mhurhangee/patent-ind-claim-en huggingface dataset:
A safety device for a medicament container comprising: a first sheath having a first ledge and a second ledge ; a second sheath telescopically arranged with the first sheath and releasably coupled to the first ledge ; and a finger flange comprising a hole adapted to receive the first sheath and having at least one resilient clip adapted to engage the second ledge of the first sheath , further comprising - a central portion and two support portions extending radially from the central portion in a wing-like fashion, wherein the proximal surface of the finger flange is substantially flat and distal surfaces of the support portions and the central portion are concave relative to the proximal surface, and wherein the resilient clip comprises - a transverse beam (72.1) originating from the finger flange and extending in a radial inward direction (I) and having a hinge (72.1.1) formed by a section in which a thickness of the transverse beam (72.1) is reduced with respect to the rest of the transverse beam (72.1), and - a longitudinal beam (72.2) originating from a radial inward end of the transverse beam (72.1) and extending in a proximal direction (P) wherein the hinge (72.1.1) is arranged adjacent the longitudinal beam (72.2). a first sheath having a first ledge and a second ledge ; a second sheath telescopically arranged with the first sheath and releasably coupled to the first ledge ; and a finger flange comprising a hole adapted to receive the first sheath and having at least one resilient clip adapted to engage the second ledge of the first sheath , further comprising - a central portion and two support portions extending radially from the central portion in a wing-like fashion, - a central portion and two support portions extending radially from the central portion in a wing-like fashion, - a transverse beam (72.1) originating from the finger flange and extending in a radial inward direction (I) and having a hinge (72.1.1) formed by a section in which a thickness of the transverse beam (72.1) is reduced with respect to the rest of the transverse beam (72.1), and - a longitudinal beam (72.2) originating from a radial inward end of the transverse beam (72.1) and extending in a proximal direction (P) wherein the hinge (72.1.1) is arranged adjacent the longitudinal beam (72.2).
A reading sensor suitable to read a security element having magnetic areas with different coercivity, comprising at least one first reading head and at least one second reading head , which are arranged parallel to each other , characterized in that said at least one first reading head and said at least one second reading head are arranged in a single enclosure and are capable of detecting two distinct signal sequences, a permanent magnet being arranged between said reading heads and in that said first and second heads are arranged at an angle comprised between 40° and 50° with respect to said security element , regardless of the direction of travel of said security element with respect to said sensor .
An exhaust device for an engine , the exhaust device being connected to an exhaust port of the engine in which a plurality of cylinders are arranged in series, the exhaust device comprising: a first exhaust pipe connected to an exhaust port of a first cylinder , among the plurality of the cylinders , disposed at one end in the array direction; and a second exhaust pipe connected to an exhaust port of a second cylinder , and a third exhaust pipe connected to an exhaust port of a third cylinder , the second cylinder and the third cylinder among the plurality of the cylinders following the first cylinder in the array direction, wherein the second exhaust pipe and the third exhaust pipe are comprised of a tubular member including a merging tubular portion where exhaust gas from the exhaust port of the second cylinder and exhaust gas from the exhaust port of the third cylinder are merged inside; and a downstream tubular portion continued to the merging tubular portion via a communication opening portion , and formed on a downstream side in a flow direction of the exhaust gas, the first exhaust pipe is comprised of a pipe member, the merging tubular portion is comprised of combining a plurality of plate members , at least a part of which is formed by press working, the downstream tubular portion is disposed in such a way as to be offset on a side of the one end with respect to a center (CL 1 ) of the plurality of the cylinders (11,12,13.14) in the array direction, and a distal end of the first exhaust pipe is disposed inside the downstream tubular portion through the communication opening portion . a first exhaust pipe connected to an exhaust port of a first cylinder , among the plurality of the cylinders , disposed at one end in the array direction; and a second exhaust pipe connected to an exhaust port of a second cylinder , and a third exhaust pipe connected to an exhaust port of a third cylinder , the second cylinder and the third cylinder among the plurality of the cylinders following the first cylinder in the array direction, wherein the second exhaust pipe and the third exhaust pipe are comprised of a tubular member including a merging tubular portion where exhaust gas from the exhaust port of the second cylinder and exhaust gas from the exhaust port of the third cylinder are merged inside; and a downstream tubular portion continued to the merging tubular portion via a communication opening portion , and formed on a downstream side in a flow direction of the exhaust gas, the first exhaust pipe is comprised of a pipe member, the merging tubular portion is comprised of combining a plurality of plate members , at least a part of which is formed by press working, the downstream tubular portion is disposed in such a way as to be offset on a side of the one end with respect to a center (CL 1 ) of the plurality of the cylinders (11,12,13.14) in the array direction, and a distal end of the first exhaust pipe is disposed inside the downstream tubular portion through the communication opening portion .
