mhurhangee/ep-ind-claims huggingface dataset:
A mold flux for continuous casting which has a base material composition containing: 25 to 60 mass% of CaO; 15 to 45 mass% of SiO 2; 5 to 25 mass% of F; 0.20 to 1.00 mass% of S; and 0 to 20 mass% of a total of Li 2 O, Na 2 O, and K 2 O, wherein in the base material composition, f represented by Formula 1 is 0.90 to 1.90, f represented by Formula 2 is 0.10 to 0.40, f represented by Formula 3 is 0 to 0.40, and a total of CaO, SiO 2, F, S, Li 2 O, Na 2 O, and K 2 O is 90 to 100 mass%, f 1 = CaO h / SiO 2 h f 2 = CaF 2 h / CaO h + SiO 2 h + CaF 2 h f 3 = MF h / CaO h + SiO 2 h + MF h where (CaO) h, (SiO 2) h, (CaF 2) h, and h in Formulae 1 to 3 are calculated as follows, CaO h = W CaO − CaF 2 h × 0.718 SiO 2 h = W SiO 2 CaF 2 h = W F − W Li 2 O × 1.27 − W Na 2 O × 0.613 − W K 2 O × 0.403 × 2.05 MF h = W Li 2 O × 1.74 + W Na 2 O × 1.35 + W K 2 O × 1.23 where W i represents a percentage by mass of each component i. 25 to 60 mass% of CaO; 15 to 45 mass% of SiO 2; 5 to 25 mass% of F; 0.20 to 1.00 mass% of S; and 0 to 20 mass% of a total of Li 2 O, Na 2 O, and K 2 O, wherein in the base material composition, f represented by Formula 1 is 0.90 to 1.90, f represented by Formula 2 is 0.10 to 0.40, f represented by Formula 3 is 0 to 0.40, and a total of CaO, SiO 2, F, S, Li 2 O, Na 2 O, and K 2 O is 90 to 100 mass%, f 1 = CaO h / SiO 2 h f 2 = CaF 2 h / CaO h + SiO 2 h + CaF 2 h f 3 = MF h / CaO h + SiO 2 h + MF h where (CaO) h, (SiO 2) h, (CaF 2) h, and h in Formulae 1 to 3 are calculated as follows, CaO h = W CaO − CaF 2 h × 0.718 SiO 2 h = W SiO 2 CaF 2 h = W F − W Li 2 O × 1.27 − W Na 2 O × 0.613 − W K 2 O × 0.403 × 2.05 MF h = W Li 2 O × 1.74 + W Na 2 O × 1.35 + W K 2 O × 1.23 where W i represents a percentage by mass of each component i. f represented by Formula 1 is 0.90 to 1.90, f represented by Formula 2 is 0.10 to 0.40, f represented by Formula 3 is 0 to 0.40, and a total of CaO, SiO 2, F, S, Li 2 O, Na 2 O, and K 2 O is 90 to 100 mass%, f 1 = CaO h / SiO 2 h f 2 = CaF 2 h / CaO h + SiO 2 h + CaF 2 h f 3 = MF h / CaO h + SiO 2 h + MF h where (CaO) h, (SiO 2) h, (CaF 2) h, and h in Formulae 1 to 3 are calculated as follows, CaO h = W CaO − CaF 2 h × 0.718 SiO 2 h = W SiO 2 CaF 2 h = W F − W Li 2 O × 1.27 − W Na 2 O × 0.613 − W K 2 O × 0.403 × 2.05 MF h = W Li 2 O × 1.74 + W Na 2 O × 1.35 + W K 2 O × 1.23 where W i represents a percentage by mass of each component i.
