University of Auckland Bachelor of Engineering Honours

University of Auckland · Faculty of Engineering and Design · Auckland, New Zealand
  • On campus
  • English
  • City Campus
43 min read · Published on August 30, 2026 · Updated on August 30, 2026
Minimum-funds four-year planINR 1.89 crore

Tuition, visa funds and latest annual charges for four years.

2027 tuitionNZD 60,909.60

standard 120-point year

India entry85% or 88%

board group decides

Duration4 years

480 total points

S1 deadline8 Dec 2026

March 2027 start

EnglishIELTS 6.5

no band below 6.0

Specialisations10 routes

allocated after Part I

What is the University of Auckland Bachelor of Engineering Honours?

The University of Auckland Bachelor of Engineering Honours is a four-year, 480-point degree at NZQF Level 8. Indian school leavers enter one common Part I before applying for a specialisation. The official 2027 fee table estimates a standard year at NZD 60,909.60, about INR 34.61 lakh.

The 2027 structure offers ten specialisations across Parts II to IV. The published 2027 cycle starts on 1 March 2027 and closes standard international applications on 8 December 2026. The 2027 Student Services Fee and Studentsafe premium weren’t available when checked, so the cost model uses the latest published annual references.

How much does the University of Auckland BE(Hons) cost for an Indian student?

The minimum-funds four-year plan is NZD 332,615.60, about INR 1.89 crore. It holds the 2027 tuition rate flat, uses Immigration New Zealand’s annual living-funds floor, and repeats the latest services and insurance charges because their 2027 amounts weren’t published when checked.

ItemINRLocal currencyWhen it is due
Tuition held at the 2027 rateINR 1.38 croreNZD 243,638.40Four years at NZD 60,909.60
Immigration living-funds floorINR 45.46 lakhNZD 80,000NZD 20,000 for each study year
Latest Student Services Fee referenceINR 2.57 lakhNZD 4,531.20Four years at the 2026 rate
Latest Studentsafe premium referenceINR 2.04 lakhNZD 3,596Four years at the 2026 rate
Current Fee Paying Student VisaINR 48,297NZD 850One application at the current fee
Minimum-funds four-year planINR 1.89 croreNZD 332,615.60Across four years at the stated inputs

The NZD 20,000 annual amount is evidence of living funds, not a fee paid to the University or Immigration New Zealand. The applicant also needs outward-travel funds. Converted at NZD 1 = INR 56.82 using the Reserve Bank of New Zealand reference release on 27 August 2026. Tuition increases, actual living costs above the visa floor, outward travel funds, flights, housing deposits, books, a laptop, workshop costs, practical-work travel and bank spreads are excluded.

The University publishes NZD 60,909.60 for a full-time 120-point Engineering year in 2027. Multiplying that estimate by four gives NZD 243,638.40. Later invoices can be higher because tuition is charged by the courses and points taken, and the University hasn’t frozen the 2027 rate for the whole degree.

The 2027 Compulsory Student Services Fee was still due to be set in late 2026. The latest annual reference is NZD 1,132.80 for 120 points. Repeating it four times keeps the calculation visible, but it doesn’t claim that the charge will remain unchanged.

International students need compliant health and travel insurance. Studentsafe is applied unless an approved alternative is accepted. The latest published annual premium in the research set is NZD 899, and the 2027 premium wasn’t yet available.

Immigration New Zealand currently requires NZD 20,000 in living funds for each tertiary-study year plus outward travel funds. This amount tests the visa file. It isn’t a University estimate of rent, food and transport in Auckland, so actual household spending can be higher.

The model uses one student visa fee because a Fee Paying Student Visa can cover up to four years, subject to payment period and passport validity. A shorter first visa, passport expiry or a changed study plan can create another application and another fee.

The India High Achievers Scholarship can contribute up to NZD 20,000 to eligible new Indian international students, but it is competitive and partial. No scholarship has been subtracted from the plan. Reduce the budget only after the award appears in writing.

Immigration New Zealand states the funding rule directly

“You must have enough money to live on while you are in New Zealand, or have an acceptable sponsor.”Immigration New Zealand, Fee Paying Student Visa

This isn’t a second fee. It is the evidence rule behind the study budget, and it doesn’t guarantee visa approval.

What does an Indian student need for the University of Auckland BE(Hons)?

The entry threshold depends on the Indian board group, with the same high score required in Physics and Mathematics. Clearing Class XII entry admits you to common Part I only. A second academic decision after Part I allocates one of ten specialisations according to prerequisites, results and available places.

RequirementPublished ruleWhat you do
ISC, AISSC and named State Boards (India)85% overall, 85% Physics and 85% MathematicsUse this row for ISC, AISSC, Maharashtra, Karnataka or West Bengal
Other State Boards (India)88% overall, 88% Physics and 88% MathematicsUse the higher row when your board is outside the named group
Best-four calculation (India)Best four academic subjects, excluding local language and non-academic subjectsMark the four subjects that produce the University calculation
English mark in entry table (India)At least 70% for the named group or 75% for other State BoardsCheck this academic English row separately from proficiency
Class XII English route (India)75% for the named group or 85% for other State BoardsUse the higher proficiency mark or submit a test
IELTS Academic (India)6.5 overall with no band below 6.0Keep every band at 6.0 or above
International Baccalaureate32 points with Mathematics and Physics at Higher LevelConfirm both Higher Level subjects on the transcript
GCE or Cambridge InternationalBBB with Mathematics and PhysicsSubmit the complete subject and grade record
Overseas tertiary routeOne successful bachelor-level year, GPE 5.0, sound calculus and physicsSubmit the transcript, grading scale and course details
Part II completion floorAt least 90 Part I points including ENGSCI 111, plus ENGGEN 199 and ACADINT A01Plan to complete all 120 points before allocation
Chemical and Materials prerequisiteCHEMMAT 121Pass Materials Science before seeking the route
Computer Systems and Electrical prerequisiteELECTENG 101Pass Electrical and Digital Systems before seeking either route
Civil, Mechanical, Mechatronics and Structural prerequisiteENGGEN 121Pass Engineering Mechanics before seeking these routes
Biomedical, Engineering Science and Software prerequisiteENGGEN 131Pass Engineering Computation and Software Development before seeking these routes
Professional accreditationAll ten routes currently accredited, next reviews scheduled for 2027Recheck the Engineering New Zealand register after the review
Indian equivalenceUGC assesses foreign qualifications case by caseSeek a written equivalence decision when an Indian authority requires it

The named Indian group includes the Indian School Certificate, All India Senior School Certificate, Maharashtra, Karnataka and West Bengal boards. Every other Indian Higher Secondary State Board follows the higher 88 percent route. Offers remain subject to available places.

The best-four method excludes local languages and non-academic subjects. For example, an applicant shouldn’t average every line on the mark sheet and assume that result controls. Mark the four eligible academic subjects first, then check Physics and Mathematics separately against the same programme threshold.

English is checked twice. The lower entry-table English mark forms part of the school qualification. The higher approved Class XII English mark can replace an external proficiency test. IELTS remains available at 6.5 overall with no band below 6.0.

Allocation begins near the end of Part I. For 2027, preference selection runs from 12 October to 27 November 2026. WTR grades count in the selection GPA and General Education does not. Minimum completion makes a student eligible for allocation, while academic results and capacity still decide the preferred route.

The official page contains a specialisation-count error. It says eleven in one sentence, then lists ten. The 2027 Catalogue and Engineering New Zealand register confirm ten. Engineering General describes the common first year and is not a final specialisation.

Engineering New Zealand currently accredits all ten specialisations, with the next review scheduled for 2027. That status supports the educational foundation for professional engineering. Chartered Professional Engineer registration later requires a separate competence assessment and continuing reassessment.

