mhurhangee/patent-ind-claim-en huggingface dataset:
A caliper-arm-position sensor comprising: (a) a compound coil comprising: (i) a first coil having a first end connection and a second end connection, and (ii) a second coil having a first end connection and a second end connection, (iii) wherein the second end connection of the first coil is electrically connected to the first end connection of the second coil; (b) a core positioned adjacent to the coil; (c) a caliper arm mechanically connected to the core; (d) a voltage driver (102, 104; 802, 804) having an alternating-voltage output signal electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; (e) an analog-to-digital converter (110; 810) electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; and (f) a timer (102; 802); characterised in that : the timer (102; 802) is provided with an output electrically connected to the analog-to-digital converter, wherein the output of the timer is configured to trigger sampling by the analog-to-digital converter at a predetermined period of time relative to a phase point of the alternating-voltage input signal. (a) a compound coil comprising: (i) a first coil having a first end connection and a second end connection, and (ii) a second coil having a first end connection and a second end connection, (iii) wherein the second end connection of the first coil is electrically connected to the first end connection of the second coil; (i) a first coil having a first end connection and a second end connection, and (ii) a second coil having a first end connection and a second end connection, (iii) wherein the second end connection of the first coil is electrically connected to the first end connection of the second coil; (b) a core positioned adjacent to the coil; (c) a caliper arm mechanically connected to the core; (d) a voltage driver (102, 104; 802, 804) having an alternating-voltage output signal electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; (e) an analog-to-digital converter (110; 810) electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; and (f) a timer (102; 802);
Method for producing a metal support structure for an electrode , wherein the support structure is formed from flat material portions of an expanded metal grid or wire mesh having openings , wherein at least two flat material portions are welded together in a corresponding edge region , comprising the following steps: working the edge regions of the flat material portions that are to be welded together by exerting pressure orthogonally on these edge regions , in particular by rolling or stamping, in order to at least almost break up an expanded metal structure or mesh structure by plastic deformation in the edge regions , so that the openings in the edge region are substantially closed by material deformation, arranging the flat material portions next to one another so that the worked edge regions of the flat material portions overlap one another or abut one another, and welding the overlapping or abutting edge regions together to obtain the support structure . working the edge regions of the flat material portions that are to be welded together by exerting pressure orthogonally on these edge regions , in particular by rolling or stamping, in order to at least almost break up an expanded metal structure or mesh structure by plastic deformation in the edge regions , so that the openings in the edge region are substantially closed by material deformation, arranging the flat material portions next to one another so that the worked edge regions of the flat material portions overlap one another or abut one another, and welding the overlapping or abutting edge regions together to obtain the support structure .
A method for operating a laundry dryer comprising a drum rotatably mounted inside a main body , a heater for heating air flowing into the drum , and a scent supply module for spraying scent into the drum , the scent supply module comprising a cartridge to store a scent solution therein, a spraying pump to allow the scent solution within the cartridge to be sprayed and flow along a connection hose and a nozzle connected to the connection hose to spray the scent solution flowed along the connection hose into the drum , the method comprising: a drying step of drying the laundry by supplying hot air heated by the heater ; a pre-treating step of tumbling the drum while supplying air with the heater off; and a scent treating step of spraying scent onto the laundry passed through the pre-treating step, characterized in that the drying step comprises a remnant scent removing step of removing scent, left in the spraying pump , the connection hose and the nozzle of the scent supply module after a previous scent treating step, by spraying scent into the drum from the scent supply module by driving the spraying pump of the scent supply module for a predetermined time after initiating the drying step. a drying step of drying the laundry by supplying hot air heated by the heater ; a pre-treating step of tumbling the drum while supplying air with the heater off; and a scent treating step of spraying scent onto the laundry passed through the pre-treating step, characterized in that the drying step comprises a remnant scent removing step of removing scent, left in the spraying pump , the connection hose and the nozzle of the scent supply module after a previous scent treating step, by spraying scent into the drum from the scent supply module by driving the spraying pump of the scent supply module for a predetermined time after initiating the drying step.
