mhurhangee/ep-ind-claims huggingface dataset:
A rolling device, comprising: - a feed conveyor configured to transversely feed groups of pieces of cigarettes/filters and patches for connecting the groups, each group being defined by at least two axially aligned pieces and each patch being positioned tangentially to a group of pieces starting from an end of it preferably glued to the group itself, wherein said feed conveyor is a drum provided with suction flutes disposed on a radially external surface of the drum, each suction flute being configured to receive and retain a group of pieces, - a rolling channel delimited, at one end, by a rolling portion of the drum, and at the other end, by a rolling unit located at a distance from the rolling portion such as to define a width of the rolling channel which is approximately the same as the diameter of the groups, said drum being adapted to be set in rotation about its horizontal axis to feed the groups to the rolling channel, wherein the rolling channel is adapted, in a use configuration of the rolling device, to be travelled transversely by each group of pieces which, as they advance in a travelling direction between an infeed station and an outfeed station of the rolling channel, rolls on the rolling portion and on the rolling unit rotating about its longitudinal axis, characterized in that the rolling unit comprises an infeed rolling bed and an outfeed rolling bed located in succession along the travelling direction of the rolling channel and defining an infeed stretch and an outfeed stretch of the rolling channel, respectively, adapted to roll each group of pieces by an infeed rolling angle (δ) and an outfeed rolling angle, respectively, and in that the infeed rolling bed is movable along the travelling direction independently of the outfeed rolling bed to produce different rolling modes along the infeed stretch and along the outfeed stretch. - a feed conveyor configured to transversely feed groups of pieces of cigarettes/filters and patches for connecting the groups, each group being defined by at least two axially aligned pieces and each patch being positioned tangentially to a group of pieces starting from an end of it preferably glued to the group itself, wherein said feed conveyor is a drum provided with suction flutes disposed on a radially external surface of the drum, each suction flute being configured to receive and retain a group of pieces, - a rolling channel delimited, at one end, by a rolling portion of the drum, and at the other end, by a rolling unit located at a distance from the rolling portion such as to define a width of the rolling channel which is approximately the same as the diameter of the groups, said drum being adapted to be set in rotation about its horizontal axis to feed the groups to the rolling channel, wherein the rolling channel is adapted, in a use configuration of the rolling device, to be travelled transversely by each group of pieces which, as they advance in a travelling direction between an infeed station and an outfeed station of the rolling channel, rolls on the rolling portion and on the rolling unit rotating about its longitudinal axis,
A method of making a foam from a polymerizable resin, the term polymerizable resin referring to reactive molecules having three or more sites of ethylenic unsaturation that participate in forming covalent bonds during the free radical polymerization to form larger molecules comprising multiples of the reactive molecules, the method comprising: (i) providing a thermally-activated initiator having a given initiation temperature, which is the temperature corresponding to a ten-hour half life of the initiator using benzene solvent in 0.2M concentration, or equivalent, and a given promoted temperature, which is the temperature corresponding to a ten-hour half life of the initiator using benzene solvent in 0.2M concentration, or equivalent, in the presence of any promoter in the same weight ratio in terms of weight parts promoter to million weight parts initiator, that is used in the method, wherein the temperature of the initiator is below the initiation temperature; (ii) providing an elevated-temperature solution comprising a given amount of the polymerizable resin and carbon dioxide, and optionally promoter, wherein the temperature of the elevated-temperature solution is above the promoted temperature; (iii) combining at a mixing pressure the initiator of step (i) with the solution of step (ii) to form a mixture having a temperature above the promoted temperature; (iv) expanding the mixture by decreasing the pressure of the mixture to below the mixing pressure to create a froth comprising a plurality of cells formed by carbon dioxide that expanded out of solution; and (v) curing the polymerizable resin within the froth to create a solidified matrix encasing the plurality of cells. (i) providing a thermally-activated initiator having a given initiation temperature, which is the temperature corresponding to a ten-hour half life of the initiator using benzene solvent in 0.2M concentration, or equivalent, and a given promoted temperature, which is the temperature corresponding to a ten-hour half life of the initiator using benzene solvent in 0.2M concentration, or equivalent, in the presence of any promoter in the same weight ratio in terms of weight parts promoter to million weight parts initiator, that is used in the method, wherein the temperature of the initiator is below the initiation temperature; (ii) providing an elevated-temperature solution comprising a given amount of the polymerizable resin and carbon dioxide, and optionally promoter, wherein the temperature of the elevated-temperature solution is above the promoted temperature; (iii) combining at a mixing pressure the initiator of step (i) with the solution of step (ii) to form a mixture having a temperature above the promoted temperature; (iv) expanding the mixture by decreasing the pressure of the mixture to below the mixing pressure to create a froth comprising a plurality of cells formed by carbon dioxide that expanded out of solution; and (v) curing the polymerizable resin within the froth to create a solidified matrix encasing the plurality of cells.