NBA India describes the Washington Accord as substantial equivalence of accredited engineering education. UGC’s 2025 rules separately assess foreign qualification equivalence through institution status, entry, duration, credits, curriculum and practical training. No automatic University of Auckland BE(Hons) equivalence order was found.

Four decisions that can change an Indian application

  1. An 85 percent overall result is not enough by itself

    The named-board row also requires 85 percent in Physics and 85 percent in Mathematics. Other State Boards use 88 percent for all three measures. The University calculates the overall result from the best four academic subjects.
  2. Class XII English and English proficiency use different marks

    The entry table asks for at least 70 or 75 percent in English, while the approved Class XII proficiency route asks for 75 or 85 percent. A student can clear academic entry and still need IELTS or another approved form of proficiency.
  3. Part I admission does not reserve a preferred specialisation

    Students submit preferences after Part I and the faculty applies prerequisites, grades and capacity.
    Meeting the requirements will not guarantee you a place in your preferred specialisation.University of Auckland Faculty of Engineering and Design
  4. Accreditation does not grant automatic Indian equivalence

    Engineering New Zealand accreditation and the Washington Accord concern engineering education. UGC equivalence, an employer’s decision and any professional registration remain separate. Ask the receiving Indian authority for a written decision when the distinction matters.

How should an Indian student apply for the University of Auckland BE(Hons) in 2027?

Apply directly to the University for Semester One, then make a separate student visa application after an offer. The standard international deadline is 8 December 2026 for the 1 March 2027 start. Do not treat the displayed July date as an ordinary direct school-leaver intake without written confirmation.

A school leaver applies for the common BE(Hons), not a named specialisation. The University later owns the Part II preference and allocation process. Immigration New Zealand owns the visa after an offer and funding plan.

The longest dependent task chain needs 74 days. Tasks without dependencies can run in parallel. From 27 August 2026 there are 103 days to the official deadline, leaving 29 days of buffer.

Start byTaskTakesWhy this date
25 Sep 2026Confirm the board route and start7 daysUse one week to match the board group and confirm Semester One rather than assuming direct July entry.
02 Oct 2026Obtain accepted English evidence60 daysAllow 60 days when the Class XII English route is unavailable and a test is needed.
10 Nov 2026Collect school and identity records21 daysAllow three weeks for the passport, final certificate, mark sheets and clear scans.
01 Dec 2026Submit the University application7 daysAllow one week to enter the BE(Hons), upload evidence and review the complete file.

The allowances are Nbyula planning estimates, not processing times published by University of Auckland.

Prepare the complete Class XII record rather than a self-calculated percentage alone. The University needs enough subject detail to apply the best-four method and verify Physics, Mathematics and English against the correct board group.

If the Class XII English proficiency route is unavailable, submit an approved test that meets the programme’s higher 6.5 level. Results need one sitting under the published standard and are valid for two years, so the date must cover the March 2027 start.

The University application names the Bachelor of Engineering Honours. It does not name Mechanical, Software or another final route as the first-year award. Part II preferences come later, after the common-year courses create the academic evidence for allocation.

After any offer, the Fee Paying Student Visa requires tuition, living funds, outward travel, health, character and compliant insurance evidence. Citizens of India applying in South Asia can use only immediate family as an individual sponsor or financial-undertaking provider under the current rule.

The July presentation needs caution. The programme page shows a 19 July 2027 start, but the faculty pathway describes Semester Two movement through selected University of Auckland BSc study. An Indian school leaver should obtain a written route answer before using the July date in an application or visa plan.

Semester Two needs confirmationThe central page gives 8 June 2027 for international Semester Two applications, while faculty material describes selected entry after approved University of Auckland BSc study. Use the earlier date only after the University confirms the route.

What jobs, accreditation and work rights follow the University of Auckland BE(Hons)?

The programme supports engineering, software, systems, project and technical role directions, but the University publishes no current BE(Hons)-specific employment rate, median salary or verified employer list. The strongest outcome evidence is the accredited ten-route structure, the required 800 hours of practical work and current post-study work rules.

MeasureFigureBasis
Programme employment rateNot publishedNo current exact-programme cohort result found
Programme median salaryNot publishedNo exact-programme salary dataset found
Named employer listNot verifiedNo programme-level primary employer evidence found
Practical work800 hours requiredSpecialisation-related work, sign-off and report
AccreditationAll 10 routes currentEngineering New Zealand, reviews scheduled for 2027
CPEng statusNot automaticSeparate competence assessment and six-year reassessment
Student work rightsUp to 25 hours weeklyOnly when written into the student visa
Post-study workUp to 3 yearsCurrent Level 8 rule and overall cap, conditions apply
Indian equivalenceCase by caseNo exact automatic UGC decision found

Accreditation, practical work and a possible work visa do not establish a job, salary, CPEng registration, Indian equivalence or permanent residence.

The University names role directions such as analyst, consultant engineer, hardware or software developer, project manager, quantity surveyor, research and design engineer and systems engineer. These are possible directions across ten specialisations, not proof that every graduate enters one of them.

ENGGEN 499 requires 800 hours of specialisation-related practical work, supervisor sign-off and a formal report. The faculty describes this as about four months and commonly completed over the summer breaks after Parts II and III.

Practical work is a graduation requirement rather than a guaranteed placement. The University warns that incomplete hours or reports can prevent graduation. It also warns that an international student may not receive another student visa simply to finish the requirement after academic study.

Current student visa conditions can allow up to 25 hours of work each week and full-time work in scheduled holidays. Required practical experience can sit outside the ordinary allowance when the course evidence supports it. The exact visa conditions still control.

A completed New Zealand qualification at Level 7 or above studied full time for at least 30 weeks can support Post Study Work Visa eligibility. For this Level 8 degree, the current duration logic reaches the overall three-year cap. A 2027 entrant applies years later, so the rule must be checked again near graduation.

Engineering New Zealand accreditation confirms the educational standard of each current route. CPEng requires later evidence of professional competence, adherence to the Code and reassessment every six years. Accreditation alone does not award the professional title.

Indian portability remains a separate decision. NBA’s Washington Accord account supports educational recognition among signatories. UGC may still require a case-by-case equivalence process for government employment, further study or another purpose, and the receiving authority can ask for its own evidence.

How is the University of Auckland ranked for engineering?

The University reports Civil and Structural Engineering at number 48 in the 2026 QS subject table and the University at number 67 overall in the 2027 QS World University Rankings. The subject result covers one field cluster, while the overall result measures the institution rather than the BE(Hons).

PublisherPositionTable and year
QS#48World University Rankings by Subject 2026, Civil and Structural Engineering
QS#67World University Rankings 2027, overall

Who should apply to the University of Auckland BE(Hons), and who should not?

The strongest fit has high Class XII Physics and Mathematics marks, accepts a common first year before specialisation, can fund four years and will complete practical work early. It is a poor fit for someone who needs a guaranteed named route, depends on part-time earnings or requires automatic Indian equivalence.

VerdictYour backgroundWhy
Strong fitNamed-board applicant with at least 85% overall, Physics and MathematicsThe record meets the published academic thresholds, subject to English and available places.
Strong fitApplicant who wants broad engineering exposure before choosingCommon Part I covers mechanics, mathematics, design, computation, materials and electrical systems.
Strong fitApplicant ready to complete 800 practical-work hours before graduationSummer planning after Parts II and III can protect the final graduation and visa sequence.
Needs evidenceApplicant fixed on one high-demand specialisationThe prerequisite can be met, but grades and capacity still decide allocation.
Needs evidenceApplicant planning to return to India for a formal-equivalence purposeThe degree is accredited, but UGC equivalence remains a separate case-by-case process.
Do not shortlistApplicant needing a guaranteed first-choice specialisationThe University explicitly says minimum requirements do not guarantee the preferred route.
Do not shortlistFamily relying on part-time work to fund the degreeThe minimum-funds plan is about INR 1.89 crore before several material exclusions.

