Complete Instrumentation Engineering Masterclass Training

Explore how piping and instrumentation diagrams (pid) serve as the master engineering document, detailing interconnections of process equipment and instrumentation for control schemes, safety, hazard and operability studies, and updates.

Explore what a P&ID includes, from mechanical equipment data and valves to piping, flow meters, instrumentation, control and safety systems, vendor and contractor interfaces, and project scope.

Learn to read P&ID symbols and legend sheets to identify valves, instruments, and signals, enabling accurate IO lists and detailed selection of flow meters, temperature and pressure devices, and pumps.

Learn to read P&ID pads by identifying instrumentation symbols from the legend, deciphering tag and loop numbers, and tracing transmitter signals to the DCS across open, closed, and complex loops.

Learn to read P&ID diagrams by locating instruments, alarms, and transmitters using tag numbers. Understand signal types, flags, mounting, insulation, interlocks, cause-and-effect diagrams, and notes for comprehensive instrumentation review.

Identify line number and line size to select meters and inline instruments, and reference PMS pipe class and process connection types for insulation and tracing in detailed engineering.

Introduces control valve concepts: automatic operation, actuator, manual valve vs control valve differentiation, and the valve body plus actuator components.

Control valve acts as the final control element in a loop, using actuators to regulate flow, pressure, or temperature by the controller's analog output to the valve.

Learn P&ID representation of control valves, including symbols, actuators, and end connections, and explore anti-surge valves and common valve types in looped process systems.

Classify control valves by linear versus rotary motion, based on stem movement, and describe globe, pinch, diaphragm, butterfly, and ball valves with isolation, throttling, pressure relief, and directional change functions.

Understand inherent valve characteristics, including quick opening, linear, and equal percentage, and how trim design and installed versus inherent performance affect flow control in control valves.

Explore globe valves, including body, bonnet, and trim, for precise flow control and high-pressure operation. Learn their applications for corrosive substances and the various connections and throttling designs.

Explore valve packing designs, including standard, low-emission, and live-loaded packing, and learn how material choices like PTFE and graphite affect leakage, durability, and fugitive emission testing.

Explore fugitive emissions in process instruments, distinguishing static and dynamic components, why fidgety emission testing is needed, and key ISO and API standards for valve packing and testing.

Explore how a magnetic flow meter uses Faraday's law with coils and electrodes to produce a voltage proportional to flow velocity, enabling volumetric flow calculation and automatic interference cancellation.

Understand the magnetic flow meter’s key parts—sensor and transmitter—including sensor body, liner, electrodes, coils, grounding rings, and flanges, for conductive liquids.

Prepare magnetic flow meter technical data sheets by collecting pad, PDS, PMS, and client specifications, detailing general information, process conditions, sensor and transmitter data, and certifications.

Use technical bid analysis to compare bidders' quotations against project requirements and tag-wise specifications, evaluate certifications and process data, and determine the technically suitable vendor.

Install magnetic flow meters with correct orientation and a maintenance bypass. Ensure straight lengths: upstream five D, downstream two D, to avoid bubbles and maintain accuracy.

Review dimensional drawings for 3d modeling, confirming face-to-face, diameter, vertical dimensions, and weight for lifting. Coordinate with piping and instrumentation to consolidate comments and reference reputed magnetic flow meter suppliers.

Learn how vortex flow meters use shed vortices and the Karman effect to translate flow velocity into a volumetric rate, with mounting, materials, and application considerations.

Review vortex flow meter sizing using in-situ calc, auto or manual sizing, and line-size constraints. Validate pressure loss, min/max flow, accuracy, and vendor calculations (Rosemount/Emerson) for the technical data sheet.

Learn how to prepare a vortex flow meter technical datasheet, covering general information, sensor details, meter styles, transmitter specs, materials, mounting, calibration range, and vendor requirements.

Execute a thorough technical bid analysis by issuing inquiries, reviewing responses, and comparing tag-wise technical details to select the most suitable vendor through technical and commercial bids.

Ensure proper installation of vortex flow meters by enforcing upstream and downstream straight lengths to protect accuracy, and use vendor outline dimensional drawings for 3D checks, approvals, and wiring loops.

Understand the working principle of the Coriolis flow meter, where a vibrating tube and pickup coils measure mass flow, volumetric flow, density, and temperature with high accuracy for process fluids.

Explore Coriolis meter parts construction and mounting, detailing sensor and transmitter parts, remote and integral types, and process connections and accessories.

Learn material selection for coriolis meters, including weighted parts such as hastelloy, nickel, tantalum, titanium, and zirconium, with ppt ratings and compatibility guidance. Also review accuracy and temperature ranges.

Review vendor calculations and apply applicator sizing for a Coriolis meter by evaluating process data, pressure drop at maximum flow, and accuracy at minimum flow.

Learn how to prepare technical data sheets for flow meters, detailing sensor information, transmitter options, materials, and data fields for accurate vendor quotations and project specifications.

Perform a technical bid analysis to compare vendor proposals for a Coriolis meter, then review dimensional drawings and wiring details to ensure correct installation and 3D model fit.

Understand the working principle of the orifice flow meter, including differential pressure, Bernoulli-based flow calculation, types such as orifice plate assembly and integral, and upstream–downstream tapping with transmitters.

Explore the orifice flow meter's wide industrial applications—from natural gas to water treatment and petrochemical plants—highlighting its low cost, easy installation, limited accuracy, and corrosion concerns.

Explore three orifice meter types—orifice plate, integral orifice, and restriction orifice—and learn when to apply each for different pipe sizes and pressure drop requirements.

Master the essentials of orifice meters, including beta ratio, differential pressure, pressure drop, and vena contracta. Explore flange tapping, tapping types, and ISO 5.67 standards for sizing and installation.

Explore iso 51672 straight length requirements for upstream and downstream piping around an orifice plate, including beta ratios and elbow configurations.

Learn to prepare and validate technical data sheets for orifice plate meters, covering process data, sizing inputs, beta ratio, vent and drain considerations, and installation details.

Review vendor calculations and technical data sheets, verify process data, bore diameter, beta ratio, and calculated pressure drop versus allowable loss, and decide on suitable meters or suppliers.

Review dimensional drawings against the technical data sheet for flange type, size, rating, tapping. Verify plate material, thickness, bore, design conditions, face-to-face, meter run, and bill of materials.

Learn the Venturi meter’s working principle, where Bernoulli’s principle uses differential pressure to convert flow into a signal via the throat.

Explore venturi meter applications in water, slurry, mining, chemical, and hydrocarbon processes, emphasizing up to 0.5% accuracy, low pressure loss, wide size range, and installation versatility.

Explore venturi meters, including flange and welded designs, with parts like flanges, pressure taps, throat, and lugs; learn material selection via piping material specifications (PMS) and common alloys.

Outline the essential technical specifications and data sheet requirements for venturi meters, covering ISO 5167-4 standards, material choices, flange details, beta ratio, and transmitter considerations.

Create venturi meter technical data sheets by extracting ISO 5167 parameters, beta ratio, and straight lengths from PID and process data for vendor evaluation.

Review vendor calculations for venturi meter sizing, verify pipe data, process data, beta ratio, bore diameter, pressure loss against limits; then ensure drawings and tags align with pad and pds.

Learn tapping locations for venturi meters by fluid type, including horizontal, vertical, and 45-degree orientations for liquids, wet gases, dry gases, and steam. Explore transmitter placement and common installation details.