mhurhangee/patent-ind-claim-en huggingface dataset:
A device for providing data connectivity, the device comprising: a connection detector configured to: receive a data connectivity request from an application installed on the device; an authorization transceiver configured to: transmit an authorization request for a data connectivity for the application to a service provider associated with the application via a telecommunication connection, the authorization request including an application identifier for the application; and receive an authorization response for the application from the service provider; and a connection manager configured to establish data connectivity via the telecommunication connection based on the authorization response; wherein the authorization request is a request for a data connectivity policy corresponding to a specific billing plan for the application, the authorization response including the data connectivity policy. a connection detector configured to: receive a data connectivity request from an application installed on the device; an authorization transceiver configured to: transmit an authorization request for a data connectivity for the application to a service provider associated with the application via a telecommunication connection, the authorization request including an application identifier for the application; and receive an authorization response for the application from the service provider; and transmit an authorization request for a data connectivity for the application to a service provider associated with the application via a telecommunication connection, the authorization request including an application identifier for the application; and receive an authorization response for the application from the service provider; and a connection manager configured to establish data connectivity via the telecommunication connection based on the authorization response; wherein the authorization request is a request for a data connectivity policy corresponding to a specific billing plan for the application, the authorization response including the data connectivity policy.
A method to produce a packaging unit , the method comprising at least the following steps: - supplying of an outer package , - placing of at least one article in a direction coming from above into the supplied outer package , and - folding in of a top flap of the supplied outer package , into which the at least one article has been placed, as well as fastening of the top flap in its folded-in position, whereby the outer package is closed at the top and forms a packaging unit together with the at least one article placed into it, wherein - at least one lateral wall of the supplied outer package comprises at least one defined folding line and/or bending line , via which at least one defined folding line and/or bending line the at least one lateral wall of the supplied outer package is pressed in an inward direction and is secured in an orientation that is intended for the packaging unit and that is in an inward-pressed direction, characterised in that the at least one lateral wall is secured in its orientation that is intended for the packaging unit and that is in an inward-pressed direction by way of the top flap being fastened in its folded-in position. - supplying of an outer package , - placing of at least one article in a direction coming from above into the supplied outer package , and - folding in of a top flap of the supplied outer package , into which the at least one article has been placed, as well as fastening of the top flap in its folded-in position, whereby the outer package is closed at the top and forms a packaging unit together with the at least one article placed into it, wherein - at least one lateral wall of the supplied outer package comprises at least one defined folding line and/or bending line , via which at least one defined folding line and/or bending line the at least one lateral wall of the supplied outer package is pressed in an inward direction and is secured in an orientation that is intended for the packaging unit and that is in an inward-pressed direction,
A windshield wiper system for use on a windshield of an aircraft, the windshield wiper system comprising: a wiper arm comprising: a composite shaft with a metal layer adjacent to and surrounding an outer layer of the composite shaft and extending between a proximal end and a distal end of the composite shaft; a metallic channel coupled to the proximal end of the composite shaft and electrically connected to the metal layer; and a metallic shaft coupled to the distal end of the composite shaft and electrically connected to the metal layer; and a wiper blade including a wiper blade coupling attached to the metallic shaft of the wiper arm. a wiper arm comprising: a composite shaft with a metal layer adjacent to and surrounding an outer layer of the composite shaft and extending between a proximal end and a distal end of the composite shaft; a metallic channel coupled to the proximal end of the composite shaft and electrically connected to the metal layer; and a metallic shaft coupled to the distal end of the composite shaft and electrically connected to the metal layer; and a composite shaft with a metal layer adjacent to and surrounding an outer layer of the composite shaft and extending between a proximal end and a distal end of the composite shaft; a metallic channel coupled to the proximal end of the composite shaft and electrically connected to the metal layer; and a metallic shaft coupled to the distal end of the composite shaft and electrically connected to the metal layer; and a wiper blade including a wiper blade coupling attached to the metallic shaft of the wiper arm.
