mhurhangee/ep-ind-claims huggingface dataset:
A medical instrument for loosening a prosthesis which is detachably affixed on teeth, tooth stumps and/or jawbone implants of an upper or lower jawbone, comprising a shaft, at the proximal end of which a handle piece is arranged and at the distal end of which a hook-like head section is arranged, wherein the head section comprises a section which is angled with respect to the shaft, which section provides a free end of the head section, and the section of the head section comprises, at the free end, a rim which enlarges the diameter of the section at the free end like a bulge, wherein the handle piece comprises a section extending in the direction of the longitudinal extension of the shaft and a section which forms a free end of the handle piece, wherein the section of the handle piece, which forms the free end of the handle piece can be elastically deformed with respect to the section of the handle piece extending in the direction of the longitudinal extension of the shaft in the direction of an axis which extends at least essentially perpendicularly to the direction of the longitudinal extension of the shaft, characterized in that the shaft extends into the section of the handle piece extending in the direction of the longitudinal extension of the shaft.
A transport container for transporting a delicate object, comprising: - a casing which is divided in a length direction into several casing segments, wherein the casing is provided with - at least two upright edges extending in the length direction, and situated spaced apart from one another in a width direction extending transversely to the length direction, wherein the upright edges are divided into edge segments corresponding to the several casing segments, wherein at least two adjacent casing segments each comprise at least two edge segments situated spaced apart from one another in the width direction, wherein - the at least two adjacent casing segments together with the corresponding edge segments are foldable about a common rotational axis situated in the plane of the casing, Wherein thanks to a folded structure, the edge segments are rigid in at least one direction perpendicular to the plane of the corresponding casing segments, characterized in that the casing and the at least two upright edges together form a closed transport space in a folded or rolled state for accommodating the delicate object. - a casing which is divided in a length direction into several casing segments, wherein the casing is provided with - at least two upright edges extending in the length direction, and situated spaced apart from one another in a width direction extending transversely to the length direction, wherein the upright edges are divided into edge segments corresponding to the several casing segments, wherein at least two adjacent casing segments each comprise at least two edge segments situated spaced apart from one another in the width direction, wherein - the at least two adjacent casing segments together with the corresponding edge segments are foldable about a common rotational axis situated in the plane of the casing, - the at least two adjacent casing segments together with the corresponding edge segments are foldable about a common rotational axis situated in the plane of the casing,
An information monitoring method, comprising: allocating, by a network device, a first frequency domain resource to a terminal, wherein the first frequency domain resource is used as a bandwidth part of the terminal, wherein the bandwidth part of the terminal includes at least a terminal-specific search space resource; obtaining, by the network device, a bandwidth capability of the terminal; determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal, wherein the second frequency domain resource is used by the terminal to monitor common information; and sending, by the network device, indication information, wherein the indication information is used to indicate the second frequency domain resource, wherein the determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal comprises: determining, by the network device based on the bandwidth capability and the first frequency domain resource, a first common bandwidth in a plurality of common bandwidths as the second frequency domain resource, wherein a common bandwidth includes at least a common search space resource, and wherein a bandwidth size of the first frequency domain resource and the second frequency domain resource is less than or equal to the bandwidth capability of the terminal. allocating, by a network device, a first frequency domain resource to a terminal, wherein the first frequency domain resource is used as a bandwidth part of the terminal, wherein the bandwidth part of the terminal includes at least a terminal-specific search space resource; obtaining, by the network device, a bandwidth capability of the terminal; determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal, wherein the second frequency domain resource is used by the terminal to monitor common information; and sending, by the network device, indication information, wherein the indication information is used to indicate the second frequency domain resource, wherein the determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal comprises: determining, by the network device based on the bandwidth capability and the first frequency domain resource, a first common bandwidth in a plurality of common bandwidths as the second frequency domain resource, wherein a common bandwidth includes at least a common search space resource, and wherein a bandwidth size of the first frequency domain resource and the second frequency domain resource is less than or equal to the bandwidth capability of the terminal.
