mhurhangee/ep-ind-claims huggingface dataset:
Method of controlling a cooking appliance comprising several induction cooking areas (F1, F2, F3), characterized in that it comprises the following steps: - acquiring a power setting (P1c) associated with a first cooking area covered with a vessel; - measuring a value representing a power (P1m) delivered to said vessel placed on said first cooking area; and - comparing said measured value (P1m) and a value representing said power setting (P1c), said first cooking area being considered as suitable for the heating of said vessel when a ratio between said measured value (P1m) and said value representing the power setting (P1c) is greater than a predefined threshold, and in that said controlling method further comprises, when said ratio between said measured value (P1m) and said value representing the power setting (P1c) is less than said predefined threshold, a step of identifying, among said several induction cooking areas (F1, F2, F3), at least one available cooking area, different from said first cooking area and suitable for heating said vessel, said identifying step comprising the following sub-steps: • comparing (S42, S43) said measured value (P1m) and a value representing a maximum theoretical value (P2Max, P3Max) delivered by said at least one available cooking area (F2, F3); and • classifying said at least one available cooking area (F2, F3) as a suitable cooking area when the ratio between said measured value (P1m) and said value representing the theoretical maximum power (P2Max, P3Max) is less than a second predefined threshold. - acquiring a power setting (P1c) associated with a first cooking area covered with a vessel; - measuring a value representing a power (P1m) delivered to said vessel placed on said first cooking area; and - comparing said measured value (P1m) and a value representing said power setting (P1c), said first cooking area being considered as suitable for the heating of said vessel when a ratio between said measured value (P1m) and said value representing the power setting (P1c) is greater than a predefined threshold, • comparing (S42, S43) said measured value (P1m) and a value representing a maximum theoretical value (P2Max, P3Max) delivered by said at least one available cooking area (F2, F3); and • classifying said at least one available cooking area (F2, F3) as a suitable cooking area when the ratio between said measured value (P1m) and said value representing the theoretical maximum power (P2Max, P3Max) is less than a second predefined threshold.
A railway vehicle car, comprising a lower level and an upper level that are separated by an intermediate floor, the intermediate floor defining an opening emerging on the upper level and on the lower level, the intermediate floor also defining a bridge extending at least partially along the opening, the bridge connecting a first longitudinal end and a second longitudinal end of the car to the upper level, characterized in that the circulation of passengers is blocked on the lower level at least at one of the first longitudinal end and the second longitudinal end, wherein the car is intended for dining for travelers, the lower level comprising a preparation area and a dining area, the preparation area extending continuously between a first side wall and a second side wall of the car, over an entire width of the lower level.
A method for processing a Master Information Block, MIB, message of a Long-Term Evolution, LTE, system message, performed by a base station, the method comprising: acquiring re-establishment information for LTE terminals, access quantity information for LTE terminals, and access quantity information for enhanced Machine Type Communication, eMTC, terminals in a cell; determining a sending quantity of MIB messages for LTE terminals on a preset subframe comprising subframe #0 according to the re-establishment information for LTE terminals, the access quantity information for LTE terminals, and the access quantity information for eMTC terminals; and sending the MIB messages for LTE terminals on subframe #0 in accordance with the determined sending quantity whereby in the MIB messages for the LTE terminals, the schedulingInfoSIB1-BR-r13 field is set to 0. acquiring re-establishment information for LTE terminals, access quantity information for LTE terminals, and access quantity information for enhanced Machine Type Communication, eMTC, terminals in a cell; determining a sending quantity of MIB messages for LTE terminals on a preset subframe comprising subframe #0 according to the re-establishment information for LTE terminals, the access quantity information for LTE terminals, and the access quantity information for eMTC terminals; and sending the MIB messages for LTE terminals on subframe #0 in accordance with the determined sending quantity whereby in the MIB messages for the LTE terminals, the schedulingInfoSIB1-BR-r13 field is set to 0.
A separating, guiding and delivering mechanism for the production of cigarettes, comprising a cutting drum, a delivering drum and a separating drum arranged parallel to each other, wherein a flow guide plate for guiding a flow of cigarette segments is detachably installed above the separating drum, wherein on an inside concave surface of the flow guide plate, a correspondingly shaped directing plate is arranged, and wherein a fixing member is installed on a convex outer surface of the flow guide plate, characterized in that the fixing member is connected to a connecting member through a pin, one end of the connecting member is fixed to a fixed seat of the separating drum through a fastening member, and the other end of the connecting member is provided with a fixing handle.
A composition comprising a sulfated polysaccharide and Astragalus polysaccharide for use in inducing a physiological effect selected from the group consisting of alleviation of the symptoms of viral induced obesity, preventing viral induced obesity, and increasing lean body mass, decreasing body fat.
