mhurhangee/patent-ind-claim-en huggingface dataset:
A coating composition, comprising: a polyurethane binder resin system comprising: a first hydroxyl-functional polyester resin component with a hydroxyl number of 150 to 240, a second hydroxyl-functional polyester resin component with a hydroxyl number of 15 to 35, wherein the difference in hydroxyl number of the first and second resin components is 135 to 215, and wherein the first resin component and second resin component are present in a ratio of 1:1 to 1:4; and a hydroxyl-reactive crosslinker; wherein the coating composition comprises less than 5 wt% filler, based on the total weight of the composition; and wherein a cured coating formed from the coating composition has oleophobic and hydrophobic properties and has 60°-gloss of less than 5. a polyurethane binder resin system comprising: a first hydroxyl-functional polyester resin component with a hydroxyl number of 150 to 240, a second hydroxyl-functional polyester resin component with a hydroxyl number of 15 to 35, wherein the difference in hydroxyl number of the first and second resin components is 135 to 215, and wherein the first resin component and second resin component are present in a ratio of 1:1 to 1:4; and a hydroxyl-reactive crosslinker; a first hydroxyl-functional polyester resin component with a hydroxyl number of 150 to 240, a second hydroxyl-functional polyester resin component with a hydroxyl number of 15 to 35, wherein the difference in hydroxyl number of the first and second resin components is 135 to 215, and wherein the first resin component and second resin component are present in a ratio of 1:1 to 1:4; and a hydroxyl-reactive crosslinker; wherein the coating composition comprises less than 5 wt% filler, based on the total weight of the composition; and wherein a cured coating formed from the coating composition has oleophobic and hydrophobic properties and has 60°-gloss of less than 5.
Method for monitoring a power line that carries an electric current, using a mobile inspection device , wherein the mobile inspection device comprises a magnetic field sensor and a camera , said method comprising the following steps: measuring a magnetic field produced by the current, by means of the magnetic field sensor , and capturing an image of the power line by means of the camera on the basis of the measured magnetic field, wherein the electric current is an alternating current, characterized in that a phase and/or a frequency of the electric current is identified based on the measured magnetic field, the camera capturing the image based on the identified phase and/or the identified frequency. measuring a magnetic field produced by the current, by means of the magnetic field sensor , and capturing an image of the power line by means of the camera on the basis of the measured magnetic field, wherein the electric current is an alternating current, characterized in that a phase and/or a frequency of the electric current is identified based on the measured magnetic field, the camera capturing the image based on the identified phase and/or the identified frequency.
A base station comprising: communication means for receiving a first reference signal transmitted from a first base station and a second reference signal transmitted from a communication device different from the first base station ; and execution means for obtaining synchronization between the base station and the first base station based on the first and second reference signals, characterised in that the execution means is adapted to: obtain a first reception level of the first reference signal and a second reception level of the second reference signal; obtain a first receiving timing of the first reference signal and a second reception timing of the second reference signal; calculate a combined receiving timing by combining the first receiving timing with the second receiving timing while using the first and second reception levels as weighting coefficients, respectively, for the first and second receiving timing; and synchronize with the first base station based on the combined receiving timing. communication means for receiving a first reference signal transmitted from a first base station and a second reference signal transmitted from a communication device different from the first base station ; and execution means for obtaining synchronization between the base station and the first base station based on the first and second reference signals, characterised in that the execution means is adapted to: obtain a first reception level of the first reference signal and a second reception level of the second reference signal; obtain a first receiving timing of the first reference signal and a second reception timing of the second reference signal; calculate a combined receiving timing by combining the first receiving timing with the second receiving timing while using the first and second reception levels as weighting coefficients, respectively, for the first and second receiving timing; and synchronize with the first base station based on the combined receiving timing. obtain a first reception level of the first reference signal and a second reception level of the second reference signal; obtain a first receiving timing of the first reference signal and a second reception timing of the second reference signal; calculate a combined receiving timing by combining the first receiving timing with the second receiving timing while using the first and second reception levels as weighting coefficients, respectively, for the first and second receiving timing; and synchronize with the first base station based on the combined receiving timing.