Academic fit means more than a high overall result. Physics and Mathematics each carry the same 85 or 88 percent threshold, and the correct board group changes the number. English then needs its own check.

Learning fit suits a student willing to study a broad common year. The route does not ask an Indian school leaver to commit to one engineering field before seeing first-year mechanics, design, computation, materials and electrical systems at university level.

Allocation tolerance is essential. A student can satisfy the prerequisite for Mechanical or Software and still receive another offer when demand exceeds capacity. Keep at least two acceptable specialisation preferences before committing.

Financial fit needs room above the model. The INR 1.89 crore plan uses the immigration living-funds floor and latest annual charges, while actual Auckland living, tuition increases, travel and practical-work costs remain outside it.

Recognition fit depends on the destination after graduation. New Zealand professional registration follows a later competence process. Indian equivalence can require a UGC or receiving-authority decision even though the degree sits within an accredited Washington Accord system.

What is the complete 2027 University of Auckland BE(Hons) curriculum?

The 480-point 2027 Catalogue structure contains one 120-point common Part I and one 360-point specialisation across Parts II to IV. The table lists every fixed named course and every published elective slot for all ten routes. A zero-point workshop course and ENGGEN 499 practical work remain compulsory even though they add no points.

CodeComponentPointsWhere it sits
ACADINT A01Academic Integrity Course0Common Part I
ENGGEN 199English Language Competency0Common Part I
CHEMMAT 121Materials Science15Common Part I
ELECTENG 101Electrical and Digital Systems15Common Part I
ENGGEN 115Principles of Engineering Design15Common Part I
ENGGEN 121Engineering Mechanics15Common Part I
ENGGEN 131Introduction to Engineering Computation and Software Development15Common Part I
ENGSCI 111Mathematical Modelling 115Common Part I
WTRENG 100Waipapa Taumata Rau, Engineering and Design for the Built Environment in Aotearoa New Zealand15Common Part I
General Education course15All students, Common Part I
ENGGEN 499Practical Work0Programme-wide requirement
BIOMENG 221Mechanics of Engineered and Biological Materials15Biomedical Engineering, Part II
BIOSCI 107Biology for Biomedical Science, Cellular Processes15Biomedical Engineering, Part II
ENGSCI 211Mathematical Modelling 215Biomedical Engineering, Part II
ENGSCI 233Computational Techniques and Computer Systems15Biomedical Engineering, Part II
BIOMENG 241Instrumentation and Design15Biomedical Engineering, Part II
BIOMENG 261Tissue and Biomolecular Engineering15Biomedical Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Biomedical Engineering, Part II
MEDSCI 142Biology for Biomedical Science, Organ Systems15Biomedical Engineering, Part II
BIOMENG 299Workshop Practice0Biomedical Engineering, Part II
BIOMENG 321Continuum Modelling in Bioengineering15Biomedical Engineering, Part III
BIOMENG 341Bioinstrumentation and Design15Biomedical Engineering, Part III
ENGGEN 303Innovation and Business Cases15Biomedical Engineering, Part III
MEDSCI 205The Physiology of Human Organ Systems15Biomedical Engineering, Part III
ENGSCI 314Mathematical Modelling 3ES15Biomedical Engineering, Part III
ENGSCI 331Computational Techniques 215Biomedical Engineering, Part III
MEDSCI 309Biophysics of Nerve and Muscle15Biomedical Engineering, Part III
Elective course15Biomedical Engineering, Part III
ENGSCI 700AResearch Project, Part A15Biomedical Engineering, Part IV
ENGSCI 700BResearch Project, Part B15Biomedical Engineering, Part IV
BIOMENG 791Advanced Biomedical Engineering Design15Biomedical Engineering, Part IV
ENGGEN 403Systems Thinking15Biomedical Engineering, Part IV
Elective course 115Biomedical Engineering, Part IV
Elective course 215Biomedical Engineering, Part IV
Elective course 315Biomedical Engineering, Part IV
Elective course 415Biomedical Engineering, Part IV
CHEMMAT 201Process Engineering 1, Introduction15Chemical and Materials Engineering, Part II
CHEMMAT 204Materials15Chemical and Materials Engineering, Part II
CHEMMAT 206Applied Chemistry15Chemical and Materials Engineering, Part II
ENGSCI 211Mathematical Modelling 215Chemical and Materials Engineering, Part II
CHEMMAT 202Process Engineering 2, Energy and Processing15Chemical and Materials Engineering, Part II
CHEMMAT 203Process Engineering 3, Transfer Processes15Chemical and Materials Engineering, Part II
CHEMMAT 205Process Design 115Chemical and Materials Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Chemical and Materials Engineering, Part II
CHEMMAT 299Workshop Practice0Chemical and Materials Engineering, Part II
CHEMMAT 301Transfer Processes 215Chemical and Materials Engineering, Part III
CHEMMAT 305Materials Processing and Performance15Chemical and Materials Engineering, Part III
CHEMMAT 306Process Design 215Chemical and Materials Engineering, Part III
ENGGEN 303Innovation and Business Cases15Chemical and Materials Engineering, Part III
CHEMMAT 302Advanced Process Engineering15Chemical and Materials Engineering, Part III
CHEMMAT 303Chemical Reactor Engineering15Chemical and Materials Engineering, Part III
ENGSCI 311Mathematical Modelling 315Chemical and Materials Engineering, Part III
Elective course15Chemical and Materials Engineering, Part III
CHEMMAT 750ACapstone Design Project, Part A15Chemical and Materials Engineering, Part IV
CHEMMAT 750BCapstone Design Project, Part B15Chemical and Materials Engineering, Part IV
CHEMMAT 751AResearch Project, Part A15Chemical and Materials Engineering, Part IV
CHEMMAT 751BResearch Project, Part B15Chemical and Materials Engineering, Part IV
CHEMMAT 752Process Dynamics and Control15Chemical and Materials Engineering, Part IV
ENGGEN 403Systems Thinking15Chemical and Materials Engineering, Part IV
Elective course 115Chemical and Materials Engineering, Part IV
Elective course 215Chemical and Materials Engineering, Part IV
CIVIL 202Fluid Mechanics and Pipe Flow15Civil Engineering, Part II
CIVIL 203Transport Design and Geomatics15Civil Engineering, Part II
ENGSCI 211Mathematical Modelling 215Civil Engineering, Part II
STRCTENG 200Introductory Structural Mechanics15Civil Engineering, Part II
CIVIL 200Introduction to Geotechnical Engineering15Civil Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Civil Engineering, Part II
ENVENG 200Fundamentals of Environmental Engineering15Civil Engineering, Part II
STRCTENG 201Civil Engineering Materials and Design15Civil Engineering, Part II
CIVIL 299Workshop Practice0Civil Engineering, Part II
CIVIL 300Geotechnical Engineering15Civil Engineering, Part III
ENGGEN 303Innovation and Business Cases15Civil Engineering, Part III
ENVENG 300Natural and Built Environment Processes15Civil Engineering, Part III
STRCTENG 304Structural Design for Civil Engineers15Civil Engineering, Part III
CIVIL 302Hydrology and Open Channel Flow15Civil Engineering, Part III
CIVIL 303Transport Operations and Pavements15Civil Engineering, Part III
ENGSCI 311Mathematical Modelling 315Civil Engineering, Part III
Elective course15Civil Engineering, Part III
CIVIL 705AResearch Project, Part A15Civil Engineering, Part IV
CIVIL 705BResearch Project, Part B15Civil Engineering, Part IV
CIVIL 790Civil Engineering Administration15Civil Engineering, Part IV
CIVIL 756Capstone Project15Civil Engineering, Part IV
ENGGEN 403Systems Thinking15Civil Engineering, Part IV
CIVIL 791Construction Management15Civil Engineering, Part IV
Elective course 115Civil Engineering, Part IV
Elective course 215Civil Engineering, Part IV
COMPSYS 201Fundamentals of Computer Engineering15Computer Systems Engineering, Part II
ELECTENG 291Fundamentals of Electrical Engineering15Computer Systems Engineering, Part II
ENGSCI 211Mathematical Modelling 215Computer Systems Engineering, Part II
SOFTENG 281Object-Oriented Programming15Computer Systems Engineering, Part II
COMPSYS 209Computer Systems Design15Computer Systems Engineering, Part II
ELECTENG 292Electronics15Computer Systems Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Computer Systems Engineering, Part II
Elective course15Computer Systems Engineering, Part II
COMPSYS 299Workshop Practice0Computer Systems Engineering, Part II
COMPSYS 305Digital Systems Design15Computer Systems Engineering, Part III
ENGGEN 303Innovation and Business Cases15Computer Systems Engineering, Part III
ENGSCI 313Mathematical Modelling 3ECE15Computer Systems Engineering, Part III
Group 2 elective course15Computer Systems Engineering, Part III
COMPSYS 301Design, Hardware Software Systems15Computer Systems Engineering, Part III
Group 1 elective course 115Computer Systems Engineering, Part III
Group 1 elective course 215Computer Systems Engineering, Part III
Any elective course15Computer Systems Engineering, Part III
COMPSYS 700AResearch Project, Part A15Computer Systems Engineering, Part IV
COMPSYS 700BResearch Project, Part B15Computer Systems Engineering, Part IV
COMPSYS 770Capstone Project15Computer Systems Engineering, Part IV
ENGGEN 403Systems Thinking15Computer Systems Engineering, Part IV
Group 1 elective course 115Computer Systems Engineering, Part IV
Group 1 elective course 215Computer Systems Engineering, Part IV
Any elective course 115Computer Systems Engineering, Part IV
Any elective course 215Computer Systems Engineering, Part IV
COMPSYS 201Fundamentals of Computer Engineering15Electrical and Electronic Engineering, Part II
ELECTENG 291Fundamentals of Electrical Engineering15Electrical and Electronic Engineering, Part II
ENGSCI 211Mathematical Modelling 215Electrical and Electronic Engineering, Part II
SOFTENG 281Object-Oriented Programming15Electrical and Electronic Engineering, Part II
ELECTENG 204Engineering Electromagnetics15Electrical and Electronic Engineering, Part II
ELECTENG 209Analogue and Digital Design15Electrical and Electronic Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Electrical and Electronic Engineering, Part II
