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Technology & Design · course plan
⚠ Pending professional review

This course plan, its lessons and its assessments has not yet been verified by an industry-certified professional or by a certification or approval body. It is a study draft and may contain errors. Do not use it as instructions for work on a job site or on live equipment. Always follow your instructor, your supervising professional, and current official references and regulations.

VoTechWorks program approval and accreditation are still in progress. Credentials are issued only by the certifying bodies named in each program, after their own exams.

Printing & Signage

10 courses · 900 clock hours · 4–6 mo full-time. Grading is competency-based: each course requires the written exam, a competent skills demonstration with zero safety faults, a signed log, and a passed safety audit; percentage weights only rank performance above the competency floor.

$8,605 COMPLIMENTARYprogram tuition
10courses
55lessons
900hours
35assessments
Development progressPlanCourses, lessons and assessments written for this tradeLessons55 of 55 lesson pages writtenPractice440 practice questionsResources113 reference entries (study list)Review0 lesson pages reviewed by a licensed professional
Study now: 55 lesson pages are open (lesson titles below are links).
TEC-PRIN79-01 Universal core

Universal Core: Safety, Math, Communication & Career for Printing & Signage

148 hr · $1,185 COMPLIMENTARY

This foundational course builds the safety, mathematical, communication, and professional skills every printing and signage technician needs before touching production equipment. Students earn OSHA 10-Hour General Industry certification and First Aid/CPR certification, practice trade-specific measurement and estimation, and develop the workplace readiness habits expected by sign shops, print service providers, and wrap studios. All content is mapped to the Printing United Alliance certification competency framework and to the practical knowledge base tested in 3M Preferred Installer qualification.

Outcomes
Course text

This foundational course builds the safety, mathematical, communication, and professional skills every printing and signage technician needs before touching production equipment. Students earn OSHA 10-Hour General Industry certification and First Aid/CPR certification, practice trade-specific measurement and estimation, and develop the workplace readiness habits expected by sign shops, print service providers, and wrap studios. All content is mapped to the Printing United Alliance certification competency framework and to the practical knowledge base tested in 3M Preferred Installer qualification.

How the course runs. 7 blocks: Hazard Recognition and OSHA 10 for Printing & Signage; First Aid, CPR, and Emergency Response in a Shop Setting; Trade Math I — Measurement, Unit Conversion, and Scale; Trade Math II — Ink Coverage, Job Costing, and Pricing Concepts; Reading Technical Documents — SDS, Work Orders, and Installation Specs; Digital Tools and Professional Communication; Career Readiness and Professional Portfolio.

What competent looks like. Complete OSHA 10-Hour General Industry training and pass the associated assessment, demonstrating knowledge of hazard recognition, lockout/tagout, and PPE selection for printing and signage environments. Perform trade math calculations—including unit conversions, scale factors, substrate area estimation, ink coverage, and job costing—accurately to within 2% on timed assessments. Read and interpret technical documents including safety data sheets (SDS), equipment manuals, customer work orders, and installation diagrams common to the printing and signage trade. Use standard digital productivity tools (email, cloud file sharing, job-management software concepts, and basic Adobe Acrobat for PDF proofing) to communicate professionally with customers and coworkers. Demonstrate CPR and First Aid skills to American Red Cross or American Heart Association performance standards. Construct a personal career portfolio including a resume, a professional goal statement, and a documented skills checklist aligned to entry-level job descriptions in print and signage.

Lessons · 7 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Hazard Recognition and OSHA 10 for Printing & Signage32theoryStudents will identify the primary workplace hazards in printing and signage operations—chemical, mechanical, electrical, and ergonomic—and correctly apply OSHA General Industry standards for lockout/tagout, hazard communication (HazCom/GHS), and PPE selection.
  1. Complete all ten OSHA 10-Hour General Industry modules (delivered through an OSHA-authorized provider or authorized online platform) and pass the module quizzes; receive OSHA 10 card upon completion.
  2. Conduct a guided shop walk-through using a provided hazard-identification checklist: students photograph or sketch at least eight real or simulated hazards—unguarded rollers, solvent storage, compressed-air lines, electrical panels—and classify each by OSHA focus area.
  3. Practice a full lockout/tagout procedure on a de-energized demonstration press or laminator using a provided energy-control program template; instructor observes each step and students self-evaluate against the written procedure.
OSHA 10 authorized course materials and completion cards; GHS-formatted SDS binder for common shop chemicals (inks, solvents, adhesive primers, cleaning agents); PPE samples (nitrile gloves, safety glasses, chemical splash goggles, respirator cartridges, hearing protection); lockout/tagout kit with locks, tags, and hasp; OSHA General Industry regulations reference (29 CFR 1910 summary guide).Passing score of 70% or higher on all OSHA 10 module quizzes (required for card); 80% or higher on instructor-written hazard-identification quiz covering SDS sections, PPE selection, and LOTO sequence; lockout/tagout practical observed by instructor—zero critical steps omitted to pass.
2First Aid, CPR, and Emergency Response in a Shop Setting8labStudents will demonstrate adult CPR with AED use and basic First Aid skills—including chemical splash response, minor laceration control, and burn care—to the performance standards of an accredited provider.
  1. Complete an American Red Cross or American Heart Association Heartsaver CPR/AED course including hands-on mannequin practice; each student performs a full two-minute CPR cycle and one AED scenario to instructor satisfaction.
  2. Practice chemical splash response: flush a simulated eye exposure at an eyewash station for the full recommended duration, then locate the corresponding SDS and read the First Aid section aloud to a partner.
  3. Role-play three shop emergency scenarios in pairs—a coworker unresponsive near a press, a laceration from a cutting table, and a minor solvent burn—and document the response steps on a printed Emergency Action Plan form.
CPR mannequins (adult); AED trainer unit; eyewash station; First Aid kit (shop-grade); SDS binder; Emergency Action Plan template; American Red Cross or AHA Heartsaver student workbooks.Certification card issued by the accredited CPR/First Aid provider upon successful skills check; instructor scenario rubric scored pass/fail—students must correctly perform all critical steps in at least two of three emergency scenarios to pass.
3Trade Math I — Measurement, Unit Conversion, and Scale20theoryStudents will accurately convert between imperial and metric units of length, area, and weight, calculate substrate dimensions from scale drawings, and determine material quantities for print and signage jobs to within 2% of the correct value.
  1. Work through a structured worksheet set covering: inches-to-millimeters, feet-to-meters, square feet-to-square meters, and pounds-to-kilograms conversions using real substrate specifications from manufacturer data sheets (e.g., vinyl roll weights, banner fabric widths).
  2. Given a set of three scaled sign drawings (1:10, 1:24, and 1:48), students calculate actual finished dimensions, then compute the total square footage of substrate needed including a standard waste allowance; results are checked against an answer key.
  3. Pair activity: one student plays 'estimator' and one plays 'checker'—using a simulated customer request form, the estimator calculates the number of linear feet of 54-inch-wide vinyl needed for a five-panel vehicle wrap and the checker verifies using a different calculation method; roles switch for a second job.
Scientific calculators; rulers and tape measures (imperial and metric); printed scale drawings of signs and vehicle templates; substrate specification sheets from at least two vinyl manufacturers; blank estimation worksheets; answer keys for self-check.Timed 20-question written math quiz; students must score 80% or higher with all answers within 2% of the correct value; any score below 80% triggers a one-on-one remediation session and a second attempt before progressing.
4Trade Math II — Ink Coverage, Job Costing, and Pricing Concepts16theoryStudents will calculate ink coverage area, material cost per square foot, and a basic customer quote using standard trade formulas and real-world substrate and ink pricing data.
  1. Using a provided ink-coverage formula and a table of ink densities for solvent, eco-solvent, and UV-cure inks, students calculate approximate ink consumption for three sample print files at different coverage percentages; results are compared to instructor's worked examples.
  2. Cost-per-square-foot exercise: given wholesale roll prices, usable yield percentages, labor rate, and overhead factor for a sample shop, students build a simple cost model in a spreadsheet template and calculate the floor price for a banner and a window graphic job.
  3. Markup and margin drill: students distinguish between markup-on-cost and margin-on-sale, then apply each to five sample job costs and record the quoted price; common trade pricing norms are discussed but no specific industry rates are stated as universal.
Spreadsheet software (Microsoft Excel or Google Sheets); provided ink-coverage formula sheet; sample substrate price lists (instructor-prepared, based on current market examples); scientific calculators; trade pricing reference: PRINTING United Alliance educational resources.Practical quiz: students receive a new job specification and independently produce a full material-quantity calculation, a cost-per-square-foot figure, and a final quoted price in 30 minutes; 80% accuracy on each sub-calculation required to pass.
5Reading Technical Documents — SDS, Work Orders, and Installation Specs18theoryStudents will extract critical information from safety data sheets, customer work orders, manufacturer installation guides, and equipment manuals using a structured reading strategy, then apply that information to answer job-specific questions with 85% accuracy.
  1. SDS deep-read: each student receives SDS documents for three common shop materials (a solvent-based ink, a vinyl primer, and a surface cleaner); using a guided reading template, they identify the hazard classification, required PPE, first aid measures, and storage requirements, then compare answers in small groups.
  2. Work order interpretation exercise: students receive a realistic multi-item work order from a mock sign shop (including substrate type, size, finishing, delivery date, and special instructions); they highlight ambiguities, draft three clarifying questions a technician should ask before production, and identify the sequence of production steps implied by the order.
  3. 3M installation guide exercise: students read a manufacturer application instruction document for a cast vinyl film and a window film, then answer a ten-question comprehension quiz covering surface preparation, squeegee technique, overlap requirements, and post-installation inspection—directly mapping to 3M Preferred Installer knowledge areas.
Printed SDS documents (three different products); sample shop work orders (instructor-created); 3M application instruction documents for cast vinyl and window film (publicly available from 3M Commercial Solutions); guided reading templates; comprehension quiz answer key.Written comprehension quiz on the 3M installation guide scored by instructor; 85% or higher required to pass; SDS template is reviewed by instructor for completeness—all four required fields must be correctly filled for each SDS to count as satisfactory.
6Digital Tools and Professional Communication30practiceStudents will use email, cloud file sharing, PDF proofing in Adobe Acrobat, and basic job-management workflow concepts to handle a simulated customer interaction from quote request through proof approval, meeting professional communication standards.
  1. Email and cloud file exercise: students receive a mock customer inquiry, compose a professional reply requesting file specifications, receive a shared cloud folder link, download a print-ready PDF, and confirm receipt—all following a provided professional communication style guide; instructor evaluates tone, clarity, and completeness using a rubric.
  2. Adobe Acrobat PDF proofing: using Acrobat Reader (free) or Acrobat, students open a provided sign layout PDF, use the measurement tool to verify artwork dimensions match the work order, add a sticky-note comment flagging one specification discrepancy, and mark the document with a review stamp; output is submitted as a saved PDF with comments.
  3. Job-management workflow mapping: in small groups, students trace a sample job through a whiteboard-drawn workflow (quote → order entry → prepress → production → finishing → delivery); each group identifies where digital files, approvals, and communication handoffs occur, then presents their map to the class for 5 minutes.
Computers with internet access; Microsoft Outlook or Gmail; Google Drive or OneDrive; Adobe Acrobat Reader (free) installed; sample print-ready PDF files (instructor-provided); professional communication style guide (one page, instructor-created); job-management workflow diagram template; whiteboard and markers.Instructor rubric for the email/cloud exercise: must score 80% or higher on clarity, professionalism, and accuracy of information; Acrobat proofing submission reviewed—correct dimension measurement and at least one valid flagged comment required to pass; workflow map presentation assessed pass/fail by instructor on logical sequence and correct identification of at least four handoff points.
7Career Readiness and Professional Portfolio24fieldStudents will build a complete entry-level career portfolio—including a trade-specific resume, a professional goal statement, and a documented skills checklist—and conduct a mock job interview, receiving scored feedback from an industry guest or instructor playing the role of a hiring manager.
  1. Resume workshop: students draft a one-page resume using a trade-appropriate template, listing relevant skills (from the program skills checklist), any prior experience, and their anticipated credentials (OSHA 10, First Aid/CPR, PIA/Printing United Certification, 3M Preferred Installer); peers exchange drafts and mark two strengths and one improvement using a structured peer-review form; final version is revised and submitted digitally.
  2. Industry panel or guest speaker session (at least one working professional from a print shop, sign company, or wrap studio): students prepare and ask at least two questions about daily job expectations, hiring criteria, and career pathways; notes are submitted as a one-page reflection connecting the panel content to their own goal statement.
  3. Mock interview: each student participates in a 10-minute structured interview with the instructor or an industry volunteer using five standard trade-relevant questions (e.g., 'Describe how you would handle a substrate defect discovered mid-run'); responses are scored on a rubric covering content accuracy, professional demeanor, and clarity; written feedback is returned to each student.
Resume templates (trade-specific, instructor-provided); skills checklist aligned to PIA/Printing United Alliance competency areas and 3M Preferred Installer knowledge domains; peer-review forms; guest speaker handout; mock interview question bank; scoring rubric; computers for word processing.Portfolio submitted as a digital folder; resume must include all required sections and score 80% or higher on instructor rubric (content accuracy, formatting, relevance); goal statement must reference at least two specific credentials or skills from this program; mock interview must score 75% or higher on the rubric to pass; students scoring below either threshold revise and resubmit within one week.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
OSHA 10 and Safety Knowledge ExamWritten exam25%70% on OSHA provider module quizzes (required for OSHA 10 card); 80% on instructor-written safety and SDS examA two-part written assessment covering OSHA General Industry hazard categories, lockout/tagout procedures, GHS hazard communication, SDS interpretation, and PPE selection as applied to printing and signage shop conditions. Part one is the required OSHA 10 provider assessment; part two is a 40-question instructor-written exam with scenario-based questions drawn directly from the shop environment, mapped to the OSHA knowledge areas tested in the Printing United Alliance certification framework.
Accuracy · Safety · Communication · Professionalism
Trade Math and Technical Reading ExamWritten exam25%80% overall; no single section below 75%A 50-question timed written exam (90 minutes) covering unit conversions, scale calculations, substrate area estimation, ink-coverage math, basic job costing, and comprehension questions drawn from a sample SDS and a manufacturer installation guide. Questions are weighted equally across math and reading sections, and all calculation answers must fall within 2% of the correct value to receive credit.
Accuracy · Safety · Communication · Professionalism
Career Portfolio ProjectProject25%80% on the portfolio rubric; all three components (resume, goal statement, skills checklist) must be present and completeStudents submit a complete digital career portfolio consisting of a trade-specific resume, a professional goal statement of 200–300 words, and a self-assessed skills checklist cross-referenced to Printing United Alliance competency areas and 3M Preferred Installer knowledge domains. The portfolio is scored by the instructor on a rubric evaluating accuracy, completeness, professional presentation, and alignment to industry entry-level expectations.
Accuracy · Safety · Communication · Professionalism
Safety and Career Readiness Oral DefenseOral / panel25%75% on the oral defense rubric; must correctly answer all critical safety questions (those marked safety-critical receive a pass/fail override)Each student participates in a 15-minute oral session with the instructor and, where available, an industry panel member. The student is asked five questions drawn from the course content—at least two on safety procedures (hazard identification, LOTO, or emergency response) and at least one on career readiness (how they would handle a workplace scenario). Responses are scored on accuracy, depth, and professional communication; any incorrect answer to a safety-critical question requires a remediation and a second attempt before the student advances to Course 2.
Accuracy · Safety · Communication · Professionalism
TEC-PRIN79-02 Trade course

Digital & Offset Print Production

73 hr · $875 COMPLIMENTARY

Students develop hands-on competency in both digital (toner and inkjet) and offset lithographic printing processes, covering press setup, substrate selection, color management, and quality control. Emphasis is placed on understanding how each process is chosen for a given job, how to operate equipment safely, and how to evaluate printed output against industry-standard specifications. Lesson content maps directly to Printing United Alliance certification exam domains covering pressroom operations, color, and substrate handling.

