Answers to Questions on Commercial PV Solar from an Industry Perspective

 

1. What is the business case for commercial PV solar?

Answer: Commercial PV solar is a long term operating cost control and energy risk management asset for a business. It reduces purchased kWh, hedges against future utility rate increases, supports sustainability goals, and creates an owned energy asset with a 25+ year useful life. Financial incentives and depreciation improve the economics of the investment. Each business case is different and, in some cases, it may not work for an organization. 

2. What are the financial benefits of installing solar for a commercial business?

Answer: The main financial benefits are reduced utility energy purchases, potential federal tax credit value (currently sunsetting), depreciation benefits, utility or state incentives (where available), and long term savings by producing electricity onsite. The value depends on load profile, utility rate plan structure, installation cost, tax appetite, incentive availability and financing. It’s not always a good fit for every business. It depends on your situation. 

3. What are the non financial benefits of commercial solar?

Answer: Non financial benefits include sustainability leadership, lower emissions (important when you are in an emission control district), customer and stakeholder goodwill, energy independence, and the ability to prepare for future batteries, EV charging, or an onsite microgrid for resilience. Solar can also help meet corporate Environmental Social Governance, supplier, or public sector CO2 energy reduction goals if they have been set or mandated.

4. How does solar reduce utility electricity costs?

Answer: Solar reduces utility costs by generating electricity onsite that offsets kWh otherwise purchased from the utility. The savings are strongest when solar production lines up with daytime business loads and when exported energy is credited at a favorable rate. When paired with batteries it can further reduce operating costs for utility KW demand fees. Depending on the utility rate plan structure versus the cost of the investment determines if the case for investment should be made.  

5. How does solar reduce exposure to future utility rate increases?

Answer: Each kWh produced by the solar system is a kWh the business does not buy from the utility, so the owner is partially insulated from future energy rate escalation. This hedge is valuable because the solar system cost is largely fixed upfront while utility rates and riders can change over time.

6. What types of businesses benefit most from solar?

Answer: Businesses with high daytime electrical consumption, large roofs or land, long term site control, and the ability to use tax benefits usually benefit most. In some situations, the value of solar shade structures can drive investment i.e. solar covered car parking, diminished water evaporation, agri photovoltaics, etc. Examples include manufacturing, warehouses, cold storage, schools, public facilities, tribal facilities, agricultural operations, and fleet depots.

7. What industries are adopting commercial solar?

Answer: Common adopters include manufacturing, logistics, agriculture, education, healthcare, municipalities, tribal governments, retail centers, water and wastewater facilities, and fleet operators. Adoption is strongest where utility electricity costs are high, site control is long term, and the organization values energy cost predictability, independence and resilience. The biggest driver of adoption is the leadership in an organization. It’s generally a decision of economics, independence, resilience or carbon offset/ reduction. 

8. What are the risks of not installing solar?

Answer: Risks include continued exposure to utility rate increases, missed incentive windows, inability to control a portion of energy costs, and falling behind customer or stakeholder sustainability expectations. Delaying may also reduce access to tax credits, rebates, grants, or favorable interconnection capacity when these are available. In some cases, the risk is minimal, this is especially true if renewables are not an achievable investment whether its due to space, energy load or a financial ROI period based on an organization’s acceptable standards. Each business case is different. 

9. How does solar support sustainability or ESG goals?

Answer: Solar supports sustainability goals by reducing grid electricity purchases and the emissions associated with operations. It also creates measurable data for Environmental Social Governance reporting, including annual kWh production, estimated avoided emissions, and progress toward renewable energy targets.

10. How does solar improve energy independence?

Answer: Solar improves energy independence by allowing a facility to produce part of its electricity onsite. Solar alone generally does not provide backup power during a grid outage unless it is paired with batteries, a generator, transfer equipment, and controls that allow safe islanded operation. Grid connected solar systems (in most cases they are all grid connected) will shut down when there is a utility power grid loss. This is to ensure the solar system does not back feed into the grid. It ensures safety for line workers and allows the utility to more easily address the issue causing the outage. If you want electricity from your solar system during an outage a battery is necessary regardless if it is the day or night. 