A structural member comprising: a hollow main tube part; and at least two projecting portions (30a, 30b) formed integrally on an outer peripheral face of the main tube part, wherein the two projecting portions (30a, 30b) are disposed at an angle of 30 degrees or more and less than 180 degrees around a main axis of the main tube part, and both intersecting planes (35a, 35b), which are projecting planes of end faces of the two projecting portions (30a, 30b) toward the main tube part, share a plane perpendicular to the main axis of the main tube part only in portions (36a, 36b) of the intersecting planes (35a, 35b), characterized in that the main tube part and the two projecting portions (30a, 30b) are formed by hydroforming an element tube, and an outside diameter of the element tube is D, and areas of the portions (36a, 36b) of the intersecting planes (35a, 35b) are 30% or more and 90% or less relative to an area of each of the intersecting planes (35a, 35b) and a projecting height (31a, 31b) of each of the two projecting portions (30a, 30b) is 0.3D or higher. a hollow main tube part; and at least two projecting portions (30a, 30b) formed integrally on an outer peripheral face of the main tube part, wherein the two projecting portions (30a, 30b) are disposed at an angle of 30 degrees or more and less than 180 degrees around a main axis of the main tube part, and both intersecting planes (35a, 35b), which are projecting planes of end faces of the two projecting portions (30a, 30b) toward the main tube part, share a plane perpendicular to the main axis of the main tube part only in portions (36a, 36b) of the intersecting planes (35a, 35b), characterized in that the main tube part and the two projecting portions (30a, 30b) are formed by hydroforming an element tube, and an outside diameter of the element tube is D, and areas of the portions (36a, 36b) of the intersecting planes (35a, 35b) are 30% or more and 90% or less relative to an area of each of the intersecting planes (35a, 35b) and a projecting height (31a, 31b) of each of the two projecting portions (30a, 30b) is 0.3D or higher. the main tube part and the two projecting portions (30a, 30b) are formed by hydroforming an element tube, and an outside diameter of the element tube is D, and areas of the portions (36a, 36b) of the intersecting planes (35a, 35b) are 30% or more and 90% or less relative to an area of each of the intersecting planes (35a, 35b) and a projecting height (31a, 31b) of each of the two projecting portions (30a, 30b) is 0.3D or higher.
An electrosurgical system, comprising: a transformer configured for sensing voltage, the transformer including: a primary winding coupled to an active terminal for supply of a radio frequency voltage and a return terminal of the electrosurgical system, the active terminal configured to be coupled to an active electrode and the return terminal configured to be coupled to a return electrode (6,16); characterized in that the transformer has a plurality of secondary windings (44, 46), each of the secondary windings being configured to transform the radio frequency voltage into a sensed voltage, each of the secondary windings including an output coupled to a sensor circuit and configured to transmit the sensed voltage to the sensor circuit. a transformer configured for sensing voltage, the transformer including: a primary winding coupled to an active terminal for supply of a radio frequency voltage and a return terminal of the electrosurgical system, the active terminal configured to be coupled to an active electrode and the return terminal configured to be coupled to a return electrode (6,16); characterized in that the transformer has a plurality of secondary windings (44, 46), each of the secondary windings being configured to transform the radio frequency voltage into a sensed voltage, each of the secondary windings including an output coupled to a sensor circuit and configured to transmit the sensed voltage to the sensor circuit. a primary winding coupled to an active terminal for supply of a radio frequency voltage and a return terminal of the electrosurgical system, the active terminal configured to be coupled to an active electrode and the return terminal configured to be coupled to a return electrode (6,16); characterized in that the transformer has a plurality of secondary windings (44, 46), each of the secondary windings being configured to transform the radio frequency voltage into a sensed voltage, each of the secondary windings including an output coupled to a sensor circuit and configured to transmit the sensed voltage to the sensor circuit.
A picture decoding method performed by a decoding apparatus comprising: receiving a bitstream including information on a parallel merge level and information on a merge index; constructing a merging candidate list for a current block, wherein the merging candidate list includes spatial merging candidates; deriving motion information of the current block based on one of the spatial merging candidates indicated by the merge index in the merging candidate list; deriving a predicted block of the current block based on the derived motion information; and generating a reconstructed picture based on the predicted block, wherein the current block is related to a prediction unit, PU, and the PU is one of PUs partitioned from a coding unit, CU, wherein the PUs within the CU belong to a parallel merge unit region, wherein a size of the parallel merge unit region is determined based on the information on the parallel merge level, wherein the spatial merging candidates for the PU are identical to spatial merging candidates of a 2Nx2N PU which has a same size as the parallel merge unit region, wherein the spatial merging candidates for the PU within the parallel merge unit region are derived from a lower left corner neighboring block, a left neighboring block, an upper right corner neighboring block, an upper neighboring block and an upper left corner neighboring block of the parallel merge unit region. receiving a bitstream including information on a parallel merge level and information on a merge index; constructing a merging candidate list for a current block, wherein the merging candidate list includes spatial merging candidates; deriving motion information of the current block based on one of the spatial merging candidates indicated by the merge index in the merging candidate list; deriving a predicted block of the current block based on the derived motion information; and generating a reconstructed picture based on the predicted block, wherein the current block is related to a prediction unit, PU, and the PU is one of PUs partitioned from a coding unit, CU, wherein the PUs within the CU belong to a parallel merge unit region, wherein a size of the parallel merge unit region is determined based on the information on the parallel merge level, wherein the spatial merging candidates for the PU are identical to spatial merging candidates of a 2Nx2N PU which has a same size as the parallel merge unit region, wherein the spatial merging candidates for the PU within the parallel merge unit region are derived from a lower left corner neighboring block, a left neighboring block, an upper right corner neighboring block, an upper neighboring block and an upper left corner neighboring block of the parallel merge unit region.
