mhurhangee/patent-ind-claim-en huggingface dataset:
A method for allocating beam failure detection resources, performed by a terminal, comprising: determining control channel resource sets ,CORESETs, configured by a network device for the terminal (S11); determining whether each CORESET is configured with a higher layer signaling index (S1211); in response to determining that each CORESET is configured with the higher layer signaling index (S1212a), dividing the CORESETs having the same higher layer signaling index into a same group; in response to a number of the CORESETs in a group being greater than a number of beam failure detection ,BFD, resources supported by the terminal, selecting target CORESETs that match a number of the BFD resources (S12); and determining reference signal ,RS, resources corresponding to transmission configuration indication ,TCI, states of quasi co-locations ,QCLs, of the selected target CORESETs as BFD RS resources (S13). determining control channel resource sets ,CORESETs, configured by a network device for the terminal (S11); determining whether each CORESET is configured with a higher layer signaling index (S1211); in response to determining that each CORESET is configured with the higher layer signaling index (S1212a), dividing the CORESETs having the same higher layer signaling index into a same group; in response to a number of the CORESETs in a group being greater than a number of beam failure detection ,BFD, resources supported by the terminal, selecting target CORESETs that match a number of the BFD resources (S12); and determining reference signal ,RS, resources corresponding to transmission configuration indication ,TCI, states of quasi co-locations ,QCLs, of the selected target CORESETs as BFD RS resources (S13).
A vapour generating system comprising: a vapour generating space for containing a vapour generating material ; a heater for heating the vapour generating material to generate a first vapour; an air inlet , an air outlet and an air flow passage connecting the air inlet and the air outlet via the vapour generating space; and an outer surface ; characterised in that the vapour generating system comprises a sealed cooling chamber comprising a liquid which is vaporised in use of the system to form a second vapour; wherein the cooling chamber is positioned between the heater and the outer surface and/or between the air flow passage and the outer surface. a vapour generating space for containing a vapour generating material ; a heater for heating the vapour generating material to generate a first vapour; an air inlet , an air outlet and an air flow passage connecting the air inlet and the air outlet via the vapour generating space; and an outer surface ; a sealed cooling chamber comprising a liquid which is vaporised in use of the system to form a second vapour; wherein the cooling chamber is positioned between the heater and the outer surface and/or between the air flow passage and the outer surface.
A method for determination of uniformity of deposition of a material in a thermal barrier coating, comprising: (a) illuminating a surface of the thermal barrier coating with a stimulant radiation, wherein the thermal barrier coating is disposed on a superalloy substrate or on a metallic bond coated superalloy substrate, wherein the thermal barrier coating comprises a plurality of surface-connected openings and the material is disposed in at least some of the plurality of surface-connected openings, the material comprising i. one or more phosphors; and ii. one or more protective agents, wherein the one or more protective agent is a barrier agent, an anti-calcium-magnesium-aluminum-silicon-oxide (CMAS) agent, or a combination thereof; (b) detecting an emission radiation from the material in response to the stimulant radiation; and (c) recording the distribution of the material within the thermal barrier coating based on the intensity of the detected emission radiation as a function of position on the surface; wherein the method further comprises identifying regions of insufficient concentration of the material based on the recorded distribution of the material, and disposing an additional quantity of the material in the regions of insufficient concentration of the material. (a) illuminating a surface of the thermal barrier coating with a stimulant radiation, wherein the thermal barrier coating is disposed on a superalloy substrate or on a metallic bond coated superalloy substrate, wherein the thermal barrier coating comprises a plurality of surface-connected openings and the material is disposed in at least some of the plurality of surface-connected openings, the material comprising i. one or more phosphors; and ii. one or more protective agents, wherein the one or more protective agent is a barrier agent, an anti-calcium-magnesium-aluminum-silicon-oxide (CMAS) agent, or a combination thereof; i. one or more phosphors; and ii. one or more protective agents, wherein the one or more protective agent is a barrier agent, an anti-calcium-magnesium-aluminum-silicon-oxide (CMAS) agent, or a combination thereof; (b) detecting an emission radiation from the material in response to the stimulant radiation; and (c) recording the distribution of the material within the thermal barrier coating based on the intensity of the detected emission radiation as a function of position on the surface;