A method for determining equalization parameters for performing equalization for optical signals transmitted by a first device to a second device via an optical band-pass filter, the second device being configured for receiving optical signals output by said optical band-pass filter and transmitted by the first device on a carrier wavelength when said carrier wavelength is comprised in the passband of the optical band-pass filter, said carrier wavelength and/or said passband of the optical band-pass filter being a priori unknown, characterized in that a monitoring device performs: - determining information representative of a level of detuning between the carrier wavelength of the optical signals and the nominal wavelength of the optical band-pass filter; and - determining said equalization parameters, on the basis of said determined information representative of the level of detuning between the carrier wavelength of the optical signals and the nominal wavelength of the optical band-pass filter. - determining information representative of a level of detuning between the carrier wavelength of the optical signals and the nominal wavelength of the optical band-pass filter; and - determining said equalization parameters, on the basis of said determined information representative of the level of detuning between the carrier wavelength of the optical signals and the nominal wavelength of the optical band-pass filter.
A waveguide display system (200, 340, 540, 740, 940, 1200, 1300, 1400, 500, 1600, 1700, 1900, 2000, 2100, 2300), comprising: a waveguide (342, 542, 742, 942, 1032, 1052, 1142, 1242, 1342, 1440, 1442, 1540, 1542, 1642, 1740, 1742, 2140, 2142, 2340, 2342) having a first surface (1221, 1321, 1421, 1521, 1721) and a second surface (1222, 1322, 1422, 1522, 1722), the waveguide including an incoupling diffractive optical element, DOE (346, 546, 746, 944, 946, 1034, 1054, 1146, 1246, 1346, 1446, 1546, 1646, 1746, 2146, 2346) and an outcoupling DOE (348, 548, 748, 948, 1036, 1056, 1248, 1348, 1448, 1548, 1748, 2148, 2348); a first light beam (360, 560, 760, 1160, 1210, 1211, 1311, 1411, 1550, 1552, 1650, 1750, 2150, 2152, 2261, 2263) transmitted toward the incoupling DOE of the waveguide; a first reflective optical element (330, 530, 730, 930, 932, 1042, 1062, 1130, 1230, 1330, 1420, 1430, 1520, 1530, 1620, 1630, 1720, 1730, 2120, 2130), configured to receive the first light beam passing through the incoupling DOE of the waveguide, the first reflective optical element configured to reflect a collimated second light beam (370, 570, 770, 1360, 1460, 1760, 2160, 2263) toward the incoupling DOE of the waveguide; wherein the waveguide display system is configured to: prevent propagation of the first light beam to the outcoupling DOE in the waveguide through total internal reflection, TIR; and cause the collimated second light beam to propagate to the outcoupling DOE in the waveguide through TIR. a waveguide (342, 542, 742, 942, 1032, 1052, 1142, 1242, 1342, 1440, 1442, 1540, 1542, 1642, 1740, 1742, 2140, 2142, 2340, 2342) having a first surface (1221, 1321, 1421, 1521, 1721) and a second surface (1222, 1322, 1422, 1522, 1722), the waveguide including an incoupling diffractive optical element, DOE (346, 546, 746, 944, 946, 1034, 1054, 1146, 1246, 1346, 1446, 1546, 1646, 1746, 2146, 2346) and an outcoupling DOE (348, 548, 748, 948, 1036, 1056, 1248, 1348, 1448, 1548, 1748, 2148, 2348); a first light beam (360, 560, 760, 1160, 1210, 1211, 1311, 1411, 1550, 1552, 1650, 1750, 2150, 2152, 2261, 2263) transmitted toward the incoupling DOE of the waveguide; a first reflective optical element (330, 530, 730, 930, 932, 1042, 1062, 1130, 1230, 1330, 1420, 1430, 1520, 1530, 1620, 1630, 1720, 1730, 2120, 2130), configured to receive the first light beam passing through the incoupling DOE of the waveguide, the first reflective optical element configured to reflect a collimated second light beam (370, 570, 770, 1360, 1460, 1760, 2160, 2263) toward the incoupling DOE of the waveguide; wherein the waveguide display system is configured to: prevent propagation of the first light beam to the outcoupling DOE in the waveguide through total internal reflection, TIR; and cause the collimated second light beam to propagate to the outcoupling DOE in the waveguide through TIR. prevent propagation of the first light beam to the outcoupling DOE in the waveguide through total internal reflection, TIR; and cause the collimated second light beam to propagate to the outcoupling DOE in the waveguide through TIR.
A filter module configured for exhaust application, comprising: a housing having a filter aperture on a room side of the housing, an exhaust port on a ceiling side of the housing, characterized in further comprising a downstream sampling port configured to allow a technician to sample flow downstream of the filter module and housing from the room side of the housing. a housing having a filter aperture on a room side of the housing, an exhaust port on a ceiling side of the housing, characterized in further comprising a downstream sampling port configured to allow a technician to sample flow downstream of the filter module and housing from the room side of the housing.
