By taking a thoughtful approach to employees’ individual situations, fleet managers can design a take-home EV program that fits their drivers’ needs and benefits the company’s bottom line in the long run. Photo via Getty Images

As electric vehicles continue to rise in popularity among corporate fleets, the question of how to best accommodate charging needs for fleet drivers, especially those taking their vehicles home, is becoming increasingly important.

Charging EV fleet vehicles at home can be an excellent strategy to save employees time and cut operational costs. However, many companies hesitate in their take-home EV implementation, mistakenly believing that high-cost level 2 home chargers are a necessity. This misconception can stall the transition to an efficient, cost-effective fleet charging solution.

By taking a thoughtful approach to employees’ individual situations, fleet managers can design a take-home EV program that fits their drivers’ needs and benefits the company’s bottom line in the long run. Here are some essential points to consider:

The viability of level 1 charging for low-mileage drivers

For many fleet drivers, especially those covering less than 10,000 miles annually, the standard level 1 charger that plugs into a 120v (standard) wall outlet and comes with their EV is perfectly adequate. This solution involves no additional hardware costs, mitigates issues when employees leave the company, and reduces corporate liability concerns. The primary advantage of relying on level 1 charging is its simplicity and cost-effectiveness, as it requires no extra investment in charging infrastructure. By leveraging the charging cable provided with the vehicle, companies can minimize their financial outlay while still supporting their employees' charging needs effectively.

Opting for non-networked level 2 chargers for high-mileage drivers

For higher mileage drivers with faster charging needs, a non-networked level 2 charger represents a compelling option. In this scenario, the employee pays for the unit and the installation and is then reimbursed by the company. This approach has several benefits:

  • Tax Rebates and Incentives. Employees may qualify for various tax writeoffs and incentives that are not available to companies, making the installation of a level 2 charger more affordable.
  • Ownership and Choice. Employees select and own the charging port, choose the contractor and pay for installation, which limits corporate liability and cuts costs.
  • Home Value Enhancement. Installing a level 2 charger can increase the value of the employee's home, providing them with an additional benefit and easy access to charging.
  • Accurate Reimbursement Still Possible. Modern electric vehicles record charging data, eliminating the need to get this information from a smart charger. Software like ReimburseEV can connect the dots and calculate accurate usage, costs and reimbursement.

This approach offers a cost-effective, lower-liability solution that benefits both the company and the employee, making it an attractive option for higher-mileage drivers.

The drawbacks of company-owned and networked chargers

Installing company-owned chargers, especially networked ones, is arguably the least favorable option for several reasons:

  1. Increased costs and liability: The installation and maintenance of networked chargers significantly increases costs. Moreover, owning the charging infrastructure introduces liability concerns, especially regarding data security.
  2. Connectivity and compatibility Issues: Networked chargers can suffer from connectivity issues, leading to inaccurate charging data and other operating and compliance problems.
  3. Risk of fraud: Many smart chargers do not know which vehicle is plugged in. Thus, they also risk being used by non-fleet vehicles, further complicating cost and energy management.
  4. Brand lock-in: A number of networked chargers are tied to specific OEM brands, limiting the flexibility in vehicle selection and potentially locking the company into a less dynamic fleet vehicle mix.

The drawbacks associated with company-owned and networked chargers underline the importance of evaluating charging needs carefully and opting for solutions that offer flexibility, reduce liability, and control costs.

Decision tree for fleet managers

Fleet managers should consider a decision tree approach to determine the most suitable charging solution for their needs. This decision-making process involves assessing the annual mileage of fleet drivers, access to charging, the benefits of tax incentives, and considering the long-term implications of charger ownership and ongoing liabilities. By adopting a thoughtful, structured approach to at-home charging decision-making, fleet managers can identify the most cost-effective and efficient charging solutions that align with their company's operational goals, culture, and drivers' needs.

Transitioning to an EV fleet and providing robust at-home charging solutions for your EV fleet drivers need not be a big operational bottleneck requiring huge investments in home charging infrastructure and installation costs. By understanding the specific operational demands of your EV fleet vehicles and the unique circumstances of your EV fleet drivers, companies can implement effective, efficient at-home charging solutions that save time, reduce costs, and minimize liability, all while supporting employees' transition to electric mobility.

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David Lewis is the founder and CEO of MoveEV, an AI-powered EV transition company that helps organizations convert fleet and employee-owned gas vehicles to electric by accurately reimbursing for charging electric vehicles at home.

