mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding a large field of view video into a bitstream, at least one picture of said large field of view video being represented as a surface, said surface being projected onto at least one 2D picture using a projection function, said method comprising: - determining, according to said projection function, for a current region of said 2D picture, at least one item of information associated with an encoding module, said at least one item of information defining a region of said 2D picture to be used as a neighboring region of said current region during encoding of blocks of said current region by said encoding module, in replacement of a spatially neighboring region of said 2D picture, - determining, for a current block of said current region, a group of neighboring blocks responsive to said at least one item of information, and - encoding said current block using said determined group of neighboring blocks, wherein encoding said current block comprising processing said current block by said encoding module using said determined group of neighboring blocks. - determining, according to said projection function, for a current region of said 2D picture, at least one item of information associated with an encoding module, said at least one item of information defining a region of said 2D picture to be used as a neighboring region of said current region during encoding of blocks of said current region by said encoding module, in replacement of a spatially neighboring region of said 2D picture, - determining, for a current block of said current region, a group of neighboring blocks responsive to said at least one item of information, and - encoding said current block using said determined group of neighboring blocks,
Flow rectifier for an axial fan, having a base body, which comprises a ring that is delimited radially inside and outside, in each case, by cylindrical curved surface areas (5, 6), said ring (4a, 4b, 4c, 4d, 4e) having a plurality of air guide blades, which are distributed in a circumferential direction about a longitudinal axis (X-X), and which are disposed in an essentially radial manner such that they extend between the curved surface areas (5, 6), wherein, when viewed in a circumferential direction, the air guide blades extend with a curvature relative to the axial direction (X-X), in each case extending between an inflow-side blade edge and an outflow-side blade edge, characterized in that two or more rings (4a, 4b, 4c, 4d, 4e) are provided in the base body, said rings having a plurality of air guide blades, which are distributed in a circumferential direction about the longitudinal axis (X-X), and which are disposed in an essentially radial manner such that they extend between the curved surface areas (5, 6), wherein two or more rings (4a, 4b, 4c, 4d, 4e) are provided in the base body, said rings having a plurality of in air guide blades, which are distributed in a circumferential direction about the longitudinal axis (X-X), and which are disposed in an essentially radial manner such that they extend between the curved surface areas (5, 6), wherein at least the outflow-side blade edge of the air guide blades has a height that can be changed in a radial direction, wherein the outflow-side blade edge of the air guide blade, which has an adjustable height in the radial direction, has a curvature, characterized in that the number of air guide blades disposed within a ring (4a, 4b, 4c, 4d, 4e) decrease from ring (4a, 4b, 4c, 4d, 4e) to ring (4a, 4b, 4c, 4d, 4e) moving radially inward, so that almost the same spacing between the respective air guide blades exists in each ring (4a, 4b, 4c, 4d, 4e).
Process for transformation of lignocellulosic biomass or cellulose into hydroxyacetone and propylene glycol, in which the lignocellulosic biomass or cellulose is brought into contact, under hydrothermal conditions and under a reducing atmosphere, with a heterogeneous catalyst that is based on tin oxide and/or antimony oxide and that contains at least one element in the metal state that is selected from among Pt, Ni, Ru, Cu, with said catalyst having Lewis-type acid sites, said content of Lewis acid sites being greater than 50% of the total acid site content, said catalyst being dispersed on a substrate based on oxides selected from among the group that is formed by the oxides of aluminum and/or zirconium and/or titanium and/or niobium and/or silicon, said process being carried out at a temperature of between 160 and 250°C, and at a pressure of between 0.5 and 20 MPa.
A method for updating filters with a care-of-address associated with at least one of a mobile station or a correspondent node, wherein the filters are at a Packet Data Serving Node of a wireless network, and said Packet Data Serving Node acts as an access node for the mobile station of the wireless network wherein said filters are for filtering traffic to or from the mobile station at the Packet Data Serving Node, and the method comprises the steps of: implementing a soft filtering rule at the filters of the Packet Data Serving Node, wherein the step of implementing comprises allowing at least one Mobility header message at a predetermined time, wherein the predetermined time is a configurable parameter; receiving, by a Packet Data Serving Node from the mobile station, a care-of-address associated with at least one of the mobile station and a correspondent node; and updating, by the Packet Data Serving Node, filters with the care-of-address to correctly identify flows belonging to a particular session during Mobile IP use. implementing a soft filtering rule at the filters of the Packet Data Serving Node, wherein the step of implementing comprises allowing at least one Mobility header message at a predetermined time, wherein the predetermined time is a configurable parameter; receiving, by a Packet Data Serving Node from the mobile station, a care-of-address associated with at least one of the mobile station and a correspondent node; and updating, by the Packet Data Serving Node, filters with the care-of-address to correctly identify flows belonging to a particular session during Mobile IP use.