11. How is a commercial solar system sized?

Answer: A commercial solar system is sized by reviewing annual and interval load data, available roof/land area, utility rate structure, interconnection limits, export rules, budget, and owner goals. The best size is usually the system that maximizes useful onsite energy value rather than simply maximizing nameplate capacity. Each situation is unique to itself and all of these factors need to be considered to identify if it is appropriate for a business to adopt or not. 

12. How much roof or land area is needed for solar?

Answer: Area depends on module wattage, racking type, access pathways, setbacks, tilt, row spacing, and site constraints. The best answer is identify the overall site load can be offset with the available space and is justified by the investment. 

13. What is the difference between kWdc and kWac?

Answer: kWdc is the direct current nameplate capacity of the PV modules; kWac is the alternating current output capacity of the inverters. The DC size is usually larger than the AC size because modules rarely operate at nameplate output continuously. This is pretty technical and, in most cases, not important to know for a business owner to fully understand. It’s generally conversation for the contractor, engineer and utility but sometimes people ask. 

14. What is the typical DC/AC ratio for commercial solar?

Answer: The DC/AC ratio compares PV module capacity to inverter capacity. Commercial and utility systems often use ratios around 1.2 to 1.4, but the optimal ratio depends on climate, clipping tolerance, inverter cost, interconnection limits, and production goals. It’s another technical conversation among designers and engineers that isn’t relevant to most decision makers but its good to understand what it means if it ever comes up in conversation. 

15. What is the expected annual production from a commercial PV system?

Answer: Expected annual production is estimated with solar modeling software using weather data, module orientation, tilt, shading, losses, inverter capacity, soiling, degradation, and availability. Results are commonly reported as kWh/year and specific yield in kWh/kWdc. The benefit of PV solar is predictability over time. Cloudy or rainy days have an impact on production so does shade or dust build up as well as PV module degradation. All of these need to be considered in the equation for output. In general terms solar production is a long term game and if your self producing then you’re going to see benefit. Solar systems are like any other piece of equipment they diminish in output over time but system maintenance ensures operability and production over time 

16. How does shading affect PV output?

Answer: It absolutely affects output negatively. Trimming trees or vegetation around systems is a must. Designing a system to mitigate or avoid shading is the standard of a good design. 

17. What is the difference between rooftop, carport, and ground-mounted solar?

Answer: Apart from the obvious answers on the structure type if you have a choice then the lowest cost option in order are ground mount, then rooftop and finally carport (shade structure). However, there are benefits to each and depending on budget, goals and intention for revenue (fee to park under shade structure) then the approach for the business for adoption may be different. 

18. How does single axis tracking compare to fixed tilt solar?

Answer: In terms of PV solar output trackers are much more advantageous. Fix tilt ground mounts are becoming less and less the choice for install in large PV installations. Small scale installations will most likely be fixed tilt. The upside to fixed tilt is that O&M costs are much less since trackers have moving parts that wear out or fail. However, the cost benefit analysis of the project opportunity always includes an O&M factor. 

19. What is the useful life of a PV system?

Answer: Commercial PV systems are commonly planned for 25 to 35 years of operation. (I know of and witnessed systems being online producing past +20 years in the field in Arizona) Modules degrade gradually, inverters can fail in time, and some balance of system components (wiring, connections, etc.) may require replacement during the life of the system. In general terms, as long has the installer has best practices in place for design and installation the system will have minimal failures. Maintenance is required for manufacture warranties, longevity and maximum output. There is a difference between PV solar module manufacturers’ quality of equipment and the same is true with inverters. Working with a professional that has years of experience is valuable when choosing good equipment.  

20. How much maintenance does a commercial solar system require?

Answer: A regular schedule is a must. Our service agreements layout a two year site visit schedule to inspect, check tolerances, clean equipment etc. Modern systems having online monitoring portals that provide detailed production output data that allows you to keep an eye on the system. However, you still need to have technicians do site visits to be proactive on maintenance. They use the monitoring data to pinpoint issues on the system which helps reduce time in the field. 

21. What is the current cost per watt for commercial solar?

Answer: Installed cost depends on system size, mounting type, equipment selection, labor, interconnection, civil work, permitting, utility upgrades, and tariffs. Pricing changes especially when we see bottle necks in supply, tariffs or incentives being applied or sunsetting away. In general terms the overall cost of installed renewable energy generation systems continues to decrease. Renewable energy technologies continue to improve in output, availability, technology, lean manufacturing, global adoption and this has benefited the investor. Each situation is different but in general if the cost to install and operate a PV solar system was not feasible or financially advantageous then there wouldn’t be a growing global industry built around the technology. 

