mhurhangee/patent-ind-claim-en huggingface dataset:
An case for accommodating an electronic cigarette, comprising: a housing main body ; and a rotation door mechanism arranged on the housing main body ; wherein the housing main body comprises a housing top face and a housing bottom face opposite to each other, and at least one first housing side face which is arc-shaped with a certain radian, an opening is formed in the first housing side face for picking and placing the electronic cigarette; the rotation door mechanism at least comprises a rotation door which has an arc-shaped surface matching with the radian of the arc-shaped first housing side face , for covering the opening , and the rotation door is rotatable along an arc plane defined by the radian thereof to expose the opening so that the electronic cigarette is allowed to be taken out of the case or put into the case, both ends of which are oriented to the housing top face and the housing bottom face respectively; characterized in that , the rotation door mechanism further comprises a push button , a first slide slot which is arc-shaped is formed in the housing top face , and the push button passes through the first slide slot and is inserted into a push-button fixing hole of the rotation door such that the push button is fixed on the rotation door , and the push button is slidable along the first slide slot to drive the rotation door to slide along the first slide slot . a housing main body ; and a rotation door mechanism arranged on the housing main body ; wherein the housing main body comprises a housing top face and a housing bottom face opposite to each other, and at least one first housing side face which is arc-shaped with a certain radian, an opening is formed in the first housing side face for picking and placing the electronic cigarette; the rotation door mechanism at least comprises a rotation door which has an arc-shaped surface matching with the radian of the arc-shaped first housing side face , for covering the opening , and the rotation door is rotatable along an arc plane defined by the radian thereof to expose the opening so that the electronic cigarette is allowed to be taken out of the case or put into the case, both ends of which are oriented to the housing top face and the housing bottom face respectively; characterized in that , the rotation door mechanism further comprises a push button , a first slide slot which is arc-shaped is formed in the housing top face , and the push button passes through the first slide slot and is inserted into a push-button fixing hole of the rotation door such that the push button is fixed on the rotation door , and the push button is slidable along the first slide slot to drive the rotation door to slide along the first slide slot .
A post comprising a first tube (T1) and a second tube (T2), with the first tube (T1) fixed to a structure, the tubes (T1, T2) being connected by a shock absorption device, the shock absorption device comprising an elastic return member with a first part and a second part , characterized in that the first part and second part are inserted respectively into the first tube (T1) and the second tube (T2), and secured by fastening means providing radial support inside the first tube (T1) and the second tube (T2), the fastening means comprising elastomer parts and two plates positioned on either side of each elastomer part and connected by a screw-nut system , which when tightened, draws the two plates together to compress the elastomer parts and expand them radially, with the second part including at least one opening leading to the fastening means of the first part .
Vehicle heating device, comprising: - a heating device housing , wherein the heating device housing defines an air flow space for air to be heated and has an inlet area for the inlet of air into the air flow space and an outlet area for the outlet of air from the air flow space , - a burner chamber assembly unit to be fed with combustion air and fuel in the heating device housing , - a heat exchanger area with a heat exchanger housing , which is elongated in the direction of a housing longitudinal axis (L) and around which air flowing in the air flow space can flow on an outer side , wherein heat transfer ribs are provided on the outer side of the heat exchanger housing , wherein the heating device housing has a housing circumferential wall and an outlet front wall area adjacent to the housing circumferential wall , wherein the housing circumferential wall is at least in an area surrounding the heat exchanger housing formed essentially cylindrical and the outlet front wall area is formed conically tapering at least in some areas, wherein the heat transfer ribs have a longitudinal edge extending along the housing circumferential wall and a radial edge extending along the outlet front wall area , wherein in at least one heat transfer rib the radial edge has a first radial edge area adjacent to the longitudinal edge in the radially outward direction and a second radial edge area adjacent to the first radial edge area in the radially inward direction and essentially oriented at right angles to the housing longitudinal axis (L) and wherein a distance of the radial edge from the outlet front wall area changes from radially outwards to radially inwards in at least some areas, characterized in that in the at least one