District energy vs. natural gas boilers: How to compare lifecycle cost, O&M, and risk

Facility managers and building owners have many options to consider when it comes to heating and cooling. In many U.S. cities, it’s common to compare the costs of installing and maintaining onsite natural gas boilers against connecting to a centralized system, like district energy.

To ensure you’re making the best energy decision to meet your business objectives, make sure to ask these three key questions:

  1. What are the lifecycle costs?
  2. What are my opportunity costs?
  3. Does this energy option align with our institutional objectives?

What are the lifecycle costs? How to calculate a lifecycle cost analysis

The most effective way to compare between onsite natural gas boilers and district energy is to conduct a lifecycle cost analysis.

What is an energy lifecycle cost analysis?

A lifecycle cost analysis provides the most comprehensive picture of the costs and benefits of potential energy options. This analysis considers many factors, including the equipment’s purchase price, financing costs, and operating and maintaining the equipment over time.

Which variables should I assess in a lifecycle cost analysis?

To get the full picture of the costs of onsite boilers versus district steam, it’s essential to evaluate the following variables:

1. Financing costs

Both natural gas plants and district energy connections typically require an up-front investment. The investment size will vary depending on the natural gas equipment and connection costs for district energy.

Typical investment costs for onsite natural gas boilers include:

  • Costs of purchasing equipment
  • Installation costs
  • Any costs associated with modifying the building space to accommodate new equipment
  • Loan and interest expenses, if necessary

gas boiler room, boilers and equipment

2. Operations and maintenance (O&M) costs

There are always costs associated with owning, operating, and maintaining energy equipment. But what are operations and maintenance costs?

Operations and maintenance (O&M) costs typically refer to the costs associated with:

  • Full-time staff or contractors to operate the system with the right licenses and certifications
  • Ongoing maintenance costs, including replacement parts and future upgrades to keep the system running optimally
  • Consumable materials
  • Decommissioning costs

While upfront capital investment may be lower, natural gas plants tend to incur much higher operating costs, especially over time as systems age and more maintenance and repairs are needed.

Alternatively, district energy requires little to no O&M budgeting, as many district energy companies employ full-time staff that perform operations and maintenance services for customers.

3. Variable energy costs

While fuel costs are a factor for both district energy and an onsite natural gas plant, there are additional energy costs that help paint a full picture of variable energy costs.

  • Supply and consumption costs: It’s critical to consider energy supply costs, the price of generating or purchasing electricity. These costs are market-driven and based on demand, so they can change frequently.
  • Potential carbon taxes or fines: Installing an onsite boiler plant is often a long-term commitment, opening businesses up to the risk of carbon fines that could apply in the future.
  • Rate structures: It’s vital to evaluate the rate structure associated with natural gas and district energy – whether they are firm, or interruptible, which can impact service.
  • Flexibility: District energy companies can utilize more sustainable fuel sources, such as renewable resources, as an alternative to fossil fuels. This flexibility means that district energy systems can evolve and adapt to different fuel sources as new technologies emerge.

4. Fixed costs

The fixed costs associated with each option need to be carefully assessed. District energy companies tend typically charge a capacity rate, or a charge to reserve capacity on the system to ensure your load is uninterrupted.

Other fixed costs that should be incorporated are taxes and insurance, which can vary depending upon the option you are evaluating.

Man in a white hard hat looks at clipboard in district energy facility

What are my opportunity costs?

Even if businesses have the capital on hand to finance new equipment, there are always opportunity costs with every investment decision, such as losing potential gain from other alternatives.

  • Budget allocation: Investing in a new mechanical room needed for onsite boilers could mean leaving less budget to invest in your core operations, new technologies, upgrades, or expansions.
  • Space: Typically, mechanical rooms, large chillers, boiler plants, and cooling towers take up a considerable amount of precious space within urban buildings that could otherwise be used for parking or amenities that would improve the tenant experience.
  • Reliability: Evaluating the cost of a potential outage and downtime is vital in assessing which option to select to best meet your energy needs. Outages can impact your tenants’ safety, comfort, or the well-being of your patients.

Does this energy solution align with institutional objectives?

The last piece worth considering is the alignment of energy decisions with institutional objectives.

Safety objectives

It is also critical to consider how the energy decision will impact the safety of occupants. Opting for onsite natural gas boilers can potentially expose occupants to hazardous chemicals and fumes due to onsite combustion and mechanical equipment. Opting for a district energy service, on the other hand, eliminates the safety risk by generating thermal energy off site.

Sustainability objectives

Many companies and institutions today have sustainability and Science Based Targets initiative (SBTi) goals, and energy decisions can have a direct impact on these programs.

graphic that describes what Science Based Targets Initiative (SBTi) are

As organizations seek to reduce their carbon footprint, an energy infrastructure decision can be heavily influenced by expected emissions output.

While there are many factors to consider when making an energy decision – from incentive programs, opportunity costs, sustainability objectives and more – a lifecycle cost analysis ensures you are able to make an informed energy decision that meets your institution’s goals and objectives.

Transforming district energy systems: Vicinity Energy Grand Rapids

Across the country, Vicinity teams are working hard to transform our facilities, enabling us to reach net zero carbon emissions by 2050 or sooner. As we spearhead this next evolution of district energy, we’re sharing key updates at our facilities.

Vicinity’s district energy system in Grand Rapids, Michigan is making key electrification progress, with an electric boiler being installed in the coming months.

Future electrification plans for Grand Rapids revolve around distributed electrification, leveraging existing systems that already benefit from distributed generation and access to renewable resources. The electrification of our operations will allow us to offer eSteam™ to decarbonize our customers’ buildings and communities.

Learn more about the various changes we’re making to decarbonize our Grand Rapids district energy operations below and stay tuned for all future updates on our progress.