A base-station apparatus adapted to communicate with a terminal apparatus, the base-station apparatus comprising: higher layer processing circuitry adapted to configure, to the terminal apparatus, any one of predetermined information and CRS assistance information, wherein the predetermined information comprises information about a UL/DL configuration, the CRS assistance information comprises a cell ID and information about the number of antenna ports, the CRS assistance information is used to mitigate interference from a cell-specific reference signal, CRS, and in a case of configuring the predetermined information to the terminal apparatus, the higher layer processing circuitry does not configure the CRS assistance information to the terminal apparatus. the predetermined information comprises information about a UL/DL configuration, the CRS assistance information comprises a cell ID and information about the number of antenna ports, the CRS assistance information is used to mitigate interference from a cell-specific reference signal, CRS, and in a case of configuring the predetermined information to the terminal apparatus, the higher layer processing circuitry does not configure the CRS assistance information to the terminal apparatus.
A monitoring device positioned to monitor a cargo hold of a transport vehicle , comprising: an RF transceiver implementing a first wireless communication protocol; a processor; and memory storing machine-readable instructions that, when executed by the processor, cause the processor to: transmit a location of the monitoring device to a server of a tracking system including the monitoring device; receive, in response, an identifier of the transport vehicle nearest to the wireless monitoring device ; receive a wireless signal containing a tracking identifier from a wireless tracking tag attached to a logistic container being conveyed into the cargo hold of the transport vehicle ; determine a signal strength of the wireless signal; and transmit an alert to a network service when the signal strength indicates that the wireless tracking tag was not successfully loaded into the cargo hold of the transport vehicle . an RF transceiver implementing a first wireless communication protocol; a processor; and memory storing machine-readable instructions that, when executed by the processor, cause the processor to: transmit a location of the monitoring device to a server of a tracking system including the monitoring device; receive, in response, an identifier of the transport vehicle nearest to the wireless monitoring device ; receive a wireless signal containing a tracking identifier from a wireless tracking tag attached to a logistic container being conveyed into the cargo hold of the transport vehicle ; determine a signal strength of the wireless signal; and transmit an alert to a network service when the signal strength indicates that the wireless tracking tag was not successfully loaded into the cargo hold of the transport vehicle . transmit a location of the monitoring device to a server of a tracking system including the monitoring device; receive, in response, an identifier of the transport vehicle nearest to the wireless monitoring device ; receive a wireless signal containing a tracking identifier from a wireless tracking tag attached to a logistic container being conveyed into the cargo hold of the transport vehicle ; determine a signal strength of the wireless signal; and transmit an alert to a network service when the signal strength indicates that the wireless tracking tag was not successfully loaded into the cargo hold of the transport vehicle .
A truck comprising: an engine ; a cabin ; a conditioned space defined by a plurality of adjacent wall members including a front wall member ; and a transport refrigeration unit configured to control a temperature within the conditioned space , the transport refrigeration unit including: an evaporator unit mounted within the conditioned space ; and a condenser unit operably coupled to the evaporator unit and slidably mounted to an exterior surface of the front wall member such that the condenser unit is configured to move along an axis between an operating position and a clearance position; wherein the truck further comprises: a support bracket mounted to the exterior surface and configured to define a slide axis (A); a slide member coupled to the condenser unit , the slide member being generally complementary to the support bracket and configured to slidably couple to the support bracket for movement along the slide axis (A); characterized in that a device is coupled to the support bracket and to the slide member , the device being configured to move the slide member relative to the support bracket along the slide axis (A). an engine ; a cabin ; a conditioned space defined by a plurality of adjacent wall members including a front wall member ; and a transport refrigeration unit configured to control a temperature within the conditioned space , the transport refrigeration unit including: an evaporator unit mounted within the conditioned space ; and a condenser unit operably coupled to the evaporator unit and slidably mounted to an exterior surface of the front wall member such that the condenser unit is configured to move along an axis between an operating position and a clearance position; wherein the truck further comprises: a support bracket mounted to the exterior surface and configured to define a slide axis (A); a slide member coupled to the condenser unit , the slide member being generally complementary to the support bracket and configured to slidably couple to the support bracket for movement along the slide axis (A); characterized in that an evaporator unit mounted within the conditioned space ; and a condenser unit operably coupled to the evaporator unit and slidably mounted to an exterior surface of the front wall member such that the condenser unit is configured to move along an axis between an operating position and a clearance position; a support bracket mounted to the exterior surface and configured to define a slide axis (A); a slide member coupled to the condenser unit , the slide member being generally complementary to the support bracket and configured to slidably couple to the support bracket for movement along the slide axis (A); characterized in that
