mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a laser emitting an ultrashort pulse beam; a dielectric bulk medium having a refractive index depending on intensity, said bulk medium broadening the spectrum of the laser beam homogeneously versus transversal spatial coordinates, characterized in that the dielectric bulk has a varying thickness such that a product of a thickness of the bulk medium by the laser beam intensity is constant across the beam. a laser emitting an ultrashort pulse beam; a dielectric bulk medium having a refractive index depending on intensity, said bulk medium broadening the spectrum of the laser beam homogeneously versus transversal spatial coordinates, characterized in that the dielectric bulk has a varying thickness such that a product of a thickness of the bulk medium by the laser beam intensity is constant across the beam.
A method for generating a synthetic genome of interest, comprising: (a) providing a first viable genome; (b) designing a second genome based on the first viable genome, wherein the second genome comprises a reduced number of non-essential genes compared to the first viable genome; (c) dividing each of the first and second genomes into at least three corresponding fragments; (d) combining at least one fragment of the second genome with fragments of the first genome to generate a third genome having all corresponding fragments, but not having the fragment of the first genome that corresponds to the at least one fragment of the second genome, wherein the at least one fragment of the second genome has a reduced number of non-essential genes, further comprising reorganizing the gene order in the at least one fragment of the second genome prior to combining; (e) testing the third genome generated in step (d) in an in vitro biological system for sufficiency to sustain viability of a cell; and (f) identifying the third genome as a synthetic genome of interest of reduced size if it is sufficient to sustain the viability of a cell; otherwise modifying the at least one fragment of the second genome by deleting and/or altering individual nucleotides and repeating steps (d)-(f) in one or more iterations until the third genome is sufficient to sustain the viability of a cell; wherein the method is not a method for treatment of the human or animal body. (a) providing a first viable genome; (b) designing a second genome based on the first viable genome, wherein the second genome comprises a reduced number of non-essential genes compared to the first viable genome; (c) dividing each of the first and second genomes into at least three corresponding fragments; (d) combining at least one fragment of the second genome with fragments of the first genome to generate a third genome having all corresponding fragments, but not having the fragment of the first genome that corresponds to the at least one fragment of the second genome, wherein the at least one fragment of the second genome has a reduced number of non-essential genes, further comprising reorganizing the gene order in the at least one fragment of the second genome prior to combining; (e) testing the third genome generated in step (d) in an in vitro biological system for sufficiency to sustain viability of a cell; and (f) identifying the third genome as a synthetic genome of interest of reduced size if it is sufficient to sustain the viability of a cell; otherwise modifying the at least one fragment of the second genome by deleting and/or altering individual nucleotides and repeating steps (d)-(f) in one or more iterations until the third genome is sufficient to sustain the viability of a cell;
A wireless communication system, comprising a first wireless communication terminal connectible to a first base station and a second wireless communication terminal connectible to a second base station , the system being adapted to implement a communication resuming procedure wherein the first wireless communication terminal carries out an interterminal communication with the second wireless communication terminal upon detecting a communication failure with the first base station , wherein the second wireless communication terminal notifies the second base station of an identification of the first wireless communication terminal which is notified by the first wireless communication terminal via the interterminal communication, wherein the second base station specifies the identification of the first wireless communication terminal with respect to the first base station , and wherein the second base station requests to forward data relating to the first wireless communication terminal thereto, and wherein the first base station forwards the data relating to the first wireless communication terminal to the second base station .
An evaporating assembly , comprising: a fixing shaft ; and at least two evaporating bodies , each of the evaporating bodies is provided with a mounting hole and at least one group of limiting portions , wherein each of the evaporating bodies is detachably mounted on to the fixing shaft via the mounting hole , and the limiting portions on every two of the evaporating bodies that are adjacent to each other are abuttingly mated so that a first gap is formed between every two of the adjacent evaporating bodies , characterized in that the mounting hole is a polygonal through hole, and the fixing shaft is a prism with a sectional shape corresponding to a shape of the polygonal through hole; at least one of the limiting portions includes at least one group of abutting ribs, and each group of the at least one group of abutting ribs is arranged uniformly along a circumference concentric to the mounting hole ; a number of sides of the polygonal through hole corresponds to a number of abutting ribs in one group of the at least one group of abutting ribs. a fixing shaft ; and at least two evaporating bodies , each of the evaporating bodies is provided with a mounting hole and at least one group of limiting portions , wherein each of the evaporating bodies is detachably mounted on to the fixing shaft via the mounting hole , and the limiting portions on every two of the evaporating bodies that are adjacent to each other are abuttingly mated so that a first gap is formed between every two of the adjacent evaporating bodies , the mounting hole is a polygonal through hole, and the fixing shaft is a prism with a sectional shape corresponding to a shape of the polygonal through hole; at least one of the limiting portions includes at least one group of abutting ribs, and each group of the at least one group of abutting ribs is arranged uniformly along a circumference concentric to the mounting hole ; a number of sides of the polygonal through hole corresponds to a number of abutting ribs in one group of the at least one group of abutting ribs.
