Landscape Architecture – Is It a Walk in the Park?

 An Interview with:
Oliver Ng Boon Lee
Director, Landscape Architecture
Surbana Jurong Group

Apart from the brick and mortar of delivering urbanisation, infrastructure and engineering solutions for our clients, Surbana Jurong’s (SJ) Landscape Architectural team provides the competitive edge with a suite of solutioning services, and explores multi-dimensional areas of ecology, biology, botany, tourism, horticulture, fine arts, architecture, soil sciences, geography, urban & natural resources, and water engineering.

Oliver Ng Boon Lee, Director of Landscape Architecture, gives us the low-down on how Landscape Architecture helps project owners fulfil their journey of building a sustainable living and work environment, and its pivotal role in end-to-end design and build.

Q: What does the Landscape Architect perform in the design and build sector?

First and foremost, we need to debunk the myth that the role of the landscape architect is purely designing the landscape for commercial and residential properties. The truth is actually quite different. Landscape architects do work on large scale projects, most of which are public urban and natural environmental spaces.

These range from the creation of different hierarchy public and nature parks, to master planning for new cities and township developments, and major green infrastructure projects such as streetscapes, public parks, rivers, waterfronts, green building solutions and ecological habitats.

More often than not, the landscape architect is faced with the challenge of  working on or around structures with limited external spaces, while integrating ecological sustainability. At the design stage of the project, there is an exchange of valuable inputs based on the complexity of technical challenges. Ideas are then generated, and design created based on the organisation and use of space.

The landscape architect adopts and conceives the overall concept and prepares the master plan, of which promotes innovation by developing regionally scalable but locally contextual solutions that increase resilience (refer to Illustration A for an example of a Landscape Concept Masterplan).

Illustration A – Landscape Concept Masterplan for one of SJ’s project “Ecological Wetland, Resilient Riverfront Park and Coastal Belt at Yazhou Bay, Sanya China”

Q: Please give examples of some project successes that involve the works of Landscape Architecture.

Singapore’s very own “Garden City Vision” was first mooted by then Prime Minister Lee Kuan Yew in 1967 – to transform Singapore into a city with abundant lush greenery and a clean environment to make life more pleasant for the people. The Parks and Trees Act1 in the 1970s mandated Singapore government agencies like the Housing Development Board (HDB) and the Jurong Town Corporation (JTC), as well as private developers, to set aside spaces for trees and greenery in projects such as the development of housing estates, and construction of roads and car parks.

Currently, Singapore’s greening policy is guided by the “city in a garden” vision. Unveiled in 1998 as the next phase of the “garden city” vision, the new concept aimed to integrate greenery into not just the built environment, but also into the daily lives of Singaporeans.

A subset of the “City in a Garden” concept, My Waterway @ Punggol is a 12.25 hectares waterfront park located in the north-eastern part of Singapore. Designed with these thematic zones in mind – nature cove, recreation zone, heritage zone and green gallery, SJ Landscape Team undertook the challenge of transforming a piece of bare land into a 4.2km waterway that meanders through a new town, a Light Rail Transit (LRT) viaduct, two reservoirs and a beautiful waterfront living experience for the residents.

My Waterway @ Punggol (refer to Illustration B) was developed with an aim to bring people closer to water, amongst shared communal spaces, coupled with water-based recreational activities. The residential blocks were even built with an ABC water systems – where rainwater is collected and distributed to the parklands around the waterways.

Illustration B – My Waterway @ Punggol

On global playing field and a project undertaken by the team, Yixing Water Ecology in Jiangsu province of China aims to restore the ecology of the area, particularly in the water system, integrated with landscape design (refer to Illustration C). For years, water pollution in the area is a major deterrent for social and economic activities to be carried out. This ‘W-ECO3’ project aims to create a resilient space integrating the surrounding landscapes and water management based on Green & Blue infrastructure design, which emphasizes on sustainable and low-impact development. The team adopted the concept of “001” as guiding principles for the project:

  • Zero (0) contribution to water pollution – potential water pollutant discharge to any public water system will be stringently controlled and removed;
  • Zero (0) impact on flood control – ensure the flood-discharge capacity of all the key flood-discharge channels are not impacted upon in terms of protection and improvement;
  • One (1) clean water source – One Central Wetland with 2.5kmsq area in the masterplan was proposed to produce clean water after treatment. A world-class monitoring technology and Smart IT analysis system has been adopted to manage the cleaned outflow.

Illustration C – Yixing Water Ecology in Jiangsu province of China (Central Wetland with 2.5kmsq area to produce clean water after treatment)

Q: What do project owners look out for when they engage SJ to do landscape design?

We now know that at master planning and design stage, the landscape architect already plays a pivotal role, which often requires him/her to design key open space components such as community urban plaza, social activities spaces, play spaces and park connectors.

For project works which involve the sensitivity of natural habitats & resources, landscape architects are required to conduct deep research into local people, their culture and lifestyle. The outcome includes well-constructed wetlands, coastal environment, riverfront and green infrastructural projects. The design of such spaces contributes to local identity which brings upon economic, social, and environmental benefits to the local people.

With economic and social viability on the forefront, Ya Zhou Bay in Sanya, China – another recent global project win by SJ’s Landscape Architectural Team – aims to achieve solutioning to urbanism whilst protecting existing ecology (refer to Illustration D). A key criteria of the design concept is to mitigate the risk of ecological extinction caused by natural disasters, pollution and soil erosion.

The Waterfront Eco-Park, which consists of a Coastal Belt Park, Wetland and a Riverfront Park, will be home to a long stretch of windbreak forest with endless coastal entertainment, a wetland reserve preserving ecologically sensitive areas, and an attractive waterfront with large urban and leisure space.

Illustration D – Ya Zhou Bay in Sanya, China

In most, if not all, of our projects, developers are constantly seeking new, sustainable design ideas, and our belief is that no single design solution can be applied across all projects.

Q: What are your views on the future of Landscape Architecture?

It will be dynamic, yet ever-changing – due to the ever-evolving living environment. Climate change also has its effects on how we plan and design our landscape and environment. When the ozone layer is depleting each day, how should we grow our trees and vegetation to ensure we have a holistic cycle to human habitat.

The role of the landscape architect will become even greater, when we move away from the traditional way of planning and designing, and emphasize the importance of green movement and building a resilient environment.

The use of Artificial Intelligence (AI) to achieve landscape analytics, and AI metrics to evaluate spatial impacts of design is the new norm in Landscape Architecture. Amidst combining AI to create sustainable and resilient designs, Green Infrastructure can only be achieved when we start with understanding our natural ecosystem.

** End **

Connect with Us

Oliver Ng Boon Lee

Email: oliver.ngbl@surbanajurong.com

Temasek Shophouse: Balancing Heritage Conservation and Urban Renewal

An Interview with:

Ivy Koh

Senior Principal Architect

Surbana Jurong Pte Ltd

Breathing new life into one of Orchard Road’s most striking heritage building, Temasek Shophouse is home to the philanthropic arm of Temasek Holdings – Temasek Trust.

Redesigned and repurposed for modern use, Temasek Shophouse was launched in 2019 as a 25,000-sq-ft co-working hub for social enterprises and “Cradle for Social Impact”.  Awarded the prestigious Green Mark GoldPLUS Award, Surbana Jurong provided multidisciplinary consultancy services for this project, including architecture, mechanical and electrical engineering, civil and structural engineering, quantity surveying, site survey as well as sustainability and resiliency solutions.

Ivy Koh, the project’s lead architect, shares the team’s challenges in the design and construction stages, and how work had to be aligned to an additional set of conservation guideline.

Q: Describe the original condition of the building when you first started the project.

A: The building was unoccupied for seven years when we took over the site, and the condition was not at its best. However, the structural condition was not too bad except for some spalling concrete observed on the beam and walls. Most of the decorative features were still intact with some degree of deterioration, and fenestrations were falling apart.

We also noticed that the original design has been altered prior to the shophouse being granted conservation status in Year 2000. The previous occupant added a new mezzanine level and covered the rear yard which created a dark interior, with areas of low headroom. There used to be a central void in the shophouse (not original) and it was cluttered with escalators and lift shaft. The main entrance was boarded up with metal shutters (refer to illustration A).

Illustration A. (Before taking over the site): Interiors with low headroom / central void with a cluster of escalators / uninviting frontage.

Q: What were three major changes that had to be made to the building to adapt it to its new function?

A: Envisioned to be a “Cradle for Social Impact”, it is a space to create the presence of a philanthropic entity in downtown Orchard that serves as catalyst for social and community activism.

With that in mind, the ground level was intended to be an open multi-purpose public space, the mezzanine floor will serve as a ground for collaboration between co-working partners, and the upper levels will house Temasek philanthropic companies

The first change was to create a more inviting entrance for the public and a sense of arrival.  This was done by restoring the first storey to its original height. The five-foot way was restored to its original ceiling height (refer to Illustration B) and existing mezzanine floor slab is modified accordingly. As a result, the space became brighter and more spacious.

The second major change was reinstating the rear façade, which faces Stamford Canal. Because of its visibility from Handy Road, with relatively high footfall traffic, it is therefore an important face of the shophouse. The existing blank wall was demolished to create an open garden, with a new inviting entrance. Instead of having a fully enclosed garden, we added a gate as the new entrance (refer to Illustration C).

The third change was the reconfiguration of floor slab. The new configuration created a grand void for visual connectivity.

Lastly, we converted the unused and inaccessible mechanical roof to a new garden terrace and meeting space.

Illustration B. Five-foot way restored to original ceiling height.
Illustration C. The reinstated rear façade, with aesthetic appeal and a welcoming entrance.

Q: What were the three biggest challenges when it came to its restoration, and how did the team overcame them?

A: The biggest challenge would have to be “site constraint”. Being on Orchard Road, there is no direct vehicular ingress to site. Orchard road is a no-stop zone and there is a permanent bus lane at the door step of the shophouse. Goods movement in and out from site was also a logistical challenge.

