Texas Administrative Code
Title 19 - EDUCATION
Part 2 - TEXAS EDUCATION AGENCY
Chapter 127 - TEXAS ESSENTIAL KNOWLEDGE AND SKILLS FOR CAREER DEVELOPMENT AND CAREER AND TECHNICAL EDUCATION
Subchapter P - TRANSPORTATION, DISTRIBUTION, AND LOGISTICS
Section 127.890 - Aircraft Maintenance Technology (One Credit), Adopted 2024
Universal Citation: 19 TX Admin Code ยง 127.890
Current through Reg. 49, No. 38; September 20, 2024
(a) Implementation. The provisions of this section shall be implemented by school districts beginning with the 2025-2026 school year.
(b) General requirements. This course is recommended for students in Grades 9-12. Recommended prerequisites: Introduction to Aircraft Technology. Students shall be awarded one credit for successful completion of this course.
(c) Introduction.
(1) Career and technical education instruction provides content aligned
with challenging academic standards and relevant technical knowledge and skills for students to further their
education and succeed in current or emerging professions.
(2) The
Transportation, Distribution, and Logistics Career Cluster focuses on planning, management, and movement of
people, materials, and goods by road, pipeline, air, rail, and water and related professional support
services such as transportation infrastructure planning and management, logistics services, mobile equipment,
and facility maintenance.
(3) Aircraft Maintenance Technology is
designed to teach the theory of operation, general maintenance, and repair practices of Federal Aviation
Administration (FAA) general curriculum subjects utilizing aircraft, aircraft training devices, or equivalent
simulated situations. In this course, the academic and technical skills are separated to reflect the learning
outcomes as designed in the FAA airman certification standards. Maintenance and repair practices include
knowledge of the function, diagnosis, and service of aircraft and their associated equipment.
Industry-recognized professional licensures, certifications, and registrations are available for students who
meet the requirements set forth by the accrediting organization.
(4) Students are encouraged to participate in extended learning experiences
such as career and technical student organizations and other leadership or extracurricular
organizations.
(5) Statements that contain the word "including"
reference content that must be mastered, while those containing the phrase "such as" are intended as possible
illustrative examples.
(6) The FAA uses standard terms with
specific expectations for performance. The terms are defined as follows.
(A) Check means to verify proper operation.
(B) Inspect means to examine with or without inspection enhancing tools or
equipment.
(C) Overhaul means to disassemble, clean, inspect,
repair as necessary, and reassemble.
(D) Repair means to correct
a defective condition.
(E) Service means to perform functions
that assure continued operation.
(F) Troubleshoot means to
analyze and identify malfunctions.
(7) When a student
performs an action, such as checking, inspecting, overhauling, repairing, servicing, troubleshooting, and
installing in this course, they are to complete all associated tasks. If an action detects a flaw, defect, or
discrepancy in an aircraft or component, that finding could trigger another maintenance action. Actions may
include documenting findings through logbook entries, maintenance action forms, installation plans, and work
orders.
(d) Knowledge and skills.
(1) The student demonstrates professional standards, interpersonal
communication, and employability skills as required by business and industry. The student is expected to:
(A) identify employment opportunities, including entrepreneurship
opportunities, and certification requirements for the field of aircraft maintenance and repair;
(B) identify and demonstrate ways to contribute and collaborate as an
effective member of a team;
(C) identify individual ethical and
legal behavior standards according to professional and regulatory agencies;
(D) research and discuss the impact of the English language proficiency
requirements as prescribed by the Federal Aviation Regulations;
(E) identify and explain the technical knowledge and skills related to
human factors in health and safety in the worksite as addressed by industry standards;
(F) explain the role of human factors in maintaining health and safety in
the workplace and demonstrate personal responsibility to maintain health and safety in the
worksite;
(G) identify and explain how employees' personal
responsibility attitudes can affect the success and profitability of a worksite;
(H) apply reasoning skills to a variety of workplace situations to make
ethical decisions;
(I) identify industry standards related to
employee appearance and health habits;
(J) practice effective
written and oral communication skills;
(K) identify and practice
effective listening skills; and
(L) define and apply FAA standard
terms that have specific expectations for performance, including check, inspect, overhaul, repair, service,
and troubleshoot.
