mhurhangee/patent-ind-claim-en huggingface dataset:
A modular solar panel 16 to heat a fluid using sunlight comprising: a first, generally planar plate 18 comprised of a heat conductive material, a second, generally planar plate 20 comprised of a heat conductive material, the second planar plate 20 affixed to the first generally planar plate 18 and oriented in a plane generally parallel to the plane of the first generally planar plate 18, the first and second generally planar plates 18, 20 being affixed together in a fluid tight relationship forming a channel 68 therebetween, the channel 68 having an inlet 26 for fluid to be introduced into the channel 68 and an outlet 28 for discharging fluid from the channel 68, each of the first and second, generally planar plates 18, 20 being thin, the second generally planar plate 20 having a plurality of indentations 70 formed therein indented toward the first, generally planar plate 18 to control the flow of fluid passing therethrough; and a photovoltaic cell 40 affixed in heat conducting relationship to the second generally planar plate 20; characterized in that the indentations 70 comprise generally spiral indentations 70 where one leading edge 77 of a spiral indentation 70 is displaced outwardly from the second generally planar plate 20 and wherein the indentations 70 are oriented in columns aligned in the direction of the flow of fluid through the channel 68 and rows generally normal to the flow of fluid through the channel 68 and wherein the indentations 70 of alternating rows are displaced 180 degrees from the prior row of indentations 70. a first, generally planar plate 18 comprised of a heat conductive material, a second, generally planar plate 20 comprised of a heat conductive material, the second planar plate 20 affixed to the first generally planar plate 18 and oriented in a plane generally parallel to the plane of the first generally planar plate 18, the first and second generally planar plates 18, 20 being affixed together in a fluid tight relationship forming a channel 68 therebetween, the channel 68 having an inlet 26 for fluid to be introduced into the channel 68 and an outlet 28 for discharging fluid from the channel 68, each of the first and second, generally planar plates 18, 20 being thin, the second generally planar plate 20 having a plurality of indentations 70 formed therein indented toward the first, generally planar plate 18 to control the flow of fluid passing therethrough; and a photovoltaic cell 40 affixed in heat conducting relationship to the second generally planar plate 20; characterized in that the indentations 70 comprise generally spiral indentations 70 where one leading edge 77 of a spiral indentation 70 is displaced outwardly from the second generally planar plate 20 and wherein the indentations 70 are oriented in columns aligned in the direction of the flow of fluid through the channel 68 and rows generally normal to the flow of fluid through the channel 68 and wherein the indentations 70 of alternating rows are displaced 180 degrees from the prior row of indentations 70.
An information transmission method, comprising: configuring (S501), by a base station, at least one first resource for a user equipment, UE, wherein the first resource is used by the UE to transmit a first channel and/or signal, and the first channel and/or signal is a sounding reference signal, SRS; transmitting (S503), by the base station, first indication information to the UE, wherein the first indication information indicates a correspondence between the first resource and a second resource, and the first indication information comprises an identity of each first resource, and an identity of the second resource corresponding to the identity of each first resource; wherein the second resource is a resource used by the UE to transmit a second channel and/or signal to the base station before the transmission of the SRS; the correspondence is used by the UE to determine a beam for transmitting the SRS, and the beam for transmitting the SRS is the same as a beam for transmitting the second channel and/or signal. configuring (S501), by a base station, at least one first resource for a user equipment, UE, wherein the first resource is used by the UE to transmit a first channel and/or signal, and the first channel and/or signal is a sounding reference signal, SRS; transmitting (S503), by the base station, first indication information to the UE, wherein the first indication information indicates a correspondence between the first resource and a second resource, and the first indication information comprises an identity of each first resource, and an identity of the second resource corresponding to the identity of each first resource; wherein the second resource is a resource used by the UE to transmit a second channel and/or signal to the base station before the transmission of the SRS; the correspondence is used by the UE to determine a beam for transmitting the SRS, and the beam for transmitting the SRS is the same as a beam for transmitting the second channel and/or signal.
