Assets + Financials 2026

ASSETS ADJUSTED 

Assets + Financials 2026

Some of Dr Sydney Nicola Bennett & Madison Koslov Bennett 

Dr Sydney Nicola Bennett's section has a Lamborghini & BMW then Acura & investment portfolio with connected income streams then travel budget with Fractional ownership residences of 3+

Madison Koslov Bennett has her portfolio connected yet adjusted differently

Archived insurance. Current insurance & income Vs returns & taxation strategy 

Alberta 2012-2026. California 2001-2026 

Previously British Columbia & Quebec & Ontario then connected to Florida, New York & Nevada 

Would be New Zealand over Australia & Swiss - International options yet others with CIG already have options connected in a global grid

BEVARIAN MOTOR WERKS 

Best cars Dr Sydney Nicola Bennett owns. Lamborghini Aventador 21 & BMW M3 27. C/M Hyper F1 & 1 F alongside test caurs

The 2027 BMW M3 (expected G84/ZA0 generation) is set to debut around 2027, featuring both a next-generation high-performance electric, quad-motor model (roughly 700–900+ hp) and a continued gasoline-powered inline-6 variant, with the electric version likely to debut under the Neue Klasse platform.

Key Highlights for the 2027 BMW M3:

• Electric M3 (ZA0): The electric M3 will feature a quad-motor system with no mechanical differentials, allowing for independent control of each wheel.

• Performance: The electric version is expected to deliver around 700 to 900+ horsepower, while the gasoline version will continue with a twin-turbo inline-six engine.

• Design & Technology: The 2027 M3 is expected to adopt the Neue Klasse design philosophy, featuring a more modern, minimalist design, with spy shots hinting at unique hood air outlets.

• Release Timing: The next-generation M3 is expected to arrive in 2027, with the electric model leading the way. 

Expected Lineup and Features:

• Gasoline: The next-gen gasoline M3 (G84) is rumored to continue with a 3.0L twin-turbocharged inline-six engine producing up to 560 horsepower, likely serving as the last non-plug-in hybrid.

• Electric: The electric M3 is expected to deliver up to according to some reports.

• Drivetrain: AWD is expected for the electric, while the gasoline variant may still offer rear-wheel drive/AWD.

• Availability: Deliveries for the new generation are expected to begin around 2027. 

EV MOTORS & ENGINES 

Pricing Tiers with cost - price estimates for May 1, 2026

Standard & above without additives & cooling $2499.99 with scaled sizing ratios for units selling under or over $2999.99 Canadian then over $9999.99 - $24,999.99 & above

High Performance. Quality Designs 

Minimal Part equivlance. Lower cost - price for all parties. 

Affordability Tiers. Reliable. Easy Maintenance

MOTO - IN-JUN

C/M Motor - Engines Projects

EV 

Air

Pisto

Accelerant

As push gas pedal

Linear & climatic sequence controls

Regular performance then cooling with sound variables

Performance based accoustics

BREAKDOWN 

Achieving sound & increasing controls on the cooling system 

There is just few areas to innovate on & refine with just slight performance

EESM  

Electrically Excited Synchronous Machines (EESM) require specialized cooling systems, often focusing on direct oil cooling of the rotor, because the rotor contains copper windings that generate significant heat (often over 100°C). Because EESMs do not use rare-earth permanent magnets, they can handle higher temperatures than permanent magnet motors (PMSM), but they still require aggressive thermal management to achieve high power density, particularly for heavy-duty applications. 

EESM Cooling System Components & Techniques

The main cooling challenge for EESM is removing heat from the rotating rotor winding while managing high centrifugal forces. 

• Direct Oil Cooling: The most efficient method for EESM, where oil is sprayed directly onto the rotor windings.

• Hollow Shaft Cooling: Mineral oil or other dielectric coolant is often fed through a hollow shaft to cool the rotor from within, a design that allows the motor to maintain high continuous power, even at low speeds.

• Stator Water-Jacket Cooling: While the rotor requires direct oil cooling, the stator is commonly cooled with a traditional water-glycol jacket.

• Wet-Running Power Transmission: Some advanced designs allow for the entire motor to operate in a wet environment, eliminating the need for complex radial shaft seals and reducing maintenance.

• Optimal Rotor Cooling Strategies: Studies suggest that a combination of direct axial oil spray on the rotor and a housing water jacket for the stator is highly effective. 

Why EESMs Need Specialized Cooling

• Heat Generation: The field windings on the rotor can suffer from severe heat limitations, which limit the overall power of the motor.

• High Current Density: EESM rotors often operate at high current densities, generating significant ohmic losses in the field windings.

• Rotating Parts: Centrifugal forces can push oil away, making it necessary to design specialized oil paths (e.g., nozzles, internal channels) that ensure the coolant reaches the necessary components.

• Reduced Performance at High Speeds: The rotor cooling effectiveness can be impaired at high speeds due to air resistance within the air gap. 

Innovations in EESM Cooling

• MAHLE/Valeo iBEE System: Uses an integrated contactless transmitter (MCT) in the rotor, combined with advanced cooling to achieve high continuous power (greater than 60% of peak power).

• Schunk Wet-Running System: A specialized, maintenance-free system allowing the motor to operate with wet components, enhancing efficiency and improving EV range.

• Cooled Motors (UniSync): Uses proprietary "CoolShaft" and "CoolDisc" technology to manage rotor heat more effectively. 

Compared to permanent magnet motors, EESM cooling systems are often more complex due to the need for cooling the rotor windings, but they are crucial for realizing a rare-earth-free electric drivetrain with superior high-speed efficiency.

NON-OIL COOLINGS - WHOOPINGS

Non-oil cooled Externally Excited Synchronous Motors (EESM) are rare in high-performance electric vehicles (EVs), as most modern, high-power density EESMs utilize direct oil cooling to manage heat in the rotor windings, particularly at high speeds. 

However, advancements in magnet-free technology are enabling alternatives to traditional, complex oil-cooled systems: 

• Air-Cooled Systems: Smaller, lower-power BLDC/EESM motors (e.g., 5kW mid-drive motors) use air-cooling systems (fans, heat sinks) to manage thermal load, suitable for lighter applications.

• Dry Installation/Advanced Design: While conventional EESMs need dry environments for brushes and slip rings, new designs are attempting to improve performance without full-immersion oil cooling.

• Water Cooling/Liquid Cooling: Some EESM setups utilize water-glycol jackets, which avoid oil, but these are typically less efficient at cooling the rotor internals compared to direct oil cooling.

• Future Technologies: Technologies like Electrohydrodynamic (EHD) cooling or graphene-based cooling are emerging as potential alternatives for future, more efficient thermal management in E-motors without oil. 

Key Challenges for Non-Oil EESM:

EESMs require substantial cooling to handle high torque, and removing oil-cooling systems often results in higher rotational inertia, lower power density, or larger motor sizes.

26. K.T-CIG