mhurhangee/patent-ind-claim-en huggingface dataset:
A method of performing real-time communication by a source device, the source device including a streaming server and a web real time communicator and being communicable with an external web browser of a sink device, the method comprising the steps of: signaling (S110, S210, S510, S630) to the external web browser to initiate real-time communication over a network ; packetizing (S130), by the streaming server, encoded media data based on a given real-time network protocol after the signaling is performed ; requesting (S220, S530, S630) the packetized media data from the streaming server based upon the response to the signaling step (S110, S210, S510, S610) and the packetized media data including media data that is encoded based on a given media compression standard; de-packetizing (S140, 540, 650) the packetized media data to obtain the encoded media data; and performing (S150, S570, S700) the real-time communication by transporting the encoded media data to the external web browser over the network , wherein the packetized media data is requested when the signaling result indicates that the external web browser supports the given media compression standard and the steps of signaling, requesting, de-packetizing, and performing are accomplished by the web real time communicator . signaling (S110, S210, S510, S630) to the external web browser to initiate real-time communication over a network ; packetizing (S130), by the streaming server, encoded media data based on a given real-time network protocol after the signaling is performed ; requesting (S220, S530, S630) the packetized media data from the streaming server based upon the response to the signaling step (S110, S210, S510, S610) and the packetized media data including media data that is encoded based on a given media compression standard; de-packetizing (S140, 540, 650) the packetized media data to obtain the encoded media data; and performing (S150, S570, S700) the real-time communication by transporting the encoded media data to the external web browser over the network , wherein the packetized media data is requested when the signaling result indicates that the external web browser supports the given media compression standard and the steps of signaling, requesting, de-packetizing, and performing are accomplished by the web real time communicator .
Method for controlling a pneumatic actuator of a continuously variable transmission (CVT) in order to change a transmission ratio of the CVT, comprising the following steps: - determining a current actual speed of an internal combustion engine , - comparing the current actual speed with a setpoint speed of the internal combustion engine, wherein the setpoint speed is determined in accordance with a vehicle speed, - wherein, if the actual speed is lower than the setpoint speed, the actuator is connected to a vacuum source , and - wherein, if the actual speed is higher than the setpoint speed, the actuator is connected to a pressure source . - determining a current actual speed of an internal combustion engine , - comparing the current actual speed with a setpoint speed of the internal combustion engine, wherein the setpoint speed is determined in accordance with a vehicle speed, - wherein, if the actual speed is lower than the setpoint speed, the actuator is connected to a vacuum source , and - wherein, if the actual speed is higher than the setpoint speed, the actuator is connected to a pressure source .
A method for wireless communications by a peer device, comprising: generating control information to schedule peer-to-peer communication, wherein the control information comprises a first portion with a first set of control information and a second portion with a second set of control information; transmitting the first portion of the control information in a first stage using first time and frequency resources, wherein the first portion indicates a control information format of the second portion; and transmitting the second portion of the control information in a second stage using second time and frequency resources and the indicated control information format; the method being characterized in that : content included in the second set of control information varies based on casting type of the peer-to-peer communication; or the second set of control information comprises information regarding a location of the peer device. generating control information to schedule peer-to-peer communication, wherein the control information comprises a first portion with a first set of control information and a second portion with a second set of control information; transmitting the first portion of the control information in a first stage using first time and frequency resources, wherein the first portion indicates a control information format of the second portion; and transmitting the second portion of the control information in a second stage using second time and frequency resources and the indicated control information format; the method being characterized in that : content included in the second set of control information varies based on casting type of the peer-to-peer communication; or the second set of control information comprises information regarding a location of the peer device. content included in the second set of control information varies based on casting type of the peer-to-peer communication; or the second set of control information comprises information regarding a location of the peer device.