Elective course15Electrical and Electronic Engineering, Part II
ELECTENG 299Workshop Practice0Electrical and Electronic Engineering, Part II
ELECTENG 310Electrical Engineering Design 115Electrical and Electronic Engineering, Part III
ENGGEN 303Innovation and Business Cases15Electrical and Electronic Engineering, Part III
ENGSCI 313Mathematical Modelling 3ECE15Electrical and Electronic Engineering, Part III
Group 2 elective course15Electrical and Electronic Engineering, Part III
ELECTENG 311Electrical Engineering Design 215Electrical and Electronic Engineering, Part III
Group 1 elective course 115Electrical and Electronic Engineering, Part III
Group 1 elective course 215Electrical and Electronic Engineering, Part III
Any elective course15Electrical and Electronic Engineering, Part III
ELECTENG 700AResearch Project, Part A15Electrical and Electronic Engineering, Part IV
ELECTENG 700BResearch Project, Part B15Electrical and Electronic Engineering, Part IV
ELECTENG 770Capstone Project15Electrical and Electronic Engineering, Part IV
ENGGEN 403Systems Thinking15Electrical and Electronic Engineering, Part IV
Elective course 115Electrical and Electronic Engineering, Part IV
Elective course 215Electrical and Electronic Engineering, Part IV
Elective course 315Electrical and Electronic Engineering, Part IV
Elective course 415Electrical and Electronic Engineering, Part IV
ENGSCI 221Engineering Science Mechanics15Engineering Science, Part II
ENGSCI 211Mathematical Modelling 215Engineering Science, Part II
ENGSCI 233Computational Techniques and Computer Systems15Engineering Science, Part II
ENGSCI 255Modelling and Analytics in Operations Research15Engineering Science, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Engineering Science, Part II
ENGSCI 263Engineering Science Design I15Engineering Science, Part II
Elective course 115Engineering Science, Part II
Elective course 215Engineering Science, Part II
ENGSCI 299Workshop Practice0Engineering Science, Part II
ENGGEN 303Innovation and Business Cases15Engineering Science, Part III
ENGSCI 343Mathematical and Computational Modelling in Mechanics15Engineering Science, Part III
ENGSCI 355Simulation Modelling for Process Design15Engineering Science, Part III
ENGSCI 391Optimisation in Operations Research15Engineering Science, Part III
ENGSCI 314Mathematical Modelling 3ES15Engineering Science, Part III
ENGSCI 331Computational Techniques 215Engineering Science, Part III
ENGSCI 344Computational Design for Physical Systems15Engineering Science, Part III
Elective course15Engineering Science, Part III
ENGSCI 700AResearch Project, Part A15Engineering Science, Part IV
ENGSCI 700BResearch Project, Part B15Engineering Science, Part IV
ENGSCI 773Capstone Project15Engineering Science, Part IV
ENGGEN 403Systems Thinking15Engineering Science, Part IV
Elective course 115Engineering Science, Part IV
Elective course 215Engineering Science, Part IV
Elective course 315Engineering Science, Part IV
Elective course 415Engineering Science, Part IV
ENGSCI 211Mathematical Modelling 215Mechanical Engineering, Part II
MECHENG 235Design and Manufacture 115Mechanical Engineering, Part II
MECHENG 242Mechanics of Materials 115Mechanical Engineering, Part II
Elective course15Mechanical Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Mechanical Engineering, Part II
MECHENG 211Thermofluids15Mechanical Engineering, Part II
MECHENG 222Dynamics15Mechanical Engineering, Part II
MECHENG 236Design and Manufacture 215Mechanical Engineering, Part II
MECHENG 299Workshop Practice0Mechanical Engineering, Part II
ENGGEN 303Innovation and Business Cases15Mechanical Engineering, Part III
MECHENG 322Control Systems15Mechanical Engineering, Part III
MECHENG 334Design and Manufacture 315Mechanical Engineering, Part III
MECHENG 340Mechanics of Materials 215Mechanical Engineering, Part III
ENGSCI 311Mathematical Modelling 315Mechanical Engineering, Part III
MECHENG 311Thermal Engineering15Mechanical Engineering, Part III
MECHENG 325Dynamics of Fluids and Structures15Mechanical Engineering, Part III
MECHENG 352Manufacturing Systems15Mechanical Engineering, Part III
MECHENG 700AResearch Project, Part A15Mechanical Engineering, Part IV
MECHENG 700BResearch Project, Part B15Mechanical Engineering, Part IV
MECHENG 731Mechanical Design Projects15Mechanical Engineering, Part IV
ENGGEN 403Systems Thinking15Mechanical Engineering, Part IV
Elective course 115Mechanical Engineering, Part IV
Elective course 215Mechanical Engineering, Part IV
Elective course 315Mechanical Engineering, Part IV
Elective course 415Mechanical Engineering, Part IV
ENGSCI 211Mathematical Modelling 215Mechatronics Engineering, Part II
MECHENG 235Design and Manufacture 115Mechatronics Engineering, Part II
MECHENG 242Mechanics of Materials 115Mechatronics Engineering, Part II
Elective course15Mechatronics Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Mechatronics Engineering, Part II
MECHENG 211Thermofluids15Mechatronics Engineering, Part II
MECHENG 222Dynamics15Mechatronics Engineering, Part II
MECHENG 270Software Design15Mechatronics Engineering, Part II
MECHTRON 299Workshop Practice0Mechatronics Engineering, Part II
ENGGEN 303Innovation and Business Cases15Mechatronics Engineering, Part III
MECHENG 313Design of Real-Time Software15Mechatronics Engineering, Part III
MECHENG 322Control Systems15Mechatronics Engineering, Part III
MECHENG 370Electronics and Signal Processing15Mechatronics Engineering, Part III
ENGSCI 311Mathematical Modelling 315Mechatronics Engineering, Part III
MECHENG 306Design of Sensing and Actuating Systems15Mechatronics Engineering, Part III
MECHENG 325Dynamics of Fluids and Structures15Mechatronics Engineering, Part III
MECHENG 371Digital Circuit Design15Mechatronics Engineering, Part III
MECHENG 700AResearch Project, Part A15Mechatronics Engineering, Part IV
MECHENG 700BResearch Project, Part B15Mechatronics Engineering, Part IV
MECHENG 705Mechatronics Systems15Mechatronics Engineering, Part IV
MECHENG 706Mechatronics Design Projects15Mechatronics Engineering, Part IV
ENGGEN 403Systems Thinking15Mechatronics Engineering, Part IV
Elective course 115Mechatronics Engineering, Part IV
Elective course 215Mechatronics Engineering, Part IV
Elective course 315Mechatronics Engineering, Part IV
COMPSYS 201Fundamentals of Computer Engineering15Software Engineering, Part II
ENGSCI 211Mathematical Modelling 215Software Engineering, Part II
SOFTENG 281Object-Oriented Programming15Software Engineering, Part II
Group 1 elective course15Software Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Software Engineering, Part II
SOFTENG 206Software Engineering Design 115Software Engineering, Part II
SOFTENG 283Software Quality Assurance15Software Engineering, Part II
Group 2 elective course15Software Engineering, Part II
SOFTENG 299Workshop Practice0Software Engineering, Part II
ENGGEN 303Innovation and Business Cases15Software Engineering, Part III
SOFTENG 351Fundamentals of Database Systems15Software Engineering, Part III
Group 1 elective course 115Software Engineering, Part III
Any elective course 115Software Engineering, Part III
SOFTENG 306Software Engineering Design 215Software Engineering, Part III
SOFTENG 325Software Architecture15Software Engineering, Part III
Group 1 elective course 215Software Engineering, Part III
Any elective course 215Software Engineering, Part III
SOFTENG 700AResearch Project, Part A15Software Engineering, Part IV
SOFTENG 700BResearch Project, Part B15Software Engineering, Part IV
SOFTENG 770Capstone Project15Software Engineering, Part IV
ENGGEN 403Systems Thinking15Software Engineering, Part IV
Elective course 115Software Engineering, Part IV
Elective course 215Software Engineering, Part IV
Elective course 315Software Engineering, Part IV
Elective course 415Software Engineering, Part IV
CIVIL 202Fluid Mechanics and Pipe Flow15Structural Engineering, Part II
CIVIL 203Transport Design and Geomatics15Structural Engineering, Part II
ENGSCI 211Mathematical Modelling 215Structural Engineering, Part II
STRCTENG 200Introductory Structural Mechanics15Structural Engineering, Part II
CIVIL 200Introduction to Geotechnical Engineering15Structural Engineering, Part II
ENGGEN 204Professional Skills, Communication, and Collaboration15Structural Engineering, Part II
ENVENG 200Fundamentals of Environmental Engineering15Structural Engineering, Part II
STRCTENG 201Civil Engineering Materials and Design15Structural Engineering, Part II
STRCTENG 299Workshop Practice0Structural Engineering, Part II
CIVIL 300Geotechnical Engineering15Structural Engineering, Part III
ENGGEN 303Innovation and Business Cases15Structural Engineering, Part III
STRCTENG 300Design Loads and Dynamic Response of Structures15Structural Engineering, Part III
STRCTENG 301Timber Structures Design15Structural Engineering, Part III
ENGSCI 311Mathematical Modelling 315Structural Engineering, Part III
STRCTENG 302Steel Structures Design15Structural Engineering, Part III
STRCTENG 303Concrete Structures Design15Structural Engineering, Part III
Elective course15Structural Engineering, Part III
CIVIL 705AResearch Project, Part A15Structural Engineering, Part IV
CIVIL 705BResearch Project, Part B15Structural Engineering, Part IV
STRCTENG 710Low Rise Structures Design15Structural Engineering, Part IV
CIVIL 790Civil Engineering Administration15Structural Engineering, Part IV
CIVIL 756Capstone Project15Structural Engineering, Part IV
ENGGEN 403Systems Thinking15Structural Engineering, Part IV
STRCTENG 711Multistorey Structures Design15Structural Engineering, Part IV
Elective course15Structural Engineering, Part IV
Total480 total points, 120 common plus 360 in one specialisation
  • Complete all 120 points in common Part I before normal progression to Part II
  • Complete exactly one 360-point specialisation across Parts II, III and IV
  • Complete the zero-point English competency, academic integrity, workshop and practical-work requirements
  • Use the live Catalogue at enrolment because elective availability and prerequisites can change

