Switching to EV commercial vehicles and investing in EV charging infrastructure can save money and reduce Scope 1, Scope 2, and even Scope 3 greenhouse gas emissions.
The first step to reducing greenhouse gas (GHG) emissions is measuring how much greenhouse gases we currently emit. In the US, the Environmental Protection Agency (EPA) developed the Greenhouse Gas Reporting Program (GHGRP) in 2009 to do just that. Since then, it has surveyed major GHG emitters, including thousands of industrial facilities and suppliers of fossil fuels and other gases. US policymakers, environmental groups, the media, and scientists use the data to analyze and project global warming. Unless your company is a major industrial manufacturer or fossil fuel provider, you won’t have to participate in the GHGRP.
Still, you may be looking for ways to reduce your organization’s carbon footprint. The GHGRP program offers guidance for doing just that. This article explores the GHGRP and the ways you can reduce your organization’s carbon footprint—including transitioning from fossil fuel vehicles to electric vehicles.
If a facility emits more than 25,000 metric tons of CO2 per year, it must record and report those emissions to the EPA through the GHGRP. About 7,600 facilities currently report to the GHGRP. Combined, they emit 3 billion metric tons of CO2 per year, which is about 50 percent of total US GHG emissions. The EPA tracks another 1,000 fossil fuel suppliers. The EPA estimates that the GHGRP collects data on 85-90 percent of all US GHG emissions. The EPA has a list of industrial operations covered by the GHRP here. The EPA tracks total US GHG emissions in the US Greenhouse Gas Inventory.
According to the EPA, most office-based businesses, small businesses, and public institutions are relatively low GHG emitters. Most of their GHG emissions will come from electricity and vehicle usage. Small manufacturers will also have emissions related to refrigerants and other waste gases. The EPA has three categories for emissions:
Scope 1: Direct emissions from onsite combustion and mobile sources
Scope 2: Indirect emissions from purchased electricity and steam
Scope 3: Optional emissions–examples include product transport, employee business travel, and employed commuting.
The EPA offers guidance for identifying and measuring Scope 1 and Scope 2 emissions. Again, Scope 1 emissions include emissions from directly burning fossil fuels and other things like wood, yard waste, paper, etc. Scope 1 emissions also include any natural gas that may leak from pipes or tanks. Finally, Scope 1 emissions include emissions from any vehicles owned by the organization.
You can eliminate Scope 1 vehicle emissions by switching to electric vehicles (EVs). EVs emit no CO2 and can be charged with power generated with renewable energy sources like solar, wind, and geothermal. There are many other advantages to transitioning your fleet to electric. Electric vans, trucks, and cars can have a lower total cost of ownership (TCO) than their fossil fuel-powered counterparts. According to a recent study by US electric power utility PG&E, a fleet of 20 medium-duty diesel-powered delivery vans will cost approximately $4.14 million over 10 years of ownership. The TCO for an electric fleet of 20 medium-duty delivery vans over 10 years is just $2.76 million. EV fleets also give organizations the opportunity to control transportation energy/fuel costs more tightly. It’s easier to estimate the cost of electricity than it is to estimate the fluctuating price of oil and diesel fuel.
EVs are much less expensive to own and operate over time thanks to the low cost of electricity and mechanical maintenance when compared to diesel vehicles makes. There are also many tax and other government incentives for commercial EVs and EV charging infrastructure. In the US, there are significant tax breaks and funding available to businesses that want to electrify their fleet. The recently passed US Inflation Reduction Act (IRA) provides nearly $370 billion to help combat climate change. Incentives include:
The National Electric Vehicle Infrastructure (NEVI) formula program also provides $5 billion for DC fast charging sites. These funds are available now and some states have already started rolling out their NEVI programs.
