63 Ann Street, Surry Hills, NSW

Sector

Commercial

Location

Surry Hills, NSW

The project at 63 Ann Street, Surry Hills, involves the fitout of the ground floor, converting it from a Class 5 commercial office to a Class 6 beauty salon.

This transformation requires significant fire engineering considerations to ensure compliance with the Building Code of Australia (BCA). The key fire safety design elements include modifications to the existing sprinkler system, structural fire protection, and adjustments to egress paths. The project is located in a commercial precinct, necessitating adherence to stringent safety and regulatory requirements.

Key Challenges:

  • Structural Fire Resistance: The reduction in Fire Resistance Level (FRL) of beams and columns from 180/180/180 minutes to 60/-/-.
  • Fire Compartmentation: The timber floor of Level 01 acting as a fire compartment boundary without additional protection.
  • Sprinkler System Modifications: Retaining the existing AS 2118.1-1995 sprinkler system with modifications instead of upgrading to AS 2118.1-2017.
  • Exit Width Constraints: The existing stair width being less than the required 1.0m.
  • Occupant Evacuation: Ensuring safe egress for both staff and visitors, given the change in occupancy classification.

Key Solutions:

  • Structural Fire Protection: Application of intumescent paint to achieve a 60-minute FRL for beams and columns, ensuring stability in case of fire.
  • Fire Compartmentation Strategy: Fire engineering analysis demonstrating that the timber floor will not be compromised by expected fire conditions.
  • Sprinkler System Adjustments: Retention of the existing system with the installation of fast-response sprinkler heads (RTI of 50, activation at 68ยฐC) to enhance fire suppression capabilities.
  • Optimised Egress Pathways: Fire engineering analysis confirming that a stair width of 800mm is adequate for occupant evacuation, given the expected occupant load.
  • Fire Safety Management Plan: Monthly inspections of fire protection measures, particularly the intumescent paint, to ensure ongoing compliance and system effectiveness.

Key Outcomes:

  • Compliance Achieved: Fire engineering solutions successfully demonstrate compliance with BCA Performance Requirements CP1, CP2, and EP1.4.
  • Preservation of Existing Infrastructure: Retaining the current sprinkler system and timber floor structure while ensuring adequate fire safety performance.
  • Efficient and Safe Evacuation Routes: Fire safety engineering confirms that occupant evacuation times remain within acceptable limits despite the reduced stair width.
  • Minimised Fire Risk: Enhanced fire suppression measures, including fast-response sprinklers, provide improved safety for occupants.
  • Sustainable and Cost-Efficient Approach: Avoidance of unnecessary upgrades while ensuring fire safety compliance.

A Benchmark in Fire Safety and Compliance

The 63 Ann Street fitout project demonstrates how fire engineering solutions can effectively balance compliance, cost-efficiency, and design flexibility. Through strategic fire safety measures, the project maintains structural integrity, optimises fire suppression, and ensures occupant safety. This development sets a benchmark for commercial fitouts requiring innovative fire safety strategies.

39 Park Street, Narrabeen, NSW

Sector

Residential

Location

Narrabeen, NSW

The project at 39 Park Street, Narrabeen, involves the construction of a new five-storey residential building.

The development comprises a basement car park and four levels of residential apartments. The fire engineering assessment was necessary due to specific non-compliances with the Building Code of Australia (BCA) Deemed-to-Satisfy (DtS) provisions. Performance solutions were developed to address these deviations while ensuring the building maintains fire safety compliance. Key considerations included egress strategies, fire hydrant design, and structural fire protection measures.

Fire Safety Challenges:

  • Structural Fire Resistance: A structural column within the roof structure will not be provided with a Fire Resistance Level (FRL), necessitating a performance-based justification.
  • Egress Compliance: The basement car park is designed with a single exit instead of the required two, requiring alternative egress solutions.
  • Fire Hydrant System Openings: The fire hydrant system is designed to AS 2419.1-2017 instead of AS 2419.1-2005, impacting compliance with BCA requirements.
  • Fire Extinguisher Placement: Portable fire extinguishers are installed on the mid-landing of staircases rather than at the levels they serve.

Fire Engineering Solutions:

  • Structural Fire Protection: The roof column is assessed as part of the overall roof structure, ensuring that its failure does not compromise fire safety performance.
  • Optimised Egress Strategy: The single exit in the basement is justified through performance-based fire engineering, considering occupant distribution, fire detection systems, and ventilation measures.
  • Fire Hydrant Compliance: The hydrant system provides full coverage within 70 metres of the fire brigade appliance and up to four storeys, ensuring adequate firefighting capability.
  • Extinguisher Placement Justification: Fire extinguishers on mid-landings remain accessible within 10 metres of unit entries, ensuring compliance with performance requirements.

Project Outcomes:

  • Achieved BCA Compliance: Performance solutions were successfully developed to address fire safety concerns while meeting regulatory requirements.
  • Improved Fire Safety Without Additional Costs: Alternative design solutions optimised fire safety measures while avoiding unnecessary structural modifications.
  • Enhanced Occupant Safety: The combination of smoke detection, sprinkler protection, and improved egress provisions ensures safe evacuation in the event of a fire.
  • Fire Brigade Accessibility Ensured: Fire hydrant locations and signage facilitate effective fire brigade intervention.

A Benchmark for Fire Engineering in Residential Developments

The fire engineering solutions implemented for 39 Park Street, Narrabeen, demonstrate a commitment to safety, compliance, and innovation. The project successfully navigated challenges related to egress, structural fire protection, and hydrant system compliance while preserving design intent. This development sets a strong precedent for integrating performance-based fire safety solutions in residential buildings.

Reserve Bank of Australia, H.C. Coombs Centre, NSW

Sector

Workplace

Location

Kirribilli, NSW

The H.C. Coombs Centre, located at 122A Kirribilli Ave, Kirribilli, NSW 2061, is undergoing a refurbishment and upgrade to enhance its functionality while ensuring compliance with fire safety requirements.

The project involves the addition of new sanitary facilities, additional rooms, and an upgrade of the fire services, including fire hydrants and sprinklers. The building is classified as Class 9 under the BCA and constructed as Type A, reflecting its significant commercial use.

Key Fire Safety Challenges:

  • Compliance with Fire Separation Requirements: The fire wall between the Coombs Centre and Carabella House does not extend to the roof, necessitating an alternative solution to prevent fire spread.
  • Egress Constraints: The building features reduced egress widths and ceiling heights in certain areas, particularly Fire Stair 1 and heritage stairs, which require mitigation to ensure safe evacuation.
  • Unprotected Openings: Openings within 3 metres of the Carabella House and site boundary pose a risk of fire spread.
  • Extended Public Corridors: The public corridors in the Class 3 portion exceed the permissible length, increasing the risk of smoke logging.
  • Fire Hydrant Accessibility: The fire hydrant outlets are not within fire-isolated stairs, necessitating additional provisions to facilitate firefighting operations.