The Land Transport Authority then (LTA) granted approval for partial road closure during certain hours at night.  Hence, all waste disposal was done only during those hours. The rest of activities such as proper logistics planning must then be managed and implemented carefully.

The adjacent buildings were at least 60 years old, and they required thorough and continuous monitoring during construction. Additionally, the lift sits within 2 metre of the MRT 1st reserve line.

There is not much information about the original building design to fully understand how the building works. Most of the records focus on the external spaces and was back-dated to the 1950s. In order to understand the shophouse’s original design, we engaged Julian Davison, a leading historian specialized in Singapore building history. He wrote an extensive report on the owners (And yes! The building was owned by more than one person), original architect, the building plans and the prevalent architectural style during the original building construction. This indeed helped us to understand the building better.

Q: Which parts of the original building were conserved and why?

A: The external architecture elements is the identity of the building. Apart from being a recognizable feature in Orchard Road, the ornamentation shows the building’s original intent. The front façade shows a blend of Neo-Classical and Art Deco style, indicating that the building might have been built in the 1920s (this is confirmed on records found by Julian Davison).

On top of the two façade, we conserved the original concrete spiral staircase. The steps and balusters were carefully restored, painted (to highlight the dynamic shape), and illuminated to create a grand elevation.

For the interiors, we restored the spatial quality by opening the false ceiling. The once covered set of fanlights now brings in more daylight and brighten up the interior space (refer to Illustration D).

Illustration D. Conserving the original concrete spiral staircase and restoring the original interior spatial quality.

Q: Describe your interior design concept for the project.

A: Given this unique site, the interior design of the Temasek Shophouse is largely influenced by the distinct Art Deco architectural style of the building. The team took this element which is reflective of its heritage and roots, and reimagined it through modern lens. The team aimed to bring across a design that is true to the building’s origin while still projecting a spirit of optimism for the space.

Upon entering the Shophouse, one is greeted with an open Atrium that links levels one, one mezzanine, through two. Being the heart of the Shophouse, this open Atrium (with a cafe on the ground floor) allows staff and users to feel linked with the community spirit and activities that happen in this voluminous event space. Anchoring the Atrium are key features of an art-deco inspired screen spanning 3 storeys, integrated with a lush green wall, which aims to bring nature closer to staff and users. A distinctively designed and large art-deco inspired light feature suspends above the Atrium.

Offices, meeting rooms and lounge spaces are designed for flexible usage.

Pockets of green are introduced throughout the Shophouse to provide encounters with nature on every level. A bright palette is selected to complement the space that lets in natural light. The design team also continues to maintain art deco design details, recognisable by streamlined aesthetics to smaller details such as signage design. Meaningful art pieces and a collection of furniture made from recycled waste materials are introduced in selected spaces to also reflect the Foundation’s values and beliefs.

Q: The building has been awarded the Green Mark GoldPLUS Award. What are some of the features that enabled this to happen?

A: Stringent selection of energy-saving M&E equipment enables the building to operate more sustainably. On top of that, we changed all the glazing to have suitable u-value and shading coefficient.

We have also deliberately designed the spaces for natural light to flow through, reducing the reliance on artificial lighting (refer to Illustration E).

The use of hybrid cooling system including conventional fans, coupled with air-conditioning system helps to reduce the total energy consumption for cooling.

Programmatically, we have designed spaces for a sustainable lifestyle as well. There are green inspired arts, recycling centre, as well as sensor-activated lighting for restrooms and staircases.

Illustration E. Work spaces with natural daylight reduce the need for artificial lighting. And the use of hybrid cooling systems, including conventional fans, help in the reduction of energy consumption.

Q: Finally, what are some of your advice that you would give to designers embarking on conservation projects? 

A: A thorough study and examination of the existing building design and history is important. It serves to guide the design intervention. One should be respectful of the original design intent and spirit of the architecture. However, conservation is not about restoring the building to its original design. The design should focus on enhancing the heritage value of the architecture and make the building spaces relevant to current times. With that, the longevity of the building could be extended.

Temasek Shophouse has been conferred the 2019 Award for Restoration at the URA Architectural Heritage Awards, that recognises exemplary restoration of gazetted heritage buildings.

 Special thanks to the following divisions which have provided multidisciplinary consultancy services for this project:

  • Architecture
  • Mechanical and Electrical Engineering
  • Civil and Structural Engineering
  • Quantity Surveying
  • Site Surveying
  • Sustainability and Resiliency Solutions

 

All photo credit: Temasek Shophouse. Hero image by Stillusion

This article was first published in Design and Architecture and is edited by SJ Academy for Perspectives, Surbana Jurong website.

Tying Ideas to Better Societal Outcomes: Why Female Leadership Matters in Sustainability

 

Architecture is about building the future today and has a role in fostering the next generation of women in the building and construction industry.

An Interview with:

Lisa Bate

Regional Managing Principal

North America at B+H Architects (Member of the Surbana Jurong Group)

Chair, World Green Building Council

Q: Lisa, your career path can be described as anything but linear. Tell us a little about what motivated you to pursue a career in architecture and a focus on sustainability?

A: If you asked me what I wanted to be when I grew up, ironically, it aligns to where I am today. I equally wanted to be either a psychiatrist or designer. A child of a musician/teacher and an obstetrician and gynecologist, I’ve worn many different hats over the years – including a couple of summers walking through the City of Markham in Southern Toronto, Canada, conducting health-checks on all the street trees! My career path has taken many turns over the years; for example, I started my family later in life while having my own architectural practice, before subsequently being acquired by B+H. I then relocated my husband and two youngest children (still in high school then) to Shanghai in 2012 to become B+H’s Managing Principal, China and EVP, Asia – where I supported strategic growth in Asia before relocating back to Toronto in 2016. However, it was this path that shaped my passion for environmentally, economically, and socially sustainable design, in addition to becoming a voice of change for gender parity within the industry.

Q: You were building your career in a time when there was not much female representation in the industry. While that has changed, what challenges do you see women facing in the industry today

A: Being a woman in architecture isn’t easy and while we’ve made great strides, there is still more to do. Many traditionally male-dominated industries in science, technology, engineering, and mathematics are implementing new policies and actively trying to attract women to those disciplines. Finding a sustainable work-life balance as a professional woman is a struggle that many face, regardless of industry. But the attitude towards women in architecture needs to shift to remove barriers to success, accommodate alternate work patterns, increase diversity in leadership and motivate the industry to design for a better future.

Results from the 2016 Women in Architecture Survey (source: The Architectural Review/Results of the 2016 Women in Architecture Survey) revealed that women felt they were underpaid in the field, with 40% of women worldwide believing they would be paid more if they were male. Other concerns were the lack of support within the industry for women to start families when on average, 92% of women worldwide said their workplace did not provide child-related benefits. We also see this in the lack of accommodation for childcare drop-off and pickup. Other data in the same year showed us that women felt highly under-represented.

As the 2017 results (Source: The Architectural Review/Results of the 2017 Women in Architecture survey revealed) rolled out, it looked like women found themselves faced with yet another set of challenges. This time, we found female architects losing their faith in the practice citing sexism, discrimination, and bullying as likely contributing factors. In 2017, a whopping 60% of respondents didn’t think the building industry fully accepts the authority of the female architect. Women in architecture need to find an equal seat at the table with men, and we need to continue breaking down the barriers to their success. The 2018 results (credit source: The Architectural Review/Gender pay gap 2019: Mixed results reveal architecture has ‘long way to go’) revealed that in most practices, at least 67% of the highest earners were men although women were more than twice more likely to work 10 hours/day at least once a week. In 2019, the survey looks to include an additional variable of race & origin as part of the data, anticipated to demonstrate further factors challenging women in the profession.

 

Q: How did these challenges impact your career trajectory?

A: I had my first childbirth at the age of 35. My first daughter, Julia, arrived almost one month earlier than the expected delivery date, and I had pre-arrangements to meet with clients from Holland three weeks before I was due. Subsequently, I found myself attending my meeting one week after my daughter was born. There I was, with a pager on my hip and my mother on standby in a coffee shop at the base of the building armed with bottled breast milk, with no idea if Julia would take it or if I’d be paged to come quick. I also remembered taking many conference calls while nursing a baby in a closed room with my phone on mute.

 

Like many other women in the industry, I didn’t felt like I could put my career on hold to grow and take care of my family. It was business-as-usual because I was well-aware of the detrimental effects of having a baby, while at the same time, juggling my career.

 

Q: Why do you think female representation is important in architecture and green design?

A: In June 2018, moving my seat at the table from the side to the head as the first ever female Chair of the World Green Building Council (WorldGBC), I am aware that our industry is facing unprecedented challenges on the green front. We see climate change in action with the rise of wildfires, droughts, and flash floods, which account for huge human and financial costs. Solving these complex problems require technical, creative, and diverse leadership skills. And yet, our sector is missing out on an abundance of female talent and leadership.

 

Our world is in dire need of community builders. This is precisely why I advocate gender equality in architecture and a shift in gender perceptions within the industry. We need focused attention on our homes, workplaces, schools, public spaces, care centres, neighbourhoods and communities to embrace the diversity of cultures, beliefs, preferences, education, and economics of a highly interconnected world. Connection stimulates pride, well-being, purpose, tolerance, and prosperity. Focusing on monetary output do not necessary breed prosperity, but focusing on our core values, vision, passion, and open-mindedness do.

 

But it is not just about mitigating climate deterioration. Architecture is about building the future today through sustainable and resilient designs that achieve wider societal goals. Green buildings preserve our precious natural resources and improve quality of life, providing healthier and happier places for people to live, work, play, heal, and learn. Building green grows jobs, the economy and thriving communities, while lowering energy costs and increasing property values. This is good for consumers and businesses.

