🚧 Under construction — VoTechWorks is being built. A free tech program — complimentary, as our commitment to get America working.
voTechWorksGrade 13 · a vocational technology learning center, by urbanicity
newSchoolWorks.com › VoTechWorks › Business & Cross-Cutting › Locksmith & Security Systems › Courses
Business & Cross-Cutting · course plan
⚠ Pending professional review

This course plan, its lessons and its assessments has not yet been verified by a credentialed professional in the field 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.

Locksmith & Security Systems

11 courses · 900 clock hours · 3–6 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.

$8,085 COMPLIMENTARYprogram tuition
11courses
54lessons
900hours
39assessments
Development progressPlanCourses, lessons and assessments written for this tradeLessons54 of 54 lesson pages writtenPractice432 practice questionsResources120 reference entries (study list)Review0 lesson pages reviewed by a licensed professional
Study now: 54 lesson pages are open (lesson titles below are links).
BUS-LOCK72-01 Universal core

Universal Core: Safety, Math, Communication & Career for Locksmith & Security Systems

148 hr · $1,185 COMPLIMENTARY

This foundational course builds the safety habits, trade mathematics, technical literacy, digital skills, and professional conduct that underpin every subsequent course in the Locksmith & Security Systems program. Learners complete OSHA 10-Hour General Industry training and First Aid/CPR, apply measurement and calculation to real lock and hardware scenarios, and develop the career-readiness skills needed to enter and advance in the trade. All content is mapped to the knowledge domains assessed by the ALOA CRL and ESA CAT credential exams and to state licensing application requirements.

Outcomes
Course text

This foundational course builds the safety habits, trade mathematics, technical literacy, digital skills, and professional conduct that underpin every subsequent course in the Locksmith & Security Systems program. Learners complete OSHA 10-Hour General Industry training and First Aid/CPR, apply measurement and calculation to real lock and hardware scenarios, and develop the career-readiness skills needed to enter and advance in the trade. All content is mapped to the knowledge domains assessed by the ALOA CRL and ESA CAT credential exams and to state licensing application requirements.

How the course runs. 7 blocks: Worksite Safety: OSHA 10, Hazard Communication, and PPE for the Locksmith Trade; Lockout/Tagout, Electrical Safety, and First Aid/CPR for Security Technicians; Trade Math and Measurement: Numbers, Fractions, Decimals, and Units for Locksmithing; Technical Reading: Manuals, Wiring Diagrams, ANSI/BHMA Tables, and Code Documents; Digital Tools for the Security Trade: Databases, Work Orders, and Online References; Professional Communication, Ethics, and Customer Service in the Security Trade; Credential Pathways, State Licensing, and Career Planning in Locksmith & Security.

What competent looks like. Demonstrate compliance with OSHA General Industry hazard-communication, lockout/tagout, PPE selection, and electrical-safety requirements as applied to locksmith and alarm-installation worksites. Apply arithmetic, fractions, decimals, unit conversion, and basic geometry to lock cylinder measurements, key blank selection charts, conduit sizing, and hardware installation layouts. Read and interpret manufacturer installation manuals, wiring diagrams, ANSI/BHMA hardware grade tables, and code-compliance documentation relevant to the trade. Use job-relevant digital tools—inventory software, customer work-order systems, and online code/cross-reference databases—to locate information and complete simulated business records. Demonstrate professional communication and ethical conduct with customers, employers, and inspectors, including written service reports and verbal explanation of security recommendations. Identify the credential pathways (ALOA CRL, ESA CAT, state locksmith/alarm license) and the eligibility, application, and examination requirements associated with each.

Lessons · 7 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Worksite Safety: OSHA 10, Hazard Communication, and PPE for the Locksmith Trade24theoryLearners will identify OSHA General Industry hazard categories common to locksmith and security-installation work and select appropriate PPE and controls for each hazard.
  1. Complete all 10 contact hours of the OSHA 10-Hour General Industry course (delivered in class by an authorized OSHA outreach trainer), then discuss how each module—fall protection, electrical safety, struck-by, hazard communication/GHS labels, and personal protective equipment—applies to drilling door frames, pulling wire through ceilings, and working in occupied buildings.
  2. Conduct a guided hazard-hunt walk-through of the program's shop, using an OSHA General Industry checklist: learners photograph and log at least eight distinct hazards (e.g., unlabeled chemical containers, unguarded drill-press belt, missing GFCI on wet-area outlets) and propose corrective actions in writing.
  3. Perform a PPE selection exercise: given five locksmith scenario cards (grinding a key blank, drilling a concrete anchor, handling a corroded padlock, working near live 120 V alarm panel wiring, using a penetrating lubricant spray), each learner selects gloves, eye protection, hearing protection, and respiratory protection from the shop PPE locker, justifies each choice aloud, and records the selection on a standard PPE Hazard Assessment Form.
OSHA 10-Hour General Industry student packet and card (authorized outreach trainer required); ANSI/ISEA Z87.1 eye-protection reference chart; ANSI/ISEA 105 glove selection guide; shop PPE inventory (safety glasses, face shield, N95 respirator, cut-resistant gloves, hearing protection rated NRR 25+); printed hazard-hunt checklist; camera or smartphone for documentation.Learners must (1) receive the official OSHA 10-Hour General Industry completion card and (2) score 80% or higher on a 25-question written safety quiz covering GHS labeling, PPE selection, lockout/tagout, and electrical hazard recognition. OSHA card is mandatory regardless of quiz score.
2Lockout/Tagout, Electrical Safety, and First Aid/CPR for Security Technicians20demoLearners will perform a correct six-step lockout/tagout procedure on simulated alarm-panel and access-control power supplies and demonstrate hands-only CPR and AED operation to American Heart Association or American Red Cross standards.
  1. Using a trainer-built demo panel with a de-energized 120 V circuit breaker, a 24 V DC alarm-panel transformer, and a battery backup, learners work in pairs to execute the full OSHA-required LOTO sequence (notify affected employees, identify energy sources, shut down equipment, isolate energy, apply lockout/tagout hardware, verify zero energy state) and document each step on a LOTO procedure sheet before any simulated maintenance task begins.
  2. Attend an AHA Heartsaver First Aid CPR AED course (or equivalent Red Cross course) delivered by a certified instructor: learners practice adult chest compressions on a manikin to the correct rate and depth, perform two-rescuer CPR handoffs, use an AED trainer, and complete written and skills check-offs required for card issuance.
  3. Scenario drill: instructor presents three realistic security-technician situations (a co-worker receives a shock while terminating wires; a customer faints while learner is rekeying a deadbolt; a chemical splash occurs during lock lubrication). Learners verbalize and demonstrate the correct emergency response sequence for each, including calling 911, rendering first aid, and reporting the incident on a sample OSHA 300 log entry.
LOTO demo panel (de-energized); OSHA-compliant lockout hasps, padlocks with individual keys, and tags; AHA Heartsaver First Aid CPR AED student workbook; CPR manikins (one per two learners); AED trainer unit; first-aid kit; sample OSHA Form 300; NFPA 70E arc-flash awareness handout (informational).Learners must (1) receive a valid AHA or Red Cross First Aid/CPR/AED completion card and (2) complete the LOTO practical check-off with no critical errors (defined as failing to verify zero energy state or applying a tag without a personal lock); one retry allowed within the same class day.
3Trade Math and Measurement: Numbers, Fractions, Decimals, and Units for Locksmithing28practiceLearners will accurately apply arithmetic operations, unit conversion, and geometric measurement to solve at least ten representative locksmith and security-installation problems without a calculator error rate exceeding 10%.
  1. Work through a 40-problem instructor-prepared math packet organized in four progressive sections—(1) whole numbers and fractions for reading key-blank dimension tables and door-thickness tolerances; (2) decimals and percentages for calculating material costs, markup, and discount on a simulated job estimate; (3) unit conversion between inches, millimeters, and feet for hardware backset and conduit runs; (4) area and perimeter for calculating square footage of a surveillance coverage zone. Learners check answers against a key and flag errors for instructor review.
  2. Hands-on measurement lab: using a digital caliper, steel rule, and tape measure, each learner measures five padlock shackle diameters, three door-edge bores, two mortise-lock cutout depths, and one conduit run length, recording results in both inches and millimeters on a data sheet; instructor spot-checks five measurements per learner for accuracy within ±0.01 inch.
  3. Job-estimate simulation: given a printed scenario ('Customer needs three exterior doors rekeyed to a master key system, one new Grade 1 deadbolt installed, and a four-camera IP CCTV system with 200 ft of cable runs'), learners calculate parts quantities, total linear footage of cable, labor hours at a stated hourly rate, and a final customer quote; results are compared in a class debrief.
Instructor-prepared 40-problem math packet with answer key; digital calipers (one per learner); 6-inch steel rule; 25-foot tape measure; sample padlocks, door-edge plates, and mortise-lock bodies for measurement; scientific or trade calculator; ALOA Key Blank Cross-Reference Directory (print or online); blank job-estimate form.Score 80% or higher on the 40-problem math packet; measurement data sheet must show no more than one out-of-tolerance reading out of the 11 measured items. Both thresholds must be met; learners below threshold receive targeted tutoring and one retake.
4Technical Reading: Manuals, Wiring Diagrams, ANSI/BHMA Tables, and Code Documents22theoryLearners will extract correct installation specifications, hardware grades, and compliance requirements from four categories of trade reference documents with 80% accuracy on a comprehension assessment.
  1. Reading circuit: learners rotate through four document stations (10 minutes each, two full rotations): Station A—a manufacturer's cylindrical-lock installation sheet with a parts diagram; Station B—a 24 V DC alarm-panel wiring schematic with zone terminals; Station C—an ANSI/BHMA A156 hardware grade comparison table; Station D—a sample state building-code section referencing egress hardware requirements. At each station learners answer three comprehension questions on a worksheet.
  2. Wiring diagram annotation activity: instructor distributes a simplified four-zone alarm-panel wiring diagram; learners label each conductor, identify the normally-open vs. normally-closed zones, trace the path from a door contact to the control panel, and answer five 'what-if' questions (e.g., 'If this wire is cut, what does the panel do?') using only the diagram legend.
  3. Cross-reference research task: given a list of five existing lock cylinders by manufacturer and model, learners use a printed key-blank cross-reference directory and a manufacturer's online catalog to identify the correct key blank for each, record the blank number, and note the bow and blade dimensions—simulating a real shop lookup workflow.
Current manufacturer installation sheets for a Grade 1 cylindrical lock and a basic alarm control panel (instructor-sourced from manufacturer websites, public domain); simplified alarm wiring diagram (instructor-prepared); ANSI/BHMA A156 series hardware standards summary (BHMA publishes free educational summaries); ALOA Key Blank Cross-Reference Directory; printed excerpts of a sample state egress-hardware code section (instructor-selected, state-specific); reading-circuit worksheet.Reading-circuit worksheet must score 80% or higher (18 of 24 questions correct); wiring-diagram annotation is evaluated by instructor using a rubric—all five conductors correctly labeled and all five 'what-if' answers correct or one error allowed. Retake of worksheet is available within one week.
5Digital Tools for the Security Trade: Databases, Work Orders, and Online References18labLearners will use three categories of digital tools—a key/lock cross-reference database, a simulated work-order management system, and manufacturer online support portals—to complete a simulated service call from intake to closeout.
  1. Database navigation exercise: learners log into the Ilco Key Blank Reference app or the equivalent free online cross-reference tool and complete a 15-item lookup worksheet—identifying key blanks, locating cylinder specifications, and comparing two competing manufacturers' products for a given lock model—demonstrating efficient search strategy rather than guessing.
  2. Simulated work-order workflow: using a simple cloud-based CRM or instructor-provided spreadsheet template, learners enter customer contact information, describe the requested service (rekey, install deadbolt, service alarm sensor), generate a parts list with quantities and unit costs, calculate the subtotal and tax, mark the job complete, and produce a printed or PDF invoice—then review each other's invoices for accuracy using a peer-check form.
  3. Manufacturer portal scavenger hunt: instructor assigns each learner a specific lock or alarm-panel model from a major manufacturer (Schlage, Kwikset, Honeywell, DSC, or similar publicly documented product); learners must locate and download or screenshot the current installation manual, a firmware or product change notice, and a technical FAQ from the manufacturer's public support website, then record the document version numbers and dates—reinforcing the habit of checking for current documentation before beginning a job.
Computers or tablets with internet access (one per learner or pair); Ilco key-blank reference app or equivalent free online tool; instructor-prepared 15-item database lookup worksheet; cloud-based CRM or instructor-prepared spreadsheet work-order template; printer or PDF export; peer-check invoice rubric; list of assigned manufacturer models for scavenger hunt.Database worksheet must score 80% correct (12 of 15 items); work-order invoice must be arithmetically correct and contain all required fields (customer info, itemized parts, labor, subtotal, tax, total)—one arithmetic error permitted with correction before final submission. Scavenger hunt is complete/incomplete graded: all three documents located and version numbers recorded earns full credit.
6Professional Communication, Ethics, and Customer Service in the Security Trade18practiceLearners will demonstrate professional verbal communication, written service-report completion, and ethical decision-making in three simulated locksmith customer scenarios, meeting a behavioral rubric standard of satisfactory or above on all criteria.
  1. Written service report workshop: using a sample two-page service call report form, learners draft a complete report for a provided scenario ('lockout call, residential customer locked out at 10 PM, rekeyed two cylinders after proof of residency verified, documented key codes in system, collected payment') focusing on accuracy, legibility, complete fields, and professional language; instructor reviews with annotated feedback before a second draft.
  2. Role-play scenarios in pairs: three scripted scenarios practiced back-to-back—(1) a customer challenges the quoted price and becomes frustrated; (2) a customer asks the technician to open a lock on a property the customer cannot prove they own; (3) a customer requests a recommendation between two security products at different price points. Observers use a behavioral rubric covering: greeting, active listening, clear explanation, handling objections calmly, documenting proof of ownership request, and making an honest product recommendation without upselling unnecessarily.
  3. Ethics case study discussion: instructor presents four short cases drawn from ALOA's Code of Ethics themes—locksmith asked to bypass a lock with no proof of ownership; technician discovers evidence of a prior break-in while on a service call; employer instructs technician to skip a required permit; technician tempted to share a customer's key code with a third party. Small groups discuss the correct action, the relevant professional or legal obligation, and how to document the decision, then report out to the full class.
Sample service call report form (instructor-prepared, based on industry models); three scripted customer role-play scenario cards; behavioral communication rubric; ALOA Code of Ethics (available on ALOA's public website); four written ethics case studies (instructor-prepared); whiteboard for class debrief notes.Service report second draft must score satisfactory (all required fields complete, no factual errors, professional language) on instructor rubric. Role-play rubric must show satisfactory or above on at least five of six behavioral criteria per scenario. Ethics discussion is participation-graded: each learner must contribute a substantive comment to at least two of the four cases as noted by instructor.
7Credential Pathways, State Licensing, and Career Planning in Locksmith & Security18theoryLearners will correctly describe the eligibility requirements, application steps, and exam content domains for the ALOA CRL credential, the ESA CAT credential, and their state locksmith/alarm license, and produce a written personal credential and career plan.
  1. Credential comparison chart: using ALOA's and ESA's current public websites and their state licensing board's public website, learners complete a three-column comparison table covering—credential name, issuing body, eligibility requirements, application process, exam format (topic areas only, not internal scoring details), renewal cycle, and employer recognition value—then share findings in a class discussion to identify any discrepancies or state-specific requirements.
  2. State licensing research: each learner researches their specific state's locksmith and/or alarm technician licensing law (or the nearest equivalent jurisdiction if the state has no specific law) and answers a structured set of questions: Is a license required? What activities require it? What is the application process? What background-check requirements apply? What are the consequences of operating without a license? Findings are shared with the class.
  3. Personal credential and career plan: each learner writes a one-to-two page plan that identifies which credentials and licenses they will pursue, lists the steps and estimated timeline for each, describes two realistic entry-level job titles in the trade and the skills employers list in current job postings (learners search at least two online job boards), and sets three measurable professional goals for their first year of employment.
Computers or tablets with internet access; ALOA CRL information page (ALOA.org); ESA CAT information page (ESAlarm.org); state licensing board website (instructor provides direct URL for the program's state); sample job postings (instructor-printed or learner-searched); career-plan writing template; credential comparison chart template.Credential comparison chart must have all fields completed accurately (verified against official sources by instructor) with no more than two factual errors. State licensing research must correctly answer all five structured questions based on actual current law or a clearly noted 'no specific state law.' Career plan must include all required sections and set at least three measurable first-year goals—graded complete/incomplete; incomplete plans returned for revision before the course ends.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Safety and Regulatory Knowledge ExamWritten exam25%80% (40 of 50 questions correct); OSHA 10 card and First Aid/CPR card must be on file before exam is scoredA 50-question multiple-choice and short-answer written exam covering OSHA General Industry hazard recognition, GHS hazard-communication labeling, PPE selection for locksmith and alarm-installation tasks, the six-step lockout/tagout procedure, electrical-safety rules for low-voltage security work, and first-aid response priorities. Questions are drawn from the safety content covered in Lessons 1 and 2 and are aligned with the safety and regulatory knowledge domains assessed in the ALOA CRL and ESA CAT exams.
Accuracy · Safety · Communication · Professionalism
Trade Math, Technical Reading, and Digital Tools ExamWritten exam25%80% (32 of 40 questions correct)A 40-question combined written and applied exam: 20 questions require numeric calculation or measurement interpretation (fractions, decimals, unit conversion, area, job-estimate math); 10 questions require reading a supplied wiring diagram or ANSI/BHMA hardware table to extract specific data; 10 questions require interpreting a key-blank cross-reference entry or a manufacturer installation-sheet detail. This exam maps to the mathematical reasoning and technical-documentation reading skills tested in both the ALOA CRL and ESA CAT credential exams.
Accuracy · Safety · Communication · Professionalism
Professional Communication and Credential Pathway PortfolioProject25%All four required components rated satisfactory or above on the scoring rubric; no component may be incompleteLearners submit a four-part portfolio: (1) the final revised service call written report from Lesson 6; (2) the completed credential comparison chart from Lesson 7; (3) the state licensing research document from Lesson 7; and (4) the personal credential and career plan from Lesson 7. Each component is scored on a three-level rubric (unsatisfactory / satisfactory / exemplary) for accuracy, completeness, and professional presentation. The portfolio demonstrates career-readiness skills relevant to state license application processes and professional association membership.
Accuracy · Safety · Communication · Professionalism
Safety and Professionalism Oral DefenseOral / panel25%Satisfactory rating on at least four of five rubric criteria; any unsatisfactory rating on the LOTO or ethics criterion triggers a mandatory retake of that criterion onlyIn a 15-minute one-on-one session with the instructor, each learner responds to five oral prompts drawn randomly from a bank covering: (1) walking through the LOTO procedure for a named piece of shop equipment, (2) selecting and justifying PPE for a described worksite scenario, (3) explaining what to do if a customer cannot prove ownership of a property during a lockout call, (4) describing the next step a learner will take toward obtaining their state license, and (5) explaining one ethical obligation from the ALOA Code of Ethics and why it matters to public trust in the trade. Responses are scored on a satisfactory/unsatisfactory rubric for accuracy, completeness, and professional language.
Accuracy · Safety · Communication · Professionalism
BUS-LOCK72-02 Trade course

