mhurhangee/ep-ind-claims huggingface dataset:
A self-fixating trial socket for releasable insertion into a corresponding cavity in a hip bone, comprising: an outer surface matched to the cavity in the hip bone, an inner surface matched to an inlay, in particular a trial inlay, and/or to a ball joint head, for receiving the latter in the hip joint socket, and at least one holding element for fixing the hip joint socket in the cavity, characterized in that the at least one holding element comprises at least one spring element which is configured such that in the inserted state the spring element exerts, at least in some places, an outwardly directed spring force to the cavity in the hip bone for releasable fixation of the hip joint socket. an outer surface matched to the cavity in the hip bone, an inner surface matched to an inlay, in particular a trial inlay, and/or to a ball joint head, for receiving the latter in the hip joint socket, and at least one holding element for fixing the hip joint socket in the cavity, characterized in that the at least one holding element comprises at least one spring element which is configured such that in the inserted state the spring element exerts, at least in some places, an outwardly directed spring force to the cavity in the hip bone for releasable fixation of the hip joint socket.
Turbocompressor rotor for a turbocompressor for compressing process gas, having a rotor body which makes contact with the process gas and which is produced entirely from a stainless steel material comprising 0.3 to 1.2% carbon and 12 to 19% chromium, characterized in that the steel material comprises the alloy X39CrMo17-1.
A cooling system for two-dimensional array power converters, that cools down heat generated when the power converters are driven, the system comprising: a plurality of power converters arranged in two-dimension; a compressor configured to generate compressed air; and a controller configured to determine whether to supply the low-temperature air into the power converters; characterized in, that the cooling system further comprises: vortex tubes each installed in the respective power converters, the vortex tubes configured to generate low-temperature air based on compressed air from the compressor; valves installed between the compressor and the vortex tubes; a first temperature sensor installed adjacent to a case of each of the power converters to measure a temperature of the case, and a second temperature sensor installed adjacent to a semiconductor element for power conversion located in each of the power converters to measure a temperature of the semiconductor element, and that the controller is configured to determine whether to supply the low-temperature air into the power converters by using the vortex tubes, based on the temperatures measured by the first and second temperature sensors (121, 122) and to control the valves depending on a result of the determination. a plurality of power converters arranged in two-dimension; a compressor configured to generate compressed air; and a controller configured to determine whether to supply the low-temperature air into the power converters; characterized in, that the cooling system further comprises: vortex tubes each installed in the respective power converters, the vortex tubes configured to generate low-temperature air based on compressed air from the compressor; valves installed between the compressor and the vortex tubes; a first temperature sensor installed adjacent to a case of each of the power converters to measure a temperature of the case, and a second temperature sensor installed adjacent to a semiconductor element for power conversion located in each of the power converters to measure a temperature of the semiconductor element, and vortex tubes each installed in the respective power converters, the vortex tubes configured to generate low-temperature air based on compressed air from the compressor; valves installed between the compressor and the vortex tubes; a first temperature sensor installed adjacent to a case of each of the power converters to measure a temperature of the case, and a second temperature sensor installed adjacent to a semiconductor element for power conversion located in each of the power converters to measure a temperature of the semiconductor element, and that the controller is configured to determine whether to supply the low-temperature air into the power converters by using the vortex tubes, based on the temperatures measured by the first and second temperature sensors (121, 122) and to control the valves depending on a result of the determination.
