mhurhangee/ep-ind-claims huggingface dataset:
An air-based fryer, comprising a food preparation chamber; an air moving device for moving air in the food preparation chamber to generate air flow; a heating device for heating the air flow generated by the air moving device so that the heated air flow can heat food that in use may be received in the food preparation chamber; and an air filter adapted for filtering air from the food preparation chamber, characterized in that the air filter comprises a liquid tank and a porous section located below a liquid level in the liquid tank, and the food preparation chamber has an air outlet which is in fluid communication with a space upstream of the porous section of the liquid tank so that air from the food preparation chamber entering the liquid tank rises above the liquid level after flowing through the porous section. a food preparation chamber; an air moving device for moving air in the food preparation chamber to generate air flow; a heating device for heating the air flow generated by the air moving device so that the heated air flow can heat food that in use may be received in the food preparation chamber; and an air filter adapted for filtering air from the food preparation chamber, characterized in that the air filter comprises a liquid tank and a porous section located below a liquid level in the liquid tank, and the food preparation chamber has an air outlet which is in fluid communication with a space upstream of the porous section of the liquid tank so that air from the food preparation chamber entering the liquid tank rises above the liquid level after flowing through the porous section.
An interior permanent magnet motor, comprising: a rotor comprising a plurality of permanent magnets, wherein each of the permanent magnets has a magnetic pole center line, and each of the permanent magnets is curved so as to be linearly symmetric across the magnetic pole center line; and a stator, wherein the rotor further comprises a rotor core, wherein the rotor core has a plurality of magnet insertion holes, wherein a plurality of slits are formed in a region of the rotor core, which is located on a radially outer side of the magnet insertion holes, wherein a long axis direction of each of the slits is directed in a direction approximately parallel to the corresponding magnetic pole center line,and wherein at least two of the slits are formed so that a core region sandwiched between the two slits has a portion increased toward the radially outer side; and wherein an outer most end of the each of the slits is located on an outer side of a width center line of the each of the slits, wherein the outer most end is a distal end of a tapered portion of each of the slits on the rotor outer peripheral surface side, and the outer side of a width center line of the each of the slits is a side of the width center line away from the corresponding magnetic pole center line, and a width center line of each of the slits is a line passing through a center of the width of the slit, which is parallel to the corresponding magnetic pole center line. a rotor comprising a plurality of permanent magnets, wherein each of the permanent magnets has a magnetic pole center line, and each of the permanent magnets is curved so as to be linearly symmetric across the magnetic pole center line; and a stator, wherein the rotor further comprises a rotor core, wherein the rotor core has a plurality of magnet insertion holes, wherein a plurality of slits are formed in a region of the rotor core, which is located on a radially outer side of the magnet insertion holes, wherein a long axis direction of each of the slits is directed in a direction approximately parallel to the corresponding magnetic pole center line,and wherein at least two of the slits are formed so that a core region sandwiched between the two slits has a portion increased toward the radially outer side; and wherein an outer most end of the each of the slits is located on an outer side of a width center line of the each of the slits, wherein the outer most end is a distal end of a tapered portion of each of the slits on the rotor outer peripheral surface side, and the outer side of a width center line of the each of the slits is a side of the width center line away from the corresponding magnetic pole center line, and a width center line of each of the slits is a line passing through a center of the width of the slit, which is parallel to the corresponding magnetic pole center line.
A method of manufacturing a sanitised paper envelope comprising the steps: supplying a paper sheet having a first surface and a second surface to a flexographic printing apparatus having a first sanitising module; applying a sanitising solution to at least the first surface of the paper sheet using the first sanitising module, and forming an envelope from the sanitised paper sheet. supplying a paper sheet having a first surface and a second surface to a flexographic printing apparatus having a first sanitising module; applying a sanitising solution to at least the first surface of the paper sheet using the first sanitising module, and forming an envelope from the sanitised paper sheet.
