mhurhangee/ep-ind-claims huggingface dataset:
An electric wheel motor cooling system (200, 300, 400, 500), comprising: a hydraulic fluid reservoir; a first electric wheel motor and a second electric wheel motor; a first supply pump interconnected with said hydraulic fluid reservoir; characterized by a first constant displacement hydraulic motor and a second constant displacement hydraulic motor, said first constant displacement hydraulic motor having a first displacement volume and said second constant displacement hydraulic motor having a second displacement volume; a header interconnected with and downstream of said first supply pump; said header interconnected with said first constant displacement hydraulic motor and said second constant displacement hydraulic motor; said first supply pump supplies hydraulic fluid from said reservoir and to said header; said header supplies hydraulic fluid to said first constant displacement hydraulic motor and said second constant displacement hydraulic motor; said first constant displacement hydraulic motor and said second constant displacement hydraulic motor linked and rotated together; said first constant displacement hydraulic motor supplying hydraulic fluid to said first electric wheel motor; said second constant displacement hydraulic motor supplying hydraulic fluid to said second electric wheel motor; and, said first constant displacement hydraulic motor and said second constant displacement hydraulic motor dividing flow of hydraulic fluid according to said first displacement volume and said second displacement volume between said first electric wheel motor and said second electric wheel motor, respectively. a hydraulic fluid reservoir; a first electric wheel motor and a second electric wheel motor; a first supply pump interconnected with said hydraulic fluid reservoir; characterized by a first constant displacement hydraulic motor and a second constant displacement hydraulic motor, said first constant displacement hydraulic motor having a first displacement volume and said second constant displacement hydraulic motor having a second displacement volume; a header interconnected with and downstream of said first supply pump; said header interconnected with said first constant displacement hydraulic motor and said second constant displacement hydraulic motor; said first supply pump supplies hydraulic fluid from said reservoir and to said header; said header supplies hydraulic fluid to said first constant displacement hydraulic motor and said second constant displacement hydraulic motor; said first constant displacement hydraulic motor and said second constant displacement hydraulic motor linked and rotated together; said first constant displacement hydraulic motor supplying hydraulic fluid to said first electric wheel motor; said second constant displacement hydraulic motor supplying hydraulic fluid to said second electric wheel motor; and, said first constant displacement hydraulic motor and said second constant displacement hydraulic motor dividing flow of hydraulic fluid according to said first displacement volume and said second displacement volume between said first electric wheel motor and said second electric wheel motor, respectively.
Method for producing a security feature which can be perceived visually without technical aids, comprising the steps of: a) providing a first material layer, b) applying a second material layer formed by a first coat layer at least in part regions of the first material layer, wherein the first coat layer having a refractive index which differs by at least 0.1 from the refractive index of the first material layer, c) producing a structuring of the first coat layer, wherein the structuring exhibits a structure dimension parallel to the surface of the security feature of at least 10 μm and perpendicular to the surface of the security feature of at least 5 μm, and the first coat layer is applied under the formation of a plurality of coat layer regions on a plurality of mutually separated part regions of the first material layer, such that the spatial arrangement of the coat layer regions forms the structuring of the first coat layer, wherein the security feature produced is visually perceptible due to the refraction of electromagnetic radiation, characterized in that a second coat layer is applied over the first coat layer, and the first material layer, the first coat layer, and the second coat layer are transparent, and that the second coat layer exhibits essentially the same refractive index as the first material layer. a) providing a first material layer, b) applying a second material layer formed by a first coat layer at least in part regions of the first material layer, wherein the first coat layer having a refractive index which differs by at least 0.1 from the refractive index of the first material layer, c) producing a structuring of the first coat layer, wherein the structuring exhibits a structure dimension parallel to the surface of the security feature of at least 10 μm and perpendicular to the surface of the security feature of at least 5 μm, and the first coat layer is applied under the formation of a plurality of coat layer regions on a plurality of mutually separated part regions of the first material layer, such that the spatial arrangement of the coat layer regions forms the structuring of the first coat layer,
