mhurhangee/ep-ind-claims huggingface dataset:
Aircraft nacelle including a conduit rigidly connected to an air inlet and a conduit rigidly connected to an engine, the conduit rigidly connected to the air inlet being designed to channel an air flow towards the conduit rigidly connected to the engine disposed in the extension of the conduit rigidly connected to the air inlet, a link between the conduit rigidly connected to an air inlet and the conduit rigidly connected to an engine, the link comprising a sleeve designed to receive one end of a first conduit that is either the conduit rigidly connected to the air inlet or the conduit rigidly connected to the engine, said sleeve being rigidly connected to a second conduit that is either the conduit rigidly connected to the air inlet or the conduit rigidly connected to the engine, said sleeve being oriented longitudinally in the extension of one of the two conduits (52, 54), as well as linking elements that link the sleeve and the first conduit and that are distributed about the entire circumference of the nacelle, characterized in that each linking element comprises firstly a screw with a threaded stem that is oriented in a radial direction and a head that is accessible from the inside of the first conduit, and secondly a nut that is screwed onto the threaded stem and that is linked to the sleeve by a system for preventing said nut from rotating about a radial axis of rotation.
Drive train for a vehicle, having at least one gearbox (G, G2), the at least one gearbox (G, G2) having the following: - a primary input shaft (10, 102) which is designed to be connected to a primary drive; - a secondary input shaft (11, 112) which is designed to be connected to a secondary drive (2, 22); - an output shaft (12, 122) which is designed to output power which has been introduced into the at least one gearbox (G, G2) by means of the primary input shaft (10, 102); and - a planetary gear train (UG, UG2) which is designed to steplessly adjust a gear ratio between the primary input shaft (10, 102) and the output shaft (12, 122) on the basis of the speed of the secondary input shaft (11, 112). - a primary input shaft (10, 102) which is designed to be connected to a primary drive; - a secondary input shaft (11, 112) which is designed to be connected to a secondary drive (2, 22); - an output shaft (12, 122) which is designed to output power which has been introduced into the at least one gearbox (G, G2) by means of the primary input shaft (10, 102); and - a planetary gear train (UG, UG2) which is designed to steplessly adjust a gear ratio between the primary input shaft (10, 102) and the output shaft (12, 122) on the basis of the speed of the secondary input shaft (11, 112).
An electronic imaging substrate writing system comprising: a writing device (204; 302; 408; 508) comprising an ion head to produce an ion beam to change a state of an image cell within an electronic imaging substrate (110; 208; 402; 502) in a writing operation; and characterised by comprising a mechanical system, which, in use of the substrate writing system: moves said writing device (204; 302; 408; 508) in relation to said electronic imaging substrate (110; 208; 402; 502) so as to pass the writing device (204; 302; 408; 508) in relation to the substrate having a first gap therebetween until the writing device (204; 302; 408; 508) is above a region that is to be written to by the writing device (204; 302; 408; 508); and reduces the gap between electronic imaging substrate (110; 208; 402; 502) and the writing device (204; 302; 408; 508) for the writing operation when the writing device (204; 302; 408; 508) is above said region. a writing device (204; 302; 408; 508) comprising an ion head to produce an ion beam to change a state of an image cell within an electronic imaging substrate (110; 208; 402; 502) in a writing operation; and characterised by comprising a mechanical system, which, in use of the substrate writing system: moves said writing device (204; 302; 408; 508) in relation to said electronic imaging substrate (110; 208; 402; 502) so as to pass the writing device (204; 302; 408; 508) in relation to the substrate having a first gap therebetween until the writing device (204; 302; 408; 508) is above a region that is to be written to by the writing device (204; 302; 408; 508); and reduces the gap between electronic imaging substrate (110; 208; 402; 502) and the writing device (204; 302; 408; 508) for the writing operation when the writing device (204; 302; 408; 508) is above said region. moves said writing device (204; 302; 408; 508) in relation to said electronic imaging substrate (110; 208; 402; 502) so as to pass the writing device (204; 302; 408; 508) in relation to the substrate having a first gap therebetween until the writing device (204; 302; 408; 508) is above a region that is to be written to by the writing device (204; 302; 408; 508); and reduces the gap between electronic imaging substrate (110; 208; 402; 502) and the writing device (204; 302; 408; 508) for the writing operation when the writing device (204; 302; 408; 508) is above said region.
