mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing of a laminated packaging material (10a;10b) for liquid food carton packaging, comprising the steps of a. Providing a first web comprising a layer A of paper or paperboard or other cellulose-based material (11a;11b; 11c), wherein the layer A is a bulk layer in the laminated packaging material, b. Providing a second web comprising a film or sheet B (12a;12b), c. Applying an aqueous composition comprising an adhesive, at an amount from 1 to 4 g/m 2 , dry content, onto the surface of one of the first and second webs, d. Forwarding the first and second webs, one of which having the aqueous adhesive composition applied to its surface, towards a pressure roller nip to be joined and laminated together by the interjacent aqueous adhesive composition while passing the nip, and while the adhesive composition is partly absorbed into at least one of the first and second web surfaces of A and B, wherein there is no forced drying or curing or crosslinking of the applied adhesive composition and wherein the lamination is taking place at ambient temperature, and e. applying outer- and innermost thermoplastic polymer layers to form the laminated packaging material. a. Providing a first web comprising a layer A of paper or paperboard or other cellulose-based material (11a;11b; 11c), wherein the layer A is a bulk layer in the laminated packaging material, b. Providing a second web comprising a film or sheet B (12a;12b), c. Applying an aqueous composition comprising an adhesive, at an amount from 1 to 4 g/m 2 , dry content, onto the surface of one of the first and second webs, d. Forwarding the first and second webs, one of which having the aqueous adhesive composition applied to its surface, towards a pressure roller nip to be joined and laminated together by the interjacent aqueous adhesive composition while passing the nip, and while the adhesive composition is partly absorbed into at least one of the first and second web surfaces of A and B, wherein there is no forced drying or curing or crosslinking of the applied adhesive composition and wherein the lamination is taking place at ambient temperature, and e. applying outer- and innermost thermoplastic polymer layers to form the laminated packaging material.
A machine for packaging rolls (R) or the like, comprising: - a device for spreading a wrapping sheet (F); - an elevator , adapted to move a roll (R) to be wrapped with respect to the wrapping sheet (F), so as to wrap the wrapping sheet around the roll as a result of the movement between the wrapping sheet and the roll; - a first lateral wall and a second lateral wall approximately parallel to the first lateral wall; wherein the elevator is vertically movable between the first lateral wall and the second lateral wall; characterized by further comprising members integral with the elevator , adapted to reduce the formation of creases in the wrapping sheet (F) during the movement of the roll (R) with respect to the wrapping sheet. - a device for spreading a wrapping sheet (F); - an elevator , adapted to move a roll (R) to be wrapped with respect to the wrapping sheet (F), so as to wrap the wrapping sheet around the roll as a result of the movement between the wrapping sheet and the roll; - a first lateral wall and a second lateral wall approximately parallel to the first lateral wall; wherein the elevator is vertically movable between the first lateral wall and the second lateral wall;
A method for producing a composite material, comprising a step of immersing a carbon fiber bundle including a plurality of continuous carbon fibers in a carbon-nanotubes-isolated dispersion containing a plurality of isolatedly-dispersed carbon nanotubes and applying ultrasonic vibrations at a frequency of 130kHz or more and 180 kHz or less to form a structure comprising a plurality of carbon nanotubes on a surface of each of the plurality of carbon fibers, wherein the structure is directly attached to the surface of each of the plurality of carbon fibers and has a network structure in which the carbon nanotubes are directly connected to one another, and, in the composite material, the plurality of carbon fibers align in one direction while maintaining the linearity substantially without entangling with one another.
A method for manufacturing an implantable medical lead, comprising the steps of: a) providing an untreated wire comprising MP35N having a first diameter, where MP35N is an alloy containing 35% Co, 35% Ni, 20% Cr and 10% Mo, by weight; b) electropolishing the untreated wire to remove a surface layer ranging from about 0.000254 cm to about 0.000889 cm (about 0.00010 inches to about 0.00035 inches) from the wire to thereby provide a treated wire having a second diameter, less than the first diameter; and c) winding the treated wire into an implantable medical lead. a) providing an untreated wire comprising MP35N having a first diameter, where MP35N is an alloy containing 35% Co, 35% Ni, 20% Cr and 10% Mo, by weight; b) electropolishing the untreated wire to remove a surface layer ranging from about 0.000254 cm to about 0.000889 cm (about 0.00010 inches to about 0.00035 inches) from the wire to thereby provide a treated wire having a second diameter, less than the first diameter; and c) winding the treated wire into an implantable medical lead.
