University of Auckland Master of Engineering
University of Auckland · Faculty of Engineering and Design · Auckland, New Zealand- On campus
- Research masters
- 120 or 180 points
Tuition, living, latest charges and one visa
120 points Engineering rate
route-specific prior study
thesis in both routes
international planning date
no band below 6.0
120 or 180 points
What should an Indian applicant know about the Auckland Master of Engineering?
The University of Auckland Master of Engineering is a research degree, not the taught Master of Engineering Studies. Both routes carry a 120 point thesis and use a GPE 5.0 admission baseline under the binding 2027 regulation. The shorter route uses a one-year Auckland budget, with the full arithmetic set out in the cost section.
The 180 point route adds 60 taught points and uses a constant-rate 18-month model of NZD 141,984.10, about INR 80.99 lakh. The Catalogue lists eight specialisations, although the public presentation omitted Bioengineering and its exact 180 point plan is suspended. Civil research now belongs to the separate MCivilEng route.
How much does the Auckland Master of Engineering cost in 2027?
A 120 point one-year plan is NZD 94,939.40, about INR 54.15 lakh. It starts with the confirmed 2027 Engineering rate and keeps every other assumption visible. The total keeps unpublished later charges separate and should be treated as a planning model rather than a fixed University invoice.
| Item | INR | Local currency | When it is due |
|---|---|---|---|
| 2027 tuition for 120 points | INR 33.23 lakh | NZD 58,257.60 | Confirmed Engineering rate |
| 2027-rate tuition for 180 points | INR 49.85 lakh | NZD 87,386.40 | Model, not fixed later invoice |
| One-year living allowance | INR 19.28 lakh | NZD 33,800 | 52 weeks at upper estimate |
| Student Services Fee reference | INR 64,616 | NZD 1,132.80 | Latest 2026 rate, 120 points |
| Studentsafe reference | INR 51,280 | NZD 899 | Latest 2026 annual premium |
| Fee Paying Student Visa | From INR 48,485 | From NZD 850 | Current one-application cost |
| India High Achievers Scholarship | Award-dependent | 25% tuition | Competitive, first year |
| AUEA research award | Do not budget | 2027 round absent | International ME eligible |
| 120 point one-year plan | INR 54.15 lakh | NZD 94,939.40 | Tuition, living, latest charges and one visa |
The NZD 20,000 visa-funds minimum is not added separately because living money is already included and remains the student's money. INR values use NZD 1 = INR 57.04094 on 25 August 2026. Flights, books, personal spending, remittance costs and later fee increases are excluded.
The published 2027 Engineering rate is NZD 485.48 per point. Multiplication gives the 120 and 180 point tuition figures above. The 180 point amount is a constant-rate model because the programme can cross calendar years and actual billing follows enrolled courses and the rate applying to them.
The exact programme page still shows NZD 55,484 and labels it 2026. That older programme figure should not be carried into a 2027 offer decision. The central 2027 fee table is the current source, while the student’s final invoice remains the amount payable.
Living uses the University’s upper estimate of NZD 650 weekly for accommodation, food and transport. The one-year route uses 52 weeks and the 18-month model uses 78 weeks. This is practical budgeting guidance from an older prospectus, not the immigration funds minimum or a spending guarantee.
The 2027 Student Services Fee and Studentsafe premium were unavailable when checked. The model retains the latest 2026 references so real payment streams do not disappear. They must be replaced when the University publishes the new amounts, and the later period can carry another insurance charge.
The India High Achievers Scholarship can cover 25 percent of one year’s tuition for selected new Indian international students. The award is competitive and invitation-led, so it is not deducted. The AUEA award identifies international ME students as eligible but had no published 2027 round.
Domestic-only research awards should not soften this budget. The University Research Masters Scholarship and the Andrew Pullan Bioengineering Masters Scholarship restrict eligibility to New Zealand citizens or permanent residents. An Indian international applicant should plan the base cost before any award result.
Research-master’s work permission can be valuable, but it is not a funding source. The actual eVisa controls, and permission does not prove a job, hours or earnings. Tuition, living and outward-travel evidence should remain viable without assumed wages.
The INR figure uses official dated cross-rates rather than a retail transfer quote. Exchange movement, bank spreads and remittance charges can raise the rupee outflow. Keep the NZD lines as the working budget and refresh the conversion after the offer identifies route and start date.
Immigration New Zealand states the living-funds 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 University charge. It doesn’t freeze tuition, it can’t price unpublished costs and it won’t protect against exchange movements. You shouldn’t subtract uncertain work income, and you don’t have a scholarship until it is awarded.
Can an Indian engineer meet the Auckland ME entry requirements?
Entry is route-specific and uses GPE 5.0. The 120-point route expects advanced engineering and substantial prior research preparation, while the published 180-point basis begins from a relevant engineering bachelor’s degree. Meeting the numeric minimum starts assessment, while route-specific academic and professional conditions still decide whether the application can proceed.
| Requirement | Published rule | What you do |
|---|---|---|
| 120 point degree | Four-year engineering preparation with postgraduate-level study | Map advanced coursework |
| 120 point research | Substantial final-year project or dissertation | Upload scope and credit evidence |
| 180 point degree | Relevant engineering bachelor degree | Prove specialisation fit |
| Admission result | GPE 5.0 or approved equivalent | Use the current programme rule |
| India mapping | Indicative bands vary by institution and pass mark | Request individual assessment |
| Supervisor | Topic and supervision confirmed before admission | Contact suitable academic staff |
| 180 continuation | GPA 5.0 in the first 60 taught points | Keep a strong first-year plan |
| IELTS Academic | 6.5 overall, no band below 6.0 | Submit one valid result |
| GRE or GMAT | Neither appears in the published rule | Do not take either for ME alone |
| Civil interest | Current Civil research sits in MCivilEng | Use the correct award |
The 120 point regulation includes several possible pathways, but the overseas interface gives the most useful normal profile. It asks for a four-year engineering degree, broad engineering foundations, postgraduate-level study and substantial final-year research. An ordinary four-year BTech does not automatically satisfy every element.
The 180 point route is intended for a relevant engineering bachelor’s degree at GPE 5.0. Architecture, Planning or Science can be relevant to some specialisations only where completed courses support the intended field. This is not a general conversion degree for an unrelated graduate.