Grand Rapids electrification progress

 

February 2026 update

Since October, key progress has been made at our Fulton Street facility to prepare the electric boiler for service this summer.

Key initiatives include work to install:

  • Infrastructure at the substation of our local electric utility, Consumers Energy, where our extension will be finalized
  • A dedicated substation at the Vicinity Energy facility
  • Mechanical connection of the electric boiler

To optimize space and timeliness, our team is integrating the new electric boiler equipment with the existing systems and infrastructure at the facility.

Electrification progress

To seamlessly integrate the new electric boiler with the existing facility, key upgrades have been made to fabricate a new main steam header extension and interconnect, along with an additional expansion loop for resiliency.

An additional chemical feed system will be installed to meet the conductivity necessary for electric boiler operation. The team is also in the process of installing new recirculating pumps.


 

Electrification progress

Progress is being made to install a substation at Vicinity’s facility that will power the electric boiler. All subgrade construction for the substation has been completed.


 

Electrification progress

Work being done at the local utility (Consumers Energy) to install a dedicated feed to the Vicinity Energy facility to power the electric boiler.

 

 

October 2025 update

Our team has been working hard to get the new 9MW electric boiler operational. Construction of the new mezzanine was completed, allowing access to the electric boiler’s supporting infrastructure within the facility. 

To operate this new electric boiler, the team is utilizing existing systems at the facility, like the water treatment system, RO system, and feed pump. However, the new electric boiler requires a different level of conductivity. To accomplish this, the team is installing supplemental water treatment to meet required specifications.

The upgrades coming at the facility over the next few months will allow for future growth and capacity. The team is utilizing existing systems and infrastructure at the plant to enable a timelier commissioning of the electric boiler.

Electrification progress

 

June 2025 update

On June 18, 2025, Vicinity officially kicked off our electrification strategy in Grand Rapids with a commemorative wrench turning ceremony.

Our customers, partners, and community members joined us at our Grand Rapids facility to mark the beginning of the installation of our new, 9MW electric boiler. Throughout the summer of 2025, the electric boiler will be installed at the facility. Once installed, our carbon-free thermal energy product, eSteam™, will be available to our customers throughout Grand Rapids.

The engineering and construction of this electric boiler is supported by the $2 million grant awarded to Vicinity by the Michigan Public Service Commission in 2024. This transition represents a significant step towards reducing reliance on traditional fuel sources and embracing cleaner, more sustainable alternatives.

Electrification progress

eSteam™ and the cost-saving benefits of transitioning to clean energy

Many cities across the United States are finding ways to combat climate change by setting ambitious decarbonization goals to reduce greenhouse gas emissions. Urban buildings are notorious for emitting significant carbon emissions into our atmosphere by using fossil fuels for heating and other energy uses.

Why staying on natural gas could be costly

While many buildings and homes around the world currently rely on natural gas for heating needs, there are several risks factors that are critical to consider when debating whether to remain on natural gas over cleaner fuel sources.

Operating costs and legislative risk

An additional risk building owners must consider is price unpredictability and the looming operating cost increases associated with using natural gas. This legislative uncertainty and price volatility make long-term energy planning difficult.

When buildings install natural gas equipment, they are locked in to using fossil fuels for 30 to 40 years, which is the average life span of the equipment. It’s crucial to review all energy options to ensure that buildings can adapt as climate legislation is implemented over the next 5, 10, or even 30 years.

Onsite mechanical plants require ongoing operation and maintenance. Often, this means bringing on full-time staff or contractors to run the system daily. Owners must check their local regulations to ensure they have factored in the appropriate number of staff with the right qualifications and licensing to meet the city’s operational requirements. They must also account for ongoing maintenance, including parts replacement and future upgrades, to keep the system running optimally.

Health and safety concerns

Fossil fuel-based heating systems, such as oil or natural gas furnaces, can contribute to indoor air pollution, which, according to the EPA, is often more dangerous than outdoor air pollutants due to high exposure levels. They release combustion byproducts such as carbon monoxide, which can negatively impact indoor air quality and overall health.

As carbon consciousness grows among building tenants and investors, so does the demand for green energy solutions that address concerns about reducing carbon emissions in our atmosphere and preserving our natural resources, air quality, and overall health.

By implementing cost-effective and sustainable electrification solutions, building owners can lower carbon emissions, attract environmentally conscious tenants, improve marketability, and enhance the long-term value of their properties.

However, electrifying an existing building can be challenging, expensive, and increase demand for an already overloaded grid network.

Benefits of electrification for building owners

For many building owners, going through a large-scale retrofit project to install electric equipment and facing the increasing monthly cost of retail electricity can be daunting.

The good news is that alternatives are available to aid the transition away from natural gas, without retrofits or upfront capital investment.

By electrifying district energy systems, we can leverage existing infrastructure to ensure access to reliable and environmentally friendly electrons.

Vicinity’s transition to electric boilers and industrial-scale heat pumps to generate carbon-free eSteam™ eliminates the costs associated with constructing new electric substations—costs that would otherwise be passed onto the ratepayers—and avoids the challenge of permitting and citing new electric infrastructure, especially when gaining public support in cities.

Vicinity’s access to transmission-level electricity rates helps overcome financial barriers associated with installing electrification technologies and is more effective and less disruptive than onsite alternatives like built-in electric boilers. eSteam™ is an invaluable tool for cities and building owners aiming to meet sustainability targets, comply with carbon ordinances, and fulfill tenants’ increasing demands for sustainability.

What is eSteam™ and how it works

By opting for the carbon-free thermal energy product, eSteam™, building owners can improve their energy efficiency, reduce their carbon footprint, and prioritize the health and safety of tenants—all while keeping their budgets on track.

