mhurhangee/patent-ind-claim-en huggingface dataset:
Sanding machine for sanding panels or similar items, comprising: advancing means for advancing, in use, at least one panel or similar item according to a predetermined advancing direction (A, A'); and at least one sanding device for sanding, in use, at least one panel or similar item during the advancement of said at least one panel or similar item according to said predetermined advancing direction (A, A'), said at least one sanding device comprising a removable abrasive belt , directed transversely to said predetermined advancing direction (A, A'); characterized in that the sanding machine comprises at least one auxiliary device to promote, in use, fitting of said abrasive belt , by an operator, in said at least one sanding device , said at least one auxiliary device comprising movement means for moving, in use, at least one portion of said abrasive belt transversely to said predetermined advancing direction (A, A') from a first position, which is reachable by an operator and adjacent to a first outer edge of said sanding machine , to a second position reachable by an operator and adjacent to a second outer edge of said sanding machine opposite said first outer edge . advancing means for advancing, in use, at least one panel or similar item according to a predetermined advancing direction (A, A'); and at least one sanding device for sanding, in use, at least one panel or similar item during the advancement of said at least one panel or similar item according to said predetermined advancing direction (A, A'), said at least one sanding device comprising a removable abrasive belt , directed transversely to said predetermined advancing direction (A, A'); characterized in that the sanding machine comprises at least one auxiliary device to promote, in use, fitting of said abrasive belt , by an operator, in said at least one sanding device , said at least one auxiliary device comprising movement means for moving, in use, at least one portion of said abrasive belt transversely to said predetermined advancing direction (A, A') from a first position, which is reachable by an operator and adjacent to a first outer edge of said sanding machine , to a second position reachable by an operator and adjacent to a second outer edge of said sanding machine opposite said first outer edge .
A memory device, comprising: a semiconductor substrate ; a memory cell that includes: a source region and a drain region formed in the substrate, with a channel region of the substrate extending between the source and drain regions, a floating gate disposed over and insulated from a first portion of the channel region, for controlling a conductivity of the first portion of the channel region, a select gate disposed over and insulated from a second portion of the channel region, for controlling a conductivity of a second portion of the channel region, a control gate disposed over and insulated from the floating gate, and an erase gate disposed over and insulated from the source region, and disposed adjacent to and insulated from the floating gate; and control circuitry configured to: perform an erase operation by applying a positive voltage to the erase gate for causing electrons to tunnel from the floating gate to the erase gate; characterised in that the control circuitry is further configured to: perform a program operation by applying a negative voltage to the erase gate while applying a zero voltage to the control gate for causing electrons to tunnel from the erase gate to the floating gate . a semiconductor substrate ; a memory cell that includes: a source region and a drain region formed in the substrate, with a channel region of the substrate extending between the source and drain regions, a floating gate disposed over and insulated from a first portion of the channel region, for controlling a conductivity of the first portion of the channel region, a select gate disposed over and insulated from a second portion of the channel region, for controlling a conductivity of a second portion of the channel region, a control gate disposed over and insulated from the floating gate, and an erase gate disposed over and insulated from the source region, and disposed adjacent to and insulated from the floating gate; and control circuitry configured to: perform an erase operation by applying a positive voltage to the erase gate for causing electrons to tunnel from the floating gate to the erase gate; characterised in that the control circuitry is further configured to: perform a program operation by applying a negative voltage to the erase gate while applying a zero voltage to the control gate for causing electrons to tunnel from the erase gate to the floating gate .
Alignment sensor (61; 62) comprising: - a light source for providing an alignment light beam ; - an optical system arranged for focusing the alignment light beam on a surface, wherein a reflected alignment light beam is generated by reflection of the alignment light beam on said surface; - a light intensity detector arranged for determining a light intensity of said reflected alignment light beam; wherein said optical system is further arranged for guiding the reflected alignment light beam on the light intensity detector, said alignment sensor further comprising: a differential capacitive height measurement system for measuring a distance between the alignment sensor and the surface and/or a tilt of the alignment sensor system with respect to the surface, the differential capacitive height measurement system comprising a first measuring electrode and a second measuring electrode , wherein said differential capacitive height measurement system is provided with an opening arranged for allowing the alignment light beam and the reflected alignment light beam to pass through said opening, and wherein the first and second measuring electrode enclose said opening. - a light source for providing an alignment light beam ; - an optical system arranged for focusing the alignment light beam on a surface, wherein a reflected alignment light beam is generated by reflection of the alignment light beam on said surface; - a light intensity detector arranged for determining a light intensity of said reflected alignment light beam; a differential capacitive height measurement system for measuring a distance between the alignment sensor and the surface and/or a tilt of the alignment sensor system with respect to the surface, the differential capacitive height measurement system comprising a first measuring electrode and a second measuring electrode , wherein said differential capacitive height measurement system is provided with an opening arranged for allowing the alignment light beam and the reflected alignment light beam to pass through said opening, and wherein the first and second measuring electrode enclose said opening.
