mhurhangee/ep-ind-claims huggingface dataset:
A system for double-blow molding heat resistant containers, said system comprising a primary blow mold for blow molding a primary biaxially stretched container from a plastic preform, and a secondary blow mold for blow molding a final biaxially stretched container from the primary biaxially stretched container after shrinkage thereof, wherein said primary blow mold comprises a mold cavity, wherein said mold cavity comprises a cylindrical upper molding portion and a bottom molding portion, wherein said bottom molding portion of the mold cavity comprises a sidewall, that is an extension of the cylindrical upper molding portion, that forms a molding surface centered on a central axis (A'), and that is not cylindrical or does not comprise a cylindrical portion, a concave transition wall where the transverse cross section of the mold cavity, measured in a plan perpendicular to the central axis (A'), is the largest, and a bottom wall transverse to the central axis (A'), wherein the non-cylindrical sidewall of the bottom molding portion is transitioning on its whole periphery to the bottom wall along said concave transition wall, wherein the transverse cross section of the non-cylindrical sidewall, measured in a plan perpendicular to the central axis (A'), is the largest at the transition with the concave transition wall, wherein the bottom molding portion defines an offset distance (d offset) of at least 2mm, said offset distance (d offset) being measured, in a plan perpendicular to the central axis (A'), between, on the one hand, the upper end of the non-cylindrical sidewall at the transition with the upper cylindrical molding portion and, on the other hand, an outermost point of the concave transition wall where the transverse cross section (dmax) of the bottom molding portion, measured in a plan perpendicular to the central axis (A'), is the largest, and wherein the slope angle (a) of the non-cylindrical sidewall is not less than 3°, and preferably not less than 5°, said slope angle (a) being measured, in a longitudinal cross section plan parallel to the central axis (A'), between the central axis (A') and a straight line including the upper end and the lower end of the non-cylindrical sidewall.
Dressage and posture martingale including: - a headstall including a browband and a crownpiece connected to one another, - at least one first pressure member mounted on the browband of the headstall so as to come into contact with the frontal-temporal-parietal region of the horse, and - at least one second pressure member mounted on the crownpiece so as to come into contact with the occipital-cervical region of the horse, at least the second pressure member being configured to come to bear locally on a predetermined area of the retro-occipital region and to generate a muscular reflex action, in particular of the extensor muscles of the first cervical vertebrae. - a headstall including a browband and a crownpiece connected to one another, - at least one first pressure member mounted on the browband of the headstall so as to come into contact with the frontal-temporal-parietal region of the horse, and - at least one second pressure member mounted on the crownpiece so as to come into contact with the occipital-cervical region of the horse,
A method of manufacturing a grain-oriented electrical steel sheet, comprising: performing hot rolling of a steel containing Si: 2.5 mass% to 4.0 mass%, C: 0.01 mass% to 0.060 mass%, Mn: 0.05 mass% to 0.20 mass%, acid-soluble Al: 0.020 mass% to 0.040 mass%, N: 0.002 mass% to 0.012 mass%, S: 0.001 mass% to 0.010 mass%, P: 0.01 mass% to 0.08 mass%, Ti: 0.0020 mass% to 0.010 mass% and Cu: 0.010 mass% to 0.50 mass%, optionally at least one kind selected from a group consisting of Cr: 0.010 mass% to 0.20 mass%, Sn: 0.010 mass% to 0.20 mass%, Sb: 0.010 mass% to 0.20 mass%, Ni: 0.010 mass% to 0.20 mass%, Se: 0.005 mass% to 0.02 mass%, Bi: 0.005 mass% to 0.02 mass%, Pb: 0.005 mass% to 0.02 mass%, B: 0.005 mass% to 0.02 mass%, V: 0.005 mass% to 0.02 mass%, Mo: 0.005 mass% to 0.02 mass%, and As: 0.005 mass% to 0.02 mass%, and a balance composed of Fe and inevitable impurities, to obtain a hot-rolled steel sheet; performing annealing on the hot-rolled