Electrical plug-in connector , comprising - at least two electrical plug elements (111-114) which extend next to one another along a longitudinal direction (L) and which are each intended to be connected to a core (11-14) of an associated electric cable , and - an electrical component which is in electrical contact with each of the plug elements (111-114), characterized in that the electrical component is arranged on a flexible carrier which annularly surrounds the plug elements (111-114) in cross section, wherein the electrical component is arranged on the inner side (I), facing the plug elements (111-114), of the flexible carrier . - at least two electrical plug elements (111-114) which extend next to one another along a longitudinal direction (L) and which are each intended to be connected to a core (11-14) of an associated electric cable , and - an electrical component which is in electrical contact with each of the plug elements (111-114),
A syringe assembly comprising: an elongate syringe barrel defining a fluid reservoir ; a housing that is coupled to the elongate syringe barrel via a snap-fit connection; a pressure transducer ; a circuit board and a display screen , wherein the circuit board and the display screen are each disposed within the housing; and an aperture that extends through a wall of the elongate syringe barrel such that the fluid reservoir of the elongate syringe barrel is in fluid communication with the pressure transducer ; wherein the snap-fit connection comprises: an adaptor that is coupled to the elongate syringe barrel , the adaptor comprising a plurality of flanges (134a; 134b; 134c), wherein each flange of the plurality of flanges (134a; 134b; 134c) is in contact with the housing ; and a lock that is coupled to the housing, the lock preventing movement of the adaptor relative to the housing, characterized in that the display screen is supported by a plurality of resilient pins that are coupled to the housing , wherein the plurality of resilient pins are configured to deflect due to one or more forces applied to the display screen. an elongate syringe barrel defining a fluid reservoir ; a housing that is coupled to the elongate syringe barrel via a snap-fit connection; a pressure transducer ; a circuit board and a display screen , wherein the circuit board and the display screen are each disposed within the housing; and an aperture that extends through a wall of the elongate syringe barrel such that the fluid reservoir of the elongate syringe barrel is in fluid communication with the pressure transducer ; wherein the snap-fit connection comprises: an adaptor that is coupled to the elongate syringe barrel , the adaptor comprising a plurality of flanges (134a; 134b; 134c), wherein each flange of the plurality of flanges (134a; 134b; 134c) is in contact with the housing ; and a lock that is coupled to the housing, the lock preventing movement of the adaptor relative to the housing, an adaptor that is coupled to the elongate syringe barrel , the adaptor comprising a plurality of flanges (134a; 134b; 134c), wherein each flange of the plurality of flanges (134a; 134b; 134c) is in contact with the housing ; and a lock that is coupled to the housing, the lock preventing movement of the adaptor relative to the housing, characterized in that the display screen is supported by a plurality of resilient pins that are coupled to the housing , wherein the plurality of resilient pins are configured to deflect due to one or more forces applied to the display screen.
Selvedge device , comprising at least two pairs of heddle holders for holding heddles on either side by means of each pair of heddle holders , a drive device for driving the two pairs of heddle holders by reciprocating movements, in which the drive device comprises at least two drive bodies and each pair of heddle holders is attached to a said drive body , wherein the heddle holders of at least one pair of heddle holders are attached to the corresponding drive body so as to be height-adjustable with respect to this corresponding drive body , and wherein each pair of heddle holders is coupled to each other by means of a coupling element , characterized in that the coupling element is arranged on the side of the corresponding drive body and that each heddle holder , on its side facing away from the corresponding drive body , is provided with a nose having a length which is such that adjacent heddle holders which perform a deviating reciprocating movement remain adjacent to each other for their entire reciprocating movement.
Protection device for a building cover comprising a malleable outer body and a stiffer inner body , wherein the outer body is completely or partially covered by a cover , the inner body is completely or partially surrounded by the covered outer body , and the cover consists of a flexible grid, mesh or fabric, is connected to the inner body and holds the outer body around the inner body , characterized in that the outer body comprises a malleable wool of metal or of plastic, which forms a malleable cushion around the inner body and the cover consists of metal mesh or metal fabric. the outer body is completely or partially covered by a cover , the inner body is completely or partially surrounded by the covered outer body , and the cover consists of a flexible grid, mesh or fabric, is connected to the inner body and holds the outer body around the inner body , characterized in that the outer body comprises a malleable wool of metal or of plastic, which forms a malleable cushion around the inner body and the cover consists of metal mesh or metal fabric.
