Vertical structures
Within the context of the built environment , the term ‘structure’ refers to anything that is constructed or built from different interrelated parts with a fixed location on the ground. This includes complete items such as buildings, and parts of items, such as arches. It can also be used to refer to a body of connected parts that is designed to bear loads, but is not intended to be occupied by people. Engineers sometimes refer to these as 'non-building' structures.
Buildings and other structures that are tall and rise upward might be known as vertical structures. This type of construction is becoming more common in urban areas where limited land space is available and there is a growing demand for high-rise buildings. Vertical structures have unique design and engineering requirements that must be met to ensure their stability, safety, and functionality.
A skyscraper is an example of a vertical structure, as is a high-rise building. Typically a high-rise building is considered to be more than 7-10 storeys or 23-30 m.
For more information see: High-rise building.
Types of structure used to construct vertical structures can include:
- Steel frame structures - This type of vertical structure is made of steel beams and columns that are welded or bolted together to form a framework. The steel frame provides stability and support for the building, and is often used for high-rise buildings, skyscrapers, and other commercial buildings.
- Concrete frame structures - This type of vertical structure is made of reinforced concrete, with beams and columns that are generally cast in place to form a solid framework. Concrete frame structures are often used for high-rise buildings, commercial buildings, and residential buildings.
- Hybrid structures - A hybrid structure is a combination of two or more types of vertical structures, such as steel and concrete, to create a framework that provides the best combination of strength, stability, and cost-effectiveness.
Advantages of vertical structures
- Space efficiency - Vertical structures can be efficient as they use of limited land space, providing more floor area per square foot of land than traditional, single-story buildings. This is particularly important in expensive city centre locations, where accommodation and views can be maximised on relatively small sites.
- Cost effective - Vertical structures can be less expensive to build than traditional, single-story buildings, as the cost of the foundation, roof, and so on is shared among multiple floors.
- Energy efficiency - Vertical structures can be more energy-efficient than traditional, single-story buildings, as they can be designed with efficient HVAC systems, and natural light can be maximised through the use of windows and skylights.
Disadvantages of vertical structures
- Cost of construction - The cost of construction can be high, as the building must be designed and engineered to meet strict structural and safety requirements, and the size of lifts, structure, services and so on can reduce the useable floor area.
- Maintenance costs - Vertical structures can be expensive to maintain, as lifts, cladding, HVAC systems, and other building systems must be regularly inspected and maintained to ensure their continued operation.
- Evacuation challenges - In the event of an emergency, evacuating a tall building can be a challenge, requiring well-designed emergency evacuation plans and procedures.
Vertical structures play a crucial role in the construction industry, providing an efficient use of limited land space. However, they also present challenges such as high costs of construction and maintenance, and the need for well-designed emergency evacuation plans. It is essential that these structures be designed and engineered by qualified specialist professionals to ensure their stability, safety, and functionality.
[edit] Related articles on Designing Buildings
Featured articles and news
Home builders call for suspension of Building Safety Levy
HBF with over 100 home builders write to the Chancellor.
Construction contract awards remain buoyant
Infrastructure up but residential struggles.
CIOB Apprentice of the Year 2024/2025
CIOB names James Monk a quantity surveyor from Cambridge as the winner.
Warm Homes Plan and existing energy bill support policies
Breaking down what existing policies are and what they do.
Treasury responds to sector submission on Warm Homes
Trade associations call on Government to make good on manifesto pledge for the upgrading of 5 million homes.
A tour through Robotic Installation Systems for Elevators, Innovation Labs, MetaCore and PORT tech.
A dynamic brand built for impact stitched into BSRIA’s building fabric.
BS 9991:2024 and the recently published CLC advisory note
Fire safety in the design, management and use of residential buildings. Code of practice.
NBS launches industry guide for specification writing
Available for free and as immediate download.
Peter Barber’s work revives forgotten building types.
Insights of how to attract more young people to construction
Results from CIOB survey of 16-24 year olds and parents.
Focussing on the practical implementation of electrification.
Preston flood scheme completes primary school SuDS
Three primary schools benefit from SuDS schemes.
Sustainable Urban Drainage and Biodiversity
Awards for champions of these interconnected fields now open.
Microcosm of biodiversity in balconies and containers
Minor design adaptations for considerable biodiversity benefit.
CIOB student competitive construction challenge Ireland
Inspiring a new wave of Irish construction professionals.
Challenges of the net zero transition in Scotland
Skills shortage and ageing workforce hampering Scottish transition to net zero.
Private rental sector, living standards and fuel poverty
Report from the NRH in partnership with Impact on Urban Health.
.Cold chain condensing units market update
Tracking the evolution of commercial refrigeration unit markets.