mhurhangee/patent-ind-claim-en huggingface dataset:
Camera system for a vehicle, comprising: - a holding device that can be fastened to the vehicle and that comprises a first communication interface for wireless communication, - a camera that comprises an accumulator and that comprises a second communication interface for wireless communication, wherein the camera can be fastened removably to the holding device , and wherein the second communication interface is designed, when the camera is fastened to the holding device , to receive position data from the first communication interface by means of wireless near-field communication in order to determine a position of the holding device relative to the vehicle, and wherein the camera comprises an antenna for communication by means of radio with a receiving unit of an assistance system of the vehicle in order to transmit an image from the camera together with the position data to the assistance system . - a holding device that can be fastened to the vehicle and that comprises a first communication interface for wireless communication, - a camera that comprises an accumulator and that comprises a second communication interface for wireless communication, wherein the camera can be fastened removably to the holding device , and wherein the second communication interface is designed, when the camera is fastened to the holding device , to receive position data from the first communication interface by means of wireless near-field communication in order to determine a position of the holding device relative to the vehicle, and wherein the camera comprises an antenna for communication by means of radio with a receiving unit of an assistance system of the vehicle in order to transmit an image from the camera together with the position data to the assistance system .
A method of managing a communication connection by a first User Equipment, UE, in a wireless communication system, the method comprising: transmitting a first message consisting in a Random Access, RA, preamble for requesting a Radio Resource Control, RRC, connection, wherein the Random Access preamble belongs to a first set of two RA preamble sets, the first set is a RA preamble set reserved for Proximity-based Service, ProSe, and a second set of the two RA preamble sets is a RA preamble set reserved for non-ProSe; establishing the RRC connection with a first Base Station, BS, and the communication connection with a second UE managed by a second BS via a network path including Evolved Packet Core, EPC; and receiving a second message from a ProSe server, wherein the second message indicates that the communication connection with the second UE is out of proximity range, wherein, as a response to the second message, a third message for requesting one of a proximity range extension for maintaining the communication connection with the second UE and a communication connection release is transmitted to the ProSe server. transmitting a first message consisting in a Random Access, RA, preamble for requesting a Radio Resource Control, RRC, connection, wherein the Random Access preamble belongs to a first set of two RA preamble sets, the first set is a RA preamble set reserved for Proximity-based Service, ProSe, and a second set of the two RA preamble sets is a RA preamble set reserved for non-ProSe; establishing the RRC connection with a first Base Station, BS, and the communication connection with a second UE managed by a second BS via a network path including Evolved Packet Core, EPC; and receiving a second message from a ProSe server, wherein the second message indicates that the communication connection with the second UE is out of proximity range, wherein, as a response to the second message, a third message for requesting one of a proximity range extension for maintaining the communication connection with the second UE and a communication connection release is transmitted to the ProSe server.
A cleaning assembly for a photoconductive drum of an electrophotographic printing device , comprising: a sponge impregnated with a cleaning solution (208; 210) to at least substantially remove colorant from the photoconductive drum as the photoconductive drum rotates past the sponge ; and characterised in that the cleaning assembly further comprises: a wiper having an edge that is purposefully rounded to wipe the cleaning solution from the photoconductive drum ; wherein the edge that is purposefully rounded is to contact the photoconductive drum to wipe the cleaning solution from the photoconductive drum as the photoconductive drum rotates past the edge of the wiper , while purposefully maintaining a layer of the cleaning solution on the photoconductive drum . a sponge impregnated with a cleaning solution (208; 210) to at least substantially remove colorant from the photoconductive drum as the photoconductive drum rotates past the sponge ; and characterised in that the cleaning assembly further comprises: a wiper having an edge that is purposefully rounded to wipe the cleaning solution from the photoconductive drum ; wherein the edge that is purposefully rounded is to contact the photoconductive drum to wipe the cleaning solution from the photoconductive drum as the photoconductive drum rotates past the edge of the wiper , while purposefully maintaining a layer of the cleaning solution on the photoconductive drum . a wiper having an edge that is purposefully rounded to wipe the cleaning solution from the photoconductive drum ; wherein the edge that is purposefully rounded is to contact the photoconductive drum to wipe the cleaning solution from the photoconductive drum as the photoconductive drum rotates past the edge of the wiper , while purposefully maintaining a layer of the cleaning solution on the photoconductive drum .
