mhurhangee/ep-ind-claims huggingface dataset:
A remote golf club swinging method comprising: receiving in a robotic golf club swing fixture from a remote operator over a computer communications network a set of swing parameters defining different aspects of a golf club swing in response to the remote operator setting the set of swing parameters in a graphical user interface in a web browser on a computing device remotely disposed from the robotic golf club swing fixture; directing a plurality of robotic arms of the robotic golf club swing fixture to swing a coupled golf club resulting in the remote operator remotely causing the robotic golf club swing fixture to swing the coupled golf club according to the set of swing parameters set via the GUI, wherein directing the plurality of robotic arms comprises formatting the received set of swing parameters to a data string; sensing a result of the swinging of the coupled golf club; and, transmitting data derived from the sensed result to the remote operator for display in the web browser on the computing device over the computer communications network, characterized in that the set of swing parameters includes direction and shot shape, and in that transmitting the data derived from the sensed result to the remote operator for display in the web browser on the computing device over the computer communications network comprises: transmitting the data derived from the sensed result to a golf simulator comprising program code executed by a processor; and, displaying, by the golf simulator, to the remote operator, a calculated theoretical movement of the golf ball based upon the data derived from the sensed result. receiving in a robotic golf club swing fixture from a remote operator over a computer communications network a set of swing parameters defining different aspects of a golf club swing in response to the remote operator setting the set of swing parameters in a graphical user interface in a web browser on a computing device remotely disposed from the robotic golf club swing fixture; directing a plurality of robotic arms of the robotic golf club swing fixture to swing a coupled golf club resulting in the remote operator remotely causing the robotic golf club swing fixture to swing the coupled golf club according to the set of swing parameters set via the GUI, wherein directing the plurality of robotic arms comprises formatting the received set of swing parameters to a data string; sensing a result of the swinging of the coupled golf club; and, transmitting data derived from the sensed result to the remote operator for display in the web browser on the computing device over the computer communications network, transmitting the data derived from the sensed result to a golf simulator comprising program code executed by a processor; and, displaying, by the golf simulator, to the remote operator, a calculated theoretical movement of the golf ball based upon the data derived from the sensed result.
A reconfigurable motor mount comprising: at least one connection point that has at least a first configuration adapted to accept a first arrangement of fasteners and a second configuration adapted to accept a second arrangement of fasteners, the first and second arrangements of fasteners being different from each other; wherein the motor mount has at least one motor mount foot, and the at least one connection point is defined on the at least one motor mount foot; wherein the at least one connection point comprises a recess formed in the at least one motor mount foot and an invertible insert having a generally rectangular geometry disposed within the recess, the invertible insert having either a first orientation corresponding to the first configuration or a second orientation corresponding to the second configuration. at least one connection point that has at least a first configuration adapted to accept a first arrangement of fasteners and a second configuration adapted to accept a second arrangement of fasteners, the first and second arrangements of fasteners being different from each other; wherein the motor mount has at least one motor mount foot, and the at least one connection point is defined on the at least one motor mount foot; wherein the at least one connection point comprises a recess formed in the at least one motor mount foot and an invertible insert having a generally rectangular geometry disposed within the recess, the invertible insert having either a first orientation corresponding to the first configuration or a second orientation corresponding to the second configuration.
A pipe heating for heating a pipe carrying a medium, comprising a PTC heating device which comprises at least one PTC element and conductor lines (8; 10), wherein the PTC element may extend in the longitudinal direction of the pipe while being disposed between the conductor lines (8; 10) assigned to different polarities, wherein a heat transfer member is provided, wherein a housing biasing member and a housing counter member are provided and wherein the housing biasing member together with the housing counter member encloses the PTC heating device and the pipe and is configured to bias the PTC heating device against the outer circumferential surface of the pipe for retaining it thereto, characterized in that the PTC heating device is provided between the heat transfer member and the housing biasing member and in that the heat transfer member forms a convex inner surface abuttable in planar contact against the pipe and an opposing abutting surface underneath the PTC element which extends at least in parts linearly.
Underfloor, ceiling or wall heating systems or air-conditioning ceilings for transferring and dissipating heat in buildings, automobiles, in machines and plants and in tanks, comprising a lightweight heat-conducting plate made of binderless compacted expanded graphite, characterised in that thermal conduction parallel to the plate face is at least 5.5 W/m*K and is at feast 50 % higher than the thermal conductivity perpendicular to the plate face, and in that the thickness of the lightweight heat-conducting plate is between 8 mm and 50 mm.