Outcomes
Course text

Students develop hands-on competency in both digital (toner and inkjet) and offset lithographic printing processes, covering press setup, substrate selection, color management, and quality control. Emphasis is placed on understanding how each process is chosen for a given job, how to operate equipment safely, and how to evaluate printed output against industry-standard specifications. Lesson content maps directly to Printing United Alliance certification exam domains covering pressroom operations, color, and substrate handling.

How the course runs. 6 blocks: Printing Processes: How Digital and Offset Work; Press Safety, Chemicals, and Lockout/Tagout; Substrates, Inks, and Consumables; Digital Press Operation and Color Management; Offset Press Operation and Quality Control; Job Workflow, Estimating Basics, and Industry Communication.

What competent looks like. Set up and operate a sheetfed digital press and a small-format offset press to produce a job within specified color tolerance, demonstrating correct makeready procedure from job ticket to finished sheet. Select the appropriate printing process (digital vs. offset) for a given job based on run length, substrate, color requirements, and turnaround time. Perform and document a basic color calibration workflow including ICC profile selection, soft proofing, and output verification using a densitometer or spectrophotometer. Identify and correct common print defects—including hickeys, ghosting, dot gain, banding, and misregister—by adjusting press controls or digital RIP settings. Apply all required PPE, lockout/tagout procedures, and chemical safety practices (SDS review, ventilation, waste disposal) when operating inks, fountain solutions, and cleaning solvents. Read and execute a production job ticket, record press log data, and communicate job status using standard shop terminology.

Lessons · 6 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Printing Processes: How Digital and Offset Work10theoryStudents will compare digital (electrophotographic and inkjet) and offset lithographic printing principles and match each process to appropriate job scenarios based on run length, substrate, and cost.
  1. Lecture and annotated diagram session: students label cross-section diagrams of an offset plate cylinder, blanket, and impression cylinder, and separately diagram the toner fusing sequence in an electrophotographic engine—submitted for instructor review.
  2. Job-scenario sorting exercise: groups of three receive 12 printed job cards (run length, substrate, color count, deadline) and sort them into 'offset best,' 'digital best,' or 'either' categories, then defend choices to the class.
  3. Guided reading from the Printing United Alliance Body of Knowledge excerpts on process selection; students complete a structured reading guide identifying five economic and five quality factors that drive process choice.
Whiteboard, projector, process diagram handouts, sample printed pieces (offset and digital), Printing United Alliance study materials, job-scenario card setWritten quiz of 20 multiple-choice and short-answer questions on process principles and selection criteria; pass mark 75% correct.
2Press Safety, Chemicals, and Lockout/Tagout8theoryStudents will identify all hazardous materials in a typical pressroom, locate and read an SDS, don correct PPE for each task, and perform a lockout/tagout procedure on a designated energy source before any hands-on press work begins.
  1. SDS station rotation: students visit four stations (offset ink, fountain solution concentrate, blanket wash, UV-cure cleaner) and complete a one-page SDS summary form for each, identifying health hazards, required PPE, first-aid measures, and disposal method.
  2. PPE selection drill: instructor describes six pressroom tasks aloud; students hold up the correct combination of PPE items (nitrile gloves, safety glasses, chemical splash goggles, respirator, hearing protection) and explain why each piece is required for that task.
  3. Supervised lockout/tagout walkthrough: with instructor narrating OSHA Control of Hazardous Energy (29 CFR 1910.147) steps, students take turns applying a personal lock to the training press isolation point, verifying zero energy state, and releasing the lock in correct sequence.
SDS binders for all shop chemicals, PPE kit (assorted), lockout/tagout station with personal locks and hasp, OSHA 29 CFR 1910.147 reference handout, ventilation map of pressroomInstructor observes each student complete the full six-step lockout/tagout sequence without prompting; any deviation in sequence is an automatic retest. Written SDS quiz requires 80% correct identification of hazard categories and PPE selections.
3Substrates, Inks, and Consumables10demoStudents will identify common paper grades, coatings, and non-paper substrates used in commercial print, and explain how substrate choice affects ink adhesion, dot gain, and color output on both digital and offset presses.
  1. Substrate sample library build: each student receives an envelope of 20 unmarked substrate samples and uses a loupe, water drop test, and grain-direction test to classify each as coated/uncoated, grain direction, and approximate basis weight; answers checked against an answer key.
  2. Instructor-led ink comparison demo: instructor prints the same CMYK test file on coated offset, uncoated offset, and a digital press on matte and gloss stocks; students measure printed density with a densitometer at three sheet positions and record results in a comparison table.
  3. Ink chemistry mini-lecture and label exercise: students match six ink chemistry types (heat-set, sheetfed conventional, UV-cure offset, toner, latex inkjet, solvent inkjet) to their typical cure mechanism, press type, and a real substrate application, completing a structured matching worksheet.
Substrate sample set (minimum 20 types), 10x loupe, densitometer, printed test targets, ink sample jars (labeled for safety), ink chemistry matching worksheet, Printing United Alliance substrate reference chartStudents correctly classify at least 16 of 20 unmarked substrates and score 75% on the ink chemistry matching worksheet; density table reviewed by instructor for plausible values.
4Digital Press Operation and Color Management18labStudents will perform a complete digital press makeready—including media loading, profile selection, RIP job submission, calibration check, and print quality verification—producing a finished piece within a Delta-E tolerance specified by the job ticket.
  1. Guided makeready walkthrough: instructor demonstrates full startup, paper tray loading, ICC profile selection in the RIP software, and a calibration/linearization check on the production digital press; students each repeat the sequence individually while a partner observes and checks against a printed step-by-step checklist.
  2. Color-managed output lab: students receive a prepared PDF job file with embedded profile, submit it through the RIP, select the correct output profile for the loaded substrate, and print a 25-sheet run; they measure printed color patches with a spectrophotometer against supplied aim values and record Delta-E readings.
  3. Defect identification and correction exercise: instructor pre-loads five RIP setting configurations that produce known defects (banding, color cast, misregister, incorrect trapping, low resolution artifact); students print, identify each defect by name, record the probable cause, and adjust the setting to correct it, then reprint for comparison.
Production digital press (sheetfed toner or inkjet, appropriate to shop), RIP workstation, ICC profiles library, coated and uncoated substrates, spectrophotometer, press log forms, PDF test files, defect reference chart from Printing United Alliance study materialsAll color patches on the student's 25-sheet run must read Delta-E ≤ 5 against aim values on at least 80% of measurements; all five defects must be correctly named and corrected within one adjustment attempt; press log must be complete and legible.
5Offset Press Operation and Quality Control18labStudents will make ready a sheetfed offset press—including plate mounting, ink/water balance setup, impression adjustment, and registration—and produce a run of acceptable quality verified by densitometry and visual inspection against industry quality standards.
  1. Plate mounting and registration setup: instructor demonstrates mounting a pre-burned plate on the press, setting side guide and front guide registration stops, adjusting impression cylinder pressure, and running a draw sheet; each student then mounts a plate and adjusts guides under instructor supervision until a satisfactory first pull is achieved.
  2. Ink-water balance exercise: students deliberately over-damp and under-damp the press in turn, print 10 sheets at each setting, and record the visual and densitometric effects (toning, scumming, ink starvation) in a comparison log, then dial in correct balance and document the corrected density readings.
  3. Production run and inspection: students run 100 sheets to saleable quality, pulling every 20th sheet for a control strip density check (solid density, dot gain at 50%, trapping) and recording results on a press control chart; sheets are visually inspected for hickeys, setoff, and misregister against the proof.
Sheetfed offset press (single- or two-color), pre-burned offset plates for student use, offset ink set (CMYK), fountain solution, blanket wash solvent, nitrile gloves, densitometer, control strip targets, press control chart forms, loupe, ISO 12647-2 reference handout (process color tolerances)Solid ink density readings must fall within ±0.10 of aim density on at least four of five control strip pulls; dot gain at 50% must be within ±5 percentage points of the target; fewer than 3 hickeys per sheet on the final 20-sheet sample; press log complete with every pull recorded.
6Job Workflow, Estimating Basics, and Industry Communication9practiceStudents will trace a print job from client brief through job ticket, process selection, press scheduling, and quality sign-off, and use correct industry terminology to communicate job status and change requests in written and verbal formats.
  1. Job ticket reading and markup exercise: each student receives a realistic job ticket containing 10 intentional ambiguities or errors (conflicting bleed specs, wrong profile noted, unclear run length); students annotate the ticket, write a CSR-style clarification memo to the 'client,' and list any press settings that need adjustment before running.
  2. Estimating comparison worksheet: using provided paper price schedules and a simple press rate formula, students calculate and compare the cost-per-piece for a 500-unit and a 5,000-unit job on both digital and offset, then write a two-paragraph recommendation explaining the crossover point and justifying the chosen process.
  3. Role-play communication drill: in pairs, one student plays pressroom operator and one plays client services; the operator must explain a job-stopping defect, propose a solution, and document the resolution in a production note—pairs rotate so each student plays both roles at least once.
Sample job tickets (set of 10 with planted errors), paper price schedule handout, press rate calculation worksheet, CSR memo template, role-play scenario cards, industry glossary from Printing United Alliance study materialsStudent identifies and correctly annotates at least 8 of 10 job ticket errors; estimating worksheet calculations are arithmetically correct and recommendation paragraph includes cost crossover rationale; instructor evaluates role-play on a 4-point rubric (accuracy, terminology, professionalism, documentation) with a minimum score of 3 on each dimension.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Digital & Offset Print Knowledge ExamWritten exam25%75% correct (38 of 50 questions)A 50-question written exam covering printing process principles, substrate and ink selection, color management terminology, defect identification, press controls, and job workflow as taught in Lessons 1, 3, and 6; question formats mirror Printing United Alliance certification exam style (multiple choice and short answer). Students who score below 75% complete a targeted review and retest once.
Standard met · Safety · Time · Quality/finish · Documentation
Press Makeready and Production Run Skills DemonstrationSkills demonstration45%Instructor-scored rubric total of 80% or higher across all criteria; any critical safety failure results in immediate stop and mandatory retestEach student independently performs a complete digital press makeready and a complete offset press makeready from a supplied job ticket, producing a saleable run of 50 sheets on each press; the instructor scores the demonstration using a structured rubric covering sequence accuracy, quality of setup, measured color and density results, and time on task. This assessment maps directly to Printing United Alliance pressroom operations exam domains.
Standard met · Safety · Time · Quality/finish · Documentation
Press Log and Quality Control Lab LogLog15%All required entries present and legible; density and Delta-E values recorded for every required pull; narrative defect descriptions complete for at least 5 of 6 correction exercises; overall completeness score of 80%Students submit the cumulative press log maintained across Lessons 4 and 5, including all control strip density readings, Delta-E measurements, defect identification notes, and corrective action records; the log is evaluated for completeness, accuracy of recorded values, and quality of the written defect analysis notes. A complete and accurate log demonstrates the documentation habit required for ISO 12647-compliant production environments.
Standard met · Safety · Time · Quality/finish · Documentation
Pressroom Safety and Hazardous Materials CheckSafety audit15%100% correct completion of the lockout/tagout sequence; SDS summary forms for all four chemicals complete with no critical omissions (health hazard, PPE, disposal); PPE selection correct for all six tasks—any critical safety error requires immediate remediation and recheck before student may continue in the courseDrawing directly from Lesson 2 activities, the instructor uses a structured observation checklist to verify that each student can independently perform lockout/tagout on the designated press energy isolation point, select and don correct PPE for a stated pressroom task, and locate and interpret SDS information for a chemical handed to them without prior notice. This check must be passed before the student sits the skills demonstration assessment.
Standard met · Safety · Time · Quality/finish · Documentation
TEC-PRIN79-03 Trade course

Wide-Format & UV Printing

73 hr · $875 COMPLIMENTARY

Students operate wide-format inkjet printers and UV-curable flatbed printers to produce banners, backlit graphics, rigid substrates, and specialty prints to industry-standard color and quality specifications. Lessons cover machine setup, RIP workflow, substrate handling, ink chemistry, color calibration, finishing, and safe chemical management. Competencies map directly to PIA/Printing United Alliance certification domains covering digital print production and color management.

Outcomes
Course text

Students operate wide-format inkjet printers and UV-curable flatbed printers to produce banners, backlit graphics, rigid substrates, and specialty prints to industry-standard color and quality specifications. Lessons cover machine setup, RIP workflow, substrate handling, ink chemistry, color calibration, finishing, and safe chemical management. Competencies map directly to PIA/Printing United Alliance certification domains covering digital print production and color management.

How the course runs. 6 blocks: Wide-Format Technology Overview & Shop Safety; RIP Software, Color Management & ICC Profiling; Wide-Format Printer Operation & Media Handling; UV-Curable Flatbed Printer Operation & Substrate Preparation; Preventive Maintenance, Troubleshooting & Ink Management; Production Workflow Integration & Quality Control.

What competent looks like. Set up, calibrate, and operate a wide-format solvent or latex inkjet printer to produce output that meets a customer-supplied color proof within an acceptable Delta-E tolerance. Configure and operate a UV-curable flatbed printer, including Z-axis clearance setting, jig construction, and ink-cure verification, without producing a mis-print or cure failure. Build and apply an ICC output profile using a spectrophotometer and RIP software, and document the profiling process in a calibration log. Select the correct substrate, ink set, and media profile for a given job specification, citing adhesion, outgassing, and durability requirements. Perform daily, weekly, and monthly preventive maintenance on wide-format and UV printers, including printhead nozzle checks, capping station cleaning, and UV lamp inspection. Handle, store, and dispose of solvent, latex, and UV inks and cleaning agents in compliance with SDS requirements and applicable OSHA Hazard Communication standards.