heat transfer rib the distance of the radial edge from the outlet front wall area in the first radial edge area increases at least in the section extending along the conically tapering area of the outlet front wall area in the flow direction and in that the longitudinal edge has an essentially constant distance to the housing circumferential wall in the direction of the housing longitudinal axis (L). - a heating device housing , wherein the heating device housing defines an air flow space for air to be heated and has an inlet area for the inlet of air into the air flow space and an outlet area for the outlet of air from the air flow space , - a burner chamber assembly unit to be fed with combustion air and fuel in the heating device housing , - a heat exchanger area with a heat exchanger housing , which is elongated in the direction of a housing longitudinal axis (L) and around which air flowing in the air flow space can flow on an outer side , wherein heat transfer ribs are provided on the outer side of the heat exchanger housing ,
A pneumatically-actuated valve comprising a spring member that applies an axial force to a shaft connected to a valve body , in an axial direction of the shaft , and a valve-actuating pressure chamber that actuates the valve body by applying a force resisting the axial force to the shaft , wherein the spring member and the valve-actuating pressure chamber are provided inside a valve casing ; the pneumatically-actuated valve further comprising an axial-force adjusting device that has a plurality of screw members provided to be inserted through the valve casing and a ring-shaped spring retainer provided inside the valve casing and contacting one end of each of the plurality of screw members , and adjusts the magnitude of energy stored in the spring member , via the plurality of screw members , from the outside of the valve casing ; wherein the spring member is disposed around an axis of the shaft ; wherein the plurality of the screw members are arranged at regular intervals in a circumferential direction of the spring member ; wherein a spring accommodating chamber that is airtightly partitioned off from the valve-actuating pressure chamber and accommodates the spring member is provided inside the valve casing ; characterized in that the screw members are threadedly engaged with screw holes that allow the outside of the valve casing and the spring accommodating chamber to communicate with each other therethrough; and in that the pneumatically-actuated valve further comprises a gas purge port that allows a purge gas to be introduced into the spring accommodating chamber therethrough so as to gas-purge the inside of the spring accommodating chamber via a gap between the screw members and the screw holes .
A gripping device comprising: a bag-shaped gripping body made of an elastic material , the gripping body being configured to be connected to a vacuum port and including: a palm portion ; and a plurality of finger portions protruding from a periphery of the palm portion and configured to fall toward the palm portion upon deforming the palm portion in a thickness direction by sucking air out of the gripping body and reducing the pressure in the gripping body ; a plurality of elastic portions respectively provided in the plurality of finger portions , each of the plurality of elastic portions having a shape of each of the plurality of finger portions ; and a shape holding portion provided in the bag-shaped gripping body to prevent contraction of an outer periphery of the palm portion , characterized in that the shape holding portion includes: a guide bore configured to receive the palm portion when being deformed; and a curved portion provided on an outer side of a distal end in an axial direction of the guide bore and facing the plurality of finger portions . a bag-shaped gripping body made of an elastic material , the gripping body being configured to be connected to a vacuum port and including: a palm portion ; and a plurality of finger portions protruding from a periphery of the palm portion and configured to fall toward the palm portion upon deforming the palm portion in a thickness direction by sucking air out of the gripping body and reducing the pressure in the gripping body ; a palm portion ; and a plurality of finger portions protruding from a periphery of the palm portion and configured to fall toward the palm portion upon deforming the palm portion in a thickness direction by sucking air out of the gripping body and reducing the pressure in the gripping body ; a plurality of elastic portions respectively provided in the plurality of finger portions , each of the plurality of elastic portions having a shape of each of the plurality of finger portions ; and a shape holding portion provided in the bag-shaped gripping body to prevent contraction of an outer periphery of the palm portion , characterized in that the shape holding portion includes: a guide bore configured to receive the palm portion when being deformed; and a curved portion provided on an outer side of a distal end in an axial direction of the guide bore and facing the plurality of finger portions . a guide bore configured to receive the palm portion when being deformed; and a curved portion provided on an outer side of a distal end in an axial direction of the guide bore and facing the plurality of finger portions .