A wound dressing , comprising: a moisture-transmissible backing layer having a first major surface , a second major surface , and a backing layer perimeter ; wherein the second major surface has a first hydrophobic adhesive disposed thereon proximate the backing layer perimeter; an absorbent hydrophilic adhesive adhered to at least a portion of the second major surface of the backing layer, the absorbent hydrophilic adhesive comprising an absorbent hydrophilic adhesive perimeter ; an antimicrobial agent disposed in the absorbent hydrophilic adhesive; a porous layer having a first side adhered to the absorbent hydrophilic adhesive, a second side , and a porous layer perimeter ; and a second hydrophobic adhesive adhered to the second side of the porous layer; wherein 100% of the absorbent hydrophilic adhesive perimeter is overlapped by the backing layer; wherein 100% of the porous layer perimeter is overlapped by the absorbent hydrophilic adhesive and the entire absorbent hydrophilic adhesive perimeter extends beyond the porous layer perimeter toward the backing layer perimeter, and wherein the absorbent hydrophilic adhesive comprises a swellable, crosslinked poly(N-vinyl lactam), a swelling agent and a modifying polymer present in an amount sufficient to form a cohesive, pressure-sensitive adhesive composition. a moisture-transmissible backing layer having a first major surface , a second major surface , and a backing layer perimeter ; wherein the second major surface has a first hydrophobic adhesive disposed thereon proximate the backing layer perimeter; an absorbent hydrophilic adhesive adhered to at least a portion of the second major surface of the backing layer, the absorbent hydrophilic adhesive comprising an absorbent hydrophilic adhesive perimeter ; an antimicrobial agent disposed in the absorbent hydrophilic adhesive; a porous layer having a first side adhered to the absorbent hydrophilic adhesive, a second side , and a porous layer perimeter ; and a second hydrophobic adhesive adhered to the second side of the porous layer; wherein 100% of the absorbent hydrophilic adhesive perimeter is overlapped by the backing layer; wherein 100% of the porous layer perimeter is overlapped by the absorbent hydrophilic adhesive and the entire absorbent hydrophilic adhesive perimeter extends beyond the porous layer perimeter toward the backing layer perimeter, and wherein the absorbent hydrophilic adhesive comprises a swellable, crosslinked poly(N-vinyl lactam), a swelling agent and a modifying polymer present in an amount sufficient to form a cohesive, pressure-sensitive adhesive composition.
Compound of formula I-3-1a-1 to I-3-1a-8, or formula I-3-1b-1 to I-3-1b-4 wherein Sp 21 denotes a single bond or a spacer group comprising 1 to 20 C atoms, wherein one or more non-adjacent and non-terminal CH 2 groups may also be replaced by -O-, -S-, -NH-, -N(CH 3 )-, -CO-, -O-CO-, -S-CO-, -O-COO-, -CO-S-, -CO-O-, -CF 2 -, -CF 2 O-, -OCF 2 - -C(OH)-, -CH(alkyl)-, -CH(alkenyl)-,-CH(alkoxyl)-, -CH(oxaalkyl)-, -CH=CH- or -C≡C-, however in such a way that no two O-atoms are adjacent to one another and no two groups selected from -O-CO-, -S-CO-, -O-COO-, -CO-S-, -CO-O- and -CH=CH- are adjacent to each other, and L denotes F, Cl, OCH 3 and COCH 3 or alkylene having 1 to 6 C Atoms. Sp 21 denotes a single bond or a spacer group comprising 1 to 20 C atoms, wherein one or more non-adjacent and non-terminal CH 2 groups may also be replaced by -O-, -S-, -NH-, -N(CH 3 )-, -CO-, -O-CO-, -S-CO-, -O-COO-, -CO-S-, -CO-O-, -CF 2 -, -CF 2 O-, -OCF 2 - -C(OH)-, -CH(alkyl)-, -CH(alkenyl)-,-CH(alkoxyl)-, -CH(oxaalkyl)-, -CH=CH- or -C≡C-, however in such a way that no two O-atoms are adjacent to one another and no two groups selected from -O-CO-, -S-CO-, -O-COO-, -CO-S-, -CO-O- and -CH=CH- are adjacent to each other, and L denotes F, Cl, OCH 3 and COCH 3 or alkylene having 1 to 6 C Atoms.
