mhurhangee/ep-ind-claims huggingface dataset:
A self-expanding implant device comprising a proximal portion at a first longitudinal end, a distal portion at a second longitudinal end opposite the first longitudinal end, and a connecting portion between the proximal portion and the distal portion, wherein the proximal portion and the distal portion each comprise a radially self-expanding structure (5, 6), wherein the connecting portion comprises at least 4 longitudinally oriented bendable struts, preferably 6 struts or more, which connect the self-expanding structure of the proximal portion with the self-expanding structure of the distal portion, the struts are not interconnected, wherein in a fully expanded state, the implant device comprises a maximum implant diameter along a direction perpendicular to the longitudinal direction and wherein the struts of the connecting portion comprise a strut length along the longitudinal direction, wherein the strut length is such that when the self-expanding structure of the proximal portion is in a compacted state and the self-expanding structure of the distal portion is not constrained radially, the self-expanding structure of the distal portion reaches a semi-expanded state comprising a diameter which is at least 60% of the maximum implant diameter, characterized in that, at least one of the struts comprises a set of interconnected elements comprising an ellipse-like shape or a diamond-like shape, said interconnected elements being connected longitudinally.
One or more computer-readable memories storing instructions which, when executed by one or more processors disposed in alocal device (110 1), implement a method for real-time sharing of content between respective local and remote parties using local and remotedevices during aphonecall, comprising: during the phone call, exposing a user interface for initiating the real-time sharing; enabling selection of content for sharing, the shareable content being locally available to the local device (110 1) or available to the local device (110 1) from a remote source (125, 130); enabling pre-staging of content in which pre-staged content is separate from presently shared content so that the remote party (105 N) is prevented from viewing the pre-staged content; enabling the local party (105 1) to movecontent from pre-staging to presently shared content so that the local party (105 1) can control pacing of presentation of instances of shared content items with the remote party (105 N); and providing tools for highlighting portions of shared content for the remote party (105 N), the highlighting including graphics or text annotations; characterized by providing controls to enable the local party (105 1) of the local device (110 1) controlling the remote party (105 N)'s access to shared content after the phone call is terminated, the controlling including enabling shared content to be accessed for a predetermined time interval after the termination of thephonecall. during the phone call, exposing a user interface for initiating the real-time sharing; enabling selection of content for sharing, the shareable content being locally available to the local device (110 1) or available to the local device (110 1) from a remote source (125, 130); enabling pre-staging of content in which pre-staged content is separate from presently shared content so that the remote party (105 N) is prevented from viewing the pre-staged content; enabling the local party (105 1) to movecontent from pre-staging to presently shared content so that the local party (105 1) can control pacing of presentation of instances of shared content items with the remote party (105 N); and providing tools for highlighting portions of shared content for the remote party (105 N), the highlighting including graphics or text annotations; characterized by providing controls to enable the local party (105 1) of the local device (110 1) controlling the remote party (105 N)'s access to shared content after the phone call is terminated, the controlling including enabling shared content to be accessed for a predetermined time interval after the termination of thephonecall.
Communication apparatus for use in a hazard area, having a receptacle which has an opening towards the hazard area and in which a transponder element is embedded in a potting compound, and having a transmission device which is connected to the transponder element via a signal line, wherein the potting compound in the region of the opening is provided with a heat shield which is protected against mechanical loading by means of a holding element towards the hazard area, characterised in that the transponder element is coupled to the receptacle via a thermally conductive component such that the transponder element can be cooled or heated via the receptacle.
A chromatography column bed support case, comprising: a housing having a body with an opening, an interior in the body accessible via the opening, and a lid configured to cover the opening; two removable inserts (320, 330) configured to fit inside the interior in a parallel configuration, each insert including a cavity configured to house a chromatography column bed support; and a removable divider disposed between the inserts (320, 330), wherein the divider is sized and configured to separate the inserts (320, 330), wherein each of the inserts (320, 330) and the divider includes a centrally located through hole, and wherein the through holes are coaxial. a housing having a body with an opening, an interior in the body accessible via the opening, and a lid configured to cover the opening; two removable inserts (320, 330) configured to fit inside the interior in a parallel configuration, each insert including a cavity configured to house a chromatography column bed support; and a removable divider disposed between the inserts (320, 330), wherein the divider is sized and configured to separate the inserts (320, 330), wherein each of the inserts (320, 330) and the divider includes a centrally located through hole, and wherein the through holes are coaxial.
