mhurhangee/patent-ind-claim-en huggingface dataset:
An exercise apparatus for the exercise of a user's gluteus muscles through a supported seated squat downward from an upper starting position and a upward return movement, comprising: a base ; a pair of user foot support ramps mounted to the base for supporting the toe portions of the feet with the heels on the floor, the ramps being positioned and oriented to position the user upon the apparatus whereby weight of the user is directed through the heels during a full range of exercise motion; a pair of spaced fixed uprights mounted to the base and located forward of the foot support ramps , the uprights terminating in a pair of non-moving user hand grips , the uprights configured to remain in a fixed position throughout the exercise; a buttocks support assembly pivotally mounted to the uprights and extending rearwardly thereof, the assembly having a buttocks support pad at a distal end thereof located rearwardly of the foot support ramps ; and a compressible linkage connecting the support assembly and the base , the linkage providing an opposing force to the downward travel of the support assembly and a boost restoring force to the support assembly for returning the support pad to an upper starting position in conjunction with a return of the user supported by the pad from the squat by extending the user's legs, thereby exercising the user's gluteus muscles. a base ; a pair of user foot support ramps mounted to the base for supporting the toe portions of the feet with the heels on the floor, the ramps being positioned and oriented to position the user upon the apparatus whereby weight of the user is directed through the heels during a full range of exercise motion; a pair of spaced fixed uprights mounted to the base and located forward of the foot support ramps , the uprights terminating in a pair of non-moving user hand grips , the uprights configured to remain in a fixed position throughout the exercise; a buttocks support assembly pivotally mounted to the uprights and extending rearwardly thereof, the assembly having a buttocks support pad at a distal end thereof located rearwardly of the foot support ramps ; and a compressible linkage connecting the support assembly and the base , the linkage providing an opposing force to the downward travel of the support assembly and a boost restoring force to the support assembly for returning the support pad to an upper starting position in conjunction with a return of the user supported by the pad from the squat by extending the user's legs, thereby exercising the user's gluteus muscles.
Combination of - an implant for blood vessels, in particular for influencing the blood flow in the region of arteriovenous defects, comprising a wall consisting of individual filaments which are combined to form a substantially tubular lattice which extends in the axial direction from a proximal side to a distal side, wherein the individual filaments cross one another and form crossing points with one another, and the implant is deformable such that it assumes a shape with a reduced diameter in an insertion catheter and expands over the implantation site, adapting to the diameter of the blood vessel, and - an insertion wire , wherein the implant is coupled to the insertion wire via a retaining element and, at the proximal and/or distal end of the lattice, the filament ends are brought together in each case at least in pairs and permanently connected to one another, wherein the filament ends connected to one another are formed atraumatically, characterised in that at the proximal end of the implant there are bulges which are held in a form-fitting manner by the retaining element , wherein a portion of the retaining element is designed to be electrolytically corrodible and dissolvable by applying an electrical voltage, wherein the portion inhibits the bulges from emerging from the retaining element before the dissolution and, after the electrolytical dissolution of the portion , sufficient space is available for the emergence of the bulges so that the implant can detach and expand. - an implant for blood vessels, in particular for influencing the blood flow in the region of arteriovenous defects, comprising a wall consisting of individual filaments which are combined to form a substantially tubular lattice which extends in the axial direction from a proximal side to a distal side, wherein the individual filaments cross one another and form crossing points with one another, and the implant is deformable such that it assumes a shape with a reduced diameter in an insertion catheter and expands over the implantation site, adapting to the diameter of the blood vessel, and - an insertion wire , wherein the implant is coupled to the insertion wire via a retaining element and, at the proximal and/or distal end of the lattice, the filament ends are brought together in each case at least in pairs and permanently connected to one another, wherein the filament ends connected to one another are formed atraumatically, characterised in that at the proximal end of the implant there are bulges which are held in a form-fitting manner by the retaining element , wherein a portion of the retaining element is designed to be electrolytically corrodible and dissolvable by applying an electrical voltage, wherein the portion inhibits the bulges from emerging from the retaining element before the dissolution and, after the electrolytical dissolution of the portion , sufficient space is available for the emergence of the bulges so that the implant can detach and expand.