By installing electric boilers and heat pumps in its large central facilities, purchasing power from the grid at transmission-level rates, and harnessing the untapped energy from rivers, Vicinity can offer all the benefits of the district energy service our customers count on without compromising reliability.

Diagram of Vicinity’s eSteam™ electrification process for carbon-free heating.

eSteam™ affordability and operational strategies

Affordability is a cornerstone in Vicinity’s electrification plan, ensuring that the transition to carbon-free solutions remains as cost-effective as possible. We make eSteam™ affordable by utilizing our large systems, existing infrastructure, and access to transmission-level rates to help our customers achieve their sustainability goals.

Further, our energy experts are skilled in procurement and equipment dispatch, which allows us to aggregate large loads and operate our equipment optimally to achieve the highest efficiencies at the lowest cost. Vicinity employs two essential strategies:

  1. “Valley” hunting: We can aggregate the load of our customer base and purchase energy when it is the least expensive. In the future, we will install thermal storage so we can purchase power when it is least expensive, produce eSteam™, store it, and distribute the stored steam when our customers need it.
  2. Optimal equipment dispatch: With our team’s extensive operational experience, we can flexibly adapt and dispatch our generating assets to most optimally serve customers. When affordable renewable energy is accessible, we will procure electricity to produce eSteam™. However, when renewable energy becomes scarce or expensive, we can quickly switch to alternative steam-generating equipment to maintain uninterrupted operations and keep costs low.

Through these operational approaches, we are dedicated to delivering the best possible outcomes for our customers without compromising affordability.

Ready to reduce carbon emissions and future-proof your building? Contact Vicinity Energy to learn more about eSteam™ solutions.

Transforming district energy in Boston and Cambridge

As the Vicinity teams work hard to decarbonize our facilities across the country, we are sharing the key updates our facilities are undergoing during this transformation. The electrification of our operations is well underway in Boston and Cambridge, as our facilities across the country prepare to undergo similar processes in the coming months and years.

We are transforming our historic Kendall facility to meet our communities’ and customers’ needs by leveraging existing infrastructure and installing innovative technologies such as an industrial-scale electric boiler, a river-based heat pump complex, and thermal storage. The electrification of our operations will allow us to offer eSteam™, a carbon-free, renewable energy solution, to decarbonize our customers’ buildings and communities.

Learn more about the various updates we’re making to decarbonize our Boston and Cambridge operations below and stay tuned for all future updates on our progress.

Boston and Cambridge electrification progress


November 2024 update

On November 19, Vicinity commemorated an exciting milestone in our Clean Energy Future commitment with a ribbon cutting ceremony to inaugurate our 42MW industrial-scale electric boiler, which has officially begun delivering eSteam™ to our customers in Boston and Cambridge.

Our valued customers, community partners, and elected officials joined us to celebrate the electric boiler’s official commissioning.

Vicinity is contracted to supply eSteam™ to leading institutions like Emerson College and life sciences leader IQHQ, emphasizing the unprecedented demand for carbon-free thermal energy in Boston and Cambridge. Their adoption of eSteam™ reflects its broad, transformative impact on industries focused on advancing sustainability goals.

Electrification progress


October 2024 update

This fall, our team wrapped up the deconstruction and removal of an old steam turbine from our turbine hall. This space was cleared to make way for the new steam compressor that will be part of our industrial-scale heat pump complex in the coming years.

Electrification progress


August 2024 update

During the summer months, progress has been made to transform our facility, making way for the industrial-scale heat pump complex and preparing the installed electric boiler for service. Feed water piping was installed to bring water into the future industrial-scale heat pump complex. Crews have been hard at work preparing to deconstruct an old steam turbine to make way for a new steam compressor that will be part of our industrial-scale heat pump complex once installed.

Electrification progress


June 2024 update

As soon as the electric boiler arrived at Vicinity’s Kendall facility, the team wasted no time in beginning the installation work required to bring this project to life. During the months of April and May, structural steelwork was completed to allow access for operation and provide a framework for mechanical and electrical systems. Crews have been hard at work installing auxiliary pumps, boiler trim, steam piping, and valves that will integrate the boiler into the facility’s existing systems.

Electric boiler installation

 

March 2024 update

At the end of March, our first industrial-scale 42MW electric boiler was installed! After months of preparing our Kendall, MA facility for its arrival and installation, our team successfully carried out the complex process of installing this large-scale technology. The electric boiler is expected to be fully operational by the summer of 2024, and begin serving our Boston and Cambridge customers with carbon-free eSteam™.

Electric boiler installation

March 2024 update

In March, our team got to work preparing the space in our Kendall facility where the 42MW electric boiler will be installed. This area is being prepped, and recently our team finished assembling the platform that the electric boiler will rest upon once installed. The 42MW electric boiler has arrived at our Kendall facility and is expected to be fully operational by the summer of 2024.
 
Electric boiler platform
 

February 2024 update

Several upgrades are taking place throughout February as part of our Kendall facility’s electrification transformation. Several pieces of equipment are being removed, demolished, or prepared to be demolished, to make room for our more sustainable and efficient systems.

The areas that will be home to these technologies are being prepared for their installation, with various demolition projects underway and steelwork being prepared. The 42MW electric boiler has arrived at our Kendall facility and is expected to be fully operational by the summer of 2024. The 35MW industrial-scale heat pump complex is anticipated to enter service at our Kendall facility in 2028.

Electrification and efficiency upgrades and preparations begin

 

December 2023 update

In December, Vicinity’s Deputy CEO and President Kevin Hagerty and Senior Vice President of Engineering Pat Gillooly traveled to the MAN Energy Solutions’ Oberhausen and Berlin engineering offices and manufacturing and assembly facilities, along with our design team from Vanderweil Engineers.