This Earth Week, let's consider the benefits of home charging for electric vehicles. Photo via Getty Images

Expert: 5 ways residential charging enhances the environmental benefits of EVs

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Electric vehicles are already considered as an environmentally conscientious alternative to traditional internal combustion engine vehicles, thanks to their zero tailpipe emissions. However, the environmental benefits of EVs can be further enhanced by implementing a home-base charging routine.

This is important not only for individuals looking to cut their household’s carbon footprint, but also for corporations that operate EV fleets and are looking for additional cost and environmental savings as part of their larger sustainability initiatives. What makes home charging the most eco-conscious option?

1. Increased use of renewable energy

More than 4 million homes in the United States support rooftop solar panels that provide renewable energy back to the property or back to the local grid. When EV owners install solar panels or other renewable energy systems at their homes, they can charge their vehicles using this clean energy, effectively reducing the carbon footprint associated with their EV use to nearly zero. This direct use of renewables circumvents the inefficiencies and emissions associated with the broader energy grid which, depending on the location, may still rely on fossil fuels to a significant extent. This synergy between EVs and clean local energy production is exemplified by Tesla’s solar roof program, which promotes the adoption of clean home-based energy production as part of the holistic EV ownership experience offered through their app.

2. Optimizing charging times for lower emissions

Home charging allows for more flexible and strategic charging schedules. EV owners can often take advantage of off-peak electricity rates and lower carbon intensity periods by charging their vehicles overnight or when renewable energy production (such as wind or solar power) is at its peak. This not only leads to cost savings for the consumer, but also contributes to a balanced demand on the electric grid, reducing the need for high-carbon emergency power sources that are sometimes activated during peak demand times. Apps like WhenToPlugIn use a carbon intensity forecasting tool to help consumers pick the best times to charge.

3. Reducing dependency on public charging infrastructure

Public charging stations are crucial for long-distance EV travel. For everyday use, the current public charging landscape is trailing the demand curve. The good news is that the majority of EV drivers can rely almost solely on home charging. This practice ensures public charging spots remain open for those who, due to circumstances such as residing in multi-unit dwellings without charging facilities, cannot charge at home. Consequently, this accessibility supports wider adoption of EVs, leading to a more substantial reduction in overall emissions.

4. Avoiding unnecessary travel to public charging stations

The average driver has to detour 2 miles to refill their gas tank. For electric vehicles, finding an available public charger can add many more miles to a trip. Home charging ensures that EVs can start each day with a “full tank” — which, with new EVs, means hundreds of miles of range before needing to plug in again. This reduction in driven miles not only saves time but also decreases the energy consumption and emissions associated with traveling to and from charging stations unnecessarily. By charging at home, EV owners can ensure their vehicles are ready to go without extra trips, further cutting down on the vehicle's overall environmental impact.

5. Enhancing battery longevity

Charging at home typically involves slower charging speeds compared to rapid chargers found in public stations. These slower, more controlled charging rates are less taxing on an EV's battery, contributing to longer battery life and better overall efficiency. Longer battery lifespans mean fewer replacements over the vehicle's life, significantly reducing the environmental impact associated with battery production and disposal. This not only has clear environmental benefits but also economic ones for the vehicle owner.

Conclusion

The environmental benefits of electric vehicles are well-documented, but by incorporating home charging, these benefits are amplified significantly. Through the increased use of renewable energy, optimizing charging times to utilize green power, and reducing reliance on public charging infrastructure, EV owners can further reduce their environmental footprint. As technology advances and the energy grid becomes cleaner, the potential for home charging to contribute to a more sustainable future only grows, reinforcing the role of electric vehicles in the transition to greener transportation options.

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Kate L. Harrison is the co-founder and head of marketing at MoveEV, an AI-backed EV transition company that helps organizations convert fleet and employee-owned gas vehicles to electric, and reimburse for charging at home.

Here's a closer look at why Houston should be pushing for a more rapid transition to EVs. Photo via Getty Images

5 reasons Houston should prioritize electric vehicle adoption in 2024

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As urban populations increase and more vehicles hit the roads across the United States, the quality of the air is compromised, directly impacting health, environment, and quality of life ― especially for children, minorities, and other vulnerable populations. A 2023 study by Site Selection Group placed Houston at the vanguard of this trend, projecting the metro area to grow nearly 10 percent by 2028, eclipsing 8 million residents.

According to Evolve Houston, a nonprofit working to accelerate EV adoption by bringing together local public and private organizations, residents, and government, the transportation sector emits 47 percent of all greenhouse gas emissions in the Houston area.

