mhurhangee/patent-ind-claim-en huggingface dataset:
A current-controlled oscillator , comprising: an input terminal for receiving an input current; a ramp voltage generating sub-circuit , coupled to the input terminal, for generating a first ramp voltage and a second ramp voltage controlled by a first clock signal (CLK1) and a second clock signal (CLK2), wherein a frequency of the first and second clock signals is based, in part, on a value of the input current; a ramp voltage selecting sub-circuit for selecting one of the first ramp voltage and the second ramp voltage depending on a value of the first ramp voltage relative to a value of the second ramp voltage; and a switching signal generating sub-circuit for receiving the selected ramp voltage and for generating a switching signal based on a value of the selected ramp voltage relative to a reference voltage, wherein the switching signal generating sub-circuit outputs the first clock signal (CLK1) and the second clock signal (CLK2); wherein the ramp voltage generating sub-circuit includes a first switch , controlled by the first clock signal (CLK1), coupled between the first ramp voltage node and the input terminal , and a second switch , controlled by the second clock signal (CLK2), coupled between the second ramp voltage node and the input terminal ; and wherein the ramp voltage selecting sub-circuit includes a ramp voltage comparator for comparing the first ramp voltage and the second ramp voltage and for outputting a comparator output signal and wherein, based on comparison, the ramp voltage selecting sub-circuit outputs one of the first ramp voltage and the second ramp voltage. an input terminal for receiving an input current; a ramp voltage generating sub-circuit , coupled to the input terminal, for generating a first ramp voltage and a second ramp voltage controlled by a first clock signal (CLK1) and a second clock signal (CLK2), wherein a frequency of the first and second clock signals is based, in part, on a value of the input current; a ramp voltage selecting sub-circuit for selecting one of the first ramp voltage and the second ramp voltage depending on a value of the first ramp voltage relative to a value of the second ramp voltage; and a switching signal generating sub-circuit for receiving the selected ramp voltage and for generating a switching signal based on a value of the selected ramp voltage relative to a reference voltage, wherein the switching signal generating sub-circuit outputs the first clock signal (CLK1) and the second clock signal (CLK2); wherein the ramp voltage generating sub-circuit includes a first switch , controlled by the first clock signal (CLK1), coupled between the first ramp voltage node and the input terminal , and a second switch , controlled by the second clock signal (CLK2), coupled between the second ramp voltage node and the input terminal ; and wherein the ramp voltage selecting sub-circuit includes a ramp voltage comparator for comparing the first ramp voltage and the second ramp voltage and for outputting a comparator output signal and wherein, based on comparison, the ramp voltage selecting sub-circuit outputs one of the first ramp voltage and the second ramp voltage.
A medical device having an external surface treated with an anti-microbial and anti-thrombogenic solution for use in a method of inhibiting microbial growth and thrombogenesis in a patient, the solution comprising: (i) at least 0.05% (wt/vol) alexidine; (ii) greater than 2% (wt/vol) soluble polymer; and (iii) a solvent system comprising tetrahydrofuran (THF) and methanol; THF and ethanol; THF and isopropyl alcohol; THF and citric acid; or THF, isopropyl alcohol and citric acid. (i) at least 0.05% (wt/vol) alexidine; (ii) greater than 2% (wt/vol) soluble polymer; and (iii) a solvent system comprising tetrahydrofuran (THF) and methanol; THF and ethanol; THF and isopropyl alcohol; THF and citric acid; or THF, isopropyl alcohol and citric acid.
Process for producing an arabinoxylo-oligosaccharide composition from flour comprising the steps of: A. extracting and isolating an endosperm arabinoxylan fraction from flour; B. optionally removing starch and proteins from the obtained product of step A; C. optionally treatment of the endosperm arabinoxylan of step A or product of step B with arabinofuranosidases, preferably one able to remove α-(1→3)-linked L-arabinofuranosyl at double substituted β-(1→4)-linked D-xylopyranosyl units (dXyl); D. adding an arabinoxylanase to the obtained product of step A, step B or step C; and E. drying the obtained material of step D. A. extracting and isolating an endosperm arabinoxylan fraction from flour; B. optionally removing starch and proteins from the obtained product of step A; C. optionally treatment of the endosperm arabinoxylan of step A or product of step B with arabinofuranosidases, preferably one able to remove α-(1→3)-linked L-arabinofuranosyl at double substituted β-(1→4)-linked D-xylopyranosyl units (dXyl); D. adding an arabinoxylanase to the obtained product of step A, step B or step C; and E. drying the obtained material of step D.