A method of managing quality of service, QoS, in a data network, the method comprising: receiving at a user equipment, UE (202, 502), from a core network, CN, QoS policy information for a data session, wherein the QoS policy information comprises an uplink, UL, token assigned to the data session by the CN that identifies the data session and a QoS policy utilized for the data session and wherein the UL token is used for authorization of packets; receiving at the UE (202, 502) an indication of a resource for communicating with the CN for the data session; and transmitting a packet associated with the data session to the CN, wherein the packet comprises the UL token. receiving at a user equipment, UE (202, 502), from a core network, CN, QoS policy information for a data session, wherein the QoS policy information comprises an uplink, UL, token assigned to the data session by the CN that identifies the data session and a QoS policy utilized for the data session and wherein the UL token is used for authorization of packets; receiving at the UE (202, 502) an indication of a resource for communicating with the CN for the data session; and transmitting a packet associated with the data session to the CN, wherein the packet comprises the UL token.
A peptide comprising an amino acid sequence selected from the group consisting of SEQ ID NO 1 to SEQ ID NO 5, said peptide consisting of at most 25 amino acids, for use in an in vivo method of diagnosis of Helicobacter pylori infection or prediction of the risk for gastric cancer.
A method for setting up and/or monitoring operating parameters of a workpiece processing machine, which has a tool holder and means for relatively moving a workpiece and the tool holder with respect to one another along a first axis, wherein during the machining operation of the tool holder equipped with a tool and when engaging the tool into a workpiece, values for at least one of the following measured variables occurring at the tool holder during interaction between the tool and the workpiece on the tool and transmitted to the tool holder are detected and recorded for the sequence of processing: bending moments or bending torque components according to the direction and the magnitude, wherein the determined values for said at least one measured variable are used in order to set up the operating parameters so as to extend the service life of the tool used, without exceeding the maximum machining time and/or to monitor the machining process in terms of reproducibility and/or a tool wear and/or a machine error of the workpiece processing machine, characterized in that the magnitude values and directions for the measured variables of the bending moments and/or bending torque components are detected in a plane which is perpendicular to the first axis, stationary with respect to the tool holder when said tool holder is rotating, which plane revolves with said tool holder, whereas the coordinate system is stationary with respect to said tool holder and that a plurality of values of the bending moments or bending torque components, each of which is acquired at a predetermined measuring time t, are plotted in a two-dimensional coordinate diagram for the evaluation. bending moments or bending torque components according to the direction and the magnitude,
An electrostatic charge image developing toner, composing: a toner core including at least a binder resin; and a shell layer configured to cover the toner core, wherein the shell layer includes an inner layer and an outer layer, wherein ΔSP 1 as a difference obtained by subtracting a SP value of a material for the inner layer from a SP value of the binder resin is 0.3 or larger and 1.4 or smaller, wherein ΔSP 2 as a difference obtained by subtracting a SP value of a material for the outer layer from the SP value of the material for the inner layer is 0.5 or larger and 1.6 or smaller, wherein the ΔSP 1 is below the ΔSP 2, and wherein the SP value is a value at a temperature of 25°C and calculated by Fedor's method in a unit of (MPa) 1/2. a toner core including at least a binder resin; and a shell layer configured to cover the toner core,