Lessons · 6 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Wide-Format Technology Overview & Shop Safety10theoryStudents will identify the major categories of wide-format inkjet technology—aqueous, solvent, latex, and UV-curable—and demonstrate correct PPE selection and SDS lookup for each ink type before touching any equipment.
  1. Instructor-led comparison chart: students fill in a four-column matrix (aqueous / eco-solvent / latex / UV) covering ink chemistry, typical substrates, ventilation requirements, and curing method, referencing manufacturer technical bulletins and OSHA Hazard Communication (HazCom) standard 29 CFR 1910.1200.
  2. SDS scavenger hunt: each student locates the SDS for one assigned ink brand, extracts the required PPE, first-aid measures, and disposal instructions, then presents findings to the class in a two-minute verbal summary.
  3. Shop walk-through with the instructor: students identify every piece of safety equipment in the print room—eyewash station, fire extinguisher class, ventilation switch, spill kit—and record locations on a shop floor sketch that becomes the first entry in their lab log.
Manufacturer SDS sheets for eco-solvent, latex, and UV inks; OSHA HazCom poster; nitrile gloves, safety glasses, chemical-splash goggles, respirator cartridges (organic vapor); wide-format printer overview video from PIA/Printing United resource library; blank shop floor diagram template.Students score 80% or higher on a 20-question written quiz covering ink categories, ventilation requirements, correct PPE for each ink type, and SDS section identification; any missed safety item requires immediate re-instruction before lab access is granted.
2RIP Software, Color Management & ICC Profiling14demoStudents will configure a job in a professional RIP application, load an existing ICC output profile, and explain how the RIP converts RGB or CMYK source data to device ink values for a specific substrate-and-ink combination.
  1. Guided RIP walkthrough: instructor opens a production RIP (such as Wasatch, Caldera, or Onyx—whichever the lab holds a license for) and projects each major dialog—job queue, media settings, color management tab, tiling, and nesting—while students annotate a printed RIP interface diagram with the function of each control.
  2. Profile load and soft-proof exercise: students open a supplied TIFF test image in the RIP, assign the correct source profile (sRGB or Adobe RGB), select the media output profile for the substrate they will print in Lesson 3, and generate a soft proof; they record the Delta-E values from the proof comparison report and note any out-of-gamut warnings.
  3. Profiling demo and target print: instructor prints a profiling target (IT8 or i1Profiler chart) on the classroom wide-format printer, measures it with a spectrophotometer while students observe, and builds a new ICC profile live; students record each step in sequence in their lab log and compare the before/after Delta-E average from the profile validation report.
Wide-format printer with current RIP license; spectrophotometer (X-Rite i1Pro or equivalent) and profiling software; IT8 or i1Profiler measurement target; sample TIFF images with embedded profiles; RIP interface diagram worksheet; lab log binders.Each student submits an annotated RIP interface diagram with all major controls correctly labeled (pass = 80% accurate) and a lab-log entry documenting the profiling steps in correct sequence; instructor initials the log entry as satisfactory before the student proceeds to Lesson 3.
3Wide-Format Printer Operation & Media Handling16labStudents will load roll media, run a nozzle-check pattern, adjust media feed compensation, and produce a full-bleed banner print that is free of banding, mis-registration, and color deviation beyond an acceptable Delta-E threshold from the approved proof.
  1. Media loading drill: each student loads a roll of vinyl and a roll of banner material onto the wide-format printer following the manufacturer's loading procedure—threading the leader, setting pinch rollers, selecting media width—while a partner checks against a posted step-by-step checklist; roles swap so every student completes both substrates.
  2. Nozzle-check and bidirectional calibration: students print a nozzle-check pattern, identify any missing or deflected nozzles by comparing to a reference pattern, perform a head-clean cycle as needed, and then run a bidirectional alignment print to eliminate head-travel banding; all results are photographed and pasted into the lab log with pass/fail notation.
  3. Production banner run: students nest two 24×72-inch banner files in the RIP using student-created nesting, send the job to the printer, monitor the print for artifacts, trim finished prints on the table, and measure three color patches with the spectrophotometer; Delta-E values are recorded in the lab log and compared to the proof tolerance established in Lesson 2.
Wide-format solvent or latex inkjet printer (54-inch or wider); banner material and self-adhesive vinyl rolls; RIP workstation; spectrophotometer; nozzle-check reference sheets; trimmer or rail cutter; measuring tape; lab log binders; manufacturer operator manual.Finished banner must be free of visible banding (confirmed by instructor visual check), have clean full-bleed edges within 2 mm, and three spot-color measurements must each return a Delta-E of 5 or lower against the proof; lab log entry for the session must be signed off by the instructor.
4UV-Curable Flatbed Printer Operation & Substrate Preparation14labStudents will set the Z-axis platen clearance for two rigid substrates of different thicknesses, build a registration jig, print a UV spot-gloss layer over a previously printed image, and verify full ink cure using a standard scratch test.
  1. Z-axis and substrate measurement exercise: students measure three different rigid substrates (such as foam board, PVC sheet, and aluminum composite panel) with a digital caliper, calculate the correct Z-axis clearance for each using the manufacturer's formula or lookup table, enter the values in the printer interface, and record all measurements in the lab log.
  2. Jig construction and registration run: using MDF or scrap material available in the shop, students build a corner-stop jig for a 24×18-inch rigid substrate, tape it to the platen, perform a registration test print on a sheet of paper laid over the substrate location, confirm alignment within 1 mm, and then print the final graphic on the actual substrate.
  3. UV spot-gloss and cure verification: students set up a second print pass with a clear spot-varnish layer defined in the RIP, print it over the cured image, wait the manufacturer-specified dwell time, then perform a scratch test (fingernail pressure on a non-image area) and a tape-pull adhesion test; results are photographed and logged, and any uncured areas trigger a re-cure and root-cause note in the log.
UV-curable flatbed printer; digital calipers; foam board, PVC sheet, and aluminum composite panel samples; MDF jig stock; double-sided tape; clear UV ink set; safety glasses and UV-blocking safety glasses rated for UV-A/UV-B exposure; nitrile gloves; manufacturer Z-axis setup guide; lab log binders.Registration jig print must align within 1 mm confirmed by instructor measurement; scratch test must show no ink lift on the cured graphic; lab log must include caliper measurements, Z-axis settings, cure test photos, and instructor sign-off; any cure failure requires a corrective-action entry before the lesson is marked complete.
5Preventive Maintenance, Troubleshooting & Ink Management11practiceStudents will complete a full scheduled preventive-maintenance cycle on both a wide-format roll printer and a UV flatbed, diagnose a seeded print-quality defect from a symptom list, and correctly label and store bulk ink following SDS secondary-container requirements.
  1. PM checklist execution: working from the manufacturer's daily, weekly, and monthly PM schedule, each student performs assigned tasks on the wide-format roll printer—capping station wipe, damper inspection, encoder strip cleaning, media-path roller check—checking each item on the official PM log form and noting any findings; the instructor seeds one intentional defect (a clogged capping station sponge) before the session without informing students.
  2. Defect diagnosis exercise: instructor prints a set of four fault prints (banding, color shift, ink puddling, and head crash marks) on paper handouts; students work in pairs to match each print to a cause from a provided symptom-cause table and write a corrective action for each, then discuss answers with the class; the seeded PM defect discovered during the checklist is identified and corrected as a real example.
  3. Ink handling and secondary-container labeling: students refill a bulk ink reservoir from a supply bottle using the proper funnel and personal protective equipment, then correctly complete a secondary-container label (chemical name, hazard pictogram, and responsible party) as required under HazCom; leftover ink is sealed and stored in the designated flammable cabinet or UV-ink storage area per SDS guidance.
Wide-format roll printer and UV flatbed printer; manufacturer PM log forms; capping station cleaning swabs, isopropyl alcohol (IPA) wipes, encoder cleaning solution; bulk ink bottles; secondary-container label blanks and HazCom pictogram reference sheet; nitrile gloves, safety glasses; fault-print handout set; lab log binders.PM log form must have every item checked and any finding noted, with instructor co-signature confirming the seeded defect was found and corrected; defect diagnosis worksheet must score 80% or higher (at least 3 of 4 correct with correct corrective actions); secondary-container label must include all required elements and be initialed as correct by the instructor.
6Production Workflow Integration & Quality Control8practiceStudents will manage a simulated two-job production queue—one wide-format roll job and one UV flatbed job—from file intake through finished output, completing a written quality-control inspection checklist and correcting at least one identified defect before customer delivery.
  1. Job intake simulation: students receive two mock job tickets with customer files attached; they preflight each file in the RIP or a preflight tool (checking resolution, color mode, bleed, and font embedding), note any issues on a job discrepancy form, make approved corrections, and nest or queue each job for the appropriate printer.
  2. Simultaneous production run: students divide roles (one manages the roll printer, one manages the flatbed) and run both jobs concurrently within a 60-minute window; they monitor actively, log any mid-run events such as a nozzle warning or substrate feed hesitation, and pull finished prints for inspection.
  3. QC inspection and defect correction: using a light booth and spectrophotometer, students inspect each finished print against a provided quality-control checklist covering color accuracy, banding, registration, trim accuracy, and surface cure; any item that fails is documented on the checklist with a root-cause note, a corrective action is applied, and the reprint is re-inspected before the student signs the QC form as customer-ready.
Wide-format roll printer and UV flatbed printer; RIP workstation; two mock job tickets with customer files (PDF and TIFF); preflight checklist template; QC inspection checklist; light booth; spectrophotometer; rail cutter; lab log binders.Both finished prints must pass all items on the QC checklist (color Delta-E ≤ 5, no visible banding, trim within 2 mm, UV cure passes scratch and tape tests); QC form must be fully completed with signatures; lab log entry for the session must document any defect found, its root cause, and the corrective action taken; instructor signs off before the student may submit the prints as the lesson artifact.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Wide-Format & UV Technology Knowledge ExamWritten exam25%75% or higher (30 of 40 questions correct); any question touching a safety or regulatory topic must be answered correctly or the student completes targeted re-instruction before retaking only those items.A 40-question closed-book written exam covering ink technology categories, RIP workflow, ICC color management concepts, UV cure chemistry, substrate selection criteria, preventive maintenance schedules, and OSHA HazCom requirements for the inks used in this course. Questions include multiple-choice, true/false, and two short-answer items requiring students to explain a cause-effect relationship in print quality. Exam content maps to PIA/Printing United Alliance certification domains for digital print production and color management.
Standard met · Safety · Time · Quality/finish · Documentation
Production Skills DemonstrationSkills demonstration45%Student must meet all five pass criteria simultaneously: correct Z-axis setting confirmed by instructor, registration within 1 mm, Delta-E ≤ 5 on three spot-color patches, cure passes scratch and tape tests, and QC form fully completed; failure on any single criterion requires one remediation attempt on that specific task.Working independently under timed conditions, each student sets up the UV flatbed for a specified rigid substrate, builds a registration jig, sends a two-layer job (color image plus spot gloss) through the RIP, prints both layers, and completes a full QC inspection of the finished piece. The instructor observes the entire sequence and scores against a five-criterion rubric. This demonstration maps to PIA/Printing United Alliance certification performance areas for digital print production and substrate handling.
Standard met · Safety · Time · Quality/finish · Documentation
Lab Log PortfolioLog15%All six lesson entries present and instructor-initialed; each entry must include the required photographs or printed test outputs, all measurements recorded with units, any defect found and its corrective action, and a legible student signature; a missing entry or unsigned entry lowers the score and requires the student to complete a makeup log before the final exam.Students submit the complete lab log maintained across all six lessons of the course. The log is evaluated for completeness, accuracy of recorded measurements, quality of defect documentation, and evidence of corrective action taken. A satisfactory log demonstrates that the student engaged in reflective practice throughout the course and supports the calibration and maintenance record-keeping skills required in a professional print shop.
Standard met · Safety · Time · Quality/finish · Documentation
Chemical Safety & PPE Compliance CheckSafety audit15%Pass is defined as zero critical errors; a critical error is any of the following: incorrect PPE selected for the ink type being handled, missing or incorrect SDS secondary-container label element, inability to locate the eyewash station within 10 seconds, or failure to identify the correct fire-extinguisher class for a UV ink fire scenario; one non-critical error (such as a procedural sequence misstep) results in immediate re-instruction and a same-day recheck.The instructor administers a direct observation check during Lesson 5 or immediately afterward: the student dons PPE appropriate to eco-solvent ink handling, completes a secondary-container label from memory, locates the eyewash station and spill kit, and verbally describes first-aid steps for eye contact with UV ink as stated on its SDS. This check maps to OSHA HazCom compliance and is a prerequisite for externship approval; a student who does not achieve a pass is barred from the externship until a successful recheck is documented.
Standard met · Safety · Time · Quality/finish · Documentation
TEC-PRIN79-04 Trade course

Vinyl & Wraps: Application, Vehicle Graphics, and Fleet Lettering

73 hr · $875 COMPLIMENTARY

Students develop hands-on proficiency in pressure-sensitive vinyl selection, surface preparation, flat and contour application, and full vehicle wrap installation using industry-standard tools and cast/calendered films. Lessons integrate color management, substrate compatibility, and professional finishing techniques aligned with 3M Preferred Installer and PIA/Printing United certification competencies. Safety practice, quality inspection, and customer-ready workmanship standards are emphasized throughout.

Outcomes
Course text

Students develop hands-on proficiency in pressure-sensitive vinyl selection, surface preparation, flat and contour application, and full vehicle wrap installation using industry-standard tools and cast/calendered films. Lessons integrate color management, substrate compatibility, and professional finishing techniques aligned with 3M Preferred Installer and PIA/Printing United certification competencies. Safety practice, quality inspection, and customer-ready workmanship standards are emphasized throughout.

How the course runs. 6 blocks: Vinyl Fundamentals: Film Types, Adhesives, and Substrate Compatibility; Surface Preparation and the Cleaning Sequence; Flat Application: Squeegee Technique, Wet and Dry Methods; Contour Wrapping: Compound Curves, Heat Forming, and Seam Placement; Vehicle Wrap Planning, Design Handoff, and Print-to-Install Workflow; Wrap Removal, Remediation, and Professional Finishing.

What competent looks like. Select the correct vinyl film type (cast, calendered, air-egress, reflective) for a given substrate and end-use application, citing manufacturer specifications. Prepare surfaces using the correct solvent-based cleaning sequence, temperature check, and flash-off time before applying vinyl to flat panels and vehicle body sections. Apply large-format vinyl graphics to flat substrates and compound-curved vehicle surfaces with no visible air bubbles, tunneling, or edge lift after a 24-hour inspection period. Execute a complete two-panel vehicle wrap segment—including overlap, seam placement, and post-heat finishing—meeting a shop-standard quality checklist with fewer than three defects. Troubleshoot and correct common application failures (silvering, fish-eyes, stretch distortion, premature edge lift) using manufacturer-approved remediation techniques. Follow all relevant PPE, chemical-handling, and heat-tool lockout/tagout procedures during every practical session, achieving a 100% safety-check pass rate.

