A Systemic Investigation of Complex IS Framing and Specification - - PowerPoint PPT Presentation

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A Systemic Investigation of Complex IS Framing and Specification - - PowerPoint PPT Presentation

A Systemic Investigation of Complex IS Framing and Specification Dr. Susan Gasson Assistant Professor College of IS & T Drexel University The Design Process Traditional model of decomposition Observed strategy of opportunism


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A Systemic Investigation of Complex IS Framing and Specification

  • Dr. Susan Gasson

Assistant Professor College of IS & T Drexel University

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The Design Process

Traditional model of decomposition Observed strategy of “opportunism” Explanatory model of convergence, between design problem and solution. But what converges?

How do you define or “frame” the design problem and the design solution? Dimensions and process.

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Design As Problem and Solution Convergence

How the individual understands,

  • r “frames” the design problem

How the individual understands, or “frames” the design solution (the designed IS) Time & learning

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Multiple Perspectives Of “The Problem”

Engineering design manager Financial accounting manager IS Manager Production Manager Marketing manager Operations finance manager

Extent of shared understanding. IS problems tend to be defined by groups of people from different work-backgrounds and “knowledge domains”. Individuals interpret models in many different ways, depending upon work-background. Knowledge about “the problem” is distributed between group members and only understood in part by each person.

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The Problem of “The Problem”

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Framing in IS Literature

Concept comes from cognitive psychology Orlikowski & Gash (1994) used concept of “Technological Frames” to represent different understandings of the role of technology in work. Davidson (1996, 2002) extended concept to understand how IT system stakeholders understood what IT is required and the role that this would play. Problem of granularity: this is behavioral and not cognitive research. Problem of explicit vs. implicit knowledge about IS.

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3 Views Of Social Cognition

Socially-situated cognition:

Contextual influences on individual framing

Socially-shared cognition:

Extent of intersubjectivity in framing design (what?).

Distributed cognition:

Ways in which different understandings are communicated and coordinated across group members.

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3 Methods

Grounded theory:

Thematic analysis of process focus over time

Discourse analysis:

Analysis of individual discourse “framing” of problem and solution Examining similarities and differences: Design product Design process Design context – objectives of change / constraints of change / enablers of change

Soft Systems Analysis:

“Surfacing” individual frames of design from these 3 aspects.

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Level

Construct Processes of Interest Research Method Individual Socially- situated cognition (i) How individuals frame design problems/solutions; (ii) How individuals make sense of

  • rganizational context.

Discourse analysis of interviews and design meeting contributions. Guided interviews using SSM techniques Group Socially- situated cognition How a community of professional design practice emerges. Guided interviews using SSM. Analysis of shared metaphors and themes in meeting transcripts. Critical incident elicitation. Socially- shared cognition (i) How group produces joint representations of design; (ii) How groups negotiate shared definitions of design. Evolution of design representations. Analysis of meeting transcripts, by decomposition levels and sequences. Critical incident elicitation. Distributed cognition (i) How groups externalize knowledge (understanding what the group knows and how they know it). (ii) How distributed and partial understandings are coordinated. Guided interviews using SSM, to understand similarities and divergence in perspectives. SSM group workshop. Analysis of triggers for change in design meetings. Competing groups Distributed cognition How groups internalize others’ knowledge (understanding who knows what and how the group can share it). Analysis of triggers for change in design meetings. Guided interviews using SSM to understand changes in "worldview". Organizational context Socially- situated cognition (i) How organizational culture constrains or enables design; (ii) How competing interests of political groups are managed; (iii) How influential organizational stakeholders impact the design. Analysis of triggers for change in design meetings. Guided interviews using SSM to understand changes in "worldview". Ad hoc interviews, to analyze political pressures as triggers for design change.

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Soft Systems Methodology

Peter Checkland's (1981) "soft systems methodology" is a response to difficulty in applying the approach of hard systems (engineering) thinking to business problems. SSM Emphasizes:

Multiple perspectives of a situation Organization goals may be in dispute. It is wrong to assume that all

  • rganizational members accept the views and goals of top

management. Problem negotiation Fixing “the problem” too early tends to hide problems. Making conflicts and differences explicit enables learning and consensus. Human activity systems Modeling different perspectives of systems of purposeful activity, rather than IT system requirements permits a focus on the problems, rather than an over-simplified solution.