22. What is the installed cost of rooftop solar versus ground mount solar?

Answer: It depends on a number of factors that need to be included in a cost analysis to determine the answer. It constantly changes like every other construction project you evaluate as an investment. However, in general terms if you have space a ground mount system typically costs less. 

23. What is the payback period for commercial solar?

Answer: Great question, the answer depends on your situation. A proper ROI analysis include utility rates, degradation, O&M, tax benefits, financing, replacement costs, and escalation assumptions. In general terms, we have answers that support an installation type specific to a rate plan which is specific to a utility. Its not too hard for us to provide an answer but we always look at opportunities on case by case basis. 

24. What is the levelized cost of energy for solar?

Answer: LCOE is the lifetime cost of producing electricity divided by lifetime energy production, usually expressed in $/kWh. It is useful for comparing solar to utility energy costs, but it does not fully capture demand charges, resilience, tax timing, or financing structure. Again, it’s specific to construction costs of the project versus output expectancy of the system. 

25. How do tax credits affect solar ROI?

Answer: Tax credits always improve ROI. The Inflation Reduction Act was full of tax credits created to further incentivize renewable adoption in the US. The One Big Beautiful bill deconstructed those incentives. The result is that adoption will slow versus its previous potential with incentives that would have been in place. However, the industry must adapt to become more efficient, cost effective and creative to continue to grow. The truth is that governments always incentivize energy production. Fossil fuels are much older form of technology that is more firmly established with a +100-year head start and absolute global adoption. The future is a mix of both renewable and non renewable energy generation to power our needs for energy. 

26. How do depreciation benefits affect solar ROI?

Answer: It depends on which accounting practice you use in your calculation. Commercial solar, storage, and charging equipment may qualify for depreciation benefits depending on ownership and tax rules. In PV solar there is a 100% Bonus Deprecation that can be applied to the asset. The value calculation depends on basis, bonus depreciation availability, MACRS classification, taxable income, and tax advisor review of the business financial situation to correctly calculate this.

27. How does utility rate structure affect solar savings?

Answer: Each rate plan is different which makes the opportunity for PV solar different for a system owner. To make PV solar advantageous versus the utility (which may be delivering PV solar generated energy to your meter) the overall cost of the electricity you generate on your system must be less than the current cost you pay to purchase it from a utility. It’s about the lowest cost of energy today at the point in time of installation of the system. In time, over the life of the system the cost to produce energy should continue to be less and increase the cost savings as utility rates typically increase. Utilities sometimes change their rate structures which changes the value proposition of self generation of PV solar. In general terms, utility kWh rates don’t decrease but it is possible. Anything is possible. It’s not likely. 

28. How do demand charges affect solar economics?

Answer: Solar may reduce demand charges if its output coincides with the customer monthly peak, but the reduction is not guaranteed. Batteries are required to significantly reduce demand charges. If loads are constant and predictable then load management is predictable because they can discharge during peak intervals or the most cost effective time frame.

29. What is the expected O&M cost for commercial solar?

Answer: Maintenance includes annual telecom subscription fees (monitoring), visual inspections, vegetation control, inverter service, torque checks, thermal scans, cleaning where justified, and corrective maintenance. A sound O&M plan properly accounts for these and should include a percentage cost increase over time that accounts for inflation. 

30. How does inflation affect long term solar value?

Answer: Inflation in PV solar systems needs to be accounted for like inflation in any other business cost calculation. Typically, its going to be applied to two categories in the calculation for value proposition. First, the cost of assumed utility electricity over time and the cost to maintain the system over time. Historically, we’ve seen the cost of power electronics and PV modules decrease so if there is equipment that needs to be replaced outside of a MFG warranty the historical trend has worked in favor of the asset owner.

31. Is there a cost associated with project evaluation?

Answer: In general terms no but it depends on the project and the level of analysis being performed. If environmental or land studies need to be done, then yes. However, we typically are able to evaluate most projects at no cost and provide answers to clients to help them understand their opportunity. 