A spray system for applying a liquid to an object, comprising: a spray head for ejecting the liquid; a cover , suspended in front of the spray head, wherein the cover has a curved surface and an opening ; wherein, in a spray application position of the cover, the opening is positioned for allowing the liquid ejected from the spray head to pass through the cover, while the curved surface forms a gutter portion for redundant liquid; wherein the cover is rotatable to a cleaning position, wherein when the cover is in the cleaning position the spray head is arranged to eject a cleaning fluid onto the curved surface. a spray head for ejecting the liquid; a cover , suspended in front of the spray head, wherein the cover has a curved surface and an opening ; wherein, in a spray application position of the cover, the opening is positioned for allowing the liquid ejected from the spray head to pass through the cover, while the curved surface forms a gutter portion for redundant liquid; wherein the cover is rotatable to a cleaning position, wherein when the cover is in the cleaning position the spray head is arranged to eject a cleaning fluid onto the curved surface.
A method for operating an optical network element connected to a switch , the optical network element comprising at least one equalizer or filter, wherein at least one set of parameters associated to the at least one equalizer or filter to operate the optical network element is determined during a start-up of the optical network element ; and wherein sets of parameters suitable for different positions of the switch are saved in a memory; characterized in that in case of a switching between transmission fibers, the switching is detected and a subsequent different set of parameters to operate the optical network element is selected based on a quality parameter fast enough to avoid loss of a connection. wherein at least one set of parameters associated to the at least one equalizer or filter to operate the optical network element is determined during a start-up of the optical network element ; and wherein sets of parameters suitable for different positions of the switch are saved in a memory;
A retractable sliding door with automatic alignment to the wall during the closing phase, suitable to alternatively open and close a through space made along said wall, comprising a lower guide fixed to the floor and an upper guide forming a support beam in which paired prominences and an appendix are made constituting the sliding tracks of two or more pairs of wheels and single wheels borne by a shaft and combined with a frame to form a carriage, characterized in that the lower guide interacts with a roller suitable to fit into a shaped channel with a mixtilinear development made along the lower head of the door and that the upper guide is provided with a shaped channel having the same and parallel mixtilinear configuration as said shaped channel , the upper head of said door being provided with means for its suspension to the frame constituting the carriage fixed to the ends of said upper head and consisting of opposite plates each provided with an appendix protruding upwards from which respective pins protrude, facing each other being oriented in opposite directions, said door being suspended starting from its upper head, to the frame with the interposition of a sheet metal , the lower edge of which is provided with a puckering that forms opposite and complementary puckers or engagement seats for said pins of the plates .
A laminate comprising: a substrate having a first surface and made of a high-molecular-weight material being an organic polymer material; an undercoat layer located on at least part of the first surface of the substrate and containing a first inorganic substance that has adsorption sites to be coupled to precursors serving as film-forming materials of an atomic layer deposition film; a functional layer located covering an outer surface of the undercoat layer and containing a second inorganic substance to be coupled to the adsorption sites of the undercoat layer, the functional layer being the atomic layer deposition film formed of the precursors; and an overcoat layer located covering an outer surface of the functional layer and containing a third inorganic substance, wherein the first inorganic substance in the undercoat layer and the third inorganic substance in the overcoat layer is Ta 2 O 5 ; the undercoat layer has a thickness in a range of 1 nm or more to 1000 nm or less; and the overcoat layer has a thickness in a range of 5 nm or more to 300 nm or less. a substrate having a first surface and made of a high-molecular-weight material being an organic polymer material; an undercoat layer located on at least part of the first surface of the substrate and containing a first inorganic substance that has adsorption sites to be coupled to precursors serving as film-forming materials of an atomic layer deposition film; a functional layer located covering an outer surface of the undercoat layer and containing a second inorganic substance to be coupled to the adsorption sites of the undercoat layer, the functional layer being the atomic layer deposition film formed of the precursors; and an overcoat layer located covering an outer surface of the functional layer and containing a third inorganic substance, wherein the first inorganic substance in the undercoat layer and the third inorganic substance in the overcoat layer is Ta 2 O 5 ; the undercoat layer has a thickness in a range of 1 nm or more to 1000 nm or less; and the overcoat layer has a thickness in a range of 5 nm or more to 300 nm or less.