Key Fire Engineering Solutions:

  • Fire Separation Measures: Fire-resistant construction and the provision of sprinklers minimise fire spread between the Coombs Centre and Carabella House, addressing the issue of the fire wall not reaching the roof.
  • Egress Enhancements: Caution tape and padding in low-clearance areas, along with compliance with NFPA 101 anthropometric data, ensure occupants can evacuate safely despite reduced dimensions.
  • Protection of Openings: Radiative heat assessments confirm that fire spread through openings is mitigated, and appropriate barriers are provided where necessary.
  • Corridor Smoke Management: Sprinkler protection and fire-resistant compartmentation ensure extended corridors remain tenable in case of fire.
  • Fire Hydrant Signage and Accessibility: Signage and hydrant block plans improve firefighter access, mitigating risks associated with hydrant location.

Key Outcomes:

  • Achieved Full Compliance with BCA Performance Requirements: The fire engineering solutions ensure compliance despite deviations from Deemed-to-Satisfy provisions.
  • Preserved Architectural Integrity: Heritage elements such as existing stairways were retained while integrating fire safety solutions.
  • Enhanced Egress and Safety Measures: Alternative pathways and clear signage facilitate safe evacuation.
  • Improved Firefighting Provisions: Upgraded fire hydrant systems and sprinklers provide enhanced protection against fire hazards.
  • Long-Term Sustainability and Adaptability: The fire safety solutions implemented ensure the building remains compliant and safe for future use.

A Landmark in Fire Safety and Innovation

The refurbishment of the H.C. Coombs Centre successfully integrates modern fire safety solutions with heritage and commercial considerations. The project exemplifies engineering excellence, balancing compliance, sustainability, and user safety in a highly regulated environment.

Glenmore Park High School, NSW

Sector

Education

Location

Glenmore Park, NSW

The Glenmore Park High School New Hall project involves the construction of a new two-storey multi-purpose school hall at Glenmore Park High School, NSW.

The facility is designed to include a raised stage area, back-of-house holding rooms, change rooms, storage areas, two flexible learning spaces, and a performance hall with seating for over 400 occupants. The development also requires demolition and site clearance before construction. The hall is a significant addition to the schoolโ€™s infrastructure, enhancing its ability to host large-scale educational and cultural events.

Key Challenges:

  • Safety and Compliance: The design required a performance-based solution due to non-compliant exit provisions in several areas, including the Control Room and Services Rooms on the first floor.
  • Architectural Constraints: The omission of a proscenium wall and fire safety curtain to maintain an open-plan stage design while ensuring compliance with fire separation requirements.
  • Sustainability Considerations: The integration of solar panels required an appropriate isolation switch and fire safety measures to mitigate electrical fire hazards.
  • Cost Efficiency: Rationalisation of smoke exhaust rates from 65,000 L/s to 30,000 L/s was necessary to balance safety compliance with budget constraints.
  • Technical Complexity: Reduced egress widths and heights in plant areas required special signage, fire-resistant padding, and restricted access provisions.

Key Solutions:

  • Optimised Egress Solutions: A performance-based design allowing for a single exit in certain areas while implementing additional safety measures, including enhanced signage, restricted access, and training for maintenance personnel.
  • Fire Suppression Systems: Additional portable fire extinguishers were provided in areas without fire hose reel coverage, ensuring manual fire suppression capabilities.
  • Smoke Hazard Management: A rationalised automatic smoke exhaust system was implemented above the stage, supported by make-up air provisions through hydraulically operated doors.
  • Structural Fire Protection: The Chair Store was fire-separated with walls achieving a 120/120/120 fire-resistance level (FRL), mitigating fire spread risks in the back-of-house area.
  • Enhanced Fire Safety Systems: The Siemens Cerberus Pro smoke detection system, using advanced signal analysis, was incorporated to reduce false alarms while maintaining effective smoke detection.

Key Outcomes:

  • Achieved Full Compliance with the BCA: All identified deviations from the Deemed-to-Satisfy (DtS) provisions were addressed through robust performance solutions.
  • Maintained Architectural Integrity: The omission of the proscenium wall was successfully managed while ensuring fire separation requirements were met.
  • Enhanced Safety and Efficiency: The rationalised smoke exhaust system provided effective smoke management while reducing unnecessary system over-design.
  • Sustainability and Innovation: The integration of solar panels with appropriate fire safety measures supports the schoolโ€™s sustainability objectives.
  • Improved Occupant Awareness and Training: Additional signage, restricted access, and fire safety training were implemented to enhance occupant preparedness.

Setting a New Standard in Educational Facilities

The Glenmore Park High School New Hall project exemplifies the seamless integration of fire safety with modern educational infrastructure. Through innovative fire engineering solutions, the project successfully addressed key challenges while ensuring compliance, safety, and sustainability. This development sets a benchmark for future school projects, demonstrating excellence in fire safety engineering within an educational setting.

1 Chandos Street, St Leonards, NSW

Sector

Office & Commercial

Location

St Leonards, NSW

The fire safety upgrade of 1 Chandos Street, St Leonards, was initiated in response to a Fire Safety Order issued by North Sydney Council.

The commercial office building, spanning 12 storeys with two basement levels, required enhancements to meet compliance with the Building Code of Australia (BCA). The project incorporated a services upgrade and implemented several performance solutions to enhance occupant safety while maintaining the building’s operational functionality.

Key Challenges:

  • Egress Compliance: The building featured a reduced number of exits and exit discharge locations, requiring performance-based egress solutions.
  • Fire Hydrant and Sprinkler: The location of the fire hydrant and sprinkler booster was non-compliant, necessitating an alternative fire suppression strategy.
  • Smoke Management: The original design did not provide stair pressurisation for above-ground egress stairs, impacting safe evacuation conditions.
  • Exit Discharge Constraints: The basement stair discharged into the entry lobby instead of directly outside, requiring alternative safety measures.
  • Fire Control Centre Location: The fire control centre was retained in a non-compliant location, necessitating alternative access solutions.

Implemented Solutions:

  • Performance-Based Egress Design: A reduced number of exits was justified through evacuation modelling, ensuring safe occupant movement.
  • Fire Hydrant and Sprinkler Modifications: Portable fire extinguishers were installed throughout the building, while existing basement sprinkler protection was retained.
  • Smoke Lobby Implementation: Smoke lobbies were introduced as an alternative to stair pressurisation, providing sufficient smoke separation for evacuating occupants.
  • Fire Load Management in Entry Lobby: The entry lobby was designated as a fire-load-controlled area, limiting potential hazards for occupants exiting from the basement stair.
  • Fire Control Centre Signage & Accessibility Improvements: Firefighter access to the fire control centre was improved through dedicated signage and management procedures.

Key Outcomes:

  • Regulatory Compliance: The implemented performance solutions ensured compliance with the BCA.
  • Enhanced Occupant Safety: The new fire safety measures provided improved protection and safe evacuation conditions.
  • Optimised Fire Systems Integration: The upgrades successfully incorporated alternative fire safety measures without disrupting the buildingโ€™s existing operations.
  • Improved Fire Brigade Accessibility: Modifications to hydrant locations and signage improved fire brigade intervention response times.
  • Long-Term Building Safety: The upgrade ensured future adaptability and continued fire safety compliance.

