Egypt Engineering Consultant Chemical & Nuclear cheat sheet

Ideal gas law PV = nRT with R = 8.314 J/mol·K; use compressibility factor Z for real gases at high pressure or near saturation.

First law for steady open system: Q − W = ΔH + ΔKE + ΔPE; for adiabatic, reversible, negligible kinetic/PE changes, W = −∫V dP.

Entropy change ideal gas: ΔS = Cp ln(T2/T1) − R ln(P2/P1); ΔG = ΔH − TΔS determines spontaneity at constant T and P.

Phase equilibrium requires equality of fugacity of each component in all phases; Raoult's law is the ideal VLE limit, modified by activity coefficients for non-ideality.

Gibbs phase rule F = C − P + 2; for a two-component, two-phase system one intensive variable fixes the state.

Heat of reaction from formation enthalpies: ΔHrxn = Σνi ΔHf,i(products) − Σνi ΔHf,i(reactants); Hess's law applies to any path.

Carnot efficiency η = 1 − Tc/Th (absolute temperatures); real power cycles always fall below this limit.

Material balance on a control volume: accumulation = in − out + generation − consumption; use extent of reaction ξ to close balances on reacting systems.

Fick's first law: J = −D dC/dx; mass transfer coefficient correlations (Sherwood = f(Re, Sc)) link diffusion to convective transfer.

Distillation: relative volatility α = (y/x)A/(y/x)B; minimum reflux from pinch point on McCabe-Thiele diagram, minimum stages at total reflux by Fenske equation.

Kremser equation gives theoretical stages for absorption/stripping at constant L/V and constant equilibrium slope.

Heat exchanger design: Q = U A ΔTlm with correction factor F for multipass; ΔTlm = (ΔT1 − ΔT2)/ln(ΔT1/ΔT2).

Filtration: constant-pressure cake filtration follows V² vs t linearity from Darcy's law with specific cake resistance.

Drying: constant-rate period controlled by external heat/mass transfer; falling-rate period controlled by internal diffusion.

Centrifugation separation depends on Stokes settling velocity, proportional to particle diameter squared and density difference, inversely to viscosity.

Membrane processes: flux J = ΔP/(μRm) for pure solvent; concentration polarization reduces observed rejection.

Batch reactor time: t = ∫ dX/(−rA) from X=0 to X; CSTR volume V = FA0 X/(−rA); PFR volume V = FA0 ∫ dX/(−rA).

Arrhenius: k = A exp(−Ea/RT); plot ln k vs 1/T gives slope −Ea/R.

First-order conversion in CSTR: X = kτ/(1+kτ); in PFR: X = 1 − exp(−kτ), where τ = V/v0.

Selectivity and yield for multiple reactions depend on concentration level; CSTR favors low-concentration pathways, PFR favors high-concentration pathways.

Non-ideal flow diagnosed by residence time distribution; tanks-in-series model fits Peclet number to vessel dispersion.

Catalyst effectiveness factor η = actual rate/rate at surface conditions; Thiele modulus quantifies diffusion limitation.

Energy balance for adiabatic CSTR: T = T0 + (−ΔHr) X/(Σθi Cpi) with θi = feed ratio of species i to reference.

RTD variance for N equal CSTRs in series: σ² = τ²/N; large N approaches plug flow behavior.

HAZOP uses guide words (no, more, less, as well as, part of, reverse, other than) applied to node parameters (flow, pressure, temperature, level) to identify deviations.

Layer of protection analysis ranks independent protection layers; each IPL must be independent, specific, dependable, and auditable.

Flash point, autoignition temperature, and lower/upper flammability limits define fire and explosion hazards of flammable vapors.

Dow Fire and Explosion Index and Mond Index quantify inherent process hazard for plant layout and insurance decisions.

Relief sizing for gas: use API 520/521 equations; for liquid thermal expansion use API 521; two-phase relief requires DIERS methodology.

