Monitoring Energy in Residential Buildings with Building Information Modeling (BIM
Managing building energy requirements precisely can garner an environment for construction professionals and project stakeholders to make well-informed decisions, and even leverage significant long-term benefits. A BEMS or Building Energy Management System is an efficient and modern technique to control and monitor energy flow or movements in a building. In this blog, we would be talking about residential buildings.
1.
Introduction
(Why is it a big deal?)
Energy monitoring in a
residential building includes various aspects viz. HVAC or Heating,
Ventilation, & Air Conditioning. It also includes lighting or security
systems. This is applicable for commercial and residential projects, but we
would be concentrating on residential projects.
Every building has different
energy consumption; some of the largest consumers of energy can be listed as
residential and commercial buildings, but as residents stay indoors for a very
long time in residential buildings, the consumption can be more, or even
required for longer durations for greater sustainability.
Thus, building management
systems are essential tools to control and manage the requirements of a
building. Residential buildings do consume a lot of energy since it is a 24/7
infrastructure, thus, the power consumption is continuous.
The world energy
consumption continues to grow, and residential energy consumption in the United
States is calculated to be more than 25% of the total energy consumption. It
has been calculated that 40% of building electricity expenditure comes from
residential structures.
Residential appliances
account for more than 30% of the energy consumption and contribute directly to
Carbon Dioxide or CO2 emissions. Implementing a building energy
management system can mitigate strong
greenhouse emissions, control excess
energy consumption, & reduce
overhead costs.
The three most important
aspects of residential energy monitoring would be
1. Reduction of building
energy usage
2. Reduction in
electricity bills
3. Environment conservation
without affecting living standards
2.
Optimizing Energy Management with Monitoring
Energy monitoring
facilitates energy management through automation systems. This can be achieved
through monitoring of duty cycles to conserve load, monitor load management to
regulate power consumption, schedule various start-stop systems for HVAC, and
adopt real-time control of residential building systems.
Various emerging
technologies like the Internet of Things (IoT), Big Data, and Building
Monitoring Systems are changing the dynamics of how buildings are designed,
built, and optimized. Smart residential buildings use cutting-edge technology
to enhance occupant experience, sustain optimal performance levels, and reduce
costs.
Residential Building
Intelligence can be optimized whilst being –
Intelligent
Smart buildings can
provide intelligent insights to make well-informed decisions. Real-time
reporting through data garners significant insights on comparison and
performance. This can make a system efficient and optimized for greater
sustainability.
Feasible
A net positive approach
can be achieved through building smart buildings that provide future
sustainability through the right amount of demand and supply management of
energy. Being net positive makes a building
create or conserve more energy rather than consume.
Flexible
Energy monitoring for
residential buildings can be achieved through agile and dynamic work models
viz. activity-based working, re-configuration, willingness to adapt to new technology,
and changing technology requirements.
Experience
Residents can have
greater control over the environment whilst creating a bespoke level of
personal preference.
Productive
Smart efficient buildings
facilitate better control over space and the environment. This creates better
well-being and reduces health issues.
A multitude of
technologies are deployed viz. smart sensors, Internet of Things (IoT), big
data, state-of-the-art HVAC and lighting systems, etc. This creates an
efficient and easy energy management system to garner greater control over the
residential infrastructure.
High volumes of data
through sensors can be analyzed to derive actionable intelligence or building
performance. This allows faster
diagnosis of errors or faults to save on cost and time.
Advanced security
features consume lesser amounts of energy, these integrated into a residential
building make life safer and easier for the occupants.
3.
Stakeholders
Deploying energy monitoring systems in
residential buildings makes it easier for property owners, contractors, and
facility managers to manage infrastructure through a simplistic approach. A
robust energy monitoring system makes it easy for all the stakeholders to
deploy during the modeling, construction, and management phase.
It all instills
significant savings for the entire project – from planning, design,
construction, and maintenance. For
building owners, an energy monitoring system can garner the following benefits
viz.
Reduction
in operating costs
As energy systems use
automated sensors and controls that regulate various elements like gas, water,
and electricity, it creates a scenario wherein owners can leverage reduced
operating costs throughout the entire project life cycle.
Faster
fault detection
With faster fault
detections or automatic notifications sent out to various stakeholders, it
becomes easier to manage a residential building whilst analyzing data to
determine system performance and maintenance post-construction.
Occupant
Satisfaction
With efficient energy
management, occupants staying in the building have a greater chance of
leveraging a better life and sustainability. This creates a comfortable
ecosystem in terms of enhanced air quality, thermal comfort, sanitation
facilities, etc.
4.
Tools
to monitor and analyze (IoT)
To find opportunities for
improvement in a residential building, owners and facility managers are looking
at deploying IoT on a full-scale basis.
Sensors embedded in building systems can garner exceptional data insights
for HVAC, lighting, and security systems.