Scope 2 emissions are generated by electricity production. If your organization purchases electricity generated by burning coal, Scope 2 emissions will be higher than if it purchases electricity from renewable energy sources. Many organizations don’t have a lot of choice when it comes to purchasing electricity—they usually must use electricity from whichever energy sources are available. But some utility companies offer the option to purchase all or a percentage of your electricity from renewable sources like solar or wind. Contact your local utility to determine if your organization can purchase energy from renewable sources. The EPA also offers advice for how to decrease Scope 2 emissions.
Scope 3 emissions come from any activities or assets not owned by your organization but are nonetheless the result of your organization’s activities. They include things like materials or product deliveries, business travel, and even employee commuting. Scope 3 emissions are also called value chain emissions and they often account for the majority of an organization’s GHG emissions.
The EPA has split Scope 3 emissions into 15 categories:
The EPA has more information about these categories and how to account for them here.
There are many ways that EVs can reduce Scope 3 emissions. Installing DC fast chargers at your office or facility can encourage employees to make the switch to electric, further reducing Scope 3 emissions. Organizations can also work with partners and suppliers to offer incentives to electrify delivery and other commercial vehicles. For example, a company may not own and operate the delivery vehicles for its product, but it can install DC fast chargers at distribution centers to encourage transport partners to electrify their fleets. Again, electricity prices can be more stable than diesel fuel prices, which lets organizations and their transportation partners plan more effectively.
To learn more about how EV commercial vehicles and DC fast charging infrastructure can save your organization money and cut GHG emissions, contact one of our experts today.
Not all EV chargers are equal. Like EVs, they come in many different configurations and offer different features. Whether you’re shopping for a personal electric vehicle or you’re thinking about electrifying your fleet, sorting it all out can be a chore. Here we’ll briefly explain the different types of chargers, how they work, and what it all means for people who use their EVs for at home or for business.
To make sense of EV chargers, the EV industry created three “levels” of charging that roughly correlate to charging power and speed—level 1 being the lowest power/slowest speed. This gives us a straightforward way to categorize and organize EV chargers.
Level 1 charging is the slowest and most accessible form of charging. It uses the standard home wall outlet (120v in US, 220v in EU) and your EV’s onboard charging hardware to charge your EV’s batteries. Level 1 charging usually delivers around 3-5 miles (5-8 km) of range per hour of charging. Not great, but if you leave your EV plugged in overnight you’ll probably have enough power to get to work in the morning. On the other hand, if you’re going on a road trip, it could take more than 30 hours to get 105 miles (169 km) of range. Level 1 charging is slow, but it’s cheap—the equipment comes with your EV and all you really need is an extension cord. If you have a short commute or work from home, you may not need more than level 1 charging.
But if you have a longer commute, or if you can’t wait a few days to fully charge your EV, you’ll need something faster. And if you’re running a fleet, level 1 charging won’t delivery anywhere near the power you need.
Level 2 is the fastest way to charge your vehicle at home. It uses the 240v power lines in your home that are dedicated to high-power appliances like clothes dryers, electric ovens, or central air conditioners. These higher-voltage lines provide more current (amperage) than a standard wall outlet, which means you can charge your EV faster. A level 2 charger can fully charge most passenger EVs in 8-10 hours, which is about three times as fast as a level 1 charger.
Depending on your home, you may need to have an electrician install a second 240-volt power outlet with its own circuit breaker to use a level 2 charger. Some chargers need to be hard wired into your home’s electrical system by a certified electrician and may also require a separate circuit breaker. Many can be used without a dedicated circuit breaker at lower charging levels. It’s also possible to use your existing clothes dryer outlet, swapping out the dryer’s plug for your charger’s when you need to. But before you use any level 2 charger, it’s a good idea to have an electrician inspect your home’s electrical system to make sure it can handle the power draw. High-power chargers and appliances can overload your home’s wiring, causing blown circuit breakers or even fires.
Level 2 charging may work great at home, but it won’t deliver enough power for businesses or fleets. They require more power to charge batteries much faster.
Level 3 charging doesn’t really exist as a category—it’s just a convenient way to categorize everything faster than level 2 charging. When a company or publication mentions level 3 charging, they mean DC fast charging.