A Comprehensive Fire Safety Upgrade for Enhanced Compliance and Safety

The fire safety upgrade at 1 Chandos Street, St Leonards, effectively addressed regulatory non-compliances while maintaining the buildingโ€™s operational efficiency. Through strategic implementation of performance solutions, the project achieved a balance between compliance, safety, and functional design. This upgrade ensures that occupants and first responders are provided with a safer environment, meeting modern fire safety standards and reinforcing the long-term resilience of the building.

56a The Esplanade, Ettalong Beach, NSW

Sector

Residential

Location

Ettalong Beach, NSW

The project at 56a The Esplanade, Ettalong Beach, involves the development of a four-storey residential building with a basement level.

The primary frontage of the building faces The Esplanade, while vehicular access to the basement is provided via Broken Bay Road. The project required a comprehensive fire engineering assessment to address compliance with the Building Code of Australia (BCA) and ensure the implementation of necessary fire safety measures.

Key Fire Safety Challenges:

  • Protection of Openings in External Walls: Several openings within 3m of the adjacent allotment boundary did not comply with BCA Clause C3.4.
  • Lift Door Insulation: The lift shaft required a 90/90/90 FRL rating, but lift doors on Level 1 only achieved an FRL of -/60/-.
  • Egress Compliance in Basement: The basement provided only a single exit instead of the required two, with extended travel distances up to 34m instead of the allowable 20m.
  • Fire Hydrant System Compliance: The project proposed compliance with AS 2419.1:2021 instead of AS 2419.1:2005, requiring justification under the fire engineering approach.

Project Outcomes:

  • BCA Compliance Achieved: The fire engineering strategies successfully addressed all identified DtS non-compliances.
  • Enhanced Fire Safety Measures: Upgraded alarm systems and strategic use of sprinklers improved occupant safety beyond standard compliance levels.
  • Improved Emergency Egress: Performance-based solutions ensured equivalent or better evacuation times compared to standard compliance requirements.
  • Future-Proofed Fire Protection: Adoption of AS 2419.1:2021 positioned the project in alignment with anticipated regulatory changes.

Fire Engineering Solutions:

  • Heat Attenuation Screens: Unprotected openings were justified through thermal radiation analysis, with specific windows protected by attenuation screens to mitigate fire spread.
  • Sprinkler Protection for Lift Doors: Fast-response sprinkler heads were installed near lift doors on Level 1 to enhance fire resistance and limit heat transfer.
  • Optimised Egress Startegyย : An advanced Building Occupant Warning System with voice alarms was implemented to offset the extended egress distances, coupled with emergency lighting and signage improvements.
  • Fire Hydrant System Justification: The adoption of AS 2419.1:2021 was supported by fire engineering analysis and deemed equivalent or superior to AS 2419.1:2005, aligning with future BCA amendments.

A Benchmark in Fire Engineering for Residential Developments

The fire engineering solutions implemented for 56a The Esplanade, Ettalong Beach, demonstrate a well-balanced approach to safety, regulatory compliance, and design efficiency. Through advanced risk assessment methodologies and strategic fire protection measures, the project establishes a high standard for fire safety in mixed-use residential developments.

Hub Wynyard, Carrington Street, NSW

Sector

Office & Commercial

Location

Carrington, NSW

The Hub Wynyard project involves the fitout of Levels 11 and 12 of the commercial office building at 10 Carrington Street, Sydney, to create a new co-working โ€˜clubhouse.โ€™

The fitout includes workspaces, meeting rooms, and quiet booths, offering a dynamic and flexible working environment for businesses and entrepreneurs. The project addresses challenges related to fire safety compliance while preserving the intended functionality and aesthetic of the fitout.

ย Key Fire Safety Challenges:

  • Compliance with Updated Fire Standards: The fitout must reconcile compatibility issues between the base building’s fire safety infrastructure (BCA 2015) and updated fire safety standards (BCA 2019 Amendment 1).
  • Quiet Booth Fire Hazard Properties: The materials used in the quiet booths do not meet standard fire hazard properties, and these spaces lack fire safety provisions such as sprinklers, smoke detection, and emergency warning systems.
  • Occupancy Management: The number of workstations exceeds the occupant capacity allowed under the base-building Fire Engineering Report, necessitating an effective occupant management strategy.
  • Hydrant Coverage Shortfall: Certain focus rooms on Level 11 are beyond the reach of a single hydrant hose, requiring an alternative firefighting approach.

Fire Safety Solutions Implemented:

  • Fire Standard Compliance Strategy: The fire safety provisions of the base building were assessed against BCA 2019 standards, demonstrating equivalence in performance through a comparative approach.
  • Quiet Booth Fire Protection Measures: While sprinklers and smoke detectors were omitted inside the booths, additional fire safety measures were implemented, including external smoke detectors, additional sprinklers above the booths, and strategically placed emergency speakers emitting sound at 95dB.
  • Occupancy Management Plan: A Bellwether occupancy monitoring system was installed, along with management protocols to restrict the maximum number of occupants per level to 260.
  • Hydrant Coverage Strategy: Fire hydrant block plans and signage were provided to inform firefighters of the need for two lengths of hose to reach certain areas, ensuring effective fire response.

Project Outcomes:

  • Achieved Full Compliance with BCA: The implemented fire safety solutions successfully addressed the identified compliance gaps, ensuring adherence to the BCA.
  • Preserved Functional and Aesthetic Integrity: The fire safety measures integrated seamlessly into the design, maintaining the intended functionality and high-quality workspace environment.
  • Effective Occupancy Management: The occupancy monitoring system and operational management practices ensured safe and efficient use of the space.
  • Enhanced Fire Brigade Response Capability: The provision of clear hydrant coverage plans and additional signage facilitated effective firefighting operations.
  • Innovative Approach to Fire Safety in Co-Working Spaces: The solutions employed set a precedent for fire safety in flexible work environments.

A Benchmark for Safe and Functional Co-Working Spaces

The Hub Wynyard fitout successfully balances compliance, functionality, and design intent. Through strategic fire engineering solutions, the project enhances fire safety while maintaining a modern and flexible co-working environment. This project serves as a model for integrating performance-based fire safety solutions within commercial fitouts, ensuring both regulatory compliance and occupant safety.

Tresillian Family Care Centre, Wollstonecraft, NSW

Sector

Healthcare & Community

Location

Wollstonecraft, NSW

The Tresillian Family Care Centre, located at 25 Shirley Road, Wollstonecraft, is a five-storey residential care facility designed to support families with newborns and toddlers

The centre features a lower ground car park, consulting suites on the ground floor, short-term residential accommodation on levels 1 and 2, and a teaching and seminar space on level 3. The development integrates modern fire safety solutions to ensure compliance with the Building Code of Australia (BCA) while maintaining a welcoming environment for families in need of support. Key project considerations include heritage constraints related to the adjacent Guthrie Centre and the need for performance-based fire safety solutions.