Bow-tie diagram links threats and preventive barriers to top event, then consequence mitigation barriers to outcomes.

LOPA target: required risk reduction = initiating event frequency × consequence severity divided by tolerable frequency.

SIL determination per IEC 61511 uses risk graph or LOPA; SIL 1 to SIL 4 correspond to PFDavg ranges 10⁻¹ to 10⁻⁴.

Fission of U-235 releases about 200 MeV per event, mostly as kinetic energy of fission fragments and neutrons.

Six-factor formula: k∞ = ε p f η; effective multiplication keff = k∞ P(non-leakage fast) P(non-leakage thermal).

Four-factor formula for thermal reactors: k∞ = ε p f η; reactivity ρ = (keff − 1)/keff, expressed in pcm or dollars.

Delayed neutrons (β ≈ 0.0065 for U-235) enable reactor control; prompt criticality occurs when ρ > β.

Point kinetics: prompt jump approximation for step reactivity; reactor period T = (β − ρ)/(λρ) near delayed critical.

Dose quantities: absorbed dose in gray (1 Gy = 1 J/kg), equivalent dose in sievert with radiation weighting factor wR, effective dose with tissue weighting wT.

ALARA principle and dose limits per ICRP 103: occupational 20 mSv/y averaged over 5 years, public 1 mSv/y.

Xenon-135 poisoning: largest thermal neutron absorber among fission products; peak xenon occurs hours after shutdown due to I-135 decay.

Front end: mining, milling to U3O8 yellowcake, conversion to UF6, enrichment (gas centrifuge or laser), fuel fabrication.

Enrichment measured in separative work units (SWU); natural uranium is 0.711% U-235, LEU below 20%, HEU at or above 20%.

Once-through cycle stores spent fuel; closed cycle uses PUREX reprocessing to recover U and Pu, generating high-level liquid waste.

Radioactive waste classification: exempt, very low level, low level, intermediate level, high level based on activity and heat output.

Vitrification of high-level waste in borosilicate glass, then interim storage and geological disposal in stable host rock.

Decommissioning strategies: immediate dismantling, deferred dismantling, and entombment; selection depends on dose, cost, and site reuse.

Clearance levels for release of materials from regulatory control derived from IAEA GSR Part 3 dose criteria.

Decay heat from spent fuel requires active cooling for years; passive cooling after transfer to dry casks.

IAEA Fundamental Safety Principles: justification, optimization of protection, limitation of risks, and defense in depth.

Defense in depth levels 1 to 5: prevention, detection and control, engineered safety features, severe accident management, offsite emergency response.

Design basis accidents defined by single failure criterion; beyond design basis accidents addressed by severe accident guidelines.

Safeguards: NPT non-proliferation, IAEA Comprehensive Safeguards Agreement, Additional Protocol for strengthened verification.

Material balance areas and IAEA inspection goals: significant quantity of Pu is 8 kg, of HEU is 25 kg U-235.

Nuclear Safety Standards: IAEA GSR Part 4 (design), GSR Part 7 (emergency preparedness), SSR-2/1 (nuclear power plant design).

Egyptian framework: Nuclear Power Plants Authority, Egyptian Nuclear and Radiological Regulatory Authority (ENRRA) established 2010, law 7/2010 on nuclear activities.

Safety culture attributes: leadership commitment, questioning attitude, conservative decision-making, and reporting of near misses.

Air dispersion Gaussian plume model: C = Q/(2π σy σz u) exp(−y²/2σy²)[exp(−(H−z)²/2σz²)+exp(−(H+z)²/2σz²)].

Pasquill-Gifford stability classes A to F define dispersion coefficients; unstable A disperses rapidly, stable F concentrates.

Stack height and exit velocity increase plume rise; Briggs equations estimate buoyant plume rise.

Effluent standards: BOD5, COD, TSS, ammonia, and heavy metals limits set by Egyptian law 4/1994 and its executive regulations.

