Electric Hypersport Racing, Inc.

Electric Hypersport Racing, Inc. We are setting up a store front in Missoula, MT where we provide specialty fluids such as pro stock o Once we have a storefront in Missoula, MT.

In order to get a custom conversion started all you need to do is put a deposit of $7,800 down to get it started. The total cost of the build will be dependent on what you want for range and performance. Updates:

We will have an online store fully stocked and operational soon. we will be oping the performance and EV auto parts store with a physical location people can come and visit us. Right now

we are working with Lockwood Electromotive in Seeley Lake, MT which is a full shop/machine shop where we currently build our conversions. We are actively seeking a local shop/service center in Missoula, MT. so we can bring our operations together providing EV & hybrid services more available to people in Missoula area. With all of the changes we are needing to remake our website. as soon as that is completed we will bring the site live and also attach the site to our page. For our page we will start showing some of the builds we have been working on and some of the repairs we have also encountered and start sharing more interesting content with you all. If there is any specific content you all would like to see please let us know so we can improve our page for everyone.

Hello everyone! My name is Michael and I am working with a company called Carma Cars and together we will take their suc...
01/30/2022

Hello everyone! My name is Michael and I am working with a company called Carma Cars and together we will take their successful road legal race car the Carma Wolf and we will be offering a standard gas, hybrid, and all-electric version of this car. There are two (ICE) cars in existence that has been tested rigorously over the last decade and are still in use on the racetrack and still wining races.

My main question is what would you pay for this car as a hybrid, EV, and standard ICE?

What would it take for you to put a refundable deposit on a new unit? We are building these in lots of 10 units at a time.

Snap shot overview of the (ICE) Carma Wolf:
GVWR: 1700 pounds without a driver and fuel.
Power: 600 HP
Torque: 550 lb-ft TQ
Engine: 2.1L 4 cylinder
Racing body: NASA Pro Racing Super Unlimited. https://supertouring.nasaseries.com/

01/16/2022

If you love cars, racing and/or badass women go follow this woman on IG! She's a mechanic turned racecar driver and looking to gain more of a following for a big competition she's in.

Auto History time:Owen-Magnetic M-25 Touring CarOne of the oldest and rarest hybrid vehicles were designed in the 1890’s...
11/18/2021

Auto History time:
Owen-Magnetic M-25 Touring Car

One of the oldest and rarest hybrid vehicles were designed in the 1890’s and brought to production by an American company in 1915. These 100-year-old hybrids are not only one of the oldest electric hybrids ever made but uses the same transmission technology that was used in a USN battleship! It was also one of the first known hybrid electric vehicles that was successful and well-known. Despite all the backing of major corporations and the success the Owen Magnetic Motor Company they experienced a rapid decline after 6 years and they failed in 1921. To look at the rapid decline of the we need to look at the history of the car and the technological constraints of the time and what was beginning to happen in the world.
Electric vehicles are nothing new and have been around since the 1830’s and General Electric Company even owned a few of these EV companies. Owen Magnetic owes its success to a well-established and successful electrical engineer who is considered one of Americas greatest inventors. He made the first electric dynamos for the Navy and was chief engineer for Edison Machine Company. Later on, he would go on and work for GE so who is this inventor and engineer? Mr. Justin B. Entz. He invented the Entz electromagnetic transmission which would become one the first of its kind, be in one battleship, be in hundreds of vehicles and eventually a transmission based off of this would be used in locomotives. The patent was originally meant for ships and then shortly after they realized they could adapt for an electric vehicle.

One of the great challenges of Mr. Entz’ time, that he wished to solve, was the drivability, driving strain and the ability to have a transmission that can shift and transmit power smoothly and up to this point in history vehicles were dirty, unreliable, and not easy to drive. He previously approached a company where he licensed his technology but would never see a royalty payment at which point Mr. Entz would be fairly desperate and had approached the Owen brothers who would ultimately gain interest in this new vehicle. Though Mr. Entz was successful in designing his electric transmission he did not wish to build the vehicles himself. Mr. Entz approached the Owen brothers to build a prototype that uses the Entz transmission which is a simple and unique method of apply the driving power gradually and easily with a smooth transition to obtain multiple speeds.

