mhurhangee/ep-ind-claims huggingface dataset:
Gate with an emergency opening device, comprising a gate panel which is movable between an open and a closed position, a primary motor which drives said gate panel by way of a gate panel drive, and an auxiliary motor which is connected to an emergency power supply and adapted to drive said gate panel, characterized in that said auxiliary motor is coupled by way of an auxiliary motor coupling to said gate panel drive, and said emergency power supply comprises an energy storage, wherein the auxiliary motor is functionally and spatially separated from the primary motor, wherein said auxiliary motor can be coupled and decoupled by way of said auxiliary motor coupling to said gate panel drive, and wherein the primary motor can be decoupled from said gate panel drive by way of a primary motor coupling. a gate panel which is movable between an open and a closed position, a primary motor which drives said gate panel by way of a gate panel drive, and an auxiliary motor which is connected to an emergency power supply and adapted to drive said gate panel, characterized in that said auxiliary motor is coupled by way of an auxiliary motor coupling to said gate panel drive, and said emergency power supply comprises an energy storage, wherein the auxiliary motor is functionally and spatially separated from the primary motor, wherein said auxiliary motor can be coupled and decoupled by way of said auxiliary motor coupling to said gate panel drive, and wherein the primary motor can be decoupled from said gate panel drive by way of a primary motor coupling.
Rolling assembly comprising a tyre having two beads, a rim and at least one flexible extender intended to provide the connection between one of the beads and the rim, the rim having a rim flange, said extender comprising an axially inner end, an axially outer end and a body that is oriented mainly axially and is disposed between said axially outer end and said axially inner end, said axially inner end being fixed in place on said rim, said extender having an extender seat intended to receive a tyre bead, said extender seat being extended axially towards the outside by a shoulder that axially fixes said tyre bead in place, said tyre bead having an axial width WB at the interface of the bead with the extender seat, said rim flange has a radially outer bearing face that extends axially under the bead by a distance S such that the ratio S/WB is greater than 0.1 characterized in that the ratio S/WB is less than 1.
An adjustable impedance adapter able to be connected at a first end to a transmitter and at a second end to a receiver, the adapter comprising a coaxial line section extending in a coaxial direction (dcoax), the coaxial line section comprising a conductive central core extending in the coaxial direction (dcoax), an insulating medium surrounding the central core and a conductive shield surrounding the insulating material and a conductive slide that can translationally move inside the coaxial line section, the adapter being configured so that a first distance between the slide and the second end allows the inductance of the impedance adapter to be varied, a second distance ranging between the internal walls of the shield and the walls of the central core varies between the first and the second end (9a, 9b), a third distance in a transverse direction (dtrans) to the coaxial direction (dcoax), that is either between the external walls of the conductive slide in the transverse direction (dtrans) and the internal walls of the shield, or that is between the internal walls in the transverse direction (dtrans) of the slide and the walls of the central core, is variable between the two ends (9a; 9b) of the coaxial line section and allows a capacitance of the impedance adapter to be varied, wherein the capacitance and the impedance simultaneously vary on at least one portion of the coaxial line section during a single translation movement of the slide along the coaxial line section.
Cell connector comprising, - a contact piece made of a first metallic material, and - a carrier material made of a second metallic material, wherein - at least one first connection region formed as a receptacle for the contact piece is arranged in the carrier material, - the carrier material is monolithic, - the receptacle is stepped such that the receptacle has two different diameters (14a, b) each facing one of two opposing surfaces of the substrate material, - the contact piece is arranged in the receptacle and is stepped correspondingly to the receptacle, and - the contact piece is materially connected to at least one inner wall of the receptacle, - characterised in that - the contact piece is materially connected to a surface of a radially extending joining region with a stepped surface between the two diameters of the receptacle. - a contact piece made of a first metallic material, and - a carrier material made of a second metallic material, wherein - at least one first connection region formed as a receptacle for the contact piece is arranged in the carrier material, - the carrier material is monolithic, - the receptacle is stepped such that the receptacle has two different diameters (14a, b) each facing one of two opposing surfaces of the substrate material, - the contact piece is arranged in the receptacle and is stepped correspondingly to the receptacle, and - the contact piece is materially connected to at least one inner wall of the receptacle, - characterised in that - the contact piece is materially connected to a surface of a radially extending joining region with a stepped surface between the two diameters of the receptacle.