Part I is the only curriculum shared by every route. It contains 105 points of named Engineering courses and one 15-point General Education choice. ACADINT A01 and ENGGEN 199 are compulsory at zero points.

Each specialisation then supplies exactly 120 points in Part II, 120 points in Part III and 120 points in Part IV. Every named academic course in the schedule carries 15 points, including each half of a two-part research or capstone project.

Biomedical combines engineering modelling and design with BIOSCI and MEDSCI courses. Chemical and Materials moves through process engineering, applied chemistry, transfer processes, process design, control and paired design and research projects.

Civil and Structural share much of Part II, then separate more clearly in Parts III and IV. Civil retains transport, hydrology, construction and administration. Structural adds timber, steel, concrete, low-rise and multistorey design.

Computer Systems, Electrical and Electronic, and Software share some computing, electronics and mathematical foundations. Their elective group labels must be preserved because the Catalogue does not publish one fixed course in those slots.

Engineering Science is the most modelling-heavy route in the published schedule. Mechanical combines thermofluids, dynamics, materials, manufacture and design. Mechatronics adds real-time software, electronics, sensing, actuation and digital circuits.

The Part IV tables include 700-level project courses and approved elective space. An elective row is a requirement, not permission to choose any course without approval. The Head of Department or nominee controls approved-course inclusion.

ENGGEN 499 appears as a zero-point requirement because graduation depends on the completed hours, sign-off and report rather than points. The route-specific 299 workshop courses are also zero-point compulsory requirements and should not be treated as optional.

The 2027 Biomedical Engineering schedule makes Part II a fully prescribed 120-point year. Mechanics, modelling, computation, instrumentation and tissue engineering sit alongside cellular biology and organ-systems biology. ENGGEN 204 adds professional communication and collaboration, while BIOMENG 299 is a compulsory zero-point workshop. This is not a general engineering year with a biomedical label. The fixed mix shows that students begin combining engineering analysis with biological systems as soon as they enter the specialisation. There is no elective space in Part II, so the published route leaves little room to postpone either the biology or the mathematical foundation.