How Much Electricity Does It Take To Grow Marijuana? Colorado Cities Are Finding Out

Colorado’s appetite for lighting up requires a lot of lights, it turns out.Licensed marijuana growers traditionally cultivate their products indoors under very bright lights that suck a lot of electricity. With the release of the federal government’s Clean Power Plan looming, cities across the state are working to reduce their carbon footprint. Part of those efforts include persuading grows to reduce their power consumption.

Between 2012 and 2013, the latest data available, electricity use increased by 1.2 percent across the city and county of Denver. Commercial marijuana grows were responsible for nearly half of that uptick.

“We’re very keen to see what is increasing energy use, and to have half of that coming from the grow industry is definitely something we pay attention to,” said Sonrisa Lucero, a strategist for the Denver’s Office of Sustainability.

Denver marijuana grows used just 1.85 percent of the city’s overall electricity in 2013. But any uptick matters because the city set a voluntary goal to prevent total energy consumed from rising past its 2012 use levels. Lucero’s job is to make sure that energy efficiency is top of mind for new residents and businesses.

The city is working with marijuana grow operations to lower their electricity use. Or the industry may sort itself out: A growing number of outdoor and greenhouse grow operations in Colorado are emerging that could make indoor grows obsolete — or at least, less cost effective.

A $12,000 electricity bill

Colorado Harvest Company’s Flower Room No. 1 holds dozens of green plants thriving underneath 22 1,000-watt lamps.

(Nathaniel Minor/CPR News)

To understand just how much energy it takes to grow marijuana indoors, look no further than Colorado Harvest Company’s Flower Room No. 1.The room has dozens of green plants thriving underneath 22 1,000-watt lamps hanging from the ceiling. Each is the size of a small card table. An air-conditioning system prevents the lights from overheating.

“Running a cannabis company with indoor production means that you’re going to use more than your fair share of electricity,” said Tim Cullen, the company’s owner.

Cullen’s monthly electricity bill for the 10,000-square-foot warehouse runs a cool $12,000. Another marijuana grow reports spending nearly twice that amount. Cullen said he’s tried to reduce electricity use by using LED lights currently on the market, but they haven’t produced the results he needs.

“We just can’t suffer the losses of having a lower energy bill, but then not producing flowers,” he said.

Tim Cullen, the owner of the Colorado Harvest Company, stands in his grow facility in Denver on Wednesday, July 8, 2015.

(Nathaniel Minor/CPR News)

New LED technology under production could change this picture. But Cullen isn’t waiting for that to happen. Instead he’s building a greenhouse in Denver to commercially grow marijuana. From start to finish, the planning and construction is expected to take about six months.

Greenhouses blooming in Pueblo

Denver has about four commercial marijuana grow greenhouses. But Pueblo is leading the charge in the state, with 16 and counting. Some are small, but others cover as many as 50 acres.

Chris Markuson, director of economic development and GIS for Pueblo County, said shifting priorities are changing how and where marijuana is grown.

“At first the assumption was that the grow operations had to be tightly secured and hidden from public view,” he said. “Because the temperament of the community–and the society as a whole–has come around a little bit, the grow operations are not really seen with negative light. At least they’re not in Pueblo.”

It helps that Pueblo has marketed itself as a business-friendly lower-cost location to cultivate marijuana.

With about 30 marijuana grow businesses overall, Markuson said the majority are using “Pueblo sunshine” to grow product.

Energy use in the area is evolving with the industry. According to Black Hills Energy, which provides power to the city of Pueblo and parts of Pueblo County, 10 grow facilities used 2.1 million kWh in 2014. That’s 0.1 percent of the energy that Black Hills delivered to its Pueblo coverage area.

Laying the groundwork

As the marijuana industry evolves, Colorado cities are deciding how–or if–they want to manage the growing energy demands from the industry.

Denver isn’t considering regulations for the marijuana industry, but pushing LED lights to grows. In Boulder, the city and county are setting measures to require businesses offset their electricity use via subscription of renewable energy credits — things like community solar garden memberships.

Xcel is reportedly working with marijuana growers to update lighting so they’re as energy efficient as possible.

The attempts by utilities and cities fit into a larger movement under way right now, said Howard Geller with Boulder-based Southwest Energy Efficiency Project.

“We can have that economic growth without electricity use increasing,” he said. “That’s going to be beneficial economically and that will help us achieve our environmental goals.”