Direct current (DC) fast charging is the fastest way to charge up your EV. Lithium-ion batteries store and release DC power, and there’s no way to charge them without first transforming the alternating current (AC) power in the electrical grid to DC power. Level 2 home chargers can only handle so much power. Commercial DC fast chargers connect directly to high-voltage AC power lines and have dedicated infrastructure for transforming it into DC power. Because of this, they can deliver much more power than level 2 home chargers. DC fast chargers can typically charge an EV from 20 to 80 percent in as little as 15 minutes. They are perfect for highways, retail environments, delivery vehicles, and even electrical industrial equipment.
DC fast chargers like our PKM150 are a quick and convenient way for EV drivers to charge up while they’re shopping, taking a road trip, or even grabbing a bite to eat. They will also be essential to “last-mile” delivery EVs that deliver goods from local warehouses to homes and businesses. Walmart and Amazon have both purchased electric delivery vehicles for last-mile delivery and they plan to purchase more in the coming years.
For a deeper dive into how DC fast chargers work, read our article here.
Expect to see more DC fast chargers at shopping centers, restaurants, rest stops, gas stations, and even convenience stores. Unlike gas stations, they can be purchased and installed by any business who has the space to install them. Modular chargers like our PKM and RTM series can be purchased and installed in “base” configurations and then upgraded over time to meet increased demand. According to a recent BNEF report, the world will need approximately 290 million more electric vehicle (EV) charging points by 2040 to keep up with the growing global EV fleet. The U.S EV market alone is projected to grow from $28.24 billion in 2021 to $137.43 billion in 2028.
If you’re interested in installing a DC fast charger for your business, contact a member of our sales team today:
Filling up your car with gas is straightforward: Liquid gasoline flows out of the pump and into the tank. The flow rate is linear, meaning the amount of gas flowing out of the pump stays the same over time. You’d be surprised if the pump blasted 10 gallons of gas into the tank in the first few minutes, then took 30 minutes to fill up the rest. However, electric vehicle (EV) charging is non-linear, meaning the rate of energy flow from the charger to your car’s battery is not constant.
Lithium-ion batteries are far more complex and delicate than a simple gas tank. Charge them too quickly and they can get too hot or even be damaged. Overcharge them and they’ll be damaged. Let them sit without charging or discharging and they’ll lose capacity. To prolong battery life, EV manufacturers develop charging routines, or “curves,” to manage the charging process in the most optimal way and retain capacity over time. Now let’s learn why lithium-based batteries need charging curves and how EV makers and charger makers work together to deliver them.
Very simply put, lithium-ion batteries store and release energy via a chemical reaction. During this reaction, lithium ions move from one electrode to the other through an electrolyte, either shedding or gaining electrons along the way. Run a current of electricity through the battery and it “charges.” Connect the terminals to a circuit and they discharge.
Charging and discharging lithium-ion batteries generates heat, and excessive heat can reduce long term battery life. Fast charging lithium-ion batteries is a delicate balance between speed and heat. Charge them too quickly and they’ll overheat. To keep batteries cool while charging them quickly, auto manufactures vary the amount of charge over time. Typically, fast charging has two phases, a constant current phase and a constant voltage or “topping charge” phase. During the constant current phase, the battery charges as fast as it can without overheating. You may have noticed that many EV manufacturers say their cars can fast charge from 20 to 80 percent in a short amount of time. That’s the constant current phase, which is the fastest in the charging cycle. After the constant current phase, the charger moves into the constant voltage phase, which is slower. Charging the EV battery from 80 to 90 percent may take as long as charging it from 40 to 80 percent. As the battery nears full charge, it’s critical to make sure it doesn’t overheat, thus charging is slower.