A packet processing method, implemented by a service function forwarder, SFF, comprising: receiving (S501) a first packet comprising a first packet header and service data; replacing (S505) the first packet header of the first packet with a second packet header to obtain a second packet, wherein the second packet comprises a first identifier, a second identifier and the service data, wherein the first identifier is used to uniquely identify the first packet header; sending (S506) the second packet to a service function, SF, device, wherein the second identifier is used to indicate that the second packet comprises the first identifier, and instruct the SF to add the first identifier to a third packet; receiving (S507) the third packet from the SF, wherein the third packet comprises the first identifier and processed service data; replacing (S509), based on a mapping relationship between the first identifier and the first packet header, a third packet header of the third packet with the first packet header to obtain a fourth packet, wherein the fourth packet comprises the processed service data and the first packet header; and sending (S510) the fourth packet to a next-hop node. receiving (S501) a first packet comprising a first packet header and service data; replacing (S505) the first packet header of the first packet with a second packet header to obtain a second packet, wherein the second packet comprises a first identifier, a second identifier and the service data, wherein the first identifier is used to uniquely identify the first packet header; sending (S506) the second packet to a service function, SF, device, wherein the second identifier is used to indicate that the second packet comprises the first identifier, and instruct the SF to add the first identifier to a third packet; receiving (S507) the third packet from the SF, wherein the third packet comprises the first identifier and processed service data; replacing (S509), based on a mapping relationship between the first identifier and the first packet header, a third packet header of the third packet with the first packet header to obtain a fourth packet, wherein the fourth packet comprises the processed service data and the first packet header; and sending (S510) the fourth packet to a next-hop node.
A method for separating and analyzing a target analyte in a sample, the method comprising: contacting the sample with magnetic particles comprising binding moieties specific for the target analyte; flowing the sample through a channel including second moieties specific to the target analyte attached to at least one surface of the channel while applying alternating magnetic fields at a frequency selected such that free magnetic particles cannot transverse the channel width before magnetic fields are alternated; capturing magnetic particles that are bound to said target analyte on the at least one surface of the channel; rinsing said channel to remove unbound components of said sample; releasing captured magnetic particles from the surface of the channel; and analyzing the target analyte attached to said released magnetic particles, wherein the target analyte is not examined in situ on the surface. contacting the sample with magnetic particles comprising binding moieties specific for the target analyte; flowing the sample through a channel including second moieties specific to the target analyte attached to at least one surface of the channel while applying alternating magnetic fields at a frequency selected such that free magnetic particles cannot transverse the channel width before magnetic fields are alternated; capturing magnetic particles that are bound to said target analyte on the at least one surface of the channel; rinsing said channel to remove unbound components of said sample; releasing captured magnetic particles from the surface of the channel; and analyzing the target analyte attached to said released magnetic particles, wherein the target analyte is not examined in situ on the surface.
A collagen matrix comprising particles of a biphasic calcium phosphate/hydroxyapatite (CAP/HAP) bone substitute material comprising a sintered CAP core and a closed epitactically grown layer of nanocrystalline HAP deposited on the external surface of the sintered CAP core, whereby the epitactically grown nanocrystals have the same size and morphology as human bone mineral, wherein the closed epitactically grown layer of nanocrystalline HAP deposited on the external surface of the sintered CAP core has a homogeneous coarse external surface comprising flat crystal platelets.
