C/M Auto. Hacking
CIG - International
C/M Auto. Hacking
RELIABILITY IN RACE SPEC BUILDS
How Dr Sydney Nicola Bennett made sure C/M vehicles or Motion & Stationary effects cannot be hacked. A simple low cost back up & shut off wirh anti-jammers
AUTOMOTIVE RESEARCH
Cutting out components
Steer by wire
Brake by wire
Accelerate by wire
Torsion differential
Now with regards to RC 1:10 Scale enthusiast tour racing compared to full tied automotive then wireless jammers & anti-jammers in different fields to void hacking we have a wireless to servo effect with Steer, Brake or Accelerate by Wire efforts
There is no true physical back up reference
A back up would be a real wire or connection while wireless assist would alleviate strain like power steering fluid does or hydraulic braking separate from air braking
Done safely or done right we cut costs & thus end user price in many aspects
Unlike industry standards the C/M Emergency Safety System effort requires a back up to fend potential hacking
Auto Hacking. Not biological wBCI temporary or permanent.
https://www.wired.com/2015/07/hackers-remotely-kill-jeep-highway/
A simple physical wire & shur off with back up installed makes By-Wire non-hackable if we have an anti-jammer box (lightweight-cheap)
Source: The Hacker News https://share.google/snVZFuWon2pmWDQoy
Source: PBS https://share.google/UWNSY0PsSF4kHjSkn
Source: BBC https://share.google/e54LHa35f2Gp3cFSU
Source: The Guardian https://share.google/xwuy1O6Vt2CK6dYpO
STEERING WHEEL DIFFERENCES
Bentley Spur rotation dash
https://youtube.com/shorts/-axPKBrNEdc?si=ovyfzfyngkAzBlIi
Aspects
Offline
Online
Satelite
Hackable vulnerabilities Vs not
Maintenance schedule
STEER BY WIRE
Steer-by-wire is a vehicle steering system that uses electronic signals instead of a physical, mechanical linkage between the steering wheel and the wheels. When a driver turns the wheel, a sensor detects the movement, and a controller tells an electric motor to turn the wheels accordingly. This system allows for variable steering ratios, can incorporate a yoke instead of a wheel, provides more space in the cabin, and allows for software updates and features like a retractable steering wheel for autonomous driving.
Check out this video, "steer by wire" https://share.google/zaVe2FUC9ekQdI80d
How it works
• Input: A sensor on the steering wheel detects the driver's input, such as the angle and speed of the turn.
• Signal: This information is sent to a computer that processes the input.
• Output: The computer sends an electronic signal to an electric motor located on the steering rack, which turns the wheels.
Benefits of steer-by-wire
• Variable steering ratio: The system can adjust the steering's responsiveness based on speed. At low speeds, it can be very responsive, while at high speeds, it can be dulled for better stability.
• Improved interior design: Removing the mechanical column creates more space for the driver and allows for more flexible interior layouts and even a yoke-style steering control instead of a round wheel.
• Adjustable steering feel: The system can be programmed to provide different levels of feedback, mimicking the feel of a traditional car while filtering out unwanted vibrations from the road.
• Advanced features: Steer-by-wire systems are ideal for advanced driver-assistance systems and are crucial for future autonomous vehicles where the steering wheel could retract when the car is driving itself.
• Potential fuel efficiency: By replacing mechanical parts with electronic ones, some systems may lead to reduced fuel consumption.
This video shows an example of the benefits of steer-by-wire in a Lexus yoke:
Safety considerations
• Redundancy: Manufacturers build in redundant systems with multiple processors and power supplies to ensure the system remains operational even in the event of a primary system failure.
• Fail-safe provisions: Fail-safe mechanisms ensure that steering remains functional and provides necessary feedback to the driver.
You can watch this video to see the fail-safe mechanism in action:
Check out this video, "steer by wire" https://share.google/XczBaAn5n39RiQYYv
BRAKE BY WIRE
Brake-by-wire is an electronic control system that replaces the mechanical linkage between the brake pedal and the braking mechanism with an electronic signal. When a driver presses the pedal, a sensor detects the pressure and sends a signal to a control unit, which then activates the brakes. This system is commonly used in electric and hybrid vehicles to integrate with regenerative braking and can improve safety, weight, and driver comfort.