Method for the production of an electrostatic particle sensor which is designed to be used in an exhaust gas stream of an internal combustion engine, wherein the electrostatic particle sensor has at least one first electrode extending along a longitudinal axis and at least one second electrode which is at a distance from the first electrode and is arranged coaxially around the at least one first electrode , wherein the method comprises the steps of: - arranging at least one glass solder in a mould in such a way that the at least one glass solder extends radially from the at least one first electrode to the at least one second electrode , and the at least one first electrode is electrically insulated from the at least one second electrode , - arranging at least one insulating element in the mould in such a way that the at least one insulating element is in contact with at least one region of an axial side surface of the at least one glass solder , and - finish moulding the at least one glass solder into at least one glass insulator in such a way that the at least one glass insulator , together with the at least one insulating element , is positioned in a predetermined position relative to the at least one first electrode and the at least one second electrode , wherein the insulating element is designed to at least partially shape the at least one glass insulator during the finish moulding of the at least one glass insulator and to at least partially isolate the at least one glass insulator from the exhaust gas of the internal combustion engine during a measuring operation of the sensor . - arranging at least one glass solder in a mould in such a way that the at least one glass solder extends radially from the at least one first electrode to the at least one second electrode , and the at least one first electrode is electrically insulated from the at least one second electrode , - arranging at least one insulating element in the mould in such a way that the at least one insulating element is in contact with at least one region of an axial side surface of the at least one glass solder , and - finish moulding the at least one glass solder into at least one glass insulator in such a way that the at least one glass insulator , together with the at least one insulating element , is positioned in a predetermined position relative to the at least one first electrode and the at least one second electrode , wherein the insulating element is designed to at least partially shape the at least one glass insulator during the finish moulding of the at least one glass insulator and to at least partially isolate the at least one glass insulator from the exhaust gas of the internal combustion engine during a measuring operation of the sensor .
A recession resistant gas turbine engine article, comprising a silicon containing substrate coated with a chemically stable porous oxide layer, wherein said porous oxide layer is from about 1 mil to about 50 mils thick and wherein said porous oxide layer protects the substrate from recession in hot gaseous environments, wherein the substrate comprises a SiC--SiC ceramic matrix composite; wherein the porous oxide layer comprises a two phase mixture of an oxide and a silicon-containing compound; wherein the oxide comprises one or more or Rare Earth Disilicates (RE 2 Si 2 O 7 ), Alkaline Earth Aluminosilicates, and Rare Earth Monosilicates (RE 2 SiO 5 ); wherein an intermediate layer is used between the substrate and the oxide layer, to improve the structural integrity of the substrate with the porous layer, said intermediate layer comprising an oxide and a silicon or a silicon-containing compound, a two phase mixture of silicon or silicon carbide and Rare Earth Disilicate, or a two phase mixture of silicon nitride and a Rare Earth monosilicate.
A method for re-indexing a pitch bearing of a wind turbine , the pitch bearing operably coupled between a hub and a rotor blade , the pitch bearing having a fixed outer race and a rotatable inner race , the rotor blade having a root flange bolted onto the inner race , the method comprising: installing a plurality of first mounts to the fixed outer race of the pitch bearing ; positioning the rotor blade to a downwardly-oriented position; installing a hydraulic system between the inner race of the pitch bearing and the root flange of the rotor blade ; pressurizing the hydraulic system so as to support the weight of the rotor blade with the hydraulic system ; detaching the rotor blade from the pitch bearing with the hydraulic system pressurized; lowering the rotor blade a predetermined distance from the hub using the hydraulic system ; installing a plurality of second mounts on a root flange of the rotor blade ; attaching a plurality of supports between the first mounts and the second mounts , wherein the supports are one or a combination of chains and cables transferring the weight of the rotor blade from the hydraulic system to the plurality of supports ; disengaging the hydraulic system from the pitch bearing and the root flange of the rotor blade ; and re-indexing the pitch bearing so as to engage a new set of pitch bearing teeth. installing a plurality of first mounts to the fixed outer race of the pitch bearing ; positioning the rotor blade to a downwardly-oriented position; installing a hydraulic system between the inner race of the pitch bearing and the root flange of the rotor blade ; pressurizing the hydraulic system so as to support the weight of the rotor blade with the hydraulic system ; detaching the rotor blade from the pitch bearing with the hydraulic system pressurized; lowering the rotor blade a predetermined distance from the hub using the hydraulic system ; installing a plurality of second mounts on a root flange of the rotor blade ; attaching a plurality of supports between the first mounts and the second mounts , wherein the supports are one or a combination of chains and cables transferring the weight of the rotor blade from the hydraulic system to the plurality of supports ; disengaging the hydraulic system from the pitch bearing and the root flange of the rotor blade ; and re-indexing the pitch bearing so as to engage a new set of pitch bearing teeth.
