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University 5.0 · research, education and project practice · Series 03, Article 01

Science → Education → Project → New Science

How a research question becomes an educational task, a result tested in practice, and the next scientific question.

Research produces models, methods and data. Lecturers transform these into teaching materials and tasks that participants can examine and apply.

Project work tests the acquired method against actual constraints and produces evidence that may challenge the initial model. That evidence gives research a reason to begin again.

This is an author-developed research architecture. The campus scenario and agent roles are illustrative; they do not describe an operating, institutionally authorised University 5.0 service.

Research · education · project · practical evidence · new hypothesisAUTHOR'S MODEL
University 5.0

Knowledge reproduction

Stage 1 of 8

Research question

Input
Phenomenon and contradiction
Transformation
Formulating the problem
Result
Research problem statement
Next responsible role
Researcher
1 of 8
01 · Knowledge reproduction

Knowledge crosses several areas of work and returns with new evidence

The university investigates a question, translates a method into educational tasks and tests it through projects. The practical setting introduces factors that may be absent from the first model.

Each iteration can revise the work of participants, educational programmes, projects, evidence and the institution's account of its own activities. The transition requires assessment and a decision by the people responsible.

  1. Science to education

    Research findings are turned into concepts, methods, materials and assignments.

  2. Education to action

    A participant learns a way of working through a substantive task.

  3. Action to project

    A learning task acquires practical context, roles and constraints.

  4. Project to data

    Implementation provides observable results and fresh empirical information.

  5. Data to interpretation

    Practical outcomes are compared with the original model.

  6. Interpretation to new science

    Differences, limits and new relationships shape the next research question.

02 · Architecture

Eight levels connect the research result to the next investigation

R.01

Research problem

Includes
  • Problem
  • Question
  • Hypothesis
  • Object of study
  • Subject of study
  • Context
  • Expected contribution

Produces: Direction of investigation.

03 · Research problem

The cycle begins with a research problem that can be examined

A research question identifies the phenomenon that needs explaining, the relationships to be tested and the evidence that must be collected. It also needs a connection to existing knowledge, a practical problem and potential educational use.

Elements of a research problem

  • Observed phenomenon
  • Existing knowledge
  • Open contradiction
  • Object of study
  • Subject of study
  • Participants
  • Data
  • Method
  • Expected result
  • Scope of application

Illustrative research problem

Phenomenon
Excessive resource consumption on a university campus
Contradiction
Similar buildings respond differently to comparable technical measures.
Research question
How do technical condition, room-use schedules, user behaviour and operating rules interact to produce resource losses?
Hypothesis
Persistent loss reduction requires coordinated technical, behavioural and organisational change.

Formulate a research problem

Observed phenomenon
Possible factors
Scale of analysis
Expected research result
Draft research question

Select at least one possible factor. No question or hypothesis is formed until you do.

04 · Scientific result

Research produces a model, method and unresolved questions

A scientific result should contain supported findings, a stated scope of applicability, known limitations and questions for further investigation.

Elements of the result

  • Factor model
  • Description of relationships
  • Analytical method
  • Dataset
  • Interpretation criteria
  • Supported findings
  • Limitations
  • Open questions

Illustrative scientific result

Title: Model of technical, behavioural and organisational factors affecting resource losses.

Contents:

  • Types of loss
  • Links to the timetable
  • Effects of usage patterns
  • Role of operating rules
  • Applicability conditions
  • Data limitations

Possible uses

The result can inform any of the following, subject to the relevant review:

  • Research article
  • Method
  • Dataset
  • Educational module
  • Diagnostic tool
  • Project brief
  • Management model
05 · Educational transformation

Scientific findings become ways of working

Educational transformation draws out concepts, methods, tasks, criteria and levels of difficulty. Participants can reproduce a method, examine it in a new context and create a result of their own.