steel sheet to obtain an annealed steel sheet; performing cold rolling on the annealed steel sheet to obtain a cold-rolled steel sheet; performing decarburization annealing on the cold-rolled steel sheet at a temperature of 800°C to 950°C to obtain a decarburization annealed steel sheet; then, performing nitridation treatment on the decarburization annealed steel sheet at 700°C to 850°C to obtain a nitrided steel sheet; and performing finish annealing on the nitrided steel sheet. performing hot rolling of a steel containing Si: 2.5 mass% to 4.0 mass%, C: 0.01 mass% to 0.060 mass%, Mn: 0.05 mass% to 0.20 mass%, acid-soluble Al: 0.020 mass% to 0.040 mass%, N: 0.002 mass% to 0.012 mass%, S: 0.001 mass% to 0.010 mass%, P: 0.01 mass% to 0.08 mass%, Ti: 0.0020 mass% to 0.010 mass% and Cu: 0.010 mass% to 0.50 mass%, optionally at least one kind selected from a group consisting of Cr: 0.010 mass% to 0.20 mass%, Sn: 0.010 mass% to 0.20 mass%, Sb: 0.010 mass% to 0.20 mass%, Ni: 0.010 mass% to 0.20 mass%, Se: 0.005 mass% to 0.02 mass%, Bi: 0.005 mass% to 0.02 mass%, Pb: 0.005 mass% to 0.02 mass%, B: 0.005 mass% to 0.02 mass%, V: 0.005 mass% to 0.02 mass%, Mo: 0.005 mass% to 0.02 mass%, and As: 0.005 mass% to 0.02 mass%, and a balance composed of Fe and inevitable impurities, to obtain a hot-rolled steel sheet; performing annealing on the hot-rolled steel sheet to obtain an annealed steel sheet; performing cold rolling on the annealed steel sheet to obtain a cold-rolled steel sheet; performing decarburization annealing on the cold-rolled steel sheet at a temperature of 800°C to 950°C to obtain a decarburization annealed steel sheet; then, performing nitridation treatment on the decarburization annealed steel sheet at 700°C to 850°C to obtain a nitrided steel sheet; and performing finish annealing on the nitrided steel sheet.
A particulate detection system comprising: a particulate sensor which generates a sensor signal corresponding to a result of detection of particulates; a high voltage generation section (913, 720) which includes a transformer having a primary winding and a secondary winding and which supplies to the particulate sensor a high voltage generated from the secondary winding as a result of switching of supply of primary current to the primary winding; a primary current control section (712a, 712b) which controls the primary current flowing through the primary winding; and a sensor signal processing section which performs signal processing on the sensor signal generated by the particulate sensor, characterized in that: the particulate detection system further comprises: an inner shield which covers the high voltage generation section and which is formed of a material capable of blocking electromagnetic noise; and an outer shield which covers the sensor signal processing section and the inner shield and which is formed of a material capable of blocking electromagnetic noise. a particulate sensor which generates a sensor signal corresponding to a result of detection of particulates; a high voltage generation section (913, 720) which includes a transformer having a primary winding and a secondary winding and which supplies to the particulate sensor a high voltage generated from the secondary winding as a result of switching of supply of primary current to the primary winding; a primary current control section (712a, 712b) which controls the primary current flowing through the primary winding; and a sensor signal processing section which performs signal processing on the sensor signal generated by the particulate sensor, characterized in that: the particulate detection system further comprises: an inner shield which covers the high voltage generation section and which is formed of a material capable of blocking electromagnetic noise; and an outer shield which covers the sensor signal processing section and the inner shield and which is formed of a material capable of blocking electromagnetic noise. an inner shield which covers the high voltage generation section and which is formed of a material capable of blocking electromagnetic noise; and an outer shield which covers the sensor signal processing section and the inner shield and which is formed of a material capable of blocking electromagnetic noise.
