mhurhangee/patent-ind-claim-en huggingface dataset:
A photodiode array comprising a light receiving region, wherein the light receiving region includes a plurality of light detecting sections , and each of the light detecting sections comprises: a first semiconductor region of a first conductivity type, a second semiconductor region of a second conductivity type formed on the first semiconductor region , the second semiconductor region forming a p-n junction with the first semiconductor region , a first contact electrode being in contact with the second semiconductor region via a first contact hole of a first insulating layer , the first insulating layer being provided on the second semiconductor region , a second contact electrode having a material different from that of the first contact electrode ; and a resistive layer ; characterized in that the second contact electrode is arranged at a position overlapping the first contact electrode , and is in contact with the first contact electrode via a second contact hole of a second insulating layer , the second insulating layer being provided on the first insulating layer , and in that the resistive layer is continuously extended on the second insulating layer from the second contact electrode . a first semiconductor region of a first conductivity type, a second semiconductor region of a second conductivity type formed on the first semiconductor region , the second semiconductor region forming a p-n junction with the first semiconductor region , a first contact electrode being in contact with the second semiconductor region via a first contact hole of a first insulating layer , the first insulating layer being provided on the second semiconductor region , a second contact electrode having a material different from that of the first contact electrode ; and a resistive layer ;
A nebulizer assembly for a respiratory device comprising: a housing defining a chamber , the housing having an inlet in flow communication with the chamber and an outlet in flow communication with the chamber , the housing further having a nebulizer port configured to receive a nebulizer to discharge atomized medication into the chamber ; a handle having an inlet and an outlet , the handle being curved extending between the inlet and the outlet , the outlet coupled to the inlet of the housing , wherein the housing is circumferentially rotatable about the outlet of the handle to position the nebulizer at different circumferential positions with respect the outlet of the handle ; a hose coupled to the inlet of the handle ; and a patient interface coupled to the outlet of the housing , wherein air flows from the hose to the patient interface via the handle and the housing , the air mixing with the atomized medication within the chamber ; said nebulizer assembly characterised by : the inlet of the housing having a larger circumference than the outlet of the housing and the housing having a substantially frusto-conical shape extending between the inlet and the outlet . a housing defining a chamber , the housing having an inlet in flow communication with the chamber and an outlet in flow communication with the chamber , the housing further having a nebulizer port configured to receive a nebulizer to discharge atomized medication into the chamber ; a handle having an inlet and an outlet , the handle being curved extending between the inlet and the outlet , the outlet coupled to the inlet of the housing , wherein the housing is circumferentially rotatable about the outlet of the handle to position the nebulizer at different circumferential positions with respect the outlet of the handle ; a hose coupled to the inlet of the handle ; and a patient interface coupled to the outlet of the housing , wherein air flows from the hose to the patient interface via the handle and the housing , the air mixing with the atomized medication within the chamber ; said nebulizer assembly characterised by : the inlet of the housing having a larger circumference than the outlet of the housing and the housing having a substantially frusto-conical shape extending between the inlet and the outlet .
A charger for an aerosol delivery device , the charger comprising: a housing ; a connector coupled to the housing and configured to engage a control body coupled or coupleable with a cartridge to form the aerosol delivery device , the cartridge being equipped with a heating element , and the control body including a power source configured to provide power to the heating element to activate and vaporize components of an aerosol precursor composition; and a power supply comprising: a supercapacitor (SC) within the housing , connected with the power source when the connector is engaged with the control body , and configured to provide power to recharge the power source ; and a photovoltaic cell (PC) coupled to the housing , and connected to and from which the supercapacitor (SC) is chargeable. a housing ; a connector coupled to the housing and configured to engage a control body coupled or coupleable with a cartridge to form the aerosol delivery device , the cartridge being equipped with a heating element , and the control body including a power source configured to provide power to the heating element to activate and vaporize components of an aerosol precursor composition; and a power supply comprising: a supercapacitor (SC) within the housing , connected with the power source when the connector is engaged with the control body , and configured to provide power to recharge the power source ; and a photovoltaic cell (PC) coupled to the housing , and connected to and from which the supercapacitor (SC) is chargeable. a supercapacitor (SC) within the housing , connected with the power source when the connector is engaged with the control body , and configured to provide power to recharge the power source ; and a photovoltaic cell (PC) coupled to the housing , and connected to and from which the supercapacitor (SC) is chargeable.