A method of signal transmission for a wireless headset, comprising: Sending, by a first earpiece of the wireless headset, channel information about an audio transmission channel to a second earpiece after establishing the audio transmission channel with a mobile device; Receiving, by the first earpiece of the wireless headset, audio data from the audio transmission channel, and sending a response message to the mobile device; and Receiving, by the second earpiece, the audio data from the audio transmission channel according to the channel information about the audio transmission channel, characterized in that the method further comprises: sending, by the first earpiece when determining that dominant earpiece needs to be switched over, a switching command to the second earpiece, and stopping sending the response message to the mobile device; and sending, by the second earpiece after receiving the switching command, a response message to the mobile device after receiving the audio data from the audio transmission channel. Sending, by a first earpiece of the wireless headset, channel information about an audio transmission channel to a second earpiece after establishing the audio transmission channel with a mobile device; Receiving, by the first earpiece of the wireless headset, audio data from the audio transmission channel, and sending a response message to the mobile device; and Receiving, by the second earpiece, the audio data from the audio transmission channel according to the channel information about the audio transmission channel, characterized in that the method further comprises: sending, by the first earpiece when determining that dominant earpiece needs to be switched over, a switching command to the second earpiece, and stopping sending the response message to the mobile device; and sending, by the second earpiece after receiving the switching command, a response message to the mobile device after receiving the audio data from the audio transmission channel. sending, by the first earpiece when determining that dominant earpiece needs to be switched over, a switching command to the second earpiece, and stopping sending the response message to the mobile device; and sending, by the second earpiece after receiving the switching command, a response message to the mobile device after receiving the audio data from the audio transmission channel.
A lubrication system for a gearbox in a vehicle, such that the gearbox comprises a gearbox housing, an input shaft, an output shaft, a countershaft and a number of gearwheels (8, 9, 10, 13, 14, 15, 16, 17, 18) and the lubrication system comprises an oil sump which is situated in the gearbox housing and a container which is intended for temporary storage of lubricating oil and is situated above said oil sump, characterised in that said container is provided with an aperture which faces substantially away from the oil sump, which container is intended to be able via said aperture to capture oil which splashes in the gearbox when the vehicle's longitudinal axis is parallel to a horizontal plane, and that said container is so arranged that at least part of the oil in it is allowed to run back from the container to the oil sump via said aperture by force of gravity when the vehicle's longitudinal axis is at an angle to said horizontal plane.
A method comprising: causing a display device that is not presence-sensitive to output, at an initial location on the display device, a graphical pattern comprising a plurality of regions that each have a different optical characteristic, wherein the plurality of regions includes a center region and a plurality of border regions dispersed about the center region, wherein each border region is associated with a corresponding adjustment direction; determining, by one or more processors and based on optical data generated by an optical sensor included in a photoplethysmogram sensor of a wearable computing device configured to be worn on a wrist of a user, a refined location of the wearable computing device, wherein determining the refined location comprises: determining, based on the optical data, whether any of the plurality of regions are detected; responsive to determining that a particular border region of the plurality of border regions is detected, adjusting, in the adjustment direction corresponding to the particular border region, the initial location to obtain the refined location; and utilizing, by the one or more processors, the refined location of the wearable computing device as a location of user input for an application outputting a graphical user interface via the display device. causing a display device that is not presence-sensitive to output, at an initial location on the display device, a graphical pattern comprising a plurality of regions that each have a different optical characteristic, wherein the plurality of regions includes a center region and a plurality of border regions dispersed about the center region, wherein each border region is associated with a corresponding adjustment direction; determining, by one or more processors and based on optical data generated by an optical sensor included in a photoplethysmogram sensor of a wearable computing device configured to be worn on a wrist of a user, a refined location of the wearable computing device, wherein determining the refined location comprises: determining, based on the optical data, whether any of the plurality of regions are detected; responsive to determining that a particular border region of the plurality of border regions is detected, adjusting, in the adjustment direction corresponding to the particular border region, the initial location to obtain the refined location; and determining, based on the optical data, whether any of the plurality of regions are detected; responsive to determining that a particular border region of the plurality of border regions is detected, adjusting, in the adjustment direction corresponding to the particular border region, the initial location to obtain the refined location; and utilizing, by the one or more processors, the refined location of the wearable computing device as a location of user input for an application outputting a graphical user interface via the display device.