Concepts

  • Resource system
  • Types of loss
  • Dependency
  • Usage pattern
  • Behavioural factor
  • Organisational rule

Methods

  • Data collection
  • Process mapping
  • Time-series analysis
  • Comparative analysis
  • Scenario modelling
  • Hypothesis testing

Materials

  • Models
  • Diagrams
  • Data excerpts
  • Case descriptions
  • Criteria
  • Questions

Tasks

  • Diagnostic
  • Analytical
  • Project
  • Research
  • Management

Results

  • Factor map
  • Model
  • Scenario
  • Prototype
  • Research note

Turn research into learning

Source research result: Model of the factors behind resource losses.

Educational aim
Analyse data from one building and identify the main sources of loss.
Knowledge
Factor model and analytical method
Actions
Data examination and interpretation
Roles
Student and lecturer
Criteria
Completeness of sources and consistency with the model
Expected competencies
Data analysis and interpretation
Output
Analytical map
Next transition
Laboratory verification
06 · Project transition

A learning task meets practical constraints

Project work connects a learned method and a reviewable educational result to an actual facility, resources, timing, participants and the possible consequences of a decision.

What the project setting adds

  • Real facility
  • Client or partner
  • Data limitations
  • Time constraints
  • Budget conditions
  • Resources
  • Professional criteria
  • Risk
  • Need for agreement
  • Implementation consequences

Illustrative project task

Design a limited pilot for reducing resource losses in one university building, accounting for equipment condition, timetables, user behaviour and operating rules.

Potential team roles

  • Data analyst
  • Engineer
  • Economist
  • Behavioural researcher
  • Management specialist
  • Coordinator
  • Facilities expert

Build a project brief

Facility
Aim
Constraint
Result format
Participants
Proposed project brief

No participants have been selected. This proposal remains a draft until responsibilities are agreed.

Facility and aim
Teaching building: Reduce energy losses
Stages
Define the facility → collect data → check model → design scenarios → agree approach → pilot → observe → draw conclusions
Participants
Not selected
Resources
Team time, access to the facility, analytical tools
Checkpoints
After data collection, after agreement, after the pilot
Constraint
Incomplete data
Expected evidence
Comparison of alternatives, assumptions and limits of applicability
Connection to research
Analytical scenario would provide evidence to revise the initial model of resource losses
07 · Project practice

Practice tests a model under real constraints

Working with a real system tests the model against changing conditions, institutional requirements and the way people actually behave.

Ten stages of project practice

  1. 01Define the object
  2. 02Collect actual data
  3. 03Check the initial model
  4. 04Design scenarios
  5. 05Reach agreement with participants
  6. 06Run a limited pilot
  7. 07Observe the result
  8. 08Analyse deviations
  9. 09Form findings
  10. 10Return data to the research process

Types of project result

  • Technical model
  • Organisational scenario
  • Operating procedure
  • Prototype
  • Pilot
  • Risk map
  • Dataset
  • Analytical report
08 · Empirical revision

Practice generates evidence that cannot be known in advance

A project records how the system behaves, how participants respond, where technical constraints arise and what follows from the proposed solution.

Technical

  • Actual consumption
  • Equipment operating mode
  • Deviations
  • Failures
  • Infrastructure constraints

Behavioural

  • User reactions
  • Compliance with new rules
  • Adaptation
  • Persistence of change

Organisational

  • Effects of the timetable
  • Allocation of responsibility
  • Speed of approval
  • Process conflicts

Economic

  • Costs
  • Resource needs
  • Operating consequences
  • Scalability

Educational

  • Participant actions
  • Quality of solutions
  • Evidence for competence review
  • Difficulties
  • Transfer of methods

Research

  • Discrepancies with the hypothesis
  • New factors
  • Additional dependencies
  • New questions

How observations change the model

Starting model: equipment condition, timetables and user behaviour explain resource losses.

Actual observation
After a timetable change, evening consumption fell in only some rooms.
Initial assumption
Timetable changes affect consumption uniformly.
Revision to the model
Add local operating mode as a factor. (Differences in local operating modes)
New question
Which local operating modes explain the difference?
Additional research
Comparative study of rooms.
09 · Next research iteration

Differences between the model and practice create a new question

The next investigation begins by comparing expected and actual project outcomes. Researchers gain new evidence, constraints, factors and possible explanations.