Every EV has its own unique charging curve. When you plug your EV into a DC fast charger, it tells the charger how it needs to be charged. Your car constantly communicates with the charger, relaying information about the battery’s current state of charge. This communication is key to maintaining battery temperature during charging, and the overall health and longevity of your car’s lithium-ion battery. Tritium chargers use multiple communication standards to communicate with cars, including DIN SPEC 70121, ISO 15118, and CHAdeMO. Different cars use different standards, but manufacturers are working to create a more universal experience through a standard called Plug & Charge.
With Plug & Charge, there’s no need to enter payment information. Payment and/or charging network membership info is stored onboard in the car and is transmitted securely to the charger instantly. The system uses cryptographic tools to secure communications between the vehicle and the charging station, protecting the driver’s personal information, the vehicle’s systems that are “touched” during the charging process, and the charger itself from malicious attacks during the charging process. Plug & Charge will make charging up your EV much faster, easier, and more convenient.
The power grid runs on alternating current (AC), but EVs use direct current (DC). Direct current does what it says: Flows in one direction directly. Alternating current flows in alternating directions, flip-flopping from one to the other, 50 or 60 times per second. AC is great for transmitting power over long distances, but it can’t be stored in a battery. To charge a battery, AC power needs to be changed into DC power. DC fast charger systems use something called a rectifier to transform AC power into DC power for charging. Rectifiers essentially redirect alternating current into a single-direction of flow—direct current. That DC current flows into the DC charger, which ensures the EV receives the right amount of power when it needs it.
If you’re considering an EV, you might want a home charger. To learn more about different charger types, check out our article on different levels of charging.
If you’re a business owner who’s interested in installing a DC fast charger, contact one of our experts today:
In November 2021, President Biden signed the Infrastructure Investment and Jobs Act (Bipartisan Infrastructure Law), which provides $1.2 trillion for roads, bridges, mass transit, and other projects through 2026. The National Electric Vehicle Infrastructure (NEVI) Formula Program is part of that bill and provides $5 billion in funding for direct current (DC) fast charging sites. NEVI aims to establish a coast-to-coast charging network in the US. It supercharges America’s transition to electric vehicles and the EV charging industry in general.
US states will receive NEVI funds to purchase chargers and their related infrastructure. But there are some requirements and additional incentives involved. If you’d like expert advice about NEVI-compliance, reach out to one of our experts.
The Federal Highway Administration (FHWA) and US Department of Transportation have proposed regulations for NEVI-funded charging sites. These requirements cover everything from installation to data connections. The full list can be found on the US government website here, but here are some of the most important requirements:
Once a state has constructed the required number of chargers on designated Alternative Fuel Corridors, it can fund charging sites on other highways and within cities with any funds remaining. They can also add more chargers to existing sites to increase capacity and reliability. The federal government will cover up to 80 percent of project costs—the remaining must be funded privately or by the state.
Altogether, the vast network of charging sites will be able to charge millions of EVs and help move the US to a cleaner, electrified future. “A century ago, America ushered in the modern automotive era; now America must lead the electric vehicle revolution,” said US Department of Transportation Secretary Pete Buttigieg at a press event. “The President’s Bipartisan Infrastructure Law will help us win the EV race by working with states, labor, and the private sector to deploy a historic nationwide charging network that will make EV charging accessible for more Americans.”
According to consulting firm The Brattle Group, there could be as many as 35 million EVs in the US by 2030, and those vehicles will need up to 2 million public chargers. NEVI will give states the funds to purchase and install those chargers, but it’s up to the EV charging industry to build and install them.
Tritium is opening a manufacturing facility in Tennessee that is expected to be capable of producing more than 10,000 DC fast chargers per year, with the potential to produce about 30,000 units per year at peak capacity. The facility will employ more than 500 people over the next five years and chargers produced in the facility should meet FWHA Buy America requirements starting in the first quarter of 2023.
Tritium’s current NEVI solution consists of four PKM150 150kW chargers with two power rectifier units. The chargers deliver 150kW of power to four EVs simultaneously through a reliable, easily upgradeable on-site charging infrastructure.