 

I’ve seen these benefits first-hand in buildings like Mohawk College’s Joyce Centre for Partnership and Innovation  (Credit source: Canada Green Building Council/ The Joyce Centre for Partnership & Innovation at Mohawk)(refer to illustrations 1&2 below), a Net Zero Carbon (energy, waste and water) project which I co-steered at B+H Architects, alongside Joanne McCallum of McCallum Sather Architects – a long time friend, mentor and alumnae of the board of the Canada Green Building Council. Opening last fall, it is the second project – and first institutional building – to receive Canada’s Net Zero Carbon Design certification and is poised to achieve Net Zero Carbon certified operations, maybe even Net Positive Carbon Operations this month when it completes the required full one year occupancy period. WorldGBC’s Advancing Net Zero initiative aims to make this happen on a global scale – a future where every building produces zero carbon emissions by 2050.

Illustrations 1 (above) and 2 (below): Perspective of Mohawk College’s Joyce Centre for Partnership and Innovation, a Net-Zero Carbon Project which Lisa Bate co-steered with Joanne McCallum.

 

Q: What do you hope to accomplish as a green leader and what tips do you have for women in the industry?

A: We can get the ‘Whys’ but more importantly, we need to understand the ‘Hows’. I’m committed to fostering the next generation of women in the building and construction industry.

 

We have a role to play in showing what doing good looks like in our sector; showcasing individuals and companies making progress to inspire others and sharing a diverse evidence and knowledge base that result in stronger returns. Leaders can set an example, ensuring diversity and inclusiveness at the top. On a practical level, we will need to move quickly towards ensuring equal pay, meaningful part-time work and employment flexibility. We will need to commit to recruiting equitably, support and mentor aspiring women.

 

To aspiring women out there, I would say: Think boldly, push boundaries and make your voice heard. Do not be afraid to move outside of your comfort zone and to grab opportunities as I had to when progressing into a male-dominated management environment. Ask, or even demand, to be mentored and use your learning and emotional intelligence to plan your career and develop your skills. The challenges we face bring opportunities for society, for the environment, for our economy, and for women. The time is right to raise our ambition so that all talented women can find their seats at the table.

 

** End **

Connect with Us

Lisa Bate

Email: Lisa.Bate@bharchitects.com

BIM Me One More Time

In the beginning of 2019, the Robert Bird Group (RBG) embarked on an ambitious journey within our Engineering and Technology (E&T) Platform. The aim was to increase the uptake of engineering and technological initiatives and upskill our staff within the confines of our core business, which is engineering. Building Information Modelling (BIM) as part of E&T was nurtured, but it was mostly only known to industry leaders.

Within the BIM circle, I was recently referred to as the visualisation guy twice in a span of two days when trying to address specific BIM-related queries. In reality, I am one of the visualisation guys but at that particular moment, I was acting as a BIM technical support staff. In a way, that reference is a curious by-product of the current state of industry we are in – equipped with little or no understanding on the terminology of BIM. It also reminded me of a conversation I had several years ago when I was asked if I could ‘do’ BIM, or in other words if it was something doable? These questions on BIM prompted me to at least try and settle the burning question – what the heck is BIM anyway?

 CAD and Its Early Days

Computer Aided-Design or CAD has been around since the 1960s with the progression of manual drafting to the utilisation of CAD as a drafting tool. The benefits of CAD and the ability to perform engineering analyses, without a doubt, had the biggest impact on the architecture, engineering and the construction industry.

CAD was revolutionary. It gave designers a new dynamic of robust and fluid software to produce drawings and perform complex analyses on projects which became increasingly multi-faceted. It was also extremely easy to understand and define.

Then along came BIM, and with-it confusion. Is it CAD? Is it more than CAD? How can something be more than CAD, seeing that it is also computer-based and similarly producing engineering analyses with drafting capabilities?

BIM quickly became the buzz word and for the first 10 years it was known, hardly applied but always discussed within the industry. BIM became the cool uncle.

Needless to say, reality sets in. It was not the elixir which everyone expected. The transition from CAD to BIM became a concern financially, and the return of investment matrix did not seem to add up and skilled resources were few and far between. Naysayers sat on the fence, the believers soldiered on.

Gradually, the investment on BIM did pay off and everything made more sense. The excitement returned and for a while, it looked like BIM was finally working, albeit on a concentrated level. Meanwhile the understanding of BIM stagnated, but the project procurement wheel kept on spinning.

Something was still amiss. A glitch in the Matrix, maybe? The question of ‘Do we do BIM?’ was still bothering me.

It made me think about my reference as the visualisation guy, and realised that the lay person might not necessary understand BIM. I need to do better in explaining BIM, and to do so, it requires a re-evaluation of my understanding of BIM. I realised I was trapped in Hodor’s Bootstrap Paradox – the infinite cause-effect loop.

So, What Actually is BIM?

I have encountered various definitions from, “it is a concept of working collaboratively”, to “it is not a software but a process”.

One of the main misunderstandings is that BIM relates to buildings. The word “building” from BIM is a verb. It is an all-encompassing undertaking to build an information rich computer model which becomes the digital twin of the actual infrastructure. Putting this simply – CAD on steroids.

To achieve this requires a complex and intertwined concoction of processes, workflows, software, hardware and skills. It is not achieved by a single individual but rather as a collective endeavour.

Think about BIM as a collapsed star spewing information and data with CAD at its core. It utilises the four stages of development and is in constant and perpetual motion – Synchronicity – Process – Application – Mining. I know, it is spelled SPAM. This means BIM is SPAM…in a funny way.

Figure 1 – BIM Genesis Wheel (image by F.Kumthanom)

Synchronicity

BIM begins with the utilisation of computer aided-software to create one or multiple 3-dimensional computer model. This assortment of software requires interoperability capabilities to enable a collaborative and synchronised working environment. It also entails coordinated information flowing from one software vessel to another, and concurrently retaining its 3-dimensional geometry. With the 3-dimensional model(s) created, BIM requires a process to guide design consultants throughout the project stages.

Process

The processes usually include submissions of partially constructed 3-dimensional computer model(s), quality control and review, engineering and sustainability analyses, etc. These are one of the many processes required during the lifecycle of the project. The 3Ws tool (Who’s Doing What & Where) is used to identify these processes and provide a practical component of information management, project coordination and gap analysis assessment. It demonstrates how workflow is constructed, how data is stored and how the associated model elements are checked and used.  Subsequently BIM is then applied to harness this data information.

Application

Through the application of BIM, we understand the challenges prior to construction, and also predict the time required for a facility to complete. We can accurately estimate the cost and know how much material is required for a facility. Building contractors mine and utilise these data for a variety of reasons – ranging from fast-tracking of projects to pre-empting of construction issues.

Mining

Mining BIM data provides immediate information ranging from cost comparison, understanding of project programme, managing building code compliance, constructability, risk mitigation and much more. Nevertheless, the GIGO (Garbage-In-Garbage-Out) principle still applies to BIM and therein lies the fundamental principles of BIM which are attention, commitment and consistency. These three principles are crucial for the success of producing a BIM 3-dimensional model and with it an Information model.

In conclusion, this is also my call to arms for BIM. BIM is ever-changing and ever-evolving. As the Internet of Things encroaches this space, BIM itself will morph from being a CAD on Steroids to becoming an integral part of machine learning through Artificial Intelligence. It is the future and it is now.

Revisiting the question of do we ‘do’ BIM?

My answer to that is: “More than ever.”

** End**

Connect with Us

Ken Lee

Email: Ken.Lee@robertbird.com.au

 

Perspectives, developed by SJ Academy, is our platform to explore new ways of tackling some of today’s most complex challenges. We draw on ideas and opinions from our staff associates and experts across different businesses. Click here to read more about the Workplace of the Future, Singapore’s Logistics, and Aviation Planning in Singapore.

City-Industry Integrated Planning and Development in Singapore

By:
Economic and Industrial Planning Team

Dr Zhang Qingyu
Director

Shao Yong
Senior Executive Planner

Background

City-industry integration is a central tenet of sustainable growth. By integrating diverse land uses, the elements of “industry” and “city” are to be well-balanced within a regional cluster. “Industry” refers to activities involving goods and services producing industries, while “city” refers to residences, commercial facilities and places of leisure, woven seamlessly with nature and waterbodies. On one hand, industrial estates drive employment and attract talents; on the other, towns support and improve the business and living environment of the cluster by providing comprehensive facilities and amenities that meet daily needs of residents.

Singapore has undergone more than 50 years of industrial and urban development, and has achieved considerable success via the adoption of city-industry integration in its planning. The impact of city-industry integrated development model on Singapore’s transformation is exhibited at different scales – Singapore at National Level, West Region and One-North.

City-Industry Integration – Singapore at National Level

Singapore has a clear mission – “to make Singapore a great city to live, work and play in”. This mission was evidently manifested in Singapore’s 1991 concept plan, where the concept of “self-contained cities (regions)-within-a-city” is observed (Figure 1a). Each of the five regions in Singapore was planned to encompass all 3 elements of “live”, “work” and “play”. Employment opportunities from goods and services producing industries was to match job demand from residents of each region, ultimately arriving at a job supply: job demand ratio of approximately 1:1 when the region matures. Meanwhile, an urban transportation system consisting of an integrated road and rail network, has been responsible for the inter and intra connectivity between regions. Figure 1b depicts the latest master plan, which is the result of revisions to previous plans (including Figure 1a) and the translation of broad long-term strategies.

During the initial development stage, goods producing industries constituted the main form of economic activity. With an increase in scale and economic impact, demand for consumer and product services rose to support the entire manufacturing value chain and created a supportive business ecosystem. This facilitated the integration of city functions into industrial-led areas, gradually transforming monotonous industrial estates into vibrant industrial towns with places for leisure activities. Since the 1960s, industrial development, as evidenced by a growth in GDP and GDP per capita, is accompanied by a growth in total constructed land area and total population. As GDP per capita increased from an estimated USD428 in 1960 to USD46,570 in 2010, urban constructed land increased 2.6 times from approximately 162 sqkm to 421 sqkm (of which, industrial area accounts for approximately 76 sqkm and residential area, approximately 91 sqkm). Meanwhile, total population in Singapore grew from 1.65 million in 1960 to 5.08 million in 2010. As detailed in Table 1, each region has varying economic focuses.