A method of enabling near real time analysis of data for a wireless communication network using dynamically allocated backend processing resources, the method comprising, at each of a plurality of distributed components of a data processing system: receiving data from at least one network element of the wireless communication network; determining at least one data element required for generation of analytical data and configured by a network operator; parsing the received data to extract a subset of the received data in accordance with the determined at least one data element, the subset of the received data including at least one of: information indicating a measured radio propagation delay, or information indicating a received signal code power; calculating geolocation information from the extracted subset of the data based on at least one of algorithms that use roundtrip delay calculations/measurements for signals between mobile communication units and base stations or algorithms that use signal strength information received from mobile communication units; and forwarding the extracted subset of the data and the geolocation information to the dynamically allocated backend processing resources for analytical processing of the extracted subset of the data. receiving data from at least one network element of the wireless communication network; determining at least one data element required for generation of analytical data and configured by a network operator; parsing the received data to extract a subset of the received data in accordance with the determined at least one data element, the subset of the received data including at least one of: information indicating a measured radio propagation delay, or information indicating a received signal code power; information indicating a measured radio propagation delay, or information indicating a received signal code power; calculating geolocation information from the extracted subset of the data based on at least one of algorithms that use roundtrip delay calculations/measurements for signals between mobile communication units and base stations or algorithms that use signal strength information received from mobile communication units; and forwarding the extracted subset of the data and the geolocation information to the dynamically allocated backend processing resources for analytical processing of the extracted subset of the data.
A system comprising: a tunneling tool; a first electrode at a tip of the tunneling tool; a second electrode; means for measuring impedance between the first electrode and the second electrode; and a circuit configured to determine when the tip of the tunneling tool is within subcutaneous fat tissue or muscle tissue of a patient or vice versa based on the measured impedance; said system further comprising a lead, and wherein the first electrode comprises a stylet within a central lumen of the lead, and wherein the second electrode comprises a coil of the lead. a tunneling tool; a first electrode at a tip of the tunneling tool; a second electrode; means for measuring impedance between the first electrode and the second electrode; and a circuit configured to determine when the tip of the tunneling tool is within subcutaneous fat tissue or muscle tissue of a patient or vice versa based on the measured impedance; said system further comprising a lead, and wherein the first electrode comprises a stylet within a central lumen of the lead, and wherein the second electrode comprises a coil of the lead.
A method for clock recovery and data recovery from a data stream on a communication channel, comprising the steps of: - sampling a data stream on said communication channel at a sampling frequency determined by a clock signal and generating a sampled signal; - determining a phase shift between the communication data stream and the sampled signal by applying the sampled signal and the data stream to two inputs of a phase comparator that supplies an output phase shift signal; characterised by the steps of: - applying said phase shift signal to a calculation block of a delay time between two edges of the phase shift signal, to supply a signal that is a function of said delay time; - applying a signal that is a function of the delay time to a compensator, whose output modifies the phase of said clock signal on the basis of said phase shift, to obtain a desired phase difference between said sampled signal and said data stream. - sampling a data stream on said communication channel at a sampling frequency determined by a clock signal and generating a sampled signal; - determining a phase shift between the communication data stream and the sampled signal by applying the sampled signal and the data stream to two inputs of a phase comparator that supplies an output phase shift signal; characterised by the steps of: - applying said phase shift signal to a calculation block of a delay time between two edges of the phase shift signal, to supply a signal that is a function of said delay time; - applying a signal that is a function of the delay time to a compensator, whose output modifies the phase of said clock signal on the basis of said phase shift, to obtain a desired phase difference between said sampled signal and said data stream. - applying said phase shift signal to a calculation block of a delay time between two edges of the phase shift signal, to supply a signal that is a function of said delay time; - applying a signal that is a function of the delay time to a compensator, whose output modifies the phase of said clock signal on the basis of said phase shift, to obtain a desired phase difference between said sampled signal and said data stream.
