mhurhangee/patent-ind-claim-en huggingface dataset:
A tap changer assembly , comprising: a first molding including multiple taps ; a semi-conductive coating applied to an outer surface of the first molding ; a conductive shield provided in contact with the semi-conductive coating ; a grounding member comprising a ring of bosses interconnected by a grounding conductor ; a second molding applied over at least a portion of the conductive shield and the grounding conductor , the second molding including a molded sealing surface ; a conductive cover coupled to the ring of bosses ; and a sealing member sealing between the molded sealing surface and the conductive cover . a first molding including multiple taps ; a semi-conductive coating applied to an outer surface of the first molding ; a conductive shield provided in contact with the semi-conductive coating ; a grounding member comprising a ring of bosses interconnected by a grounding conductor ; a second molding applied over at least a portion of the conductive shield and the grounding conductor , the second molding including a molded sealing surface ; a conductive cover coupled to the ring of bosses ; and a sealing member sealing between the molded sealing surface and the conductive cover .
A method for rolling shutter compensation during signal delay measurement, comprising: receiving a video signal comprising a video test pattern ; displaying the video test pattern on a display, said video test pattern having a temporal event (1230-1250); capturing a video of the display, by a camera ; monitoring a plurality of regions (1002-1008) of the display in the video; detecting times (t 1 -t 6 ) at which the temporal event (1230-1250) appears in each monitored region (1002-1008) of the display in the video; and extrapolating the detected times (t 1 -t 6 ) to calculate the time (t invariant ) at which said temporal event (1230-1250) would appear at a selected region of the video; wherein: said camera has an assumed update direction; and said plurality of regions (1002-1008) are located at different points in the assumed update direction. receiving a video signal comprising a video test pattern ; displaying the video test pattern on a display, said video test pattern having a temporal event (1230-1250); capturing a video of the display, by a camera ; monitoring a plurality of regions (1002-1008) of the display in the video; detecting times (t 1 -t 6 ) at which the temporal event (1230-1250) appears in each monitored region (1002-1008) of the display in the video; and extrapolating the detected times (t 1 -t 6 ) to calculate the time (t invariant ) at which said temporal event (1230-1250) would appear at a selected region of the video; said camera has an assumed update direction; and said plurality of regions (1002-1008) are located at different points in the assumed update direction.
Method for operating a drive apparatus , wherein - a load - i.e. a working machine of an automation system - is connected to the drive apparatus , - the drive apparatus is provided with at least one sensor system , which is coupled to a computing unit , - by means of the sensor system data relating to the drive apparatus in operation is detected, - the data detected is transmitted to the computing unit and - the data detected is compared with information typical of the load that is characteristic for a type of the working machine stored in the computing unit in order to establish the type of the working machine , and - operating the drive apparatus according to the established load type. - a load - i.e. a working machine of an automation system - is connected to the drive apparatus , - the drive apparatus is provided with at least one sensor system , which is coupled to a computing unit , - by means of the sensor system data relating to the drive apparatus in operation is detected, - the data detected is transmitted to the computing unit and - the data detected is compared with information typical of the load that is characteristic for a type of the working machine stored in the computing unit in order to establish the type of the working machine , and - operating the drive apparatus according to the established load type.
Household electrical ironing apparatus comprising an iron comprising a sole which comprises a planar ironing surface surmounted by a body , a handle for holding arranged in cantilever fashion with respect to the sole , and a power cord emerging from the iron via an opening made in the handle , the handle comprising a front end attached to said body and a rear end that is free, at least three quarters of the handle, in the direction of the length of the handle, protruding outside the sole when the handle is projected orthogonally in the plane of the sole, characterised in that said opening is formed on an upper surface of the handle , the rear end of the handle being bevelled, the handle comprising an inclined planar rear surface which forms an obtuse angle α with the plane of the ironing surface of the sole in order to optimise the stability of the iron when the iron rests on an ironing board with the rear end of the sole bearing against the ironing board.
Method for measuring absorbent hygiene articles, in which absorbent bodies spaced apart from one another are applied to a continuous strip, the moisture and/or density of the absorbent bodies being detected with at least one microwave resonator with the aid of a resonant frequency shift (A) and a resonant frequency broadening (B), the strip being transported through the at least one microwave resonator and two microwave measured variables (A, B) being continuously detected, for the evaluation of which a blank value (A 0 , B 0 ) is in each case subtracted from the current measured value, characterized in that to determine the blank values (A 0 , B 0 ) for each of the measured values, the value in a local minimum is continuously determined and averaged with a number of past values for local minima.
