mhurhangee/patent-ind-claim-en huggingface dataset:
A replaceable fluid container for an engine comprising: a first reservoir for holding a fluid; a second reservoir for holding a composition to be added to the fluid; a fluid coupling adapted to provide fluidic communication between the first reservoir and a fluid circulation system of the engine , the fluid coupling comprising a fluid inlet port and an fluid outlet port , the fluid outlet port adapted to be coupled with a fluid supply line ; and a dose controller to provide a dose of the composition into the fluid for circulation in a fluid circulation system of the engine ; wherein the second reservoir comprises a valve for controlling the dosing of the composition into the fluid supply line , and wherein the valve is configured such that closing the valve isolates the contents of the second reservoir from the fluid while opening the valve places the second reservoir in fluidic communication with the fluid provided to the fluid supply line , characterised in that : the replaceable container further comprises a communication interface for obtaining data from an operational controller, wherein the dose controller is configured to select at least one of a timing, dose quantity and number of doses based on the data obtained from the operational controller; and the communication interface is arranged such that positioning the replaceable fluid container to permit fluidic communication between the first reservoir and the fluid circulation system of the engine arranges the communication interface for obtaining the data. the replaceable container further comprises a communication interface for obtaining data from an operational controller, wherein the dose controller is configured to select at least one of a timing, dose quantity and number of doses based on the data obtained from the operational controller; and the communication interface is arranged such that positioning the replaceable fluid container to permit fluidic communication between the first reservoir and the fluid circulation system of the engine arranges the communication interface for obtaining the data.
Hub comprising a hub shell for rotatable arrangement relative to at least one axle received in the hub shell , wherein the hub shell is provided with at least one circumferential hub flange that serves for accommodation and defined orientation of a plurality of straight respectively non-cranked spokes , each of which comprises a spoke body and a spoke head , and wherein the hub flange comprises a plurality of accommodation sections for receiving one spoke head each, wherein the accommodation sections are at least partially axially disposed on the hub flange , and wherein one spoke feed-through is assigned to each of the accommodation sections , through which an accommodated spoke can be guided out of the accommodation section , characterized in that two spoke feed-throughs each are provided with one joint and circumferentially closed outlet opening in the hub flanges , and that the hub flanges enclose the outlet opening integrally.
A single-chain bispecific diabody comprising: a. a variable domain of a heavy chain of an immunoglobulin (VH) with a first specificity (A), wherein said heavy chain (VH A ) variable domain has the amino acid sequence according to SEQ ID NO:1, wherein the first specificity (A) is directed against the TRAIL-R2 antigen; b. a variable domain of a light chain of an immunoglobulin (VL) with a second specificity (B), wherein said light chain (VL B ) variable domain has the amino acid sequence according to SEQ ID NO:3, wherein the second specificity (B) is directed against a T lymphocyte CD3; c. a variable domain of a heavy chain of an immunoglobulin (VH) with the specificity (B), wherein said heavy chain (VH B ) variable domain has the amino acid sequence according to SEQ ID NO:5; and d. a variable domain of a light chain of an immunoglobulin (VL) with the specificity (A), wherein said light chain (VL A ) variable domain has the amino acid sequence according to SEQ ID NO:7; wherein the VH and VL domains of the single-chain bispecific antibody are connected in the order VH A -VL B -VH B -VL A , wherein each VH and VL domain is connected with a peptide linker, wherein said peptide linker between the VH A and the VL B domains and between the VH B and the VL A domains consist of four Glycine amino acid residues and one Serine amino acid residue (GGGGS), and the peptide linker between the VL B and the VH B domains consists of three linker sequences consisting of four Glycine amino acid residues and one Serine amino acid residues each (GGGGS) 3 . a. a variable domain of a heavy chain of an immunoglobulin (VH) with a first specificity (A), wherein said heavy chain (VH A ) variable domain has the amino acid sequence according to SEQ ID NO:1, wherein the first specificity (A) is directed against the TRAIL-R2 antigen; b. a variable domain of a light chain of an immunoglobulin (VL) with a second specificity (B), wherein said light chain (VL B ) variable domain has the amino acid sequence according to SEQ ID NO:3, wherein the second specificity (B) is directed against a T lymphocyte CD3; c. a variable domain of a heavy chain of an immunoglobulin (VH) with the specificity (B), wherein said heavy chain (VH B ) variable domain has the amino acid sequence according to SEQ ID NO:5; and d. a variable domain of a light chain of an immunoglobulin (VL) with the specificity (A), wherein said light chain (VL A ) variable domain has the amino acid sequence according to SEQ ID NO:7;