A vitrectomy probe , comprising: a hand-graspable body ; an outer tube extending from the hand-graspable body and sized to penetrate an eye of a patient during an ocular surgery, the outer tube having a closed distal end and a first port sized to receive vitreous of the eye; and an inner tube disposed at least partially within the outer tube, the inner tube comprising a second port selectively alignable with a portion of the first port in a manner that allows fluid to flow through the first port and into the second port, the second port having a proximal edge and a distal edge , the inner tube also comprising a distal tip forming a first cutting edge facing in a distal direction, the distal edge of the second port forming a second cutting edge facing in a proximal direction, the inner tube having a first diameter at a proximal end of the second port and having a second diameter at the distal tip, characterised in that the first diameter is greater than the second diameter. a hand-graspable body ; an outer tube extending from the hand-graspable body and sized to penetrate an eye of a patient during an ocular surgery, the outer tube having a closed distal end and a first port sized to receive vitreous of the eye; and an inner tube disposed at least partially within the outer tube, the inner tube comprising a second port selectively alignable with a portion of the first port in a manner that allows fluid to flow through the first port and into the second port, the second port having a proximal edge and a distal edge , the inner tube also comprising a distal tip forming a first cutting edge facing in a distal direction, the distal edge of the second port forming a second cutting edge facing in a proximal direction, the inner tube having a first diameter at a proximal end of the second port and having a second diameter at the distal tip, characterised in that the first diameter is greater than the second diameter.
A consequent-pole type rotor including a first magnetic pole and a second magnetic pole, comprising: a rotor core including a magnet insertion hole and an opening located apart from the magnet insertion hole inward in a radial direction; and a permanent magnet inserted in the magnet insertion hole and forming the first magnetic pole, wherein the opening includes a projecting part that is a part of an outer end part of the opening in the radial direction which projects outward in the radial direction, the projecting part coincides with a magnetic pole center (c1) of the first magnetic pole in a plane perpendicular to an axial direction, a first maximum width of the opening in a direction perpendicular to the radial direction in the plane perpendicular to the axial direction is smaller than a second maximum width of the opening in the radial direction, and a distance (L3) from the opening to the magnet insertion hole is smallest at the magnetic pole center (c1) of the first magnetic pole. a rotor core including a magnet insertion hole and an opening located apart from the magnet insertion hole inward in a radial direction; and a permanent magnet inserted in the magnet insertion hole and forming the first magnetic pole, wherein the opening includes a projecting part that is a part of an outer end part of the opening in the radial direction which projects outward in the radial direction, the projecting part coincides with a magnetic pole center (c1) of the first magnetic pole in a plane perpendicular to an axial direction, a first maximum width of the opening in a direction perpendicular to the radial direction in the plane perpendicular to the axial direction is smaller than a second maximum width of the opening in the radial direction, and a distance (L3) from the opening to the magnet insertion hole is smallest at the magnetic pole center (c1) of the first magnetic pole.
An arrangement comprising: a series connection of a plurality of energy storage units ; a plurality of bypass circuits , each bypass circuit being configured to bypass a respective one of the energy storage units in the series connection; and a plurality of control modules , wherein each control module corresponds to a respective one of the bypass circuits; wherein each control module is configured to control operation of the corresponding bypass circuit and at least one other bypass circuit of the plurality of bypass circuits to selectively bypass the corresponding energy storage units in the series connection in such a way that operation of each bypass circuit of the plurality of bypass circuits to selectively bypass the corresponding energy storage unit in the series connection is controllable by means of at least two of the control modules. a series connection of a plurality of energy storage units ; a plurality of bypass circuits , each bypass circuit being configured to bypass a respective one of the energy storage units in the series connection; and a plurality of control modules , wherein each control module corresponds to a respective one of the bypass circuits; wherein each control module is configured to control operation of the corresponding bypass circuit and at least one other bypass circuit of the plurality of bypass circuits to selectively bypass the corresponding energy storage units in the series connection in such a way that operation of each bypass circuit of the plurality of bypass circuits to selectively bypass the corresponding energy storage unit in the series connection is controllable by means of at least two of the control modules.
An implantable vein frame comprising: a first ring member ; a second ring member ; at least one interconnecting member disposed between and rigidly interconnecting the first ring member and second ring member in a spaced relation; and a protruding region defined by at least one of the at least one interconnecting members, at least a portion of the protruding region extending outside of a manifold region defined as a frustoconical volume between and delimited by the first ring member and the second ring member; characterized in that said first and second ring members are rigid and non-expandable, and said at least one interconnecting member is rigid and non-expandable in a radial direction. a first ring member ; a second ring member ; at least one interconnecting member disposed between and rigidly interconnecting the first ring member and second ring member in a spaced relation; and a protruding region defined by at least one of the at least one interconnecting members, at least a portion of the protruding region extending outside of a manifold region defined as a frustoconical volume between and delimited by the first ring member and the second ring member; characterized in that said first and second ring members are rigid and non-expandable, and said at least one interconnecting member is rigid and non-expandable in a radial direction.
