PHYS1003 Physics 1 (Technological)
The Complete Exam Bible · S2 2026PHYS1003 Overview
- ['Offering', 'Semester 2, 2026']
- ['Credit points', '6']
- ['Final examination', '40% and compulsory']
- ['Assessment total', '100%']
PHYS1003 is a 6-credit-point University of Sydney unit of study offered in Semester 2, 2026. Its current materials organise technological physics around electricity and magnetism, fluids and quantum physics, while laboratories develop measurement, circuits, investigation and data-analysis skills.
The curriculum moves from Electric Charge through Faraday's Law to Stationary State.
- Three-module route The current outline and topic map move through electricity and magnetism, fluids and quantum physics.
- Final examination control The published final examination is compulsory and worth 40%.
- Laboratory control The official assessment summary requires all listed laboratory competencies to pass the laboratory component.
- Discussion and engagement controls The 65% attendance threshold controls full marks in the 5% engagement component; published pass controls separately govern the final, discussions and laboratory competencies.
How PHYS1003 is assessed
| Component | Weight | Format |
|---|---|---|
| Final examination · hurdle | 40% | Pen-and-paper examination; compulsory |
| Tutorial discussion · hurdle | 0% | Two problem-solving discussions; completion control |
| Mastering Physics assignments | 4% | Six online assignments; best five count |
| Laboratory competencies · hurdle | 0% | All listed competencies required for the laboratory component |
| Week 3 quiz | 1% | Early feedback task |
| Lab test | 25% | Practical and written laboratory-skills test |
| Mid-semester test | 25% | Pen-and-paper lecture-material test |
| Tutorial and lecture engagement | 5% | Weekly participation and timely engagement |
All current weights and pass controls come from the exact 2026 Semester 2 outline captured on 22 August 2026. For the 5% engagement component, minimum attendance of 65% is required to obtain full attendance marks. The archived 2022 formula sheet is used only for stable concept equations and never for current assessment facts.
Current PHYS1003 dates
| Date | Item | Control |
|---|---|---|
| 21 August 2026 at 23:59 | Week 3 quiz due | Exact date in the captured current outline; confirm the live Canvas task before acting. |
| 31 August 2026 | Census date | Exact date in the captured current outline. |
Current-offering dates captured in the official Semester 2 2026 unit outline (captured 22 August 2026) — verify current dates in Canvas. Confirm changes and exact submission settings in the live LMS.
What PHYS1003 covers
Twelve source-led chapters following the current electric, fluid and quantum sequence.
Electric Charge, Force and Field
Resolve vector direction before combining Coulomb interactions02Electric Flux and Gauss's Law
Exploit symmetry without assuming a uniform field prematurely03Electric Potential and Equipotentials
Translate scalar potential differences into field and work claims04Capacitance, Dielectrics and Stored Energy
Separate geometry, charge, voltage and energy in capacitor networks05Current, Resistance and Direct-Current Circuits
Apply conservation at junctions and energy balance around loops06Magnetic Fields, Forces and Charged Motion
Use cross products to connect force direction with circular motion07Electromagnetic Induction and Inductance
Track flux change, induced direction and magnetic energy08Fluid Statics and Pressure
Relate pressure gradients and buoyancy to force balance09Fluid Flow, Bernoulli and Viscosity
Join conservation of mass to energy and dissipation models10Photons, Photoelectric Effect and Spectra
Connect frequency, quanta and threshold behaviour11Wave-Particle Duality and Uncertainty
Translate momentum into wavelength and localisation limits12Wavefunctions, Quantisation and the Atom
Use boundary conditions and probability to interpret stationary statesIn Physics 1 (Technological), that sequence matters because early definitions are repeatedly tested against later cases, assessment modes and competing explanations.
The exact 2026 Semester 2 Unit of Study Outline lists a 40% final examination, 0% tutorial discussions, 4% Mastering Physics assignments, 0% laboratory competencies, a 1% Week 3 quiz, a 25% lab test, a 25% mid-semester test and 5% tutorial and lecture engagement.
The final examination is compulsory and not sitting it produces an AF grade.
The assessment summary separately requires all listed laboratory competencies and both tutorial discussions; those completion controls must not be replaced by an invented minimum numerical mark.
For the 5% engagement component, minimum attendance of 65% is required to obtain full attendance marks; use the live outline and Canvas for course-progression rules.
The central reasoning challenge is selecting a model whose assumptions match the system, preserving vector and sign conventions, carrying units through the algebra and checking whether the result behaves correctly in a limiting case.
Work in Physics 1 (Technological) must distinguish a source-supported fact from an inference, show how the selected concept changes the reading, and preserve uncertainty where the evidence does not decide the issue.
