mhurhangee/ep-ind-claims huggingface dataset:
A car panel for an elevator car in an elevator system, the elevator system including a hoistway, the car panel comprising: a lower portion, the lower portion attached to a floor of the elevator car; and an upper portion, the upper portion attached to a side panel by a hinge, the hinge allowing the upper portion to displace, with respect to the lower portion, by rotating the upper portion inwardly about the hinge towards an interior space of the elevator car, displacement of the upper portion, with respect to the lower portion, from rotating the upper portion inwardly about the hinge providing ingress to the hoistway; wherein an electronic control component associated with the elevator system is integrated within the upper portion; characterized in that the electronic control component associated with the elevator system includes a user control element provided on an inward facing surface of the car panel and electronics associated with the user control element. a lower portion, the lower portion attached to a floor of the elevator car; and an upper portion, the upper portion attached to a side panel by a hinge, the hinge allowing the upper portion to displace, with respect to the lower portion, by rotating the upper portion inwardly about the hinge towards an interior space of the elevator car, displacement of the upper portion, with respect to the lower portion, from rotating the upper portion inwardly about the hinge providing ingress to the hoistway; wherein an electronic control component associated with the elevator system is integrated within the upper portion; characterized in that the electronic control component associated with the elevator system includes a user control element provided on an inward facing surface of the car panel and electronics associated with the user control element.
A fusion-bondable surface fastener which comprises a surface fastener and a fusion-bondable film partly fixed to the surface fastener, wherein the surface fastener comprises a base fabric made of a knitted or woven fabric and fastening elements outwardly extending from the base fabric; the fusion-bondable surface fastener has a region A in which the fastening elements are overlaid with the fusion-bondable film and the fusion-bondable film is fusion-bonded to the surface fastener; a region B in which the fastening elements are overlaid with the fusion-bondable film and the fusion-bondable film is not fusion-bonded to the surface fastener; and a region C in which the fastening elements are not overlaid with the fusion-bondable film; and the region A and the region B forms a fusion-bondable area.
A biosensing device comprising: a substrate; at least one electrically conductive lead on the substrate; an insulating layer covering the lead, the insulating layer having an aperture defining a space in which a portion of the lead is exposed; and a nanostructured microelectrode deposited within the aperture, wherein the microelectrode is adapted by means of an electrocatalytic reporter system to generate a charge in response to a biomolecular stimulus, wherein: the nanostructured microelectrode is capable of presenting a biomolecular probe at the surface thereof, and the nanostructured microelectrode is in electrical contact with the exposed portion of the lead. a substrate; at least one electrically conductive lead on the substrate; an insulating layer covering the lead, the insulating layer having an aperture defining a space in which a portion of the lead is exposed; and a nanostructured microelectrode deposited within the aperture, wherein the microelectrode is adapted by means of an electrocatalytic reporter system to generate a charge in response to a biomolecular stimulus, wherein: the nanostructured microelectrode is capable of presenting a biomolecular probe at the surface thereof, and the nanostructured microelectrode is in electrical contact with the exposed portion of the lead. the nanostructured microelectrode is capable of presenting a biomolecular probe at the surface thereof, and the nanostructured microelectrode is in electrical contact with the exposed portion of the lead.
A method of acquiring telemetry data in an acoustic communications network that includes a plurality of acoustic communication nodes (106; 202-214) deployed in a wellbore extending from a surface into a hydrocarbon-producing formation, comprising: gathering, by a first acoustic communication node (106; 208; 210; 214), a downhole data set corresponding to a measured parameter of interest; defining a target data set desired at the surface, wherein the target data set is a subset of the downhole data set; defining performance limitations of the acoustic communications network; automatically optimizing acquisition of an actual data set from the downhole data set to transmit to the surface, wherein the actual data set is an optimal data set that best matches the target data set given the performance limitations of the acoustic communication network; and receiving the actual data set at the surface. gathering, by a first acoustic communication node (106; 208; 210; 214), a downhole data set corresponding to a measured parameter of interest; defining a target data set desired at the surface, wherein the target data set is a subset of the downhole data set; defining performance limitations of the acoustic communications network; automatically optimizing acquisition of an actual data set from the downhole data set to transmit to the surface, wherein the actual data set is an optimal data set that best matches the target data set given the performance limitations of the acoustic communication network; and receiving the actual data set at the surface.