A handle structure (S) for a carton (90; 190; 290; 390A; 390B; 390C; 390D; 390E; 390F; 390G; 390H) comprising: at least one panel (12; 112; 212; 312) forming at least one exterior wall of the carton and having opposed end edges (27a, 27b; 127a, 127b; 227a, 227b; 327a, 327b); a handle strap (22; 122; 222; 322A; 322B; 322C) disposed inwardly of the at least one panel and extending between the end edges; a grip member (36; 136; 236; 336A; 336B; 336C) struck from the at least one panel, the grip member mounted on the handle strap; and characterised by the handle structure further comprising an aperture (A3, A4; 325A, 325B) in the at least one panel, with a first portion of the handle strap being visible through the aperture, the aperture being struck from the at least one panel apart from the grip member or the aperture being struck from the at least one panel so as to define an end edge of the grip member. at least one panel (12; 112; 212; 312) forming at least one exterior wall of the carton and having opposed end edges (27a, 27b; 127a, 127b; 227a, 227b; 327a, 327b); a handle strap (22; 122; 222; 322A; 322B; 322C) disposed inwardly of the at least one panel and extending between the end edges; a grip member (36; 136; 236; 336A; 336B; 336C) struck from the at least one panel, the grip member mounted on the handle strap; and characterised by the handle structure further comprising an aperture (A3, A4; 325A, 325B) in the at least one panel, with a first portion of the handle strap being visible through the aperture, the aperture being struck from the at least one panel apart from the grip member or the aperture being struck from the at least one panel so as to define an end edge of the grip member.
A method for realizing data transmission with passive optical network, PON, architecture, the PON architecture comprising: an optical line terminal, OLT, supporting a plurality of channels, and one or more optical network units, ONUs, supporting one or more channels under a same optical distribution network, ODN; characterized in that the method comprises: acquiring, by a sender, a number of channels and/or corresponding channels supported by a receiver for transmitting data and a transmittable state of each supported channel, the transmittable state comprising a transmittable start time point at which the corresponding supported channel becomes available for transmitting data, distributing data to be transmitted to one or more supported channels for transmitting, wherein the data is transmitted on a channel with an earliest transmittable start time point; receiving, by a receiver, data on supported channels and reassembling the data accordingly based on transmission rules; wherein the sender is the OLT, and the receiver is an ONU, or the sender is the ONU, and the receiver is the OLT. acquiring, by a sender, a number of channels and/or corresponding channels supported by a receiver for transmitting data and a transmittable state of each supported channel, the transmittable state comprising a transmittable start time point at which the corresponding supported channel becomes available for transmitting data, distributing data to be transmitted to one or more supported channels for transmitting, wherein the data is transmitted on a channel with an earliest transmittable start time point; receiving, by a receiver, data on supported channels and reassembling the data accordingly based on transmission rules; wherein the sender is the OLT, and the receiver is an ONU, or the sender is the ONU, and the receiver is the OLT.
Process for converting one or more alkyl halides to ethylene and propylene, said process comprising the following steps: a) providing a feedstream comprising one or more alkyl halides; optionally, diluted in at least one diluent; b) providing a first catalyst composition and a second catalyst composition, said second catalyst composition comprising a cracking catalyst; c) contacting said feedstream with said first catalyst composition in a first reaction zone under first reaction conditions to provide a first product stream ; and d) subjecting at least a part of said first product stream to an Olefin Catalytic Cracking with said second catalyst composition in a second reaction zone under second reaction conditions to provide a second product stream , the process is characterized in that it further comprises a step of steaming said first catalyst composition before the step (c), and in that said first catalyst composition comprises one or more zeolites and a binder, wherein said one or more zeolites comprise at least one 10-membered ring channel. a) providing a feedstream comprising one or more alkyl halides; optionally, diluted in at least one diluent; b) providing a first catalyst composition and a second catalyst composition, said second catalyst composition comprising a cracking catalyst; c) contacting said feedstream with said first catalyst composition in a first reaction zone under first reaction conditions to provide a first product stream ; and d) subjecting at least a part of said first product stream to an Olefin Catalytic Cracking with said second catalyst composition in a second reaction zone under second reaction conditions to provide a second product stream ,
A container for storing a biological sample, the container comprising: a container having a closed end , an open end , and a sidewall extending therebetween, defining a container interior ; a removable closure for enclosing the open end of the container ; a sample holder for housing a biological sample, insertable within the container interior ; a port disposed within the removable closure , the port adapted to engage with an injection device to allow a fluid to pass from within the injection device into the container interior ; and wherein the sample holder is connected with the closure through a receiving member , wherein the receiving member comprises a platform which is aligned with the port , such that when a fluid passes through the port the fluid comes into contact with the platform and then with the sample holder via a plurality of openings on the platform such that fluid introduced through the port passes directly through the sample holder . a container having a closed end , an open end , and a sidewall extending therebetween, defining a container interior ; a removable closure for enclosing the open end of the container ; a sample holder for housing a biological sample, insertable within the container interior ; a port disposed within the removable closure , the port adapted to engage with an injection device to allow a fluid to pass from within the injection device into the container interior ; and wherein the sample holder is connected with the closure through a receiving member , wherein the receiving member comprises a platform which is aligned with the port , such that when a fluid passes through the port the fluid comes into contact with the platform and then with the sample holder via a plurality of openings on the platform such that fluid introduced through the port passes directly through the sample holder .
