mhurhangee/ep-ind-claims huggingface dataset:
A method for determining frequency location of a primary cell, PCell, for a wireless device (110a, 110b) in a carrier aggregation supported communications network having access to a group of low frequency bands (710a, 710b, 710c) and a group of high frequency bands (720a, 720b, 720c), the method being performed by a network node, the method comprising: acquiring an uplink load level for the group of low frequency bands (710a, 710b, 710c); acquiring a pathloss level between the wireless device (110a, 110b) served by the communications network and the network node; selecting, from the acquired uplink load level and pathloss level, in which one of the group of low frequency bands (710a, 710b, 710c) and the group of high frequency bands (720a, 720b, 720c) to place the frequency location of the PCell for the wireless device (110a, 110b), the method further characterized by: the frequency location of the PCell is selected to be in the group of low frequency bands (710a, 710b, 710c) if the uplink load level for the group of low frequency bands (710a, 710b, 710c) is below a first predetermined level; and the frequency location of the PCell is selected based on the pathloss level but no longer on the uplink load level if the uplink load level for the group of low frequency bands (710a, 710b, 710c) is above the first predetermined level. acquiring an uplink load level for the group of low frequency bands (710a, 710b, 710c); acquiring a pathloss level between the wireless device (110a, 110b) served by the communications network and the network node; selecting, from the acquired uplink load level and pathloss level, in which one of the group of low frequency bands (710a, 710b, 710c) and the group of high frequency bands (720a, 720b, 720c) to place the frequency location of the PCell for the wireless device (110a, 110b), the method further the frequency location of the PCell is selected to be in the group of low frequency bands (710a, 710b, 710c) if the uplink load level for the group of low frequency bands (710a, 710b, 710c) is below a first predetermined level; and the frequency location of the PCell is selected based on the pathloss level but no longer on the uplink load level if the uplink load level for the group of low frequency bands (710a, 710b, 710c) is above the first predetermined level.
A telomerase peptide for use together with a cytokine and/or growth factor in a method of treatment or prophylaxis of cancer in a human individual, wherein the telomerase peptide consists of between 9 and 25 amino acids and comprises the sequence of SEQ ID NO:2, 3, 4, 9, 10 or 12 to 19, or a fragment of SEQ ID NO:2, 3, 4, 9, 10 or 12 to 19, at least 8 amino acids long, the fragment being capable of generating a T cell response, and wherein the telomerase peptide is administered together, either simultaneously or separately, with the cytokine and/or growth factor in order to strengthen the immune response.
An enclosure for mass delivery of a living biological pest control agent comprising: a body section having a generally cylindrical wall having opposed ends (42-1, 41-2) and defining an interior surface, parasitized eggs of a living biological pest control agent adhered to the interior surface of the generally cylindrical wail, and an opposed pair of egress openings to allow the living biological pest control agent to exit the body section to an exterior environment, characterized in that the enclosure further comprises opposed crimped regions which close each of the opposed ends (42-1, 42-2) of the cylindrical body section, wherein each of the opposed crimped regions includes an egress opening. a body section having a generally cylindrical wall having opposed ends (42-1, 41-2) and defining an interior surface, parasitized eggs of a living biological pest control agent adhered to the interior surface of the generally cylindrical wail, and an opposed pair of egress openings to allow the living biological pest control agent to exit the body section to an exterior environment, characterized in that the enclosure further comprises opposed crimped regions which close each of the opposed ends (42-1, 42-2) of the cylindrical body section, wherein each of the opposed crimped regions includes an egress opening.
A control device for an article of motor-powered equipment comprising at least one sensor (14, 15) and an electronic board for controlling the article of equipment in dependence on at least one signal from the sensor, in which the electronic sensor is a contactless optical sensor provided in an interface region of the control device and configured to measure a distance separating at least one target which is in the interface region and the optical sensor, the electronic board being configured to establish a first control of a main function of the article of motor-powered equipment when a signal from the optical sensor is established for a measured distance in a first range of distances and to establish a control for at least one additional function of the article of motor-powered equipment that is different from the main function when a signal from the optical sensor is established for a measurement distance greater than the first range of distances.
A draw texturing machine comprising: a pin-type twisting unit which includes a cylindrical pin retained while being in contact with circumferential surfaces of rollers (45 to 48) attached to two rotational shafts (43, 44), respectively, and which is configured to twist a yarn running inside the pin by rotating the pin by rotationally driving one of the two rotational shafts (43, 44) by a motor; a yarn breakage sensor configured to detect yarn breakage; and a control unit configured to control the motor, characterised in that: the control unit stops the motor when the yarn breakage sensor detects yarn breakage. a pin-type twisting unit which includes a cylindrical pin retained while being in contact with circumferential surfaces of rollers (45 to 48) attached to two rotational shafts (43, 44), respectively, and which is configured to twist a yarn running inside the pin by rotating the pin by rotationally driving one of the two rotational shafts (43, 44) by a motor; a yarn breakage sensor configured to detect yarn breakage; and a control unit configured to control the motor, characterised in that: the control unit stops the motor when the yarn breakage sensor detects yarn breakage.