A vacuum insulator comprising: - a core member obtained by laminating a fiber material; - a concave-convex film made of one of resin and a metal foil, and in which a concave-convex shape is formed; and - a packaging member covering the concave-convex film laminated on the core member, and sealed by pressure reduction to form a concave-convex shape corresponding to the concave-convex shape of the concave-convex film on a surface of the packaging member, characterized in that the packaging member covers the concave-convex film laminated on the core member and an additional core member laminated on the concave-convex film, and is sealed by pressure reduction to form the concave-convex shape on the surface. - a core member obtained by laminating a fiber material; - a concave-convex film made of one of resin and a metal foil, and in which a concave-convex shape is formed; and - a packaging member covering the concave-convex film laminated on the core member, and sealed by pressure reduction to form a concave-convex shape corresponding to the concave-convex shape of the concave-convex film on a surface of the packaging member, characterized in that the packaging member covers the concave-convex film laminated on the core member and an additional core member laminated on the concave-convex film, and is sealed by pressure reduction to form the concave-convex shape on the surface.
Method of operating a user equipment in a radio access network, the method comprising determining, based on a predefined symbol configuration being defined in a standard or being available without specific configuration from a network or network node, a starting symbol of a scheduled transmission pertaining to a physical uplink control channel, PUCCH, carrying uplink control information comprising Hybrid Acknowledgement Repeat Request, HARQ, feedback in a transmission timing structure, the transmission timing structure representing a time interval corresponding to a substructure of a slot and comprising a plurality of symbols; the predefined symbol configuration indicating a set of more than one symbol, the starting symbol being selectable from the set based on control signaling indicating which of the symbols of the set is to be used as a starting symbol; the predefined symbol configuration further indicating the duration of the scheduled transmission in number of symbols; and transmitting the uplink control information on the PUCCH based on the determined starting symbol. the predefined symbol configuration indicating a set of more than one symbol, the starting symbol being selectable from the set based on control signaling indicating which of the symbols of the set is to be used as a starting symbol; the predefined symbol configuration further indicating the duration of the scheduled transmission in number of symbols; and transmitting the uplink control information on the PUCCH based on the determined starting symbol.
An aircraft with a fuselage that comprises at least one hollow beam element, wherein the at least one hollow beam element accommodates at least one hollow duct element that comprises a tubular duct element wall, and wherein at least one protective spacer (22a, 22b, 22c) is arranged between the tubular duct element wall and the at least one hollow beam element, characterized in that the at least one protective spacer (22a, 22b, 22c) is a longitudinal protective spacer (22a, 22b, 22c) which is provided as an outwardly oriented protrusion of the tubular duct element wall that extends continuously over the whole length of the tubular duct element wall and that extends radially between the tubular duct element wall and the at least one hollow beam element such that free space is available between the tubular duct element wall and the at least one hollow beam element adjacent to the at least one protective spacer (22a, 22b, 22c).
A blood sequestration device (812, 1000, 1100, 1202, 1302, 1401, 1500, 1600, 2008, 2100, 2200, 2300, 2408, 2502, 2608, 2702, 2802, 2902, 3000) comprising; an inlet port (802, 902, 1002, 1102, 1212, 1314, 1402, 1502, 1532, 1602, 2302, 2316, 2412, 2612, 3002); an outlet port (904, 1004, 1104, 1214, 1312, 1404, 1504, 1534, 1604, 2304, 2318, 2414, 2614, 3004); a sequestration chamber (55, 104, 204, 304, 822, 1008, 1108, 1218, 1318, 1408, 1508, 1608, 2102, 2306, 2320, 2418, 2520, 2624, 2720, 2904, 3008) connected with the inlet port via a junction, the sequestration chamber having a vent (1510, 1610, 2628, 3010) that includes an air permeable blood barrier (20, 106, 824, 1010, 1110, 1310, 1412, 1512, 1612, 2202, 2420, 2506, 2706, 2803, 3012), the vent being defined by an outer wall (2504, 2618, 2704) that at least partially circumscribes the air permeable blood barrier and includes one or more air vents, the vent further including a cap (1208, 1307, 2722, 3032), that at least partially covers the wall and a one-way seal abutting the air permeable blood barrier that inhibits air from entering the sequestration chamber; and a sampling channel (820, 1406, 1508, 1606, 2104, 2308, 2422, 2622, 3006) having a proximal end connected with the inlet port via the junction, and a distal end connected with the outlet port; the sequestration chamber, the sampling channel and the junction being sized and configured such that a first portion of blood flows into the sequestration chamber toward the air permeable blood barrier for sequestration therein, and a second portion of blood bypasses the sequestration chamber and the first portion of blood sequestered therein and is directed into the sampling channel toward the outlet port.