A method, comprising: obtaining, by a device, historical data associated with usage of a distillation column during a historical time period; processing, by the device, the historical data to identify a plurality of operating states of the distillation column; determining, by the device and based on a set of parameters from the historical data, occurrences of a hazardous condition during the historical time period while the distillation column was operating according to an operating state of the plurality of operating states; configuring, by the device, a prediction model to monitor the distillation column for the hazardous condition, wherein the prediction model is trained based on training data that is associated with the occurrences of the hazardous condition; monitoring, by the device and using the prediction model, the distillation column to determine a probability that the distillation column experiences the hazardous condition within a threshold time period, wherein the prediction model is configured to determine the probability based on measurements from a set of sensors of the distillation column; and performing, by the device and based on the probability satisfying a probability threshold, an action associated with the distillation column to reduce a likelihood that the distillation column experiences the hazardous condition within the threshold time period. obtaining, by a device, historical data associated with usage of a distillation column during a historical time period; processing, by the device, the historical data to identify a plurality of operating states of the distillation column; determining, by the device and based on a set of parameters from the historical data, occurrences of a hazardous condition during the historical time period while the distillation column was operating according to an operating state of the plurality of operating states; configuring, by the device, a prediction model to monitor the distillation column for the hazardous condition, wherein the prediction model is trained based on training data that is associated with the occurrences of the hazardous condition; monitoring, by the device and using the prediction model, the distillation column to determine a probability that the distillation column experiences the hazardous condition within a threshold time period, wherein the prediction model is configured to determine the probability based on measurements from a set of sensors of the distillation column; and performing, by the device and based on the probability satisfying a probability threshold, an action associated with the distillation column to reduce a likelihood that the distillation column experiences the hazardous condition within the threshold time period.
A mass and/or ion mobility spectrometer comprising: a first device comprising a channel arranged and adapted to accommodate a biopsy sample, wherein said biopsy sample comprises a sample of tissue having a longitudinal length, wherein the composition of said sample of tissue varies or changes along said longitudinal length, and wherein said longitudinal length corresponds to the depth within a tissue, wherein said biopsy sample comprises a biopsy core which results from inserting a biopsy needle into a patient, wherein said channel is arranged such that said biopsy sample can be inserted into said channel together with said biopsy needle; a second device arranged and adapted to generate analyte ions from said biopsy sample together with said biopsy needle within said first device, wherein said second device is arranged and adapted to generate first analyte ions from a first position along the longitudinal length of said biopsy sample at a first time, and to generate second analyte ions from a second different position along the longitudinal length of said biopsy sample at a second different time; and an analyser arranged and adapted to analyse said analyte ions. a first device comprising a channel arranged and adapted to accommodate a biopsy sample, wherein said biopsy sample comprises a sample of tissue having a longitudinal length, wherein the composition of said sample of tissue varies or changes along said longitudinal length, and wherein said longitudinal length corresponds to the depth within a tissue, wherein said biopsy sample comprises a biopsy core which results from inserting a biopsy needle into a patient, wherein said channel is arranged such that said biopsy sample can be inserted into said channel together with said biopsy needle; a second device arranged and adapted to generate analyte ions from said biopsy sample together with said biopsy needle within said first device, wherein said second device is arranged and adapted to generate first analyte ions from a first position along the longitudinal length of said biopsy sample at a first time, and to generate second analyte ions from a second different position along the longitudinal length of said biopsy sample at a second different time; and an analyser arranged and adapted to analyse said analyte ions.
A polypropylene composition comprising: A) from 70 wt% to 90 wt% of a propylene 1-hexene copolymer containing from 0.5 wt% to 3.5 wt% of 1-hexene derived units having: - fraction soluble in xylene at 25°C comprised between 2.5 wt% and 8.0 wt%; - melt flow rate (MFR L ISO 1133, condition L, i.e. 230°C and 2.16 kg load) ranging from 2.0 to 15.0 g/10 min; and - a polydispersity index comprised between 9.2 and 21.3; B) from 10 wt% to 30 wt%, of a copolymer of propylene and ethylene containing from 45.0 wt% to 65.0 wt%, of ethylene derived units; Wherein in the polypropylene composition: - the xylene soluble fraction at 25°C ranges from 10.0 wt% to 25.0 wt%; - the intrinsic viscosity of the fraction soluble in xylene at 25°C ranges from 4.0 dl/g to 6.5 dl/g; - the content of ethylene derived units in the fraction soluble in xylene at 25°C is lower than the content of ethylene derived units of component B) and ranges from 38.0 wt% to 55.0 wt%, and - the distribution of molecular weight Mw/Mn ranges from 25 to 40; the sum of component A) and B) being 100 A) from 70 wt% to 90 wt% of a propylene 1-hexene copolymer containing from 0.5 wt% to 3.5 wt% of 1-hexene derived units having: - fraction soluble in