Abstract: There is provided a system and method for shape/object recognition using still/scan/moving image optical digital media processing. The system may include a user device and a cloud/server. The user device may be configured to capture a reference optical data using a capturing device, transmit the reference data to the cloud/server, capture a subsequent optical data using the capturing device, and transmit the subsequent optical data to the cloud/server. The cloud/server may be configured to receive the reference optical data from the user device, receive the subsequent optical data from the user device, compare the subsequent optical data to the reference optical data, and transmit a notification to the user device. The notification may include similarities and differences between the reference optical data and the subsequent optical data.

Abstract: There is provided a system and method for shape/object recognition using still/scan/moving image optical digital media processing. The system may include a user device and a cloud/server. The user device may be configured to capture a reference optical data using a capturing device, transmit the reference data to the cloud/server, capture a subsequent optical data using the capturing device, and transmit the subsequent optical data to the cloud/server. The cloud/server may be configured to receive the reference optical data from the user device, receive the subsequent optical data from the user device, compare the subsequent optical data to the reference optical data, and transmit a notification to the user device. The notification may include similarities and differences between the reference optical data and the subsequent optical data.

Abstract: There is provided a system and method for shape/object recognition using still/scan/moving image optical digital media processing. The system may include a user device and a cloud/server. The user device may be configured to capture a reference optical data using a capturing device, transmit the reference data to the cloud/server, capture a subsequent optical data using the capturing device, and transmit the subsequent optical data to the cloud/server. The cloud/server may be configured to receive the reference optical data from the user device, receive the subsequent optical data from the user device, compare the subsequent optical data to the reference optical data, and transmit a notification to the user device. The notification may include similarities and differences between the reference optical data and the subsequent optical data.

Abstract: There is provided a system and method for shape/object recognition using still/scan/moving image optical digital media processing. The system may include a user device and a cloud/server. The user device may be configured to capture a reference optical data using a capturing device, transmit the reference data to the cloud/server, capture a subsequent optical data using the capturing device, and transmit the subsequent optical data to the cloud/server. The cloud/server may be configured to receive the reference optical data from the user device, receive the subsequent optical data from the user device, compare the subsequent optical data to the reference optical data, and transmit a notification to the user device. The notification may include similarities and differences between the reference optical data and the subsequent optical data.

Abstract: There is provided a supercharger system for supercharging a vehicle engine includes a first lower intake manifold adapter attached to the vehicle engine. The supercharger system further includes a second lower intake manifold adapter attached to the vehicle engine. The first and second lower intake manifold adapters can be attached to respective first and second cylinder heads of the vehicle engine. The supercharger system further includes a plate situated between the first and the second lower intake manifold adapter, where the plate is adapted to receive a supercharger on a bottom surface of the plate. The supercharger provides compressed air that flows through the first and the second lower intake manifold adapter to the vehicle engine. The supercharger system further includes an upper manifold plenum chamber situated over the plate, where the upper manifold plenum chamber receives the compressed air from the supercharger.

Abstract: There is provided a supercharger system for supercharging a vehicle engine includes a first lower intake manifold adapter attached to the vehicle engine. The supercharger system further includes a second lower intake manifold adapter attached to the vehicle engine. The first and second lower intake manifold adapters can be attached to respective first and second cylinder heads of the vehicle engine. The supercharger system further includes a plate situated between the first and the second lower intake manifold adapter, where the plate is adapted to receive a supercharger on a bottom surface of the plate. The supercharger provides compressed air that flows through the first and the second lower intake manifold adapter to the vehicle engine. The supercharger system further includes an upper manifold plenum chamber situated over the plate, where the upper manifold plenum chamber receives the compressed air from the supercharger.

Abstract: There is provided a supercharger controller module of a supercharger system for use in conjunction with a vehicle computer system of a vehicle engine including a microprocessor in communication with the vehicle computer system. The supercharger controller module may be configured to control a fuel system transducer of the supercharger system. The supercharger controller module may also be configured to control a vacuum system transducer of the supercharger system. The supercharger controller module may be further configured to receive instructions from a user through a remote controller panel. The microprocessor is configured to receive and modify at least one signal from the vehicle computer system, where the at least one signal controls at least one operating parameter of the vehicle engine. The microprocessor may be configured to modify a mass air flow sensor signal. The microprocessor may be further configured to control a pump of the supercharger system.