In early 1900’s the Owen brothers decided to take over the project where they would spend a great deal of time adapting the patents and system to work well in an automobile. Prior to Owen Magnetic the Owens built coaches and carried over some of their core values and principles. The Owen brothers put together several well-qualified teams of engineers, vehicles, coach builders and eventually a fully operational manufacturing facility. In addition to this, they were the number one EV builder in the world at the time, had their facility provided by Baker Electric, backed by GE with a large amount of capital along with celebrity endorsements.

They would make Owen Magnetic a pioneering company and brand that built series hybrid electric luxury vehicles in a form of a roadster and a seven-seater touring car that were made famous for their use of their electromagnetic transmission. These vehicles were produced with a certain level of exclusiveness by building a limited number of vehicles with the highest quality possible through the whole vehicle without compromise along with being full of fashion and style.
When Owen Magnetic approached General Electric Company they determined that the electric transmission was better than anything else out on the market at that time and would prove to be very reliable and strong going up steep hills or enduring some of the harshest stress tests. Owen Magnetic also provided a way for GE to stay relevant in the changing markets.
With the new capital infusion from GE, GE would own a majority share in Owen Magnetic and also secured an exclusivity contract for GE to produce the electrical components that went into the Owen Magnetic vehicles. By this point in history GE had a lot of experience with manufacturing in general but also with building EVs and hybrids as they had a hybrid locomotive in the 1890s. GE also owned a few EV companies and with the backing from GE, Baker Electric Car Company would produce the cars chassis and engine, Rauch and Lang would build the coachwork in their existing body shop, and Raymond Owen would be director of sales. This was very beneficial to Owen because they did not have a facility that could accommodate their demand and even by the time the Baker facility was operational with producing the Owen’s vehicles the demand had already surpassed their production capabilities, but now they had the means to mass produce their vehicle.

It would take a great deal of time and effort to adapt the Entz to an automobile. In order to control the speed of the vehicle today we use the accelerator pedal but at this time many accelerators came in the form of a lever on the steering wheel or the steering column. Depending on the position of the lever determined your gear and speed output. A downside to their design; however, was there was no on-board battery pack. You made your power that you used on demand.

The Owen Magnetic was first used in the USS New Mexico and then from 1915-1922 it was being used for vehicle production. They were introduced in 1915 at the New York Auto Show when Mr. Entz’ electric transmission was adapted to the Owen Magnetic vehicles.

“Owen Magnetic found favor wherever people could afford them, as with government agencies and celebrities like Enrico Caruso. Riding in an Owen Magnetic was more like travel in a diesel-electric locomotive or today's continuously variable transmissions, rather than a car. Engine RPM built to a set point and then leveled off, while the vehicle continued to accelerate as the relative intensity of the generator motor field changed. It's quiet, smooth, and uncanny, with 60 MPH available. Engage neutral, and the clutch is cut out, but the motor remains connected and becomes an electric brake and charger. Hill holding up to 20 degrees was available without use of mechanical brakes, by use of the correct range in reverse.”

Everyone could easily see that the simple but improved construction aided in both the vehicles performance, reduced complexity, and driving fatigue by eliminating the most difficult part about driving at this time which was the clutch and manual transmission. This was also the only car with a three-braking system.
This was the car that was said to be a car of “a thousand speeds” and felt like “flying on four wheels” and there are several parts of this car that went into making it that way. There is so much that can be said about this vehicle but one of the biggest selling points is that it’s a clutch-less transmission. This was made possible by the electromagnetic transmission. Most vehicles in the time period were not only difficult to drive causing driver strain by just operating the transmission, but they were also unsafe and unreliable. Despite the “thousand speeds” phrase tied to this car it only had 5 speed capability whereas other vehicles like the Model T had 2 speed capability. Other than the 5 speed, the EM/GN transmission was capable of direct drive ratio, regen/dynamic braking and starting. The car is powered by a Continental L-head 303 cubic-inch six-cylinder engine capable of producing 29 horsepower. The engine never came in contact with the electric drive motor or rear drive wheels. The car had a 24V system when all other cars were only 6v.