A cannula assembly for directing blood from a heart of a patient, comprising: a flexible cannula body including a proximal portion and a distal portion and a lumen therebetween, a first anchor configured to be deployed from a contracted state to an expanded state, wherein the first anchor is configured to engage at least one side of heart tissue in the expanded state and is operable to resist movement of the cannula assembly in a proximal direction along a lengthwise central axis of the flexible cannula body , and a second anchor located proximal to the first anchor the second anchor operable to prevent movement of the cannula assembly in a distal direction, wherein the assembly further comprises a tip coupled with the distal portion of the flexible cannula body , the first and second anchors coupled to the tip , and in that the first anchor further comprises a plurality of struts extending generally transverse to the lengthwise central axis of the flexible cannula body , and characterized in that the first anchor further comprises a central ring portion , the plurality of struts extending from the central ring portion . a flexible cannula body including a proximal portion and a distal portion and a lumen therebetween, a first anchor configured to be deployed from a contracted state to an expanded state, wherein the first anchor is configured to engage at least one side of heart tissue in the expanded state and is operable to resist movement of the cannula assembly in a proximal direction along a lengthwise central axis of the flexible cannula body , and a second anchor located proximal to the first anchor the second anchor operable to prevent movement of the cannula assembly in a distal direction, wherein the assembly further comprises a tip coupled with the distal portion of the flexible cannula body , the first and second anchors coupled to the tip , and in that the first anchor further comprises a plurality of struts extending generally transverse to the lengthwise central axis of the flexible cannula body , and characterized in that the first anchor further comprises a central ring portion , the plurality of struts extending from the central ring portion .
A process for manufacturing floor tiles , the process comprising the following steps: - scattering granules of a thermoplastic material on a conveying member in order to obtain a first layer of granules , - superimposing several sheets on the first layer of granules in order to obtain a plurality of adjacent sheets on the first layer of granules , said plurality having an uppermost sheet , each of the sheets containing at least 50 wt% of glass fibers, - scattering granules of a thermoplastic material on said uppermost sheet in order to obtain a second layer of granules , - pressing and heating the first layer of granules , the plurality of adjacent sheets and the second layer of granules , - melting or at least softening the first layer of granules and the second layer of granules , the plurality of sheets being at least partly impregnated by the thermoplastic material of the first layer of granules and by the thermoplastic material of the second layer of granules in order to obtain a core layer after cooling, and - using the core layer in order to produce at least a slab , and using the slab to obtain the floor tiles . - scattering granules of a thermoplastic material on a conveying member in order to obtain a first layer of granules , - superimposing several sheets on the first layer of granules in order to obtain a plurality of adjacent sheets on the first layer of granules , said plurality having an uppermost sheet , each of the sheets containing at least 50 wt% of glass fibers, - scattering granules of a thermoplastic material on said uppermost sheet in order to obtain a second layer of granules , - pressing and heating the first layer of granules , the plurality of adjacent sheets and the second layer of granules , - melting or at least softening the first layer of granules and the second layer of granules , the plurality of sheets being at least partly impregnated by the thermoplastic material of the first layer of granules and by the thermoplastic material of the second layer of granules in order to obtain a core layer after cooling, and - using the core layer in order to produce at least a slab , and using the slab to obtain the floor tiles .
A self-configuring sensor , comprising: a first sub-sensor for determining a first status of a door or a window where the self-configuring sensor has been installed; a second sub-sensor for determining a second status of the door or the window where the self-configuring sensor has been installed; a wireless transmitter ; a memory for storing processor-executable instructions; and a processor coupled to the first sub-sensor , the second sub-sensor , the wireless transmitter and the memory for executing the processor-executable instructions that cause the sensor to: monitor the first and second sub-sensors for detecting changes in a first sub-sensor state and a second sub-sensor state, respectively; and determine an installation configuration based on the changes in the first sub-sensor state and the second sub-sensor state, the determined installation configuration comprising a type of the door or the window where the self-configuring sensor has been installed. a first sub-sensor for determining a first status of a door or a window where the self-configuring sensor has been installed; a second sub-sensor for determining a second status of the door or the window where the self-configuring sensor has been installed; a wireless transmitter ; a memory for storing processor-executable instructions; and a processor coupled to the first sub-sensor , the second sub-sensor , the wireless transmitter and the memory for executing the processor-executable instructions that cause the sensor to: monitor the first and second sub-sensors for detecting changes in a first sub-sensor state and a second sub-sensor state, respectively; and determine an installation configuration based on the changes in the first sub-sensor state and the second sub-sensor state, the determined installation configuration comprising a type of the door or the window where the self-configuring sensor has been installed. monitor the first and second sub-sensors for detecting changes in a first sub-sensor state and a second sub-sensor state, respectively; and determine an installation configuration based on the changes in the first sub-sensor state and the second sub-sensor state, the determined installation configuration comprising a type of the door or the window where the self-configuring sensor has been installed.