An endothermic catalytic dehydrogenation process using a catalyst bed system comprising a catalyst bed with a catalytic material and a first inert material and a layer of a second inert material being arranged upstream of the catalyst bed, wherein the volume of the reactor above the second inert material is not filled by any solid material (empty space), and wherein the ratio of the volume of the second inert material and the volume of the reactor above the second inert material (empty space) is between 0,04 and 0,73, preferably between 0,06 and 0,3, most preferably between 0,09 and 0,2, wherein the process comprises - opt. passing a reduction gas through the volume of the second inert material being on top of the catalyst bed and the catalyst bed consisting of catalytic material and a first inert material for reducing the catalytic material, - passing a heat stream having a first temperature T1 between 700 and 1000°C through the volume of the second inert material and the catalyst bed and thereby heating the second inert material and the catalyst bed and regenerating the catalytic material within the catalyst bed, - passing a hydrocarbon stream having a second temperature T2 between 400 and 650°C through the volume of the second inert material and the catalyst bed and thereby dehydrogenating the hydrocarbon in the catalyst bed, and - wherein the temperature T3 at the interface of the second inert material and the catalyst bed is T1 > T3 > T2 and is between 500 and 800°C. - opt. passing a reduction gas through the volume of the second inert material being on top of the catalyst bed and the catalyst bed consisting of catalytic material and a first inert material for reducing the catalytic material, - passing a heat stream having a first temperature T1 between 700 and 1000°C through the volume of the second inert material and the catalyst bed and thereby heating the second inert material and the catalyst bed and regenerating the catalytic material within the catalyst bed, - passing a hydrocarbon stream having a second temperature T2 between 400 and 650°C through the volume of the second inert material and the catalyst bed and thereby dehydrogenating the hydrocarbon in the catalyst bed, and - wherein the temperature T3 at the interface of the second inert material and the catalyst bed is T1 > T3 > T2 and is between 500 and 800°C.
An integrated circuit system comprising: a quartz substrate ; a first integrated circuit die attached to the quartz substrate and having a first integrated circuit formed thereon, the first integrated circuit having a first voltage associated therewith; a second integrated circuit die attached to the quartz substrate and having a second integrated circuit formed thereon, the second integrated circuit having a second voltage associated therewith, the second voltage being less than the first voltage; and a transformer system formed on the quartz substrate and electrically connected between the first integrated circuit and the second integrated circuit to provide galvanic isolation therebetween. a quartz substrate ; a first integrated circuit die attached to the quartz substrate and having a first integrated circuit formed thereon, the first integrated circuit having a first voltage associated therewith; a second integrated circuit die attached to the quartz substrate and having a second integrated circuit formed thereon, the second integrated circuit having a second voltage associated therewith, the second voltage being less than the first voltage; and a transformer system formed on the quartz substrate and electrically connected between the first integrated circuit and the second integrated circuit to provide galvanic isolation therebetween.
A multi-chip system configured as an antenna array , wherein said multi-chip system comprises: - at least two transmitting chips each comprising an integrated transmitting antenna and an integrated up-conversion circuit ; and - at least two receiving chips , each comprising at least one integrated receiving antenna and at least one integrated down-conversion circuit ; and wherein: - each integrated transmitting antenna of a first one of the transmitting chips is spaced apart by λ/2 from each adjacent integrated transmitting antenna of a respective one of the transmitting chips; and wherein λ is the wavelength of the multi-chip system in air; and wherein each integrated receiving antenna of one of said receiving chips is spaced apart by N T *(λ/2) from each adjacent integrated receiving antennas of another one of said receiving chips along a first dimension, and wherein N T is the number of integrated transmitting antennas along the first dimension. - at least two transmitting chips each comprising an integrated transmitting antenna and an integrated up-conversion circuit ; and - at least two receiving chips , each comprising at least one integrated receiving antenna and at least one integrated down-conversion circuit ; - each integrated transmitting antenna of a first one of the transmitting chips is spaced apart by λ/2 from each adjacent integrated transmitting antenna of a respective one of the transmitting chips;
A soluble protein comprising a Sph3 GH domain, wherein the Sph3 GH domain comprises amino acids 52 to 298 of the Sph3 sequence deposited into GenBank under accession no. EAL92786.1, amino acids 54 to 304 of the Sph3 sequence deposited into GenBank under accession no. EAW09379.1, amino acids 43 to 299 of the Sph3 sequence deposited into GenBank under accession no. EAA63523.1or a glycosyl hydrolase functional variant thereof having 90% sequence identity to the soluble protein; and optionally an antimicrobial agent, such as an antibiotic or antifungal agent, for use in treating or preventing a biofilm-related infection in an animal in need thereof; wherein the soluble protein is able to hydrolyze glycosidic bonds.