An aqueous modified acid composition comprising: - a mineral acid; - an amino acid; and - an alkanolamine selected from the group consisting of: monoethanolamine; diethanolamine; triethanolamine and combinations thereof; wherein the mineral acid: alkanolamine/amino acid are present in a molar ratio ranging from 3:1 to 12:1. - a mineral acid; - an amino acid; and - an alkanolamine selected from the group consisting of: monoethanolamine; diethanolamine; triethanolamine and combinations thereof;
Container with lid, wherein the container and/or lid are preferably formed as plastic parts, wherein the container has a peripheral lateral wall forming an upper container rim and a container opening, and a container bottom, wherein the container and the lid have mutually corresponding locking rims (7, 8) for fixing the lid to the container in a locking manner, wherein the upper container rim is formed as a sealing rim and wherein the upper container rim is connected to a sealing film sealing the container opening, characterized in that the container has a peripheral flange on the outer side of the lateral wall which is provided with a deflectable lever strap by the pivoting thereof the lid can be detached from the container at least partially, and that the flange having the lever strap is molded to the sealing rim.
A method of making a self-sealing pneumatic tire, the tire having a tread width and a radially innermost surface having a residue deposited thereon, the method comprising the steps of: activating a laser to generate laser radiation; directing a pulse of laser radiation to impinge on an area of the innermost surface, the pulse of radiation having a pulse width and a fluence sufficient to remove at least part of the residue in the area to form a cleaned area; repeating the step of directing the pulse of radiation sequentially over the innermost surface to form a sequence of cleaned areas, the sequence of cleaned areas defining a stripe (14, 114), the stripe (14, 114) following a continuous nonlinear path extending at least one circumference about the innermost surface, the stripe (114, 114) having a stripe width; and applying a bead of sealant or a sealant layer in a continuous path extending at least one circumference about the innermost surface, the bead of sealant or the sealant layer at least partially overlaying the stripe (14, 114). activating a laser to generate laser radiation; directing a pulse of laser radiation to impinge on an area of the innermost surface, the pulse of radiation having a pulse width and a fluence sufficient to remove at least part of the residue in the area to form a cleaned area; repeating the step of directing the pulse of radiation sequentially over the innermost surface to form a sequence of cleaned areas, the sequence of cleaned areas defining a stripe (14, 114), the stripe (14, 114) following a continuous nonlinear path extending at least one circumference about the innermost surface, the stripe (114, 114) having a stripe width; and applying a bead of sealant or a sealant layer in a continuous path extending at least one circumference about the innermost surface, the bead of sealant or the sealant layer at least partially overlaying the stripe (14, 114).
A method for fabricating a ceramic core shell casting mold of a turbine blade or a stator vane, comprising: (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic core shell casting mold is formed, the ceramic core shell casting mold comprising a main core portion, a tip plenum core floating above and disconnected from the main core portion, and a shell portion with at least one cavity between the main core portion and the shell portion, the cavity adapted to define the shape of a cast component upon casting and removal of the ceramic core shell casting mold, and at least one core print filament for holding the tip plenum core in place, the at least one core print filament connecting the tip plenum core and the shell portion. (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic core shell casting mold is formed, the ceramic core shell casting mold comprising a main core portion, a tip plenum core floating above and disconnected from the main core portion, and a shell portion with at least one cavity between the main core portion and the shell portion, the cavity adapted to define the shape of a cast component upon casting and removal of the ceramic core shell casting mold, and
Hay-making machine consisting of a frame to which is attached at least one working rotor that can be operated so as to rotate about an axis, is supported towards the ground by means of at least one wheel arranged thereunder, and comprises rotary arms on which tines for processing harvested material are arranged in each case, at least one rotary arm comprising at least one element that compensates for an offset and/or tiers on the rotary arm resulting from the mounting of the tines, characterised in that the element is designed as a ring, it being possible to slide the ring onto the rotary arm before the tines are mounted and to guide the ring up to the tines after said tines are mounted, and the ring tapering conically towards the rotor centre and having an outside diameter towards the tines that is at least similar to the outside diameter of the tine windings.
