Designing Buildings - User contributions [en]

Reduced impact building construction techniques

2023-07-14T10:51:16Z

Felix Wong Tsz Kiu: Created page with "By Felix Wong Tsz Kiu (felixwongtk) = Sustainable Construction = Sustainable development is dependent on promoting eco-friendly behaviours, energy efficiency, and the use of re..."

By Felix Wong Tsz Kiu (felixwongtk)

= Sustainable Construction =

Sustainable development is dependent on promoting eco-friendly behaviours, energy efficiency, and the use of renewable resources in construction. To accomplish these objectives, a variety of strategies and eco-friendly technology can be included into building design. Without significantly depending on mechanical systems, passive design solutions maximise the building's orientation, layout, and envelope to maximise energy efficiency. This covers planning for passive heating and cooling, natural ventilation, and natural lighting. Passive design reduces energy use and improves occupant comfort by using natural resources and climate conditions. Energy consumption is decreased and the lifespan of lighting fixtures is increased by using energy-efficient lighting systems, such as LED (Light-Emitting Diode) lights. Utilising daylighting techniques, including skylights and light shelves, may increase natural light and reduce the need for artificial lighting during the day. There are various ways to incorporate energy-efficient lighting into architectural designs. Utilising lighting controls helps reduce energy use. Lights may be turned off automatically in areas that are not inhabited by people, ensuring that they are only turned on when necessary. Further decreasing energy use, dimmers and daylight sensors may alter lighting levels based on the quantity of natural light available.

= Prefabrication and Modular Construction =

A crucial component of sustainable design is encouraging the use of renewable resources in building. Architects may lessen their reliance on non-renewable resources, lower their environmental effect, and help create a built environment that is more sustainable by giving renewable materials priority. Due to their sustainability, renewable building materials like bamboo and timber have grown in favour. These materials can be utilised for interior finishes, flooring, cladding, and structural elements. Sustainable construction materials like bamboo and lumber are renewable substitutes for conventional building supplies and have lower embodied energy than things like concrete and steel. Utilising recovered and repurposed materials lessens waste and the need to mine new resources. Reusing resources in building projects, such as recycled plastic, salvaged metal, and recovered wood, may add character and lessen the environmental effect of producing new materials. Renewable options for insulation, acoustic panels, and interior finishes are natural fibres and fabrics including hemp, flax, and wool. Compared to their synthetic equivalents, these materials are biodegradable, renewable, and have less of an impact on the environment.

Depending on the particular needs and objectives of the project, there are several methods to include rainwater harvesting systems into the design of a building. The most typical method is to gather rainwater from a structure's roof. Rainwater is intended to flow from the roof surface into gutters and downpipes that connect to a storage system. The roofing materials should be suitable for collecting rainwater, and proper filtering systems should be built to get rid of impurities and debris. The cisterns or storage tanks, which may be above or below ground, are where the roof's collected rainwater is sent after being collected. Depending on the water demand and the available space, these storage systems can come in a variety of sizes and capacities. To ensure water purity and prevent contamination, the tanks should be built using acceptable materials like polyethylene or concrete. Appropriate filtration and treatment procedures are used to guarantee that the gathered rainwater is of high quality. Mesh screens, sediment filters, and disinfection techniques like UV sterilisation or chlorination are frequently used in this context. Between the collecting site and the storage tanks are installed filtration and treatment systems. The collected rainwater is sent throughout the facility for a variety of non-potable functions using a separate plumbing system. This might involve washing, irrigation, cleaning the cooling towers, or toilet flushing. To prevent cross-contamination, the distribution system needs to be properly designated and kept apart from the source of potable water.

Building design can include smart building management technologies. Architects and designers can work with specialists in smart building technology at the planning and design stages of a project to incorporate the required infrastructure for smart systems. This entails creating areas for the installation of sensors, wiring, and control panels. Sensors are used by smart building management systems to gather information on the occupancy, temperature, lighting levels, and air quality of buildings. Buildings may be planned by architects with sensor integration in mind, ensuring that sensors are strategically placed to collect reliable data. A strong network infrastructure is needed for smart building systems to link numerous devices and sensors. The cabling, networking hardware, and connection options required to support the data transmission and communication requirements of the smart system may be planned for by architects. To develop user-friendly and intuitive interfaces for occupants to engage with the smart building system, architects might work with user interface designers. This can include real-time data, controls, and analytics provided through touchscreens, mobile apps, or web-based interfaces. Architects may take into account incorporating data analytics and visualisation technologies into the plan of the project. With the help of these tools, decision-makers can make well-informed choices and continue to optimise building performance, energy use, and occupant comfort.

The use of prefabricated and modular building systems has various benefits in terms of efficiency, speed, quality assurance, and adaptability. When compared to conventional on-site building, prefabricated and modular construction technologies are renowned for their quicker construction periods. Construction time is cut in half overall because to the off-site production of building components. Project timetables are hastened because weather delays and other site-specific restrictions are reduced because modules are built in a controlled factory environment. Besides, it can save costs in a variety of ways. Factory production enables the effective use of resources, decreased waste, and simplified procedures. Shorter construction durations translate into cheaper labour expenses. Better cost predictability is also made possible by the regulated production environment, lowering the possibility of budget overruns. Compared to conventional on-site construction, it also provides improved quality control. The construction components are produced in a controlled setting while adhering to rigid quality requirements and standard operating procedures. In order to make sure the modules meet or surpass quality standards, comprehensive inspections and testing are possible in this controlled environment. Higher-quality building benefits from the accuracy and uniformity attained by industrial production. Prefabricated and modular structures allow for future design flexibility and customization. The modules are easily adaptable to changing demands by being moved, extended, or redesigned. The standardised design and production process makes it simple to replicate or customise according to the needs of a given project. This versatility is especially useful when a structure has to be moved or enlarged or when its purpose might alter over time.

= Prefabrication and Modular Construction =

Prefabrication and modular construction methods can permit mass customisation in high-rise buildings, as demonstrated by The Stack in New York City, USA. The modular building method's effectiveness is combined with the adaptability of living areas in this creative residential skyscraper by Gluck+. Individual flat units are constructed off-site in a regulated manufacturing setting as part of The Stack's modular construction strategy. The building is then constructed by assembling these modules at the construction site. This approach enables more precise production and quicker building schedules. The Stack's capacity for mass customisation sets it distinct. Despite being built using modular components, each flat may be altered to suit the needs and tastes of the occupants. The flexibility of the modular design's unit layouts, sizes, and finishes allows inhabitants to customise their ideal living area within the confines of a standardised building structure. It method has a number of advantages. First, the regulated industrial environment and strict quality control procedures guarantee high-quality construction. Second, modular construction's speed permits earlier project completion, cutting down on construction time and expenses. Third, the mass customisation feature gives inhabitants some control over the personalization and design of their living quarters, fostering a sense of pride and individuality. The Stack serves as a demonstration of how creative ways may meet the needs of urban life while retaining efficiency, quality, and architectural flexibility. It combines prefabrication and modular building methods with mass customisation. This project shows how prefabrication and modular construction may give customised solutions that go beyond standardisation, improving the built environment's overall liveability and desirability.

= 3D Printing in Construction =

By opening up new opportunities for producing intricate architectural shapes, cutting waste, and expediting on-site building procedures, 3D printing technology, also known as additive manufacturing, is revolutionising the construction sector. Intricate and mathematically hard architectural shapes that would be difficult or expensive to realise using conventional building techniques are now possible thanks to it. The layer-by-layer additive manufacturing method permits the precise fabrication of individualised, complex patterns. This creates new possibilities for original and creative architectural expressions. Large volumes of building trash are frequently produced by conventional construction methods. Materials are accurately applied with 3D printing only where they are required, minimising material waste. A third way that 3D printing helps to reduce waste and create a circular economy is by allowing the use of recycled or sustainable materials as feedstock. By eliminating the need for heavy physical labour, 3D printing technology has the potential to revolutionise on-site building operations. Large-scale 3D printers allow for the direct fabrication of individual construction components or even entire buildings. This minimises the logistical requirements for shipping precast components, cuts down on assembly time, and uses manual labour less frequently. Comparing 3D printing to conventional methods, building times may be greatly accelerated. Building components may be produced quickly using additive manufacturing once the design is complete and the printer has been calibrated. For emergency or disaster relief housing, where speedy and effective building is essential, this efficiency can be very useful. Unmatched design freedom and personalization are provided by 3D printing. During the digital modelling phase, architects may quickly iterate designs and make revisions, enabling the exact customization of architectural features to satisfy particular project needs. Large-scale customization is possible without considerably increasing costs or length of building time. It is feasible to maximise resource use and reduce energy consumption. The ability to employ environmentally safe and sustainable materials further improves the environmental sustainability of 3D printing in building. The exact deposition of components lowers material waste. It's crucial to recognise that widespread use of 3D printing technology in the building industry faces obstacles and constraints. These include prohibitive initial equipment and material costs, governmental restrictions, technological barriers to enlarging the scale of printed buildings, and the requirement for additional research and development to guarantee structural soundness and longevity.

= High-performance Building Envelopes =

Optimising insulation, ventilation, and natural lighting is essential for reducing energy consumption and increasing occupant comfort. This is accomplished by designing energy-efficient building envelopes. To reduce heat transmission via the building envelope, use high-performance insulation materials such rigid foam boards, aerogels, or spray foam insulation. Energy efficiency is increased when walls, roofs, and floors are properly insulated, which decreases the demand for heating and cooling. Select windows that are energy efficient and have double or triple glazing, low-emissivity (low-E) coatings, and thermally fractured frames. These windows offer improved insulation, lessen heat gain or loss, permit natural light, and limit unwelcome solar heat absorption. Talk about thermal bridging, which is the transmission of heat via highly conductive building materials. To reduce heat absorption or loss at structural connections and penetrations, use thermal break materials or design solutions. Utilising air barriers and meticulously sealing joints, seams, and penetrations will guarantee airtight construction. Buildings that are airtight reduce energy loss and enhance interior air quality by preventing unauthorised air entry and exfiltration. To guarantee optimum indoor air quality and reduce energy loss, use effective mechanical ventilation systems with heat recovery capabilities. When feasible, use natural ventilation techniques to benefit from pleasant external circumstances, such as movable windows or motorised louvres. Utilise passive solar design concepts to take use of the sun's free heat and light. Design features like solar chimneys and thermal mass may assist manage temperature and lessen dependency on mechanical systems, as can proper orientation, shading mechanisms, and shading devices. Utilise wide windows, skylights, light shelves, and light tubes to increase natural daylighting. Effective daylighting lowers the demand for artificial lighting, improves visual comfort, and has a favourable effect on the wellbeing of inhabitants. The building exterior could benefit from incorporating renewable energy sources like solar photovoltaics or wind turbines. The building may balance energy use and cut carbon emissions by producing sustainable energy on the premises. Using these cutting-edge methods, architects can design energy-efficient building envelopes that maximise insulation, ventilation, and natural lighting to create sustainable and pleasant rooms. These tactics support a healthier and more sustainable future by enhancing the built environment overall and reducing energy use.