A conjugate, or a pharmaceutically acceptable salt thereof, comprising a water-soluble, non-peptidic, and non-nucleotidic polymer backbone having at least one terminus covalently bonded to a structure of formula: or a salt thereof, wherein: A is the point of covalent bonding to the terminus of the polymer backbone, wherein said polymer backbone is selected from the group consisting of poly(alkylene glycol), poly(oxyethylated polyol), poly(olefinic alcohol), poly(α-hydroxy acid), poly(vinyl alcohol), polyoxazoline, and copolymers and mixtures thereof; E is O or S; K is selected from the group consisting of: alkylene, alkyleneoxyalkylene, and oligomeric alkyleneoxyalkylene; G is selected from the group consisting of: hydrogen, alkoxy, and a hydrophobic separation handle; Z 1 and Z 2 are independently selected from O and NH, wherein only one of Z 1 and Z 2 can be NH; L is selected from the group consisting of: a divalent radical of a nucleoside, alkylene, alkyleneoxyalkylene, oligomeric alkyleneoxyalkylene, and unsubstituted and substituted arylene; R 1 is absent or a hydrophobic separation handle, wherein only one of R 1 and G can be a hydrophobic separation handle, wherein the hydrophobic separation handle is a moiety that reduces the tendency of said conjugate to be solved or dispersed in water; L 2 is a covalent linking moiety between L on the polymer backbone and B; and B is a TNF inhibitor, wherein said TNF inhibitor is an antibody or a fusion protein that binds to TNF alpha. A is the point of covalent bonding to the terminus of the polymer backbone, wherein said polymer backbone is selected from the group consisting of poly(alkylene glycol), poly(oxyethylated polyol), poly(olefinic alcohol), poly(α-hydroxy acid), poly(vinyl alcohol), polyoxazoline, and copolymers and mixtures thereof; E is O or S; K is selected from the group consisting of: alkylene, alkyleneoxyalkylene, and oligomeric alkyleneoxyalkylene; G is selected from the group consisting of: hydrogen, alkoxy, and a hydrophobic separation handle; Z 1 and Z 2 are independently selected from O and NH, wherein only one of Z 1 and Z 2 can be NH; L is selected from the group consisting of: a divalent radical of a nucleoside, alkylene, alkyleneoxyalkylene, oligomeric alkyleneoxyalkylene, and unsubstituted and substituted arylene; R 1 is absent or a hydrophobic separation handle, wherein only one of R 1 and G can be a hydrophobic separation handle, wherein the hydrophobic separation handle is a moiety that reduces the tendency of said conjugate to be solved or dispersed in water; L 2 is a covalent linking moiety between L on the polymer backbone and B; and B is a TNF inhibitor, wherein said TNF inhibitor is an antibody or a fusion protein that binds to TNF alpha.
A rack shaft, comprising: an effective rack tooth row formed by plastic deformation of a shaft member and having a plurality of effective rack teeth that mesh with a pinion; a non-rack tooth portion having no rack tooth; an ineffective rack tooth that is formed between the effective rack tooth row and the non-rack tooth portion and that does not mesh with the pinion; and a padding portion that extends from an end of the non-rack tooth portion toward the ineffective rack tooth and that covers at least a part of the ineffective rack tooth, characterized in that the padding portion has a tapered shape from the non-rack tooth portion toward the effective rack tooth row as viewed in a direction perpendicular to an axis of the shaft member and a tooth trace of the effective rack tooth row. an effective rack tooth row formed by plastic deformation of a shaft member and having a plurality of effective rack teeth that mesh with a pinion; a non-rack tooth portion having no rack tooth; an ineffective rack tooth that is formed between the effective rack tooth row and the non-rack tooth portion and that does not mesh with the pinion; and a padding portion that extends from an end of the non-rack tooth portion toward the ineffective rack tooth and that covers at least a part of the ineffective rack tooth, characterized in that the padding portion has a tapered shape from the non-rack tooth portion toward the effective rack tooth row as viewed in a direction perpendicular to an axis of the shaft member and a tooth trace of the effective rack tooth row.
A load indicator for use with a fall protection apparatus having a line and a connector for connecting to a user, the load indicator comprising: a housing having a pass-through opening and a covered indicator region, at least a portion of the housing configured for connecting to the line; a shear pin supported by the housing and extending across the pass-through opening; and a saddle extending across at least a portion of the pass-through opening and supported by at least a portion of the shear pin, the saddle configured for connecting to at least a portion of the connector, wherein the saddle is movable relative to the housing between a first position and a second position when a force exceeding a predetermined threshold value is applied on the saddle causing the shear pin to shear or break, and wherein at least a portion of the indicator region is uncovered in the second position of the saddle when the shear pin shears or breaks. a housing having a pass-through opening and a covered indicator region, at least a portion of the housing configured for connecting to the line; a shear pin supported by the housing and extending across the pass-through opening; and a saddle extending across at least a portion of the pass-through opening and supported by at least a portion of the shear pin, the saddle configured for connecting to at least a portion of the connector, wherein the saddle is movable relative to the housing between a first position and a second position when a force exceeding a predetermined threshold value is applied on the saddle causing the shear pin to shear or break, and wherein at least a portion of the indicator region is uncovered in the second position of the saddle when the shear pin shears or breaks.