Wastewater treatment: primary sedimentation, secondary activated sludge (BOD removal), tertiary nutrient removal, disinfection.

Air pollution control: electrostatic precipitators, fabric filters, wet scrubbers, selective catalytic reduction for NOx.

Greenhouse gas accounting: CO2 equivalent using global warming potentials; Scope 1 direct, Scope 2 purchased energy, Scope 3 value chain.

Environmental impact assessment required before licensing major industrial and nuclear facilities; public consultation is mandatory.

ASME Boiler and Pressure Vessel Code Section VIII for pressure vessels; Section I for power boilers; B31.3 for process piping.

API 610 for centrifugal pumps, API 650 for welded storage tanks, API 520/521 for pressure relief.

IEC 61511 for safety instrumented systems; IEC 61508 for functional safety of E/E/PE systems.

Egyptian code: Law 66/1974 and its executive regulations govern engineering practice and syndicate registration.

Egyptian Organization for Standardization and Quality (EOS) adopts many ISO and IEC standards as Egyptian standards.

Nuclear-specific: IAEA safety standards, ASME Section III for nuclear components, and 10 CFR Part 50/52 as international reference.

Environmental law 4/1994 amended by law 9/2009 sets emission and effluent limits and Egyptian Environmental Affairs Agency (EEAA) oversight.

Fire protection: NFPA codes and Egyptian Civil Protection requirements for industrial and nuclear facilities.

Earned value management: CV = EV − AC, SV = EV − PV, CPI = EV/AC, SPI = EV/PV; CPI below 1 means cost overrun.

Critical path method: longest path through the network determines minimum project duration; float = late start − early start.

Cost estimating classes per AACE: Class 5 (−30%/+50%) at concept, Class 1 (−10%/+15%) at detailed design.

Cash flow analysis uses net present value, internal rate of return, and payback period to rank project alternatives.

Risk register: probability × impact scoring; mitigation strategies avoid, transfer, reduce, accept.

Engineering ethics: paramount duty to public safety and health, competence limits, disclosure of conflicts of interest, and confidentiality.

Egyptian Syndicate of Engineers code of ethics requires reporting unsafe practices and prohibits falsifying test data or design calculations.

Change management: formal change order with cost and schedule impact before execution; uncontrolled scope creep erodes margins.

Binding energy per nucleon peaks near Fe-56; fission and fusion release energy because products are more tightly bound.

Neutron cross sections: absorption, scattering, and fission; thermal cross section of U-235 is about 585 barns, U-238 about 2.7 barns.

Moderation: light water slows neutrons via elastic scattering; heavy water and graphite reduce parasitic absorption.

Reactor control via control rods (B, Cd, Hf) and soluble boron; negative temperature coefficient provides inherent stability.

Radiation protection: time, distance, shielding; dose rate from a point source falls as 1/r².

Shielding: half-value layer HVL = ln2/μ; lead, concrete, and water are common gamma and neutron shields.

Radiation detection: Geiger-Muller for survey, scintillation for spectroscopy, ionization chambers for dose rate.

Criticality safety: keep keff below 0.95 by geometry, mass, moderation, and absorption controls.

Milling produces yellowcake (U3O8); conversion produces UF6 suitable for enrichment; enrichment raises U-235 fraction.

Fuel fabrication for PWR uses UO2 pellets in Zircaloy cladding assembled into 17×17 arrays.

Spent fuel burnup measured in GWd/tU; typical PWR discharge burnup 45 to 60 GWd/tU.

Reprocessing PUREX: tributyl phosphate in kerosene extracts U and Pu from nitric acid solution.

High-level waste immobilization in borosilicate glass, stored in stainless steel canisters, then geological repository.

Low and intermediate level waste: cementation, bituminization, or supercompaction in concrete or steel containers.

