Week Monday, October 24 • IT Project Management • Decision and Group Support • Knowledge Work R. Ching, Ph.D. • MIS • California State University, Sacramento 1 Project Management • Application of knowledge, skills, tools and techniques to project activities to meet project requirements • Processes involve: initiating, planning, executing, controlling and closing • Knowledge areas involve: integration (coordination), scope (project boundary), time, cost, quality, human resources, communication, risk, and procurement R. Ching, Ph.D. • MIS • California State University, Sacramento 2 Project Manager • Setting up the project – establish the scope, time frame and deliverables • Managing the schedule – coordinating activities and resources, and schedule of deliverables • Managing the finances – costs, cash flows, benefits • Managing the benefits – profitability, cost reductions, changes to working capital, and adherence to regulatory/legal reform • Managing the risks, opportunities and issues – identify and weigh • Soliciting independent reviews R. Ching, Ph.D. • MIS • California State University, Sacramento 3 Change Management • Helping people to accept change – Overcoming resistance – Accept and adopt changes R. Ching, Ph.D. • MIS • California State University, Sacramento 4 Lewin-Schein Model for Change Getting people to change their “behavior.” Unfreeze Move Freeze Prepare for change Implement change Stop change • Convincing people to accept change • Selling the benefits of change • Managing change R. Ching, Ph.D. • MIS • California State University, Sacramento • Assurance that change comes with predefined goals • Stopping change with goals are achieved 5 Lewin’s Theory of Change Driving Forces Change Restraining Forces Driving forces must overcome restraining forces R. Ching, Ph.D. • MIS • California State University, Sacramento 6 Fred Davis’ Perceived Usefulness, Perceived Ease of Use, and Perceived Use • Perceived Ease of Use – Self-efficacy beliefs: Perceived exertion level to implement behavioral change • Perceived Usefulness – Outcome beliefs: Perceived success resulting from behavioral change Perceived Use R. Ching, Ph.D. • MIS • California State University, Sacramento 7 Fred Davis’ Perceived Usefulness, Perceived Ease of Use, and Perceived Use Perceived Ease of Use Perceived Use Perceived Usefulness Perceived use is the best predictor of actual future use If a person believes the amount of expended energy to adapt to a new system will place him/her in a better position as a result of its use, he/she is more likely to commit him/herself to using it. R. Ching, Ph.D. • MIS • California State University, Sacramento 8 Risk Management • Types of risk – Technical – failure due to technology – Business – failure do due organizational issues • Assessment of risks – Project’s leadership – commitment, experience, abilities, formal and informal management skills – Employee’s perspective – acceptance to change – Scope and urgency – extent of change (breadth and depth), need to implement change R. Ching, Ph.D. • MIS • California State University, Sacramento 9 Risk Management Employees’ Perspective Leadership Likelihood of Business Recommended Project Scope Change Project Method and Urgency High Big Bang + + Guided Evolution + + + - R. Ching, Ph.D. • MIS • California State University, Sacramento Top-down Coordination - - Championed Dealmaker Championed Improvision + Champion Guided Evolution - Migrate or Kill the Project + Low More Risky - - Less Risky Improvisation - 10 Other Aspects of IT Project Management Based on a Survey of 10 Executives in Sacramento • Develop and compare feasibility, complexity, scalability and cost of possible solutions • Project portfolio – investing in the right projects • Aligning projects and initiatives to strategic objectives • Risk management – risk considerations, factors and plans – Contingency plans • Managing multiple vendors and workflow • Regulatory and compliance issues • Leveling resources over projects – human, financial, technical R. Ching, Ph.D. • MIS • California State University, Sacramento 11 Other Aspects of IT Project Management Based on a Survey of 10 Executives in Sacramento • Project planning, execution and scheduling – Prioritizing, defining