A panel mount electrical connector comprising: a dielectric housing having a forward mating portion which is receivable in a cutout in a mounting panel , a flange extending from and formed integrally with the housing and dimensioned larger than the cutout , mounting projections opposed to the flange for capturing the mounting panel therebetween and a rear portion having a rear face with terminal-receiving cavities extending inwardly through the rear face; the flange extending from the housing ; the terminal-receiving cavities extending from the rear face to the forward mating face , longitudinal axes of the terminal-receiving cavities extending in a straight line; a flange seal configured to seal between the mounting panel and the flange when the electrical connector is mounted in the mounting panel ; characterised in that the flange extends from the housing at an acute angle relative to a forward mating face of the forward mating portion of the housing wherein the forward mating face of the housing is angled relative to the flange to prevent condensation from occurring on the forward mating face when the connector is mounted in the mounting panel . a dielectric housing having a forward mating portion which is receivable in a cutout in a mounting panel , a flange extending from and formed integrally with the housing and dimensioned larger than the cutout , mounting projections opposed to the flange for capturing the mounting panel therebetween and a rear portion having a rear face with terminal-receiving cavities extending inwardly through the rear face; the flange extending from the housing ; the terminal-receiving cavities extending from the rear face to the forward mating face , longitudinal axes of the terminal-receiving cavities extending in a straight line; a flange seal configured to seal between the mounting panel and the flange when the electrical connector is mounted in the mounting panel ; characterised in that the flange extends from the housing at an acute angle relative to a forward mating face of the forward mating portion of the housing wherein the forward mating face of the housing is angled relative to the flange to prevent condensation from occurring on the forward mating face when the connector is mounted in the mounting panel .
An industrial device including a portable tool and at least one support for this tool, the tool being provided with a motor rotating a mechanism, with an electric energy storage means to power supply the tool during its operation and with means for controlling the motor, the support including a wire one end of which is attached to the tool, a bucket element defining a gripping location for the tool and a reel of said wire exerting vertical tension on the tool so as to lighten its weight when it is no longer in its gripping location, characterised in that it includes an electrical energy transmission means for charging the energy storage means when the tool is positioned in the bucket element .
Vehicle chassis for checking and/or counting stock in a warehouse and configured for attaching to an autonomous indoor vehicle , the vehicle chassis comprising an extendable mast comprising a first end mounted onto the chassis and an opposite second end arrangeable at different distances above the chassis , at least one scanner arranged at the second end and configured for checking and/or counting stock in a shelve of the warehouse lateral to the vehicle and characterized by further comprising a second extendable mast arranged rectangular to the extendable mast , whereby a first end of the second mast is mounted to the second end of the extendable mast and the second mast comprises at least one additional scanner configured for checking and/or counting stock underneath the second mast and arrangeable at different distances from the second end of the extendable mast . an extendable mast comprising a first end mounted onto the chassis and an opposite second end arrangeable at different distances above the chassis , at least one scanner arranged at the second end and configured for checking and/or counting stock in a shelve of the warehouse lateral to the vehicle and characterized by further comprising a second extendable mast arranged rectangular to the extendable mast , whereby a first end of the second mast is mounted to the second end of the extendable mast and the second mast comprises at least one additional scanner configured for checking and/or counting stock underneath the second mast and arrangeable at different distances from the second end of the extendable mast .
Method for additive manufacturing of a three dimensional object , comprising manufacturing the object by repeatedly providing a predetermined amount of slurry as a layer on a substrate and curing the layer onto the object being formed, wherein a slurry repellant layer is provided characterized in that the slurry repellant layer is provided on a surface of the substrate , and in that the method further comprises pressing the object being formed into the predetermined amount of slurry until a desired thickness of the layer for a next additive manufacturing step is reached, and agitating the predetermined amount of slurry during pressing of the object being formed into the predetermined amount of slurry .