A razor cartridge comprising: - three or more substantially parallel cutting members (28a-d) disposed between a leading longitudinal side and a trailing longitudinal side of the razor cartridge in a shaving direction of the razor cartridge; wherein each of the cutting members (28a-d) comprises a blade support comprising a blade mounting portion disposed on an inner surface of the respective blade support that, in use, faces away from a shaving plane, and a blade attached to the blade mounting portion; wherein the cutting members (28a-d) are disposed to define a plurality of inter-blade spans (40, 41, 42) between cutting edges of the blades; and wherein a leading inter-blade span that is closer to the leading longitudinal side of the razor cartridge than a trailing inter-blade span is greater than the trailing inter-blade span that is closer to the trailing longitudinal side of the razor cartridge than the leading inter-blade span, characterized in that the leading inter-blade span is in the range from 1.70 mm to 2.20 mm, more specifically from 1.80 mm to 2.00 mm, and most specifically 1.85 mm. - three or more substantially parallel cutting members (28a-d) disposed between a leading longitudinal side and a trailing longitudinal side of the razor cartridge in a shaving direction of the razor cartridge; wherein each of the cutting members (28a-d) comprises a blade support comprising a blade mounting portion disposed on an inner surface of the respective blade support that, in use, faces away from a shaving plane, and a blade attached to the blade mounting portion; wherein the cutting members (28a-d) are disposed to define a plurality of inter-blade spans (40, 41, 42) between cutting edges of the blades; and wherein a leading inter-blade span that is closer to the leading longitudinal side of the razor cartridge than a trailing inter-blade span is greater than the trailing inter-blade span that is closer to the trailing longitudinal side of the razor cartridge than the leading inter-blade span, characterized in that the leading inter-blade span is in the range from 1.70 mm to 2.20 mm, more specifically from 1.80 mm to 2.00 mm, and most specifically 1.85 mm.
A method of receiving downlink control information by a User Equipment, UE in a wireless communication system, the method comprising: receiving, from a Base Station, BS, beam association information between Reception, Rx, beams of the UE and Transmission, Tx, beams of the BS; and attempting blind detection of a physical downlink control channel carrying the downlink control information based on the beam association information, wherein the beam association information indicates at least two beam pairs, wherein each of the at least two beam pairs includes one of the Rx beams of the UE and one of the Tx beams of the BS associated with the one of the Rx beams of the UE, wherein the UE configures an Rx beam to be used for the blind detection of the physical downlink control channel according to the at least two beam pairs indicated by the beam association information, wherein the UE receives, from the BS, information regarding at least one of control resource sets, CORESETs, where the at least two beam pairs are configured respectively and monitoring sets where the UE should monitor the at least two beam pairs respectively, wherein the UE applies different Quasi Co-Location, QCL, assumptions to the CORESETs, respectively, wherein the UE assumes that the CORESETs are Quasi Co-Located, QCLed, with different Channel State Information-Reference Signals, CSI-RSs, respectively, and wherein the at least two beam pairs are configured in different symbols within a same subframe, respectively. receiving, from a Base Station, BS, beam association information between Reception, Rx, beams of the UE and Transmission, Tx, beams of the BS; and attempting blind detection of a physical downlink control channel carrying the downlink control information based on the beam association information, wherein the beam association information indicates at least two beam pairs, wherein each of the at least two beam pairs includes one of the Rx beams of the UE and one of the Tx beams of the BS associated with the one of the Rx beams of the UE, wherein the UE configures an Rx beam to be used for the blind detection of the physical downlink control channel according to the at least two beam pairs indicated by the beam association information, wherein the UE receives, from the BS, information regarding at least one of control resource sets, CORESETs, where the at least two beam pairs are configured respectively and monitoring sets where the UE should monitor the at least two beam pairs respectively, wherein the UE applies different Quasi Co-Location, QCL, assumptions to the CORESETs, respectively, wherein the UE assumes that the CORESETs are Quasi Co-Located, QCLed, with different Channel State Information-Reference Signals, CSI-RSs, respectively, and wherein the at least two beam pairs are configured in different symbols within a same subframe, respectively.
Use of a limited digestion with a proteolytic enzyme of a multispecific antibody for the analysis of the multispecific antibody's light chain pairing, wherein the proteolytic enzyme is Lys-C, and wherein the incubating is for 35 to 45 minutes.
A method for producing a dried formulation of a biopharmaceutical agent, wherein the method comprises drying a solution comprising a biopharmaceutical agent, an amino acid, at least 2.0 % (w/v) of at least one of a sugar and a sugar alcohol, or a mixture thereof, at least 0.2 % (w/v) of a metal salt and water, wherein said metal salt is a metal salt of a divalent cation, Li +, or a mixture thereof, wherein the amino acid is glutamate, arginine, histidine, asparagine, lysine, leucine, glycine or a mixture thereof and wherein said biopharmaceutical agent is a virus.