In the 2027 Biomedical Engineering schedule, Part III retains a strong modelling sequence through ENGSCI 314 and ENGSCI 331. BIOMENG 321 and BIOMENG 341 carry continuum modelling, instrumentation and design forward, while MEDSCI 205 and MEDSCI 309 extend the human physiology and biophysics strand. One 15-point elective appears only after seven named courses. That balance matters for route comparison because most of the year remains prescribed. Students are not choosing a broad set of biomedical options at this stage. They are following an integrated engineering, computation and medical-science sequence before the final-year project and wider elective space.

The 2027 Biomedical Engineering schedule gives Part IV four 15-point electives, the largest choice block in this route, after the earlier prescribed foundation. ENGSCI 700A and ENGSCI 700B form a 30-point research project across two course entries. BIOMENG 791 adds advanced biomedical engineering design and ENGGEN 403 adds systems thinking. The year therefore divides evenly between 60 points of named research, design and systems work and 60 points of approved electives. Applicants comparing specialisations should read this as late specialisation flexibility. The elective freedom arrives after two tightly structured years rather than being spread evenly across Parts II, III and IV.

The 2027 Chemical and Materials Engineering schedule prescribes all 120 points in Part II. The sequence begins with process engineering, materials and applied chemistry, then moves into energy and processing, transfer processes and process design. ENGSCI 211 supplies the common mathematical modelling paper and ENGGEN 204 covers professional communication and collaboration. CHEMMAT 299 is compulsory at zero points. The route is therefore defined by both chemical-process and materials content from its first specialised year. Students cannot use electives to favour one side immediately. The published structure first establishes the shared technical base that later process design, materials performance, reactor engineering and project work depend on.

Part III in the 2027 Chemical and Materials Engineering schedule contains seven named 15-point courses and one 15-point elective. Transfer Processes 2 and Advanced Process Engineering deepen the process strand. Materials Processing and Performance preserves the materials strand, while Process Design 2 and Chemical Reactor Engineering add design and reaction content. ENGSCI 311 continues mathematical modelling and ENGGEN 303 introduces innovation and business cases. Only one eighth of the academic points is elective. This makes Part III predominantly a prescribed continuation rather than an open selection year. The sequence also confirms that process design develops across several parts instead of appearing only as a final capstone activity.

The 2027 Chemical and Materials Engineering schedule assigns 60 Part IV points to paired capstone and research projects. CHEMMAT 750A and 750B form the capstone design project, while CHEMMAT 751A and 751B form the research project. Process Dynamics and Control and ENGGEN 403 add another 30 named points, leaving two 15-point electives. Three quarters of the year is therefore fixed and one quarter is approved choice. This is a useful distinction from routes with four final-year electives. Applicants should expect substantial project weight in both design and research, not a choice between those two forms of advanced work.

The 2027 Civil Engineering schedule makes Part II fully prescribed across fluid mechanics, transport and geomatics, mathematical modelling, structural mechanics, geotechnical engineering, environmental engineering, materials and design, and professional communication. CIVIL 299 is a compulsory zero-point workshop alongside the 120 academic points. This breadth matters when comparing Civil with Structural Engineering. Both routes share the same Part II academic courses, but the workshop code follows the chosen route. The published plan delays a sharper separation until later parts, giving both cohorts the same grounding across civil systems and structural fundamentals before their upper-level course combinations diverge.

Part III of the 2027 Civil Engineering schedule keeps seven named courses and one elective. Geotechnical Engineering, Natural and Built Environment Processes, Hydrology and Open Channel Flow, and Transport Operations and Pavements broaden the infrastructure and environmental sequence. Structural Design for Civil Engineers preserves a structural component without turning the route into Structural Engineering. ENGSCI 311 and ENGGEN 303 add modelling and professional context. The single elective is only 15 points, so Part III remains 87.5 per cent prescribed by points. Applicants seeking early customisation should recognise that most formal choice in Civil arrives in the final part.

The 2027 Civil Engineering schedule combines a 30-point research project, a 15-point capstone project and named work in administration, systems thinking and construction management in Part IV. Two electives contribute the remaining 30 points. This makes 90 points prescribed and 30 points selectable. The project entries are separate requirements, so the research sequence does not replace the capstone. Civil 790 and Civil 791 also show that the final year includes administration and construction management alongside technical project work. The result is a final part that retains broad civil-infrastructure coverage while allowing limited approved specialisation through two electives.

The 2027 Computer Systems Engineering schedule prescribes seven named Part II papers across computer engineering, electrical engineering, mathematical modelling, object-oriented programming, computer systems design, electronics and professional communication. One 15-point elective completes the 120 academic points, while COMPSYS 299 is compulsory at zero points. The mix is deliberately not software-only. Hardware, electronics and electrical foundations sit beside programming and system design. For applicants deciding between Computer Systems and Software Engineering, this first specialised year is the clearest published distinction. Computer Systems fixes more electrical and electronics content before later group electives and project work.

Part III in the 2027 Computer Systems Engineering schedule has four named courses and four different choice slots. Digital Systems Design, mathematical modelling, hardware-software systems design, and innovation and business cases account for 60 points. A Group 2 elective, two Group 1 electives and one unrestricted elective account for the other 60 points. Those labels should not be collapsed into a generic four-elective statement because each slot has a different approval category. The published schedule therefore moves from a mostly fixed Part II to an evenly split Part III. Choice expands only after the route has established its computer, electrical, programming and electronics foundations.

The 2027 Computer Systems Engineering schedule keeps 60 named points in Part IV and 60 elective points. COMPSYS 700A and 700B create a 30-point research project, COMPSYS 770 adds a 15-point capstone, and ENGGEN 403 adds systems thinking. The choice half consists of two Group 1 electives and two unrestricted electives. This is not the same combination as Part III, where a Group 2 slot also appears. Applicants planning a technical focus should therefore distinguish the allowed course groups by year. The route offers substantial upper-level choice, but every choice remains within the published category and approval rules.

The 2027 Electrical and Electronic Engineering schedule fixes seven named Part II papers and one elective. Computer engineering, electrical fundamentals, mathematical modelling and object-oriented programming appear in the first semester grouping. Electromagnetics, analogue and digital design, professional communication and the elective complete the academic points, while ELECTENG 299 is a compulsory zero-point workshop. The presence of computing and programming does not make this the Computer Systems route. Its distinguishing fixed courses are electromagnetics and analogue and digital design. The shared foundations help explain why applicants should compare the full schedule rather than choose from a specialisation title alone.

Part III in the 2027 Electrical and Electronic Engineering schedule divides 120 points evenly between named requirements and choice slots. Electrical Engineering Design 1 and 2 provide a two-course design sequence. ENGSCI 313 and ENGGEN 303 add mathematical modelling and innovation with business cases. The other half consists of one Group 2 elective, two Group 1 electives and one unrestricted elective. The group labels are formal curriculum categories and may carry different approved lists. This means the year is flexible, but not an undifferentiated selection of any four papers. The schedule preserves a fixed electrical-design sequence while allowing students to build a more specific technical combination around it.

The 2027 Electrical and Electronic Engineering schedule gives Part IV four elective courses, worth 60 points in total. The remaining 60 points are the two-part ELECTENG 700 research project, the ELECTENG 770 capstone and ENGGEN 403 Systems Thinking. Unlike Computer Systems, the four final-year choice slots are labelled simply as electives rather than divided into Group 1 and unrestricted categories in the programme schedule. Both routes nevertheless retain the same broad balance between fixed project and systems work and approved choice. Students should verify the live approved-course list before treating a curriculum slot as a guaranteed named paper.