A coating structure comprising: a chemical conversion layer that is made of a phosphate-coated film and is formed in a manner of covering a surface of a base material which is made of a magnesium alloy containing magnesium as a main component and containing at least one kind of element selected from a group consisting of gadolinium, terbium, thulium, and lutetium; and a plating layer that is made of a nickel-based alloy and is formed in a manner of covering the chemical conversion layer , wherein the phosphate-coated film is made of any one of iron phosphate, manganese phosphate and zinc phosphate, wherein the plating layer is formed of a nickel-phosphorous alloy, wherein the base material contains a atom percent of zinc, contains b atom percent of at least one kind of element, in total, selected from a group consisting of gadolinium, terbium, thulium, and lutetium, has a remaining portion made of magnesium, and has the factors a and b satisfying the following expressions to , and wherein the base material has at least one kind of precipitate selected from a precipitate group consisting of a compound of magnesium and a rare earth element, a compound of magnesium and zinc, a compound of zinc and a rare earth element, and a compound of magnesium, zinc, and a rare earth element, 0.2 ≤ a ≤ 5.0 0.5 ≤ b ≤ 5.0 0.5 ⁢ a − 0.5 ≤ b . a chemical conversion layer that is made of a phosphate-coated film and is formed in a manner of covering a surface of a base material which is made of a magnesium alloy containing magnesium as a main component and containing at least one kind of element selected from a group consisting of gadolinium, terbium, thulium, and lutetium; and a plating layer that is made of a nickel-based alloy and is formed in a manner of covering the chemical conversion layer , wherein the phosphate-coated film is made of any one of iron phosphate, manganese phosphate and zinc phosphate, wherein the plating layer is formed of a nickel-phosphorous alloy, wherein the base material contains a atom percent of zinc, contains b atom percent of at least one kind of element, in total, selected from a group consisting of gadolinium, terbium, thulium, and lutetium, has a remaining portion made of magnesium, and has the factors a and b satisfying the following expressions to , and wherein the base material has at least one kind of precipitate selected from a precipitate group consisting of a compound of magnesium and a rare earth element, a compound of magnesium and zinc, a compound of zinc and a rare earth element, and a compound of magnesium, zinc, and a rare earth element, 0.2 ≤ a ≤ 5.0 0.5 ≤ b ≤ 5.0 0.5 ⁢ a − 0.5 ≤ b .
An artificial esophagus for replacement of damaged tissue by implantation, said esophagus comprising: substantially acellular extracellular matrix formed as a tube of greater than 10 mm diameter, wherein the artificial esophagus has a suture retention of greater than 100 grams, wherein the extracellular matrix is produced and secreted by vascular smooth muscle cells grown in vitro on a tubular substrate. substantially acellular extracellular matrix formed as a tube of greater than 10 mm diameter, wherein the artificial esophagus has a suture retention of greater than 100 grams, wherein the extracellular matrix is produced and secreted by vascular smooth muscle cells grown in vitro on a tubular substrate.
A method for adaptation of anaerobic microorganisms and selection of more oxygen tolerant anaerobic microorganisms, said method comprising the steps of culturing said microorganisms with a stepwise dual induction of oxidative stress via a stepwise increase of applied voltage and oxygen diffusion, and a stepwise reduction in the concentration of antioxidant combined with a stepwise increase in the concentration of oxidized counterpart to change the anti-oxidant/oxidized counterpart concentration ratio to adjust the redox state, wherein the dissolved oxygen concentration in the culture medium is maintained at a sub-lethal concentration at which some but not all of the microorganisms are killed.
A method for wireless communications, comprising: determining, by a relay node , a plurality of layer-specific search spaces, wherein each layer-specific search space comprises a common search space and one or more relay-specific search spaces and wherein each layer-specific search space corresponding to a plurality of physical downlink control channel, PDCCH, candidates; defining a relay physical downlink control channel, R-PDCCH, search space comprising at least one of the plurality of the layer-specific search spaces and wherein each of the plurality of the layer-specific search spaces corresponds to one of a plurality of antenna ports utilized to transmit a reference signal; and performing a search for a PDCCH for the relay node in the R-PDCCH search space, wherein the PDCCH for the relay node is transmitted utilizing one of the plurality of antenna ports. determining, by a relay node , a plurality of layer-specific search spaces, wherein each layer-specific search space comprises a common search space and one or more relay-specific search spaces and wherein each layer-specific search space corresponding to a plurality of physical downlink control channel, PDCCH, candidates; defining a relay physical downlink control channel, R-PDCCH, search space comprising at least one of the plurality of the layer-specific search spaces and wherein each of the plurality of the layer-specific search spaces corresponds to one of a plurality of antenna ports utilized to transmit a reference signal; and performing a search for a PDCCH for the relay node in the R-PDCCH search space, wherein the PDCCH for the relay node is transmitted utilizing one of the plurality of antenna ports.