Lessons · 6 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Vinyl Fundamentals: Film Types, Adhesives, and Substrate Compatibility10theoryStudents will classify cast, calendered, specialty, and reflective vinyl films by construction, adhesive type, and correct end-use, and match each to a given substrate and application environment.
  1. Hands-on film sample kit exercise: students sort and label 12+ sample swatches by film type, adhesive class (permanent, removable, air-egress), and rated outdoor durability, then justify selections in writing.
  2. Case-study comparison: instructor presents three real-world job scenarios (fleet lettering on a box truck, contour wrap on a passenger car hood, indoor retail wall graphic); students recommend the correct film spec and argue their reasoning against manufacturer data sheets.
  3. Guided reading and markup of a 3M 1080 Series and an Avery Dennison MPI series product data sheet, with students annotating conformability ratings, application temperature windows, and removal instructions.
Vinyl film sample kits (cast, calendered, specialty, reflective), 3M 1080 Series product data sheets, Avery Dennison MPI series data sheets, PDAA (Professional Decal Application Alliance) reference guide, whiteboard, projector10-item written matching quiz: students match film type to scenario; pass = 80% (8/10 correct). Instructor reviews written justifications from the case study for completeness.
2Surface Preparation and the Cleaning Sequence10demoStudents will demonstrate the full two-step IPA/water cleaning sequence and surface temperature verification on a painted metal panel, identifying at least three contamination sources that cause adhesion failure.
  1. Instructor-led demonstration of the industry-standard cleaning sequence—degreaser wipe-down, IPA-to-water ratio rinse, lint-free wipe pattern, flash-off timing—on a deliberately contaminated test panel, with students narrating each step.
  2. Students individually clean an assigned 18×24-inch panel following the demonstrated sequence; instructor uses a water-break test and UV contamination light to reveal missed spots before grading.
  3. Temperature audit drill: students use an infrared thermometer to check panel surface temp, ambient air temp, and film temp on three different substrates (aluminum composite, vehicle clear coat, corrugated plastic), recording all values against manufacturer minimum/maximum application windows.
Isopropyl alcohol (70% and 91%), denatured alcohol, lint-free cloths, infrared thermometer, UV contamination inspection light, 18×24-inch aluminum composite and painted steel test panels, corrugated plastic panels, OSHA SDS for all solvents, nitrile gloves, safety glassesInstructor observes and scores each student's cleaning demonstration using a 10-point checklist (correct PPE, sequence order, wipe pattern, flash-off, temp read); pass = 8/10. Water-break test must confirm a clean surface.
3Flat Application: Squeegee Technique, Wet and Dry Methods13labStudents will apply a 24×36-inch vinyl graphic to a flat substrate using both wet and dry methods, achieving a bubble-free, edge-lift-free result that passes a 24-hour inspection.
  1. Squeegee mechanics drill: on scrap film and a glass panel, students practice 45-degree angle overlap strokes, buffer pad pressure, and hinge-method positioning until they can achieve uniform film contact across the full panel in under four minutes.
  2. Wet-method application lab: students mix application fluid, tack down a 24×36-inch calendered graphic with the hinge method, squeegee from center outward, and remove liner without trapping fluid, logging each step in their lab notebook.
  3. Dry-method application lab: students apply a 24×36-inch cast graphic using the dry hinge method with no application fluid; they post-heat edges to 100–110°F with a heat gun, allow a 24-hour dwell, then self-inspect against a shop quality checklist, documenting defects and remediation attempts.
24×36-inch cast and calendered vinyl graphics (pre-printed), aluminum composite panels, application fluid (commercial pre-mix and DIY formula), Olfa knife, squeegees (hard, medium, felt-edge), heat gun with thermometer, infrared thermometer, application tape, lab notebooks, shop quality checklist, nitrile gloves, safety glasses24-hour post-application inspection using shop quality checklist: zero air bubbles larger than 3mm, zero edge lift along any edge, clean knife cuts at corners; pass = all three criteria met. Lab notebook entry must be complete.
4Contour Wrapping: Compound Curves, Heat Forming, and Seam Placement18labStudents will wrap a compound-curved vehicle body panel—including a recessed channel and a convex radius—using heat-forming and bridging techniques, placing seams in accepted low-visibility positions and completing post-heat finishing.
  1. Heat-forming technique drills on scrap cast vinyl over a door-handle plug and a foam radius block: students practice controlled heat-gun movement, stretch-and-squeegee sequence, and recognizing over-stretch (whitening) before moving to real panels.
  2. Two-person wrap session on a hood or door panel removed from a practice vehicle: one student holds and tensions the film while the other squeeges and heat-forms; students swap roles at the halfway mark, and both complete a seam in a door jamb or panel edge using the double-cut overlap method.
  3. Post-heat cycle and quality audit: students use a heat gun and infrared thermometer to post-heat all edges and recesses to the manufacturer-specified temperature range, then self-audit using a defect map worksheet, marking any tunneling, lifting, or fish-eyes and recording planned remediation.
Cast wrap vinyl (3M 1080 or equivalent), practice vehicle door panels and hood, heat guns (variable temperature), infrared thermometer, squeegees with buffer felt, Olfa knives and replaceable blades, seam tape, door-handle foam plug, radius block, defect map worksheet, nitrile gloves, safety glasses, knee padsInstructor inspects completed panel using a 15-point shop quality rubric: seam placed in accepted location, no tunnel or lift along any curve, post-heat confirmed by temperature log; pass = 12/15 points. Both partners must demonstrate each technique independently.
5Vehicle Wrap Planning, Design Handoff, and Print-to-Install Workflow12theoryStudents will produce a wrap layout plan—including panel measurements, bleed zones, seam map, and a material estimate—for a compact vehicle using a vehicle template and a client design file.
  1. Vehicle measurement exercise: working in pairs, students measure a compact car's key panels (hood, roof, driver and passenger doors, rear quarter) using a flexible tape and record dimensions on a standardized measurement form, then compare to a published template to verify accuracy.
  2. Template-and-bleed layout session in Illustrator or equivalent: students place a client logo/livery file over a vehicle side-view template, set 2-inch bleed past panel edges, identify seam zones, and export a print-ready file with color profile and resolution notes.
  3. Material takeoff calculation: using the panel measurements from the first activity and a roll-width assumption (60 inches standard), students calculate total square footage needed, add a 10% waste factor, and price the job using a current distributor price sheet, presenting a cost summary on a one-page estimate form.
Flexible measuring tape, standardized vehicle measurement forms, laptop with Adobe Illustrator (or equivalent), vehicle wrap templates (free industry templates), client design sample file, distributor price sheet, calculator, projector for instructor reviewInstructor reviews layout file and estimate form: bleed set correctly, seam map logical, material quantity within 10% of instructor-calculated benchmark, and cost estimate complete; pass = all four criteria met. Material math must show work.
6Wrap Removal, Remediation, and Professional Finishing10practiceStudents will remove an aged vinyl graphic from a painted substrate without surface damage using heat and the correct angle, then clean all adhesive residue and return the surface to pre-wrap condition verified by visual and tactile inspection.
  1. Heat-and-peel removal drill: on a panel wrapped with vinyl that has dwelled at least 72 hours, students use a heat gun to warm a 12-inch section to the recommended removal temperature, peel at a low angle, and time themselves while the instructor monitors panel surface for gouging or clearcoat damage.
  2. Adhesive residue removal lab: students apply adhesive remover (citrus-based or equivalent, per SDS), dwell for the recommended time, agitate with a plastic scraper, and final-clean with IPA wipe; surfaces are inspected under a work light for complete residue removal.
  3. End-to-end remediation simulation: instructor presents three pre-applied panels each with one deliberate defect (a bubble cluster, a lifted edge, a deep wrinkle); students diagnose each defect, select the correct tool and technique (pin-prick/re-squeegee, heat and re-tack, local re-apply), execute the repair, and document the fix on a remediation log.
Aged vinyl test panels (minimum 72-hour dwell), heat gun, infrared thermometer, plastic and brass squeegees, plastic trim tools, citrus-based adhesive remover, IPA wipes, lint-free cloths, SDS for all chemicals, work light, remediation log form, nitrile gloves, safety glassesInstructor inspects removed panel under work light: zero visible clearcoat scratches, zero adhesive residue detected by tactile wipe; pass = both criteria met. Remediation log must document diagnosis, technique chosen, and outcome for all three panels.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Vinyl & Wraps Knowledge ExamWritten exam25%75% (30/40 items correct)A 40-item written exam covering film classification, adhesive chemistry, substrate compatibility, surface preparation sequences, application temperature windows, seam placement rules, material estimating math, and removal procedures, mapped to PIA/Printing United and 3M Preferred Installer knowledge domains. Items include multiple-choice, true/false, and short-answer calculation problems.
Standard met · Safety · Time · Quality/finish · Documentation
End-to-End Wrap Skills DemonstrationSkills demonstration45%Pass requires 80% on a 25-point instructor rubric (20/25 points); all safety criteria must be met independently of rubric scoreWorking within a timed session, each student independently cleans a vehicle panel, applies a pre-printed cast vinyl graphic to a compound-curved surface, post-heats all edges and recesses to the specified temperature, and presents the finished panel for inspection at 24 hours. The instructor scores surface preparation, film tension, seam placement, heat management, post-heat completion, and overall cosmetic quality using the shop rubric, directly assessing 3M Preferred Installer performance standards.
Standard met · Safety · Time · Quality/finish · Documentation
Application Lab Log PortfolioLog15%All six lesson lab notebook entries submitted and complete; average score of 80% across instructor-scored entry rubricsStudents maintain a running lab notebook—one documented entry per lesson that includes date, materials used, process steps followed, measurements recorded, defects observed, and remediation taken. The portfolio is reviewed at course end for completeness, accuracy of recorded data, and evidence that the student connected observations to manufacturer specifications and course theory.
Standard met · Safety · Time · Quality/finish · Documentation
Safety and Hazard-Control CheckSafety audit15%100% on all critical safety behaviors; any single critical failure requires immediate remediation and re-check before the student may continue unsupervised lab workAn unannounced spot-check conducted during one of the lab sessions verifies that the student: selects and dons correct PPE (nitrile gloves, safety glasses) before handling solvents; references the SDS before using any new chemical; uses the heat gun only with the tip guard in place and rests it in the stand when not in hand; and follows the waste-disposal procedure for solvent-soaked cloths. The evaluator uses a binary yes/no checklist aligned with OSHA general industry hazard communication and PPE standards.
Standard met · Safety · Time · Quality/finish · Documentation
TEC-PRIN79-05 Trade course

Sign Fabrication & Installation

73 hr · $875 COMPLIMENTARY

Students fabricate dimensional, flat-panel, and illuminated signs from aluminum composite, HDU foam, acrylic, and steel substrates using industry-standard cutting, routing, welding, and finishing equipment. Lessons progress from substrate selection and shop-safety setup through structural anchoring, electrical rough-in for LED modules, and post/wall-mount installation in compliance with applicable building and electrical codes. Credential exam areas covered include substrate knowledge, fabrication processes, installation methods, and safety protocols tested on the PIA/Printing United Certification.

Outcomes
Course text

Students fabricate dimensional, flat-panel, and illuminated signs from aluminum composite, HDU foam, acrylic, and steel substrates using industry-standard cutting, routing, welding, and finishing equipment. Lessons progress from substrate selection and shop-safety setup through structural anchoring, electrical rough-in for LED modules, and post/wall-mount installation in compliance with applicable building and electrical codes. Credential exam areas covered include substrate knowledge, fabrication processes, installation methods, and safety protocols tested on the PIA/Printing United Certification.

How the course runs. 6 blocks: Substrates, Hardware, and Shop Safety Setup; CNC Routing, Metal Braking, and Dimensional Lettering; Sign Cabinet Assembly and Surface Finishing; LED Module Integration and Electrical Safety; Structural Anchoring: Wall, Post, and Suspended Mounts; Full Install Simulation: Planning, Fall Protection, and As-Built Documentation.

What competent looks like. Select appropriate substrates and hardware for a given sign specification and environment, justifying choices in writing. Safely operate a CNC router, plasma/laser cutter, and metal brake to fabricate sign blanks and dimensional letters to print-ready tolerances. Assemble and finish channel letters, cabinet signs, and flat-panel monument faces using correct adhesives, welds, and surface coatings. Rough-in low-voltage LED modules, verify polarity and continuity with a multimeter, and identify when a licensed electrician is required for line-voltage work. Anchor wall-mounted, post-mounted, and suspended signs to structural members using manufacturer-specified fasteners, verifying load ratings against sign weight. Execute and document a full sign installation using a pre-install safety checklist, fall-protection plan, and as-built record that meets 3M Preferred Installer documentation standards.