A mapping system for detecting the insertion and removal of a patch cord comprising: an intelligent patch panel having a charging/sampling circuit , the charging/sampling circuit connected to first and second management contacts associated with a jack on the intelligent patch panel; a patch cord with ninth and tenth wires ; a first plug connected to a first end of the patch cord , the first plug having first and second plug management contacts electrically connected to the ninth and tenth wires , respectively, on the patch cord and configured to electrically engage the first and second management contacts , respectively, on the intelligent patch panel when the first plug is inserted in the jack on the intelligent patch panel; and a second plug connected to a second end of the patch cord , the second plug having a single-pole, double-throw switch configured to change states when the second plug is inserted and removed from a switch port , the second plug further having a first capacitor connected between the ninth wire and a first contact of the single-pole, double-throw switch and a second capacitor connected between the ninth wire and a second contact of the single-pole, double-throw switch , the single-pole, double-throw switch having a switch pole connected to the tenth wire ; wherein the intelligent patch panel is configured to identify a connection status of the patch cord via the charging/sampling circuit . an intelligent patch panel having a charging/sampling circuit , the charging/sampling circuit connected to first and second management contacts associated with a jack on the intelligent patch panel; a patch cord with ninth and tenth wires ; a first plug connected to a first end of the patch cord , the first plug having first and second plug management contacts electrically connected to the ninth and tenth wires , respectively, on the patch cord and configured to electrically engage the first and second management contacts , respectively, on the intelligent patch panel when the first plug is inserted in the jack on the intelligent patch panel; and a second plug connected to a second end of the patch cord , the second plug having a single-pole, double-throw switch configured to change states when the second plug is inserted and removed from a switch port , the second plug further having a first capacitor connected between the ninth wire and a first contact of the single-pole, double-throw switch and a second capacitor connected between the ninth wire and a second contact of the single-pole, double-throw switch , the single-pole, double-throw switch having a switch pole connected to the tenth wire ; wherein the intelligent patch panel is configured to identify a connection status of the patch cord via the charging/sampling circuit .
A catheter comprising: a catheter shaft having an expandable portion ; and a first carrier extending along the expandable portion, the first carrier including a first cutter adjacent a proximal end of the expandable portion and a second cutter adjacent to a distal end of the expandable portion, the first carrier adapted for moving the first cutter along the expandable portion toward the distal end while moving the second cutter along the expandable portion toward the proximal end.
A method for decoding a video signal by a decoder, comprising: decoding, with the decoder, a picture of a quality base layer; decoding, with the decoder, a picture of a quality enhanced layer based on the picture of the quality base layer; marking, with the decoder, a key picture as a base layer reference picture and an enhanced layer reference picture having same picture identification information stored in a decoded picture buffer; marking, with the decoder, a non-key picture as an enhanced layer reference picture having other picture identification information stored in the decoded picture buffer; and obtaining, with the decoder, a memory management control operation, the memory management control operation indicating a method of managing the decoded picture buffer; wherein when the base layer reference picture and the enhanced layer reference picture of the key picture have the same picture identification information, the base layer reference picture is additionally marked by using another identification information to distinguish from each other; wherein when the memory management control operation is 6, a current picture is marked as long-term reference picture and moved to a long-term memory, characterized in that the memory management control operation is applied to both the base layer reference picture and the enhanced layer reference picture when the current picture is the key picture, and is applied to the enhanced layer reference picture when the current picture is the non-key picture. decoding, with the decoder, a picture of a quality base layer; decoding, with the decoder, a picture of a quality enhanced layer based on the picture of the quality base layer; marking, with the decoder, a key picture as a base layer reference picture and an enhanced layer reference picture having same picture identification information stored in a decoded picture buffer; marking, with the decoder, a non-key picture as an enhanced layer reference picture having other picture identification information stored in the decoded picture buffer; and obtaining, with the decoder, a memory management control operation, the memory management control operation indicating a method of managing the decoded picture buffer; wherein when the base layer reference picture and the enhanced layer reference picture of the key picture have the same picture identification information, the base layer reference picture is additionally marked by using another identification information to distinguish from each other; wherein when the memory management control operation is 6, a current picture is marked as long-term reference picture and moved to a long-term memory, characterized in that the memory management control operation is applied to both the base layer reference picture and the enhanced layer reference picture when the current picture is the key picture, and is applied to the enhanced layer reference picture when the current picture is the non-key picture.
