GACE Engineering and Technology Education (739) study plan

Map the Domain 4 sub-areas (materials and structures, mechanical and fluid systems, electrical and electronic systems, energy and power, control and information systems, manufacturing and construction) and rate your confidence in each on a 1-5 scale

Derive the governing relationships for statics and strength of materials (force equilibrium, stress, strain, moment of inertia, beam deflection) and solve eight numeric problems without notes

Explain how mechanical advantage, gear trains, and pulley systems trade force for distance, and compute output torque and speed for three compound systems

Trace current, voltage, and resistance through series, parallel, and mixed circuits using Ohm's law and Kirchhoff's laws, and verify five worked circuits

Solve fluid and thermal problems involving pressure, Bernoulli's equation, continuity, heat transfer by conduction and convection, and thermodynamic efficiency

Distinguish analog from digital control and describe open-loop versus closed-loop feedback with sensor, controller, and actuator roles in a block diagram

Classify the major technological systems (communication, energy and power, manufacturing, construction, transportation, medical, agricultural and biotechnological) by input, process, output, and feedback

Analyze a specific technology's intended and unintended consequences across social, economic, environmental, and cultural dimensions

Evaluate how a product's life cycle, from extraction through disposal, shapes its overall impact

Sequence the engineering design process stages (problem definition, research, ideation, prototyping, testing, iteration, communication) and justify why the process is iterative rather than linear

Write a testable problem statement with explicit constraints, criteria, and stakeholder needs for two different design briefs

Generate and screen design alternatives using weighted decision matrices and morphological analysis

Design a controlled test protocol that isolates variables and specifies data collection, sample size, and acceptance thresholds

Apply a structured failure analysis (e.g., root cause or FMEA-style ranking) to a prototype that underperformed

Connect design-process concepts to classroom practice by converting a portfolio into a grade-appropriate design challenge with a rubric

Summarize the history and philosophy of technology education, including the shift from industrial arts to technological literacy and engineering design

Identify the professional standards, safety and liability obligations, and ethical responsibilities that frame the field

Describe pathways into engineering and technology careers and the academic preparation each requires

Explain how engineering design integrates with science, mathematics, and the other STEM disciplines

Distinguish formative from summative assessment and select appropriate formats for design-based, performance, and project outcomes

Construct a rubric with observable, measurable performance descriptors at three proficiency levels for a hands-on engineering task

Analyze assessment data to identify misconceptions and plan targeted reteaching

Design instruction that differentiates for varied learners, including English learners and students with IEP or 504 plans, in a lab setting

Write measurable learning objectives keyed to cognitive demand levels and align each to an assessment item

Plan and document lab safety procedures, tool and machine authorization, and supervision routines for a middle or high school engineering classroom

Select instructional strategies that build design thinking, teamwork, and communication skills in project-based settings

Interpret professional-standards language on equity, access, and inclusion and translate it into three concrete classroom practices

Draft assessment items that probe conceptual understanding rather than recall, and check them for bias and clarity

Rehearse weak sub-areas from weeks 1-2 by reworking missed problems and explaining each error in writing

Compare the environmental and economic tradeoffs of two energy generation or manufacturing approaches using quantitative reasoning

Solve mixed applied problems that combine systems thinking with content knowledge, such as sizing a power supply for a designed device

Summarize how emerging technologies affect engineering practice and workforce demands

Synthesize all five domains into a single concept map linking design process, systems, content knowledge, and instruction

Complete two full-length timed practice tests under exam conditions and score them by domain

Prioritize the three lowest-scoring sub-areas and close each with targeted review and fresh practice items

Assemble a final one-page reference of formulas, standards, and assessment principles for last-minute review