mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing a glass film, comprising: a first step of forming an inorganic thin film on a surface of a supporting glass so that a surface of the inorganic thin film after being formed has a surface roughness Ra of 2.0 nm or less, the inorganic thin film being formed of at least one inorganic materials selected from ITO, Ti, Au, Ag, Al, Cr, Cu, Mg, Ti, Al 2 O 3 , MgO, Y 2 O 3 , La 2 O 3 , Pr 6 O 11 , Ss 2 O 3 , WO 3 , HfO 2 , In 2 O 3 , ZrO 2 , Nd 2 O 3 , Ta 2 O 5 , CeO 2 , Nb 2 O 5 , TiO, TiO 2 , Ti 3 O 5 , NiO, and ZnO; a second step of forming a glass film laminate by laminating a glass film having a surface roughness Ra of 2.0 nm or less on the surface of the inorganic thin film in a state of being in contact with each other; a third step of carrying out treatment involving heating with respect to the glass film laminate ; and a fourth step of peeling off the glass film from the supporting glass after the treatment involving heating. a first step of forming an inorganic thin film on a surface of a supporting glass so that a surface of the inorganic thin film after being formed has a surface roughness Ra of 2.0 nm or less, the inorganic thin film being formed of at least one inorganic materials selected from ITO, Ti, Au, Ag, Al, Cr, Cu, Mg, Ti, Al 2 O 3 , MgO, Y 2 O 3 , La 2 O 3 , Pr 6 O 11 , Ss 2 O 3 , WO 3 , HfO 2 , In 2 O 3 , ZrO 2 , Nd 2 O 3 , Ta 2 O 5 , CeO 2 , Nb 2 O 5 , TiO, TiO 2 , Ti 3 O 5 , NiO, and ZnO; a second step of forming a glass film laminate by laminating a glass film having a surface roughness Ra of 2.0 nm or less on the surface of the inorganic thin film in a state of being in contact with each other; a third step of carrying out treatment involving heating with respect to the glass film laminate ; and a fourth step of peeling off the glass film from the supporting glass after the treatment involving heating.
An organic solvent composition, comprising: 50 to 75 wt% of C10 aromatic hydrocarbon, 25 to 40 wt% of C9 aromatic hydrocarbon, and less than 150 ppm of naphthalene, wherein a weight ratio of trimethylbenzene and tetramethylbenzene is 50:50 to 90:10.
A marine diesel lubricating oil composition comprising: (a) a major amount of an oil of lubricating viscosity; and (b) 2.5 wt. % to 10 wt. % actives, based on the total weight of the lubricating oil composition, of at least one Mannich reaction product prepared by the condensation of a polyisobutyl-substituted hydroxyaromatic compound, wherein the polyisobutyl group is derived from polyisobutene containing at least 70 wt. % methylvinylidene isomer and has a number average molecular weight of from 400 to 2500, an aldehyde, an amino acid or ester derivative thereof, and an alkali metal base; wherein the lubricating oil composition has a BN of 5 to 200 mg KOH/g, and further wherein the marine diesel lubricating oil composition is a monograde lubricating oil composition meeting the specifications for SAE J300 revised January 2015 requirements for a SAE 20, SAE 30, SAE 40, SAE 50 or SAE 60 monograde lubricating oil. (a) a major amount of an oil of lubricating viscosity; and (b) 2.5 wt. % to 10 wt. % actives, based on the total weight of the lubricating oil composition, of at least one Mannich reaction product prepared by the condensation of a polyisobutyl-substituted hydroxyaromatic compound, wherein the polyisobutyl group is derived from polyisobutene containing at least 70 wt. % methylvinylidene isomer and has a number average molecular weight of from 400 to 2500, an aldehyde, an amino acid or ester derivative thereof, and an alkali metal base;
A label suitable for use on a varnished cardboard , the label comprising: - a carrier layer , and - an adhesive layer , wherein the thickness (d 10 ) of the carrier layer , the material of the carrier layer , and the composition of the adhesive layer have been selected such that: - a minimum detaching force (F A ) of the label is greater than a first breaking force (F C ) needed to break the cardboard material of the varnished cardboard , wherein the first breaking force (F C ) is a first pulling force which causes breaking of the cardboard material in a situation where the label is separated from the varnished cardboard by pulling the label with said first pulling force, and the minimum detaching force (F A ) is a second pulling force which is needed to separate the adhesive layer of the label from the surface (SRF4) of the varnished cardboard in a situation where the label is pulled with said second pulling force, characterized in that the minimum detaching force (F A ) is smaller than a second breaking force (F BRK ) needed to break the label , the carrier layer is irreversibly stretchable, the minimum deformation force (F LIM ) is a pulling force which causes 30% final elongation of the label , and the minimum deformation force (F LIM ) of the label is smaller than the first breaking force (F C ). - a carrier layer , and - an adhesive layer , - a minimum detaching force (F A ) of the label is greater than a first breaking force (F C ) needed to break the cardboard material of the varnished cardboard ,
