BLDG7021 Architectural Practice: Construction
The Complete Study & Assessment Guide · S2 2026BLDG7021 Overview
- Semester 2 2026
- University of Queensland
- Postgraduate architecture course
- Individual IVAH hurdle
- Project based assessment
An integrated technical studio
Architectural Practice: Construction develops the technical knowledge and working habits needed to advance a commercial building from an initial brief into coordinated design development and documentation.
- Assessed by A group feasibility report, a design development review and final documentation, plus an IVAH hurdle that is a minimum attendance requirement across Week 5 to Week 9: satisfactory completion in at least 4 weeks, meaning four of five in-class activities, is required to pass.
- Hardest step Keeping planning, core, structure, services and facade decisions coordinated through every drawing revision.
- How to prepare Turn each requirement into a drawing, calculation or model check that another reviewer can verify.
What you get in the full BLDG7021 Study & Assessment Guide
- 10 chapters, 41 pages — every assessed topic
- 24 original practice questions, each with a model answer
- 10 worked examples, solved the way BLDG7021 marks
- 14 computed figures, redrawn from the course’s own numbers
- Before-you-submit checklist for the Assignment 3 (40%) — what markers reward, what costs marks
Free on this page: assessment table, chapter map, one worked example, key terms, FAQ. The rest is in the full study & assessment guide.
How BLDG7021 is assessed
| Component | Weight | Format |
|---|---|---|
| Assignment 1: Feasibility + Concept Design Report | 20% | Group submission; scheduled for Monday 17 August at 5:00pm |
| Assignment 2: Schematic Design - Process work · hurdle | Individual IVAH hurdle; work is submitted at the end of class in Weeks 5 to 9 | |
| Assignment 3: Design Development – Review | 40% | Individual work; due Friday 2 October at 5:00pm |
| Assignment 4: Documentation – Final | 40% | Individual project; due Friday 13 November at 5:00pm |
The three numeric components total 100%. Assignment 2 is a separate pass/fail identity-verified hurdle and minimum attendance requirement across Week 5 to Week 9: the activity must be completed satisfactorily in at least 4 weeks, meaning four of the five in-class activities, to pass the course. The Assignment 1 brief says due Week 5, while the teaching schedule lists Monday 17 August in Week 4; check Blackboard for the operational deadline.
Assessment structure
What other students are asking about BLDG7021
- Where can I find lecture notes or study guides for BLDG7021 at UQ?
- The BLDG7021 study guide in AskSia Library covers Architectural Practice: Construction in 10 chapters, with the assessment table, a chapter-by-chapter topic map, key terms and a worked example, free to read on this page.
- Is there a final exam in BLDG7021?
- No final exam is listed in the offering this AskSia Library guide is built from; BLDG7021 is assessed by Assignment 1: Feasibility + Concept Design Report 20%, Assignment 3: Design Development – Review 40%, Assignment 4: Documentation – Final 40%.
- What does BLDG7021 cover on planning controls and site strategy?
- In AskSia Library's BLDG7021 guide, the Planning Controls and Site Strategy chapter explains constraint registers, development controls, access, public space and option comparison.
- What does BLDG7021 cover on floorplate, core and vertical transport?
- In AskSia Library's BLDG7021 guide, the Floorplate, Core and Vertical Transport chapter explains nLA efficiency, office population, lifts, stairs, amenities, risers and tenancy flexibility.
- What does BLDG7021 cover on structural grids and buildable systems?
- In AskSia Library's BLDG7021 guide, the Structural Grids and Buildable Systems chapter explains bay planning, spans, load paths, transfer conditions, slab zones and facade coordination.
Current BLDG7021 dates
| Date | Item | Control |
|---|---|---|
| August 17, 2026 | Assignment 1 scheduled submission | The teaching schedule lists Monday at 5:00pm; the brief describes Week 5, so check Blackboard. |
| October 2, 2026 | Assignment 3 submission | Friday at 5:00pm. |
| November 13, 2026 | Assignment 4 submission | Friday at 5:00pm. |
Dates are as published in the Semester 2 2026 course outline teaching schedule and assignment briefs. Confirm exact deadlines and submission settings in the live LMS.