Key Challenges:

  • Safety and Compliance: The proximity of the Guthrie Centre, with unprotected external openings, necessitated a fire separation strategy without requiring upgrades to the existing structure.
  • Architectural Constraints: The need for an open and community-oriented design led to the omission of traditional bounding construction and fire-resistant compartmentation in some areas.
  • Sustainability Considerations: Sprinkler coverage was optimised to exclude certain external areas, such as the lower ground boardwalk, to preserve the siteโ€™s heritage features.
  • Cost-Efficiency: Extended travel distances in the car park and residential levels were addressed through a combination of smoke detection and enhanced management provisions.
  • Technical Complexity: The integration of a rationalised stair pressurisation system required careful analysis to ensure compliance with BCA smoke hazard management provisions.

Fire Safety Solutions Implemented:

  • Structural Fire Protection: A performance-based fire separation solution was adopted to ensure compliance without modifications to the Guthrie Centre.
  • Optimised Egress Solutions: A combination of extended travel distances and alternative exit strategies was justified through smoke compartmentation and enhanced fire detection.
  • Material Selection: Toughened glass with sprinkler protection was utilised for fire compartmentation where traditional fire-rated walls were impractical.
  • Integration with Building Systems: The fire hydrant system was designed in accordance with AS 2419.1-2017, ensuring adequate fire brigade intervention capabilities.
  • Evacuation Management: Staff were trained in emergency evacuation procedures, and Personal Emergency Evacuation Plans (PEEPs) were developed for overnight residents.

Project Outcomes:

  • Full Compliance Achieved: Performance solutions successfully demonstrated compliance with NCC 2019 Amendment 1 requirements.
  • Preservation of Architectural Intent: Fire safety measures were integrated seamlessly with the building design to maintain the centre’s welcoming environment.
  • Cost-Effective Fire Engineering Solutions: Rationalised fire resistance levels and alternative exit strategies minimised construction costs while maintaining safety.
  • Enhanced Occupant Safety: The implementation of a structured fire management plan ensures timely evacuation and improved fire response capabilities.
  • Long-Term Sustainability: Fire safety solutions were designed with adaptability in mind, ensuring the facility meets evolving fire safety standards over time.

A Benchmark in Healthcare Fire Safety

The Tresillian Family Care Centre sets a new benchmark in fire safety for healthcare facilities, balancing innovative engineering solutions with stringent compliance requirements. By integrating advanced fire separation strategies, optimised egress solutions, and a robust fire management plan, this project ensures a safe and supportive environment for families. The successful implementation of these measures underscores the project teamโ€™s commitment to safety, sustainability, and excellence in fire engineering.

78 Dalhousie Street, Haberfield, NSW

Sector

Library

Location

Haberfield, NSW

The Haberfield Centre and Library, located at 78 Dalhousie Street, Haberfield, NSW 2045, is undergoing an extensive refurbishment to enhance its community and library services.

The building, classified as Class 9b (assembly) under the Building Code of Australia (BCA), features multiple library rooms and a dedicated children’s area. Due to the nature of occupancy, key fire safety measures have been assessed to ensure compliance with the relevant performance requirements of the BCA.

A significant aspect of the project involves upgrading the egress system. The design proposes the use of sliding doors in lieu of swing doors with panic bars, necessitating a Performance Solution to ensure safe evacuation during emergencies. The fire safety assessment ensures that compliance with BCA standards is met while maintaining the functional and aesthetic integrity of the library and community centre.

Key Challenges:

  • Safety and Compliance: The interconnecting stair between Levels 02 and 04 creates an atrium-like condition that does not meet BCA Specification G3.8 fire safety requirements.
  • Architectural Constraints: The project design includes glazed separations at Level 03, which deviate from standard fire-rated wall construction.
  • Egress and Travel Distances: Travel distances exceed standard DtS limits, necessitating justification through performance-based fire safety engineering.
  • Sprinkler Coverage: Sprinkler protection is not provided beneath the interconnecting stair flights and landings, requiring an alternative risk mitigation strategy.
  • Stair Pressurisation: The existing stair pressurisation system must be modified to accommodate the performance-based compartmentation strategy.

Fire Safety Solutionย 

  • Automated Sliding Doors for Safe Egress: Doors D-01 and D-14 will open upon fire detection or power failure, remaining open until manually reset to ensure an unimpeded escape path.
  • Fail-Safe Mechanism: Both sliding doors are designed to remain open during emergency situations, preventing delays in evacuation.
  • Manual Override: A push-to-open button with battery backup will be installed, ensuring accessibility even in the event of a system failure.
  • Enhanced Signage and Wayfinding: Emergency lighting and clearly marked exit signage will be installed to guide occupants efficiently to the nearest egress points.
  • Integrated Building Management Plan: Fire safety management protocols will be implemented, including regular inspections and maintenance of fire protection systems.

Outcomes

  • Achieved BCA Compliance: The Performance Solution ensures adherence to BCA Performance Requirement DP2 for safe movement and evacuation.
  • Preserved Architectural Integrity: The project successfully integrates fire safety solutions without compromising the libraryโ€™s functional and aesthetic design.
  • Enhanced Fire Safety Measures: Implementation of fail-safe sliding doors, emergency lighting, and improved egress routes significantly improve occupant safety.
  • Sustainability and Efficiency: The upgraded fire systems align with sustainability objectives by using energy-efficient components and materials.
  • Seamless Evacuation Strategy: The integration of automated doors and clear wayfinding measures ensures swift and safe evacuation in emergency situations.

A Benchmark for Public Safety and Design Excellence

The refurbishment of the Haberfield Centre and Library demonstrates a successful balance between safety, compliance, and architectural integrity. By implementing innovative fire engineering solutions, the project ensures a high standard of fire safety while maintaining the buildingโ€™s heritage and functional objectives. The outcome sets a new benchmark for fire safety in public buildings, providing a safe and welcoming space for the community.

oOh!Media Fitout at 73 Miller Street, North Sydney, NSW

Sector

Office

Location

Miller Street, NSW

The oOh!Media Fitout at 73 Miller Street, North Sydney, involves the interior refurbishment of Levels 02 to 05 within an existing commercial office building.

The scope includes the installation of an interconnecting stair over three levels, which does not fully comply with the Deemed-to-Satisfy (DtS) provisions of the Building Code of Australia (BCA). This necessitates a performance-based fire engineering approach to ensure compliance with relevant fire safety regulations. Key constraints include maintaining egress efficiency, integrating fire suppression measures, and preserving the architectural integrity of the space.

Key Challenges

  • Safety and Compliance: The interconnecting stair between Levels 02 and 04 creates an atrium-like condition that does not meet BCA Specification G3.8 fire safety requirements.
  • Architectural Constraints: The project design includes glazed separations at Level 03, which deviate from standard fire-rated wall construction.
  • Egress and Travel Distances: Travel distances exceed standard DtS limits, necessitating justification through performance-based fire safety engineering.
  • Sprinkler Coverage: Sprinkler protection is not provided beneath the interconnecting stair flights and landings, requiring an alternative risk mitigation strategy.
  • Stair Pressurisation: The existing stair pressurisation system must be modified to accommodate the performance-based compartmentation strategy.