A method for producing a solar collector from at least one sheet material, which is welded to form at least one heat transfer line, characterized in that the sheet material is used in at least three layers of sheets (2, 3, 4) to build up a layered material having at least one absorber sheet, in that the layers of sheets (2, 3, 4) of the layered material are welded together into a laminate via welding seams extending parallel to each other, in that at least one of the outer layers of sheets (2, 4) of the laminate is cut into sheet strips along the welding beads, and in that the sheet strips are welded along their cutting edges with at least one transparent sheet material into a hollow strand.
A fuel cell system, comprising: a fuel cell; a pre-condensation humidifier that moves water from an exhaust gas in a fuel cell unit that includes the fuel cell to a gas that is used for power generation in the fuel cell; a condenser; a heat using unit that uses heat that is recovered from the fuel cell; and a heat carrier circulation path that circulates a heat carrier through the heat using unit, wherein the heat carrier circulation path is configured to cool down the exhaust gas that is supplied to the condenser so as to recover heat; characterized in that the condenser condenses water in the exhaust gas that has passed through the pre-condensation humidifier; a post-condensation humidifier that moves water from the exhaust gas that has passed through the condenser to a gas that is supplied to the pre-condensation humidifier.
Transport device having at least one transport carrier (2.1, 2.2,..., 2.n), which is retained in a suspended manner and is intended to receive components, in particular bodywork components, and comprising a framework with vertically running lateral frame elements and at least two crossmembers, which connect the lateral frame elements together, and also comprising a supply and withdrawal portion, which is open for loading and unloading operations and extends between the lateral frame elements, wherein, for the retention in a suspended manner, at least two guide rails are arranged on the at least two crossmembers such that said guide rails run parallel to the longitudinal axis of the framework and are spaced apart from one another, the at least one transport carrier (2.1, 2.2,..., 2.n) being displaceably mounted in said guide rails by means of guide elements arranged on said transport carrier, characterized in that at least one of the guide elements comprises a strut extending axially parallel to the guide rail, wherein a first locking means is arranged at one free end of the strut and a second locking means is arranged at the opposite free end of the strut, wherein the second locking means of a previously mounted transport carrier (2.1, 2.2,..., 2.n) can be brought into engagement with the first locking means of a subsequent transport carrier (2.2,..., 2.n) in order to releasably connect the mounted transport carriers (2.1, 2.2,..., 2.n) together, and in that an actuating element is arranged on at least one guide rail in the region before the supply and withdrawal portion, said actuating element acting on the second locking means, when the transport carrier (2.1, 2.2,..., 2.n) closest to the supply and withdrawal portion is being removed, in order to release the connection to the first locking means of the subsequent transport carrier (2.2,..., 2.n).
A method comprising: receiving, by a first Multicast Source Discovery Protocol, MSDP, speaker, from a second MSDP speaker, a source active, SA, message that advertises a multicast source for a multicast group; when the second MSDP speaker is in a mesh group with the first MSDP speaker, determining, by the first MSDP speaker, whether the first MSDP speaker has an active SA state for a multicast source and multicast group indicated in the SA message; and when the first MSDP speaker does not have the active SA state for the multicast source and multicast group indicated in the SA message, accepting, by the first MSDP speaker, the SA message and forwarding the SA message to a third MSDP speaker that is not in the mesh group with the first MSDP speaker and the second MSDP speaker. receiving, by a first Multicast Source Discovery Protocol, MSDP, speaker, from a second MSDP speaker, a source active, SA, message that advertises a multicast source for a multicast group; when the second MSDP speaker is in a mesh group with the first MSDP speaker, determining, by the first MSDP speaker, whether the first MSDP speaker has an active SA state for a multicast source and multicast group indicated in the SA message; and when the first MSDP speaker does not have the active SA state for the multicast source and multicast group indicated in the SA message, accepting, by the first MSDP speaker, the SA message and forwarding the SA message to a third MSDP speaker that is not in the mesh group with the first MSDP speaker and the second MSDP speaker.