Indian mark conversion is not one percentage. The dated University table gives different GPE 5.0 bands by pass mark and exemplar status, including 55 versus 60, 60 versus 65 and 63.4 versus 66.7 percent. These figures support screening, not an admission promise.
The specialisation should be chosen from transcript evidence rather than job aspiration alone. A clear file maps relevant courses, advanced content, research methods and the final project to one of the eight current Catalogue areas. Course descriptions help Admissions judge equivalence across Indian curricula.
Research preparation is operational, not decorative. Faculty guidance asks an applicant to discuss and confirm a topic and supervision before admission. The Academic Head appoints the supervisor, and the Programme Director or nominee approves the topic before thesis enrolment.
The 180 point route has a second academic threshold after admission. GPA 5.0 is required across the first 60 taught points. Faculty sequencing guidance also expects at least 30 taught points in the first semester, so the offer and faculty plan should settle the exact sequence.
The published English minimum is IELTS Academic 6.5 overall with no band below 6.0, or an approved equivalent. Prior English-medium study is assessed under detailed University conditions. An Indian medium-of-instruction letter should not be treated as an automatic exemption.
The visa assessment is separate. The Fee Paying Student Visa requires tuition, living funds, outward travel and acceptable insurance evidence. Research work conditions do not reduce the funds requirement or guarantee that the academic offer will be unconditional.
Five checks that decide an Indian ME file
The University assigns route fit
Applicants cannot select 120 points only because it is cheaper. Prior degree level, advanced study and research preparation decide eligibility.Indian percentage bands are indicative
The October 2022 table varies by institutional pass mark and exemplar status. It does not replace the live GPE calculation.A BTech project may not be enough
The normal 120 point overseas profile expects research worth at least one-quarter of the final year plus postgraduate-level study.Bioengineering needs route confirmation
The Catalogue lists Bioengineering, but its exact 180 point plan is suspended. Confirm the intended intake in writing.Admission and continuation differ
GPE 5.0 governs entry, while GPA 5.0 across the first 60 Auckland taught points governs continuation on the 180 route.
How should an Indian applicant apply to the Auckland ME for 2027?
Work backwards from the 1 December 2026 international planning date for Semester One, even though the formal programme close is 8 December. Plan backwards from the published date because document review, English evidence and the separate visa process each need time.
The University decides route and admission. Faculty staff confirm research fit and supervision. Immigration New Zealand separately decides visa and work conditions.
Semester One 2027 remains workable. The timeline is workable on 27 August 2026, but research confirmation, English evidence and visa funds reward early action.
| Start by | Task | Takes | Why this date |
|---|---|---|---|
| 20 Jul 2026 | Complete accepted English evidence | 70 days | Reach the overall and band scores before the start. Seventy days is a planning allowance. |
| 03 Aug 2026 | Map prior engineering and research | 21 days | Prepare course, credit and final-project evidence. Twenty-one days is a planning allowance. |
| 24 Aug 2026 | Confirm topic and supervision | 35 days | Contact suitable faculty and complete the required research discussion. Thirty-five days is a planning allowance. |
| 28 Sep 2026 | Submit the University application | 1 days | Submit before 1 December 2026 for safer international planning. |
| 29 Sep 2026 | Prepare the visa funds file | 63 days | Immigration New Zealand reports 80 percent within 8.5 weeks. Sixty-three days is a rounded allowance. |
The allowances are Nbyula planning estimates, not processing times published by University of Auckland.
Begin by deciding whether the evidence supports 120 or 180 points. A transcript, grading scale, course descriptions and final-project material allow the University to assess advanced engineering, research weight and specialisation relevance. Applying under the shorter route without that proof can slow assessment. Allow 5 weeks for the supervisor search as an applicant planning estimate, not a University processing promise.
Prepare a bounded research idea before contacting faculty. It should identify the engineering problem, the methods already understood and why one current academic’s expertise is relevant. The first contact seeks genuine supervision fit rather than a generic approval email sent to many staff members.
Faculty guidance requires topic and supervision discussion before admission. The supervision and topic form should be treated as part of the application sequence, not postponed until arrival. The Catalogue separately requires topic approval before thesis enrolment.
Submit official awards, full transcripts, the institutional grading explanation and English evidence. Indian marks need context because the dated GPE table changes by pass mark and exemplar status. Uploading official rules reduces the chance that broad percentage labels hide the real scale.
Semester One starts on 1 March 2027. The formal ME close is 8 December 2026, while central guidance tells international students to apply by 1 December for visa time. The earlier date is the safer planning deadline and leaves little room for a late supervisor search.
Semester Two starts on 19 July 2027 and closes on 8 June. A July plan should be rebuilt around actual course availability and supervision rather than shifting a March timetable unchanged. Bioengineering applicants need written confirmation because the exact 180 point plan is suspended.
Late Year starts on 1 December 2027 and is limited to the 120 point research masters route. It is subject to supervisor availability and does not create a third general 180 point intake. The published 11 November close leaves a short international processing window.
After an offer, verify the awarded route, specialisation, supervisor, topic, first enrolments and fee invoice. The visa application then needs tuition, funds, outward travel and insurance evidence. A work condition is not a substitute for the required financial documents.
Allow at least five weeks for the topic and supervisor search as a planning assumption, not a University processing promise. That interval gives an applicant time to refine the proposal after feedback, approach a genuinely better-matched academic if necessary and assemble the research form before the application date. The actual response time depends on staff availability and topic fit.
What can the Auckland research ME lead to after graduation?
The research ME develops independent engineering research, analysis, judgement and thesis writing across eight specialisations. The University publishes no exact ME placement rate or salary distribution. Broader University evidence can provide context, but it does not prove a placement result or salary for this exact programme.
| Measure | Figure | Basis |
|---|---|---|
| Exact ME placement rate | Not published | No cohort denominator found |
| Exact ME salary | Not published | No programme distribution found |
| Current specialisations | Eight | Binding 2027 Catalogue |
| Initial accreditation | Not listed | Research ME is not a BE(Hons) substitute |
| CPEng | Separate assessment | Knowledge and competence required |
| India equivalence | Case by case | UGC foreign qualification process |
| Student work | Potentially unlimited | Research masters and eVisa conditions |
| Post-study work | Up to 3 years | Level 9 and 30-week rules |
Research capability, professional standing, work permission and employment are separate. None is a salary or placement guarantee.