A method of wireless communication by a user equipment, UE, the method comprising: receiving a master information block, MIB, and a synchronization signal, SS, block in a physical broadcast channel, PBCH, the MIB indicating an allocation associated with a control resource set, CORESET; receiving remaining minimum system information, RMSI, configuration information carried in the CORESET based on the allocation associated with the CORESET; determining a position of a downlink data channel based on a first value indicated by one of the MIB or the SS block in the PBCH and based on a second value indicated by the RMSI configuration information; and receiving data carried on the downlink data channel based on the position of the downlink data channel; wherein the downlink data channel comprises a physical downlink shared channel, PDSCH, and wherein the received data comprises RMSI. receiving a master information block, MIB, and a synchronization signal, SS, block in a physical broadcast channel, PBCH, the MIB indicating an allocation associated with a control resource set, CORESET; receiving remaining minimum system information, RMSI, configuration information carried in the CORESET based on the allocation associated with the CORESET; determining a position of a downlink data channel based on a first value indicated by one of the MIB or the SS block in the PBCH and based on a second value indicated by the RMSI configuration information; and receiving data carried on the downlink data channel based on the position of the downlink data channel; wherein the downlink data channel comprises a physical downlink shared channel, PDSCH, and wherein the received data comprises RMSI.
A readhead control mechanism for controlling a readhead included in an optical encoder that is adapted to measure an amount of mechanical displacement between a first object and a second object by reading out a scale provided on the first object by the readhead provided on the second object, comprising: - a securing member adapted for securing the readhead onto the second object so that the readhead can be shifted in an approaching direction that the readhead approaches the scale, and in a distancing direction that the readhead distances away from the scale; - an actuator that is directly or indirectly secured onto the readhead, for shifting the readhead in the approaching direction or the distancing direction; - an actuator controller adapted for controlling the actuator to maintain a constant distance between the readhead and the scale; and - a protective spring that is secured onto the actuator and allows shifting of the actuator in the distancing direction by compression, wherein the protective spring is adapted to allow shifting of the actuator and the readhead in the distancing direction by the protective spring being compressed when a force by the first object is applied to the readhead or to the securing member. - a securing member adapted for securing the readhead onto the second object so that the readhead can be shifted in an approaching direction that the readhead approaches the scale, and in a distancing direction that the readhead distances away from the scale; - an actuator that is directly or indirectly secured onto the readhead, for shifting the readhead in the approaching direction or the distancing direction; - an actuator controller adapted for controlling the actuator to maintain a constant distance between the readhead and the scale; and - a protective spring that is secured onto the actuator and allows shifting of the actuator in the distancing direction by compression,
A method, comprising: receiving information at a second access node from a first access node over an X2 interface wherein the information regards at least one of availability and capability to support one or more features of a first cell controlled by the first access node that is neighbour to a second cell controlled by the second access node; and using the received information at a second access node during at least one of: initiating a handover wherein the second access node considers the received information when making a determination of a suitable target cell for a handover; and a radio resource control 'RRC' related operation; the method further comprising: receiving the information periodically or as a result of a triggering event. receiving information at a second access node from a first access node over an X2 interface wherein the information regards at least one of availability and capability to support one or more features of a first cell controlled by the first access node that is neighbour to a second cell controlled by the second access node; and using the received information at a second access node during at least one of: initiating a handover wherein the second access node considers the received information when making a determination of a suitable target cell for a handover; and a radio resource control 'RRC' related operation; the method further comprising: receiving the information periodically or as a result of a triggering event. initiating a handover wherein the second access node considers the received information when making a determination of a suitable target cell for a handover; and a radio resource control 'RRC' related operation; the method further comprising: receiving the information periodically or as a result of a triggering event. receiving the information periodically or as a result of a triggering event.
An adhering, bilayer troche for use in a method of reducing reflux from a stomach toward a mouth while sleeping in a patient in need thereof wherein: a. said adhering, bilayer troche is provided to the patient, the troche comprising: i. a first layer comprising an adhesive powder, and ii. a second layer comprising a substrate that slowly dissolves or erodes in saliva and an ingredient to be released, wherein the ingredient stimulates saliva production in the mouth; and b. the patient is instructed to adhere one or more of the troches in their mouth before going to sleep, thereby causing frequent swallowing of stimulated saliva while sleeping resulting in reduced reflux from the stomach. a. said adhering, bilayer troche is provided to the patient, the troche comprising: i. a first layer comprising an adhesive powder, and ii. a second layer comprising a substrate that slowly dissolves or erodes in saliva and an ingredient to be released, wherein the ingredient stimulates saliva production in the mouth; and i. a first layer comprising an adhesive powder, and ii. a second layer comprising a substrate that slowly dissolves or erodes in saliva and an ingredient to be released, wherein the ingredient stimulates saliva production in the mouth; and b. the patient is instructed to adhere one or more of the troches in their mouth before going to sleep, thereby causing frequent swallowing of stimulated saliva while sleeping resulting in reduced reflux from the stomach.
