Eng 101 Final - Google Docs PDF
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Calvin University
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This document appears to be a set of notes or study materials, focusing on engineering ethics, design norms, and professional principles. It doesn't seem to be a final exam paper, but covers topics relevant to introductory engineering courses.
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â€Ethics:‬â€The set of moral principles that guide behavior‬ â€Engineers, in the fulfillment of their professional duties, shall:‬ 1â€.‬ †old paramount the safety, health, and welfare of the public.‬ H â€2.‬ â€ï»¿Perform services only in areas of their competence.‬...
â€Ethics:‬â€The set of moral principles that guide behavior‬ â€Engineers, in the fulfillment of their professional duties, shall:‬ 1â€.‬ †old paramount the safety, health, and welfare of the public.‬ H â€2.‬ â€ï»¿Perform services only in areas of their competence.‬ â€3.‬ â€ï»¿Issue public statements only in an objective and truthful manner.‬ â€4.‬ â€ï»¿Act for each employer or client as faithful agents or trustees.‬ â€5.‬ â€ï»¿Avoid deceptive acts.‬ â€6.‬ â€ï»¿Conduct themselves honorably, responsibly, ethically, and lawfully so as to enhance the‬ â€honor, reputation, and usefulness of the profession.‬ â€Professional:‬ 1â€. Engineers shall be guided in all their relations by the highest standards of honesty and‬ â€integrity.‬ â€2. Engineers shall at all times strive to serve the public interest.‬ â€3. Engineers shall avoid all conduct or practice that deceives the public.‬ 4â€. Engineers shall not disclose, without consent, confidential information concerning the‬ â€business affairs or technical processes of any present or former client or employer, or public‬ â€body on which they serve.‬ â€- Violating the professional standards of behavior can have financial and legal consequences.‬ †alvin AHIP: Engineering Department of‬â€Academic Honesty and Integrity Policy‬ C â€National Society of Professional Engineers Code of Ethics‬ â€7 Steps to ethical decision making:‬ â€1.‬ â€State Problem‬ â€2.‬ â€Check facts‬ â€3.‬ â€Identify Relevant factors:‬ â€4.‬ â€Develop of Options:‬ â€5.‬ â€Test OptionsHarm, Publicity, Defensibility, Reversibility, Colleague, Organization‬ â€6.‬ â€Make a Choice‬ â€7.‬ â€Review (lessons learned: Individually, socially, organizationally)‬ -†‬ E†ngineers shall avoid deceptive acts‬ â€-‬ â€Engineers shall be guided in all their relations by the highest standards of honesty and‬ â€integrity‬ â€Calvin’s Degree:‬ †wo unique aspects: global and christian‬ T â€ABET accredited‬ â€BSE (Bachelors of Science in Engineering) not BSME or‬ â€Think deeply, act justly, and live wholeheartedly as Christ’s agents of renewal in the world.‬ â€-‬ T †wo strike policy means those in the engineer program will have their admission revoked‬ â€if they are found guilty of a second offense.‬ â€Calvin engineering degree objectives:‬ â€-‬ â€Develop the basic principles and skills necessary for engineering‬â€(including‬ â€mathematics, the sciences, business, and the humanities) for appropriate assessment and‬ â€analysis of current and complex problems.‬ â€-‬ â€Generate effective solutions‬â€to problems and move them toward successful‬ â€implementation.‬ â€-‬ â€Communicate ideas successfully‬â€in multidisciplinary environments, exhibiting‬ â€awareness of cultural context and team dynamics.‬ â€-‬ â€Commit to social responsibility‬â€, sustainability, and the continued learning necessary to‬ â€address the pressing problems of our contemporary world.