A data transmission method, comprising: encoding a data stream of a first receive end by using a first Multiple Input Multiple Output, MIMO, encoding mode, to obtain a first encoded data stream, wherein the first MIMO encoding mode is a MIMO precoding mode corresponding to a space frequency block coding, SFBC, transmission scheme used by the first receive end; encoding a data stream of a second receive end by using a second MIMO encoding mode, to obtain a second encoded data stream, wherein the second MIMO encoding mode is a MIMO precoding mode corresponding to a space time block coding, STBC, transmission scheme or a cyclic delay diversity, CDD, transmission scheme used by the second receive end; encoding the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream; and sending the to-be-sent data stream to the first receive end and the second receive end by using antennas; wherein the encoding the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream specifically comprises: multiplying the first encoded data stream by a first precode to obtain a first to-be-sent data stream, and multiplying the second encoded data stream by a second precode to obtain a second to-be-sent data stream, wherein the first precode and the second precode are determined by the third encoding mode, and the to-be-sent data stream is a sum of the first to-be-sent data stream and the second to-be-sent data stream. encoding a data stream of a first receive end by using a first Multiple Input Multiple Output, MIMO, encoding mode, to obtain a first encoded data stream, wherein the first MIMO encoding mode is a MIMO precoding mode corresponding to a space frequency block coding, SFBC, transmission scheme used by the first receive end; encoding a data stream of a second receive end by using a second MIMO encoding mode, to obtain a second encoded data stream, wherein the second MIMO encoding mode is a MIMO precoding mode corresponding to a space time block coding, STBC, transmission scheme or a cyclic delay diversity, CDD, transmission scheme used by the second receive end; encoding the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream; and sending the to-be-sent data stream to the first receive end and the second receive end by using antennas; wherein the encoding the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream specifically comprises: multiplying the first encoded data stream by a first precode to obtain a first to-be-sent data stream, and multiplying the second encoded data stream by a second precode to obtain a second to-be-sent data stream, wherein the first precode and the second precode are determined by the third encoding mode, and the to-be-sent data stream is a sum of the first to-be-sent data stream and the second to-be-sent data stream.
A compression garment for a limb having a two-layer compression measurement system, wherein the two-layer compression measurement system comprises: (a) a stretchable base layer having indicia (32, 34, 36) thereon; and (b) an upper layer positioned on top of the stretchable base layer wherein (i) the upper layer has one fixed end that is attached to the stretchable base layer and one free end that is not attached to the stretchable base layer and (ii) the indicia (32, 34, 36) on the stretchable base layer are disposed under the free end of the upper layer and are not visible to a user before the measurement system has been stretched, but (iii) the indicia (32, 34, 36) on the stretchable base layer are pulled out from under the free end of the upper layer and are therefore visible to the user after the measurement system has been stretched, wherein the compression garment is adapted to be wrapped around the limb of a patient, the compression garment comprising a body with a plurality of bands extending therefrom, wherein at least one of the bands includes the two-layer compression measurement system. (a) a stretchable base layer having indicia (32, 34, 36) thereon; and (b) an upper layer positioned on top of the stretchable base layer wherein (i) the upper layer has one fixed end that is attached to the stretchable base layer and one free end that is not attached to the stretchable base layer and (ii) the indicia (32, 34, 36) on the stretchable base layer are disposed under the free end of the upper layer and are not visible to a user before the measurement system has been stretched, but (iii) the indicia (32, 34, 36) on the stretchable base layer are pulled out from under the free end of the upper layer and are therefore visible to the user after the measurement system has been stretched, (i) the upper layer has one fixed end that is attached to the stretchable base layer and one free end that is not attached to the stretchable base layer and (ii) the indicia (32, 34, 36) on the stretchable base layer are disposed under the free end of the upper layer and are not visible to a user before the measurement system has been stretched, but (iii) the indicia (32, 34, 36) on the stretchable base layer are pulled out from under the free end of the upper layer and are therefore visible to the user after the measurement system has been stretched,
An ocean thermal energy conversion plant comprising: a vessel; and a cold water pipe attached to the vessel, the cold water pipe characterized by: an interface section with an engagement portion in contact with the vessel and a virtual hinge extending from the engagement portion to a fixed interface; a middle section engaging the fixed interface and suspended from the interface section; and an intake section suspended from the middle section, wherein the virtual hinge is tapered from a first diameter adjacent the engagement portion to a smaller second diameter adjacent the fixed interface, wherein the engagement portion of the interface section is tapered from a first diameter adjacent the virtual hinge to a smaller second diameter at the end of the interface section in contact with the vessel, and wherein the virtual hinge is configured to provide up to 2 degrees of deflection. a vessel; and a cold water pipe attached to the vessel, the cold water pipe characterized by: an interface section with an engagement portion in contact with the vessel and a virtual hinge extending from the engagement portion to a fixed interface; a middle section engaging the fixed interface and suspended from the interface section; and an intake section suspended from the middle section, wherein the virtual hinge is tapered from a first diameter adjacent the engagement portion to a smaller second diameter adjacent the fixed interface, wherein the engagement portion of the interface section is tapered from a first diameter adjacent the virtual hinge to a smaller second diameter at the end of the interface section in contact with the vessel, and wherein the virtual hinge is configured to provide up to 2 degrees of deflection. an interface section with an engagement portion in contact with the vessel and a virtual hinge extending from the engagement portion to a fixed interface; a middle section engaging the fixed interface and suspended from the interface section; and an intake section suspended from the middle section, wherein the virtual hinge is tapered from a first diameter adjacent the engagement portion to a smaller second diameter adjacent the fixed interface, wherein the engagement portion of the interface section is tapered from a first diameter adjacent the virtual hinge to a smaller second diameter at the end of the interface section in contact with the vessel, and wherein the virtual hinge is configured to provide up to 2 degrees of deflection.
