C/M Auto: Performance
C/M CYPRESS MOTORS - PERFORMANCE
Auto: Performance
Motion
CENTRIFUGAL FORCE
Ways to simply go faster around a corner
Weight & frame flexes off suspension against
Outside tires feel pressure. Outside suspension contracts
Stiffer suspension & sway bars are already integrated in controlled efforts
We simply adding a bolt on light-weight smart system which connects to Energy
WHAT THIS DOES
Unlike a gyro kit for weight controls in a motion vehicle
We simply have smart suspension which stiffens & loosens around corners based on weight distributed from speed management
This keeps the vehicle flat & it's more like driving in a straight line
Cornering speeds increase to a traction threshold
BAVARIAN MOTOR WORKS (WERKS)
BMW engineers its vehicles to achieve a near-perfect 50:50 front-to-rear weight distribution.
This balance provides neutral handling, predictable cornering stability, and even tire wear.
For a closer look at the engineering and secret layouts that make this balance possible:
How BMW Achieves the 50/50 Balance
Instead of simply adding dead weight to the rear, BMW utilizes several clever design strategies to perfectly balance their vehicles:
Engine Placement: Heavy engines (like the famous inline-six) are mounted as far back as possible, positioned completely behind the front axle's centerline.
Lightweight Materials: Extensive use of aluminum in the front axles, hot-formed steel, magnesium engine blocks, and carbon-fiber roofs prevent the front from becoming too heavy. .
Component Relocation: Heavy components like the battery are typically relocated to the trunk.
The Benefits of 50/50 Weight Distribution
Neutral Handling: Distributing the weight evenly prevents the car from suffering from severe understeer or oversteer, keeping the car predictable at its limits.
Better Braking: Even loading ensures both front and rear tires bite into the road consistently during hard braking.
Traction & Control: It simplifies suspension tuning, allowing for a much more comfortable yet responsive daily driving experience.
Important Caveats
While a vehicle may leave the factory with a perfect 50:50 distribution (e.g., the M3 achieves 50.1/49.9), keep in mind that this perfect ratio fluctuates as you add a driver, passengers, luggage, or consume fuel from the rear-mounted gas tank.
BMW DESIGN PRICIPLES - 50 50
AREODYNAMICS - COST CUTTING. MEASSURE
Less slanted front wind screen
Hood design for intake & deflection built in designed to shift windows over reducing drag
We then begin to see high performance at a lower cost - price margin
Less is more
We are doing more of a hybrid of vintage - modern
Modern windscreen are not shaped desirably. Blind spots Vs roll cage size thresholds are too large
Relevant Gauge Clusters. C/M Automotive Devision
Speed. RPM. Oil. Voltage. Air Compression.
Switch-Back System. Emergency Safety System & Plan integration
"Bennett wants speed - rpm to door side of drivers seat & a center tablet integrated into a dash work then regular gauges behind steering wheel of choice. Features on steering wheel should not exist & instead a simple button & tablet touch. Driver focus with assistance technologies"
VINTAGE PILAR PODS. JUST SIMPLE NUMBERS
"A see through or translucent glass with digital numbers protruding above steering wheel could also work like heads up display"
C/M CYPRESS MOTORS
https://youtu.be/m7J-aPGNJQ8?si=NESx_szOkIS_DVfY
LIKE GASIFICATION INTO LAVA OR TRADITIONAL GASIFICATION
Garbage thrown in lava or gasification of Garbage is highly toxic if not done right
Hydrogen engines using salt water creates toxins for air polluting unless we first lubrication using solar green or deep sea replenish if we do not re-use brine for alternative safe sourcing & deep sea protecting marine biology
Powering an engine with on-board electrolyzers using salt water is a highly circular, zero-carbon concept, but thermodynamically challenging. Because it takes more energy to split water into hydrogen than the engine produces, the electrolyzer must be powered by external renewables, like solar and wind, rather than the engine itself.
On-board salt-water systems bypass the need for heavy, energy-intensive desalination equipment by utilizing advanced membranes and catalysts.
The Real-World Application: Maritime Vessels
The marine shipping sector is actively pioneering on-board seawater-to-hydrogen systems to replace polluting diesel engines.
Energy Observers: The pioneering Energy Observer catamaran uses solar panels and wind turbines to power an on-board electrolyzer, splitting salt water to produce green hydrogen.
GH2DEM Project: Projects in the UK, such as the GH2DEM demonstrator at Brunel University London, are testing heavy-duty internal combustion engines that run directly on hydrogen harvested on-board from raw seawater.
Circular Output: In these systems, the engine combustion process only emits pure water vapor, which can safely return to the ocean.
Technological Challenges & Solutions
Directly electrolyzing salt water is famously difficult due to two primary issues:
Chlorine Gas: Chloride ions in seawater oxidize during standard electrolysis, producing highly toxic chlorine gas.
Electrode Corrosion: The high salt content severely degrades traditional metal-based catalysts over time.
To solve these issues, scientists use hydrophobic PTFE membranes or thin-film composite membranes that separate pure water vapor from salt water before it reaches the electrodes. Furthermore, non-precious, corrosion-resistant catalysts (such as nickel-iron or nickel sulfide) are applied to the anodes to ensure long-term durability in real-world marine conditions.
Lakewater is unsafe as it is not tested for Hydrogen & depleting upsets the natural weather systems & landscape
No on-board - in-house electrolyzer then it's direct hydrogen injected into a tank rather than almost perpetual with a simple temporary gas chamber & exo-shell
THE MODERN BMW MORE COMPARABLE TO C/M YET QUITE DIFFERENT
The BMW i4 M50 features a dual-motor, all-wheel-drive setup producing a combined 536 horsepower and 586 lb-ft of torque (544 hp in Europe). The front axle motor produces 255 hp, while the rear axle motor generates 308 hp, rocketing the car from 0 to 60 mph in roughly 3.3 seconds.
Key Motor Details:
Motor Type: Synchronous AC electric motors (wound rotors).
Rare-Earth Free: The motors are designed without the use of critical rare-earth metals, using electrical energy for rotor excitation rather than fixed permanent magnets.
Efficiency: They boast an efficiency factor of 93% and reach maximum power between 8,000 and 17,000 rpm.
Powertrain Sourcing: Engineered in-house by the BMW Group as part of their fifth-generation eDrive technology.
Design. Industry Comparison
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