(2) The student relates academic
skills to the requirements of human factors. The student is expected to:
(A) describe safety culture and organizational structures in the work
environment;
(B) identify and explain types of human error and
human factor principles;
(C) identify and discuss the
chain-of-events theory, including pre-conditions and conditions for unsafe acts;
(D) identify and discuss the 12 common causes of mistakes in the aviation
workplace; and
(E) research and discuss the purpose of safety
management systems in the aviation workplace.
(3) The
student uses regulatory and industry standards and demonstrates technical knowledge and skills for human
factors, utilizing aircraft, aircraft training devices, or equivalent simulated situations. The student is
expected to:
(A) complete and submit a malfunction and defect report;
and
(B) research and report on information regarding human factor
errors.
(4) The student relates academic skills to the
requirements of aviation mathematics. The student is expected to:
(A)
perform algebraic operations involving addition, subtraction, multiplication, and division, using positive
and negative numbers;
(B) determine areas and volumes of various
geometric shapes;
(C) solve ratio, proportion, and percentage
problems; and
(D) extract roots and raise numbers to a given
power.
(5) The student uses regulatory and industry
standards and demonstrates technical knowledge and skills for aviation mathematics, utilizing aircraft,
aircraft training devices, or equivalent simulated situations. The student is expected to:
(A) compute the volume of a shape such as a baggage compartment, a fuel
tank, or an engine cylinder;
(B) compute the area of an aircraft
wing;
(C) convert between fractions and decimals;
(D) compute torque value conversions between inch-pounds and foot-pounds;
and
(E) compute the compression ratio of a reciprocating engine
cylinder.
(6) The student relates academic skills to
the requirements of fundamentals of electricity and electronics. The student is expected to:
(A) explain electron theory, including magnetism, capacitance, induction,
direct current electrical circuits, and alternating current electrical circuits;
(B) explain electrical theories and laws, including Ohm's Law, Kirchhoff's
Law, Watt's Law, Faraday's Law, Lenz's Law, and right-hand rule;
(C) identify and explain electrical measurement principles and related
tools and procedures for measuring voltage, current, resistance, and power;
(D) compare types of batteries; and
(E) compare series circuits and parallel circuits.
(7) The student uses regulatory and industry standards and demonstrates
technical knowledge and skills for fundamentals of electricity and electronics, utilizing aircraft, aircraft
training devices, or equivalent simulated situations. The student is expected to:
(A) use multimeters to perform circuit continuity tests, test a switch and
fuse, and measure voltage, current, and resistance;
(B) interpret
aircraft electrical circuit diagrams and symbols;
(C) inspect and
service an aircraft battery; and
(D) identify faults in circuits
by using appropriate troubleshooting techniques.
(8)
The student relates academic skills to the requirements of physics for aviation. The student is expected to:
(A) explain the theory of flight, including lift, weight, thrust, and drag,
as related to Bernoulli's Principle, Newton's Laws of Motion, and fluid mechanics;
(B) describe the function and operation of aircraft flight controls and
additional aerodynamic devices, including vortex generators, wing fences, and stall strips; and
(C) analyze and compare standard atmospheric factors affecting atmospheric
conditions, including the relationship between temperature, density, weight, and volume.
(9) The student uses regulatory and industry standards and demonstrates
technical knowledge and skills for physics for aviation, utilizing aircraft, aircraft training devices, or
equivalent simulated situations. The student is expected to:
(A) determine
density and pressure altitude;
(B) identify changes to pressure
and velocity of a fluid as it passes through a venturi;
(C)
calculate force, area, and pressure for a given scenario related to aircraft maintenance; and
(D) calculate the lift of an aircraft and determine if the aircraft will
climb, descend, or maintain altitude given its weight.
(10) The student relates academic skills to the requirements of weight and
balance. The student is expected to:
(A) describe the purpose of weighing an
aircraft and determining the aircraft's center of gravity;
(B)
explain the procedures for weighing an aircraft, including the general preparation for weighing, with
emphasis on aircraft weighing area considerations;
(C) explain
the procedures for calculating center of gravity, including arm, positive and negative moment, center of
gravity, and moment index; and
(D) explain adverse loading
considerations, proper empty weight configuration, and ballast placement.