A plasma device comprising: a mounting support , at least one first lever rotatably mounted on the mounting support , at least one second lever rotatably mounted on the at least one first lever , and a first electrode attached to the at least one second lever , wherein at least one first spacer is movably mounted on the first electrode and configured to provide a predetermined distance of the first electrode from a work piece . a mounting support , at least one first lever rotatably mounted on the mounting support , at least one second lever rotatably mounted on the at least one first lever , and a first electrode attached to the at least one second lever , wherein at least one first spacer is movably mounted on the first electrode and configured to provide a predetermined distance of the first electrode from a work piece .
An unload circuit for returning hydraulic oil from a hydraulic pump to a hydraulic tank with no load, the unload circuit comprising: a pump oil passage that connects between the hydraulic pump and a direction control valve , a tank oil passage that connects between the direction control valve and the hydraulic tank , a pressure compensating flow control valve interposed between the pump oil passage and the tank oil passage , a pilot operated relief valve interposed between the pump oil passage and the tank oil passage , an unloading solenoid valve interposed in a vent oil passage of the pilot operated relief valve , a pressure sensor that measures a pressure of the pump oil passage ; and a controller that controls an energizing state of the unloading solenoid valve and that receives a pressure signal from the pressure sensor , wherein the controller performs failure diagnosis of the unload circuit based on a differential pressure (ΔP) between a first pump oil passage pressure (P1) measured by the pressure sensor during unloaded state when the controller controls the unloading solenoid valve to a first energizing state and a second pump oil passage pressure (P2) measured by the pressure sensor during on-load state when the controller controls the unloading solenoid valve to a second energizing state. a pump oil passage that connects between the hydraulic pump and a direction control valve , a tank oil passage that connects between the direction control valve and the hydraulic tank , a pressure compensating flow control valve interposed between the pump oil passage and the tank oil passage , a pilot operated relief valve interposed between the pump oil passage and the tank oil passage , an unloading solenoid valve interposed in a vent oil passage of the pilot operated relief valve , a pressure sensor that measures a pressure of the pump oil passage ; and a controller that controls an energizing state of the unloading solenoid valve and that receives a pressure signal from the pressure sensor , wherein the controller performs failure diagnosis of the unload circuit based on a differential pressure (ΔP) between a first pump oil passage pressure (P1) measured by the pressure sensor during unloaded state when the controller controls the unloading solenoid valve to a first energizing state and a second pump oil passage pressure (P2) measured by the pressure sensor during on-load state when the controller controls the unloading solenoid valve to a second energizing state.
A protection system for preventing embolic material from entering the cerebral vasculature, the protection system comprising: an articulating distal sheath; a first filter ; a second filter connected to the first filter by a first tethering portion ; and a third filter connected to the second filter by a second tethering portion ; wherein each of the first filter , the second filter , and the third filter is configured to be deployed from the articulating distal sheath, characterized in that , when collapsed in the articulating distal sheath, an apex of each of the first filter , the second filter , and the third filter , is oriented distally of an open end of the respective filter. an articulating distal sheath; a first filter ; a second filter connected to the first filter by a first tethering portion ; and a third filter connected to the second filter by a second tethering portion ; wherein each of the first filter , the second filter , and the third filter is configured to be deployed from the articulating distal sheath, characterized in that , when collapsed in the articulating distal sheath, an apex of each of the first filter , the second filter , and the third filter , is oriented distally of an open end of the respective filter.