In 1916, GE was the exclusive producer and supplier of the electrical units that were used in the transmission and had a two-year contract to produce the Owen Magnetic models.

• 1915-1916: R.M Owen & Co. New York United States
• 1916-1919: Baker R. & L., Inc Cleveland, Ohio United States
• 1919-1921: Owen Magnetic Automobile Co. Willes-Barre,
Pennsylvania United States
• 1921-1922: Owen Magnetic Motor Car Corp. Wilkes-Barre,
Pennsylvania United States

Owen Magnetic was one of the most expensive cars of its era. The most popular car on the market at the time was the Ford Model T which cost roughly $360 ($9,907.06 today) and had sold over a million cars by 1915. Cadillacs ran about $2,000 (55,039.21 today) and an Owen Magnetic three-seater roadster with clover seating arranging and the seven-seater touring car started at $3750 ($103,198.51 today) and went up to $5600 ($154,109.78) and only went up from there. The vehicle was also very heavy, expensive, and difficult to maintain. They produced only 974 units between 1914 and 1922. Of those, only are a small handful of units were known to survive. If you were to find one at auction, depending on the state of the vehicle, they can go for a large amount. In 2019 a fully restored unit sold at auction for $128,000. A poor one would run you anywhere from $8,000 to 15,000.
In 1918, the Baker manufacturing facility would cease production on all Owen Magnetic vehicles as they ramped up production and restructured to become a war time goods manufacturer as World War 1 had started. Meanwhile, the Model-T was becoming the industry standard and was significantly more affordable. This all dealt a blow to Owen Magnetic they would not recover from.

After the war, the Owen Magnetic company was reformed and a last attempt to get the company back up and running again was attempted on January 1, 1920, as one of the brothers didn’t want to give up on the company. Post-war there was very little sales and very little production while the cost of the vehicle kept on rising. Great Britain gave the company an order for 750 cars and asked the car to be named the Crown Magnetic. Unfortunately, by August 1920 after completing only one unit, the company found themselves in receivership. They had so many debts that were too great that the court had ordered them into bankruptcy. The only Crown Magnetic debuted at the London Motor Show in November 1920 but by then nothing they could do could save the company. Other factors that would pretty much doom them would be the lack of energy storage technology in the vehicle and the lack of electrical advances for the homeowners wouldn’t expand outside of city limits until after the 1930s.
For the rise of the company, the success was in part due to who they knew and what they knew. The Owen brothers got the project because of what they knew, and then they got GE financial backing because of who Mr. Entz knew. Because GE knew and owned several other companies with resources that could aid in the mass production, they were able to have success. The factors I would theorize that played a role in the downfall of the company was rapid expansion, bad timing due to World War 1, not having all their resources in house, but at that time it wouldn’t have made sense to have their own facilities. Once the war broke out, they lost all of their production capabilities and by the time it started back up it was too late as they lost all their momentum and customer bases. Post war the US had a financial crisis, and many affluent customers lost their fortune. At this time there were already millions of cheap Model-Ts on the road so having an expensive car no longer made sense. The Owen cost upwards of $6000+ and they had continuing rising costs and declining sales from the fallout of the war. It is unclear if Owen Magnetic was making war time goods or if it was their manufacturing facility Baker Electric, but what is clear is that the war time effort killed the company along with the post war economy. By 1921 like many other electric vehicle companies Owen Magnetic would be one of the many casualties of the circumstances of the time and when the Model-T was much cheaper people gravitated towards the more affordable option.

Sources:
1. Every google link for "Owen Magnetic"
2. Automobile Manufacturers of Cleveland and Ohio, 1864-1942
By Frank E. Wrenick, Elaine V. Wrenick, Pages 93-95
3. The American Chauffeur: An Automobile Digest ..., Volume 4,
January 1916
4. Electrical World, Volume 66
5. Cycle and Automobile Trade Journal, Volume 19
6. The Independent, Volumes 37-38
7. Patent: J. B. ENTZ, POWER TRANSMISSION AND CONTROL,
APPLICATION FEE). MAR 29, 1898, PATENTED JUNE 30, 1903.