Phase-change materials (PCMs) and dynamic glazing are examples of smart materials that may be integrated into buildings to improve their thermal performance and occupant comfort. When a substance changes from a solid to a liquid or vice versa within a defined temperature range, PCMs have the ability to store and release thermal energy. They may collect extra heat during the day and release it at night or during cooler months by inserting PCMs into building elements like walls or ceilings. Phase-change technology assists in maintaining interior temperatures and lessens the need for mechanical heating and cooling systems, which saves energy and improves thermal comfort for users. Smart materials provide for flexible design since they may be included into a variety of architectural components without degrading their appearance or functioning. PCMs can be used to provide thermal benefits while keeping the architectural purpose in walls, ceilings, or even furniture. Installing dynamic glazing in windows or facades allows for flexible solar radiation management while maintaining views and daylight access. The usage of intelligent materials improves building occupants' thermal comfort. By absorbing and releasing heat, PCMs assist maintain more stable interior temperatures by minimising temperature swings. As a result, the interior climate becomes more constant and cosy. With the use of dynamic glazing, solar radiation may be adaptively controlled, decreasing glare and overheating while maximising natural light, making for an aesthetically and thermally comfortable environment. Although using smart materials has many benefits, it is important to take into account aspects like initial costs, durability, upkeep needs, and compatibility with other building systems. In addition, ideal performance and user happiness depend on adequate design, installation, and controls. Overall, the combination of dynamic glazing with phase-change materials opens up interesting possibilities for improving thermal performance and occupant comfort in buildings. These intelligent materials provide architects and designers creative ways to construct more hospitable and environmentally friendly built spaces while also enhancing energy efficiency, thermal stability, and sustainability.

= Sustainable Materials and Recycling =

Sustainable design and construction depend heavily on new building materials and methods that make use of recycled or upcycled resources. These materials have the potential to be durable, beautiful, and environmentally friendly. Crushing and recycling destroyed concrete buildings results in recycled concrete, often known as recovered concrete aggregate (RCA). By using RCA for raw aggregate in new concrete, less natural resource use and landfill trash are generated. Recycled concrete may be used for a variety of purposes, such as foundations, pavements, and structural components, and it has a similar level of durability to regular concrete. Reclaimed wood is wood that has been recovered from old structures, barns, or other sources and used in new construction projects. By using salvaged wood, less new timber must be harvested, and no valuable resources must be thrown away. Reclaimed wood can be utilised for furniture, beams, flooring, and wall cladding. It encourages ecological practises while giving architectural spaces a certain character, history, and warmth. High-density polyethylene (HDPE) and recycled polyethylene terephthalate (PET) are two examples of recycled plastic materials that provide opportunity for a variety of uses. They may be utilised for furniture, insulation, roofing membranes, and external cladding. Using recycled plastics cuts down on both plastic waste and the need to produce virgin plastic, saving energy and lowering greenhouse gas emissions.

Utilising recycled or upcycled materials has significant environmental advantages. They contribute to waste reduction, resource conservation, and a reduction in carbon emissions resulting from the use of conventional building materials. These methods support a circular economy and sustainable resource management by repurposing waste materials. The quality, processing, and suitable use of recycled or upcycled materials determine how durable they are. These materials can display endurance that is comparable to or even superior to that of their traditional equivalents when properly procured and treated. To guarantee endurance and performance, it is crucial to take into account elements like quality control, material certifications, and suitable installation techniques. Recycled or upcycled materials have a distinctive character and aesthetic appeal from an aesthetic standpoint. Architectural spaces may benefit from the history and unique textures of recovered wood, the interesting patterns of upcycled metal, and the aesthetic possibilities of recycled glass. To ensure the proper usage and integration of recycled or upcycled materials into architectural projects, it is crucial to undertake careful research, take into account regional rules and norms, and deal with reliable suppliers and contractors. By doing this, architects and designers may promote environmentally responsible design principles, highlight innovation, and produce visually appealing places.

An experimental project called The ScrapHouse used salvaged materials to create a livable and eye-catching structure. Architects, designers, and artists worked together to demonstrate the possibilities for recycling and upcycling in the building industry. Using recycled materials including reclaimed wood, abandoned doors, windows, and even old street signs, the ScrapHouse's walls were built. These components were imaginatively combined to provide a colourful and distinctive appearance and interior. Recycled metal sheets were used for the roof of the house, preventing trash from going to landfills while yet providing weather protection. The fixtures and furniture for the inside were obtained from salvaged materials from second-hand shops. This strategy decreased the need for additional resources while showcasing the attractiveness and usefulness of upcycled objects. The ScrapHouse is a striking illustration of how inventiveness, resourcefulness, and a dedication to sustainable practises can turn leftover materials into a useful and eye-catching living area.

[[Category:Definitions]] [[Category:Education]] [[Category:International]] [[Category:Projects_and_case_studies]] [[Category:Publications_/_reports]] [[Category:Research_/_Innovation]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Contracts_/_payment]] [[Category:Public_procedures]] [[Category:Conservation]] [[Category:People]]

Architect

2023-07-13T19:13:15Z

Felix Wong Tsz Kiu:

[[File:Architectural_section_drawing.jpg|link=File:Architectural_section_drawing.jpg]]

= Introduction =

The term 'architect' has been used for many centuries, but the architect as a recognised profession is a relatively modern concept dating back to the mid 16th century, from the French architecte and Italian architetto (originating from the Greek arkhitekton, where arkhi means 'chief' and tekton 'builder'). The term and what it represents has evolved through history to its current form in which architects are seen as highly-qualified and educated professionals.

See The History of the architect as a profession for more information.

= Regulation of architects =

Although buildings in the UK are commonly designed by people who are not architects, the term ‘architect’ itself is protected by the Architects Act 1997 which established the Architects Registration Board (ARB). Only qualified individuals that are registered with the ARB can offer their services as architects. Section 20 of the Architects Act states that 'A person shall not practise or carry on business under any name style or title containing the word “architect” unless he is a person registered under this Act'.

The ARB has responsibility for:

* Recognising qualifications.
* Maintaining a list of registered architects and ensuring that people not on the list do not offer their services as an architect.
* Monitoring standards and investigating complaints.

ARB issues a code of conduct for architects and can take action against those falling short of the code’s standards.

Architects can also become chartered members of the Royal Institute of British Architects (RIBA), but this is voluntary and is not necessary to practice as an architect.

See The History of the architect as a profession for more information.

In November 2020, the government announced a consultationon changes to the Architects Act to make competence assesssment compulsory. For more information see: ‎Architects' building safety competence consultation.

= Drawings / Sketches =

check this out: [https://www.instagram.com/felixwong.arch/ https://www.instagram.com/felixwong.arch/] to see more about professional architectural projects

= Training =

The most common route into the profession is through university study, broken down into 3 parts:

* Part 1 – Honours degree in architecture, followed by 1 year out in practice under the guidance of an architect and monitored and recorded in line with RIBA requirements.
* Part 2 - Masters, Diploma or BArch (depending on the individual school) taught in university for 2 to 3 years, followed by a further monitored and recorded year in practice.
* Part 3 - the RIBA final exam.

The RIBA Examination in Architecture for Office-based Candidates is an alternative route to qualification for Part 1 and Part 2 for people working full-time under the supervision of an architect. Applicants must have a minimum of three years’ experience in architectural practice to join the examination at Part 1; or 3 years post-Part 1 experience to join the Part 2 stage (as well as holding Part 1).

Recently, there is concern that architectural training has become relatively expensive as universities can charge fees of up to £9,000 a year. Training to become an architect takes at least seven years, with four or five of these at university. Adding in necessary living expenses on top of university fees, it is thought that the total cost of training to become an architect could be as much as £100,000.

This may result in architecture becoming the preserve of students whose parents are able to support them through their training. Whilst the number of applications for places at schools of architecture remains high, increasingly this is from students outside the EU, with applications from UK and EU students decreasing.

NB On 27 June 2018, the Institute for Apprenticeships approved standards and end point assessment documents for an architectural assistant apprenticeship, which encompasses a Part 1 qualification, and an architect apprenticeship, which encompasses a Part 2 qualification and a Part 3 qualification. Ref [http://ebulletin.arb.org.uk/july2018/degree-apprenticeships/ http://ebulletin.arb.org.uk/july2018/degree-apprenticeships/]

See architectural training for more information.

For the types of modules that students study as part of architecture degree courses, see [[Architecture_course_essentials|Architecture course essentials]].

= Statutory responsibilities =

According to the ARB's Architect's code: Standards of Conduct and Practice, an architect is expected to:

# Be honest and act with integrity.
# Be competent.
# Promote their services honestly and responsibly.
# Manage their business competently.
# Consider the wider impact of their work.
# Carry out their work faithfully and conscientiously.
# Be trustworthy and look after their clients’ money properly.
# Have appropriate insurance arrangements.
# Maintain the reputation of architects.
# Deal with disputes or complaints appropriately.
# Co-operate with regulatory requirements and investigations.
# Have respect for others.

= Practice =

The roles within working practice have become fairly standardised. Positions in a typical UK practice include:

* Architectural Assistants – These are generally training architects before part 3 completion. They are often broken down into Part 1 assistants and Part 2 assistants.
* Architectural technicians specialising in the application of technology in architecture. Architectural technicians can become professionally qualified Architectural Technicians, (TCIAT) accredited by the Chartered Institute of Architectural Technologists and Technicians (CIAT).
* Architectural technologists, leading the technological design of buildings. Architectural technologist can study to degree level and become chartered architectural technologists, (MCIAT) accredited by the Chartered Institute of Architectural Technologists and Technicians (CIAT).
* A newly qualified Part 3 architect – often working under the guidance of a project architect.
* Project architect – Given most of the responsibilities involved with running a job with occasional guidance from a director.
* Associate Directors – Often viewed as junior directors with responsibility for overseeing several project architects.
* Directors and Senior Directors – Oversee associate directors and may not be particularly involved in any single project. Their time may be spent with new clients or overseeing the management of the practice.
* Principal – Head of the office.
* Partner – An owner of the practice. Often in smaller companies the directors or principal make up the Partners.

For more information, see Practice management.

= Continuing professional development =

The ARB code states that architects ‘are expected to keep (their) knowledge and skills relevant to (their) professional work up to date and be aware of the content of guidelines issued by the Board (ARB)...’ The RIBA has developed a curriculum for continuing professional development (CPD), and it is considered that anyone satisfying the RIBA’s requirements is likely to satisfy the ARB that they have maintained their competence.

It is widely accepted that any person offering a professional services must maintain the standards of that service through continuing professional development. Both the ARB codes and the RIBA Code of professional conduct requires this of registered members.

== ARB CPD ==

The Architects' Registration Board requires that architects keep relevant knowledge and skills up-to-date, and are aware of the content of any guidelines issued by the board. The ARB advises that architects think laterally and encourages CPD to be undertaken in a number of ways:

* Internal discussions and meetings.
* Training another member of staff.
* Supervising a student's professional practice experience.
* In house training events.
* Undertaking short courses.
* Attending conferences, seminars and workshops to enhance a skill or knowledge.
* Participating in competitions.
* Keeping abreast of government policies and new technical reports.
* Research for writing articles.
* Open and distance learning.

== RIBA CPD ==

The RIBA introduced mandatory CPD on the 1st of April 1999. Unlike the ARB, the RIBA approach requires chartered members to participate in a system that focuses on time, points and core curriculum.