Fire Engineering Solutions

  • Developed a Performance Solution allowing stainless steel drainage pipe penetrations to be protected via alternative methods.
  • Demonstrated compliance with BCA Performance Requirements mitigating fire spread risks in a sensitive healthcare setting.

The Outcomes:

  • A compliant fire safety strategy that supports the refurbishment of critical dialysis services.
  • A solution that integrates with the existing fire safety measures.
  • A performance-based approach supporting fire safety compliance while accommodating the hospitalโ€™s operational needs.

This project highlights how fire engineering solutions can enable the seamless refurbishment of healthcare facilities while maintaining the required standard of safety and compliance.

The Bimbadgen Estate Winery, 790 McDonalds Road, Pokolbin, NSW

Sector

Residential

Location

McDonalds Road, Pokolbin, NSW

The Bimbadgen Estate Winery, located at 790 McDonalds Road, Pokolbin, NSW, is expanding its facilities with the addition of a new gin distillery.

This project involves converting an existing 40mยฒ space within the winery into a distillery, ensuring compliance with the Building Code of Australia (BCA). The distillery will be accessible only to employees and will be separated from the public areas by an aluminium-framed glass wall. The project aims to maintain the aesthetic and functional integrity of the winery while integrating modern fire safety measures.

Key Challenges:

  • Safety and Compliance: Ensuring compliance with BCA Type B construction requirements for a Class 8 facility while maintaining the existing structureโ€™s integrity.
  • Architectural Constraints: The integration of fire-rated materials without impacting the visual and functional appeal of the winery.
  • Sustainability Considerations: Balancing fire safety solutions with environmental sustainability, particularly regarding smoke detection and suppression systems.
  • Cost Efficiency: Implementing fire safety solutions that adhere to regulations without significantly increasing project costs.
  • Technical Complexity: Adapting existing egress pathways to accommodate the distilleryโ€™s new function while maintaining safe evacuation routes.

Proposed Solutions

  • Structural Fire Protection: The distillery will comply with Type B construction as per BCA Specification C1.1, ensuring appropriate fire resistance levels.
  • Optimised Fire Separation: Aluminium-framed glass partitions will provide separation while maintaining visibility and preserving architectural integrity.
  • Enhanced Detection Systems: Extension of the existing smoke detection and alarm systems in accordance with BCA Clause E2.2 and AS1670.1-2004.
  • Fire Suppression Measures: Installation of fire hose reels, hydrants, and portable extinguishers to enhance fire suppression capabilities.
  • Egress Compliance: Ensuring at least one compliant exit with appropriate width, signage, and emergency lighting as per BCA Clause D1.2.

Project Outcomes

  • Achieved Full BCA Compliance: The project successfully meets all relevant fire safety regulations.
  • Preserved Architectural Integrity: The use of fire-rated glass partitions maintains the aesthetic of the winery.
  • Enhanced Safety Measures: Fire detection and suppression systems provide robust protection for staff and assets.
  • Cost-Effective Implementation: Fire safety solutions were integrated within budget constraints without compromising compliance.
  • Sustainable Design Considerations: The fire safety systems were designed to minimise environmental impact while ensuring protection.

A New Standard in Fire Safety for Boutique Distilleries

The Bimbadgen Estate Wineryโ€™s gin distillery sets a new benchmark for fire safety in boutique manufacturing spaces. Through careful planning and integration of fire-resistant materials, optimised egress solutions, and enhanced suppression systems, the project ensures regulatory compliance while maintaining the wineryโ€™s distinctive character. This development highlights the importance of balancing innovation with safety in the expansion of existing hospitality and production facilities.

100 Walker Street North Sydney, NSW

Sector

Commercial

Location

North Sydney, NSW

The redevelopment of 100 Walker Street, North Sydney, represents a significant commercial development aimed at delivering a high-quality office and retail environment.ย 

The project comprises a 48-storey office tower, featuring 40 storeys of commercial office space, retail premises across three levels, and a six-storey basement accommodating parking, bicycle facilities, and essential services. The proposal includes an open-to-the-sky pedestrian laneway connecting Walker Street and Little Spring Street, enhancing public domain accessibility.

Given the scale and complexity of the development, our team provided critical design competition assistance, ensuring fire safety strategies were integrated from the earliest stages. This proactive approach allowed the architectural vision to align seamlessly with fire safety and compliance requirements while optimising the buildingโ€™s performance.

Key Fire Safety Challenges

  • Fire Resistance and Stability – The Junction between the external wall and slab require smoke separation rather than full fire separation, necessitating a performance-based solution.
  • Egress and Exit Travel Distances โ€“ Several levels exceeded the Building Code of Australia (BCA)โ€™s Deemed-to-Satisfy (DtS) exit travel distances, particularly in basement and upper levels, requiring performance-based justifications.
  • Atrium Fire Safety โ€“ The proposed multi-level atrium required tailored fire safety solutions to mitigate smoke movement and ensure compliance with fire separation requirements.
  • Hydrant and Sprinkler System Design โ€“ The fire hydrant booster was not positioned in sight of the main entrance, and the pump room location deviated from DtS provisions, necessitating alternative compliance measures.
  • Integration with Architectural Design โ€“ Maintaining fire safety compliance while preserving the highly transparent faรงade and large open spaces required innovative solutions to protect fire-isolated stairs and limit smoke spread.

Fire Engineering Solutions

  • Structural Fire Protection โ€“ Proprietary fire-stopping materials were specified to ensure compliance with structural fire integrity requirements while accommodating the architectural faรงade detailing.
  • Performance-Based Egress Solutions โ€“ Advanced smoke detection, pressurisation strategies, and fire modelling supported extended travel distances while ensuring safe evacuation pathways.
  • Optimised Atrium Smoke Control โ€“ Deployable fire curtains and zone smoke control measures were implemented to maintain tenable conditions while preserving the open connectivity between levels.
  • Hydrant and Sprinkler Rationalisation โ€“ A combined sprinkler and hydrant system was designed with alternative fire-rated shielding and strategic booster positioning to meet performance objectives.
  • Fire-Isolated Stair Protection โ€“ Glazed stair enclosures were protected using radiant heat mitigation measures and controlled pressurisation to ensure fire-safe egress routes.

The Outcomes

  • Achieved BCA Compliance โ€“ The adopted fire engineering strategies successfully demonstrated compliance with BCA Performance Requirements, subject to approval from the Principal Certifying Authority and Fire & Rescue NSW.
  • Preserved Architectural Vision โ€“ Fire safety measures were integrated without compromising the design intent, ensuring a modern, transparent, and functional commercial space.
  • Enhanced Egress and Safety โ€“ Strategic exit placement and advanced fire suppression systems enhanced safety without reducing usable floor space.
    Efficient and Sustainable Solutions โ€“ The adopted smoke hazard management strategy and performance-based sprinkler design ensured energy-efficient fire protection.
  • Facilitated Design Innovation โ€“ Our early involvement in design competition assistance contributed to the projectโ€™s successful development by aligning compliance with innovative design approaches.