The programme develops rigorous analysis, independent investigation, evidence-based judgement, conclusion-drawing and thesis writing. Those are defensible academic outcomes. Individual plans indicate research fields and broad sectors, but these descriptions do not establish how many ME graduates enter a role or what they earn.
No exact-programme placement rate, median salary, employer distribution or sample size was found. Wider discipline employer examples should not be converted into ME recruitment claims. An applicant should ask the intended laboratory about recent thesis outputs while recognising that a laboratory roster is not a cohort outcome dataset.
Engineering New Zealand accreditation mainly attaches to the qualifying professional engineering degree. The research ME is not listed as an accredited initial professional qualification and does not automatically repair a non-accredited bachelor’s degree. The separate Master of Professional Engineering follows a different accreditation route.
CPEng is not awarded at graduation. Applicants need an accepted knowledge base or an equivalence assessment, demonstrated competence, referees and ongoing reassessment under Engineering New Zealand rules. A research thesis may strengthen evidence, but it does not remove those independent professional requirements.
India return isn’t automatic. The UGC foreign qualification regulations allow equivalence assessment based on institutional recognition, entry standard, duration or normalised credit, assessment, curriculum and practical work. No fetched Indian authority grants this exact ME automatic professional engineering status.
Current immigration guidance can permit unlimited work for a full-time Research Masters with at least 90 research credits, including where coursework comes first. Both ME routes have 120 thesis points. The actual eVisa, full-time enrolment and prohibition on self-employment still control.
A completed level 9 masters studied full time in New Zealand for at least 30 weeks can currently support a Post Study Work Visa of up to three years. The visa is available subject to the rules at application and does not create an engineering job, CPEng status or residence outcome.
Historical Civil ME accounts belong to an older award structure and can’t evidence the current specialisation list. Current Civil research applicants are directed to MCivilEng. Portfolio value should instead come from the present thesis topic, methods, outputs and relevance to a clearly researched employer or doctoral pathway.
Who is the Auckland ME for, and who should avoid it?
It fits an engineer who wants the published 120 point thesis, can establish supervisor fit and can fund the assigned route without invented placement returns. The clearest mismatch is an applicant who needs certainty that the primary sources do not provide.
| Verdict | Your background | Why |
|---|---|---|
| Strong fit | Four-year engineer with advanced research preparation | The 120 point profile can be assessed directly. |
| Strong fit | Relevant engineering graduate needing taught preparation | The 180 point route adds 60 taught points before the thesis. |
| Strong fit | Applicant with a bounded topic and suitable supervisor | Research fit is part of admission preparation. |
| Needs evidence | Indian BTech holder unsure of research weight | The University must decide whether 120 or 180 points applies. |
| Needs evidence | Bioengineering applicant | The 120 point plan exists, while the 180 point plan is suspended. |
| Do not shortlist | Applicant seeking a mainly taught master's | Both ME routes contain a 120 point thesis. |
| Do not shortlist | Applicant seeking Civil research under ME | Current Civil research belongs to MCivilEng. |
| Do not shortlist | Family dependent on wages or placement claims | Neither income nor exact ME placement outcomes are assured. |
The strongest 120 point fit already has research-rich engineering preparation and wants a full-year thesis. It can document advanced study, a substantial final project and the methods needed for the proposed investigation. The University still decides equivalence rather than accepting self-selection into the shorter load.
The strongest 180 point fit has relevant engineering foundations but benefits from 60 points of advanced coursework before the thesis. It also accepts the GPA 5.0 continuation threshold and can build a course combination that supports the intended research rather than treating coursework as a formality.
Supervisor fit is essential. A useful topic is narrow enough for a master’s thesis, aligns with current expertise and remains valuable even if the final method changes. Applicants who cannot identify that fit may be better served by a taught MEngSt or another programme.
Bioengineering needs extra caution. It appears among the eight binding specialisations and has a 120 point thesis plan, but the exact 180 point plan is marked suspended. An applicant needing the longer route should obtain written availability confirmation before treating the programme as viable.
Civil research belongs elsewhere in the current catalogue. Historical profiles can still truthfully say ME in Civil, but they do not reopen a present route. Current applicants should compare the MCivilEng regulations, supervision and fees instead of relying on an older graduate title.
This is not the right degree for repairing initial professional accreditation without further assessment. Engineering New Zealand evaluates the qualifying degree and competence route separately. Research depth can be valuable, but the ME title alone does not produce Washington Accord or CPEng status.
Financial fit differs sharply by route. The one-year plan is about INR 54.15 lakh and the 18-month model about INR 80.99 lakh before flights, books and later increases. A family dependent on competitive scholarships or student wages does not yet have a reliable plan.
Course fit must be checked against the binding plan and current timetable. The complete list below preserves eligible choices and exclusions, but publication does not guarantee a course runs in the intended semester or satisfies prerequisites.
What is the complete Auckland Master of Engineering curriculum for 2027?
The complete audited 2027 union contains 183 codes across eight research specialisations, including 16 thesis components, plus ACADINT A01. The binding schedule controls the route, while prerequisites and course availability determine the individual enrolment sequence. This makes route confirmation necessary before payment and visa planning begin.