A device for carrying out strength exercises using a continuous, flexible pulling means to which a resistance may be applied that may be adjusted by the user, comprising a guide which is rotatably mounted on an axle by way of the continuous pulling means, wherein means are provided through which an adjustable resistance may be applied to the continuous pulling means, wherein at least one adjustable eddy-current brake is provided on the guide of the continuous pulling means and where the eddy-current losses of at least one rotating metal disk or brake disk (22, 23), which rotates in a magnetic field generated by at least one magnet (21, 27, 28), are used for braking or respectively generating the resistance, which is provided on the guide or is formed by the guide itself,# characterized in that the rotating metal disk or brake disk (22, 23) is provided beside the guide in a defined relationship to the guide, wherein the inner surface of said metal disk or brake disk rotates past a magnet cylinder that is disposed at the outer edges with a space in between, wherein the magnetic field of the magnet cylinder passes vertically through the rotating metal disk or brake disk (22, 23).
A fuel injector (100; 200; 300; 400; 500), comprising: an outer body (104; 204; 304; 404; 506) extending about an axis with a radially inner surface, wherein the radially inner surface defines a retention groove in the inner surface of the outer body (104; 204; 304; 404; 506); an inner body (102; 202; 302; 402; 504) positioned within the outer body (104; 204; 304; 404; 506) and having an outer surface and a retention tab, the inner body (102; 202; 302; 402; 504) being axially retained relative to the outer body (104; 204; 304; 404; 506) by engagement of the retention tab within the retention groove; wherein the fuel injector (100; 200; 300; 400; 500) further comprises a joint axially offset from the retention tab and fixing the inner body (102; 202; 302; 402; 504) to the outer body (104; 204; 304; 404; 506), wherein the joint includes one of a braze structure disposed between the outer surface of the inner body (102; 202; 302; 402; 504) and the inner surface of the outer body (104; 204; 304; 404; 506) and a weld structure disposed between the interior surface of the outer body (104; 204; 304; 404; 506) and the outer surface of the inner body (102; 202; 302; 402; 504). an outer body (104; 204; 304; 404; 506) extending about an axis with a radially inner surface, wherein the radially inner surface defines a retention groove in the inner surface of the outer body (104; 204; 304; 404; 506); an inner body (102; 202; 302; 402; 504) positioned within the outer body (104; 204; 304; 404; 506) and having an outer surface and a retention tab, the inner body (102; 202; 302; 402; 504) being axially retained relative to the outer body (104; 204; 304; 404; 506) by engagement of the retention tab within the retention groove; wherein the fuel injector (100; 200; 300; 400; 500) further comprises a joint axially offset from the retention tab and fixing the inner body (102; 202; 302; 402; 504) to the outer body (104; 204; 304; 404; 506), wherein the joint includes one of a braze structure disposed between the outer surface of the inner body (102; 202; 302; 402; 504) and the inner surface of the outer body (104; 204; 304; 404; 506) and a weld structure disposed between the interior surface of the outer body (104; 204; 304; 404; 506) and the outer surface of the inner body (102; 202; 302; 402; 504).
A method for supporting a first end of a first floor element at a beam, wherein the beam being provided with a supporting flange section configured to support said first end of the first floor element and a web section projecting upwards from the supporting flange section, and wherein the method comprises, supporting said first end of the first floor element on a first supporting surface of the supporting flange section at a first lateral side of the beam so that a first space is formed between the first end of the first floor element and the web section of the beam, providing elongated transverse fittings in the web section of the beam, providing transverse reinforcements to extend between the first lateral side of the beam and the inside of the first floor element, and filling fill material in the first space between the first end of the first floor element and the web section of the beam, fey providing the elongated transverse fitting to have a first free end at the first lateral side of the beam, characterized by connecting a first protective element to the first free end of the elongated transverse fitting outside the web section of the beam. supporting said first end of the first floor element on a first supporting surface of the supporting flange section at a first lateral side of the beam so that a first space is formed between the first end of the first floor element and the web section of the beam, providing elongated transverse fittings in the web section of the beam, providing transverse reinforcements to extend between the first lateral side of the beam and the inside of the first floor element, and filling fill material in the first space between the first end of the first floor element and the web section of the beam, fey providing the elongated transverse fitting to have a first free end at the first lateral side of the beam, characterized by connecting a first protective element to the first free end of the elongated transverse fitting outside the web section of the beam.