Check out this video, "" https://share.google/HmZi0MM1sLhlZr8Bq
How it works
• Input: A sensor measures how hard the driver presses the brake pedal.
• Processing: A computer, or brake control unit, interprets the sensor data to determine the required braking force.
• Activation: The control unit sends an electronic signal to an actuator. This actuator controls the braking system, which can involve electric motors, pumps, and valves to apply the necessary pressure to the wheels.
• Redundancy: Most systems have a backup hydraulic system that is activated in case of an electronic failure, providing a failsafe.
Advantages
• Regenerative braking: It seamlessly blends electronic braking with mechanical brakes, maximizing the energy recaptured by the electric motor in hybrid and electric vehicles, which increases efficiency and range.
• Improved safety: It allows for more precise control and quicker response times for safety systems like anti-lock brakes (ABS) and emergency brake assist.
• Consistent pedal feel: It can provide a more consistent and comfortable brake pedal feel, regardless of whether the system is using regenerative or friction braking.
• Design flexibility: Removing the mechanical linkage allows for greater flexibility in the design of the brake pedal and other components, and can lead to a more optimized vehicle structure.
• Weight reduction: By removing the traditional master cylinder and associated plumbing, the system can be lighter.
• Quiet operation: The elimination of mechanical parts can lead to quieter braking.
Check out this video, "brake by wire" https://share.google/gVx2lxTLhIZ3rC624
Potential disadvantages
• Electronic failure: A potential risk is electronic failure, which could compromise braking performance if the backup hydraulic system is not implemented correctly.
ACELERATE BY WIRE
"Accelerate by wire" or "throttle by wire" is an electronic system that replaces the mechanical cable connecting the accelerator pedal to the engine's throttle. Instead of a direct mechanical link, sensors in the pedal send a signal to the car's computer (ECU), which then commands a motor to open or close the throttle valve accordingly. This "drive by wire" technology offers advantages like smoother operation, better fuel efficiency, and features like cruise control.
This video explains the concept of accelerate-by-wire systems:
Check out this video, "" https://share.google/rAqxgCSxjHleKR28g
How it works
• Pedal sensor: When you press the accelerator, a sensor detects how far you've pressed it and sends this information to the engine control unit (ECU).
• ECU command: The ECU uses this information to determine the correct throttle opening and sends a command to an electric motor.
• Throttle motor: This motor, located in the throttle body, physically opens or closes the butterfly valve to control the amount of air entering the engine.
• Feedback loop: A second sensor on the throttle valve sends a signal back to the ECU, confirming the valve's position and ensuring it matches the command.
Advantages
• Precision: Allows for more precise control of engine speed, leading to smoother operation.
• Fuel efficiency: Can help improve fuel economy by optimizing the throttle position for different driving conditions.
• Advanced features: Enables other electronic features like cruise control without needing extra mechanical hardware.
• Simpler design: Eliminates the mechanical cable, potentially simplifying engine and dashboard design.
Potential concerns
• Electronic failure: The system relies on electronics, so a failure in a sensor or the ECU could be a concern.
• Complexity: The system is more complex than a simple cable system, and repairs may require specialized knowledge and can be more expensive.
• Hacking: There are potential concerns about security risks like hacking, though manufacturers have implemented safety measures to prevent this.
HACKING
"Hacking drive by wire" refers to exploiting vulnerabilities in modern vehicle systems where electronic controls have replaced traditional mechanical connections for functions like steering, braking, and acceleration. Security researchers have repeatedly demonstrated that both physical and remote hacking of these systems is possible, allowing for external control of critical vehicle functions.
How the Hacks Work
Modern vehicles are essentially computer networks on wheels, containing numerous electronic control units (ECUs) that communicate via an internal network called the Controller Area Network (CAN bus). Hacking involves gaining access to this network through various entry points and injecting malicious commands that override the driver's input.
Common attack vectors include:
• Wireless Connections: Vulnerabilities in systems like Wi-Fi, cellular, Bluetooth, and even tire pressure monitoring systems have been exploited for remote access.
• On-Board Diagnostics (OBD-II) Port: Physical access via the port used by mechanics is a direct way to connect a laptop or malicious device to the car's internal network.