A radio frequency mixer apparatus (100; 200; 200A; 200B) comprising: a plurality of transformers (118, 120, 122; 232, 234, 260, 262); wherein each of the plurality of transformers includes a primary side (118a, 120a, 122a; 232a, 234a, 260a 262a) and a secondary side (118b, 120b, 122b; 232b, 234b, 260b, 262b); wherein the primary sides of each transformer are connected in series; a radio frequency port (RF; 202), wherein the primary sides of each transformer are coupled to the radio frequency port in series; and a plurality of commutator cells (124, 126, 128; 236, 238, 264, 266); wherein each of the plurality of commutator cells is coupled to a local oscillator port (104; 204) in parallel and an intermediate frequency port (106; 206) in parallel; and wherein the secondary side of each transformer is connected to one respective commutator cell of the plurality of commutator cells; the apparatus being arranged such that in use, an input radio frequency signal is split by the plurality of transformers and output to the plurality of commutator cells, wherein the signal is down-converted. a plurality of transformers (118, 120, 122; 232, 234, 260, 262); wherein each of the plurality of transformers includes a primary side (118a, 120a, 122a; 232a, 234a, 260a 262a) and a secondary side (118b, 120b, 122b; 232b, 234b, 260b, 262b); wherein the primary sides of each transformer are connected in series; a radio frequency port (RF; 202), wherein the primary sides of each transformer are coupled to the radio frequency port in series; and a plurality of commutator cells (124, 126, 128; 236, 238, 264, 266); wherein each of the plurality of commutator cells is coupled to a local oscillator port (104; 204) in parallel and an intermediate frequency port (106; 206) in parallel; and wherein the secondary side of each transformer is connected to one respective commutator cell of the plurality of commutator cells; the apparatus being arranged such that in use, an input radio frequency signal is split by the plurality of transformers and output to the plurality of commutator cells, wherein the signal is down-converted.
A video decoding apparatus for decoding a bit stream including uncompressed data of a video signal, comprising: a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process; characterized in further comprising an encoding method judgment unit configured to judge whether a unit of encoding of the bit stream includes uncompressed data using information which identifies whether or not the unit of encoding includes uncompressed data; wherein, in case of decoding uncompressed data, the controlling unit (81, 84, 85) is configured to control the arithmetic decoding process so as to terminate the arithmetic decoding process and to maintain a context value previously used in the arithmetic decoding process. a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process; further comprising an encoding method judgment unit configured to judge whether a unit of encoding of the bit stream includes uncompressed data using information which identifies whether or not the unit of encoding includes uncompressed data; wherein, in case of decoding uncompressed data, the controlling unit (81, 84, 85) is configured to control the arithmetic decoding process so as to terminate the arithmetic decoding process and to maintain a context value previously used in the arithmetic decoding process.
A light emitting arrangement, adapted to produce a directional beam of light, comprising: a solid state light source having a light emitting top surface and one or more lateral side surfaces, wherein the solid state light source is an LED; a reflecting structure (14, 34) which covers said side surface or surfaces; a beam shaping arrangement applied over the reflecting structure and positioned optically downstream from the light source; and an opaque optical body positioned over the reflecting structure, for limiting the angular spread of the directional beam of light, said body having a first opening at its base for receiving light from the solid state light source, and a tapered funnel structure surrounding the axis normal to the light emitting top surface of the solid state light source which opens to a second opening at its top which is larger than the first opening, characterized in that, the beam shaping arrangement is a microstructured beam shaping arrangement, wherein the microstructured beam shaping arrangement comprises an array of beam shaping components, and in that the reflecting structure (14, 34) comprises a supporting base layer and a reflecting thin-film coating, wherein the supporting base layer provides support for the opaque optical body and does not extend laterally beyond the lateral extension of the solid state light source, and wherein the reflecting thin-film coating covers one or more lateral side surfaces of solid state light source. a solid state light source having a light emitting top surface and one or more lateral side surfaces, wherein the solid state light source is an LED; a reflecting structure (14, 34) which covers said side surface or surfaces; a beam shaping arrangement applied over the reflecting structure and positioned optically downstream from the light source; and an opaque optical body positioned over the reflecting structure, for limiting the angular spread of the directional beam of light, said body having a first opening at its base for receiving light from the solid state light source, and a tapered funnel structure surrounding the axis normal to the light emitting top surface of the solid state light source which opens to a second opening at its top which is larger than the first opening, characterized in that, the beam shaping arrangement is a microstructured beam shaping arrangement, wherein the microstructured beam shaping arrangement comprises an array of beam shaping components, and in that the reflecting structure (14, 34) comprises a supporting base layer and a reflecting thin-film coating, wherein the supporting base layer provides support for the opaque optical body and does not extend laterally beyond the lateral extension of the solid state light source, and wherein the reflecting thin-film coating covers one or more lateral side surfaces of solid state light source.