performance measures, tracking processes to ensure performance, schedule resources, project monitoring, change and service controls, quality assurance and testing, identify key drivers • Project leadership – Assessing change and change management, communication and organizational skills • Adoption issues • Identify and understanding stakeholders R. Ching, Ph.D. • MIS • California State University, Sacramento 12 Good IT Project Management • • • • • • • • • • Deliver on time Successful project Come in or under budget characteristics Meet the original objectives Establish ground rules Foster discipline, planning, documentation and management Obtain and document the “final” user requirements Obtain tenders from all appropriate potential vendors Include suppliers in decision making Convert existing data Follow through after implementation R. Ching, Ph.D. • MIS • California State University, Sacramento 13 Value of a System or Application • Benefits the business will receive from the IT – IT by itself provides no benefits or advantages • Measuring benefits – Distinguish between the different roles of the systems – support role, integral to strategy, or product/service offering – Measure what is important to management – Assess investments across organizational levels R. Ching, Ph.D. • MIS • California State University, Sacramento 14 Measuring Benefits: Role of System • Measuring organizational performance – ability to support the organization and its users with their tasks • Measuring business value – help meeting organizational and business goals • Measuring a product or service – profitability of product or service R. Ching, Ph.D. • MIS • California State University, Sacramento 15 Measuring Benefits: Importance to Management • IT is usually not viewed as a revenue generator – Investment to improve the business • Corporate effectiveness • Less tangible benefits includes – Customer relations (satisfaction) – Employee morale – Time to complete an assignment R. Ching, Ph.D. • MIS • California State University, Sacramento 16 Measuring Benefits: Across the Organization Sources of Value • Potential benefits differ at various organizational levels • Dimensions – Economic performance payoffs (market measures of performance) – Organizational processes impact (measures of process change) – Technology impacts (impacts on key functionality) R. Ching, Ph.D. • MIS • California State University, Sacramento Assess IT’s impact in each cell 17 Value of IT Investments to Investors • Brynjolfsson, Hitt and Yang study – Every $1 of installed computer capital yielded up to $17 in stock market value, and no less than $5 – Led to organizational changes that created $16 worth of “intangible assets” – Past IT investments correlated with higher current market value R. Ching, Ph.D. • MIS • California State University, Sacramento 18 Value of IT Investments to Investors • Brynjolfsson and Hitt study – Organizational factors correlated to and complemented IT investments • Use of teams and related incentives • Individual decision-making authority • Investments in skills and education • Team-based initiatives – Businesses making the highest IT investments not only invest in IS but also invest in making organizational changes to complement the new IS R. Ching, Ph.D. • MIS • California State University, Sacramento 19 Value of IT Investments to Investors • Brynjolfsson and Hitt study (cont.) – Led to adoption of decentralized work practices • Frequent use of teams • Employees empowered (i.e., given broader decisionmaking authority) • Offer more employee training R. Ching, Ph.D. • MIS • California State University, Sacramento 20 Value of IT Investments to Investors • Brynjolfsson, Hitt and Yang study – Companies with the highest market valuation had the largest IT investments and decentralized work practices – Market value of investing in IT is substantially higher in businesses that use these decentralized practices because each dollar of IT investment is associated with more intangible assets because the IT investments complement the work practices Other resource IT Leveraging R. Ching, Ph.D. • MIS • California State University, Sacramento 21 Decision and Group Support R. Ching, Ph.D. • MIS • California State