Thanks to multiple chargers and power rectifier units, the Tritium NEVI solution provides backup charging power for higher reliability and site uptime.
Many US states will start receiving NEVI funds in Q4 2022 and they’ll be looking for NEVI-compliant charging solutions. Whether you’re a state agency, EV charger reseller, charger installer, or charging site planner, you’ll need help navigating NEVI requirements. Reach out to our experts to learn more about building and deploying NEVI-compliant DC fast charging sites.
The Inflation Reduction Act (IRA) is a law that provides nearly $370 billion in climate change investments to help reduce carbon emissions by 40 percent by 2030. It provides significant tax breaks for businesses that purchase new medium and heavy-duty electric vehicles (EVs) and new chargers.
The IRA tax credits will start after December 31, 2022, and end after December 31, 2032. Businesses can use the credits after receiving other grants or rebates like NEVI funding. These credits, along with many other grants and programs, make electrifying your fleet in the US more affordable than ever.
The Clean Commercial Vehicle Credit lets businesses claim up to 30 percent of the difference between the cost of a clean vehicle and its gas-powered counterpart (up to $40,000) for a medium or heavy-duty commercial EV that weighs more than 14,000 pounds. If a vehicle weighs less than 14,000 pounds, business can claim up to $7,500 per vehicle. There are no income limits on eligibility for the tax credit and the vehicles businesses purchase don’t have to be made or assembled in North America. Businesses cannot sell the tax credits to anyone or any company (like a dealer) for cash.
The Alternative Fuel Vehicle Refueling Property Credit is a general business tax credit for any company that installs EV chargers, including direct current (DC) fast charging stations. It will offset up to 30 percent of the total costs of purchase and installation of charging equipment, up to $100,000 per charger. Businesses cannot use the credit to offset expenses related to permitting and inspection.
Companies can only use the Alternative Fuel Vehicle Refueling Property Credit for chargers installed in a census area where the poverty rate is at least 20 percent or where the median family income in the area is equal to or less than 80 percent of the statewide median family income.
Businesses can apply the tax credit after receiving other EV grants or rebates, but only to the charger costs not covered by those grants or rebates. Resellers may claim this credit even if they’re selling charging equipment to a tax-exempt organization (nonprofit), government organization, or foreign entity (state or local government/tribes), but they must disclose in writing the amount of the credit. Tritium chargers, including the RT50, RTM75, PKM150, and RT175-S, qualify for the Alternative Refueling Credit.
This is a 10-year extension of the well-known $7,500 Clean Vehicle Credit, but it has been revised. Now it is split into two parts:
There is an income limit for the new Clean Vehicle Credit of $150,000 per year for an individual and $300,000 per year for a household, and the credit will be applied at dealerships during purchase. There are also limits on vehicle price: SUVs, pickups, and vans are limited to $80,000 and all other vehicles are limited to $55,000.
Last, but not least, the law will eliminate the cap on the number of vehicles that can be sold per automaker. The limit was 200,000 EVs per manufacturer, which made Tesla, General Motors, and Toyota EVs ineligible to receive the tax credit. Now you’ll be able to apply the Clean Vehicle Credit to EVs from those automakers.
This is another new tax credit for people who purchase used EVs. It’s worth $4,000 or 30 percent of the vehicle sale price (whichever is lower), and the credit will be applied at dealerships during purchase. There is a $75,000-per-year income limit for individuals and a $150,000-per-year income limit per household. The used EVs purchased must weigh less than 14,000 pounds and have a sale price of less than $25,000. The used EV must be at least two years old when you purchase the vehicle. For example, if you purchase a used EV in 2023, it must be a 2021 or earlier model year. It can be used for fuel cell vehicles and plug-in hybrids and the vehicles are not subject to the same sourcing requirements as new EVs.
There are many more US government incentives, grants, and programs to help you transition to EVs. Contact Tritium today to learn more about how to take advantage of them.