| Code | Component | Points | Where it sits |
|---|---|---|---|
| ACADINT A01 | Academic Integrity Course | 0 | All ME routes, compulsory |
| AEROSPCE 720 | Catalogue course AEROSPCE 720 | 15 | Published 180-point taught choice |
| AEROSPCE 730 | Catalogue course AEROSPCE 730 | 15 | Published 180-point taught choice |
| AEROSPCE 740 | Catalogue course AEROSPCE 740 | 15 | Published 180-point taught choice |
| BIOENG 796A | ME Thesis (Bioengineering) | 60 | Named specialisation thesis component |
| BIOENG 796B | ME Thesis (Bioengineering) | 60 | Named specialisation thesis component |
| BIOMENG 771 | Catalogue course BIOMENG 771 | 15 | Published 180-point taught choice |
| BIOSCI 741 | Catalogue course BIOSCI 741 | 15 | Published 180-point taught choice |
| CHEMMAT 712 | Catalogue course CHEMMAT 712 | 15 | Published 180-point taught choice |
| CHEMMAT 720 | Catalogue course CHEMMAT 720 | 15 | Published 180-point taught choice |
| CHEMMAT 722 | Catalogue course CHEMMAT 722 | 15 | Published 180-point taught choice |
| CHEMMAT 723 | Catalogue course CHEMMAT 723 | 15 | Published 180-point taught choice |
| CHEMMAT 724 | Advanced Materials Characterisation | 15 | Published 180-point taught choice |
| CHEMMAT 725 | Catalogue course CHEMMAT 725 | 15 | Published 180-point taught choice |
| CHEMMAT 752 | Process Dynamics and Control | 15 | Published 180-point taught choice |
| CHEMMAT 753 | Biological Materials and Biomaterials | 15 | Published 180-point taught choice |
| CHEMMAT 756 | Catalogue course CHEMMAT 756 | 15 | Published 180-point taught choice |
| CHEMMAT 757 | Catalogue course CHEMMAT 757 | 15 | Published 180-point taught choice |
| CHEMMAT 758 | Resource Recovery Technologies | 15 | Published 180-point taught choice |
| CHEMMAT 759 | Catalogue course CHEMMAT 759 | 15 | Published 180-point taught choice |
| CHEMMAT 760 | Catalogue course CHEMMAT 760 | 15 | Published 180-point taught choice |
| CHEMMAT 761 | Catalogue course CHEMMAT 761 | 15 | Published 180-point taught choice |
| CHEMMAT 763 | Catalogue course CHEMMAT 763 | 15 | Published 180-point taught choice |
| CHEMMAT 772 | Advanced Food Process Engineering | 15 | Published 180-point taught choice |
| CHEMMAT 773 | Food Process Systems Engineering | 15 | Published 180-point taught choice |
| CHEMMAT 778 | Dairy Process Engineering | 15 | Published 180-point taught choice |
| CHEMMAT 779A | Research Project | 15 | Published 180-point taught choice |
| CHEMMAT 779B | Research Project | 15 | Published 180-point taught choice |
| CHEMMAT 788 | Research Project | 30 | Published linked project code, no ME credit |
| CHEMMAT 788A | Research Project | 15 | Published linked project code, no ME credit |
| CHEMMAT 788B | Research Project | 15 | Published linked project code, no ME credit |
| CHEMMAT 796A | ME Thesis (Chemical and Materials) | 60 | Named specialisation thesis component |
| CHEMMAT 796B | ME Thesis (Chemical and Materials) | 60 | Named specialisation thesis component |
| CIVIL 703 | Catalogue course CIVIL 703 | 15 | Published 180-point taught choice |
| COMPSCI 704 | Catalogue course COMPSCI 704 | 15 | Published 180-point taught choice |
| COMPSCI 705 | Catalogue course COMPSCI 705 | 15 | Published 180-point taught choice |
| COMPSCI 711 | Catalogue course COMPSCI 711 | 15 | Published 180-point taught choice |
| COMPSCI 715 | Catalogue course COMPSCI 715 | 15 | Published 180-point taught choice |
| COMPSCI 725 | Catalogue course COMPSCI 725 | 15 | Published 180-point taught choice |
| COMPSCI 732 | Catalogue course COMPSCI 732 | 15 | Published 180-point taught choice |
| COMPSCI 734 | Catalogue course COMPSCI 734 | 15 | Published 180-point taught choice |
| COMPSYS 701 | Advanced Digital Systems Design | 15 | Published 180-point taught choice |
| COMPSYS 704 | Advanced Embedded Systems | 15 | Published 180-point taught choice |
| COMPSYS 705 | Formal Methods for Safety Critical Software | 15 | Published 180-point taught choice |
| COMPSYS 710 | Catalogue course COMPSYS 710 | 15 | Published 180-point taught choice |
| COMPSYS 711 | Catalogue course COMPSYS 711 | 15 | Published 180-point taught choice |
| COMPSYS 713 | Catalogue course COMPSYS 713 | 15 | Published 180-point taught choice |
| COMPSYS 714 | Catalogue course COMPSYS 714 | 15 | Published 180-point taught choice |
| COMPSYS 715 | Catalogue course COMPSYS 715 | 15 | Published 180-point taught choice |
| COMPSYS 721 | Catalogue course COMPSYS 721 | 15 | Published 180-point taught choice |
| COMPSYS 722 | Catalogue course COMPSYS 722 | 15 | Published 180-point taught choice |
| COMPSYS 723 | Catalogue course COMPSYS 723 | 15 | Published 180-point taught choice |
| COMPSYS 725 | Catalogue course COMPSYS 725 | 15 | Published 180-point taught choice |
| COMPSYS 726 | Robotics and Intelligent Systems | 15 | Published 180-point taught choice |
| COMPSYS 727 | Model-based Embedded Systems Design | 15 | Published 180-point taught choice |
| COMPSYS 728 | Special Topic | 15 | Published 180-point taught choice |
| COMPSYS 729 | Special Topic | 15 | Published 180-point taught choice |
| COMPSYS 730 | Catalogue course COMPSYS 730 | 15 | Published 180-point taught choice |
| COMPSYS 731 | Catalogue course COMPSYS 731 | 15 | Published 180-point taught choice |
| COMPSYS 732 | Catalogue course COMPSYS 732 | 15 | Published 180-point taught choice |
| COMPSYS 788 | Research Project | 30 | Published linked project code, no ME credit |
| COMPSYS 788A | Research Project | 15 | Published linked project code, no ME credit |
| COMPSYS 788B | Research Project | 15 | Published linked project code, no ME credit |
| COMPSYS 789 | Project Z | 15 | Published linked project code, no ME credit |
| COMPSYS 796A | ME Thesis (Computer Systems) | 60 | Named specialisation thesis component |
| COMPSYS 796B | ME Thesis (Computer Systems) | 60 | Named specialisation thesis component |
| ELECTENG 701 | Catalogue course ELECTENG 701 | 15 | Published 180-point taught choice |
| ELECTENG 703 | Advanced Power Systems | 15 | Published 180-point taught choice |