Our team met with MAN to align our goals and objectives for the industrial-scale, river-based heat pump complex to be installed at our Kendall facility in Cambridge, MA, and better understand the team’s full capabilities in engineering and producing high-quality heat pumps and steam compressor systems.

Vicinity team travels to Germany to meet with MAN Energy Solutions team

 

November 2023

In November, we announced the arrival of our 42MW industrial-scale electric boiler at our Kendall Square facility in Cambridge. After passing a factory acceptance test with Vapor Power International and Precision Boiler, the boiler was delivered to our Kendall facility to be prepared for installation.

The boiler will be installed in the coming months and is expected to be fully operational by the summer of 2024.

The electric boiler is pivotal in Vicinity’s mission to provide sustainable solutions to our customers. Once operational, the boiler will enable the immediate production of eSteam™, our award-winning carbon-free thermal energy product.

Industrial-scale electric boiler arrives at Vicinity’s Kendall facility

 

November 2023

In November, our industrial-scale electric boiler underwent a factory acceptance test with Vapor Power International and Precision Boiler to ensure it was ready to be delivered and begin operating at our Kendall facility in Cambridge.

The rigorous test included several steps: the team examined the equipment in its final assembly process, then the boiler was disassembled, and the removed piping was painted before the boiler was re-assembled. It was inspected for quality assurance and to ensure the boiler met ASME standards. Then, power on the control cabinet was added. The Human Machine Interface (HMI) and the system’s screens and logic were reviewed. The simulation of alarm and trip signals in the control system was completed.

Finally, the teams discussed shipment details, details on re-assembly at the site, and what is involved in the commissioning and startup of the boiler. Vicinity’s Senior Performance Engineer Steve Murphy and Kendall Shift Supervisor Jeff Gawrys witnessed the performance testing.

Industrial-scale electric boiler undergoes factory acceptance testing

 
The electric boiler undergoes a factory acceptance test with Vapor Power International and Precision Boiler.
The electric boiler undergoes a factory acceptance test with Vapor Power International and Precision Boiler.

April 2023

In April, we announced our partnership with the Augsburg, Germany-based organization MAN Energy Solutions to collaborate in developing low-temperature source heat pump systems for steam generation.

Vicinity plans to install an industrial-scale heat pump complex at our Kendall facility by 2028. Once installed, it will be powered by renewable electricity to harvest energy from the Charles River safely and efficiently, returning it to a lower temperature so as not to harm the river’s environment.

The Cambridge heat pump complex will have a steam export capacity of 35MW, occupy a space of around 25,000 sq ft., and circulate 24.5 million to 49 million gallons of water from the Charles River daily.

MAN Energy Systems and Vicinity Energy partner on the development of industrial-scale heat pumps

 

February 2023

In February, we announced a long-term partnership with our first eSteam™ customer, IQHQ, Inc., a premier life sciences real estate development company focused on leadership in sustainability. Vicinity will provide eSteam™, our carbon-free, renewable thermal energy offering, to IQHQ to rapidly decarbonize IQHQ’s developments in the Fenway neighborhood.

 

November 2022

In November 2022, we officially kicked off our electrification plans with the deconstruction of a steam turbine at our Kendall facility. In its place, we are installing an electric boiler, marking a critical step in our commitment to reaching net zero carbon emissions across our operations by 2050.

Boston Mayor Michelle Wu joined us at our Kendall facility to commemorate the milestone.

Kicking off our electrification plans with Mayor Michelle Wu

 

CHP vs. onsite power generation: How combined heat and power enables a low‑carbon future

Combined heat and power (CHP), also referred to as cogeneration, has been quietly providing highly efficient electricity and process heat to vital industries for decades. Cogeneration is a proven, cost-effective tool for reducing emissions and furthering sustainability goals.

What is a CHP system?

CHP, or cogeneration, is the simultaneous production of electricity or power and thermal energy from a centralized source of energy.

CHP combines the production of thermal energy, used for both heating and cooling, and electricity in one process.

Key facts about CHP systems:

  • CHP systems can be located at an individual facility, building, or campus. They can also be combined with district energy or utility resource.
  • CHP systems usually consist of a few key components: a heat engine, generator, heat recovery, and electrical interconnection, which are configured into an integrated whole.
  • CHP is typically employed where there is a need for both electricity and thermal energy.
  • All CHP systems involve recovering otherwise-wasted thermal energy to produce useful thermal energy or electricity.
  • As a result, CHP systems require less fuel to produce the same energy output as conventional systems, emitting fewer greenhouse gases and air pollutants.

How do CHP systems compare to separate heat and power (SHP) systems?

Although CHP is used in over 4,400 facilities across the U.S., many operations are still powered with conventional, onsite separate heat and power (SHP) systems.

Unlike CHP, SHP systems are not integrated, meaning they obtain fuel from several sources, such as central fossil-fueled power plants and onsite natural gas heating systems.

To get the complete picture of how CHP compares to SHP, let’s dive into the facts across a few key areas of focus.

Is CHP energy efficient?

The average efficiency of fossil-fueled power plants in the U.S. is 36%. This means that 64% of the energy used to produce electricity at most power plants in the U.S. is wasted in the form of heat discharged into the atmosphere.

Overall, SHP is 50–55% fuel-efficient. Alternatively, CHP systems typically achieve total system efficiencies of 65-80%, by recovering and using the otherwise-wasted heat from on-site electricity production.

Diagram showing CHP as 45% more efficient than onsite generation.
How CHP systems compare to SHP systems

Can CHP systems drive cost savings?

According to the U.S. Department of Energy and the EPA, installing 40 GW of new CHP capacity would save U.S. businesses and industries $10 billion each year in energy costs. These agencies estimate that such an investment would cost about $40 to $80 billion and could pay for itself within four to eight years.

