FLYMORTON WEARABLE BIOMECHATRONIC BRAINWAVE CONTROLLED PROSTHETIC LEG KNEE AND ANKLE FOOT TOE BIOMECHATRONIC PROSTHESIS REPLACEMENT LEG LIMB  PIEZOELECTRIC EFFECT CAPACITANCE LOW CURRENT CARRYING CONDUCTIVE BUS BRIDGE LATEX CIRCUIT METRIC MAGNETIC PYROTECHNIC MEMORY RUBBER MODULATED NANO MICROPROCESSOR MEMORY RECORD SOFTWARE BASE (BCI)COMPUTING NEURON POTASSIUM SENSORY MODIFIED SYNTHETIC RUBBER SYNCHRONOUS AC MICRON ENERGY TRANSFORMER SEPARATE MODULATED CIRCUIT INDUCED RHYTHMIC CURRENT WIRELESS POWER TRANSFER ELECTROMOTIVE NEURAL SENSORY ELECTROPHYSIC CURRENT CAPACITANCE ELECTRODES MULTIPLE CHANNEL ELECTROPHYSIC FEEDBACK MAGNETICALLY INDUCED CURRENT CARRYING EXTERIOR PYROELECTRIC EFFECTS CHARGE DIAMAGNETIC RUBBER MODULATED CIRCUIT INDUCED CURRENT CARRYING ELECTRO FLUX ELASTIC RUBBER ELECTROMAGNET SOLENOID HOLD RUBBERLOID DENSITY SENSORY WEARABLE LIMB BRACE OPERATES CORRECTING FLEXATION BIAXIAL ROM CONDUCTIVE LATEX THERMAL REACTIVE CRYONIC FLEXIBLE RUBBER MODIFIED PIEZOELECTRIC EFFECT THERMAL REACTIVE LUMINOUS GLOW MESH PYROELECTRIC EFFECTS ELECTROMOTIVE HARDWARE SOFTWARE BASE PROCESSING LONG RANGE DOPPLER EFFECTS CONDUCTIVE RUBBER TOUCH MOUSER PROSTHETIC MODIFIED RUBBER STRUCTURE CAPACITIVE BUS MEMORY IMPUT MICROPROCESSOR HARDWARE SOFTWARE BASE PROCESSOR COMPUTING TO COMPUTER NETWORKING POWER MANAGEMENT TEMPERATURE SENSORY HEAT AND DISSIPATION OF HEAT SOFTWARE OR ARCHITECTURE ALL OF WHICH IS ENTRUSTED WITHIN THE RUBBER DEVICE MODIFIED NEURON SENSORY MODIFIED  MECHATRONIC NERVES STEM MEMORY RECORD FEEDBACK (EEG) (EE) INDUCTIVE SOLAR CELLS CONDUCTIVE GLOW RUBBER TYPE (PIR) PASSIVE LIGHT SENSORY MODIFIED PIEZOELECTRIC EFFECT EXTERIOR DEPTH DEFORMATION NERVE TREE STEM FEEDBACK SUBJECT NOT LIMITING TO ADDITIONAL SYSTEM OR STRUCTURE INVENTOR JERMAINE MORTON DESIGN

NEURON SENSORY ELECTROPHYSIC TRANSDUCTOR SONAR DIODE MODULE

neural networking (RBFNN)-based self-tuning PID (Proportional-Integral-Derivative) controller, applied to the velocity control loop of the PMSM drive control system to adapt strongly to dynamic characteristics during the operation with an external load produced by the human body having complex electrical activity in several different types of cells. This includes neurons, endocrine, and muscle cells – all called “excitable cells”. As all electricity does, this activity also creates a magnetic field. biomechatronic wireless neural synchronization magnetic fields induce circulating currents within the human body. The strength of these currents depends on the intensity of the outside magnetic field. If sufficiently large, these currents could cause stimulation of nerves and muscles or affect other biological processes. Magnetism is caused by the motion of electric charges. Every substance is made up of tiny units called atomsThis makes the atoms in these substances strongly magnetic but they are not yet magnets. magnetic field strength (0.5 Tesla) up to about 60.000 times Earths field strength. Two method using EMF sensory First, magnetic fields are unlike other sensory stimuli in that they pass unimpeded through biological tissue. Receptors for senses Biomagnetic energy harvester whenever within vector of the energy harvester electromagnetic field biomagnetic flow induced vibration is developed. It converts flow energy into electrical energy (MFD) electromagnetic induction. For example A finite element PCB circuit for estimation of the generated voltage of the energy harvester. Power in an electric circuit is the rate of flow of energy past a given point of the ... For instance, a power factor of 68 percent (0.68) means that only 68 percent of the total current supplied.