Lessons · 6 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Substrates, Hardware, and Shop Safety Setup10theoryStudents identify at least eight common sign substrates and their hardware, explain OSHA Hazard Communication requirements for shop chemicals, and describe lockout/tagout procedures for fabrication equipment.
  1. Substrate sample sort: students match 12 labeled coupons—aluminum composite material (ACM), HDU foam, corrugated plastic, PVC, acrylic, Dibond, mild steel, stainless steel, aluminum sheet, polycarbonate, vinyl-faced foam board, and MDO plywood—to specification sheets listing weight, weather rating, machinability, and typical use cases, then write a one-paragraph selection rationale for a given project brief.
  2. SDS station rotation: instructor sets up five chemical stations (primer, solvent cleaner, two-part polyurethane paint, contact cement, and rust-inhibiting spray); students read each SDS, record required PPE, ventilation requirements, and first-aid measures on a structured worksheet, then demonstrate donning the correct respirator cartridge for each chemical.
  3. Lockout/tagout walkthrough: students shadow the instructor through a scripted energy-control procedure on the CNC router—identifying energy sources, applying personal locks, verifying zero-energy state—then write each step from memory and compare to the posted machine-specific LOTO procedure.
Substrate sample kit (12 materials), SDS binder for all shop chemicals, OSHA 29 CFR 1910.147 lockout/tagout standard, half-face respirator with organic-vapor and P100 cartridges, safety glasses, nitrile gloves, structured SDS worksheet, fabrication shop tour checklistWritten substrate-matching quiz scored ≥ 80 % correct; LOTO procedure written from memory with all steps present and in correct order (pass = 100 % of critical steps); instructor verifies correct respirator donning before student enters chemical areas.
2CNC Routing, Metal Braking, and Dimensional Lettering15labStudents set up and run a CNC router to cut aluminum composite panel blanks and rout acrylic dimensional letters to within ±0.031 in. of design dimensions, then form a three-sided aluminum channel-letter return on a metal brake.
  1. Tool-path generation exercise: students open a pre-drawn letter vector in the shop's CAM software, assign correct bit selection (compression spiral for ACM, O-flute for acrylic), set feed rate and depth-of-cut per the bit manufacturer's chart, post-process the file, and have the instructor verify the tool path before cutting; they then run the job unassisted and measure five critical dimensions with digital calipers.
  2. Metal brake practice: using 0.040 in. aluminum coil stock cut to channel-letter return heights of 3 in. and 5 in., students lay out bend lines, set the brake for 90-degree bends, form the back, side, and return of one channel-letter U-channel, check squareness with a combination square, and adjust until all four corners are 90 ° ± 1 °.
  3. Dimensional letter assembly: students bond CNC-routed acrylic faces to completed aluminum returns using manufacturer-recommended adhesive, clamp or tape according to open-time specifications, and allow cure time; finished letters are checked against the original design file dimensions and any gap or misalignment is documented and corrected before sign-off.
CNC router with dust collection and full guarding, compression-spiral and O-flute router bits, CAM software (shop-installed), 4×8 ft. ACM and 1/4 in. cast acrylic sheet, 0.040 in. aluminum coil, metal brake (at least 48 in. bed), digital calipers, combination square, two-part acrylic adhesive, clamps and masking tape, face shield, hearing protection, cut-resistant gloves, bit manufacturer's feed/speed chartAll five measured dimensions on CNC-cut parts within ±0.031 in. of drawing; brake-formed channel-letter return at 90 ° ± 1 ° on all corners (verified with combination square); adhesive bond passes hand-pull test after cure with no delamination—all three criteria must be met to pass.
3Sign Cabinet Assembly and Surface Finishing12labStudents assemble a single-face illuminated sign cabinet from pre-cut ACM panels, apply a primer coat and two-part polyurethane topcoat meeting color-match standards, and install a translucent face skin without visible air pockets or wrinkles.
  1. Cabinet pop-riveting and caulking: using a shop drawing, students drill pilot holes in ACM cabinet panels, assemble the frame with aluminum angle extrusion, fasten with structural pop rivets at specified spacing, seal all interior seams with neutral-cure silicone caulk, and have the instructor check for squareness (diagonal measurement method) and weathertight seam quality before proceeding.
  2. Two-part polyurethane paint application: students prepare the ACM cabinet surface—degrease with solvent wipe, apply self-etching primer, allow flash time per SDS, mix two-part topcoat at manufacturer's ratio using a calibrated mixing cup, spray with HVLP gun at recommended pressure, and apply two finish coats; after cure, students measure film thickness with a dry-film-thickness gauge and compare to specification (typically 2–4 mils per coat).
  3. Translucent face installation: students cut a translucent polycarbonate face skin to cabinet opening dimensions on the panel saw, pre-clean with IPA, peel backing in sections, align to reveal line, apply hand pressure from center outward to eliminate air pockets, then inspect under backlighting for bubbles, wrinkles, and edge lift, marking any defects for correction.
Pre-cut ACM panels, aluminum angle extrusion, structural pop rivets and rivet gun, cordless drill, silicone caulk and caulk gun, self-etching primer, two-part polyurethane paint, calibrated mixing cups, HVLP spray gun with regulator, dry-film-thickness gauge, polycarbonate face material, IPA cleaner, panel saw, measuring tape, combination square, full-face respirator with appropriate cartridges, spray booth or cross-draft ventilation, OSHA 29 CFR 1910.94 spray-finishing referenceCabinet diagonal measurements within 1/8 in. (square); dry film thickness 2–4 mils per coat confirmed by gauge; face skin inspected under backlighting with zero visible air pockets > 1/2 in. diameter and zero edge lift—all three criteria required to pass.
4LED Module Integration and Electrical Safety10demoStudents install low-voltage LED strip modules inside a channel-letter or cabinet, verify correct polarity and continuity with a multimeter, and accurately explain which tasks legally require a licensed electrician.
  1. LED layout planning: using a product data sheet for the specified LED module (e.g., a common 12 V DC strip with stated power draw per foot), students calculate total watt draw for a letter set of known linear footage, select an appropriately rated UL-listed class-2 power supply, and sketch the wiring diagram showing power supply, primary conductors, and polarity markings—instructor reviews the sketch before wiring begins.
  2. Module installation and continuity test: students mount LED strips inside pre-assembled channel-letter returns using the manufacturer's adhesive backing and mechanical clips at recommended intervals, make low-voltage connections with polarity-correct connectors, power on at the class-2 supply, and use a multimeter set to DC volts to confirm voltage at the far end of each run is within the module's specified operating range; any underlit or non-illuminating segment is diagnosed and corrected.
  3. Electrical-scope discussion and role-play: instructor presents three scenarios—(1) swapping a class-2 LED driver inside a cabinet already wired to a low-voltage supply, (2) running new line-voltage conduit to a sign location, (3) connecting a sign disconnect switch to a 120 V branch circuit—and students, in pairs, argue which scenario requires a licensed electrician, citing the National Electrical Code concept of line-voltage versus low-voltage work and local licensing requirements; pairs present conclusions to the group.
12 V DC LED strip modules, UL-listed class-2 power supply, primary conductor wire (appropriate gauge per product specs), polarity-correct quick connectors, digital multimeter, wire strippers, electrical tape, zip ties, LED module product data sheet, NEC overview reference (current edition, relevant low-voltage sections), whiteboard for wiring sketch, pre-assembled channel-letter returnsCalculated wattage and power supply selection verified correct by instructor before wiring; multimeter reading at far-end LED run within module's specified voltage operating range; student correctly identifies all three electrical-scope scenarios in discussion with no errors regarding line-voltage work requiring a licensed electrician—all three criteria required to pass.
5Structural Anchoring: Wall, Post, and Suspended Mounts14fieldStudents locate structural anchoring points using a stud finder and site drawings, select fasteners appropriate to substrate (wood stud, concrete masonry, metal stud) and sign load, and install wall-mounted and post-mounted sign assemblies that pass a load-verification pull test.
  1. Anchor-point survey and load calculation: working from a dimensioned sign specification (sign face area, material weight per square foot, and wind-load zone), students calculate total sign dead load and, using a simplified wind-pressure reference table, estimate lateral load; they then select anchor type and diameter from a fastener manufacturer's load table, document their selections on a hardware spec sheet, and have the instructor approve before drilling.
  2. Wall-mount installation on practice wall: students use a stud finder and level to mark anchor locations on a shop practice wall built with wood studs, metal studs, and a masonry block section; they drill pilot holes with correct bit (brad-point for wood, carbide-tipped for masonry, self-tapping screw for metal stud), install appropriate anchors (lag screws, sleeve anchors, toggle bolts), mount a weighted sign blank using a standoff mounting system, and verify plumb and level with a 4 ft. level.
  3. Post-mount installation and base inspection: using a pre-set post sleeve embedded in a concrete-filled bucket (simulating a finished base), students attach a two-post sign structure, torque fasteners to manufacturer specification with a calibrated torque wrench, verify post plumb in two axes with a level, then apply a simulated field inspection by checking post embed depth against design spec, confirming the absence of cracking in the base, and completing the installation checklist required by 3M Preferred Installer documentation standards.
Stud finder, 4 ft. level, measuring tape, cordless hammer drill, brad-point and carbide-tipped bits, self-tapping screws, lag screws, sleeve anchors, toggle bolts, standoff mounts, calibrated torque wrench, practice wall section (wood stud, metal stud, masonry), concrete-bucket post-sleeve assembly, weighted sign blank (20–30 lb.), fastener manufacturer load tables, wind-pressure reference table, 3M Preferred Installer installation checklist template, hard hat, safety glasses, glovesHardware spec sheet approved by instructor before drilling; installed sign blank plumb and level within 1/8 in. over 48 in. (verified with level); torqued fasteners confirmed at specified torque with calibrated wrench and recorded on checklist; simulated field inspection checklist completed with no critical items missed—all criteria required to pass.
6Full Install Simulation: Planning, Fall Protection, and As-Built Documentation12practiceStudents plan and execute a complete simulated sign installation—from pre-install site survey through final as-built documentation—meeting 3M Preferred Installer documentation standards and demonstrating correct fall-protection equipment use at elevated work heights.
  1. Pre-install site survey and job-hazard analysis: given a scenario packet (sign type, mounting surface, height above grade, electrical service present), students complete a written job-hazard analysis (JHA) identifying all hazards, required PPE, fall-protection method (ladder safety, aerial lift tie-off, or scaffold), permit requirements (e.g., electrical, right-of-way), and a staged material and tool list; the JHA is reviewed by the instructor and must be approved before the install simulation begins.
  2. Elevated installation with fall-protection demonstration: using a 6 ft. stepladder and an 8 ft. A-frame ladder set at the proper angle (1:4 rule), students don full harness, verify harness fit with a partner check, attach a personal fall-arrest lanyard to the designated anchor point on the A-frame, perform the assigned mounting task (level a sign bracket, drive anchors, connect sign to bracket), and descend using three-point contact; instructor observes and scores each step on a fall-protection checklist.
  3. As-built documentation package: after the simulated install, students photograph the finished installation from required angles (full face, anchor detail, level verification), complete the 3M Preferred Installer-style job completion form (customer name, sign description, anchor type and quantity, torque values, installer name, date), compile photos and forms into a PDF job file, and present the package to the class in a five-minute verbal walkthrough explaining any field-modification decisions made during the install.
Scenario packet, JHA form template, 6 ft. and 8 ft. A-frame ladders, full-body harness and shock-absorbing lanyard, personal fall-arrest anchor point (overhead), 4 ft. level, cordless drill, anchor hardware, sign blank assembly, torque wrench, digital camera or smartphone, 3M Preferred Installer job completion form template, PDF compilation software, hard hat, safety glasses, gloves, high-visibility vestJHA approved by instructor with all critical hazards and controls present; fall-protection checklist scored ≥ 90 % of steps correct (harness fit, lanyard attachment, three-point contact) with zero critical errors; as-built documentation package complete—all required photos, accurate torque values recorded, and job-completion form fully filled in—all criteria required to pass.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Sign Fabrication & Installation Knowledge ExamWritten exam25%Score of 75 % or higher; any question relating to electrical scope-of-work or fall-protection must be answered correctly regardless of total score.A 50-question written exam covering substrate selection, hardware load ratings, CNC and brake-forming theory, LED electrical concepts (low-voltage vs. line-voltage), anchor mechanics, and 3M Preferred Installer documentation requirements, mapped to PIA/Printing United Certification exam content areas for fabrication and installation. Students have 60 minutes; the exam is scored immediately and results are reviewed question-by-question with the instructor.
Standard met · Safety · Time · Quality/finish · Documentation
Fabrication and Installation Skills DemonstrationSkills demonstration45%All six scored criteria rated Meets Standard or above on the rubric; any criterion rated Does Not Meet Standard requires a documented remediation and one re-attempt within five business days.Each student independently fabricates a single dimensional channel letter (routed acrylic face, brake-formed aluminum return, LED strip installed and tested) and mounts it on the practice wall at a specified height using the correct anchor type, plumb and level within tolerance, with a completed as-built form. The evaluator scores substrate handling, CNC cut quality, brake-form accuracy, LED continuity, anchor selection, and documentation using a six-criterion rubric aligned to 3M Preferred Installer performance standards.
Standard met · Safety · Time · Quality/finish · Documentation
Lab Log and Process JournalLog15%Log reviewed at lessons 2, 4, and 6; minimum average score of 80 % across all entries; any missing safety-observation entry requires immediate completion before the student may continue lab work.Students maintain a running lab log throughout the course, recording for each lab session: the task performed, materials and equipment used, measurements taken and results, any deviation from plan and how it was corrected, and a brief safety observation noting one hazard encountered and the control used. The log serves as evidence for the PIA/Printing United Certification portfolio component and is evaluated for accuracy, completeness, and professional legibility.
Standard met · Safety · Time · Quality/finish · Documentation
Safety Compliance CheckSafety audit15%100 % of critical safety behaviors observed correctly on all three unannounced checks; a single critical failure (e.g., missing LOTO step, no fall-protection when elevated, incorrect respirator) triggers immediate removal from the activity and a mandatory safety review before return.The instructor conducts three unannounced walk-through observations during lab and field lessons using a standardized critical-behavior checklist covering LOTO compliance at the CNC router, correct PPE selection and fit (eye, respiratory, and hand protection), and fall-protection equipment use at any height above 4 feet; results are documented and placed in the student's record as evidence for OSHA 10 alignment and 3M Preferred Installer safety requirements.
Standard met · Safety · Time · Quality/finish · Documentation
TEC-PRIN79-06 Trade course

Prepress: File Preparation, Color Management & Proofing

73 hr · $875 COMPLIMENTARY

Students master the complete prepress workflow from customer file intake through color-managed output, covering preflight, imposition, RIP configuration, soft proofing, and contract proofing for offset, wide-format, and digital print devices. Emphasis is placed on industry-standard software (Adobe Creative Suite, Acrobat Pro), ICC color profiles, and the file-quality disciplines that eliminate costly press errors. Lesson content maps directly to PIA/Printing United Certification competencies in digital file preparation and color management.

Outcomes
Course text

Students master the complete prepress workflow from customer file intake through color-managed output, covering preflight, imposition, RIP configuration, soft proofing, and contract proofing for offset, wide-format, and digital print devices. Emphasis is placed on industry-standard software (Adobe Creative Suite, Acrobat Pro), ICC color profiles, and the file-quality disciplines that eliminate costly press errors. Lesson content maps directly to PIA/Printing United Certification competencies in digital file preparation and color management.

How the course runs. 6 blocks: Prepress Workflow & File Standards Overview; Preflight: Identifying and Correcting File Errors; Color Theory, ICC Profiles & Soft Proofing; RIP Configuration & Press-Ready Output; Imposition & Document Assembly; Contract Proofing, Measurement & Job Release.

What competent looks like. Perform a complete preflight check on a customer PDF using Adobe Acrobat Pro and industry-standard preflight profiles, identifying and correcting at least five common file errors before releasing to production. Build and apply a device-specific ICC color profile to a soft proof, verifying that the displayed result matches a printed contract proof within an acceptable Delta-E tolerance. Configure a RIP (raster image processor) with correct resolution, color mode, and media profile settings for at least two different output devices, producing a press-ready file with no RIP errors. Construct a multi-page imposition layout using imposition software or Adobe Acrobat, correctly setting bleeds, margins, marks, and page sequence for a saddle-stitch or cut-sheet job. Evaluate an analog or digital contract proof against a printed sheet using a densitometer or spectrophotometer, recording density and color readings and documenting conformance or deviation. Safely handle, store, and label output media, inks, and chemical proofing supplies in accordance with SDS requirements and shop safety procedures established in Course 1.