A memory cell, comprising: a control gate between a first tier of dielectric material and a second tier of dielectric material ; a floating gate between the first tier of dielectric material and the second tier of dielectric material , wherein the floating gate includes a protrusion extending towards the control gate ; and a charge blocking structure between the floating gate and the control gate , wherein at least a portion of the charge blocking structure wraps around the protrusion, wherein the charge blocking structure comprises a first layer of oxide on the control gate, a layer of nitride on the first layer of oxide, and a second layer of oxide on the layer of nitride;; and wherein at least a portion of a barrier structure of the charge blocking structure wraps around the protrusion and comprises the second layer of oxide , and wherein the floating gate is in contact with the layer of nitride and the second layer of oxide . a control gate between a first tier of dielectric material and a second tier of dielectric material ; a floating gate between the first tier of dielectric material and the second tier of dielectric material , wherein the floating gate includes a protrusion extending towards the control gate ; and a charge blocking structure between the floating gate and the control gate , wherein at least a portion of the charge blocking structure wraps around the protrusion, wherein the charge blocking structure comprises a first layer of oxide on the control gate, a layer of nitride on the first layer of oxide, and a second layer of oxide on the layer of nitride;; and wherein at least a portion of a barrier structure of the charge blocking structure wraps around the protrusion and comprises the second layer of oxide , and wherein the floating gate is in contact with the layer of nitride and the second layer of oxide .
A method, comprising: determining, by a network side node, radio access network-based notification area, RNA, information represented by at least one of radio access network, RAN, tracking area, RTA, information that includes information regarding RTA, cell information, or tracking area, TA, information that includes information regarding a TA; transmitting, by the network side node, the determined RNA information to the terminal; determining, by the network side node, a failure to perform a paging based on the RNA information, the failure determined according to an absence of a paging response following transmission of a paging message; and transmitting, by the network side node, paging assistance information to a core network, wherein the paging assistance information comprises a cell list and a TA list. determining, by a network side node, radio access network-based notification area, RNA, information represented by at least one of radio access network, RAN, tracking area, RTA, information that includes information regarding RTA, cell information, or tracking area, TA, information that includes information regarding a TA; transmitting, by the network side node, the determined RNA information to the terminal; determining, by the network side node, a failure to perform a paging based on the RNA information, the failure determined according to an absence of a paging response following transmission of a paging message; and transmitting, by the network side node, paging assistance information to a core network, wherein the paging assistance information comprises a cell list and a TA list.
A water injector for injecting water into a cylinder of a piston engine , the water injector comprising at least one nozzle hole through which water can be injected into the cylinder , a water inlet for receiving the water to be injected, a water channel connecting the water inlet to the nozzle hole , and an injector needle for opening and closing fluid communication between the water inlet and the nozzle hole , characterized in that the water injector further comprises a cooling water space for receiving a cooling water flow, and a flow path is arranged between the water channel and the cooling water space for allowing water flow from the water channel into the cooling water space , wherein the flow path comprises a groove , through which the water is arranged to flow from the water channel into the cooling water space and which is configured to reduce the pressure of the water.
A workpiece processing installation , in particular for drying and/or curing painted and/or coated and/or glued workpieces, comprising: a process chamber for receiving workpieces to be processed, said process chamber being connected to a process air line for introducing and/or discharging process air into or out of said process chamber, respectively; a heating device (26-37) for heating a process air to be introduced into said process chamber ; and a control means for controlling a process air volume introduced into said process chamber and/or discharged from said process chamber and for controlling a heating power of said heating device, characterized in that said control means is configured to adjust the heating power of said heating device to the process air volume or the process air volume control or to adjust the process air volume to the heating power or the heating power control. a process chamber for receiving workpieces to be processed, said process chamber being connected to a process air line for introducing and/or discharging process air into or out of said process chamber, respectively; a heating device (26-37) for heating a process air to be introduced into said process chamber ; and a control means for controlling a process air volume introduced into said process chamber and/or discharged from said process chamber and for controlling a heating power of said heating device, characterized in that said control means is configured to adjust the heating power of said heating device to the process air volume or the process air volume control or to adjust the process air volume to the heating power or the heating power control.