Lock Mechanisms

63 hr · $680 COMPLIMENTARY

Students disassemble, identify, and reassemble the principal lock families used in residential, commercial, and institutional settings, building a hands-on understanding of how each mechanism works and where it fails. Emphasis is placed on reading pin-stack geometry, understanding tolerances, and recognizing security grades so that later keying, access-control, and service work rests on accurate mechanical knowledge. Lessons align with the ALOA Certified Registered Locksmith exam domains covering lock anatomy, security levels, and mechanical operation.

Outcomes
Course text

Students disassemble, identify, and reassemble the principal lock families used in residential, commercial, and institutional settings, building a hands-on understanding of how each mechanism works and where it fails. Emphasis is placed on reading pin-stack geometry, understanding tolerances, and recognizing security grades so that later keying, access-control, and service work rests on accurate mechanical knowledge. Lessons align with the ALOA Certified Registered Locksmith exam domains covering lock anatomy, security levels, and mechanical operation.

How the course runs. 5 blocks: Lock Families and Security Standards Overview; Pin-Tumbler Cylinder: Anatomy and Operation; Wafer, Tubular, and Warded Mechanisms; Lever-Tumbler and Disc-Detainer Mechanisms; Mechanical Failure Diagnosis and Security Evaluation.

What competent looks like. Identify and name the functional components of pin-tumbler, wafer, disc-detainer, lever-tumbler, tubular, and warded lock mechanisms without reference materials. Disassemble and reassemble at least four distinct lock families to manufacturer specification within the allotted time and without losing parts or damaging the plug. Explain how each mechanism achieves the locked and unlocked state, including the role of springs, shear line, and tolerances, as tested by written and oral questioning. Classify a residential or commercial lock cylinder by ANSI/BHMA grade and match the grade to appropriate application environments. Diagnose at least three common mechanical failure modes (worn drivers, broken springs, seized plug) and select the correct corrective action. Apply safe handling procedures for lock tools and small parts, including control of springs and ball bearings, and observe shop housekeeping standards throughout all lab work.

Lessons · 5 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Lock Families and Security Standards Overview10theoryStudents classify the six primary lock families and explain ANSI/BHMA grading criteria so they can select the appropriate mechanism for a given application.
  1. Instructor-led presentation using cross-section diagrams of pin-tumbler, wafer, disc-detainer, lever-tumbler, tubular, and warded locks; students sketch and label each diagram in a course notebook.
  2. Small-group card-sort activity: teams match 24 application scenario cards (e.g., apartment entry door, bank safe-deposit drawer, commercial exit device) to the correct lock family and ANSI/BHMA grade, then defend choices to the class.
  3. Graded reading exercise using the current ANSI/BHMA A156 series standard summaries and a manufacturer's catalog; students complete a structured worksheet identifying grade designations, cycle ratings, and finish codes for ten listed products.
Cross-section diagrams (instructor-prepared), ANSI/BHMA A156 series summary documents, manufacturer catalogs (Schlage, Medeco, or equivalent), course notebook, card-sort sets, whiteboardCompleted worksheet scored against answer key; students must correctly identify lock family and grade for at least 8 of 10 items (80%) to demonstrate readiness to proceed.
2Pin-Tumbler Cylinder: Anatomy and Operation18labStudents disassemble, inspect, and reassemble a standard pin-tumbler cylinder, correctly identifying every component and articulating how key cuts control the shear line.
  1. Instructor demonstration of safe disassembly sequence using a follower tool and plug-follower block; students observe spring-and-driver ejection risks, review PPE requirements (safety glasses mandatory), and practice controlled spring capture before touching hardware.
  2. Supervised lab: each student disassembles three cylinders of increasing pin-stack count (four-pin practice cylinder, five-pin Schlage-style, six-pin Kwikset-style), measures driver and key-pin heights with a digital caliper, records readings in a lab log, then reassembles and verifies smooth plug rotation with a blank key.
  3. Paired troubleshooting drill: partner intentionally installs one wrong-height driver or omits one spring; student must identify the fault by feel and inspection, document it, install the correct part, and confirm operation — repeated twice with roles reversed.
Assorted pin-tumbler cylinders (at least two per student), plug-follower blocks, follower tools, pinning trays, tweezers, digital calipers, key blanks, safety glasses, magnifying lamp, lab log forms, Locksmith Ledger or equivalent referenceInstructor observes reassembly using a skills checklist: plug rotates freely with correct key, binds with wrong key, no parts missing, no scratches on plug face; all three cylinders must pass and lab log must be complete with measurements — all items required to pass.
3Wafer, Tubular, and Warded Mechanisms12demoStudents describe the operating principle of wafer, tubular, and warded lock mechanisms and demonstrate disassembly and reassembly of one example of each type.
  1. Instructor bench demonstration of each mechanism in sequence: wafer lock (automotive or filing cabinet style), tubular lock (vending or bicycle), and warded lock (padlock or cabinet), narrating aloud what each part does as it is removed and replaced; students follow in their notebooks with annotated sketches.
  2. Guided practice stations: students rotate through three bench stations, one per mechanism, disassembling and reassembling one example per station with a printed job aid available; instructor circulates and provides real-time correction.
  3. Short oral quiz at the end of the session: instructor picks components at random from a tray and asks each student to name the part, state which mechanism it belongs to, and describe its function — responses recorded on an observation checklist.
Wafer-tumbler cylinders, tubular lock cylinders, warded padlocks, appropriate follower tools, pinning trays, printed job aids (instructor-prepared), observation checklist, safety glassesOral quiz observation checklist: student correctly names part, mechanism, and function for at least 4 of 5 randomly selected components; reassembly at each station confirmed operable by instructor before student moves on.
4Lever-Tumbler and Disc-Detainer Mechanisms13labStudents disassemble and reassemble a lever-tumbler lock and a disc-detainer lock, explaining how lever lift height and disc rotation control the bolt.
  1. Pre-lab reading assignment from a standard locksmith reference covering lever geometry, bitting depth, and disc-detainer rotation; students complete a five-question reading guide before the lab session begins.
  2. Bench lab: each student disassembles a three-lever padlock, measures lever-lift heights, records in lab log, reassembles, and tests with correct and incorrect keys; then repeats with a disc-detainer cylinder, mapping each disc's cut position to the correct key profile drawn on graph paper.
  3. Comparative analysis activity: students place a disassembled pin-tumbler, lever-tumbler, and disc-detainer side by side and complete a three-column comparison table covering security principle, common application, attack resistance, and serviceability — table is added to the lab log.
Three-lever padlocks (at least two per student), disc-detainer cylinders, appropriate keys, digital calipers, graph paper, lab log forms, reference text (e.g., Locksmith Training Program manual or equivalent), safety glassesLab log reviewed by instructor: measurements recorded for all levers and discs, graph-paper disc maps present and legible, comparison table complete; lock must operate correctly after reassembly — incomplete log or non-functioning lock requires repeat of that station before credit.
5Mechanical Failure Diagnosis and Security Evaluation10practiceStudents diagnose at least three pre-seeded mechanical faults in lock cylinders and recommend a documented corrective action for each, demonstrating readiness for real service calls.
  1. Instructor introduces a structured fault-finding method (symptom, inspect, test, correct, verify) using two example cylinders with known faults (broken spring, worn driver) worked through as a class, recording each step on a service documentation form.
  2. Individual timed diagnostic exercise: each student receives four cylinders with hidden faults (e.g., wrong driver height, missing spring, cracked plug, debris in keyway) and must diagnose and document all faults within 30 minutes using the structured method, then perform the correction and verify operation.
  3. Security evaluation walkthrough: using a set of residential and commercial cylinders of varying grades, students assess each for signs of wear, attack marks, and appropriate grade for its labeled application, recording recommendations on a short written report that mirrors a real service invoice format.
Pre-faulted cylinders (instructor-prepared, four per student), service documentation forms, timer, residential and commercial cylinders of varying ANSI/BHMA grades, magnifying lamp, pinning tools, calipers, safety glassesStudent must correctly identify and document at least 3 of 4 pre-seeded faults with an appropriate corrective action recorded for each, and all corrected cylinders must function correctly — failure to meet either threshold requires a remediation session before the skills demo assessment.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Lock Mechanisms Knowledge ExamWritten exam25%75% correct (30 of 40 questions)A 40-question multiple-choice and short-answer written exam covering lock family identification, component names and functions, ANSI/BHMA grade criteria, shear-line principles, and common failure modes; mapped to the ALOA CRL exam domain on mechanical lock operation. Students have 60 minutes and may not use reference materials.
Standard met · Safety · Time · Quality/finish · Documentation
Cylinder Disassembly and Reassembly Skills DemonstrationSkills demonstration45%All six checklist criteria rated Satisfactory; any Unsatisfactory rating requires one remediation attemptThe instructor assigns the student one pin-tumbler and one lever-tumbler cylinder; the student must disassemble, identify all components aloud, reassemble, and verify correct operation within 20 minutes total, using only approved hand tools. The instructor scores a six-item checklist: correct component identification, safe spring/driver control, plug-follower technique, reassembly sequence, functional key test with correct key, and non-function confirmed with incorrect key.
Standard met · Safety · Time · Quality/finish · Documentation
Lab Log Portfolio ReviewLog15%At least 12 of 15 entries rated Complete and Accurate on the rubricThe student submits the complete lab log maintained across all lab and practice lessons, containing measurement records, annotated sketches, comparison tables, fault-diagnosis forms, and service documentation forms. The instructor scores 15 entries against a rubric assessing completeness, dimensional accuracy, legibility, and correct use of trade terminology; any entry rated Incomplete may be revised once before final scoring.
Standard met · Safety · Time · Quality/finish · Documentation
Shop Safety Behavior CheckSafety audit15%Zero critical violations observed across all lab sessions; minor violations corrected within one promptThe instructor uses a cumulative observation checklist throughout all lab and practice lessons to record safety behaviors: mandatory safety glasses worn at all benches, controlled capture of springs and ball bearings before disassembly, no unattended open pinning trays, proper tool storage, and immediate reporting of any dropped sharp tooling. A single unresolved critical violation (e.g., removing safety glasses during disassembly) results in removal from the lab until a safety conference is completed and documented.
Standard met · Safety · Time · Quality/finish · Documentation
BUS-LOCK72-03 Trade course

Keying Systems: Master Keying, Rekeying, and Key Control

63 hr · $680 COMPLIMENTARY

This course develops competency in the full range of keying operations performed by working locksmiths, from basic rekeying of pin-tumbler cylinders to designing and implementing master key systems for commercial and residential clients. Students learn key control principles, key cutting by code and by hand, and the documentation practices required for professional key management. Lessons map directly to ALOA Certified Registered Locksmith exam content on key systems and cylinder servicing.

Outcomes
Course text

This course develops competency in the full range of keying operations performed by working locksmiths, from basic rekeying of pin-tumbler cylinders to designing and implementing master key systems for commercial and residential clients. Students learn key control principles, key cutting by code and by hand, and the documentation practices required for professional key management. Lessons map directly to ALOA Certified Registered Locksmith exam content on key systems and cylinder servicing.

How the course runs. 5 blocks: Pin-Tumbler Cylinder Anatomy and Rekeying Fundamentals; Key Cutting: Code Machines, Duplicators, and Bitting Specifications; Wafer, Disc-Detainer, and Tubular Cylinder Rekeying; Master Key System Design and Key Bitting Lists; Key Control Systems, Restricted Keyways, and Professional Keying Records.