A method for producing a rare sugar by applying at least one isomerisation reaction selected from the group of isomerisation reactions between L-gulose and L-sorbose, L-tagatose and L-galactose, L-altrose and L-psicose, L-glucose and L-fructose, D-galactose and D-tagatose, D-psicose and D-altrose, D-fructose and D-mannose, D-glucose and D-fructose, L-xylose and L-xylulose, L-arabinose and L-ribulose, L-ribulose and L-ribose, D-ribulose and D-arabinose, D-xylose and D-xylulose, D-xylulose and D-lyxose, L-threose and L-erythrulose, L-erythrulose and L-erythrose, D-erythrose and D-erythrulose, and D-erythrulose and D-threose, wherein a protein comprising an amino acid sequence in which none, one or several amino acids have been deleted, replaced, or added in the amino acid sequence represented by SEQ ID NO:2 and having the L-rhamnose isomerase activity of the protein comprising the amino acid sequence represented by SEQ ID NO: 2, or a protein being encoded by a DNA sequence that hybridizes with a nucleotide sequence of SEQ ID NO:1 at stringency conditions comprising a wash with a buffer containing 0.1xSSC and 0.1% SDS at 65°C and having L-rhamnose isomerise activity is catalyzing said isomerisation reaction, and wherein the rare sugar is an aldose, a ketose or a sugar alcohol except D-glucose, D-galactose, D-mannose, D-ribose, D-xylose, D-arabinose, D-fructose and D-sorbitol.
A method for manufacturing a brush handle, comprising the steps of: processing a wood material into a predetermined shape; forming a first primer layer on the processed wood material; forming a metal deposition layer by depositing metal on the first primer layer; and forming a second primer layer on the metal deposition layer, wherein the processed wood material has a marginal length of 1 to 6 cm, and wherein the method further comprises the step of cutting the marginal length, after the second primer layer forming step. processing a wood material into a predetermined shape; forming a first primer layer on the processed wood material; forming a metal deposition layer by depositing metal on the first primer layer; and forming a second primer layer on the metal deposition layer, wherein the processed wood material has a marginal length of 1 to 6 cm, and wherein the method further comprises the step of cutting the marginal length, after the second primer layer forming step.
A method of operation of a radio equipment, RE, connected to a radio equipment controller, REC,, wherein the RE and the REC together form at least a part of a base station in a wireless communication system, wherein the RE is designed to support Inter-Process Communication, IPC, signaling between the RE and the REC, while the REC does not support IPC, comprising: receiving (100, 300), by the RE, a non-IPC message from the REC; translating (102, 302), by the RE, the non-IPC message into an equivalent IPC message; providing (104, 304) the equivalent IPC message to a corresponding process operating on the RE; receiving an IPC message from a process operating on the RE; translating (202, 404), by the RE, an IPC message into an equivalent non-IPC message; and providing (204, 406) the equivalent non-IPC message from the RE to the REC. receiving (100, 300), by the RE, a non-IPC message from the REC; translating (102, 302), by the RE, the non-IPC message into an equivalent IPC message; providing (104, 304) the equivalent IPC message to a corresponding process operating on the RE; receiving an IPC message from a process operating on the RE; translating (202, 404), by the RE, an IPC message into an equivalent non-IPC message; and providing (204, 406) the equivalent non-IPC message from the RE to the REC.
The non-medical use of a food in a unit package form for improving mental energy during sleep insufficiency, which comprises, in the unit, not less than 0.3 g of histidine having the structural formula HOOCCH(NH 2)CH 2 -5-imidazol or a salt thereof, wherein the content of amino acid other than histidine or a substance convertible to amino acid other than histidine by hydrolysis is not more than 50 mg based on amino acid other than histidine.
