mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal storage device , which is a buffer tank for the intermediate storage of heating water in a heating system or a hot water tank for storing drinking water, comprising at least: - at least one inner wall , which delimits at least one chamber for receiving a medium to be stored, - at least one outer wall , which is separated at least in some sections from the inner wall and which delimits the thermal storage device from the outside, - a thermal insulation , which is arranged at least in a partial area between the inner wall and the outer wall , characterised in that the inner wall , the outer wall and the insulation are constructed together in layers, wherein the insulation has at least one cavity in which at least a gas or an insulating material is arranged or in which there is a vacuum. - at least one inner wall , which delimits at least one chamber for receiving a medium to be stored, - at least one outer wall , which is separated at least in some sections from the inner wall and which delimits the thermal storage device from the outside, - a thermal insulation , which is arranged at least in a partial area between the inner wall and the outer wall ,
An acrylic rubber that is a copolymer in which 1 to 3 wt.% of a fumaric acid monoalkyl ester monomer containing an alkyl group having 1 to 8 carbon atoms is copolymerized as a crosslinkable comonomer, wherein 45 to 65 wt.% of n-butyl acrylate, 12 to 32 wt.% of 2-methoxyethyl acrylate, and 11 to 30 wt.% of ethoxyethoxyethyl acrylate are copolymerized in 100 wt.% of comonomers other than the crosslinkable comonomer.
A loudspeaker (102; 302), comprising: a first group (103; 303) of drivers (102a-102j; 302a-302j) to output a first beam pattern ; a first tapped transmission line (105; 305) that controls an input to the first group (103; 303) of drivers (102a-102j; 302a-302j); a second group (104; 304) of drivers (102k-102t; 302k-302t) that is different from the first group (103; 303) of drivers (102a-102j; 302a-302j), wherein the second group (104; 304) of drivers (102k-102t; 302k-302t) is configured to output a second beam pattern ; and a second tapped transmission line (107; 307) that controls an input to the second group (104; 304) of drivers (102k-102t; 302k-302t), the second tapped transmission line (107; 307) being different from the first tapped transmission line (105; 305); wherein the first tapped transmission line (105; 305) includes a plurality of processing stages corresponding to a number of the first group (103; 303) of drivers (102a-102j; 302a-302j); wherein the second tapped transmission line (107; 307) includes a plurality of delay stages (108j-t) corresponding to a number of the second group (104; 304) of drivers (102k-102t; 302k-302t), wherein the first beam pattern is a narrow beam and the second beam pattern is a wide beam pattern that is wider than the narrow beam of the first beam pattern , and wherein each of the driver groups (103, 104; 303, 304) is controlled by a separate transmission line and the beam patterns for each of the groups of drivers are controlled by an individual transmission line. a first group (103; 303) of drivers (102a-102j; 302a-302j) to output a first beam pattern ; a first tapped transmission line (105; 305) that controls an input to the first group (103; 303) of drivers (102a-102j; 302a-302j); a second group (104; 304) of drivers (102k-102t; 302k-302t) that is different from the first group (103; 303) of drivers (102a-102j; 302a-302j), wherein the second group (104; 304) of drivers (102k-102t; 302k-302t) is configured to output a second beam pattern ; and a second tapped transmission line (107; 307) that controls an input to the second group (104; 304) of drivers (102k-102t; 302k-302t), the second tapped transmission line (107; 307) being different from the first tapped transmission line (105; 305); wherein the first tapped transmission line (105; 305) includes a plurality of processing stages corresponding to a number of the first group (103; 303) of drivers (102a-102j; 302a-302j); wherein the second tapped transmission line (107; 307) includes a plurality of delay stages (108j-t) corresponding to a number of the second group (104; 304) of drivers (102k-102t; 302k-302t), wherein the first beam pattern is a narrow beam and the second beam pattern is a wide beam pattern that is wider than the narrow beam of the first beam pattern , and wherein each of the driver groups (103, 104; 303, 304) is controlled by a separate transmission line and the beam patterns for each of the groups of drivers are controlled by an individual transmission line.