| ELECTENG 704 | Advanced Control Systems | 15 | Published 180-point taught choice |
| ELECTENG 706 | Topics in Digital Signal Processing | 15 | Published 180-point taught choice |
| ELECTENG 721 | Catalogue course ELECTENG 721 | 15 | Published 180-point taught choice |
| ELECTENG 722 | Catalogue course ELECTENG 722 | 15 | Published 180-point taught choice |
| ELECTENG 724 | Catalogue course ELECTENG 724 | 15 | Published 180-point taught choice |
| ELECTENG 726 | Catalogue course ELECTENG 726 | 15 | Published 180-point taught choice |
| ELECTENG 731 | Catalogue course ELECTENG 731 | 15 | Published 180-point taught choice |
| ELECTENG 732 | Catalogue course ELECTENG 732 | 15 | Published 180-point taught choice |
| ELECTENG 733 | Catalogue course ELECTENG 733 | 15 | Published 180-point taught choice |
| ELECTENG 734 | Power Electronics | 15 | Published 180-point taught choice |
| ELECTENG 735 | Catalogue course ELECTENG 735 | 15 | Published 180-point taught choice |
| ELECTENG 736 | Catalogue course ELECTENG 736 | 15 | Published 180-point taught choice |
| ELECTENG 737 | Advanced Radio Engineering | 15 | Published 180-point taught choice |
| ELECTENG 738 | Selected Topics in Advanced Power Systems | 15 | Published 180-point taught choice |
| ELECTENG 739 | Special Topic | 15 | Published 180-point taught choice |
| ELECTENG 740 | Special Topic | 15 | Published 180-point taught choice |
| ELECTENG 741 | Advanced Digital Communications | 15 | Published 180-point taught choice |
| ELECTENG 788 | Research Project | 30 | Published linked project code, no ME credit |
| ELECTENG 788A | Research Project | 15 | Published linked project code, no ME credit |
| ELECTENG 788B | Research Project | 15 | Published linked project code, no ME credit |
| ELECTENG 789 | Project Z | 15 | Published linked project code, no ME credit |
| ELECTENG 796A | ME Thesis (Electrical and Electronic) | 60 | Named specialisation thesis component |
| ELECTENG 796B | ME Thesis (Electrical and Electronic) | 60 | Named specialisation thesis component |
| ENERGY 721 | Catalogue course ENERGY 721 | 15 | Published 180-point taught choice |
| ENGGEN 705 | Catalogue course ENGGEN 705 | 15 | Published 180-point taught choice |
| ENGGEN 732 | Catalogue course ENGGEN 732 | 15 | Published 180-point taught choice |
| ENGGEN 769 | Catalogue course ENGGEN 769 | 15 | Published 180-point taught choice |
| ENGGEN 770 | Medical Device and Technology Development | 15 | Published 180-point taught choice |
| ENGGEN 771 | Medical Device Industry Practice | 15 | Published 180-point taught choice |
| ENGSCI 705 | Catalogue course ENGSCI 705 | 15 | Published 180-point taught choice |
| ENGSCI 706 | Catalogue course ENGSCI 706 | 15 | Published 180-point taught choice |
| ENGSCI 711 | Catalogue course ENGSCI 711 | 15 | Published 180-point taught choice |
| ENGSCI 712 | Catalogue course ENGSCI 712 | 15 | Published 180-point taught choice |
| ENGSCI 721 | Catalogue course ENGSCI 721 | 15 | Published 180-point taught choice |
| ENGSCI 740 | Catalogue course ENGSCI 740 | 15 | Published 180-point taught choice |
| ENGSCI 742 | Catalogue course ENGSCI 742 | 15 | Published 180-point taught choice |
| ENGSCI 746 | Catalogue course ENGSCI 746 | 15 | Published 180-point taught choice |
| ENGSCI 760 | Catalogue course ENGSCI 760 | 15 | Published 180-point taught choice |
| ENGSCI 761 | Catalogue course ENGSCI 761 | 15 | Published 180-point taught choice |
| ENGSCI 763 | Catalogue course ENGSCI 763 | 15 | Published 180-point taught choice |
| ENGSCI 765 | Catalogue course ENGSCI 765 | 15 | Published 180-point taught choice |
| ENGSCI 768 | Catalogue course ENGSCI 768 | 15 | Published 180-point taught choice |
| ENGSCI 772 | Catalogue course ENGSCI 772 | 15 | Published 180-point taught choice |
| ENGSCI 787 | Project X | 15 | Published linked project code, no ME credit |
| ENGSCI 788 | Research Project | 30 | Published linked project code, no ME credit |
| ENGSCI 788A | Research Project | 15 | Published linked project code, no ME credit |
| ENGSCI 788B | Research Project | 15 | Published linked project code, no ME credit |
| ENGSCI 789 | Project Z | 15 | Published linked project code, no ME credit |
| ENGSCI 795 | Research Project | 15 | Published linked project code, no ME credit |
| ENGSCI 795A | Research Project | 15 | Published linked project code, no ME credit |
| ENGSCI 795B | Research Project | 15 | Published linked project code, no ME credit |
| ENGSCI 796A | Thesis | 60 | Named specialisation thesis component |
| ENGSCI 796B | Thesis | 60 | Named specialisation thesis component |
| ENVENG 702 | Engineering Decision Making in Aotearoa | 15 | Published 180-point taught choice |
| ENVSCI 711 | Environmental Impact Assessment | 15 | Published 180-point taught choice |
| FOODSCI 703 | Catalogue course FOODSCI 703 | 15 | Published 180-point taught choice |
| FOODSCI 706 | Catalogue course FOODSCI 706 | 15 | Published 180-point taught choice |
| FOODSCI 707 | Catalogue course FOODSCI 707 | 15 | Published 180-point taught choice |
| FOODSCI 708 | Advanced Food Science | 15 | Published 180-point taught choice |
| FOODSCI 740 | Food Analysis | 15 | Published 180-point taught choice |
| FOODSCI 750 | Catalogue course FOODSCI 750 | 15 | Published 180-point taught choice |
| FOODSCI 751 | Catalogue course FOODSCI 751 | 15 | Published 180-point taught choice |
| GEOTHERM 785 | Catalogue course GEOTHERM 785 | 15 | Published 180-point taught choice |
| MECHENG 701 | Catalogue course MECHENG 701 | 15 | Published 180-point taught choice |
| MECHENG 710 | Advanced Industrial Automation | 15 | Published 180-point taught choice |
| MECHENG 711 | Advanced Computational Fluid Dynamics | 15 | Published 180-point taught choice |
| MECHENG 712 | Catalogue course MECHENG 712 | 15 | Published 180-point taught choice |
| MECHENG 713 | Catalogue course MECHENG 713 | 15 | Published 180-point taught choice |
| MECHENG 714 | Wind Engineering | 15 | Published 180-point taught choice |