What BLDG7021 covers
Ten chapters follow the studio sequence from project brief and planning controls to coordinated BIM documentation.
Integrated Studio and Project Brief
Iterative design, evidence-led decisions, dependency tracking and a coordinated review loopThe studio treats design development as an iterative evidence loop. Requirements become tests, propositions are compared, consultant inputs are coordinated, and the selected solution is documented across a consistent drawing set.
- Classify requirements and targets
- Turn claims into visible evidence
- Track dependencies before changes
- Coordinate plans and sections
- Close the review loop
Planning Controls and Site Strategy
Constraint registers, development controls, access, public space and option comparisonPlanning controls become useful when they are translated into dimensions, areas, routes and option criteria.
- Build a constraint register
- Separate controls from targets
- Calculate planning ratios
- Draw access and servicing paths
- Compare equivalent site options
Floorplate, Core and Vertical Transport
NLA efficiency, office population, lifts, stairs, amenities, risers and tenancy flexibilityA commercial floorplate balances lettable area with the core and shared systems that make occupation possible.
- Reconcile NLA and GFA
- Calculate floor efficiency
- Estimate office population
- Coordinate lifts and stairs
- Test subdivision and change
Structural Grids and Buildable Systems
Bay planning, spans, load paths, transfer conditions, slab zones and facade coordinationThe structural grid is a shared coordination reference for columns, spans, slabs, facade modules, parking and fit-out. This chapter tests bay options against depth, load path, service clearance and planning flexibility.
- Establish the primary grid
- Compare bay spans
- Trace vertical load paths
- Identify transfer conditions
- Coordinate facade and services
Code Compliance, Access and Egress
Classification, travel paths, exit capacity, accessibility and compliance evidenceCode work begins with classification, rise in storeys, construction type and the actual building geometry.
- Establish classification assumptions
- Trace real travel paths
- Calculate indicative capacity
- Coordinate accessible movement
- Map fire-service space
Coordinating Building Services
Plant, risers, mechanical, electrical, hydraulic and fire-service distributionMechanical, electrical, communications, hydraulic and fire systems require plant, risers, distribution routes and maintenance access. This chapter traces every service from source to outlet and uses paired plans and sections to find clashes.
- Reserve plant and intake rooms
- Maintain vertical riser continuity
- Coordinate ceiling zones
- Resolve structural clashes
- Protect maintenance access
Facade Orientation and Sun Control
Solar geometry, fixed shading, orientation-specific devices and buildable interfacesFixed shading must respond to orientation and the critical solar period.
- Identify critical solar periods
- Draw plan and section rays
- Choose horizontal or vertical control
- Size an indicative projection
- Detail support and drainage
Glazing and Envelope Performance
U-value, SHGC, VLT, daylight, glare, thermal comfort and curtain-wall detailingGlazing performance balances heat transfer, solar gain, visible light, glare, views and comfort. This chapter distinguishes U-value, SHGC and VLT, then expands the review boundary to frames, spandrels, slab edges, shades, seals and drainage.
- Distinguish glazing metrics
- Define the system boundary
- Compare equivalent facade options
- Tune elevations by orientation
- Resolve curtain-wall junctions
Low Carbon and Long Life Design
Embodied and operational carbon, adaptation, circularity and lifecycle evidenceWhole-life design connects materials, construction, operation, adaptation and end of life.
- Separate carbon lifecycle stages
- Reduce operational demand
- Compare material impacts
- Design for adaptation
- Detail repair and disassembly
BIM Coordination and Technical Documentation
Plans, sections, details, schedules, issue control and tender-ready communicationTechnical documentation is a connected information system of plans, sections, details and schedules. This chapter establishes controlled information sources, stable naming, drawing references and revision checks.
