mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining an installation pose of a vehicle inertial sensor system in a vehicle using smartglasses that are movable in the vehicle, comprising the following steps: - determining (S1) a glasses pose of the smartglasses using a vehicle-fixed tracking system in order to obtain an absolute glasses pose (P) in a vehicle coordinate system at various times; - detecting (S2) acceleration information of the vehicle externally to the glasses by way of the vehicle inertial sensor system; - detecting (S3) glasses acceleration information by way of a glasses inertial sensor system in the smartglasses ; and the method is characterized by the further step of: - determining (S4) the installation pose of the vehicle inertial sensor system on the basis of the absolute glasses poses (P), the acceleration information of the smartglasses and the acceleration information of the vehicle. - determining (S1) a glasses pose of the smartglasses using a vehicle-fixed tracking system in order to obtain an absolute glasses pose (P) in a vehicle coordinate system at various times; - detecting (S2) acceleration information of the vehicle externally to the glasses by way of the vehicle inertial sensor system; - detecting (S3) glasses acceleration information by way of a glasses inertial sensor system in the smartglasses ; and - determining (S4) the installation pose of the vehicle inertial sensor system on the basis of the absolute glasses poses (P), the acceleration information of the smartglasses and the acceleration information of the vehicle.
Covering element for a floor, wall or ceiling covering or for use as a furniture component, in particular a panel body or a foil, having a carrier layer and having at least one functional layer , wherein at least one negative mask layer is provided for compensating for projecting contours , in particular a printed circuit, of the functional layer , wherein the negative mask layer has at least one recess for receiving projecting contours of the functional layer , and wherein the negative mask layer is formed at least partially by a part of the carrier layer , characterized in that the carrier layer has at least one milled and/or cut recess for receiving projecting contours of the functional layer .
A method comprising: configuring an aperiodic interference measurement, IM, resource of a user equipment, UE , wherein the aperiodic IM resource is based on channel state information, CSI,-reference signal, RS, CSI-RS, wherein the CSI-RS is a zero power CSI-RS, ZP CSI-RS, or a non-zero power CSI-RS, NZP CSI-RS, wherein the UE assumes the same Rx beam to be used for both, interference measurement and channel measurement, and characterized in that if a time offset between a downlink control information, DCI, triggering the CSI-RS, and the CSI-RS based aperiodic IM resource is smaller than a threshold, the UE applies a default spatial assumption for interference measurement, and if said time offset is larger than certain threshold, the UE applies the Rx beam as indicated for interference measurement. configuring an aperiodic interference measurement, IM, resource of a user equipment, UE , wherein the aperiodic IM resource is based on channel state information, CSI,-reference signal, RS, CSI-RS, wherein the CSI-RS is a zero power CSI-RS, ZP CSI-RS, or a non-zero power CSI-RS, NZP CSI-RS, wherein the UE assumes the same Rx beam to be used for both, interference measurement and channel measurement, and characterized in that if a time offset between a downlink control information, DCI, triggering the CSI-RS, and the CSI-RS based aperiodic IM resource is smaller than a threshold, the UE applies a default spatial assumption for interference measurement, and if said time offset is larger than certain threshold, the UE applies the Rx beam as indicated for interference measurement.
A method of installing a wind turbine generator onto a floating foundation , comprising: pre-ballasting a floating foundation to float at a predetermined vertical position before installation of a wind turbine generator component onto the floating foundation; bringing a wind turbine generator component towards the floating foundation until direct or indirect contact is made with the floating foundation; and removing ballast from the floating foundation to increase the buoyancy of the floating foundation such that weight of the wind turbine generator component supported by the floating foundation is increased from substantially zero to substantially the entire weight of the wind turbine generator component, wherein the wind turbine generator component is initially supported by lifting equipment and is lowered by the lifting equipment towards the floating foundation and the vertical position of the floating foundation is substantially unchanged during transferring weight of the wind turbine generator component onto the floating foundation, where the lifting equipment is a crane, or a hoist, preferably the lifting equipment includes a tension line , such as a crane cable, characterised in that the method further comprises maintaining the floating foundation at a substantially constant attitude during installation of the wind turbine generator component onto the floating foundation. pre-ballasting a floating foundation to float at a predetermined vertical position before installation of a wind turbine generator component onto the floating foundation; bringing a wind turbine generator component towards the floating foundation until direct or indirect contact is made with the floating foundation; and removing ballast from the floating foundation to increase the buoyancy of the floating foundation such that weight of the wind turbine generator component supported by the floating foundation is increased from substantially zero to substantially the entire weight of the wind turbine generator component, wherein the wind turbine generator component is initially supported by lifting equipment and is lowered by the lifting equipment towards the floating foundation and the vertical position of the floating foundation is substantially unchanged during transferring weight of the wind turbine generator component onto the floating foundation, where the lifting equipment is a crane, or a hoist, preferably the lifting equipment includes a tension line , such as a crane cable, characterised in that the method further comprises maintaining the floating foundation at a substantially constant attitude during installation of the wind turbine generator component onto the floating foundation.