What competent looks like. Rekey pin-tumbler, wafer, and disc-detainer cylinders to a new key bitting, verifying function with a tension wrench and plug follower without damage to the cylinder. Cut keys by code using a code machine and manually on a duplicator, achieving cuts within ±0.005 inch of specification. Design a two-level master key system for a building with at least six keyways groups, documenting the key bitting list and change-key matrix. Select and install a keyway family and key control system that limits unauthorized duplication and satisfies the client's access hierarchy. Interpret and apply a manufacturer's key bitting specification chart and MACS (Maximum Adjacent Cut Specification) rules to verify key viability. Maintain a keying record and key log that meets professional standards for audit and liability protection.

Lessons · 5 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Pin-Tumbler Cylinder Anatomy and Rekeying Fundamentals13labThe student will disassemble, rekey to a specified bitting, and reassemble a pin-tumbler cylinder so that only the new key operates the plug without binding or false set.
  1. Instructor demonstrates full disassembly of a Kwikset and a Schlage cylinder on a workbench camera, identifying each pin stack component (driver, bottom pin, spring, plug, shell) by name before students attempt the same on their own cylinders
  2. Students use a plug follower, follower rod, and pinning tray to remove old pin stacks, select new bottom pins from a pinning kit using a pin gauge to match a written bitting specification, reassemble, and verify correct function by testing with the specified key and two incorrect keys
  3. Pairs of students trade cylinders, attempt to decode the bitting by feel using a pick and tension wrench (with instructor guidance), then compare decoded bitting to the written spec to reinforce understanding of how pin heights control shear line
Kwikset and Schlage cylinders (minimum two per student), plug follower set, follower rods, pinning trays, pin tweezers, pinning kit with full range of bottom and driver pins, plug and shell follower rods, tension wrenches, key gauge/micrometer, Kwikset and Schlage bitting specification sheets, ALOA Technical Reference Library excerpts on pin-tumbler operationStudent rekeyed cylinder operates smoothly on specified key and rejects two adjacent-bitting test keys; instructor inspects plug seating and spring tension; pass = cylinder functions correctly and student can name each pin-stack component; 100% of steps completed without damaging cylinder
2Key Cutting: Code Machines, Duplicators, and Bitting Specifications13practiceThe student will cut keys to code and by duplication using a manual duplicator and a semi-automatic code machine, with all cuts falling within the manufacturer's tolerance.
  1. Instructor demonstrates how to read a bitting specification chart, identify depth increments and MACS, then enter a code into the school's code machine and cut a key blank; students repeat on five different key codes across three keyways, measuring each cut with a key micrometer and recording measurements on a tolerance worksheet
  2. Students duplicate a set of five worn keys on a manual duplicator, then compare duplicates to originals with a micrometer and a bitting gauge, flagging any cut that differs by more than the acceptable tolerance, and re-cut any out-of-tolerance cuts
  3. Timed drill: instructor provides an Ilco or Silca key code book entry; students locate the correct blank, set up the code machine, cut, deburr, and test the key in a practice cylinder in under eight minutes, repeating three times with different keyways
Semi-automatic code machine (e.g., Framon or Ilco) with calibration tools, manual key duplicator, assorted key blanks (Kwikset, Schlage, Medeco, Master padlock), key micrometer, key gauge, bitting specification charts, Ilco or Silca key code book or software, key deburring file and buffer wheel, tolerance worksheetsAll cuts on five code-cut keys measured by instructor must fall within ±0.005 inch of the published depth specification; duplicate keys must operate the source cylinder without binding; pass = 90% of cuts in tolerance on first attempt, 100% after correction
3Wafer, Disc-Detainer, and Tubular Cylinder Rekeying12labThe student will rekey wafer-tumbler, disc-detainer, and tubular cylinders using the correct tools and technique for each mechanism type.
  1. Instructor-led teardown of a wafer cylinder (filing cabinet lock), a disc-detainer lock (Abloy-style), and a tubular lock on the demonstration bench; students sketch cross-sections and label how each mechanism achieves the shear line differently from pin-tumbler
  2. Students rekey each cylinder type using an appropriate rekeying kit: wafer locks are rekeyed by removing and replacing wafers with tweezers; disc-detainer locks are decoded and set to a new key using a decoder tool; tubular locks are rekeyed using a tubular lock rekeying tool set matched to a new tubular key
  3. Quality-check round: each student passes their completed cylinders to a partner who tests function with the correct key and two wrong keys, documents results on a lab form, and returns the cylinder for any needed correction
Assorted wafer-tumbler cylinders (filing cabinet, desk lock), disc-detainer lock (practice cutaway if available), tubular deadbolts (7-pin and 8-pin), tubular lock decoder/rekeying tool set, wafer assortment, disc-detainer decoder, plug followers for wafer locks, tubular key blanks, key micrometer, lab formsEach cylinder type operates on the new key and rejects incorrect keys; lab form is fully completed with bitting recorded for each cylinder; pass = all three cylinder types successfully rekeyed and documented, zero cylinder damage
4Master Key System Design and Key Bitting Lists15theoryThe student will design a two-level master key system for a provided scenario, applying MACS rules and producing a complete key bitting list and access matrix free of cross-keying conflicts.
  1. Lecture and worked example: instructor walks through the algebra of master keying—master wafers, change-key bittings, top master, grand master—using a whiteboard and a transparency overlay of a pinning chart; students follow along calculating a four-door system together before working independently
  2. Students receive a written scenario (a small office building with a defined access hierarchy: building master, department masters, and individual change keys) and independently produce a key bitting list using a blank master key system worksheet, verifying every bitting pair satisfies the manufacturer's MACS and no two change keys are identical
  3. Peer review: pairs exchange bitting lists, attempt to find MACS violations or duplicate bittings using a MACS checker worksheet, annotate errors, and return for correction; instructor resolves disputed cases
Blank master key system design worksheets, MACS reference tables for Schlage and Kwikset keyways, sample key bitting lists from ALOA training materials, whiteboard, graph paper, calculator, ALOA Certified Registered Locksmith study guide sections on master keyingCompleted key bitting list for the scenario contains no MACS violations and no duplicate change-key bittings; access matrix correctly reflects the stated hierarchy; pass = bitting list reviewed by instructor with zero uncorrected MACS violations and correct matrix, scored on a rubric (pass ≥ 80%)
5Key Control Systems, Restricted Keyways, and Professional Keying Records10fieldThe student will recommend an appropriate key control solution for a client scenario, install a restricted-keyway cylinder, and complete a professional keying record that could withstand audit.
  1. Case-study discussion: students review two real-world client scenarios (a school district and a small medical office) and compare available key control options—patented restricted keyways, mechanical key registers, electronic key cabinets—evaluating cost, security level, and durability; each student writes a one-page recommendation memo using a business letter format
  2. Hands-on installation: students install a restricted-keyway Schlage or equivalent cylinder into a practice door prep, cut a restricted-keyway key to code, verify operation, and stamp or engrave a key number on the key bow using a hand stamp or electric engraver
  3. Documentation drill: students complete a full keying record form for a hypothetical 12-key system, including key holder name, key number, cylinder location, issue date, and return signature line; instructor checks for completeness and legibility, then discusses legal and liability reasons for accurate records as they relate to state licensing requirements
Restricted-keyway cylinders (Schlage Everest, Medeco, or similar), practice door slab or door-prep board, key stamp set or electric engraver, restricted-key blanks, code machine, professional keying record forms, sample key control product literature (Mul-T-Lock, Medeco, BEST), ALOA reference on key controlRestricted-keyway cylinder installed, operable with cut key, and all hardware torqued correctly; keying record form complete with all 12 entries legible and logically consistent; recommendation memo addresses cost, security, and client need; pass = cylinder operates correctly, record has zero missing fields, memo scores ≥ 75% on a provided rubric
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Keying Systems Knowledge ExamWritten exam25%75% correct (38 of 50 questions)A 50-question multiple-choice and short-answer written exam covering pin-tumbler and wafer cylinder theory, key bitting terminology, MACS rules, master key hierarchy vocabulary, key control principles, and the function of restricted keyways; questions are drawn from ALOA CRL exam content domains related to keying and cylinder servicing.
Standard met · Safety · Time · Quality/finish · Documentation
Practical Rekeying and Key Cutting Skills DemonstrationSkills demonstration45%All five tasks rated Competent on the rubric; no cylinder damage; key cuts within toleranceThe student is given a random cylinder type (pin-tumbler, wafer, or tubular) and a written bitting specification; they must rekey the cylinder and cut a matching key to code within 20 minutes, demonstrating correct use of plug follower, pinning tray, and code machine; an instructor evaluates on a five-task rubric (setup, disassembly, pinning, key cutting, functional test).
Standard met · Safety · Time · Quality/finish · Documentation
Master Key System Design Lab LogLog15%Log complete with no uncorrected MACS violations; matrix accurate; narrative entries present for all five lab sessionsStudents maintain a running lab log throughout the course recording bitting calculations, rekeying results, and design decisions; the final entry is a complete master key system design for the scenario from Lesson 4, with the key bitting list, access matrix, and a short written rationale; the log is submitted for instructor review at course end.
Standard met · Safety · Time · Quality/finish · Documentation
Key Control and Documentation Safety CheckSafety audit15%Zero critical errors; all PPE and tool-safety steps observed; keying record 100% completeDuring the Lesson 5 practical session an instructor uses a binary safety checklist to verify that the student wears safety glasses while cutting and engraving keys, secures loose material before operating the code machine, stores sharp tools correctly between uses, and produces a keying record with no missing fields; any critical safety omission requires immediate remediation and recheck before the student may continue.
Standard met · Safety · Time · Quality/finish · Documentation
BUS-LOCK72-04 Trade course

Safes: Construction, Manipulation, and Service

63 hr · $680 COMPLIMENTARY

Students learn safe construction ratings, lock mechanisms, and opening methods used in residential and commercial locksmithing. Topics cover UL ratings, relockers, combination locks, and electronic safe locks, with hands-on practice drilling, manipulation, and servicing safes. Lessons align with ALOA CRL exam content on safe mechanisms and opening techniques.

Outcomes
Course text

Students learn safe construction ratings, lock mechanisms, and opening methods used in residential and commercial locksmithing. Topics cover UL ratings, relockers, combination locks, and electronic safe locks, with hands-on practice drilling, manipulation, and servicing safes. Lessons align with ALOA CRL exam content on safe mechanisms and opening techniques.

How the course runs. 5 blocks: Safe Construction, Ratings, and Industry Standards; Combination Lock Mechanisms: Dial, Lever, and Group Classifications; Electronic Safe Locks: Installation, Programming, and Diagnosis; Safe Opening Techniques: Manipulation, Scoping, and Controlled Drilling; Relockers, Anti-Manipulation Features, and Safe Service Documentation.

What competent looks like. Identify safe construction types and interpret UL/RSC ratings to advise customers on appropriate safe selection. Disassemble, service, and reassemble Group 2 dial combination locks to manufacturer specification. Perform a controlled drill entry on a residential fire safe using proper tooling and personal protective equipment. Diagnose and replace a failed electronic safe lock module, including bypass procedures where permitted by the manufacturer. Explain relocker types and anti-manipulation features and describe how each affects an opening strategy. Complete a safe-service work order with accurate documentation of findings, methods used, and parts replaced.

Lessons · 5 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Safe Construction, Ratings, and Industry Standards10theoryStudents will correctly classify safes by construction type and UL/RSC rating and explain what each rating does and does not protect against.
  1. Instructor-led slide presentation covering UL Residential Security Container label, UL fire ratings (Class 350, 150, 125), TL-15, TL-30, TRTL-30x6, and B/C/D body ratings; students take structured notes using a provided graphic organizer.
  2. Small-group card-sort exercise: students match rating labels to scenario cards (e.g., 'customer stores paper documents, 30-minute fire risk') and justify their matches to the class.
  3. Individual written worksheet requiring students to read three mock manufacturer spec sheets and identify whether each safe meets a given customer security need, citing the specific rating criteria.
Manufacturer cut-away safe samples or cross-section posters, UL White Book excerpts (safe category sections), ALOA Safe-Deposit Servicing reference, SAVTA industry guides, instructor slide deckTen-question multiple-choice quiz on ratings and classifications; 8/10 correct required to proceed.
2Combination Lock Mechanisms: Dial, Lever, and Group Classifications15labStudents will disassemble a Group 2 dial combination lock, identify every component by name and function, reassemble it, and dial it open successfully.
  1. Instructor bench demonstration: full disassembly and reassembly of a Group 2 combination lock on a transparent training board, naming each part (wheel pack, drive cam, nose and bolt, fence, relocker trigger) and explaining its role in the locking cycle.
  2. Paired lab: each student disassembles their own Group 2 lock, completes a labeled diagram worksheet identifying all parts, then reassembles and dials the lock open three consecutive times; partner observes and checks steps against a procedure checklist.
  3. Whole-class discussion comparing Group 2, Group 2M, and Group 1 classifications: students use provided spec sheets to list differences in manipulation resistance and explain when a customer should upgrade from Group 2 to Group 1.
Group 2 combination locks (one per student), transparent combination lock training board, parts-identification diagram worksheets, procedure checklists, dial combination lock service manual (La Gard or Sargent & Greenleaf current edition), calipers, small-parts traysInstructor observes reassembly and records pass/fail on procedure checklist; lock must open on first dial attempt after reassembly, and student must verbally name every major component with no more than one prompt.
3Electronic Safe Locks: Installation, Programming, and Diagnosis12demoStudents will install an electronic safe lock module, program a user code, and perform a systematic diagnosis of a simulated lockout or low-battery fault.
  1. Instructor demonstration on a practice safe door: mounting an electronic lock (La Gard or Sargent & Greenleaf equivalent), routing wiring, connecting keypad, and performing initial programming sequence per the manufacturer's installation manual.
  2. Students work individually to install a second electronic lock on a practice door following the manufacturer wiring diagram; instructor circulates and checks wire routing, polarity, and bolt alignment before students power up.
  3. Fault-diagnosis rotation: instructor pre-loads three practice doors each with a different simulated fault (dead battery, incorrect wiring connection, corrupted code); students rotate through stations, use the manufacturer diagnostic guide to identify the fault, document findings on a fault-report form, and correct the issue.
Electronic safe lock kits (keypad, lock module, wiring harness), practice safe doors, manufacturer installation and programming manuals, multimeter, small Phillips and flat-head screwdrivers, fault-report forms, AA batteries, connector crimpersInstalled lock must hold bolt engaged, accept a programmed code, and open on valid entry; student must correctly identify and document all three faults on the rotation stations with no instructor assistance; 100% of faults must be correctly diagnosed.
4Safe Opening Techniques: Manipulation, Scoping, and Controlled Drilling18practiceStudents will open a residential or light-commercial safe using at least two approved methods—combination manipulation and controlled drilling—while following all PPE and safety protocols.
  1. PPE and drilling safety briefing: instructor demonstrates proper eye protection, hearing protection, and secure workpiece clamping; reviews OSHA general industry standards for rotating-tool use, identifies drill bit types (carbide, cobalt, diamond) appropriate for different safe bodies, and models marking a drill point on a practice safe body.
  2. Combination manipulation lab: using a Group 2 practice safe with a known combination, students follow a structured manipulation procedure (contact-point finding, graphing wheel positions, deriving the combination) documented on a manipulation worksheet; students repeat until they derive the combination without instructor prompting.
  3. Controlled drilling lab: each student drills a decommissioned residential fire safe at an instructor-approved attack point, uses a borescope to view internals, actuates the locking bolts manually, and then fills and documents the drill hole on a work-order form; instructor checks drill-point selection and bit control before drilling begins.
Decommissioned residential safes (fire and RSC rated), carbide and cobalt drill bits, right-angle drill and standard drill, center punch, tungsten carbide-tipped punch, borescope, manipulation worksheets, graph paper, stethoscope or electronic contact microphone, PPE (safety glasses, hearing protection, heavy work gloves), work-order forms, drill-point repair plugsStudent must independently derive a Group 2 combination within the time frame specified in the manipulation worksheet rubric (no more than two instructor hints permitted); drilling must be performed at the correct attack point with no uncontrolled bit walking—verified by instructor sign-off before drilling proceeds; completed work order reviewed for accuracy.
5Relockers, Anti-Manipulation Features, and Safe Service Documentation8theoryStudents will identify glass-plate, thermal, and spring relockers on disassembled safe doors, explain how each activates, and produce a complete service work order for a combination change job.
  1. Instructor-led examination of disassembled safe doors showing glass-plate, thermal, and independent spring relocker designs; students sketch each type, label activation mechanisms, and list the opening implications if each triggers.
  2. Scenario-based small-group exercise: groups receive a job card describing a triggered relocker situation and must write a step-by-step recovery plan identifying the correct approach (additional drilling points, scope angles) and the tools required, then present their plan for class critique.
  3. Individual work-order practice: instructor provides a completed safe combination-change scenario (customer name, safe model, old and new combination, parts replaced, time on job); student produces a professional work order using a standard template, including labor and part codes, then exchanges with a partner for peer review against a grading rubric before instructor final check.
Disassembled safe doors with visible relocker hardware, relocker diagram handouts, job-scenario cards, blank work-order templates, pen, ALOA Safe Technician reference materialsStudents correctly label all three relocker types on a diagram quiz (3/3 correct); completed work order must include all required fields and contain no safety-critical omissions as defined on the rubric—a missing relocker notation counts as a critical omission and requires a redo.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Safe Ratings and Mechanisms Written ExamWritten exam25%75% correct (38/50 points)A 50-question written exam covering UL/RSC ratings, combination lock group classifications, electronic lock components, and relocker types, aligned to ALOA CRL exam content areas on safe mechanisms and opening methods. Students must reach 75% to demonstrate foundational knowledge required for safe work.
Standard met · Safety · Time · Quality/finish · Documentation
Safe Opening Skills DemonstrationSkills demonstration45%All critical steps on the rubric marked Satisfactory; no unsatisfactory marks on safety itemsStudents are assigned a decommissioned safe and must select an appropriate opening method, state their rationale, and open the safe using correct technique while demonstiting proper PPE use and tool control throughout. The evaluator uses a criterion-referenced rubric; any unsafe act (unguarded drill, improper clamping) results in an immediate stop and an automatic fail of that attempt.
Standard met · Safety · Time · Quality/finish · Documentation
Safe Service Lab LogLog15%Minimum of 4 of 5 lab entries complete and accurate; no missing safety notationsStudents submit a log documenting their hands-on work across all five lessons, including labeled diagrams, manipulation worksheets, fault-report forms, and work orders. Each entry must include materials used, procedure followed, outcome, and any safety precaution observed; the instructor reviews each entry against a completeness checklist.
Standard met · Safety · Time · Quality/finish · Documentation
PPE and Drilling Safety CheckSafety audit15%100% compliance on all six safety checkpoints; any single failure requires immediate remediation and recheck before student may continue drilling labsBefore any drilling activity, the instructor completes a six-point safety checklist verifying correct eye protection, hearing protection, glove use, workpiece clamping, correct drill-bit selection for the safe body type, and confirmed drill-point marking. This check is repeated at the start of every drilling session and the record is retained in the student's course file.
Standard met · Safety · Time · Quality/finish · Documentation
BUS-LOCK72-05 Trade course