A method for restricting a data rate of a packet-switched data connection via a switching unit of a mobile communication network to a mobile terminal, wherein the switching unit forwards data packets to the terminal based upon a data transmission profile assigned to the data connection, characterized in that at least a first and a second data transmission profile are provided, which provide different data volumina to be forwarded per time unit, wherein a first data volume to be forwarded per time unit sets a first maximum data transmission rate and is assigned to the first data transmission profile, wherein a second data volume to be forwarded per time unit sets a second maximum data transmission rate and is assigned to the second data transmission profile, wherein the second maximum data transmission rate is smaller than the first data transmission rate, wherein the terminal is initially assigned the first data transmission profile, wherein the switching unit, in a predetermined first time interval, restricts a forwarding of data to the terminal for the rest of the first time interval when it is determined that a predetermined data volume of the first data transmission profile has been forwarded to the terminal in the first time interval, and wherein the first data transmission profile, after the determination that the predetermined data volume has been forwarded to the terminal in the first time interval, is replaced with the second data transmission profile to restrict the data transmission rate, wherein the replacement from the first data transmission profile to the second data transmission profile is effected with an active PDP context due to a control command sent from a control unit to the switching unit while the data connection is active.
A helical conveyor, comprising a drivable endless conveyor belt having a transport section for transporting products where the conveyor belt follows at least partly a helical path between a lower end and an upper end of the transport section and a return section (8, 9, 12) where the conveyor belt follows a path between the lower end and the upper end outside the transport section, a lower end reverse guide for turning the conveyor belt upside down and reverting its direction of movement between the transport section and the return section at the lower end of the transport section and an upper end reverse guide for turning the conveyor belt upside down and reverting its direction of movement between the transport section and the return section at the upper end of the transport section, wherein the return section leaves the upper end through a horizontally oriented upper return section portion and the return section leaves the lower end through a horizontally oriented lower return section portion, wherein the return section has an upwardly directed return section portion which forms a connection between the upper return section portion and the lower return section portion and extends at least partly outside the helical path as seen from above, characterized in that the return section has an upwardly directed bend between the upper return section portion and the upwardly directed return section portion, on the one hand, and an upwardly directed bend between the lower return section portion and the upwardly directed return section portion, on the other hand, and wherein the upwardly directed return section portion bends within the plane of the conveyor belt.
Compound of general formula wherein: - x is an integer equal to 1, 2, 3, 4 or 5; - y is an integer equal to 0, 1, 2, 3, 4 or 5; - each substituent R 1 is chosen independently from the others as being a phenoxy group optionally substituted with one or more substituent(s) selected independently from each other as a hydroxy, C 1 -C 6 -alkyl, C 1 -C 6 -hydroxyalkyl, C 1 -C 6 -alkoxy or C 1 -C 6 -alkylcarbonyloxy group; and - each substituent R 2 is chosen independently from the others as being a phenoxy, benzoyloxy, phenylC 1 -C 6 -alkoxy or phenylC 1 -C 6 -alkylcarbonyloxy group, each of these groups may be optionally substituted with one or several substituent(s) selected independently from each other as a hydroxy, C 1 -C 6 -alkyl, C 1 -C 6 -hydroxyalkyl, C 1 -C 6 -alkoxy or C 1 -C 6 -alkylcarbonyloxy group. - x is an integer equal to 1, 2, 3, 4 or 5; - y is an integer equal to 0, 1, 2, 3, 4 or 5; - each substituent R 1 is chosen independently from the others as being a phenoxy group optionally substituted with one or more substituent(s) selected independently from each other as a hydroxy, C 1 -C 6 -alkyl, C 1 -C 6 -hydroxyalkyl, C 1 -C 6 -alkoxy or C 1 -C 6 -alkylcarbonyloxy group; and - each substituent R 2 is chosen independently from the others as being a phenoxy, benzoyloxy, phenylC 1 -C 6 -alkoxy or phenylC 1 -C 6 -alkylcarbonyloxy group, each of these groups may be optionally substituted with one or several substituent(s) selected independently from each other as a hydroxy, C 1 -C 6 -alkyl, C 1 -C 6 -hydroxyalkyl, C 1 -C 6 -alkoxy or C 1 -C 6 -alkylcarbonyloxy group.
A method for the production of chemically derivatized nanocellulose, comprising the step of a. contacting a precursor cellulosic material with a chemically derivatizing composition to form a liquid reaction mixture, and b. chemically reacting the formed liquid reaction mixture, and c. subjecting the formed liquid reaction mixture to microfluidisation, wherein the steps b. and c. are carried out simultaneously and wherein the chemically derivatizing composition comprises an acylating agent. a. contacting a precursor cellulosic material with a chemically derivatizing composition to form a liquid reaction mixture, and b. chemically reacting the formed liquid reaction mixture, and c. subjecting the formed liquid reaction mixture to microfluidisation,