The growth of smart
buildings requires solutions such as IoT and big data to derive and make
impactful decisions on energy monitoring and its use. Modular IoT embeds are
low-cost solutions for medium-to-large residential projects that provide
exponential long-term benefits in terms of analyzing plug loads, operating
electrical systems and instruments, or managing AC systems.
With the growth of
environmental concerns, building owners need to assess their energy
requirements and devise a robust system to monitor and manage them as
well. Furthermore, as compliance grows
more stringent, energy monitoring and facility managers need to be looked at as
an important investment to optimize building operations through wireless &
web-based solutions.
Building management
systems will be in high demand considering better decision-making at every
level of the building project.
Water
Management
While the world looks at
the water crisis as one of the major challenges, the AEC industry is looking at
alternatives through green buildings for efficient consumption of water. To use
water efficiently, new engineering processes and tools have been deployed for
various residential structures.
Sustainable residential
architecture is an integrated design that offers a comprehensive approach to
sustainable water management and drainage systems design. This can
significantly reduce the usage of water, and an efficient water system is
designed through a cohesive system rather than an individual component working
in silos.
The level of
architectural design needs to improve to meet the growing demands of good
living standards. Water supply and drainage are key aspects of a building, and
they must be paid attention to. BIM has proved to be an excellent solution for
collaborative and innovative design, with modern clash detection techniques
water systems or pipelines can simulate the flow of water through a pipe for a
specific space.
Applications
of BIM for water supply management
Collaborative
Design Structure
BIM uses 3D models that
are information-rich and contain all the data of the water supply and drainage
design. Various power consumption factors can be calculated, and as Revit is a
parametric application, it is easy to update the 3D model whilst changes are
made. This facilitates work simplification and collaborative efficiency of the
project.
Modern technology has the
potential to detect pressure stresses in pipes and come up with an optimum solution
to proactively adjust the water pressure. With intelligent sensors and IoT,
water flow can be adjusted, and there reducing stresses in pipes. This in turn
minimizes building and maintenance costs rendering long-term benefits for the
building owner and residents as well.
Visual
Advantage
With BIM and its tools,
features such as height characteristics, architectural contours, and structures
can be factored in and visually observed on a screen. This creates greater data
capture and garners asset optimization. Designers and engineers are simulating
rainwater harvesting using BIM methodologies and information databases.
Green
Rating Systems
With the adoption of BIM
on a global level, there have been various rating systems that have been set up
for green building projects. These rating systems help mitigate confusion
across the entire project lifecycle and augment coordination, measurement, and
sustainability. This rating system can be termed as Leadership and Energy
Design (LEED), Building Research Establishment Environmental Assessment Method
(BREEAM), Building Environmental Assessment Method (BEAM), etc.
The application of LEED
focuses on overall building performance to achieve green building design.
Information in the form of measurements or numbers is factored in to assess
water management performance.
BREEAM looks at the flow
rate of water for various spaces viz. baths, dishwashers, washing machines,
etc. This rating system can be used to monitor and manage water use.
Other
BIM applications for water management
International high-rise
buildings have been built using BIM by designing a special kind of curtain wall
that enhances water harvesting. Water catchment is one of the most important
aspects whilst analyzing and managing water.
An efficient water system
was designed using BIM and LEED, wherein the process was divided into 5 systems
viz. LEED Strategy, BIM execution plan, conceptual design, detailed design,
implementation, and documentation.
BIM can be applied at any
stage of the building lifecycle, and this significantly reduces water
consumption.
Solar
Technology
Another important aspect
of the modern green building would be the adoption of solar technology or
photovoltaic cell that consumes 50% lesser electricity than traditional power systems.
This is achieved due to innovative building design, highly efficient building
materials, and technology.
Revit uses
state-of-the-art energy analysis tools and features to calculate the amount of
radiation that would be hitting a building or infrastructure. This helps
architects, designers, and engineers plan and design the size of a window,
position, etc. This data can be used to design a solar power system that is
extremely efficient for the entire building and its occupants.
All this and more happens
in a 3D model wherein each element and space is visible to all the stakeholders
to make informed decisions. Models built in Revit can be exported to a dynamo
for coding purposes and imported back to Revit. This generates intelligent
insights & daylight simulations through automation and customization.
Built-in tools analyze
solar power design to detailed panel layouts and their effects on the overall
building performance. Using Dynamo, nodes can be generated to optimize,
automate, and parameterize the solar power deployment.
To
Summarize
An efficient energy
monitoring system has a myriad of benefits for its occupants and the
environment as well. Energy monitoring for a residential project can
significantly enhance the living quality for a resident, and provide huge
benefits for owners and other stakeholders in terms of cost and time savings.
Moving into the future,
energy monitoring systems would significantly cut down greenhouse gases and
carbon footprints. Furthermore, the onset of technological advancements like
big data, IoT, & AI will boost energy monitoring systems to the next level
of performance and data analysis.
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