mhurhangee/patent-ind-claim-en huggingface dataset:
A substrate processing apparatus comprising: a rotating and holding mechanism configured to hold and rotate a substrate; a polishing head configured to press a polishing tool against a peripheral portion of the substrate to polish the peripheral portion of the substrate; and a head cleaning device configured to supply a cleaning liquid to the polishing head to clean the polishing head after polishing of the substrate, and wherein the substrate processing apparatus comprises a tilt mechanism configured to tilt the polishing head , characterized in that the head cleaning device is arranged directly above the polishing head inside a partition wall and the head cleaning device is configured to supply the cleaning liquid to the polishing head when the polishing head is arranged below the substrate by the tilt mechanism . a rotating and holding mechanism configured to hold and rotate a substrate; a polishing head configured to press a polishing tool against a peripheral portion of the substrate to polish the peripheral portion of the substrate; and a head cleaning device configured to supply a cleaning liquid to the polishing head to clean the polishing head after polishing of the substrate, and wherein the substrate processing apparatus comprises a tilt mechanism configured to tilt the polishing head , characterized in that the head cleaning device is arranged directly above the polishing head inside a partition wall and the head cleaning device is configured to supply the cleaning liquid to the polishing head when the polishing head is arranged below the substrate by the tilt mechanism .
Lifting assembly (H) for sewage, in particular under floor-lifting assembly, comprising a container and a pressure tube (D) mounted sidewardly and in sealed fashion in a wall of the container , a back flow preventer , a pump (P) and a pressure connector structure of the pump (P), wherein with a section of the pressure tube (D) situated in the interior of the container the pressure connector structure of the pump (P) installed in the container is connected via the back flow preventer , and a discharge line (L) can be connected to the section of the pressure tube (D) situated outside the container , characterized in that both sections of the pressure tube (D) are separate tube bodies which are installed in decoupled fashion with regard to a mutual force transmission, wherein for decoupling both sections at least one elastic sealing is provided between the inner section and the container as well a free interspace (S) is provided between the tube bodies of both sections .
A focused ion beam device control method comprising the steps of: forming a first processed figure on a surface of a specimen through application of a focused ion beam in a first processing range of vision (S102, S202); obtaining a secondary electron image of the first processed figure through application of the focused ion beam (S103, S203); measuring an outer dimension of the first processed figure by the obtained secondary electron image (S103, S203) ; determining a position of a next, second processing range of vision by detecting size deviation with respect to a design dimension of the first processed figure , based on the measured outer dimension of the first processed figure (S104-S107, S204-S207); and moving a stage to the position of the second processing range of vision thus determined (S106-S107, S206-S207). forming a first processed figure on a surface of a specimen through application of a focused ion beam in a first processing range of vision (S102, S202); obtaining a secondary electron image of the first processed figure through application of the focused ion beam (S103, S203); measuring an outer dimension of the first processed figure by the obtained secondary electron image (S103, S203) ; determining a position of a next, second processing range of vision by detecting size deviation with respect to a design dimension of the first processed figure , based on the measured outer dimension of the first processed figure (S104-S107, S204-S207); and moving a stage to the position of the second processing range of vision thus determined (S106-S107, S206-S207).
Plastic welding device for joining a first, thin-walled plastics part to a second plastics part in a planar manner, comprising a hand-held assembly aid and a welding head which can be accommodated in a holder of a hand soldering iron; wherein the welding head has a base body and at least one welding tip arranged on the base body ; wherein the assembly aid has two spacers which can be placed with their underside on the thin-walled plastic part and on the upper sides of which the base body of the welding head can be supported; wherein the spacers are designed in such a way that when the base body is supported on the spacers , a penetration depth of the at least one welding tip into the plastic parts to be joined is limited to a predetermined maximum value; and wherein the spacers are arranged spaced apart from one another in such a way that the at least one welding tip of the welding head can be placed between the two spacers when the basic body is supported on the spacers .