To maintain competence requires:

* 35 hours of CPD; along with
* 100 points which you give to activities where you are using self-reflection
* at least half of your CPD activity, where possible, structured
* at least 20 hours of CPD on core curriculum topics (at least two hours on each topic each year)
* a record of your CPD online using our CPD recording manager

= Professional Indemnity Insurance =

The ARB code required that architects maintain 'adequate and appropriate' professional indemnity insurance (PIII). The level of PII required will vary considerably depending on the role of the individual and the size and nature of the projects they undertake, however, ARB state that ‘in any event an architect is expected to hold a limit of indemnity of no less than £250,000’.

See Professional Indemnity Insurance for more information.

= Appointing an architect =

There are approximately 33,500 registered architects in the UK. 20% of architects in the UK are female.

There are a number of sources of information to help clients find an appropriate architect for their project:

* [https://members.architecture.com/directory/default.asp?dir=1 Searchable Directory of RIBA chartered UK practices].
* [https://members.architecture.com/directory/default.asp?dir=3 RIBA chartered members directory].
* [https://members.architecture.com/directory/default.asp?dir=4 RIBA client design advisers directory].
* [http://www.localarchitectsdirect.co.uk/ Local Architects Direct].
* [http://www.architectsindex.com/consumers/search/default.asp Architects' Index].

A survey by the RIBA in 2014 (Ref RIBA Journal February 2014) revealed that the most common methods of appointing architects were:

{|
| Direct appointment
| 50%
|-
| Competitive fee bid or financial tender only
| 21%
|-
| Framework agreement with or without further competition for specific projects
| 10%
|-
| Invited competitive interview (no pre-qualification questionnaire PQQ)
| 4%
|-
| Expression of interest / PQQ only (no design work)
| 3%
|-
| Expression of interest / PQQ followed by competitive interview (no design work)
| 3%
|-
| Expression of interest / PQQ followed by design competition
| 2%
|-
| Invited design competition (no PQQ)
| 1%
|-
| Open design competition
| 1%
|-
| Other
| 4%
|}

Smaller practices tended to be appointed mostly by direct appointment (61%), whereas this was less common for larger practices (25%).

It is important that an architect's appointment is set out in writing as soon as is practically possible, defining the scope of services that are likely to be required and the fee that will be charged for those services. If the architect is to perform lead designer or lead consultant roles, this must be clearly agreed.

A number of standard forms exist for the appointment of an architect:

* RIBA Standard Agreement for the Appointment of an Architect.
* ACA SFA 2012: ACA Standard Form of Agreement for the Appointment of an Architect.
* The CIC Consultant's Contract.

For a description of how to select and appoint a consultant, such as an architect, see: Appointment.

= Role of an architect =

Detailed descriptions of the tasks performed by an architect for different procurement routes can be found in the free work plans available on the Designing Buildings Wiki home page, however, very broadly, the role performed by an architect might include:

* Assisting the client to prepare a strategic brief.
* Carrying out feasibility studies and options appraisals.
* Advising on the need to appoint other professionals to the consultant team, independent client advisers, specialist designers and specialist contractors.
* Advising on the procurement route.
* Contributing to the preparation of a project brief.
* Preparing the concept design.
* Preparing the detailed design.
* Preparing planning applications.
* Preparing applications for statutory approvals.
* Preparing production information.
* Preparing tender documentation.
* Contributing to the assessment of tenders.
* Reviewing designs prepared by others.
* Acting as contract administrator.
* Inspecting the works.
* Advising on the rectification of defects.

= Additional services =

It is important to note some services will only be undertaken by the architect if they are specifically identified in their appointment documents, and will not be included within the architect's fee on all projects. These are described as 'other services' on some forms of appointment. 'Other services' might include:

* Compiling or editing briefing documents (for example preparing the strategic brief may be the responsibility of the client or an Independent client advisor, not the architect; the architect might only be required to contribute to the preparation of the brief unless additional services are identified in their appointment).
* Environmental studies.
* Applying for outline planning permission.
* Undertaking negotiations with the statutory authorities or the main contractor.
* Undertaking surveys.
* Undertaking tasks in relation to party wall matters.
* Undertaking tasks in relation to two-stage tendering (such as two-stage design and build contracts).
* Revisions to documents that are required for reasons that are not the architect's responsibility (for example as a result of changes in legislation).
* Assessment of designs prepared by others.
* Undertaking tasks in relation to disputes or work not in accordance with the contract.
* Preparing a site waste management plan.
* Preparing marketing materials.
* Assisting raising funds for the project.
* Preparing as-built drawings (or record drawings from the contractor's as-built drawings).
* Providing site inspectors.

-----
For detailed descriptions of the sequence of activities necessary to appoint architects, see the work plan stages:

* Traditional contract: appointment.
* Design and build: appointment.
* Public project: appointment.
* Construction management: appointment.
* Management contract: appointment.

= Related articles on Designing Buildings =

* Appointing an architect.
* Appointing consultants for building design and construction.
* Architects Declare.
* Architect's Registration Board.
* Architectural assistant.
* Architectural styles.
* Architectural technologist.
* Architectural technician.
* Architecture.
* Architect's fees.
* Architectural design methodology tips.
* Architectural training.
* Building Information Modelling.
* CIAT responds to the architects' regulation review.
* Collaborative practices.
* Commercial manager.
* Competition.
* Concept architectural design.
* Consultant team.
* Data architect.
* Design.
* Designers.
* Design coordination.
* Design liability.
* Design methodology.
* Design proposals.
* Hiring an architect as a domestic client.
* How to become an architect.
* Lead consultant.
* Lead designer.
* Practice management.
* Professional indemnity insurance.
* Professional Qualifications Bill.
* Review of regulation of architects: call for evidence.
* RIBA.
* Scope of services.
* The Architects Act.
* The architectural profession.
* The role of architects.
* Types of building.
* Year-out student.

[[Category:DCN_Person]] [[Category:Theory]] [[Category:Appointments]] [[Category:Roles_/_services]]

Felix Wong Tsz Kiu (felixwongtk)

2023-07-13T19:10:24Z

Felix Wong Tsz Kiu: Protected "Felix Wong Tsz Kiu (felixwongtk)": personal business ([edit=author] (indefinite) [move=author] (indefinite))

Hello, my name is Felix Wong, and I am a Year 1 architecture student with a passion for creating innovative and sustainable designs. I am excited to have the opportunity to complete an internship at SOM architectural firm to gain practical experience and further develop my skills in the field.

As a student, I have been exposed to various aspects of architecture, including design principles, construction techniques, and building systems. I have a solid foundation in architectural history, theory, and the use of industry-standard software for drafting and modeling, such as AutoCAD, SketchUp, and Revit. I am also proficient in creating detailed 2D and 3D renderings to effectively communicate design concepts.

During my studies, I have had the chance to work on several design projects, both individually and in collaborative settings. These projects have allowed me to explore different scales and typologies, ranging from residential spaces to cultural institutions. I have developed a keen eye for detail, a strong understanding of spatial organization, and an ability to balance aesthetics with functionality.

I am particularly interested in sustainable design and the integration of environmentally friendly practices into architectural solutions. I believe that architecture has a significant impact on the well-being of individuals and the environment, and I am committed to creating designs that are not only visually appealing but also socially responsible.

Throughout my internship, I am eager to apply my theoretical knowledge to real-world projects, learn from experienced architects, and contribute to the firm's design process. I am prepared to take on a variety of tasks, including assisting with design development, conducting research, creating presentations, and contributing to project documentation.

I am a proactive and detail-oriented individual who thrives in collaborative environments. I believe in the power of effective communication and teamwork to achieve outstanding results. I am open to feedback, adaptable to changing circumstances, and dedicated to continuous learning and professional growth.

I am excited to bring my passion for architecture, my strong work ethic, and my eagerness to learn to the architectural firm. I look forward to the opportunity to contribute to the firm's projects while further refining my skills and expanding my knowledge in the field of architecture.

[[Category:Publications_/_reports]] [[Category:People]]

Project information model PIM

2023-07-13T19:09:30Z

Felix Wong Tsz Kiu:

=== By Felix Wong Tsz Kiu (felixwongtk) ===

Building Information Modelling (BIM) is a very broad term that describes the process of creating and managing digital information about a built asset such as building, bridge, highway, tunnel and so on.

In the UK, the Government Construction Strategy published in May 2011, stated that '...Government will require fully collaborative 3D BIM (with all project and asset information, documentation and data being electronic) as a minimum by 2016'. This represents a minimum requirement for Level 2 BIM on centrally-procured public projects.

Level 2 BIM is the creation of a managed 3D environment with data attached, but created in separate, distinct discipline models. These separate models may originate with the client, architect, structural engineer, building services engineering, contractor, sub-contractors, suppliers and so on. A federated model is an assembly of these distinct models to create a single, complete model of the building. This will be developed and used through design, construction, operation and decommissioning.

PAS 1192-2:2013 Specification for information management for the capital/delivery phase of construction projects using building information modelling specifies the requirements for achieving building information modelling (BIM) Level 2 focussing specifically on project delivery. Its application begins with a statement of need and works through the stages of the information delivery cycle.

It describes the Project Information Model (PIM) as the '…information model developed during the design and construction phase of a project.' The requirements for the Project Information Model are set out in Employer's Information Requirements (EIR) and at Level 2, it is likely to consist of a federated building information model, non graphical data and associated documentation.

The project information model is developed progressively, first as a design intent model then a virtual construction model.

In the early stages, the design intent model is likely to include massing diagrams or 2D symbols to represent generic elements of the design, with some critical elements developed in more detail. As the design progresses, the it will develop and the level of detail will increase, including, first, objects based on generic representations, and then specific objects with specifications and method statements attached along with information about space allocation for operation, access, maintenance, installation, replacement and so on.

The design intent model is then developed into a virtual construction model containing all the objects to be manufactured, installed or constructed.

Ultimately, once the construction is complete, the Project Information Model is developed into an Asset Information Model (AIM), to be used during the operational phase.

The PIM should be developed in accordance with a Master Information Delivery Plan (MIDP) and delivered to the employer through a series of information exchanges (data drops) typically comprising:

* A series of federated building information models, including non-graphical data and associated documentation, and comprising native and industry foundation classes (IFC) files.
* Construction operations building information exchange (COBie) files and other structured data such as schedules.
* Reports and other documentation. These may be read-only PDFs, but native files can be more useful, as their contents can be more easily interrogated, copied and edited.

These data exchanges take place at key points in the project development that coincide with the employer's decision-making processes (gateways) as defined in the Employer's Information Requirements.

The PIM is managed within the Common Data Environment. This is the single source of information for the project, used to collect, manage and disseminate information for the whole project team. Information within the CDE can have a wide variety of status levels, however there will generally be four main areas of information:

* Work in progress.
* Shared (or client shared) area. This information has been checked, reviewed and approved for sharing with other organisations.
* Published: This information has been 'signed off' by the client or their representative (often the lead designer).
* Archive. This area is used to record progress at each project milestone as well as all transaction and change orders.