A method for treating isocyanate residues, comprising decomposing isocyanate residues into amine by bringing the isocyanate residues into contact with high pressure and high temperature water having the pressure of 3 to 30 MPa and a temperature of 190 to 350°C in the presence of a solvent that is an aromatic hydrocarbon having a boiling point of 250°C or higher, wherein the isocyanate residues are obtained by separating isocyanate and alcohol from a decomposition solution resulting from thermal decomposition reaction of carbamate produced by reaction of amine, urea and/or N-unsubstituted carbamic acid ester, and alcohol, recovering the solvent after the isocyanate residues are decomposed, and thermally decomposing carbamate in the presence of the solvent recovered after the isocyanate residues are decomposed.
A method by a base station in a wireless communication system, the method comprising: transmitting configuration information associated with a control channel to a terminal; determining an aggregation level for transmitting the control channel; mapping a Demodulation Reference Signal, DMRS, to first resource elements corresponding to a first DMRS port in a resource block based on the aggregation level; increasing, if the aggregation level is one of aggregation levels 4 and 8, a transmit power of the first resource elements using a transmit power of second resource elements corresponding to a second DMRS port, wherein the second resource elements corresponding to the second DMRS port, to which the same precoding applied to the first DMRS port is applied, is not used for transmitting the DMRS, whereby the DMRS ports are assigned dynamically at every resource block carrying the control channel; and transmitting the DMRS and control channel to the terminal using the increased transmit power. transmitting configuration information associated with a control channel to a terminal; determining an aggregation level for transmitting the control channel; mapping a Demodulation Reference Signal, DMRS, to first resource elements corresponding to a first DMRS port in a resource block based on the aggregation level; increasing, if the aggregation level is one of aggregation levels 4 and 8, a transmit power of the first resource elements using a transmit power of second resource elements corresponding to a second DMRS port, wherein the second resource elements corresponding to the second DMRS port, to which the same precoding applied to the first DMRS port is applied, is not used for transmitting the DMRS, whereby the DMRS ports are assigned dynamically at every resource block carrying the control channel; and transmitting the DMRS and control channel to the terminal using the increased transmit power.
A production method for an MAZ-type zeolite, which comprises mixing a silica source, an alumina source, an alkali source and water so as to be a reaction mixture having a composition represented by a molar ratio given below; SiO 2 / Al 2 O 3 = 24 − 60 Na 2 O + K 2 O / SiO 2 = 0.28 − 0.5 K 2 O / Na 2 O + K 2 O = 0.1 − 0.5 H 2 O / SiO 2 = 5 − 50 using an MAZ-type zeolite having no organic matters which has an SiO 2 /Al 2 O 3 ratio of 5-10 and an average particle size of 0.1μm or more, as a seed crystal, and adding the MAZ-type zeolite to the reaction mixture at a proportion of 0.1-30% by weight with respect to a silica component in the reaction mixture; and airtightly heating the reaction mixture to which the seed crystal is added at 80-200°C. mixing a silica source, an alumina source, an alkali source and water so as to be a reaction mixture having a composition represented by a molar ratio given below; SiO 2 / Al 2 O 3 = 24 − 60 Na 2 O + K 2 O / SiO 2 = 0.28 − 0.5 K 2 O / Na 2 O + K 2 O = 0.1 − 0.5 H 2 O / SiO 2 = 5 − 50 using an MAZ-type zeolite having no organic matters which has an SiO 2 /Al 2 O 3 ratio of 5-10 and an average particle size of 0.1μm or more, as a seed crystal, and adding the MAZ-type zeolite to the reaction mixture at a proportion of 0.1-30% by weight with respect to a silica component in the reaction mixture; and airtightly heating the reaction mixture to which the seed crystal is added at 80-200°C.