An air bag for a vehicle, the air bag comprising a multilayer composite which comprises: a) a polymeric film; b) an open mesh, tear resistant fabric attached to the film; c) an adhesive layer positioned between the polymeric film and the open mesh, tear resistant fabric; and d) a fabric layer attached to the open mesh, tear resistant fabric, wherein the tear resistant fabric has a tear resistance of greater than 100 g/2.54 cm (100 g/inch). a) a polymeric film; b) an open mesh, tear resistant fabric attached to the film; c) an adhesive layer positioned between the polymeric film and the open mesh, tear resistant fabric; and d) a fabric layer attached to the open mesh, tear resistant fabric,
An apparatus for assessing sleep of a subject, the apparatus comprising: a processor configured to: receive data indicative of one or more physiological parameters associated with a subject; determine, based on the data, two or more sleep parameters relating to sleep of the subject; and use a rule-based method to determine whether the subject is suffering from (a) obstructive sleep apnoea, (b) insomnia, (c) comorbid insomnia and obstructive sleep apnoea, or (d) neither obstructive sleep apnoea nor insomnia, wherein the rule-based method comprises comparing each of the two or more sleep parameters to a respective threshold value; wherein a first sleep parameter of the two or more sleep parameters comprises Wakefulness After Sleep Onset for at least X Minutes, WASOx min, wherein WASOx min comprises the sum of awakenings with a duration of X minutes or longer during a sleep session, wherein X is equal to, or greater than, 1; characterized in that the rule-based method comprises: assigning a weight to each of the two or more sleep parameters; and calculating a sum of the weights corresponding to each sleep parameter that satisfies a respective condition based on a respective comparison of each of the two or more sleep parameters to its respective threshold, wherein the step of determining whether a subject is suffering from (a), (b), (c) or (d) comprises using the sum of the weights. receive data indicative of one or more physiological parameters associated with a subject; determine, based on the data, two or more sleep parameters relating to sleep of the subject; and use a rule-based method to determine whether the subject is suffering from (a) obstructive sleep apnoea, (b) insomnia, (c) comorbid insomnia and obstructive sleep apnoea, or (d) neither obstructive sleep apnoea nor insomnia, wherein the rule-based method comprises comparing each of the two or more sleep parameters to a respective threshold value; wherein a first sleep parameter of the two or more sleep parameters comprises Wakefulness After Sleep Onset for at least X Minutes, WASOx min, wherein WASOx min comprises the sum of awakenings with a duration of X minutes or longer during a sleep session, wherein X is equal to, or greater than, 1; characterized in that the rule-based method comprises: assigning a weight to each of the two or more sleep parameters; and calculating a sum of the weights corresponding to each sleep parameter that satisfies a respective condition based on a respective comparison of each of the two or more sleep parameters to its respective threshold, wherein the step of determining whether a subject is suffering from (a), (b), (c) or (d) comprises using the sum of the weights. assigning a weight to each of the two or more sleep parameters; and calculating a sum of the weights corresponding to each sleep parameter that satisfies a respective condition based on a respective comparison of each of the two or more sleep parameters to its respective threshold, wherein the step of determining whether a subject is suffering from (a), (b), (c) or (d) comprises using the sum of the weights.
An adjustable edge for swimming pools having at least one overflow element, said adjustable edge comprising: - a rest base that is fixable to the upper end of a wall; said wall being preferably made of concrete and defining, together with other walls, the perimeter of the swimming pool; said rest base terminating above with a planar abutting surface; - a top edge, defining the end part of the adjustable edge of the swimming pool wrapped by an inner coating cloth of the swimming pool; said top edge facing below the planar abutting surface and being connectable to the rest base; - tie rod means adapted to promote a connection between the top edge and rest base; characterised in that said adjustable edge further comprises: - elastic means encircling the tie rod means and active, through the tie rod means, on the top edge to generate a recall force of the top edge towards the rest base; said elastic means promoting a first spatial orientation of the top edge - adjusting means, comprising an adjusting base on which, through actuation by an operator, an adjusting ring nut can translate to generate on the top edge a thrust force moving away from the rest base, opposite the recall force, adapted to counteract and compress the elastic means; said adjusting ring nut inducing in the top edge a second spatial orientation that is different from the first orientation. - a rest base that is fixable to the upper end of a wall; said wall being preferably made of concrete and