2460results about "Vehicle cleaning apparatus" patented technology

Applications of RFID technology include: RFID Tags on Automobiles in Parking Garages; RFID w / Toothbrushes; RFID Tags For Laundry Settings; RFID Tags Or Labels to Find a Mate; RFID To Identify The Value Of Coins; RFID Tags In The Doctors Office; RFID Tags Or Labels In Game Arcades; RFID With Prisoners; RFID Tags To Identify Soldiers; RFID Labels As Tags To Label Particular Components Of Aircraft or Other Structures; Car, Snowmobile, Boat, Etc. Ignition That Won't Start Without RFID Card; Car seats with RFID reader and memory; Air bags that adjust based on information on RFID; Car that keeps track of GPS info and knows whos driving based on RFID; RFID Smart Closet; Method of taking attendance; RFID on networked desks to monitor the location of individuals; Personal computer reads RFID to log you in and take you to favorite web page, load favorites list, etc.; RFID labels on Files; RFID address label versions of all label and sheet inventions; RFID sports tickets; Combination function invitation and RFID chip to allow admittance; Roll of tape with RFID built in; Schoolbus reads which kids getting on, keeps record; RFID on each car wheel; RFID key to operate common-area laundry; RFID to automatically adjust weights / treadmill settings in gym; RFID w / clothes measurements, save shelf space at store, get proper size; RFID keyring w / car information; Keep track of who's driving around neighborhood; RFID dental implant; RFID Thumbtack; RFID Doorstop; RFID identification of boats or ships at docks; RFID on cups w / specifics of favorite coffee drinks; RFID on bridges with RFID tanks on top of cars, to detect speeding; RFID on studs in a wall and RFID reader that acts as a stud finder; RFID tags or labels inside tires; RFID cards supplied with newspapers or magazines; RFID card that lights up a when the user reaches a particular location; RFID sports ticket w / automatic map generation to seat; RFID card to tell school cafeteria what lunch to prepare for particular student; student desk with slot to receive RFID card, desks on networks together, Central computing system can tell where any particular student is sitting at any given moment within the school; RFID readers on outdoor play equipment; Authentication of Expensive Items With RFID; Paintings or other art work with RFID label to be used to verify the number in a limited series; RFID on sports helmet or uniform; RFID chips in paint; RFID cards issued to airline passengers to identify type of drinks and meals for a particular passenger, etc.; Greeting Cards With RFID; Decorative Tiles With RFID Tags; RFID in Car Washes; and Adaptive Advertising Based on RFID Information.

A vehicle fleet management information system for identification of location and direction of movement of each vehicle in the fleet in real-time and automatic communication directly with management offices to report its location and heading, and status of predetermined events in which the vehicle may be engaged. One example is a cement delivery truck which monitors location, speed and status information such as start pour, pouring, end pour, wash and leave job, and automatically transmits this information with a management office without requiring affirmative action by the vehicle operator.

An autonomous floor cleaning robot includes a transport drive and control system arranged for autonomous movement of the robot over a floor for performing cleaning operations. The robot chassis carries a first cleaning zone comprising cleaning elements arranged to suction loose particulates up from the cleaning surface and a second cleaning zone comprising cleaning elements arraigned to apply a cleaning fluid onto the surface and to thereafter collect the cleaning fluid up from the surface after it has been used to clean the surface. The robot chassis carries a supply of cleaning fluid and a waste container for storing waste materials collected up from the cleaning surface.

A vehicle drive assist system comprises a camera for picking up an image of an area existing in an advancing direction of a vehicle; display means for displaying the image picked up by the camera; steering angle detecting means for detecting a steering angle for steering the vehicle; traveling path predicting means for predicting a traveling path of the vehicle on the basis of the steering angle detected by the steering angle detecting means; and drive assist means for overlaying on the display means drive assist information containing the vehicle predictive traveling path predicted by the traveling path predicting means and guide lines prolonged from the lines defining the width of the vehicle body on the image of the area existing in the vehicle advancing direction.

A battery-powered, upright vacuum sweeper comprises a base assembly and a handle pivotably attached thereto. The base assembly comprises a vacuum fan assembly fluidly communicating with an inlet for vacuuming dust and the debris particles from a surface into a removable reservoir. A rotating roller brush attached to the base assembly sweeps the particles into the inlet. A dust pad assembly comprises a disposable dust cloth extending over a portion of the base assembly in contact with the surface to be cleaned for removing dust particles which are not removed by vacuuming.

In one embodiment, an oral-care system is provided. The oral-care system includes an electric toothbrush having a motor, a power source in electrical communication with the motor, and a bristle holder operatively connected to the motor. A display is in data communication with the electric toothbrush.

Multi-directional wiping elements are disclosed. The wiping elements comprise intersecting squeegee segments that provide top wiping squeegee edges and side wiping squeegee edges. Devices utilizing the multi-directional wiping elements of the present invention can include bristles that are configured to simultaneously wipe a working surface with the wiping elements. In accordance with the embodiments of the invention, the multi-directional wiping elements are utilized in a toothbrush cleaning head that is configured to be operated manually or, alternatively, is motorized and is configured to rotate, oscillate, vibrate and / or move according to a combination thereof.