Lessons · 6 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Prepress Workflow & File Standards Overview10theoryStudents will explain the end-to-end prepress workflow—from file intake to press-ready output—and identify the technical specifications (resolution, color mode, bleed, file format) required for offset, digital, and wide-format jobs.
  1. Instructor-led walkthrough of a real shop's prepress checklist; students annotate a printed job ticket at each workflow stage and discuss where errors most commonly originate.
  2. Small-group analysis of three sample job files (one offset, one wide-format, one digital) provided as PDFs; groups list spec requirements for each and present their findings to the class.
  3. Individual written exercise: students draft a one-page file-submission guide for a hypothetical commercial print customer, specifying resolution, color mode, bleed, embedded fonts, and preferred file format based on course references.
Computers with Adobe Acrobat Pro and Adobe Creative Suite (Illustrator, Photoshop, InDesign); sample job files (provided by instructor); current PIA/Printing United file-preparation guidelines; shop job tickets; whiteboardExit quiz of 10 multiple-choice questions covering workflow stages, file formats, and technical specifications; students must score 80% or higher to proceed.
2Preflight: Identifying and Correcting File Errors14labStudents will run an automated preflight profile in Adobe Acrobat Pro on customer-supplied PDFs, identify at least five distinct error categories, and correct or flag each error using Acrobat's preflight repair tools or by returning the file to its source application.
  1. Instructor demonstrates Acrobat Pro preflight panel: creating a custom preflight profile for an offset job (minimum resolution 300 ppi, CMYK or spot color only, bleed ≥ 0.125 in, PDF/X compliance); students replicate the profile setup on their own workstations.
  2. Lab exercise: students receive a packet of six intentionally flawed PDF files containing mixed errors (RGB images, missing bleed, low-resolution graphics, non-embedded fonts, overprint conflicts, incorrect page size); each student runs preflight, documents all errors in a lab log sheet, and corrects what is correctable within Acrobat or by re-exporting from InDesign.
  3. Peer review: students swap corrected files and run a second preflight pass on a partner's work, confirming zero remaining errors before signing off on the lab log.
Computers with Adobe Acrobat Pro DC and InDesign; six intentionally flawed PDF practice files; custom preflight profile template (.kfp file); lab log forms; PIA/Printing United preflight standards reference; printer for hardcopy documentationGraded lab log: student must identify 100% of planted errors across the six files and successfully correct or document a corrective action for at least five of them; instructor spot-checks two corrected PDFs with a clean preflight run—pass requires zero critical errors remaining.
3Color Theory, ICC Profiles & Soft Proofing14demoStudents will explain additive and subtractive color models, describe how ICC profiles encode device color behavior, and configure Photoshop and Acrobat soft-proof settings to simulate a specific output device on screen.
  1. Instructor-led demonstration: side-by-side comparison of an image displayed in RGB, converted to CMYK with a SWOP v2 profile, and soft-proofed to a wide-format inkjet profile; students observe visible gamut compression and record observations in their lab logs.
  2. Hands-on color-profile assignment: each student downloads an ICC profile for a specific substrate (e.g., coated offset, matte inkjet, banner vinyl) from a manufacturer's website, installs it in the operating system color utility, assigns it in Photoshop Color Settings, and produces a screen soft proof; student annotates a screenshot showing profile assignment and gamut warning overlay.
  3. Class discussion and whiteboard exercise mapping the color managed workflow: scanner/camera → editing color space → output profile → proof; students draw the diagram individually and label each conversion step with the software tool responsible.
Computers with Adobe Photoshop and Acrobat Pro; ICC profiles for at least three device/substrate combinations (instructor-provided or manufacturer downloads); color wheel poster; color-managed workflow diagram handout; lab log formsSoft-proof screenshot with annotation rubric: student must correctly identify the source profile, output profile, rendering intent, and gamut warning in their annotated screenshot; instructor evaluates using a four-point rubric—pass requires 3 of 4 items correct.
4RIP Configuration & Press-Ready Output13labStudents will configure a RIP (raster image processor) workstation with appropriate resolution, color mode, linearization curve, and media profile for two different output devices, and produce press-ready ripped files with no processing errors.
  1. Instructor walk-through of the shop RIP interface (e.g., EFI Fiery or Onyx, whichever is installed): identifying job queues, media profiles, resolution settings, color mode options, and spot-color libraries; students follow along on a second RIP workstation and document each setting in a step-by-step reference card they keep in their lab log.
  2. Paired lab exercise: one partner sets up the RIP for a four-color offset-simulation digital print job (CMYK, high resolution, paper media profile) and the other configures it for a wide-format vinyl banner job (CMYK + white ink if device supports it, banner media profile, lower resolution appropriate for viewing distance); both submit files, collect the output, and inspect for banding, color breaks, or missing elements.
  3. Error diagnosis drill: instructor intentionally introduces three common RIP misconfigurations (wrong resolution, mismatched media profile, spot color not mapped) into a job; students must identify each error by examining the RIP error log and the printed output, then document the corrective action.
RIP workstation with installed RIP software (EFI Fiery, Onyx, or equivalent shop system); wide-format inkjet printer; digital press or laser proof device; media profiles for at least two substrates; USB drives; lab log forms; RIP manufacturer's operator manualInstructor inspection of two ripped and printed outputs: both must be free of banding, color breaks, and missing elements; student's reference card must list all required settings correctly; pass requires error-free output on both devices and a complete reference card.
5Imposition & Document Assembly12practiceStudents will build an imposition layout for a multi-page saddle-stitched booklet and a gang-run cut-sheet job, correctly setting bleeds, gutters, printer marks, and page sequence so that folded and cut sheets produce correctly ordered, trimmed final pages.
  1. Instructor demonstration of manual imposition logic using a folded paper dummy: students fold and number an eight-page signature by hand to understand reader-spread vs. printer-spread sequence before touching software.
  2. Software exercise in Adobe Acrobat Pro or Quite Imposing (or equivalent): students impose a provided eight-page booklet PDF into a two-up saddle-stitch sheet layout, setting 0.125 in bleeds, 0.25 in gutter, crop marks, and registration marks; they print to a laser proof, fold, and verify page order and margins.
  3. Gang-run exercise: students arrange four different business-card designs onto a single letter-size sheet using imposition software, maximizing sheet use while maintaining correct bleed and spacing for guillotine cutting; they document the nesting logic and cut sequence in their lab log.
Computers with Adobe Acrobat Pro and imposition plug-in (Quite Imposing, Preps, or equivalent); sample multi-page PDF files; laser printer for proofing; ruler; bone folder; guillotine paper cutter; lab log forms; GATF/PIA imposition reference guidePrinted and folded booklet proof reviewed against a rubric: page order must be correct on 100% of pages, bleeds must be present on all four sides, and crop marks must be legible and accurately placed; gang sheet must accommodate all four designs with bleed; pass requires full marks on page order and bleed—any page-order error is a re-do.
6Contract Proofing, Measurement & Job Release10labStudents will produce a contract proof to a specified color standard, measure density and color values with a spectrophotometer or densitometer, compare results to target values, and complete a job-release checklist documenting conformance before authorizing a job for press.
  1. Instructor demonstration of spectrophotometer and densitometer operation: measuring a color bar on a sample proof, reading L*a*b* and density values, and calculating Delta-E against a target; students each take five measurements on the same sample and record results to verify instrument consistency.
  2. Individual proofing exercise: each student outputs a contract proof of a standardized test file (containing CMYK color bars, skin tones, and a neutral gray ramp) on the shop's proofing device, measures the included color bar with the spectrophotometer, records readings on a measurement form, and compares to the target values specified by the instructor—determining pass or fail for each color patch.
  3. Job-release simulation: student receives a completed proof, a press sheet, a measurement form, and a job-release checklist; working independently, the student evaluates whether the proof meets release criteria, marks any out-of-tolerance patches, decides whether to release or hold the job, and writes a two-sentence decision rationale—mirroring real shop practice.
Contract proofing device (inkjet proofer with color-managed RIP); spectrophotometer (e.g., X-Rite eXact or i1Pro) and/or densitometer; color-bar test file; measurement record forms; job-release checklist forms; sample press sheets for comparison; SDS sheets for proofing inks (posted at workstation); lab logMeasurement form and release checklist reviewed by instructor: spectrophotometer readings must be recorded accurately (instructor verifies with a reference measurement); student's pass/fail determination must match the correct answer for at least 8 of 10 color patches; job-release decision must be correctly justified—pass requires 80% patch accuracy and a correctly justified release decision.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Prepress Knowledge ExamWritten exam25%Score of 75% or higher on a 40-question examA closed-book, 40-question multiple-choice and short-answer exam covering prepress workflow stages, file specification requirements, color theory, ICC profile function, RIP settings, imposition logic, and contract proofing standards—mapped to PIA/Printing United Certification competency areas in digital file preparation and color management. Students have 60 minutes to complete the exam.
Standard met · Safety · Time · Quality/finish · Documentation
Preflight & Imposition Skills DemonstrationSkills demonstration45%Instructor checklist: all critical steps completed correctly with no press-critical errors remaining in the final fileEach student is given an unfamiliar, intentionally flawed PDF job file and must independently complete a full preflight, correct all critical errors, impose the document to the instructor's stated specification, and submit a press-ready file—all within 90 minutes. The instructor evaluates using a step-by-step checklist; any uncorrected press-critical error (wrong color mode, missing bleed on a bleed job, incorrect page order) results in a re-demonstration.
Standard met · Safety · Time · Quality/finish · Documentation
Prepress Lab LogLog15%Complete entries for all six lessons, with at least 80% of checklist items marked correct by instructor reviewStudents maintain a running lab log throughout the course documenting preflight findings, color profile assignments, RIP settings, imposition layouts, and spectrophotometer measurements from each hands-on lesson. The log is collected at the end of the course and graded for completeness, accuracy of recorded data, and evidence of corrective-action documentation—skills that mirror the production records required in certified print shops.
Standard met · Safety · Time · Quality/finish · Documentation
Chemical & Equipment Safety CheckSafety audit15%100% on the five mandatory safety behaviors; any missed item requires immediate re-demonstration before the student may continue using proofing equipmentInstructor observes each student performing the opening safety routine at the proofing and RIP workstation: correctly locating and reading the SDS for proofing inks, donning appropriate PPE if handling liquid inks or cleaning solvents, confirming ventilation is adequate, demonstrating proper waste disposal for ink cartridges and solvent wipes, and identifying the location of the eyewash station and fire extinguisher. This check is completed during Lesson 6 and is a prerequisite for the skills demonstration.
Standard met · Safety · Time · Quality/finish · Documentation
TEC-PRIN79-07 Trade course

Museum Panel Production

72 hr · $865 COMPLIMENTARY

Students learn the end-to-end workflow for producing archival-quality interpretive and exhibit panels used in museums, galleries, and heritage sites, covering substrate selection, color-managed wide-format printing, surface finishing, and mounting to conservation standards. Emphasis is placed on color accuracy, material longevity, handling protocols, and the documentation practices required by institutional clients. Lessons map directly to the PIA/Printing United Certification color management and wide-format output competency areas.

Outcomes
Course text

Students learn the end-to-end workflow for producing archival-quality interpretive and exhibit panels used in museums, galleries, and heritage sites, covering substrate selection, color-managed wide-format printing, surface finishing, and mounting to conservation standards. Emphasis is placed on color accuracy, material longevity, handling protocols, and the documentation practices required by institutional clients. Lessons map directly to the PIA/Printing United Certification color management and wide-format output competency areas.

How the course runs. 6 blocks: Museum Panel Standards and Material Science; Color Management for Museum Output; File Preparation and Prepress for Exhibit Panels; Wide-Format Printing on Archival Substrates; Lamination, Mounting, and Face-Mounting Techniques; Quality Control, Documentation, and Client Handoff Package.

What competent looks like. Select appropriate archival substrates and inks for museum panel applications based on durability, off-gassing, and lightfastness specifications from material safety data sheets and manufacturer guidelines. Build and apply ICC color profiles and soft-proof to a museum-specified color standard, achieving a measurable Delta-E result within tolerance on a calibrated wide-format inkjet output. Prepare print-ready artwork files from supplied content, applying bleed, safe-zone, and resolution standards appropriate for close-viewing exhibit panels at sizes up to 48 inches wide. Execute lamination, cold and heat mounting, and face-mounting processes on rigid and semi-rigid substrates without bubble, delamination, or substrate warping defects. Apply OSHA-compliant safe handling, ventilation, and PPE procedures when working with adhesives, laminates, and solvent-based finishing materials throughout production. Complete a production record and client-approval proof package—including color bar, material cert, and panel inspection checklist—that meets institutional archival documentation requirements.

Lessons · 6 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Museum Panel Standards and Material Science10theoryStudents identify the archival, conservation, and institutional standards that govern museum panel material selection and explain why each requirement exists.
  1. Lecture and guided notes on conservation concepts: lightfastness ratings (ASTM D4303 category), off-gassing (low-VOC and acid-free requirements), and dimensional stability across temperature and humidity cycles; students complete a comparison table of substrate families (foam-core, aluminum composite, PVC-free board, acrylic) against those criteria.
  2. Small-group case study: students receive a fictional museum RFQ with environmental conditions (UV exposure level, humidity range, expected display life) and must justify a substrate and ink-set choice in writing using manufacturer technical data sheets provided in the course packet.
  3. Instructor-led walkthrough of a real laminate, ink, and substrate SDS set; students identify health hazard sections, required PPE, and storage/disposal requirements, then record findings on a standardized safety reference card they keep for the term.
Manufacturer TDS and SDS for at least three substrate types and two ink sets; ASTM D4303 summary sheet; sample substrate swatches (foam-core, Dibond, Sintra-free board, UV-resistant acrylic); whiteboard; comparison table worksheetExit quiz of 15 questions covering material properties, lightfastness categories, and SDS hazard sections; pass = 80% correct (12/15).
2Color Management for Museum Output14demoStudents configure a color-managed workflow—spectrophotometer measurement, ICC profile build, soft-proof setup, and Delta-E verification—for a wide-format inkjet printer on a specified archival substrate.
  1. Instructor live demonstration of the full ICC profiling sequence on the shop's wide-format inkjet: media linearization, target print, spectrophotometer measurement, profile generation in a profiling application (e.g., i1Profiler or similar), and profile installation; students follow along on a step-by-step procedural worksheet and annotate each stage.
  2. Paired practice: each pair prints a linearization target and a profiling target on the designated museum substrate, measures with the spectrophotometer, generates a profile, and installs it; instructor observes and signs off on each step before the pair advances.
  3. Delta-E verification exercise: students soft-proof a supplied museum reference image (containing a Pantone-referenced color palette and a neutral gray ramp) in Adobe Photoshop or Illustrator with the new profile, then print and measure a color bar using the spectrophotometer, recording per-patch Delta-E values on a log sheet; pass criterion discussed and compared across pairs.
Wide-format inkjet printer with RIP software; archival matte and glossy substrate rolls; spectrophotometer (X-Rite i1 or equivalent); ICC profiling software; Adobe Creative Cloud (Photoshop/Illustrator); reference image file; color bar target; Delta-E log sheet; nitrile glovesInstructor reviews each pair's Delta-E log; average Delta-E across the neutral ramp must be ≤ 3.0 and no single patch > 5.0 for a pass; pairs outside tolerance reprint and re-measure once.
3File Preparation and Prepress for Exhibit Panels12labStudents prepare a supplied multi-panel exhibit layout for museum output, correctly setting resolution, bleed, safe zones, color mode, and panel-numbering documentation to meet a written client specification.
  1. Instructor demonstration of preflight workflow in Adobe InDesign and Acrobat: checking effective image resolution at final print size (minimum 100 ppi at 1:1 for wide-format close-viewing per standard shop guidelines), converting RGB and spot colors to the output profile, adding 0.125-inch bleed and a 0.25-inch safe zone, embedding fonts, and exporting a press-quality PDF; students replicate the steps on a practice file.
  2. Individual lab: each student receives a four-panel exhibit set (supplied InDesign package with intentional errors—low-res images, wrong color mode, missing bleed, mismatched panel sizes) and must find and correct all errors using a printed preflight checklist, then export corrected PDFs and submit a written error log describing each problem and its fix.
  3. Soft-proof review session: students open their corrected PDFs in Acrobat with the museum substrate ICC profile active, capture screen annotations of any remaining color or layout concerns, and present a one-paragraph written approval memo as if communicating to a museum client contact.
Adobe InDesign and Acrobat (Creative Cloud); supplied four-panel InDesign package with embedded errors; preflight checklist handout; panel specification sheet; computers with ICC profiles installed; printer for proof outputInstructor reviews submitted PDFs against the specification sheet and the student error log; pass = all seven documented errors found and corrected, PDFs pass automated Acrobat preflight with zero critical errors, and approval memo is present.
4Wide-Format Printing on Archival Substrates12practiceStudents operate a wide-format inkjet printer to produce a museum panel output on archival substrate that meets dimensional accuracy, color bar tolerance, and surface-quality standards.
  1. Instructor-led review of printer operator checklist: media load and registration, head-gap setting for substrate thickness, nozzle check and maintenance print, ink-level verification, and RIP job settings (rendering intent = relative colorimetric with black-point compensation for museum output); students complete a pre-run checklist card before touching any job.
  2. Supervised individual print run: each student loads the archival substrate, configures the RIP using the ICC profile built in Lesson 2, nests their four corrected panels from Lesson 3, and executes the print; instructor observes safe media handling (lifting technique for heavy rolls, PPE for ink contact) and signs the checklist card after the run.
  3. Output inspection: students inspect prints under a D50 color-viewing booth at a distance of 18 inches simulating exhibit viewing distance; they complete a surface-quality checklist (banding, color consistency, nozzle dropout, dimensional accuracy measured with a steel rule) and record pass/fail for each criterion.
Wide-format inkjet printer; RIP software; archival substrate roll (media specified in Lesson 1 selection exercise); D50 color-viewing booth or 5000K light source; steel rule or measuring tape; surface-quality inspection checklist; nitrile gloves; safety glasses; pre-run checklist cardInstructor reviews completed surface-quality checklist and measures two random panel dimensions; pass = all surface criteria checked 'pass,' panel dimensions within ±0.125 inch of spec, and color bar measured on spectrophotometer with Delta-E ≤ 3.0 average.
5Lamination, Mounting, and Face-Mounting Techniques16labStudents execute cold lamination, heat-assisted mounting to rigid substrate, and face-mounting to acrylic using archival adhesives, producing finished panels free of bubbles, delamination, and substrate warpage.
  1. Safety briefing and PPE donning drill specific to this lesson: students identify ventilation requirements for adhesive off-gassing, don nitrile gloves and safety glasses, review LOTO procedure for laminator rollers (instructor demonstrates de-energization and lockout before any hands-on work begins), and sign the pre-lab safety acknowledgment; instructor confirms all students meet PPE standard before equipment is energized.
  2. Instructor demonstration of each process in sequence—cold laminate roll application on a flat-bed laminator, heat-assisted dry mounting to Dibond panel using a heated press at manufacturer-specified temperature and dwell time, and face-mounting a print to clear acrylic using an optically clear archival adhesive film—students take annotated photos and complete a process-parameter log (temperature, pressure, dwell, adhesive type) for each method.
  3. Supervised individual practice: each student laminates and mounts one 18×24-inch test panel using each of the three methods on scrap substrate before mounting their final museum panels; finished panels are evaluated for bubbles (backlit inspection), edge adhesion (finger-press test at corners), and flatness (measured with a straightedge across the diagonal).
Cold laminator; heat press or heated dry-mount press; flat-bed laminator; cold laminate rolls (archival, low-VOC); optically clear adhesive film for face-mounting; Dibond panels; clear acrylic sheets; straightedge; backlight source for bubble inspection; nitrile gloves; safety glasses; LOTO kit; process-parameter log sheet; SDS for all adhesivesInstructor inspects each finished panel under backlight and with straightedge; pass = zero visible bubbles larger than 2 mm, all four edges fully adhered, diagonal flatness deviation ≤ 1/16 inch, and completed process-parameter log with all fields filled in.
6Quality Control, Documentation, and Client Handoff Package8practiceStudents complete a full production record and client-approval package for a finished museum panel set that meets institutional archival documentation requirements.
  1. Guided workshop: students assemble a production record for their four-panel set including substrate material certificate (from manufacturer TDS), ink lot numbers, laminate/adhesive lot numbers, process-parameter logs from Lesson 5, Delta-E color bar data from Lesson 4, and a sequential panel-numbering and orientation diagram; instructor reviews an industry example package from a real exhibit production firm (identifying information redacted) as the model.
  2. Peer audit exercise: student pairs exchange production packages and use a provided 20-point documentation checklist to audit each other's packages, flagging any missing or incomplete items; auditor signs and dates the checklist; discrepancies are resolved before final submission.
  3. Mock client handoff: each student presents their finished panel set and documentation package to the instructor acting as the museum client representative; student walks through the color verification data, material certifications, and panel inspection results in a five-minute verbal walkthrough, then answers two to three questions about material choices or process decisions; feedback is recorded on a rubric.
Finished four-panel set from Lessons 4 and 5; production record template; 20-point documentation checklist; manufacturer TDS and SDS copies; ink and media lot-number records; presentation rubric; table or display surface for panel presentationInstructor scores the documentation package against the 20-point checklist (pass = 16/20 or higher) and scores the verbal walkthrough on the rubric (pass = meets standard on all four rubric dimensions: accuracy, completeness, clarity, and professional communication); students who do not pass either component revise and resubmit within one class session.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Material Science and Standards Knowledge ExamWritten exam25%75% correct (38/50 questions)A 50-question written exam covering archival material properties, lightfastness ratings, off-gassing and acid-free standards, ICC color management concepts, prepress specifications for museum output, and SDS hazard identification; questions are drawn from lesson content and map to PIA/Printing United Certification color management and wide-format output exam areas. Students may not use notes; results are returned with an item-by-item score sheet so gaps can be addressed in Lesson 6 revision.
Standard met · Safety · Time · Quality/finish · Documentation
Finished Panel Set Skills DemonstrationSkills demonstration45%Meets standard on all six rubric dimensions; any 'does not meet' requires one remediation attemptStudents produce a complete four-panel 18×24-inch museum exhibit set from a supplied client brief—completing prepress, printing on archival substrate, laminating, and mounting—evaluated by the instructor on a six-dimension rubric: color accuracy (Delta-E ≤ 3.0 average), dimensional accuracy (±0.125 inch), surface quality (zero visible bubbles or banding), flatness, safe equipment operation observed throughout, and completeness of the production record package. This demonstration maps to PIA/Printing United Certification wide-format output and finishing competency areas.
Standard met · Safety · Time · Quality/finish · Documentation
Production Lab LogLog15%All six lesson log sheets submitted with all required fields complete and legible; average accuracy score ≥ 80% against answer keys where applicableStudents maintain a running lab log across all six lessons, including the substrate comparison table, ICC profiling Delta-E data, prepress error log, printer pre-run checklist, lamination process-parameter log, and the final 20-point documentation checklist audit; the log is collected at the end of the course and reviewed for completeness, accuracy of recorded values, and evidence of corrective action where results fell outside tolerance.
Standard met · Safety · Time · Quality/finish · Documentation
Safety and Hazard Recognition CheckSafety audit15%100% on all critical safety behaviors; any critical failure (PPE not donned, LOTO skipped, SDS not consulted before adhesive use) results in immediate stop-work and mandatory safety review before the student continuesThe instructor uses a direct-observation checklist during Lessons 4 and 5 lab sessions to verify that each student correctly identifies required PPE before beginning each process, consults the SDS for any adhesive or laminate before use, performs the LOTO procedure on the laminator or heat press before any adjustment to the nip or platen area, and disposes of adhesive waste per the SDS instructions; the checklist is signed by the instructor and retained in the student's program file as evidence of OSHA 10-aligned safe practice.
Standard met · Safety · Time · Quality/finish · Documentation
TEC-PRIN79-08 Capstone