University, Sacramento 22 R. Ching, Ph.D. • MIS • California State University, Sacramento Required Accuracy Frequency of Use High Very frequent Currency Time Horizon Historical Highly current Level of Aggregation Strategic Planning Detailed Scope Well defined Operational Control Source Management Control Internal Infrequent Low Quite old Future Aggregate Wide External Anthony's Taxonomy of Managerial Activities Matching Information to Management Levels 23 Decision Making and Problem Solving Herbert Simon’s Phases of Decision Making Intelligence Design Choice R. Ching, Ph.D. • MIS • California State University, Sacramento 24 Decision Making and Problem Solving Herbert Simon’s Phases of Decision Making Intelligence Design Choice Intelligence: • Organizational objectives • Search and scanning procedures • Data collection • Problem identification • Problem ownership • Problem classification • Problem statement Turban and Aronson, 1998 R. Ching, Ph.D. • MIS • California State University, Sacramento 25 Decision Making and Problem Solving Herbert Simon’s Phases of Decision Making Intelligence Design Design • Formulate a model • Set criteria for choice • Search for alternatives • Predict and measure outcomes Choice Choice • Solution to the model • Sensitivity analysis (what-if, goal seeking) • Selection of best (good) alternative(s) • Plan for implementation Turban and Aronson, 1998 R. Ching, Ph.D. • MIS • California State University, Sacramento 26 Structured vs. Unstructured vs. Semi-Structured Decision Making • Structured Decisions: A procedure (i.e., rules, algorithms, etc.) can be followed in each phase of decision making and provides the decisionmaker with a correct solution. • Unstructured Decisions: No procedures are available to guide the decision-maker during any of the phases of decision making. • Semi-Structured Decisions: Occur when procedures are available to guide the decisionmaker in one or two of the decision making phases, but not in all of them R. Ching, Ph.D. • MIS • California State University, Sacramento 27 Decision Making in the Organization Management Level Types of Decisions Operational Control Management Control Strategic Planing Structured Greater Opportunities Semi-Structured Unstructured R. Ching, Ph.D. • MIS • California State University, Sacramento Greater Opportunities 28 Decision Making Techniques Satisficing and Heuristic Approaches, Effectiveness Strategic Planning Management Control Operational Control Optimization, Efficiency R. Ching, Ph.D. • MIS • California State University, Sacramento 29 Decision Support Systems (DSS) Characterized as • Computer-based systems that help decision makers confront ill-structured problems through direct interaction with data and analysis models R. Ching, Ph.D. • MIS • California State University, Sacramento 30 Decision Support Systems • A DSS is an interactive computer-based system that utilizes decision models, gives users easy and efficient access to significant data bases, and provides display possibilities. The flexible capabilities of a DSS gives the user the opportunity to ask for information, to test out alternative ways of viewing the problem, to subsequently ask for different information, to use preprogrammed models, to construct his own decision-aiding models, etc. King, 1983 R. Ching, Ph.D. • MIS • California State University, Sacramento 31 Major Components of a DSS Data Management • Database • Data Warehouse DSS Software Dialog Component Decision Maker R. Ching, Ph.D. • MIS • California State University, Sacramento Model Management Models • Strategic, tactical, operational • Financial • Statistical analysis • Graphical • Project management Turban and Aronson, 1998 Sauter, 1997 32 DSS and Problem Solving • A DSS facilitates the decision-maker in solving ill-defined or underparameterized problems. • Its most distinguishing feature is its ability to incorporate the judgment, knowledge, intuition, decision style and personal traits of the decision-maker into the solution. • In a DSS environment, the decision-maker remains in control of the decision making process and directs the formulation of the solution. • As opposed TPS and MIS solutions, a DSS solution does not always represent the best solution (i.e., maximum, minimum, optimum) since qualitative factors are usually considered during the decision making process. R. Ching, Ph.D. • MIS • California State University, Sacramento 33 Ski Resort Planning DSS An Application of Decision Support R. Ching, Ph.D. • MIS • California State University, Sacramento 34 Ski Area Planning • All ski area physical designs require basically the same inputs and the decision making process is the same • Each resort offers a unique system of trails that appeals to different skill levels and social groups • Long-range objective is to maximize profits for the given terrain and market mix • An optimum design concentrates on balancing the downhill and uphill capacities • The system of trails cannot be easily changed once they have been carved R. Ching, Ph.D. • MIS • California State University, Sacramento 35 Ski Area Planning • (cont.) • Summer activities can complicate the design • The industry is capital intensive R. Ching, Ph.D. • MIS • California State University, Sacramento 36 Ski Resort Planning Primary Objective Downhill Capacity (Trails) Production Capacity R. Ching, Ph.D. • MIS • California State University, Sacramento = Uphill Capacity (Lifts) Market Demand 37 Ski Resort Planning • Terrain Capacity Analysis – Examine the physical attributes of the mountain – Create initial set of trails – Determine the mountain's downhill capacity (i.e., trail system) • Market Analysis – Match the trail system to the market mix R. Ching, Ph.D. • MIS • California State University, Sacramento Downhill Capacity “Best” Design Uphill Capacity 38 Topography Map (Terrain) Steep slope Expert and advance trails Lift Lift Lift Gentle slope Lift Novice and beginner trail Each circle represents an altitude change of 250 feet R. Ching, Ph.D. • MIS • California State University, Sacramento 39 Topographical Map An Example Source: Dept. of Geosciences, Idaho State University R. Ching, Ph.D. • MIS • California State University, Sacramento 40 Physical Design • Physical terrain and constraints – Slope of mountain sides – Physical obstacles (e.g., cliffs, boulders, creeks, etc.) – Aesthetics (i.e., forest scenery) • Designer selects the initial layout – Initial set of trails • Downhill capacity of skiers calculated – Number of skiers per acre (judgmental) • Type of skier (i.e., skill level) • Regional density R. Ching, Ph.D. • MIS • California State University, Sacramento 41 Market Analysis • Objective: match the trail system to the market demands • Seven skier skill levels – Beginner – Novice – Low intermediate Market Mix: Percentage – Intermediate from each category – High intermediate – Advance – Expert R. Ching, Ph.D. • MIS • California State University, Sacramento 42 Decision Support System • Calculates trail system capacity – Matches skill levels to trail via slope grades – Takes into account the skier density per acre by skill level • Calculates the market mix of skier skill levels – Provides the expected numbers from a given market mix distribution R. Ching, Ph.D. • MIS • California State University, Sacramento 43 Decision Support System (Cont.) • Balances trail system to market mix – Changes input parameters: • Trail attributes • Density levels • Market mix distribution • Examines uphill capacity R. Ching, Ph.D. • MIS • California State University, Sacramento 44 Terrain Capacity Analysis: Slope Inventory R o u t e V e r t i c a l L o w / T o p A c r e s S k i l l L e v e l I D L e n g t h L e n g t h W i d t h % G r a d e / S k i e r s N o v i c e 1 . 0 15 0 03 0 0 01 0 08 / 2 5 6 . 9 / 2 7 5 L o w 2 . 0 15 0 02 8 0 01 5 01 5 / 3 09 . 6 / I n t e r m e d i a t e 2 8 9 I n t e r m e d i a t e9 . 0 38 0 03 6 0 01 5 02 0 / 4 01 2 . 4 / 2 4 8 H i g h 1 0 . 0 3 1 0 0 04 2 0 01 5 02 0 / 4 51 4 . 5 / I n t e r m e d i a t e 2 1 7 A d v a n c e 1 2 . 0 3 1 0 0 04 3 0 01 5 02 0 / 6 01 4 . 8 / 1 4 8 E x p e r t 1 1 . 0 3 1 0 0 04 0 0 01 5 06 0 / 2 21 3 . 8 / 1 3 8 R. Ching, Ph.D. • MIS • California State University, Sacramento 45 Market Display: Design for 3,837 Skiers Skill Level Beginner Novice Low Intermediate Intermediate High Intermediate Advance Expert Goal .05 .10 .20 .30 .20 .10 .05 Number of Skiers Goal Current 192 224 384 1166 767 1418 1151 478 767 217 384 164 192 170 Market percent Computed by the DSS estimated by the planner R. Ching, Ph.D. • MIS • California State University, Sacramento 46 Skill Balance S k i l l L e v e l A c r e s S k i e r s D e n s i t y B e g i n n e r 4 . 