A graft for improving vascular compliance, the graft comprising: a tubular body having a first end configured for attachment to a first vessel having a first compliance and second end configured for attachment to a second vessel having a second compliance greater than the first compliance, the tubular body having an outer sidewall and an inner sidewall ; a lumen extending between the first end and the second end; a first compressible chamber adjacent the first end of the tubular body and disposed between the inner side wall and the outer side wall; and a second compressible chamber adjacent the second end of the tubular and disposed between the inner side wall and the outer side wall; wherein the first chamber adjacent the first end of the tubular body is less compressible than the second chamber adjacent the second end of the tubular body such that first end of the tubular body can substantially match the first compliance and the second end of the tubular body can substantially match the second compliance. a tubular body having a first end configured for attachment to a first vessel having a first compliance and second end configured for attachment to a second vessel having a second compliance greater than the first compliance, the tubular body having an outer sidewall and an inner sidewall ; a lumen extending between the first end and the second end; a first compressible chamber adjacent the first end of the tubular body and disposed between the inner side wall and the outer side wall; and a second compressible chamber adjacent the second end of the tubular and disposed between the inner side wall and the outer side wall; wherein the first chamber adjacent the first end of the tubular body is less compressible than the second chamber adjacent the second end of the tubular body such that first end of the tubular body can substantially match the first compliance and the second end of the tubular body can substantially match the second compliance.
Display system for a rail vehicle , comprising: - a busbar , comprising a rail body which extends along a longitudinal direction , and an electrically conductive line which is held by the rail body , - a display device which can be electrically coupled to the line for supplying the display device with electrical energy, wherein the display device can be variably positioned relative to the rail body along the longitudinal direction , wherein the display device has a communication interface for coupling to a further display device for signalling purposes, wherein the communication interface is designed for wireless communication. - a busbar , comprising a rail body which extends along a longitudinal direction , and an electrically conductive line which is held by the rail body , - a display device which can be electrically coupled to the line for supplying the display device with electrical energy, wherein the display device can be variably positioned relative to the rail body along the longitudinal direction , wherein the display device has a communication interface for coupling to a further display device for signalling purposes, wherein the communication interface is designed for wireless communication.
A communication control apparatus configured to control communication of a flying body configured to form a wireless communication area by applying beams toward the ground to provide wireless communication service for a user terminal in the wireless communication area, the communication control apparatus comprising: an inner area forming unit configured to cause the flying body to form an inner wireless communication area having a radius of 100 km or shorter; and an outer area forming unit configured to cause the flying body to form, on an outer side of the inner wireless communication area , an outer wireless communication area constituted by a plurality of outer peripheral cells , each of the outer peripheral cells having a radius of 50 km or shorter, the outer wireless communication area surrounding the inner wireless communication area , characterized in that the outer area forming unit is further configured to change the direction of a beam of a plurality of beams applied from the flying body for forming the plurality of outer peripheral cells , so as to prevent one of the plurality of outer peripheral cells from being moved with respect to a ground area while a rotation angle of the flying body does not exceed a predetermined angle when the flying body rotates in a lateral direction. an inner area forming unit configured to cause the flying body to form an inner wireless communication area having a radius of 100 km or shorter; and an outer area forming unit configured to cause the flying body to form, on an outer side of the inner wireless communication area , an outer wireless communication area constituted by a plurality of outer peripheral cells , each of the outer peripheral cells having a radius of 50 km or shorter, the outer wireless communication area surrounding the inner wireless communication area , characterized in that the outer area forming unit is further configured to change the direction of a beam of a plurality of beams applied from the flying body for forming the plurality of outer peripheral cells , so as to prevent one of the plurality of outer peripheral cells from being moved with respect to a ground area while a rotation angle of the flying body does not exceed a predetermined angle when the flying body rotates in a lateral direction.