  1. Revise the model

    Include a newly discovered factor or relationship.

  2. New hypothesis

    Test a possible explanation of an observed result.

  3. New method

    Change how evidence is gathered or analysed.

  4. New scale

    Move from one building to a campus or facility network.

  5. Comparative study

    Compare spaces, groups or scenarios.

  6. Long-term observation

    Examine whether the outcome persists over time.

Form a new hypothesis

Starting observation: technical changes remain effective only when users receive regular feedback.

Possible explanation
Object of the next investigation
Method
Expected result
New hypothesis
Users better understand the consequences of their actions helps determine whether the effect persists.
Research question
How does the following condition affect persistence for individual group: users better understand the consequences of their actions?
Required evidence
Behavioural observations, indicators of persistence and relevant documents
Method
Observation
Link to previous cycle
Revises the resource-loss factor model
Educational potential
Behavioural model → a subsequent module and project task
10 · Roles and evidence

How knowledge moves between people and different kinds of work

Eight human roles and ten linked artefacts describe who receives the outcome of one stage, what they do with it, and what they provide to the next participant.

  • Researcher. Formulate the investigation → Scientific result → recipient: Lecturer.
  • Lecturer. Design the module → Educational module → recipient: Student.
  • Student. Carry out work and reflect → Solution and competence evidence → recipient: Project designer.
  • Project designer. Design the project → Project model → recipient: Expert.
  • Expert. Expert review → Review findings → recipient: Partner.
  • Partner or facility owner. Supply context and assess the result → Assessed pilot and data → recipient: Researcher.
  • Coordinator. Coordinate transitions → Current working plan → recipient: All roles.
  • Programme leader. Make an institutional decision → Revised programme → recipient: Researcher and lecturer.
Responsibility areas
  • Formulation of the question
  • Hypothesis
  • Method
  • Interpretation
  • Scientific result
Guiding question
Which phenomenon needs an explanation?
Action
Formulate the investigation
Result
Scientific result
Recipient
Lecturer
Accountability
Grounds for the findings
Next transition
Transfer into education
11 · Participant development

Each iteration opens a new context for developing competence

Research, teaching, project work and the return to science create tasks of different complexity. Completed work produces evidence for review, not automatic certification of competence.

Scientific work develops

  • Asking research questions
  • Working with methods
  • Analysing data
  • Scientific argument
  • Critical interpretation

Education develops

  • Understanding concepts
  • Reproducing a method
  • Solving structured tasks
  • Reflection
  • Communication

Project work develops

  • Working with constraints
  • Design
  • Coordination
  • Decision-making
  • Responsibility for outcomes

Return to research develops

  • Comparing model and practice
  • Finding new factors
  • Formulating hypotheses
  • Transferring experience
  • Independent research
12 · Data and states

What a university's digital model would need to record

A proposed digital twin connects research questions, people, projects, evidence, roles and changes over time. Educational analytics can help examine those records; proposed updates still require human review.

The digital twin records

  • Research questions
  • Projects
  • Participants
  • Roles
  • Resources
  • States
  • Results
  • Relationships
  • Events

Educational analytics examines

  • Movement of results
  • Quality of handovers
  • Role participation
  • Difficulties
  • New evidence
  • Differences between model and practice
  • Consequences of decisions

EduOS Lad would coordinate

  • Routes
  • Tasks
  • Context handover
  • Timetables
  • Checkpoints
  • State updates
13 · Agent support

Specialised agents could assist with handovers between stages

These are proposed support functions for organising sources, evidence and tasks. An agent's recommendation does not replace a researcher's findings, expert assessment or the decisions of people with institutional responsibility.