Denver and Boulder’s work with marijuana and other businesses could be a good warm-up lap for what’s to come. The Clean Power Plan rule, expected to be finalized later this summer, will put even more pressure on states to reduce carbon emissions. Some of that reduction will come from changing where our power comes from. But Geller expects another significant portion to come from things like switching out the lightbulbs.

“Energy efficiency is a strategy that can be implemented very quickly in terms of ramping up rebate and financing programs, education efforts,” said Geller. “Whereas building new power plants–or retrofitting old power plants–that kind of initiative will take years to implement.”

This article was originally published on July 10 2015 by BY GRACE HOOD of Colorado Public Radio

Combining Solar Panels With Agriculture Makes Land More Productive

Solar panels are wonderful things, but they do take up a lot of space, especially for larger, utility-scale systems. In some densely populated countries like China and India, where loss of farmland can lead to hungry people, floating solar farms are being built to take advantage of the surface area of lakes and rivers. Researchers at the Fraunhofer Institute For Solar Energy Systems have conducted an experiment near Lake Constance — which borders Germany, Lichtenstein, and Switzerland — regarding another solution.

solar panels and crops

According to a Fraunhofer press release, the experiment involves 720 bi-facial solar panels covering about a third of a hectare of agricultural land (on the Demeter farm cooperative Heggelbach). The panels are mounted high enough to allow the crops planted below to receive almost as much sunshine as they would if the panels were not there and to permit farm machinery to operate beneath them. After a year of trials, the research showed the dual use system increased the total productivity of the land by 60%.

© Photo Hofgemeinschaft Heggelbach

Fraunhofer refers to the dual use system as “agrophotovoltaics,” or APV. “APV has the potential to open up new space that is urgently needed for the PV expansion in Germany, says professor Hans-Martin Henning, the director of Fraunhofer ISE. “At the same time, APV can mitigate the conflicting interests between agriculture and open space PV systems for viable land. Before market readiness, however, other sectors and differently sized systems still must be tested. Also, the technical integration must be further advanced, for example, the implementation of storage.”

The first crops tested were winter wheat, potatoes, celeriac, and clover grass. “The crop yield of clover grass under the PV array was only 5.3 percent less than the reference plot,” reports professor Petera Högy, an agricultural expert at the University of Hohenheim. The yield for potatoes, wheat and celeriac were about 19 percent less.

“From the perspective of agricultural science, agrophotovoltaics is a promising solution for increasing both the land use efficiency and the share of renewable energy provided by the agricultural sector,” says professor Iris Lewandowski, who heads up the department of biobased products and energy crops at the University of Hohenheim.

The 194 kilowatt solar installation generated 1266 kilowatt-hours of electricity per installed kilowatt, one third more than the average value of 950 kilowatt-hours per kilowatt in Germany. 40% of the power produced was used to charge the batteries of the electric farm equipment and harvest crops. The team believes 70% of the energy could be utilized if a storage battery was included in the system. Any excess electricity was sold to Elektrizitätswerke Schönau, an electric utility company that uses 100% renewable energy and is a partner in the project.

“In order to provide the necessary proof-of-concept before market entry, we need to compare further techno-economical applications of APV, demonstrate the transferability to other regional areas and also realize larger systems,” says project manager Stephan Schindele. Experiments involving solar in combination with fruits, berries, hops, and grapes are planned for the future, along with various technologies such as energy storage, special films with organic solar cells, and solar PV water treatment systems.

While more research is needed, the initial results indicate that APV is a significant step forward for solar power in agricultural settings.

This article was originally published on November 24th, 2017 by   https://cleantechnica.com/

RENEWABLE ENERGY: SMART GREENHOUSES GENERATE SOLAR POWER AND GROW CROPS AT THE SAME TIME

Tomatoes and cucumbers appear to grow just fine—and just as healthily—in smart, solar-powered greenhouses that capture solar energy for electricity.

Scientists from the University of California, Santa Cruz, have shown how crops can grow as healthily in these new greenhouses as they do in conventional greenhouses.

“We have demonstrated that ‘smart greenhouses’ can capture solar energy for electricity without reducing plant growth, which is pretty exciting,” Michael Loik, professor of environmental studies at UCSC, said in a press release. Loik is the lead author for the paper, published in the American Geophysical Union’s journal Earth’s Future. 

Solar Power Trapped by a Red Roof

Bright magenta panels cover the tops of the greenhouses, soaking up sunlight and transferring the energy to photovoltaic strips. From there, electricity is produced.

