Project Implementation Guide: Engineering & Innovation (UPB - Minciencias)

Project Implementation Guide: Engineering & Innovation (UPB - Minciencias)

This guide provides the formal structure for academic and research projects within the Industrial Engineering program at Universidad Pontificia Bolivariana, Montería[cite: 1906, 2241]. [cite_start]It integrates the scientific method with the technical requirements of Minciencias and APA 7th Edition formatting[cite: 1910, 2031, 2301].

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Front Matter

• Title: 15–17 words maximum, concise, without abbreviations

• Authors: Full names and institutional affiliation

• Abstract: Maximum 250 words summarizing problem, objectives, methodology, and expected results.

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Chapter 1: The Problem

This chapter defines the research gap or technical opportunity

• 1.1 Project Classification: Define if the project is Basic/Applied Research, Experimental Development, or Innovation (Product/Process) according to Minciencias

• 1.2 Problem Statement: Describe the situation from a global to a local (Montería/Córdoba) perspective.

• 1.3 Research Question/Hypothesis: Formulate the central scientific or technological uncertainty to be resolved

• 1.4 Justification: Detail the relevance and impact based on International (SDGs), National, and Local development plans.

• 1.5 Objectives (SMART Approach):

  • General Objective: The primary achievement (What and For what?).

  • Specific Objectives: Maximum 5 steps, including bibliometric analysis and technical tool identification.

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Chapter 2: Theoretical Framework

Theoretical foundation and the "State of the Art"

• 2.1 Background & State of the Art: Review of previous national and international studies

• 2.2 Bibliometric Analysis: Descriptive statistics of literature (Authors, years, keywords) using tools like VOSviewer for information clustering

• 2.3 Technological Surveillance: Analysis of scientific databases and patents to verify the novelty of the proposal

• 2.4 Theoretical Bases: Theoretical support for the engineering tools to be used (e.g., Linear Programming, Discrete Optimization, Method Engineering)

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Chapter 3: Methodological Framework (Marco Metodológico)

The systematic path to achieving the objectives

• 3.1 Research Design: Identification of the research level and type (Experimental, Descriptive, or Mixed)

• 3.2 Population and Sample: Identification of the observed system and sampling techniques

• 3.3 Data Collection Techniques: Description of instruments such as surveys, direct observation, or laboratory experiments

• 3.4 Technical Solution Design: Application of engineering tools like flowcharts, time studies, or simulation models

• 3.5 Risk Management: Identification of risks and mitigation strategies based on PMI or Logical Framework

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Chapter 4: Research Development

Implementation of the engineering solution and results analysis

• 4.1 Implementation of Engineering Tools: Modeling, optimization, and development of prototypes or pilot plans

• 4.2 Results & Discussion: Presentation of data using APA-formatted tables and figures, contrasting findings with existing theory

• 4.3 Financial Analysis: Evaluation of project feasibility (e.g., NPV, IRR) and market potential

• 4.4 Project Control: Execution of the work plan using Gantt charts and WBS (EDT) for time and resource control

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Chapter 5: Bibliography

• Format: All cited sources must appear here following APA 7th Edition

• Indentation: Hanging indent of 1.27 cm (0.5 in)

• Order: Alphabetical by author's last name

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Chapter 6: Appendices (Anexos)

• Additional relevant information: maps, technical drawings, detailed budgets for prototyping, and ethical/environmental permits

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APA 7th Edition Quick Reference

Element	Standard
Margins	2.54 cm (1 inch) on all sides
Font	Calibri 11, Arial 11, or Times New Roman 12
Spacing	Double interlineation throughout
Alignment	Left-aligned (not justified)
Paragraph	1.27 cm (0.5 in) indentation on first line