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Who here thinks it would be awesome to see a few replicas of this car but with modern updates while staying true to the principle that this car was built on?

*none of the photos displayed is owened by us and was pulled
from google images when searched for/with the terms "Owen
Magnetic"

10/11/2021

*update. We did find the encoder to be faulty on the motor. We are ordering up a replacement part.

Hello everyone. We have finally got around to doing more with our Bayliner and started to do some test spins with the motor when we ran into an issue where the motor is not running properly. In the videos you can see the test spin of the boats prop while it’s making a noise that sounds like a u-joint binding, however, the prop assembly is now working properly and all the bearings, and gears spins smoothly, and you can spin the prop by hand and can spin the output shaft of the motor. We still need to replace all the seals in the prop assembly before it goes into the water for testing.
We have begun to try and diagnose the problem and initially we thought it could be one of two issues: 1) to little resistance or 2) speed/sensing issue.
For the first issue to help us resolve the issue we remapped the throttle to have a very slow ramp up and also reduced TQ to 5 to 10 Nm and rpm to 10 RPM. At that point the prop was spinning more smoothly, but still had an inconsistent rotation that was jerking while rotating and at this point the sounds the motor was making were becoming more apparent and you can hear the buzzing noise when the motor was on, but it would constantly cut off and on. When the prop was spinning slowly, we could stop it with our hand and adding a little resistance did help it to spin a little smoother, but I don’t thing that is the main issue we are having. At this point we can not get the prop to spin more than 10-20 RPM. Once we can get the prop to spin more than 10 RPM, we are going to do a water load test on the drive-train with 55-gallon drums.
For the second issue I know that a hall effect speed sensor can have a similar effect, however, I am looking up to see if this motor has a hall effect speed sensor or an encoder that could be faulty or having issues. We were thinking if it is a sensor issue, maybe like a knock sensor, if the motor is applying to much TQ at one time and the prop assembly has to sloppy of tolerances then when it can apply rotation to the prop itself the amount of TQ could be slamming the prop and knocking it so hard that a sensor could be giving a fault and possibly cutting the power back? To help us figure this out we reduced the total pack voltage from 260V to 132V with two modules in parallel. After we parallel the HV pack we reduced the throttles total output to 50% cap and decreased the throttle ramp as much as the software will allow so it accelerates very slowly. To also rule out any issues we disabled and set all regen values to zero, we did test with regen enable with no changes in outcome. We ran tests with the throttle settings set to linear and unknown also with the inverted setting. We tried slowly turning the throttle up and even doing some throttle snap tests to see how it would respond. When we turn it slowly the throttle responds normally and we can see the values sweep normally on the dashboard and the main screen, but when we snap the snap, it doesn’t respond as well and seems like it has some lag to it.
To help us resolve some possible issues today we are going to get a new throttle and replace this one and retest since our current throttle was used and old.
During our testing we were watching our temperatures since we don’t have any cooling system connected or operational yet. From the testing we only got the motor and DMOC slightly warm to the touch and the temp sensor was reporting a low temp and last night the ambient temps were around 40 degrees F.
Before we decouple the motor and or open the prop assembly, we want to make sure we rule out any and all electrical issues. We opened up the DMOC and inspected it. We didn’t find anything wrong on the inside and we can see nice thick coating of conformal coating on the boards inside the DMOC. The inverter also had a good gasket, while I had it opened, I verified that the cables coming out were going to their respective parts on the inside of the inverter, then verified that each phase cable went to the correct phase of the motor. We verified this because it seemed like the motor phases could be fighting each other and possible causing the motor to shake significantly.
After we finished verifying all the connections, we reassembled everything and remounted the components. Since the motor was shaking bad, we wanted to rule out battery pack and voltage issues since these modules are also old. We balanced both modules together and also got them fully charged up and since we were only using two modules and we are not sure on the specs nor do we have any info on them, we have used them in the VW with a 1000 amp controller and Transwarp 9 motor, After we were done charging the modules in parallel we connected the charger and ran the charger while conducting tests that was we know that the dc power source is delivering constant voltage and constant current. This did not resolve the issue.
So the only noticeable difference we found from our tests so far is that when we set the motor to 10 rpm and 10nm we can get the prop to spin smoothly when pressure is applied to the prop but when the RPMs increase the shaking and knocking issues is exacerbated and during the test we can see spikes of TQ demand and TQ delivery and then other times the TQ demand is fairly consistent and responsive and then TQ applied is consistent so I am unsure if there is a lag in the software and it isn’t responding quickly of if it could be a sensor issue.
There is a lot of play in the prop so one possibility could be too sloppy of tolerances in the prop assembly? And when the TQ is applied possibly hitting it to hard and the DMOC cuts power to the motor?
Another possibility is the low resistance in the prop assembly it sees it as an unloaded test, however, we should at least be able to spin the prop smoothly at low speeds and remapping the throttle should have an effect on this and after every configuration of throttle re-mapping we saw no noticeable changes in results, and we also changed setting from TQ to speed and back with no changes in results. The motor and inverter are also a paired set.
One other possibility we can think of is a voltage imbalance between phases. I will test this more later this evening with an amp clamp and my DMM. When testing the voltage, I get voltages in each phase that are fairly consistent with each of the 3 phases.