Measuring device with at least one sensor and with at least one transmitter housing, wherein the transmitter housing is designed according to claim 10.
Anti-skimming or anti-shimming device for placement inside of a card reader for providing protection adjacent to either a magnetic stripe reading head or a chip reading head by providing a sheet of protective material, the sheet of protective material being functional in blocking space between the official reading head and a front plate of the card reader.
Planar structure comprising at least one layer of an adhesive within which heat can be generated, the layer contacting an adhesion base, characterized in that the adhesive is a hotmelt adhesive and a posistor, the planar structure being hotmelt-adhesive in the sense that, after application in melt form to the adhesion base, and subsequent cooling, the bond strength at room temperature in accordance with ASTM D 3330-04, at a peel speed of 300 mm/min on the adhesion base to which bonding is to take place, is greater than 1 N/cm.
A device in a wireless communication system, the device comprising: processing circuitry configured to include: a cell configuring unit (102, 202) configured to control a periodic discontinuous transmission mode of a cell and configure a parameter, comprising a period, of the periodic discontinuous transmission mode, according to an inter-cell interference condition; and a user equipment configuring unit (104, 204) configured to configure, according to the parameter of the periodic discontinuous transmission mode, a parameter, comprising a period, of a periodic discontinuous reception mode of user equipment, so that the period of the periodic discontinuous reception mode of the user equipment is compatible with the period of the periodic discontinuous transmission mode, wherein each one period of the periodic discontinuous transmission mode comprises an activation time duration and a sleeping time duration, and the cell provides a service to the user equipment during the activation time duration; and wherein the configuring unit comprises a determination module configured to determine to switch on the periodic discontinuous transmission mode of the cell in a case that the inter-cell interference condition is greater than a predetermined threshold. processing circuitry configured to include: a cell configuring unit (102, 202) configured to control a periodic discontinuous transmission mode of a cell and configure a parameter, comprising a period, of the periodic discontinuous transmission mode, according to an inter-cell interference condition; and a user equipment configuring unit (104, 204) configured to configure, according to the parameter of the periodic discontinuous transmission mode, a parameter, comprising a period, of a periodic discontinuous reception mode of user equipment, so that the period of the periodic discontinuous reception mode of the user equipment is compatible with the period of the periodic discontinuous transmission mode, a cell configuring unit (102, 202) configured to control a periodic discontinuous transmission mode of a cell and configure a parameter, comprising a period, of the periodic discontinuous transmission mode, according to an inter-cell interference condition; and a user equipment configuring unit (104, 204) configured to configure, according to the parameter of the periodic discontinuous transmission mode, a parameter, comprising a period, of a periodic discontinuous reception mode of user equipment, so that the period of the periodic discontinuous reception mode of the user equipment is compatible with the period of the periodic discontinuous transmission mode, wherein each one period of the periodic discontinuous transmission mode comprises an activation time duration and a sleeping time duration, and the cell provides a service to the user equipment during the activation time duration; and wherein the configuring unit comprises a determination module configured to determine to switch on the periodic discontinuous transmission mode of the cell in a case that the inter-cell interference condition is greater than a predetermined threshold.
A polyamide resin comprising a diamine structural unit and a dicarboxylic acid structural unit, wherein 70 mol % or more of the diamine structural unit is derived from bis(aminomethyl)cyclohexane (A-2) and 50 mol % or more of the dicarboxylic acid structural unit is derived from sebacic acid; and which has a sulfur atom concentration of 10 to 200 ppm by mass, a sodium atom concentration of 5 to 500 ppm by mass, and a phosphorus atom concentration of 5 to 500 ppm by mass, wherein the methods used for measuring the concentrations of sulfur atom, sodium atom and phosphorus atom are as follows: sulfur atom concentration (expressed in ppm): a polyamide resin is compressed into tablets through a press and subjected to X-ray fluorescence analysis with an X-ray fluorescence spectrometer equipped with an Rh tube, wherein a PP film is used as a film for analyzer window and EZ scan measurements are performed in a vacuum atmosphere and the irradiated areas are 30 mm Ø; sodium atom concentration and phosphorus atom concentration (expressed in ppm): the concentration of sodium atoms contained in polyamide resins is assayed by using an atomic absorption spectrometer and the concentration of phosphorus atoms is assayed by using an ICP emission spectrometer, both after the polyamide resin was degraded by microwave in nitric acid. sulfur atom concentration (expressed in ppm): a polyamide resin is compressed into tablets through a press and subjected to X-ray fluorescence analysis with an X-ray fluorescence spectrometer equipped with an Rh tube, wherein a PP film is used as a film for analyzer window and EZ scan measurements are performed in a vacuum atmosphere and the irradiated areas are 30 mm Ø; sodium atom concentration and phosphorus atom concentration (expressed in ppm): the concentration of sodium atoms contained in polyamide resins is assayed by using an atomic absorption spectrometer and the concentration of phosphorus atoms is assayed by using an ICP emission spectrometer, both after the polyamide resin was degraded by microwave in nitric acid.