A method for accessing a resource (17, 18) distributed over a plurality of servers (161, 162, 163) in a network, the method comprising: establishing, by a client, a network connection to a given server of the plurality of servers via the network, the plurality of servers together making available to the client, resources that are partitioned over a subset of, or all of, the plurality of servers, such that a first portion of a partitioned resource resides on a first server and a remaining portion of the partitioned resource resides on at least one other server; requesting, by the client, the resource from the given server; determining (43, 44, 45) by the given server, using a routing table, at least two servers of the plurality of servers on which portions of the requested resource reside, wherein a routing table resides on each of the plurality of servers and is synchronized between the plurality of servers and where each routing table maintains a direct reference for each resource maintained by the plurality of servers, each direct reference directly pointing to a server of the plurality of servers having control over a respective resource associated with the direct reference; and returning (46, 47, 48) to the client, by the given server, the requested resource distributed over the determined at least two servers via the given server while maintaining the network connection to the given server. establishing, by a client, a network connection to a given server of the plurality of servers via the network, the plurality of servers together making available to the client, resources that are partitioned over a subset of, or all of, the plurality of servers, such that a first portion of a partitioned resource resides on a first server and a remaining portion of the partitioned resource resides on at least one other server; requesting, by the client, the resource from the given server; determining (43, 44, 45) by the given server, using a routing table, at least two servers of the plurality of servers on which portions of the requested resource reside, wherein a routing table resides on each of the plurality of servers and is synchronized between the plurality of servers and where each routing table maintains a direct reference for each resource maintained by the plurality of servers, each direct reference directly pointing to a server of the plurality of servers having control over a respective resource associated with the direct reference; and returning (46, 47, 48) to the client, by the given server, the requested resource distributed over the determined at least two servers via the given server while maintaining the network connection to the given server.
A method for production of a recombinant glycoprotein under fermentation culture conditions in a eukaryotic cell, the method comprising adjusting the concentrations of each of iron, copper, zinc and manganese in the culture medium during the culture to affect biomass generation and/or N-glycan maturity in the expressed glycoprotein wherein the adjustment is: - increasing the concentration of each of iron, copper, zinc and manganese in order to increase biomass, wherein the concentrations are adjusted to: (a) iron - from 15 μM to more than 80 μM; (b) copper - from 0.3 μM to more than 2.5 μM; (c) zinc - from 20 μM to more than 50 μM; and (d) manganese - from 0.01 μM to more than 3 μM; and/or - increasing the concentration of each of zinc and manganese and, optionally, decreasing the concentration of each of iron and copper to increase N-glycan maturity in the expressed glycoprotein, wherein the carbohydrate portion of the expressed glycoprotein has a G0, G1 or G2 structure; or - (i) decreasing the concentration of each of iron, copper, zinc and manganese to increase production of immature non-fucosylated glycoproteins or (ii) increasing the concentration of each of copper and iron and decreasing the concentration of each of zinc and manganese to increase production of immature non-fucosylated glycoproteins; wherein a decrease in the concentration of any or all of iron, copper, zinc and manganese in the culture medium is achieved by complexing the iron, copper, zinc and manganese with a chelator and/or by seeding the cells into a fresh medium containing a reduced concentration of any or all of iron, copper, zinc and manganese compared to the medium of the immediately preceding culture phase. - increasing the concentration of each of iron, copper, zinc and manganese in order to increase biomass, wherein the concentrations are adjusted to: (a) iron - from 15 μM to more than 80 μM; (b) copper - from 0.3 μM to more than 2.5 μM; (c) zinc - from 20 μM to more than 50 μM; and (d) manganese - from 0.01 μM to more than 3 μM; and/or (a) iron - from 15 μM to more than 80 μM; (b) copper - from 0.3 μM to more than 2.5 μM; (c) zinc - from 20 μM to more than 50 μM; and (d) manganese - from 0.01 μM to more than 3 μM; and/or - increasing the concentration of each of zinc and manganese and, optionally, decreasing the concentration of each of iron and copper to increase N-glycan maturity in the expressed glycoprotein, wherein the carbohydrate portion of the expressed glycoprotein has a G0, G1 or G2 structure; or - (i) decreasing the concentration of each of iron, copper, zinc and manganese to increase production of immature non-fucosylated glycoproteins or (ii) increasing the concentration of each of copper and iron and decreasing the concentration of each of zinc and manganese to increase production of immature non-fucosylated glycoproteins;