An address allocation method, applied in a system in which a control plane is separated from a forwarding plane and which comprises a forwarder and a control device, comprising: receiving, by the forwarder, a DHCP request of user equipment, UE, and user characteristic information of the UE; sending, by the forwarder, the DHCP request and the user characteristic information to the control device; receiving, by the forwarder, an IP address allocated to the UE and first instruction information from the control device, wherein the first instruction information comprises a downlink flow table on which matching is performed using the IP address allocated to the UE, indicating the forwarder to send, when a packet whose destination address is the IP address, the packet to the UE; and sending, by the forwarder, the IP address to the UE according to the first instruction information. receiving, by the forwarder, a DHCP request of user equipment, UE, and user characteristic information of the UE; sending, by the forwarder, the DHCP request and the user characteristic information to the control device; receiving, by the forwarder, an IP address allocated to the UE and first instruction information from the control device, wherein the first instruction information comprises a downlink flow table on which matching is performed using the IP address allocated to the UE, indicating the forwarder to send, when a packet whose destination address is the IP address, the packet to the UE; and sending, by the forwarder, the IP address to the UE according to the first instruction information.
Measuring apparatus (200, 200', 200") for measuring a temperature of a molten metal bath , comprising i) an optical device (1, 1', 1", 1′′′), ii) a detecting means , which is adapted to receive a light signal transmitted by the optical device (1, 1', 1", 1′′′), iii) a storing unit for the optical device , iv) a rotatable support for the storing unit for the optical device, v) a moving means, vi) a straightening means (204, 204', 204", 204′′′), vii) a housing and viii) a guiding system (207, 207', 207") connected to the housing, wherein the optical device (1, 1', 1", 1′′′) comprises an optical fiber (2', 2", 2′′′) laterally surrounded by an inner and an outer metal tube (3', 3", 3′′′; 4', 4", 4′′′), wherein the outer metal tube (4', 4", 4′′′) has an outer diameter in the range of 2 mm to 8 mm and a wall-thickness in the range of 0.1 mm to 0.6 mm, wherein the housing encloses the detecting means , the storing unit for the optical device , the rotatable support for the storing unit for the optical device, the moving means, and the straightening means (204, 204', 204", 204′′′) and wherein the moving means is adapted to feed and retract the optical device (1, 1', 1", 1") and comprises a) at least one motor for forward and backward driving the rotatable support for the storing unit for the optical device , b) a feeding means for feeding the optical device (1, 1', 1", 1′′′) driven by at least one motor for forward and backward driving . i) an optical device (1, 1', 1", 1′′′), ii) a detecting means , which is adapted to receive a light signal transmitted by the optical device (1, 1', 1", 1′′′), iii) a storing unit for the optical device , iv) a rotatable support for the storing unit for the optical device, v) a moving means, vi) a straightening means (204, 204', 204", 204′′′), vii) a housing and viii) a guiding system (207, 207', 207") connected to the housing, wherein the optical device (1, 1', 1", 1′′′) comprises an optical fiber (2', 2", 2′′′) laterally surrounded by an inner and an outer metal tube (3', 3", 3′′′; 4', 4", 4′′′), wherein the outer metal tube (4', 4", 4′′′) has an outer diameter in the range of 2 mm to 8 mm and a wall-thickness in the range of 0.1 mm to 0.6 mm, wherein the housing encloses the detecting means , the storing unit for the optical device , the rotatable support for the storing unit for the optical device, the moving means, and the straightening means (204, 204', 204", 204′′′) and wherein the moving means is adapted to feed and retract the optical device (1, 1', 1", 1") and comprises a) at least one motor for forward and backward driving the rotatable support for the storing unit for the optical device , b) a feeding means for feeding the optical device (1, 1', 1", 1′′′) driven by at least one motor for forward and backward driving . a) at least one motor for forward and backward driving the rotatable support for the storing unit for the optical device , b) a feeding means for feeding the optical device (1, 1', 1", 1′′′) driven by at least one motor for forward and backward driving .
A method of determining microsatellite instability (MSI) of a DNA sample comprising, a) obtaining a tumor sample and a normal sample from a subject, wherein each sample comprises DNA; b) sequencing a microsatellite location in the DNA of each sample using next generation sequencing (NGS); c) identifying tandem repeats in the sequences; d) extracting coverage and total read values from the sequences comprising tandem repeats; e) calculating the divergence of the normal sample and the tumor sample; f) calculating the delta divergence for each nucleotide position; g) calculating the sum of all delta divergence values; wherein the value obtained from the sum of all delta divergence values represents the quantification of sequence divergence between the normal sample and the tumor sample at the sequenced microsatellite location. a) obtaining a tumor sample and a normal sample from a subject, wherein each sample comprises DNA; b) sequencing a microsatellite location in the DNA of each sample using next generation sequencing (NGS); c) identifying tandem repeats in the sequences; d) extracting coverage and total read values from the sequences comprising tandem repeats; e) calculating the divergence of the normal sample and the tumor sample; f) calculating the delta divergence for each nucleotide position; g) calculating the sum of all delta divergence values; wherein the value obtained from the sum of all delta divergence values represents the quantification of sequence divergence between the normal sample and the tumor sample at the sequenced microsatellite location.