An aqueous composition comprising: (i) porous particles present in an amount of at least 2 weight % and up to and including 10 weight %, each porous particle comprising a continuous polymeric phase and discrete pores dispersed within the continuous polymeric phase, the porous particles having a mode particle size of at least 2 μm and up to and including 50 μm; (ii) a film-forming binder material having a T g of less than or equal to 25°C, which film-forming binder material is present in an amount of at least 25 weight % and up to and including 60 weight %; (iii) a non-abrasive, whitening inorganic filler material having a value of less than 5 on the MOHS scale of mineral hardness, which non-abrasive, whitening inorganic filler material is present in an amount of at least 2 weight % and up to and including 15 weight %; and (iv) an aqueous medium in an amount of at least 35 weight % in which the film-forming binder material is soluble or dispersible, wherein the amounts of the (i) porous particles, the (ii) film-forming binder material, the (iii) inorganic filler material, and the (iv) aqueous medium are based on the total weight of the aqueous composition. (i) porous particles present in an amount of at least 2 weight % and up to and including 10 weight %, each porous particle comprising a continuous polymeric phase and discrete pores dispersed within the continuous polymeric phase, the porous particles having a mode particle size of at least 2 μm and up to and including 50 μm; (ii) a film-forming binder material having a T g of less than or equal to 25°C, which film-forming binder material is present in an amount of at least 25 weight % and up to and including 60 weight %; (iii) a non-abrasive, whitening inorganic filler material having a value of less than 5 on the MOHS scale of mineral hardness, which non-abrasive, whitening inorganic filler material is present in an amount of at least 2 weight % and up to and including 15 weight %; and (iv) an aqueous medium in an amount of at least 35 weight % in which the film-forming binder material is soluble or dispersible,
A composition for use in the treatment of infertility, the composition comprising > 12 to 24 μg follicle stimulating hormone (FSH), wherein the composition is for administration to a patient identified as having variant Ser/Ser at position 680 of the FSH receptor prior to treatment and identified as having a serum AMH level < 15 pmol/L prior to treatment.
A computer-implemented method for implementing communications between a Management Controller (MC) (102; 202; 302; 702; 902; 1002) and a Network Controller (NC) (104; 204; 304; 704; 904), the method comprising: establishing Internet Protocol (IP) connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using Network Controller Sideband Interface (NC-SI) control packets (438; 646; 648; 738), wherein establishing IP connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using NC-SI control packets (438; 646; 648; 738) involves at least one of 1) passing an IP address from the MC (102; 202; 302; 702; 902; 1002) to the NC (104; 204; 304; 704; 904) via an NC-SI control packet (438; 646; 648; 738), and 2) utilizing the NC-SI control packets (438; 646; 648; 738) to trigger IPv6 stateless autoconfiguration functionality between the MC (102; 202; 302; 702; 902; 1002) and the NC (104s; 204; 304; 704; 904); communicating between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) via an NC-SI (110; 210; 910; 1010) and the established IP connectivity, wherein communicating between the MC and the NC involves NC-SI local pass-through packets that are communicated between an IP address of the MC and an IP address of the NC. establishing Internet Protocol (IP) connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using Network Controller Sideband Interface (NC-SI) control packets (438; 646; 648; 738), wherein establishing IP connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using NC-SI control packets (438; 646; 648; 738) involves at least one of 1) passing an IP address from the MC (102; 202; 302; 702; 902; 1002) to the NC (104; 204; 304; 704; 904) via an NC-SI control packet (438; 646; 648; 738), and 2) utilizing the NC-SI control packets (438; 646; 648; 738) to trigger IPv6 stateless autoconfiguration functionality between the MC (102; 202; 302; 702; 902; 1002) and the NC (104s; 204; 304; 704; 904); communicating between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) via an NC-SI (110; 210; 910; 1010) and the established IP connectivity, wherein communicating between the MC and the NC involves NC-SI local pass-through packets that are communicated between an IP address of the MC and an IP address of the NC.