A reciprocating syringe, comprising: a frame, defining a first receptacle and a second receptacle; the first receptacle being suitable for retaining a first insertable syringe barrel and the second receptacle being suitable for retaining a second insertable syringe barrel; a plunger complex, comprising a first plunger suitable for use with a syringe barrel retained in the first receptacle, and a second plunger suitable for use with a syringe barrel retained in the second receptacle, wherein the first and second plungers are coupled such that motion of the first plunger in a direction into a syringe barrel retained in the first receptacle causes motion of the second plunger in a direction out of a syringe barrel retained in the second receptacle, and such that motion of the second plunger in a direction into a syringe barrel retained in the second receptacle causes motion of the first plunger in a direction out of a syringe barrel retained in the first receptacle; characterised in that the retained first insertable syringe barrel is a barrel of an introducer syringe, and the first plunger has an exit lumen suitable for passage of an introducer wire therethrough. a frame, defining a first receptacle and a second receptacle; the first receptacle being suitable for retaining a first insertable syringe barrel and the second receptacle being suitable for retaining a second insertable syringe barrel; a plunger complex, comprising a first plunger suitable for use with a syringe barrel retained in the first receptacle, and a second plunger suitable for use with a syringe barrel retained in the second receptacle, wherein the first and second plungers are coupled such that motion of the first plunger in a direction into a syringe barrel retained in the first receptacle causes motion of the second plunger in a direction out of a syringe barrel retained in the second receptacle, and such that motion of the second plunger in a direction into a syringe barrel retained in the second receptacle causes motion of the first plunger in a direction out of a syringe barrel retained in the first receptacle; characterised in that the retained first insertable syringe barrel is a barrel of an introducer syringe, and the first plunger has an exit lumen suitable for passage of an introducer wire therethrough.
A method of manufacturing a solar cell using a substrate (138, 300), comprising: creating a vacuum wherein said substrate (138, 300) is implanted; performing a first ion implantation on first surface of said substrate (138, 300) using a first species; introducing a mask pattern so as to cover a portion of said first surface of said substrate (138, 300); and performing a second ion implantation on said surface using a second species, the method being characterized in that only an uncovered portion of said first surface of said substrate (138, 300) is implanted with said second species, and in that said first and second ion implantations are performed without breaking said vacuum. creating a vacuum wherein said substrate (138, 300) is implanted; performing a first ion implantation on first surface of said substrate (138, 300) using a first species; introducing a mask pattern so as to cover a portion of said first surface of said substrate (138, 300); and performing a second ion implantation on said surface using a second species, the method being characterized in that only an uncovered portion of said first surface of said substrate (138, 300) is implanted with said second species, and in that said first and second ion implantations are performed without breaking said vacuum.
A method for simultaneous communication over multiple air interfaces and/or multiple channels using at least one active transmitter (210 -210(n)) and at least one active receiver (200 -200(m)) within a wireless device, comprising: determining whether one or more bins each corresponding to a frequency subband are affected by interference from said at least one transmitter based on predetermined information, wherein the number of bins affected by the at least one transmitter (210 -210(n)) and the number of bins affected at any particular receiver (200 -200(m)) is determined; comparing whether the number of bins affected by the at least one transmitter (210 -210(n)) is larger than the number of bins affected at any particular receiver (200 -200(m)) and based on said comparison determining whether the predetermined information is to be communicated to said at least one transmitter (210 -210(n)) or said at least one receiver (200 -200(m)); communicating the predetermined information to the at least one transmitter or said at least one receiver; and avoiding the interference from the transmitter by the at least one transmitter or said at least one receiver based on the communicated predetermined information. determining whether one or more bins each corresponding to a frequency subband are affected by interference from said at least one transmitter based on predetermined information, wherein the number of bins affected by the at least one transmitter (210 -210(n)) and the number of bins affected at any particular receiver (200 -200(m)) is determined; comparing whether the number of bins affected by the at least one transmitter (210 -210(n)) is larger than the number of bins affected at any particular receiver (200 -200(m)) and based on said comparison determining whether the predetermined information is to be communicated to said at least one transmitter (210 -210(n)) or said at least one receiver (200 -200(m)); communicating the predetermined information to the at least one transmitter or said at least one receiver; and avoiding the interference from the transmitter by the at least one transmitter or said at least one receiver based on the communicated predetermined information.
