
Covers the scope of ASME B31.3 for industrial piping systems, highlighting applicable codes, design elements, and common pitfalls in system compatibility and material quality.
Traces the evolution of piping systems and outlines key components like valves, flanges, and welded joints in modern process plants.
Describes pipe dimensions per ASME B36.10 and B36.19, including outside diameter, wall thickness, and the concept of pipe schedules.
Reviews manufacturing types—seamless, forged, ERW, SAW—and their applications, pros, cons, and corresponding standards.
Lists common metals used for piping with ASTM/API specs, material performance by temperature and pressure, and selection criteria.
Introduces concrete, PVC, HDPE, and fiberglass pipes with use cases, advantages, and ASME/AWWA standards.
Introduces pipe fitting standards—tees, elbows, and reducers—regulated by ASME B16 family, including materials and dimensions.
Discusses ASME B16.5 & B16.9 components, their types, pressure classes, and practical applications in industrial systems.
Reviews ASME B18.2.1 and B18.2.2 for studs and nuts, including dimensions, thread types, material standards, and application relevance.
Offers a comprehensive table of component standards per ASME B31.3, covering valves, flanges, and fittings across materials.
Compares butt and fillet welds, explains their mechanical properties, inspection suitability, WPS requirements, and common applications.
Defines flange types—welding neck, slip-on, lap joint, threaded, and socket weld—with welding methods and usage conditions.
Explains sealing surfaces like raised face, flat face, ring joint, and tongue-and-groove, highlighting reliability and service limitations.
Details pressure ratings per ASME B16.1 and B16.5, with examples on how to select based on pressure, temperature, and flange material.
Categorizes valves into manual, control, check, relief, and diaphragm types, with guidance on their function and operational context.
Describes these linear-motion valves' functions, advantages, and use cases in isolation and regulation applications.
Highlights these rotary-motion or one-way valves, focusing on space efficiency, sealing performance, and service type.
Explains special valves suited to high-pressure (wedge) and corrosive fluid (diaphragm) applications, emphasizing design.
Explores pneumatic, hydraulic, and motorized valves with actuators for precise flow, temperature, or pressure regulation in process systems.
Introduces gasket types and materials, standards (API, ASME), and performance attributes like chemical, temperature, and fire resistance.
Describes rubber and Teflon gaskets, detailing applications based on chemical compatibility, temperature limits, and durability.
Covers flexible graphite gaskets with inserts (flat, die-cut, corrugated) for improved strength, sealing, and heat resistance.
Explains components, materials, color codes, and filler options for spiral wound gaskets suitable for high-pressure systems.
Highlights Kammprofile and Ring Joint gaskets, their metallic nature, sealing integrity, and use in extreme service conditions.
Discusses jacketed, lined, and thermally insulated pipes, along with steam tracing, including when and how to apply these designs.
Clarifies codes, standards, specifications, and regulatory bodies (ASME, API, ASTM, etc.) used in piping.
Breaks down ASME BPVC structure, origins, and its relationship with piping codes like ASME B31.3.
Lists B31.3 chapters, appendices, exclusions, and industries of application, along with its focus on new process piping systems.
Defines five fluid service categories (D, M, high-pressure, high-temp, normal) and outlines a flowchart for fluid classification.
Establishes the design profile of a piping designer and criteria to determine when thermal insulation is required.
Presents theoretical background for wall thickness design—stress types, factors, and key ASME tables.
Applies the theory to calculate minimum pipe wall thickness through a guided exercise using ASME standards.
Explains when and how to use mitered elbows, including angle calculations, reinforcement, and formulas per ASME B31.3.
Outlines types of branches, area replacement theory, reinforcement rules, and when to apply branch welding techniques.
Reviews welding preparations, bevel types, misalignments, and employer responsibilities during construction.
Defines inspector qualifications and various NDT methods, including acceptance criteria and weld defect types.
Covers hydrostatic and pneumatic testing procedures, safety, preparation, and common pressure testing scenarios.
Course Description This immersive online course, grounded in Piping: Foundations by Javier Cardenas, is designed to equip learners with a robust understanding of industrial piping systems through a blend of engineering theory, international standards, and real construction case studies. Whether you're an engineer, technician, or designer, this course offers the tools to confidently design, inspect, and troubleshoot piping systems across industries like oil & gas, chemical processing, and power generation.
You’ll explore the full spectrum of piping components—from valves, flanges, and fittings to gaskets, packing, and bolting systems—and understand their roles in leak prevention, pressure management, and system integrity. The course dives deep into pipe thickness calculation, mitered elbows, branch reinforcement, and welding techniques, comparing seamless vs. welded pipes and their implications for corrosion resistance and material selection.
Through real-world construction scenarios, learners will tackle challenges like:
Diagnosing flange misalignment during plant retrofits
Selecting appropriate materials under ASME B31.3 and ASTM standards
Performing hydrostatic testing and visual inspection on-site
Applying API, AWS, AWWA, and NFPA codes in field conditions
You’ll also master the interpretation of P&IDs, isometric drawings, and orthographic views, and quality assurance evaluations. Each module is enriched with diagrams, field photos, and step-by-step walkthroughs of real construction decisions—bridging the gap between classroom theory and jobsite execution.
By the end of the course, you’ll not only understand how to design and specify piping systems, but also how to evaluate their performance and compliance in real-world environments. This is more than a course—it’s a launchpad for professionals aiming to lead with confidence in the field of piping engineering.