A method for correcting spatial error or jitter associated with an interaction device, the method comprising: - receiving, at a computing device , one or more encrypted parameters directed to correcting spatial error or jitter associated with an interaction device ; - decrypting the one or more encrypted parameters to provide one or more parameters that are consumable by the computing device ; - receiving, from the interaction device , interaction signals directed to moving one or more display screen elements; and - consuming the one or more parameters to correct the spatial error or the jitter associated with the interaction device wherein said spatial error or said jitter is associated with the interaction signals and the moving of the one or more display screen elements, wherein - the one or more encrypted parameters are received from the interaction device , and - the one or more parameters provide an adjustment to one or more reported positions from a detection area of the interaction device , and - the interaction device is a digitizer or any other device capable of receiving interaction signals in input and providing the corresponding digital signals to the computing device . - receiving, at a computing device , one or more encrypted parameters directed to correcting spatial error or jitter associated with an interaction device ; - decrypting the one or more encrypted parameters to provide one or more parameters that are consumable by the computing device ; - receiving, from the interaction device , interaction signals directed to moving one or more display screen elements; and - consuming the one or more parameters to correct the spatial error or the jitter associated with the interaction device wherein said spatial error or said jitter is associated with the interaction signals and the moving of the one or more display screen elements, wherein - the one or more encrypted parameters are received from the interaction device , and - the one or more parameters provide an adjustment to one or more reported positions from a detection area of the interaction device , and - the interaction device is a digitizer or any other device capable of receiving interaction signals in input and providing the corresponding digital signals to the computing device . - the interaction device is a digitizer or any other device capable of receiving interaction signals in input and providing the corresponding digital signals to the computing device .
A cleaning composition comprising: (a) from 5% to 50% of one or more non-soap surfactants by total weight of said cleaning composition, wherein the non-soap surfactants are anionic surfactants that include: (i) a C 10 -C 20 linear alkylbenzene sulphonate (LAS); and (ii) an alkyl sulphate (AS) having a branched or linear unalkoxylated alkyl group containing from about 6 to about 18 carbon atoms; (b) from 1.5% to 10% of soap particles by total weight of said cleaning composition, wherein said soap particles are characterized by a particle size distribution with from 35 wt% to 100 wt% of soap particles having particle sizes ranging from 125 microns to 355 microns. (a) from 5% to 50% of one or more non-soap surfactants by total weight of said cleaning composition, wherein the non-soap surfactants are anionic surfactants that include: (i) a C 10 -C 20 linear alkylbenzene sulphonate (LAS); and (ii) an alkyl sulphate (AS) having a branched or linear unalkoxylated alkyl group containing from about 6 to about 18 carbon atoms; (i) a C 10 -C 20 linear alkylbenzene sulphonate (LAS); and (ii) an alkyl sulphate (AS) having a branched or linear unalkoxylated alkyl group containing from about 6 to about 18 carbon atoms; (b) from 1.5% to 10% of soap particles by total weight of said cleaning composition, wherein said soap particles are characterized by a particle size distribution with from 35 wt% to 100 wt% of soap particles having particle sizes ranging from 125 microns to 355 microns.
Method for detecting moving elements in a place, comprising the steps of: - carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place, - during each scan sequence and for each pulse hitting an element which constitutes an obstacle, detecting a signal reflected by the element and deducing therefrom a position of the obstacle in relation to the transceiver, - during each scan sequence, putting the coordinates of a point corresponding to a position of the detected element into a common frame of reference, - distinguishing the points corresponding to the fixed elements from the points corresponding to the moving elements over a predetermined number of scan sequences, said method being characterized in that the step of carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place is carried out from a plurality of transceivers of known positions which are in a high location and offset laterally with respect to part of the place, so as to scan a plurality of azimuth and elevation planes of said part of the place from each of the transceivers, the planes being arranged in such a way that at least some of the pulses reach said part of the place at a height of between approximately 1 meter and 1.50 meters. - carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place, - during each scan sequence and for each pulse hitting an element which constitutes an obstacle, detecting a signal reflected by the element and deducing therefrom a position of the obstacle in relation to the transceiver, - during each scan sequence, putting the coordinates of a point corresponding to a position of the detected element into a common frame of reference, - distinguishing the points corresponding to the fixed elements from the points corresponding to the moving elements over a predetermined number of scan sequences, said method being characterized in that the step of carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place is carried out from a plurality of transceivers of known positions which are in a high location and offset laterally with respect to part of the place, so as to scan a plurality of azimuth and elevation planes of said part of the place from each of the transceivers, the planes being arranged in such a way that at least some of the pulses reach said part of the place at a height of between approximately 1 meter and 1.50 meters.