An image capturing apparatus comprising: dividing means for dividing light from a light source into reference light and measurement light; a first dichroic mirror (102, 103) arranged in a measurement optical path for guiding the measurement light to an object (100, 202) to be examined; a second dichroic mirror (154-1, 154-2, 155) arranged in a reference optical path for guiding the reference light to a reference object; and light receiving means for receiving interference light between the measurement light passing through said first dichroic mirror (102, 103) and the reference light passing through said second dichroic mirror (154-1, 154-2, 155). dividing means for dividing light from a light source into reference light and measurement light; a first dichroic mirror (102, 103) arranged in a measurement optical path for guiding the measurement light to an object (100, 202) to be examined; a second dichroic mirror (154-1, 154-2, 155) arranged in a reference optical path for guiding the reference light to a reference object; and light receiving means for receiving interference light between the measurement light passing through said first dichroic mirror (102, 103) and the reference light passing through said second dichroic mirror (154-1, 154-2, 155).
Device for limiting the speed of moving traffic that comprises at least one protruding element designed to be positioned on the surface of a road that is open to traffic in such a way that it can intervene in the path of a vehicle that is characterised in that it comprises: o a directrix line (1.1) which in a plan view has a curved shape and it is designed to be positioned in the direction of the travel of the vehicle in such a way that the width (1.2) of the projection of the protruding element on a transverse plane to the lane is greater than the width between wheels of the same axis of the largest vehicle whose speed is to be controlled; o a cross section to the directrix line (1.1) that is reduced at the ends of the protruding element and bulged inward, the maximum width (1.3) of the cross section being less than or equal to the width between wheels of the same axis of the smallest vehicle whose speed is to be controlled. o a directrix line (1.1) which in a plan view has a curved shape and it is designed to be positioned in the direction of the travel of the vehicle in such a way that the width (1.2) of the projection of the protruding element on a transverse plane to the lane is greater than the width between wheels of the same axis of the largest vehicle whose speed is to be controlled; o a cross section to the directrix line (1.1) that is reduced at the ends of the protruding element and bulged inward, the maximum width (1.3) of the cross section being less than or equal to the width between wheels of the same axis of the smallest vehicle whose speed is to be controlled.
A diaphragm pump, comprising: a diaphragm movable between first and second positions along a first axis; a pumping chamber on a first side of the diaphragm, the pumping chamber adapted to carry a fluid to be pumped; a piston; a transfer chamber defined between the diaphragm and piston on a second side of the diaphragm, the transfer chamber being filled with a hydraulic fluid; a valve spool; characterized by: a first check valve and a second check valve; a fluid reservoir in fluid communication with the transfer chamber via the first check valve and a first opening leading to the fluid reservoir, and the second check valve and a second opening extending from the fluid reservoir to the transfer chamber; and the valve spool positioned in the transfer chamber to control fluid flow through the first and second check valves (46, 44), the valve spool moveable along a second axis that is different from the first axis between a plurality of positions relative to the openings (64, 56) to the first and second check valves (46, 44). a diaphragm movable between first and second positions along a first axis; a pumping chamber on a first side of the diaphragm, the pumping chamber adapted to carry a fluid to be pumped; a piston; a transfer chamber defined between the diaphragm and piston on a second side of the diaphragm, the transfer chamber being filled with a hydraulic fluid; a valve spool; characterized by: a first check valve and a second check valve; a fluid reservoir in fluid communication with the transfer chamber via the first check valve and a first opening leading to the fluid reservoir, and the second check valve and a second opening extending from the fluid reservoir to the transfer chamber; and the valve spool positioned in the transfer chamber to control fluid flow through the first and second check valves (46, 44), the valve spool moveable along a second axis that is different from the first axis between a plurality of positions relative to the openings (64, 56) to the first and second check valves (46, 44). a first check valve and a second check valve; a fluid reservoir in fluid communication with the transfer chamber via the first check valve and a first opening leading to the fluid reservoir, and the second check valve and a second opening extending from the fluid reservoir to the transfer chamber; and the valve spool positioned in the transfer chamber to control fluid flow through the first and second check valves (46, 44), the valve spool moveable along a second axis that is different from the first axis between a plurality of positions relative to the openings (64, 56) to the first and second check valves (46, 44).