A programmer for developing a program to provide therapeutic electrical stimulation to a patient with an electrical stimulation generator and an implanted medical lead (110, 515) coupled to the electrical stimulation generator, the implanted medical lead (110, 515) including a plurality of electrodes, the programmer comprising: a first user-controllable input configured for receiving a first input defining an amount of amplitude change for a discrete stimulus migration; a second user-controllable input configured for receiving a second input defining a direction for the migration; a processor configured for receiving the first input, receiving the second input, and calculating second stimulation parameters using first stimulation parameters, the first input, and the second input, the first stimulation parameters including assigned first amplitude values and first polarities for a first set of the plurality of electrodes and the second stimulation parameters including assigned second amplitude values and second polarities for a second set of the plurality of electrodes, the second amplitude values being different from the first amplitude values; and a transmitter configured for communicating the second stimulation parameters to the stimulation generator resulting in cessation of a first stimulation and initiation of a second stimulation with the stimulation generator using the second stimulation parameters; characterized in that the programmer further comprises a third user-controllable input configured for excluding an electrode of the plurality of electrodes from being considered for migration, and in that the calculating the second stimulation parameters excludes the excluded electrode from the calculating. a first user-controllable input configured for receiving a first input defining an amount of amplitude change for a discrete stimulus migration; a second user-controllable input configured for receiving a second input defining a direction for the migration; a processor configured for receiving the first input, receiving the second input, and calculating second stimulation parameters using first stimulation parameters, the first input, and the second input, the first stimulation parameters including assigned first amplitude values and first polarities for a first set of the plurality of electrodes and the second stimulation parameters including assigned second amplitude values and second polarities for a second set of the plurality of electrodes, the second amplitude values being different from the first amplitude values; and a transmitter configured for communicating the second stimulation parameters to the stimulation generator resulting in cessation of a first stimulation and initiation of a second stimulation with the stimulation generator using the second stimulation parameters; characterized in that the programmer further comprises a third user-controllable input configured for excluding an electrode of the plurality of electrodes from being considered for migration, and in that the calculating the second stimulation parameters excludes the excluded electrode from the calculating.
A node configured to operate in a wireless network, comprising: scanning circuitry configured to perform a scanning process to detect one or more upstream nodes of said wireless network, wherein an existing connection to an upstream node is broken as a consequence of said scanning process; connection circuitry configured to form a connection to at least one of said one or more upstream nodes in response to said scanning circuitry completing said scanning process; storage circuitry configured to store one or more triggers; and processing circuitry configured to cause said scanning circuitry to perform said scanning process in response to one of said one or more triggers, wherein said scanning circuitry is restricted to performing said scanning process within one or more allowed times; said one or more allowed times include at least one of: a time when usage of said node is at or below 25% of its average maximum usage for a given day, and a time when usage of said node is at a lowest point. scanning circuitry configured to perform a scanning process to detect one or more upstream nodes of said wireless network, wherein an existing connection to an upstream node is broken as a consequence of said scanning process; connection circuitry configured to form a connection to at least one of said one or more upstream nodes in response to said scanning circuitry completing said scanning process; storage circuitry configured to store one or more triggers; and processing circuitry configured to cause said scanning circuitry to perform said scanning process in response to one of said one or more triggers, wherein said scanning circuitry is restricted to performing said scanning process within one or more allowed times; said one or more allowed times include at least one of: a time when usage of said node is at or below 25% of its average maximum usage for a given day, and a time when usage of said node is at a lowest point. a time when usage of said node is at or below 25% of its average maximum usage for a given day, and a time when usage of said node is at a lowest point.
A protein variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein serine, which is an amino acid corresponding to position 109 of SEQ ID NO: 3, is substituted with phenylalanine.
Tool-holder in the form of a boring head, clamp mandrel, milling tool-holder or the like, provided with a damping means in the form of an elongate body arranged in an end housing of the tool-holder, of corresponding form and dimension and provided with elastically deformable elements mounted on the damping means and positioned between the jacket of the damping means and the wall of the housing of the tool-holder, characterized in that it comprises a device for preventing excessive overheating of the damping means likely to damage the elastically deformable elements mounted on the damping means in an operation of mounting a tool by hooping, the device for preventing overheating of the damping means being positioned between the damping means and the sleeve of the tool-holder intended to receive a tool such that the device for preventing overheating produces a thermal insulation which entirely covers the damping means in a plane perpendicular to the longitudinal axis of the tool-holder at the end of the damping means.