A continuous pickling plant for the treatment of metal products in the form of a strip or tube comprising (a) a plurality of acid solution process tanks each divided into a plurality of turbulence cells; (b) a recirculation system of the acid solution in which preferably the solution discharged from the overflow of each process tank feeds through a discharge pipe an external recirculation tank from which the acid solution is returned by a pump through an intake pipe to the process tank by optionally passing through a heat exchanger to be heated; and (c) a heating device (124; 126) of the metal product upstream of the plurality of process tanks, wherein said heating device is an induction heating system and/or a water spray tank. (a) a plurality of acid solution process tanks each divided into a plurality of turbulence cells; (b) a recirculation system of the acid solution in which preferably the solution discharged from the overflow of each process tank feeds through a discharge pipe an external recirculation tank from which the acid solution is returned by a pump through an intake pipe to the process tank by optionally passing through a heat exchanger to be heated; and (c) a heating device (124; 126) of the metal product upstream of the plurality of process tanks,
Canal sealing system for sealing a canal in a water-bearing state, comprising: - a discharging device; - a sheet-like mat material, - a support material and - an insertion device; wherein the discharging device is configured to discharge the sheet-like mat material on a first portion of a water surface of a canal so that the sheet-like mat material is floating on the water level; wherein the sheet-like mat material is at least partially formed with cavities for receiving the support material; wherein the insertion device is configured to insert the support material into at least a part of the cavities for successively lowering the sheet-like mat material until it rests on a canal base surface; characterized in that the discharging device comprises a holding device configured to hold the sheet-like mat material between two opposite bank portions of the canal; wherein the sheet-like mat material rests on the water or is at least partially immersed in the water. - a discharging device; - a sheet-like mat material, - a support material and - an insertion device;
Guide carriage for use with a guide rail which extends in a longitudinal direction, the guide carriage comprising a supporting body which can be guided movably in the longitudinal direction on the guide rail over at least one endlessly circulating row of rolling bodies, the supporting body having at least one end face which points in the longitudinal direction and on which a deflection assembly with a curved deflection channel for the rolling bodies is attached, the deflection assembly having at least one lubricating channel for conveying lubricant, which lubricant channel is U-shaped as viewed in cross section and is covered by the end face of the supporting body, the lubricant channel being delimited laterally by a flexible sealing projection which bears sealingly against the end face of the supporting body, characterized in that the deflection assembly has at least one bypass channel (80; 80a - 80d) in the form of a depression, which bypass channel (80; 80a - 80d) is covered by the end side of the supporting body, the depression having a side edge which is interrupted by at least one first and at least one second opening (87; 88), the first opening being arranged adjacently with respect to the sealing projection in such a way that lubricant which leaks past the sealing projection passes into the bypass channel (80; 80a - 80d), the second opening being arranged on the outer surface of the guide carriage.
A machine-implemented method for crowd sourced online application cache management, the method comprising: identifying a received application and an application cache policy; monitoring execution of the application to determine a behavior characteristic for a subset of application components, said behavior characteristic including at least one of the frequency at which the subset of application components is used, or the frequency at which the subset of application components changes; determining a cache policy for the subset of application components based on the monitoring; providing a cache improvement plan for the application based on the cache policy for the subset of application components, said cache improvement plan comprising at least a recommendation to divide the application into a plurality of sets of application components including said subset of application components, the division based on at least one of use of the frequency at which the application component is used, or the frequency at which the application component changes; and aggregating multiple cache improvement plans from multiple users to create an aggregate cache policy. identifying a received application and an application cache policy; monitoring execution of the application to determine a behavior characteristic for a subset of application components, said behavior characteristic including at least one of the frequency at which the subset of application components is used, or the frequency at which the subset of application components changes; determining a cache policy for the subset of application components based on the monitoring; providing a cache improvement plan for the application based on the cache policy for the subset of application components, said cache improvement plan comprising at least a recommendation to divide the application into a plurality of sets of application components including said subset of application components, the division based on at least one of use of the frequency at which the application component is used, or the frequency at which the application component changes; and aggregating multiple cache improvement plans from multiple users to create an aggregate cache policy.