Compositions and articles of manufacture producible therefrom characterized in that , based on A) 100 parts by mass of polybutylene terephthalate, said compositions comprise B) 0.5 to 34 parts by mass of polyethylene terephthalate, C) 0.5 to 34 parts by mass of at least one styrene-acrylonitrile copolymer, D) 10 to 200 parts by mass of at least one reinforcer and E) 0.01 to 30 parts by mass of at least one hydrolysis stabilizer, wherein epoxidized natural oils, epoxidized fatty acid esters or synthetic epoxidized compounds are employed as the hydrolysis stabilizer. B) 0.5 to 34 parts by mass of polyethylene terephthalate, C) 0.5 to 34 parts by mass of at least one styrene-acrylonitrile copolymer, D) 10 to 200 parts by mass of at least one reinforcer and E) 0.01 to 30 parts by mass of at least one hydrolysis stabilizer,
Humidity sensor of the capacitive type comprising, on a support : - a first electrode lying on the support , - a region of dielectric material disposed between said first electrode and a second electrode , the second electrode being formed by a layer based on a conductive material having a permeability to moisture greater to that of said region of dielectric material with which it is contact, said layer based on a conductive material being based on graphene, the first electrode , the region of dielectric material and the second electrode forming a moisture-dependent variable capacitance in the vicinity of an interface between the second electrode and the dielectric region . - a first electrode lying on the support , - a region of dielectric material disposed between said first electrode and a second electrode , the second electrode being formed by a layer based on a conductive material having a permeability to moisture greater to that of said region of dielectric material with which it is contact,
A heel patch for a heel of a shoe comprising a front patch surface adapted to the shape of the heel and a rear patch surface arranged in the initial stepping region, wherein at least the rear patch surface comprises rear profile grooves that are arranged parallel to one another and extend transversely to the walking direction, wherein the profile grooves have a groove depth of between 0.50 and 1.25 mm and a groove width of between 1.00 and 2.00 mm and are spaced apart from one another by between 1.00 and 2.00 mm and that the patch surface hardness is between 85 and 98° Shore A and/or between 35 and 45° Shore D, characterized in that the front patch surface has front profile grooves, whose groove width and/or groove distance is smaller than the groove width and/or groove distance of the rear profile grooves .
A bit loading control method in a multi-carrier wireless communication system for transferring data on a communication channel, which has a declining channel response with increasing frequency, the bit loading control method comprising: - sending (S701) by an apparatus a request for a test signal; - receiving (S702) by the apparatus the test signal from a remote device; - obtaining (S703) an estimated channel response of the communication channel over a plurality of subcarriers based on the received test signal; - determining (S704) according to the estimated channel response a bit loading scheme for allocating the plurality of subcarriers into one or more non-overlapping frequency segments, each comprising more than one adjacent subcarrier, and assigning to each of the frequency segments an individual modulation scheme that is shared by the more than one adjacent subcarrier, and wherein the individual shared modulation schemes are assigned in a monotonously reducing modulation order with increasing frequency. - sending (S701) by an apparatus a request for a test signal; - receiving (S702) by the apparatus the test signal from a remote device; - obtaining (S703) an estimated channel response of the communication channel over a plurality of subcarriers based on the received test signal; - determining (S704) according to the estimated channel response a bit loading scheme for allocating the plurality of subcarriers into one or more non-overlapping frequency segments, each comprising more than one adjacent subcarrier, and assigning to each of the frequency segments an individual modulation scheme that is shared by the more than one adjacent subcarrier, and wherein the individual shared modulation schemes are assigned in a monotonously reducing modulation order with increasing frequency.