A laundry treatment apparatus configured to be operated in a drying cycle and a washing cycle, the laundry treatment apparatus comprising: a cabinet having a laundry opening ; a laundry receiving device provided in the cabinet and configured to receive laundry therein through the laundry opening ; a drive system coupled to the laundry receiving device and configured to rotate the laundry receiving device; a hot air supply module , including: a circulation passage configured to draw air from an interior of the laundry receiving device and guide the air back into the laundry receiving device; a heat exchanger provided in the circulation passage ; and a blower configured to circulate the air from the interior of the laundry receiving device through the circulation passage and back into the laundry receiving device; a first PCB , i.e. a first Printed Circuit Board , having a first controller configured to control the drive system ; and a second PCB having a second controller , wherein the second controller is configured to implement data communication with the first controller , characterised in that the second controller is configured to control the heat exchanger and the blower during the drying cycle after the washing cycle. a cabinet having a laundry opening ; a laundry receiving device provided in the cabinet and configured to receive laundry therein through the laundry opening ; a drive system coupled to the laundry receiving device and configured to rotate the laundry receiving device; a hot air supply module , including: a circulation passage configured to draw air from an interior of the laundry receiving device and guide the air back into the laundry receiving device; a heat exchanger provided in the circulation passage ; and a blower configured to circulate the air from the interior of the laundry receiving device through the circulation passage and back into the laundry receiving device; a circulation passage configured to draw air from an interior of the laundry receiving device and guide the air back into the laundry receiving device; a heat exchanger provided in the circulation passage ; and a blower configured to circulate the air from the interior of the laundry receiving device through the circulation passage and back into the laundry receiving device; a first PCB , i.e. a first Printed Circuit Board , having a first controller configured to control the drive system ; and a second PCB having a second controller , wherein the second controller is configured to implement data communication with the first controller , characterised in that the second controller is configured to control the heat exchanger and the blower during the drying cycle after the washing cycle.
A method of operating a mobile parking policy enforcement apparatus , comprising the steps of: capturing (S22) a geographical position of a vehicle in a pre-determined parking area , a vehicle parking ticket information from the vehicle and a license plate number of the vehicle ; forwarding (S24) a parking ticket verification request comprising the geographical position, the vehicle parking ticket information and the license plate number of the vehicle to a parking service management apparatus for subsequent verification thereof; and receiving a reply from the parking service management apparatus indicating whether a driver of the vehicle has paid for the parking service, wherein the reply includes information indicating a severity of a parking violation, wherein the severity of the parking violation comprises a time when a parking period expired and a length of overdue period. capturing (S22) a geographical position of a vehicle in a pre-determined parking area , a vehicle parking ticket information from the vehicle and a license plate number of the vehicle ; forwarding (S24) a parking ticket verification request comprising the geographical position, the vehicle parking ticket information and the license plate number of the vehicle to a parking service management apparatus for subsequent verification thereof; and receiving a reply from the parking service management apparatus indicating whether a driver of the vehicle has paid for the parking service, wherein the reply includes information indicating a severity of a parking violation, wherein the severity of the parking violation comprises a time when a parking period expired and a length of overdue period.
A method performed by a pedestrian user equipment, PUE, with partial sensing capability, the method comprising: identifying a set of mandatory slots per at least one resource pool or bandwidth part, BWP, wherein in the mandatory slots the PUE is mandated to be in a receiving mode; monitoring the set of mandatory slots; receiving transmission, Tx, and reception, Rx, alignment information during at least one of the monitored mandatory slots, wherein the Tx and Rx alignment information includes information regarding a location and a length of at least one of a receiving window, a sensing window, or a resource selection window; and adjusting the at least one of the receiving window, the sensing window, or the resource selection window based on the Tx and Rx alignment information received in the at least one of the monitored mandatory slots. identifying a set of mandatory slots per at least one resource pool or bandwidth part, BWP, wherein in the mandatory slots the PUE is mandated to be in a receiving mode; monitoring the set of mandatory slots; receiving transmission, Tx, and reception, Rx, alignment information during at least one of the monitored mandatory slots, wherein the Tx and Rx alignment information includes information regarding a location and a length of at least one of a receiving window, a sensing window, or a resource selection window; and adjusting the at least one of the receiving window, the sensing window, or the resource selection window based on the Tx and Rx alignment information received in the at least one of the monitored mandatory slots.