| MECHENG 715 | Catalogue course MECHENG 715 | 15 | Published 180-point taught choice |
| MECHENG 718 | Catalogue course MECHENG 718 | 15 | Published 180-point taught choice |
| MECHENG 719 | Advanced Engineering Vibrations | 15 | Published 180-point taught choice |
| MECHENG 720 | Advanced Multivariable Control Systems | 15 | Published 180-point taught choice |
| MECHENG 722 | Catalogue course MECHENG 722 | 15 | Published 180-point taught choice |
| MECHENG 724 | Catalogue course MECHENG 724 | 15 | Published 180-point taught choice |
| MECHENG 726 | Catalogue course MECHENG 726 | 15 | Published 180-point taught choice |
| MECHENG 728 | Advanced MEMS and Microsystems | 15 | Published 180-point taught choice |
| MECHENG 730 | Advanced Biomechatronic Systems | 15 | Published 180-point taught choice |
| MECHENG 735 | Catalogue course MECHENG 735 | 15 | Published 180-point taught choice |
| MECHENG 736 | Catalogue course MECHENG 736 | 15 | Published 180-point taught choice |
| MECHENG 742 | Advanced Materials Manufacturing | 15 | Published 180-point taught choice |
| MECHENG 743 | Catalogue course MECHENG 743 | 15 | Published 180-point taught choice |
| MECHENG 747 | Catalogue course MECHENG 747 | 15 | Published 180-point taught choice |
| MECHENG 751 | Advanced CAD/CAM/CNC | 15 | Published 180-point taught choice |
| MECHENG 752 | Catalogue course MECHENG 752 | 15 | Published 180-point taught choice |
| MECHENG 753 | Advanced Industry 4.0 Smart Manufacturing | 15 | Published 180-point taught choice |
| MECHENG 754 | Catalogue course MECHENG 754 | 15 | Published 180-point taught choice |
| MECHENG 755 | Catalogue course MECHENG 755 | 15 | Published 180-point taught choice |
| MECHENG 788 | Research Project | 30 | Published linked project code, no ME credit |
| MECHENG 788A | Research Project | 15 | Published linked project code, no ME credit |
| MECHENG 788B | Research Project | 15 | Published linked project code, no ME credit |
| MECHENG 789 | Project Z | 15 | Published linked project code, no ME credit |
| MECHENG 796A | ME Thesis (Mechanical) | 60 | Named specialisation thesis component |
| MECHENG 796B | ME Thesis (Mechanical) | 60 | Named specialisation thesis component |
| MECHTRON 796A | ME Thesis (Mechatronics) | 60 | Named specialisation thesis component |
| MECHTRON 796B | ME Thesis (Mechatronics) | 60 | Named specialisation thesis component |
| MEDSCI 703 | Catalogue course MEDSCI 703 | 15 | Published 180-point taught choice |
| MEDSCI 737 | Catalogue course MEDSCI 737 | 15 | Published 180-point taught choice |
| PHYSICS 780 | Catalogue course PHYSICS 780 | 15 | Published 180-point taught choice |
| SOFTENG 701 | Advanced Software Engineering Development Methods | 15 | Published 180-point taught choice |
| SOFTENG 710 | Catalogue course SOFTENG 710 | 15 | Published 180-point taught choice |
| SOFTENG 711 | Catalogue course SOFTENG 711 | 15 | Published 180-point taught choice |
| SOFTENG 715 | Catalogue course SOFTENG 715 | 15 | Published 180-point taught choice |
| SOFTENG 751 | High Performance Computing | 15 | Published 180-point taught choice |
| SOFTENG 752 | Formal Specification and Design | 15 | Published 180-point taught choice |
| SOFTENG 753 | Catalogue course SOFTENG 753 | 15 | Published 180-point taught choice |
| SOFTENG 754 | Advanced Software Requirements Engineering | 15 | Published 180-point taught choice |
| SOFTENG 755 | Catalogue course SOFTENG 755 | 15 | Published 180-point taught choice |
| SOFTENG 761 | Advanced Agile and Lean Software Development | 15 | Published 180-point taught choice |
| SOFTENG 762 | Catalogue course SOFTENG 762 | 15 | Published 180-point taught choice |
| SOFTENG 788 | Research Project | 30 | Published linked project code, no ME credit |
| SOFTENG 788A | Research Project | 15 | Published linked project code, no ME credit |
| SOFTENG 788B | Research Project | 15 | Published linked project code, no ME credit |
| SOFTENG 789 | Project Z | 15 | Published linked project code, no ME credit |
| SOFTENG 796A | ME Thesis (Software Engineering) | 60 | Named specialisation thesis component |
| SOFTENG 796B | ME Thesis (Software Engineering) | 60 | Named specialisation thesis component |
| Total | 120 |
- Every route requires ACADINT A01 at zero points.
- Each 120 point plan is its named 796A and 796B thesis pair, worth 60 points each.
- Each 180 point plan uses exactly 60 taught points plus the same 120 point thesis.
- The 180 point student must earn GPA 5.0 across the first 60 taught points to continue in ME.
- Bioengineering is binding, but its exact 180 point plan is marked suspended for 2027.
- Project codes marked no ME credit remain listed only to prevent accidental selection.
- Civil is absent because current Civil research belongs to MCivilEng.
- Published inclusion does not guarantee semester availability, prerequisite clearance or approval.
The 120 point curriculum is compact but not flexible. Each specialisation has two named 60 point thesis enrolments ending 796A and 796B. Together they form the full 120 point research requirement, while ACADINT A01 remains a compulsory zero-point University course.
The 180 point curriculum adds exactly 60 taught points before or alongside the same thesis pair. The taught choices are specialisation-specific. Several plans import choices from named Master of Engineering Studies schedules, but the resulting ME remains a research award because its 120 point thesis is unchanged.
Bioengineering directly publishes thirteen taught choices and allows approved relevant 700-level substitutions, yet its exact 180 point plan is marked suspended. The row set is retained because it is binding curriculum evidence, not proof that the suspended route will accept a 2027 application.
Chemical and Materials can draw from its named schedule and the linked Food Engineering schedule. Computer Systems, Electrical and Electronic, Engineering Science, Mechanical, Mechatronics and Software each retain their own published choice rules and thesis codes.