The 2027 Engineering Science schedule assigns 90 named points and 30 elective points in Part II. Mechanics, mathematical modelling, computational techniques, operations-research modelling and Engineering Science Design I form the technical core. ENGGEN 204 adds professional communication, and ENGSCI 299 is compulsory at zero points. The two elective slots arrive earlier than in most routes, but three quarters of the academic year remains fixed. The named courses establish the route’s combination of mathematical models, computation, mechanics, analytics and design. Applicants should compare that combination with the narrower discipline sequences in Mechanical, Civil or Electrical Engineering rather than treating Engineering Science as an unspecialised option.

Part III in the 2027 Engineering Science schedule is almost completely prescribed. Seven named courses contribute 105 points and one elective contributes 15. The fixed sequence includes modelling in mechanics, simulation modelling for process design, optimisation in operations research, advanced mathematical modelling, computational techniques and computational design for physical systems. ENGGEN 303 supplies innovation and business-case work. This part connects the earlier modelling and analytics foundation to several application settings rather than selecting a single engineering industry. With only one elective, the published year prioritises a common analytical toolkit before the wider final-year choice block and project sequence.

The 2027 Engineering Science schedule makes Part IV half fixed and half elective. ENGSCI 700A and 700B form the 30-point research project, ENGSCI 773 is the 15-point capstone, and ENGGEN 403 is the 15-point systems paper. Four electives fill the remaining 60 points. The design gives more final-year choice than the route offers in Part III, after students have completed the prescribed modelling, optimisation, computation and design sequence. Applicants should view the elective block as a way to deepen or apply that foundation. It does not remove the requirement to complete both research and capstone work in the same final part.

The 2027 Mechanical Engineering schedule fixes seven named Part II courses and one elective. Mathematical modelling, design and manufacture, mechanics of materials, thermofluids and dynamics form the technical sequence. ENGGEN 204 adds professional communication, and MECHENG 299 is a zero-point workshop requirement. Design and Manufacture appears twice in the year, first as MECHENG 235 and then as MECHENG 236, so design is a continuing sequence rather than a single final-year experience. Only 15 of the 120 academic points are elective. The route therefore gives students a broad prescribed mechanical base before advanced control, manufacture, thermal, fluid and structural-dynamics work.

Part III is fully prescribed in the 2027 Mechanical Engineering schedule. Its eight 15-point papers are Innovation and Business Cases, Control Systems, Design and Manufacture 3, Mechanics of Materials 2, Mathematical Modelling 3, Thermal Engineering, Dynamics of Fluids and Structures, and Manufacturing Systems. There is no elective row in this part. This fixed year advances several Part II strands at once and adds systems control and manufacturing systems. Applicants comparing Mechanical with Mechatronics should notice that the shared material narrows after Part II. Mechanical keeps thermal engineering, manufacture and material-mechanics depth where Mechatronics moves further into software, electronics, sensing and actuation.

The 2027 Mechanical Engineering schedule allocates half of Part IV to named work and half to electives. MECHENG 700A and 700B make a 30-point research project. MECHENG 731 adds Mechanical Design Projects and ENGGEN 403 adds Systems Thinking. Four approved electives make up the remaining 60 points. The elective freedom is concentrated late because Part III contains no choices and Part II contains only one. Students can therefore shape the final academic year, but they do so after completing the full prescribed sequence in control, design, manufacture, materials, thermal engineering, fluids, dynamics and manufacturing systems.

The 2027 Mechatronics Engineering schedule shares much of Part II with Mechanical Engineering. Both include mathematical modelling, design and manufacture, mechanics of materials, thermofluids, dynamics, professional communication and one elective. The route difference begins with MECHENG 270 Software Design, which replaces Mechanical’s second Design and Manufacture paper, and MECHTRON 299 supplies the route-specific zero-point workshop. That one-course distinction is important but should not be exaggerated. The published Part II still gives Mechatronics students a substantial mechanical foundation before the more pronounced real-time software, electronics, control, sensing, actuation and digital-circuit sequence in Part III.

Part III is fully prescribed in the 2027 Mechatronics Engineering schedule. The eight courses cover innovation and business cases, real-time software, control systems, electronics and signal processing, mathematical modelling, sensing and actuating systems, dynamics of fluids and structures, and digital circuit design. There is no elective slot. This makes the route’s integration explicit. Software, electronics and control do not replace mechanical dynamics and modelling. They are added to them within the same fixed year. Applicants wanting a mainly software curriculum should compare this structure carefully with Software Engineering, where databases, architecture, quality assurance and software-design sequences are named requirements.

The 2027 Mechatronics Engineering schedule prescribes 75 Part IV points and leaves 45 elective points. The fixed work comprises the two-part MECHENG 700 research project, MECHENG 705 Mechatronics Systems, MECHENG 706 Mechatronics Design Projects and ENGGEN 403 Systems Thinking. Three electives complete the year. This gives less elective space than Mechanical Engineering, which lists four final-year electives, because Mechatronics retains two separate named systems and design-project courses. The published plan therefore keeps an integrated mechatronics core through the final part while still allowing three approved choices after the fully prescribed Part III.

The 2027 Software Engineering schedule splits Part II between six named courses and two category-based electives. Computer engineering, mathematical modelling, object-oriented programming, professional communication, Software Engineering Design 1 and Software Quality Assurance contribute 90 points. One Group 1 and one Group 2 elective contribute 30 points, while SOFTENG 299 is compulsory at zero points. The combination is wider than programming alone. Design process and quality assurance are fixed from the first specialised year, and computer-engineering and modelling foundations remain compulsory. The two elective labels should be preserved because they refer to different approved groups rather than two unrestricted choices.

Part III in the 2027 Software Engineering schedule contains four named requirements and four choice slots. Database Systems, Software Engineering Design 2, Software Architecture, and Innovation and Business Cases account for 60 points. Two Group 1 electives and two unrestricted electives account for the other 60. The fixed design paper continues the sequence begun in Part II, while databases and architecture establish system-level software content. The schedule offers considerable choice at this stage, but only two slots are described as unrestricted. Applicants should not assume all four can be filled from the same list. The formal group labels control how the 120 points are assembled.

The 2027 Software Engineering schedule gives Part IV 60 fixed points and 60 elective points. SOFTENG 700A and 700B form the 30-point research project, SOFTENG 770 is the capstone, and ENGGEN 403 covers systems thinking. Four elective slots complete the final year. This creates the same broad fixed-choice balance as Computer Systems and Electrical and Electronic Engineering, but the route’s earlier fixed sequence is distinct. Software design, quality assurance, databases and architecture establish the professional software-engineering foundation before students reach the research, capstone and advanced elective block.

The 2027 Structural Engineering schedule shares every 15-point Part II academic course with Civil Engineering. Fluid mechanics, transport and geomatics, mathematical modelling, structural mechanics, geotechnical engineering, environmental engineering, materials and design, and professional communication total 120 points. STRCTENG 299 is the route-specific zero-point workshop. The common year means students in both routes receive the same civil and structural foundation immediately after Part I. A clearer specialisation difference appears in Part III, where Structural fixes design-loads, timber, steel and concrete courses while Civil fixes more environmental, hydrology, transport and civil-design content.

Part III in the 2027 Structural Engineering schedule prescribes seven named courses and one elective. Geotechnical Engineering and Mathematical Modelling remain from the wider civil foundation. Design Loads and Dynamic Response, Timber Structures Design, Steel Structures Design and Concrete Structures Design create the structural sequence, while ENGGEN 303 adds innovation and business cases. The 15-point elective represents only one eighth of the year. Applicants should read this part as a material and structural-design progression rather than a broadly configurable civil year. Timber, steel and concrete are all compulsory named papers, so choosing among those three materials is not the published structure.