Capstone Project: Integrated Print & Signage Build

108 hr · $1,080 COMPLIMENTARY

Students design, produce, and install a complete, client-brief-driven print and signage package that integrates skills from every prior course, including prepress, wide-format printing, vinyl application, substrate fabrication, and site installation. The capstone culminates in a formal project defense in which students present their documentation, process decisions, and finished work to a panel of instructors and, where available, an industry reviewer. Successful completion demonstrates job-entry readiness and directly supports portfolio requirements for PIA/Printing United Certification and the 3M Preferred Installer credential.

Outcomes
Course text

Students design, produce, and install a complete, client-brief-driven print and signage package that integrates skills from every prior course, including prepress, wide-format printing, vinyl application, substrate fabrication, and site installation. The capstone culminates in a formal project defense in which students present their documentation, process decisions, and finished work to a panel of instructors and, where available, an industry reviewer. Successful completion demonstrates job-entry readiness and directly supports portfolio requirements for PIA/Printing United Certification and the 3M Preferred Installer credential.

How the course runs. 4 blocks: Project Planning, Client Brief & Production Scheduling; File Preparation, Color Management & Press-Ready Output; Fabrication, Finishing & Installation; Project Documentation, Defense Preparation & Formal Presentation.

What competent looks like. Plan and execute a multi-component print and signage project from client brief through installation, meeting specified dimensions, color targets, and finish quality within a professional deadline. Produce a complete job file package including a client brief, production schedule, material cut list, color-managed press-ready files, and an installation plan with site measurements. Apply safe work practices throughout all production phases, including chemical handling, lockout/tagout for cutting and routing equipment, and PPE selection appropriate to each task. Fabricate and finish at least three distinct deliverables—such as a wide-format banner, a cut-vinyl or vehicle-wrap panel, and a rigid substrate sign—that meet trade-standard quality benchmarks for registration, adhesion, and appearance. Inspect, document, and remediate defects using industry quality-control methods, recording findings in a written punch list and sign-off sheet. Deliver a structured oral defense of the project, explaining material choices, process decisions, problem-solving steps, and lessons learned to a mixed technical and non-technical audience.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Project Planning, Client Brief & Production Scheduling18theoryGiven a simulated client brief, students will produce a complete project plan—including scope statement, material specifications, production schedule with milestones, and a safety risk assessment—that is approved by the instructor before fabrication begins.
  1. Students receive a written client brief describing a fictitious business that needs a storefront window graphic, an outdoor banner, and a framed museum-style interpretive panel; each student independently marks up the brief, identifies ambiguities, and drafts five clarifying questions they would ask the client.
  2. Using a provided project-planning template, students build a production schedule in a spreadsheet tool (such as Google Sheets or Excel), breaking the job into tasks, estimating hours per task based on equipment run times and their own experience from prior courses, and identifying which tasks are on the critical path.
  3. Students complete a one-page Job Safety Analysis (JSA) for the project, listing each production phase, the primary hazards (solvent off-gassing, pinch points on the laminator, ladder use during installation), the required PPE, and the applicable OSHA control measure; the instructor reviews and signs off before the student may proceed.
Simulated client brief handout, project-planning spreadsheet template, JSA form, OSHA 10 reference card, material data sheets for vinyl, ink, and substrate products used in the project, trade calculators, rulers, and tape measures.Instructor reviews the completed project plan against a six-point rubric covering scope accuracy, schedule realism, material specification correctness, cost estimate completeness, JSA thoroughness, and professional document format; all six points must be rated Meets Standard (score 3 of 4) or higher, with no Unsatisfactory ratings, before the student advances to production.
2File Preparation, Color Management & Press-Ready Output24labStudents will build and preflight all press-ready files for their capstone project—including vector artwork, raster images, and an ICC-profiled RIP output for the wide-format printer—achieving zero critical preflight errors and a delta-E of 4.0 or less against the approved color target on a printed proof.
  1. Students set up a project folder with a standardized naming convention, then build or finalize artwork files in Adobe Illustrator and Photoshop: the window graphic at 1:1 scale with bleed and die-cut path, the banner at 1:10 scale confirmed for output scaling, and the museum panel at 1:1 with embedded ICC profile and minimum 150 ppi effective resolution at final size; each file is run through the class-standard preflight checklist and all flagged errors are corrected before output.
  2. Students load the appropriate substrate profile in the RIP software (such as Wasatch, Caldera, or Onyx, whichever the lab uses), perform a nozzle check and print a color-calibration strip on the production media, then measure the strip with a spectrophotometer and record delta-E values for at least six colors against the client-approved color target; if delta-E exceeds 4.0, students adjust the linearization or profile and reprint until the target is met.
  3. Students print one full-size proof of the most complex deliverable (the window graphic), inspect it against the preflight checklist for banding, color accuracy, bleed adequacy, and text legibility at final viewing distance, then complete a written proof-approval form that they and the instructor both sign before production printing begins.
Adobe Creative Cloud (Illustrator, Photoshop, Acrobat), RIP software station, wide-format inkjet printer with loaded production media, spectrophotometer (such as an X-Rite or Barbieri unit), color targets from prior approved job or instructor-supplied reference print, preflight checklist, proof-approval form, USB or network file transfer.Preflight report must show zero critical errors (missing fonts, wrong color mode, inadequate resolution, missing bleed); spectrophotometer readout must record delta-E ≤ 4.0 for all six measured color patches on the production proof before the instructor signs the proof-approval form allowing full production runs.
3Fabrication, Finishing & Installation48practiceStudents will produce all three capstone deliverables—a wide-format banner, a cut-vinyl or simulated wrap panel, and a rigid substrate sign—to trade finish standards, and will complete a scripted installation simulation including surface preparation, application, trimming, and quality inspection, with all safety protocols observed throughout.
  1. Wide-format banner production: students print the banner on the appropriate scrim or blockout media, allow adequate dry time per the ink manufacturer's recommendation, cold- or hot-laminate to specified finish (matte or gloss), then hem and grommet the banner using the grommet press, spacing grommets per the design specification; the finished banner is measured, inspected for delamination, color consistency, and grommet placement, and results are recorded on the quality-inspection sheet.
  2. Vinyl and wrap panel application: using a pre-printed cast or calendered vinyl panel, students perform a scripted application sequence on a designated flat surface or vehicle door skin—cleaning with isopropyl alcohol, squeegee application using overlap strokes, heat-forming around any contours with a heat gun, edge sealing, and trimming with a precision knife along the die-cut path or panel edge; any lifting, air bubbles, or silvering found during inspection must be remediated before sign-off, consistent with 3M Preferred Installer application standards.
  3. Rigid substrate sign fabrication and installation simulation: students route or score-and-break an aluminum composite (ACM) or foam-core substrate to the specified dimensions using the panel saw or CNC router (with all machine guards in place and LOTO procedure demonstrated on the router prior to use), apply any surface graphics or vinyl lettering, attach mounting hardware, and execute a simulated wall-mount installation on the lab's mock wall—drilling pilot holes, installing anchors, leveling with a torpedo level, and securing the sign; students complete the punch list and sign-off sheet confirming level, plumb, and finished appearance meet specification.
Wide-format inkjet printer, laminator, banner media, grommets and grommet press, heat gun, squeegees (hard and felt-edge), application tape, isopropyl alcohol wipes, cast vinyl, vehicle door skin or flat application panel, precision trimming knife and replacement blades, ACM or foam-core substrate panels, panel saw or CNC router, drill, anchors, mounting hardware, torpedo level, PPE (nitrile gloves, safety glasses, hearing protection at router), LOTO kit, quality-inspection sheet, punch list form.Each deliverable is inspected against a trade-standard quality rubric: banner—no delamination, grommets within ±0.25 in. of specified spacing, color matches approved proof within delta-E 4.0; vinyl panel—no lifting at edges after 24-hour dwell at room temperature, no visible bubbles or silvering, clean trim edge; rigid sign—dimensions within ±0.125 in. of spec, level within 1/16 in. over the sign length, surface graphic fully adhered with no wrinkles. All three deliverables must reach Meets Standard on every rubric line before the student may proceed to the defense.
4Project Documentation, Defense Preparation & Formal Presentation18fieldStudents will compile a complete project portfolio binder and deliver a 15-minute structured oral defense of their capstone work to a review panel, earning a passing score on both the documentation rubric and the defense rubric.
  1. Portfolio assembly: students organize all project documents into a professional binder or digital folder in the order specified by the course documentation checklist—client brief and clarifying questions, project plan and schedule, JSA, material cut list with waste calculations, preflight report and color data, proof-approval form, quality-inspection sheets and punch list, and a one-page written reflection identifying the most significant problem encountered and how it was resolved; each section is tabbed and a title page with the student's name, project title, and completion date is included.
  2. Defense rehearsal: students deliver a timed practice run of their presentation to one peer, using the four required sections of the defense script (project overview, process decisions and rationale, quality outcomes and deviations, lessons learned and what they would do differently); the peer scores the practice run using the same rubric the panel will use and provides written feedback, which the presenter uses to revise before the formal defense.
  3. Formal defense: the student presents for 12–15 minutes to a panel of at least two instructors (and an industry guest when available), displaying their finished deliverables alongside the documentation binder; panel members ask at least three clarifying questions drawn from the project work, including one question about a specific safety decision; the student answers without prompts, and the panel scores the presentation using the oral defense rubric immediately after the session.
Completed project deliverables (banner, vinyl panel, rigid sign), project documentation binder or digital equivalent, presentation display area with table space for all three finished pieces, peer-review rubric, oral defense rubric, timer, and any audiovisual equipment the student chooses to use (projector, tablet) for showing digital files or photos from production.The documentation binder must earn a score of 80% or higher on the documentation rubric (all required sections present, content accurate, professional formatting). The oral defense must earn a score of 80% or higher on the defense rubric, with no single category—overview clarity, process rationale, quality explanation, lessons-learned depth, or response to panel questions—rated below Approaching Standard. Both scores must meet threshold; a student who fails either component receives specific written feedback and one opportunity to remediate within five instructional days.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Capstone Build: Three-Deliverable Production ProjectProject60%All three finished deliverables (wide-format banner, vinyl/wrap panel, and rigid substrate sign) must earn a rating of Meets Standard on every line of the production quality rubric; no line may remain at Does Not Meet Standard after the permitted remediation period.This project assessment evaluates the student's ability to plan, produce, and install a complete, client-brief-driven print and signage package across multiple substrates and processes. Instructors inspect each finished piece against measurable trade tolerances for dimensions, color accuracy, surface adhesion, edge quality, and installation level/plumb, using the course quality-inspection rubric.
Meets specification · Within estimate · Workmanship · Safety · Documentation
Project Documentation PortfolioPortfolio20%Portfolio must score 80% or higher on the documentation rubric, with all required sections present and no section rated Unsatisfactory.The portfolio compiles every planning and quality-control document produced during the capstone—client brief, JSA, production schedule, preflight data, color measurements, proof-approval forms, punch lists, and a written reflection—organized into a professional binder or digital folder. Instructors evaluate completeness, accuracy, professional presentation, and the quality of the student's written reflection on problem-solving, as these documents mirror the job-file records that employers and certification bodies expect practitioners to maintain.
Completeness · Organization · Evidence quality
Oral Defense PresentationOral / panel20%Student must score 80% or higher on the oral defense rubric, with no individual category rated below Approaching Standard, and must respond accurately and without prompts to all panel questions including at least one safety-related question.In a 12-to-15-minute structured presentation before a panel of instructors and, where available, an industry reviewer, the student explains their project decisions, demonstrates understanding of the production processes and quality outcomes, and answers clarifying questions. This defense mirrors the kind of client-facing and supervisor-facing communication expected in the trade and directly develops the professional communication competency assessed under PIA/Printing United Certification exam standards.
Explains decisions · Answers technical questions · Professional communication
TEC-PRIN79-09 Externship / clinical

Externship / Worksite Placement

162 hr · $650 COMPLIMENTARY

Students complete 162 supervised hours at a vetted printing or signage employer, applying classroom skills in a live production environment under the direct oversight of a journeyman or shop supervisor. Work assignments span prepress, wide-format output, vinyl application, sign fabrication, and customer-facing tasks so that students encounter the full trade workflow. Employer evaluations and a reflective log document competency growth and readiness for entry-level employment.

Outcomes
Course text

Students complete 162 supervised hours at a vetted printing or signage employer, applying classroom skills in a live production environment under the direct oversight of a journeyman or shop supervisor. Work assignments span prepress, wide-format output, vinyl application, sign fabrication, and customer-facing tasks so that students encounter the full trade workflow. Employer evaluations and a reflective log document competency growth and readiness for entry-level employment.

How the course runs. 4 blocks: Worksite Orientation and Safety Integration; Production Rotation: Core Trade Tasks; Independent Task Performance and Problem-Solving; Final Employer Evaluation and Reflective Summary.