A control method for an air conditioning system, the air conditioning system comprising compressors and/or injectors, and the control method comprising: S 100, acquiring an actual cooling/heating capacity output by the air conditioning system, and acquiring an actual temperature change rate of an indoor heat exchange unit ; 5200, automatically learning a heat exchange load characteristic curve of the indoor heat exchange unit based on the actual cooling/heating capacity and the actual temperature change rate; S300, acquiring a steady state load and/or a desired load of the indoor heat exchange unit based on the heat exchange load characteristic curve, wherein the steady state load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is 0, and the desired load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is a desired temperature change rate; and S400, adjusting the number of operating compressors out of said compressors and rotational speeds of said compressors, and/or adjusting the number of operating injectors out of said injectors and opening degrees of said injectors, based on the steady state load and/or the desired load S 100, acquiring an actual cooling/heating capacity output by the air conditioning system, and acquiring an actual temperature change rate of an indoor heat exchange unit ; 5200, automatically learning a heat exchange load characteristic curve of the indoor heat exchange unit based on the actual cooling/heating capacity and the actual temperature change rate; S300, acquiring a steady state load and/or a desired load of the indoor heat exchange unit based on the heat exchange load characteristic curve, wherein the steady state load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is 0, and the desired load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is a desired temperature change rate; and S400, adjusting the number of operating compressors out of said compressors and rotational speeds of said compressors, and/or adjusting the number of operating injectors out of said injectors and opening degrees of said injectors, based on the steady state load and/or the desired load
A heat exchanger comprising: a hollow tube comprising a first aluminum alloy extending along an axis from a tube inlet to a tube outlet ; a first plurality of fins comprising a second aluminum alloy extending outwardly from an outer surface of the tube; a first fluid flow path through hollow tube from the tube inlet to the tube outlet; and a second fluid flow path across an outer surface of the hollow tube through spaces between adjacent fins; characterised in that the heat exchanger further comprises a second plurality of fins comprising a third aluminium alloy extending outwardly from the outer surface of the tube, interspersed along the axis with the fins comprising the second aluminium alloy, wherein the third aluminium alloy comprises an alloying element selected from tin, indium, gallium, or combinations thereof, wherein the third aluminum alloy is less noble than each of the first aluminum alloy and the second aluminum alloy. a hollow tube comprising a first aluminum alloy extending along an axis from a tube inlet to a tube outlet ; a first plurality of fins comprising a second aluminum alloy extending outwardly from an outer surface of the tube; a first fluid flow path through hollow tube from the tube inlet to the tube outlet; and a second fluid flow path across an outer surface of the hollow tube through spaces between adjacent fins; characterised in that the heat exchanger further comprises a second plurality of fins comprising a third aluminium alloy extending outwardly from the outer surface of the tube, interspersed along the axis with the fins comprising the second aluminium alloy, wherein the third aluminium alloy comprises an alloying element selected from tin, indium, gallium, or combinations thereof, wherein the third aluminum alloy is less noble than each of the first aluminum alloy and the second aluminum alloy.
A shape measuring machine configured to measure the shape of a workpiece (W), the shape measuring machine comprising a contact type or a non-contact type detector having sensitivity in a first axial direction and a linear drive mechanism , the linear drive mechanism comprising: a drive shaft extending in a second axial direction orthogonal to a first axial direction in which the detector has sensitivity; a mover which is supported in a non-contact fashion by the drive shaft and configured to move along the drive shaft integrally with either one of the detector and the workpiece (W); a guide provided at a position deviated relative to the drive shaft in a third axial direction orthogonal to both the first axial direction and the second axial direction, the guide parallel to the drive shaft ; and a resistance force generating portion which is provided on one of the mover and the guide , and is in contact with the other of the mover and the guide , the resistance force generating portion configured to generate a resistance force which resists against movement of the mover . a drive shaft extending in a second axial direction orthogonal to a first axial direction in which the detector has sensitivity; a mover which is supported in a non-contact fashion by the drive shaft and configured to move along the drive shaft integrally with either one of the detector and the workpiece (W); a guide provided at a position deviated relative to the drive shaft in a third axial direction orthogonal to both the first axial direction and the second axial direction, the guide parallel to the drive shaft ; and a resistance force generating portion which is provided on one of the mover and the guide , and is in contact with the other of the mover and the guide , the resistance force generating portion configured to generate a resistance force which resists against movement of the mover .
Household appliance for laundry care having a cleaning device for a component loaded with lint in a household appliance, wherein the cleaning device has a rinsing unit, by means of which rinsing fluid (S) can be conducted to the component to remove the lint, - wherein the rinsing unit has a flow element , which is disposed above the component and has an inner moulding, on account of which a dynamic pressure can build up in the rinsing fluid (S) within the flow element and flowing through said flow element ; - wherein the flow element has an elongated part which has an opening for the egress of fluid on the side facing the component and the flow element for building up the dynamic pressure has a cross-section which comprises at least one narrow point , characterised in that - the elongated part extends in its length (b) over the entire width of the component ; and - the opening in the elongated part of the flow element embodied on the side facing the component extends over the length (b) of this elongated part . - wherein the rinsing unit has a flow element , which is disposed above the component and has an inner moulding, on account of which a dynamic pressure can build up in the rinsing fluid (S) within the flow element and flowing through said flow element ; - wherein the flow element has an elongated part which has an opening for the egress of fluid on the side facing the component and the flow element for building up the dynamic pressure has a cross-section which comprises at least one narrow point , characterised in that - the elongated part extends in its length (b) over the entire width of the component ; and - the opening in the elongated part of the flow element embodied on the side facing the component extends over the length (b) of this elongated part .