‬ â€16 seminars in 4 years; 8 in the first half, 8 in the second.‬ †BET Outcomes:‬ A â€1. ability to identify, formulate, and solve complex engineering problems by applying principles‬ â€of engineering, science, and mathematics‬ â€2. ability to apply engineering design to produce solutions that meet specified needs with‬ â€consideration of public health, safety, and welfare, as well as global, cultural, social,‬ â€environmental, and economic factors‬ â€3. ability to communicate effectively with a range of audiences‬ â€4. ability to recognize ethical and professional responsibilities in engineering situations and make‬ â€informed judgments, which must consider the impact of engineering solutions in global,‬ â€economic, environmental, and societal contexts‬ â€5. ability to function effectively on a team whose members together provide leadership, create a‬ â€collaborative and inclusive environment, establish goals, plan tasks, and meet objectives‬ â€6. ability to develop and conduct appropriate experimentation, analyze and interpret data, and use‬ â€engineering judgment to draw conclusions‬ â€7. ability to acquire and apply new knowledge as needed, using appropriate learning strategies‬ â€8. ability to articulate the meaning of a Christian perspective for responsible engineering and‬ â€technology development‬ â€Accessibility:‬ â€-‬ â€ADA: Americans with Disabilities Act‬ â€-‬ â€prohibits discrimination on the basis of disability‬ â€-‬ â€guarantees that people with disabilities have the same opportunities as everyone‬ â€else‬ â€-‬ â€Accessibility‬â€: A person with a disability can acquire the same information, engage in the‬ â€same interaction, enjoy the same services, in an equally effective, equally integrated‬ â€manner, with substantially equivalent ease of use as a person w/o disability.‬ â€-‬ â€Universal Design‬â€is the design of all products and environments to be usable by people‬ â€of all ages and abilities, to the greatest extent possible.‬ †asic Mechanisms:‬ â€device that transforms input forces into a desired set of output‬ B â€forces/movements.‬ â€-‬ â€Cam: converts rotational motion into linear motion‬ â€-‬ â€Gears: transmits torque to create mechanical advantage‬ â€-‬ â€Lever: A lever is an arm that pivots against a fulcrum (or point)‬ â€-‬ â€Geneva Stop: converts continuous rotation into discrete motion.‬ â€-‬ â€Crank: converts rotational motion into linear; hook-shaped.‬ †ifferent classes of level‬ D â€Class 1: Fulcrum in the middle; load and force on each side (see saw)‬ â€Class 2: Fulcrum first; next load, then force (can opener)‬ â€Class 3: Fulcrum first; next force, load (hockey stick, shovel)‬ †alculate force and distance from the fulcrum for a lever‬ C â€At equilibrium: M1 x a = M2 x b If M1 is the load and M2 is the effort (force to move the load).‬ †echanical advantage of a lever: Load/Effort = M1 x g/(M2 x g) = b/a‬ M â€Mechanical advantage of a gear: output gear/input gear‬ â€-‬ â€Must have same pitch‬ â€-‬ â€Must rotate oppositely‬ â€-‬ â€Pitch is the distance between corresponding points on adjacent teeth.‬ â€Design Norms:‬ †orms: A norm is an authoritative standard used to guide, control, or regulate acceptable‬ N â€behavior‬ â€Counter Liturgies: ways to form our loves and our desires deliberately‬ â€7 Design norms:‬ â€-‬ â€Justice:‬â€All technology should promote justice and oppose injustice (worker rights, easy‬ â€to use and make).