A battery, comprising a can and an electrode assembly arranged inside the can, the battery further comprising at least one damping member and a current collector; wherein at least one electrode plate of the electrode assembly comprises a non-coating portion and the current collector is fixed to the non-coating portion, wherein the damping member is positioned between two electrodes of the electrode assembly characterized in that the damping member contacts the current collector and is positioned between the electrode assembly and the can.
A method for producing a waterproof floor panel having a waterproof carrier plate and a surface coating arranged on the carrier plate, characterized by the steps of: - bonding a pre-impregnated finish film to the carrier plate, - filling the finish film with a filling lacquer, - applying and gelling a layer of a solvent-containing primer to the finish film, - applying and gelling at least one layer of a solvent-containing top-coat lacquer to the primer layer, - completely curing the primer layer and the top-coat lacquer layer. - bonding a pre-impregnated finish film to the carrier plate, - filling the finish film with a filling lacquer, - applying and gelling a layer of a solvent-containing primer to the finish film, - applying and gelling at least one layer of a solvent-containing top-coat lacquer to the primer layer, - completely curing the primer layer and the top-coat lacquer layer.
An apparatus for obtaining a plurality of fluid samples in a subterranean well comprising: a carrier having a longitudinally extending internal fluid passageway providing a substantially smooth bore therethrough and a plurality of externally disposed chamber receiving slots; a plurality of sampling chambers (216, 218, 220, 222, 224, 226) divided in a plurality of groups, each group comprising at least two sampling chambers, each one of said sampling chambers being positioned in one of the chamber receiving slots; a pressure source selectively in fluid communication with each of the sampling chambers such that the pressure source is operable to pressurize fluid samples obtained in each of the sampling chambers; and a manifold providing fluid communication between the sampling chambers and the pressure source, characterised in that the pressure source includes at least two pressure chambers (240, 242, 244), in that each group is associated with only one of the at least two pressure chambers, in that each one of the pressure chambers is positioned in a separate one of the chamber receiving slots, and in that each of the pressure chambers (240, 242, 244) is operable only to pressurize the at least two sampling chambers of its associated group. a carrier having a longitudinally extending internal fluid passageway providing a substantially smooth bore therethrough and a plurality of externally disposed chamber receiving slots; a plurality of sampling chambers (216, 218, 220, 222, 224, 226) divided in a plurality of groups, each group comprising at least two sampling chambers, each one of said sampling chambers being positioned in one of the chamber receiving slots; a pressure source selectively in fluid communication with each of the sampling chambers such that the pressure source is operable to pressurize fluid samples obtained in each of the sampling chambers; and a manifold providing fluid communication between the sampling chambers and the pressure source, characterised in that the pressure source includes at least two pressure chambers (240, 242, 244), in that each group is associated with only one of the at least two pressure chambers, in that each one of the pressure chambers is positioned in a separate one of the chamber receiving slots, and in that each of the pressure chambers (240, 242, 244) is operable only to pressurize the at least two sampling chambers of its associated group.
A vehicle body structure in which a vehicle body including an upper vehicle body and a lower vehicle body that are joined is constituted in whole or in part by a fiber-reinforced composite material, characterised by metal members (7, 7r, 8, 8r) inserted into the respective upper vehicle body and lower vehicle body, the metal members being fastened to each other to form a joint portion, and at least two functional components attached to the joint portion.
A bread slicing machine, more particularly a grid bread slicing machine, comprising a stationary bread depositing surface pertaining to a machine rack and comprising a movable bread pusher having a pushing surface which extends in transverse direction relative to the bread depositing surface, and comprising a pusher drive which is coupled to the bread pusher via at least two coupling points (29, 30) and drives the bread pusher along a linear pusher path, wherein the at least two coupling points (29, 30) that are arranged spaced apart from each other cause a slanting position of the bread pusher to be counteracted in a guiding manner, characterised in that the pusher drive is designed as a scissor joint drive or as a cable pull drive.