What competent looks like. Execute assigned production tasks—digital printing, vinyl application, finishing, or sign installation—at employer-accepted quality and pace for a minimum of 120 billable hours. Follow all worksite safety protocols including lockout/tagout procedures, required PPE selection, and hazard communication practices without a recordable incident. Demonstrate professional workplace behaviors—punctuality, communication, and task follow-through—earning a rating of 'meets expectations' or higher on all employer evaluation criteria. Maintain a structured daily work log documenting tasks performed, equipment used, quality checkpoints applied, and problems encountered with solutions attempted. Identify at least three connections between worksite practices and program coursework, citing specific techniques from courses 2–8 in the final reflective summary. Receive employer verification that the student can perform at least two of the following without direct supervision: RIP file setup, wide-format print-and-cut operation, vinyl wrap panel installation, or sign substrate finishing.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Worksite Orientation and Safety Integration16fieldThe student will complete the employer's site-specific safety orientation, identify all required PPE for assigned workstations, and demonstrate correct lockout/tagout procedure on at least one machine before beginning production tasks.
  1. Walk the production floor with a supervisor, locating emergency exits, eyewash stations, fire extinguishers, SDS binder, and first-aid kit; record each location on a provided facility safety map form.
  2. Shadow the assigned journeyman through the employer's LOTO procedure on a press or laminator, then demonstrate the sequence independently while the supervisor observes and signs off on the student's LOTO competency card.
  3. Review and sign the employer's workplace policies (PPE requirements, chemical handling, production floor conduct) and discuss any differences between employer practice and OSHA 10 general industry standards learned in Course 1.
Employer safety orientation packet, facility safety map form, LOTO competency card, PPE (safety glasses, nitrile gloves, hearing protection as required by workstation), student-issued OSHA 10 card from Course 1, SDS binderSupervisor signs the LOTO competency card confirming independent demonstration; student submits completed facility safety map with all required locations marked. Both items must be completed before the student begins unsupervised production tasks. No partial credit—pass requires 100% completion.
2Production Rotation: Core Trade Tasks100fieldThe student will perform assigned production tasks across at least two trade areas (e.g., wide-format printing, vinyl application, finishing, or sign fabrication) at the employer's quality standard and within the employer's expected time per task.
  1. Complete daily assigned production work under journeyman supervision, recording each task in the daily work log: job name, equipment used, substrate and media, quality checkpoints performed, any defects found, and corrective action taken.
  2. Participate in at least one job preflight or prepress session, verifying file resolution, bleed, color profile, and output settings using the employer's RIP or workflow software, then document the steps and any corrections made.
  3. Assist with at least one vinyl or wrap installation or sign installation task in the field or on a vehicle, following surface-prep, squeegee technique, and post-heat procedures taught in Courses 4 and 5, and note how employer practice compares to classroom instruction.
Employer's production equipment (wide-format printer, laminator, plotter/cutter, wrap tools, installation hardware as assigned), daily work log forms, approved PPE, employer's quality control checklist, RIP software workstationDaily work log entries reviewed weekly by the program externship coordinator; employer mid-point evaluation (week 6) must rate student 'meets expectations' on quality, safety, and pace in at least two task categories. Unsatisfactory ratings require a documented improvement plan within five business days.
3Independent Task Performance and Problem-Solving30fieldThe student will complete at least two production tasks from start to finish with only minimal supervision, diagnosing and correcting at least one quality or equipment issue independently before requesting assistance.
  1. With supervisor approval, accept a assigned job ticket, stage materials, set up the output device, run the job, perform quality inspection against the job specification, and deliver finished product to the finishing or shipping station without step-by-step direction; document the full workflow in the log.
  2. When a printhead nozzle check, color inconsistency, or vinyl adhesion problem arises, apply a systematic troubleshooting sequence (check media settings, run maintenance cycle, adjust squeegee angle, etc.) and record the diagnosis and outcome before calling the supervisor.
  3. Attend or observe one customer interaction, estimate review, or production planning meeting and write a one-paragraph log entry describing how the business communication skills from Course 1 (professional communication, reading work orders, customer relations) applied in that context.
Assigned job tickets and work orders, production equipment as scheduled, quality control checklist, daily work log, employer troubleshooting reference guides, PPESupervisor confirms at least two independently completed jobs by initialing the corresponding daily log entries; student's log entry for each must describe the quality checkpoint results. At least one troubleshooting entry must show a resolution before supervisor intervention. Coordinator reviews at final site visit.
4Final Employer Evaluation and Reflective Summary16fieldThe student will compile the complete daily work log into a final portfolio submission and deliver a structured oral or written reflective summary demonstrating specific connections between worksite experience and program coursework.
  1. Organize all daily log entries chronologically, add a table of contents identifying each trade area covered, and submit the completed log binder (physical or digital) to the externship coordinator before the final evaluation meeting.
  2. Participate in the formal final evaluation meeting with the employer supervisor and externship coordinator, during which the supervisor completes the standardized employer evaluation rubric covering safety, quality, professionalism, and technical skill in each rotation area.
  3. Write a 400–600 word reflective summary identifying at least three specific techniques or standards learned in Courses 2–8 that were directly applied on-site, noting any gaps between school instruction and industry practice and how those gaps were addressed.
Complete daily work log, employer final evaluation rubric, reflective summary template, program externship coordinator review checklistEmployer final evaluation rubric must score 'meets expectations' or higher in at least four of five rated categories (safety, quality, professionalism, technical skill, attendance/punctuality); reflective summary must cite at least three course-specific techniques by name and receive a pass rating from the coordinator. Either element rated unsatisfactory requires remediation before the credential exam prep course begins.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Employer Skills Demonstration EvaluationSkills demonstration70%Rating of 'meets expectations' or higher in at least four of five rubric categories on the final employer evaluation form; no 'unsatisfactory' rating in the safety category under any circumstance.The employer supervisor completes a standardized rubric at mid-point and at the conclusion of the externship, rating the student on safety compliance, technical task quality, production pace, professionalism, and attendance. The final rubric score constitutes the skills demonstration assessment and is countersigned by the externship coordinator during the final site visit.
Competency · Safety · Attendance · Conduct · Initiative
Externship Work Log and Reflective SummaryLog30%All 162 hours documented with no unexplained gaps; at least two independently completed jobs verified by supervisor initials; reflective summary rates 'pass' from the coordinator for specificity and accuracy of course connections.The student submits the complete daily work log—one entry per shift, covering tasks, equipment, quality checkpoints, and troubleshooting—along with a 400–600 word reflective summary linking on-site experience to specific program content from Courses 2–8. The coordinator reviews both documents against a checklist and assigns a pass or incomplete; an incomplete requires the student to supply missing entries or expand the summary before advancing to Course 10.
Complete · Verified
TEC-PRIN79-10 Exam prep

Certification Exam Preparation: PIA/Printing United & 3M Preferred Installer

45 hr · $450 COMPLIMENTARY

This 45-hour course systematically reviews every published content domain tested on the PIA/Printing United Certification and the 3M Preferred Installer credential, closing knowledge gaps identified through diagnostic assessment. Learners complete timed, full-length mock exams under realistic test conditions and refine both trade knowledge and test-taking strategy before sitting live credential exams.

Outcomes
Course text

This 45-hour course systematically reviews every published content domain tested on the PIA/Printing United Certification and the 3M Preferred Installer credential, closing knowledge gaps identified through diagnostic assessment. Learners complete timed, full-length mock exams under realistic test conditions and refine both trade knowledge and test-taking strategy before sitting live credential exams.

How the course runs. 4 blocks: Diagnostic Assessment and Personalized Study Planning; PIA/Printing United Exam Domain Deep-Dive Review; 3M Preferred Installer Domain Review and Practical Reinforcement; Full Mock Exams, Debrief, and Exam-Day Readiness.

What competent looks like. Map personal diagnostic results to specific PIA/Printing United and 3M Preferred Installer exam domains and articulate a targeted study plan. Demonstrate command of print-industry theory — color science, substrate selection, prepress workflow, offset and wide-format process, quality control — at the level required to pass the PIA/Printing United written exam. Demonstrate hands-on proficiency in surface preparation, vinyl application, seaming, heat forming, and post-installation inspection at the standard required for 3M Preferred Installer assessment. Complete a full-length timed PIA/Printing United mock exam with a score of 75% or higher on two consecutive attempts. Complete a full-length timed 3M Preferred Installer mock practical and written review with a score of 75% or higher on two consecutive attempts. Apply test-taking strategies — time management, process of elimination, flagging and returning — to both credential assessments.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Diagnostic Assessment and Personalized Study Planning6theoryEach learner scores a baseline diagnostic spanning all PIA/Printing United and 3M Preferred Installer content domains and produces a written study plan prioritizing weak areas.
  1. Complete a 90-question untimed diagnostic covering PIA/Printing United domains (color theory, prepress, substrates, printing processes, finishing, safety, quality control) and 3M Preferred Installer domains (surface prep, material handling, application techniques, tool use, warranty-related practices); score and chart results by domain.
  2. In small groups, compare domain scores and discuss which program courses (Digital & Offset Print, Wide-Format, Vinyl & Wraps, Prepress, Sign Fabrication) correspond to each weak domain, reinforcing the cross-course connection.
  3. Individually draft a one-page study plan that lists each sub-domain scored below 70%, assigns specific review lessons or reference pages from PIA/Printing United study materials and 3M application guides, and sets daily hour targets for the remaining weeks.
Instructor-authored 90-question diagnostic (aligned to published PIA/Printing United and 3M Preferred Installer domain outlines), answer key with domain cross-reference table, PIA/Printing United candidate guide, 3M Preferred Installer program documentation, graph paper or spreadsheet template for charting scores, learner notebooksLearner submits a completed domain score chart and a written study plan; both are reviewed by the instructor. Pass mark: study plan must address every domain scored below 70% with a specific resource and schedule — accepted/needs revision before moving forward.
2PIA/Printing United Exam Domain Deep-Dive Review16theoryLearners explain and correctly apply knowledge from all PIA/Printing United exam content domains — color management, prepress, printing processes, substrates and inks, finishing, quality control, and shop safety — at exam proficiency.
  1. Rotate through six instructor-led 'domain stations' (Color Science & ICC Profiles; Prepress & File Prep; Offset & Digital Process; Wide-Format & UV; Substrates, Inks & Coatings; Finishing & QC), spending approximately 2 hours per station; at each station complete a 15-question domain quiz and review every missed item with the answer rationale before rotating.
  2. Work in pairs on case-study scenarios — for example, a customer job ticket with a color-gamut mismatch, a substrate incompatibility, or a registration error — identifying the root cause and the correct corrective action using course notes and PIA reference materials, then present findings to the group for peer critique.
  3. Complete 50 timed practice questions drawn from across all domains (10-second average pace to simulate exam timing), score immediately, and annotate each incorrect answer with the correct principle in a personal 'error log' notebook.
PIA/Printing United candidate guide and any PIA-published study resources, instructor-authored domain station quizzes (15 questions each), case-study job packets, color sample books, ICC profile reference sheets, OSHA 29 CFR 1910 summary card (for safety domain), spectrophotometer demonstration unit, learner error-log notebooksAverage score across all six domain station quizzes must be 70% or higher, with no single domain below 60%; learners scoring below threshold on any domain complete an additional instructor-guided remediation worksheet for that domain before the mock exam. Error log reviewed for completeness.
33M Preferred Installer Domain Review and Practical Reinforcement14labLearners correctly perform and verbally explain each 3M Preferred Installer practical competency — surface preparation, vinyl handling and application, heat forming, seaming, and post-installation inspection — to the standard described in 3M application guidelines.
  1. Instructor demonstrates each practical domain in sequence (surface prep and contamination testing; material unrolling, conditioning, and panel cutting; wet vs. dry application; heat-gun forming around compound curves and recesses; overlap seam construction; post-install inspection and defect identification) while narrating the rationale tied to 3M warranty and quality requirements; learners follow along on their own panels.
  2. Learners work independently on a structured skills circuit: each of five benches presents a partially completed or intentionally flawed vinyl application scenario (e.g., a lifted edge, a trapped air bubble, an under-heated formed corner, a misaligned seam); learner must diagnose the defect, correct it using proper tools and technique, and document the correction on a bench card.
  3. Review 3M Preferred Installer written-format questions (terminology, material specifications, tool selection, warranty conditions) using 20-question domain quizzes; after scoring, write a one-sentence rationale for each missed answer referencing the relevant 3M technical bulletin or application guide.
Vinyl application panels (aluminum composite and vehicle door skins), 3M IJ-series vinyl samples, 3M Primer 94, isopropyl alcohol, lint-free wipes, squeegees (hard and soft durometer), heat guns, infrared thermometer, rivet brush, knifeless tape, seaming tape, 3M Preferred Installer program application guide and technical bulletins, instructor-authored bench cards and written quizzes, PPE (nitrile gloves, safety glasses)Skills circuit evaluated with a competency checklist (GO/NO-GO for each of five bench tasks); all five must be rated GO. Written quiz average must be 70% or higher. Any NO-GO task is repeated once with instructor guidance before final check.
4Full Mock Exams, Debrief, and Exam-Day Readiness9practiceEach learner completes full-length timed mock exams for both credentials, scores 75% or higher on each, and articulates exam-day logistics, test-taking strategy, and a personal preparation checklist.
  1. Sit a full-length timed PIA/Printing United mock exam (instructor-authored, aligned to the published domain blueprint and approximate item count) under silent, timed, exam-room conditions; upon completion score immediately using the answer key, review every incorrect item with domain rationale, and record results in the error log — repeat once if first attempt is below 75%, with a 48-hour self-study interval.
  2. Sit a full-length 3M Preferred Installer mock assessment: written component (timed, covering all installer domains) plus a practical component (instructor-evaluated live application task on an unfamiliar substrate profile) scored against the 3M competency rubric; debrief with instructor on any deficiencies.
  3. Complete a 1-hour exam-day readiness session: review credential registration logistics, acceptable ID, arrival protocol, retake policies, and permitted reference materials (if any) for each exam; practice the test-taking strategies of time-boxing, process of elimination, and flagging ambiguous items; each learner completes and submits a personal exam-day checklist and states their scheduled exam date.
Instructor-authored full-length PIA/Printing United mock exam (printed, timed), answer key with domain rationale, 3M Preferred Installer mock written exam, practical evaluation rubric, vinyl application panel for live practical task, heat gun, squeegee set, timer, PIA/Printing United candidate guide (logistics section), 3M Preferred Installer program enrollment documentation, learner error-log notebooks, exam-day checklist templatePIA/Printing United mock exam: 75% or higher on at least one of two attempts. 3M Preferred Installer mock written: 75% or higher; live practical: all GO ratings on the competency rubric. Learners not meeting either threshold receive a documented remediation plan and instructor-supervised additional practice before their live exam date.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Dual-Credential Full Mock Exam BatteryMock certification exam100%75% or higher on the PIA/Printing United mock exam and 75% or higher on the 3M Preferred Installer mock written exam, plus all GO ratings on the 3M practical competency rubric — both credentials must be passed to earn course completion.Learners sit timed, full-length mock exams for both the PIA/Printing United Certification and the 3M Preferred Installer credential under realistic exam conditions, immediately followed by an instructor-led item-by-item debrief. Results are documented in the learner's portfolio alongside their error log and study plan, providing evidence of exam readiness and a clear record for any remaining targeted remediation before live credential testing.
Score · Time management
Program completion

External credential: 3M Preferred Installer; PIA/Printing United Certification

Students sit the PIA/Printing United Certification exam administered by Printing United Alliance, and the 3M Preferred Installer credentialing assessment administered by 3M Commercial Solutions. Pass standard: Credential issued by the body.

Back to Printing & Signage · How the school gets authority to award these credentials