A method for purifying P 1 ,P 4 -di(uridine 5'-)tetraphosphate by removing iron ions from an aqueous solution or hydrophilic solvent solution containing P 1 ,P 4 -di(uridine 5'-)tetraphosphate and iron ions, comprising a step of purification using a chelating resin packed column, and a step of adjusting the pH of the solution after said purification step using the chelating resin packed column to 5.5 or less, and then crystallizing P 1 ,P 4 -di(uridine 5'-)tetraphosphate, or a step of treating the solution after said purification step using the chelating resin packed column with zinc chloride-activated activated carbon. a step of purification using a chelating resin packed column, and a step of adjusting the pH of the solution after said purification step using the chelating resin packed column to 5.5 or less, and then crystallizing P 1 ,P 4 -di(uridine 5'-)tetraphosphate, or a step of treating the solution after said purification step using the chelating resin packed column with zinc chloride-activated activated carbon.
A tank system comprising a vessel for receiving a two-phase mixture of cryogenic gas and cryogenic liquid , a pressure sensor for measuring the vessel pressure, and an extraction line for cryogenic gas originating from a top region of the vessel for feeding a consumer (M), a first heating element arranged inside the vessel , and a switching element connected to the pressure sensor and controlling the first heating element , which switching element can be switched between a first switching state, in which the first heating element is activated, and a second switching state, in which the first heating element is deactivated, wherein the switching element adopts the first switching state when the measured vessel pressure is below a predetermined threshold value and adopts the second switching state when the measured vessel pressure is above the threshold value, further comprising a second heating element through which the extraction line is passed, and a heating line that branches off from the extraction line at a branch-off downstream of the second heating element and that discharges into the extraction line at a junction downstream of the branch-off , wherein the first heating element is a heating body through which the heating line is passed, characterized in that either the switching element is a switching valve arranged in the heating line and a throttle is arranged in the extraction line between the branch-off and the junction , or the switching element is a switching valve arranged in the extraction line between the branch-off and the junction and a throttle is arranged in the heating line . further comprising a second heating element through which the extraction line is passed, and a heating line that branches off from the extraction line at a branch-off downstream of the second heating element and that discharges into the extraction line at a junction downstream of the branch-off , wherein the first heating element is a heating body through which the heating line is passed, characterized in that either the switching element is a switching valve arranged in the heating line and a throttle is arranged in the extraction line between the branch-off and the junction , or the switching element is a switching valve arranged in the extraction line between the branch-off and the junction and a throttle is arranged in the heating line .
An emergency lighting block comprising a case including a wall internally delimiting an accommodating housing for at least one light source and an electronic driving circuit for said light source, said case including at least a first cable inlet opening provided in the wall of said case for the passage of a cable allowing to connect said light source to a local electrical supply network, characterized in that said first cable inlet opening opens into a receptacle located within said case, said receptacle being opened towards said accommodating housing with a second cable inlet opening that is located facing to said first cable inlet opening , said first and second cable inlet openings being sealed by first and second breakable membranes made of flexible material , respectively.