xylene at 25°C comprised between 2.5 wt% and 8.0 wt%; - melt flow rate (MFR L ISO 1133, condition L, i.e. 230°C and 2.16 kg load) ranging from 2.0 to 15.0 g/10 min; and - a polydispersity index comprised between 9.2 and 21.3; - fraction soluble in xylene at 25°C comprised between 2.5 wt% and 8.0 wt%; - melt flow rate (MFR L ISO 1133, condition L, i.e. 230°C and 2.16 kg load) ranging from 2.0 to 15.0 g/10 min; and - a polydispersity index comprised between 9.2 and 21.3; B) from 10 wt% to 30 wt%, of a copolymer of propylene and ethylene containing from 45.0 wt% to 65.0 wt%, of ethylene derived units; Wherein in the polypropylene composition: - the xylene soluble fraction at 25°C ranges from 10.0 wt% to 25.0 wt%; - the intrinsic viscosity of the fraction soluble in xylene at 25°C ranges from 4.0 dl/g to 6.5 dl/g; - the content of ethylene derived units in the fraction soluble in xylene at 25°C is lower than the content of ethylene derived units of component B) and ranges from 38.0 wt% to 55.0 wt%, and - the distribution of molecular weight Mw/Mn ranges from 25 to 40; - the xylene soluble fraction at 25°C ranges from 10.0 wt% to 25.0 wt%; - the intrinsic viscosity of the fraction soluble in xylene at 25°C ranges from 4.0 dl/g to 6.5 dl/g; - the content of ethylene derived units in the fraction soluble in xylene at 25°C is lower than the content of ethylene derived units of component B) and ranges from 38.0 wt% to 55.0 wt%, and - the distribution of molecular weight Mw/Mn ranges from 25 to 40; the sum of component A) and B) being 100
A battery model optimization device, the device comprising: a processor configured to perform optimization on a battery model (111, 200) for determining optimized parameter values of parameters of the battery model (111, 200), wherein, to perform the optimization, the processor is configured to: select target parameters from among parameters of a battery model (111, 200); set a current boundary condition for each of the target parameters; determine an optimized parameter value of each of the target parameters based on the set current boundary condition; set a subsequent boundary condition reduced from the current boundary condition based on the determined optimized parameter value by determining a target change direction of a diffusion parameter based on a voltage error between a voltage of the battery (120, 1221, 1310) that is estimated through the battery model (111, 200) and a voltage of the battery (120, 1221, 1310) that is based on profile data of the battery (120, 1221, 1310), and setting the subsequent boundary condition based on the determined target change direction; and determine a subsequent optimized parameter value of each of the target parameters based on the subsequent boundary condition. select target parameters from among parameters of a battery model (111, 200); set a current boundary condition for each of the target parameters; determine an optimized parameter value of each of the target parameters based on the set current boundary condition; set a subsequent boundary condition reduced from the current boundary condition based on the determined optimized parameter value by determining a target change direction of a diffusion parameter based on a voltage error between a voltage of the battery (120, 1221, 1310) that is estimated through the battery model (111, 200) and a voltage of the battery (120, 1221, 1310) that is based on profile data of the battery (120, 1221, 1310), and setting the subsequent boundary condition based on the determined target change direction; and determine a subsequent optimized parameter value of each of the target parameters based on the subsequent boundary condition.
A laminated thin film battery, wherein a first thin film battery and a second thin film battery each comprises: a cathode current collector and an anode current collector formed over a substrate on a first surface; a cathode formed on the cathode current collector and an anode formed on the anode current collector; and an electrolyte formed between the cathode and the anode, wherein the first thin film battery and the second thin film battery are laminated in such a type that the respective first surfaces face each other, and wherein the cathode current collectors of the first thin film battery and the second thin film battery are electrically connected to a cathode terminal, and the anode current collectors of the first thin film battery and the second thin film battery are electrically connected to an anode terminal characterized in that each of the first thin film battery and the second thin film battery further comprises: a barrier covering remaining portions of the cathode current collector and the anode current collector except portions thereof, wherein an electrical connection structure comprises insulation parts and is for isolating the cathode current collectors and the anode current collectors, and the electrical connection structure is disposed between the first thin film battery and the second thin film battery. a cathode current collector and an anode current collector formed over a substrate on a first surface; a cathode formed on the cathode current collector and an anode formed on the anode current collector; and an electrolyte formed between the cathode and the anode, wherein the first thin film battery and the second thin film battery are laminated in such a type that the respective first surfaces face each other, and wherein the cathode current collectors of the first thin film battery and the second thin film battery are electrically connected to a cathode terminal, and the anode current collectors of the first thin film battery and the second thin film battery are electrically connected to an anode terminal characterized in that each of the first thin film battery and the second thin film battery further comprises: a barrier covering remaining portions of the cathode current collector and the anode current collector except portions thereof, wherein an electrical connection structure comprises insulation parts and is for isolating the cathode current collectors and the anode current collectors, and the electrical connection structure is disposed between the first thin film battery and the second thin film battery.