A cold head for a pulse tube cooler, comprising: a regenerator having a first end connectable to a compressor ; a pulse tube having a first end and a second end ; a heat exchanger connected between a second end of the regenerator and the first end of the pulse tube ; and a phase control device connected at the second end of the pulse tube for controlling the flow dynamics in the pulse tube to provide cooling at the heat exchanger , wherein: the pulse tube comprises a wall having a porous portion for allowing a working gas to enter or leave the pulse tube directly through the porous portion, the porous portion being nearer to being parallel than perpendicular to an axis of elongation of the pulse tube , characterized in that : the heat exchanger coaxially surrounds the pulse tube. a regenerator having a first end connectable to a compressor ; a pulse tube having a first end and a second end ; a heat exchanger connected between a second end of the regenerator and the first end of the pulse tube ; and a phase control device connected at the second end of the pulse tube for controlling the flow dynamics in the pulse tube to provide cooling at the heat exchanger , wherein: the pulse tube comprises a wall having a porous portion for allowing a working gas to enter or leave the pulse tube directly through the porous portion, the porous portion being nearer to being parallel than perpendicular to an axis of elongation of the pulse tube , characterized in that : the heat exchanger coaxially surrounds the pulse tube.
A fastener for a vehicle lamp assembly, the fastener comprising: a stud having a first end and a second end, and adapted for attachment to a lamp assembly; a plurality of positioning grooves disposed on the stud ; a grommet having a body and configured to receive therethrough the first end of the stud ; at least one retaining finger extending from the grommet in a first longitudinal direction; and at least one positioning finger extending from the grommet in the first longitudinal direction, wherein the at least one positioning finger is configured to interact with the positioning grooves on the stud as the stud moves relative to the grommet . a stud having a first end and a second end, and adapted for attachment to a lamp assembly; a plurality of positioning grooves disposed on the stud ; a grommet having a body and configured to receive therethrough the first end of the stud ; at least one retaining finger extending from the grommet in a first longitudinal direction; and at least one positioning finger extending from the grommet in the first longitudinal direction, wherein the at least one positioning finger is configured to interact with the positioning grooves on the stud as the stud moves relative to the grommet .
An oil-water separation structure formed by a method of manufacturing an oil-water separation structure according to claim 10, comprising: a porous or net substrate having pores through which water may pass comprising a plurality of protrusions forming a nano-pattern on at least one surface; and a metal or metal oxide particle disposed at an end portion of at least some of the protrusions, the metal or metal oxide particle having acted as an inhibitor for selectively etching a portion of a substrate on which the metal or metal oxide particle was not deposited, thus forming the nano-pattern. a porous or net substrate having pores through which water may pass comprising a plurality of protrusions forming a nano-pattern on at least one surface; and a metal or metal oxide particle disposed at an end portion of at least some of the protrusions, the metal or metal oxide particle having acted as an inhibitor for selectively etching a portion of a substrate on which the metal or metal oxide particle was not deposited, thus forming the nano-pattern.
Compounds of the formula (I) in which Q represents oxygen or sulphur, V represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, W represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, X represents a radical from the series optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted aryl, hetaryl, optionally substituted arylalkyl, hetarylalkyl and cyano, Y represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is optionally interrupted by heteroatoms, arylalkyl, hetarylalkyl and cyano, n represents a number 0, 1 or 2, A represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl and optionally substituted cycloalkyl and cycloalkylalkyl which are optionally interrupted by heteroatoms, T represents oxygen or an electron pair, and salts thereof. Q represents oxygen or sulphur, V represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, W represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, X represents a radical from the series optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted aryl, hetaryl, optionally substituted arylalkyl, hetarylalkyl and cyano, Y represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is optionally interrupted by heteroatoms, arylalkyl, hetarylalkyl and cyano, n represents a number 0, 1 or 2, A represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl and optionally substituted cycloalkyl and cycloalkylalkyl which are optionally interrupted by heteroatoms, T represents oxygen or an electron pair,