(11) The student uses regulatory and industry standards and demonstrates
technical knowledge and skills for weight and balance, utilizing aircraft, aircraft training devices, or
equivalent simulated situations. The student is expected to:
(A) calculate
aircraft weight and balance, including equipment changes, empty weight, and empty weight center of gravity;
and
(B) locate datum, weight and balance information, placarding,
and limitation requirements for an aircraft in an appropriate reference such as the type certificate data
sheet.
(12) The student relates academic skills to the
requirements of aircraft drawings. The student is expected to:
(A) identify
and use aircraft drawing terminology; and
(B) interpret aircraft
drawings, blueprints, sketches, charts, graphs, and system schematics related to repairs, alterations, and
inspections.
(13) The student uses regulatory and
industry standards and demonstrates technical knowledge and skills for aircraft drawings, utilizing aircraft,
aircraft training devices, or equivalent simulated situations. The student is expected to:
(A) identify and describe the meaning of lines and symbols used in an
aircraft drawing;
(B) interpret dimensions used in an aircraft
drawing;
(C) identify changes to aircraft drawings; and
(D) identify material requirements indicated by an aircraft
drawing.
(14) The student relates academic skills to
the requirements of regulations, forms, and publications. The student is expected to:
(A) identify recency of experience requirements, the privileges and
limitations of mechanic certificates, and how to reestablish privileges once they are lost;
(B) define maintenance terminology as defined in 14 Code of Federal
Regulations (CFR) Part 1, including time in service, maintenance, preventive maintenance, major alteration,
major repair, minor alteration, and minor repair;
(C) describe
requirements for maintenance record entries for approval for return to service after maintenance,
alterations, and inspections;
(D) identify compliance
requirements for manufacturer-specified maintenance methods, techniques, practices, and inspection
intervals;
(E) explain FAA-approved maintenance data, including
maintenance manuals and other methods acceptable by the administrator; and
(F) describe mechanic change of address notification procedures.
(15) The student uses regulatory and industry standards and
demonstrates technical knowledge and skills for regulations, forms, and publications, utilizing aircraft,
aircraft training devices, or equivalent simulated situations. The student is expected to:
(A) evaluate a 100-hour inspection aircraft maintenance record entry for
accuracy;
(B) locate applicable FAA aircraft specifications and
FAA Type Certificate Data Sheets (TCDS) for an aircraft or component;
(C) determine the conformity of aircraft instrument range markings and
placarding;
(D) use a manufacturer's illustrated parts catalog to
locate specific part numbers for aircraft parts such as door handles, rudder pedals, or seat
latches;
(E) determine whether a given repair or alteration is
major or minor; and
(F) explain the difference between approved
data such as data required for major repairs or alterations and acceptable data such as data required for
minor repairs or alterations.
(16) The student relates
academic skills to the requirements of fluid lines and fittings. The student is expected to:
(A) identify rigid tubing and flexible hose materials, applications, sizes,
and fittings;
(B) describe rigid tubing and flexible hose
fabrication, installation, and inspection techniques;
(C) explain
the importance of properly using a torque wrench and torque seal when securing fluid hose and line fittings;
and
(D) analyze and describe the risks associated with
high-pressure hydraulic system configuration prior to and during maintenance.
(17) The student uses regulatory and industry standards and demonstrates
technical knowledge and skills for fluid lines and fittings, utilizing aircraft, aircraft training devices,
or equivalent simulated situations. The student is expected to:
(A)
fabricate and install a rigid line with a flare and a bend;
(B)
fabricate and install a flexible hose; and
(C) perform a rigid
line and flexible hose inspection.
(18) The student
relates academic skills to the requirements of aircraft materials, hardware, and processes. The student is
expected to:
(A) identify and describe material markings and hardware
markings commonly used in aircraft;
(B) compare suitability and
compatibility of materials and hardware used for maintenance;
(C)
explain forces placed on aircraft materials, including tension, compression, torsion, bending, strain, and
shear;
(D) identify safety wire and safety clip requirements and
techniques;
(E) identify cotter pin requirements and
techniques;
(F) describe precision measurement tools, principles,
and procedures;
(G) explain soldering preparation, types of
solder, and flux usage;
(H) analyze torquing tools, principles,
and procedures and the relationship between torque and fastener preload; and
(I) differentiate between the characteristics of acceptable and
unacceptable welds.