51 0 0 2 2 . 3 N o v i c e 2 9 . 22 0 06 . 9 L o w I n t e r m e d i a t e 4 7 . 34 0 08 . 5 I n t e r m e d i a t e 2 3 . 96 0 0 2 5 . 1 H i g h I n t e r m e d i a t e 1 4 . 54 0 0 2 7 . 7 A d v a n c e 1 6 . 42 0 0 1 2 . 2 E x p e r t 1 7 . 01 0 05 . 9 S u m 1 5 2 . 7 2 0 0 0 1 3 . 1 Designed into layout R. Ching, Ph.D. • MIS • California State University, Sacramento Estimated for market Skiers per acre 47 Ski Resort Planning DSS • Iterative process – Adjusts made to physical design – Skier capacities for each level are recalculated and compared to the market demand estimates – Process ends when the uphill capacity (i.e., market demand) is approximately equal to the downhill capacity (i.e., physical layout) R. Ching, Ph.D. • MIS • California State University, Sacramento 48 Data Mining • Knowledge discovery: – Knowledge extraction – Data archaeology – Data exploration – Data pattern processing – Data dredging – Information harvesting R. Ching, Ph.D. • MIS • California State University, Sacramento 49 Data Mining • Five common types of information obtained by data mining: – Classification – Clustering – Association – Sequencing – Forecasting R. Ching, Ph.D. • MIS • California State University, Sacramento 50 OLAP and Multi-dimensional Database (MDDBMS) Products Geographic locations Time is an implied dimension R. Ching, Ph.D. • MIS • California State University, Sacramento Sales medium (e.g., retail, Internet, mail order) 51 Multi-dimensional Database (MDDBMS) For example… Computers Products Printers Scanners Retail Mail Internet Sales medium Cameras Geographic locations R. Ching, Ph.D. • MIS • California State University, Sacramento 52 Multi-dimensional Database (MDDBMS) Working with Two Dimensions Internet Q1 ‘95 April Electronics ‘96 Total Revenue Q2 May ‘97 Mail Order Audio Receivers Speakers ‘98 Q3 ‘99 Q4 June Retail Repeated for each quarter Repeated for each medium Repeated for each year R. Ching, Ph.D. • MIS • California State University, Sacramento Speakers CD/DVD Visual Entertainment 53 Multi-dimensional Database (MDDBMS) Working with Three Dimensions Internet Q1 ‘95 USA Electronics ‘96 Total Revenue Q2 N. America ‘97 Mail Order Europe ‘98 ‘99 Q4 Receivers Speakers Q3 Aisa Audio Retail Speakers CD/DVD Visual Entertainment R. Ching, Ph.D. • MIS • California State University, Sacramento 54 Time dimension Retail sales dimension Dimensions R. Ching, Ph.D. • MIS • California State University, Sacramento Oracle Express 55 Distribution channels dimension Retail sales dimension R. Ching, Ph.D. • MIS • California State University, Sacramento 56 Geographic Information Systems (GIS) • Computer-based system for capturing, storing, checking, integrating, manipulating, and displaying data using digitized maps R. Ching, Ph.D. • MIS • California State University, Sacramento 57 Geographic Information Systems (GIS) • Computer-based system for capturing, storing, checking, integrating, manipulating, and displaying data using digitized maps Telecommunications, Teligent IT/Applications, Vienna, Virginia By Jubal Harpster, Mike Ruth, and Brian Sandrik R. Ching, Ph.D. • MIS • California State University, Sacramento 58 GIS A GIS combines layers of information about a place to give you a better understanding of that place. What layers of information you combine depends on your purpose— finding the best location for a new store, analyzing environmental damage, viewing similar crimes in a city to detect a pattern, and so on. Source: GIS.com R. Ching, Ph.D. • MIS • California State University, Sacramento 59 Source: Edgetech America (discovergis.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 60 Source: Edgetech America (discovergis.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 61 Source: Edgetech America (discovergis.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 62 Source: Edgetech America (discovergis.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 63 Source: Edgetech America (discovergis.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 64 Source: Edgetech America (discovergis.