A method comprising: receiving, by a computing device, image data from a camera of the computing device, the image data comprising a plurality of frames; generating, for each of the frames of the image data, by the computing device, an image pyramid comprising multiple levels of an image in the image data subsampled at various resolutions for each level; initiating, by the computing device, transfer of image data corresponding to at least one predetermined level of the image pyramid comprising higher resolution to a graphic processing unit, GPU, of the computing device; calculating, by a central processing unit, CPU, of the computing device, optical flow of at least one predetermined coarse level of the image pyramid; transferring, by the CPU of the computing device, the calculated optical flow of the at least one predetermined coarse level of the image pyramid to the GPU; calculating, by the GPU of the computing device, the optical flow of the at least one predetermined level of the image pyramid comprising higher resolution; and outputting, by the GPU of the computing device, the optical flow of the image data. receiving, by a computing device, image data from a camera of the computing device, the image data comprising a plurality of frames; generating, for each of the frames of the image data, by the computing device, an image pyramid comprising multiple levels of an image in the image data subsampled at various resolutions for each level; initiating, by the computing device, transfer of image data corresponding to at least one predetermined level of the image pyramid comprising higher resolution to a graphic processing unit, GPU, of the computing device; calculating, by a central processing unit, CPU, of the computing device, optical flow of at least one predetermined coarse level of the image pyramid; transferring, by the CPU of the computing device, the calculated optical flow of the at least one predetermined coarse level of the image pyramid to the GPU; calculating, by the GPU of the computing device, the optical flow of the at least one predetermined level of the image pyramid comprising higher resolution; and outputting, by the GPU of the computing device, the optical flow of the image data.
A dropper seatpost assembly for a vehicle , which dropper seatpost assembly comprises an electronic rotary flow control valve assembly comprising: a first fluid chamber comprising a working fluid; a second fluid chamber comprising said working fluid; a flow hole to fluidly couple said first fluid chamber with said second fluid chamber ; a rotary flow control valve to control a flow of said working fluid through said flow hole; and a motor to rotate said rotary flow control valve , wherein said motor produces no linear motion and said rotation of said rotary flow control valve by said motor does not require linear motion; characterised in that said electronic rotary flow control valve assembly further comprises: a lug ; a cutout in a portion of said rotary flow control valve , wherein an interaction between said cutout and said lug creates a hard stop for said rotation of said rotary flow control valve; a control system for said motor , said control system comprising a current limit; and said hard stop for said rotation of said rotary flow control valve causes said motor to reach said current limit. a first fluid chamber comprising a working fluid; a second fluid chamber comprising said working fluid; a flow hole to fluidly couple said first fluid chamber with said second fluid chamber ; a rotary flow control valve to control a flow of said working fluid through said flow hole; and a motor to rotate said rotary flow control valve , wherein said motor produces no linear motion and said rotation of said rotary flow control valve by said motor does not require linear motion; characterised in that said electronic rotary flow control valve assembly further comprises: a lug ; a cutout in a portion of said rotary flow control valve , wherein an interaction between said cutout and said lug creates a hard stop for said rotation of said rotary flow control valve; a control system for said motor , said control system comprising a current limit; and said hard stop for said rotation of said rotary flow control valve causes said motor to reach said current limit. a lug ; a cutout in a portion of said rotary flow control valve , wherein an interaction between said cutout and said lug creates a hard stop for said rotation of said rotary flow control valve; a control system for said motor , said control system comprising a current limit; and said hard stop for said rotation of said rotary flow control valve causes said motor to reach said current limit.
An electronic device (100; 1400; 1500) comprising: a first display (160; 1460; 1560) arranged to face a first direction; a second display (170; 1470; 1570) arranged to face a second direction; a memory configured to store display data to be output on the first display or the second display; and a processor electrically connected with the first display, the second display, and the memory, wherein the processor is configured to: execute an application; output, on the first display, a function execution screen corresponding to execution of the application; receive a flip motion; in response to the flip motion, obtain a type of the application, determine an external electronic device associated with the type of the application, and establish a connection with the determined external electronic device; and in response to the flip motion, output, on the second display, a control screen associated with operation control of the external electronic device as an additional information associated with the function execution screen while transmitting application execution data according to the execution of the application to the external electronic device . a first display (160; 1460; 1560) arranged to face a first direction; a second display (170; 1470; 1570) arranged to face a second direction; a memory configured to store display data to be output on the first display or the second display; and a processor electrically connected with the first display, the second display, and the memory, wherein the processor is configured to: execute an application; output, on the first display, a function execution screen corresponding to execution of the application; receive a flip motion; in response to the flip motion, obtain a type of the application, determine an external electronic device associated with the type of the application, and establish a connection with the determined external electronic device; and in response to the flip motion, output, on the second display, a control screen associated with operation control of the external electronic device as an additional information associated with the function execution screen while transmitting application execution data according to the execution of the application to the external electronic device . execute an application; output, on the first display, a function execution screen corresponding to execution of the application; receive a flip motion; in response to the flip motion, obtain a type of the application, determine an external electronic device associated with the type of the application, and establish a connection with the determined external electronic device; and in response to the flip motion, output, on the second display, a control screen associated with operation control of the external electronic device as an additional information associated with the function execution screen while transmitting application execution data according to the execution of the application to the external electronic device .