A handover method, executed by a system comprising a base station supporting access to a long term evolution, LTE, core network and a fifth generation, 5G, core network, a user equipment, UE, a source core network element and a target core network element, the source core network element belongs to the LTE core network and the target core network element belongs to the 5G core network, and the method comprises the steps of: sending (S401), by the UE, a handover indication to the source core network element via a non-access stratum, NAS, when determining, based on a service to be supported, that a handover of core network elements is needed; after receiving at the base station a handover command from the target core network element: configuring (S402), by the UE, a new radio bearer between the base station and the UE; releasing (S301), by the base station, a first context and a first connection configuration, for the UE, between the base station and the source core network element; establishing (S302), by the base station, a second context and a second connection, for the UE, between the base station and the target core network element, after receiving the handover command from the target core network element; and configuring (S303), by the base station, the new radio bearer between the base station and the UE. sending (S401), by the UE, a handover indication to the source core network element via a non-access stratum, NAS, when determining, based on a service to be supported, that a handover of core network elements is needed; after receiving at the base station a handover command from the target core network element: configuring (S402), by the UE, a new radio bearer between the base station and the UE; releasing (S301), by the base station, a first context and a first connection configuration, for the UE, between the base station and the source core network element; establishing (S302), by the base station, a second context and a second connection, for the UE, between the base station and the target core network element, after receiving the handover command from the target core network element; and configuring (S303), by the base station, the new radio bearer between the base station and the UE. configuring (S402), by the UE, a new radio bearer between the base station and the UE; releasing (S301), by the base station, a first context and a first connection configuration, for the UE, between the base station and the source core network element; establishing (S302), by the base station, a second context and a second connection, for the UE, between the base station and the target core network element, after receiving the handover command from the target core network element; and configuring (S303), by the base station, the new radio bearer between the base station and the UE.
Multilayer electrical component having - a main body with external electrodes , - internal electrodes that are each connected to an external electrode in an electrically conductive manner, - a ceramic varistor layer that is provided with one of the internal electrodes , and - a dielectric layer adjoining the varistor layer , - wherein the internal electrodes are arranged on mutually opposite sides of the dielectric layer , and - wherein the dielectric layer has, between the internal electrodes , at least one opening that is filled with a semiconducting material or a metal, such that the semiconducting material present in the opening or the metal present in the opening adjoins the varistor layer in a planar manner. - a main body with external electrodes , - internal electrodes that are each connected to an external electrode in an electrically conductive manner, - a ceramic varistor layer that is provided with one of the internal electrodes , and - a dielectric layer adjoining the varistor layer , - wherein the internal electrodes are arranged on mutually opposite sides of the dielectric layer , and - wherein the dielectric layer has, between the internal electrodes , at least one opening that is filled with a semiconducting material or a metal, such that the semiconducting material present in the opening or the metal present in the opening adjoins the varistor layer in a planar manner.
A trim assembly , comprising: a cage with an internal surface and a cage port ; a plug disposed in the cage , the plug having an external surface and being operable between a closed position, a pressure balancing position and an open position; a low friction flow restrictor disposed between the cage and the plug ; a pressure energized seal disposed between the cage and the plug ; a seal balancing volume ; a pressure control assembly configured to pressurize the seal balancing volume ; and a conduit in fluid communication with a volume at an upstream pressure when the plug is in the pressure balancing position, and wherein the pressure control assembly is configured to allow fluid at the upstream pressure to flow into the seal balancing volume at a rate in which leakage of a fluid through the low friction flow restrictor is less than flow of fluid into the seal balancing volume . a cage with an internal surface and a cage port ; a plug disposed in the cage , the plug having an external surface and being operable between a closed position, a pressure balancing position and an open position; a low friction flow restrictor disposed between the cage and the plug ; a pressure energized seal disposed between the cage and the plug ; a seal balancing volume ; a pressure control assembly configured to pressurize the seal balancing volume ; and a conduit in fluid communication with a volume at an upstream pressure when the plug is in the pressure balancing position, and wherein the pressure control assembly is configured to allow fluid at the upstream pressure to flow into the seal balancing volume at a rate in which leakage of a fluid through the low friction flow restrictor is less than flow of fluid into the seal balancing volume .