A method for use in a communication element communicating in a cellular communication network, the method comprising preparing establishment of a communication connection to a cellular communication network via a single multi-address bearer connection, the communication connection being provided with multiple addresses for Internet protocol based communication links, generating an indication element for indicating at least one terminating point represented by a network element (10, 20) of the cellular communication network where data traffic, based on at least one of the multiple addresses, is branched to another network being different to the cellular communication network by means of one of the Internet protocol based communication links, and causing transmission of the indication element by means of a convergence protocol signaling to a communication network control element of the cellular communication network, wherein the convergence protocol is a packet data convergence protocol used between a communication element and the communication network control element, wherein the indication element is a packet data unit type code element, wherein a specific packet data unit type code element is allocated to each possible network element (10, 20) representing a terminating point of the Internet protocol based communication links on the side of the cellular communication network, wherein the method further comprises mapping the packet data unit type code element to a link layer address allocated to one of the Internet protocol based communication links, or using a common link layer addressing for each network element involved in the communication connection via the single multi-address bearer connection.
Microtome, comprising a blade holder on which a blade is mounted, an anti-roll device for supporting a section preparation that has been produced by means of the blade, and a suction device by means of which the section preparation can be picked up by suction and carried off, wherein the suction device has a nozzle with an adjustably mounted nozzle body and with a suction channel, characterized in that the anti-roll device is mounted on the nozzle body and is adjustable together therewith.
A heat-generating assembly, comprising a first inorganic layer, a heat-generating layer, and a second inorganic layer that are stacked sequentially, the heat-generating layer comprising: a first side portion connected to a surface of the first inorganic layer; a second side portion connected to a surface of the second inorganic layer; and two end portions opposite to each other, each of the two end portions being connected to the first inorganic layer and the second inorganic layer, each of the two end portions being characterised by having a recess, the recess extending towards the interior of the heat-generating layer. a first side portion connected to a surface of the first inorganic layer; a second side portion connected to a surface of the second inorganic layer; and two end portions opposite to each other, each of the two end portions being connected to the first inorganic layer and the second inorganic layer, each of the two end portions being characterised by having a recess, the recess extending towards the interior of the heat-generating layer.
Method for transferring a smoked taste to an edible substance, in which: - said substance is inserted into a container; then - a smoked absorbent fabric is created, wherein: - - a non-woven fabric made of viscose is provided, with a surface density varying from 25g/m 2 to 300g/m 2; - - said fabric is inserted into a smoker comprising smoking chips or powder and in which the temperature is between 40°C and 80°C and is preferably approximately 60°C; and - - said fabric is smoked for a time between 6 and 24 hours in order to obtain a smoked absorbent fabric; and - said smoked absorbent fabric thus obtained is inserted into said container thus filled with, said method being characterised in that the edible substance is a liquid, semi-liquid or paste-like substance. - said substance is inserted into a container; - a smoked absorbent fabric is created, wherein: - - a non-woven fabric made of viscose is provided, with a surface density varying from 25g/m 2 to 300g/m 2; - - said fabric is inserted into a smoker comprising smoking chips or powder and in which the temperature is between 40°C and 80°C and is preferably approximately 60°C; and - - said fabric is smoked for a time between 6 and 24 hours in order to obtain a smoked absorbent fabric; and - said smoked absorbent fabric thus obtained is inserted into said container thus filled with, - - a non-woven fabric made of viscose is provided, with a surface density varying from 25g/m 2 to 300g/m 2; - - said fabric is inserted into a smoker comprising smoking chips or powder and in which the temperature is between 40°C and 80°C and is preferably approximately 60°C; and - - said fabric is smoked for a time between 6 and 24 hours in order to obtain a smoked absorbent fabric; and - said smoked absorbent fabric thus obtained is inserted into said container thus filled with,
A blank for making dental moulds, wherein the blank has a blank body made of dental restoration material from which the mould to be created can be fashioned by a tool by removal of material, wherein the blank on part of the surface of the blank body has a coding with at least one structure (8, 9) for identifying the blank, wherein the coding is made up of several fields (5.1) of the surface of the blank body and of several fields (5.2, 5.3) with a flat structure (8, 9) with at least one height (h1, h2) differentiable from the surface of the blank body, wherein the fields (5.2, 5.3) with structure (8, 9) enclose part of the fields (5.1) of the surface or at least partially surround them, and wherein the coding contains at least one field (5.2) with structure (8, 9) with a first height difference with respect to the surface and at least one field (5.3) with structure (8, 9) with a second height difference with respect to the surface characterized by at least one field (5.2) with structure (8, 9) with a first height difference with respect to the surface being adjacent to at least one field (5.3) with structure (8, 9) with a second height difference with respect to the surface, wherein the two fields (5.2, 5.3) with structure (8, 9) form a pair in such a way that there is a pair-based height difference.