A computer-implemented method for connecting a mesh network (205, 350) to a LAN (270, 360) using a bridge node with a standard MAC Bridge driver providing functionality of a MAC bridge, the mesh network including a topology of mesh nodes, wherein a mesh node is a fixed device or a mobile device, and wherein one mesh node is configured as the bridge node, the method comprising: determining addresses of stations on the LAN using the bridge node on which a network stack including a mesh driver is implemented, the mesh driver being located beneath the standard MAC bridge driver; wherein the mesh driver checks an Ethernet source address of packets that are being sent from a local node or a station on the LAN and, when an address of a station on the LAN is determined, then that address is stored in a list of non-mesh neighbors, wherein the list is updated upon the passing of an expiration period; and wherein the bridge node advertises to other nodes on the mesh network mesh routes that can be used to reach the LAN stations (272, 273, 274, 277) within the list, and directing packets from nodes on the mesh network destined to stations (272, 273, 274, 277) on the LAN through the bridge node.
A bill acceptor comprising: a housing comprising a face panel defining a bill slot for the insertion of a bill; a bill-receiving unit accommodated in said housing, said bill-receiving unit comprising a holder base defining therein a bill passage in communication with said bill slot, a control module, a transmission mechanism controllable by said control module to transfer an inserted bill, and a recognition circuit assembly mounted in opposing top and bottom sides of said bill passage, said recognition circuit assembly comprising a sampling and validating module consisting of a plurality of light emitters and light sensors and controllable by said control module to validate the authenticity and face value of an inserted bill; and at least one privacy filter mounted in a light path in said bill-receiving unit between said bill passage and said light sensors to filtrate external light sources and to let the light emitted by said light emitters pass toward said light sensors, characterized in that the privacy filter is a multilayer filter made using blind ultra-fine (micro-louver) optical technology, wherein the privacy filter decreases the angle of the light path in the bill passage, allowing only the light emitted by the light emitters to pass through the bill passage at 90° angle or 60°±5° angle. a housing comprising a face panel defining a bill slot for the insertion of a bill; a bill-receiving unit accommodated in said housing, said bill-receiving unit comprising a holder base defining therein a bill passage in communication with said bill slot, a control module, a transmission mechanism controllable by said control module to transfer an inserted bill, and a recognition circuit assembly mounted in opposing top and bottom sides of said bill passage, said recognition circuit assembly comprising a sampling and validating module consisting of a plurality of light emitters and light sensors and controllable by said control module to validate the authenticity and face value of an inserted bill; and at least one privacy filter mounted in a light path in said bill-receiving unit between said bill passage and said light sensors to filtrate external light sources and to let the light emitted by said light emitters pass toward said light sensors, characterized in that the privacy filter is a multilayer filter made using blind ultra-fine (micro-louver) optical technology, wherein the privacy filter decreases the angle of the light path in the bill passage, allowing only the light emitted by the light emitters to pass through the bill passage at 90° angle or 60°±5° angle.
Stiffened structure that comprises stiffeners (14.1, 14.2, 14.3) and nodes at which three stiffeners (14.1, 14.2, 14.3) of different directions intersect, with the surfaces of the stiffeners (14.1, 14.2, 14.3) being arranged in planes that are perpendicular to the same plane, whereby said stiffened structure comprises at least one opening and is characterized in that said opening is surrounded by a hexagonal belt, formed by peripheral stiffeners.
