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This definitive collection of prompts is designed specifically to transform the role of the technical teacher in higher education institutes. Through a comprehensive focus on professionalization and employability, this resource makes it possible to automate the creation of high-precision teaching materials, guaranteeing that each laboratory, workshop and project is aligned with the real demands of the contemporary industrial market. Optimize your planning time and elevate the quality of technical education with tools that cover everything from inventory management to the implementation of cutting-edge technologies such as Industry 4.0. With this artificial intelligence library, instructors will be able to focus on what really matters: developing their students' practical skills and ensuring their successful insertion into highly demanding productive environments.
100 resources included
Act as a Mechanical Engineer specialized in Computer Integrated Manufacturing (CIM) to design a high-level laboratory practice aimed at students of technical institutes. The central objective is the design, programming and simulation of the machining of the part [Name of the part]. You must structure the content to include industrial contextualization, learning objectives linked to manual programming competencies in ISO code, and the importance of precision in today's mechanical manufacturing environment, focusing on the use of the [CNC Machine Type] machine. Establishes the starting technical parameters rigorously. Defines the work material as [Material] and requests the calculation of the optimal cutting conditions. It details the list of necessary tools, specifying for tool T01 a milling cutter of [Tool Diameter] mm and for T02 a drill bit of [Drill Diameter] mm. The prompt should require the system to generate a logical sequence of operations: from initial facing to final contouring, applying radius compensations (G41/G42) and drilling canned cycles (G81/G83) according to the controller [Controller Type: Fanuc/Siemens/Heidenhain]. It develops the body of the exercise by asking for the step-by-step writing of the G code. It includes a section dedicated to the configuration of the part zero (G54) and the loading of tool offsets (G43 H_). It is imperative that the practice includes a verification protocol in the simulator [Simulation Software], where the student must identify possible syntax errors or collisions before proceeding to actual machining. Add a 'Results Analysis' section where the dimensional tolerances of [Tolerance] mm and the surface finish obtained through visual and metrological inspection are evaluated. To conclude, ask that the final result be a structured teaching guide that includes the part plane described using Cartesian coordinates (X, Y, Z), specific safety rules for the CNC workshop, and a detailed grading rubric. The rubric must assess the efficiency of the code (use of subprograms), the correct management of waste (chips and coolant) and compliance with the estimated production times for the part [Name of the part].
He acts as an expert consultant in Sustainability Engineering and Project Based Learning (PBL) methodologies specialized in higher technical education. Your mission is to design a comprehensive teaching guide for the project titled "Design sustainable solution", which will be implemented with students of [Academic level or specific technical career]. The project must focus on solving a real problem detected in [Geographical location or industrial environment], specifically focusing on the optimization of [Resource to be optimized: water, energy, waste or space]. Develop a complete curricular structure that covers a period of [Project duration in weeks]. For each phase of the project (Research, Ideation, Prototyping and Validation), define specific learning objectives linked to the competencies of [Name of the subject or module]. It integrates the use of emerging technologies and software tools such as [Simulation or design software] for students to technically validate their proposal. The final solution proposed by the students must strictly comply with the regulations [Applicable technical regulation or environmental standard] and present a cost-benefit analysis that demonstrates its viability in a real environment. The final deliverable that the AI must generate for the teacher includes: 1) A detailed description of the challenge for the students. 2) An evaluation matrix or rubric with criteria such as technical innovation, measurable environmental impact and quality of technical documentation. 3) A list of suggested resources, including databases of sustainable materials and examples of success stories in [Related industrial sector]. 4) A series of 10 guiding questions designed to encourage systems thinking and professional ethics during the solution development process. Ensure that the pedagogical approach promotes collaborative working and complex problem solving under pressure from limited resources. Finally, propose a strategy for the public presentation of the results, where students must defend their "Sustainable Solution Design" before a panel composed of [Profile of invited experts, e.g. collegiate engineers or local businessmen]. Includes suggestions on how students can measure the carbon footprint reduction of their proposal using standard methodologies to ensure that sustainability is not just a theoretical concept, but a verifiable technical metric.
Acts as a University-Business Linkage Specialist and Senior Technical Education Teacher to design a high-impact 'Industrial Visits Program' for the institution [Name of Institution], focused on students of the [Technical Specialty] specialty who are studying the [Semester/Cycle]. The program must be conceived as a strategic tool for situated learning and real linkage with the productive sector in the region of [City/Region]. The design must begin with a robust PEDAGOGICAL FOUNDATION. It explains in detail how direct observation of industrial processes in organizations such as [Companies of Interest] contributes to the development of specific professional competencies and soft skills necessary in today's labor market. Make sure to integrate the defined [Learning Objectives] into the academic curriculum so that the visit is an extension of the classroom and not just a recreational tour. In the LOGISTICS AND PROTOCOL section, it describes step by step the administrative and operational process: from writing the formal request letter to the company, managing institutional and parental permissions, to hiring safe transportation for a group of [Number of Students]. It includes an exhaustive Occupational Health and Safety (OSH) checklist that students and teachers must strictly comply with, specifying the Personal Protective Equipment (PPE) required according to the company's line of business. Develops an ACTIVE TECHNICAL INTERACTION component. Design an 'Industrial Observation Guide' that students must complete during the tour. Defines mandatory points of interest where aspects such as: process flow, types of machinery, automation systems, quality protocols and industrial waste management must be analyzed. Propose question and answer dynamics with engineers or plant managers to resolve technical doubts about [Technical Specialty]. Finally, it establishes a CLOSURE, EVALUATION AND CONTINUOUS LINKING section. Design a post-visit report format where the student analyzes what was observed and proposes an innovative solution to a potential problem detected in the plant. Additionally, write a draft of institutional gratitude that includes a value proposal for the company (such as internships or joint research projects), ensuring that the connection with the productive sector is sustainable over time.