Mechatronics has the broadest imported pool because its plan can draw from linked Computer Systems, Electrical, Mechanical and Mechatronics schedules. That breadth does not allow unrestricted selection. Prerequisites, relevance, timetable and Programme Director approval still narrow the working plan.
The linked taught schedules also expose research-project codes that receive no ME credit. They remain visible below with an exclusion note so an applicant does not mistake a MEngSt project for an ME elective. The 120 point ME thesis cannot be replaced by those smaller projects.
Course titles and codes were read from the 2027 Catalogue plan links. The audited union is 183 unique codes, of which 16 are the named ME thesis components. ACADINT A01 is added separately, producing 184 displayed rows without inventing any programme grouping.
A final study plan should start with the intended thesis pair, then add 60 eligible taught points only where the 180 route applies. Confirm offering semester, prerequisites, timetable, supervisor fit and any approved substitution before accepting an offer or paying fees.
The Bioengineering 180 point plan names BIOMENG 771, Chemical and Materials, Electrical, General Engineering, Engineering Science, Mechanical and Medical Science choices. This makes the taught semester deliberately interdisciplinary, but the plan also permits approved relevant 700-level substitutions. The crucial availability fact sits above the pool. The exact plan is marked suspended, so course names must not be read as an open 2027 route. A direct 120 point candidate instead enrols in BIOENG 796A and 796B after the required topic and supervision approval. An applicant who needs 180 points should ask whether another specialisation is academically valid rather than assuming a Bioengineering exception. The Andrew Pullan award is domestic-only and does not resolve the suspension for an Indian international applicant.
The Chemical and Materials 180 point plan uses a 60 point taught component and CHEMMAT 796A plus 796B. Its published choices span chemical processing, materials, energy, environmental engineering and food engineering through linked schedules. This breadth matters for transcript fit because an applicant can build preparation around the proposed thesis method without changing the award into Food Engineering or MEngSt. CHEMMAT 788, 788A and 788B appear in linked material but receive no ME credit, so they cannot replace the research thesis. The direct 120 point route contains only the thesis pair and ACADINT A01. Applicants should confirm which listed papers run in the intended semester and whether any prior knowledge or timetable restriction narrows the apparent pool.
The Computer Systems 180 point plan links a taught schedule containing Computer Systems, Electrical and Electronic, Environmental and Software Engineering papers. The 60 point taught requirement is still bounded by relevance and approval. COMPSYS 788, 788A, 788B and 789 receive no ME credit, which prevents the smaller MEngSt research-project structure from being substituted for COMPSYS 796A and 796B. A direct 120 point candidate completes only those two thesis enrolments plus academic integrity. The most useful course plan therefore begins with the proposed research system, identifies four compatible 15 point papers for the longer route and checks prerequisites. A long list of possible advanced papers is not permission to combine unrelated choices or evidence that every paper runs in both semesters.
The Electrical and Electronic 180 point plan provides advanced electrical and computer systems choices before ELECTENG 796A and 796B. Published topics span power, communications, electronics, control and related systems work, while ENVENG 702 is also present in the linked pool. ELECTENG 788, 788A, 788B and 789 are named no-credit project exclusions for this ME. This distinction is easy to miss because the plan imports a taught schedule belonging to another award. The applicant still needs exactly 60 taught points and the complete 120 point thesis. A coherent selection should support the intended investigation, not simply choose whichever four papers appear easiest. Actual offering semester, prerequisites and supervisor advice can make the usable selection smaller than the full published union.
The Engineering Science 180 point plan draws from advanced modelling, computation, optimisation, mathematical engineering, biomedical engineering, environmental engineering and geothermal study. ENGSCI 796A and 796B form the 120 point thesis. Eight linked research-project codes, including ENGSCI 787, 788 variants, 789 and 795 variants, receive no ME credit. Their presence in a referenced schedule is therefore exclusion evidence, not an elective opportunity. The 120 point route has no taught breadth and requires the thesis pair from the start. The 180 point route should use its four-course equivalent to close method gaps that matter to the proposed research. Applicants crossing from Science need the University to confirm that their completed mathematics, modelling and engineering content is relevant to this named specialisation.
The Mechanical 180 point plan combines directly listed Civil, General Engineering, Mechanical, Medical Science and Physics options with a linked Mechanical schedule. Its union includes aerospace, automation, dynamics, control, design, manufacturing, energy and biomechanical directions. MECHENG 788, 788A, 788B and 789 receive no ME credit, while MECHENG 796A and 796B remain the required thesis. The direct 120 point route uses the thesis pair without the 60 taught points. Because the pool reaches across departments, prerequisite checking is particularly important. A course may be published in the plan yet still require knowledge not visible from an Indian course title. The intended supervisor can help identify which four advanced papers genuinely support the research question and its experimental or computational methods.
The Mechatronics 180 point plan imports choices from Computer Systems, Electrical, Mechanical and Mechatronics taught schedules. It therefore has the largest apparent pool, covering automation, embedded systems, sensing, control, power, software and mechanical design. That range does not create an unrestricted free choice. The candidate still completes exactly 60 taught points, then MECHTRON 796A and 796B, and every selection remains subject to prerequisites, relevance and availability. The linked COMPSYS, ELECTENG and MECHENG 788-series and 789 projects receive no ME credit. A useful plan selects papers around one research system and identifies a fallback for timetable clashes. The 120 point route bypasses the taught pool entirely and suits only applicants whose prior engineering and research preparation meets the shorter-route assessment.
The Software 180 point plan permits published advanced Computer Science, Computer Systems, Environmental and Software Engineering papers before SOFTENG 796A and 796B. Topics include software architecture, dependable systems, human aspects, empirical methods and specialised computing choices. SOFTENG 788, 788A, 788B and 789 receive no ME credit, so a small software project cannot replace the 120 point thesis. The 120 point route contains the thesis pair and academic integrity only. For an Indian software engineer, relevance should be demonstrated through completed engineering and computing study, not a job title alone. The University can assess whether a prior computing degree is sufficiently engineering-related for this specialisation, and the proposed supervisor can test whether the topic fits current research capability.