Method of operating a lavatory management system for assigning a passenger to a lavatory (6a-6d) within an aircraft passenger cabin in order to balance the load of the lavatories (6a-6d), wherein the aircraft passenger cabin comprises at least two lavatories (6a-6d), each having a waiting queue (60a-60d), and wherein the aircraft passenger cabin is divided into at least two spatial zones (8a-8d), wherein the method includes the following steps executed by the lavatory management system : - receiving a lavatory assignment request from a passenger via an input device (30a-30c); - based on a seat location of said passenger , determining a particular spatial zone (8a-8d) of the aircraft passenger cabin which includes the seat location of said passenger ; and - based on the particular spatial zone (8a-8d), adding the passenger to the waiting queue (60a-60d) of a particular lavatory (6a-6d), associated with the particular spatial zone (8a-8d); wherein the configuration of the at least two spatial zones (8a-8d) is variable and is based on a plurality of zone configuration parameters, the plurality of zone configuration parameters including a queue length of each of the waiting queues (60a-60d) of the at least two lavatories (6a-6d); wherein the method includes providing a visual indication of the particular lavatory (6a-6d), whose waiting queue (60a-60d) the passenger has been added to. the aircraft passenger cabin comprises at least two lavatories (6a-6d), each having a waiting queue (60a-60d), and wherein the aircraft passenger cabin is divided into at least two spatial zones (8a-8d), wherein the method includes the following steps executed by the lavatory management system : - receiving a lavatory assignment request from a passenger via an input device (30a-30c); - based on a seat location of said passenger , determining a particular spatial zone (8a-8d) of the aircraft passenger cabin which includes the seat location of said passenger ; and - based on the particular spatial zone (8a-8d), adding the passenger to the waiting queue (60a-60d) of a particular lavatory (6a-6d), associated with the particular spatial zone (8a-8d); - receiving a lavatory assignment request from a passenger via an input device (30a-30c); - based on a seat location of said passenger , determining a particular spatial zone (8a-8d) of the aircraft passenger cabin which includes the seat location of said passenger ; and - based on the particular spatial zone (8a-8d), adding the passenger to the waiting queue (60a-60d) of a particular lavatory (6a-6d), associated with the particular spatial zone (8a-8d); wherein the configuration of the at least two spatial zones (8a-8d) is variable and is based on a plurality of zone configuration parameters, the plurality of zone configuration parameters including a queue length of each of the waiting queues (60a-60d) of the at least two lavatories (6a-6d); wherein the method includes providing a visual indication of the particular lavatory (6a-6d), whose waiting queue (60a-60d) the passenger has been added to.
A method for T2* mapping based on an echo planar imaging, EPI, in a magnetic resonance imaging, MRI, system comprising: applying an excitation RF pulse; obtaining 256 subsequent gradient echoes with an EPI sequence, each at a different echo time following application of the excitation RF pulse and the application of a single phase-encoding gradient at the beginning of the EPI sequence; repeatedly applying the aforementioned steps, such as to acquire an MR image for each of the 256 different echo times; and performing a curve fitting procedure in an order adverse to the order of echo acquisition, on the 256 MR images in order to determine a T2* value for each fitting procedure and thereby generate a T2* map. applying an excitation RF pulse; obtaining 256 subsequent gradient echoes with an EPI sequence, each at a different echo time following application of the excitation RF pulse and the application of a single phase-encoding gradient at the beginning of the EPI sequence; repeatedly applying the aforementioned steps, such as to acquire an MR image for each of the 256 different echo times; and performing a curve fitting procedure in an order adverse to the order of echo acquisition, on the 256 MR images in order to determine a T2* value for each fitting procedure and thereby generate a T2* map.
An angular contact self-aligning toroidal rolling element bearing , comprising an inner ring , an outer ring , and a set of rolling elements formed of rollers arranged in an intermediate configuration between the inner and outer rings, wherein each roller has a curved raceway-contacting surface arranged for being in load carrying contact with a curved inner raceway of the inner ring and in load carrying contact with a curved outer raceway of the outer ring, a contact angle between each roller and the inner and/or outer raceway is inclined in relation to a bearing axis, and wherein each roller is arranged to self orient in its axial direction in relation to the inner and outer rings in a loaded zone during operation, wherein each roller having a roller transverse radius (rw) and a roller length (Iw), and a ratio between the roller transverse radius and roller length, for each roller, is less than 12, or is less than 10, or less than 8,5, or less than 6, or less than 4, wherein the outer raceway comprises a transverse raceway radius (re) and a circumferential raceway radius (re c ), characterized in that, the transverse raceway radius (re) is less than 1.0 times the circumferential raceway radius (re c ).