Removable signalling device of the exhaustion of a dispenser/diffuser of a liquid active substance contained in a container of said dispenser/diffuser, characterized in that it comprises a central body from which project two opposite lateral arms, which surround at least part of said dispenser/diffuser, and an appendix which extends alongside said container, in a vertically adjustable position with respect to the central body and the lateral arms, and carries a self-powered liquid sensor facing said container.
Cup with pot inserted therein containing ingredients, preferably a concentrate of nutrition as, for example, coffee powder, and preferably being closed by a lid, the pot being positioned above the bottom of the cup and fixed to a shoulder of the cup wall, characterized by a recess on the outer structure of the pot, cooperating with the shoulder in a snap on fit, when vertically inserted; wherein the pot contains at least one vertical rib formed on the outer structure of the pot, providing the recess.
A dryer that comprises - a drum wherein the laundry is emplaced, - a motor that actuates the drum for rotating thereof, - a blower for circulating the air in the drying cycle, - a circulation channel wherein the drying air circulates, - a heater disposed in the circulation channel for heating the drying air, - a thermostat for operating the heater on and off and heating and cooling within a certain temperature range (Tcut-on - Tcut-off), - a temperature sensor disposed in the vicinity of the heater in the circulation channel that detects the temperature of the drying air in the vicinity of the heater, and - a control unit configured to determine the change values in temperature with respect to time (t) of the drying air in normal flow and to record these in memory as a reference, (ref = temperature - time (t) graph), further configured to compare the temperature change rate (dT1/dt) of the drying air detected by the temperature sensor with the reference temperature change rate (dT/dt) and to decide, there is malfunction that limits air flow in the drum if the detected rate (dT1/dt) of temperature change of the drying air is different from the reference temperature change rate (dT/dt), characterized by the control unit that is configured to evaluate the rate of increase (dT1/dt) in the drying air temperature when the heater, operating on and off under control of the thermostat, is in the off mode and while the drying air temperature in the vicinity of the heater is increasing due to thermal inertia. - a drum wherein the laundry is emplaced, - a motor that actuates the drum for rotating thereof, - a blower for circulating the air in the drying cycle, - a circulation channel wherein the drying air circulates, - a heater disposed in the circulation channel for heating the drying air, - a thermostat for operating the heater on and off and heating and cooling within a certain temperature range (Tcut-on - Tcut-off), - a temperature sensor disposed in the vicinity of the heater in the circulation channel that detects the temperature of the drying air in the vicinity of the heater, and - a control unit configured to determine the change values in temperature with respect to time (t) of the drying air in normal flow and to record these in memory as a reference, (ref = temperature - time (t) graph), further configured to compare the temperature change rate (dT1/dt) of the drying air detected by the temperature sensor with the reference temperature change rate (dT/dt) and to decide, there is malfunction that limits air flow in the drum if the detected rate (dT1/dt) of temperature change of the drying air is different from the reference temperature change rate (dT/dt),
A quantitative phase analysis device, which is configured to perform quantitative phase analysis of crystalline phases contained in a sample based on a powder diffraction pattern of the sample, the quantitative phase analysis device comprising: a powder diffraction pattern acquisition unit configured to acquire the powder diffraction pattern of the sample; a qualitative phase analysis result acquisition unit configured to acquire information on a plurality of crystalline phases contained in the sample; a fitting function acquisition unit configured to acquire a fitting function for each of the plurality of crystalline phases; a whole-powder pattern fitting unit configured to execute whole-powder pattern fitting for the powder diffraction pattern of the sample by using the fitting function for each of the plurality of crystalline phases, to thereby acquire a fitting result; and a weight ratio calculation unit configured to calculate a weight ratio of the plurality of crystalline phases based on the fitting result, wherein the fitting function for each of the plurality of crystalline phases is one fitting function selected from the group consisting of a first fitting function that uses an integrated intensity obtained by whole-powder pattern decomposition, a second fitting function that uses an integrated intensity obtained by observation or calculation, and a third fitting function that uses a profile intensity obtained by observation or calculation. a powder diffraction pattern acquisition unit configured to acquire the powder diffraction pattern of the sample; a qualitative phase analysis result acquisition unit configured to acquire information on a plurality of crystalline phases contained in the sample; a fitting function acquisition unit configured to acquire a fitting function for each of the plurality of crystalline phases; a whole-powder pattern fitting unit configured to execute whole-powder pattern fitting for the powder diffraction pattern of the sample by using the fitting function for each of the plurality of crystalline phases, to thereby acquire a fitting result; and a weight ratio calculation unit configured to calculate a weight ratio of the plurality of crystalline phases based on the fitting result, wherein the fitting function for each of the plurality of crystalline phases is one fitting function selected from the group consisting of a first fitting function that uses an integrated intensity obtained by whole-powder pattern decomposition, a second fitting function that uses an integrated intensity obtained by observation or calculation, and a third fitting function that uses a profile intensity obtained by observation or calculation.