Figure 1 – Planning and Development of Singapore

(a) Concept Plan 1991                                                  (b) Master Plan 2014

Planning and Development of Singapore

Table 1 – Increase in Constructed Land Area and Economic Focuses of 5 Regions 

Increase in Constructed Land Area and Economic Focuses of 5 Regions

Note: Figures on constructed land area (including roads) are estimates based on satellite images.

 

City-Industry Integration – West Region

Spearheading Singapore’s industrial development, the West Region was once a greenfield site that was planned with a port-industry-city integrated development model. Its well-defined land uses allow goods producing industries to enjoy economies of scale while leveraging on a nearby port for cost reduction. Meanwhile, the industries are also being supported by comprehensive residential and commercial facilities, such as shopping malls, banks, universities and hospitals (Figure 2a and 2b). This integrated development advances economic, social and environmental priorities, and has even created a harmonious and conducive wildlife environment. The Jurong Bird Park hosts 400 species, and is Asia’s largest bird paradise; while the western water catchment comprises several reservoirs that harvest urban stormwater for potable consumption. Constructed land in the West region in 1985 was estimated to be 61 sqkm, which increased to 92 sqkm in a decade, and 141 sqkm in 2016 (Figure 2c). The region has proven to be attractive and successful with resident population of approximately 912,000 in 2017, on track to achieving its planned population of 1.13 million.

Figure 2 – Planning and Development of Singapore’s West Region

(a) Port-Industry-City Integrated Development Model                (b) Master Plan 2014 of West Region

Planning and Development of Singapore’s West Region

(c) Development of West Region Over the Years

 Note: Figures on constructed land area (including roads) are estimates based on satellite images.

 

City-Industry Integration – One-North Development

In line with the 21st century economic focus on knowledge and innovation-intensive industries, the One-North development was conceptualised as a vibrant business park with an integrated work-live-play-learn environment. A microcosm of a self-sustainable city, the master plan of the 200-hectare area integrates industry-centric research, development facilities and business park spaces, alongside lifestyle options and educational institutions, both horizontally and vertically spatially (Figure 3). Residences are provided to meet the needs of employees’ accommodation to the best extent possible. Under the master plan, One-North is to focus on biomedical sciences, infocommunications and media, as well as financial and business services.

With its launch in 2001, One-North has since transformed into a technological and innovation hub that accommodates more than 400 companies with an estimated 46,000 workers (figures is taken as of 2017). Fusionopolis Phase I, designed for the growth of information and communications technologies (ICT), physical sciences and engineering industries, is now an exemplary vertical city. This high-density integrated development has direct access to an MRT station and comprises offices, retail shops, serviced apartments, a health club, and a digital arts theatre. Apart from typical housing options found in One-North and its surrounding areas, the provision of serviced apartments within the building offers high-calibre talents the option for short stays and an array of professional support services.

Figure 3 – Planning and Development of One-North

Planning and Development of One-North

 

Key Considerations for City-Industry Integrated Development Model in Singapore

Singapore’s journey towards integrating land uses may be summarised into the following key considerations:

Sustainable Industrial Upgrading – Basis of City-Industry Integration

Integrated land use planning is industry-led and industrial upgrading forms its basis and fundamental. Cities grow and increase in population only when industries undergo transformation and upgrading. As industries upgrade, the method of integrating industrial and city functions would need to vary to match the different spatial requirements of different industries. For instance, capital-intensive industries such as the manufacture of machinery and equipment, and petrochemical industries require a larger, continuous tract of land, whereby land parcels are not interspersed with various uses. Meanwhile, knowledge and innovation-intensive industries require space flexibility and more common spaces to facilitate knowledge sharing between professionals.

Matching Employment Opportunities and Job Demand at Different Spatial Scales

To create self-contained regions, an area needs to create employment-generating spaces that offer job opportunities closer to homes. At the regional scale, it is vital to minimally match internal job demand with sufficient job opportunities. This localises daily needs and disperses traffic by reducing the need for people to travel long distances on a regular basis. Set to be the largest commercial and regional centre outside the city centre, the 360 hectares Jurong Lake District in the West Region has transformation plans to create it into a future-ready second CBD. It will not only develop an estimated 20,000 new homes but will also offer more than 100,000 new jobs to residents in the area. For an area of a smaller scale, employment opportunities might not be sufficient to meet job demand but this is to be achieved in its best possible manner.

Attract and Retain Talents by Offering Attractive Facilities and Amenities

City-industry integration is not merely a practical solution to resolving issues such as land scarcity or traffic congestion. It is also about bringing people together, improving their lifestyle and enhancing their everyday experiences. To attract and retain talents necessary to promote sustainable city development, quality and comprehensive public service facilities and commercial services must be provided. From CBD to regional centres, towns, neighbourhoods and precincts, urban functions in Singapore are hierarchically provided to fulfil residents’ living and leisure needs of different age groups. Producer and consumer services are conveniently made accessible to residents within the area, offering great living convenience and sustaining communities for enterprises in the area.

Figure 4 – Comprehensive Facilities and Amenities are Hierarchically Provided at Different Levels

Comprehensive Facilities and Amenities are Hierarchically Provided at Different Levels

Conclusion

Regardless of the economic focus of an area, planning and development in Singapore place great emphasis on integrating its industrial and urban city functions. According to various industry types, different ways of city-industry integration models are adopted to meet varying requirements. The need to balance job supply and demand is also vital in creating a quality and conducive living environment, along with the provision of comprehensive facilities and amenities. As a city lab that constantly reviews its development strategies to fulfill the changing needs of residents, the city-industry integrated development model constantly remains at the core of Singapore’s planning by efficiently utilising available land and reducing the impact of development on the environment, hence strengthening resilience and sustainability of the city.

** End **

 

Connect with Us

Dr Zhang Qingyu
Email: qingyu.zhang@surbanajurong.com

Shao Yong
Email: shaoyong@surbanajurong.com

References

  • Centre for Liveable Cities. (2016). Insights from the Development Experience of China and Singapore. In CLC, Challenges and Reforms in Urban Governance.Singapore: CLC.
  • Centre for Liveable Cities. (2018). Urban System Studies (1st Edition). In C. Chow, J. Chia, & M. Zhan, Integrating Land Use & Mobility: Supporting Sustainable Growth. Singapore: CLC.

Perspectives, developed by SJ Academy, is our platform to explore new ways of tackling some of today’s most complex challenges. We draw on ideas and opinions from our staff associates and experts across different businesses. Click here to read more about the Workplace of the Future, Singapore’s Logistics, and Aviation Planning in Singapore.

New Challenges of Urban Development

Urbanisation has proven to be the engine of innovation that helped lift millions of people out of poverty. The more successful global cities of the world include New York, London, Tokyo, Hong Kong, Paris and Singapore.

How did these cities become and remain successful?

The Virtuous Cycle of Urban Development

Each of these highly successful cities enjoys what may be termed “the virtuous cycle of urban development” comprising talent, jobs and pleasure. A successful city is able to attract talents with good jobs and good living environment. When talents enjoy good income, they will seek contentment from external entertainment sources like cafes and art galleries. This, in turn, attracts good companies which are prepared to invest in business ventures, resulting in further job creation.

That said, some fundamental factors such as crime, connectivity, availability and cost of housing, and public health, may make or break this virtuous cycle of urban development.

In addition, recent emerging trends seem to also have an influence on the possibilities or challenges to the disruption of this cycle, namely:

(i) evolving new technologies;

(ii) increasing social divides in our cities; and

(iii) the need for balanced approach towards development.

New Technologies

Technology changes everything. In the first instance, technological advancements in Artificial Intelligence, big data, robotics, bio-engineering and other fields, will disrupt and destroy many industries and give rise to many new ones. It will make some jobs obsolete and create new ones. Whether a city is able to develop or re-invent itself in the face of these disruptions and create opportunities for talent, this becomes key to the city’s vibrancy.

One example of a successful city is New York. In 1970s, the city became unattractive because of its declining traditional industries and increasing crime rates. Fortunately, New York was able to re-invent and establish itself as the financial capital of the world. In contrast, another city, Detroit, was unable to recover from the automobile industry regression, resulting in a population drop to one-third of it in 1950.

Technology will change the way cities are planned, designed, constructed and managed. For instance, architectural designs can be experienced in a life-like environment before actual construction through virtual and augmented reality. Digital twins of urban buildings can be mapped using Building Information Management Systems (BIM) and facilitate seamless transition from design to construction to maintenance. Surveys, site inspections and maintenance can be done using drones, and the list goes on. In order to stay ahead, companies offering services and products in the built environment will need to leverage on these new technologies to remain relevant.

Social Divides

A second challenge for urban development is the tension brought about by deepening social divides in cities.

a. Income Divide

The most successful cities are also cities where top talents earn top dollars. As more of these talents gather in the cities, they also cause prices to rise, especially in housing. If this is not addressed, there is a danger of gentrification – where the less well-off are pushed out of the city, or economic segregation where the rich is located in some parts of the city, and the middle income and poor are pushed to the less attractive areas, creating further inequality in opportunities.

b. Divide Between Long-time Residents and Newly Arrived Migrants

Often, there is a perception that these newly arrived migrants take away jobs and overload the city infrastructure such as housing or public transport. The issue can be further compounded by prejudices if these migrants are of different races and religion from the existing residents. Till date, immigration issues are still politically sensitive topics in many countries and cities.

c. Divide Between Long-time Residents and Newly Arrived Migrants
With lower birth rates and longer lifespans, the world will see a surge in population from 7 billion today to approximately 11 billion by 2100. Seniors above 60 years old will make up about 28% of total population, double of what it is today. Urban development will have to cater to the needs of the increasingly ageing population in many cities.

These are obvious complex issues that must be attended to, and through numerous government policies.  However, thoughtful urban designs can help alleviate some of these problems. For instance, in planning the housing estates, it is a deliberate policy to have some low-cost public housing next to high-end residential areas, so that the rich and the poor stay in proximity, thereby not allowing any concentration of the poor or slums to be formed.

