Ingénieur ITPE - independent mathematics, physics and infrastructure foundations study materials
Ingénieur ITPE - independent mathematics, physics and infrastructure foundations study resources

Ingénieur ITPE - independent mathematics, physics and infrastructure foundations cheat sheet

Ingénieur ITPE - independent mathematics, physics and infrastructure foundations · Keep the key ideas within reach.

Quick reference

Advanced analysis, convergence and multivariable reasoning

  • Control quantifiers and the domain in pointwise versus uniform convergence.

  • Verify hypotheses before exchanging limits, integrals or derivatives.

  • A positive Hessian direction rules out a local maximum.

  • Theorem normalizations, constraints and topology cannot be omitted.

Quick reference

Inner products, spectral reasoning and matrix structure

  • Distinguish similarity of maps from congruence of forms.

  • Projection coefficients follow residual orthogonality and the actual Gram matrix.

  • Repeated eigenvalues do not automatically imply diagonalizability.

  • Norm-spectral-radius equality is not an if-and-only-if test for normality.

Quick reference

Advanced probability, moments and conditional models

  • Include covariance in the variance of a linear combination.

  • Independence is stronger than zero covariance.

  • Bounds are not exact probabilities.

  • Limit, testing and interval conclusions require their stated assumptions.

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Analytical mechanics, oscillation and model reduction

  • Define coordinates, frames, constraints and the system boundary.

  • Small-oscillation frequencies depend on mass as well as stiffness.

  • Momentum and kinetic-energy conservation have different conditions.

  • Fluid and rotating-frame formulas require their actual hypotheses.

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Electromagnetic fields, thermal physics and wave models

  • Use geometry and boundary conditions, not symmetry by assertion.

  • An ideal magnetic force changes direction without doing work.

  • Reversible adiabatic and arbitrary adiabatic processes are different.

  • Thermal efficiency limits use absolute temperature and stated reservoir assumptions.

Quick reference

Geotechnical engineering models and applications

  • Effective stress equals total stress minus pore pressure

  • Use buoyant unit weight below the water table

  • Drained versus undrained strength depends on loading rate and permeability

  • USCS classification depends on grain size and plasticity

  • Active, at-rest, and passive earth pressures are distinct conditions

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Water Resources and Environmental engineering models and applications

  • Use the correct rational-method unit conversion and an appropriate stated rainfall-intensity duration.

  • Manning's equation uses hydraulic radius A/P, not flow depth

  • Partial-full circular pipe flow can exceed full-flow velocity

  • Removal efficiency compares influent and effluent concentrations

  • Time of concentration sets the rainfall intensity duration

Quick reference

Construction engineering models and applications

  • Total float preserves the stated project finish; free float preserves successor early starts.

  • Bank, loose, and compacted volumes use swell and shrinkage separately

  • Critical path can shift after logic or duration changes

  • Crane capacity must be checked at the actual operating radius

  • Unit-price contracts pay by measured quantity; lump-sum pays for the scope

Quick reference

Ecology and Environmental Science

  • Logistic growth includes carrying capacity K; exponential growth does not.

  • Energy flows through ecosystems; 10 percent trophic transfer is an illustrative approximation, not a universal efficiency.

  • Most organisms require fixed nitrogen; phosphorus lacks a major atmospheric reservoir in the standard school-cycle model.

  • Mark–recapture: N = (marked first × total second) ÷ marked second.

  • Primary succession starts on bare rock; secondary succession starts where soil remains.