(19) The student uses regulatory
and industry standards and demonstrates technical knowledge and skills for aircraft materials, hardware, and
processes, utilizing aircraft, aircraft training devices, or equivalent simulated situations. The student is
expected to:
(A) select aircraft materials and hardware such as bolts,
turnbuckles, washers, and rivets based on manufacturer's markings appropriate for a specific
scenario;
(B) install safety wire on hardware such as nuts,
bolts, and turnbuckles;
(C) install cotter pins on hardware such
as nuts and bolts;
(D) check for proper calibration of a
precision-measurement tool and record precision measurements with an instrument that has a Vernier
scale;
(E) determine required torque values and properly torque
aircraft hardware; and
(F) inspect welds and differentiate
between acceptable and unacceptable welds.
(20) The
student relates academic skills to the requirements of ground operations and servicing. The student is
expected to:
(A) describe proper towing and securing procedures for aircraft
using approved data;
(B) describe proper aircraft ground
servicing, including oil, oxygen, hydraulic, pneumatic, and deicing systems and fueling and defueling
procedures;
(C) differentiate between characteristics of aviation
gasoline, turbine fuels, and fuel additives;
(D) explain engine
starting, ground operation, and aircraft taxiing procedures;
(E)
explain airport operation area procedures and air traffic control communications, including runway incursion
prevention;
(F) identify the types and classes of fire
extinguishers;
(G) analyze the importance of proper tool and
hardware use and accountability;
(H) describe the need for proper
material handling and parts protection;
(I) identify hazardous
materials, locate the appropriate safety data sheet (SDS), and select the indicated personal protection
equipment (PPE); and
(J) analyze and describe the potential
effects of foreign object damage (FOD) on aircraft.
(21) The student uses regulatory and industry standards and demonstrates
technical knowledge and skills for ground operations and servicing, utilizing aircraft, aircraft training
devices, or equivalent simulated situations. The student is expected to:
(A) perform a foreign object damage (FOD) control procedure;
(B) connect external power to an aircraft;
(C) prepare an aircraft for towing;
(D) use appropriate hand signals for the movement of aircraft;
(E) identify different grades of aviation fuel and select an approved fuel
for an aircraft;
(F) prepare an aircraft for fueling and inspect
an aircraft fuel system for water and foreign object debris (FOD) contamination;
(G) follow a checklist to start up or shut down an aircraft reciprocating
or turbine engine;
(H) identify procedures for extinguishing
fires in an engine induction system;
(I) secure an aircraft by
locating and following the correct procedures for a turbine-powered aircraft after engine shutdown;
and
(J) locate and explain procedures for securing a
turbine-powered aircraft after engine shutdown.
(22)
The student relates academic skills to the requirements of cleaning and corrosion control. The student is
expected to:
(A) explain the need for aircraft cleaning
procedures;
(B) explain corrosion theory, including types and
effects of corrosion, corrosion-prone areas in aircraft, and corrosion preventive maintenance
procedures;
(C) describe corrosion identification and inspection
techniques, corrosion removal and treatment procedures, the selection of optimal corrosion preventive
compounds (CPC), and the frequency of corrosion treatment;
(D)
describe the use of high-pressure application equipment;
(E)
identify and discuss the effects of improper use of cleaners on aluminum or composite materials;
(F) explain accelerated corrosion caused by dissimilar metals and the role
of protective barriers, including conversion coatings, materials used for protection of airframe structures,
and primer materials, to mitigate this risk;
(G) identify topcoat
materials and discuss concerns regarding surface preparation for a desired finishing material, effects of
ambient conditions on finishing materials, and effects of improper surface preparation on finishing
materials; and
(H) identify health concerns when using paints,
solvents, and finishing materials and processes, including the use of PPE.
(23) The student uses regulatory and industry standards and demonstrates
technical knowledge and skills for cleaning and corrosion control, utilizing aircraft, aircraft training
devices, or equivalent simulated situations. The student is expected to:
(A)
identify types of protective finishes;
(B) inspect finishes for
corrosion and identify, select, and use aircraft corrosion prevention and cleaning materials; and
(C) apply aircraft corrosion prevention and coating materials.
Disclaimer: These regulations may not be the most recent version. Texas may have more current or accurate information. We make no warranties or guarantees about the accuracy, completeness, or adequacy of the information contained on this site or the information linked to on the state site. Please check official sources.
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