CHP systems also reduce energy bills because of their high efficiency. Recurring costs are further reduced because the CHP output reduces the need for electricity purchases.

How sustainable are CHP systems?

Because CHP systems require less fuel to produce the same energy output as SHP systems, CHP can reduce emissions of greenhouse gases and air pollutants such as nitrogen oxides (NOx) and sulfur dioxide (SO2).

A CHP system can operate on various fuel types, such as natural gas, biogas, biomass, and more sustainable alternatives as they become widely available. The emissions prevented by a single 5MW CHP system are equivalent to the annual emissions of more than 5,400 passenger vehicles.

 

Graphic showing C02 emissions comparison of conventional generation vs. combined heat and power
This diagram from the EPA illustrates the CO2 emissions output from electricity and practical thermal energy generation for two systems: (1) a fossil-fuel-fired power plant and a natural gas-fired boiler and (2) a 1 MW reciprocating engine CHP system powered by natural gas.

What is the growth potential for CHP systems?

There is enormous growth potential for the CHP market: Global Market Insights forecasts revenue generation within the market to increase from $20 billion in 2016 to over $45 billion by the end of 2024.

Investing in CHP systems can also help stimulate local, state, and regional economies through job creation and market development. Demand for raw materials and construction, installation, and maintenance services can create green jobs and develop markets for future sustainable technologies.

The potential capacity for CHP also cannot be understated: a U.S. Department of Energy study identified nearly 14GW of additional technical potential for CHP across more than 5,000 U.S. colleges and universities alone.

Chart showing CHP capacity additions over time
Forecast of potential CHP capacity additions through 2026

How reliable are CHP systems?

CHP systems are more efficient and more resilient, and reliable than conventional methods, especially when configured as part of an advanced microgrid. These systems can be designed to operate independently from the electric grid to enhance facility reliability.

Through the onsite generation and improved reliability, facilities can continue operating in the event of a disaster or an interruption of grid-supplied electricity.

CHP enables a low‑carbon future

Major U.S. cities like Boston, Cambridge, and Philadelphia are already reaping the benefits of CHP. CHP is integrated with local district energy networks in these communities, delivering low-carbon thermal energy to buildings and campuses across the cities’ urban core.

By leveraging existing district energy infrastructure and CHP, these cities are leading the way in America’s adoption of this powerful technology and forging ahead towards a zero-carbon future.

Charging ahead: Vicinity’s decarbonization pathway through electrification

Mitigating carbon in the U.S.’s production and distribution of energy is now just as critically important as society’s ever-growing need for energy. The federal government, states, and local municipalities are implementing, drafting, and debating new laws, regulations, and programs to swiftly push the clean energy transition and decarbonization.

Commercial buildings represent the highest source of carbon emissions in major cities, making them one of the most critical targets in urban decarbonization. New York City’s Local Law 97 was the first to set restrictions around carbon emissions on existing and new buildings—with Boston following close behind with Building Emissions Reduction and Disclosure Ordinance (BERDO) 2.0.  As communities strive to lessen the impacts of climate change and building owners look to comply with these evolving mandates, it’s clear that resilient, reliable, and agile energy solutions are needed for a more sustainable future.

The first district energy electrification strategy in the U.S.

One of the most valuable assets in achieving aggressive decarbonization targets is district energy, a network of underground pipes that delivers thermal energy and chilled water to buildings in urban communities. Because district energy systems are agile, flexible, and agnostic to fuel sources, they are essential tools to decarbonize communities at scale. As clean energy technology evolves and more renewable sources become available, Vicinity is quickly adapting to emerging trends to eliminate carbon from operations at central facilities in 12 cities across the country.

In 2020, Vicinity pledged to achieve net zero carbon emissions across its operations by 2050. As Vicinity delivers steam for heating, cooling, and sterilization to customers ranging from state-of-the-art life sciences research facilities to Class A commercial office space, the company remains committed to providing reliable and affordable products to help customers eliminate carbon emissions.

How Vicinity is getting there 

The backbone of Vicinity’s decarbonization plan is the electrification of its operations by utilizing a combination of existing infrastructure and implementing new, innovative technologies at Vicinity’s central facilities.

Like district energy systems in Canada and Europe, Vicinity will import carbon-free electrons through co-located substations to power electric boilers and industrial-scale heat pumps. These technologies with thermal storage will deliver safe, clean, and reliable carbon-free steam, known as eSteamTM, for heating, cooling, sterilization, humidification, and other thermal energy needs.

While the technologies will vary at each of Vicinity’s central thermal energy facilities, below is a quick snapshot of the overall electrification strategy:

    • Biogenic fuel: A truly circular solution, Vicinity uses the waste cooking oil discarded by the local food service industry to generate steam. Vicinity has replaced heating oil with LR100, a biogenic fuel derived from waste vegetable oil. Benefits include significantly reducing greenhouse gas emissions by over 80% compared to distillate fuel and improving local air quality by reducing nitrogen oxides, sulfur oxides, and particulate emissions.
    • Heat pumps: Vicinity is partnering with a Germany-based energy provider to develop a low-temperature water-source heat pump system for carbon-free eSteamTM generation. These plans are already in motion as Vicinity looks ahead to 2028 when the Kendall facility in Cambridge will be home to Massachusetts’s largest planned industrial-scale heat pump complex. Installation at other locations in Philadelphia and Kansas City will follow.
    • Electric boilers: Leveraging existing infrastructure and access to a lower-cost, transmission-level electrical supply, Vicinity will consume renewable power from the grid and import it to its facility through the co-located substation to produce carbon-free eSteamTM.
    • Thermal storage: To lower our customers’ average cost of renewable thermal energy, thermal storage will provide on-demand eSteamTM production from stored, off-peak renewable electricity.