The 2027 Structural Engineering schedule fixes 105 of the 120 Part IV points. The two-part CIVIL 705 research project contributes 30 points. Low Rise Structures Design, Civil Engineering Administration, the CIVIL 756 capstone, Systems Thinking and Multistorey Structures Design add 75 more. One elective supplies the remaining 15 points. This is the smallest final-year elective block among the ten routes. It also confirms that both low-rise and multistorey design are compulsory, alongside research and capstone work. Students seeking wide final-year choice should compare this prescribed structure with routes that list three or four electives.

Should an Indian student shortlist the University of Auckland BE(Hons)?

Shortlist it if your board marks clear the exact Physics and Mathematics thresholds, the four-year budget works without uncertain earnings, and you accept that your preferred specialisation is decided after Part I. Admission to the degree isn’t admission to Mechanical, Software, Biomedical or another named route.

The academic advantage is breadth before commitment. Part I gives every student engineering mechanics, mathematics, computation, design, materials and electrical systems before Parts II to IV become specialisation-specific. The cost of that breadth is uncertainty because prerequisite completion, grades and capacity still determine allocation.

Three things are genuinely hard here. The minimum-funds plan is already about INR 1.89 crore before fee increases and actual Auckland living costs above the immigration floor. The 800-hour practical-work requirement can prevent graduation when hours or reports remain incomplete. A student who needs a guaranteed first-choice specialisation shouldn't choose this programme.

Before deciding, compare four-year cost, India entry, Part II allocation and practical work.

Key takeaways
  • The BE(Hons) is 4 years and 480 points, with one 120-point common Part I and one 360-point specialisation.
  • The 2027 international tuition estimate is NZD 60,909.60 for a standard 120-point year.
  • Indian entry is 85% or 88% overall with the same threshold in Physics and Mathematics.
  • The standard Semester One 2027 application deadline is 8 December 2026.
  • The degree has 10 confirmed specialisations, and the preferred route is not guaranteed after Part I.
  • Graduation requires 800 practical-work hours plus route-specific zero-point workshop practice.

Frequently asked questions

Can an Indian student enter the University of Auckland BE(Hons) after Class 12?

Yes, if the correct board threshold, Physics, Mathematics and English requirements are met. ISC, AISSC, Maharashtra, Karnataka and West Bengal applicants need 85% overall and in both named subjects. Other State Boards need 88%. Offers remain subject to available places, and admission is to common Part I.

Is Mechanical or Software Engineering guaranteed at the University of Auckland?

No. Students enter common Part I, complete the required courses and submit preferences near the end of the year. Allocation uses prerequisite completion, academic results and available capacity. Meeting the minimum does not guarantee a preferred specialisation, so applicants should accept at least two possible engineering routes before enrolling.

How much does the University of Auckland BE(Hons) cost in Indian rupees?

The minimum-funds four-year plan is about INR 1.89 crore, or NZD 332,615.60. It combines 2027 tuition held flat, four annual visa living-fund floors, latest services and insurance references, and one current visa fee. Fee increases, higher living costs, flights, deposits, equipment and practical-work travel remain excluded.

What is the University of Auckland BE(Hons) deadline for 2027?

Standard international applications for Semester One 2027 close on 8 December 2026, and classes begin on 1 March 2027. The programme page also displays a July start, but the faculty material describes selected Semester Two entry through approved University of Auckland BSc study. Obtain written route confirmation before using July.

What IELTS score does the University of Auckland BE(Hons) require?

IELTS Academic requires 6.5 overall with no band below 6.0. An approved Class XII English route can also work at 75% for ISC, AISSC, Maharashtra, Karnataka and West Bengal, or 85% for other State Boards. The lower English mark in the academic-entry table does not itself prove proficiency.

How many engineering specialisations does the University of Auckland offer?

The 2027 Catalogue and Engineering New Zealand register show ten specialisations. They are Biomedical, Chemical and Materials, Civil, Computer Systems, Electrical and Electronic, Engineering Science, Mechanical, Mechatronics, Software and Structural Engineering. One sentence on the programme page says eleven, but its own list and stronger current sources confirm ten.

Is the University of Auckland BE(Hons) recognised in India?

The ten specialisations are currently accredited by Engineering New Zealand, and India is a Washington Accord signatory. That supports educational recognition but does not create automatic UGC equivalence, professional registration or employment eligibility. Obtain the receiving Indian authority's written decision when government employment, further study or another formal purpose requires equivalence.

Can a University of Auckland BE(Hons) graduate get a post-study work visa?

Current rules can support an eligible Post Study Work Visa after a Level 8 New Zealand qualification studied full time for at least 30 weeks. For this four-year degree, the current calculation reaches the overall three-year cap. Complete the 800 practical-work hours and reports before graduation, then recheck immigration rules near completion.

Sources

These sources support the programme, admission, cost, experience and immigration information used on this page.

Sources checked on August 27, 2026. This page plans for the Semester One 2027 intake.

No.SourceEvidence role
01University of Auckland, Bachelor of Engineering Honours programme pageCore programme evidence
02University of Auckland, 2027 BE(Hons) Catalogue and complete scheduleSupporting external evidence
03University of Auckland, compulsory BE(Hons) degree componentsSupporting external evidence
04University of Auckland, 2027 Part II specialisation allocationSupporting external evidence
05University of Auckland, approved 2027 programme-specific overseas entry tableSupporting external evidence
06University of Auckland, approved 2027 undergraduate English requirementsSupporting external evidence
07University of Auckland, 2027 undergraduate application closing datesSupporting external evidence
08University of Auckland, BSc alternative pathway to EngineeringSupporting external evidence
09University of Auckland, 2027 international undergraduate tuition and services-fee statusSupporting external evidence
10University of Auckland, latest Studentsafe premium and policySupporting external evidence
11University of Auckland, 800-hour practical-work requirementSupporting external evidence
12NZQA, University of Auckland Bachelor of Engineering Honours qualification recordSupporting external evidence
13Engineering New Zealand, accredited four-year engineering degreesSupporting external evidence
14Engineering New Zealand, Chartered Professional Engineer requirementsSupporting external evidence
15National Board of Accreditation India, Washington Accord recognitionSupporting external evidence
16University Grants Commission India, foreign qualification equivalence regulations 2025Supporting external evidence
17Immigration New Zealand, Fee Paying Student VisaSupporting external evidence
18Immigration New Zealand, working on a student visaSupporting external evidence
19Immigration New Zealand, post-study work after studySupporting external evidence
20University of Auckland, QS 2026 Civil and Structural Engineering subject resultSupporting external evidence
21University of Auckland, QS World University Rankings 2027 resultSupporting external evidence
22Reserve Bank of New Zealand, NZD and INR reference exchange rates released 27 August 2026Supporting external evidence
23Research Organization Registry, University of AucklandSupporting external evidence

More programmes

Interested in this programme?

Get fee waiver + flight ticket

Edwin Selvaraj Avatar

More to read

  • ,

    UEL Public Health MSc for India with 2026/27 fees, entry rules, modules, careers and an INR 47.73 lakh full-course budget for September…

    ·

  • ,

    UEL Digital Forensics MSc guide with 2026/27 fees, entry rules, modules, careers and an INR 47.73 lakh full-course budget for 2027 in…

    ·

  • ,

    UEL Engineering Management MSc guide with 2026/27 fees, Indian entry rules, modules, careers and an INR 47.73 lakh full-course budget for 2027…

    ·

Leave a Reply

Your email address will not be published. Required fields are marked *