A wireless transmit/receive unit, WTRU, configured to communicate with subscribers in an information centric networking, ICN, environment, the WTRU comprising: a memory (530; 532); and a processor configured to: store a first path to a first subscriber and a second path to a second subscriber in the memory; receive a message from a topology manager indicating a change to a network topology; in response to a determination that the change to the network topology relates to the first path and does not relate to the second path, remove the first path from the memory and maintain the second path in the memory; send a request to the topology manager for a third path to the first subscriber to replace the first path that was removed from memory when the WTRU has a message to be sent to the first subscriber; and receive the third path; and store the third path in the memory. a memory (530; 532); and a processor configured to: store a first path to a first subscriber and a second path to a second subscriber in the memory; receive a message from a topology manager indicating a change to a network topology; in response to a determination that the change to the network topology relates to the first path and does not relate to the second path, remove the first path from the memory and maintain the second path in the memory; send a request to the topology manager for a third path to the first subscriber to replace the first path that was removed from memory when the WTRU has a message to be sent to the first subscriber; and receive the third path; and store the third path in the memory. store a first path to a first subscriber and a second path to a second subscriber in the memory; receive a message from a topology manager indicating a change to a network topology; in response to a determination that the change to the network topology relates to the first path and does not relate to the second path, remove the first path from the memory and maintain the second path in the memory; send a request to the topology manager for a third path to the first subscriber to replace the first path that was removed from memory when the WTRU has a message to be sent to the first subscriber; and receive the third path; and store the third path in the memory.
A computer implemented method for associating a user with a wearable device , the method comprising: measuring , by the wearable device , first physiological information of the user ; providing , by the wearable device , the first physiological information to a computing device , wherein the computing device compares the first physiological information against a stored physiological profile , updates a confidence parameter indicating the extent to which the first physiological information matches the stored physiological profile , and determines that the confidence parameter is below a first threshold; receiving , by the wearable device from the computing device , a request for the user to perform an activity or series of activities; measuring , by the wearable device , second physiological information while the user is carrying out the activity or series of activities to determine additional user credentials; and providing , by the wearable device to the computing device , the additional user credentials, wherein the computing device approves or denies a transaction based on the additional user credentials and the confidence parameter. measuring , by the wearable device , first physiological information of the user ; providing , by the wearable device , the first physiological information to a computing device , wherein the computing device compares the first physiological information against a stored physiological profile , updates a confidence parameter indicating the extent to which the first physiological information matches the stored physiological profile , and determines that the confidence parameter is below a first threshold; receiving , by the wearable device from the computing device , a request for the user to perform an activity or series of activities; measuring , by the wearable device , second physiological information while the user is carrying out the activity or series of activities to determine additional user credentials; and providing , by the wearable device to the computing device , the additional user credentials, wherein the computing device approves or denies a transaction based on the additional user credentials and the confidence parameter.
A super junction power metal oxide semiconductor field effect transistor (MOSFET) device having a first conductivity type channel that can be formed in a base region comprising a second conductivity type dopant, said device comprising: a first plurality of columns comprising a dopant of the second conductivity type that is different from a first conductivity type dopant, said first plurality of columns formed in a region comprising said first conductivity type dopant, each column in said first plurality of columns having substantially a same first width and each column in said first plurality of columns contacted to source metal ; and a second plurality of columns comprising said second conductivity type dopant, said second plurality of columns formed in said region comprising said first conductivity type dopant, each column in said second plurality of columns having substantially a same second width and each column in said second plurality of columns contacted to said source metal; wherein said first width is different from said second width and wherein said first plurality of columns is arranged in a plurality of first rows, and wherein said second plurality of columns is arranged in a plurality of second rows, wherein said first rows are interleaved with said second rows, these rows have to be considered in a cross-section plane orthogonal to the axes of the columns. a first plurality of columns comprising a dopant of the second conductivity type that is different from a first conductivity type dopant, said first plurality of columns formed in a region comprising said first conductivity type dopant, each column in said first plurality of columns having substantially a same first width and each column in said first plurality of columns contacted to source metal ; and a second plurality of columns comprising said second conductivity type dopant, said second plurality of columns formed in said region comprising said first conductivity type dopant, each column in said second plurality of columns having substantially a same second width and each column in said second plurality of columns contacted to said source metal; wherein said first width is different from said second width and wherein said first plurality of columns is arranged in a plurality of first rows, and wherein said second plurality of columns is arranged in a plurality of second rows, wherein said first rows are interleaved with said second rows, these rows have to be considered in a cross-section plane orthogonal to the axes of the columns.