Decommissioning cost estimate uses bottom-up activity-based method; major cost drivers are waste volume and dose.

Radiological characterization before dismantling uses gamma scanning, smears, and sampling for nuclide inventory.

Safety analysis report (SAR) is the licensing basis document; it includes accident analysis, PSA, and operational limits.

Probabilistic safety assessment: core damage frequency target below 10⁻⁴ per reactor-year for new designs.

Deterministic safety analysis uses conservative assumptions; best-estimate plus uncertainty methods (BEPU) increasingly accepted.

IAEA safeguards: state-level concept, integrated safeguards, and complementary access under Additional Protocol.

Export control: Nuclear Suppliers Group guidelines and national laws restrict transfer of sensitive nuclear technology.

Emergency planning zones: plume exposure pathway about 10 km, ingestion pathway about 50 km for planning purposes.

Egyptian regulatory authority ENRRA licenses siting, construction, operation, and decommissioning of nuclear facilities.

Safety culture assessment uses IAEA safety culture characteristics and perception surveys.

Air quality standards: Egyptian law 4/1994 sets ambient limits for SO2, NOx, PM10, CO, and O3.

Emission monitoring: continuous emission monitoring systems (CEMS) for stacks; periodic sampling for dioxins and heavy metals.

Water quality: BOD, COD, TSS, DO, and heavy metals; industrial effluent must meet Egyptian law 4/1994 limits before discharge.

Wastewater treatment design: activated sludge SRT controls nitrification; hydraulic retention time and sludge age determine performance.

Solid waste management: reduce, reuse, recycle, recovery, and disposal hierarchy; hazardous waste requires licensed facilities.

Environmental impact assessment (EIA) categories A, B, C in Egypt; category C requires full EIA and public consultation.

Greenhouse gas reporting: scope 1, 2, 3 emissions; CO2 equivalent using IPCC global warming potentials.

Radioactive effluent control: ALARA, hold-up tanks, filtration, and monitoring before discharge to environment.

Egyptian law 7/2010 establishes the nuclear regulatory framework and creates ENRRA as the independent regulator.

Law 4/1994 (amended by 9/2009) sets environmental protection requirements and EEAA oversight.

Law 66/1974 regulates engineering practice and syndicate registration for Egyptian engineers.

ASME Section III and IAEA SSR-2/1 govern nuclear pressure boundary and plant design.

IEC 61513 for nuclear instrumentation and control systems; IEC 61226 for I&C safety classification.

ISO 9001 quality management; ISO 14001 environmental management; ISO 45001 occupational safety.

Fire protection: NFPA 801 for nuclear facilities and Egyptian Civil Protection code for industrial plants.

Egyptian standard ES 6036 and related EOS standards adopt international codes for pressure equipment and piping.

Work breakdown structure decomposes scope into manageable packages; each package has clear deliverable and owner.

Earned value metrics: CPI = EV/AC, SPI = EV/PV; TCPI = (BAC − EV)/(BAC − AC) measures required efficiency to finish.

Risk management process: identify, analyze, plan response, monitor and control; risk register is the central tool.

Cost estimate accuracy improves with project maturity; AACE Class 5 to Class 1 from concept to detailed design.

Contract types: lump sum, unit price, cost plus; risk allocation differs and affects contingency.

Engineering ethics: hold public safety paramount, practice within competence, disclose conflicts, avoid bribery, and maintain confidentiality.

Egyptian Syndicate of Engineers code requires reporting unsafe conditions and prohibits falsifying design or test records.

Lessons learned and post-project reviews feed continuous improvement and future estimating accuracy.

Activity coefficient models: Margules, van Laar, NRTL, UNIQUAC, UNIFAC for non-ideal liquid mixtures.

Fugacity coefficient from equation of state: ln φ = ∫(Z − 1) dP/P from 0 to P at constant T and composition.

Heat capacity polynomials Cp = a + bT + cT² + dT³ used to integrate enthalpy changes.