An apparatus for delivering stimulation energy to tissue, comprising: an implantable device comprising an implantable energy storage element and at least one implantable antenna , the implantable device configured to deliver stimulation energy to tissue based on therapy parameters; an external device comprising an external antenna , the external device configured to transmit power and data to the implantable device via a wireless link, the transmission performed at a power level; wherein the implantable device receives the transmitted power at a charge rate, and consumes power at a discharge rate; wherein the apparatus is configured to adjust the power level of the external device transmission based on the therapy parameters, the implantable device charge rate, and the implantable device discharge rate, wherein the adjustment is performed to ensure the implantable device receives sufficient power and not excessive power. an implantable device comprising an implantable energy storage element and at least one implantable antenna , the implantable device configured to deliver stimulation energy to tissue based on therapy parameters; an external device comprising an external antenna , the external device configured to transmit power and data to the implantable device via a wireless link, the transmission performed at a power level; wherein the implantable device receives the transmitted power at a charge rate, and consumes power at a discharge rate; wherein the apparatus is configured to adjust the power level of the external device transmission based on the therapy parameters, the implantable device charge rate, and the implantable device discharge rate, wherein the adjustment is performed to ensure the implantable device receives sufficient power and not excessive power.
An electrically connecting device comprising: • a linking part defining an inner channel that opens onto the exterior of the linking part, said inner channel being able to receive two end portions of two superconducting wires ; and • an aperture in the outer jacket of the linking part, said aperture being in communication with said inner channel in order to allow a brazing material in liquid form to be introduced into said inner channel around the two end portions of the two superconducting wires ; characterized in that the linking part comprises a central elongate body , the inner channel extending in a straight line between a first open end and a second open end of the linking part, said ends being located on either side of the central elongate body , in that said inner channel is configured so that the two end portions of two superconducting wires extend parallel and in contact with each other in the inner channel over said segment of common length, and in that the inner channel has, in cross-section, the shape of an eight. • a linking part defining an inner channel that opens onto the exterior of the linking part, said inner channel being able to receive two end portions of two superconducting wires ; and • an aperture in the outer jacket of the linking part, said aperture being in communication with said inner channel in order to allow a brazing material in liquid form to be introduced into said inner channel around the two end portions of the two superconducting wires ; characterized in that the linking part comprises a central elongate body , the inner channel extending in a straight line between a first open end and a second open end of the linking part, said ends being located on either side of the central elongate body , in that said inner channel is configured so that the two end portions of two superconducting wires extend parallel and in contact with each other in the inner channel over said segment of common length, and in that the inner channel has, in cross-section, the shape of an eight.
A system for performing extracorporeal photopheresis of mononuclear cells (MNCs), comprising: - a separation component configured for separation of whole blood to provide a suspension of a target cell population comprising mononuclear cells and residual red blood cells; - an irradiation component , and - a fluid circuit providing a sterile closed pathway between the separation component and the irradiation component , - a controller for operation of the separation component and the irradiation component , wherein the controller is configured for - withdrawing whole blood from a patient; - separating the whole blood to provide the suspension; - combining the suspension with a solution to cause lysis of red blood cells; - removing from the suspension hemoglobin freed by the lysing of the red blood cells, by means of washing within the separation component ; - adding an ultraviolet light activated substance to the washed, lysed suspension; - irradiating the suspension with ultraviolet light; - returning the irradiated suspension to the separation component and concentrating the suspension comprising the mononuclear cells, and - returning the treated and concentrated mononuclear cells to the patient. - a separation component configured for separation of whole blood to provide a suspension of a target cell population comprising mononuclear cells and residual red blood cells; - an irradiation component , and - a fluid circuit providing a sterile closed pathway between the separation component and the irradiation component , - a controller for operation of the separation component and the irradiation component , - withdrawing whole blood from a patient; - separating the whole blood to provide the suspension; - combining the suspension with a solution to cause lysis of red blood cells; - removing from the suspension hemoglobin freed by the lysing of the red blood cells, by means of washing within the separation component ; - adding an ultraviolet light activated substance to the washed, lysed suspension; - irradiating the suspension with ultraviolet light; - returning the irradiated suspension to the separation component and concentrating the suspension comprising the mononuclear cells, and - returning the treated and concentrated mononuclear cells to the patient.