Scientific navigation agent

  • Structure a research field
  • Relate sources
  • Identify open questions
  • Trace the origin of concepts

Analysis agent

  • Process data
  • Identify relationships
  • Compare the model with practice
  • Prepare observations

Tutor agent

  • Explain a method
  • Suggest assignments
  • Support learning
  • Relate tasks to pathways

Critical-review agent

  • Check hypotheses
  • Identify weak grounds
  • Compare alternative explanations
  • Record uncertainty

Coordination agent

  • Connect roles
  • Prepare handovers
  • Update the proposed plan
  • Monitor dependencies

Competence agent

  • Relate actions to evidence
  • Identify new contexts
  • Suggest the next task

Governance agent

  • Check permissions
  • Determine access
  • Record the grounds for decisions
  • Support a change log

Agent-supported cycle

Stage
Research question
Agents involved
Scientific navigation, Critical review
Support function
Checking, assisting the transition and carrying context forward
Input
Research field and sources
Proposed result
Formulated research problem
Recipient
Research procedure
Human decision role
Researcher
14 · Institutional change

How one result may change work across a university

A pilot can affect five levels: participant, team, programme, research field and university. The model distinguishes evidence that supports a change from the decision to make it.

Level
Participant
Potential changes
  • Knowledge
  • Competencies
  • Roles
  • Learning pathway
  • Research interests
Evidence or input for revision
Competence graph and a new task
Accountable role
Participant and mentor
Next iteration
Next learning or project task
Synthesis

The complete reproductive cycle

The full scenario connects the research problem, educational transformation, project practice, practical evidence and a new scientific iteration.

Complete cycle · 18 stages

A research question enters education and returns as a new research task

This extended campus resource-loss example follows the research, education, project and new-iteration phases. The steps illustrate dependencies, not a claim that they have occurred in a real university.

Stage 1
Practical observation
Phase
Research
What happens
The university observes different resource-consumption patterns in similar buildings.
1 of 18
15 · Working rules

Rules of the reproductive cycle

  1. Research provenance

    Educational content retains links to the scientific question, method and sources.

  2. Explainable transformation

    A scientific result becomes concepts, tasks, actions and review criteria.

  3. Reviewable learning task

    A participant creates a result linked to a particular method of working.

  4. Practical context

    A project includes actual constraints, resources, participants and consequences.

  5. Observable evidence

    Practical application produces information that can be examined.

  6. Distinguish facts and interpretation

    Observation, explanation, hypothesis and decision are recorded with distinct statuses.

  7. Role-based confirmation

    Each handover has an accountable role and review criteria.

  8. Preserve provenance

    Sources, methods, versions, decisions and changes remain reviewable.

  9. Make uncertainty explicit

    Each part of the cycle records open questions and limitations.

  10. Return to research

    Practical evidence informs a new research problem.

  11. Educational update

    Reviewed results can enter programmes, tasks, pathways and competence assessment.

  12. Repeatability

    Every iteration can provide the grounds for another cycle.

Conclusions

What the University 5.0 reproductive cycle connects

  1. Research question

    The cycle begins with a problem, hypothesis, method and evidence requirements.

  2. Scientific result

    Research produces a model, findings, method and open questions.

  3. Educational transformation

    Scientific knowledge becomes concepts, tasks, actions and criteria.

  4. Project practice

    A learning task acquires a real setting, resources, constraints and responsibility.

  5. Practical data

    Application reveals actual system behaviour and tests the initial model.

  6. New research iteration

    Discrepancies and new relationships lead to the next research question.

  7. Institutional update

    Reviewed outcomes can change participants' work, programmes, projects, research and the university's digital twin.

Research produces knowledge that can be taught and applied. Practice supplies evidence that may change the model. Reviewed results can inform the next investigation, the next learning task and the institution's decisions.

About the research

The author's model

Sergey Shatokhin is developing the reproductive-cycle concept as part of his University 5.0 model and the proposed EduOS Lad architecture within the IWXA laboratory.

The model connects research questions, educational modules, competence graphs, project practice, practical evidence, a digital twin and subsequent scientific investigations.

  • Research problem
  • Educational transformation
  • Project practice
  • Empirical revision
  • Next research iteration