An apparatus for use by a communication element or function comprising a user equipment configured to communicate in a communication network comprising a plurality of communication cells, the apparatus comprising at least one processing circuitry, and at least one memory for storing instructions to be executed by the processing circuitry, wherein the at least one memory and the instructions are configured to, with the at least one processing circuitry, cause the apparatus at least: to execute a handover procedure for changing a communication connection from a source cell currently serving the communication element or function to a target cell; to determine beam information indicating a communication beam of the source cell serving the communication element or function at the time when the handover procedure is executed; and to send the beam information to a communication network control element or function of the target cell to which the communication element is connected after the handover procedure is ended. at least one processing circuitry, and at least one memory for storing instructions to be executed by the processing circuitry, wherein the at least one memory and the instructions are configured to, with the at least one processing circuitry, cause the apparatus at least: to execute a handover procedure for changing a communication connection from a source cell currently serving the communication element or function to a target cell; to determine beam information indicating a communication beam of the source cell serving the communication element or function at the time when the handover procedure is executed; and to send the beam information to a communication network control element or function of the target cell to which the communication element is connected after the handover procedure is ended. to execute a handover procedure for changing a communication connection from a source cell currently serving the communication element or function to a target cell; to determine beam information indicating a communication beam of the source cell serving the communication element or function at the time when the handover procedure is executed; and to send the beam information to a communication network control element or function of the target cell to which the communication element is connected after the handover procedure is ended.
A method for guiding the acquisition of ultrasound data, the method comprising: obtaining ultrasound data from a plurality of data acquisition planes , said ultrasound data comprising Doppler ultrasound data; performing spatial registration on the plurality of data acquisition planes; identifying a number of vessels in each data acquisition plane said identifying comprising determining a direction of blood flow within the data acquisition planes based on the Doppler ultrasound data; determining a location of a vessel bifurcation based on the spatial registration of the plurality of data acquisition planes and the number of vessels in each data acquisition plane; and generating a guidance instruction based on the location of the vessel bifurcation, wherein the guidance instruction is adapted to indicate a location to obtain further ultrasound data. obtaining ultrasound data from a plurality of data acquisition planes , said ultrasound data comprising Doppler ultrasound data; performing spatial registration on the plurality of data acquisition planes; identifying a number of vessels in each data acquisition plane said identifying comprising determining a direction of blood flow within the data acquisition planes based on the Doppler ultrasound data; determining a location of a vessel bifurcation based on the spatial registration of the plurality of data acquisition planes and the number of vessels in each data acquisition plane; and generating a guidance instruction based on the location of the vessel bifurcation, wherein the guidance instruction is adapted to indicate a location to obtain further ultrasound data.
A microcapsule composition comprising a microcapsule suspended in an aqueous phase and a viscosity control agent, wherein the viscosity control agent has the structure of: wherein R 1 is H or a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, R2 is a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, x is an integer selected from 1-4100, and y is an integer selected from 1-4100, and wherein the viscosity control agent has a molecular weight of 200-10000000, and the microcapsule composition has a viscosity of less than 1.5 Pa·s when measured using a Brookfield RVT Viscometer equipped with spindle 2 at 20 RPM at 25° C. wherein R 1 is H or a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, R2 is a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, x is an integer selected from 1-4100, and y is an integer selected from 1-4100, and wherein the viscosity control agent has a molecular weight of 200-10000000, and the microcapsule composition has a viscosity of less than 1.5 Pa·s when measured using a Brookfield RVT Viscometer equipped with spindle 2 at 20 RPM at 25° C.