Access Control Systems: Installation, Programming, and Service

62 hr · $670 COMPLIMENTARY

Students learn how standalone and networked access control systems work, from basic card readers and keypads through multi-door controllers and credential management software. Lessons cover system design, cable routing, device mounting, programming, troubleshooting, and the integration points with alarms and electronic locks that appear on the ALOA CRL and ESA CAT credential exams. Safety, code compliance awareness, and customer documentation are embedded throughout.

Outcomes
Course text

Students learn how standalone and networked access control systems work, from basic card readers and keypads through multi-door controllers and credential management software. Lessons cover system design, cable routing, device mounting, programming, troubleshooting, and the integration points with alarms and electronic locks that appear on the ALOA CRL and ESA CAT credential exams. Safety, code compliance awareness, and customer documentation are embedded throughout.

How the course runs. 5 blocks: Access Control Fundamentals and System Architecture; Site Survey, System Design, and Low-Voltage Wiring; Hardware Installation: Readers, Electric Locks, and Door Position Devices; Controller Programming, Credential Management, and Time Zones; Troubleshooting, System Maintenance, and Customer Documentation.

What competent looks like. Identify and explain the operating principles of common access control technologies including proximity, smart card, PIN, and biometric credential systems. Plan and document a basic access control installation from site survey through as-built drawings using industry-standard symbols and terminology. Install, terminate, and test low-voltage wiring for readers, controllers, and power supplies following manufacturer specifications and applicable electrical safety practices. Program a single-door and a multi-door access control controller to assign user credentials, time zones, and door schedules using a current commercial software platform. Diagnose and correct common access control faults including wiring errors, credential mismatches, reader failures, and lock hardware malfunctions using a systematic troubleshooting process. Apply lockout/tagout procedures, PPE selection, and ladder safety whenever working on powered access control equipment or at elevation.

Lessons · 5 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Access Control Fundamentals and System Architecture12theoryStudents will correctly classify the components of an access control system, explain how credential data travels from reader to controller to locking device, and describe the difference between standalone, networked, and cloud-managed topologies.
  1. Instructor-led walkthrough of a commercial access control block diagram: students label each component (reader, controller, power supply, request-to-exit device, electric strike/magloc, door position switch) on a blank diagram and explain the signal path in their own words.
  2. Paired comparison exercise: given spec sheets for three real product lines (one standalone keypad, one wired networked system, one cloud-managed system), students complete a feature matrix comparing credential types supported, maximum door count, network interface, and typical installation scenario, then present findings to the class.
  3. Short written scenario: students read a one-page description of a small office with four doors and varying security needs, then sketch a recommended system topology and write a three-sentence justification citing credential type, controller placement, and power strategy.
Commercial access control block diagrams (manufacturer-supplied or instructor-drawn), spec sheets for at least three current product lines (e.g., HID, Schlage, Honeywell or equivalent), blank diagram worksheets, whiteboard, ALOA study materials covering electronic access control, ESA CAT candidate handbookStudents score at least 80% on a 20-question in-class quiz covering component identification, signal flow, topology trade-offs, and credential technology definitions; any score below 80% triggers a one-on-one review before the next lesson.
2Site Survey, System Design, and Low-Voltage Wiring14demoStudents will conduct a structured site survey of a practice space, produce a scaled door schedule and basic riser diagram, select appropriate wire gauge and type for each device run, and demonstrate safe low-voltage wiring practices including proper termination and labeling.
  1. Instructor demonstrates a live site survey of the classroom/lab space: students follow along completing a standardized survey form covering door material, frame type, hinge placement, conduit paths, existing hardware, and power source locations; students then repeat the survey independently at a second mock door station.
  2. Using the survey data, students draw a riser diagram showing controller location, reader drops, REX device, door position switch, and power supply, then calculate total current draw for the door station and verify the power supply rating is adequate using the manufacturer's current draw table.
  3. Wiring lab: students pull and terminate a complete single-door cable bundle (reader cable, lock power cable, REX and door position switch leads) between a mock controller panel and a practice door frame, applying correct wire colors, ring terminals or strip lengths per manufacturer spec, and labeling each conductor with adhesive tags; instructor checks each termination before energizing.
Site survey forms, graph paper and drafting tools (or CAD/drawing tablet if available), wire calculator worksheet, 22 AWG shielded multi-conductor cable (Belden or equivalent), 18 AWG two-conductor power cable, wire stripper, crimping tool, punch-down tool, ring terminals, label maker or adhesive wire markers, multimeter, mock door frame with conduit, manufacturer wiring diagrams, NFPA 70 low-voltage article reference (Article 725), PPE (safety glasses, gloves)Instructor inspects each student's wiring termination using a continuity tester: all conductors must show continuity with no shorts, all conductors must be labeled, and no insulation damage is acceptable; students who fail any point re-terminate before proceeding. Survey form and riser diagram graded on a rubric requiring correct component symbols, labeled wire runs, and accurate current draw calculation — minimum 80% rubric score.
3Hardware Installation: Readers, Electric Locks, and Door Position Devices14labStudents will mount and align a proximity card reader, an electric strike and a magnetic lock at a practice door station, wire each device to a controller, and verify correct mechanical operation of the door hardware before powering the system.
  1. Hands-on mounting exercise: each student selects an installation instruction sheet for a specific reader model, locates the mounting height per ANSI/BHMA accessibility guidelines (approximately 34–48 inches AFF for the credential presentation area), marks the mounting template, drills or uses an awl for hollow-core practice panels, and mounts the reader with all fasteners torqued appropriately.
  2. Electric strike and magloc comparison lab: students install one electric strike in a hollow-metal door strike pocket (adjusting strike lip depth and checking door gap with a feeler gauge) and then install a magnetic lock on a door header including the armature plate alignment; both devices are wired to fail-safe and fail-secure switch positions on the practice controller so students observe the operational difference.
  3. Pre-power checklist drill: before any power is applied, each student completes a written pre-power checklist covering wire termination check, door alignment and gap measurement, maglock bond strength estimation, REX device placement and wiring, and lock free-wheeling test; instructor signs off the checklist, then students energize and verify lock engage/release with a credential swipe.
Proximity card readers (HID or equivalent), electric strike (ANSI-standard cutout), magnetic lock (600 lb or similar), door position switch (surface-mount), REX passive infrared or push-button, practice door frame assembly (hollow-metal or wood), drill and bits, hole saw, screwdrivers, Allen wrenches, feeler gauge, torque screwdriver, pre-power checklist form, ANSI/BHMA door hardware standards reference, manufacturer installation sheets, PPE (safety glasses, cut-resistant gloves)Completed pre-power checklist must be signed by instructor before energizing; after power-on, instructor observes student demonstrate: valid credential grants access (lock releases), invalid credential is denied, REX releases lock from inside, door position switch shows correct open/closed state in controller software — all four functions must pass for lesson credit.
4Controller Programming, Credential Management, and Time Zones14practiceStudents will configure a commercial access control controller by adding users with proximity credentials, assigning access levels and time zones, setting door schedules, and generating a basic access report using the system's management software.
  1. Software orientation walkthrough: instructor projects the controller management software (e.g., a current platform such as Lenel, Genetec, CDVI, or a manufacturer-provided training version) and demonstrates the database structure — cardholders, credentials, access levels, doors, time zones, schedules; students follow on individual workstations and locate each menu item.
  2. Scenario-based programming exercise: students receive a written scenario describing a five-person office with two access doors, standard business hours Monday–Friday, one manager with 24/7 access, and one door that must unlock automatically at 8 a.m. and relock at 6 p.m.; students program all users, time zones, schedules, and auto-unlock behavior, then test each access rule using the physical door station.
  3. Credential enrollment and report generation: students enroll three proximity cards using a desktop enrollment reader (capturing card number and facility code), assign them to cardholders, export an access activity report showing the last ten transactions, and annotate the report to identify granted-access, denied-access, and door-held-open events for the instructor.
Access control management software (licensed training version or manufacturer-provided demo), desktop credential enrollment reader, proximity cards (HID or equivalent), networked or USB-connected controller, workstation computers, scenario instruction sheets, printer or PDF export for report, ESA CAT study guide (access control programming section), ALOA CRL study materialsInstructor runs a live test of each student's programmed system using pre-defined test cards; all five access rules from the scenario must function correctly (correct user granted, wrong time denied, auto-unlock at scheduled time, 24/7 manager access, door schedule relock) — all five must pass; students who fail one or more rules debug and retest within the class period.
5Troubleshooting, System Maintenance, and Customer Documentation8fieldStudents will diagnose and resolve at least four seeded faults in a complete access control door station, document findings in a service report using industry-standard terminology, and explain their diagnostic process and corrective actions to the instructor as if presenting to a customer.
  1. Fault-finding exercise: instructor pre-wires four distinct faults into the practice door station (e.g., reversed reader power polarity, open circuit on the REX lead, incorrect facility code in the controller, magloc armature misaligned reducing holding force) and provides students only with symptom descriptions; students use a multimeter, controller diagnostic LED indicators, and software event logs to isolate and correct each fault, recording findings on a fault log worksheet.
  2. Preventive maintenance walkthrough: students clean a proximity reader lens with appropriate materials, check and re-torque all terminal connections on the controller board, test and record the magnetic lock holding force using a pull-force gauge, verify the door closer adjustment keeps the door within the magloc engagement zone, and inspect the door position switch gap — all findings recorded on a PM checklist.
  3. Customer handoff simulation: each student prepares a one-page as-built service record (door schedule, user list with access levels, controller IP address and software version, date of service) and presents it verbally to a classmate playing the role of the customer, explaining system operation, how to request credential changes, and what to do if a door fails to release — instructor evaluates clarity, accuracy, and professional communication.
Pre-faulted practice door station (reader, controller, magloc, REX, door position switch), multimeter, magnetic lock pull-force gauge, screwdrivers, cleaning cloths (lint-free), fault log worksheet, PM checklist form, as-built documentation template, ALOA CRL exam blueprint (troubleshooting domain), ESA CAT exam blueprint (system service domain), PPE (safety glasses)All four seeded faults must be correctly identified and repaired (verified by instructor re-test); PM checklist must be fully completed with recorded measurements; as-built document must contain all required fields and contain no factual errors; verbal customer presentation is evaluated on a three-criterion rubric (technical accuracy, completeness, clarity) — minimum 80% rubric score required for lesson credit.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Access Control Written Knowledge ExamWritten exam25%75% correct (38 of 50 questions)A 50-question multiple-choice exam covering access control system architecture, credential technologies, low-voltage wiring principles, controller programming concepts, troubleshooting theory, and applicable code and safety references; questions are drawn from ALOA CRL and ESA CAT exam content domains related to electronic access control. Students who score below 75% complete a targeted review and take an alternate-form retake within one week.
Standard met · Safety · Time · Quality/finish · Documentation
Single-Door Installation and Programming Skills DemonstrationSkills demonstration45%All five performance criteria rated Satisfactory by evaluator; any Unsatisfactory rating requires a corrective action and re-demonstration of that criterion onlyThe student independently installs a proximity reader, electric strike or magnetic lock, REX device, and door position switch on a practice door station; terminates all wiring; programs three users with two different access levels and a time zone; and demonstrates correct system operation to an evaluator using a standardized rubric assessing mechanical installation quality, wiring termination correctness, programming accuracy, system function, and safe work practices throughout. This demonstration maps directly to the hands-on competency areas of the ALOA CRL and ESA CAT credentials.
Standard met · Safety · Time · Quality/finish · Documentation
Lab Log and Documentation PortfolioLog15%Minimum average score of 80% across all lab log entries; any entry below 70% must be revised and resubmittedStudents maintain a running lab log throughout the course recording site survey data, riser diagrams, wiring calculations, programming screenshots, fault log entries, PM checklists, and as-built service records from each lesson's lab activities; the completed portfolio is reviewed for technical accuracy, completeness, correct use of industry terminology, and legibility, demonstrating the documentation habits required for professional service work and supporting credential exam eligibility records.
Standard met · Safety · Time · Quality/finish · Documentation
Electrical Safety and Lockout/Tagout Compliance CheckSafety audit15%100% compliance on all critical safety behaviors; any critical failure stops the check and requires immediate remediation before the student may return to powered lab workAn evaluator observes each student de-energize and apply a personal lockout device to the access control power supply before performing a simulated wiring repair, then re-energize safely; the checklist covers PPE selection (safety glasses, insulated tools), correct LOTO sequence (identify energy source, notify affected persons, isolate, lock, verify zero energy), and proper re-energization steps. This check directly supports OSHA general industry LOTO requirements introduced in the Universal Core and is a prerequisite for the externship.
Standard met · Safety · Time · Quality/finish · Documentation
BUS-LOCK72-06 Trade course

CCTV & Alarm System Installation

62 hr · $670 COMPLIMENTARY

Students learn to plan, wire, install, program, and commission residential and light-commercial CCTV and intrusion-alarm systems following industry wiring standards and National Electrical Code low-voltage requirements. Lessons cover camera optics and placement geometry, alarm control-panel zones, sensors, keypad programming, and system verification testing. This course maps directly to the ESA Certified Alarm Technician exam domains and supports the state alarm-installer license application.

