mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an air data system comprising: a gas path ; a probe having ports and a heater , the ports forming an entrance to the gas path and configured to allow air to enter the gas path ; and a transducer having sensors situated along the gas path , characterized in that the system further comprises: a controller configured to instruct the air data system to begin a leak check test and configured to determine if the air data system is absent of leaks; and a device configured to cover at least a portion of the probe during a leak check test of the air data system , the device comprising: a device body ; and an opening extending into the device body with the opening being situated to seal the ports in the probe so that air is prevented from flowing into or out of the ports when the probe is inserted into the opening , wherein a leak check test begins when the device is sealing the ports of the probe with the leak check test including instructing the heater to increase the temperature of the air within the gas path and instructing the sensors to measure the change in pressure of the air within the gas path resulting from the change in temperature of the air. an air data system comprising: a gas path ; a probe having ports and a heater , the ports forming an entrance to the gas path and configured to allow air to enter the gas path ; and a transducer having sensors situated along the gas path , a gas path ; a probe having ports and a heater , the ports forming an entrance to the gas path and configured to allow air to enter the gas path ; and entrance to the gas path and configured to allow air to enter the gas path ; and a transducer having sensors situated along the gas path , characterized in that the system further comprises: a controller configured to instruct the air data system to begin a leak check test and configured to determine if the air data system is absent of leaks; and a device configured to cover at least a portion of the probe during a leak check test of the air data system , the device comprising: a device body ; and an opening extending into the device body with the opening being situated to seal the ports in the probe so that air is prevented from flowing into or out of the ports when the probe is inserted into the opening , a controller configured to instruct the air data system to begin a leak check test and configured to determine if the air data system is absent of leaks; and a device configured to cover at least a portion of the probe during a leak check test of the air data system , the device comprising: a device body ; and an opening extending into the device body with the opening being situated to seal the ports in the probe so that air is prevented from flowing into or out of the ports when the probe is inserted into the opening , wherein a leak check test begins when the device is sealing the ports of the probe with the leak check test including instructing the heater to increase the temperature of the air within the gas path and instructing the sensors to measure the change in pressure of the air within the gas path resulting from the change in temperature of the air.
A method for location service privacy management within a mobile station , the method comprising: receiving , at a privacy engine of the mobile station , one or more requests from a server in a network external to the mobile station ; deciding to accept, by the privacy engine of the mobile station , the one or more requests based on a digital certificate or a password that verifies the identity of the server, wherein the one or more requests comprises instructions to send a location of the mobile station ; and receiving, from a separate device , by a local communication module coupled to the privacy engine , data including software instructions that create, modify, and implement the functions and capabilities of the privacy engine of the mobile station , wherein the separate device is locally connected to the mobile station via infrared, Bluetooth, USB cable, or other means that are distinct from the network connectivity provided by the external network. receiving , at a privacy engine of the mobile station , one or more requests from a server in a network external to the mobile station ; deciding to accept, by the privacy engine of the mobile station , the one or more requests based on a digital certificate or a password that verifies the identity of the server, wherein the one or more requests comprises instructions to send a location of the mobile station ; and receiving, from a separate device , by a local communication module coupled to the privacy engine , data including software instructions that create, modify, and implement the functions and capabilities of the privacy engine of the mobile station , wherein the separate device is locally connected to the mobile station via infrared, Bluetooth, USB cable, or other means that are distinct from the network connectivity provided by the external network.
A computer-implemented method, comprising: receiving first imaging data from one or more sensors associated with a work machine , the first imaging data comprising data related to at least one ground engaging tool (GET) of the work machine, the first imaging data identifying the at least one GET at a first resolution; identifying a region of interest within the first imaging data, the region of interest including the data related to the at least one GET; controlling a light detection and ranging (LiDAR) sensor to capture second imaging data corresponding to the identified region of interest, the second imaging data identifying the at least one GET at a second resolution higher than the first resolution; generating a three-dimensional point cloud of the at least one GET based on the second imaging data; and determining a wear level or loss for the at least one GET based on the three-dimensional point cloud. receiving first imaging data from one or more sensors associated with a work machine , the first imaging data comprising data related to at least one ground engaging tool (GET) of the work machine, the first imaging data identifying the at least one GET at a first resolution; identifying a region of interest within the first imaging data, the region of interest including the data related to the at least one GET; controlling a light detection and ranging (LiDAR) sensor to capture second imaging data corresponding to the identified region of interest, the second imaging data identifying the at least one GET at a second resolution higher than the first resolution; generating a three-dimensional point cloud of the at least one GET based on the second imaging data; and determining a wear level or loss for the at least one GET based on the three-dimensional point cloud.