‬ â€-‬ â€Caring:‬â€designs should promote loving caring relationships‬ â€-‬ â€Culture-Appropriateness:‬â€technological solutions have to fit where it will be used, not‬ â€harm the community.‬ â€-‬ â€Harmony‬â€: Designs should bring joy and satisfaction; attractive and easy to use.‬ â€-‬ â€Trust: Solutions should not attempt to deceive in any way; should be safe.‬ â€-‬ â€Openness and comms:‬â€communicate technological problems and solutions to all those‬ â€involved with or affected for safe usage.‬ â€-‬ â€Stewardship‬â€: Solutions should not exploit the environment or human labor; avoid waste.‬ â€-‬ â€Value-ladenness:‬â€Technology has a Bias and Embedded Values‬ â€-‬ â€Technology is value-free (or morally neutral), and we use it to shape ourselves as‬ â€we see fit‬â€OR‬â€Technology is value-laden and it shapes us in ways that usually‬ â€elude our attention.‬ â€EDP:‬ â€-‬ T †he objective is to bring the design closer to the specifications with each repetition‬ â€(iteration)‬ â€-‬ â€Analysis‬â€stage: results in preliminary design‬ â€-‬ â€Problem Definition: includes user, client, and designer.‬ â€-‬ â€Understand problem and context Research & data collection Set‬ â€Specifications: objectives, Functions and Constraints‬ â€-‬ â€Conceptual Design:‬ â€-‬ â€Brainstorm and generate possible designs‬ â€-‬ â€Evaluate Possible Design:‬ â€-‬ â€Evaluate if design meets specs. Identify the pro’s and con’s of design.‬ â€Select the best designs.‬ â€-‬ â€Implementation‬â€stage:‬ â€-‬ â€Prototype: Model or build design‬ -†‬ T †est and Evaluate: Test and evaluation for Function, Form, Safety and Regulatory‬ â€-‬ â€Redesign: Fix problems, optimize, scale model‬ â€-‬ â€Release/Communicate: Design and support documentation, training, tooling,‬ â€manufacturing, certifications, deferred defects, warranty projections.‬ â€-‬ â€End of Life: Monitor and optimize design performance, returns, repairs, recycling‬ â€and scrapping.‬ â€Brainstorming:‬ â€-‬ â€Cards/Sticky notes‬ â€-‬ â€Osbourne‬ â€-‬ â€SCAMPER‬ â€All ideas are good!‬ â€-‬ â€80% of the impact comes from 20% of the inputs‬ â€Reasons to have design review:‬ â€-‬ â€To ensure goals are met and team is on track to complete (Check Milestones)‬ â€-‬ â€Asses team dynamics‬ â€-‬ â€Identify any technical or logistical flaws.‬ â€Two good times to have design review:‬â€After analysis stage and after first prototype‬ â€Reasons to Prototype:‬ â€-‬ â€Communicate an idea‬ â€-‬ â€Identify design flaws‬ â€-‬ â€Demonstrate idea‬ â€-‬ â€Compare solutions‬ â€-‬ â€Test interactions‬ â€Three criteria to test prototype against:‬ â€1.‬ â€Objectives‬ â€2.‬ â€Constraints‬ â€3.‬ â€Functions‬ â€7 things to keep in mind while designing:‬ â€-‬ â€Manufacturing‬ â€-‬ â€Transportation‬ â€-‬ â€Aesthetics‬ â€-‬ â€Safety‬ -†‬ R †eliability‬ â€-‬ â€EMC/ESD/EMI‬ â€-‬ â€Environment‬ â€Engineering as Profession:‬ â€-‬ â€Major sub-disciplines of engineering and identify the differences between them‬ â€(including listing the associated engineering societies):‬ â€-‬ â€Electrical & Computer Engineering Mechanical Engineering Mechatronics Chemical‬ â€Engineering Civil & Environmental Engineering Energy, Environment, and‬ â€Sustainability and soon Aerospace Engineering.‬ â€-‬ â€American Academy of Environmental Engineers and Scientists AAEES‬ â€-‬ â€American Society of Mechanical Engineers (ASME)‬ â€-‬ â€Institute of Electrical and Electronics Engineers (IEEE)‬ â€-‬ â€American Society of Civil Engineers (ASCE)‬ â€-‬ â€American Institute of Chemical Engineers (AIChE)‬ â€-‬ â€American Institute of Aeronautics and Astronautics (AIAA)‬ â€-‬ â€Society of Women Engineers (SWE)‬ â€Engineering Skills:‬ â€-‬ â€Project management‬ â€-‬ â€WBS and Gantt Chart.