Outcomes
Course text

Students learn to plan, wire, install, program, and commission residential and light-commercial CCTV and intrusion-alarm systems following industry wiring standards and National Electrical Code low-voltage requirements. Lessons cover camera optics and placement geometry, alarm control-panel zones, sensors, keypad programming, and system verification testing. This course maps directly to the ESA Certified Alarm Technician exam domains and supports the state alarm-installer license application.

How the course runs. 5 blocks: Systems Overview, Safety, and Low-Voltage Wiring Fundamentals; CCTV Camera Selection, Placement, and Analog/IP Signal Pathways; Intrusion-Alarm Sensors, Zones, and Panel Wiring; Alarm Panel Programming, Keypad Operation, and Peripheral Devices; System Commissioning, Documentation, and Customer Handover.

What competent looks like. Select and position CCTV cameras by applying field-of-view calculations and lighting principles to achieve specified coverage without blind spots. Terminate and test coaxial, CAT-structured, and two-conductor alarm wiring to manufacturer specifications with a pass on a wire-continuity and signal-loss test. Install and wire at least one complete intrusion-alarm panel including motion detectors, door/window contacts, glass-break sensors, keypad, and siren to a given zone plan. Program an alarm control panel to create user codes, define zone responses, and configure entry/exit delays according to a written specification. Verify a completed CCTV or alarm installation using a systematic commissioning checklist and correct any fault found before sign-off. Apply OSHA low-voltage electrical safety practices and lockout/tagout procedures throughout every installation task.

Lessons · 5 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Systems Overview, Safety, and Low-Voltage Wiring Fundamentals12theoryStudents will identify the major components of CCTV and intrusion-alarm systems, explain applicable low-voltage safety rules, and demonstrate correct personal protective equipment selection for installation work.
  1. Illustrated lecture and component identification exercise: students match physical samples (control panel, PIR sensor, DVR, power supply, camera) to labeled diagrams and record each component's voltage and current draw from the manufacturer data sheet.
  2. OSHA low-voltage and ladder-safety video followed by a written scenario quiz in which students identify PPE violations and lockout/tagout steps required before opening an energized panel.
  3. Wire-type sorting and color-code exercise: students examine coaxial (RG-59, RG-6), 18/2 alarm wire, CAT5e/6, and 16/4 speaker wire, then complete a reference chart listing proper application, maximum run distance per manufacturer guidance, and connector type for each.
Component sample kit, OSHA 10 low-voltage safety handout, manufacturer data sheets for a representative alarm panel and IP/analog camera, wire sample board, PPE (safety glasses, insulated gloves), NEC Article 725 and 760 summary reference card, whiteboardWritten component-and-safety quiz: students must correctly identify all major components and answer all safety/PPE questions; passing score 80% or higher.
2CCTV Camera Selection, Placement, and Analog/IP Signal Pathways14labStudents will calculate camera field of view for a given room dimension, select the appropriate lens and camera type, run and terminate coaxial or CAT6 cable, and display a live image on a monitor or NVR/DVR.
  1. Field-of-view calculation worksheet: using manufacturer lens angle data and a scaled floor plan of a mock retail space, students compute coverage areas, mark camera positions to eliminate blind spots, and justify camera type (dome, bullet, PTZ) in writing.
  2. Cable run and termination lab: in pairs, students fish RG-59 with BNC crimp connectors and a separate CAT6 run through a framed wall mock-up, test each run with a cable tester, and record pass/fail results in a log.
  3. Live camera commissioning: students connect a camera to a DVR or NVR, adjust focus and iris (if manual), set IP address via web interface for an IP camera, confirm live image quality on the monitor, and annotate a commissioning checklist with observed lux level, image sharpness rating, and any corrective action taken.
Dome and bullet cameras (analog and IP), DVR and NVR units, monitors, RG-59 and CAT6 cable reels, BNC crimp tool and connectors, RJ-45 crimper, cable tester, drill and fish tape, framed wall mock-up, scaled floor-plan worksheets, lux meter, manufacturer installation guidesInstructor inspects each cable termination (no shield shorts, connector fully seated) and reviews commissioning checklist; live image must be clear with no signal artifacts; field-of-view layout must cover all required zones with no blind spot larger than specified — all three criteria must be met to pass.
3Intrusion-Alarm Sensors, Zones, and Panel Wiring16labStudents will wire a minimum of six alarm zones including passive infrared motion detectors, door/window contacts, and a glass-break sensor to a control panel, apply end-of-line resistor supervision, and verify each zone trips and restores correctly.
  1. Zone-wiring diagram exercise: students read a written zone plan specifying sensor type, normally-open or normally-closed circuit configuration, and supervision requirement, then draw the complete wiring schematic for each zone including end-of-line resistor placement before touching any wire.
  2. Physical panel wiring lab: using the approved schematic, students mount sensors on a door/window mock-up and wall, run 18/2 back to the panel terminal strip, install end-of-line resistors, and connect the panel power supply and backup battery following the manufacturer wiring diagram.
  3. Zone-fault diagnosis drill: instructor secretly introduces four wiring faults (open circuit, short, missing resistor, reversed tamper loop); students use a multimeter to measure zone resistance, compare readings against the supervision table, identify each fault in writing, and correct it.
Alarm control panel (minimum 8-zone), PIR motion detectors, door/window magnetic contacts, glass-break sensor, 18/2 alarm wire, end-of-line resistors, backup battery, 12 VDC power supply, panel enclosure, multimeter, wire stripper, screwdrivers, mounting hardware, zone-plan worksheets, manufacturer programming manualEach of the six or more zones must read within the supervised resistance window (instructor verifies with multimeter) and must trip and restore cleanly on panel LED and keypad display; all four injected faults must be correctly identified and corrected — passing standard requires zero unresolved faults.
4Alarm Panel Programming, Keypad Operation, and Peripheral Devices12practiceStudents will use installer-level programming on an alarm control panel to define zone types, set entry/exit delays, create user codes, configure a siren output, and enroll a wireless keyfob or wireless sensor.
  1. Programming walkthrough: following the manufacturer programming manual, students enter installer mode via keypad, navigate to each programming location, set zone type (entry/exit, instant, 24-hour), assign entry delay of 30 seconds and exit delay of 45 seconds, then print or photograph the programming summary screen for the lab log.
  2. User-code management exercise: students create a master user code, add two sub-user codes with restricted access, delete one sub-user code, and test each code for correct arm/disarm response, documenting results in a step-by-step log.
  3. Peripheral enrollment and siren test: students enroll a wireless sensor or keyfob per manufacturer instructions, verify it appears on the correct zone, then trigger the siren output and time the alarm duration against the programmed timeout — adjusting the value if outside the specified range.
Same alarm panel from Lesson 3, manufacturer programming manual and quick-reference card, wireless sensor or keyfob, interior and exterior sirens, laptop with programming software (if panel supports USB/serial upload), stopwatch, student programming log sheetsInstructor runs a standardized test script (arm, trip zone, verify alarm, disarm, check fault display, test each user code); all programmed parameters must match the written specification sheet and all codes must function as defined — passing requires 100% of test-script steps confirmed correct.
5System Commissioning, Documentation, and Customer Handover8fieldStudents will conduct a complete system walk-test on a fully installed mock site, complete industry-standard commissioning documentation, and deliver a structured verbal handover briefing to a simulated customer.
  1. Full system walk-test: students activate walk-test mode on the panel, trigger every sensor in sequence, confirm each zone number and descriptor appears correctly on the keypad, and record pass/fail for each zone on a commissioning checklist — any failed zone must be diagnosed and corrected before proceeding.
  2. Documentation package completion: students fill out an as-built zone list, a cable-run log with cable type and measured length, and a panel programming summary; instructor spot-checks three randomly selected entries against the physical installation for accuracy.
  3. Simulated customer handover: students demonstrate arming/disarming, explain entry/exit delay, show how to add and delete a user code, explain what to do if a false alarm occurs, and answer three instructor-posed customer questions — the handover is timed at 10 minutes maximum and assessed on clarity and completeness.
Completed mock installation from Lessons 3–4, CCTV setup from Lesson 2, commissioning checklist templates (ESA-format), as-built zone list form, cable-run log form, panel programming summary form, pen, clipboard, stopwatchAll zones must pass walk-test (100% required); documentation package must have no blank required fields and no entry contradicted by the physical installation (instructor verifies three spot-checks); customer handover must cover all five required topics within the time limit — all three criteria must be met to pass.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Written Knowledge Exam — CCTV & Alarm SystemsWritten exam25%75% or higher (38 of 50 questions correct)A 50-question multiple-choice and short-answer exam covering camera types and optics, low-voltage wiring standards, zone supervision theory, alarm panel programming concepts, and system commissioning procedures. Questions are written to reflect the ESA Certified Alarm Technician exam content domains so that performance on this exam predicts readiness for the credential test.
Standard met · Safety · Time · Quality/finish · Documentation
Skills Demonstration — Alarm Panel Installation and CommissioningSkills demonstration45%All required steps performed correctly with no uncorrected safety violation; partial credit not awarded for safety stepsWorking alone within a set time window, the student wires and programs a four-zone alarm panel from a provided zone plan, enrolls at least one wireless device, runs a walk-test, and completes the commissioning checklist. The instructor scores each step on a binary pass/fail rubric aligned to ESA Certified Alarm Technician hands-on competencies; any lockout/tagout or wiring-safety violation stops the assessment.
Standard met · Safety · Time · Quality/finish · Documentation
Lab Log PortfolioLog15%All five lesson lab logs submitted; each log must have no missing required entries and no factual error in recorded measurementsStudents maintain a running lab log across all five lessons, recording wiring test results, programming parameter settings, walk-test outcomes, and as-built documentation from every lab and practice session. The complete portfolio is reviewed at course end for completeness, accuracy of recorded measurements, and evidence of corrective actions taken when faults were found.
Standard met · Safety · Time · Quality/finish · Documentation
Safety Check — Low-Voltage Electrical and Ladder SafetySafety audit15%100% on all safety-critical items; any critical item failure requires remediation and recheck before the student may continue lab workThe instructor observes each student during the Lesson 3 or 4 lab and scores a structured safety checklist covering PPE selection and use, correct lockout/tagout steps before opening an energized panel, proper ladder placement and three-point contact, and correct power-supply handling. This is a binary pass/fail check with no partial credit; safety-critical items are defined on the checklist in advance.
Standard met · Safety · Time · Quality/finish · Documentation
BUS-LOCK72-07 Trade course

Electronic Locks: Installation, Programming, and Servicing

62 hr · $670 COMPLIMENTARY

Students learn the theory, installation, programming, troubleshooting, and servicing of electronic lock systems including keypads, card readers, biometric units, Bluetooth/Wi-Fi-enabled locks, and electrified hardware. Emphasis is placed on integrating electronic locks with access control infrastructure, following manufacturer specifications, and applying safe work practices throughout. Lesson content maps to ALOA CRL exam areas covering electronic and electromechanical locking devices and to ESA Certified Alarm Technician competencies related to electrified door hardware and access control integration.

Outcomes
Course text

Students learn the theory, installation, programming, troubleshooting, and servicing of electronic lock systems including keypads, card readers, biometric units, Bluetooth/Wi-Fi-enabled locks, and electrified hardware. Emphasis is placed on integrating electronic locks with access control infrastructure, following manufacturer specifications, and applying safe work practices throughout. Lesson content maps to ALOA CRL exam areas covering electronic and electromechanical locking devices and to ESA Certified Alarm Technician competencies related to electrified door hardware and access control integration.

How the course runs. 5 blocks: Electronic Lock Technology: Types, Principles, and Power; Wiring, Low-Voltage Electrical Safety, and Hardware Installation; Programming Standalone and Networked Electronic Locks; Troubleshooting Electronic Lock Faults; System Integration, Documentation, and Customer Handoff.

What competent looks like. Identify and explain the operating principles of keypad, proximity card, smart credential, biometric, and wireless electronic lock types used in commercial and residential applications. Install and terminate electrified strikes, magnetic locks, electric knobs/levers, and electronic deadbolts to manufacturer specifications and applicable codes. Program user codes, master codes, and access schedules on standalone and networked electronic lock platforms using manufacturer software or keypad sequences. Diagnose and correct common electronic lock faults including power supply failures, credential read errors, wiring shorts, and mechanical misalignment using a systematic troubleshooting process. Integrate electronic locks with access control panels, request-to-exit devices, door position switches, and alarm systems, verifying correct operation of each interface. Complete and submit installation documentation including wiring diagrams, programming records, and customer handoff checklists in a format suitable for service records and compliance.