In this context, electric vehicles offer a practical solution to mitigate the challenges posed by tailpipe emissions. Their adoption in urban settings has the potential to significantly improve air quality and enhance public health. It’s no wonder the upcoming Houston Auto Show will feature a dedicated EV Pavilion.

Here's a closer look at why Houston should be pushing for a more rapid transition to EVs:

  1. Children’s development is at stake: Early childhood is a critical period for brain development. However, toxic air pollutants can significantly inhibit this growth during these formative years. The consequences include impairing children’s cognitive capabilities in reading and math, akin to missing an entire month of elementary school.
  2. EVs counteract historical racial inequalities: Beyond being an environmental challenge, air pollution is a glaring racial and social justice issue. Areas with fewer White residents suffer almost triple the nitrogen dioxide levels compared to predominantly White zones, as highlighted by the National Academy of Sciences. Historically marginalized communities, often near major traffic corridors, endure heightened pollution exposure. Transitioning to EVs can help address these deeply ingrained environmental inequities.
  3. The health benefits are monumental: A brighter future awaits if EVs become mainstream. According to the American Lung Association, if all new vehicles sold by 2035 are zero-emission, the U.S. could see up to 89,300 fewer premature deaths by 2050. Additionally, asthma attacks might decline by 2 million, saving 10.7 million workdays and resulting in an incredible $978 billion in public health savings.
  4. Global success stories prove the benefits: The impact of mass EV adoption has already been demonstrated outside the U.S. For instance, Norway has seen a notable reduction in dangerous particle emissions since 87 percent of its new car sales are now fully electric. Likewise, California’s adoption of electric vehicles correlated with a 3.2% decrease in asthma-related ER visits between 2013 and 2019.
  5. Cities have the power and means to lead the way: Many global cities are trailblazers in the electric transition. New York City, with more than 4,000 government-owned EVs, is a prime example. Moreover, by electrifying their take-home fleets, cities can set a precedent for their communities. Seeing neighbors drive electric vehicles daily serves as a powerful endorsement, motivating nearby residents to make the switch. Incentives like public charging stations, free parking for EVs, rebates for home charger installations, reimbursing for charging at home, and reduced tolls, further bolster this movement.

Houstonians stand at a pivotal juncture. The choices made today concerning transportation will profoundly influence the health and well-being of residents tomorrow. The shift to electric vehicles is more than just an eco-friendly choice; it's a commitment to a brighter, cleaner future. By leading with action and vision, cities can create a legacy that upcoming generations will appreciate and thrive in.

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Kate L. Harrison is the co-founder and head of marketing at MoveEV, an AI-backed EV transition company that helps organizations convert fleet and employee-owned gas vehicles to electric, and reimburse for charging at home.

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New 160MW battery storage project comes online in Houston

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Colorado-based energy storage company SMT Energy and North Carolina-based software company FlexGen have begun operations of Houston IV, a 160-megawatt utility-scale battery storage facility that aims to support the ERCOT grid.

The companies delivered the project in just six weeks, according to a news release. Mississippi-based Irby Construction Company served as the engineering, procurement, and construction (EPC) partner, and CenterPoint Energy will serve as the interconnecting utility.

“FlexGen’s distinctive combination of software automation, our remote operations center, and on-the-ground field expertise all work together to accelerate battery deployment,” Jason Rislov, SVP of operations at FlexGen, said in the release. “What used to take 25-plus weeks took us six. That time saved translates directly into giving the grid and consumers what they need most right now: a more reliable, resilient energy system.”

Houston IV is one of more than 12 projects that SMT and FlexGen have built to connect to ERCOT, according to Energy Storage News.

“Bringing a 160-MW battery storage facility online in just six weeks required disciplined planning, seamless coordination, and an unwavering focus on safety and quality,” Shaun Coleman, project manager at Irby Construction, said in a news release. “The SMT Energy, FlexGen, and Irby Construction teams coordinated engineering, procurement, and construction to keep every workstream aligned, identify challenges early, and maintain safety and quality at an accelerated pace. That integration is critical, not only to delivering projects quickly, but also to ensuring battery storage facilities perform reliably over the long term.”

Houston IV is expected to store and provide enough electricity to power 8,800 homes in Texas annually. In March, SMT Energy secured $135 million in funding for the project from Macquarie and KeyBanc Capital Markets as joint lead arrangers. SMT and FlexGen broke ground to signal the start of the process in May.