A method performed by a first telecommunication device comprising: establishing a video call with a second telecommunication device ; determining uplink and downlink link qualities of the first telecommunication device; receiving a first request for an adaptation to a first frame rate at which the first telecommunication device transmits video and audio frames of the video call from the second telecommunication device, the request for the adaptation of the first frame rate specifying a downlink link quality of the second telecommunication device; sending a second request for an adaption to a second frame rate at which the second telecommunication device transmits video and audio frames of the video call, the request for adaption of the second frame rate specifying the determined downlink link quality of the first telecommunication device, wherein said second request is sent to the second telecommunication device in response to determining that the downlink link quality has changed; and adapting the first frame rate based on the lower of the determined uplink link quality of the first telecommunication device and the downlink link quality of the second telecommunication device specified in the first request. establishing a video call with a second telecommunication device ; determining uplink and downlink link qualities of the first telecommunication device; receiving a first request for an adaptation to a first frame rate at which the first telecommunication device transmits video and audio frames of the video call from the second telecommunication device, the request for the adaptation of the first frame rate specifying a downlink link quality of the second telecommunication device; sending a second request for an adaption to a second frame rate at which the second telecommunication device transmits video and audio frames of the video call, the request for adaption of the second frame rate specifying the determined downlink link quality of the first telecommunication device, wherein said second request is sent to the second telecommunication device in response to determining that the downlink link quality has changed; and adapting the first frame rate based on the lower of the determined uplink link quality of the first telecommunication device and the downlink link quality of the second telecommunication device specified in the first request.
An insulating glazing system comprising: - at least two glass panes and a spacer element, wherein said at least two glass panes and said spacer element define a closed volume, - a light ray shielding device defining: - a plurality of transparent areas allowing the passage of incident light rays with a given angle of incidence, whereas light rays having other angles of radiation are unable to pass through said plurality of transparent areas and - a plurality of non-transparent areas which are configured to block the passage of light rays, said non-transparent areas defining a first surface and a second surface, opposite to the first surface; - said light ray shielding device being situated within said closed volume, - support means connected to said spacer and operably associated with said light ray shielding device in supporting relationship thereto, said light ray shielding device comprises a layer having retroreflective properties, said layer at least partially covering one or both of said first and second surfaces of at least one of said areas of said plurality of non-transparent areas of said light ray shielding device , characterized in that said layer with retroreflective properties comprises a paint and a plurality of microspheres , each microsphere of said plurality of microspheres is configured to return said incident light rays. - at least two glass panes and a spacer element, wherein said at least two glass panes and said spacer element define a closed volume, - a light ray shielding device defining: - a plurality of transparent areas allowing the passage of incident light rays with a given angle of incidence, whereas light rays having other angles of radiation are unable to pass through said plurality of transparent areas and - a plurality of non-transparent areas which are configured to block the passage of light rays, said non-transparent areas defining a first surface and a second surface, opposite to the first surface; - a plurality of transparent areas allowing the passage of incident light rays with a given angle of incidence, whereas light rays having other angles of radiation are unable to pass through said plurality of transparent areas and - a plurality of non-transparent areas which are configured to block the passage of light rays, said non-transparent areas defining a first surface and a second surface, opposite to the first surface; - said light ray shielding device being situated within said closed volume, - support means connected to said spacer and operably associated with said light ray shielding device in supporting relationship thereto, said light ray shielding device comprises a layer having retroreflective properties, said layer at least partially covering one or both of said first and second surfaces of at least one of said areas of said plurality of non-transparent areas of said light ray shielding device , characterized in that said layer with retroreflective properties comprises a paint and a plurality of microspheres , each microsphere of said plurality of microspheres is configured to return said incident light rays.
An internal fusion polypeptide comprising an N-terminal segment of a protein of interest, a C terminal segment of the protein of interest, and an internal tag between the N-terminal and C-terminal segments, wherein the internal tag resides within the sequence of the protein of interest and maintains the activity characteristics of the protein of interest, wherein the internal tag comprises an amino acid sequence having less than 100% and greater than 30% sequence identity with SEQ ID NO: 2 inserted within the protein of interest; wherein a detectable bioluminescent signal is produced in the presence of a coelenterazine substrate when the internal tag contacts a polypeptide of SEQ ID NO: 440. wherein the internal tag resides within the sequence of the protein of interest and maintains the activity characteristics of the protein of interest, wherein the internal tag comprises an amino acid sequence having less than 100% and greater than 30% sequence identity with SEQ ID NO: 2 inserted within the protein of interest; wherein a detectable bioluminescent signal is produced in the presence of a coelenterazine substrate when the internal tag contacts a polypeptide of SEQ ID NO: 440.