A clothing treatment apparatus comprising: a first body detachably mounted on a wall; a second body extending from the first body in a direction away from the wall; a rack provided at the first body or the second body , on which clothes are hung; and a hot air supply provided in the first body to supply hot air to clothes hung on the rack , wherein the hot air supply includes: at least one heater assembly provided to generate the hot air; at least one air outflow hole provided to discharge the hot air from the first body , at least one air inflow hole provided to introduce the hot air into the first body , and at least one fan provided behind the at least one air inflow hole to circulate the hot air between the air outflow hole and the air inflow hole . a first body detachably mounted on a wall; a second body extending from the first body in a direction away from the wall; a rack provided at the first body or the second body , on which clothes are hung; and a hot air supply provided in the first body to supply hot air to clothes hung on the rack , wherein the hot air supply includes: at least one heater assembly provided to generate the hot air; at least one air outflow hole provided to discharge the hot air from the first body , at least one air inflow hole provided to introduce the hot air into the first body , and at least one fan provided behind the at least one air inflow hole to circulate the hot air between the air outflow hole and the air inflow hole . at least one heater assembly provided to generate the hot air; at least one air outflow hole provided to discharge the hot air from the first body , at least one air inflow hole provided to introduce the hot air into the first body , and at least one fan provided behind the at least one air inflow hole to circulate the hot air between the air outflow hole and the air inflow hole .
A robotic crawler comprising: an expandable body movable between a collapsed state and an expanded state; a plurality of multidirectional traction modules removably connected to the expandable body , the multidirectional traction modules configured to engage opposed surfaces within an annular gap of a machine ; and a plurality of sensor modules removably connected to the expandable body and positioned by the plurality of multidirectional traction modules , the plurality of sensor modules including a plurality of sensor types to inspect the annular gap of the machine ; characterized by further comprising at least one manual emergency release configured to transform the robotic crawler from the expanded state to the collapsed state without a control signal from the robotic crawler . an expandable body movable between a collapsed state and an expanded state; a plurality of multidirectional traction modules removably connected to the expandable body , the multidirectional traction modules configured to engage opposed surfaces within an annular gap of a machine ; and a plurality of sensor modules removably connected to the expandable body and positioned by the plurality of multidirectional traction modules , the plurality of sensor modules including a plurality of sensor types to inspect the annular gap of the machine ; characterized by further comprising at least one manual emergency release configured to transform the robotic crawler from the expanded state to the collapsed state without a control signal from the robotic crawler .
A foamer dispenser , comprising: a pump cover that is fitted to a container body ; a pump cylinder that includes a large-diameter portion fixed to the pump cover and a small-diameter portion ; a small-diameter piston that is received in the small-diameter portion of the pump cylinder and that is configured to suck and pump a liquid in the container body ; a large-diameter piston that is received in the large-diameter portion of the pump cylinder and that is configured to suck and pump ambient air; a head that causes pumping movement of the small-diameter piston and the large-diameter piston and that ejects a mixture of the liquid and the ambient air by a user pushing and releasing the head repeatedly; a liquid flow path (R L ) of the liquid pumped from the small-diameter piston ; an ambient air flow path (R air ) of the ambient air pumped from the large-diameter piston ; a mixture flow path (R M ) of the mixture of the liquid pumped from the liquid flow path (R L ) and the ambient air pumped from the ambient air flow path (R air ); and a mesh filter that is disposed in the mixture flow path (R M ) to allow the mixture to pass, characterized in that the foamer dispenser further comprises a check valve that is located in the liquid flow path (R L ) on a downstream side of the small-diameter piston ; a connecting flow path area S 1 between the liquid flow path (R L ) and the mixture flow path (R M ) and a connecting flow path area S 2 between the ambient air flow path (R air ) and the mixture flow path (R M ) have the following relation: 2.8 ≤ S 1 / S 2 ≤ 3.8 a pump cover that is fitted to a container body ; a pump cylinder that includes a large-diameter portion fixed to the pump cover and a small-diameter portion ; a small-diameter piston that is received in the small-diameter portion of the pump cylinder and that is configured to suck and pump a liquid in the container body ; a large-diameter piston that is received in the large-diameter portion of the pump cylinder and that is configured to suck and pump ambient air; a head that causes pumping movement of the small-diameter piston and the large-diameter piston and that ejects a mixture of the liquid and the ambient air by a user pushing and releasing the head repeatedly; a liquid flow path (R L ) of the liquid pumped from the small-diameter piston ; an ambient air flow path (R air ) of the ambient air pumped from the large-diameter piston ; a mixture flow path (R M ) of the mixture of the liquid pumped from the liquid flow path (R L ) and the ambient air pumped from the ambient air flow path (R air ); and a mesh filter that is disposed in the mixture flow path (R M ) to allow the mixture to pass, characterized in that the foamer dispenser further comprises a check valve that is located in the liquid flow path (R L ) on a downstream side of the small-diameter piston ; a connecting flow path area S 1 between the liquid flow path (R L ) and the mixture flow path (R M ) and a connecting flow path area S 2 between the ambient air flow path (R air ) and the mixture flow path (R M ) have the following relation: 2.8 ≤ S 1 / S 2 ≤ 3.8
Crystalline (R)-3,5-dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-ethyl-3-methoxy-benzoyl)-hydrazide or crystalline (S)-3,5-dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-ethyl-3-methoxy-benzoyl)-hydrazide Form IV characterized as having a powder x-ray diffraction pattern with peaks at 6.83, 10.31, 11.30, 12.18, 12.98, 13.69, 15.11, 16.23, 17.60, 17.99, 20.70, 21.15, 21.68, 22.71, 23.79, and 24.86 degrees 2Θ.