In Singapore, the public housing agency also has an ethnic integration programme, where each public housing block has a specific quota set aside for the minority races based on their proportion in the population. This ensures that the different races live together and learn about one another’s culture and habits, and build greater understanding among the different races. There are also public housing incentives for three-generations to stay next to one another. And in the residential estates, the common areas are equipped with playground facilities for the young, and exercise facilities for the elderly – to encourage different generations to spend time together in the public areas.

A Balanced Approach

Finally, the third challenge is about the increasing need to have a balanced approach in urban development as a society matures. People recognise that massive large scale and rapid development may not always be the best way to develop a city. We need to balance economic considerations against the desire to preserve our heritage and to protect our environment.
For heritage preservation, it requires urban planners to be creative and thoughtful in their designs, in selecting what is to be preserved, how old buildings are to be renovated and what new developments can be blended with the older areas to create a new vibrant landscape. For environment sustainability, it requires clever urban designs, leverage on new technologies and changing our habits. This does not mean that heritage must be preserved, and environment must be protected at all costs. Urban development needs to continue, but a careful balance should be struck.

Conclusion

People will continue to migrate from the rural areas to cities and from small cities to global cities – in search of better opportunities. While the fundamentals of urban development, namely, health, safety, connectivity and housing, remain relevant, we need to embrace new technologies, address increasing social divides and take a more balanced approach in our urban planning and development. If we do it well, we would be able to build better cities and shape better lives for all.

This article is co-created by Surbana Jurong Academy.

Perspectives, developed by SJ Academy, is our platform to explore new ways of tackling some of today’s most complex challenges. We draw on ideas and opinions from our staff associates and experts across different businesses. Click here to read more about the Workplace of the Future, Causes of Climate Change, and Water Management.

Flooding: How Can Cities Be Prepared for an Increasingly Unpredictable Future?

2018 was a year of unprecedented global weather events. In Asia, Super Typhoon Mangkhut brought close to $50 billion in damages to Hong Kong and China, on top of $16 to $20 billion it exacted from the Philippines (Yap et al., 2018), while extreme precipitation-induced flooding in Kerala state killed at least 350 people and displaced over 800,000 (Kotecki, P., 2018). Meanwhile, 2019 started off with a historic deep freeze in the United States, brought about by unusual polar vortex formation (Channel News Asia, 2019).

Causes of climate change has long been associated with extreme events and is the biggest threat to the planet as reported by the World Economic Forum. Unless drastic changes are made to prevent global temperatures from rising more than 1.5 degrees Celsius, it is likely that we will continue to witness such events with increased magnitude and frequency. These events will continue to interact with complex systems, eventually set off their own ripple effects in a cascading manner akin to toppling dominoes (U.S. Global Change Research Program, 2018).

Introducing Resiliency in Global Warming

In the face of global climate change and diminishing natural resources, designing today’s cities and buildings require environmental, economic, and social considerations. The Rio Earth Summit in 1992 saw Sustainability at the forefront of many global policies aiming to minimize impacts on the environment. While Sustainability focuses on how we can slow down effects of global warming to the Earth, there is also a pressing need to look into the aftermath of warming – that has long been associated with extreme weather events. This is where we enter a new field known as “Resiliency”.

Importance of Resiliency Planning

For the past 20 years, climate-related calamities accounted for 91% of all disasters, with floods topping the list at 43%. Direct economic losses within this period due to climate-related and flooding specific disasters brought about US$2,245 billion and US$656 billion worth of damage respectively (Crunch, C., 2018).  In terms of property value, a study by First Street Foundation (2019) has found that property values on the East and Gulf coasts of United States have reduced by $16 billion due to flooding threats, signalling that the market is already reacting to such disasters. Recent research in the field of attribution studies has further demonstrated that the frequency, intensity, and duration of natural disasters will continue to increase due to climate change (Achakulwisut, P., 2019).

And how do all these impact our lives and homes? How will our cities deal with such uncertainties of the future? Are we doing enough to overcome the challenges that lie ahead while mitigating risks? – The field of “Resiliency” attempts to shed light on planning ahead for such possible uncertainties of the future. From a broader perspective, resiliency is defined by the capacity of individuals, communities, institutions, businesses, and systems within a city to survive, adapt, and grow regardless of the kinds of chronic stresses and acute shocks they experience (100 Resilient Cities, 2019). From a flooding perspective, it is about how cities can plan for a flood-resilient future.

In light of recent severe events, and the risk of them occurring again, it is appropriate to consider how to assess flood risks in order to reduce the likelihood of flooding, and robust planning for a flood-resilient future. Such an approach usually considers the 4-R model developed by the Multidisciplinary Center for Earthquake Engineering Research (MCEER) at the University of Buffalo in the United States, which describes resilient systems as one that encompasses the following properties:

  1. Robustness (ability to withstand shocks, such as housing and bridges built to withstand flood waters)
  2. Redundancy (functional diversity, such as multiple evacuation routes)
  3. Resourcefulness (ability to mobilize when threatened, such as functional community groups who can quickly turn a community centre into a flood shelter), and
  4. Rapidity (ability to contain losses and recover in a timely manner, such as access to quick finance for recovery)

Digitisation Enables Us to Predict Flood Risks Unlike Before

The World Economic Forum 2019 in Davos with Industrialization 4.0 taking centre stage focused on digitisation, which enabled the interaction of multiple layers of data to generate insights and predictions unlike before. Such approach towards flood resiliency will transcend current approaches, which are currently conducted in a siloed, non-repeatable, and non-integrated fashion, as well as address currently missing key considerations, from specific geographies to the timing of storms that introduces complex compound flooding (Begos, K., 2019).

Our approach leverages on a common Geographic Information System (GIS) platform that brings together a multitude of data accurately geo-referenced to a single point, providing the basis that makes interaction possible. Among the comprehensive list of data required (refer to Illustration A) for such an analysis are the topographical survey, building models, local rainfall, waterbody distribution, drainage network, and imperviousness data, that are most crucial for an accurate assessment.

Learning from Nature to Effectively Mitigate Flood Risks

While embarking on digitisation endeavours and relooking at traditional approaches, we should not neglect processes that have worked brilliantly for billions of years – that is nature. By safeguarding natural buffers, we can leverage them to enhance protective functions and confer disaster resilience. This is in line with the United Nations Disaster Resilience Scorecard for Cities (2017), as well as the Sendai Framework for resilient cities.

Since the last century, urban planning was focused on adopting a “pave, pipe and pump” methodology of stormwater management (Knight, S., 2017), discharging them into sewers as soon as they make landfall. Recent unprecedented flooding events across the globe with effects intensified by both climate change and urbanisation have demonstrated that such an approach is no longer relevant. A softer approach should be taken, as opposed to solely upsizing and re-laying concrete pipes and sewers for every new flooding hotspot that occur (refer to Illustration B).

Termed as low impact development (LID), these flood mitigation measures mimic natural processes using solutions such as vegetated swales, rain gardens, wetlands, etc to absorb, infiltrate, diffuse and convey stormwater runoff. Apart from reducing the peak flow rate of runoffs, they also improve water quality and enhance overall biodiversity and aesthetics of its site. Such projects have been gaining traction across major cities in United States, China, Australia, and Singapore, seamlessly integrating LID with architectural and landscaping elements to create biophilic “Sponge City” environments (refer to Illustration C).

The Next Frontier in Flood Resiliency Analysis

Given the high natural variability and underlying dynamics of climate, it is extremely challenging to model and predict flood risks. As such, before we can even consider flood mitigating solutions, it is imperative to consider how to precisely target existing and future flooding hotspots, evaluate the effectiveness of deploying a single or multiple arrays of solutions and quantify the before and after flooding risks to arrive at a practical solution. On top of quantifying flooding risks and evaluating suitable mitigating strategies, digitisation enables us to visualise flood water propagation throughout every stage to facilitate informed decision making.

Our flood risk analysis is applicable for projects ranging from small-scale plot level developments to mid-scale district zones, and large scale urban planning projects – providing tailor-made flood resilient solutions for every client. A combination of resultant flooding hotspots, water depth indication, and animation of flood water propagation interacting with topography and physical obstructions provide for multiple angles of analysis.

When capacities of storm sewers, drains, and rivers are exceeded during a precipitation event, stormwater runoff will start propagating to low lying areas that can be visualised in a flood propagation animation that varies with time. Together with a flood risk map, this enables planners to precisely determine which zones are at risk, evaluate a combination of suitable mitigating solutions or re-locate critical zones to less flood-prone areas, effectively taking the guesswork out of their design. A demonstration can be seen in the figures below, showcasing “before” and “after” flooding risks. Such optimization can potentially save the many lives that have been lost in recent extreme precipitation events by putting effective measures in place beforehand. After all, investing in pre-event resilience building is more cost-effective than simply cleaning up after a disaster.

Illustration C: The City’s Flood Risks from a 1 in 50 Years Precipitation Event, Before and After Incorporating Mitigating Solutions such as LID and enlarged drainage pipe sizes. Multi-Coloured Spots Outlined in White (with the legend on the right) Demarcates Depth of Water Ponding. (Regions circled in RED indicates potential flooding hotspots on land. Regions circled in WHITE indicates the problem of flooding has been reduced/resolved.)

Flood propagation animation for an existing flood-prone district in Vietnam, showing how flood waters from an extreme precipitation event interact with site topography and buildings to propagate throughout the site. Red-coloured outlines demarcate the site boundary, while brown-coloured blocks represent buildings.

Our Smart Approach Towards Flooding

During actual deployment, real or near real-time sensors can be considered in conjunction with weather cameras to provide data to monitor flooding situations. Such data is first input to a sensor fusion platform which is then fed into our model, after which the output is visualized in the city or estate operations control centre for the controller to activate or even automatically trigger certain emergency processes such as evacuation, road closure or traffic diversion. Nearby safe shelters or medical facilities locations and information can be communicated to the public via mobile applications or roadside display panels.