A cleaning and disinfecting system for the cleaning and disinfecting of footwear or feet. The system provides for cleaning and disinfecting the bottom of the feet or footwear. An optional brush on a wand provides cleaning to upper foot areas as required. The system is automatically activated only when a person stands on the device, thereby minimizing the volume of fluid required to perform the process. Optionally, a venturi component allows the addition of a cleaning or disinfecting fluid with the cleaning solution or water. When the system is attached to a hot water line and fitted with heating elements, it can be used to remove snow from shoes and boots.

A robot mechanism adopts a dry cleaning method to clean the surface of live-line insulators without: using water and can perform cleaning and inspection of the surface of the live-line insulators while automatically moving along an insulator string. The robot mechanism includes a main unit having upper and lower wing frames connected with each other by a connecting bracket to surround the insulator string, a cleaning unit disposed between the upper and lower wing frames and including a base frame to perform dry cleaning with a rotational brush and a CM guide, a lift unit including a clamp and a ball-bearing screw to move the main unit up or down, and an inspection unit to electrically inspect the insulators; and a coupling unit to couple a pair of the main units to allow the pair of main units to move along a tension insulator string or a suspension insulator string.

The invention is directed to a dental cleaning device. It relates in particular to a handle section of an electric toothbrushing device, with a coupling section for coupling various cleaning tools thereto, a drive mechanism for driving the coupled cleaning tool, and a control device for controlling the drive mechanism. The invention further relates to such cleaning tools. According to the invention the handle section includes an electronic interlock device which is deactivated by an encoded interlock canceling element on the cleaning tool only when the cleaning tool is coupled to the handle section (FIG. 4).

To improve operability for vehicle height adjustment, while ensuring safety, in a vehicle such as a truck, a wireless remote control radio-transmits a vehicle height adjusting signal tagged with a remote control identification code. The remote control identification code is preregistered in a receiver, which, upon receipt of the vehicle height adjusting signal tagged with the remote control identification code, takes in the vehicle height adjusting signal. According to information contained in the received vehicle height adjusting signal, an air suspension ECU controls supply and discharge of compressed air for air springs to adjust the vehicle height. When an emergency operation switch is operated, the vehicle height adjusting signal from the wireless remote control is disabled, and vehicle height adjustment is preferentially made based on a switching signal from the emergency operation switch.

A suspension for a vehicle is provided. The suspension includes, for example, a frame and a releasable locking assembly. The releasable locking assembly has, for example, a first assembly movably coupled to the frame, a second assembly movably coupled to the frame, and wherein movement of the frame relative to the first and second assemblies causes the first and second assemblies to engage each other to limit further movement of the frame in at least a first direction.

The invention relates to a drive assisting method for the reversal path of a vehicle which consists of a tow track and a trailer pivotable with respect thereto and is provided with a conventional mechanical steering device. The inventive method consists in selecting a target point (C), which the vehicle path should pass through, Determination in calculating the steering angle instruction β0 according to said target point (C) and the vehicle geometry and in displaying said steering angle instruction β0 in comparison with an actual steering angle β, which corresponds to the position of the member (21) of the steering device, on a display device accessible to a driver.

A leaning vehicle has a frame pivotally connected to the lower end of a shock tower, the pivotal connection defining a frame leaning axis wherein the frame is adapted to lean to a right side and to a left side relative to the shock tower about the frame leaning axis. The leaning vehicle includes an actuator operatively connected to the frame and to the shock tower which is adapted to impart a leaning motion to the frame relative to the shock tower about the frame leaning axis.

A system and method of controlling an automotive vehicle includes determining a steering wheel angle, determining a steering wheel direction, determining a steering wheel angular rate and applying brake-steer as a function of steering wheel angle, steering wheel angular rate and steering wheel direction.

A parking aid system having a driver initially stop the subject vehicle alongside a target parking position so that a mark provided inside a door coincides with the central line of the target parking position when assisting the driver with left reverse parking. The subject vehicle is a predetermined distance away from an entrance of the target parking position, when the driver turns the operation switch ON. A display unit then displays the target parking position, the subject vehicle position, and an expected parking position. The expected parking position is set at a position that the subject vehicle reaches when reversing with the steering wheel turned fully to the left. Therefore, when the driver moves the subject vehicle forward to a position where the expected parking position coincides with the target parking position and reverses the subject vehicle from that position through 90° while turning the steering wheel fully to the left, the subject vehicle can reliably be guided to the target parking position.

A vacuum cleaner includes a housing, a height adjust mechanism disposed on the housing and a height adjust motor, disposed within said housing that controls a height of the height adjust mechanism. A position element is mounted to said housing. A sensor processor, mounted to said housing, is in communication with the position element to provide a signal that relates to a position of the height adjust mechanism based at least in part upon data received from the position element. A controller processor, mounted to said housing, is in communication with the sensor processor for selectively controlling a height of the height adjust mechanism relative to a subjacent surface on which the vacuum cleaner is positioned. A height adjust mechanism height motor controller is in communication with the controller processor, for driving the height adjust motor to locate the height adjust mechanism in an appropriate position relative to the subjacent surface.