A method for expanding Vδ2 - TCRγδ + T cells in a sample comprising: culturing cells in the sample in a first culture medium comprising a T cell mitogen and interleukin-4, wherein interleukin-15, interleukin-2, and interleukin-7 are absent in the first culture medium; and culturing the cells obtained in step in a second culture medium comprising a T cell mitogen and a growth factor selected from interleukin-15, interleukin-2, and interleukin-7, wherein interleukin-4 is absent in the second culture medium. culturing cells in the sample in a first culture medium comprising a T cell mitogen and interleukin-4, wherein interleukin-15, interleukin-2, and interleukin-7 are absent in the first culture medium; and culturing the cells obtained in step in a second culture medium comprising a T cell mitogen and a growth factor selected from interleukin-15, interleukin-2, and interleukin-7, wherein interleukin-4 is absent in the second culture medium.
A mucosal vaccine composition for use in inducing humoral immunity, wherein the composition is to be administered to at least one mucous membrane selected from the group consisting of a human or animal intraoral mucous membrane, ocular mucous membrane, ear mucous membrane, genital mucous membrane, pharyngeal mucous membrane, respiratory tract mucous membrane, bronchial mucous membrane, pulmonary mucous membrane, gastric mucous membrane, enteric mucous membrane, and rectal mucous membrane, the mucosal vaccine composition comprising: at least one antigen; and as an adjuvant, a Pantoea lipopolysaccharide or a salt thereof, wherein a mass ratio between said adjuvant and said antigen - total mass of the adjuvant/total mass of the antigen - is 0.002 to 500. at least one antigen; and as an adjuvant, a Pantoea lipopolysaccharide or a salt thereof, wherein a mass ratio between said adjuvant and said antigen - total mass of the adjuvant/total mass of the antigen - is 0.002 to 500.
A method of monitoring at least one element of a wireless communication system , wherein the at least one element extends coverage of a base station for communicating with one or more subscriber units, the method comprising: obtaining an operational noise measurement in a signal path of the element by measuring an operational noise level in a frequency band that is outside a bandwidth of a first device in the signal path of the element, but that is also within a wider bandwidth of a second, subsequent device in the same signal path; retrieving a stored parameter that includes a previously determined reference noise level for the element; and comparing the measured operational noise level to the retrieved parameter and using the comparison to evaluate the gain of at least a section of the element to determine a failure or malfunction of a device in the element. obtaining an operational noise measurement in a signal path of the element by measuring an operational noise level in a frequency band that is outside a bandwidth of a first device in the signal path of the element, but that is also within a wider bandwidth of a second, subsequent device in the same signal path; retrieving a stored parameter that includes a previously determined reference noise level for the element; and comparing the measured operational noise level to the retrieved parameter and using the comparison to evaluate the gain of at least a section of the element to determine a failure or malfunction of a device in the element.
An air sampling device for sampling air in a controlled environment, comprising: a housing body having a top and a side and an opening at the top of said housing body; a retaining assembly configured to retain a sampling dish or plate, said retaining assembly located at the top of said housing body; a plenum having a wall with a top end and a bottom end and a blower , said top end being coupled to the housing body such that said plenum is in flow communication with said opening; and a mass flow meter having an input at a top end and an output at a bottom end, the blower inside said plenum is configured to draw air down past the sampling dish or plate, through the opening of the housing body, through the plenum, and through the mass flow meter, characterized in that said mass flow meter is positioned immediately and directly below the bottom end of said plenum such that said input is coupled to the bottom end of said plenum and said input is in flow communication with said plenum. a housing body having a top and a side and an opening at the top of said housing body; a retaining assembly configured to retain a sampling dish or plate, said retaining assembly located at the top of said housing body; a plenum having a wall with a top end and a bottom end and a blower , said top end being coupled to the housing body such that said plenum is in flow communication with said opening; and a mass flow meter having an input at a top end and an output at a bottom end, the blower inside said plenum is configured to draw air down past the sampling dish or plate, through the opening of the housing body, through the plenum, and through the mass flow meter,