The CIC BIM protocol proposes that an information manager appointed by the client should set up and manage the common data environment. The information manager is essentially a procedural gate-keeper, policing the Common Data Environment to ensure that it follows an agreed BIM protocol and that the data is secure, and facilitating the management of the federated model. Ownership of information within the CDE remains with the originator, individual models do not interact, they have clear authorship and remain separate.

= Related articles on Designing Buildings =

* Asset information model.
* Asset information requirements.
* BIM.
* BIM for dummies - an interview.
* BIM protocol.
* Cloud computing.
* Common data environment.
* Construction Operations Building Information Exchange (COBie).
* Data drops.
* Design intent model
* Employers Information Requirements.
* Information manager.
* PAS 1192-2.
* PAS 1192-3.
* Project information material.
* Soft landings.
* Types of building information model.
* Virtual construction model.

[[Category:DCN_Definition]] [[Category:DCN_Guidance]] [[Category:Design]] [[Category:BIM]]

Resilient community competition brief and enrtry

2023-07-13T19:05:14Z

Felix Wong Tsz Kiu:

By Felix Wong Tsz Kiu (felixwongtk)

Design a community centre which should serve as a hub for social, cultural, and educational activities. It should be a place where people can come together to learn, create, and connect with each other. The centre should also be designed to be flexible and adaptable to changing needs and conditions.

By promoting sustainable and equitable design, the competition can help foster more resilient communities that can better withstand and recover from a range of disruptions, including climate change, natural disasters, and pandemics. The competition also provides a platform for sharing best practices and inspiring others to adopt more sustainable and inclusive design strategies in their own work.

A resilient community centre is a multipurpose venue built to satisfy the requirements of the community it serves. It addresses social inequity, population expansion, and global warming, and promotes sustainability and prosperity. This facility is designed to endure natural catastrophes and other disturbances, ensuring that it stays operational even in times of crisis. To lower its carbon impact and promote sustainability, it is outfitted with renewable energy sources such as solar panels and wind turbines. The design and materials of the building also prioritise energy efficiency and low environmental effect. The centre acts as a hub for community events and services, offering a gathering place for people to socialise and learn. It provides programmes that encourage economic growth, job training, and entrepreneurship in order to assist individuals to escape poverty and succeed. The facility also has resources to combat the effects of climate change, such as community gardens and green areas, rainwater collection systems, and other initiatives to encourage sustainable living. It also provides teaching and outreach programmes on themes like recycling, energy saving, and environmentally friendly practices. To handle population expansion, the centre can act as a hub for family planning services, child care, and youth programmes. It provides a secure place for children to play and study, as well as tools to assist families in dealing with the problems of parenting children in an urban setting. Overall, a resilient community centre that addresses social inequity, population expansion, and global warming while also promoting sustainability and prosperity is a vital component of any flourishing community. It allows individuals to get together, learn, and support one another while also tackling some of the most urgent issues confronting our society today.

Location: Mumbai, India, Sion BST Ground

For various reasons, establishing a resilient community in Mumbai, India, is an excellent idea. Mumbai is very vulnerable to natural and man-made calamities such as floods, earthquakes, and terrorist strikes. Mumbai is located on the coast, making it prone to natural calamities including floods, cyclones, and earthquakes. Because it is located in a low-lying region, the Sion BST Ground is particularly vulnerable to flooding during the monsoon season. Building a resilient community centre here can help lessen the effects of natural catastrophes and help the community recover more swiftly. By supporting the use of green technology, sustainable infrastructure, and low-carbon transportation, resilience may also encourage sustainable development. This can help decrease greenhouse gas emissions, save resources, and improve inhabitants’ quality of life.

By Felix Wong (felixwongtk)

[[Category:Organisations]] [[Category:Projects_and_case_studies]] [[Category:Publications_/_reports]] [[Category:Research_/_Innovation]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Design]] [[Category:Operations]] [[Category:Property_development]] [[Category:BIM]]

Example design for Housing in 2075

2023-07-13T19:04:35Z

Felix Wong Tsz Kiu:

By Felix Wong Tsz Kiu (felixwongtk)

== FORWARD ==

Housing has come a long way from the basic shared spaces of ancient civilizations to modern co-living options. It has evolved in response to changing needs and aspirations of societies, reflecting the dynamic nature of human culture. Today, community housing is a lifestyle choice that fosters a sense of belonging, social interaction, and shared responsibility.

 
The future of housing presents us with a range of thrilling opportunities and challenges. The development of sustainable and approachable housing solutions, promoting social interaction, and harnessing the power of technology will be key to creating a vibrant and prosperous future for communities worldwide.

== DESCRIPTION ==

The Vertical Residence is a cutting-edge residential structure that merges sustainable, green construction practises with smart technology. This distinctive skyscraper serves as a symbol of sustainable living, combining comfort, energy efficiency, and technological connection. The architecture of the building is sleek and futuristic, with floor-to-ceiling windows that not only give stunning vistas but also optimise natural light penetration, eliminating the need for artificial lighting during the day. Smart glass technology is used in the windows, which automatically adjusts tint levels to minimise solar heat gain and maximise energy efficiency. The rooftop is adorned with solar panels, which harness the ample sunshine to create clean, sustainable energy. The panels provide power not just to shared spaces but also to individual apartments, decreasing dependency on traditional grid electricity and encouraging inhabitants to live a greener, more sustainable lifestyle. The Vertical Residence uses sophisticated insulating materials and efficient HVAC systems to provide ideal thermal comfort all year while minimising energy use.

Each apartment has a home automation system that lets occupants to control lighting, temperature, and security settings via voice commands or mobile apps. Data on energy consumption is easily available, allowing tenants to monitor and optimise their consumption habits for greater efficiency.

To save energy, smart thermostats and occupancy sensors manage temperature and ventilation, according to occupants’ preferences and recognising when rooms are empty. Advanced building automation systems (BAS) and energy management systems (EMS) enable centralized control and monitoring of various building systems, including HVAC, lighting, and occupancy sensors, optimizing energy use based on demand and occupancy patterns.

Green grounds decorate various levels, offering inhabitants calm sanctuaries while also building a feeling of community. Vertical gardens grow on outside walls, increasing air quality and adding to the visual appeal of the structure. These green spaces are outfitted with sophisticated irrigation systems that optimise water use by adjusting watering schedules based on weather conditions.

== LOCATION ==

The site is located in Syndey, Australia. It is next to Kooloora Community Centre.

-33.975942, 151.247981

Little Bay, New South Wales 2036, Australia

Over the past 100 years, the population of Sydney, Australia has experienced significant growth and demographic shifts. In 1921, the population of Sydney was around 1.4 million people. By 2021, this number had grown to over 5.3 million, making it the most populous city in Australia. The average annual temperature has risen by about 1°C, with the majority of the warming occurring in the past few decades. There has been a large amount of variability from year to year, with some years experiencing droughts and others experiencing floods. In recent years, there has been a trend towards drier conditions, which has led to concerns about water shortages and bushfires.

By Felix Wong (felixwongtk)

[[Category:Education]] [[Category:Projects_and_case_studies]] [[Category:Research_/_Innovation]] [[Category:Planning_permission]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Design]] [[Category:Property_development]] [[Category:Public_procedures]] [[Category:Roles_/_services]] [[Category:BIM]]

15 Minute city urban design project

2023-07-13T18:59:00Z

Felix Wong Tsz Kiu:

By [https://www.designingbuildings.co.uk/wiki/Felix_Wong_Tsz_Kiu_(felixwongtk) Felix Wong Tsz Kiu (felixwongtk)]

= FORWARD =

Long commutes, traffic congestion, and polluted air have been a scourge on urban life for far too long. But what if we could make urban living less stressful and more sustainable? That’s the idea behind the 15 Minute City – a city where all essential destinations, such as schools, shops, offices, entertainment venues, and healthcare facilities, can be reached within a 15-minute walk, cycle, or public transit ride. 
Affordable, accessible, and adaptable housing, fresh groceries, and other amenities are also key features of a 15 Minute City. Working from home or close to home can also help to reclaim our time, health, and well-being while fostering more inclusive communities. Several major cities, such as Paris, Melbourne, Detroit, Portland, and Ottawa, are already embracing similar concepts. 
This competition encourages designers and planners to re-imagine urban landscapes as cleaner, safer, healthier, and more inclusive places to live. So, let’s get creative and make our cities more livable!

= DESCRIPTION =

=== Land Use / Transportation Networks ===

The 15-minute city is envisioned as a thriving and self-contained urban neighborhood that prioritizes walkability, accessibility, and community participation. The design effortlessly mixes residential, business, recreational, and public areas within a small area, ensuring inhabitants have quick access to critical services and facilities without the need for long commutes or reliance on private automobiles. A central public plaza serves as a meeting area at the center of this design, encouraging a feeling of community and social interaction. Surrounding the area are mixed-use buildings with ground floors housing local businesses, shops, and services, such as grocery stores, cafés, pharmacies, and small companies. Residential areas are deliberately incorporated throughout the neighborhood, providing a variety of housing alternatives to suit a wide range of demographics and lifestyles. The design fosters social inclusion and a sense of belonging in anything from flats and townhouses to co-living spaces and family homes. The neighborhood is crisscrossed by a network of tree-lined streets and well-designed pavements, encouraging walking and cycling as preferred forms of transit. Bicycle lanes, pedestrian-friendly walkways, and shared mobility choices promote active transportation while decreasing congestion and pollution.

=== Community / Social Networks ===

These areas encourage social interactions among users, which helps inhabitants feel a sense of community and work together and support one another. They foster social cohesiveness and lessen social isolation by offering chances for social engagement, community involvement, and idea exchange. Additionally, communal spaces frequently include green spaces, parks, and public gardens, which enhance the city's overall visual appeal as well as the air quality and urban biodiversity. These areas foster outdoor enjoyment, physical activity, and a connection to nature, all of which support better lifestyles and mental well-being. A sense of environmental stewardship and the promotion of sustainable practices may also be fostered through using community spaces as venues for educational programs, cultural events, and environmental awareness campaigns.

=== Sustainable Urban System / Smart City Technologies ===

It offers a useful area for leisure time activities, fostering physical health, well-being, and mental relaxation. The lush park provides a tranquil setting for leisure, picnics, and social meetings, acting as a natural oasis within the metropolitan setting.

The park and communal garden improve the city's visual attractiveness and foster a friendly attitude, which adds to its overall aesthetic appeal Additionally, they offer crucial ecosystem services including carbon sequestration, air purification, and the development of habitat for urban animals.

* Smart Grid

A smart grid’s implementation in a city has several advantages, including effective electricity management, increased dependability, and fewer power outages. It makes it possible to include renewable energy sources, creating a cleaner, more sustainable energy mix while reducing the effects of climate change. Demand response programs, which offer real-time energy data and encourage energy saving, are another way that smart grids give users more power. Furthermore, they promote effective load management and charging infrastructure, which supports the expansion of electric cars. In general, smart grids improve urban sustainability, customer involvement, renewable energy integration, energy efficiency, and system stability.

* Urban Farming

Local food production, increased food security, environmental sustainability, community involvement, a better urban microclimate, and economic prospects are just a few of the advantages of urban farming. It offers a workable option for encouraging resilient and sustainable food systems in urban settings.