An electroluminescent device, comprising a first electrode and a second electrode facing each other; an emission layer disposed between the first electrode and the second electrode and comprising a plurality of quantum dots, and a first hole transporting material comprising a substituted or unsubstituted C4 to C20 alkyl group attached to a backbone structure; a hole transport layer disposed between the emission layer and the first electrode and comprising a second hole transporting material; and an electron transport layer disposed between the emission layer and the second electrode, wherein the plurality of quantum dots comprises a Group II-VI compound, a Group III-V compound, a Group IV-VI compound, a Group IV element or compound, a Group I-III-VI compound, a Group I-II-IV-VI compound, or a combination thereof. a first electrode and a second electrode facing each other; an emission layer disposed between the first electrode and the second electrode and comprising a plurality of quantum dots, and a first hole transporting material comprising a substituted or unsubstituted C4 to C20 alkyl group attached to a backbone structure; a plurality of quantum dots, and a first hole transporting material comprising a substituted or unsubstituted C4 to C20 alkyl group attached to a backbone structure; a hole transport layer disposed between the emission layer and the first electrode and comprising a second hole transporting material; and an electron transport layer disposed between the emission layer and the second electrode, wherein the plurality of quantum dots comprises a Group II-VI compound, a Group III-V compound, a Group IV-VI compound, a Group IV element or compound, a Group I-III-VI compound, a Group I-II-IV-VI compound, or a combination thereof.
A desalination system comprising: a partitioned container housing a movable partition partitioning the container into an upstream compartment and a downstream compartment each of variable volume, the partitioned container having a first inlet port at an upstream end of the container , a second inlet port at a downstream end of the container and an outlet port at the downstream end of the container ; a membrane container housing a cross-flow semipermeable membrane dividing the membrane container into a saline compartment and a desalinated compartment , the saline compartment comprising first and second cross-flow ports , the desalinated compartment comprising a desalinated water outlet port ; a feed pump connected to feed a supply of saline water to the first inlet port ; a recharge pump having an inlet connected to the second cross-flow port and an outlet connected to the second inlet port to feed saline water into the downstream compartment ; a main valve connected between the outlet port and the first cross-flow port ; a bypass valve connected on one side to the first inlet port and on another side to the second cross-flow port and the inlet of the recharge pump ; and a purge valve connected on one side to the first cross-flow port and the main valve and on another side to a purge port . a partitioned container housing a movable partition partitioning the container into an upstream compartment and a downstream compartment each of variable volume, the partitioned container having a first inlet port at an upstream end of the container , a second inlet port at a downstream end of the container and an outlet port at the downstream end of the container ; a membrane container housing a cross-flow semipermeable membrane dividing the membrane container into a saline compartment and a desalinated compartment , the saline compartment comprising first and second cross-flow ports , the desalinated compartment comprising a desalinated water outlet port ; a feed pump connected to feed a supply of saline water to the first inlet port ; a recharge pump having an inlet connected to the second cross-flow port and an outlet connected to the second inlet port to feed saline water into the downstream compartment ; a main valve connected between the outlet port and the first cross-flow port ; a bypass valve connected on one side to the first inlet port and on another side to the second cross-flow port and the inlet of the recharge pump ; and a purge valve connected on one side to the first cross-flow port and the main valve and on another side to a purge port .
A method for preparing a styrene-acrylonitrile melt comprising the steps of: - providing a screw machine having a styrene-acrylonitrile melt contained therein, wherein styrene-acrylonitrile is fed into the screw machine by means of a first feeding device , - feeding an entraining agent by means of a first entraining agent feeding means into the styrene-acrylonitrile melt in a feeding direction of the screw machine upstream to a feeding zone of a rubber so that the entraining agent is fed prior to feeding the rubber , - mixing the styrene-acrylonitrile melt with the fed entraining agent by means of the screw machine to form a mixture (Mi), - degassing of the mixture formed (M 1 ) in the screw machine , and - feeding the rubber into the styrene-acrylonitrile melt by means of a second feeding device , wherein the second feeding device opens into the screw machine in the feeding zone . - providing a screw machine having a styrene-acrylonitrile melt contained therein, wherein styrene-acrylonitrile is fed into the screw machine by means of a first feeding device , - feeding an entraining agent by means of a first entraining agent feeding means into the styrene-acrylonitrile melt in a feeding direction of the screw machine upstream to a feeding zone of a rubber so that the entraining agent is fed prior to feeding the rubber , - mixing the styrene-acrylonitrile melt with the fed entraining agent by means of the screw machine to form a mixture (Mi), - degassing of the mixture formed (M 1 ) in the screw machine , and - feeding the rubber into the styrene-acrylonitrile melt by means of a second feeding device , wherein the second feeding device opens into the screw machine in the feeding zone .