Motor vehicle exhaust gas recirculation valve, comprising a valve body with a housing (34; 15) to accommodate a component of the valve, the component preferably of substantially tubular shape, the bottom of the housing (34; 15) having at least two ribs , in contact with the component of the valve.
A monoamine compound, represented by the following Formula 1: wherein in Formula 1, L 1 to L 3 are each independently a direct linkage, or an unsubstituted arylene group having 6 to 12 carbon atoms for forming a ring, "a" to "c" are each independently an integer of 0 to 2, Ar 1 and Ar 2 are each independently an unsubstituted phenyl group, a substituted or unsubstituted biphenyl group, a substituted or unsubstituted fluorenyl group, a substituted or unsubstituted naphthyl group, a substituted or unsubstituted dibenzofuran group, or a substituted or unsubstituted dibenzothiophene group, and FR is represented by one of the following Formulae 3-1 to 3-3: L 1 to L 3 are each independently a direct linkage, or an unsubstituted arylene group having 6 to 12 carbon atoms for forming a ring, "a" to "c" are each independently an integer of 0 to 2, Ar 1 and Ar 2 are each independently an unsubstituted phenyl group, a substituted or unsubstituted biphenyl group, a substituted or unsubstituted fluorenyl group, a substituted or unsubstituted naphthyl group, a substituted or unsubstituted dibenzofuran group, or a substituted or unsubstituted dibenzothiophene group, and FR is represented by one of the following Formulae 3-1 to 3-3:
An integrated circuit which, in operation, controls a process of a transmitting device for determining radio resources to be used for a data transmission from the transmitting device via a sidelink interface to one or more receiving devices, wherein the process comprises: performing a resource sensing procedure so as to acquire information about radio resources usable for the transmitting device to transmit data at a later point in time, after data becomes available for transmission, performing an autonomous radio resource allocation to select radio resources within a transmission window to be used for transmitting the data, based on the information acquired by the resource sensing procedure during a sensing window before the data became available for transmission, and wherein the autonomous radio resource allocation comprises selecting radio resources in primary subframes of the transmission window preferably over radio resources in secondary subframes of the transmission window, and wherein the secondary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did not perform the resource sensing procedure, and the primary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did perform the resource sensing procedure. performing a resource sensing procedure so as to acquire information about radio resources usable for the transmitting device to transmit data at a later point in time, after data becomes available for transmission, performing an autonomous radio resource allocation to select radio resources within a transmission window to be used for transmitting the data, based on the information acquired by the resource sensing procedure during a sensing window before the data became available for transmission, and wherein the autonomous radio resource allocation comprises selecting radio resources in primary subframes of the transmission window preferably over radio resources in secondary subframes of the transmission window, and wherein the secondary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did not perform the resource sensing procedure, and the primary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did perform the resource sensing procedure.