A method for dynamically adjusting battery undervoltage protection comprising: real time acquiring (S101, S201) a current operation environment temperature value of a battery; real time selecting (S102, S202) a preset undervoltage protection voltage and a preset undervoltage protection delay time according to the temperature value, including: determining whether the temperature value is more than or equal to a normal temperature value T1, if yes, then selecting an undervoltage protection voltage V1 and an undervoltage protection delay time t1; real time determining (S103, S203) whether an output voltage of the battery is less than the undervoltage protection voltage; if yes, then: determining (S104, S204) whether a time interval when the output voltage of the battery is less than the undervoltage protection voltage satisfies the undervoltage protection delay time, if yes, then: enabling (S105, S205) the battery undervoltage protection. real time acquiring (S101, S201) a current operation environment temperature value of a battery; real time selecting (S102, S202) a preset undervoltage protection voltage and a preset undervoltage protection delay time according to the temperature value, including: determining whether the temperature value is more than or equal to a normal temperature value T1, if yes, then selecting an undervoltage protection voltage V1 and an undervoltage protection delay time t1; real time determining (S103, S203) whether an output voltage of the battery is less than the undervoltage protection voltage; if yes, then: determining (S104, S204) whether a time interval when the output voltage of the battery is less than the undervoltage protection voltage satisfies the undervoltage protection delay time, if yes, then: enabling (S105, S205) the battery undervoltage protection.
A nozzle ring for a radial turbine comprising: - a disc-shaped main body having a central opening for passing a shaft there through; - guide vanes disposed circumferentially in a radially outer portion on a first surface of the main body ; - two or more bores provided in a radially inner portion of the main body ; and - a groove provided in the first surface of the main body , the groove connecting at least two of the two or more bores . - a disc-shaped main body having a central opening for passing a shaft there through; - guide vanes disposed circumferentially in a radially outer portion on a first surface of the main body ; - two or more bores provided in a radially inner portion of the main body ; and - a groove provided in the first surface of the main body , the groove connecting at least two of the two or more bores .
An analysis system for tracking movement activity of a plurality of individuals and operable to generate monitored movement data for one or more individuals of the plurality of individuals, comprising: a storage module configured to store a plurality of tracks indicating in time series a position of an individual of the plurality of individuals that is moving as track data , and to store sensor data indicating in time series a measurement result of a particular individual by a sensor worn by the particular individual; an individual identification module configured to select a track from the plurality of tracks of the track data in order of priority, from the longest track containing the most track data to the shortest track containing the least track data; a speed calculation module configured to calculate a speed index indicating a movement speed of the individual based on the selected track data ; an index calculation module configured to calculate a behavior index indicating a movement intensity of the particular individual based on the sensor data; a similarity degree calculation module configured to calculate a degree of similarity between the calculated speed index and the calculated behavior index by executing a degree of similarity verification ; and an association module configured to associate the selected track data with the particular individual, on which the sensor data has been measured, based on the degree of similarity. a storage module configured to store a plurality of tracks indicating in time series a position of an individual of the plurality of individuals that is moving as track data , and to store sensor data indicating in time series a measurement result of a particular individual by a sensor worn by the particular individual; an individual identification module configured to select a track from the plurality of tracks of the track data in order of priority, from the longest track containing the most track data to the shortest track containing the least track data; a speed calculation module configured to calculate a speed index indicating a movement speed of the individual based on the selected track data ; an index calculation module configured to calculate a behavior index indicating a movement intensity of the particular individual based on the sensor data; a similarity degree calculation module configured to calculate a degree of similarity between the calculated speed index and the calculated behavior index by executing a degree of similarity verification ; and an association module configured to associate the selected track data with the particular individual, on which the sensor data has been measured, based on the degree of similarity.