Lessons · 5 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Electronic Lock Technology: Types, Principles, and Power12theoryStudents will correctly classify at least eight electronic lock types by operating principle and specify the appropriate power supply configuration for each, scoring 80% or above on a written identification quiz.
  1. Instructor-led lecture and slide presentation covering keypad locks, proximity (125 kHz and 13.56 MHz) readers, biometric fingerprint/retinal units, Bluetooth Low Energy locks, Wi-Fi-enabled locks, electrified strikes (fail-safe vs. fail-secure), magnetic locks (maglocks), and electric latch retraction devices; students annotate a provided reference sheet with key parameters for each type.
  2. Power supply lab exercise: students measure DC voltage and current draw of five different electronic lock samples using a digital multimeter, complete a table comparing rated vs. measured values, and identify which units require a dedicated lock power supply versus drawing from an access control panel.
  3. Small-group sorting activity where students receive a set of 20 scenario cards describing installation sites and security requirements and must select the correct lock type for each, then present and justify two choices to the class; instructor provides corrective feedback.
Assorted electronic lock samples (keypad deadbolt, proximity reader/electric strike pair, maglock, biometric stand-alone unit, BLE-enabled knob), digital multimeters, manufacturer specification sheets, DC bench power supplies set to 12 V and 24 V, instructor slide deck, student reference sheets, ALOA study guide chapters on electromechanical hardwareWritten 25-question identification and classification quiz; students must score 20/25 (80%) to pass. Items include selecting fail-safe vs. fail-secure for a given egress scenario and matching power supply requirements to lock types.
2Wiring, Low-Voltage Electrical Safety, and Hardware Installation14labStudents will safely wire and mechanically install an electrified strike and a maglock on a practice door frame to manufacturer specifications, passing an instructor inspection checklist with no safety violations and no more than two correctable wiring errors.
  1. Safety briefing (mandatory before tool use): instructor reviews low-voltage electrical hazards, OSHA lockout/tagout requirements for working on powered circuits, PPE selection (safety glasses, insulated hand tools), and fire code considerations for fail-safe maglocks on egress doors; students sign a safety acknowledgment form.
  2. Hands-on wiring lab in pairs: students read a manufacturer wiring diagram, strip and terminate 18 AWG two-conductor wire at an electrified strike and at a door position switch, connect to a practice access control power supply, and verify operation by presenting a credential; instructor circulates and flags incorrect polarity or loose terminations before energizing.
  3. Maglock installation exercise on a steel practice door frame: students locate and drill anchor points, mount the maglock body and armature plate, route and dress wire through the door frame, connect to a power supply with a pushbutton REX, and test holding force by attempting manual pull-off; measured holding force is compared to the rated specification on the datasheet.
Practice door frame stations (one per pair), fail-secure electrified strike, fail-safe maglock with armature plate, 18 AWG two-conductor wire, wire strippers, insulated screwdrivers, cordless drill and bits, fish tape, cable staples, door position switches, push-button REX devices, DC power supplies, digital multimeters, manufacturer installation manuals, instructor wiring inspection checklist, safety glasses (provided), OSHA low-voltage electrical safety referenceInstructor completes a 15-point installation inspection checklist for each pair's finished work: zero safety violations (immediate fail and re-do required), wire terminations secure with correct polarity, lock operates on credential presentation, REX releases lock, door position switch signals correctly. Maximum two correctable wiring errors permitted before sign-off.
3Programming Standalone and Networked Electronic Locks12demoStudents will program master codes, user PIN codes, and a time-based access schedule on both a standalone keypad lock and a networked electronic lock using manufacturer software, demonstrating correct procedure without reference to notes and verifying each function.
  1. Instructor live demonstration of programming a commercially available standalone keypad deadbolt: entering programming mode with the master code, adding and deleting user codes, setting a passage mode schedule, and restoring factory defaults; students follow along on identical units at their stations and annotate a programming flowchart as the steps are performed.
  2. Networked lock software exercise: students install manufacturer PC software on a laptop, connect to a practice network-enabled lock via USB enrollment cable or local network, create a new user database with three credential types (PIN, proximity card, and biometric template), assign time zone restrictions, and export a programming report as a PDF for inclusion in the lesson log.
  3. Credential enrollment and audit trail review: students enroll their own proximity card and fingerprint on a biometric unit, generate five access events (valid and invalid attempts), retrieve the audit trail from the lock, and produce a one-page written summary identifying each event type, timestamp, and what the audit record would reveal to an investigator.
Standalone keypad deadbolt units (one per student), commercially available networked electronic lock with manufacturer programming software installed on student laptops, USB enrollment cables, proximity cards and fobs, biometric enrollment station, practice network switch, student programming flowchart worksheets, printed manufacturer programming guides, PDF-capable laptopsInstructor observes each student complete a five-step programming scenario on a standalone lock without notes: add two users, delete one, set a schedule, and restore defaults. All five steps must be completed correctly. Networked lock PDF programming report is reviewed for completeness. Pass requires all standalone steps correct and a complete, accurate report.
4Troubleshooting Electronic Lock Faults14practiceStudents will diagnose and correct at least four of five pre-seeded electronic lock faults using a systematic troubleshooting process within a 90-minute practical exercise, documenting each fault and repair in a service ticket.
  1. Instructor introduces a structured fault-isolation sequence: verify power supply voltage and current, check wiring continuity and terminations, test credential reader function, test lock actuator function, and check mechanical alignment; students copy the sequence into their service log and practice it on a known-good unit to establish a baseline.
  2. Fault-finding station rotation: five practice stations are set up by the instructor, each with one seeded fault (loose wire causing intermittent operation, reversed polarity on a strike, a depleted backup battery, a misconfigured fail-safe/fail-secure jumper, and a dirty proximity reader head with reduced read range); working individually, students rotate through stations, diagnose each fault with a multimeter and visual inspection, correct it, verify restoration, and write a service ticket entry for each.
  3. Class debrief: each student explains to the group one fault they diagnosed, the test that confirmed it, and the repair made; instructor corrects any misidentified root causes and reinforces manufacturer service documentation habits.
Five electronic lock troubleshooting stations with pre-seeded faults (instructor-prepared), digital multimeters, continuity testers, proximity card test tool, low-voltage DC power supplies, replacement wire, wire strippers, insulated screwdrivers, manufacturer service documentation, student service ticket forms, timerStudent service tickets are reviewed against instructor fault key. Pass requires correct identification and documented repair of at least four of five faults (80%) within the 90-minute window. Tickets must include symptom, test performed, root cause, and corrective action for each fault.
5System Integration, Documentation, and Customer Handoff10fieldStudents will integrate an electronic lock with an access control panel, door position switch, and alarm zone, then complete a full installation record and demonstrate system operation to an instructor acting as the customer, receiving a passing score on the handoff rubric.
  1. Integration exercise: each student receives a scenario describing a small commercial entry (office suite door) requiring an electronic lock, REX, door position switch tied to an alarm zone, and a credential reader linked to an access control panel; students wire all components on a practice station, program the panel and lock together, verify alarm activation on door-held-open, and confirm that a valid credential suppresses the alarm zone correctly.
  2. Documentation package completion: students produce a wiring diagram (hand-drawn or using free diagramming software), a programming record listing all user codes and schedules entered, a head-end panel zone assignment sheet, and a completed customer handoff checklist consistent with what a licensed alarm contractor would leave on-site.
  3. Customer handoff role-play: instructor acts as the building manager; each student demonstrates system operation (credential grant, credential deny, alarm trigger, alarm restore), explains how to add and delete users, and reviews emergency egress behavior of the lock; instructor scores the handoff using a rubric covering technical accuracy, communication clarity, and document completeness.
Integration practice stations (access control panel, electronic lock, REX, door position switch, alarm zone module, power supply), wiring tools (strippers, crimpers, screwdrivers), laptops with diagramming software or graph paper, student documentation package templates, customer handoff checklist forms, instructor handoff scoring rubric, ALOA CRL exam reference on electromechanical systems, ESA Certified Alarm Technician reference on electrified hardware integrationInstructor scores the handoff using a 20-point rubric: 8 points for correct wiring and verified system operation, 6 points for complete and accurate documentation package, 6 points for customer communication quality. Pass requires 16/20 (80%). Any wiring error that creates a safety hazard is an automatic remediation requirement before the station is re-tested.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Electronic Locks Written Knowledge ExamWritten exam25%80% (40/50 questions correct)A 50-question multiple-choice and short-answer exam covering electronic lock types and operating principles, power supply requirements, fail-safe vs. fail-secure selection, wiring practices, programming concepts, troubleshooting logic, and integration with alarm and access control systems. Items are mapped to ALOA CRL exam areas for electromechanical and electronic locking devices and to ESA Certified Alarm Technician competency areas for electrified hardware, ensuring students are practicing on content aligned with both credential exams.
Standard met · Safety · Time · Quality/finish · Documentation
Electronic Lock Installation and Programming Skills DemonstrationSkills demonstration45%Pass all four required tasks with no uncorrected safety violationsEach student independently installs an electrified strike or maglock on a practice door frame, wires it to an access control power supply with a REX and door position switch, programs a standalone keypad lock with a master code and two user codes with a time restriction, and retrieves an audit trail. An instructor evaluates each task against a structured checklist; any safety violation stops the demonstration and requires remediation before re-attempt, and all four tasks must be passed to receive course credit.
Standard met · Safety · Time · Quality/finish · Documentation
Course Lab LogLog15%Complete entries for all five lessons; average rubric score of 3/4 or higher across all entriesStudents maintain a running lab log throughout the course, recording objectives, procedures, measurements, test results, faults found, repairs made, and reflections for every lab and practice session. Each entry is scored on a four-point rubric evaluating accuracy of technical content, completeness of measurements and results, quality of fault documentation, and professional formatting consistent with trade service records. Incomplete or inaccurate entries are returned for correction before the course grade is finalized.
Standard met · Safety · Time · Quality/finish · Documentation
Electrical and Low-Voltage Safety CheckSafety audit15%100% compliance on all safety behaviors; any critical violation requires immediate remediation and re-checkAn instructor conducts an unannounced or end-of-course safety observation during a live wiring task, using a standardized checklist that evaluates: correct PPE in use, power de-energized or multimeter verified before termination work, no exposed conductors left uninsulated, tools appropriate for low-voltage work, and correct identification of fail-safe hardware on egress paths. This assessment mirrors the safety competency areas emphasized in OSHA 10 general industry training and is a non-negotiable gate for externship eligibility.
Standard met · Safety · Time · Quality/finish · Documentation
BUS-LOCK72-08 Trade course

Lock Codes, Key Origination & Decoding

62 hr · $670 COMPLIMENTARY

Students develop the ability to decode locks, originate keys by code, and use bitting-space mathematics and code books to cut keys accurately without a pattern key. Lessons cover mechanical decoding, code-cutting machines, software databases, automotive transponder codes, and the legal and ethical obligations that govern code work in the locksmith trade.

Outcomes
Course text

Students develop the ability to decode locks, originate keys by code, and use bitting-space mathematics and code books to cut keys accurately without a pattern key. Lessons cover mechanical decoding, code-cutting machines, software databases, automotive transponder codes, and the legal and ethical obligations that govern code work in the locksmith trade.

How the course runs. 5 blocks: Code Systems, Bitting Mathematics & MACS Rules; Mechanical Decoding — Pin-Tumbler, Wafer & Tubular Locks; Code-Cutting Machines — Manual & Semi-Automatic Operation; Automotive Key Codes, Transponder Origination & VIN Lookup; Code Work Law, Ethics, Authorization & Record-Keeping.

What competent looks like. Decode a pin-tumbler, wafer, and tubular lock to determine the correct bitting without removing the lock from the door. Originate a key by code using a code book or electronic code database and cut it on a manual and semi-automatic code-cutting machine within manufacturer tolerance. Calculate bitting depth, spacing, and progression using MACS rules and depth-and-space specifications for at least three common keyways families. Use automotive key code lookup tools and cut and program a transponder key from a vehicle identification number (VIN) or door-lock code. Explain the legal, ethical, and business obligations of code work, including authorization verification, record-keeping requirements, and restrictions on code access. Demonstrate safe machine operation including eye protection, chip clearance, blade inspection, and lockout/tagout procedures on code-cutting equipment.

Lessons · 5 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Code Systems, Bitting Mathematics & MACS Rules12theoryGiven a manufacturer's depth-and-space specification sheet, the student will calculate valid bitting combinations and identify cuts that violate Maximum Adjacent Cut Specification (MACS) with 100% accuracy on a written problem set.
  1. Lecture and guided notes on how lock manufacturers assign bitting depths, spacing increments, and key sections; students label a cross-section diagram of a pin-tumbler cylinder showing shear line, driver pins, and key cuts.
  2. Worksheet drill: given five keyway families (e.g., Kwikset, Schlage C, Best A, Arrow, Master No. 3), students calculate the number of theoretical bitting combinations, identify MACS violations in a list of 20 bittings, and rank cuts from shallowest to deepest.
  3. Small-group exercise using published code books (Ilco/Kaba key code reference or equivalent) to look up five residential key codes and record the bitting, blank number, and keyway for each, then verify entries against a second source.
Manufacturer depth-and-space specification sheets, current edition of a standard key code reference (e.g., Ilco Key Blank Reference or Kaba Ilco Key Code Manual), scientific calculators, graph paper, whiteboardCompleted worksheet graded by instructor; students must correctly solve at least 90% of bitting calculations and flag all MACS violations to pass.
2Mechanical Decoding — Pin-Tumbler, Wafer & Tubular Locks15labThe student will decode a pin-tumbler deadbolt, a wafer cam lock, and a tubular lock using appropriate decoding tools and record bitting data that, when cut, produces a working key on the first attempt for all three lock types.
  1. Instructor demonstration of plug-following and depth-gauge decoding on a clear training cylinder; students then practice reading pin heights with a plug follower and depth gauge on five pre-disassembled cylinders, recording each bitting on a decoding worksheet.
  2. Lab rotation: each student decodes a wafer cam lock using a wafer decoder or impressioning light, then a tubular lock using a tubular lock decoder tool, recording all measurements on individual log sheets and converting measurements to manufacturer cut numbers using spec sheets.
  3. Peer verification check — after each student records a bitting, a lab partner looks up the same lock's original key code (sealed in an envelope) to confirm the decoded bitting matches; discrepancies are re-decoded and the error source identified in writing.
Pin-tumbler training cylinders (clear and opaque), wafer cam locks, tubular padlocks, plug followers, depth gauges, tubular lock decoder set, decoding worksheets, impressioning light, magnifying loupe, PPE (safety glasses)Each decoded bitting is cut on a blank and tested in the lock; key must operate the lock on the first insertion. All three lock types must pass; a missed decode requires one repeat attempt with instructor coaching before re-testing.
3Code-Cutting Machines — Manual & Semi-Automatic Operation14practiceThe student will safely set up, calibrate, and operate both a manual code cutter and a semi-automatic code cutter to originate keys that fall within ±0.003 inch of specified depth for every cut.
  1. Machine orientation lab: instructor demonstrates blade inspection, zero-setting, depth stop adjustment, and chip clearance on a Ilco 045 or equivalent manual code cutter, then on a semi-automatic (e.g., Silca or HPC equivalent); students complete a machine pre-operation checklist covering blade condition, clamp security, guard position, and eye protection before any cutting begins.
  2. Guided practice set: each student receives ten coded key cards (residential and commercial), selects the correct blank, mounts it, and cuts each key using the manual cutter; instructor checks every third key with a micrometer and marks results on a tolerance log.
  3. Speed and accuracy progression: students repeat the same ten codes on the semi-automatic machine, comparing cut times and micrometer measurements between machines; students record findings in a comparison table and identify which machine type suits which service scenario (high volume, field kit, etc.).
Manual code cutter (e.g., Ilco 045 or equivalent), semi-automatic code cutter, assorted key blanks (residential, commercial, padlock), coded key cards, micrometer, depth gauge, blade inspection checklist, PPE (safety glasses, machine guard), chip brush, lockout/tagout hasp and tagsInstructor measures five randomly selected finished keys per student with a micrometer; all cuts must be within ±0.003 inch of the code card specification. Students must also complete the pre-operation safety checklist with zero omissions before any machine is powered on.
4Automotive Key Codes, Transponder Origination & VIN Lookup13demoThe student will look up a vehicle key code from a VIN using an automotive code database, cut a mechanical blade within tolerance, and program a transponder key so that the vehicle starts, demonstrating the complete lost-key origination process for at least two different vehicle makes.
  1. Instructor-led demonstration using an automotive code database (e.g., Ilco Auto Keys, Instacode, or equivalent) to retrieve door and ignition codes from a VIN; students follow along on workstation computers, looking up three assigned vehicles (domestic, Asian import, European) and recording key code, blank number, and transponder chip type for each.
  2. Blade-cutting practice: students cut two automotive keys per vehicle (four total) on the code cutter, then use an automotive key gauge to verify depth; instructor checks cuts before students proceed to transponder programming.
  3. Transponder programming lab: using a professional key programmer (e.g., Advanced Diagnostics, Autel, or equivalent tool available in the program), students clone or program a new transponder chip to two vehicles per applicable OBD or on-board procedure, document the procedure steps followed, and verify engine start; any no-start result is diagnosed with instructor guidance and the root cause recorded in the lab log.
Automotive code database subscription (workstation access), automotive code cutter or adapter for existing machine, automotive key blanks and transponder blanks for common domestic and import vehicles, key programmer tool, automotive key gauge, two training vehicles or donated donor vehicle locks/ignition assemblies, VIN lookup worksheet, PPE (safety glasses)Each student must produce one complete, documented origination package per vehicle: code lookup printout, cut key within automotive tolerance, and a successful engine start (or ignition-turn verification on a bench assembly). Both vehicle makes must pass.
5Code Work Law, Ethics, Authorization & Record-Keeping8theoryThe student will correctly apply authorization verification procedures and applicable legal obligations to five scenario-based case studies and produce a compliant code work service record for each, with no legal or ethical errors.
  1. Lecture and discussion on state locksmith licensing provisions related to code work, customer authorization requirements (proof of ownership, vehicle title, ID matching), prohibited disclosures of code databases, and civil liability exposure; students take guided notes using a structured outline.
  2. Case study analysis: small groups receive five written scenarios (e.g., customer requests duplicate automotive key but cannot produce title; caller asks for a safe code over the phone; walk-in requests master key code for an apartment they claim to manage) and must write a response for each that correctly identifies the legal risk, the authorization step required, and how to document the decision.
  3. Mock service record exercise: students complete a code work service record form (name, ID type and number, description of property, authorization type, code looked up, keys produced, technician signature) for three simulated jobs, then exchange records with a peer for a compliance review using a checklist; discrepancies are corrected and initialed.
State locksmith statute summary (provided by instructor, general provisions only), ALOA code of ethics handout, sample authorization/service record forms, five written case study packets, compliance review checklistEach student's five case study responses are graded by instructor using an answer key; students must correctly identify the required authorization action and documentation step in all five scenarios (no errors permitted on legal classification). Service record forms must be complete with no blank required fields.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Code Systems & Law Written ExamWritten exam25%75% or higherA closed-book written exam covering bitting mathematics, MACS rules, code book use, automotive VIN lookup procedures, and legal/ethical obligations of code work. Items include multiple-choice, short-answer bitting calculations, and scenario-based questions mapped to ALOA CRL exam content areas for key origination and professional conduct.
Standard met · Safety · Time · Quality/finish · Documentation
Live Code Origination Skills DemonstrationSkills demonstration45%All three lock types decoded and keys functional on first insertion; all cut depths within ±0.003 inch; transponder key starts vehicle or bench assembly; authorization form completeThe student decodes a pin-tumbler lock and a tubular lock selected by the instructor, originates keys by code on both a manual and semi-automatic cutter, and completes one automotive transponder origination from a VIN, producing a completed authorization and service record for each job. The demonstration is scored on a rubric aligned to ALOA CRL practical skill areas.
Standard met · Safety · Time · Quality/finish · Documentation
Lab Log PortfolioLog15%All required entries present; micrometer readings recorded for every key; no unauthorized blank entries; instructor-initialed corrections on any failed first attemptsStudents submit the cumulative lab log maintained across all five lessons, including decoding worksheets, tolerance measurement tables, machine pre-operation checklists, automotive code lookup printouts, and service record forms. The log is reviewed for completeness, accuracy of recorded measurements, and evidence of corrective action when a key failed.
Standard met · Safety · Time · Quality/finish · Documentation
Machine Safety & PPE CheckSafety audit15%Zero omissions on the safety checklist; correct lockout/tagout demonstrated without prompting; safety glasses donned before any machine operationBefore the first unsupervised code-cutter session, the instructor observes each student performing a complete machine pre-operation inspection including blade condition check, guard positioning, clamp verification, lockout/tagout of power, chip clearance, and donning of safety glasses. Any omitted step results in an immediate stop and mandatory repeat of the full checklist before the student may proceed.
Standard met · Safety · Time · Quality/finish · Documentation
BUS-LOCK72-09 Capstone