In 2023, SMT Energy and joint venture partner SUSI Partners also announced plans to add 10 battery storage projects to Texas, which would double capacity from 100 megawatts to 200 megawatts in the Houston and Dallas areas.

Meet the 80+ startups pitching at Houston Energy and Climate Week

Pitch Lineup

One of the highlights from Houston Energy and Climate Week is hearing directly from the up-and-coming founders working to reshape the energy landscape.

This year, dozens of startups from Brazil to Berkeley and from right here in the Bayou City will compete for cash prizes and bragging rights while showcasing their concepts at HECW pitch events. Here's who's pitching at some of the week's signature competitions. Check back after the week wraps to see who takes home the top prizes.

Cypher Pilotathon and Startup Showcase — Sept. 15 at POST Houston

At the Cypher Pilotathon, founders will give their best 7-minute pilot pitches to industry experts and a live audience, followed by Q&A. This year's event will center around the theme, "The NEW Energy Industrial Revolution." Here's who's pitching:

  • Houston-based Aeromine Technologies, a distributed wind turbine company
  • San Francisco-based Ammobia, which develops low-carbon, energy source-agnostic ammonia
  • Birmingham, Alabama-based Ashipa Electric, a renewable energy semiconductor and microgrid manufacturer
  • Houston-based BigMachine AI, an AI engineer for industrial projects
  • Houston-based Corrolytics, which has developed corrosion detection technology
  • São Paulo, Brazil-based GLR Tech, which has developed a compact, scalable, low-cost platform for industrial emissions control
  • Monreal-based Green Graphite Technologies, which produces battery-grade graphite in a cost-effective and sustainable manner
  • Boston-based KIRA, which converts industrial wastewater into ultrapure water and solids
  • Edinburgh-based Mocean Energy, which works to deliver renewable ocean energy to power offshore industry
  • Los Angeles-based Mote, which works to convert agricultural and forestry waste into clean energy
  • Berkeley-based Oleo, which is developing a biomanufacturing platform to transform biomass waste into carbon-negative, cost-competitive oil feedstocks for advanced fuels
  • Oslo, Norway-based OTee, an automation machinery manufacturer
  • Houston-based Resollant, which is working to produce battery-grade graphite and ultra-low-cost hydrogen
  • Tulsa-based RyuGen Energy Solutions Inc., which works to turn underused commercial power into distributed AI infrastructure
  • Berkeley-based Sunchem, which provides precision separation of critical metals from sources including e-waste, evaporator scrap, solar panels, and mining ores and concentrates

Twenty-two other startups will participate in the startup showcase. See the full list here.

Greentown Climatetech Summit — Sept. 16 at the Continental Club

Ten Greentown startups will compete for $25,000 in prizes at Greentown Climatetech Summit's signature pitch event. Judges include Dave Dreessen, of Chevron Technology Ventures’ Future Energy Fund, and Jon Greene, of New Climate Ventures. Here's who's pitching:

  • Houston-based AMPeers, which manufactures high-temperature superconducting wire for high-power electrification infrastructure
  • Detroit-based AmHyTech, which enables ambient-condition liquid ammonia handling for fertilizer and fuel applications
  • Houston- and Zurich-based Biosimo, which converts biomass-based ethanol into lower-carbon acetic acid and acetyls
  • Houston-based Capwell Services Inc., which captures methane from low-flow oil and gas vents and returns it to market
  • Cleveland- and Ghana-based Cocoa Potash, which extracts potassium carbonate and fertilizer from cocoa, coconut, and palm-nut waste
  • Houston-based Solidec, which electrolyzes air, water, and electricity into onsite hydrogen peroxide.
  • Houston-based Focis AI, which converts industrial laser scans into a queryable digital twin of refineries and plants
  • Calgary-based Kanin Energy, which develops and finances waste heat to power projects for industrial clients
  • San Francisco-based FelixFusion, which models grid connection points so developers can validate interconnection in minutes
  • Houston-based Pike Robotics, which deploys its Wall-Eye robot to inspect hazardous tanks without taking assets offline

TEX-E Student Innovators will also pitch earlier in the day-long event, and an additional five Greentown startups will compete for $1,000 during the Lightning Pitch Competition. Find more information here.

Rice Alliance Energy Tech Venture Forum — Sept. 17 at Rice University’s Jones Graduate School of Business

Houston-based companies Aquanta Vision, Capwell Services and Deep Anchor Solutions will be joined by startups from around the world to compete to be named one of the 10 Most Promising Companies at the 23rd Energy Tech Venture Forum. Additional companies will participate in office hours.