light travels in waves, and all electromagnetic radiation travels at the same speed which is about 3.0 * 108 meters per second through a vacuum. The speed of a wave is a product of its wavelength and frequency. Because all electromagnetic waves travel at the same speed through space, a wave with a shorter wavelength must have a higher frequency, and vice versa. This relationship is represented by the equation: Speed = Wavelength × Frequency. The speed of any periodic wave is the product of its wavelength and frequency. v = λf. The speed of any electromagnetic waves in free space is the speed of light c = 3*108 m/s. Electromagnetic waves can have any wavelength λ or frequency f as long as λf = c. Photons travel in harmonic waves at the fastest speed possible in the universe: 186,282 miles per second (299,792,458 meters per second) in a vacuum, also known as the speed of light. Electromagnetic waves travel at the "Speed of Light" at almost 300,000,000 meters per second (to be exact: 299,792,458 meters per second) in a vacuum. In the order presented, the equations are called: Gauss's law, the no-monopole law, Faraday's law and the Ampère–Maxwell law. It would be a real advantage to remember them. The first kind of body wave is the P wave or primary wave. This is the fastest kind of seismic wave, and, consequently, the first to 'arrive' at a seismic station. The P wave can move through solid rock and fluids, like water or the liquid layers of the earth. violet When it comes to visible light, the highest frequency color, which is violet, also has the most energy. The lowest frequency of visible light, which is red, has the least energy. red Violet travels the slowest so it is on the bottom and red travels the fastest so is on the top. This is because what is called the index of refraction, (the ratio of the speed of light in a vacuum to the speed of light in a material), is increased for the slower moving waves (i.e. violet). An EM wave can travel without a material medium—that is, in a vacuum or space empty of matter—and does not lose energy as it moves. In theory, an EM wave can travel forever. Because they do not need a medium, EM waves can pass through outer space, which is a near vacuum. gamma radiation Which region of the electromagnetic spectrum will travel with the fastest speed.

The gamma radiation region have the highest frequency. Microwaves are a form of "electromagnetic" radiation; that is, they are waves of electrical and magnetic energy moving together through space. Electromagnetic radiation spans a broad spectrum from very long radio waves to very short gamma rays. Transverse Waves - Transverse waves move with oscillations that are perpendicular to the direction of the wave. Sound waves are not transverse waves because their oscillations are parallel to the direction of the energy transport Maxwell First Equation Mathematically Gauss law can be expressed as, Over a closed surface the product of electric flux density vector and surface integral is equal to the charge enclosed. The charge enclosed within a closed surface is given by volume charge density over that volume. A flowing electric current (J) gives rise to a Magnetic Field that circles the current. A time-changing Electric Flux Density (D) gives rise to a Magnetic Field that circles the D field. Ampere's Law with the contribution of Maxwell nailed down the basis for Electromagnetics as we currently understand it. The reason it's B is simply that it was the second thing in an alphabetical list: Electromagnetic vector potential: A. Magnetic induction: B. Total electric current: C. Electric displacement: D. In P or compressional waves, the vibration of the rock is in the direction of propagation. P waves travel fastest and are the first to arrive from the earthquake. In S or shear waves, rock oscillates perpendicular to the direction of wave propagation. The slowest waves, surface waves, arrive last. They travel only along the surface of the Earth. There are two types of surface waves: Love and Rayleigh waves. Love waves move back and forth horizontally Surface waves Surface waves are the slowest of all seismic waves. They travel at 2.5 km (1.5 miles) per second. There are two types of surface waves Red waves have a relatively long wavelength (in the 700 nm range), and violet waves are much shorter - roughly half that. Because violet waves have the shortest wavelength of the visible light spectrum, they carry the most energy. red The part of the EM spectrum that we are able to see begins with red (the lowest frequency of light) and ends with violet (the highest frequency of light). White light is the combination of all the colors of the spectrum (red, orange, yellow, green, blue, indigo, & violet). Red Red is the lowest energy visible light and violet is the highest. The simple answer is, "Yes, it is possible to stop time. All you need to do is travel at light speed." ... Special Relativity pertains specifically to light. The fundamental tenet is that light speed is constant in all inertial reference frames, hence the denotation of "c" in reference to light. light travels faster in vacuum than any other medium. This is because there is no obstruction in vacuum for the propagation of light and thus, the refractive index of vacuum is the lowest. Show the speed of light in vacuum is the maximum. There is no real practical limit to how fast we can travel, other than the speed of light,” says Bray. Light zips along at about a billion kilometres per hour. ... Therefore, humans should – in theory – be able to travel at rates just short of the “Universe's speed limit”: the speed of light. Darkness travels at the speed of light. More accurately, darkness does not exist by itself as a unique physical entity, but is simply the absence of light. Thermal energy refers to the energy contained within a system that is responsible for its temperature. Heat is the flow of thermal energy. A whole branch of physics, thermodynamics, deals with how heat is transferred between different systems and how work is done in the process (see the 1ˢᵗ law of thermodynamics). Thermodynamics is the branch of physics that deals with the relationships between heat and other forms of energy. In particular, it describes how thermal energy is converted to and from other forms of energy and how it affects matter. Thermal energy, internal energy present in a system in a state of thermodynamic equilibrium by virtue of its temperature. ... Thermal energy cannot be converted to useful work as easily as the energy of systems that are not in states of thermodynamic equilibrium. Formula of Thermal Energy ΔT = temperature difference Thermal energy are of three types. Conduction, Convection and. Radiation. energy and power is: Energy = Power x Time. The unit of energy is the joule, the unit of power is the watt, and the unit of time is the second. Temperature is the average kinetic energy of particles of an object. Warmer objects have faster particles and higher temperatures. If two objects have the same mass, the object with the higher temperature has greater thermal energy. Temperature is measured with a thermometer. Thermal energy refers to the energy contained within a system that is responsible for its temperature. ... A whole branch of physics, thermodynamics, deals with how heat is transferred between different systems and how work is done in the process (see the 1ˢᵗ law of thermodynamics). Thermal energy, internal energy present in a system in a state of thermodynamic equilibrium by virtue of its temperature. ... Thermal energy cannot be converted to useful work as easily as the energy of systems that are not in states of thermodynamic equilibrium. thermal energy change when 0.200 kg of water cools from 100°C to 25.0°C. change in temperature = (100 - 25) = 75.0°C. change in thermal energy = mass × specific heat capacity × change in temperature. = 0.200 × 4,180 × 75.0. = 62,700 J (62.7kJ) Thermal energy comes from a substance whose molecules and atoms are vibrating faster due to a rise in temperature. Heat energy is another name for thermal energy. Kinetic energy is the energy of a moving object. As thermal energy comes from moving particles, it is a form of kinetic energy. Heating elements contain an electric current, which flows through the coil or ribbon or wire and becomes very hot. The element converts the electrical energy passing through it into heat, which spawns outward in every direction When a thermoelectric material is exposed to a temperature gradient — for example, one end is heated, while the other is cooled — electrons in that material start to flow from the hot end to the cold end, generating an electric current. Peltier Elements Make Heat Cold Or Electricity. MY (FLYMORTON) IS CHARACTERIZED AS IN WEARABLE ORTHOSIS FACE PLATE Microcontroller 