A control method for a steer-by-wire system mounted in a vehicle that is equipped with an engine and a battery , and that is provided with a torque transmission path that can connect or separate a steering wheel and turning wheels , comprising: a step to detect a steering angle of the steering wheel ; a step to detect a turning angle of the turning wheels ; and a steer-by-wire control step to control the turning angle of the turning wheels based on the steering angle and the turning angle in a state in which the torque transmission path between the steering wheel and the turning wheels is mechanically separated, characterized in that when an ignition switch is switched from ON to OFF, a deviation angle between the steering angle and the turning angle is stored in a non-volatile memory of the steer-by-wire system as a readable value, when the ignition switch is switched from OFF to ON, the deviation angle is read out from the non-volatile memory , after operating a readout of the deviation angle from the non-volatile memory , readout of the deviation angle stored in the non-volatile memory is made impossible after starting of a steer-by-wire control, and making readout of the deviation angle stored in the non-volatile memory impossible is prohibited until a battery voltage (Vx) is detected to be equal to or greater than a predetermined value, and that an engine rotation speed during a predetermined period after the engine rotation speed becomes equal to or greater than a first predetermined value is equal to or greater than a second predetermined value, which is equal to or less than the first predetermined value. a step to detect a steering angle of the steering wheel ; a step to detect a turning angle of the turning wheels ; and a steer-by-wire control step to control the turning angle of the turning wheels based on the steering angle and the turning angle in a state in which the torque transmission path between the steering wheel and the turning wheels is mechanically separated, characterized in that when an ignition switch is switched from ON to OFF, a deviation angle between the steering angle and the turning angle is stored in a non-volatile memory of the steer-by-wire system as a readable value, when the ignition switch is switched from OFF to ON, the deviation angle is read out from the non-volatile memory , after operating a readout of the deviation angle from the non-volatile memory , readout of the deviation angle stored in the non-volatile memory is made impossible after starting of a steer-by-wire control, and making readout of the deviation angle stored in the non-volatile memory impossible is prohibited until a battery voltage (Vx) is detected to be equal to or greater than a predetermined value, and that an engine rotation speed during a predetermined period after the engine rotation speed becomes equal to or greater than a first predetermined value is equal to or greater than a second predetermined value, which is equal to or less than the first predetermined value.
A 3D printer material comprising: an outer layer; and an inner layer, wherein a heat quantity of crystallization of the 3D printer material in differential scanning calorimetry is from 20 to 60 J/g as measured according to the method disclosed in the present specification, and the outer layer contains a resin composition (C) containing a crystalline polyamide-based resin (A) and a component (B) that delays crystallization of the crystalline polyamide-based resin (A). an outer layer; and an inner layer, wherein a heat quantity of crystallization of the 3D printer material in differential scanning calorimetry is from 20 to 60 J/g as measured according to the method disclosed in the present specification, and the outer layer contains a resin composition (C) containing a crystalline polyamide-based resin (A) and a component (B) that delays crystallization of the crystalline polyamide-based resin (A).
A method of treating a food product with an antimicrobial agent, the method comprising: administering a benzoxaborole treatment to one or more surfaces of a food packaging material, wherein the benzoxaborole treatment comprises one or more benzoxaborole compounds, drying the one or more surfaces of the food packaging material, placing a food product inside of the food packaging material, and vaporizing the benzoxaborole compound from the one or more surfaces of the food packaging material to treat the food product located therein; wherein the benzoxazole treatment is administered to the food packaging material prior to placing the food product inside the food packaging material; wherein the benzoxaborole treatment is in liquid form. administering a benzoxaborole treatment to one or more surfaces of a food packaging material, wherein the benzoxaborole treatment comprises one or more benzoxaborole compounds, drying the one or more surfaces of the food packaging material, placing a food product inside of the food packaging material, and vaporizing the benzoxaborole compound from the one or more surfaces of the food packaging material to treat the food product located therein; wherein the benzoxazole treatment is administered to the food packaging material prior to placing the food product inside the food packaging material;
A sensor device comprising: a cylindrical casing ; a vibration detecting unit including a detection probe , a bottomed cylindrical holder having a bottom wall in which a rear end of the detection probe is inserted and fixed, and a spring that is disposed rearward of the vibration detecting unit , is configured to contact the holder to bias the holder forward, and causes a tip of the detection probe to project from the casing , wherein the tip of the detection probe is configured to be pushed against a measurement object to detect vibration of the measurement object, characterized in that a piezoelectric element is held in the holder disposed rearward of the detection probe , and configured to contact the rear end of the detection probe and in that the vibration detecting unit further includes a push member held in the holder and configured to push the piezoelectric element against the rear end of the detection probe , the vibration detecting unit being disposed in the casing . a cylindrical casing ; a vibration detecting unit including a detection probe , a bottomed cylindrical holder having a bottom wall in which a rear end of the detection probe is inserted and fixed, and a spring that is disposed rearward of the vibration detecting unit , is configured to contact the holder to bias the holder forward, and causes a tip of the detection probe to project from the casing , wherein the tip of the detection probe is configured to be pushed against a measurement object to detect vibration of the measurement object, characterized in that a piezoelectric element is held in the holder disposed rearward of the detection probe , and configured to contact the rear end of the detection probe and in that the vibration detecting unit further includes a push member held in the holder and configured to push the piezoelectric element against the rear end of the detection probe , the vibration detecting unit being disposed in the casing .