A Landmark in Fire Safety and Innovation

The redevelopment of 100 Walker Street sets a new benchmark in commercial fire safety design, seamlessly integrating architectural ambition with regulatory compliance. Through our early design competition support, we ensured that fire engineering considerations were embedded within the projectโ€™s conceptualisation, allowing for a high-performance, future-ready office tower that prioritises safety, sustainability, and user experience.

Life is easier without fire and smoke curtains

Why Life Is Easier Without Fire and Smoke Curtains โ€” and What Every Design and Construction Professional Needs to Know

When planning a new build or a major renovation, fire and smoke curtains can often feel like a necessary evil. Theyโ€™re critical for safety, sure โ€” but they also introduce coordination headaches, design issues, and potential failures that could stall a project or worse, fail inspection at the last minute.

That's why weโ€™ve put together a short, practical training session called "Life is easier without fire and smoke curtains."

And trust us โ€” itโ€™s not your typical dry, overly technical seminar.

Instead, we walk you through what works, what often goes wrong, and how you can avoid the costly mistakes that happen when curtains are rushed into projects without proper thought.

fire and smoke curtains
What Youโ€™ll Learn from the Session:
  • When fire and smoke curtains cause more trouble than theyโ€™re worth โ€” and what smarter alternatives might exist.
  • The critical specifications and design details your fire engineer must address โ€” but often miss.
  • How to avoid on-site coordination disasters involving curtain clashes with other services.
  • Procurement strategies that will save you from expensive last-minute surprises.
  • A simple checklist to get everything right the first time โ€” before the build is too far along to fix.

This session is a must-watch if youโ€™ve ever experienced a curtain jam, a site clash, a failed inspection โ€” or if you simply want your next project to run smoother and smarter.

Because here’s the reality:
Life really is easier without fire and smoke curtains.
But if you must use them, use them wisely โ€” and set your project up for success from day one.

What Youโ€™ll Walk Away With:
  • When to say no to fire and smoke curtains
    • Learn the red flags that indicate when a curtain solution is more trouble than itโ€™s worth โ€” and discover alternative strategies that can meet code requirements without the drama.
  • The key design and spec requirements your fire engineer must cover
    • Many fire engineers leave critical coordination items out of their scope โ€” and itโ€™s often too late when problems are discovered on site. Weโ€™ll show you exactly what needs to be locked down early.
  • How to avoid common coordination clashes
    • Learn why curtain placement clashes so frequently with HVAC, lighting, signage, and even primary structure โ€” and how early coordination can eliminate 90% of the issues we see.
  • Smart procurement tips for better tendering
    • Discover how small changes to your tender documentation can dramatically reduce the risk of future disputes, cost claims, or scope blowouts related to fire and smoke curtains.
  • The ultimate pre-construction checklist
    • Weโ€™ll give you a straightforward checklist you can apply immediately on your current and future projects โ€” saving you time, money, and massive headaches.
TIP: Communication matters

Open lines of communication between fire protection services designers and fire safety engineers is key to achieve a practical and economic outcome. They need to work hand in hand so that the fire safety engineer can understand and endorse their design proposals (where it stacks up of course, it needs to be safe).

Transcript

Good morning, afternoon, evening, wherever you are watching this. Today we have a little bit of training for you. We’re going to look at smoke curtains and the topic today is life is easy without fire and smoke curtains.

Now we’ve had a few projects recently that have gone interestingly so we thought we’d put together a little training session just to help design teams know what to do, where to look and what risks there are using fire and smoke curtains.

So it’s not exhaustive but We’ve got a few tips and tricks in here that hopefully will avoid some of the common pitfalls.

And then let’s get into it. Okay, so I guess the first question is, why this matters? Oh, let me move.

That’s a good idea. well, fire and smoke curtains, maybe in our opinion, have a bad reputation and you could argue that that was justified.

Most people have a fire curtain story where they say it got stuck, got broke, it didn’t commission properly or over time it breaks and there’s some maintenance.

So here’s one of my stories. This was a curtain protecting an opening and no matter how hard We tried, it would not go down to the ground and we had this gap underneath.

There were curtains crossing and you can see the gap clearly created. So obviously problematic. Now, what I will say is that today’s products are much more reliable, much, much more reliable.

They’re better designed, the quality has gone up and they tend to work much more effectively. But as soon as you bring up smoke curtains or fire curtains, and we’ll get to what that means in a minute, most people get pretty frightened and if you’re not careful, that’s for good reason.

You need to coordinate properly. you need to procure carefully and you need to install it properly. Now, today’s big takeaway.

This is the thing I want you to remember is that in general, life is easier without fire and smoke curtains.

So avoid them if possible, but if you absolutely can’t avoid them, then use them with care. So golden rule, avoid if you can.

Now, if you do include fire and smoke curtains, there’s some things to bear in mind. Obviously, the construction costs will increase because you’re now paying for a curtain or fire curtain, depending on how many you’ve got.

There will be a design coordination requirement. You’re going to need most likely fire safety management for fuel load issues around how the curtain drops potentially, there’s some maintenance the curtain obviously requires too.

And again, you’re adding in an active system that may not work as intended. So you have to have, you know, some redundancy or backup scenarios.

To think about life without the curtain is a lot more straightforward. there’s no design coordination. There is no management of the curtain.

There’s no maintenance of the curtain. And because there’s no curtain, there’s no failure risk. But what it means is that the fire engineer typically has to do more work on more engineering.

So what we want is we want you to push us as hard as possible to come up with solutions that most likely won’t involve fire or smoke curtain, but you need to understand that we’re going to have to do some more engineering and that will likely increase the cost of our work, but it removes a lot of the

issues up front. So you could stop the rest of this training session right now. If you wanted to. So let’s get to what a fire and smoke curtain actually is.

And the difference is because sometimes they have both properties. So essentially it is a deployable non-load bearing fire resistance barrier.

Now, what that means is that it is a rolled up material in a head box that sits in the ceiling typically and descends when it’s required to, to provide some fire resistance.

Now, in terms of fire resistance, there are three things we need to remember. Structural adequacy. Curtains don’t have any of those, they’re not load-bearing at all, they all will have integrity because that’s how they’re tested, and most of them don’t have an insulation value from the test, but youย 

can buy curtains that do have an insulation. So typical FRLs look like dash one 20 dash. Okay. So depending on the testing, it could be a fire curtain, could have smoke properties, but we’ll get into more detail in a sec.

Okay. Some typical uses. Where do you see them? Why do you use them? So you can use them to complete fire and smoke compartmentation.

You might see them to protect interconnecting voids around stairs, or you might see them doing the same job around atria.

it’s not unusual to see them to descend halfway and be used to smoke baffle you can use them to complete firewalls for openings that you might want to have closed in fire mode and also some protection of openings so this kind of special category for external openings near the boundary and stuff, which

we’re not covering today. So here’s some examples. This one here is a, an actual fire shutter. So it’s a metal shutter in a firewall in the shopping center between, I think it was a loading dock and a car park.

this was a curtain protecting an atrium space. This might’ve been the one at the front, actually, but anyway, and then you’ve got the baffle here.