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 65 Based on acceleration of gravity and epicenters of actual significant events showing magnitude of event (Richter scale) (1900 - 1994) R. Ching, Ph.D. • MIS • California State University, Sacramento 66 R. Ching, Ph.D. • MIS • California State University, Sacramento 67 Earthquake Probability and Transportation Network R. Ching, Ph.D. • MIS • California State University, Sacramento 68 Transportation and Unemployment Source: Edgetech America (discovergis.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 69 Group Support Systems (GSS) Collaborative Computing R. Ching, Ph.D. • MIS • California State University, Sacramento 70 Characteristics of the Group Tasks • Problem solve poorly structured problems • Long-range or strategic impact • Organizational impact R. Ching, Ph.D. • MIS • California State University, Sacramento 71 Nature of Group Decision Making • Group may be involved in a decision or decision-related task • Characterization – Joint activity engaged in by a group of people of usually equal or near equal status – Outcome of the meeting depends partly on • The knowledge, opinions and judgments of its participants • The composition of the group • The decision making processes used by the group R. Ching, Ph.D. • MIS • California State University, Sacramento 72 Nature of Group Decision Making • Characterization (cont.) – Differences in opinion are settled either by the ranking person present, or through negotiation or arbitration Turban and Aronson, 1998 R. Ching, Ph.D. • MIS • California State University, Sacramento 73 Potential Benefits of Group Work • • • • Groups are better than individuals at understanding problems People are accountable for decisions in which they participate Groups are better than individuals in catching errors A group has more information (knowledge) than any one member • Groups can combine knowledge and create new knowledge which may result in more alternatives and better solutions R. Ching, Ph.D. • MIS • California State University, Sacramento 74 Potential Benefits of Group Work • Synergy during problem solving may be produced • Working in a group can stimulate the participants and process • Group members have their ego embedded in the decision and therefore will commit themselves to the solution • Risk propensity is balanced (high risk takers vs. conservatives) Turban and Aronson, 1998 R. Ching, Ph.D. • MIS • California State University, Sacramento 75 Potential Dysfunctions of Group Work • Social pressures of conformity that may result in groupthink • Time-consuming, slow process (single processing) • Lack of coordination of work done and poor planning of meetings • Inappropriate influences (i.e., domination of time, topic or opinion by one or few individuals, fear of speaking) • Tendency of group members to rely upon others to do most of the work • Tendency toward compromised solutions of poor quality R. Ching, Ph.D. • MIS • California State University, Sacramento 76 Potential Dysfunctions of Group Work • Incomplete task analysis • Nonproductive time (due to socializing, getting ready, waiting for people) • Tendency to repeat what was already said • Large cost of making decision (hours of participation, travel cost, etc.) • Tendency to make riskier decision than should • Incomplete or inappropriate use of information • Inappropriate representation of the group Turban and Aronson, 1998 R. Ching, Ph.D. • MIS • California State University, Sacramento 77 GSS • An information technology (IT)-based environment that supports group meetings, which may be distributed geographically and temporally. The IT environment includes, but is not limited to, distributed facilities, computer hardware and software, audio and video technology, procedures, methodologies, facilitation, and applicable group data. Group tasks include, but are not limited to communication, planning, idea generation, problem solving, issue discussion, negotiation, conflict resolution, system analysis and design, and collaborative group activities such as document preparation and sharing. Dennis et al., 1988 R. Ching, Ph.D. • MIS • California State University, Sacramento 78 GSS • A GSS is an interactive computer-based system that