A recombinant DNA molecule comprising a nucleic acid sequence encoding a polypeptide of SEQ ID N0:14, wherein said polypeptide confers herbicide tolerance to a transgenic plant.
A stable lipid suspension composition comprising Carmustine and lipid, further comprising a buffer which is disodium succinate hexahydrate and which is present up to 15 % by weight of the composition, wherein the lipid is soybean phosphatidylcholine.
Drilling device comprising means for driving a tool-holder in rotation about a first axis , to which tool-holder is fixed a drill bit of axis , said drill bit comprising at least one first cutting edge and one second cutting edge that are inclined in an axial plane of the drill bit so as to confer on said drill bit a protruding conical end form, the first cutting edge being made for the drilling of a first material, characterized in that : - the second cutting edge is made, differently from the first cutting edge , for the drilling of the second material; - the tool-holder can keep the axis of the drill bit on a second axis of said tool-holder parallel to the first axis at an offset distance D from said first axis, said drill bit being fixed to said tool-holder to be driven in rotation at the speed of rotation of said tool-holder; - the tool-holder and the drill bit comprise at least two distinct positions of the first axis with respect to the axis of the drill bit to laterally offset said first axis with respect to said axis of the drill bit in a direction opposite to the first cutting edge into a first position and to laterally offset said first axis with respect to said axis of the drill bit in a direction opposite to the second cutting edge into a second position. - the second cutting edge is made, differently from the first cutting edge , for the drilling of the second material; - the tool-holder can keep the axis of the drill bit on a second axis of said tool-holder parallel to the first axis at an offset distance D from said first axis, said drill bit being fixed to said tool-holder to be driven in rotation at the speed of rotation of said tool-holder; - the tool-holder and the drill bit comprise at least two distinct positions of the first axis with respect to the axis of the drill bit to laterally offset said first axis with respect to said axis of the drill bit in a direction opposite to the first cutting edge into a first position and to laterally offset said first axis with respect to said axis of the drill bit in a direction opposite to the second cutting edge into a second position.
A vacuum ejector pump comprising a plurality of nozzles, which are assembled, and activated by compressed air passing through the nozzles at a high speed to generate a negative pressure in an outer surrounding space (S), the vacuum ejector pump comprising: a pipe-type intermediate nozzle having a longitudinal-direction channel; a first nozzle on which a front-cover part inserted to an outer circumference of one end of the intermediate nozzle is formed; and a second nozzle on which a rear-cover part inserted to an outer circumference of the other end of the intermediate nozzle to face the front-cover part is formed; wherein the intermediate nozzle is disposed between the first nozzle and the second nozzle , the intermediate nozzle , the first nozzle and the second nozzle constitute an ejector main body , and the surrounding space (S) communicates with each of the nozzles through a through-hole defined in a sidewall of the ejector main body and a slot defined between the nozzles . a pipe-type intermediate nozzle having a longitudinal-direction channel; a first nozzle on which a front-cover part inserted to an outer circumference of one end of the intermediate nozzle is formed; and a second nozzle on which a rear-cover part inserted to an outer circumference of the other end of the intermediate nozzle to face the front-cover part is formed; wherein the intermediate nozzle is disposed between the first nozzle and the second nozzle , the intermediate nozzle , the first nozzle and the second nozzle constitute an ejector main body , and the surrounding space (S) communicates with each of the nozzles through a through-hole defined in a sidewall of the ejector main body and a slot defined between the nozzles .