Ambient processing signals software to the related key and put events mapping coordinating events corresponding with the human user body biometric range The full body armor act or process of propelling. the state of being propelled. Self propelling; propelling force, impulse, self suspension proximity wavelength within vector field fraction of area longitude wavelength self-stabilization three-dimensional area of fraction current carrying electromotive (PV) bioelectric sensory metalloid transformer ultra capacitor power storage body armor Action intense radiation pressure matter within longitude of sound wavelength between the medium rise particle displacement particle collision particle Mass forces against the weight of gravity three-dimensional area of fraction involving the Peltier effect cooler modifications occurs within the heat exchanger spiral coil shaft whenever electrical current flows through two dissimilar conductors. Thermocouples do not only generate electricity from heat. They can also generate heat from electricity, and even cold from electricity, as a refrigerator. A heat exchanger is a system used to transfer heat between two or more fluids. Heat exchangers are used in both cooling and heating processes. The fluids may be separated by a solid wall to prevent mixing or they may be in direct contact. 10,000 BTU air flow shaft environment conditioners can deal with a greater amount of air when it comes to cooling. So, they can cool larger areas of up to 450 square feet. But 8,000 BTU air conditioners are better suited for medium-sized lining shaft the speed and  force are 250 or 300 square feet thrust. 10000 Pound-force/sq.inch (psi) equals 68947.6 Kilopascal (kPa) Formula: Multiply the value in Pound-force/sq.inch (psi) by 6.89476 (the conversion factor). So, 10000 Pound-force/sq.inch (psi) × 6.89476 = 68947.6 Kilopascal (kPa) In addition gradual reduction in atmospheric pressure 24000 pounds-force per square inch = 165474175 pascals The face shield subsystem operates by vacuuming Compressed air vacuuming through the cooler exchanger meets the water and splits it into tiny droplets. The sudden loss of pressure robs the system of heat, rapidly cooling the water to form a tiny ice pellet – a snow “seed”. The fan now propels these seeds into the air alongside the fine mist of water droplets. Generally speaking, we say that light travels in waves, and all electromagnetic radiation travels at the same speed which is about 3.0 * 108 meters per second through a vacuum. The power source sends power to all working parts, including the motor