A method, in a user equipment, UE, operating in a network that supports dual connectivity operation, for minimizing transmission of unnecessary UE failure indications, the method comprising: detecting a secondary cell-group failure, SCG-failure, triggering event; suspending secondary cell group, SCG, bearers, in response to said detecting; sending a UE failure indication message to the network; and refraining from sending further UE failure indication messages until one or more SCG parameters are reconfigured. detecting a secondary cell-group failure, SCG-failure, triggering event; suspending secondary cell group, SCG, bearers, in response to said detecting; sending a UE failure indication message to the network; and refraining from sending further UE failure indication messages until one or more SCG parameters are reconfigured.
A friction material comprising: (A) a base presenting a bonding surface; (B) a friction generating layer penetrating into said base and presenting a friction generating surface facing opposite said bonding surface of said base, said friction generating layer comprising: (i) fibrillated nanofibers; (ii) friction adjusting particles; and (iii) elastomeric particles; wherein the (i) fibrillated nanofibers; (ii) friction adjusting particles; and (iii) elastomeric particles are different; and (C) a curable resin dispersed throughout said friction generating layer and said base. (A) a base presenting a bonding surface; (B) a friction generating layer penetrating into said base and presenting a friction generating surface facing opposite said bonding surface of said base, said friction generating layer comprising: (i) fibrillated nanofibers; (ii) friction adjusting particles; and (iii) elastomeric particles; wherein the (i) fibrillated nanofibers; (ii) friction adjusting particles; and (iii) elastomeric particles are different; and (i) fibrillated nanofibers; (ii) friction adjusting particles; and (iii) elastomeric particles; wherein the (i) fibrillated nanofibers; (ii) friction adjusting particles; and (iii) elastomeric particles are different; and (C) a curable resin dispersed throughout said friction generating layer and said base.
A microchannel reactor comprising: a first layer comprising a plurality of process microchannels, each process microchannel having an entrance and an exit and an internal dimension of width or height of up to 10 mm, each process microchannel containing a Fischer-Tropsch catalyst, and each process microchannel in a vertical direction along the length of the microchannel layer from end to end and the microchannels extending along the width of the microchannel layer from end to end; and a second layer comprising a plurality of heat exchange microchannels, the first and second layers being arranged adjacent to one another, the heat exchange microchannels extending horizontally along the width of the microchannel layer from end to end and the heat exchange microchannels extending along the length of the microchannel layer from end to end of the microchannel layer; the heat exchange microchannels extending at right angles relative to the process microchannels; the catalyst comprising Co supported on a support, the catalyst being in the form of a fixed bed of particulate solids packed inside the process microchannels, a median particle diameter of the particulate solids in the range of 1 to 1000 μm, the Co loading being at least 25% by weight. a first layer comprising a plurality of process microchannels, each process microchannel having an entrance and an exit and an internal dimension of width or height of up to 10 mm, each process microchannel containing a Fischer-Tropsch catalyst, and each process microchannel in a vertical direction along the length of the microchannel layer from end to end and the microchannels extending along the width of the microchannel layer from end to end; and a second layer comprising a plurality of heat exchange microchannels, the first and second layers being arranged adjacent to one another, the heat exchange microchannels extending horizontally along the width of the microchannel layer from end to end and the heat exchange microchannels extending along the length of the microchannel layer from end to end of the microchannel layer; the heat exchange microchannels extending at right angles relative to the process microchannels; the catalyst comprising Co supported on a support, the catalyst being in the form of a fixed bed of particulate solids packed inside the process microchannels, a median particle diameter of the particulate solids in the range of 1 to 1000 μm, the Co loading being at least 25% by weight.
A gypsum board comprising: (a) a set gypsum core disposed between two cover sheets; (b) the set gypsum core comprising a gypsum crystal matrix formed from at least water, stucco, and a foam; wherein: the foam is generated by inserting air into an aqueous mixture of a foaming agent comprising at least one alkyl sulfate, at least one alkyl ether sulfate, a fatty alcohol, and water. (a) a set gypsum core disposed between two cover sheets; (b) the set gypsum core comprising a gypsum crystal matrix formed from at least water, stucco, and a foam; wherein: the foam is generated by inserting air into an aqueous mixture of a foaming agent comprising at least one alkyl sulfate, at least one alkyl ether sulfate, a fatty alcohol, and water.