An x-ray window comprising: a thin film configured for transmission of x-rays; a housing ; and an adhesive layer sandwiched between and providing a hermetic seal between the thin film and the housing , characterised in that the adhesive layer is ≥ 99% thermotropic liquid crystal polymer. a thin film configured for transmission of x-rays; a housing ; and an adhesive layer sandwiched between and providing a hermetic seal between the thin film and the housing , characterised in that the adhesive layer is ≥ 99% thermotropic liquid crystal polymer.
A network control system comprising: a control module configured to enforce a network resource configuration to each of at least two of a radio access network , a mobile backhaul network , and a core network in accordance with common resource partitioning information indicating slicing of network resources among a plurality of mobile network operators , in order to allow the plurality of mobile network operators to share the at least two networks , wherein the network control system is characterized in that the control module is configured to generate, in accordance with the common resource partitioning information, a third configuration causing at least one hardware element in the core network to function as a virtualized core network node of each of the plurality of mobile network operators , and apply the third configuration to the at least one hardware element. a control module configured to enforce a network resource configuration to each of at least two of a radio access network , a mobile backhaul network , and a core network in accordance with common resource partitioning information indicating slicing of network resources among a plurality of mobile network operators , in order to allow the plurality of mobile network operators to share the at least two networks , wherein the network control system is characterized in that the control module is configured to generate, in accordance with the common resource partitioning information, a third configuration causing at least one hardware element in the core network to function as a virtualized core network node of each of the plurality of mobile network operators , and apply the third configuration to the at least one hardware element.
A liquid blow molding method, liquid-blow-molding a resin preform into a container having a prescribed shape; using: a liquid blow molding apparatus which has a blow molding mold in which said preform is disposed, a blow nozzle which is fitted into the opening of said preform , a pressurized liquid supply section which supplies a pressurized liquid to a supply channel which is connected to said blow nozzle , and a seal member which is placed in said supply channel and which opens and closes said supply channel with respect to said blow nozzle ; characterized in that after the opening of said seal member has started, the supply of the pressurized liquid to said supply channel by said pressurized liquid supply section is started and the time from when the opening of said seal member is started until said pressurized water supply section starts the supply of the pressurized water to said supply channel is made no less than 0.01 second and no more than 0.05 second. a liquid blow molding apparatus which has a blow molding mold in which said preform is disposed, a blow nozzle which is fitted into the opening of said preform , a pressurized liquid supply section which supplies a pressurized liquid to a supply channel which is connected to said blow nozzle , and a seal member which is placed in said supply channel and which opens and closes said supply channel with respect to said blow nozzle ; characterized in that after the opening of said seal member has started, the supply of the pressurized liquid to said supply channel by said pressurized liquid supply section is started and the time from when the opening of said seal member is started until said pressurized water supply section starts the supply of the pressurized water to said supply channel is made no less than 0.01 second and no more than 0.05 second.
An organoaminosilane selected from 1,3-bis(diethylamino)-1,3-disilacyclobutane, 1,3-bis(di-iso-propyl-amino)-1,3-disilacyclobutane, 1,4-bis(dimethylamino)-1,4-disilacyclohexane, 1,4-bis(diethylamino)-1,4-disilacyclohexane, and 1,4-bis(di-iso-propylamino)-1,4-disilacyclohexane.
Vane rotor for a rotary pump to be driven by a drive shaft , the rotor comprising a substantially cylindrical body with an axial bore having an internal diameter and into which a drive shaft is to be press fitted for driving the vane rotor, wherein said vane rotor comprises a plurality of radial slots each forming a seat for a vane and ending, at a radially inner end, with a widened blind bottom , wherein said widened blind bottom has a cross-sectional profile which is defined by a pair of first arcs arranged with facing concavities and having radially outer ends joined with a respective wall of the slot, and by a connecting portion connecting radially inner ends of said first arcs , said bottom having a curvature of the connecting portion having substantially the same direction of curvature as the press-fitted drive shaft , wherein said connecting portion is a further arc having the convexity directed towards the inside of the widened bottom , the arcs of all seats of the vanes belonging to a same circumference , and wherein an angle (α R ) greater than 0° exists between a radius of the rotor passing through a centre (C1) of a first arc and a radius containing an axis (A) of said slots , said angle (α R ) having an amplitude of less than 10°.