Method comprising the steps of: - supplying a flow of plasticised material through an annular channel that is defined between at least one internal core and at least one external annular wall that at least partially surrounds said core , said annular channel ending with an annular outlet ; - making said plasticised material exit said annular outlet through the effect of pressure of the plasticised material upstream of said annular channel ; - moving a cutting element with respect to said annular wall and to said core so that said cutting element passes in front of said annular outlet to separate an annular dose (D) from said plasticised material; - depositing said annular dose (D), which is still in contact with said cutting element , on a surface (S) of an object (C), the capacity of adhesion of said surface (S) to said annular dose being greater than that of said cutting element , to adhesively apply said annular dose (D) to said object (C), said surface (S) comprising a surface of an element (C) for containers; - distancing reciprocally said surface (S) and said cutting element such that said annular dose (D) is detached from said cutting element remaining adhering to said surface; characterized in that said surface (S) is preventively activated with adhesion promoting means by means of heating and by means of a layer of primer. - supplying a flow of plasticised material through an annular channel that is defined between at least one internal core and at least one external annular wall that at least partially surrounds said core , said annular channel ending with an annular outlet ; - making said plasticised material exit said annular outlet through the effect of pressure of the plasticised material upstream of said annular channel ; - moving a cutting element with respect to said annular wall and to said core so that said cutting element passes in front of said annular outlet to separate an annular dose (D) from said plasticised material; - depositing said annular dose (D), which is still in contact with said cutting element , on a surface (S) of an object (C), the capacity of adhesion of said surface (S) to said annular dose being greater than that of said cutting element , to adhesively apply said annular dose (D) to said object (C), said surface (S) comprising a surface of an element (C) for containers; - distancing reciprocally said surface (S) and said cutting element such that said annular dose (D) is detached from said cutting element remaining adhering to said surface;
An oral tablet formulation of dapoxetine or a pharmaceutically acceptable salt thereof and tadalafil or a pharmaceutically acceptable salt thereof, comprising crospovidone and dibasic calcium phosphate.
A method of sounding a wireless network associated with multiple basic service sets, BSSs, the method performed by a first access point corresponding to a first BSS and comprising: receiving, from a first wireless device (io6b-d) unassociated with the first access point , a first message including first beamforming information indicative of channel conditions between the first wireless device (io6b-d) and the first access point and indicative of channel conditions between the first wireless device (io6b-d) and a second access point (104b-d) corresponding to a second BSS; determining first sounding information for a first communication path between the first wireless device (io6b-d) and the first access point based on the first beamforming information; determining second sounding information for a second communication path between the first wireless device (io6b-d) and the second access point (104b-d) based on the second beamforming information; and transmitting a second message to the first wireless device (106b-d) based on the first beamforming information, wherein the second message include one or both of the first sounding information and the second sounding information. receiving, from a first wireless device (io6b-d) unassociated with the first access point , a first message including first beamforming information indicative of channel conditions between the first wireless device (io6b-d) and the first access point and indicative of channel conditions between the first wireless device (io6b-d) and a second access point (104b-d) corresponding to a second BSS; determining first sounding information for a first communication path between the first wireless device (io6b-d) and the first access point based on the first beamforming information; determining second sounding information for a second communication path between the first wireless device (io6b-d) and the second access point (104b-d) based on the second beamforming information; and transmitting a second message to the first wireless device (106b-d) based on the first beamforming information, wherein the second message include one or both of the first sounding information and the second sounding information.
Sealing device for sealing a positive or negative pressure zone of a roll for a machine for producing or finishing a fibrous web, wherein the sealing device has a sealing strip and a lubricating device , by means of which, during proper use, a lubricant can be brought between the inner side of the roll shell and the sealing surface of the sealing strip , wherein the lubricating device comprises a plurality of lubricant outlet openings and can be connected to a supply line for the supply with lubricant, wherein the lubricating device can be connected to the supply line via multiple inlets , which are distributed over the length of the sealing strip , and wherein the sealing strip has a first and a second longitudinal end, characterized in that the distance of at least one, preferably both, longitudinal ends to an inlet is a maximum of 1000 mm, in particular a maximum of 800 mm, preferably 600 mm or less.