Across all eight specialisations, the two route lengths answer different preparation gaps rather than different ambitions. Both end with the same 120 point research commitment. The 120 point path assumes that advanced coursework and substantial research preparation are already present. The 180 point path adds 60 taught points, then applies GPA 5.0 as a continuation threshold. It is therefore misleading to compare only price or duration. A shorter route can be unavailable even where the applicant can afford it, and a longer route can still end if the required Auckland result is missed. The offer should name the route, while the study plan should show how each taught paper supports the thesis rather than creating an unrelated collection of postgraduate courses.
The 184 displayed rows require careful reading. One row is the zero-point academic integrity course, 16 rows are thesis components and the remaining audited codes come from direct or linked plan schedules. Some of those remaining rows are expressly marked as receiving no ME credit. They are retained because omission would make the published curriculum look cleaner but less safe. An applicant should filter first by the named specialisation, then by route, then by eligibility, and finally by timetable and prerequisite. Only after those steps does a list of four taught papers become a credible 180 point plan. The table is a complete reference union, not a promise that every displayed code can be combined in one degree.
A transcript review should mirror the curriculum rather than compressing prior study into broad labels such as mechanical, electrical or software. For each proposed taught paper, the applicant can identify earlier mathematics, design, laboratory, programming or systems preparation that supports it. The same exercise exposes gaps before Admissions or a supervisor has to infer them. It also prevents a route choice based only on the programme title. A relevant bachelor’s degree may still lack a prerequisite for one advanced paper, while a degree with a different title may contain strongly relevant methods. The Catalogue remains the authority for what the ME permits, and the faculty decides equivalence. The value of this table is therefore diagnostic. It shows the full published decision space, the thesis commitment that cannot be avoided and the project codes that must not enter the ME plan.
Research timing also changes how the 180 point curriculum should be read. Faculty guidance permits a taught-first pattern or a pattern that combines 30 taught points and 30 thesis points in each of the first two semesters, followed by the remaining thesis enrolment. All 60 taught points must be completed within the stated sequence, and the GPA 5.0 continuation result remains binding. International applicants should not assume that every specialisation, supervisor and set of four papers supports both patterns. A taught-first plan can make academic preparation and progression easier to evidence, while an integrated plan can begin research earlier when supervision and topic readiness permit it. This is a sequencing choice within one 180 point award, not a third route. The offer, faculty approval and actual timetable should resolve the pattern before enrolment.
Should an Indian engineer shortlist the Auckland research ME?
Shortlist it when a research thesis is the point of the degree, the intended specialisation matches prior engineering study and a supervisor can support the topic. The 180 point route is the realistic starting case for many bachelor’s graduates. The choice still depends on cost, route fit and what the award does not confer automatically.
The 120 point route is not simply a cheaper option. The published 120-point basis expects four-year engineering preparation, postgraduate-level study and a substantial final-year research project. The broader entry route uses its opening 60 taught points as a progression check at GPA 5.0. The eight binding areas are Bioengineering, Chemical and Materials Engineering, Computer Systems Engineering, Electrical and Electronic Engineering, Engineering Science, Mechanical Engineering, Mechatronics Engineering and Software Engineering.
Three constraints matter. The 2027 suspension affects the 180-point Bioengineering plan despite its continued appearance in the binding schedule. The research ME is not an initial accredited engineering qualification or automatic CPEng route. No programme-specific return figure is available to connect this research cost with a measured graduate cohort.
Before deciding, compare full cost, route fit, research process and all courses.
- The Auckland ME is a research degree, not the taught Master of Engineering Studies.
- Both routes include a 120 point thesis and use GPE 5.0 for admission.
- The 120 point plan is about INR 54.15 lakh and the 18-month model about INR 80.99 lakh.
- The binding 2027 Catalogue lists eight specialisations, but Bioengineering 180 is suspended.
- Civil research now belongs to MCivilEng, so historical Civil ME accounts are not current route proof.
- No exact ME placement rate, salary distribution or automatic professional recognition was found.
Frequently asked questions
Is the University of Auckland ME the same as Master of Engineering Studies?
No. The ME is a research master's in which both routes contain a 120 point thesis. Master of Engineering Studies is a separate, mainly taught award with smaller research-project options. Applicants should check the award code on the offer because similar names do not create interchangeable structures or work conditions.
Can an Indian BTech graduate enter the 120 point ME?
Possibly, but a four-year title alone is insufficient. The normal overseas profile also expects postgraduate-level engineering study and a substantial final-year research project or dissertation worth at least one-quarter of that year. Auckland decides equivalence and may place a relevant bachelor's graduate in the 180 point route instead.
What is the GPE requirement for the Auckland ME?
The published baseline is GPE 5.0 for both loads, alongside relevant prior study. India's dated mapping gives different percentage bands by institutional pass mark and exemplar status, so there is no single safe national cut-off. Applicants should submit official grading evidence and request an individual route assessment.
How much is the Auckland ME for an Indian student in 2027?
The 120 point one-year planning total is NZD 94,939.40, about INR 54.15 lakh. The 180 point 18-month model is NZD 141,984.10, about INR 80.99 lakh. Both include tuition, living, latest service and insurance references, and one visa, but exclude flights, books and later increases.
Is Bioengineering available in the 2027 Master of Engineering?
The binding Catalogue lists Bioengineering among eight ME specialisations and publishes its 120 point thesis plan. However, the exact 180 point Bioengineering plan is marked suspended. An applicant who needs the 180 point entry route should obtain written confirmation for the intended intake before relying on this specialisation.
Can I study Civil Engineering within the current Auckland ME?
No current ME Civil plan appears in the binding 2027 Catalogue. The University directs Civil research applicants to the separate Master of Civil Engineering. Older graduates may accurately hold a Civil ME, but their historical route should not be treated as evidence that a new applicant can enrol in it now.
Does the Auckland ME give unlimited student work rights?
It can. Immigration New Zealand guidance can allow unlimited work for a full-time Research Masters containing at least 90 research credits, including where coursework comes first. Both ME loads have 120 thesis points. The actual eVisa conditions and continuing full-time enrolment control, and international students cannot be self-employed.
Does the Auckland ME lead automatically to CPEng or Indian recognition?
No. Engineering New Zealand does not list the research ME as an accredited initial professional engineering qualification, and CPEng requires separate knowledge and competence assessment. Indian equivalence is also case by case under UGC regulations. Applicants must check the requirement of each regulator, employer or further-study institution.
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.
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