Furthermore, the flooding analysis model can also be integrated into a digital twin of the physical environment to allow other systems to be built on it, interacted and tested to a certain confidence level before rolling out to the actual environment. This helps to continuously train and update the model with real-time information to make it more intelligent and robust for detection and triggering of future events. The flood analysis model can help to fine tune the placement of sensors through testing in the digital twin environment to increase the availability or accuracy of data or even better communicate to the public in the event of an emergency. Through this exercise, it helps the city or development agencies better plan and manages an emergency event from the input of data, triggering of actions and communication to the public. Ultimately, calibrated digital twin enables for far more effective real-time operational decision making and control, that also facilitates risk prediction and defining the best course of action to prevent communities from being taken by surprise (Begos, K., 2019).

Conclusion

Moving forward to a future with an increasingly uncertain climate, there needs to be a paradigm shift in the way cities are planned and designed, using such flooding analysis to provide certainty for our future cities to become flood resilient, and smart tools to provide real-time information to facilitate decision making. In doing so, we are not only building cities but also shaping the lives of those people who live in them.

REFERENCES:

100 Resilient Cities (2019). Defining Urban Resilience. Retrieved from: https://www.100resilientcities.org/

Achakulwisut, P., (2019). Climate Change is a Public health Emergency. Scientific American. Retrieved from: https://www-nature-com.proxygw.wrlc.org/articles/s41558-018-0315-6

Begos, K., (2019) Local Flood Forecasting Has Been Dangerously Imprecise – That’s About to Change. Scientific America. Retrieved from: https://www.scientificamerican.com/article/local-flood-forecasting-has-been-dangerously-imprecise-mdash-thats-about-to-change1/

Channel News Asia (2019). More than 20 dead in US polar vortex, frostbite amputations feared.

Retrieved from: https://www.channelnewsasia.com/news/world/more-than-20-dead-in-us-polar-vortex-frostbite-amputations-11194248

Crunch, C., (2018). Economic Losses, Poverty & Disasters 1998 – 2017. US Agency for International Development

Disaster Resilience Scorecard for Cities (2017). United Nations Office for Disaster Risk Reduction.

First Street Foundation (2019). Rising Seas Soaked Home Owners for $16 Billion Over 12 Years. Scientific American. Retrieved from: https://www.scientificamerican.com/article/rising-seas-soaked-home-owners-for-16-billion-over-12-years/

Knight, S., (2017) What would an entirely flood-proof city look like? Retrieved from: https://www.theguardian.com/cities/2017/sep/25/what-flood-proof-city-china-dhaka-houston

Kotecki, P., (2018). Natural disasters set records around the world in 2018. These were some of the worst. Business Insider.

Retrieved from: https://www.businessinsider.sg/worst-natural-disasters-records-world-in-2018-2018-11/?r=US&IR=T

List of Data Required for Our Flood Analysis Includes:

Aquifers, building models, climate, discharge locations, drainage network, flow diversions, imperviousness data, land use, LID design parameters, local rainfall, manhole design, orifices, outfall locations, pumps, river flow centrelines, storm water storage tanks, subcatchments, topographical survey, waterbody distribution, and weirs.

U.S. Global Change Research Program (2018). Fourth National Climate Assessment. Retrieved from: https://nca2018.globalchange.gov/

Yap et al., (2018). Hong Kong On Lockdown as Typhoon Mangkhut Arrives. Bloomberg.

Retrieved from: https://www.bloomberg.com/news/articles/2018-09-14/super-typhoon-mangkhut-slams-philippines-with-category-5-power

Special thanks to Eugene Seah (Acting Head, Sustainability & Resiliency Office) who has sponsored the article, and to the following for their contributions:

Adam Kua ZhengJie
Engineer
Sustainability and Resiliency Office

Yi Huilin
Engineer
Sustainability and Resiliency Office

Martin Lim Huat
Principle Project Manager
Sustainability and Resiliency Office

Perspectives, developed by SJ Academy, is our platform to explore new ways of tackling some of today’s most complex challenges. We draw on ideas and opinions from our staff associates and experts across different businesses. Click here to read more about the Workplace of the Future, Urban Development, and Water Management.

Designing and Operating Airports: A Complex System of Systems

Keynote speech by Liew Mun Leong
Chairman, Changi Airport Group and Surbana Jurong Group
At The Complex Systems Design and Management Asia 2018
6th Dec 2018 at NUS University Town

While some air travellers may still appreciate the sophistication of aerospace technology while flying, few can visualise that an airport is just as, if not more complex, in its system design. An airport is indeed, in my opinion, one of the most complex public infrastructures to build and operate. It has to cater for basic functional efficiency and safety in the handling of aircraft, passengers and baggage; and of late, meet passenger demand for shopping, dining and entertainment so that they can pass time comfortably while waiting for aircraft boarding. It is a difficult piece of what we would call “mixed developments” (i.e. residential homes, hotels, service apartments, offices, shopping malls integrated in a development) in real estate jargon.

The Aviation Industry Landscape

The global aviation industry is now booming. International Air Transport Association (IATA) has forecasted that global air travel will increase from 4.3 billion annually in 2017 to a whopping 8.2 billion over the next two decades. The exponential growth in air travel – both for business and leisure – can be attributed to the swelling middle-income group with growing wealth in countries like China, India and ASEAN, globalisation and its demand for connectivity, entry of affordable low-cost carriers, and improved aviation technologies which have enabled ultra-long-range air routes and more fuel efficient aircraft that has lowered the costs of flying.

Global Shortage of Airports 

With the rapid increase in air transport demand, the industry will obviously need more planes, pilots, crew and other parts of the aviation supply chain, but fundamentally it will need more airports. This basic transport infrastructure is understandably missing in infrastructure planners’ minds, especially in developing countries as they focus more on urgent domestic needs such as roads, bridges, rails and housings, etc. There is now a shortage of airport infrastructure worldwide to meet the global aviation growth. IATA estimates that out of the 55 mega aviation cities, 47 – mainly in Asia – are constrained by runway and terminal capacity limits. For the top 100 airports in Asia, 52% need more terminal capacity and 69% will be short of runway capacity by 2030.

Asia’s shortage of airports is more critical in view of it being the region with the fastest economic growth. While US with a population of 326 million has 919 airports, China, with 1.3 billion people, is only served by 229 airports or 25% of that of the US. It is reported that China is rushing to build 10 airports every year now. Similarly, ASEAN, with a population of 639 million people only has 370 airports, or twice the population of US but with only a third of its airports. It is clear that Asia has to build and operate more airports to be more efficiently connected to the world to keep up with its fast economic growth

Airports as Complex System of Systems

Because an airport is a very demanding public infrastructure, it usually takes a long time – typically six to ten years — to plan, design and to get it commissioned for operations. The complexity of a modern airport includes meeting “predictable demands” such as efficiency in handling passengers and baggage, ensuring safety and security, serving F&B and shopping needs, and providing comfort and entertainment for waiting passengers passing time in the airport.

The system also has to deal with unpredictable demands such as managing entropy (i.e. lack of order or predictability) within the system (e.g. delays from upstream airports), as well as handling major disruptions arising from the external environment (e.g. volcanic ash in Iceland and Bali). An airport is hence a complex system of systems. It has complex interdependencies between aspects of airport operations, e.g. ground transport, air traffic control, terminal and airside operations, and cargo operations. One failure will automatically trigger adverse consequence in others.

Within each system, there are also multiple components that operate in an independent and yet interdependent manner. For example, efficient passenger processing within a terminal requires check-in, immigration, security, flight information and baggage handling systems to work in an integrated manner. Above all, an airport will require multiple stakeholders to work hand in hand together as an integrated system. These include government agencies such as the immigration authorities and customs, operational entities such as airlines, ground handling companies and security providers, as well as commercial players running retail concessions.

Let’s use Changi Airport as an example to explore system complexity in designing and operating airports. I will discuss a few common airport features to illustrate their complexities.

Complexity in Airport Planning and Development

There are four key considerations when planning for terminal capacity. They are: terminal handling capacity, minimum connecting time, technology in process designs, and last but not least, retail and entertainment for passengers to pass time while waiting in the terminal.

Terminal Handling Capacity

Passenger terminals serve as a node for the dynamic processing of passengers, baggage, aircraft, vehicles, visitors and staff going through the various touch points and inter-dependent sub-systems. A bottleneck at any touch point will affect the entire system throughout due to a domino effect.

For instance, a bottleneck at departure immigration due to insufficient number of counters will result in passengers not being able to board their planes on time and delay aircraft departures.  Consequently, aircraft are held up at the boarding gates for longer than the scheduled time. This results in reduction of gates/parking stands for inbound aircraft which creates delays in arrival flow. Aircraft will have to circulate in the air for longer periods or park at remote gates which require busing of passengers to the terminal. Baggage claims will be delayed as arrival flights are now bunched together resulting in insufficient belt capacity.

Planning for Peak Hour Demand

Although airport capacity is generally measured in terms of millions of passengers per annum (mppa), what is more critical for operational efficacy is to evaluate the number of passengers that an airport can process at peak hours demand. This varies according to different peak hours for different airlines that are flying to different geographical locations. For peak hour capacity planning, IATA has recommended a guideline known as the “Level of Service of Framework (LOS)”. For example, in check-in halls, IATA’s optimum LOS is 2.0 to 2.3 square metres per passenger. In Changi Airport, we planned for 4.0 square metres per passenger in parts of the check-in hall with high trolley circulation, which provides for greater system resilience to handle entropy and exogenous shocks or disruptions

Minimum Connecting Time (MCT)

MCT is defined as the minimum time required for a passenger to connect between an arrival flight and a departure flight. Achieving a short MCT is crucial for a hub airport as shorter connecting times makes the airport more attractive for transfer passengers and airlines. In Changi, MCT within and between Terminals 1,2 and 3 is set at 60 minutes with transfers to and from T4 requiring an MCT of 90 minutes. MCT is affected by two key operational flows that work in tandem: passenger movement and baggage conveyance. Passenger movement times are affected by four factors, namely, efficiency of air traffic control for on-time arrivals, ease of wayfinding, speed of people mover systems (connecting walkways or Skytrains) and finally, efficiency of security checks.