You can see how that’s descending only halfway down around the lift space to create that smoke reservoir on this side of the curtain.

So some more specific details. So the main componentry of the fire and smoke curtain is, it looks a bit like this.

So you pretty much have this head box here, which is a rolled up kind of, well, it’s a big box with the curtain rolled up in it.

these are straight drop curtains that sits in the ceiling. It’s bolted to the slab, like crudely like this. and then the curtain descends coming out there.

The curtain will have a bottom bar in place, and I’ve got a slide in a second on concertinas. Some accessories you might see are obstruction warning devices, which are sensors that if you get things in the way of the curtain, they make interesting sounds to make you move those things.

You might need warning lights and you might need some warning signage which might be a DTS requirement or a fire engineer might not want any storage there.

some other stuff that’s important is this work by others. So often when you look at these curtain specs, they’ll say need to fire rated bulkhead by others.

So that might be something here. You just need to make sure that’s coordinated and the connections to there are working.

But also the bit that’s often missed is if there’s a floor void, it’s the same issue underneath the curtain need to be mindful of.

I’m not a big fan of sprinkling shutters or curtains to get insulation, but some fire engineers might want to pursue that route.

Right, okay, special type of curtain, much more common these days because they’re much more So you have a concertina fire curtain, which essentially is very similar to the straight drop that we just looked at.

And instead of being a straight drop, it’s now a three or four piece. It tends to close and opening directly.

The major difference with these is they have a tray in which the curtain is concertina’d in and then the straps that hold it down.

But the same head box and floor void stuff’s applicable. These are pretty reliable, pretty good. And we’d be looking to use this style if we were specifying kernels.

So okay, this is the crucial part. So if you’re using them, here is a non-exhaustive MMI, because it’ll depend on the project list of all the things that probably should be included in the fire engineering design.

So it’s good to have a picture showing where the fire and smoke curtains going. Sometimes it’s not there, but a nice diagram showing that’s very good.

Make sure the fire resistance level is specified and the testing requirements are specified. Make sure the smoke leakage performance is specified and the testing performance you want or testing documents or standards you want it specified.

Is the curtain required to resist heat in terms of insulation? If not, make sure that that’s specified. Do you need a delay to account for any zone smoke control?

So curtains can’t be coming down. If there’s major pressure differentials, that curtain gets stuck as as moving around the floor.

The code pretty much lets you have a 60 second delay, but again, make sure it’s coordinated. We don’t want zone smoke control exhausting and curtains getting stuck halfway down.

What method of activation is it? Typically smoke detection, but is that smoke detectors on the floor or is that one specific to the curtain?

Make sure that’s documented. Is there a maximum descent time? This might be very important if there’s modeling. Most curtains descend pretty quick, but make sure it’s specified.

Do you need automatic fault reporting or any connection to the BMS systems? Do you need any fuel load control? Are there exclusion zones?

If you’re not using obstruction warning devices, they’re expensive. Are you going to manage the fuel load on the floor next to the curtain with an exclusion zone?

Warning signs, strobes, obviously obstruction warning devices. What are the fire safety manager requirements? How often does it need to be tested?

Who’s building the bulkhead? What are our efforts to achieve? If you’ve got one in the roof, have you got a floor void?

and then another important one is when the bar or tray comes down, what’s it landing on? Does the curtain spec allow you to land on concrete, timber, carpet tiles, you name it, you got to check it out, make sure it’s all sorted.

So there’s a few, there’s a bit of a checklist to go through to make sure you’ve got everything. Coordination risks, so if you’ve got the design right, here’s some cracking coordination risks that often come up.

Make sure you don’t smash into balustrades. The bottom trays are 300mm wide, the bottom bars, the straight ones, are smaller.

Make sure it’s going to fit in where it’s going. Do you have any tactiles atop of stairs? This is a classic.

They land on the tactile, some manufacturers have testing, some don’t. There’s always this conversation, did you allow for it? Either get the curtain out of the way of the tactiles or check that you can do that.

Fire rate and bulkhead, we’ve done that one. Service penetrations, another cracker. If you’re going to have anything to the bulkhead, make sure it’s fire stopped appropriately.

And another one, if it’s in integrating stairs, always structure coming off these things. Where does that structure go? Does it pass through the curtain line?

Is it being protected? Is it going to get the FRL, etc, etc. We’ve already talked about floor finishes, makes sure they’re coordinated.

Oh, another good one is when they drop, they tend to bow because of pressure differentials. Have you got sufficient clearance for egress?

Is that a problem? Do you care? And then make sure it’s coordinated with your smoke hazard management stuff. In terms of tendering risks, these just keep coming.

Ah, again, we’re not egging. but tenderers are not builders, but we’ve seen it work best when it’s taken out as tell package and clearly separate from the remaining works.

Our advice again is you know, when I expect to this, but don’t just give the tender of the FER. They’re almost like you tell you it complies.

We’ve seen that not be the case or there’s been a misunderstanding. We would extract the requirements, put them in your tenders, send them.

and I would suggest that you get the fire engineer involved in reviewing those to make sure that they actually meet the requirements and getting the testing reports to make sure it’s all up to spec and obviously a long lead time.

Some of these products come from warehouse around the world. Alright. Possibly a recommended process. maybe get the fine generator review the brief prior to you sending it to tenders, get the fine generator review those return tenders for technical compliance, keep the price stuff to yourself.

That’s all cool. but then, you know, make sure that, oh, there’s some form of document that goes FER requirement, Curt, and does it meet yes or no, and how it’s being demonstrated?

I would get the fire engineer to review the fire and smoke test reports again to make sure that they comply with the FER so there’s no problems later and then go through a shop drawing preparation and review process again to make sure that it’s in the right place.

All the, there’s no clashes and all that sort of stuff. This might cost about more money up front, but it’s the classic.

If you just pay now, you won’t pay later scenario. So that’s really it for today. Some quick do’s and don’ts involve the fire.

I mentioned it early. Get the requirements out into tenders, long lead times, coordinate everything. You can never be overdressed. You can never be overcoordinate.

Make sure you test and commissioning properly. We haven’t covered that today, but that’s a whole other session that we can do to show you how to do that.

don’t assume everything’s been captured by the contractor. Never leave things bag. God, this sounds so obvious when you say it.

Don’t wait till construction to resolve issues. Don’t overlook details. And if you’re going to accept a substitute, make sure you’re in go through the same review process.

That’s it. Remember, life is easier without fire and smoke curtains, but if you need to use them, use them carefully and if you want a t-shirt, please let me know on this number.

Right. Have a great day. Be safe out there.

TAFE Queensland, Ashmore, QLD

Architect

Wilson Architects

CLient

TAFE Queensland

Location

Ashmore, QLD

A recent upgrade of A Block at TAFE Queenslandโ€™s Ashmore Campus, lead to this critical educational facility up to compliance with the latest BCA 2022 standards.