* Urban Tree Canopy

First off, trees reduce ambient temperatures and improve human comfort by offering shade and evaporative cooling, mitigating the urban heat island effect. By removing pollutants from the air and releasing oxygen, they help enhance air quality, creating safer and more hygienic cities. Urban trees also serve as organic stormwater management systems, capturing and absorbing precipitation, lowering runoff, and easing pressure on drainage systems.

* Green Wall for commercial buildings

By filtering pollutants and particulates, green walls enhance air quality, making cities healthier and more aesthetically pleasing for both residents and tourists. Additionally, they serve as natural insulation, which lowers energy consumption by adding to thermal insulation and assisting in temperature control indoors. These effects can result in considerable energy savings and reduced

* Community Garden

Access to locally grown, wholesome, and fresh vegetables is made possible through community gardens, which also promote food security and enhance inhabitants’ general health and well-being. Community gardens encourage a sense of belonging and social cohesiveness by bringing individuals from all backgrounds together to work together, exchange information, and form connections. These gardens can improve urban greening, enhance neighborhood aesthetics, reduce the impact of urban heat islands, and promote cleaner air.

* Intelligence Water System

Cities may gain a lot from implementing intelligent water systems, including effective water management and conservation, real-time monitoring, and proactive water loss reduction strategies. These technologies improve monitoring and control of water quality while also ensuring equal access to clean water. They support environmental sustainability and the conservation of water resources by encouraging sustainable water practises. The resilience, dependability, and sustainability of urban water infrastructure are all improved by intelligent water systems, making cities more habitable and ecologically friendly.

=== Mixed-used / Business development ===

Mixed-use complexes improve overall quality of life by mixing residential, commercial, recreational, and institutional uses in close proximity and reducing the need for long commutes. Within a 15-minute walk or bike ride, residents may easily reach amenities including offices, parks, grocery stores, schools, and healthcare centers, easing traffic congestion and lowering carbon emissions. As individuals from all backgrounds and age groups use common areas and participate in activities together, mixed-use complexes also promote a feeling of community and social interaction. The well-being and convenience of locals are given priority in this urban development concept, which promotes sustainable practices, enhances accessibility, and develops lively, inclusive neighborhoods.

The flow of products and services is made easier by improving accessibility for companies and customers via the optimisation of transportation infrastructure and connectivity. The connection between commercial districts and residential neighbourhoods is improved through well-designed transport networks, including highways, public transit systems, and infrastructure for pedestrians and cyclists. This facilitates effective commuting and expands the consumer base for companies.

Businesses may access online marketplaces, increase their consumer base, and take part in e-commerce operations thanks to this infrastructure. It makes it easier for people to communicate and work together effectively both inside the company and with clients or partners all around the world. Businesses may take use of modern technologies like cloud computing and data analytics with a high-speed broadband network to streamline operations, increase efficiency, and make wise choices.

Businesses may gain from more visitors by successfully marketing a city as a popular tourist destination, opening up new avenues for expansion and income production. By highlighting the city's distinctive features, cultural offers, and experiences, effective marketing campaigns may draw tourists to the area and encourage them to check out the local businesses. The demand for lodging, dining, transportation, and other hospitality-related enterprises may all be increased through destination marketing initiatives that draw business travellers, conferences, and events. Tourism and destination marketing initiatives may promote a favourable image for the city, improve brand recognition, and boost economic activity, supporting business growth and success for the community and its entrepreneurs.

[[Category:Education]] [[Category:Organisations]] [[Category:Projects_and_case_studies]] [[Category:Publications_/_reports]] [[Category:Research_/_Innovation]] [[Category:Theory]] [[Category:Planning_permission]] [[Category:Regulations]] [[Category:Standards_/_measurements]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Contracts_/_payment]] [[Category:Design]] [[Category:Circular_economy]] [[Category:People]]

Sustainability in Architecture

2023-07-13T18:46:35Z

Felix Wong Tsz Kiu: Created page with "By Felix Wong Tsz Kiu (felixwongtk) Architecture that prioritises the well-being of its residents and communities while minimising negative environmental effects and promoting e..."

By Felix Wong Tsz Kiu (felixwongtk)

Architecture that prioritises the well-being of its residents and communities while minimising negative environmental effects and promoting energy efficiency and resource conservation is known as sustainable architecture. Every step of the architectural process, from site selection and material sourcing to building, use, and eventual decommissioning, must incorporate sustainable design concepts. Architects work to reduce energy use, water use, and trash production in order to reduce the environmental impact of buildings. This entails using water-saving technology, eco-friendly building materials, renewable energy sources, and energy-efficient systems. The goal of sustainable design is to use resources as efficiently as possible over the course of a building's existence. This entails picking materials that have a minimal impact on the environment, minimising waste generated during building, reusing or recycling resources, and designing for toughness and endurance. A large amount of the world's energy consumption is used by buildings. A focus on energy-efficient design principles, such as passive solar design, effective insulation, natural ventilation, daylighting, and high-performance building systems, is also a hallmark of sustainable architecture. These actions lessen the demand for energy and reliance on fossil fuels. Sustainable architecture takes into account how a building's placement will affect the neighbourhood and ecology. It favours locations that reduce environmental impact, promote accessibility to public transit, improve walkability, and save natural ecosystems. To reduce sprawl and promote environmentally friendly mobility alternatives, the incorporation of buildings into the existing urban fabric is also encouraged. In the design process, it acknowledges the significance of social and cultural elements. It seeks to provide inclusive and open places that cater to the requirements and aspirations of many populations. It involves including stakeholders, utilising regional customs and materials, and encouraging social engagement. With a long-term outlook, sustainable design takes into account a building's whole life cycle. This covers the materials used, the construction procedures, the energy used while the building is occupied, maintenance, and final decommissioning. Architects strive to create structures that can adapt to changing demands, generate as little waste as possible, and allow for efficient restoration or repurposing.

Addressing the urgent environmental, social, and economic issues we face today requires the use of sustainable design, materials, and building methods. Buildings' detrimental environmental effects are minimised by using sustainable design, materials, and construction methods. They encourage trash reduction and recycling while using less energy and emitting fewer greenhouse gases. Buildings may greatly lower their carbon footprint and aid in the fight against climate change by implementing energy-efficient systems, using renewable energy sources, and using environmentally friendly materials. Ecosystems are protected, natural resources are conserved, and biodiversity is preserved through sustainable practises. The health and well-being of building inhabitants are given priority through sustainable design and construction methods. Environments for living and working that are healthier and more pleasant are those that incorporate tactics to enhance indoor air quality, maximise natural lighting, and support thermal comfort. Buildings with accessible design may be accessed by individuals of all abilities, encouraging inclusion and equal opportunity. Furthermore, social engagement and community building are frequently included into sustainable structures, which encourage a sense of belonging and wellbeing. Sustainable architecture and building techniques provide several financial benefits. Buildings that use less energy during operation use less energy overall, which results in lower utility costs and long-term benefits. Reducing maintenance and lifespan costs may be achieved by using sustainable materials and building methods. In addition, the increased demand for sustainable structures opens up business prospects, stimulating innovation, the creation of jobs, and market expansion in sectors relating to eco-friendly construction supplies, renewable energy sources, and energy-saving technology. Resilience and flexibility are given priority in sustainable design and construction. Buildings can better endure and adapt to changing climatic circumstances by integrating resilient elements, such as flood-resistant design, passive cooling measures, or the utilisation of renewable energy sources. This flexibility guarantees that buildings continue to be useful and efficient even in the face of difficulties from climate change and resource shortages in the future.

A variety of techniques are used in sustainable design methods in architecture with the goal of reducing buildings' environmental impact and fostering long-term sustainability. Utilising natural resources and features to maximise comfort and energy efficiency is the main goal of passive design. This involves things like optimising natural lighting and reducing heat input or loss in buildings, using shading systems to manage solar heat, and using natural ventilation techniques. Passive design lessens dependency on mechanical systems, resulting in lower energy consumption and less environmental impact. It does this by utilising the site's and climate's natural qualities. Using design, equipment selection, and building system techniques, energy consumption may be decreased. This covers the usage of HVAC (heating, ventilation, and air conditioning) systems, appliances, and lighting systems that are energy-efficient. Insulation, high-performance windows, and airtight construction all contribute to better thermal efficiency and reduce heat transmission in buildings. Energy efficiency may be further improved by integrating renewable energy technologies, such solar panels or geothermal systems, which can also encourage localised production of sustainable energy. Construction and operational waste are both targeted by waste reduction and recycling methods. This entails implementing design strategies that support prefabrication, modular construction, and effective material usage. Reducing environmental deterioration and trash production may be accomplished by choosing materials with a high level of recycled content and taking into account their life cycle impact. The ecological impact may be further reduced by implementing a waste management strategy during construction and supporting recycling practises while the building is being used. The use of environmentally friendly materials is essential for reducing environmental effect. Utilising locally sourced products that have minimal embodied energy, are ethically collected, or are produced helps to minimise transportation emissions. Low toxicity, high recyclability, and great durability in materials increase their longevity and lessen the need for frequent replacements. A comprehensive and integrated design strategy is necessary to include these ideas into architectural projects. In order to optimise design decisions, this calls for early cooperation between architects, engineers, and other stakeholders as well as the use of cutting-edge simulation technologies. From the conceptual stage to building construction and continuing building operations, sustainable design solutions should be used, taking into account site-specific elements, climate, and occupant demands. Architects may design buildings with a smaller ecological footprint, less energy consumption, and improved tenant comfort and well-being by using passive design, energy efficiency, water conservation, waste reduction, and sustainable materials. These tactics support the built environment's long-term sustainability and aid in resolving the current environmental issues.

One Central Park, a project in Sydney, Australia, is an outstanding example of how sustainability concepts may be embodied in architecture, features, and technology. The structure, which was created by Frasers Property and Sekisui House and was built by Jean Nouvel and Patrick Blanc, exhibits a strong commitment to social and environmental responsibility. Vertical gardens created by botanist Patrick Blanc are prominently shown. These lush, green façade provide various environmental advantages in addition to improving the building's looks. The plants reduce the impact of the urban heat island effect, increase biodiversity, and enhance air quality by absorbing carbon dioxide and releasing oxygen. They also help residents feel more mentally healthy by fostering a connection to nature in an urban environment. The structure makes use of a number of energy-efficient design techniques. Sun-shading elements, such as movable vertical fins, are included into the facade to limit solar heat gain and lessen the need for mechanical cooling. Motion sensors and energy-efficient lights are employed throughout the structure to reduce energy usage. The building's communal rooms are further powered by solar panels that are built into the rooftop and provide sustainable energy. Several water-saving techniques are used in One Central Park. By collecting and storing rainwater for irrigation, rainwater harvesting systems help to reduce the need for potable water. The large vertical gardens and groomed areas are watered using the gathered water. The building is equipped with water-saving fixtures and fittings, encouraging water conservation and lowering total water usage. Utilising sustainable materials was given top priority during development of One Central Park. To lessen the negative effects on the environment, recycled and low-embodied energy materials were chosen. Recycled steel and concrete were used in the building's construction to cut down on trash production and resource exploitation. Interior finishes were also made using sustainable lumber, supporting good forest management techniques. Numerous public areas and facilities are provided by One Central Park to encourage social interaction and general well-being. Public gardens, parks, and leisure spaces are included in the structure, giving locals and the general public access to green spaces right in the middle of the city. These areas support a sustainable and healthy living environment by promoting social cohesiveness, physical exercise, and a feeling of community.