A flexible graphite sheet support structure (100;200;400) comprising: a first support member ; a second support member spaced apart from the first support member, wherein one of the first and second support members is adapted for movement relative to the other; and a flexible graphite sheet secured to the first and second support members for transferring heat across a span between the first and second spaced apart support members, the flexible graphite sheet having a free standing curve-shaped flex accommodating section extending between the spaced apart support members, wherein the flex accommodating section is bell curve-shaped having a central curved portion disposed between oppositely disposed outwardly facing concave curved portions . a first support member ; a second support member spaced apart from the first support member, wherein one of the first and second support members is adapted for movement relative to the other; and a flexible graphite sheet secured to the first and second support members for transferring heat across a span between the first and second spaced apart support members, the flexible graphite sheet having a free standing curve-shaped flex accommodating section extending between the spaced apart support members, wherein the flex accommodating section is bell curve-shaped having a central curved portion disposed between oppositely disposed outwardly facing concave curved portions .
A device of detecting a current from a sensor , the device comprising: an integrating circuit including a network of capacitors for providing a gain setting and configured to convert the current to a voltage ramp over a length of integration time, the integrating circuit further including a reset switch configured to connect an input and an output of the network of capacitors when the reset switch is turned on; an analog-to-digital converter (ADC) configured to digitize the voltage ramp into a plurality of voltage samples; a set of modules including an analyzing module that is configured to analyze the plurality of voltage samples to determine a slope of the voltage ramp; an outputting module that is configured to determine a magnitude of the current based on the slope of the voltage ramp and the gain setting; a determining module that is configured to determine an out-of-range (OOR) state based on the voltage ramp; and a reconfiguring module that is configured to reconfigure the network of capacitors according to the OOR state and reset the voltage ramp via the reset switch, characterized in that the OOR state includes values below a noise floor and above a saturation threshold. an integrating circuit including a network of capacitors for providing a gain setting and configured to convert the current to a voltage ramp over a length of integration time, the integrating circuit further including a reset switch configured to connect an input and an output of the network of capacitors when the reset switch is turned on; an analog-to-digital converter (ADC) configured to digitize the voltage ramp into a plurality of voltage samples; a set of modules including an analyzing module that is configured to analyze the plurality of voltage samples to determine a slope of the voltage ramp; an outputting module that is configured to determine a magnitude of the current based on the slope of the voltage ramp and the gain setting; a determining module that is configured to determine an out-of-range (OOR) state based on the voltage ramp; and a reconfiguring module that is configured to reconfigure the network of capacitors according to the OOR state and reset the voltage ramp via the reset switch, characterized in that the OOR state includes values below a noise floor and above a saturation threshold.
A Verres needle comprising: a housing ; a first port attached to the housing for receiving a first fluid; a first chamber connected to the first port and positioned within the housing, wherein the first chamber has an opening that is in fluid communication with and ending at a target area; a second port attached to said housing for receiving a second fluid; and a second chamber connected to the second port and positioned within the housing, wherein the second chamber has an opening that is in fluid communication with and ending at the target area, the first chamber and the second chamber are permanently not in fluid communication with one another and simultaneously are in fluid communication with the target area, characterized in that the first and the second chamber comprise separate and non-intersecting tubes such that the Verres needle is able to receive a medical instrument and/or a monitor device supplied to the target area via at least one of the first and the second chamber, while the first and the second chamber are configured to allow the passage of the first and the second fluid, respectively. a housing ; a first port attached to the housing for receiving a first fluid; a first chamber connected to the first port and positioned within the housing, wherein the first chamber has an opening that is in fluid communication with and ending at a target area; a second port attached to said housing for receiving a second fluid; and a second chamber connected to the second port and positioned within the housing, wherein the second chamber has an opening that is in fluid communication with and ending at the target area, the first chamber and the second chamber are permanently not in fluid communication with one another and simultaneously are in fluid communication with the target area, characterized in that the first and the second chamber comprise separate and non-intersecting tubes such that the Verres needle is able to receive a medical instrument and/or a monitor device supplied to the target area via at least one of the first and the second chamber, while the first and the second chamber are configured to allow the passage of the first and the second fluid, respectively.