A method for the production of a metal-ceramic substrate comprising: - providing a ceramic element and a metal layer, - providing a gas-tight container enclosing the ceramic element , wherein the container is preferably formed from the metal layer or comprises the metal layer, - forming the metal-ceramic substrate by bonding the metal layer to the ceramic element by means of hot isostatic pressing, wherein, for forming the metal-ceramic substrate , an active metal layer or a contact layer comprising an active metal is arranged at least in sections between the metal layer and the ceramic element to support the bonding of the metal layer to the ceramic element , wherein the active metal is titanium, zirconium, hafnium, chromium, niobium, cerium, tantalum, magnesium, lanthanum, vanadium, molybdenum or tungsten, wherein a proportion of active metal in the contact layer is greater than 15 wt. % and wherein the metal layer is structured to form a metal-ceramic substrate suitable as a printed circuit board. - providing a ceramic element and a metal layer, - providing a gas-tight container enclosing the ceramic element , wherein the container is preferably formed from the metal layer or comprises the metal layer, - forming the metal-ceramic substrate by bonding the metal layer to the ceramic element by means of hot isostatic pressing,
A method comprising: generating a first set of pulse width modulation control signals for a first light source, the first set of PWM control signals generated for a first defined portion of a first subframe of a frame; generating a second set of PWM control signals for a second light source, the second set of PWM control signals generated for a second defined portion of a second subframe of the frame; and generating a third set of PWM control signals for a third light source, the third set of PWM control signals generated for a third defined portion of a third subframe of the frame; wherein generating at least one set of PWM control signals selected from the first set of PWM control signals, the second set of PWM control signals, or the third set of PWM control signals is performed in a head-mounted display device; wherein the first defined portion of the first subframe, the second defined portion of the second subframe, and the third defined portion of the third subframe are defined based on an adjusted start time and adjusted end time, the adjusted start time and the adjusted end time that are based on a transitional period of a liquid crystal for the head-mounted display device define a period of time for generating a corresponding set of PWM control signals; and characterised in that the adjusted start time and the adjusted end time are dynamically adjusted based on content being displayed on the head-mounted display device having a high frame rate update due to increased user movement or being static images displayed while a user is still. generating a first set of pulse width modulation control signals for a first light source, the first set of PWM control signals generated for a first defined portion of a first subframe of a frame; generating a second set of PWM control signals for a second light source, the second set of PWM control signals generated for a second defined portion of a second subframe of the frame; and generating a third set of PWM control signals for a third light source, the third set of PWM control signals generated for a third defined portion of a third subframe of the frame; wherein generating at least one set of PWM control signals selected from the first set of PWM control signals, the second set of PWM control signals, or the third set of PWM control signals is performed in a head-mounted display device; wherein the first defined portion of the first subframe, the second defined portion of the second subframe, and the third defined portion of the third subframe are defined based on an adjusted start time and adjusted end time, the adjusted start time and the adjusted end time that are based on a transitional period of a liquid crystal for the head-mounted display device define a period of time for generating a corresponding set of PWM control signals; and characterised in that the adjusted start time and the adjusted end time are dynamically adjusted based on content being displayed on the head-mounted display device having a high frame rate update due to increased user movement or being static images displayed while a user is still.
A forming mold unit for forming a handle-equipped container provided with a container body, which is a final molded product, and a handle for a container, by blow molding an intermediate molded product smaller than the container body, while disposing the intermediate molded product and the handle for a container within a forming mold , wherein the forming mold comprises: a pair of split mold bodies in which the intermediate molded product is accommodated; characterized in that the forming mold unit further comprises a pair of handle holding split molds provided in the split mold bodies so as to be slidable in a direction orthogonal to an opening and closing direction of the split mold bodies , and adapted for sandwiching the handle therebetween; and driving means connected to the handle holding split molds for sliding the handle holding split molds individually. a pair of split mold bodies in which the intermediate molded product is accommodated; characterized in that the forming mold unit further comprises a pair of handle holding split molds provided in the split mold bodies so as to be slidable in a direction orthogonal to an opening and closing direction of the split mold bodies , and adapted for sandwiching the handle therebetween; and driving means connected to the handle holding split molds for sliding the handle holding split molds individually.
A polypeptide comprising a substitution variant of (a) the amino acid sequence of SEQ ID NO: 3 wherein the first position at the N' terminus of SEQ ID NO: 3 is numbered position 24, or (b) the amino acid sequence of SEQ ID NO: 3 of (a) wherein Alanine at position 24 and Proline at position 25 are deleted, wherein up to 10 amino acids are substituted, and wherein at least one of said amino acid substitutions is at position 122 of SEQ ID NO: 3, or the equivalent position of said sequence wherein Alanine at position 24 and Proline at position 25 are deleted; and wherein said polypeptide binds to CTLA-4 with higher affinity than wild-type human CD86. (a) the amino acid sequence of SEQ ID NO: 3 wherein the first position at the N' terminus of SEQ ID NO: 3 is numbered position 24, or (b) the amino acid sequence of SEQ ID NO: 3 of (a) wherein Alanine at position 24 and Proline at position 25 are deleted,
Process for in vitro spermatogenesis from male germinal tissue comprising: a) conducting maturation of isolated testicular tissue comprising germ cells in a bioreactor which is made of a biomaterial and comprises at least one cavity wherein the germinal tissue is confined, and b) recovering elongated spermatids and/or spermatozoa, wherein: - the bioreactor is a hollow fiber of a biomaterial, comprising a channel where the testicular tissue is confined, - said bioreactor is placed in or at the contact of a culture medium, and - the biomaterial is a hydrogel based on chitosan. a) conducting maturation of isolated testicular tissue comprising germ cells in a bioreactor which is made of a biomaterial and comprises at least one cavity wherein the germinal tissue is confined, and b) recovering elongated spermatids and/or spermatozoa, wherein: - the bioreactor is a hollow fiber of a biomaterial, comprising a channel where the testicular tissue is confined, - said bioreactor is placed in or at the contact of a culture medium, and - the biomaterial is a hydrogel based on chitosan. - the bioreactor is a hollow fiber of a biomaterial, comprising a channel where the testicular tissue is confined, - said bioreactor is placed in or at the contact of a culture medium, and - the biomaterial is a hydrogel based on chitosan.