One Central Park can be regarded as a success in terms of its contributions to the built environment and sustainability accomplishments. Nevertheless, there were difficulties throughout its execution as well. With the help of public places, educational initiatives, and public art displays, the project actively interacts with the community. It offers access to green spaces for locals and guests, encouraging social interaction, overall wellbeing, and environmental awareness. International acclaim has been bestowed upon One Central Park's distinctive and eye-catching design. Its architectural characteristics, which also promote sustainability and improve the urban environment, include vertical gardens that add to the city's skyline. However, a concept as inventive and intricate as One Central Park was unavoidably difficult to achieve. The enormous vertical gardens needed to be integrated, which required careful design, engineering know-how, and continual maintenance. It could have been logistically and technically difficult to build and maintain such a distinctive feature. Projects that emphasise sustainability, like One Central Park, frequently demand substantial investments. In comparison to traditional building techniques, the use of cutting-edge technologies, eco-friendly elements, and sustainable materials may have resulted in greater upfront expenses. During the project's execution, it could have been difficult to strike a balance between budgetary concerns and the sustainability's long-term advantages. Expertise and continuous resources are needed for the long-term upkeep and management of the vertical gardens and sustainable elements. It can be difficult and time-consuming to ensure that the building operates sustainably and effectively for the duration of its life. Despite these difficulties, One Central Park's dedication to sustainable design, energy efficiency, water conservation, community participation, and aesthetic appeal accounts for its success. It serves as an example of sustainable urban development, advancing the civic environmental and social objectives while showcasing the feasibility of integrating nature into crowded urban settings.

In order to involve communities in sustainable urban planning, architecture is essential. Architects have the chance to influence the built environment in ways that promote sustainability, build lively neighbourhoods, revitalise public spaces, and contribute to resilient cities through working with urban planners, legislators, and local communities. In order to create sustainable neighbourhoods, architects can collaborate closely with urban planners and decision-makers. This entails using the concepts of walkability, access to public transportation, compact and mixed-use construction, and green infrastructure. The quality of life for people may be improved in neighbourhoods that architects plan by including natural areas, developing energy-efficient structures, and fostering social interaction. Parks, plazas, and streetscapes are just a few examples of the public places that architects can help bring back to life. Architects may create thriving community meeting areas out of underutilised or abandoned sites by using creative design interventions. This can entail designing pedestrian-friendly spaces, adding public art, including seats and cover, and using sustainable building materials and landscaping. Social connection, civic participation, and a sense of community pride and ownership are all encouraged by revitalised public areas. By using climate adaption techniques in their designs, architects may help create resilient communities. This involves taking into account elements like increasing sea levels, harsh weather, and a rise in the consequences of urban heat islands. Architects may use flood-resistant design ideas, resilient building materials, green roofs, rainwater collection systems, and more. Architects contribute to the development of more sustainable and adaptable cities by creating structures and environments that can resist and react to climate change. A wide variety of specialists, such as urban planners, landscape architects, engineers, and sustainability consultants, should work together with architects. They may create comprehensive, integrated solutions that address social, economic, and environmental issues by cooperating. In order to match their vision with the more general objectives of sustainable urban planning, architects need also interact with local legislators, developers, and community organisations.

The area of sustainable design is always changing as a result of new discoveries in emerging technologies and innovations, which present fresh opportunities to improve energy efficiency, lessen environmental impact, and create healthier built environments. To lessen the carbon footprint associated with conventional concrete manufacturing, researchers are creating Advanced Building Materials, such as concrete mixes that employ recycled materials, alternate cementitious binders, and carbon capture technology. New biodegradable materials, such as bioplastics and composites based on mycelium, provide environmentally acceptable alternatives to traditional construction materials. The use of artificial lighting and HVAC systems can be decreased thanks to the ability of electrochromic and thermochromic glass to dynamically adjust sunlight and heat penetration. Another sustainable architectural technique is renewable energy integration. When solar panels are incorporated into architectural features like windows, facades, or roofing, they enable the production of clean energy. To capture wind energy in urban settings, small wind turbines and wind-capturing devices can be incorporated into building designs. Innovative engineering has enabled the capture and conversion of ambient energy sources (such as vibrations, temperature gradients, and foot traffic) into electricity for on-site consumption. Examples of these technologies include kinetic energy systems, piezoelectric materials, and thermoelectric generators. By maximising energy consumption, lowering carbon emissions, preserving resources, improving the quality of built environments, and optimising resource use, these new technologies and ideas have the potential to completely transform sustainable design. The area of sustainable design must continue to be researched, developed, and adopted if we are to meet the current environmental concerns.

In overall, architects have a crucial role to play in establishing a sustainable future. They may lessen the negative effects on the environment, enhance human well-being, and promote resilient communities by using sustainable design and architectural practises. Architects are at the forefront of encouraging sustainable development, and their work affects policy, research, and education in addition to particular projects. Architects can help create a society that is more sustainable and resilient by accepting this duty and supporting more research and innovation.

[[Category:Definitions]] [[Category:Education]] [[Category:Organisations]] [[Category:Projects_and_case_studies]] [[Category:Research_/_Innovation]] [[Category:Theory]] [[Category:Health_and_safety_/_CDM]] [[Category:Regulations]] [[Category:Standards_/_measurements]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Design]] [[Category:Public_procedures]] [[Category:Roles_/_services]]

15 Minute city urban design project

2023-07-13T17:33:54Z

Felix Wong Tsz Kiu:

=== BY FELIX WONG (felixwongtk) ===

= FORWARD =

Long commutes, traffic congestion, and polluted air have been a scourge on urban life for far too long. But what if we could make urban living less stressful and more sustainable? That’s the idea behind the 15 Minute City – a city where all essential destinations, such as schools, shops, offices, entertainment venues, and healthcare facilities, can be reached within a 15-minute walk, cycle, or public transit ride. 
Affordable, accessible, and adaptable housing, fresh groceries, and other amenities are also key features of a 15 Minute City. Working from home or close to home can also help to reclaim our time, health, and well-being while fostering more inclusive communities. Several major cities, such as Paris, Melbourne, Detroit, Portland, and Ottawa, are already embracing similar concepts. 
This competition encourages designers and planners to re-imagine urban landscapes as cleaner, safer, healthier, and more inclusive places to live. So, let’s get creative and make our cities more livable!

= DESCRIPTION =

=== Land Use / Transportation Networks ===

The 15-minute city is envisioned as a thriving and self-contained urban neighborhood that prioritizes walkability, accessibility, and community participation. The design effortlessly mixes residential, business, recreational, and public areas within a small area, ensuring inhabitants have quick access to critical services and facilities without the need for long commutes or reliance on private automobiles. A central public plaza serves as a meeting area at the center of this design, encouraging a feeling of community and social interaction. Surrounding the area are mixed-use buildings with ground floors housing local businesses, shops, and services, such as grocery stores, cafés, pharmacies, and small companies. Residential areas are deliberately incorporated throughout the neighborhood, providing a variety of housing alternatives to suit a wide range of demographics and lifestyles. The design fosters social inclusion and a sense of belonging in anything from flats and townhouses to co-living spaces and family homes. The neighborhood is crisscrossed by a network of tree-lined streets and well-designed pavements, encouraging walking and cycling as preferred forms of transit. Bicycle lanes, pedestrian-friendly walkways, and shared mobility choices promote active transportation while decreasing congestion and pollution.

=== Community / Social Networks ===

These areas encourage social interactions among users, which helps inhabitants feel a sense of community and work together and support one another. They foster social cohesiveness and lessen social isolation by offering chances for social engagement, community involvement, and idea exchange. Additionally, communal spaces frequently include green spaces, parks, and public gardens, which enhance the city's overall visual appeal as well as the air quality and urban biodiversity. These areas foster outdoor enjoyment, physical activity, and a connection to nature, all of which support better lifestyles and mental well-being. A sense of environmental stewardship and the promotion of sustainable practices may also be fostered through using community spaces as venues for educational programs, cultural events, and environmental awareness campaigns.

=== Sustainable Urban System / Smart City Technologies ===

It offers a useful area for leisure time activities, fostering physical health, well-being, and mental relaxation. The lush park provides a tranquil setting for leisure, picnics, and social meetings, acting as a natural oasis within the metropolitan setting.

The park and communal garden improve the city's visual attractiveness and foster a friendly attitude, which adds to its overall aesthetic appeal Additionally, they offer crucial ecosystem services including carbon sequestration, air purification, and the development of habitat for urban animals.

* Smart Grid

A smart grid’s implementation in a city has several advantages, including effective electricity management, increased dependability, and fewer power outages. It makes it possible to include renewable energy sources, creating a cleaner, more sustainable energy mix while reducing the effects of climate change. Demand response programs, which offer real-time energy data and encourage energy saving, are another way that smart grids give users more power. Furthermore, they promote effective load management and charging infrastructure, which supports the expansion of electric cars. In general, smart grids improve urban sustainability, customer involvement, renewable energy integration, energy efficiency, and system stability.

* Urban Farming

Local food production, increased food security, environmental sustainability, community involvement, a better urban microclimate, and economic prospects are just a few of the advantages of urban farming. It offers a workable option for encouraging resilient and sustainable food systems in urban settings.

* Urban Tree Canopy

First off, trees reduce ambient temperatures and improve human comfort by offering shade and evaporative cooling, mitigating the urban heat island effect. By removing pollutants from the air and releasing oxygen, they help enhance air quality, creating safer and more hygienic cities. Urban trees also serve as organic stormwater management systems, capturing and absorbing precipitation, lowering runoff, and easing pressure on drainage systems.

* Green Wall for commercial buildings

By filtering pollutants and particulates, green walls enhance air quality, making cities healthier and more aesthetically pleasing for both residents and tourists. Additionally, they serve as natural insulation, which lowers energy consumption by adding to thermal insulation and assisting in temperature control indoors. These effects can result in considerable energy savings and reduced

* Community Garden

Access to locally grown, wholesome, and fresh vegetables is made possible through community gardens, which also promote food security and enhance inhabitants’ general health and well-being. Community gardens encourage a sense of belonging and social cohesiveness by bringing individuals from all backgrounds together to work together, exchange information, and form connections. These gardens can improve urban greening, enhance neighborhood aesthetics, reduce the impact of urban heat islands, and promote cleaner air.

* Intelligence Water System

Cities may gain a lot from implementing intelligent water systems, including effective water management and conservation, real-time monitoring, and proactive water loss reduction strategies. These technologies improve monitoring and control of water quality while also ensuring equal access to clean water. They support environmental sustainability and the conservation of water resources by encouraging sustainable water practises. The resilience, dependability, and sustainability of urban water infrastructure are all improved by intelligent water systems, making cities more habitable and ecologically friendly.

=== Mixed-used / Business development ===

Mixed-use complexes improve overall quality of life by mixing residential, commercial, recreational, and institutional uses in close proximity and reducing the need for long commutes. Within a 15-minute walk or bike ride, residents may easily reach amenities including offices, parks, grocery stores, schools, and healthcare centers, easing traffic congestion and lowering carbon emissions. As individuals from all backgrounds and age groups use common areas and participate in activities together, mixed-use complexes also promote a feeling of community and social interaction. The well-being and convenience of locals are given priority in this urban development concept, which promotes sustainable practices, enhances accessibility, and develops lively, inclusive neighborhoods.