• Infotainment Systems: The entertainment and navigation systems, which often have internet access, can serve as a bridge to more critical driving functions if the network architecture is not properly segmented.
• Compromised Media: Researchers have demonstrated that a corrupted audio file on a CD or a malicious app on a connected smartphone can be used to deliver malware.
Demonstrated Effects
Security researchers, like Charlie Miller and Chris Valasek in their widely publicized 2015 Jeep Cherokee hack, have shown the potential for high-consequence attacks. Their demonstrations included:
• Remotely killing the engine while on the highway.
• Engaging or disabling the brakes.
• Controlling steering (typically at low speeds or in reverse).
• Manipulating non-critical systems like the horn, radio, and windshield wipers.
Industry Response and Standards
In response to these demonstrations, the automotive industry has increased its focus on cybersecurity. Modern vehicles incorporate more robust security measures and adhere to new standards like ISO/SAE 21434 and UN regulations. These standards require dedicated security modules, encryption of communications between ECUs, and robust safety mechanisms like computational and functional redundancy to prevent a single point of failure from allowing full control by an attacker. Many manufacturers also offer "bug bounty" programs to encourage ethical hackers to find and report vulnerabilities.
Irrelevant Relevance
Pitty mercy mercy me... (NB-OT Labs reference)
Irrespective Relevance
Shanghai Pudong International Airport, heading to Auckland, New Zealand and ultimately destined for Buenos Aires, Argentina.
https://www.globaltimes.cn/page/202512/1349711.shtml
Off-Grid Solar Bus-Bar
https://www.thecooldown.com/green-home/off-grid-living-system-battery-upgrade/
Semi-Conductor
https://www.visualcapitalist.com/the-global-semiconductor-industry-in-one-giant-chart/
THEIR TARGET
An undercover Agent unlike Commander controlling agents with connected interests are often given their targat to investigate using extensive efforts with some & not others knowing
"If an advanced PhD is asked to do an intelligence rotation through a temp agency to get into a company based on a threat suspected they are now discredited as a want to be fraud of others & a stupid fag temp. As the NB-OT Labs & expansion Labs stated between 2015-2018"
THE NB-OT LABS & EXPANSION LABS
People operating at or with the NB-OT Labs & expansion Labs
Complaints in their salaries & wages Vs others including those they are preying on targeting using wBCI's
Espionage across Provinces & international
The "better people" more deserving equation & sabateurs looking to stomp on pr stomp out those deemed less deserving
C/M Traditional Energy Generators (rechargers) & Energy Storage (Batteries)
New experimental electric fabric wrap based rechargers bio-fat based storage
UNDERSTAND
Idle & Motion Pumps
This paired to rechargers creates our unlimited range & self charging aspect
When sitting still. When animated in motion. Movement
Charge threshold
An automatic shut off & disconnect once the charge is completed using Energy storage
No required automatic threshold if using a recharger for every 1 or under 1 second yet it can recharge battery
Motion is easy off axels then a secondary increaser
Idle pump energy is the hard part Dr Sydney Nicola Bennett achieved
With Zero Emissions. We have two main variables. Ev & Air yet Hydrogen serves a purpose with
A Wind-Tunnel Piston-Punch is not Air Compression yet we can use as a reserve injector to assist yield increases like an air battery
Irrelevant Relevance
US Debt crisis
https://finance.yahoo.com/news/elon-musk-makes-bold-claim-023000854.html
India - Russia
https://www.bbc.com/news/articles/cj4q2vpggr9o.amp
$200k annual. Reinvest creating jobs then take percentage & grow beyond 300
https://youtu.be/vVvcPPGqJG4?si=3-X-PB81y5WG4p_h
Shower
https://www.earth.com/news/scientists-finally-answer-the-question-of-when-is-the-best-time-to-shower/
Technology Assist
https://youtube.com/shorts/PQGaj48-T-Q?si=SUzEfxtYDSEXUFRX
C/M CURRENT RECHARGERS
Overall box casings size. 18" x 10" x 10"
A goal in transition is to get the recharger overall casing size down to 14" x 3" x 3" x 3" (rectanglular - squared)
With this we use the same size or smaller Battery casings
With this we can create a Cork-Wrapped exo-shell & fire extinguisher smart Emergency Safety System Integration with mechanical Switch-Backs
All components connect for Energy Generators to Energy Storage then to Motors which then connect to control monitoring & control systems (Emergency Safety System)
HOLD FACE STRAIGHT ON KID. CHILD
That bad at Psyche Threat wBCI punish. The punish
Slikes
Hail a cabbie folks
Ma'am. Ah, Sir & madam
That's a good. That's a good. Tips of the hat & up the dare-e-aire
Wireless torment & hold the smile
CARDBOARD
Cardboard is used in automotive construction for non-structural interior components and as a structural material in applications like concept cars and prototypes. For example, Citroën developed a roof for its Oli concept car using a honeycomb structure of recycled cardboard sandwiched between fiberglass and coated in resin, which is lightweight and strong enough to support a person's weight. Cardboard is also widely used for packaging, creating temporary parts like templates, and making waterproof interior door panels.
Structural and design applications
• Concept and prototype vehicles: Cardboard is used to explore lightweight construction methods, as demonstrated by Citroën's roof made from recycled cardboard in a honeycomb structure.
• Templates: Cardboard is used to create templates for cutting and shaping other materials like sheet metal or plastic for various parts.
• Interior components: Waterproof cardboard boards can be used as a base for door panels, allowing them to be reshaped and wrapped with fabric.
Packaging and support
• Protective packaging: Triple-wall corrugated cardboard is used to ship and protect heavy automotive parts, including sensitive components like batteries, during transport.
• Internal supports: Honeycomb cardboard is used to create stamped plates and supports that hold parts in place during shipping, preventing shifting or impact damage.
Advantages of using cardboard
• Lightweight: Cardboard is significantly lighter than steel, which helps reduce a vehicle's overall weight, especially for electric vehicles where weight saving is crucial for range.
• Cost-effective: It is a cheaper alternative to traditional materials like steel or plastic.
• Recyclable: The use of recycled cardboard aligns with environmental goals, and the material is recyclable at the end of its life.
• Versatile: Cardboard can be easily cut, folded, and shaped, making it suitable for a variety of applications, including custom parts and prototypes.
POPLAR WOOD
Poplar wood, primarily in the form of poplar plywood or veneers, is extensively used in automotive construction, particularly in the manufacture of caravans, motorhomes, and commercial vehicles. Its main advantage is an excellent strength-to-weight ratio, which helps reduce the overall vehicle weight and improve fuel efficiency.
Key Applications
Poplar is not typically used for major structural components of modern standard passenger cars, but its engineered forms (plywood and hybrid composites) are valuable for specific applications:
• Interior Linings and Flooring: Poplar plywood is a primary material for interior walls, ceilings, and floors in transport vehicles, where its light weight is crucial.
• Recreational Vehicles (RVs) and Motorhomes: Due to its lightweight nature and stability, it is a standard material for interior components in caravans and motorhomes.
• Structural Elements (Historical and Research):
• Historical: In early 20th-century automotive manufacturing, solid poplar (often called "whitewood") was used for large structural pieces like sills and doors, often covered by metal or fabric skins.
• Research: Current research is exploring wood-steel hybrid beams with poplar cores for use in modern electric vehicle battery housings and other structural components, demonstrating comparable or better energy absorption and strength properties than some aluminum alloys, with a lower carbon footprint.
Properties Making it Suitable
• Lightweight: Poplar has a low density, making it one of the lightest hardwoods, which is a significant advantage in the transport industry where weight reduction is a key goal.
• Dimensional Stability: Poplar plywood exhibits good dimensional stability, resisting warping, shrinking, and cracking due to alternating grain directions in its construction.
• Ease of Processing: It is easy to machine, cut, and bond with adhesives, simplifying manufacturing processes.
• Sustainability: Poplar is a fast-growing, sustainable resource, appealing to an industry increasingly focused on renewable materials and reduced environmental impact.
In essence, poplar's use in the automotive sector balances performance requirements (strength and stability) with the need for lightweight and sustainable materials.
Irrelevant Relevance
AI boom + Energy
https://www.theguardian.com/technology/2025/dec/04/nevada-ai-data-centers
S.B.G & CIG
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