A combined pharmaceutical composition comprising halofuginone and an Artemisia annua sesquiterpene lactone compound for use in the treatment of cancer, wherein the active ingredients of said composition consist of HF and an Artemisia annua sesquiterpene lactone compound, and wherein said Artemisia annua sesquiterpene lactone compound is one of Artemisinin, dihydroartemisin, artesunate (ASU,) or artemether.
A process for the preparation of zeolite ZSM-5 granules free from inorganic binders, which comprises: a) the preparation of dried powdered amorphous sodium aluminosilicate gel without the use of organic structure directing agent, b) the preparation of amorphous sodium aluminosilicate granulates from the dried powdered amorphous sodium aluminosilicate gel free from inorganic binder and c) the hydrothermal crystallization of crystalline ZSM-5 granules from amorphous sodium aluminosilicate granules, wherein the inorganic reactants are non-toxic, wherein the amorphous sodium aluminosilicate gel is prepared by the simultaneous dosing of solution of sodium water-glass and solution of sodium aluminate, wherein the pH of the gel is adjusted using dilute sulfuric acid, zeolite ZSM-5 seed crystals with a ratio between 0.5% and 5% to the total weight of the gel are added during the mixing of the components in the reactor, the aging of the gel is performed for 1 to 24 hours at a temperature from 20°C to 80°C, the gel filtration is carried out at a temperature in the range from 15°C to 95°C, the gel drying is carried out from 0.5 to 24 hours at a temperature from 60°C to 120°C. a) the preparation of dried powdered amorphous sodium aluminosilicate gel without the use of organic structure directing agent, b) the preparation of amorphous sodium aluminosilicate granulates from the dried powdered amorphous sodium aluminosilicate gel free from inorganic binder and c) the hydrothermal crystallization of crystalline ZSM-5 granules from amorphous sodium aluminosilicate granules, wherein the inorganic reactants are non-toxic,
A pharmaceutical composition comprising an antimicrobial agent and a pharmaceutical carrier which comprises an emulsifier and a polymeric dissolution aid, wherein said antimicrobial agent is selected from the group consisting of: -N-((3-(2-fluoro-4'-(((3-fluoropropyl)amino)methyl)-[1,1 '-biphenyl]-4-yl)-2-oxooxazolidin-5-yl)methyl)acetamide, -N-((3-(2-fluoro-4'-(((3-fluoropropyl)(hydroxy)amino)methyl)-[1,1'-biphenyl]-4-yl)-2-oxooxazolidin-5-yl)methyl)acetamide, -N-((3-(4'-((((1H-1,2,3-triazol-5-yl)methyl)amino)methyl)-2-fluoro-[1,1'-biphenyl]-4-yl)-2-oxooxazolidin-5-yl)methyl)acetamide, -5-((1H-1,2,3-triazol-1-yl)methyl)-3-(4'-((((1H-1,2,3-triazol-5-yl)methyl)amino)methyl)-2-fluoro-[1,1'-biphenyl]-4-yl)oxazolidin-2-one, -N-((3-(3-fluoro-4-morpholinophenyl)-2-oxooxazolidin-5-yl)methyl)acetamide, and -N-((3-(3-fluoro-4-(4-(2-hydroxyacetyl)piperazin-1-yl)phenyl)-2-oxooxazolidin-5-yl)methyl)acetamide (eperezolid), or a pharmaceutically acceptable salt or tautomer thereof; wherein the emulsifier is a polyglycolized glyceride; and wherein the polymeric dissolution aid is selected from the group consisting of polymers of 1-ethenyl-2-pyrrolidinone, polyamine N-oxide polymers, copolymers of N-vinylpyrrolidone and N-vinylimidazole, polyvinyloxazolidones, polyvinylimidazoles, and mixtures thereof.