A method comprising: receiving, at a control system of a robot , a minimum box size for a plurality of boxes varying in size, the plurality of boxes located in a walled container , the robot comprising a gripper with a plurality of vacuum suction cups ; dividing, by the control system , a grip area of the gripper into a plurality of zones based on the minimum box size; locating, by the control system , a set of candidate boxes of the plurality of boxes based on an image from a visual sensor ; for each zone (Z) of the plurality of zones (Z), determining, by the control system , an overlap of a respective zone (Z) with one or more neighboring boxes to the set of candidate box boxes , the neighboring boxes identified by the image from the visual sensor ; determining, by the control system , a grasp pose (P G ) for a target candidate box of the set of candidate box boxes that avoids one or more walls of the walled container ; and executing, by the control system , the grasp pose (P G ) to lift the target candidate box by the gripper , the gripper activating each zone (Z) of the plurality of zones (Z) that does not overlap a respective neighboring box to the target candidate box . receiving, at a control system of a robot , a minimum box size for a plurality of boxes varying in size, the plurality of boxes located in a walled container , the robot comprising a gripper with a plurality of vacuum suction cups ; dividing, by the control system , a grip area of the gripper into a plurality of zones based on the minimum box size; locating, by the control system , a set of candidate boxes of the plurality of boxes based on an image from a visual sensor ; for each zone (Z) of the plurality of zones (Z), determining, by the control system , an overlap of a respective zone (Z) with one or more neighboring boxes to the set of candidate box boxes , the neighboring boxes identified by the image from the visual sensor ; determining, by the control system , a grasp pose (P G ) for a target candidate box of the set of candidate box boxes that avoids one or more walls of the walled container ; and executing, by the control system , the grasp pose (P G ) to lift the target candidate box by the gripper , the gripper activating each zone (Z) of the plurality of zones (Z) that does not overlap a respective neighboring box to the target candidate box .
Method for providing a content part of a multimedia content to a client terminal (C), one or more caches (R) being arranged along the transmission path between the client terminal (C) and a remote server (S), several representations of said content part being available, comprising: - receiving (S0) at a first cache (R), from the client terminal (C), a request for a given representation of said content part, belonging to a set of allowable representations selected among said available representations, said request further comprising a list of alternative representations of the set and auxiliary information for specifying the scope of the request between the client terminal and the remote server, wherein the auxiliary information defines the number of remaining caches arranged between the client and the server which are allowed to forward said request to a next cache, in case said given representation and said alternative representations are not stored; - checking (S1) at said first cache (R) if said given representation is stored in the cache (R); - in case said given representation is not cached, browsing (S2) at said first cache (R) alternative representations listed. - receiving (S0) at a first cache (R), from the client terminal (C), a request for a given representation of said content part, belonging to a set of allowable representations selected among said available representations, said request further comprising a list of alternative representations of the set and auxiliary information for specifying the scope of the request between the client terminal and the remote server, wherein the auxiliary information defines the number of remaining caches arranged between the client and the server which are allowed to forward said request to a next cache, in case said given representation and said alternative representations are not stored; - checking (S1) at said first cache (R) if said given representation is stored in the cache (R); - in case said given representation is not cached, browsing (S2) at said first cache (R) alternative representations listed.
A manufacturing method of a battery pack including plate-shaped battery cells arranged on a plane so that electrode terminals thereof face each other, comprising: (a) a process of electrically connecting electrode terminals of battery cells (101, 102; 201, 202) to an electrode terminal connecting portion of a protection circuit board (PCB, 120; 220); (b) a process of mounting the battery cells connected to the PCB (120; 220) in a mold provided with eight or more injection holes (111, 112; 223) for a thermoplastic resin, at least one injection hole being formed in each of portions corresponding to outer edges of the battery cells and in each of portions corresponding to outer peripheries of the battery cells; (c) a process of injecting a thermoplastic resin through the injection holes to form a molding frame made of thermoplastic resin on an outer periphery of the PCB (120; 220) and the battery cells (101, 102; 201, 202); and (d) a process of solidifying the molding frame (360; 460). (a) a process of electrically connecting electrode terminals of battery cells (101, 102; 201, 202) to an electrode terminal connecting portion of a protection circuit board (PCB, 120; 220); (b) a process of mounting the battery cells connected to the PCB (120; 220) in a mold provided with eight or more injection holes (111, 112; 223) for a thermoplastic resin, at least one injection hole being formed in each of portions corresponding to outer edges of the battery cells and in each of portions corresponding to outer peripheries of the battery cells; (c) a process of injecting a thermoplastic resin through the injection holes to form a molding frame made of thermoplastic resin on an outer periphery of the PCB (120; 220) and the battery cells (101, 102; 201, 202); and (d) a process of solidifying the molding frame (360; 460).