Baggage Handling System

Baggage handling is probably one of the most common airport facilities which can positively or negatively affect passengers’ experience. Airports must get it right. Baggage conveyance is affected by three factors: efficiency of air traffic control for on-time arrivals, efficiency of ground handlers in off-loading and transport of baggage, and finally but crucially, the Baggage Handling System (BHS) performance. The BHS is itself a highly complex engineering sub-system. For transfer passengers, it comprises baggage induction at the integrated transfer lines, hold baggage security screening, as well as conveyance to the early baggage storage system for bags whose next departure times are more than 3 hours away. The BHS engineering design must be efficient, reliable and precise.

Technology in Process Designs

Technology is a key factor in delivering the required capacity for airports with increasingly complex operational requirements. This is particularly important as we face severe manpower constraints for ground handling agents and government agencies like the Immigration and Checkpoints Authority (ICA) to handle the fast growth in passenger traffic.

Changi Airport has invested extensively in passenger processing technologies, the latest example being the Fast and Seamless Travel (FAST) programme in T4. This is the world’s first integrated end-to-end biometric self-service flow for passengers across four passengers processing touch points: self-service check-in kiosks, self-service baggage drop, automated immigration gates and automated boarding gates. All four automated touch points are unmanned and use facial recognition technology. FAST has significantly improved the performance of T4 in processing departing passengers. Check-in throughput has increased by 30%, leading to less waiting, queuing and clearance times. Manpower productivity has improved, with airlines and ground handling agents saving 20% manpower. Advanced facial recognition technology has enhanced reliability of security checks as risks of human error are reduced.

Retail and Entertainment — One of Changi Airport’s Winning Experiences!

An airport is now no longer just an air transport infrastructure. Besides efficient processing of aircraft and passenger movements, the modern airport has to enhance passenger experience at the airport terminal. At Changi, there is a wide array of options for shopping, dining and entertainment, including beauty care, gyms, a swimming pool, and even a butterfly garden to cater to passengers with long transfer times. In fact, at Changi, as much as 43% of our revenue is derived from our retail operations. As such, planning for such non-aeronautical commercial facilities need to be given equal importance in the design of the terminal space. To keep up with the interests of our passengers-shoppers, the retail offerings need to be regularly rejuvenated to maintain and enhance their shopping experience. We have more than 60 million passengers-shoppers a year, and it makes a lot of commercial sense to drive greater sales conversion when they are captive within the terminal.

Complexity in Airport OperationsCollaborative Decision Making in Airport Operations

In a complex airport system, managing entropies such as a fire break-out, which can generate chaos, disorder and inefficiencies within and across the various sub-systems, is crucial. One global incident is the 2010 volcanic eruption of Eyjafjallajokull in Iceland, which resulted in massive flight cancellations from Singapore to Europe, stranding passengers at Changi Airport. Yet another alarming case was the recent flooding of Kansai International Airport in Osaka due to typhoons, which totally paralysed the whole airport, overwhelming even the Japanese who are normally very familiar with and well-prepared to handle major natural disasters.

Airport operations have to be planned to handle system entropies to avoid severe disruptions, no matter how unexpected they may be. This requires decision making support tools that can analyse dynamic traffic conditions in real-time and facilitate coordination of various activities across multiple stakeholders to respond in a swift and integrated manner. Changi Airport has implemented an Airport Collaborative Decision Making system, which is a common platform to share information amongst all airport agencies, so that they can make best use of their resources based on timely updates on statuses for each flight. This will enable operators to predict the downstream timings of an aircraft the moment it arrives at Changi, the most important of which is the estimated time when it is ready for its next departure. Because of improved predictability in flight times, airport resources such as runways and parking stands can be used more optimally.

High Service Levels

Having the best physical infrastructure and technology is insufficient for Changi Airport to win and maintain itself as a successful air hub. We have to focus on having the necessary software — system and processes — in place to deliver a world class experience to all airport users. Ensuring a good experience for passengers that is personalised, stress-free and positively surprising is the winning point of Changi Airport’s DNA. This requires Changi Airport to have the discipline to establish and enforce the standards of efficiency and service quality across all touch points all the time. This includes pleasant encounters at immigration, customs, tax reclaim, baggage claim, trolley collection, information counters, retail outlets, entertainment facilities, and even within our toilets. There is a long list of incidents which can make passengers very happy or unhappy. We have to constantly measure performance outcomes and to take follow-up actions to remedy any shortcomings, and at the same time provide comprehensive training to all staff including our airport partners.

Conclusion

An airport is a highly complex system where it has to manage both predictable demands expected from its role as an air transport infrastructure, as well as to handle unpredictable demands arising from entropies and disruptions. Expectations of performance and competition for an international air hub is increasingly high.

For Singapore, our airport — and only one — is an important economy strategy. It has multiple economical effects of connecting the city to the world and vice versa. In addition, the airport is like the face of the country, being the first and last point of contact for visitors, and giving either good or bad first and last impressions of the country. Therefore, having the right systems design, technology, processes, and most crucially, people would be critical to ensure our continued success in this highly complex and competitive aviation industry.

I am proud to say that Changi Airport has been able to deliver good passenger satisfaction consistently since our opening in 1981. This is demonstrated by winning more than 580 Best Airport Awards by various ranking agencies, though I keep repeating to our colleagues that winning many best airport awards is the outcome and not to be mistaken as our obsessive goal. I did a mental calculation recently that with the airport processing an average of 160,000 passengers a day, just 1% dissatisfaction rate would mean complaints from 1,600 upset passengers. Even at 0.5% dissatisfaction rate we would have displeased 800 passengers a day. Imagine 800 passengers writing emails, texting messages and making phone calls to us! However, it is reported to me that we have been able to keep the number of negative daily feedback to less than 100 a day, meaning a dissatisfaction rate of less than 0.1%. But of course, we do not know how many may have kept silent about their unhappiness and not bothered to complain to us at all! The important point is to learn from these feedback or complaints that we have received and continuously improve our operations to meet users’ expectations. Never just be defensive.

Presently, Changi Airport possesses strong foundational infrastructures that have been put in place, and we continue to undertake progressive improvements and expansions. With our good track record and excellent operational performance, barring unforeseen world events that may have catastrophic effects on global travel, Changi Airport is, in my opinion, well poised to continue to excel as a good international air hub.

Flowing Towards a Sustainable and Resilient Infrastructural Future

Returning from London in October 2018 as the sole winner of the United Nations’ (UN) World Federation of Engineering Organizations (WFEO) Young Engineers competition, I found it to be somewhat a déjà vu experience.

Back in 2015, I went to California, proudly flying the Singapore flag, to receive my American Water Works Association’s PhD prize – the first ever award for a doctoral dissertation outside of North America since 1966. I was reminded of how Singapore, a nation scarce in natural resources and densely populated, could be so successful in rolling out its sustainability and environmental policies. In fact, the sustainability movement has evolved globally with most governments and private entities being acutely aware of environmental issues, and many viewing the environment as a strategic asset and a source of economic opportunity.

This is evident at the 24th Conference of the Parties to the United Nations Framework Convention on Climate Change (COP24) where conversations are around limiting global warming. Many on ground observations have already outpaced what the modelling and simulations have been warning us about, and it is timely to consider climate change adaptation more seriously than mitigation.

The philanthropic project which I led for the Hlaing Thar Yar township in Myanmar when I was the Deputy Director for Nanyang Environment & Water Research Institute Community Development (NEWRIComm) at Nanyang Technological University (NTU) illustrated the intricate complexity of our environment, and the importance of social and economic consideration, in providing safe water to an under-served community. Striking a balance is key to the success of the project with coordinated planning and execution.

Case Study: Woes of the HIaing Thar Yar Community

Hlaing Thar Yar is a large industrial city in the Yangon region. A severe Cyclonic Storm Nargis hit the city in early May 2008, which caused the worst natural disaster ever recorded in the history of Myanmar.

Following the disaster, the community was forced to live in slum-like conditions. The city was ill-equipped with proper waste and water management systems. The community did not have access to clean water due to the polluted brackish underground water in the area. As a result, it had to purchase portable water for their daily needs. The Don Bosco School in HIaing Thar Yar which serves 350 children and parishioners through school programmes and religious activities was in dire need of access to clean water.

Water Management: Making Every Drop Count

The only water source within reasonable proximity from the school’s compound is its polluted saline ground water. To provide a proper water management system, we proposed a Reverse Osmosis (RO) treatment system (please refer to Illustration 1) designed to produce 5-10 cubic metres of drinking water daily[1]. To ensure that the system is protected from natural elements like soil conditions, supporting civil and structural components were designed in-house for quality assurance and cost effectiveness.

It is known in the industry that the utilisation of an RO system is energy intensive and expensive, and may not be suitable for community development projects. This is compounded by the extensive pre-treatment required which results in higher operational costs.

[1] System is designed at 1m3/h average production with double capacity at maximum. 1500 pax @ 10m3/day = 6.8L/pax/day for only essential drinking and cooking according to WHO guidelines that requires minimum 5.5L/pax/day.

 

Illustration 1: Reverse Osmosis (RO) Treatment System (Photo credit: Nanyang Environment & Water Research Institute)

Hence, a sustainable model was formulated to ensure that the resources required for water production is sufficient for the community to operate and maintain. Affordability in the production of water remained key for this project.

The engagement with local authorities, village head, the school and community resulted in a positive and meaningful outcome. The school was subsequently appointed as the overall-in-charge to manage the operations and maintenance of the RO treatment system.

Well-oiled Machine & Community

Designed with the community in mind, the project which was funded by the Lien Foundation, utilises proven technology to achieve the most economical and sustainable solution for water management & treatment. Critical instrumentation like pressure transmitter, conductivity meter and oxidation-reduction potential are placed at various process stages for continuous monitoring. These stages are conscientiously selected for the project for their simplicity, ease of maintenance and ability to support the concept of affordability at its core.

To do this, we had to understand intrinsically the process and importance of control and automation. The most common cost of failure in an RO system is the ineffective pre-treatment process. This often results in poor reliability of the system, degrading life span of membrane and high operating cost. Overdosing of coagulants and overfeeding of chlorination will also cause common failures which affect the RO system. To prevent such problems, process instrumentations are used to monitor critical parameters such as differential pressure, conductivity, oxidation, and early warning signs of pre-treatment failure.