A method of monitoring a high-lift system on an aircraft having a first drive station (201, 202, 203, or 204) installed on a first side of a flap (114 or 115) and a second drive station (201, 202, 203, or 204) installed on a second side of the flap, the method comprising: monitoring a current draw (I1, I2, I3, or I4) of the first drive station for actuating the flap; identifying an expected current draw of the first drive station; comparing the monitored current draw of the first drive station to the expected current draw of the first drive station to determine if a differential between the monitored current draw and the expected current draw exceeds a first threshold; and generating a failure signal if the differential between the monitored current draw and the expected current draw exceeds the first threshold. monitoring a current draw (I1, I2, I3, or I4) of the first drive station for actuating the flap; identifying an expected current draw of the first drive station; comparing the monitored current draw of the first drive station to the expected current draw of the first drive station to determine if a differential between the monitored current draw and the expected current draw exceeds a first threshold; and generating a failure signal if the differential between the monitored current draw and the expected current draw exceeds the first threshold.
A method in a mobile device to estimate a location, the method comprising: sending an assistance data request to a location server; determining a transmission rate between the mobile device and the location server is less than a threshold; sending a rough location estimate request to a server based on the transmission rate being less than the threshold, wherein the rough location estimate request comprises mobile device sensor measurements; receiving a rough location estimate in response to sending the rough location estimate request; bootstrapping an estimator in the mobile device with the rough location estimate resulting in a bootstrapped estimator; receiving assistance data in response to the assistance data request; loading the bootstrapped estimator with the assistance data; and determining a location estimate of the mobile device from the bootstrapped estimator. sending an assistance data request to a location server; determining a transmission rate between the mobile device and the location server is less than a threshold; sending a rough location estimate request to a server based on the transmission rate being less than the threshold, wherein the rough location estimate request comprises mobile device sensor measurements; receiving a rough location estimate in response to sending the rough location estimate request; bootstrapping an estimator in the mobile device with the rough location estimate resulting in a bootstrapped estimator; receiving assistance data in response to the assistance data request; loading the bootstrapped estimator with the assistance data; and determining a location estimate of the mobile device from the bootstrapped estimator.
An intake control system for a multi-cylinder internal combustion engine, comprising: a manifold having a plurality intake ports (204(a)-204(f)); and an inner frame assembly having a main body with a plurality of recessions and a plurality of flapper valves (102(a)-102(f)) that are each positioned within respective recessions, wherein the manifold is configured to receive the inner frame assembly and a plurality of intake runners (104(a)-104(f)) corresponding to the plurality of intake ports (204(a)-204(f)) are defined by the recessions and the manifold when the inner frame assembly is inserted into the manifold, said intake control system being characterized in that said flapper valves (102(a)-102(f)) are each coupled to the inner frame assembly by upper (108(a),108(b), 110(a), 110(b), 112(a),112(b)) and lower (138(a), 138(b)) mechanical links. a manifold having a plurality intake ports (204(a)-204(f)); and an inner frame assembly having a main body with a plurality of recessions and a plurality of flapper valves (102(a)-102(f)) that are each positioned within respective recessions, wherein the manifold is configured to receive the inner frame assembly and a plurality of intake runners (104(a)-104(f)) corresponding to the plurality of intake ports (204(a)-204(f)) are defined by the recessions and the manifold when the inner frame assembly is inserted into the manifold, said intake control system being characterized in that said flapper valves (102(a)-102(f)) are each coupled to the inner frame assembly by upper (108(a),108(b), 110(a), 110(b), 112(a),112(b)) and lower (138(a), 138(b)) mechanical links.
A process of producing a fermentation product, comprising: (a) treating a starch-containing material with an amino acid oxidase, an arginase, and/or an asparaginase; (b) liquefying the treated starch-containing material to a dextrin with an alpha-amylase; (c) saccharifying the dextrin to a sugar with a saccharifying enzyme; and (d) fermenting the sugar using a fermenting organism to produce the fermentation product. (a) treating a starch-containing material with an amino acid oxidase, an arginase, and/or an asparaginase; (b) liquefying the treated starch-containing material to a dextrin with an alpha-amylase; (c) saccharifying the dextrin to a sugar with a saccharifying enzyme; and (d) fermenting the sugar using a fermenting organism to produce the fermentation product.