Capstone Project: Integrated Security System Installation and Defense

108 hr · $1,080 COMPLIMENTARY

Students design, install, document, and defend a complete, real-world security solution that integrates mechanical locksmithing, electronic access control, and alarm or CCTV components on a full-scale practice installation bay. The project replicates an actual commercial or residential job from initial site survey through final client handover, requiring students to apply every prior course in sequence. Successful completion demonstrates job-ready competence and produces a professional portfolio artifact suitable for employer review and credential applications.

Outcomes
Course text

Students design, install, document, and defend a complete, real-world security solution that integrates mechanical locksmithing, electronic access control, and alarm or CCTV components on a full-scale practice installation bay. The project replicates an actual commercial or residential job from initial site survey through final client handover, requiring students to apply every prior course in sequence. Successful completion demonstrates job-ready competence and produces a professional portfolio artifact suitable for employer review and credential applications.

How the course runs. 4 blocks: Site Survey, Security Assessment, and Project Design; Integrated Installation: Hardware, Keying, and Electronics; Job-Close Documentation Package; Project Defense and Live Troubleshooting.

What competent looks like. Conduct a site security survey, identify vulnerabilities, and produce a written scope of work and bill of materials for an integrated mechanical and electronic security installation. Install and key a master-key system, fit at least one electronic lock, connect a basic alarm or CCTV component, and verify correct operation of the complete integrated system. Prepare a complete job-close documentation package including as-built diagrams, key-bitting records, programming records, warranty information, and a client instruction sheet. Demonstrate compliance with applicable safety procedures—including PPE selection, lockout/tagout on powered components, and proper tool handling—throughout all phases of the project. Orally defend design decisions, troubleshoot a live fault introduced by the instructor, and explain how the installation meets relevant code and licensing requirements.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Site Survey, Security Assessment, and Project Design24practiceGiven a mock commercial or residential scenario, students produce a written security assessment, a labeled site plan, a scope of work, and a complete bill of materials that specify compatible mechanical and electronic components.
  1. Walk the program's practice installation bay as a mock client site; photograph entry points, assess door frame and hardware condition, identify lighting and camera coverage gaps, and record findings on a standardized survey form drawn from industry practice.
  2. Using the survey findings, draft a written scope of work that specifies door hardware (lock grade, keyway, cylinder type), master-key system structure, electronic lock or access-control reader placement, and alarm or CCTV zones; justify each choice in a short written rationale.
  3. Compile a bill of materials with part descriptions, quantities, and supplier catalog references; present the draft plan to the instructor for a design-review critique before committing to installation.
Survey checklist forms, graph-paper site-plan templates, tape measure, digital camera or phone, manufacturer product catalogs (Schlage, Yale, Alarm Lock, or equivalent), access-control and alarm reference guides, course textbooks from prior units, personal protective equipment (PPE) kitInstructor reviews completed survey form, site plan, scope of work, and bill of materials against a scoring rubric; all four documents must be present, the component selections must be technically compatible, and the written rationale must correctly identify at least three security vulnerabilities; minimum passing score 75 out of 100 rubric points.
2Integrated Installation: Hardware, Keying, and Electronics54labStudents install and operationally verify a complete integrated security system on the practice bay including a master-key cylinder set, at least one electronic lock or access-control reader, and at least one alarm contact or CCTV camera, following their approved project design.
  1. Install all mechanical hardware per the approved scope: prep door edges and faces to manufacturer tolerances, mount cylindrical or mortise locks, cut and fit deadbolts, pin cylinders to the designed master-key bitting using pinning mats and plug followers, and verify key operation at every level of the master-key hierarchy before moving to the next step.
  2. Mount and wire the electronic lock or card-reader, connect power (low-voltage DC), program access credentials or codes per the manufacturer's programming guide, and test credential acceptance and denial; follow lockout/tagout procedure when working on any powered panel, wearing appropriate PPE (safety glasses, insulated gloves when required).
  3. Install the alarm door contact or CCTV camera, run and dress cable to the control panel or DVR, configure the zone or camera in the system software, and perform a full operational test of the integrated system—verifying that a mechanical door-forced condition, a denied credential, and a valid credential each produce the correct system response.
Practice doors and frames (commercial and residential grades), cylindrical and mortise lock sets, pinning kits and master wafers, key machine, plug followers and pinning mats, electronic lock or access-control kit (keypad or card reader), low-voltage power supply, alarm door contacts, CCTV camera and DVR or NVR (or IP camera with NVR), fish tape, cable staples, screwdrivers, drill and bits, hole saws, multimeter, laptop with access-control and DVR software, lockout/tagout kit, safety glasses, gloves, knee padsInstructor performs a live operational check at the end of each of the three sub-phases (mechanical, electronic lock, alarm or CCTV) using a standardized pass/fail checklist; all mechanical keys must operate correctly at their assigned master-key level, electronic credentials must accept and deny as programmed, and the alarm or camera zone must trigger and display correctly; any failed sub-phase must be corrected and re-checked before the student advances; overall installation rubric minimum 75 out of 100.
3Job-Close Documentation Package18practiceStudents produce a complete, professional job-close documentation package that a client or service technician could use to maintain, re-key, or troubleshoot the installed system.
  1. Draft an as-built site diagram (hand-drawn or using a basic CAD or drawing tool) showing final hardware locations, cable runs, zone assignments, and camera fields of view; annotate with hardware model numbers and serial numbers recorded during installation.
  2. Complete a key-bitting record on a standard key-control form listing every key cut in the master-key system, the key symbol, key holder name (using fictional training names), and key quantity; complete a separate electronic-system programming record documenting each credential, its access level, and the date programmed.
  3. Write a one-page client instruction sheet in plain language (no trade jargon without explanation) covering daily system use, what to do if a key is lost, how to request a service call, and warranty terms for the hardware installed; also prepare a warranty and service contact summary page.
As-built diagram templates, key-control record forms (ALOA-style or equivalent), electronic programming record template, word-processing software, hardware manufacturer warranty documents, course reference binderInstructor reviews the full documentation package against a rubric covering completeness (all required documents present), accuracy (as-built matches installed hardware, bitting records match physical cylinders), and client clarity (instruction sheet uses plain language); minimum passing score 75 out of 100 rubric points; any bitting-record error that would produce an incorrect key is an automatic re-do.
4Project Defense and Live Troubleshooting12theoryStudents orally present their project design decisions to a panel, answer technical and code-related questions, and successfully diagnose and correct a live fault introduced by the instructor into their installed system.
  1. Deliver a ten-minute structured presentation to the instructor panel covering: why each component was selected, how the design meets the client's stated security needs, which building or fire code considerations influenced hardware selection (e.g., egress requirements for electronic locks), and how applicable state locksmith or alarm licensing requirements were satisfied.
  2. Respond to panel questions drawn from all prior course units—covering lock mechanisms, keying theory, safe work, access control, alarm and CCTV fundamentals, electronic locks, and code compliance—demonstrating ability to connect individual skills into a unified professional response; panel questions include at least one scenario about what the student would do if a newly installed system failed at a client site.
  3. With the instructor having introduced one concealed fault into the installed system (examples: a miswired alarm zone, an incorrect master wafer, a misconfigured access credential), use systematic diagnostic procedures—visual inspection, multimeter, key testing, software review—to identify the fault, state the cause, correct it, and verify the fix while the panel observes.
Student's own installed system and documentation package, multimeter, key gauge, laptop with system software, pinning mat and plug follower (available if needed), ALOA reference materials, ESA Certified Alarm Technician study guide, state licensing requirement summary sheetPanel scores the presentation on a three-part rubric: oral presentation and design justification (40 points), question-and-answer accuracy across credential exam content areas including ALOA CRL and ESA CAT domains (40 points), and troubleshooting diagnosis and correction (20 points); minimum passing total 75 out of 100; a student who cannot identify and correct the live fault within the allotted time may attempt one additional troubleshooting session before the final portfolio grade is closed.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Integrated Security Installation ProjectProject60%Minimum 75 out of 100 points on the combined installation rubric, with all three sub-phase operational checks passed (no uncorrected failures remaining at project close)The student completes the full four-lesson capstone sequence—survey, installation, documentation, and defense—on a single continuous project scenario evaluated by the instructor against a master rubric that encompasses technical accuracy, safety compliance, documentation quality, and oral defense performance. This project grade is the primary summative measure of job-ready competence and maps to task areas tested in the ALOA Certified Registered Locksmith and ESA Certified Alarm Technician credentialing exams.
Meets specification · Within estimate · Workmanship · Safety · Documentation
Professional PortfolioPortfolio20%All six required artifacts present and each individually scored at 75 out of 100 or above on the portfolio rubricThe student assembles a professional portfolio containing: the completed site survey form, the annotated as-built site diagram, the key-bitting control record, the electronic programming record, the client instruction sheet, and a one-page personal reflection on how the project connected to their credential and licensing goals. The portfolio is reviewed by the instructor for completeness, technical accuracy, and professional presentation quality, and the student retains it as a job-search and credential-application artifact.
Completeness · Organization · Evidence quality
Oral DefenseOral / panel20%Minimum 75 out of 100 on the three-part panel rubric (presentation, Q&A, troubleshooting), with the live fault correctly diagnosed and correctedIn a structured oral session before an instructor panel, the student presents and justifies the project design, answers questions spanning all program content areas and the competency domains of the ALOA CRL and ESA CAT credentials, and diagnoses a live fault introduced into the installed system. The oral defense demonstrates that the student can integrate knowledge under realistic job-site pressure and communicate professionally with clients and colleagues.
Explains decisions · Answers technical questions · Professional communication
BUS-LOCK72-10 Externship / clinical

Externship / Worksite Placement

162 hr · $650 COMPLIMENTARY

Students complete 162 supervised hours with a licensed locksmith or alarm company employer, applying classroom skills to real customer work orders under journeyman-level oversight. The placement integrates all prior coursework—mechanical locksmithing, keying, safes, access control, CCTV, electronic locks, and code compliance—in a live business environment. Employer evaluations and a reflective log document growth toward the ALOA CRL and ESA CAT credential domains and state licensing standards.

Outcomes
Course text

Students complete 162 supervised hours with a licensed locksmith or alarm company employer, applying classroom skills to real customer work orders under journeyman-level oversight. The placement integrates all prior coursework—mechanical locksmithing, keying, safes, access control, CCTV, electronic locks, and code compliance—in a live business environment. Employer evaluations and a reflective log document growth toward the ALOA CRL and ESA CAT credential domains and state licensing standards.

How the course runs. 4 blocks: Externship Orientation and Worksite Safety Briefing; Supervised Service Work — Mechanical and Keying Tasks; Supervised Service Work — Electronic Systems and Access Control; Final Employer Evaluation and Externship Reflection.