A method for making complementary p and n MOSFET transistors (3, 4), with metal Schottky source (10, 24) and drain (12, 26) electrodes arranged on a semiconductor substrate, the source (10, 24) and drain (12, 26) electrodes of each transistor (3, 4) being connected by a channel (20, 34) controlled by a gate electrode (14, 28), said method comprising: - selecting said substrate from the group consisting of: solid silicon, silicon on insulator, and silicon on nothing, - making the source (10, 24) and drain (12, 26) electrodes from a single silicide for both the p and n transistors (3, 4), arranged on the semiconductor substrate, - segregating first impurities from groups II and III of the periodic table, at the interface between the silicide and the channel of the p transistor, to make source and drain electrodes of the p transistor, the complementary n transistor being masked, - segregating second impurities from groups V and VI of the periodic table, at the interface between the silicide and the channel of the n transistor, to make source and drain electrodes of the n transistor, the complementary p transistor being masked, the segregation of the first and second impurities (21, 35) being done by an implantation from the group consisting of: implantation in metal and implantation before silicide, the first and second impurities (21, 35) being segregated at the interface (22, 36) between the silicide and the channel (20, 34) during the step of forming the single silicide. - selecting said substrate from the group consisting of: solid silicon, silicon on insulator, and silicon on nothing, - making the source (10, 24) and drain (12, 26) electrodes from a single silicide for both the p and n transistors (3, 4), arranged on the semiconductor substrate, - segregating first impurities from groups II and III of the periodic table, at the interface between the silicide and the channel of the p transistor, to make source and drain electrodes of the p transistor, the complementary n transistor being masked, - segregating second impurities from groups V and VI of the periodic table, at the interface between the silicide and the channel of the n transistor, to make source and drain electrodes of the n transistor, the complementary p transistor being masked,
A blend composition comprising a first aromatic polyester selected from the group consisting of poly(trimethylene terephthalate), poly(ethylene naphthalate), poly(ethylene isophthalate), poly(trimethylene isophthalate), poly(butylene isophthalate), mixtures thereof, and copolymers thereof, and a second aromatic polyester in contact therewith, wherein the second aromatic polyester is present in the composition at a concentration; and, wherein the second aromatic polyester comprises a molar concentration of fluorovinylether functionalized repeat units represented by structure I wherein, Ar represents a benzene or naphthalene radical; each R is independently H, C 1 -C 10 alkyl, C 5 -C 15 aryl, C 6 -C 20 arylalkyl; OH, or a radical represented by the structure with the proviso that only one R can be OH or the radical represented by the structure II; R 1 is a C 2 - C 4 alkylene radical which can be branched or unbranched; X is O or CF 2; Z is H or Cl; a = 0 or 1; and, Q represents the structure (Ia) wherein q = 0 - 10; Y is O or CF 2; R f 1 is (CF 2) n, wherein n is 0-10; and, R f 2 is (CF 2) p, wherein p is 0-10, with the proviso that when p is 0, Y is CF 2. Ar represents a benzene or naphthalene radical; each R is independently H, C 1 -C 10 alkyl, C 5 -C 15 aryl, C 6 -C 20 arylalkyl; OH, or a radical represented by the structure with the proviso that only one R can be OH or the radical represented by the structure II; R 1 is a C 2 - C 4 alkylene radical which can be branched or unbranched; X is O or CF 2; Z is H or Cl; a = 0 or 1; and, Q represents the structure (Ia) wherein q = 0 - 10; Y is O or CF 2; R f 1 is (CF 2) n, wherein n is 0-10; and, R f 2 is (CF 2) p, wherein p is 0-10, with the proviso that when p is 0, Y is CF 2. wherein q = 0 - 10; Y is O or CF 2; R f 1 is (CF 2) n, wherein n is 0-10; and, R f 2 is (CF 2) p, wherein p is 0-10, with the proviso that when p is 0, Y is CF 2.