‬ â€Entrepreneurship:‬ â€-‬ â€Intellectual Property‬ â€-‬ â€Patents‬ â€Sustainability, Environment, and LCA:‬ †he goal of the‬â€Life Cycle Inventory‬â€is to quantify the environmental‬â€inputs‬â€and‬â€outputs‬ T â€Factors in Life Cycle Analysis:‬ â€-‬ â€Goal and Scope:‬â€Define the product that is to be measured (T-Shirt, CO2 Emissions)‬ â€-‬ â€Life Cycle Inventory:‬â€Quantify inputs and outputs; raw materials, resources, energies‬ â€-‬ â€Impact Assessment:‬â€Look at scientific papers and existing data to determine the impact.‬ â€-‬ â€Interpretation:‬â€Analyze the derived data, reflect on product emissions (is it good or‬ â€bad).‬ â€Life cycle of product:‬ â€-‬ â€Raw materials, processing, transportation, retail and use, waste‬ †nergy: measure of the ability to do work (kWh - electricity), (Joules (watt/s) - for SI system),‬ E â€(BTU - Heat); Energy = Force x Distance & Power x Time‬ â€Power: The rate at which energy is used (watts); Power = Energy/time‬ â€Energy Returned on Energy Invested‬â€(EROEI):‬ â€-‬ â€ratio of the amount of usable energy acquired from a particular energy resource to the‬ â€amount of energy expended to obtain that energy resource.‬ â€Example: Given a process with an EROEI of 5, expending 1 unit of energy yields 5 units, for a‬ â€net energy gain of 4 units.‬ â€C2G = cradle to grave‬ â€-‬ P †roduct design is about leverage, it is up to the engineer to use engineering judgement on‬ â€what to update‬ â€Designing for the environment:‬ â€â€¬ â€Difficult, Complex, Important, A great opportunity…for businesses and entrepreneurs,‬ â€for scientists, engineers, for researchers‬ â€â€¬ â€Our responsibility, we are called to take care of God’s creation‬ †amenting - Prof. Han: We should start lamenting about the current situation of the climate.‬ L â€Lamenting is important to feel care and value.‬ â€Design to Minimize Impact on Environment:‬ â€-‬ â€Conserve Materials‬ â€-‬ â€Beware of the material composition of products‬ â€-‬ â€Reduce material intensity‬ â€-‬ â€Design for energy efficiency‬ â€-‬ â€Promote product stewardship‬ â€-‬ â€Reduce transportation of materials/products‬ â€-‬ â€Design for repair‬ â€-‬ â€Reduce waste in manufacturing processes‬ †ngineering Definition:‬ E â€3 things in a good definition of engineering:‬ â€-‬ â€Benefits of society‬ â€-‬ â€Includes problem solving to create designs‬ â€-‬ â€Application of math and science‬ â€Written Document:‬ â€-‬ â€Technical report: to communicate information gained through a process of technical or‬ â€experimental work.‬ â€-‬ â€Abstract: not an intro; you should summarize your entire report including your results.‬ â€-‬ G †raphics in a report: Should be labelled properly, and easy to understand. Should be‬ â€labelled as figure along with a number.‬ â€Advising:‬ â€-‬ â€Professional meeting‬ â€Required meeting to consult with your Academic Advisor about:‬ â€-‬ â€Your career objectives (think WCS)‬ â€-‬ â€Classes you want to take next semester (and later)‬ â€-‬ â€Career/vocational questions(think WCS)‬ â€Professionalism:‬ â€The expectations of an engineering student at Calvin University include:‬ â€-‬ â€Personal Responsibility for Success‬ â€-‬ â€Class Attendance Professional Homework Presentation‬ â€-‬ â€Meeting Due Dates‬ â€-‬ â€Academic Integrity‬ â€-‬ â€Collaboration and Professional Communication‬ â€-‬ â€Stewardship of Facilities‬ â€-‬ â€Advising Participation‬ â€-‬ â€Appropriate Use of Computing Resources‬