What competent looks like. Perform service calls for residential and commercial lock installation, re-keying, and safe opening under journeyman supervision, meeting employer quality and time-on-task standards. Install or service at least one access control or alarm system component in a real worksite setting, following the applicable code and manufacturer instructions. Demonstrate professional conduct—punctuality, customer communication, and tool accountability—as rated satisfactory or above on the employer mid-term and final evaluation forms. Document every worksite task in a daily log that records job type, tools used, problem encountered, solution applied, and credential domain addressed. Identify and respond correctly to worksite safety hazards, including electrical lockout/tagout, PPE selection, and ladder safety, with zero recordable incidents during the placement. Articulate, in a final reflection, how each credential exam domain (ALOA CRL, ESA CAT, state license) was practiced or observed during the externship.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Externship Orientation and Worksite Safety Briefing6theoryStudents will identify employer expectations, site-specific safety rules, daily log procedures, and evaluation criteria before beginning live customer work.
  1. Review and sign the externship agreement, confidentiality policy, and employer code of conduct; discuss consequences of violation with the externship coordinator.
  2. Complete the host employer's site-specific safety orientation, identifying hazards unique to that shop or service territory (vehicle operation, electrical panels, ladder use, chemical lubricants) and matching each to the correct PPE or OSHA control.
  3. Set up the externship daily log template in the approved format, complete a sample entry for a hypothetical job order, and have it reviewed by the on-site supervisor before Day 1 service work begins.
Externship agreement packet, employer safety orientation checklist, OSHA 10 pocket card (from Course 1), daily log template (paper or digital), PPE kit (safety glasses, cut-resistant gloves, steel-toe boots)Supervisor confirms signed agreement and completed safety checklist; student demonstrates correct PPE selection for two scenario hazards with no errors before proceeding to field hours.
2Supervised Service Work — Mechanical and Keying Tasks60fieldStudents will perform residential and commercial lock installation, re-keying, master-key pinning, and basic safe service under direct journeyman supervision, completing each job to employer quality standards.
  1. Accompany the supervising locksmith on a minimum of 15 distinct service calls covering at least three job categories (e.g., lockout, re-key, deadbolt installation, safe dial service); perform the hands-on work while the supervisor observes and corrects in real time.
  2. Record each call in the daily log within 30 minutes of job completion, noting job type, lock brand and grade, tools used, any problem encountered (e.g., broken key in cylinder, worn wafers), the solution applied, and which ALOA CRL exam domain the task addresses (key systems, lock mechanisms, or business practices).
  3. At the end of each week, meet with the supervisor for a 15-minute debrief; review two logged entries together, identify one skill strength and one area needing improvement, and set a target for the following week.
Service vehicle, full field kit (plug followers, pinning tray, picks, tension bars, key machine or manual cutter, pin kit, mortise and cylindrical lock sets, key blanks), key gauge, depth and space charts (manufacturer reference), daily log, ALOA CRL exam content outlineSupervisor rates each observed task on the employer evaluation rubric (1–4 scale); student must average 3 of 4 or better across all mechanical/keying tasks logged during this phase to pass the lesson.
3Supervised Service Work — Electronic Systems and Access Control72fieldStudents will install, program, or service at least one electronic lock, access control reader, or alarm/CCTV component on a live job, documenting work to ESA CAT and state licensing exam domains.
  1. Participate in a minimum of 8 electronic-systems jobs (any combination of electronic lock programming, access credential enrollment, alarm panel zone configuration, or camera mounting and cable routing); perform each hands-on task under supervisor oversight, using the manufacturer wiring diagram and the site's as-built drawing.
  2. Before any panel or powered-device work, demonstrate lockout/tagout procedure to the supervisor: identify the energy source, apply the personal lockout device, verify zero-energy state with a non-contact voltage tester, then proceed; supervisor initials the log entry confirming correct procedure each time.
  3. Prepare a one-page job summary for the single most complex electronic job completed during this phase; the summary must include a sketch or photo of the installation, the programming steps taken, the test result, and the relevant ESA CAT exam topic addressed (intrusion systems, access control, or CCTV).
Non-contact voltage tester, personal lockout device and hasp, conduit fish tape, low-voltage cable (18/2, 22/4 as required), access control reader and controller (employer-supplied), alarm panel (employer-supplied), laptop or tablet with manufacturer programming software, ESA CAT exam content outline, state alarm license regulatory referenceSupervisor verifies correct lockout/tagout on every powered task with no omissions; student's one-page job summary is reviewed by the instructor and must accurately describe the installation steps and correctly map the task to at least one ESA CAT domain to pass.
4Final Employer Evaluation and Externship Reflection24fieldStudents will compile and present a complete externship portfolio—including the full daily log, employer evaluation scores, and a written reflection—demonstrating growth across all credential exam domains.
  1. Complete the final employer evaluation meeting with the supervising locksmith; the supervisor scores the student on the standardized rubric covering technical skill, safety compliance, professionalism, customer interaction, and tool care, then discusses the ratings with the student and signs the form.
  2. Compile the full daily log into a portfolio organized by credential domain (ALOA CRL sections, ESA CAT sections, state license categories); write a one-paragraph summary for each domain describing a specific job that addressed it and what was learned.
  3. Submit the completed portfolio to the program instructor for a 20-minute portfolio conference; discuss two moments of difficulty and how they were resolved, one skill that still needs development, and a concrete plan for continuing practice before the credential exams in Course 11.
Employer evaluation rubric (standardized program form), complete daily log, credential exam content outlines (ALOA CRL, ESA CAT, state license), portfolio binder or digital folder, reflection guide worksheetEmployer final evaluation must score 3 of 4 or better in all five rubric categories; portfolio must contain a log entry for every worksite day with no gaps; instructor confirms all three credential domains are addressed in the written reflection before awarding a passing grade for the lesson.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Employer Worksite Skills Demonstration EvaluationSkills demonstration70%Average rating of 3 out of 4 or better across all five rubric categories (technical skill, safety compliance, professionalism, customer interaction, and tool care) on the employer's final signed evaluation form, with no category rated below 2.The supervising locksmith or alarm technician completes a standardized rating rubric at mid-point and at the end of the placement, observing the student on actual service calls. The final evaluation score is the primary skills_demo assessment and must be submitted to the program before a passing grade is awarded for the course.
Competency · Safety · Attendance · Conduct · Initiative
Externship Daily Log and PortfolioLog30%Log contains a complete, dated entry for every worksite day (no missing days); the portfolio summary correctly maps documented tasks to at least two ALOA CRL exam domains, at least one ESA CAT exam domain, and at least one state licensing category; instructor portfolio conference results in a rating of satisfactory on the reflection rubric.Students maintain a chronological daily log throughout all 162 hours, recording job type, tools used, problem encountered, solution applied, and credential domain for each task. The compiled log is submitted as a portfolio with domain-organized summaries and a written reflection, serving as the lab_log assessment and a study resource for Course 11 exam preparation.
Complete · Verified
BUS-LOCK72-11 Exam prep

Certification Exam Preparation: CRL, ESA CAT, and State License

45 hr · $450 COMPLIMENTARY

This course systematically reviews every knowledge domain tested on the ALOA Certified Registered Locksmith (CRL) exam, the ESA Certified Alarm Technician (CAT) exam, and the applicable state locksmith/alarm license examination, using structured review sessions, timed practice questions, and full-length mock exams. Learners identify personal weak areas through diagnostic work and target those areas with focused study before sitting for-credit credentialing exams. The course also covers exam registration logistics, professional ethics requirements, and post-credential license application steps.

Outcomes
Course text

This course systematically reviews every knowledge domain tested on the ALOA Certified Registered Locksmith (CRL) exam, the ESA Certified Alarm Technician (CAT) exam, and the applicable state locksmith/alarm license examination, using structured review sessions, timed practice questions, and full-length mock exams. Learners identify personal weak areas through diagnostic work and target those areas with focused study before sitting for-credit credentialing exams. The course also covers exam registration logistics, professional ethics requirements, and post-credential license application steps.

How the course runs. 4 blocks: Diagnostic Assessment and Exam Domain Mapping; Targeted Domain Review: Mechanical Locksmithing and Safe Service; Targeted Domain Review: Electronic Security, Alarm Systems, Codes, and State Licensing; Full-Length Mock Credentialing Exams and Exam Registration.

What competent looks like. Score at or above the passing threshold on a full-length CRL practice exam covering lock mechanisms, keying, safe service, access control, and professional standards. Score at or above the passing threshold on a full-length ESA CAT practice exam covering alarm system installation, electronic security theory, and applicable codes. Demonstrate accurate recall of state-specific licensing requirements, including background check procedures, continuing education obligations, and application steps. Identify personal knowledge gaps through diagnostic assessment and apply a targeted self-study plan to bring weak domains to passing level. Apply professional ethics standards and legal compliance requirements as tested on credentialing exams to realistic scenario questions. Complete exam registration for at least one of the three credentials during the course, submitting a verified application packet.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Diagnostic Assessment and Exam Domain Mapping8theoryThe learner will complete a timed diagnostic practice test for both the CRL and ESA CAT exam domains and produce a written gap analysis that ranks knowledge areas from strongest to weakest.
  1. Sit a timed 80-question diagnostic covering CRL content areas—lock mechanisms, keying systems, safe technology, access control, professional ethics, and business practices—under simulated test conditions; score immediately using an answer key.
  2. Sit a timed 60-question diagnostic covering ESA CAT content areas—alarm theory, detection devices, control panels, wiring, codes, and documentation—under simulated test conditions; score immediately.
  3. Complete a written gap-analysis worksheet that maps every missed item to a specific exam domain, then rank the five weakest domains for each credential and draft a personal two-week study schedule with daily topic targets.
Diagnostic practice question banks drawn from ALOA study guide and ESA CAT prep materials; answer key rubrics; gap-analysis worksheet; timer; pencils; learner exam-domain reference chart showing the official content outline for each credentialLearner submits a completed gap-analysis worksheet with every missed item categorized by domain and a written study schedule; competence is confirmed when the worksheet is accurate and the schedule addresses all domains scoring below 70%—pass requires submission of both documents with correct domain labeling on at least 90% of items.
2Targeted Domain Review: Mechanical Locksmithing and Safe Service12labThe learner will answer CRL-format questions on lock mechanisms, key cutting, master-key theory, safe mechanisms, and manipulation concepts at or above 75% accuracy on a domain quiz by the end of the session.
  1. Work through an instructor-led review of pin-tumbler, wafer, disc-detainer, and lever-tumbler operating principles using cutaway locks and exploded diagrams, then answer 30 CRL-style multiple-choice questions on mechanism identification and service procedures; review each incorrect answer with the instructor.
  2. Practice master-key theory problems on paper—constructing a master-key system matrix for a three-level hierarchy, identifying TMK, MK, and change-key cuts—then compare results to a worked example and correct errors, mirroring the calculation questions on the CRL exam.
  3. Rotate through three timed safe-service stations: (1) identify safe lock types and manipulation resistance ratings from specification cards, (2) answer scenario questions on GSA container classes and UL ratings, and (3) trace a combination-lock diagram to identify contact points and answer CRL-style questions on combination changing procedures.
Cutaway pin-tumbler, wafer, and lever locks; key machines (for reference, not full cutting exercise); master-key matrix worksheets; safe practice locks and specification cards; GSA/UL rating reference charts; ALOA study guide; printed CRL-format question sets; answer keysLearner completes a 40-question domain quiz covering lock mechanisms, keying math, and safe service under timed conditions; pass requires 75% or higher (30 of 40 correct); any domain sub-score below 70% triggers a mandatory instructor review session before Lesson 3.
3Targeted Domain Review: Electronic Security, Alarm Systems, Codes, and State Licensing13labThe learner will answer ESA CAT-format questions on alarm detection, panel wiring, access control electronics, and applicable electrical and fire codes at or above 75% accuracy, and correctly explain at least five state-specific licensing requirements relevant to their jurisdiction.
  1. Work through an instructor-led review of ESA CAT content domains—intrusion detection sensors, motion detector technologies, control panel zones, central station communication paths, and low-voltage wiring practices—using labeled diagrams and equipment samples; answer 40 ESA CAT-style questions grouped by domain and review all errors as a group.
  2. Complete a codes and standards station: read excerpts from NFPA 72 (National Fire Alarm and Signaling Code) and applicable NEC low-voltage articles at the level referenced in ESA CAT content outlines, answer 20 scenario-based questions about installation compliance, and discuss why each incorrect answer violates the referenced standard.
  3. Research the specific state locksmith and alarm licensing board requirements for the program's jurisdiction using the official licensing board website; complete a licensing checklist worksheet covering application steps, required documentation, background check process, bond or insurance requirements if any, and continuing education renewal obligations; then answer 15 multiple-choice questions modeled on the state license exam format and review answers with the instructor.
Alarm panel trainer board; motion and contact sensors; low-voltage wiring samples; NFPA 72 current edition (reference copy); NEC reference (relevant low-voltage articles); ESA CAT study guide; official state licensing board website access; licensing checklist worksheet; printed ESA CAT and state-license-format question sets; answer keysLearner completes a 50-question domain quiz covering ESA CAT topics and state licensing requirements under timed conditions; pass requires 75% or higher (38 of 50 correct); learner also submits the completed licensing checklist with accurate information for their jurisdiction—incomplete or inaccurate checklists require correction before Lesson 4.
4Full-Length Mock Credentialing Exams and Exam Registration12practiceThe learner will complete full-length, timed mock exams for both the CRL and ESA CAT credentials under authentic test conditions and submit a verified exam registration application for at least one credential before the session ends.
  1. Sit a full-length CRL mock exam (number of questions and time limit matching the current ALOA published exam format) in strict test-simulation conditions—no notes, no devices, timed entry and exit—then self-score using the answer key and complete a post-exam reflection form identifying the three domains with the most errors and one corrective action for each.
  2. Sit a full-length ESA CAT mock exam (number of questions and time limit matching the current ESA published exam format) under the same strict conditions; self-score and complete the same post-exam reflection form, then meet individually with the instructor for a 10-minute debrief comparing diagnostic scores from Lesson 1 to mock-exam scores to measure growth.
  3. Complete and review a real exam registration packet for the credential of the learner's choice (CRL or ESA CAT): gather required identification documents, confirm eligibility requirements are met, fill out the official application form, verify payment method, and submit the application—or, where exam windows are not yet open, confirm submission is queued; also review the process for scheduling the state license exam through the applicable licensing board.
Full-length CRL mock exam printed packet with answer key; full-length ESA CAT mock exam printed packet with answer key; post-exam reflection form; official ALOA CRL exam registration form or portal access; official ESA CAT exam registration form or portal access; state licensing board exam scheduling information; learner identification documents checklist; timer; pencilsLearner achieves 75% or higher on both the CRL mock exam and the ESA CAT mock exam; learner submits a completed post-exam reflection form for each exam with accurate domain-level error analysis; learner submits evidence of exam registration (confirmation number, submitted application, or instructor-verified completion of the application packet)—any mock-exam score below 75% results in an instructor-prescribed targeted review plan and a second mock sitting before the course closes.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Full-Length Mock Credentialing Exam BatteryMock certification exam100%75% or higher on both the CRL mock exam and the ESA CAT mock exam, plus submission of a verified exam registration application for at least one credentialLearners sit back-to-back full-length practice versions of the ALOA CRL and ESA CAT exams under timed, closed-book, test-center-simulated conditions, then complete a written domain-level error analysis for each. This mock exam battery serves as the course's single summative assessment and directly predicts readiness for the live credentialing exams; scores below 75% on either exam require documented instructor remediation and a second sitting before a satisfactory grade is recorded.
Score · Time management
Program completion

External credential: ALOA Certified Registered Locksmith; ESA Certified Alarm Technician; State Locksmith/Alarm License

Students prepare for and sit the ALOA Certified Registered Locksmith (CRL) exam administered by the ALOA Security Professionals Association, and the ESA Certified Alarm Technician exam administered by the Electronic Security Association; students also complete the application and any required testing for their state locksmith and/or alarm technician license through the applicable state licensing board. Pass standard: Credential issued by the body.

Back to Locksmith & Security Systems · How the school gets authority to award these credentials