- Set information sources
- Coordinate drawing references
- Trace critical conditions
- Control revisions and issues
- Verify the exported package
The course joins site planning, structural and environmental systems, construction technologies, services, consultant coordination, building codes and BIM.
Its central challenge is integration: a decision about the core also affects egress, lifts, structure, risers, tenancy planning and the facade, so a plausible proposal must show how those systems work together.
How the semester develops the project
The studio uses one design and documentation project and advances it through repeated cycles of research, drawing, modelling, review and revision.
Early work establishes the site, planning controls, access, commercial floorplate, core options and structural grid. Individual studio tasks then address building services, facade sun control, glazing, energy efficiency and low-carbon circular design.
The later submissions consolidate those decisions into a developed proposal and then a coordinated technical drawing set.
What makes the course demanding
Difficulty comes from the number of interfaces that must remain consistent. Area targets need a credible core. Code calculations need routes that work in plan. Structural spans need space for ducts and ceilings. Facade performance values need matching details.
Sustainability statements need visible design evidence.
BIM helps coordinate the information, but it does not decide whether the assumptions are correct or whether every dependent view has been updated.
The separate pass rule
The IVAH studio activities create a minimum attendance requirement across Week 5 to Week 9: students must complete the activity satisfactorily in at least 4 weeks, meaning four of the five in-class activities, to pass the course.
This hurdle sits outside the three numeric components.
How to use this guide
Work through the chapters in sequence, then use the practice cards as drawing-set audits. Every chapter translates a broad topic into a review method, a worked example and original practice with complete answers.
The calculations are shown step by step, while design questions identify the evidence and consultant input needed before a professional decision could be final. Keep the current course outline, live brief, NCC sources and studio feedback beside this guide because project-specific requirements and interpretations remain authoritative.
Worked example · free
Reconcile floor efficiency with population and core capacity
- 2Efficiency is 1,020 divided by 1,250, which equals 81.6%.
- 2Indicative office population is 1,020 divided by 10, which equals 102 people.
- 2Check exit capacity and travel, lifts, amenities, risers, structure, daylight and subdivision before accepting the plate.
Key terms
- Building Information Modelling
- A coordinated digital method for creating and managing building geometry and information across drawings and schedules.
- Net lettable area
- The floor area available for tenant occupation under the applicable measurement convention.
- Gross floor area
- The broader measured floor area used as the denominator in the course floor-efficiency check.
- Floor efficiency
- The ratio of net lettable area to gross floor area, expressed as a percentage.
- Structural grid
- The reference network that locates columns, spans and recurring coordination bays.
- Travel distance
- The measured accessible route a person follows to reach an exit or point of choice.
- Service riser
- A protected vertical zone carrying building services between floors.
- U-value
- A measure of heat transfer through a building element, where lower values indicate less transfer.
- Solar heat gain coefficient
- The fraction of incident solar energy admitted through glazing as heat gain.
- Visible light transmittance
- The fraction of visible light admitted through glazing.
- Embodied carbon
- Greenhouse-gas impact associated with materials and lifecycle processes beyond building operation.
- Loose-fit design
- An approach that allows a building to accommodate future uses without major reconstruction.
BLDG7021 FAQ
How is this course assessed?
The numeric grade comes from a 20% group feasibility and concept report, a 40% individual design development review, and 40% final documentation. Assignment 2 is a separate individual pass/fail IVAH hurdle completed through studio activities in Weeks 5 to 9.
What must I do to pass the hurdle?
The IVAH studio activities are a minimum attendance requirement across Week 5 to Week 9. To pass, the activity must be completed satisfactorily in at least 4 weeks, meaning four of the five in-class activities. The tasks cover services, facade sun control, glazing, energy efficiency and low-carbon circular design.
What does floorplate efficiency measure?
It divides net lettable area by gross floor area and expresses the result as a percentage. The ratio helps compare options, but it does not by itself prove daylight quality, egress, lift capacity, services space, structural logic or tenancy flexibility.
How should I approach code compliance?