A compressor comprising: a casing having a cylindrical portion , a compression mechanism being fixed to an inner peripheral surface of the cylindrical portion ; an external portion including a sensing portion , a mounting portion , wherein the sensing portion , includes a temperature reaction portion that reacts to a temperature change of the cylindrical portion , the external portion being mounted on an outer peripheral surface of the cylindrical portion so that the sensing portion is in close contact with the outer peripheral surface of the cylindrical portion ; a welding nut welded to the outer peripheral surface of the cylindrical portion to mount the sensing portion and the mounting portion on the outer peripheral surface of the cylindrical portion ; and a bolt that fixes the mounting portion to the welding nut ; wherein, an axial direction of the cylindrical portion is defined as a first direction (D); and wherein the sensing portion has a center point at the center of an attachment surface that comes in close contact with the outer peripheral surface of the cylindrical portion ; characterized in that , the external portion is mounted on the outer peripheral surface of the cylindrical portion such that the center point falls within a fixing range defined as the cylindrical portion in the first direction (D) where the compression mechanism is fixed to the inner peripheral surface of the cylindrical portion . a casing having a cylindrical portion , a compression mechanism being fixed to an inner peripheral surface of the cylindrical portion ; an external portion including a sensing portion , a mounting portion , wherein the sensing portion , includes a temperature reaction portion that reacts to a temperature change of the cylindrical portion , the external portion being mounted on an outer peripheral surface of the cylindrical portion so that the sensing portion is in close contact with the outer peripheral surface of the cylindrical portion ; a welding nut welded to the outer peripheral surface of the cylindrical portion to mount the sensing portion and the mounting portion on the outer peripheral surface of the cylindrical portion ; and a bolt that fixes the mounting portion to the welding nut ; wherein, an axial direction of the cylindrical portion is defined as a first direction (D); and wherein the sensing portion has a center point at the center of an attachment surface that comes in close contact with the outer peripheral surface of the cylindrical portion ; characterized in that , the external portion is mounted on the outer peripheral surface of the cylindrical portion such that the center point falls within a fixing range defined as the cylindrical portion in the first direction (D) where the compression mechanism is fixed to the inner peripheral surface of the cylindrical portion .
A method of determining the relative quantities of a plurality of expected components in a sample using a time-domain nuclear magnetic resonance (TD-NMR) spectrometer, the method comprising: a) obtaining a component saturation recovery curve (SRC) for each of the components; b) measuring the sample using a TD-NMR spectrometer and obtaining a mixture saturation recovery curve (SRC mix ) therefrom; and c) fitting to the SRC mix a linear combination of the component SRCs, each scaled by a weighting coefficient, the respective weighting coefficients being indicative of the relative quantities of the plurality of expected components in the sample. a) obtaining a component saturation recovery curve (SRC) for each of the components; b) measuring the sample using a TD-NMR spectrometer and obtaining a mixture saturation recovery curve (SRC mix ) therefrom; and c) fitting to the SRC mix a linear combination of the component SRCs, each scaled by a weighting coefficient, the respective weighting coefficients being indicative of the relative quantities of the plurality of expected components in the sample.
A computer-implemented method comprising: measuring arrival times of a set of spatially distributed acoustic events at a set of sensors to determine registered arrival times, wherein the acoustic events are generated at time intervals known to the sensors; estimating internal delays of the sensors based on the registered arrival times of the acoustic events at the sensors ; calculating times of flight for the acoustic events to reach the sensors based on the registered arrival times of the acoustic events at the sensors and the time intervals between the acoustic events ; and determining locations of the sensors using the times of flight for the acoustic events to reach the sensors . measuring arrival times of a set of spatially distributed acoustic events at a set of sensors to determine registered arrival times, wherein the acoustic events are generated at time intervals known to the sensors; estimating internal delays of the sensors based on the registered arrival times of the acoustic events at the sensors ; calculating times of flight for the acoustic events to reach the sensors based on the registered arrival times of the acoustic events at the sensors and the time intervals between the acoustic events ; and determining locations of the sensors using the times of flight for the acoustic events to reach the sensors .
