müller M. A Networked Analysis and Engineering Framework for New Business Models. Sustainability. 2019; 11(21):6018. https://doi.org/10.3390/su11216018
Chicago/Turabian StyleVorraber, Wolfgang, and Matthias Müller. 2019. "A Networked Analysis and Engineering Framework for New Business Models" Sustainability 11, no. 21: 6018. https://doi.org/10.3390/su11216018