See the full list of nearly 50 companies pitching here.

Halliburton Labs Pitch Day — Sept. 18 at the Ion

Halliburton Labs Pitch Day brings together a curated group of early‑stage energy technology investors and 16 participating companies. The event is invitation‑only. Here's who's pitching:

  • Australia-based Aquafortus, which has developed a non-thermal liquid to liquid desalination technology for resource recovery from wastewater brine
  • Calgary-based Ayrton Energy, which has developed a proprietary technology that enables hydrogen to be stored within an organic liquid, which can be handled and transported like gasoline
  • Illinois-based Cache Energy, which is developing electrified heat and long-term energy storage
  • New York-based Cella, which is working to advance subsurface mineralization of CO2
  • Miami-based Chemergy, which has developed a patented process to convert wet organic and plastic wastes into green hydrogen
  • Tennessee-based Enexor BioEnergy, which is developing on-site waste-to-bioenergy conversion systems
  • Reno-based Espiku, which focuses on water and minerals recovery from industrially produced water
  • UK-based LiNa Energy, which is developing low-cost, solid-state sodium battery technology
  • Michigan-based Marel Power Solutions, which is developing advanced cooling technology to redefine power-stacks
  • California-based Mitico, which is developing technology to collect and purify carbon dioxide at the source, post-combustion, before it enters the atmosphere
  • Singapore-based Nandina REM, which turns end-of-life assets into new, reliable, high-performance carbon fiber materials for the aviation, aerospace and defense industries
  • California-based Noon Energy, which is developing a 100-plus-hour ultra-long-duration battery storage
  • Silicon Valley-based Proof Energy, which is commercializing next-generation metallic solid oxide fuel cell (M-SOFC) technology.
  • Berkeley-based Sunchem, which provides precision separation of critical metals from sources including e-waste, evaporator scrap, solar panels, and mining ores and concentrates
  • Singapore-based Sungreen, an advanced materials company pioneering nanotechnology-based coatings for high-efficiency, low-cost electrodes
  • Minneapolis-based Syncris, which is developing next-generation modular power systems designed for the most demanding environments
Read more about Houston Energy and Climate Week and its programming in Energy Capital's event preview.

KBR's Mission Technology Solutions spinoff awarded $1.1B NOAA contract

A Big Deal

Amid a major spinoff, Houston-based KBR's Mission Technology Solutions business has been awarded a five-year contract for up to $1.1 billion from NOAA’s National Weather Service to help predict and combat extreme weather conditions.

Under the follow-on Commercial Data Program National Mesonet Program (CDP NMP) contract, KBR will provide weather and observational data from commercial stations, university and research campuses, and other non-federal providers nationwide. The information collected will assist in predicting severe temperatures and high-impact weather conditions like extreme storms.

"This award underscores KBR's proven track record of delivering vital data that strengthens national forecasting capabilities," Todd May, KBR’s senior vice president of Mission Technology Solutions, said in a news release.

According to a separate release from NOAA, the contract expands upon KBR's existing relationship with the agency. KBR will work with about 70 private industry partners on services such as data recording, collection, aggregation and processing, and will lead the CDP NMP's "network of networks."

“NOAA gathers environmental information from a wide variety of sources, and a growing list of private industry partners have joined our agency to collect this vital data,” Ken Graham, director of NOAA’s National Weather Service, said in the release. “This agreement streamlines the process that turns raw data into the gold-standard forecasts that Americans depend on.”

KBR will utilize its Speed to Mission ImpactSM technology for the project to supply data from across regions, measurement types, and system configurations. Both KBR and NOAA say the expanded data collection contract will help the agency create more accurate and timely forecasts, particularly for severe weather and extreme events, while also creating a path for new weather-observation technologies.

KBR has supported the CDP NMP for more than nine years. The program will be managed in Greenbelt, Maryland.

"We're driving expanded integration of commercial sensor and data sources into this platform and are honored to know our work helps forecasters give their communities earlier warnings and more time to prepare for dangerous weather,” May added in a release.

KBR’s Mission Technology Solutions business will be rebranded as Trinzic after its planned spin-off, the company announced last month. The spin-off is expected to close in January 2027.

Trinzic will work as an independent, publicly traded company focused on technology and engineering services for the space and national security sector. KBR will remain a separate publicly traded company that will focus on sustainable technology and services to support the energy transition.

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This article originally appeared on InnovationMap.com.