A method of forming an optical fiber, comprising the following steps: forming a silica-based soot blank with at least one silica-based soot core cane at least partially embedded in the soot blank; consolidating the soot blank with the at least one soot core cane positioned therein to form a preform; and drawing the preform to form an optical fiber, wherein the expression silica-based soot core cane refers to a core cane having an unconsolidated or partially consolidated inner portion and an unconsolidated or partially consolidated outer portion, and wherein the density of the at least one soot core cane is within 10% of the density of the soot blank prior to consolidating the soot blank and the soot core cane to form the preform. forming a silica-based soot blank with at least one silica-based soot core cane at least partially embedded in the soot blank; consolidating the soot blank with the at least one soot core cane positioned therein to form a preform; and drawing the preform to form an optical fiber, wherein the expression silica-based soot core cane refers to a core cane having an unconsolidated or partially consolidated inner portion and an unconsolidated or partially consolidated outer portion, and wherein the density of the at least one soot core cane is within 10% of the density of the soot blank prior to consolidating the soot blank and the soot core cane to form the preform.
Migalastat or salt thereof for use in a method of treating Fabry disease in a patient, wherein the patient has a HEK assay amenable mutation in α-galactosidase A and wherein the mutation is selected from the group consisting of G80D, A309V, P323R, A352G and V390M.
A method of non-symmetric nucleic acid amplification comprising: a) partitioning a sample into a plurality of partitions, wherein said plurality of partitions comprise, on average, 100 or more target nucleic acid molecules per partition, wherein a portion of the partitions contain zero target nucleic acid molecules and wherein the number of partitions with zero copies of said target nucleic acid molecules is insufficient to allow application of Poisson statistics; and b) amplifying said target nucleic acid molecules comprising a nucleic acid target sequence by said non-symmetric nucleic acid amplification to produce target amplicons. a) partitioning a sample into a plurality of partitions, wherein said plurality of partitions comprise, on average, 100 or more target nucleic acid molecules per partition, wherein a portion of the partitions contain zero target nucleic acid molecules and wherein the number of partitions with zero copies of said target nucleic acid molecules is insufficient to allow application of Poisson statistics; and b) amplifying said target nucleic acid molecules comprising a nucleic acid target sequence by said non-symmetric nucleic acid amplification to produce target amplicons.
A method of delivering shelled portions containing effective ingredients, over the air to a target , the method comprising: loading the required effective ingredients onto a vehicle in the form of shelled portions selected to have a type and size based on mission parameters and physical data of a scene containing the target; conveying the shelled portions in the vehicle to a delivery point, based on the mission parameters and the physical data; and ballistically delivering the shelled portions from the vehicle towards the target, wherein the shelled portions comprise the effective ingredients covered by flexible biodegradable shells, and characterised in that each of the biodegradable shells comprises: a first layer comprising polysaccharide at a weight % of up to 50% and a polymer matrix, the first layer being configured to form a water barrier when in contact with water; a second layer comprising a polysaccharide at a weight % of at least 40% and a polymer matrix; and a third layer comprising polysaccharide at a weight % of up to 50%, a polymer matrix and an additive configured to accelerate disintegration of the polymeric shell when exposed to natural day light, the third layer being configured to form a water barrier when in contact with water. loading the required effective ingredients onto a vehicle in the form of shelled portions selected to have a type and size based on mission parameters and physical data of a scene containing the target; conveying the shelled portions in the vehicle to a delivery point, based on the mission parameters and the physical data; and ballistically delivering the shelled portions from the vehicle towards the target, wherein the shelled portions comprise the effective ingredients covered by flexible biodegradable shells, and characterised in that each of the biodegradable shells comprises: a first layer comprising polysaccharide at a weight % of up to 50% and a polymer matrix, the first layer being configured to form a water barrier when in contact with water; a second layer comprising a polysaccharide at a weight % of at least 40% and a polymer matrix; and a third layer comprising polysaccharide at a weight % of up to 50%, a polymer matrix and an additive configured to accelerate disintegration of the polymeric shell when exposed to natural day light, the third layer being configured to form a water barrier when in contact with water. a first layer comprising polysaccharide at a weight % of up to 50% and a polymer matrix, the first layer being configured to form a water barrier when in contact with water; a second layer comprising a polysaccharide at a weight % of at least 40% and a polymer matrix; and a third layer comprising polysaccharide at a weight % of up to 50%, a polymer matrix and an additive configured to accelerate disintegration of the polymeric shell when exposed to natural day light, the third layer being configured to form a water barrier when in contact with water.