๐“๐ก๐ž ๐‚๐ก๐š๐ฅ๐ฅ๐ž๐ง๐ ๐ž๐ฌ:

โ†’ Upgrading an existing building to meet the stringent requirements of BCA 2022 compliance.
โ†’ Reviewing and assessing the suitability of the existing structural elements to determine if they could be retained or needed modification.
โ†’ Addressing the stage and back-of-house areas, which exceeded the allowable limits under current regulations.

๐“๐ก๐ž ๐’๐จ๐ฅ๐ฎ๐ญ๐ข๐จ๐ง๐ฌ:

โ†’ Developing practical, buildable solutions to ensure the stage and back-of-house areas remain functional now and in the future, without compromising on safety.
โ†’ Rationalising fire resistance levels (FRLs) to retain as many existing structural elements as possible, ensuring compliance without unnecessary costs.

๐“๐ก๐ž ๐Ž๐ฎ๐ญ๐œ๐จ๐ฆ๐ž๐ฌ:

โ†’ A set of solutions that are practical, cost-effective, and forward-looking, enabling TAFE Queensland to modernise its facilities while maintaining safety and functionality.
โ†’ The project ensures that TAFE Queenslandโ€™s A Block meets current safety standards and is well-positioned for the future, preserving an essential asset for the community.

Aeromedical Hub, Brisbane Airport, QLD

Architect

Cox Architecture

Contractor

ADCO Constructions

Location

Brisbane, QLD

This intricate project at Brisbane Airport is currently underway – and it’s already presented us with a fantastic opportunity to flex our ‘performance-based fire engineering’ muscle!ย 

A custom solution has been required to address the unique challenges presented by the building which involves multiple aircraft hangars, associated sleeping quarters, health care with supporting offices – all while working alongside the operational needs of a diverse range of key stakeholders.

๐—ง๐—ต๐—ฒ ๐—–๐—ต๐—ฎ๐—น๐—น๐—ฒ๐—ป๐—ด๐—ฒ๐˜€:

โ†’ Special hazards, including multiple aircraft hangars, associated sleeping quarters and dangerous goods to name a few.
โ†’ Numerous specialist fire safety systems, including overhead and wall wetting fire sprinklers, foam suppression systems, smoke detection systems and drainage.
โ†’ Multiple uses, including healthcare, aircraft hangars (fixed wing and rotary), offices, holding areas, workshops, and overnight sleeping quarters.
โ†’ Interconnected building parts requiring a performance based approach towards united building provisions.

๐—ง๐—ต๐—ฒ ๐—ฆ๐—ผ๐—น๐˜‚๐˜๐—ถ๐—ผ๐—ป๐˜€:

โ†’ First principles fire engineering to support numerous special hazards via considering the specialist fire safety systems.
โ†’ Rationalising construction from Fire Resistance Levels (FRLs) and compartmentation through to material selection flexibility.
โ†’ Performance-based egress provisions.

๐—ง๐—ต๐—ฒ ๐—š๐—ผ๐—ฎ๐—น๐˜€:

โ†’ A bespoke facility that supports:

  1. Royal Flying Doctors Service (RFDS)
  2. Retrieval Services Queensland (RSQ) and Queensland Health
  3. Life Flight
  4. Gov Air

โ†’ A development that considers all of the special hazards not covered adequately by the Building Code of Australia (BCA) through a truly Performance-Based Fire Engineering Approach.

The Gunnery, Woolloomooloo, NSW

Architect

DunnHillam

Contractor

FDC Construction & Fitout

Location

Sydney, NSW

Minerva was proud to play a key role in the restoration and transformation of The Gunnery, a heritage-listed building in Woolloomooloo, Sydney.ย 

This once-in-a-lifetime project required innovative fire safety solutions to be put in place – while still respecting the historic fabric of the building.

๐—ง๐—ต๐—ฒ ๐—–๐—ต๐—ฎ๐—น๐—น๐—ฒ๐—ป๐—ด๐—ฒ๐˜€:

โ†’ The Gunnery, built circa 1900, features a beautiful masonry faรงade and timber structure, creating a unique challenge in balancing modern fire safety codes with heritage preservation.
โ†’ The most complex aspect was exposing the timber structure while ensuring it complied with current fire safety standards.
โ†’ Coordination between heritage, architectural, and structural teams was essential to maintain the integrity of the building while upgrading fire safety.

๐—ง๐—ต๐—ฒ ๐—ฆ๐—ผ๐—น๐˜‚๐˜๐—ถ๐—ผ๐—ป๐˜€:

โ†’ Minerva collaborated closely with the structural engineer and builder to rectify and strengthen the exposed structural timber, meeting the required Fire Resistance Level (FRL).
โ†’ We partnered with a specialist intumescent paint manufacturer to protect key timber and steel elements, providing vital fire protection while maintaining the buildingโ€™s character.
โ†’ Flexible fire safety solutions were implemented to accommodate varying uses and population numbers within the building.

๐—ง๐—ต๐—ฒ ๐—ข๐˜‚๐˜๐—ฐ๐—ผ๐—บ๐—ฒ๐˜€:

โ†’ The Gunnery has been restored as a functional, safe space that retains its unique historical features, including expanded galleries, rent-free studios, and full universal access.
โ†’ This transformation project was underpinned by a 35-year sublease, ensuring future generations can enjoy this landmark for years to come.

Bio Sustainability Hub at The University of Queensland, QLD

Architect

Wilson Architects

CLIENT

University of Queensland

Location

St Lucia, Queensland

This complex project on the University of Queensland’s St Lucia campus, required a bespoke solution for a bespoke building.ย 

Our approach took into account the constraints of the existing fire safety strategy while still enabling flexibility – all while supporting the architectural vision of this incredible building.

๐—ง๐—ต๐—ฒ ๐—–๐—ต๐—ฎ๐—น๐—น๐—ฒ๐—ป๐—ด๐—ฒ๐˜€:

โ†’ The Andrew N Liveris Building (where the Hub is housed) is a multi-use facility comprising education, laboratories and office space with a significant atrium in the centre.
โ†’ The existing fire strategy for the base build is complex to say the least with various measures to meet the unique functionality.
โ†’ Installing new laboratory areas within a complex building requires a sound understanding of the base build fire strategy to ensure all aspects are considered.

๐—ง๐—ต๐—ฒ ๐—ฆ๐—ผ๐—น๐˜‚๐˜๐—ถ๐—ผ๐—ป๐˜€:

โ†’ Working with designers to assist their understanding of the base build fire strategy in order to stay within the constraints and to allow flexibility where needed.
โ†’ Supporting the design of additional laboratory space with rationalised FRLs.
โ†’ Assisting design outcomes through fire engineered egress provisions.

๐—ง๐—ต๐—ฒ ๐—ข๐˜‚๐˜๐—ฐ๐—ผ๐—บ๐—ฒ๐˜€:

โ†’ Additional laboratory space that supports the University of Queensland into the future.
โ†’ Supporting the architectural vision and user needs
โ†’ A building that has put fire safety first, for the ultimate safety of every person who enters now and into the future

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