A portable electronic device, comprising: a housing defining an internal volume; a set of temperature sensors (340A-E) disposed in the internal volume; and a processor disposed in the internal volume, the processor connected to the set of temperature sensors, the processor configured to: determine a type of environment external to the housing; select a first temperature sensor and a second temperature sensor from the set of temperature sensors; assign a first weight to a first signal provided by the first sensor to generate a first weighted signal, wherein a magnitude of the first weight is based on at least the type of environment external to the housing; assign a second weight to a second signal provided by the second sensor to generate a second weighted signal, wherein a magnitude of the second weight is based on at least the type of environment external to the housing; and determine an estimated temperature of the environment based at least in part on the first and second weighted signals. a housing defining an internal volume; a set of temperature sensors (340A-E) disposed in the internal volume; and a processor disposed in the internal volume, the processor connected to the set of temperature sensors, the processor configured to: determine a type of environment external to the housing; select a first temperature sensor and a second temperature sensor from the set of temperature sensors; assign a first weight to a first signal provided by the first sensor to generate a first weighted signal, wherein a magnitude of the first weight is based on at least the type of environment external to the housing; assign a second weight to a second signal provided by the second sensor to generate a second weighted signal, wherein a magnitude of the second weight is based on at least the type of environment external to the housing; and determine an estimated temperature of the environment based at least in part on the first and second weighted signals. determine a type of environment external to the housing; select a first temperature sensor and a second temperature sensor from the set of temperature sensors; assign a first weight to a first signal provided by the first sensor to generate a first weighted signal, wherein a magnitude of the first weight is based on at least the type of environment external to the housing; assign a second weight to a second signal provided by the second sensor to generate a second weighted signal, wherein a magnitude of the second weight is based on at least the type of environment external to the housing; and determine an estimated temperature of the environment based at least in part on the first and second weighted signals.
A vehicle onboard control apparatus for charging an energy storage apparatus mounted on a vehicle, with electrical energy supplied through a charging cable from a power source external to the vehicle, the control apparatus comprising: a power control unit adapted to turn on a charging mode signal when a state of a signal changes from a state with no change for a certain period of time to a state with a change, to activate a charging control unit, and to turn off the charging mode signal when detecting a charging completion signal characterized in that said charging completion signal is turned on by the charging control unit, the signal whose state changes from a state with no change for a certain period of time to a state with a change being outputted from a signal generating unit included in the charging cable and being according to a state of electrical energy supply from the power source; and the charging control unit adapted to charge the energy storage apparatus through the charging cable when detecting the charging mode signal which is turned on by the power control unit, and to turn on the charging completion signal when the charging has been completed, and thereafter to turn off the charging completion signal when detecting that the charging mode signal has been turned off by the power control unit. a power control unit adapted to turn on a charging mode signal when a state of a signal changes from a state with no change for a certain period of time to a state with a change, to activate a charging control unit, and to turn off the charging mode signal when detecting a charging completion signal characterized in that said charging completion signal is turned on by the charging control unit, the signal whose state changes from a state with no change for a certain period of time to a state with a change being outputted from a signal generating unit included in the charging cable and being according to a state of electrical energy supply from the power source; and the charging control unit adapted to charge the energy storage apparatus through the charging cable when detecting the charging mode signal which is turned on by the power control unit, and to turn on the charging completion signal when the charging has been completed, and thereafter to turn off the charging completion signal when detecting that the charging mode signal has been turned off by the power control unit.
A homogeneous aqueous fluid comprising: discrete carbon nanotubes comprising oxygen moieties in a weight range of 0.5 to 8% by weight of the carbon nanotube; and at least one surfactant, wherein 0.6 ≤ V ∗ (L/D) ≤ 3, wherein V is the volume fraction, L is the average length of the carbon nanotube in nanometers, D is the average diameter of the carbon nanotube in nanometers, and wherein the fluid has a viscosity less than 3 Poise at 25 °C. discrete carbon nanotubes comprising oxygen moieties in a weight range of 0.5 to 8% by weight of the carbon nanotube; and at least one surfactant, wherein 0.6 ≤ V ∗ (L/D) ≤ 3, wherein V is the volume fraction, L is the average length of the carbon nanotube in nanometers, D is the average diameter of the carbon nanotube in nanometers, and wherein the fluid has a viscosity less than 3 Poise at 25 °C.