A substrate handling system, comprising a sensor system configured to determine a position of a substrate having an edge, the sensor system comprising: a radiation source arranged to emit a radiation bundle; a reflective element; a detector device; an imaging system; a substrate table having a supporting surface for supporting the substrate, wherein the supporting surface is at least partly along a plane, wherein the radiation source and the detector device are arranged on a first side of the plane, wherein the reflective element is arranged on a second side of the plane other than the first side, wherein the reflective element is arranged to create a first reflected bundle by reflecting the radiation bundle, wherein the reflective element is arranged to illuminate the edge with the first reflected bundle, wherein the detector device is arranged to receive the first reflected bundle, wherein the imaging system is arranged to propagate the first reflected bundle so as to project an image of the edge on the detector device, characterized in that the substrate handling system further comprising a gripping device configured to transfer the substrate to or from the substrate table, wherein the gripping device comprises a gripper mark, wherein the radiation source is arranged to illuminate with the radiation bundle the gripper mark, wherein the radiation source is arranged to create a second reflected bundle by reflecting the radiation bundle via the gripper mark, wherein the imaging system is arranged to propagate the second reflected bundle so as to project an image (GDMI) of the gripper mark on the detector device. a radiation source arranged to emit a radiation bundle; a reflective element; a detector device; an imaging system; a substrate table having a supporting surface for supporting the substrate, wherein the supporting surface is at least partly along a plane, wherein the radiation source and the detector device are arranged on a first side of the plane, wherein the reflective element is arranged on a second side of the plane other than the first side, wherein the reflective element is arranged to create a first reflected bundle by reflecting the radiation bundle, wherein the reflective element is arranged to illuminate the edge with the first reflected bundle, wherein the detector device is arranged to receive the first reflected bundle, wherein the imaging system is arranged to propagate the first reflected bundle so as to project an image of the edge on the detector device, characterized in that the substrate handling system further comprising a gripping device configured to transfer the substrate to or from the substrate table, wherein the gripping device comprises a gripper mark, wherein the radiation source is arranged to illuminate with the radiation bundle the gripper mark, wherein the radiation source is arranged to create a second reflected bundle by reflecting the radiation bundle via the gripper mark, wherein the imaging system is arranged to propagate the second reflected bundle so as to project an image (GDMI) of the gripper mark on the detector device.
A transparent conductive layer for a display device, wherein the transparent conductive layer is formed by a method comprising a step of providing a plurality of nanowires, each nanowire comprising: a core that includes a metal, a first shell on the core, wherein the first shell includes an oxide of the metal of the core or a polymeric material; and a second shell on the first shell, wherein the second shell includes an organic surfactant; characterized in that the method of forming the transparent conductive layer comprises a step of forming a conductive region and a non-conductive region thereby forming a transparent conductive pattern, wherein the conductive region is formed by partially removing, due to surface plasmon resonance by irradiating with light a region of the transparent conductive layer, the shells (110, 120) of the nanowires where the nanowires cross each other such that surfaces of the nanowires are melted and welded together, such that the cores of at least two of the plurality of nanowires are in contact with each other through the first shell and the second shell, and wherein the non-conductive region is formed in a region of the transparent conductive layer which has not been irradiated. a core that includes a metal, a first shell on the core, wherein the first shell includes an oxide of the metal of the core or a polymeric material; and a second shell on the first shell, wherein the second shell includes an organic surfactant; characterized in that the method of forming the transparent conductive layer comprises a step of forming a conductive region and a non-conductive region thereby forming a transparent conductive pattern, wherein the conductive region is formed by partially removing, due to surface plasmon resonance by irradiating with light a region of the transparent conductive layer, the shells (110, 120) of the nanowires where the nanowires cross each other such that surfaces of the nanowires are melted and welded together, such that the cores of at least two of the plurality of nanowires are in contact with each other through the first shell and the second shell, and wherein the non-conductive region is formed in a region of the transparent conductive layer which has not been irradiated.