A method for starting up a gas turbine engine of a combined cycle power plant , the gas turbine engine including a compressor , a combustor and a turbine , the compressor providing compressed air to the combustor for combustion with a fuel to produce a working fluid and the turbine receiving the working fluid to produce power; the compressor comprising adjustable inlet guide vanes, the adjustable inlet guide vanes being adjustable between a fully closed position for minimizing the mass flow of air into the compressor and a fully open position for providing the maximum mass flow of air into the compressor ; wherein the method comprises the steps of: - step 1 (S 1 ): applying load to the gas turbine engine and increasing the load until a predetermined combustor firing temperature (T F ) is reached, while keeping the adjustable inlet guide vanes in a start position adapted to reduce the mass flow of air into the compressor , whereby the predetermined combustor firing temperature (T F ) is chosen to be an emission-compliant temperature, - step 2 (S 2 ): further increasing the load of the gas turbine engine while opening the adjustable inlet guide vanes and keeping the predetermined combustor firing temperature (T F ) constant until the inlet guide vanes reach an end position adapted to increase the mass flow of air into the compressor , - step 3 (S 3 ): further increasing the load of the gas turbine engine and the predetermined combustor firing temperature (T F ) while keeping the adjustable inlet guide vanes in the end position until a predetermined load of the gas turbine engine is reached. the gas turbine engine including a compressor , a combustor and a turbine , the compressor providing compressed air to the combustor for combustion with a fuel to produce a working fluid and the turbine receiving the working fluid to produce power; the compressor comprising adjustable inlet guide vanes, the adjustable inlet guide vanes being adjustable between a fully closed position for minimizing the mass flow of air into the compressor and a fully open position for providing the maximum mass flow of air into the compressor ; - step 1 (S 1 ): applying load to the gas turbine engine and increasing the load until a predetermined combustor firing temperature (T F ) is reached, while keeping the adjustable inlet guide vanes in a start position adapted to reduce the mass flow of air into the compressor , whereby the predetermined combustor firing temperature (T F ) is chosen to be an emission-compliant temperature, - step 2 (S 2 ): further increasing the load of the gas turbine engine while opening the adjustable inlet guide vanes and keeping the predetermined combustor firing temperature (T F ) constant until the inlet guide vanes reach an end position adapted to increase the mass flow of air into the compressor , - step 3 (S 3 ): further increasing the load of the gas turbine engine and the predetermined combustor firing temperature (T F ) while keeping the adjustable inlet guide vanes in the end position until a predetermined load of the gas turbine engine is reached.
An inhaler system , comprising: a housing defining a housing cavity; a sleeve extending along a sleeve longitudinal axis and positioned within the housing cavity, wherein the sleeve is movable within the housing cavity between a first position and a second position, wherein the sleeve extends from an open end to a closed end and defines a cylindrical lumen for receiving an inhaler article , the open end of the sleeve is aligned with an opening in the housing for receiving the inhaler article; a capsule contained within the inhaler article and received within the sleeve, the capsule having a capsule longitudinal axis; and a piercing element comprising only a single shaft extending from a fixed end to a tip along a piercing element longitudinal axis, the piercing element longitudinal axis being parallel with the sleeve longitudinal axis, the piercing element having a piercing element diameter in a range from 0.5 to 0.9 mm, and the single piercing element tip having only a single cutting plane and defining a cutting plane angle between the longitudinal axis of the piercing element and the single cutting plane, the cutting plane angle being in a range from about 25 degrees and about 35 degrees; wherein only a single aperture is formed in the capsule when the sleeve is moved from the first position to the second position. a housing defining a housing cavity; a sleeve extending along a sleeve longitudinal axis and positioned within the housing cavity, wherein the sleeve is movable within the housing cavity between a first position and a second position, wherein the sleeve extends from an open end to a closed end and defines a cylindrical lumen for receiving an inhaler article , the open end of the sleeve is aligned with an opening in the housing for receiving the inhaler article; a capsule contained within the inhaler article and received within the sleeve, the capsule having a capsule longitudinal axis; and a piercing element comprising only a single shaft extending from a fixed end to a tip along a piercing element longitudinal axis, the piercing element longitudinal axis being parallel with the sleeve longitudinal axis, the piercing element having a piercing element diameter in a range from 0.5 to 0.9 mm, and the single piercing element tip having only a single cutting plane and defining a cutting plane angle between the longitudinal axis of the piercing element and the single cutting plane, the cutting plane angle being in a range from about 25 degrees and about 35 degrees; wherein only a single aperture is formed in the capsule when the sleeve is moved from the first position to the second position.