A stator assembly (55; 58; 60; 155; 160; 260) of a gas turbine engine comprising: a first shroud (62; 162) extending about an axis (X) to bound a flow path (FP), the first shroud defining a first shroud opening (68; 168; 268); an airfoil (55A; 58A; 66; 166; 266) including an airfoil body (66A; 166A) extending from a first end portion (66B; 166B; 266B), the first end portion (66B; 166B; 266B) received in the first shroud opening (68; 168; 268) and defining at least one airfoil opening (66D; 166D; 266D); and at least one retention clip (72; 72'; 272) including an arcuate portion (72F; 72F'; 272F) extending from a first elongated leg portion (72B; 72B'; 272B), the first elongated leg portion (72B; 72B'; 272B) and the arcuate portion (72F; 72F'; 272F) received through the at least one airfoil opening (66D; 166D; 266D) such that the at least one retention clip (72; 72'; 272) limits movement of the airfoil (55A...266) relative to the first shroud (62; 162), wherein the at least one retention clip (72; 72') includes an intermediate portion (72A; 72A') connecting the first elongated leg portion (72B; 72B') and a second elongated leg portion (72C; 72C'); characterised in that the at least one airfoil opening (66D; 166D) includes a pair of airfoil openings (66D; 166D), and the intermediate portion (72A; 72A') spans between the pair of airfoil openings (66D; 166D) when the at least one retention clip (72; 72') is located in an installed position (P5), wherein the arcuate portion (72F; 72F'; 272F) is a hook having a terminal end (T2; T2'). a first shroud (62; 162) extending about an axis (X) to bound a flow path (FP), the first shroud defining a first shroud opening (68; 168; 268); an airfoil (55A; 58A; 66; 166; 266) including an airfoil body (66A; 166A) extending from a first end portion (66B; 166B; 266B), the first end portion (66B; 166B; 266B) received in the first shroud opening (68; 168; 268) and defining at least one airfoil opening (66D; 166D; 266D); and at least one retention clip (72; 72'; 272) including an arcuate portion (72F; 72F'; 272F) extending from a first elongated leg portion (72B; 72B'; 272B), the first elongated leg portion (72B; 72B'; 272B) and the arcuate portion (72F; 72F'; 272F) received through the at least one airfoil opening (66D; 166D; 266D) such that the at least one retention clip (72; 72'; 272) limits movement of the airfoil (55A...266) relative to the first shroud (62; 162), wherein the at least one retention clip (72; 72') includes an intermediate portion (72A; 72A') connecting the first elongated leg portion (72B; 72B') and a second elongated leg portion (72C; 72C'); characterised in that the at least one airfoil opening (66D; 166D) includes a pair of airfoil openings (66D; 166D), and the intermediate portion (72A; 72A') spans between the pair of airfoil openings (66D; 166D) when the at least one retention clip (72; 72') is located in an installed position (P5), wherein the arcuate portion (72F; 72F'; 272F) is a hook having a terminal end (T2; T2').
A method for operating a security tag , comprising: - causing a plunger of the security tag to engage a latch of the security tag , the latch arranged in a housing of the security tag and adjacent to a pin channel defined in the housing and configured to removably receive a pin along a pin channel axis; - preventing, by an anti-defeat structure of the security tag , a disengagement between the plunger and the latch when an impact force is applied to the security tag ; and - allowing, by the anti-defeat structure , the plunger to disengage the latch when a magnetic field is applied to the security tag , characterized in that the anti-defeat structure comprises an impact mass that is resiliently biased towards the plunger by an impact spring , and wherein the anti-defeat structure and the plunger are movable in a direction perpendicular to the pin channel axis. - causing a plunger of the security tag to engage a latch of the security tag , the latch arranged in a housing of the security tag and adjacent to a pin channel defined in the housing and configured to removably receive a pin along a pin channel axis; - preventing, by an anti-defeat structure of the security tag , a disengagement between the plunger and the latch when an impact force is applied to the security tag ; and - allowing, by the anti-defeat structure , the plunger to disengage the latch when a magnetic field is applied to the security tag ,
An antiseptic formulation containing nanosized particles containing both silver and silver chloride, and at least one amphoteric surface-active substance wherein the at least one amphoteric surface-active substance is selected from the group consisting of carboxylic acids and their derivatives of the type I with the following common formula: and carboxylic acids and their derivatives of the type II with the following common formula: where the substituents M 1 and M 2 are selected from the group consisting of H, Na, K, NH 4 ; where a equals 1 or 2, b equals 2 or 3, c equals 1 or 2, m equals 1 or 2, n equals or is greater than 0, p equals or is greater than 0, q is greater than 0; where the substituent R 1 is selected from the group consisting of branched and unbranched saturated and unsaturated linear and cyclic hydrocarbon radicals.