A filter cartridge for a respiratory mask, the cartridge comprising a housing comprised of an inner receptacle having an open end and an outer cover mounted over said open end of said inner receptacle, said outer cover having, in a covering surface thereof, an air intake aperture in fluid communication with said inner receptacle , said outer cover being pivotally mounted to said inner receptacle and configured for pivotal movement relative thereto between a first configuration in which there is a gap between said open end of said inner receptacle and said outer cover such that a first respiratory airway is defined between said intake aperture and said inner receptacle , and a second configuration in which said outer cover substantially seals said open end of said inner receptacle and said first respiratory airway is thereby blocked; characterized in that said air intake aperture is located at a first longitudinal end of said housing, said cover is pivotally mounted to said inner receptacle by means of a fixed pivot provided at a second, opposite longitudinal end of said housing, a second respiratory airway is defined by said gap between the open end of the inner receptacle and the cover in said first configuration, and the inner receptacle further comprises a connecting portion adjacent the second longitudinal end of the housing configured to mount the filter cartridge over a respiratory aperture in a respiratory mask.
A port rate determining method, applied to a computer device , wherein the computer device comprises a port used to perform data transmission with a peer end, the port comprises N physical channels, and the port rate determining method comprises: a) obtaining , by the computer device , a negotiated rate of each of the N physical channels, to obtain M different negotiated rates, wherein the negotiated rate is a communication rate negotiated for each physical channel when a connection is established between the port and a port of the peer end, N is a positive integer greater than 1, and M is a positive integer not greater than N; b) determining , by the computer device , a total port bandwidth corresponding to each of the M negotiated rates, wherein a total port bandwidth corresponding to an i th negotiated rate in the M negotiated rates is a total bandwidth reached by the port when the i th negotiated rate is set as a channel transmission rate of the port, and the channel transmission rate is used to represent an actual rate of data transmission on each physical channel in the port; and c) setting , by the computer device , a negotiated rate corresponding to a largest total port bandwidth in total port bandwidths corresponding to the M negotiated rates as the channel transmission rate of the port, characterized in that : d) the total port bandwidth corresponding to the i th negotiated rate is specifically a product of the i th negotiated rate and a quantity of physical channels whose negotiated rates are not less than the i th negotiated rate in the N physical channels. a) obtaining , by the computer device , a negotiated rate of each of the N physical channels, to obtain M different negotiated rates, wherein the negotiated rate is a communication rate negotiated for each physical channel when a connection is established between the port and a port of the peer end, N is a positive integer greater than 1, and M is a positive integer not greater than N; b) determining , by the computer device , a total port bandwidth corresponding to each of the M negotiated rates, wherein a total port bandwidth corresponding to an i th negotiated rate in the M negotiated rates is a total bandwidth reached by the port when the i th negotiated rate is set as a channel transmission rate of the port, and the channel transmission rate is used to represent an actual rate of data transmission on each physical channel in the port; and c) setting , by the computer device , a negotiated rate corresponding to a largest total port bandwidth in total port bandwidths corresponding to the M negotiated rates as the channel transmission rate of the port, characterized in that : d) the total port bandwidth corresponding to the i th negotiated rate is specifically a product of the i th negotiated rate and a quantity of physical channels whose negotiated rates are not less than the i th negotiated rate in the N physical channels.
An accessory detachably mountable to an imaging apparatus and capable of communication with the imaging apparatus when mounted to the imaging apparatus , the accessory comprising: a mount unit where a plurality of electric contacts are arrayed (2001 - 2012), wherein the plurality of electric contacts (2001 - 2012) include: a first electric contact configured to receive supply of electric power from the imaging apparatus , a second electric contact configured to set a ground level of the first electric contact , a third electric contact configured to transmit and receive data between the imaging apparatus and the accessory , and a fourth electric contact configured to make notification of a timing relating to communication using the third electric contact , wherein the third electric contact is connected to a CMOS-type input/output interface comprising a CMOS logic circuit, wherein the fourth electric contact is connected to an open-type output interface, and wherein the fourth electric contact is disposed adjacent to the second electric contact on the mount unit , and the third electric contact is disposed on the opposite side of the fourth electric contact from the second electric contact . a mount unit where a plurality of electric contacts are arrayed (2001 - 2012), wherein the plurality of electric contacts (2001 - 2012) include: a first electric contact configured to receive supply of electric power from the imaging apparatus , a second electric contact configured to set a ground level of the first electric contact , a third electric contact configured to transmit and receive data between the imaging apparatus and the accessory , and a fourth electric contact configured to make notification of a timing relating to communication using the third electric contact , a first electric contact configured to receive supply of electric power from the imaging apparatus , a second electric contact configured to set a ground level of the first electric contact , a third electric contact configured to transmit and receive data between the imaging apparatus and the accessory , and a fourth electric contact configured to make notification of a timing relating to communication using the third electric contact , wherein the third electric contact is connected to a CMOS-type input/output interface comprising a CMOS logic circuit, wherein the fourth electric contact is connected to an open-type output interface, and wherein the fourth electric contact is disposed adjacent to the second electric contact on the mount unit , and the third electric contact is disposed on the opposite side of the fourth electric contact from the second electric contact .