Start with classification, rise in storeys and construction type, then map each applicable provision to a drawing or calculation. Trace real travel paths, connect population to capacity, and identify questions that need confirmation from the certifier, fire engineer or another consultant.
What makes a facade strategy convincing?
Show orientation-specific solar evidence, explain the fixed shading geometry, schedule the relevant glazing performance values and resolve the physical interfaces. The elevation, solar study, section, detail and schedule should all describe the same facade system.
What should I check before the final submission?
Compare the drawing register with the required package, trace critical conditions across plans, sections, details and schedules, verify revisions and model links, inspect the exported PDF at the issued size, and remove superseded files before upload.
Does the source folder contain past papers?
The available course files contain no past exam or sample final. The outline says high-scoring prior assignments may be loaded on Blackboard, but those examples were not provided, so the practice questions here are entirely original.
Questions students ask in each BLDG7021 chapter
- Why use a decision register?
- It keeps requirements, evidence and unresolved actions together, so a later model change can be traced through every affected system and drawing rather than repaired locally. Chapter 01 · Integrated Studio and Project Brief
- How should planning controls appear in the submission?
- Show the source and requirement in a summary, then dimension or quantify its consequence on the relevant plan, section, area schedule or movement diagram for direct review. Chapter 02 · Planning Controls and Site Strategy
- Is a higher floor efficiency always better?
- No. A stronger ratio can hide long travel, dark deep space, weak subdivision, undersized services or an impractical core, so quality and capacity need separate checks. Chapter 03 · Floorplate, Core and Vertical Transport
- What makes a structural grid useful to architects?
- It coordinates repeated positions across plans, sections, facade modules, partitions, parking and services, giving consultants and builders a stable reference for design, documentation and construction discussion. Chapter 04 · Structural Grids and Buildable Systems
- Why is a straight diagonal not a travel path?
- Travel follows the route a person can actually walk around walls, doors and tenancy boundaries, so diagonal measurement can understate distance and miss dead ends. Chapter 05 · Code Compliance, Access and Egress
- Why should services be planned early?
- Plant and distribution occupy real space and affect cores, structure, ceilings, facades and maintenance, so late insertion can invalidate an otherwise developed architectural layout and section. Chapter 06 · Coordinating Building Services
- When is horizontal shading most useful?
- Horizontal projections are a strong starting response to high-angle sun because their depth intercepts steep rays before they reach the glazing, occupied zone and critical reference point. Chapter 07 · Facade Orientation and Sun Control
- Does high VLT mean high energy performance?
- No. VLT concerns visible light, while heat transfer and solar gain need U-value and SHGC plus area, orientation, shading, frame, internal-load and occupied-comfort review for the selected room. Chapter 08 · Glazing and Envelope Performance
- How should a carbon claim be bounded?
- State the quantity, declared unit, factor source, geography and lifecycle modules included, then avoid extending a limited product-stage comparison into an unsupported whole-building carbon claim. Chapter 09 · Low Carbon and Long Life Design
- Does BIM guarantee coordinated documents?
- No. Shared geometry helps, but assumptions, annotations, links, revisions and consultant information still require deliberate review across all plans, sections, details, schedules and final exports. Chapter 10 · BIM Coordination and Technical Documentation
How to prepare for the assessments
Build one coordination register that grows with the semester. For every requirement, record its source, the design consequence, the drawing or calculation that proves it, the current status and the next action. After each studio review, update the model first and then trace the change through plans, sections, details, schedules and summaries.
Practise the quantitative checks by hand: area efficiency, population, indicative egress capacity, planning ratios, solar geometry and simple carbon comparisons. Alongside every number, write its units, boundary and assumption. For design topics, compare options on identical criteria rather than defending the first scheme.
Before each submission, select a few high-risk interfaces such as a core and stair, a beam and duct, a facade slab edge, a roof junction and a service riser. Follow each one across the complete set. This routine directly supports the rubric because it makes explanation, technical correctness, integration, legibility and accuracy visible to the reviewer.