The flow of products and services is made easier by improving accessibility for companies and customers via the optimisation of transportation infrastructure and connectivity. The connection between commercial districts and residential neighbourhoods is improved through well-designed transport networks, including highways, public transit systems, and infrastructure for pedestrians and cyclists. This facilitates effective commuting and expands the consumer base for companies.

Businesses may access online marketplaces, increase their consumer base, and take part in e-commerce operations thanks to this infrastructure. It makes it easier for people to communicate and work together effectively both inside the company and with clients or partners all around the world. Businesses may take use of modern technologies like cloud computing and data analytics with a high-speed broadband network to streamline operations, increase efficiency, and make wise choices.

Businesses may gain from more visitors by successfully marketing a city as a popular tourist destination, opening up new avenues for expansion and income production. By highlighting the city's distinctive features, cultural offers, and experiences, effective marketing campaigns may draw tourists to the area and encourage them to check out the local businesses. The demand for lodging, dining, transportation, and other hospitality-related enterprises may all be increased through destination marketing initiatives that draw business travellers, conferences, and events. Tourism and destination marketing initiatives may promote a favourable image for the city, improve brand recognition, and boost economic activity, supporting business growth and success for the community and its entrepreneurs.

[[Category:Education]] [[Category:Organisations]] [[Category:Projects_and_case_studies]] [[Category:Publications_/_reports]] [[Category:Research_/_Innovation]] [[Category:Theory]] [[Category:Planning_permission]] [[Category:Regulations]] [[Category:Standards_/_measurements]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Contracts_/_payment]] [[Category:Design]] [[Category:Circular_economy]] [[Category:People]]

15 Minute city urban design project

2023-07-11T17:07:57Z

Felix Wong Tsz Kiu: Created page with "= FORWARD = Long commutes, traffic congestion, and polluted air have been a scourge on urban life for far too long. But what if we could make urban living less stressful and mor..."

= FORWARD =

Long commutes, traffic congestion, and polluted air have been a scourge on urban life for far too long. But what if we could make urban living less stressful and more sustainable? That’s the idea behind the 15 Minute City – a city where all essential destinations, such as schools, shops, offices, entertainment venues, and healthcare facilities, can be reached within a 15-minute walk, cycle, or public transit ride. 
Affordable, accessible, and adaptable housing, fresh groceries, and other amenities are also key features of a 15 Minute City. Working from home or close to home can also help to reclaim our time, health, and well-being while fostering more inclusive communities. Several major cities, such as Paris, Melbourne, Detroit, Portland, and Ottawa, are already embracing similar concepts. 
This competition encourages designers and planners to re-imagine urban landscapes as cleaner, safer, healthier, and more inclusive places to live. So, let’s get creative and make our cities more livable!

= DESCRIPTION =

=== Land Use / Transportation Networks ===

The 15-minute city is envisioned as a thriving and self-contained urban neighborhood that prioritizes walkability, accessibility, and community participation. The design effortlessly mixes residential, business, recreational, and public areas within a small area, ensuring inhabitants have quick access to critical services and facilities without the need for long commutes or reliance on private automobiles. A central public plaza serves as a meeting area at the center of this design, encouraging a feeling of community and social interaction. Surrounding the area are mixed-use buildings with ground floors housing local businesses, shops, and services, such as grocery stores, cafés, pharmacies, and small companies. Residential areas are deliberately incorporated throughout the neighborhood, providing a variety of housing alternatives to suit a wide range of demographics and lifestyles. The design fosters social inclusion and a sense of belonging in anything from flats and townhouses to co-living spaces and family homes. The neighborhood is crisscrossed by a network of tree-lined streets and well-designed pavements, encouraging walking and cycling as preferred forms of transit. Bicycle lanes, pedestrian-friendly walkways, and shared mobility choices promote active transportation while decreasing congestion and pollution.

=== Community / Social Networks ===

These areas encourage social interactions among users, which helps inhabitants feel a sense of community and work together and support one another. They foster social cohesiveness and lessen social isolation by offering chances for social engagement, community involvement, and idea exchange. Additionally, communal spaces frequently include green spaces, parks, and public gardens, which enhance the city's overall visual appeal as well as the air quality and urban biodiversity. These areas foster outdoor enjoyment, physical activity, and a connection to nature, all of which support better lifestyles and mental well-being. A sense of environmental stewardship and the promotion of sustainable practices may also be fostered through using community spaces as venues for educational programs, cultural events, and environmental awareness campaigns.

=== Sustainable Urban System / Smart City Technologies ===

It offers a useful area for leisure time activities, fostering physical health, well-being, and mental relaxation. The lush park provides a tranquil setting for leisure, picnics, and social meetings, acting as a natural oasis within the metropolitan setting.

The park and communal garden improve the city's visual attractiveness and foster a friendly attitude, which adds to its overall aesthetic appeal Additionally, they offer crucial ecosystem services including carbon sequestration, air purification, and the development of habitat for urban animals.

* Smart Grid

A smart grid’s implementation in a city has several advantages, including effective electricity management, increased dependability, and fewer power outages. It makes it possible to include renewable energy sources, creating a cleaner, more sustainable energy mix while reducing the effects of climate change. Demand response programs, which offer real-time energy data and encourage energy saving, are another way that smart grids give users more power. Furthermore, they promote effective load management and charging infrastructure, which supports the expansion of electric cars. In general, smart grids improve urban sustainability, customer involvement, renewable energy integration, energy efficiency, and system stability.

* Urban Farming

Local food production, increased food security, environmental sustainability, community involvement, a better urban microclimate, and economic prospects are just a few of the advantages of urban farming. It offers a workable option for encouraging resilient and sustainable food systems in urban settings.

* Urban Tree Canopy

First off, trees reduce ambient temperatures and improve human comfort by offering shade and evaporative cooling, mitigating the urban heat island effect. By removing pollutants from the air and releasing oxygen, they help enhance air quality, creating safer and more hygienic cities. Urban trees also serve as organic stormwater management systems, capturing and absorbing precipitation, lowering runoff, and easing pressure on drainage systems.

* Green Wall for commercial buildings

By filtering pollutants and particulates, green walls enhance air quality, making cities healthier and more aesthetically pleasing for both residents and tourists. Additionally, they serve as natural insulation, which lowers energy consumption by adding to thermal insulation and assisting in temperature control indoors. These effects can result in considerable energy savings and reduced

* Community Garden

Access to locally grown, wholesome, and fresh vegetables is made possible through community gardens, which also promote food security and enhance inhabitants’ general health and well-being. Community gardens encourage a sense of belonging and social cohesiveness by bringing individuals from all backgrounds together to work together, exchange information, and form connections. These gardens can improve urban greening, enhance neighborhood aesthetics, reduce the impact of urban heat islands, and promote cleaner air.

* Intelligence Water System

Cities may gain a lot from implementing intelligent water systems, including effective water management and conservation, real-time monitoring, and proactive water loss reduction strategies. These technologies improve monitoring and control of water quality while also ensuring equal access to clean water. They support environmental sustainability and the conservation of water resources by encouraging sustainable water practises. The resilience, dependability, and sustainability of urban water infrastructure are all improved by intelligent water systems, making cities more habitable and ecologically friendly.

=== Mixed-used / Business development ===

Mixed-use complexes improve overall quality of life by mixing residential, commercial, recreational, and institutional uses in close proximity and reducing the need for long commutes. Within a 15-minute walk or bike ride, residents may easily reach amenities including offices, parks, grocery stores, schools, and healthcare centers, easing traffic congestion and lowering carbon emissions. As individuals from all backgrounds and age groups use common areas and participate in activities together, mixed-use complexes also promote a feeling of community and social interaction. The well-being and convenience of locals are given priority in this urban development concept, which promotes sustainable practices, enhances accessibility, and develops lively, inclusive neighborhoods.

The flow of products and services is made easier by improving accessibility for companies and customers via the optimisation of transportation infrastructure and connectivity. The connection between commercial districts and residential neighbourhoods is improved through well-designed transport networks, including highways, public transit systems, and infrastructure for pedestrians and cyclists. This facilitates effective commuting and expands the consumer base for companies.

Businesses may access online marketplaces, increase their consumer base, and take part in e-commerce operations thanks to this infrastructure. It makes it easier for people to communicate and work together effectively both inside the company and with clients or partners all around the world. Businesses may take use of modern technologies like cloud computing and data analytics with a high-speed broadband network to streamline operations, increase efficiency, and make wise choices.

Businesses may gain from more visitors by successfully marketing a city as a popular tourist destination, opening up new avenues for expansion and income production. By highlighting the city's distinctive features, cultural offers, and experiences, effective marketing campaigns may draw tourists to the area and encourage them to check out the local businesses. The demand for lodging, dining, transportation, and other hospitality-related enterprises may all be increased through destination marketing initiatives that draw business travellers, conferences, and events. Tourism and destination marketing initiatives may promote a favourable image for the city, improve brand recognition, and boost economic activity, supporting business growth and success for the community and its entrepreneurs.

[[Category:Education]] [[Category:Organisations]] [[Category:Projects_and_case_studies]] [[Category:Publications_/_reports]] [[Category:Research_/_Innovation]] [[Category:Theory]] [[Category:Planning_permission]] [[Category:Regulations]] [[Category:Standards_/_measurements]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Contracts_/_payment]] [[Category:Design]] [[Category:Circular_economy]] [[Category:People]]

Example design for Housing in 2075

2023-07-11T15:50:52Z

Felix Wong Tsz Kiu:

== FORWARD ==

Housing has come a long way from the basic shared spaces of ancient civilizations to modern co-living options. It has evolved in response to changing needs and aspirations of societies, reflecting the dynamic nature of human culture. Today, community housing is a lifestyle choice that fosters a sense of belonging, social interaction, and shared responsibility.

 
The future of housing presents us with a range of thrilling opportunities and challenges. The development of sustainable and approachable housing solutions, promoting social interaction, and harnessing the power of technology will be key to creating a vibrant and prosperous future for communities worldwide.

== DESCRIPTION ==

The Vertical Residence is a cutting-edge residential structure that merges sustainable, green construction practises with smart technology. This distinctive skyscraper serves as a symbol of sustainable living, combining comfort, energy efficiency, and technological connection. The architecture of the building is sleek and futuristic, with floor-to-ceiling windows that not only give stunning vistas but also optimise natural light penetration, eliminating the need for artificial lighting during the day. Smart glass technology is used in the windows, which automatically adjusts tint levels to minimise solar heat gain and maximise energy efficiency. The rooftop is adorned with solar panels, which harness the ample sunshine to create clean, sustainable energy. The panels provide power not just to shared spaces but also to individual apartments, decreasing dependency on traditional grid electricity and encouraging inhabitants to live a greener, more sustainable lifestyle. The Vertical Residence uses sophisticated insulating materials and efficient HVAC systems to provide ideal thermal comfort all year while minimising energy use.