defining, together with other walls, the perimeter of the swimming pool; said rest base terminating above with a planar abutting surface; - a top edge, defining the end part of the adjustable edge of the swimming pool wrapped by an inner coating cloth of the swimming pool; said top edge facing below the planar abutting surface and being connectable to the rest base; - tie rod means adapted to promote a connection between the top edge and rest base; - elastic means encircling the tie rod means and active, through the tie rod means, on the top edge to generate a recall force of the top edge towards the rest base; said elastic means promoting a first spatial orientation of the top edge - adjusting means, comprising an adjusting base on which, through actuation by an operator, an adjusting ring nut can translate to generate on the top edge a thrust force moving away from the rest base, opposite the recall force, adapted to counteract and compress the elastic means;
A blood vessel function inspecting apparatus for calculating a viscosity distribution and a shear rate distribution of a blood within a blood vessel of a live body on the basis of a flow velocity distribution of the blood measured in a non-invasion manner with ultrasonic waves percutaneously incident upon said blood vessel, and calculating a blood state index value permitting evaluation of a state of the blood, on the basis of said viscosity distribution and said shear rate distribution, characterized by comprising: first blood state index value calculating means for obtaining estimated hematocrit values at a plurality of points predetermined within said blood vessel, on the basis of values of a blood viscosity and values of a shear rate at said plurality of points, which are respectively extracted from said viscosity distribution and said shear rate distribution, and according to reference relationships between a hematocrit value and the blood viscosity, which reference relationships respectively correspond predetermined different values of the shear rate; and second blood state index value calculating means for calculating, as said blood state index value, a value relating to an amount of difference of the estimated hematocrit values at said plurality of points with respect to each other, which amount is minimized by transforming said reference relationships at the same ratio for all of the values of the shear rate. first blood state index value calculating means for obtaining estimated hematocrit values at a plurality of points predetermined within said blood vessel, on the basis of values of a blood viscosity and values of a shear rate at said plurality of points, which are respectively extracted from said viscosity distribution and said shear rate distribution, and according to reference relationships between a hematocrit value and the blood viscosity, which reference relationships respectively correspond predetermined different values of the shear rate; and second blood state index value calculating means for calculating, as said blood state index value, a value relating to an amount of difference of the estimated hematocrit values at said plurality of points with respect to each other, which amount is minimized by transforming said reference relationships at the same ratio for all of the values of the shear rate.
A system for providing a restriction in a patulous Eustachian tube of a patient, the system comprising: (a) a guide catheter comprising a shaft, a proximal end, a distal end and a lumen extending therebetween, wherein the distal end is configured to provide access to an opening in the ET when the guide catheter is inserted into a head of the patient; (b) an instrument comprising a shaft; and (c) an insert comprising: a body configured to radially expand and retract between a non-expanded state and an expanded state; and a fastening mechanism configured to securely attach the insert to the ET upon contact between the body and the ET, wherein the instrument is operable to release the insert in the ET, wherein the insert is sized and shaped to be received within the lumen of the guide catheter when in the non-expanded state, wherein the insert is resiliently biased to the non-expanded state, and wherein the insert is configured to reduce an effective diameter of the ET by transitioning from the expanded state to the non-expanded state in the ET. (a) a guide catheter comprising a shaft, a proximal end, a distal end and a lumen extending therebetween, wherein the distal end is configured to provide access to an opening in the ET when the guide catheter is inserted into a head of the patient; (b) an instrument comprising a shaft; and (c) an insert comprising: a body configured to radially expand and retract between a non-expanded state and an expanded state; and a fastening mechanism configured to securely attach the insert to the ET upon contact between the body and the ET, wherein the instrument is operable to release the insert in the ET, wherein the insert is sized and shaped to be received within the lumen of the guide catheter when in the non-expanded state, wherein the insert is resiliently biased to the non-expanded state, and wherein the insert is configured to reduce an effective diameter of the ET by transitioning from the expanded state to the non-expanded state in the ET.