Chemical equilibrium constant K = exp(−ΔG°/RT); Kp expressed in partial pressures for gas reactions.

Adiabatic flame temperature calculated by energy balance with dissociation neglected in first approximation.

Second law efficiency = actual work/minimum work for separation processes; distillation efficiency typically 5 to 20%.

Thermodynamic consistency of VLE data tested by Gibbs-Duhem equation and area test.

Equation of state: Peng-Robinson and Soave-Redlich-Kwong for hydrocarbons; virial for low pressure.

Liquid-liquid extraction: distribution coefficient K = y/x; extraction factor E = K V/L; Kremser equation for stages.

Adsorption: Langmuir isotherm q = qm K C/(1 + K C); Freundlich q = K C^(1/n); breakthrough curves size beds.

Crystallization: supersaturation drives nucleation and growth; population balance models size distribution.

Fluidization: minimum fluidization velocity from Ergun equation balance of drag and weight.

Pump and system curves intersect at operating point; NPSH available must exceed NPSH required to avoid cavitation.

Compressors: isentropic efficiency compares actual to ideal work; intercooling reduces total work.

Size reduction: Bond work index W = 10 Wi (1/√P80 − 1/√F80) for ball mill power.

Sedimentation: batch settling test gives design overflow rate for clarifiers.

Multiple reactions: instantaneous selectivity depends on rate ratio; for parallel reactions A→D (desired) and A→U, selectivity = k1 CA^(a1−a2)/k2 when rates differ in order.

Reversible reactions: equilibrium conversion from K = (XD²)/((1−X)²) for A ↔ D with equal feed.

Reactor stability: heat generation vs removal curves; ignition and extinction points define runaway boundaries.

Semi-batch reactors used for exothermic reactions to control heat release; dosing rate limits accumulation.

Catalyst deactivation: fouling, poisoning, and sintering; activity decay modeled as exponential in time or coke.

Fixed bed reactor pressure drop by Ergun equation; particle size trade-off between pressure drop and effectiveness.

Fluidized bed reactors provide near-isothermal operation and continuous catalyst regeneration.

Reactor scale-up: maintain constant power per unit volume, tip speed, or mixing time depending on controlling mechanism.

HAZOP team composition: facilitator, scribe, process engineer, operations, maintenance, and safety specialist.

Risk matrix: likelihood × severity; ALARP region requires demonstration that risk is as low as reasonably practicable.

Inherent safety principles: minimize, substitute, moderate, simplify; apply at earliest design stage.

Safety instrumented function: sensor, logic solver, final element; PFDavg from component failure rates and proof test interval.

Fire and explosion: vapor cloud explosion requires confinement or congestion; deflagration to detonation transition possible.

Dust explosion: Kst and Pmax from 20 L sphere test; explosion venting per NFPA 68.

Emergency response: evacuation, shelter-in-place, and mutual aid; drills validate plans.

Incident investigation: root cause analysis using 5-why, fishbone, or fault tree; findings feed management of change.

Neutron life cycle: fast fission, resonance escape, thermal utilization, reproduction factor; leakage reduces keff.

Reactivity feedback: Doppler broadening of U-238 resonances gives prompt negative fuel temperature coefficient.

Moderator temperature coefficient negative in PWR; void coefficient negative in PWR, positive in RBMK-type graphite reactors.

Decay heat after shutdown about 6 to 7% of full power at t=0, falling to about 1% at one hour.

Radiation interactions: photoelectric, Compton, pair production for gamma; elastic and inelastic scattering for neutrons.

Dose conversion: 1 Gy = 1 J/kg; for gamma and beta wR = 1; for alpha wR = 20; for neutrons energy dependent.

Shielding design uses buildup factor B to account for scattered photons: D = D0 B exp(−μx).

Contamination control: protective clothing, respiratory protection, and contamination surveys with wipe tests.