An electrode material for a lithium-ion rechargeable battery formed by coating a surface of primary particles of an electrode active material represented by General Formula LiFe x Mn 1-x-y M y PO 4 , in which M represents at least one element selected from Mg, Ca, Co, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, and rare earth elements, and in which 0.05≤x≤1.0, 0≤y≤0. 14 with a carbonaceous film, wherein an angle of repose of the electrode material is in a range of 35° or more and 50° or less; and the carbonaceous film has a thickness of 1nm or more and 5nm or less, and comprises crystalline carbon and amorphous carbon. an angle of repose of the electrode material is in a range of 35° or more and 50° or less; and the carbonaceous film has a thickness of 1nm or more and 5nm or less, and comprises crystalline carbon and amorphous carbon.
A conveyor system for conveying discrete items (P), comprising at least an upper belt body (O 1 , O 2 ) and a lower belt body (U 1 , U 2 ) in order to be able to transport the items (P) between the upper and lower belt bodies, a) comprising a base frame extending in a conveying direction (X) and in a width direction (Y) running horizontally transversely thereto, wherein the base frame indirectly or directly supports the at least one lower belt body (U 1 , U 2 ) that is arranged in a vertical direction (Z) running perpendicularly to the conveying and width direction (X, Y), b) wherein a lifting column ,extending in the Z direction, is arranged in each case on the base frame at at least three corners of an imaginary quadrilateral, in particular rectangle, extending in the X-Y direction, which lifting columns support the at least one upper belt body (O 1 , O 2 ) via spindle nuts which are each vertically adjustably mounted on the lifting column and are part of a lifting mechanism, wherein c) at least one lifting column is not connected to another lifting column by a stationary longitudinal connector extending in the X direction above a spindle nut of the lifting column. a) comprising a base frame extending in a conveying direction (X) and in a width direction (Y) running horizontally transversely thereto, wherein the base frame indirectly or directly supports the at least one lower belt body (U 1 , U 2 ) that is arranged in a vertical direction (Z) running perpendicularly to the conveying and width direction (X, Y), b) wherein a lifting column ,extending in the Z direction, is arranged in each case on the base frame at at least three corners of an imaginary quadrilateral, in particular rectangle, extending in the X-Y direction, which lifting columns support the at least one upper belt body (O 1 , O 2 ) via spindle nuts which are each vertically adjustably mounted on the lifting column and are part of a lifting mechanism, wherein c) at least one lifting column is not connected to another lifting column by a stationary longitudinal connector extending in the X direction above a spindle nut of the lifting column.
A communication method by a mobile station comprising: selecting a signature; transmitting a preamble using the signature; receiving a response corresponding to the signature; calculating a default E-DCH resource index Dind as Dind=PreInd mod Y, wherein the PreInd is an index of the signature and the Y is a total number of E-DCH resource configurations; controlling a data transmission based on the default E-DCH resource index Dind, in a case where the response is positive. selecting a signature; transmitting a preamble using the signature; receiving a response corresponding to the signature; calculating a default E-DCH resource index Dind as Dind=PreInd mod Y, wherein the PreInd is an index of the signature and the Y is a total number of E-DCH resource configurations; controlling a data transmission based on the default E-DCH resource index Dind, in a case where the response is positive.