Process for the manufacture of a LiMPO 4 powder, comprising the steps of - providing an equimolar aqueous solution of Li 1+ , M n+ and PO 4 3- prepared by dissolving components which are susceptible to coexist as solutes in an aqueous system and which, upon heating at a temperature below 500 °C, decompose to form a pure homogeneous Li and M phosphate precursor, - evaporating the water from the solution, thereby producing a solid mixtures, - decomposing the solid mixture at a temperature below 500 °C to form a pure homogeneous Li and M phosphate precursor, and - annealing the precursor at a temperature of less than 800 °C, in an inert or reducing atmosphere, thereby forming a LiMPO 4 powder, whereby M n+ is one or more of Fe 2+ , Fe 3+ , CO 2+ , Ni 2+ and Mn 2+ , and M is Fe x Co y Ni z Mn w , with 0 ≤ x ≤ 1, 0 ≤ y ≤ 1, 0 ≤ z ≤ 1, 0 ≤ w ≤ 1 and x + y + z + w = 1. - providing an equimolar aqueous solution of Li 1+ , M n+ and PO 4 3- prepared by dissolving components which are susceptible to coexist as solutes in an aqueous system and which, upon heating at a temperature below 500 °C, decompose to form a pure homogeneous Li and M phosphate precursor, - evaporating the water from the solution, thereby producing a solid mixtures, - decomposing the solid mixture at a temperature below 500 °C to form a pure homogeneous Li and M phosphate precursor, and - annealing the precursor at a temperature of less than 800 °C, in an inert or reducing atmosphere, thereby forming a LiMPO 4 powder, whereby M n+ is one or more of Fe 2+ , Fe 3+ , CO 2+ , Ni 2+ and Mn 2+ , and M is Fe x Co y Ni z Mn w , with 0 ≤ x ≤ 1, 0 ≤ y ≤ 1, 0 ≤ z ≤ 1, 0 ≤ w ≤ 1 and x + y + z + w = 1.
A lockout valve assembly of an implantable penile prosthetic , the lockout valve assembly comprising: a body adapted to be attachable between a reservoir and a pump of the implantable penile prosthetic ; and a lockout valve adapted to be positioned in an inlet flow path between the reservoir and the pump and characterized by including: a core retained in rotational engagement within a seat formed inside the body , an inlet flange connected to and extending radially away from the core , and a lockout flange connected to and extending radially away from the core , an inflation channel formed through a portion of the core , a deflation pathway separate from the inflation channel and formed through a diameter of the core , and a one-way check valve disposed in the deflation pathway of the core , wherein the lockout valve is configured such that contact between a pump face of the lockout flange and a wall of the body prevents pressurized liquid from flowing from the reservoir to the pump , and such that a rotation of the core in response to suction in the downstream inlet flow path created by the pump aligns the inflation channel with the first portion and the second portion of the inlet flow path to allow liquid to flow from the reservoir to the pump . a body adapted to be attachable between a reservoir and a pump of the implantable penile prosthetic ; and a lockout valve adapted to be positioned in an inlet flow path between the reservoir and the pump and characterized by including: a core retained in rotational engagement within a seat formed inside the body , an inlet flange connected to and extending radially away from the core , and a lockout flange connected to and extending radially away from the core , an inflation channel formed through a portion of the core , a deflation pathway separate from the inflation channel and formed through a diameter of the core , and a one-way check valve disposed in the deflation pathway of the core , a core retained in rotational engagement within a seat formed inside the body , an inlet flange connected to and extending radially away from the core , and a lockout flange connected to and extending radially away from the core , an inflation channel formed through a portion of the core , a deflation pathway separate from the inflation channel and formed through a diameter of the core , and a one-way check valve disposed in the deflation pathway of the core , wherein the lockout valve is configured such that contact between a pump face of the lockout flange and a wall of the body prevents pressurized liquid from flowing from the reservoir to the pump , and such that a rotation of the core in response to suction in the downstream inlet flow path created by the pump aligns the inflation channel with the first portion and the second portion of the inlet flow path to allow liquid to flow from the reservoir to the pump .
A process for the preparation of a compound represented by formula (VII): characterized by reacting a compound represented by Formula (X'): with sodium borohydride.