More to come on this as we diagnose and fix our issues.

1984 Sinclair C5 repairs. Repaired old wiring, upgraded from lead acid batteries to lithium and added a contactor for sa...
09/05/2021

1984 Sinclair C5 repairs.
Repaired old wiring, upgraded from lead acid batteries to lithium and added a contactor for safety.

A little more body work before paint and the new windshield goes in. Also we have a coupler made for the Nissan Leaf ele...
08/28/2021

A little more body work before paint and the new windshield goes in. Also we have a coupler made for the Nissan Leaf electric motor to couple itself to the VW transaxle.

08/22/2021

In the video it's hard to tell that there is any progress or improvement to the bay window because my camera just doesn't do it any justice. It isn't perfect but it is significantly better than what we started with and the majority of all the pitting is level and that will creat a nice seal when we put the new gasket on.

The putty I applied in multiple layers and the stuff goes on like tar and hardens and sands like Bondo. After that layer hardened I sanded it down like you do with Bondo to level the pitting out and applied a couple more layers and repeated the sanding. We got the pitting to pretty much disappear and when you run your finger across there it no longer feels like a wash board. After the sanding we cleaned and degreased the area and retreated the exposed metal and then applied the first full coat of the por15 and at the end of the night just finished applying the second coat. As you can see it just needs a bit of clean up and touch up so on Monday I am going to apply a too coat and touch up all the areas that need it.

After 96 hours it will be fully cured at which point we will prep the bay window for epoxy primer.

08/21/2021

Fixing the pitting on the VW

Progression photos of fixing the rust, pitting and holes in the VW.Halfway done. Need to sand and add two coats of Por15...
08/21/2021

Progression photos of fixing the rust, pitting and holes in the VW.

Halfway done. Need to sand and add two coats of Por15 permanent coat and then black epoxy primer and then it will be ready for the new gasket and windshield to be installed.

What you don't see in the photos is the cleaning of the surface with a buffing wheel and sanding down the pitting with 80 grit sand paper and then the cleaning and metal prep solution which helps this to bond to the metal surface better.

18 foot Bayliner:It has been a while since this boat has been out of storage. We are going to move this along over the n...
07/16/2021

18 foot Bayliner:

It has been a while since this boat has been out of storage. We are going to move this along over the next week. The boat needs all new upholstery but for now we will be focusing on installing the computer, electronics, testing the battery pack along with making the mechanical throttle drive a potentiometer for the drive by wire throttle. The motor and controller are currently installed in the boat.

Our weekend project: Electric Bayliner.
07/15/2021

Our weekend project: Electric Bayliner.

Address

1510 Bulwer St B2
Missoula, MT
59802

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Electric Hypersport Racing, Inc. provides Automotive OEM Additive Manufacturing solutions for production of Green high performance all electric modular hyper-sport cars.