Hybrid strand having a core and outer wires arranged around said core, at least some of the outer wires being compacted, the compacted outer wires comprising a flattened cross-sectional shape, the outer wires consisting of steel and the core being a fibre core, characterised in that a lateral flattened region of a first compacted outer wire opposes a lateral flattened region of an adjacent compacted outer wire at a distance.
A method implemented by one or more processors, comprising: identifying a current image captured by a vision sensor of a robot, the current image capturing an end effector of the robot and an object to be grasped by the robot using the end effector; determining a candidate grasp pose of the end effector; generating an encoding of: the current image, or an additional image that captures the object; wherein generating the encoding comprises processing the current image or the additional image using a trained neural network encoder, and wherein the generated encoding encodes geometry features of the object; applying, as one or more inputs to a grasp outcome prediction network: the current image, the candidate grasp pose, and the encoding, wherein the grasp outcome prediction network is a trained neural network model; generating, using the grasp outcome prediction network based on the one or more inputs, a grasp outcome prediction; determining that the grasp outcome prediction satisfies one or more criteria; and in response to the grasp outcome prediction satisfying the one or more criteria, providing control commands to one or more actuators of the robot to cause the end effector to attempt a grasp of the object at the candidate grasp pose of the end effector. identifying a current image captured by a vision sensor of a robot, the current image capturing an end effector of the robot and an object to be grasped by the robot using the end effector; determining a candidate grasp pose of the end effector; generating an encoding of: the current image, or an additional image that captures the object; wherein generating the encoding comprises processing the current image or the additional image using a trained neural network encoder, and wherein the generated encoding encodes geometry features of the object; applying, as one or more inputs to a grasp outcome prediction network: the current image, the candidate grasp pose, and the encoding, wherein the grasp outcome prediction network is a trained neural network model; generating, using the grasp outcome prediction network based on the one or more inputs, a grasp outcome prediction; determining that the grasp outcome prediction satisfies one or more criteria; and in response to the grasp outcome prediction satisfying the one or more criteria, providing control commands to one or more actuators of the robot to cause the end effector to attempt a grasp of the object at the candidate grasp pose of the end effector.
A multilayered renovation building element, comprising: a first outer surface panel and a second inner surface panel and a core part of thermal insulation material, the core part being sandwiched between the first outer surface panel and the second inner surface panel, the surface panels each having a tongue on one longitudinal edge and a groove on the opposite longitudinal edge, the thermal insulation material of the core part of the renovation building element comprising a ventilation channel, the inner surface panel of the renovation building element comprising at least one opening formed therein, characterised in that the opening is covered by a water vapour-permeable membrane material, and in that said ventilation channel opens directly or via a separate connecting channel to the outside air, the thermal insulation material allowing the movement of moisture between said at least one opening and the ventilation channel. a first outer surface panel and a second inner surface panel and a core part of thermal insulation material, the core part being sandwiched between the first outer surface panel and the second inner surface panel, the surface panels each having a tongue on one longitudinal edge and a groove on the opposite longitudinal edge, the thermal insulation material of the core part of the renovation building element comprising a ventilation channel, the inner surface panel of the renovation building element comprising at least one opening formed therein, characterised in that the opening is covered by a water vapour-permeable membrane material, and in that said ventilation channel opens directly or via a separate connecting channel to the outside air, the thermal insulation material allowing the movement of moisture between said at least one opening and the ventilation channel.
An organic electronic device comprising a substrate on which an organic electronic element is formed; a top encapsulation layer for encapsulating the entire surface of the organic electronic element; and a side encapsulation layer present on the edge part of the substrate; wherein the top encapsulation layer and the side encapsulation layer are present on the same plane, wherein the side encapsulation layer has a tensile elastic modulus at 25°C after curing of 0.05 MPa to 100 MPa, the top encapsulation layer has a tensile elastic modulus at 25°C after curing of 100 MPa or more and the ratio of the tensile elastic modulus of the top encapsulation layer to the tensile elastic modulus of the side encapsulation layer in a range of 5 to 400. wherein the top encapsulation layer and the side encapsulation layer are present on the same plane, wherein the side encapsulation layer has a tensile elastic modulus at 25°C after curing of 0.05 MPa to 100 MPa, the top encapsulation layer has a tensile elastic modulus at 25°C after curing of 100 MPa or more and the ratio of the tensile elastic modulus of the top encapsulation layer to the tensile elastic modulus of the side encapsulation layer in a range of 5 to 400.