Audio encoder for encoding an audio signal having a lower frequency band and an upper frequency band, comprising: a detector for detecting a significant signal component in the lower frequency band and a peak spectral region in the upper frequency band of the audio signal; a shaper for shaping the lower frequency band using shaping information for the lower frequency band and for shaping the upper frequency band using at least a portion of the shaping information for the lower frequency band, wherein the shaper is configured to additionally attenuate spectral values in the detected peak spectral region in the upper frequency band, when the significant signal component in the lower frequency band has been detected; and a quantizer and coder stage for quantizing a shaped lower frequency band and a shaped upper frequency band and for entropy coding quantized spectral values from the shaped lower frequency band and the shaped upper frequency band. a detector for detecting a significant signal component in the lower frequency band and a peak spectral region in the upper frequency band of the audio signal; a shaper for shaping the lower frequency band using shaping information for the lower frequency band and for shaping the upper frequency band using at least a portion of the shaping information for the lower frequency band, wherein the shaper is configured to additionally attenuate spectral values in the detected peak spectral region in the upper frequency band, when the significant signal component in the lower frequency band has been detected; and a quantizer and coder stage for quantizing a shaped lower frequency band and a shaped upper frequency band and for entropy coding quantized spectral values from the shaped lower frequency band and the shaped upper frequency band.
A semiconductor device comprising: a first non-flat non-polar nitride semiconductor layer; a first structure layer on portions of a surface of the first non-flat non-polar nitride semiconductor layer, the first structure layer including a first plurality of solid particles; and a first non-polar nitride semiconductor layer grown on the first non-flat non-polar nitride semiconductor layer and on the first structure layer; wherein the first non-flat non-polar nitride semiconductor layer has a three dimensional surface structure, and is formed of a non-polar semiconductor, wherein the surface of the first non-flat non-polar nitride semiconductor layer includes a first plurality of concave portions, and the first plurality of solid particles are disposed only within the first plurality of concave portions, characterized in that a plurality of solid particles of said first plurality of solid particles is disposed in each concave portion of the first plurality of concave portions. a first non-flat non-polar nitride semiconductor layer; a first structure layer on portions of a surface of the first non-flat non-polar nitride semiconductor layer, the first structure layer including a first plurality of solid particles; and a first non-polar nitride semiconductor layer grown on the first non-flat non-polar nitride semiconductor layer and on the first structure layer; wherein the first non-flat non-polar nitride semiconductor layer has a three dimensional surface structure, and is formed of a non-polar semiconductor, wherein the surface of the first non-flat non-polar nitride semiconductor layer includes a first plurality of concave portions, and the first plurality of solid particles are disposed only within the first plurality of concave portions, characterized in that a plurality of solid particles of said first plurality of solid particles is disposed in each concave portion of the first plurality of concave portions.
Belt for bridle or harness with a first end section forming a first end of the belt (3, 3.1; 4; 17, 17.1), with a second end section (8.1) forming the other end of the belt (3, 3.1; 4; 17, 17.1), and a middle section connecting the two end sections (8, 8.1, 8.2), this middle section being provided by a cushion element (7, 7.1; 18, 18.1) arranged in respect of its effect on the animal's body, wherein the cushion element (7, 7.1; 18, 18.1) comprises a tension-resistant upper layer (12, 21) continuing into the end sections, by means of which the imposition of tensile force is divided over the width of the cushion element (7, 7.1; 18, 18.1), wherein in each case at least one securing means is connected to the end sections (8, 8.1, 8.2) of the upper layer (12, 21), such as a securing belt (10, 10.1, 10.2, 19, 19.1), for connecting the belt (3, 3.1; 4; 17, 17.1) to another part or to another belt of a bridle or harness, and therefore the securing means are separated from one another, in relation to the securing effect which initiates their tensile strength, by the middle section of the cushion element (7, 7.1; 18, 18.1), and wherein the cushion element (7, 7.1; 18, 18.1) forming the middle section exhibits a greater width than the at least one securing means (10, 10.1, 10.2, 19, 19.1) connected to each end section (8, 8.1, 8.2) of the belt (3, 3.1; 4; 17, 17.1) is formed from the tension-resistant upper layer (12, 21), an open-pored under layer peripherally connected to it, and an elastic spacing element, located in the pocket formed from the upper layer (12, 21) and the under layer, wherein the cushion element (7, 7.1; 18, 18.1) is provided by the spacing element and the under layer.