A switchgear leakage current monitoring system for a high voltage or medium voltage switchgear, comprising: - at least one sensor ; and - a leakage current monitoring unit ; wherein, the at least one sensor comprises at least one conducting layer or electrode , wherein each sensor comprises a conducting layer or electrode; wherein, the at least one conducting layer or electrode is attached or integrated on at least one surface of at least one insulating component of a high voltage or medium voltage switchgear, wherein each insulating component has a conducting layer or electrode attached or integrated on its surface; wherein, the at least one insulating component is mechanically attached to at least one electrically conductive part at ground potential of the high voltage or medium voltage switchgear, wherein each insulating component is mechanically attached to an electrically conductive part, and wherein the at least one conducting layer or electrode is situated at a corresponding at least one location of the at least one insulating component that is close to the at least one electrically conductive part such that the at least one conducting layer or electrode is not in direct contact with the at least one electrically conductive part; wherein, the at least one sensor is configured to acquire at least one leakage current signal, wherein each sensor is configured to acquire a leakage current signal on a surface of the insulating component to which its corresponding conducting layer or electrode is attached or integrated; wherein the at least one sensor comprises at least one ground connection ; wherein, the at least sensor has at least one data connection to the leakage current monitoring unit; and wherein, the leakage current monitoring unit is configured to be provided with at least one measurement data relating to the at least one leakage current signal via the at least one data connection. - at least one sensor ; and - a leakage current monitoring unit ;
A gas storage article comprising a solid, dense, porous adsorbent media bound together by 0.3 to 30 weight percent of thermoplastic binder particles, wherein said binder particles have a discrete particle size of between 5 nm and 700 nm, wherein said adsorbent media is activated carbon or carbon fibers, wherein the density of the immobilized article is greater than 1.1 times that of the apparent density of the sorption media and wherein said thermoplastic binder is selected from polyvinylidene fluoride homopolymer and copolymer, and polyamides, wherein the particles forming said adsorbent media are in the size range of 0.1 to 3,000 micrometers in diameter, preferably from 1 to 500 micrometers in diameter and fibers in range of 0.1 to 250 micrometers in diameter, wherein the adsorbent material is bound together by discrete thermoplastic binder particles at discrete points providing interconnectivity. wherein the density of the immobilized article is greater than 1.1 times that of the apparent density of the sorption media and wherein said thermoplastic binder is selected from polyvinylidene fluoride homopolymer and copolymer, and polyamides, wherein the particles forming said adsorbent media are in the size range of 0.1 to 3,000 micrometers in diameter, preferably from 1 to 500 micrometers in diameter and fibers in range of 0.1 to 250 micrometers in diameter, wherein the adsorbent material is bound together by discrete thermoplastic binder particles at discrete points providing interconnectivity.
A compound containing a structure where a carbazol-9-yl group substituted with a perfluoroalkyl group at the 2-position and the 7-position and a structural unit having a positive Hammett constant σ p (but excluding an aromatic hydrocarbon group) bond to each other directly or via a π-conjugated linking group, wherein at least a part of the carbazol-9-yl group and at least a part of the structural unit having a positive Hammett constant σ p and, if any, the π-conjugated linking group form a π-electron conjugated system, wherein the compound is a compound represented by the following formula : wherein Z represents a cyano group, a perfluoroalkyl group, a substituted or unsubstituted triazinyl group, or a substituted or unsubstituted pyrimidinyl group, at least one of R 1 to R 5 represents a carbazol-9-yl group substituted with a perfluoroalkyl group at the 2-position and the 7-position, and the remaining R 1 to R 5 each independently represent a hydrogen atom, a cyano group, a perfluoroalkyl group, a substituted or unsubstituted triazinyl group, a substituted or unsubstituted pyrimidinyl group, or a group represented by any one of the following formulae to : wherein R 31 to R 38 , R 41 to R 46 , R 51 to R 62 and R 71 to R 80 each independently represent a hydrogen atom or a substituent, provided that R 32 and R 37 each are a substituent except a perfluoroalkyl group.