Each apartment has a home automation system that lets occupants to control lighting, temperature, and security settings via voice commands or mobile apps. Data on energy consumption is easily available, allowing tenants to monitor and optimise their consumption habits for greater efficiency.

To save energy, smart thermostats and occupancy sensors manage temperature and ventilation, according to occupants’ preferences and recognising when rooms are empty. Advanced building automation systems (BAS) and energy management systems (EMS) enable centralized control and monitoring of various building systems, including HVAC, lighting, and occupancy sensors, optimizing energy use based on demand and occupancy patterns.

Green grounds decorate various levels, offering inhabitants calm sanctuaries while also building a feeling of community. Vertical gardens grow on outside walls, increasing air quality and adding to the visual appeal of the structure. These green spaces are outfitted with sophisticated irrigation systems that optimise water use by adjusting watering schedules based on weather conditions.

== LOCATION ==

The site is located in Syndey, Australia. It is next to Kooloora Community Centre.

-33.975942, 151.247981

Little Bay, New South Wales 2036, Australia

Over the past 100 years, the population of Sydney, Australia has experienced significant growth and demographic shifts. In 1921, the population of Sydney was around 1.4 million people. By 2021, this number had grown to over 5.3 million, making it the most populous city in Australia. The average annual temperature has risen by about 1°C, with the majority of the warming occurring in the past few decades. There has been a large amount of variability from year to year, with some years experiencing droughts and others experiencing floods. In recent years, there has been a trend towards drier conditions, which has led to concerns about water shortages and bushfires.

By Felix Wong (felixwongtk)

[[Category:Education]] [[Category:Projects_and_case_studies]] [[Category:Research_/_Innovation]] [[Category:Planning_permission]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Design]] [[Category:Property_development]] [[Category:Public_procedures]] [[Category:Roles_/_services]] [[Category:BIM]]

Example design for Housing in 2075

2023-07-11T15:49:35Z

Felix Wong Tsz Kiu: Created page with "== FORWARD == Housing has come a long way from the basic shared spaces of ancient civilizations to modern co-living options. It has evolved in response to changing needs and asp..."

== FORWARD ==

Housing has come a long way from the basic shared spaces of ancient civilizations to modern co-living options. It has evolved in response to changing needs and aspirations of societies, reflecting the dynamic nature of human culture. Today, community housing is a lifestyle choice that fosters a sense of belonging, social interaction, and shared responsibility.

 
The future of housing presents us with a range of thrilling opportunities and challenges. The development of sustainable and approachable housing solutions, promoting social interaction, and harnessing the power of technology will be key to creating a vibrant and prosperous future for communities worldwide.

== DESCRIPTION ==

The Vertical Residence is a cutting-edge residential structure that merges sustainable, green construction practises with smart technology. This distinctive skyscraper serves as a symbol of sustainable living, combining comfort, energy efficiency, and technological connection. The architecture of the building is sleek and futuristic, with floor-to-ceiling windows that not only give stunning vistas but also optimise natural light penetration, eliminating the need for artificial lighting during the day. Smart glass technology is used in the windows, which automatically adjusts tint levels to minimise solar heat gain and maximise energy efficiency. The rooftop is adorned with solar panels, which harness the ample sunshine to create clean, sustainable energy. The panels provide power not just to shared spaces but also to individual apartments, decreasing dependency on traditional grid electricity and encouraging inhabitants to live a greener, more sustainable lifestyle. The Vertical Residence uses sophisticated insulating materials and efficient HVAC systems to provide ideal thermal comfort all year while minimising energy use.

Each apartment has a home automation system that lets occupants to control lighting, temperature, and security settings via voice commands or mobile apps. Data on energy consumption is easily available, allowing tenants to monitor and optimise their consumption habits for greater efficiency.

To save energy, smart thermostats and occupancy sensors manage temperature and ventilation, according to occupants’ preferences and recognising when rooms are empty. Advanced building automation systems (BAS) and energy management systems (EMS) enable centralized control and monitoring of various building systems, including HVAC, lighting, and occupancy sensors, optimizing energy use based on demand and occupancy patterns.

Green grounds decorate various levels, offering inhabitants calm sanctuaries while also building a feeling of community. Vertical gardens grow on outside walls, increasing air quality and adding to the visual appeal of the structure. These green spaces are outfitted with sophisticated irrigation systems that optimise water use by adjusting watering schedules based on weather conditions.

== LOCATION ==

The site is located in Syndey, Australia. It is next to Kooloora Community Centre.

-33.975942, 151.247981

Little Bay, New South Wales 2036, Australia

Over the past 100 years, the population of Sydney, Australia has experienced significant growth and demographic shifts. In 1921, the population of Sydney was around 1.4 million people. By 2021, this number had grown to over 5.3 million, making it the most populous city in Australia. The average annual temperature has risen by about 1°C, with the majority of the warming occurring in the past few decades. There has been a large amount of variability from year to year, with some years experiencing droughts and others experiencing floods. In recent years, there has been a trend towards drier conditions, which has led to concerns about water shortages and bushfires.

[[Category:Education]] [[Category:Projects_and_case_studies]] [[Category:Research_/_Innovation]] [[Category:Planning_permission]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Design]] [[Category:Property_development]] [[Category:Public_procedures]] [[Category:Roles_/_services]] [[Category:BIM]]

Resilient community competition brief and enrtry

2023-07-11T15:24:48Z

Felix Wong Tsz Kiu:

Design a community centre which should serve as a hub for social, cultural, and educational activities. It should be a place where people can come together to learn, create, and connect with each other. The centre should also be designed to be flexible and adaptable to changing needs and conditions.

By promoting sustainable and equitable design, the competition can help foster more resilient communities that can better withstand and recover from a range of disruptions, including climate change, natural disasters, and pandemics. The competition also provides a platform for sharing best practices and inspiring others to adopt more sustainable and inclusive design strategies in their own work.

A resilient community centre is a multipurpose venue built to satisfy the requirements of the community it serves. It addresses social inequity, population expansion, and global warming, and promotes sustainability and prosperity. This facility is designed to endure natural catastrophes and other disturbances, ensuring that it stays operational even in times of crisis. To lower its carbon impact and promote sustainability, it is outfitted with renewable energy sources such as solar panels and wind turbines. The design and materials of the building also prioritise energy efficiency and low environmental effect. The centre acts as a hub for community events and services, offering a gathering place for people to socialise and learn. It provides programmes that encourage economic growth, job training, and entrepreneurship in order to assist individuals to escape poverty and succeed. The facility also has resources to combat the effects of climate change, such as community gardens and green areas, rainwater collection systems, and other initiatives to encourage sustainable living. It also provides teaching and outreach programmes on themes like recycling, energy saving, and environmentally friendly practices. To handle population expansion, the centre can act as a hub for family planning services, child care, and youth programmes. It provides a secure place for children to play and study, as well as tools to assist families in dealing with the problems of parenting children in an urban setting. Overall, a resilient community centre that addresses social inequity, population expansion, and global warming while also promoting sustainability and prosperity is a vital component of any flourishing community. It allows individuals to get together, learn, and support one another while also tackling some of the most urgent issues confronting our society today.

Location: Mumbai, India, Sion BST Ground

For various reasons, establishing a resilient community in Mumbai, India, is an excellent idea. Mumbai is very vulnerable to natural and man-made calamities such as floods, earthquakes, and terrorist strikes. Mumbai is located on the coast, making it prone to natural calamities including floods, cyclones, and earthquakes. Because it is located in a low-lying region, the Sion BST Ground is particularly vulnerable to flooding during the monsoon season. Building a resilient community centre here can help lessen the effects of natural catastrophes and help the community recover more swiftly. By supporting the use of green technology, sustainable infrastructure, and low-carbon transportation, resilience may also encourage sustainable development. This can help decrease greenhouse gas emissions, save resources, and improve inhabitants’ quality of life.

By Felix Wong (felixwongtk)

[[Category:Organisations]] [[Category:Projects_and_case_studies]] [[Category:Publications_/_reports]] [[Category:Research_/_Innovation]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Design]] [[Category:Operations]] [[Category:Property_development]] [[Category:BIM]]

Resilient community competition brief and enrtry

2023-07-11T15:23:51Z

Felix Wong Tsz Kiu: Created page with "Design a community centre which should serve as a hub for social, cultural, and educational activities. It should be a place where people can come together to learn, create, and ..."

Design a community centre which should serve as a hub for social, cultural, and educational activities. It should be a place where people can come together to learn, create, and connect with each other. The centre should also be designed to be flexible and adaptable to changing needs and conditions.

By promoting sustainable and equitable design, the competition can help foster more resilient communities that can better withstand and recover from a range of disruptions, including climate change, natural disasters, and pandemics. The competition also provides a platform for sharing best practices and inspiring others to adopt more sustainable and inclusive design strategies in their own work.

A resilient community centre is a multipurpose venue built to satisfy the requirements of the community it serves. It addresses social inequity, population expansion, and global warming, and promotes sustainability and prosperity. This facility is designed to endure natural catastrophes and other disturbances, ensuring that it stays operational even in times of crisis. To lower its carbon impact and promote sustainability, it is outfitted with renewable energy sources such as solar panels and wind turbines. The design and materials of the building also prioritise energy efficiency and low environmental effect. The centre acts as a hub for community events and services, offering a gathering place for people to socialise and learn. It provides programmes that encourage economic growth, job training, and entrepreneurship in order to assist individuals to escape poverty and succeed. The facility also has resources to combat the effects of climate change, such as community gardens and green areas, rainwater collection systems, and other initiatives to encourage sustainable living. It also provides teaching and outreach programmes on themes like recycling, energy saving, and environmentally friendly practices. To handle population expansion, the centre can act as a hub for family planning services, child care, and youth programmes. It provides a secure place for children to play and study, as well as tools to assist families in dealing with the problems of parenting children in an urban setting. Overall, a resilient community centre that addresses social inequity, population expansion, and global warming while also promoting sustainability and prosperity is a vital component of any flourishing community. It allows individuals to get together, learn, and support one another while also tackling some of the most urgent issues confronting our society today.

Location: Mumbai, India, Sion BST Ground

For various reasons, establishing a resilient community in Mumbai, India, is an excellent idea. Mumbai is very vulnerable to natural and man-made calamities such as floods, earthquakes, and terrorist strikes. Mumbai is located on the coast, making it prone to natural calamities including floods, cyclones, and earthquakes. Because it is located in a low-lying region, the Sion BST Ground is particularly vulnerable to flooding during the monsoon season. Building a resilient community centre here can help lessen the effects of natural catastrophes and help the community recover more swiftly. By supporting the use of green technology, sustainable infrastructure, and low-carbon transportation, resilience may also encourage sustainable development. This can help decrease greenhouse gas emissions, save resources, and improve inhabitants’ quality of life.

[[Category:Organisations]] [[Category:Projects_and_case_studies]] [[Category:Publications_/_reports]] [[Category:Research_/_Innovation]] [[Category:Sustainability]] [[Category:Construction_management]] [[Category:Construction_techniques]] [[Category:Design]] [[Category:Operations]] [[Category:Property_development]] [[Category:BIM]]

File:Screenshot 2023-05-08 at 1.23.36 AM.png

2023-07-11T15:23:11Z

Felix Wong Tsz Kiu: