mhurhangee/ep-ind-claims huggingface dataset:
A cooking appliance comprising: a main body configured to have a cooking compartment; an input interface configured to receive a command to start a cleaning operation; a cooking compartment heater configured to provide heat to the cooking compartment; a water supplier configured to store water; a pump assembly (250, 350) configured to transfer the stored water from the water supplier to the cooking compartment; and a controller configured to control the cooking compartment heater to heat the cooking compartment to a first target temperature for a predetermined heating time in response to receiving a command to start the cleaning operation, and control the pump assembly (250, 350) to transfer a predetermined amount of the stored water to the cooking compartment whereby the transfer of the predetermined amount of the stored water to the cooking compartment is done at least one of before and during the predetermined heating time, characterized in that the controller is further configured to, when the cooking compartment is cooled down from the first target temperature to a second target temperature less than the first target temperature, control the cooking compartment heater to heat at least one face of the cooking compartment with water remaining thereon to generate steam, and heat the cooking compartment to a third target temperature. a main body configured to have a cooking compartment; an input interface configured to receive a command to start a cleaning operation; a cooking compartment heater configured to provide heat to the cooking compartment; a water supplier configured to store water; a pump assembly (250, 350) configured to transfer the stored water from the water supplier to the cooking compartment; and a controller configured to control the cooking compartment heater to heat the cooking compartment to a first target temperature for a predetermined heating time in response to receiving a command to start the cleaning operation, and control the pump assembly (250, 350) to transfer a predetermined amount of the stored water to the cooking compartment whereby the transfer of the predetermined amount of the stored water to the cooking compartment is done at least one of before and during the predetermined heating time, characterized in that the controller is further configured to, when the cooking compartment is cooled down from the first target temperature to a second target temperature less than the first target temperature, control the cooking compartment heater to heat at least one face of the cooking compartment with water remaining thereon to generate steam, and heat the cooking compartment to a third target temperature.
A shielded electrical ribbon cable (2; 1602), comprising: a plurality of conductor sets (4; 1604a-c) extending lengthwise along the cable and being spaced apart from each other along a width (w) of the cable, each conductor set including one or more insulated conductors (6; 1606), the conductor sets including a first conductor set (4; 1604a) adjacent a second conductor set (4; 1604b), the first and second conductor sets (4, 4; 1604a, 1604b) each having only one pair of insulated conductors (6; 1606); and a first and second shielding film (8; 1608) disposed on opposite sides of the cable (2; 1602), the first and second films (8; 1608) including cover portions and pinched portions arranged such that, in transverse cross section, the cover portions of the first and second films in combination substantially surround each conductor set (4; 1604a-b), and the pinched portions of the first and second films (8, 8; 1608, 1608) in combination form pinched regions of the cable on each side of each conductor set; wherein, when the cable is laid flat, a center-to-center spacing of the pair of insulated conductors for the first conductor set is σ1 and a center-to-center spacing of the first and second conductor sets (1604a, 1604b) is Σ, and wherein Σ/σ1 is in a range from 2.5 to 3. a plurality of conductor sets (4; 1604a-c) extending lengthwise along the cable and being spaced apart from each other along a width (w) of the cable, each conductor set including one or more insulated conductors (6; 1606), the conductor sets including a first conductor set (4; 1604a) adjacent a second conductor set (4; 1604b), the first and second conductor sets (4, 4; 1604a, 1604b) each having only one pair of insulated conductors (6; 1606); and a first and second shielding film (8; 1608) disposed on opposite sides of the cable (2; 1602), the first and second films (8; 1608) including cover portions and pinched portions arranged such that, in transverse cross section, the cover portions of the first and second films in combination substantially surround each conductor set (4; 1604a-b), and the pinched portions of the first and second films (8, 8; 1608, 1608) in combination form pinched regions of the cable on each side of each conductor set; wherein, when the cable is laid flat, a center-to-center spacing of the pair of insulated conductors for the first conductor set is σ1 and a center-to-center spacing of the first and second conductor sets (1604a, 1604b) is Σ, and wherein Σ/σ1 is in a range from 2.5 to 3.
Fuel cell stack containing an oxygen trap arranged as a plane between the fuel gas supply and the fuel cells to protect the substrate and/or anode of the fuel cells, characterized in that the oxygen trap consists of a thermally stable, inert ceramic parent material with a porous structure and an oxygen-binding active material, - wherein the oxygen-binding active material comprises at least one element from the group consisting of cobalt, zinc, tin, vanadium, chromium, manganese, iron, molybdenum, titanium, cadmium, nickel and silicon, and - wherein the oxygen-binding active material is either arranged on the surface of the porous parent material or is located within the surface of the porous parent material. - wherein the oxygen-binding active material comprises at least one element from the group consisting of cobalt, zinc, tin, vanadium, chromium, manganese, iron, molybdenum, titanium, cadmium, nickel and silicon, and - wherein the oxygen-binding active material is either arranged on the surface of the porous parent material or is located within the surface of the porous parent material.
Axle drive for a motor vehicle, comprising a first input shaft, a second input shaft, a first output shaft and a second output shaft, wherein the first input shaft is permanently coupled to the first output shaft by means of a first bevel gear transmission and the second input shaft is permanently coupled to the second output shaft by means of a second bevel gear transmission, wherein the first input shaft and the second input shaft are arranged coaxially to one other and the first output shaft and the second output shaft extend from the respective bevel gear transmission (6, 9) in opposite directions, wherein rotational axes (19, 20) of the output shafts (7, 10) intersect one other or are arranged parallel or askew to one other, wherein a first bevel gear of the first bevel gear transmission rigidly connected to the first output shaft and a second bevel gear of the second bevel gear transmission rigidly connected to the second output shaft are each supported by means of a first radial bearing and a second radial bearing within a drive housing of the axle drive, characterised in that the rotational axes of the output shafts (7, 10), as viewed in cross-section relative to the rotational axes (17, 18) of the input shafts (2, 4), are angled symmetrically to a central plane mounting the rotational axes (17, 18) of the input shafts (2, 4) or are angled respectively to the rotational axes (17, 18) of the input shafts (2, 4), wherein the transmission housing is designed as multiple parts and has a first housing shell and a second housing shell which are designed to be separate from one another and bear on one another in a contact plane which lies in an axial plane incorporating the rotational axes (17, 18) of the input shafts (2, 4) or is parallel to thereto.
A custom tool for forming a dental restoration in a mouth of a patient, the custom tool comprising: a mold body providing for a customized fit with at least one tooth of the patient, the mold body including an occlusal portion forming an occlusal surface corresponding with an occlusal surface of the tooth or an incisal portion corresponding with the incisal surface of the tooth, a mesial proximal portion forming a mesial proximal surface corresponding with a mesial proximal surface of the tooth, and a distal proximal portion forming a distal proximal surface corresponding with a distal proximal surface of the tooth, wherein the mold body is configured to combine with the tooth of the patient to form a mold cavity encompassing missing tooth structure of the tooth, and wherein the occlusal or incisal portion, the mesial proximal portion, and the distal proximal portion are based on three-dimensional scan data of the mouth of the patient, and wherein the custom tool includes a port, characterized in that the custom tool further includes a plug, wherein the plug includes a tip surface and is configured to be positioned such that the tip surface is positioned within the port following the injection of restorative dental material into the mold cavity, and wherein the mold body is a one-piece mold body. a mold body providing for a customized fit with at least one tooth of the patient, the mold body including an occlusal portion forming an occlusal surface corresponding with an occlusal surface of the tooth or an incisal portion corresponding with the incisal surface of the tooth, a mesial proximal portion forming a mesial proximal surface corresponding with a mesial proximal surface of the tooth, and a distal proximal portion forming a distal proximal surface corresponding with a distal proximal surface of the tooth, wherein the mold body is configured to combine with the tooth of the patient to form a mold cavity encompassing missing tooth structure of the tooth, and wherein the occlusal or incisal portion, the mesial proximal portion, and the distal proximal portion are based on three-dimensional scan data of the mouth of the patient, and wherein the custom tool includes a port, characterized in that the custom tool further includes a plug, wherein the plug includes a tip surface and is configured to be positioned such that the tip surface is positioned within the port following the injection of restorative dental material into the mold cavity, and wherein the mold body is a one-piece mold body.
A method for converting a DC (direct current) input voltage from a DC source into a 3-phase AC (alternating current) output voltage having an AC output waveform, an AC output frequency and an AC output cycle, comprising converting the DC input voltage to a DC output voltage with a specific DC output waveform, and combining with opposite polarities similar, but time shifted, DC output voltage waveforms, such as to provide the AC output voltage with respect to a reference voltage, wherein the DC input voltage is converted into three DC output voltages (DC R, DC S, DC T), one for each phase (R, S, T) of the 3-phase output voltage, having identical, but time shifted waveforms, each DC output voltage is supplied to a corresponding inductance to provide the AC output voltage, and the waveforms being such, that when subtracting any two of said DC output voltages from each other a sinusoidal waveform with the AC output frequency is obtained, characterized in that, each DC output voltage (DC R, DC S, DC T) is zero during a portion of 120° of the AC output cycle and during a remaining portion of 240° of the AC output cycle the waveform of each DC output voltage conforms a concatenation of a first section covering 0°-120° of a sinusoidal waveform with the AC output frequency and a second section covering 60°-180° of such sinusoidal waveform.
Gas-turbine combustion chamber arrangement having an annular combustion chamber, a diffuser element arranged upstream of the annular combustion chamber in the flow direction, said diffuser element including an annular duct, and an axial compressor (113, 114) arranged upstream of the diffuser element, characterized in that the diffuser element features an annular stator vane area in which stator vanes are arranged, which for deflecting an incoming flow are provided at an angle (α) in a range between 28° and 32° relative to a center axis of the gas turbine and that downstream of the stator vane area a diffuser area is arranged, said diffuser area not being provided with flow-guiding elements affecting the flow, where burners arranged in the annular combustion chamber are provided inclined with their burner axes at an angle (β) between 40° and 50° relative to the center axis.
An antibody-containing milk or egg product prepared by vaccinating a mammal or a bird with a molecule from a surface of a mammalian cell, wherein said molecule is EphB4, for use in preventing and/or treating Barrett's oesophagus.
A robust coverage method for relay nodes in a double-layer structure wireless sensor network, comprising the following steps: first 1-coverage: comprising a construction phase of relay node candidate locations, a grouping phase of sensor nodes and a local deployment phase; said construction phase of the relay node candidate locations is used for constructing the candidate deployment directions of all the relay nodes according to the direction information of the sensor nodes to be covered; said grouping phase of the sensor nodes is used for dividing the sensor nodes to be covered into independent groups; said local deployment phase is used for deploying the relay nodes in various independent groups, and the final deployment of the relay nodes is formed by local deployment results of various groups; second 1-coverage: implementing second 1-coverage on the sensor nodes covered by just one relay node in a first 1-coverage result; merging a second 1-coverage result and the first 1-coverage result; and outputting a final merged result. first 1-coverage: comprising a construction phase of relay node candidate locations, a grouping phase of sensor nodes and a local deployment phase; said construction phase of the relay node candidate locations is used for constructing the candidate deployment directions of all the relay nodes according to the direction information of the sensor nodes to be covered; said grouping phase of the sensor nodes is used for dividing the sensor nodes to be covered into independent groups; said local deployment phase is used for deploying the relay nodes in various independent groups, and the final deployment of the relay nodes is formed by local deployment results of various groups; second 1-coverage: implementing second 1-coverage on the sensor nodes covered by just one relay node in a first 1-coverage result; merging a second 1-coverage result and the first 1-coverage result; and outputting a final merged result.
A method for authorization management, the method comprises: receiving, by a communication User Equipment, UE, a WiFi authentication request sent by a mobile UE requesting access of the communication UE, the WiFi authentication request comprising unique identification information for identifying a current user of the mobile UE requesting access, the communication UE being a WiFi hot spot; and authenticating, by the communication UE, the mobile UE requesting access according to the WiFi authentication request and an authorized list, the authorized list comprising unique identification information for identifying a mobile UE user authorized to access the communication UE, wherein the WiFi authentication request further comprises a current Media Access Control, MAC, address of the mobile UE requesting access, and the method further comprises: after the mobile UE requesting access is authenticated for access, connecting, by the communication UE, to the mobile UE requesting access according to the current MAC address in the WiFi authentication request, said method being characterised by: wherein the authorized list of the communication UE further comprises a last MAC address used in last accessing the communication UE by a user; the connecting, by the communication UE, to the mobile UE requesting access according to the current MAC address in the WiFi authentication request comprises: determining whether the current MAC address of the mobile UE requesting access is comprised in the authorized list; when the current MAC address of the mobile UE requesting access is comprised in the authorized list and the current MAC address is identical to the last MAC address corresponding to the current user of the mobile UE requesting access, directly connecting to the mobile UE requesting access according to the current MAC address; when the current MAC address is not identical to the last MAC address, updating, with the current MAC address, the last MAC address used by the current user in the authorized list, and connecting to the mobile UE requesting access according to the current MAC address; when the current MAC address of the mobile UE requesting access is not comprised in the authorized list, adding the current MAC address of the mobile UE requesting access to the authorized list and connecting to the mobile UE requesting access according to the current MAC address. receiving, by a communication User Equipment, UE, a WiFi authentication request sent by a mobile UE requesting access of the communication UE, the WiFi authentication request comprising unique identification information for identifying a current user of the mobile UE requesting access, the communication UE being a WiFi hot spot; and authenticating, by the communication UE, the mobile UE requesting access according to the WiFi authentication request and an authorized list, the authorized list comprising unique identification information for identifying a mobile UE user authorized to access the communication UE,
A method of forming a seal for effecting a seal between two, coaxial, relatively rotating components, the seal having an annular pack of elongate flexible members (51, 151), the pack being mountable to a first one of the components at root portions (52, 152) of the flexible members and extending towards the other component such that end portions (54, 154) of the flexible members are presented for wiping contact with the other component, the method including the steps of: (i) forming a plurality of pack segments (50, 150), wherein each segment contains a respective subset of the flexible members of the annular pack, and wherein the end portions of the flexible members of each subset, when viewed in the axial direction of the seal, lie on a straight line; and (ii) assembling the pack segments in a substantially circular pack holder such that each pack segment forms a respective angular sector of the annular pack. (i) forming a plurality of pack segments (50, 150), wherein each segment contains a respective subset of the flexible members of the annular pack, and wherein the end portions of the flexible members of each subset, when viewed in the axial direction of the seal, lie on a straight line; and (ii) assembling the pack segments in a substantially circular pack holder such that each pack segment forms a respective angular sector of the annular pack.
A change detection device comprising: a SAR image set input unit (101, 501) which, so as to be associated with each of target pixels corresponding to a resolution cell within a field of vision for image capturing including a specific region, inputs at least two SAR image sets each holding at least information indicative of a reflection intensity and a phase, the information being generated from observation data formed of four basic polarization pairs, i.e. an HH polarization, an HV polarization, a VH polarization and a VV polarization which are combinations of transmission and reception polarizations observed by a synthetic aperture radar at generally the same time; a polarization pair determination unit (102, 502) which determines with respect to each of the target pixels a polarization pair whose reflection intensity is not less than a predetermined value or the highest value from among polarization pairs by using at least one SAR image set among the at least two SAR image sets; and a displacement measurement unit (152A, 152B, 152C, 503) which measures displacement at a spot corresponding to a target pixel based on a polarization pair determined by the polarization pair determination unit (102, 502) and the at least one SAR image set of the at least two SAR image sets. a SAR image set input unit (101, 501) which, so as to be associated with each of target pixels corresponding to a resolution cell within a field of vision for image capturing including a specific region, inputs at least two SAR image sets each holding at least information indicative of a reflection intensity and a phase, the information being generated from observation data formed of four basic polarization pairs, i.e. an HH polarization, an HV polarization, a VH polarization and a VV polarization which are combinations of transmission and reception polarizations observed by a synthetic aperture radar at generally the same time; a polarization pair determination unit (102, 502) which determines with respect to each of the target pixels a polarization pair whose reflection intensity is not less than a predetermined value or the highest value from among polarization pairs by using at least one SAR image set among the at least two SAR image sets; and a displacement measurement unit (152A, 152B, 152C, 503) which measures displacement at a spot corresponding to a target pixel based on a polarization pair determined by the polarization pair determination unit (102, 502) and the at least one SAR image set of the at least two SAR image sets.
An electronic device, comprising: a display having edges; an antenna; and a ground plane that forms part of the antenna, a resonating element structure that is interposed between the display and the antenna, wherein the resonating element structure is disposed at a location relative to the ground plane and has a selected length and the resonating element structure reduces signal interference associated with simultaneous operation of display and the antenna, wherein the resonating element structure is not fed by any transmission lines, the resonating element structure comprises an L-shaped structure having an arm that has a longitudinal axis that extends parallel to at least one of the edges of the display and parallel to a front face of the electronic device, and a branch that extends perpendicular to the arm and substantially perpendicular to the ground plane between the ground plane and an edge of the arm that is located at an end of the longitudinal axis of the arm, and wherein the arm has a greater length than the branch. a display having edges; an antenna; and a ground plane that forms part of the antenna, a resonating element structure that is interposed between the display and the antenna, wherein the resonating element structure is disposed at a location relative to the ground plane and has a selected length and the resonating element structure reduces signal interference associated with simultaneous operation of display and the antenna, wherein the resonating element structure is not fed by any transmission lines, the resonating element structure comprises an L-shaped structure having an arm that has a longitudinal axis that extends parallel to at least one of the edges of the display and parallel to a front face of the electronic device, and a branch that extends perpendicular to the arm and substantially perpendicular to the ground plane between the ground plane and an edge of the arm that is located at an end of the longitudinal axis of the arm, and wherein the arm has a greater length than the branch.