An orderly storing device for banknotes in sack comprising a pair of edge retaining members (34a, 34b) for holding a sack in a substantially vertical position and in which the input edges (36a, 36b) of the sack can be spaced away one another for receiving the banknotes by fall and in condition of substantial stacking, said storing device being characterized in that it comprises a platform which defines a slot provided to be crossed by a section of the sack below the input edges and such as to form on the sack a narrowing portion alongside the slot and a basin portion in a section of the sack above said platform, in which the basin portion has the function of receiving the falling banknotes in a stacking condition, while the platform supports temporarily the banknotes received into the basin portion and the platform is capable of moving vertically between a high position for loading the banknotes in an empty sack, and a low position of maximum filling of the sack; and in which said storing device further comprises: moving means for moving said platform downwards following the progressive storage of the banknotes in the basin portion and for return towards the high position, and welding means for welding opposing faces of the sack at the end of storage of the banknotes. moving means for moving said platform downwards following the progressive storage of the banknotes in the basin portion and for return towards the high position, and welding means for welding opposing faces of the sack at the end of storage of the banknotes.
A method of tagging a first library comprising an oligonucleotide-encoded chemical entity, said method comprising: (i) providing a headpiece consisting of a single-stranded oligonucleotide having a first functional group and a second functional group, wherein said headpiece comprises at least one 2'-substituted nucleotide; (ii) binding said first functional group of said headpiece to a first component of said chemical entity, wherein said headpiece is directly connected to said first component or said headpiece is indirectly connected to said first component by a bifunctional linker; and (iii) binding said second functional group of said headpiece to a first building block tag consisting of a single-stranded oligonucleotide to form a complex, wherein said first building block tag comprises a 2'-substituted nucleotide at both of the 5'- and 3'-termini, wherein said steps (ii) and (iii) can be performed in any order and wherein said first building block tag encodes for the binding reaction of said step (ii), and wherein step (iii) comprises an RNA ligase and/or DNA ligase to bind said headpiece to said first building block, thereby providing a tagged library. (i) providing a headpiece consisting of a single-stranded oligonucleotide having a first functional group and a second functional group, wherein said headpiece comprises at least one 2'-substituted nucleotide; (ii) binding said first functional group of said headpiece to a first component of said chemical entity, wherein said headpiece is directly connected to said first component or said headpiece is indirectly connected to said first component by a bifunctional linker; and (iii) binding said second functional group of said headpiece to a first building block tag consisting of a single-stranded oligonucleotide to form a complex, wherein said first building block tag comprises a 2'-substituted nucleotide at both of the 5'- and 3'-termini,
Electromechanical switch, comprising a conductive body and a plurality of separate carbon nanotubes, wherein: a) each of the carbon nanotubes is connected to at least one common terminal electrode (12,18,20) with at least one of its ends, b) in an open state of the switch, each of the carbon nanotubes substantially projects along a surface of the conductive body and keeps up a gap to said surface, c) in a closed state of the switch, at least one carbon nanotube is bend in a direction of the surface to close an electrical contact between said terminal electrode (12,18,20) and the conductive body, and d) for each one of the plurality of carbon nanotubes, the size (D1...D4) of the gap between the respective carbon nanotube and the surface is different, wherein the surface of the conductive body, that is facing the plurality of carbon nanotubes, is staggered and the staggered surface has as many steps as separate carbon nanotubes are comprised by the switch, and each one of the plurality of carbon nanotubes is assigned to one step of the staggered surface. a) each of the carbon nanotubes is connected to at least one common terminal electrode (12,18,20) with at least one of its ends, b) in an open state of the switch, each of the carbon nanotubes substantially projects along a surface of the conductive body and keeps up a gap to said surface, c) in a closed state of the switch, at least one carbon nanotube is bend in a direction of the surface to close an electrical contact between said terminal electrode (12,18,20) and the conductive body, and d) for each one of the plurality of carbon nanotubes, the size (D1...D4) of the gap between the respective carbon nanotube and the surface is different,
A user equipment, UE, for a cellular communication network adapted to communicate in a duplex mode with a network node of the cellular communication network, transmitting data to the network node in an up-link, UL, duplex resource, and receiving data from the network node in a down-link, DL, duplex resource; wherein the UE is further capable of direct device-to-device, D2D, communication with another UE of the cellular communication network using the UL duplex resource; wherein the UE comprises a transceiver adapted to, as part of a D2D control procedure: - receive, from the network node, a grant to listen to a transmission in the UL duplex resource from the other UE to the network node; - in response to receiving said grant, listen to said transmission in the UL duplex resource from the other UE; - determine a quality metric of said transmission from the other UE as received by the transceiver of the UE. - receive, from the network node, a grant to listen to a transmission in the UL duplex resource from the other UE to the network node; - in response to receiving said grant, listen to said transmission in the UL duplex resource from the other UE; - determine a quality metric of said transmission from the other UE as received by the transceiver of the UE.