A reduced pressure dressing for applying reduced pressure treatment to a tissue site, the reduced pressure dressing comprising: an interface layer adapted to be positioned at the tissue site ; an absorbent layer in fluid communication with the interface layer to absorb liquid from at least one of the interface layer and the tissue site ; a pump in fluid communication with the absorbent layer to deliver a reduced pressure to the tissue site ; and a liquid-air separator positioned between the absorbent layer and the pump to inhibit liquid from entering the pump ; characterised by a cover positioned over the pump , the absorbent layer , and the interface layer to maintain the reduced pressure at the tissue site ; and in that air or other gas from the pump is exhausted through a gas-permeable portion of the cover . an interface layer adapted to be positioned at the tissue site ; an absorbent layer in fluid communication with the interface layer to absorb liquid from at least one of the interface layer and the tissue site ; a pump in fluid communication with the absorbent layer to deliver a reduced pressure to the tissue site ; and a liquid-air separator positioned between the absorbent layer and the pump to inhibit liquid from entering the pump ; characterised by a cover positioned over the pump , the absorbent layer , and the interface layer to maintain the reduced pressure at the tissue site ; and in that air or other gas from the pump is exhausted through a gas-permeable portion of the cover .
A method of controlling a wind turbine , the wind turbine comprising a wind direction sensor, a yawing system, and a control system for turning the wind turbine rotor relative to the wind, the method comprising: - pre-setting a number of intervals of a wind power parameter, the wind power parameter determined as one of a power, a torque, or a blade load of the wind turbine; - obtaining at time intervals a data set comprising a direction of the wind relative to the wind turbine as measured by the wind direction sensor and a wind power parameter ; - obtaining over time a group of data sets for each wind power parameter interval; - determining for each wind power parameter interval a statistical representation of the wind power parameter as a function of the relative wind direction based on the group of data sets for that interval ; wherein the statistical representations are determined independently of the wind speed; - estimating for each wind power parameter interval and each statistical representation a wind direction offset of that interval , the wind direction offset corresponding to the relative wind direction where the wind power parameter attains a peak value; - adjusting the relative wind direction as a function of the wind direction offset of the different wind power parameter intervals ; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction ; and - controlling the wind turbine according to the control parameter . - pre-setting a number of intervals of a wind power parameter, the wind power parameter determined as one of a power, a torque, or a blade load of the wind turbine; - obtaining at time intervals a data set comprising a direction of the wind relative to the wind turbine as measured by the wind direction sensor and a wind power parameter ; - obtaining over time a group of data sets for each wind power parameter interval; - determining for each wind power parameter interval a statistical representation of the wind power parameter as a function of the relative wind direction based on the group of data sets for that interval ; wherein the statistical representations are determined independently of the wind speed; - estimating for each wind power parameter interval and each statistical representation a wind direction offset of that interval , the wind direction offset corresponding to the relative wind direction where the wind power parameter attains a peak value; - adjusting the relative wind direction as a function of the wind direction offset of the different wind power parameter intervals ; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction ; and - controlling the wind turbine according to the control parameter .
A clamping device , in particular for use with an installation device , comprising a first component having an internal thread and having a side which forms a first clamping surface either directly or indirectly via a separate part; a second component which has an internal thread and an external thread and which is axially displaceably but rotationally fixedly attachable to the first component , with the respective internal threads of the first component and of the second component being designed to be jointly fastened in a vertically adjustable manner or with an adjustable spacing to a carrier by means of a bolt element having an external thread ; and a counter nut which can be screwed onto the external thread of the second component and whose side facing the first-named clamping surface forms a second clamping surface either directly or indirectly via a second part , with the first and second mutually facing clamping surfaces being designed for the clamping reception of an article or of the clamping region of the installation device .
A borescope system comprising a borescope inspection housing ; an electromagnetic radiation emission system associated with the borescope inspection housing , wherein the electromagnetic radiation emission system is configured to emit electromagnetic radiation ; a filter located inside of the borescope inspection housing , wherein the filter has a multilayered wedge shape and is configured to pass a number of wavelengths in a response to the electromagnetic radiation directed at a surface on a structure such that different wavelengths are passed over different sections of the filter , wherein the response is received through an opening in the borescope inspection housing ; and a sensor array located behind the filter inside of the borescope inspection housing , wherein the sensor array comprises sensors configured to generate data from the number of wavelengths passed by the filter , enabling a hyperspectral analysis of the surface on the structure and wherein the borescope inspection housing , the electromagnetic radiation emission system , the filter , and the sensor array together form a borescope inspection head .
A composition for use in treating gastric cancer or lung cancer comprising an inhibitor for inhibiting the expression of immunoglobulin superfamily member 1 (IGSF1) gene (NM_001555.2) or the expression or activity of its protein.