A pasteurizing plant comprising a first pasteurizing line and at least a second pasteurizing line , wherein each of the first and the second pasteurizing lines comprise at least one heating zone and at least one cooling zone , the heating zones and the cooling zones each comprising irrigation means configured for dispensing a temperature controlled process liquid into the respective zones , and wherein each of the first and the second pasteurizing lines comprise a transporting means configured for transporting sealed containers filled with foodstuff through the at least one respective heating zone and subsequently through the at least one respective cooling zone , and wherein the pasteurizing plant comprises a heat pump with a heating means for heating a heating liquid and a cooling means for cooling a cooling liquid, characterized in that , the heating means of the heat pump at least is operatively connected with a primary side of a first heating heat exchanger via liquid transport lines and at least one shut-off means arranged between solely the heating means and the first heating heat exchanger , and the heating means is additionally operatively connected with a primary side of a second heating heat exchanger via liquid transport lines and at least one shut-off means arranged between solely the heating means and the second heating heat exchanger , wherein at least one heating liquid conveying means is arranged for circulating the heating liquid through the heating means , and through the primary side of the first heating heat exchanger and/or through the primary side of the second heating heat exchanger , and wherein a secondary side of the first heating heat exchanger is connected with an input line and an output line for process liquid of the first pasteurizing line , and a secondary side of the second heating heat exchanger is connected with an input line and an output line for process liquid of the second pasteurizing line , and that the cooling means of the heat pump at least is operatively connected with a primary side of a first cooling heat exchanger via liquid transport lines and at least one shut-off means arranged between solely the cooling means and the first cooling heat exchanger , and the cooling means is additionally operatively connected with a primary side of a second cooling heat exchanger via liquid transport lines and at least one shut-off means arranged between solely the cooling means and the second cooling heat exchanger , wherein at least one cooling liquid conveying means is arranged for circulating the cooling liquid through the cooling means , and through the primary side of the first cooling heat exchanger and/or through the primary side of the second cooling heat exchanger , and wherein a secondary side of the first cooling heat exchanger is connected with an input line and an output line for process liquid of the first pasteurizing line , and a secondary side of the second cooling heat exchanger is connected with an input line and an output line for process liquid of the second pasteurizing line .
A method for preventing scale formation in circulating fluid, wherein the method comprises adding to the circulating fluid a scale-inhibiting polymer; wherein the scale-inhibiting polymer comprises two or more monomers wherein at least one recurring monomer is an allyl sulfonate-containing monomer and at least one recurring monomer is a styrene sulfonate-containing monomer, wherein the circulating fluid is utilized in, or is a component of, a mining process; or wherein the circulating fluid is in a system that is utilized in a mining process; or wherein the circulating fluid is, or has been at some point, in contact with mineral ore slurries.
A photoacoustic microscope , comprising: an optical device comprising: a first axicon lens to which collimated light is incident and which is configured to form diverging ring-shaped light; a lens to which the ring-shaped light formed by the first axicon lens is incident and which is configured to form ring-shaped collimated light; and a condensing mirror that is configured to condense the ring-shaped collimated light formed by the lens ; and a detector that is configured to detect an acoustic wave caused by light condensed by the condensing mirror . an optical device comprising: a first axicon lens to which collimated light is incident and which is configured to form diverging ring-shaped light; a lens to which the ring-shaped light formed by the first axicon lens is incident and which is configured to form ring-shaped collimated light; and a condensing mirror that is configured to condense the ring-shaped collimated light formed by the lens ; and a first axicon lens to which collimated light is incident and which is configured to form diverging ring-shaped light; a lens to which the ring-shaped light formed by the first axicon lens is incident and which is configured to form ring-shaped collimated light; and a condensing mirror that is configured to condense the ring-shaped collimated light formed by the lens ; and a detector that is configured to detect an acoustic wave caused by light condensed by the condensing mirror .
A pharmaceutical composition comprising echinomycin for use in treatment of an acute myeloid leukemia.
A method of aiding the diagnosis of dysplasia in a subject, said method comprising: (a) providing an in vitro sample previously collected from the oesophagus of said subject; (b) assaying said sample for expression of each of the genes shown in the '40 genes' column of Table 1; (c) normalising the expression levels of the genes in part (b) to expression levels of reference gene(s) from a non-dysplastic sample; (d) determining from the normalised expression levels of (c) a gene signature score for the sample, wherein a gene signature score greater than a reference threshold indicates presence of dysplasia in said subject. (a) providing an in vitro sample previously collected from the oesophagus of said subject; (b) assaying said sample for expression of each of the genes shown in the '40 genes' column of Table 1; (c) normalising the expression levels of the genes in part (b) to expression levels of reference gene(s) from a non-dysplastic sample; (d) determining from the normalised expression levels of (c) a gene signature score for the sample, wherein a gene signature score greater than a reference threshold indicates presence of dysplasia in said subject.