A method of managing network configuration information for a mesh network, the method comprising: receiving, at a border router (202; 406, 408) and from an external network (302, 304), an assigned address prefix and associated configuration information (402, 404) for addressing and routing data packets; creating, by the border router (202; 406, 408), a provisioning domain associated with the assigned address prefix, the provisioning domain comprising the assigned address prefix, the associated configuration information (402, 404), and an identifier that uniquely identifies the created provisioning domain, the provisioning domain created as a consistent set of network configuration information and usable by a router in the mesh network to address a data packet to a destination address to assure that any potentially conflicting combination of configuration information is not used for addressing a data packet to a destination; and forwarding, by the border router (202; 406, 408), the created provisioning domain to a leader device of the mesh network, effective to enable the leader device to propagate the provisioning domain to the mesh network. receiving, at a border router (202; 406, 408) and from an external network (302, 304), an assigned address prefix and associated configuration information (402, 404) for addressing and routing data packets; creating, by the border router (202; 406, 408), a provisioning domain associated with the assigned address prefix, the provisioning domain comprising the assigned address prefix, the associated configuration information (402, 404), and an identifier that uniquely identifies the created provisioning domain, the provisioning domain created as a consistent set of network configuration information and usable by a router in the mesh network to address a data packet to a destination address to assure that any potentially conflicting combination of configuration information is not used for addressing a data packet to a destination; and forwarding, by the border router (202; 406, 408), the created provisioning domain to a leader device of the mesh network, effective to enable the leader device to propagate the provisioning domain to the mesh network.
A lawn mower, comprising: a work unit including a housing having a downward-facing opening and a cutter blade rotatably provided in the housing such that when rotated, the cutter blade is configured to cut grass and to generate a transport air flow flowing from the opening of the housing to inside; a grass clippings receptacle configured to receive mowed grass clippings; a grass clippings transport passage connecting an interior of the housing with the grass clippings receptacle; and a shutter device including a shutter configured to open and close the grass clippings transport passage and an actuator configured to open/close-drive the shutter, characterized in that the lawn mower further comprises: a controller configured to control the shutter device; and a humidity sensor for detecting a humidity of an environment surrounding the lawn mower, wherein the controller is configured to open/close-control the shutter device based on the humidity. a work unit including a housing having a downward-facing opening and a cutter blade rotatably provided in the housing such that when rotated, the cutter blade is configured to cut grass and to generate a transport air flow flowing from the opening of the housing to inside; a grass clippings receptacle configured to receive mowed grass clippings; a grass clippings transport passage connecting an interior of the housing with the grass clippings receptacle; and a shutter device including a shutter configured to open and close the grass clippings transport passage and an actuator configured to open/close-drive the shutter, characterized in that the lawn mower further comprises: a controller configured to control the shutter device; and a humidity sensor for detecting a humidity of an environment surrounding the lawn mower, wherein the controller is configured to open/close-control the shutter device based on the humidity. a controller configured to control the shutter device; and a humidity sensor for detecting a humidity of an environment surrounding the lawn mower, wherein the controller is configured to open/close-control the shutter device based on the humidity.
A multiple beam antenna system establishing a plurality of directive radiating beams for wireless communications, the system comprising: a spherical dielectric lens, wherein the dielectric lens has an exterior surface; a plurality of antenna elements, wherein the antenna elements exhibit dual polarization; an element support structure connected to the plurality of antenna elements, wherein the element support structure is connected to an RF ground and positioned at a first predetermined distance from the exterior surface of the dielectric lens; and wherein the plurality of antenna elements are connected to the element support structure and are positioned with respect to the exterior surface of the lens at a second predetermined distance from the exterior surface of the dielectric lens; and a positioning system configured to selectively move the support structure in a rotational manner with respect to a center of the lens to modify the position of the plurality of antenna elements and their corresponding secondary radiation beams, wherein the positioning system includes a two-axis positioner attached to the element support structure by a mounting plate and configured to move the element support structure relative to the spherical dielectric lens in an azimuth direction and in an elevation direction, and wherein the secondary radiation beams are the beams generated by each of the plurality of antenna elements after a radiation of the plurality of antenna elements leaves the spherical dielectric lens. a spherical dielectric lens, wherein the dielectric lens has an exterior surface; a plurality of antenna elements, wherein the antenna elements exhibit dual polarization; an element support structure connected to the plurality of antenna elements, wherein the element support structure is connected to an RF ground and positioned at a first predetermined distance from the exterior surface of the dielectric lens; and wherein the plurality of antenna elements are connected to the element support structure and are positioned with respect to the exterior surface of the lens at a second predetermined distance from the exterior surface of the dielectric lens; and a positioning system configured to selectively move the support structure in a rotational manner with respect to a center of the lens to modify the position of the plurality of antenna elements and their corresponding secondary radiation beams, wherein the positioning system includes a two-axis positioner attached to the element support structure by a mounting plate and configured to move the element support structure relative to the spherical dielectric lens in an azimuth direction and in an elevation direction, and wherein the secondary radiation beams are the beams generated by each of the plurality of antenna elements after a radiation of the plurality of antenna elements leaves the spherical dielectric lens.