What this means for Vicinity’s district energy customers and communities 

Vicinity’s decarbonization journey enables buildings to transition to clean energy sources at scale and seamlessly achieve carbon reductions without any additional capital needed. As federal, state, and city officials enact building performance standards to reduce existing and new buildings’ carbon footprint, Vicinity continues to invest in infrastructure at central facilities. It enables customers to comply with these evolving standards. Vicinity’s eSteamTM sets customers on a rapid pathway to decarbonize by 2050 and achieve their ambitious ESG initiatives. With eSteamTM, Vicinity’s valued customers, like IQHQ, can provide resilient and responsible spaces to positively impact their building occupants and the surrounding community.

Heat pumps and district energy: Driving building decarbonization for a sustainable future

Industrial heat pumps are revolutionizing the way we heat buildings. With the ability to produce temperatures of up to 150C, these robust systems have become a sustainable solution for across the globe. As the demand for carbon-free heating increases, the shift away from fossil fuels is finally gaining momentum.

Vicinity is diving into the world of heat pumps

Vicinity is entering a new era of sustainability and installing heat pumps as a cutting-edge technology that provides a carbon-free heating solution to our customers and aligns with ambitious emissions reduction goals nationwide.

In April 2023, Vicinity announced our partnership with MAN Energy Solutions to develop low-temperature source heat pump systems for eSteam™ generation. These plans are already in motion as we look ahead to 2028, when Vicinity’s Kendall facility in Cambridge will be home to Massachusetts’s largest industrial-scale heat pump complex.

Drawing inspiration from heat pump successes in Europe, this venture will create ripples on a national scale and serve as a testament to Boston’s commitment to shaping a greener future. Powered by renewable electricity, Vicinity’s heat pump complex will safely and efficiently harvest energy from the Charles River, returning it at a lower temperature.

With the heating sector responsible for a staggering 30 to 40% of global CO2 emissions, the time to implement sustainable energy solutions is now. Vicinity’s sustainability plans mirror the examples set by cities like Glasgow, Scotland, and Drammen, Norway, where water-source heat pumps have already made their mark. The first water-source heat pump that emerged in Glasgow in 2021 is three times more efficient than natural gas boilers and allows the city to tap into the renewable power of the River Clyde, just as Vicinity will do in Cambridge with the Charles River.

How will Vicinity’s heat pump complex work?

Vicinity is transforming district energy in the cities we operate in by installing an industrial-scale heat complex. By 2028, this complex will be operational at our Kendall facility, and installation in other systems in cities like Philadelphia and Kansas City will follow.

This innovative heat pump will draw heat from nearby water sources to generate steam and improve the system’s efficiency. The technology functions similarly to an air conditioning system, only it accomplishes the reverse on a much grander scale. Ensuring that the river and its ecosystems remain unharmed, the river intake system lifts heat from the river and brings it into our facilities.

Since most of this heat is transported rather than generated, heat pumps are much more efficient than traditional heating methods such as natural gas boilers and heaters, resulting in lower operational costs for building owners.

So, how are our plans progressing? Today, we are engineering the first planned industrial-scale heat pump complex at our Kendall, MA facility, and preparing our facility for its installation. The heat pump will occupy a space of approximately 25,000 sq. ft., and it will circulate through 24.5 million – 49 million gallons of water from the Charles River each day, returning the water to the river at a lower temperature.

Early design of the industrial-scale heat pump Vicinity Energy is developing.

Our systems will also employ electric boilers and molten salt thermal battery storage to fully decarbonize our footprint. Leveraging our existing system of underground steam pipes, we will seamlessly provide our customers with carbon-free eSteam™. Our first electric boiler will enter service in Cambridge in 2024.

What are the benefits of heat pumps?

Vicinity’s plans to utilize innovative industrial-scale heat pumps at our facilities present several benefits to our community and customers.

  • Harnessing local resources: The industrial-scale heat pump complex at our Kendall facility will harness the untapped thermal energy from the Charles River, setting new standards for sustainable urban energy production.
  • Phased implementation: Vicinity is rolling out this technology in stages. Our 42MW electric boiler will be operational this fall, and we are planning to install the 32MW water-source heat pump complex in 2028.
  • Leveraging existing infrastructure: Utilizing our 26-miles of steam distribution infrastructure and high-voltage connection to the grid will minimize urban disruption while providing a clear path to net zero emissions.
  • Empowering building owners: By shifting energy and operations risk to Vicinity’s central facilities, we enable cost-effective compliance with performance standards, accelerating adoption and the energy transition.
  • Replicable model: Vicinity’s initiatives in Boston and Cambridge serve as a blueprint for urban decarbonization across the U.S., enabling rapid, large-scale implementation.
  • Immediate and scalable impact: Vicinity is rapidly decarbonizing urban building spaces, starting with 70 million square feet in Boston and Cambridge and expanding to decarbonize 250 million square feet of customer space nationwide. By acting swiftly, we maximize the time value of carbon reduction, amplifying our climate impact.

District energy systems are agile. By replacing fossil fuel infrastructure with industrial-scale technologies such as heat pumps, we can effectively decarbonize our communities without retrofitting or installing new electrical infrastructure in our customers’ buildings.

District energy in a climate-uncertain future

With climate change and its clear and present danger upon us, communities must act to embrace resilient energy infrastructure and prepare for a future in a very uncertain climate. Extreme weather events, like the unprecedented cold weather in the midwestern and southern regions of the United States in February 2021, and Superstorm Sandy in 2012, have devastated people living in these areas, presented major challenges to the nation’s energy systems, and driven resilience to the forefront of national conversation – not to mention the extensive financial response required to recover from these events.