A capacitor assembly for an implantable medical device , having three structurally identical capacitors (1, 1', 1"), wherein each of the structurally identical capacitors (1, 1', 1") comprises a housing , wherein the housing has a first outer side and a second outer side facing away from the first outer side, wherein the two outer sides are connected to one another via a lateral outer side of the housing running in the circumferential direction (U) of the housing , and wherein the lateral outer side has a straight first portion and an arcuate second portion , wherein the first portion has two end regions which are connected to one another via a middle region of the first portion , wherein the end regions are each connected to the second portion , and wherein the capacitor has an electrical terminal disposed on the middle region of the first portion of the lateral outer side , said electrical terminal having two contact surfaces for electrically contacting the capacitor , and the second portion of the lateral outer side with the first outer side forms a rounded housing edge of the housing of the capacitor , and the three structurally identical capacitors (1, 1', 1") are arranged stacked on top of one another so that each capacitor (1, 1', 1") rests with its first or with its second outer side against the first or the second outer side of an adjacent capacitor of the capacitor assembly , characterised in that the three structurally identical capacitors (1, 1', 1") comprise a first outer capacitor , a second middle capacitor and a third outer capacitor (1"), wherein the second capacitor is disposed between the two outer capacitors (1, 1"), and wherein the second capacitor rests with its second side against the second side of the third capacitor (1"), and wherein the second capacitor rests with its first side against a second side of the first capacitor , and the electrical terminal of the third capacitor (1") is disposed offset relative to the electrical terminals of the first and the second capacitor of the capacitor assembly . the second portion of the lateral outer side with the first outer side forms a rounded housing edge of the housing of the capacitor , and the three structurally identical capacitors (1, 1', 1") are arranged stacked on top of one another so that each capacitor (1, 1', 1") rests with its first or with its second outer side against the first or the second outer side of an adjacent capacitor of the capacitor assembly , characterised in that the three structurally identical capacitors (1, 1', 1") comprise a first outer capacitor , a second middle capacitor and a third outer capacitor (1"), wherein the second capacitor is disposed between the two outer capacitors (1, 1"), and wherein the second capacitor rests with its second side against the second side of the third capacitor (1"), and wherein the second capacitor rests with its first side against a second side of the first capacitor , and the electrical terminal of the third capacitor (1") is disposed offset relative to the electrical terminals of the first and the second capacitor of the capacitor assembly .
Method for assessing the risk of developing BK virus (BK-v) nephropathy in a renal transplant patient, said method comprising the following steps a) measuring the viral load of BK-v in a biological sample from said patient, b) measuring the normalized intensity of the BK-v virus-specific memory CD4 + or CD8 + T lymphocyte response in a biological sample from said patient, said normalization being performed with respect to the BK-v viral load measured in step a), and c) determining the differences in HLA alleles between the kidney donor and said patient, preferably the number incompatibilities between the HLA I and HLA II of the kidney donor and said patient, d) assessing the risk of developing BK virus (BK-v) nephropathy in a kidney transplant patient by combining the parameters determined in steps a), b) and c). a) measuring the viral load of BK-v in a biological sample from said patient, b) measuring the normalized intensity of the BK-v virus-specific memory CD4 + or CD8 + T lymphocyte response in a biological sample from said patient, said normalization being performed with respect to the BK-v viral load measured in step a), and c) determining the differences in HLA alleles between the kidney donor and said patient, preferably the number incompatibilities between the HLA I and HLA II of the kidney donor and said patient, d) assessing the risk of developing BK virus (BK-v) nephropathy in a kidney transplant patient by combining the parameters determined in steps a), b) and c).
An improved method of plugging a well, wherein said method comprises removing inner tubing and outer casing at a section of a well to be plugged, and setting a base plug and a plug in said section, said improved method comprising: removing an inner tubing string before an outer casing is cut; cutting a plurality of helical coil openings at different depths through said outer casing at said section instead of removing said outer casing; deploying a solid bismuth alloy plug material below and adjacent to said helical coil openings; deploying a heater to said helical coil openings to melt said bismuth alloy plug material wherein said melted bismuth alloy plug material flows out of said helical coil openings and fills a portion of said section and cools to form a bismuth alloy plug; deploying a plugging material downhole adjacent said base plug; squeezing said plugging material out of said helical coil openings; and allowing said plugging material to set and form a plug, such that said set plugging material and said bismuth alloy plug together form multiple O-ring type rock-to-rock seals at different depths through said plurality of helical coil openings. removing an inner tubing string before an outer casing is cut; cutting a plurality of helical coil openings at different depths through said outer casing at said section instead of removing said outer casing; deploying a solid bismuth alloy plug material below and adjacent to said helical coil openings; deploying a heater to said helical coil openings to melt said bismuth alloy plug material wherein said melted bismuth alloy plug material flows out of said helical coil openings and fills a portion of said section and cools to form a bismuth alloy plug; deploying a plugging material downhole adjacent said base plug; squeezing said plugging material out of said helical coil openings; and allowing said plugging material to set and form a plug, such that said set plugging material and said bismuth alloy plug together form multiple O-ring type rock-to-rock seals at different depths through said plurality of helical coil openings.