A system for load sharing, comprising a distribution device, a plurality of service processors and a plurality of inquiry processors, wherein the distribution device is configured to determine a target service processor in the service processors, and send a service processing request to the target service processor; the target service processor is configured to, in the case of receiving the service processing request sent by the distribution device, determine a target inquiry processor in the inquiry processors, send a target data inquiry request to the target inquiry processor, and carry out a service work needed to be applied to target data after acquiring the target data; and the target inquiry processor is configured to receive the data inquiry request from the target service processor, acquire the target data cached in its own memory, and send the target data to the target service processor, wherein the target service processor is further configured to access a core network to acquire the target data in the case that the target service processor cannot acquire the target data from the target inquiry processor, and wherein the target service processor is further configured to: in the case that the memory of the target inquiry processor does not store the target data, store the target data from the core network into the memory of the target inquiry processor; and in the case of being unable to access the target inquiry processor, store an access failure result into its own memory, wherein the target service processor excludes an inquiry processor which cannot be accessed according to the access failure result recorded in its own memory at the time of determining the target inquiry processor, and wherein the memory of the target inquiry processor is further configured to automatically delete stored data with storage time which reaches a preset period. in the case that the memory of the target inquiry processor does not store the target data, store the target data from the core network into the memory of the target inquiry processor; and in the case of being unable to access the target inquiry processor, store an access failure result into its own memory, wherein the target service processor excludes an inquiry processor which cannot be accessed according to the access failure result recorded in its own memory at the time of determining the target inquiry processor, and wherein the memory of the target inquiry processor is further configured to automatically delete stored data with storage time which reaches a preset period.
High-strength steel having a chemical composition containing, by mass%, C: 0.05% to 0.09%, Si: 0.05% to 0.20%, Mn: 1.6% to 2.0%, P: 0.020% or less, S: 0.002% or less, Mo: 0.20% to 0.50%, Nb: 0.02% to 0.06%, Ti: 0.005% to 0.02%, Al: 0.01% to 0.04%, N: 0.004% to 0.006%, and optionally further containing one, two, or more of Cu: 0.50% or less, Ni: 0.50% or less, Cr: 0.50% or less, V: 0.08% or less, and Ca: 0.0005% to 0.0040%, and the balance being Fe and inevitable impurities, in which Ti/N is 2.0 to 4.0, and X(%) calculated by using equation is 0.90% or more, a microstructure having a bainite phase fraction of 70% or more, and a tensile strength of 760 MPa or more at a temperature of 350°C: X = 0.35 ⁢ Cr + 0.9 ⁢ Mo + 12.5 ⁢ Nb + 8 ⁢ V where the symbols of elements in equation respectively denote the contents (mass%) of the corresponding chemical elements, and where the symbol of a chemical element which is not included is assigned a value of 0.
An ophthalmic device comprising an ophthalmic contact lens with an outer surface and an inner surface; and PRG4 disposed on at least a portion of the outer or inner surface in an amount effective to provide ocular boundary lubrication in an ocular environment of an individual wearing the ophthalmic lens.
A method for manufacturing a semiconductor device including a plurality of packages disposed in a resin-molded case , each of the plurality of packages containing a power semiconductor element , the method comprising: placing the case on a working table with an opening formed at a bottom of the case , the case including a plurality of first terminals with one end internally drawn along the bottom of the case and connectable to one power semiconductor element ; placing the packages on the working table through the opening of the case , each of the plurality of packages including a second terminal connectable to the power semiconductor element contained in the package, and forming a clearance between the first terminal of the case and the second terminal of the package ; electrically connecting the first terminal and the second terminal with a bonding material disposed in the clearance ; providing a plurality of third terminals , each comprised in one of the packages; and before or after placing the packages on the working table , inserting onto each third terminal , a control board with a through hole, and electrically connecting the third terminal to the control board , the control board including a circuit configured to output a driving signal to the power semiconductor element , wherein the third terminal is drawn in a direction that separates from the working table along a depth direction of the case and the control board . placing the case on a working table with an opening formed at a bottom of the case , the case including a plurality of first terminals with one end internally drawn along the bottom of the case and connectable to one power semiconductor element ; placing the packages on the working table through the opening of the case , each of the plurality of packages including a second terminal connectable to the power semiconductor element contained in the package, and forming a clearance between the first terminal of the case and the second terminal of the package ; electrically connecting the first terminal and the second terminal with a bonding material disposed in the clearance ; providing a plurality of third terminals , each comprised in one of the packages; and before or after placing the packages on the working table , inserting onto each third terminal , a control board with a through hole, and electrically connecting the third terminal to the control board , the control board including a circuit configured to output a driving signal to the power semiconductor element , wherein the third terminal is drawn in a direction that separates from the working table along a depth direction of the case and the control board .