An image processing method, characterized by comprising: determining, before displaying frame image data, grey level values of a plurality of pixels in the frame image data to be displayed and dividing all of the grey level values into a plurality of grey level areas based on a determined rule (S101); for each grey level area of said plurality of grey level areas, comparing a first ratio and a second ratio corresponding to said grey level area with each other, wherein if said first ratio is greater than said second ratio, said grey level area is a first grey level area, and wherein if said first ratio is less than said second ratio, said grey level area is a second grey level area, wherein said first ratio is a ratio of the number of pixels whose grey level values are within said grey level area to the number of all of the pixels and wherein said second ratio is a ratio of a difference value between a maximum grey level value and a minimum grey level value in said grey level area to a maximum grey level value in said frame image data to be displayed (S 102); and adjusting grey level values included in each grey level area of said plurality of grey level areas to increase a grey level span of said first grey level area and decrease a grey level span of said second grey level area (S 103), to position the pre-adjustment first grey level area in a range of the post-adjustment first grey level area and to position the post-adjustment second grey level area in a range of the pre-adjustment second grey level area. determining, before displaying frame image data, grey level values of a plurality of pixels in the frame image data to be displayed and dividing all of the grey level values into a plurality of grey level areas based on a determined rule (S101); for each grey level area of said plurality of grey level areas, comparing a first ratio and a second ratio corresponding to said grey level area with each other, wherein if said first ratio is greater than said second ratio, said grey level area is a first grey level area, and wherein if said first ratio is less than said second ratio, said grey level area is a second grey level area, wherein said first ratio is a ratio of the number of pixels whose grey level values are within said grey level area to the number of all of the pixels and wherein said second ratio is a ratio of a difference value between a maximum grey level value and a minimum grey level value in said grey level area to a maximum grey level value in said frame image data to be displayed (S 102); and adjusting grey level values included in each grey level area of said plurality of grey level areas to increase a grey level span of said first grey level area and decrease a grey level span of said second grey level area (S 103), to position the pre-adjustment first grey level area in a range of the post-adjustment first grey level area and to position the post-adjustment second grey level area in a range of the pre-adjustment second grey level area.
Ibudilast, or a pharmaceutical salt thereof, for use in a treatment for suppressing myeloid-derived suppressor cells (MDSCs) in a patient diagnosed with microorganism infection or suffering therefrom, preferably wherein suppression of MDSCs reduces immune suppression in the patient, more preferably wherein suppression of MDSCs increases CD4 T-cell count in the patient; and wherein ibudilast, or the pharmaceutically acceptable salt thereof, is the only active agent administered to the patient.
Method for producing a decorated moulding, wherein the following steps are carried out in the method: a) producing an intermediate product in the form of a composite body by means of applying a transfer layer of a transfer foil to a first surface of a polypropylene foil , wherein the transfer layer of the transfer foil comprises at least one decorative layer , b) forming the composite body comprising the polypropylene foil with the applied transfer layer of the transfer foil , c) inserting the formed composite body into an injection mould and back injecting and/or overmoulding and/or insert moulding the formed composite body with a plastic material . characterised in that the transfer layer of the transfer foil has an adhesive layer , which is arranged on the side of the one or more decorative layers facing towards the first surface of the polypropylene foil and wherein the adhesive layer consists of two or more partial layers, which are printed consecutively, wherein the partial layer of the adhesive layer , facing towards the first surface of the polypropylene foil , is based on a polyolefin and/or wherein the partial layer of the adhesive layer , facing towards the one or more decorative layers , consists of a solvent-based polyurethane resin. a) producing an intermediate product in the form of a composite body by means of applying a transfer layer of a transfer foil to a first surface of a polypropylene foil , wherein the transfer layer of the transfer foil comprises at least one decorative layer , b) forming the composite body comprising the polypropylene foil with the applied transfer layer of the transfer foil , c) inserting the formed composite body into an injection mould and back injecting and/or overmoulding and/or insert moulding the formed composite body with a plastic material . the transfer layer of the transfer foil has an adhesive layer , which is arranged on the side of the one or more decorative layers facing towards the first surface of the polypropylene foil and wherein the adhesive layer consists of two or more partial layers, which are printed consecutively, wherein the partial layer of the adhesive layer , facing towards the first surface of the polypropylene foil , is based on a polyolefin and/or wherein the partial layer of the adhesive layer , facing towards the one or more decorative layers , consists of a solvent-based polyurethane resin.
A generally cylindrical hollow stylet for a biopsy device, the stylet having a distal end and a proximal end and comprising: a cylindrical distal portion having a wall thickness and an outer diameter, and a cylindrical proximal portion connected to the distal portion , the proximal portion having a wall thickness and an outer diameter, the distal portion having a sample recess forming a sample chamber positioned adjacent the distal end extending axially along a portion of the distal portion , the outer diameter of the proximal portion being equal to the outer diameter of the distal portion , wherein the wall thickness of the proximal portion is greater than the wall thickness of the distal portion , and the proximal portion has a stiffness greater than a cylinder having the wall thickness and the outer diameter of the distal portion . a cylindrical distal portion having a wall thickness and an outer diameter, and a cylindrical proximal portion connected to the distal portion , the proximal portion having a wall thickness and an outer diameter, the distal portion having a sample recess forming a sample chamber positioned adjacent the distal end extending axially along a portion of the distal portion , the outer diameter of the proximal portion being equal to the outer diameter of the distal portion , wherein the wall thickness of the proximal portion is greater than the wall thickness of the distal portion , and the proximal portion has a stiffness greater than a cylinder having the wall thickness and the outer diameter of the distal portion .