A turbine engine comprising: a compressor section , combustor section , and turbine section in serial flow arrangement, with the combustor section including a fuel nozzle assembly comprising: a fuel nozzle terminating at a nozzle tip , the fuel nozzle defining a longitudinal axis , and including a fuel passage , wherein the fuel passage extends along the longitudinal axis ; a swirler , the swirler being an annular swirler circumscribing the fuel nozzle and defining a swirler passage , and comprising a forward wall , an aft wall , and a center wall provided between the forward wall and the aft wall ; a set of vanes provided within the swirler , wherein the set of vanes includes a first set of vanes extending between the forward wall and the center wall , and a second set of vanes extending between the center wall and the aft wall ; and a lip extending downstream from the set of vanes relative to a flow of air through the swirler ; wherein the lip extends from the center wall ; wherein the nozzle tip is positioned aft of the aft end of the lip relative to the longitudinal axis and the swirler passage extends between the aft end of the lip and the nozzle tip; and wherein the aft end of the lip is positioned forward of the aft wall relative to the longitudinal axis ; characterized in that the fuel passage terminates at the nozzle tip . a fuel nozzle terminating at a nozzle tip , the fuel nozzle defining a longitudinal axis , and including a fuel passage , wherein the fuel passage extends along the longitudinal axis ; a swirler , the swirler being an annular swirler circumscribing the fuel nozzle and defining a swirler passage , and comprising a forward wall , an aft wall , and a center wall provided between the forward wall and the aft wall ; a set of vanes provided within the swirler , wherein the set of vanes includes a first set of vanes extending between the forward wall and the center wall , and a second set of vanes extending between the center wall and the aft wall ; and a lip extending downstream from the set of vanes relative to a flow of air through the swirler ; wherein the lip extends from the center wall ; wherein the nozzle tip is positioned aft of the aft end of the lip relative to the longitudinal axis and the swirler passage extends between the aft end of the lip and the nozzle tip; and wherein the aft end of the lip is positioned forward of the aft wall relative to the longitudinal axis ; characterized in that the fuel passage terminates at the nozzle tip .
A method of constructing a preview image of an elevated lenticular print , the lenticular print having, on a two-dimensional manifold, a periodic pattern of repetitions of a three-dimensional shape that has a number n of faces , with surface pixels on the faces of all the repetitions of the shape constituting n face images (FI1, FI2), one for each face of the shape, the method comprising a step of calculating preview images (PI1, PI2) for a number of viewing positions (VP1, VP2) such that the preview image represents an image that will be perceived by a viewer watching the print from the viewing position, and further comprising the steps of: - calculating a normal map which maps each point on the two-dimensional manifold onto a normal vector (N) that is perpendicular to the face of the shape that is located at that point; - calculating, for each viewing position (VP1, VP2), for each location on the two-dimensional manifold, and for each face of the shape a weight factor (WF1,1; WF1,2) that represents a contribution of the face image to the color of a preview image pixel that corresponds to the location on the manifold, the weight factor derived from the normal vector (N) of the location on the two-dimensional manifold retrieved from the normal map and a direction vector (A1, A2) that points from the location on the two-dimensional manifold to the viewing position (VP1, VP2); and - calculating colors of the preview image pixels by summarizing color values of face image pixels that correspond to the preview image pixel over the n faces of the shape, each color value weighted with the weight factor (WF1,1; WF1,2) for the location on the manifold that corresponds to the preview image pixel. - calculating a normal map which maps each point on the two-dimensional manifold onto a normal vector (N) that is perpendicular to the face of the shape that is located at that point; - calculating, for each viewing position (VP1, VP2), for each location on the two-dimensional manifold, and for each face of the shape a weight factor (WF1,1; WF1,2) that represents a contribution of the face image to the color of a preview image pixel that corresponds to the location on the manifold, the weight factor derived from the normal vector (N) of the location on the two-dimensional manifold retrieved from the normal map and a direction vector (A1, A2) that points from the location on the two-dimensional manifold to the viewing position (VP1, VP2); and - calculating colors of the preview image pixels by summarizing color values of face image pixels that correspond to the preview image pixel over the n faces of the shape, each color value weighted with the weight factor (WF1,1; WF1,2) for the location on the manifold that corresponds to the preview image pixel.