A switching device comprising: a first terminal and a second terminal; a plurality of field-effect transistors, FETs, implemented in a stack configuration between the first terminal and the second terminal, each FET having a source, a drain and a gate, the FETs configured to be in an ON state or an OFF state to respectively allow or inhibit passage of a radio-frequency, RF, signal between the first and second terminals; and a bias circuit having a bias input node and a gate resistance network that couples the bias input node to the gate of each FET, the gate resistance network including a plurality of first nodes and one or more second nodes, each first node of the plurality of first nodes connected to more than one of the gates through respective first resistive paths (Rg1-Rg8), each second node of the one or more second nodes connected to one or more first nodes of the plurality of first nodes through one or more respective second resistive paths (RM1-RM4), the gate of each FET being coupled to the bias input node through a first node of the plurality of first nodes and a second node of the one or more second nodes. a first terminal and a second terminal; a plurality of field-effect transistors, FETs, implemented in a stack configuration between the first terminal and the second terminal, each FET having a source, a drain and a gate, the FETs configured to be in an ON state or an OFF state to respectively allow or inhibit passage of a radio-frequency, RF, signal between the first and second terminals; and a bias circuit having a bias input node and a gate resistance network that couples the bias input node to the gate of each FET, the gate resistance network including a plurality of first nodes and one or more second nodes, each first node of the plurality of first nodes connected to more than one of the gates through respective first resistive paths (Rg1-Rg8), each second node of the one or more second nodes connected to one or more first nodes of the plurality of first nodes through one or more respective second resistive paths (RM1-RM4), the gate of each FET being coupled to the bias input node through a first node of the plurality of first nodes and a second node of the one or more second nodes.
An implantation set for implanting a screw in a human or animal body, comprising - a tool having a tool shank and - a screw designed to receive the tool, for which - the screw comprises a tool mount preferably in the form of a blind hole comprising a torque introduction portion into which or onto which a torque transmission portion on a distal end region of the tool shank can be inserted/placed or is inserted/placed to transmit torque, wherein the tool mount of the screw forms, proximal to the torque introduction portion, an inclined insertion region for guiding and/or centering the tool shank during inserting it in/placing it on the screw,wherein - the tool shank forms a centering surface proximal to the torque transmission portion, which is matched to the inclined insertion region in such a way that when the centering surface comes into contact with the inclined insertion region therebetween, a form fit and preferably a force fit connection is created in a circumferential direction in addition to or as an alternative to the form fit connection between the torque transmission portion and the torque introduction portion, wherein the tool shank forms or comprises a radially protruding shaft/shank ring or shoulder which delimits the torque transmission portion proximally in an axial direction and on the distal side of which the centering surface is formed, characterized in that a number of equally circumferentially spaced, axially and also radially projecting, spherical protrusions are formed in the shaft/shank ring, and the inclined insertion region, which is arranged at the proximal end of the torque introduction portion, forms a number of equally circumferentially spaced, axially and also radially extending, spherical calotte-shaped indentations or grooves which can be brought into form-fitting engagement with the spherical protrusions on the centering surface, wherein the transition between the centering surface and the torque transmission portion is formed smoothly by the spherical protrusions. - a tool having a tool shank and - a screw designed to receive the tool, for which - the screw comprises a tool mount preferably in the form of a blind hole comprising a torque introduction portion into which or onto which a torque transmission portion on a distal end region of the tool shank can be inserted/placed or is inserted/placed to transmit torque, wherein the tool mount of the screw forms, proximal to the torque introduction portion, an inclined insertion region for guiding and/or centering the tool shank during inserting it in/placing it on the screw,wherein - the tool shank forms a centering surface proximal to the torque transmission portion, which is matched to the inclined insertion region in such a way that when the centering surface comes into contact with the inclined insertion region therebetween, a form fit and preferably a force fit connection is created in a circumferential direction in addition to or as an alternative to the form fit connection between the torque transmission portion and the torque introduction portion, wherein
A method for performing Coordinated Multi-Point, CoMP, transmission by CoMP network nodes in a wireless communication system, the method comprising: receiving, by a second eNodeB from a first eNodeB via a non-ideal backhaul, NIB, link, CoMP information comprising at least one CoMP hypothesis set and at least one benefit metric; and performing, by the second network node, CoMP transmission based on the at least one CoMP hypothesis set and the at least on benefit metric; wherein each benefit metric is associated with one of the at least one CoMP hypothesis set, wherein the at least one CoMP hypothesis set comprises hypothetical resource allocation information indicating a time-frequency resource, and wherein a benefit metric has a quantized value of a benefit expected for CoMP scheduling on an assumption of a CoMP hypothesis set associated with the benefit metric. receiving, by a second eNodeB from a first eNodeB via a non-ideal backhaul, NIB, link, CoMP information comprising at least one CoMP hypothesis set and at least one benefit metric; and performing, by the second network node, CoMP transmission based on the at least one CoMP hypothesis set and the at least on benefit metric; wherein each benefit metric is associated with one of the at least one CoMP hypothesis set, wherein the at least one CoMP hypothesis set comprises hypothetical resource allocation information indicating a time-frequency resource, and wherein a benefit metric has a quantized value of a benefit expected for CoMP scheduling on an assumption of a CoMP hypothesis set associated with the benefit metric.