Uranium mining methods: open pit, underground, and in-situ leaching; ISL uses acid or alkaline lixiviant.

Conversion: U3O8 to UF6 via hydrofluorination and fluorination; UF6 is volatile for enrichment.

Enrichment technologies: gas diffusion (obsolete), gas centrifuge (dominant), laser isotope separation (emerging).

Fuel assembly design: PWR 17×17, BWR 8×8 or 9×9; burnable poisons like gadolinia control reactivity.

Spent fuel storage: wet pool for initial cooling, then dry cask storage after several years.

Reprocessing waste: fission products and minor actinides in high-level liquid waste, vitrified for disposal.

Decommissioning planning starts at design stage; cost estimate includes waste management and site restoration.

Clearance of materials: measurement against clearance levels, then release or recycle.

Safety functions: control reactivity, remove heat, confine radioactivity; three fundamental safety functions.

Defense in depth barriers: fuel matrix, cladding, primary boundary, containment, and exclusion zone.

Design basis accident examples: LOCA, loss of feedwater, steam line break, and control rod ejection.

Severe accident phenomena: core melt, hydrogen generation, containment failure modes, and fission product release.

Safety culture: IAEA INSAG-4 and INSAG-15 characteristics; leadership, personal accountability, and learning.

Safeguards: nuclear material accounting, containment and surveillance, and environmental sampling.

Regulatory inspection: planned and reactive; enforcement actions include warning, suspension, and license modification.

Emergency preparedness: drills, exercises, and coordination with offsite authorities.

Air pollution control: cyclones for coarse particles, ESP for fine particles, baghouse for high efficiency, scrubber for acid gases.

NOx control: low-NOx burners, overfire air, selective non-catalytic reduction, selective catalytic reduction.

SO2 control: wet flue gas desulfurization with limestone slurry; efficiency above 95%.

Wastewater: preliminary, primary, secondary, tertiary treatment; disinfection by chlorination or UV.

Sludge treatment: thickening, dewatering, digestion, and disposal; land application or incineration.

Environmental monitoring: ambient air, stack emissions, effluent, groundwater, and soil sampling programs.

Environmental management system ISO 14001: policy, planning, implementation, checking, and management review.

Radioactive effluent: hold-up, filtration, ion exchange, and monitoring before authorized discharge.

ASME B31.1 power piping, B31.3 process piping, B31.4 liquid pipeline, B31.8 gas pipeline.

API 579 fitness-for-service assessment of pressure equipment with flaws.

IEC 60079 for electrical equipment in explosive atmospheres; ATEX directives in Europe.

Egyptian standard ES 6036 for pressure vessels; EOS adopts ISO and IEC standards.

Law 7/2010 nuclear law; ENRRA regulations cover siting, design, operation, and waste management.

Law 4/1994 environmental law; EEAA enforces emission and effluent limits.

Law 66/1974 engineering practice law; Egyptian Syndicate of Engineers registers practitioners.

IAEA safety standards: GSR Part 1 governmental, GSR Part 2 leadership, GSR Part 3 radiation protection, GSR Part 4 design, GSR Part 7 emergency preparedness.

Project phases: initiation, planning, execution, monitoring and control, closure.

Schedule compression: crashing adds cost, fast tracking adds risk; use selectively.

Cost control: budget at completion, estimate at completion, variance analysis.

Procurement: tendering, bid evaluation, contract award, and vendor management.

Quality management: quality planning, assurance, and control; inspections and test plans.

Stakeholder management: identify, analyze, and engage stakeholders throughout project life cycle.

Engineering ethics: professional responsibility, competence, integrity, confidentiality, and public safety.

Egyptian Syndicate of Engineers: continuing professional development and code of conduct enforcement.

Reactor types: PWR, BWR, PHWR, AGR, RBMK, fast breeder; each has different moderator and coolant.

PWR primary loop at about 155 bar and 300 °C; steam generator produces saturated steam at about 60 bar.