A brush for a vehicle washing system comprising: - flexible elements intended to come into contact with the vehicle for cleaning and/or drying and/or polishing; - a central annular support from which the flexible elements extend; - a shaft rotating about its own axis of rotation, said shaft crossing said central annular support and placing said central annular support in rotation about said axis of rotation; the central annular support comprising a lateral surface , from which said flexible elements extend, which is inclined with respect to the axis of rotation of the shaft ; the central annular support comprising two opposite bases between which the lateral surface extends; the central annular support comprising a lateral wall incorporating the lateral surface ; the flexible elements are connected to the lateral wall along a generatrix of the lateral wall and extend perpendicular to said lateral wall during rotation; said support identifies a longitudinal axis about which the central annular support extends annularly, said longitudinal axis being incident and inclined with respect to the axis of rotation of the shaft . - flexible elements intended to come into contact with the vehicle for cleaning and/or drying and/or polishing; - a central annular support from which the flexible elements extend; - a shaft rotating about its own axis of rotation, said shaft crossing said central annular support and placing said central annular support in rotation about said axis of rotation; the central annular support comprising a lateral surface , from which said flexible elements extend, which is inclined with respect to the axis of rotation of the shaft ; the central annular support comprising two opposite bases between which the lateral surface extends; the central annular support comprising a lateral wall incorporating the lateral surface ; the flexible elements are connected to the lateral wall along a generatrix of the lateral wall and extend perpendicular to said lateral wall during rotation; said support identifies a longitudinal axis about which the central annular support extends annularly, said longitudinal axis being incident and inclined with respect to the axis of rotation of the shaft .
Method for recycling oils contaminated with aluminum abrasion from rolling/skin pass processes, characterized in that the rolling or skin pass oil contaminated with aluminum is mixed with an aqueous alkali metal hydroxide solution, a separation between an aqueous phase and an oil phase is brought about, the aqueous phase is subsequently separated from the oil phase, and residual water and possibly present suspended substances are removed from the oil phase using a drying agent, the mass ratio of contaminated rolling or skin pass oil to aqueous alkali metal hydroxide solution being 1 to at least 2.
A user equipment for use in a radio communication system comprising: a receiver for receiving control signalling that includes New Data information and modulation and coding scheme information, and characterized by a processor for releasing a semi-persistent resource allocation when a predetermined combination of the New Data information and the modulation and coding scheme information is received, wherein the predetermined combination includes the New Data information being zero and the modulation and coding scheme information including an index of 11111 in binary format that indicates no transport block size information. a receiver for receiving control signalling that includes New Data information and modulation and coding scheme information, and characterized by a processor for releasing a semi-persistent resource allocation when a predetermined combination of the New Data information and the modulation and coding scheme information is received, wherein the predetermined combination includes the New Data information being zero and the modulation and coding scheme information including an index of 11111 in binary format that indicates no transport block size information.
A method comprising: observing , by a device in a network , traffic between a client and a server for an encrypted session; making, by the device, a determination that a server certificate should be obtained from the server, comprising determining, by the device, that information for the server cached in an address database is out of date; sending , by the device and based on the determination, a handshake probe to the server, wherein the handshake probe mimics a client hello message sent by the client to the server in the observed traffic, wherein the handshake probe uses the same field parameters as the client hello message , but with cryptographic keying information of the device instead; extracting , by the device , server certificate information from a handshake response from the server that the server encrypted using the cryptographic keying information in the handshake probe and sent in response to the handshake probe , comprising decrypting, by the device, the handshake response to obtain the server certificate information; caching, by the device, the extracted server certificate information in the address database; and using , by the device, the cached server certificate information to analyze the traffic between the client and the server . observing , by a device in a network , traffic between a client and a server for an encrypted session; making, by the device, a determination that a server certificate should be obtained from the server, comprising determining, by the device, that information for the server cached in an address database is out of date; sending , by the device and based on the determination, a handshake probe to the server, wherein the handshake probe mimics a client hello message sent by the client to the server in the observed traffic, wherein the handshake probe uses the same field parameters as the client hello message , but with cryptographic keying information of the device instead; extracting , by the device , server certificate information from a handshake response from the server that the server encrypted using the cryptographic keying information in the handshake probe and sent in response to the handshake probe , comprising decrypting, by the device, the handshake response to obtain the server certificate information; caching, by the device, the extracted server certificate information in the address database; and using , by the device, the cached server certificate information to analyze the traffic between the client and the server .