A method for implementing a carrier sense adaptive transmission, CSAT, communication scheme, wherein during CSAT operation CSAT communication is cycled between periods of activated operation and periods of deactivated operation for reducing interference between Radio Access Technologies, RAT, the method comprising a user device: monitoring a first RAT for presence or absence of a first signal associated with operation of the first RAT during a period of time; monitoring the first RAT for presence or absence of a second signal associated with operation of the first RAT during the period of time; identifying that CSAT communication is being performed by a base station based on presence of the first signal and an absence of the second signal during the period of time, which corresponds to a deactivated period of the CSAT communication; and generating a CSAT communication indicator based on detecting the presence of CSAT communication by the base station. monitoring a first RAT for presence or absence of a first signal associated with operation of the first RAT during a period of time; monitoring the first RAT for presence or absence of a second signal associated with operation of the first RAT during the period of time; identifying that CSAT communication is being performed by a base station based on presence of the first signal and an absence of the second signal during the period of time, which corresponds to a deactivated period of the CSAT communication; and generating a CSAT communication indicator based on detecting the presence of CSAT communication by the base station.
A method for detecting and removing EEG artifacts, the method comprising: generating an EEG signal via electrodes; separating via a processor the EEG signal into a plurality of sources, each source of the plurality of sources separated for a selected artifact type; reconstituting via the processor each source of the plurality of sources into a recorded montage and an optimal reference montage for recognizing the selected artifact type of each source of the plurality of sources; examining via a processor a plurality of channels of the optimal reference montage for each source of the plurality of sources to determine if the selected artifact type is the true artifact of each source of the plurality of sources; determining via a processor that the selected artifact type is the true artifact of each source of the plurality of sources; removing via a processor each source of the plurality of sources for the selected artifact type to generate a plurality of remaining sources; and reconstituting via a processor the plurality of remaining sources into a filtered montage for the EEG signal. generating an EEG signal via electrodes; separating via a processor the EEG signal into a plurality of sources, each source of the plurality of sources separated for a selected artifact type; reconstituting via the processor each source of the plurality of sources into a recorded montage and an optimal reference montage for recognizing the selected artifact type of each source of the plurality of sources; examining via a processor a plurality of channels of the optimal reference montage for each source of the plurality of sources to determine if the selected artifact type is the true artifact of each source of the plurality of sources; determining via a processor that the selected artifact type is the true artifact of each source of the plurality of sources; removing via a processor each source of the plurality of sources for the selected artifact type to generate a plurality of remaining sources; and reconstituting via a processor the plurality of remaining sources into a filtered montage for the EEG signal.
A security device using light reflection properties, the security device comprising: a substrate comprising groove portions in at least one surface ; a colloidal crystal contained in at least a portion of each of the groove portions ; and a film, referred to as aging film , covering at least a portion of the colloidal crystal-containing surface of the substrate , characterized by the colloidal crystal comprising spherical particles having a composition of at least one selected from silica, titanium dioxide, polystyrenes and polymethacrylates, and the colloidal crystal having a monodispersity of 7% or less, with the spherical particles having an average particle size of 50-300 nm; and the aging film having a thickness of 10-300 μm. a substrate comprising groove portions in at least one surface ; a colloidal crystal contained in at least a portion of each of the groove portions ; and a film, referred to as aging film , covering at least a portion of the colloidal crystal-containing surface of the substrate , characterized by the colloidal crystal comprising spherical particles having a composition of at least one selected from silica, titanium dioxide, polystyrenes and polymethacrylates, and the colloidal crystal having a monodispersity of 7% or less, with the spherical particles having an average particle size of 50-300 nm; and the aging film having a thickness of 10-300 μm.
An anti-MIF antibody for use in the treatment of cancer in a human subject, wherein the anti-MIF antibody is to be administered intravenously to the human subject at a dosage in the range of 1 mg per kg body weight to 10 mg per kg body weight, and wherein the cancer to be treated is a solid tumor.