Abstract: There is provided a supercharger system for supercharging a vehicle engine includes a first lower intake manifold adapter attached to the vehicle engine. The supercharger system further includes a second lower intake manifold adapter attached to the vehicle engine. The first and second lower intake manifold adapters can be attached to respective first and second cylinder heads of the vehicle engine. The supercharger system further includes a plate situated between the first and the second lower intake manifold adapter, where the plate is adapted to receive a supercharger on a bottom surface of the plate. The supercharger provides compressed air that flows through the first and the second lower intake manifold adapter to the vehicle engine. The supercharger system further includes an upper manifold plenum chamber situated over the plate, where the upper manifold plenum chamber receives the compressed air from the supercharger.

Abstract: An exemplary cleaning apparatus for cleaning a system having a first fluid and a system pump is provided, wherein the apparatus comprises a tank including a second fluid. The cleaning apparatus also comprises an apparatus pump for pumping a predetermined amount of the second fluid from the tank into the system while the system pump is off. The cleaning apparatus further comprises an output hose, a return hose, and a filter between the return hose and the output hose. After the predetermined amount of the second fluid is pumped into the system, the system pump is turned on to pump the first fluid and the second fluid out of the return line through the filter and into the output hose and back into the system.

Abstract: An exemplary cleaning apparatus for cleaning a system having a first fluid is provided, wherein the apparatus comprises a second fluid entering the system and cycling in the system with the first fluid for a predetermined period of time. The cleaning apparatus also comprises an air compressor and an air storage tank. The air compressor is capable of compressing air into air storage tank, and air storage tank is capable of delivering air to the system for purging the first and second fluids from the system after the predetermined period of time has expired. The cleaning apparatus further comprises an air regulator capable of regulating pressure of the air delivered to the system.

Abstract: An apparatus and method for cleaning either a diesel or a gasoline fuel system. The automatic fuel cleaner apparatus comprises a diesel service portion and a gasoline service portion. The diesel and gasoline service portions each includes a return hose having a first end capable of being coupled to a fuel line outlet of the fuel system. Each service portion further includes a detergent reservoir having an input connected to the return hose. Each service portion also includes a pump having an input connected to an output of the detergent reservoir. The diesel and gasoline service portions each further includes an output hose having a first end connected to a pump output and a second end capable of being coupled to a fuel line inlet. The gasoline service portion also comprises a pressure regulator connected to the output of the gasoline pump.

Abstract: Methods and apparatuses are provided for servicing a system having a used fluid, an inlet and an outlet. An exemplary apparatus comprises a first hose capable of being connected to the inlet, a second hose capable of being connected to the outlet, a first fluid tank including a first new fluid, a second fluid tank including a second new fluid, a pump and a selector. The selector selects one of the tanks and the pump pumps the new fluid from the selected tank into the system through the first hose and the inlet, and the second hose receives the used fluid via the outlet. For example, the first and second fluid tanks may communicate with the pump via first and second valves, respectively, and the selector may open the first valve and close the second valve, so that the pump pumps the first new fluid from the first fluid tank.

Abstract: A fluid transfer system and method for removing and replacing fluids in a fluid system. The fluid transfer system comprises an output hose coupled to an input line of the fluid system, and a return hose coupled to an output line of the fluid system. The fluid transfer system further comprises a low-level fluid sensor capable of being installed by an operator in a clean tank, and a high-level fluid sensor capable of being installed by the operator in a waste tank. The fluid transfer system further comprises a clean fluid pump for pumping clean fluid from the clean tank to the output hose. The fluid transfer system further comprises an operator adjustable clean fluid regulator to control a flow rate of clean fluid in the output hose, and an operator adjustable waste fluid regulator to control the flow rate of waste fluid in the return hose.

Abstract: An apparatus and method for determining direction of flow in a fluid or pneumatic system. The apparatus comprises first and second conduits having clear portions, the first and second conduits being capable of determining fluid flow direction in the system by observing fluid through their clear portions. The apparatus further comprises a valve assembly connecting the first conduit to the second conduit, the valve assembly including a shut-off valve. The valve assembly can comprise a release valve for releasing fluid from the valve assembly, and a release mechanism for opening the release valve. The system may include a transmission system and a fluid circuit with a first port and a second port, a transmission service system being connected to the first port and the second port of the fluid circuit according to the direction of fluid flow determined by the apparatus.