A method for searching for the optimization margin of the resources of an IT infrastructure, said IT infrastructure hosting an application chain involving a plurality of resources, said method including the following steps: - Executing a set of requests, said execution of the set of requests simulating the operation of the application chain, - Analyzing the results of the set of requests, said analysis including a measurement of service quality parameter values in response to the execution of the set of requests and a comparison of the measured service quality parameter values to predetermined service quality parameter threshold values, - Analyzing the resource utilization, said analysis including a measurement of resource utilization values in response to the execution of the set of requests and a comparison of the measured resource utilization values to predetermined minimum resource utilization threshold values, - Identifying an optimization margin of the resources, said identification including the identification of an underutilized resource, said underutilized resource being a resource whose measured resource utilization value is lower than the predetermined minimum resource utilization threshold value while the measured service quality parameter values are in adequacy with the predetermined service quality parameter threshold values. - Executing a set of requests, said execution of the set of requests simulating the operation of the application chain, - Analyzing the results of the set of requests, said analysis including a measurement of service quality parameter values in response to the execution of the set of requests and a comparison of the measured service quality parameter values to predetermined service quality parameter threshold values, - Analyzing the resource utilization, said analysis including a measurement of resource utilization values in response to the execution of the set of requests and a comparison of the measured resource utilization values to predetermined minimum resource utilization threshold values, - Identifying an optimization margin of the resources, said identification including the identification of an underutilized resource, said underutilized resource being a resource whose measured resource utilization value is lower than the predetermined minimum resource utilization threshold value while the measured service quality parameter values are in adequacy with the predetermined service quality parameter threshold values.
A vibration reduction device comprising: a rod rigid body (111, 112a, 113a) supported between an engine and a vehicle body via respective elastic bodies (112c, 113c), an elastic component that is provided on the rod rigid body (111, 112a, 113a) and caused to deform by a force acting in an axial direction of the rod rigid body (111, 112a, 113a); an inertial mass supported by the elastic component; and an actuator that causes the inertial mass to reciprocate in the axial direction of the rod rigid body (111, 112a, 113a) by generating a force that is proportionate to an axial direction velocity of the rod rigid body (111, 112a, 113a), characterized in that: a resonance frequency of the rod rigid body (111, 112a, 113a) is set to be lower than a bending and/or twisting primary resonance frequency of the engine. a rod rigid body (111, 112a, 113a) supported between an engine and a vehicle body via respective elastic bodies (112c, 113c), an elastic component that is provided on the rod rigid body (111, 112a, 113a) and caused to deform by a force acting in an axial direction of the rod rigid body (111, 112a, 113a); an inertial mass supported by the elastic component; and an actuator that causes the inertial mass to reciprocate in the axial direction of the rod rigid body (111, 112a, 113a) by generating a force that is proportionate to an axial direction velocity of the rod rigid body (111, 112a, 113a),
Rotary machine for the treatment of containers, comprising: a stationary underframe; a rotatable container table for receiving the containers; a motor designed as an internal rotor for directly driving the container table; a bearing for supporting the container table and/or a supporting structure connected thereto in a rotationally fixed manner on the underframe radially outside the motor; and a rotary encoder for determining the rotational position of the container table, characterized in that the rotary encoder is arranged radially outside the motor and comprises a sensor that is stationary and connected to the underframe and a measuring standard for the sensor, formed / fastened to the container table or to the supporting structure.
Method of transporting and/or storing at least one semiconductor plate, wherein the plate is arranged in a transportable box comprising an hermetic container of transport and/or storage suitable to be coupled/decoupled from an input/output interface of a piece of equipment characterized in that the transportable box comprising an hermetic container of transport and/or storage is filled with hydrogen at a pressure of between 10 -1 and 4*10 3 Pa.
A method for manufacturing a watch component formed of austenitized ferritic stainless steel including a base formed of a ferrite phase and a surfacing layer formed of an austenitized phase in which the ferrite phase is austenitized, the method for manufacturing the watch component comprising: a first processing step for forming a hole portion or a recessed portion at a base material formed of ferrite stainless steel; a heat treatment step for performing a nitrogen absorption treatment on the base material to form the surfacing layer at a surface side of the base; and characterized by a second processing step for cutting the surfacing layer corresponding to the hole portion or the recessed portion to form the watch component. a first processing step for forming a hole portion or a recessed portion at a base material formed of ferrite stainless steel; a heat treatment step for performing a nitrogen absorption treatment on the base material to form the surfacing layer at a surface side of the base; and characterized by a second processing step for cutting the surfacing layer corresponding to the hole portion or the recessed portion to form the watch component.