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Soft Systems Methodology

SSM is normally used in facilitated groups Action research, with researcher acting as facilitator, to establish shared vision, at a deep level. Used here as a way of interacting/modeling individual perspectives:

Interactive interviews Individual validation of perspectives Group validation workshops.

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SSM: The Method

REAL WORLD

  • 5. Comparison of

Rich Picture and Conceptual Model

  • 6. Feasible and

Desirable Changes

  • 7. Action to improve

the Problem Situation

  • 1. The Problem Situation:
  • unstructured
  • 2. Problem Situation:

Expressed (Rich Picture) SYSTEMS THINKING ABOUT THE REAL WORLD

  • 3. Root Definitions of

Relevant Systems

  • 4. Conceptual Models
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Gap Analysis, Of Customer Bid Process

Single viewpoint of problem situation Description of situation if problem were resolved System transformation SUCCESS = A measurable indicator of problem resolution

No-one delivers on time Team of participants working together to deliver by date

SUCCESS = 95% of bid sections delivered 48 hours before document due

Information needed to compile bid not available Information resources available to all participants

SUCCESS = All info. required for bid is available in electronic library

Bid response is compiled at short notice, so poorly assembled Advance notice is given, so can structured bid

SUCCESS = 95% of Bids requested with 4+ weeks’ warning

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Stage 3: Root Definitions of Relevant Systems

No-one delivers on time Team of participants working together to deliver by date

SUCCESS = 95% of bid sections delivered 48 hours before document due

C = Company and its customers A = Everyone in company T = Coordinate sections of bid AND Manage commitment by participants AND Ensure delivery of sections to deadline W = We lose business because we deliver poorly-coordinated documents and low priority is given to bid preparation. O = Bid process manager E = Functional managers have other priorities for their people than bid preparation.

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Stage 3: Root Definitions of Relevant Systems

Uncoordinated set of participants Coordinated team of participants

C = Company and its customers A = Everyone in company T = Coordinate sections of bid W = We lose business because we deliver poorly-coordinated documents and low priority is given to bid preparation. O = Bid process manager E = Functional managers have other priorities for their people than bid preparation.

SUCCESS = 95% of bid sections delivered 48 hours before document due

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Conceptual Model For Student Transfer Perspective

Determine customer reqs Fit to available products Discuss potential solutions and cost constraints Determine best product configuration Assign elements to individuals Evaluate success (impact on bottom line) * Needs further elaboration Individuals define and cost elements Elements assembled & edited for style/consistency

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Comparison of Models

Examining content of models:

Track convergence of individual, design “frames”

Examining chains of causality:

Understand how different group members link design concepts and phenomena

Use for validation of participant framing:

Facilitated workshops, to frame group design system and change definitions.

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Process Findings

Mobilizing Vision Mobilizing Vision Mobilizing Vision

Problem Definition

Collective breakdown

Goal Reframing Problem Definition

Collective breakdown

Goal Reframing Problem Definition

Collective breakdown

Goal Reframing

So what converges – how do we know when design is done?

  • Not “product” of design
  • Not “process” of design
  • But problem definition, leading to new goals for change at a

VERY deep level – so need SSM to understand this.

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Sources/References

  • References
  • 1.

Orlikowski, W.J. and D.C. Gash, Technological Frames: Making Sense of Information Technology in Organizations. ACM Transactions on Information Systems, 1994. April 1994.

  • 2.

Davidson, E.J., Framing Information System Requirements: An Investigation Of Social Cognitive Processes In Information Systems Delivery Phd Thesis. 1996, MIT MA USA: Sloan School of Managment.

  • 3.

Davidson, E.J., Technology Frames and Framing: A Socio-Cognitive Investigation of Requirements Determination. MIS Quarterly, 2002. 26(4): p. 329-358.

  • 4.

Pettigrew, A.M., Longitudinal Field Research on Change: Theory and

  • Practice. Organizational Science, 1990. 1(3): p. 267-292.
  • 5.

Checkland, P., Systems Thinking Systems Practice. 1981, Chichester UK: John Wiley & Sons.

  • 6.

Checkland, P. and S. Holwell, Information, Systems and Information Systems: Making Sense of the Field. 1998, Chichester UK: John Wiley & Sons.