Reactivity control: control rods, soluble boron, burnable poisons; shutdown margin required.

Reactor kinetics: inhour equation relates reactivity to reactor period for multi-group delayed neutrons.

Radiation units: becquerel (Bq) for activity, gray for absorbed dose, sievert for equivalent dose.

Dose limits: occupational 20 mSv/y, public 1 mSv/y, lens of eye 20 mSv/y, extremities 500 mSv/y.

Shielding materials: lead for gamma, polyethylene or water for neutrons, concrete for both.

Radiation monitoring: area monitors, personal dosimeters, contamination monitors, and air samplers.

Fuel cycle options: once-through, thermal recycle (MOX), fast reactor recycle with minor actinides.

MOX fuel: mixed uranium-plutonium oxide; used in PWR and fast reactors.

Partitioning and transmutation reduce long-lived minor actinides; advanced reprocessing (UREX, PUREX variants).

Waste acceptance criteria: package performance, radionuclide inventory, and long-term stability.

Geological disposal: deep repository in clay, salt, or crystalline rock; multiple barrier concept.

Decommissioning: characterization, decontamination, dismantling, waste management, and site release.

Cost estimation: activity-based, includes waste disposal and long-term stewardship.

Regulatory clearance: measurement against clearance levels, documentation, and regulatory approval.

Safety analysis: deterministic and probabilistic; defense in depth; single failure criterion.

PSA: Level 1 core damage, Level 2 containment, Level 3 offsite consequences.

Regulatory body: independent, competent, and adequately resourced; ENRRA in Egypt.

Licensing process: site permit, construction permit, operating license, decommissioning.

Safeguards: comprehensive safeguards agreement, additional protocol, state-level concept.

Export controls: Nuclear Suppliers Group, national legislation, and end-use verification.

Emergency planning: plume and ingestion pathway zones; coordination with civil defense.

Safety culture: leadership, questioning attitude, conservative decision-making, and reporting.

Air quality: ambient standards for SO2, NOx, PM10, CO, O3, lead, and benzene.

Emission limits: Egyptian law 4/1994 sets limits for industrial stacks and fugitive emissions.

Water quality: effluent limits for BOD, COD, TSS, ammonia, oil and grease, heavy metals.

Wastewater treatment: activated sludge, trickling filter, membrane bioreactor, and sequencing batch reactor.

Solid waste: municipal, industrial, hazardous, and radioactive; separate management streams.

EIA: screening, scoping, impact analysis, mitigation, and monitoring plan.

Environmental monitoring: air, water, soil, and biota; baseline and operational monitoring.

Radioactive discharge: authorized limits, monitoring, and reporting to regulator.

Egyptian nuclear law 7/2010: establishes ENRRA, licensing, and liability framework.

Egyptian environmental law 4/1994: EIA, emission limits, and EEAA enforcement.

Egyptian engineering law 66/1974: syndicate registration and professional practice.

ASME Section III: nuclear pressure vessels, piping, and components.

IAEA safety standards: GSR Part 1 to 7, SSR-2/1, SSR-2/2.

IEC 61513: nuclear I&C systems; IEC 61226: safety classification.

ISO 9001, 14001, 45001: quality, environmental, and occupational safety management.

NFPA 801: fire protection for nuclear facilities.

Project management: scope, schedule, cost, quality, risk, communication, and stakeholder management.

Earned value: CPI, SPI, EAC, ETC, VAC, TCPI.

Cost estimating: AACE classes, accuracy ranges, and contingency.

Risk management: identification, analysis, response planning, and monitoring.

Contract types: lump sum, unit price, cost plus, and target cost.

Engineering ethics: public safety, competence, integrity, confidentiality, and conflict of interest.

Egyptian Syndicate of Engineers code: professional conduct and disciplinary procedures.

Lessons learned: capture, share, and apply to future projects.