While pursuing new energy technologies and solutions is critical to our eventual success as a society, we must balance this future-looking approach with an emphasis on strengthening existing infrastructure and cost-effectively protecting citizens and current energy networks. District energy is a proven energy delivery framework that is resilient, affordable, scalable, and already utilized by grids across the country. With underground carbon steel pipes, insulated and encased in concrete, and fed by central energy facilities, district energy is, by its very construction, extremely resilient. It has the added benefit of enabling a rapid shift to renewable sources and other green energy approaches. Based on these key attributes, district energy is a key component of the solution to our climate-uncertain challenges.

What we’re up against

Since the 1980s, there has been a significant increase in the number and severity of U.S. power outages due to extreme weather. February’s unprecedented winter outages in Texas are just the latest example. Millions of Texans were without power or heat when about half of Texas’s electricity generation was offline. As a result, fuel supplies were slowed by frozen natural gas lines, some towns had to turn off their water supply, and carbon-monoxide exposure skyrocketed when many Texans turned to home generators to keep the heat and lights on. Last year was a record-setting one for wildfires, with over 10 million acres burned nationwide, leading to $20 billion in costs and damages. A decade ago, in 2012, Hurricane Sandy left much of New York City without electricity for days, in addition to causing flooding that shut down power plants and fuel refineries. 117 people were killed, and 8.5 million Americans were without power.

In addition to severe disruptions of everyday life and threats to the health and welfare of residents, these events are costing Americans dearly. According to the National Oceanic and Atmospheric Administration, climate disasters have cost the United States over $1.875 trillion since 1980. The United States cannot afford to continue to operate such vulnerable utility infrastructure, especially as the situation continues to escalate. Americans are paying in tax dollars, and – more importantly – in lives, every moment that goes by without the prioritization of resilience in our nation’s energy infrastructure.

Many communities have already officially recognized the need to put energy resilience at the very center of civic planning. For example, in 2020, Maryland launched the Resilient Maryland Program to fund innovation around energy resilience and distributed energy resources. The Massachusetts Division of Capital Asset Management and Maintenance has a specific resilience program in place to protect key infrastructure from the effects of climate change. And last fall, the city of Philadelphia hired its first Chief Resilience Officer; someone whose entire mission is to ensure that the city’s resources can withstand the impacts of climate change.

How district energy models resilience now

While acknowledging the problem is certainly the key first step of progress, and research toward future improvements is more than necessary, what can communities do right now to protect citizens from the climate disasters that are sure to come at an increasing rate? One solution is district energy.

District energy uses a centrally located facility to generate thermal energy – heat, hot water, or chilled water – for a number of nearby buildings that form an “energy district.” Microgrids, such as can be found at colleges, hospitals, airports, and office parks, are examples of district energy arrangements. District energy offers multiple benefits to its users, including freedom from asset ownership and maintenance and corresponding costs, and price stability. Most important to this issue, however, is that district energy provides energy islanding capabilities that offer far greater resilience than broader-reaching conventional utilities.

For example, during Hurricane Sandy, Princeton University relied on its own microgrid, allowing the university to maintain power and resources while the rest of the city was offline. In fact, Princeton was able to offer emergency workers and the general public a place to warm up, charge their phones, and access the internet, since they were not reliant upon the town’s non-functioning energy supply.

How is district energy so resilient? One major factor is that the generation facilities are often located in urban centers, within or nearby to the grids they serve, as opposed to energy needing to be transported over hundreds of miles from a major power plant. These microgrids can then operate autonomously, even if those around them are without resources.

In addition to proximity, many district energy systems are able to ‘blackstart’ – that is, they can restore operations independently without relying on an external source to recover from a shutdown. Because of this ability to island and blackstart, some district energy systems have upwards of 99.99% reliability, making them desirable infrastructure in an increasingly climate-uncertain world. In fact, many major American military facilities, including Fort Bragg and Andrews Air Force Base, operate on district energy systems due to its superior energy resilience and security.

How district energy can contribute to a greener future

In addition to helping protect communities from devastating climate events right now, district energy can help pave the way to a greener future, in which global warming is addressed and the effects of climate change limited, to help reduce the number of climate-related disasters to begin with. Here are some key ways district energy helps reduce carbon footprints:

  • Reduces primary energy consumption for heating and cooling by up to 50%
  • Many district systems integrate Combined Heat and Power (CHP), which has an average efficiency of 75%, compared to 50% for traditional generation methods (significantly offsetting carbon emissions that would have been emitted through conventional means)
  • A diversity of buildings (such as commercial buildings with daytime use and residential buildings with more evening use) in a district can lead to waste energy sharing and load balancing
  • Central district energy facilities can be easily electrified. Once switched over to new renewable fuel sources and/or technologies, all buildings that are part of the district system will benefit from the carbon footprint reduction instantly, since they are all connected to the same generation facility

Fortunately, the world is catching on to these benefits. The United Nations launched the District Energy in Cities initiative to encourage urban centers to take advantage of the greening power of district energy to help reduce cities’ carbon footprints and thus their contributions to climate change. Campuses, hospitals, and research facilities around the country are already relying on district energy to both meet current energy security needs and to do their part in working toward a greener future.

It’s not always the case that the technology that can help us stay safe now is the same technology that can help us move systemically in the right direction. In the face of a danger as pressing and dire as climate change, we’re fortunate to have that present and future solution in district energy.

Vicinity Energy Names Bill Fahey as Chief Operating Officer

Boston, July 10, 2023 – Vicinity Energy, a national decarbonization leader with an extensive portfolio of district energy systems across the United States, announced that Bill Fahey has joined the company as its new chief operating officer. Fahey joins Vicinity with over 35 years of experience in the energy industry. Previously Fahey served as the executive vice president and chief technical officer for Veolia North America, where he led many operations-focused initiatives and has been instrumental to its long-term success in North America.