A high strength fiber composite material comprising: a high strength fiber material; and a resin film laminated on one surface of the high strength fiber material, wherein an amount of the resin film is 10 to 18 wt.% to a total weight of the high strength fiber material and the resin film, the resin film comprises 20 to 70 wt.% of phenolic resin, 20 to 70 wt.% of polyvinyl butyral resin, characterised in that the polyvinyl butyral resin has a molecular weight of 80,000 to 120,000. a high strength fiber material; and a resin film laminated on one surface of the high strength fiber material,
A knockout method for knocking out a cluster (30, 130) of lost-pattern metal castings (32, 132), the cluster of castings being formed in a shell (1, 101), wherein at least one blade is moved by means of a machine (40, 140) without making contact with the cluster in such a manner that the blade engages the shell, breaks it into a plurality of fragments, and detaches at least a portion of the shell from the cluster.
A process for the preparation of a magnetic iron alloy comprising: Iron (Fe); 2 wt.% ≤ cobalt (Co) ≤ 10 wt.%; 0.05 wt.% ≤ manganese (Mn) ≤ 5 wt.%; 0.05 wt.% ≤ silicon (Si) ≤ 5 wt.%; comprising a final heat treatment process after hot or cold working and shaping of said alloy comprising the following steps: - annealing at 1180°C in dry hydrogen; - cooling at 93°C per hour until a temperature of 699°C is reached, and then - holding for 24 hours. Iron (Fe); 2 wt.% ≤ cobalt (Co) ≤ 10 wt.%; 0.05 wt.% ≤ manganese (Mn) ≤ 5 wt.%; 0.05 wt.% ≤ silicon (Si) ≤ 5 wt.%; comprising a final heat treatment process after hot or cold working and shaping of said alloy comprising the following steps: - annealing at 1180°C in dry hydrogen; - cooling at 93°C per hour until a temperature of 699°C is reached, and then - holding for 24 hours. - annealing at 1180°C in dry hydrogen; - cooling at 93°C per hour until a temperature of 699°C is reached, and then - holding for 24 hours.
Energy transmission system for a water pipe of a sanitary installation, comprising a generator unit with a power supply unit, which generator unit can be arranged at a first location of the water pipe, and at least one consumer unit with at least one consumer (20; 200), which consumer unit can be arranged at a second location of the water pipe spaced apart from the first location, wherein the generator unit comprises a pressure surge generator connected to the power supply unit, with which pressure surge generator pressure surges can be generated which pressure surges can be introduced into the water present in the water pipe, and wherein the consumer unit comprises a pressure surge converter connected to the at least one consumer (20; 200), by means of which pressure surge converter the pressure surges introduced into the water can be converted into electrical energy which can be supplied to the at least one consumer (20; 200), and wherein the consumer unit comprises a storage with which the electrical energy provided by the pressure surge converter can be stored. the generator unit comprises a pressure surge generator connected to the power supply unit, with which pressure surge generator pressure surges can be generated which pressure surges can be introduced into the water present in the water pipe, and wherein the consumer unit comprises a pressure surge converter connected to the at least one consumer (20; 200), by means of which pressure surge converter the pressure surges introduced into the water can be converted into electrical energy which can be supplied to the at least one consumer (20; 200), and wherein the consumer unit comprises a storage with which the electrical energy provided by the pressure surge converter can be stored.
A method comprising: projecting, by means of a laser projection apparatus, an identifier of an instruction set, the identifier being projected onto a structure about a location at which a fastener or fastener collar is to be installed; capturing, by means of a fastener installation apparatus which includes a camera, an image of the projected identifier from the structure; determining the identifier from the captured image; retrieving the instruction set based on the determined identifier; and programming a tool for installing the respective fastener or fastener collar according to the retrieved instruction set. projecting, by means of a laser projection apparatus, an identifier of an instruction set, the identifier being projected onto a structure about a location at which a fastener or fastener collar is to be installed; capturing, by means of a fastener installation apparatus which includes a camera, an image of the projected identifier from the structure; determining the identifier from the captured image; retrieving the instruction set based on the determined identifier; and programming a tool for installing the respective fastener or fastener collar according to the retrieved instruction set.