facilitates the solution of unstructured problems by a set of decision makers working together as a group. • Components of a GSS include: – Hardware – Software – People – Procedure • These components are arranged to support a group of people, usually in the context of a decision-related meeting. R. Ching, Ph.D. • MIS • California State University, Sacramento 79 Components of a GSS Database Model Base GSS Processor Groupware Dialogue Manager Users R. Ching, Ph.D. • MIS • California State University, Sacramento 80 GSS Layout White Board Projection Screen White Board Facilitator Console and Network Server Projector Workstations R. Ching, Ph.D. • MIS • California State University, Sacramento 81 Whiteboard Facilitator’s station Projection screens Individual workstations US Air Force Innovation Center Group Decision Support Systems, Inc. (www.gdss.com) R. Ching, Ph.D. • MIS • California State University, Sacramento 82 GDSS Decision Center Group Decision Support Systems, Inc. (www.gdss.com) USMC HQ Executive Decision Room R. Ching, Ph.D. • MIS • California State University, Sacramento Group Decision Support Systems, Inc. (www.gdss.com) 83 Facilitator Group Decision Support Systems, Inc. (www.gdss.com) DC OTR IV & V Center, The Washington, DC Office of Tax and Revenue R. Ching, Ph.D. • MIS • California State University, Sacramento 84 Projection screens Electronic whiteboard Facilitator’s station Group Decision Support Systems, Inc. (www.gdss.com) The Airlie Institute, located at the Airlie Conference Center in Warrenton, Virginia R. Ching, Ph.D. • MIS • California State University, Sacramento 85 Group Decision Support Systems, Inc. (www.gdss.com) Emergency Response Center at Maxwell AFB in Alabama R. Ching, Ph.D. • MIS • California State University, Sacramento 86 Screen Screen Breakout Rooms Group Decision Support Systems, Inc. (www.gdss.com) USAF Y2K Fusion Center R. Ching, Ph.D. • MIS • California State University, Sacramento 87 Electronic Meeting Support Same Time Different Time Same Place Face-to-face meeting Administration, filing filtering Different Place Cross-distance meeting Ongoing coordination R. Ching, Ph.D. • MIS • California State University, Sacramento 88 Tools • Electronic Brainstorming. Gather ideas and comments in an unstructured manner. • Topic Commenter. Supports electronic brainstorming in a structured format. • Categorizer. Allows participants to cut-and-paste for a list or reference file and refine, rearrange, categorize, and consolidate the items from the file. • Vote. Supports consensus development through group evaluation of issues. • Alternative Evaluation. Allows the group to weight or rate a list of alternatives against a list of criteria. R. Ching, Ph.D. • MIS • California State University, Sacramento 89 Tools (Cont.) • Policy Formulation. Enables groups to develop and edit a statement through an iterative process of review and revision. • Group Dictionary. Supports information management by letting the group build, define, and store a list of terms that have the same meaning for all participants. • Briefcase. Incorporates a memory resident set of utilities (all of the above) available to team members. • Group Outliner. Allows a group to develop a tree structure (outline) R. Ching, Ph.D. • MIS • California State University, Sacramento 90 Tools (Cont.) • Idea Organizer. Used for idea generation and idea organization • Group Writer. Allows group members to create, edit, and annotate the same document (e.g., Lotus Notes). • Group Matrix. Allows the group to establish relationships between rows and columns (i.e., factors, variables, etc.) in a matrix format • Stakeholder Identification. Includes stakeholder identification (i.e., entity impacted by outcome), assumption surfacing, rating of assumptions, and graphical representation of rating results. Turban, 1995 R. Ching, Ph.D. • MIS • California State University, Sacramento 91 Sequence of Use What is the problem? Idea Generation Electronic Brainstorming Comment on ideas Idea Organizer Idea Organizer Which are most important? Prioritization Vote Idea Generation Topic Commenter Tools R. Ching, Ph.D. • MIS • California State University, Sacramento 92 R. Ching, Ph.D. • MIS • California State University, Sacramento 93