A fastening device for fastening to a support at least one deck board (100, 200) having a longitudinal edge (102, 202) provided with a groove (104, 204), the fastening device comprising: a base having an upper face, the base comprising at least one first guide member (18, 20) projecting perpendicular to the upper face in a first direction, the base having a length defining a longitudinal direction, and a width defining a transverse direction; a housing having a length ( x), a width ( y) and a height (z); a holding element mounted on the housing and configured to be engaged at least in the groove (104, 204) of the deck board (100, 200), the holding element projecting on either side of the width of the housing; and a locking element configured to secure the fastening device to the support, characterized in that the housing comprises at least one first cavity (52, 54) to receive the first guide member (18, 20) such that the housing is mounted sliding relative to the base in the first direction. a base having an upper face, the base comprising at least one first guide member (18, 20) projecting perpendicular to the upper face in a first direction, the base having a length defining a longitudinal direction, and a width defining a transverse direction; a housing having a length ( x), a width ( y) and a height (z); a holding element mounted on the housing and configured to be engaged at least in the groove (104, 204) of the deck board (100, 200), the holding element projecting on either side of the width of the housing; and a locking element configured to secure the fastening device to the support, characterized in that the housing comprises at least one first cavity (52, 54) to receive the first guide member (18, 20) such that the housing is mounted sliding relative to the base in the first direction.
Tyre for vehicle wheels, comprising: a tread band; at least one soundproofing layer having a radial height (t) and an axial width, wherein said soundproofing layer is attached to a radially inner surface of the tyre placed at the tread band; wherein the soundproofing layer delimits, together with the radially inner surface, a channel; wherein the channel is delimited by a groove formed in a radially outer face of the soundproofing layer and associated with the radially inner surface of the tyre and by said radially inner surface of the tyre; wherein the channel is extended along a substantially circumferential direction; characterised in that, in a radial section, the ratio Ar/S between the area of a passage section (Ar) of the channel and an overall section of the soundproofing layer is comprised between about 0.04 and about 0.2; wherein the overall section of the soundproofing layer is the surface of a footprint section of said soundproofing layer, also comprising the surface of a groove section formed in the soundproofing layer. a tread band; at least one soundproofing layer having a radial height (t) and an axial width, wherein said soundproofing layer is attached to a radially inner surface of the tyre placed at the tread band; wherein the soundproofing layer delimits, together with the radially inner surface, a channel; wherein the channel is delimited by a groove formed in a radially outer face of the soundproofing layer and associated with the radially inner surface of the tyre and by said radially inner surface of the tyre; wherein the channel is extended along a substantially circumferential direction; characterised in that, in a radial section, the ratio Ar/S between the area of a passage section (Ar) of the channel and an overall section of the soundproofing layer is comprised between about 0.04 and about 0.2; wherein the overall section of the soundproofing layer is the surface of a footprint section of said soundproofing layer, also comprising the surface of a groove section formed in the soundproofing layer.