Another main concern in today’s conventional water treatment control system is that they lack the ability to communicate all processes monitoring from a centralised location, especially at remote location(s). Also, this complex control system requires skilled operators to monitor and control the process operation. In the case of Don Bosco School, the locals are not trained in this field. And to resolve these issues, an IoT (Internet of Things) protocol was introduced to allow remote monitoring of the process.

Going by Gold Standards

The International Finance Corporation (IFC) Performance Standards is widely accepted as a global standard to ensure projects are developed in a sustainable fashion – conserving natural resources, protecting people’s livelihoods and promoting project benefits. The Performance Standards provide guidance on how we can identify and manage risks and impacts, as well as outlining requirements for stakeholders’ engagement and disclosure obligations. In addition, projects must also conform to in-country regulations and international obligations.

Through funding from the Lien Foundation, NEWRIComm has embraced the IFC concept which exhibited the essence of sustainability in evaluating the project, ie assessment with the community in mind. This is essentially what global international financing and aid funding organisations, including the World Bank, Asian Development Bank, African Development Bank, AusAid, US Millennium Challenge encompass. It is important that social and environmental sustainability hold equal weightage in delivering a sustainable and resilient infrastructure to alleviate poverty.

Conclusion

The Hlaing Thar Yar township project, administered by NEWRIComm and funded by Lien Foundation, provides for the improved development of the community. I quote from Chairman of Surbana Jurong and Changi Airport Group, Mr Liew Mun Leong’s book, entitled: Sunday Emails from a Chairman (Volume 5, 20th Anniversary Edition, Page 91), “Economic studies have proven that a development strategy based on sustained, large-scale investments in strategic infrastructure projects can contribute significantly to a country’s economic growth”. I resonate strongly with Chairman’s sharing. We need to be conscientious that for infrastructure to be sustainable, it needs to gain wide acceptance by the community-at-large, which paves way in exhibiting its full value to support inclusive human development. Failure to do so will only result in a building or structure with no purpose or a state of derelict, i.e. the common notion of a white elephant.

While emphasis on the project’s technical soundness and economic viability should not be over stressed, it needs to be guided by a few attributes during its conception stage to achieve its eventual value. I am inspired by the five virtues of Confucius:

Ren (仁); Kindness & Empathy (Meeting Needs)

  • This infrastructure is meant to serve the people. Any infrastructure will need to be designed with end-users in mind, so it will be taken care of like its own.

Yi (义); Fairness (Win-Win)

  • The financier, consultants, developers, and owners have profits to make, which sometimes result in the community being forgotten and forsaken. Without the inclusion of community, it is only a short-term gain without an equitable long-term framework for a sustainable and continuous development.

Zhi (智); Wisdom (Innovation)

  • Take more calculated risks. We need to innovate continuously, and not rely on others to do the work for us.

Xin (信); Trust (Collaboration)

  • Tap on one another’s network and expertise, to provide quality proposals and deliver projects on time and on budget.

Li (礼); Respect (Joint Ventures)

  • While we may be superior in terms of techniques and knowledge, we need to remember that we must never take this as an entitlement. Every country has its own rules and culture, local knowledge is more important than what the best technology can bring.

About Nanyang Environment & Water Research Institute (NEWRI)

NEWRI is part of the Nanyang Technological University, Singapore and is globally ranked amongst the top research organisations in the environment & water domain. NEWRIComm has been conferred multiple accolades, including the NTU Humanitarian Award 2018, and both ASEAN Outstanding Engineering Achievement Award and IES Prestigious Engineering Award in 2017 – for its novel and innovative solution in a community development project in Sri Lanka.

[1] System is designed at 1m3/h average production with double capacity at maximum. 1500 pax @ 10m3/day = 6.8L/pax/day for only essential drinking and cooking according to WHO guidelines that requires minimum 5.5L/pax/day.

Perspectives, developed by SJ Academy, is our platform to explore new ways of tackling some of today’s most complex challenges. We draw on ideas and opinions from our staff associates and experts across different businesses. Click here to read more about the Workplace of the Future, Urban Development, and Water Management.

East Meets West: Planning Lessons Learned From China

I have spent 15 years living in Beijing and Shanghai, designing and planning projects (from remote locations to mega cities) across China. After moving to Seattle, I am struck by some differences between planning developments for the Far East versus the West.

Let’s Talk About Scale!

In China, growth is happening on a massive scale. New super-scale cities emerge where industry and agriculture once stood, while vast corporate campuses bloom around elaborate infrastructure systems. Some take the form of “Elevated Cities”, where extensive subterranean logistics, services, and infrastructure networks are built to free up the airspace above for expanding hi-tech industry campuses and to make room for residential development (please refer to Diagram 1). The Chinese take this growth and expansion as a sign of prosperity.  Although development is happening on a large scale, there are lessons to be learned to ensure that it doesn’t eradicate structures that are steep in heritage and culture.

In Seattle, there seems to be a general perception that new developments tower over buildings that existed there before. Density and height discussions on aesthetics and visual impact seem to take precedence over benefits for the common good. The long-term socio-economic benefits and opportunities are often overlooked and depreciated.

Diagram 1: Artist impression of “Elevated City” in Foshan, Guangdong Province, stacks new residentials above existing light-manufacturing/industrial buildings with a connected public park above existing infrastructure. (Photo credit: B+H Advance Strategy)

Planning with Interests at Heart

Projects in China set out with the highest of intentions. Clients are often driven by the desire to do what it takes to create truly sustainable solutions to environmental, social and economic prosperity.

Trade-offs diminish barriers that many developers face. For example, China makes it economically viable for developers to provide housing for displaced citizens and communities. The proportion of these units is significant, compared to the scale of the overall mix of market-value units tucked in the density of the new development. In some instances, displaced citizens object to relocation or hold-out for greater compensation from the developer. This can result in citizens becoming physically isolated while construction proceeds around them, insisting on holding their grounds until a resolution is agreed with the developer (please refer to Diagram 2).

For the developer, the belief is that this approach improves living standards and creates better access to jobs. However, the homogeneous norms designed to attract new residents to “destination” cities, do eradicate the cultural and historical foundations that anchor communities to a sense of place.

Diagram 2: At one of B+H’s projects outside Beijing, occupants of the remaining residential block refused to leave, even as half of the building had been dismantled and services were cut – they wanted more in their compensation package. (Photo credit: B+H Advance Strategy)

High Tide Lifts All Boats

As the Puget Sound region (a coastal area of the Pacific Northwest in the U.S. – State of Washington), and Seattle in particular, strives to densify, there are lessons to be learned from China’s human-focused development practices.

Developers in Seattle can take advantage of a high tide that could lift all boats. There are tremendous opportunities to reframe our mindset towards future developments, especially as we invest in new transit links that will create opportunities for better city and community building. As city planners, we should:

1. Look beyond the fence. In our strategic planning practice, we invest a lot of time in thinking holistically about the mix of adjacent businesses, services and opportunities beyond site boundaries. What is already there, and what is missing?

Thinking how adjacent stakeholders can benefit through a shared vision creates opportunity for extended capital partners and serves the entire community, not just the development’s target population.

2. Paint an irresistible vision. The most sustainable developments are those embraced by the community at large because they create local economic engines that benefit the whole. A compelling vision of community living provides desired amenities, services, jobs and social attractors. This vision becomes a narration that animates communities and turns naysayers into strong advocates.

While the approach in the past in China has been to gamify a community through thematic approaches, future generations desire a sense of authenticity that reflects a region’s unique assets and attributes.

3. Density creates room for old and new. Despite the government’s best intentions, swanky new developments in China have created enough density to support housing for existing and new populations, but have no sense of history or culture. New populations struggle to bridge the economic divide that separates the new middle class from the developer’s image of prosperity for all.

As we look to solve our own increasing disparity, we need to create more than just the density to support affordable housing. We must seek to intermingle low-income and affordable units within a development that also provides easy access to well-paying jobs, childcare and support services for all segments of the population, removing the “us” from “them” stigmatization. (Please refer to Diagram 3)

Diagram 3: This master plan for the Guangzhou/Foshan corridor integrates local villages and supports affordable housing. (Photo credit: B+H Advance Strategy)

4. Mix, scale, flex, apply. We often over complicate simple things. Programming is easily adaptable, and the model is flexible. Each development can have a different driver: a community college, a hospital, a corporate headquarter. The secret lies in identifying the critical mix of social and community spaces, services and amenities that will allow each neighbourhood to thrive. Residential developments cannot be the driver alone.

As we plan communities, we should pay more attention to human factors that matter most. Desirable places to live offer a diverse mix of programmes that create a self-sustaining, locally relevant socio-economic environment. Short-term profit margins and schedules will ultimately fall short over time if they ignore the importance of the very things that bind us.

Conclusion

Planning cities that will continue to thrive in uncertain times requires a strategy that supports long-term resilience.

The built form of our cities is the infrastructure that supports human, social and economic activity. It is interdependent with the surrounding natural environment. Recognising that cities are an expression of human needs and desires, requires that resilience planning begins at the community level. As each of the risk that surrounds us increases in scale, our planning must enable us to respond at scale.

The high tide that lifts all boats can be the global knowledge acquired through the urbanisation and development of our cities over time. Many problems faced in one location have already been solved in another. Much can be learned and many issues addressed through open connectivity and communication. To achieve this heightened awareness and global knowledge, we need to build both the physical and the digital infrastructure to share information and solutions effectively. Global connectivity creates a living network of diverse experience that can be shared and built upon to solve today’s complex urban challenges and anticipate future change.

This article was first published in Daily Journal of Commerce (https://www.djc.com/news/ae/12116875.html)

Perspectives, developed by SJ Academy, is our platform to explore new ways of tackling some of today’s most complex challenges. We draw on ideas and opinions from our staff associates and experts across different businesses. Click here to read more about the Workplace of the Future, Urban Development, and Water Management.