Computer-aided process for creating a braiding program, wherein the braiding program comprises machine-readable commands, which, during execution of the braiding program, induce a braiding machine to produce a braided structure, in particular, an at least partially braided implant, wherein the process comprises: a) generating a braided structure by the braiding machine, in particular by braid-wrapping at least one braid mandrel using a braiding material according to a specified configuration of commands; b) automatically capturing at least one parameter of the braided structure; c) automatically reconciling the captured parameter of the braided structure with at least one associated target parameter; provided the captured parameter does not correspond to the associated target parameter: c1-a) unbraiding at least one region of the braided structure by the braiding machine; and c1-b) automatically changing at least part of the configuration of commands for generating the braided structure as well as repeating steps a) to c) based on the changed configuration of commands; provided the captured parameter corresponds to the associated target parameter; c2) creating a braiding program according to the configuration of commands, in which the captured parameter corresponds to the associated target parameter. a) generating a braided structure by the braiding machine, in particular by braid-wrapping at least one braid mandrel using a braiding material according to a specified configuration of commands; b) automatically capturing at least one parameter of the braided structure; c) automatically reconciling the captured parameter of the braided structure with at least one associated target parameter; provided the captured parameter does not correspond to the associated target parameter: c1-a) unbraiding at least one region of the braided structure by the braiding machine; and c1-b) automatically changing at least part of the configuration of commands for generating the braided structure c1-a) unbraiding at least one region of the braided structure by the braiding machine; and c1-b) automatically changing at least part of the configuration of commands for generating the braided structure as well as repeating steps a) to c) based on the changed configuration of commands; provided the captured parameter corresponds to the associated target parameter; c2) creating a braiding program according to the configuration of commands, in which the captured parameter corresponds to the associated target parameter.
A computer-implemented method for processing 3D image data using a neural network architecture, the computer-implemented method comprising: obtaining input 3D image data; performing a modified 3D image data generation process comprising: for each of a plurality of 3D sub-volumes of the input 3D image data, processing the 3D sub-volume using a first neural network to produce first modified 3D image data; and for each 2D image slice along a first dimension of the input 3D image data, processing the 2D image slice using a second neural network to produce second modified 3D image data; wherein the method further comprises processing the input 3D image data, together with at least the first modified 3D image data and the second modified 3D image data, using an outputting neural network to produce an output of the neural network architecture. obtaining input 3D image data; performing a modified 3D image data generation process comprising: for each of a plurality of 3D sub-volumes of the input 3D image data, processing the 3D sub-volume using a first neural network to produce first modified 3D image data; and for each 2D image slice along a first dimension of the input 3D image data, processing the 2D image slice using a second neural network to produce second modified 3D image data; wherein the method further comprises processing the input 3D image data, together with at least the first modified 3D image data and the second modified 3D image data, using an outputting neural network to produce an output of the neural network architecture. for each of a plurality of 3D sub-volumes of the input 3D image data, processing the 3D sub-volume using a first neural network to produce first modified 3D image data; and for each 2D image slice along a first dimension of the input 3D image data, processing the 2D image slice using a second neural network to produce second modified 3D image data; wherein the method further comprises processing the input 3D image data, together with at least the first modified 3D image data and the second modified 3D image data, using an outputting neural network to produce an output of the neural network architecture.
A method for probing a structure of concrete, said method comprising the steps of sending an electromagnetic wave into said structure by means of an antenna, receiving an echo of said electromagnetic wave from said structure by means of said antenna, deriving internal features of said structure from said echo, wherein said step of sending the electromagnetic wave into said structure comprises a step of subsequently sending a plurality of electromagnetic probe signals of different frequencies into said structure, said step of receiving said echo comprises a step of receiving an echo signal for each of said probe signals and determining an amplitude and phase ( A n, φ n) for each of said echo signals, said step of deriving the internal features comprises a step of deriving the internal features using said amplitude and phase ( A n, φ n) of said echo signals, and the method further comprising a step of individually filtering the amplitude and/or phase ( A n, φ n) of each echo signal for each probe signal. sending an electromagnetic wave into said structure by means of an antenna, receiving an echo of said electromagnetic wave from said structure by means of said antenna, deriving internal features of said structure from said echo, wherein said step of sending the electromagnetic wave into said structure comprises a step of subsequently sending a plurality of electromagnetic probe signals of different frequencies into said structure, said step of receiving said echo comprises a step of receiving an echo signal for each of said probe signals and determining an amplitude and phase ( A n, φ n) for each of said echo signals, said step of deriving the internal features comprises a step of deriving the internal features using said amplitude and phase ( A n, φ n) of said echo signals, and the method further comprising a step of individually filtering the amplitude and/or phase ( A n, φ n) of each echo signal for each probe signal.