A percutaneous port (100, 200) for promoting tissue in-growth around the percutaneous port, comprising: a tubular structure having an outer surface (116(b)) that comprises a plated material; and a coil comprising: an outer surface; and a plurality of loops, wherein at least a portion of the outer surface of the coil is joined to the outer surface of the tubular structure, characterised in that the coil material is chemically reactive with the plated material. a tubular structure having an outer surface (116(b)) that comprises a plated material; and a coil comprising: an outer surface; and a plurality of loops, an outer surface; and a plurality of loops, wherein at least a portion of the outer surface of the coil is joined to the outer surface of the tubular structure, characterised in that the coil material is chemically reactive with the plated material.
A method for predicting the phenotypic stability of a cell line comprising the steps of: culturing the cell line over an assay period; generating an environmental response fingerprint for the cell line at a plurality of different time points over the assay period, wherein each environmental response fingerprint is generated by determining the environmental response of the cells in the presence of each of three chemical cell stressors; and comparing the plurality of environmental response fingerprints to detect change in the environmental response fingerprint over the assay period, wherein the level of change in the environmental response fingerprint over the assay period is indicative of the level of predicted phenotypic instability in the cell line. culturing the cell line over an assay period; generating an environmental response fingerprint for the cell line at a plurality of different time points over the assay period, wherein each environmental response fingerprint is generated by determining the environmental response of the cells in the presence of each of three chemical cell stressors; and comparing the plurality of environmental response fingerprints to detect change in the environmental response fingerprint over the assay period, wherein the level of change in the environmental response fingerprint over the assay period is indicative of the level of predicted phenotypic instability in the cell line.
A bilateral upper limb exercise device for exercising a user's arms, comprising: a central mounting structure that is mountable to a fixed surface or structure; left and right limb supports (14a, 14b) for supporting the forearm and/or hand of a respective arm of the user; a pair of articulated linkage arms (22a, 22b) that are pivotably coupled to opposite sides of the central mounting structure and which are arranged to support a respective limb support (14a, 14b) for translational movements in at least two degrees of freedom, including back-and-forth and side-to-side movements, within a two-dimensional movement plane (X,Y) that is common to both limb supports (14a, 14b); and a mirroring mechanism that is operatively coupled to the articulated linkage arms (22a, 22b) such that movement of one limb support (14a, 14b) by a user causes a corresponding mirrored movement of the opposing limb support (14a, 14b) relative to a central line of symmetry of the device. a central mounting structure that is mountable to a fixed surface or structure; left and right limb supports (14a, 14b) for supporting the forearm and/or hand of a respective arm of the user; a pair of articulated linkage arms (22a, 22b) that are pivotably coupled to opposite sides of the central mounting structure and which are arranged to support a respective limb support (14a, 14b) for translational movements in at least two degrees of freedom, including back-and-forth and side-to-side movements, within a two-dimensional movement plane (X,Y) that is common to both limb supports (14a, 14b); and a mirroring mechanism that is operatively coupled to the articulated linkage arms (22a, 22b) such that movement of one limb support (14a, 14b) by a user causes a corresponding mirrored movement of the opposing limb support (14a, 14b) relative to a central line of symmetry of the device.
A computer-implemented method for communicating among a plurality of nodes (20A, 270B,..., 270N) in a concurrent computing environment, said method comprising: executing a concurrent computing program; obtaining an instruction by a first node of the plurality of nodes (270A, 270B,..., 270N) to enter a barrier synchronization point; suspending execution of the concurrent computing program by the first node; and resuming execution of the concurrent computing program by the first node when all the plurality of nodes (270A, 270B,..., 270N) have entered the barrier synchronization point, characterized in that the method further comprises: detecting a communication mismatch after the first node has entered the barrier synchronization point; and flushing undelivered messages before resuming execution of the concurrent computing program when the first node has entered the barrier synchronization point. executing a concurrent computing program; obtaining an instruction by a first node of the plurality of nodes (270A, 270B,..., 270N) to enter a barrier synchronization point; suspending execution of the concurrent computing program by the first node; and resuming execution of the concurrent computing program by the first node when all the plurality of nodes (270A, 270B,..., 270N) have entered the barrier synchronization point, characterized in that the method further comprises: detecting a communication mismatch after the first node has entered the barrier synchronization point; and flushing undelivered messages before resuming execution of the concurrent computing program when the first node has entered the barrier synchronization point. detecting a communication mismatch after the first node has entered the barrier synchronization point; and flushing undelivered messages before resuming execution of the concurrent computing program when the first node has entered the barrier synchronization point.