An article of footwear, comprising: an upper having a longitudinal direction extending along a length of the upper and a lateral direction extending along a width of the upper; a first tubular structure forming a first tunnel that extends in the longitudinal direction along the upper, the first tubular structure including a first intermediate portion that is attached to the upper and includes a first surface with a plurality of openings extending to the first tunnel; a first tensile strand extending through the first tunnel of the first tubular structure; a second tensile strand extending over a top portion of the upper and engaging with portions of the first tensile strand through at least one of the plurality of openings; wherein said portions of the first tensile strand are configured to extend outwardly through the plurality of openings at various portions along the first tubular structure, wherein said portions of the first tubular structure are disposed on a lateral side and on a medial side of the upper; wherein the second tensile strand engages the first tensile strand at said portions of the first tubular structure; and wherein applying tension to one of the first tensile strand or the second tensile strand also applies tension to the other one of the first and second tensile strands (560; 650). an upper having a longitudinal direction extending along a length of the upper and a lateral direction extending along a width of the upper; a first tubular structure forming a first tunnel that extends in the longitudinal direction along the upper, the first tubular structure including a first intermediate portion that is attached to the upper and includes a first surface with a plurality of openings extending to the first tunnel; a first tensile strand extending through the first tunnel of the first tubular structure; a second tensile strand extending over a top portion of the upper and engaging with portions of the first tensile strand through at least one of the plurality of openings; wherein said portions of the first tensile strand are configured to extend outwardly through the plurality of openings at various portions along the first tubular structure, wherein said portions of the first tubular structure are disposed on a lateral side and on a medial side of the upper; wherein the second tensile strand engages the first tensile strand at said portions of the first tubular structure; and wherein applying tension to one of the first tensile strand or the second tensile strand also applies tension to the other one of the first and second tensile strands (560; 650).
Rotary heat exchanger set, comprising a first, in particular lower, module and a second, in particular upper, module which is separate from the first module, wherein the first module comprises a first heat wheel part of a heat wheel and the second module comprises a second heat wheel part of the heat wheel, wherein the first and second heat wheel parts form at least approximately the entire heat wheel, characterized in that the first and/or second module comprise(s) at least one holding device (44a-44d), in particular lifting eye, for lifting the respective module (11, 12), in particular by a crane, and in that the first and/or second module can be transported exclusively in a vertical orientation.
A continuous hammering device configured to hammer a cast that has been solidified and cast in a casting die and is configured to be continuously moved in one direction comprising: a hammering member for hammering the cast; a compression spring which is configured to push the hammering member toward the cast; a cam mechanism which is configured to: compress the compression spring by moving the hammering member away from the cast; and then allow the hammering member to freely move; and a main body which is configured to support the hammering member, the compression spring, and the cam mechanism, wherein the cam mechanism is configured such that at the time of hammering, the cam mechanism leaves the hammering member to allow the hammering member to freely accelerate so as to convert compression energy of the compression spring into kinetic energy of the hammering member, and the hammering member collides with the cast, thereby imparting predetermined hammering energy to the cast, the continuous hammering device comprising: a moving device which is configured to move the main body back and forth relative to the cast; and a positioning mechanism which is configured to set the main body at a predetermined position relative to the cast, characterized in that the positioning mechanism comprises a plurality of guide rollers which is rotatably installed to the main body and which is configured to freely rotate while being in contact with a hit surface of the cast at a predetermined position. a hammering member for hammering the cast; a compression spring which is configured to push the hammering member toward the cast; a cam mechanism which is configured to: compress the compression spring by moving the hammering member away from the cast; and then allow the hammering member to freely move; and a main body which is configured to support the hammering member, the compression spring, and the cam mechanism, wherein the cam mechanism is configured such that at the time of hammering, the cam mechanism leaves the hammering member to allow the hammering member to freely accelerate so as to convert compression energy of the compression spring into kinetic energy of the hammering member, and the hammering member collides with the cast, thereby imparting predetermined hammering energy to the cast, a moving device which is configured to move the main body back and forth relative to the cast; and a positioning mechanism which is configured to set the main body at a predetermined position relative to the cast,