A method for determining a curve radius (R3) of a trailer hitched to a traction vehicle and moved by the same, having a computer unit , which is connected to a sensor system which transmits sensor data regarding current movements of the trailer to the computer unit and which are taken into account by the computer unit when determining the curve radius (R3), wherein the measuring sensor system comprises sensors with which rotation angles and/or distances covered in a time interval of first and second wheels located on opposite first and second sides of the trailer are measured, the first sensor value from the first wheel on the first side of the trailer is offset with the second sensor value from the second wheel on the second side of the trailer in order to form a calculated value and the calculated value is computated by the computer unit taking into account a value for the track width of the first and second wheels compared to one another to form a value for the current curve radius (R3) of the trailer , characterised in that the value for the current curve radius (R3) of the trailer is computated to form a setpoint adjusting signal to an actuator , which is part of a device for steering the trailer and the device for steering the trailer comprises an angle of rotation sensor with which values for the respective current steering angle of the steering device are determined, the determined values of the angle of rotation sensor are transmitted to the computer unit , the computer unit compares the values of the angle of rotation sensor with the setpoint adjusting signals and upon a differential between the values of the angle of rotation sensor and the setpoint adjusting signal , generates a corrective value by which the setpoint adjusting signal is changed.
A method by a session management function, SMF, in a communication system, the method comprising: receiving a request message for establishing a protocol data unit, PDU, session ; deciding to perform a redundant transmission associated with a PDU session between a user plane function, UPF and a radio access network, RAN, node; transmitting, to the UPF, a session establishment request message ; receiving, from the UPF, a session establishment response message ; transmitting, to the RAN, at least two core network, CN, tunnel information for the redundant transmission ; receiving, from the RAN node, at least two access network, AN, tunnel information for the redundant transmission ; and transmitting, to the UPF, the at least two AN tunnel information , wherein the at least two CN tunnel information and the at least two AN tunnel information are used to establish at least two tunnels (R1, R2) of PDU session for the redundant transmission between the RAN node and the UPF, wherein a packet and a duplicated packet corresponding to the packet are assigned with a same sequence number and are transmitted via the at least two tunnels (R1, R2), and wherein in case that the RAN node or the UPF receives the packet and the duplicated packet, one of the packet or the duplicated packet is eliminated based on the same sequence number. receiving a request message for establishing a protocol data unit, PDU, session ; deciding to perform a redundant transmission associated with a PDU session between a user plane function, UPF and a radio access network, RAN, node; transmitting, to the UPF, a session establishment request message ; receiving, from the UPF, a session establishment response message ; transmitting, to the RAN, at least two core network, CN, tunnel information for the redundant transmission ; receiving, from the RAN node, at least two access network, AN, tunnel information for the redundant transmission ; and transmitting, to the UPF, the at least two AN tunnel information , wherein the at least two CN tunnel information and the at least two AN tunnel information are used to establish at least two tunnels (R1, R2) of PDU session for the redundant transmission between the RAN node and the UPF, wherein a packet and a duplicated packet corresponding to the packet are assigned with a same sequence number and are transmitted via the at least two tunnels (R1, R2), and wherein in case that the RAN node or the UPF receives the packet and the duplicated packet, one of the packet or the duplicated packet is eliminated based on the same sequence number.
An exhaust manifold for an additive manufacturing system, comprising: a manifold housing ; at least one baffle (109a-e) movable relative to the manifold housing configured to modify an exhaust flow area defined in part by the at least one baffle; and an actuator (113a-e) operatively connected to the at least one baffle configured to move the at least one baffle; wherein the one or more moveable baffles include a plurality of moveable baffles configured to move relative to the housing and relative to each other to modify a respective exhaust flow area; and characterized in that each of the plurality of baffles (109a-e) includes an L-shape; wherein each movable baffle (109a-e) is positioned in overlapping series with each other such that each respective exhaust flow area is defined between adjacent baffles; and wherein each moveable baffle includes a different shape and/or size compared to an adjacent baffle to fit each moveable baffle within the manifold housing . a manifold housing ; at least one baffle (109a-e) movable relative to the manifold housing configured to modify an exhaust flow area defined in part by the at least one baffle; and an actuator (113a-e) operatively connected to the at least one baffle configured to move the at least one baffle; wherein the one or more moveable baffles include a plurality of moveable baffles configured to move relative to the housing and relative to each other to modify a respective exhaust flow area; and characterized in that each of the plurality of baffles (109a-e) includes an L-shape; wherein each movable baffle (109a-e) is positioned in overlapping series with each other such that each respective exhaust flow area is defined between adjacent baffles; and wherein each moveable baffle includes a different shape and/or size compared to an adjacent baffle to fit each moveable baffle within the manifold housing .