A productive route through Physics 1 (Technological) starts by retrieving the chapter's key concepts, then applies them to a changed case before returning to the source.
For PHYS1003, this order exposes missing links more reliably than rereading the same page until it feels familiar.
For each Physics 1 (Technological) chapter, keep an evidence ledger with the claim, the supporting observation, the explanatory move and the stated boundary.
In quantitative-physics work, the ledger prevents a fluent description from being presented as a completed argument.
The PHYS1003 worked practices are original learning exercises.
They do not reproduce institutional questions; their role is to rehearse the reasoning needed for secure tests, laboratory competency, recurring online problem sets and a compulsory final examination while keeping official administration under the live university system.
The assessment map below should be read with the current source note: All current weights and pass controls come from the exact 2026 Semester 2 outline captured on 22 August 2026. For the 5% engagement component, minimum attendance of 65% is required to obtain full attendance marks.
The archived 2022 formula sheet is used only for stable concept equations and never for current assessment facts. Any later change in the The University of Sydney live system controls over this study resource.
Study across the Physics 1 (Technological) topic map rather than treating chapters as isolated summaries.
Connections between Electric Charge, Faraday's Law and Stationary State are where comparison, synthesis and transfer become visible.
Audit a two-loop direct-current circuit
- 3Fix the relevant meaning of Electric Current for the supplied material.
- 3Connect the evidence to the claim through Resistance.
- 3Test the preferred interpretation against Kirchhoff Rules.
- 3State a bounded conclusion in the required quantitative-physics form.
Key terms
- Electric Charge
- A conserved signed property of matter that determines electric interaction.
- Electric Flux
- The oriented surface integral of electric field through an area.
- Electric Potential
- Potential energy per unit charge relative to a chosen reference.
- Capacitance
- The ratio of stored charge magnitude to potential difference for a capacitor configuration.
- Electric Current
- Rate at which charge crosses a selected surface.
- Magnetic Field
- A vector field that contributes a velocity-dependent force on charge and a force on current.
- Magnetic Flux
- The oriented surface integral of magnetic field through a chosen surface.
- Pressure
- Normal force per unit area at a location in a fluid.
- Volume Flow Rate
- Volume crossing a section per unit time.
- Photon Energy
- The discrete electromagnetic energy associated with a photon of frequency f.
- De Broglie Wavelength
- The wavelength h divided by particle momentum in the de Broglie relation.
- Wavefunction
- A complex probability amplitude whose squared magnitude determines position probability density.
PHYS1003 FAQ
For this physics model, which pass conditions and AF-grade controls are published?
The captured outline makes the final examination compulsory and states that both tutorial discussions must be completed. It also requires all listed competencies to pass the laboratory component. For the 5% engagement component, minimum attendance of 65% is required to obtain full attendance marks. Check the live outline and Canvas before applying that threshold to any other decision.
For this physics model, how should a vector answer be checked?
Draw the direction before calculating, preserve the coordinate convention, inspect units and test a symmetry or limiting case. A plausible magnitude cannot repair a reversed cross product or an inconsistent sign.
For this physics model, when is Gauss's law useful for finding a field?
The law is general, but isolating a field magnitude requires enough symmetry that the field has a controlled direction and magnitude on the chosen surface. State that symmetry before simplifying the integral.
For this physics model, why do circuit signs seem to disagree?
The equations reflect the assumed current directions and loop orientation. Keep those assumptions fixed; a negative solution reports that the physical direction is opposite rather than invalidating the conservation law.
For this physics model, when may Bernoulli's relation be used?
First test the steady, incompressible, nonviscous and streamline assumptions and identify pumps or losses. Continuity may remain valid even when the simplest Bernoulli form does not.
For this physics model, what does a wavefunction mean physically?
The wavefunction is a probability amplitude. Position probability density comes from its squared magnitude, and the physical state must satisfy the boundary and normalisation conditions.
For this physics model, how should the compulsory final be prepared for?
Practise model selection, symbolic setup, unit checks and limiting cases before substituting values. Verify the live timetable and permitted materials because those operational facts are not fixed by this guide.
For this physics model, how is the archived formula sheet used here?
Use it only as an archived source for stable concept equations. The exact 2026 Semester 2 outline and live Canvas instructions control current assessment facts and permitted materials.
How to study for the exam
For each chapter, build a four-line solution skeleton: diagram and assumptions, governing equation, symbolic rearrangement with units, and an independent limiting or conservation check. Mix field, circuit, fluid and quantum prompts so model selection is practised rather than cued by chapter order.
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