The greenhouses are able to take sunlight for energy and leave the rest, allowing plants to grow using a technology called Wavelength-Selective Photovoltaic Systems (WSPVs). The technology, developed by co-authors Sue Carter and Glenn Alers, is less expensive and more efficient than traditional photovoltaic systems.

The team tested the growth and fruit production across 20 varieties of tomatoes, cucumbers, lemons, limes, peppers, strawberries and basil at two locations at the Santa Cruz campus and one in Watsonville, California. Scientists reported that 80 percent of the plants were unaffected by the slightly darker lighting from the magenta panels, and 20 percent of the crops grew better. Tomato plants needed 5 percent less water under the magenta panels.

Reducing the energy used in greenhouses is crucial since the use of greenhouses to grow food has increased by sixfold in the past 20 years, according to Loik.

Solar-powered greenhouses are one of several developments for new ways of farming in recent years.

loik-greenhouse-320
Plants grown in the smart greenhouse were just as good as plants grown in conventional greenhouses. NICK GONZALES

Smart Greenhouse Detects Infestations

Another company, NatureSweet, has outfitted its greenhouses in Arizona with artificial intelligence, reported CNN. The plants are monitored with 10 cameras installed in the greenhouse ceilings which continuously take photographs to detect insect infestations or dying plants.

The software, developed by a company called Prospera, recognizes those problem spots and sends feedback 24/7. Previously, reported CNN, NatureSweet’s employees walked through the greenhouse in order to spot issues with the plants.

Green roofs are another method of growing food in an attempt to utilize space and close gaps in access to foods in urban areas.

In Washington, D.C., Up Top Acres has opened five urban farms on the rooftops of buildings since 2015, reported Washington City PaperGreen roofs improve storm-water collection, habitat protection and energy preservation, in addition to providing food. The company’s co-founder, Kathleen O’Keefe, told the paper that the company may not produce enough food for the city, but green roofs can change the way people think about food, in addition to utilizing unused space.

This article was originally published by BY  

 

Solar powered aquaponic greenhouses grow up to 880 lbs of produce each year

Fresh produce – ideally grown locally right in your backyard – is essential to a healthy diet, but with scores of people either lacking the space, time, or knowledge to cultivate their own food, for many that ideal simply isn’t attainable. Enter French company Myfood. They aim to bring food production back home, and they’re doing it with smart solar aquaponic greenhouses. These groundbreaking greenhouses, which are small enough to fit in a yard or even a city balcony, can produce 660 to 880 pounds of vegetables every year.

Myfood is pursuing the vision that everyone should be able to grow their own produce locally. To that end, they’ve come up with small family greenhouses powered by the sun that can function off-grid. Their Family22 greenhouse is 22 square meters, or around 237 square feet, and comes complete with solar panels and a rainwater collection system. Their model City offers a smaller option for those residing in busy metropolises – it’s just 38 square feet. Both models can be installed above ground, making them suitable for backyards or rooftops.

Related: The Sunbubble greenhouse is a mini Eden for your backyard

Inside the greenhouse, fish swimming around the base of vertical towers fertilize the vegetables growing – no synthetic fertilizers or pesticides needed. Inspired by permaculture, the team also developed raised beds that can surround the greenhouse for added food production. Ultimately, after several months, the beds become self-fertile.

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The greenhouses are intended for everyone from seasoned gardeners to people with zero gardening experience. Often one barrier that stands in the way of home food production is a lack of knowledge, so Myfood makes it easy for anyone to get started growing their own food through their smart structures designed to control the climate to guarantee success, according to Myfood. The team’s app enables families to remotely monitor the greenhouse.

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Myfood co-founder Mickaël Gandecki said, “The production of fresh and natural food, close to the consumer, offers a response to the environmental impact and lack of transparency of intensive, industrial agriculture.”

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Myfood recently unveiled what they described as the first European line of smart aquaponicgreenhouses at the Paris International Agricultural Show 2017 during February 25 through March 5.

In France and Benelux, a City model costs around $4,820 and the Family22 around $8,577. Those figures include installation, delivery, and tax. Outside the European Union costs are slightly different; not including installation, delivery or tax, the City is around $3,569 and the Family22 is around $6,432. You can find out more on their website here.

 

This article was originally published by