A handover method performed by a first base station in a heterogeneous network wireless communication system including the first base station and a second base station both supporting a cell range expansion, CRE, function, the method comprising: monitoring Z (S830) whether the cell range expansion function is deactivated if deactivation of the cell range expansion function is detected, generating (S840) handover request message; and transmitting (S845) the handover request message to the second base station for performing a handover of a terminal to the first base station , wherein the first base station is a macro base station and the second base station is a pico base station. monitoring Z (S830) whether the cell range expansion function is deactivated if deactivation of the cell range expansion function is detected, generating (S840) handover request message; and transmitting (S845) the handover request message to the second base station for performing a handover of a terminal to the first base station , wherein the first base station is a macro base station and the second base station is a pico base station.
Composed element, comprising at least two panel-shaped elements (2-3), which consist of a board material of pressed and consolidated wood components and which are connected together at an angle in order to form a corner connection; wherein the panel-shaped elements (2-3) are connected by means of coupling means (6-7) which comprise a tongue and groove substantially made as profiled parts (8-9) in the board material itself; wherein the tongue is situated at a distal end of one of the panel-shaped elements, in other words on the end side thereof, whereas the groove is situated at a side wall of the other panel-shaped element; wherein the tongue has a first side and an opposed second side ; wherein said coupling means (6-7) further also comprise locking elements (15-16) preventing, in coupled condition , the drifting apart of the tongue and groove ; wherein the locking elements consist of one first locking element at the tongue and one cooperating therewith second locking element in the groove ; and wherein the coupling means and locking elements allow coupling by means of a snap movement; characterized in that the locking element is provided on the tongue at an elastically bendable part of the tongue , which at the same time forms a side of the tongue , and thereby allows that the tongue can be fit in the groove by said snap movement; in that the tongue is split by means of a slot which extends in the panel-shaped element further than the side surface from which the tongue protrudes; and in that said elastically bendable part is separated from the remainder of said tongue by means of said slot ; and wherein in distal direction, said elastically bendable part of the tongue protrudes farther than the remainder of the tongue .
A diode comprising between an upper electrode (A) and a lower electrode (K): first (3; 152) and second (54; 102) semiconductor substrate portions of a first conductivity type connected to the lower electrode; a first vertical transistor (T1; T11) with a channel of the first conductivity type and a second transistor (T2; T12) formed in the first portion and series-connected between the electrodes, the gate (14; 160) of the first transistor being doped with the first conductivity type and coupled to the upper electrode, the second transistor having a channel of a second conductivity type and having a doped gate (24; 166) of the second conductivity type; first (80; 108) and second doped areas of the second conductivity type located in the second portion and separated by a substrate portion topped with another doped gate (84; 112) of the first conductivity type, the first doped area being used as a potential probe and being coupled to the gate of the second transistor, the second doped area and said other gate being coupled to the upper electrode. first (3; 152) and second (54; 102) semiconductor substrate portions of a first conductivity type connected to the lower electrode; a first vertical transistor (T1; T11) with a channel of the first conductivity type and a second transistor (T2; T12) formed in the first portion and series-connected between the electrodes, the gate (14; 160) of the first transistor being doped with the first conductivity type and coupled to the upper electrode, the second transistor having a channel of a second conductivity type and having a doped gate (24; 166) of the second conductivity type; first (80; 108) and second doped areas of the second conductivity type located in the second portion and separated by a substrate portion topped with another doped gate (84; 112) of the first conductivity type, the first doped area being used as a potential probe and being coupled to the gate of the second transistor, the second doped area and said other gate being coupled to the upper electrode.
Belt and tread drum for manufacturing a belt and tread package , wherein the belt and tread package comprises a belt layer and a tread layer that is wider than the belt layer , wherein the belt and tread drum has a circumferential surface (S) that is rotatable about a drum axis (X), wherein the belt and tread drum comprises a first support member , wherein the first support member comprises a tread support surface which faces away from the drum axis (X) for at least partially supporting the tread layer where said tread layer is wider than the belt layer , wherein the first support member is positionable in a raised position outside the circumferential surface (S) in the radial direction (R), characterized in that the belt and tread drum further comprises a first retaining element for engaging onto the tread layer to retain the tread layer in position on the tread support surface at the first support member .
A method for determining states and locating faults in installed isolated down conductors in the external lightning protection means (IBS), wherein the isolated down conductors have a coaxial structure with a metal inner conductor, dielectric medium and voltage-controlled outer casing made of weakly conducting or semi-conducting material as well as having an earth connection, characterized in that for the purpose of locating faults, after removal of the earth connection, a pulse voltage is applied between the inner conductor and the outer casing of the respective down conductor which leads to a discharge (E) in case of down conductor faults at the fault location, wherein the discharge (E) or the effects thereof are subjected to an evaluation for state determination of the respective down conductor and to this end, the pulse response is used, which appears as a change of the resonant circuit behavior of the oscillating circuit resulting from the connection of the respective down conductor to the pulse generator, wherein the changed aperiodic current and/or voltage curves which are generated due to the discharge (E) are detected.