Vicinity maintains the largest district energy portfolio in the nation, and recently signed an agreement with MAN Energy Solutions to build a low-temperature source heat pump complex at Vicinity’s facility in Cambridge, MA to produce carbon-free steam, eSteam™, utilizing water from the Charles River. 

“Vicinity is leading the way to a decarbonized future with our carbon-free eSteam™ solution for heating and cooling,” said Bill DiCroce, president and CEO of Vicinity Energy. “Bill’s expertise and ability to produce creative, result-driven solutions will accelerate our decarbonization mission and allow us to offer our customers reliable, efficient, carbon-free technologies and services to meet sustainability goals.” 

Fahey is a graduate of the Massachusetts Maritime Academy and earned his MBA from the University of Massachusetts Boston.

The race to net zero

In 2022, the company kicked off its electrification strategy by deconstructing a steam turbine at its Kendall Facility in Cambridge, Massachusetts. In its place, Vicinity is installing an industrial-scale electric boiler that will begin supplying carbon-free eSteam™ to customers in 2024 and a heat pump complex, the largest in the nation, in 2026. 

The company’s other 11 locations in major cities nationwide will undergo similar electrification processes in the coming years to achieve its goal of net zero by 2050.

About Vicinity Energy

Vicinity Energy is a clean energy company that owns and operates an extensive portfolio of district energy systems across the United States. Vicinity produces and distributes reliable, clean steam, hot water, and chilled water to over 250 million square feet of building space nationwide. Vicinity continuously invests in its infrastructure and the latest technologies to accelerate the decarbonization of commercial and institutional buildings in city centers. Vicinity is committed to achieving net zero carbon across its portfolio by 2050. To learn more, visit https://www.vicinityenergy.us or follow us on LinkedIn, Twitter, Instagram, or Facebook.

Media Contact
media@vicinityenergy.us

Pennsylvania Public Utility Commission Renders Decision Regarding Vicinity Energy and PGW Rate Dispute

Philadelphia, April 24, 2023 – Vicinity Energy, a national decarbonization leader with an extensive portfolio of district energy systems across the United States, announces today that the Pennsylvania Public Utility Commission (PUC) has made its decision regarding Philadelphia Gas Works’ (PGW) efforts to increase Vicinity’s gas transportation rates. The decision requires PGW to conduct a full rate case to determine the appropriate rates and will ensure fair and legal pricing for gas transportation. This decision will allow Vicinity customers an affordable and sustainable path forward to achieve net zero emissions goals with district energy.

In February 2021, PGW provided Vicinity with proposed new rates that drastically increased Vicinity’s gas transportation costs by up to 1,000% and presented a radical change in contract terms. Read the October 2021 formal complaint filed by Vicinity with the Pennsylvania PUC, contesting the cost increase and unacceptable contract terms. PGW also falsely claimed that Vicinity was receiving a subsidized rate, which the PUC states directly contradicts PGW’s position in every prior PGW base rate proceeding.

As a long-standing community member, Vicinity remains committed to Philadelphia. Vicinity will continue delivering affordable, sustainable energy solutions to decarbonize the City, its customers, and neighborhoods where its employees and families live and work. Vicinity is leading the energy transition with its electrification plans and will continue to pursue alternatives to PGW’s gas transportation service.

“Philadelphia deserves a clean, fossil-free future,” states Bill DiCroce, president and CEO of Vicinity Energy. “We are grateful to the Pennsylvania PUC commissioners and staff for their thorough and thoughtful deliberation and are pleased with the decision. While the decision does not fully conclude our dispute with PGW, the PUC’s direction and observations regarding PGW’s deviation from its prior practices support our commitment to obtaining fair and legal pricing for the gas transportation services provided by PGW. We continue to make our customers our top priority and will continue to offer a decarbonized path forward to meet their sustainability goals.”

PGW is responsible for contributing 4.6 million tons of carbon equivalent emissions to the region’s carbon budget and has admitted that its antiquated low-pressure distribution system leaks 1 million tons of carbon dioxide annually. PGW conducted a diversification study launched by Philadelphia’s Office of Sustainability, and the City has publicly stated that it can only reach its decarbonization targets by reducing the carbon emissions from thermal energy. As a fossil fuel-supplying entity, PGW’s future is uncertain.

In Philadelphia, Vicinity’s district energy steam system avoids over 300,000 tons of CO2 emissions annually compared to individual onsite gas boilers. Vicinity’s combined heat and power (CHP) technology, also known as cogeneration, at its Grays Ferry facility in South Philadelphia is 20% more efficient than even the most advanced combined-cycle gas turbine power plants. Vicinity’s steam is a low-carbon, clean option for customers to lower their carbon footprint today. Vicinity’s path to decarbonizing its operations using renewable energy sources to power electric boilers, industrial-scale heat pumps, and thermal storage is underway. In 2022, Vicinity launched its renewable carbon-free eSteamTMproduct to meet the needs of customers and cities to achieve sustainability goals.

About Vicinity Energy

Vicinity Energy is a clean energy company that owns and operates an extensive portfolio of district energy systems across the United States. Vicinity produces and distributes reliable, clean steam, hot water, and chilled water to over 250 million square feet of building space nationwide. Vicinity continuously invests in its infrastructure and the latest technologies to accelerate the decarbonization of commercial and institutional buildings in city centers. Vicinity is committed to achieving net zero carbon across its portfolio by 2050. To learn more, visit https://www.vicinityenergy.us or follow us on LinkedIn, Twitter, Instagram, or Facebook.

Media Contact
media@vicinityenergy.us