Venturi mixing device comprising a body having an inlet and an outlet nozzle , and, internally to the body , a main flow restricting channel communicating with the inlet and with a suction chamber , the suction chamber being in communication with a mouth communicating with the outside, an outlet channel being in communication with the suction chamber and ending with the outlet nozzle , wherein the outlet channel is provided with a flow straightener (43A; 43B) comprising a cylinder configured to be stably placed in a duct and having an inlet mouth and an outlet mouth , the cylinder being internally provided with a helical rib running on an inner surface of the cylinder , wherein a ridge (456; 460) of the helical rib follows a cylindrical helix with height h and with pitch p wrapped around a cylindrical volume having diameter d coaxial with the cylinder , whereby the ridge (456; 460) of the helical rib delimits a clear central cylindrical section of the cylinder having diameter d, wherein the helical rib has a front main surface , facing the inlet mouth for the whole height h of the helical rib , and a rear main surface , facing the outlet mouth for the whole height h of the helical rib , the front main surface forming with the inner surface of the cylinder a front angle α that is obtuse, whereby 90° < α < 180°, wherein the inlet mouth of the cylinder of the flow straightener (43A; 43B) is facing the inlet of the venturi mixing device and the outlet mouth of the cylinder of the flow straightener (43A; 43B) is facing the outlet nozzle of the venturi mixing device .
A system for illuminating a lumen within a body of a patient, comprising: a tube having a proximal end , an opposed distal end , and an internal chamber , the tube being configured for placement within the lumen of the body and comprising a nasogastric feeding tube having a passageway for administration of nourishment to the patient; and an illumination subsystem including: an optical fiber that is sized and configured to seat within the internal chamber of the tube ; and a light source for generating light that is emitted by the optical fiber , wherein a wall of the tube is substantially transparent to light emitted by the optical fiber : wherein the tube has multiple openings usable for administering nourishment and/or medicine to the patient, and wherein the optical fiber 20, when mounted within the tube and when the light source generates light, emits light at the distal end of the tube so as to transilluminate the lumen and surrounding tissue; and the optical fiber has a rounded light-emitting distal end . a tube having a proximal end , an opposed distal end , and an internal chamber , the tube being configured for placement within the lumen of the body and comprising a nasogastric feeding tube having a passageway for administration of nourishment to the patient; and an illumination subsystem including: an optical fiber that is sized and configured to seat within the internal chamber of the tube ; and a light source for generating light that is emitted by the optical fiber , wherein a wall of the tube is substantially transparent to light emitted by the optical fiber : wherein the tube has multiple openings usable for administering nourishment and/or medicine to the patient, and wherein the optical fiber 20, when mounted within the tube and when the light source generates light, emits light at the distal end of the tube so as to transilluminate the lumen and surrounding tissue; and the optical fiber has a rounded light-emitting distal end . an optical fiber that is sized and configured to seat within the internal chamber of the tube ; and a light source for generating light that is emitted by the optical fiber , wherein a wall of the tube is substantially transparent to light emitted by the optical fiber : wherein the tube has multiple openings usable for administering nourishment and/or medicine to the patient, and wherein the optical fiber 20, when mounted within the tube and when the light source generates light, emits light at the distal end of the tube so as to transilluminate the lumen and surrounding tissue; and the optical fiber has a rounded light-emitting distal end . wherein the tube has multiple openings usable for administering nourishment and/or medicine to the patient, and wherein the optical fiber 20, when mounted within the tube and when the light source generates light, emits light at the distal end of the tube so as to transilluminate the lumen and surrounding tissue; and the optical fiber has a rounded light-emitting distal end .
A method for recharging batteries , wherein: a first energy converter is used to recharge a first battery ; and the first energy converter is bypassed in order to recharge from the first battery , one or more second batteries , the first battery being intended to be mounted on a first vehicle and each second battery being intended to be mounted on a second vehicle . a first energy converter is used to recharge a first battery ; and the first energy converter is bypassed in order to recharge from the first battery , one or more second batteries , the first battery being intended to be mounted on a first vehicle and each second battery being intended to be mounted on a second vehicle .