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station , configuration information for a channel state information reference signal, CSI-RS, the configuration information including information on a number of CSI-RS antenna ports, a type of code division multiplexing, CDM, and indices of a plurality of CSI-RS configurations, wherein a CSI-RS configuration is associated with locations of CSI-RS resource elements, REs, of the CSI-RS configuration; receiving, from the base station, the CSI-RS based on the configuration information for the CSI-RS; obtaining channel state information, CSI, based on the received CSI-RS; and transmitting, to the base station, the CSI, wherein in case that the number of CSI-RS antenna ports is 24 or 32 and the type of CDM is CDM-8, the CSI-RS is based on a plurality of CDM-8 groups, and wherein 8 REs for a CDM-8 group among the plurality of CDM-8 groups are identified by aggregating 2 REs derived from each of the 4 CSI-RS configurations indicated by the indices of the plurality of CSI-RS configurations or 4 REs derived from each of 2 CSI-RS configurations indicated by the indices of the plurality of CSI-RS configurations. receiving, from a base station , configuration information for a channel state information reference signal, CSI-RS, the configuration information including information on a number of CSI-RS antenna ports, a type of code division multiplexing, CDM, and indices of a plurality of CSI-RS configurations, wherein a CSI-RS configuration is associated with locations of CSI-RS resource elements, REs, of the CSI-RS configuration; receiving, from the base station, the CSI-RS based on the configuration information for the CSI-RS; obtaining channel state information, CSI, based on the received CSI-RS; and transmitting, to the base station, the CSI, wherein in case that the number of CSI-RS antenna ports is 24 or 32 and the type of CDM is CDM-8, the CSI-RS is based on a plurality of CDM-8 groups, and wherein 8 REs for a CDM-8 group among the plurality of CDM-8 groups are identified by aggregating 2 REs derived from each of the 4 CSI-RS configurations indicated by the indices of the plurality of CSI-RS configurations or 4 REs derived from each of 2 CSI-RS configurations indicated by the indices of the plurality of CSI-RS configurations.
An edge computing gateway for authenticating establishment of an ad-hoc communication link between at least two communication devices , in particular cars, in a communication network , in particular a 5G communication network, the edge computing gateway comprising: a communication interface configured to communicate over respective communication links with the at least two communication devices ; a processor configured to authenticate the at least two communication devices over the respective communication links based on an authentication procedure that meets real-time requirements with respect to communication latency, wherein the authentication procedure that meets real-time requirements with respect to communication latency is based on a message exchange between the edge computing gateway and the at least two communication devices , wherein the message exchange is completed within a time interval in which the at least two communication devices , in particular the at least two cars, have not yet moved outside a pre-defined area; and a key generator configured to generate a cryptographic key associated with the at least two communication devices ; wherein the communication interface is configured to transmit the cryptographic key to a respective communication device of the at least two communication devices in response to the authentication of the respective communication device. a communication interface configured to communicate over respective communication links with the at least two communication devices ; a processor configured to authenticate the at least two communication devices over the respective communication links based on an authentication procedure that meets real-time requirements with respect to communication latency, wherein the authentication procedure that meets real-time requirements with respect to communication latency is based on a message exchange between the edge computing gateway and the at least two communication devices , wherein the message exchange is completed within a time interval in which the at least two communication devices , in particular the at least two cars, have not yet moved outside a pre-defined area; and a key generator configured to generate a cryptographic key associated with the at least two communication devices ; wherein the communication interface is configured to transmit the cryptographic key to a respective communication device of the at least two communication devices in response to the authentication of the respective communication device.
A conjugate of formula I: L-(D L ) p (I) wherein L is a Ligand unit, D is a Drug Linker unit of formula II: wherein p is an integer of from 1 to 20.
A heat exchanger system, comprising: a plurality of fins arranged to form flow passages for a first fluid along an air flow direction, the fins each having a leading edge and a trailing edge , a direction in which the fins are arranged is defined as a height direction; a direction parallel to the leading edge 106 is defined as a row direction; and a direction perpendicular to the height direction and the row direction is defined as the air flow direction; and an additively manufactured heat transfer tube that extends through said plurality of fins transverse to the air flow direction, said additively manufactured heat transfer tube follows a serpentine path through said plurality of fins to communicate a second fluid and form a cross-flow heat exchanger. a plurality of fins arranged to form flow passages for a first fluid along an air flow direction, the fins each having a leading edge and a trailing edge , a direction in which the fins are arranged is defined as a height direction; a direction parallel to the leading edge 106 is defined as a row direction; and a direction perpendicular to the height direction and the row direction is defined as the air flow direction; and an additively manufactured heat transfer tube that extends through said plurality of fins transverse to the air flow direction, said additively manufactured heat transfer tube follows a serpentine path through said plurality of fins to communicate a second fluid and form a cross-flow heat exchanger.
Treatment device for treating containers , such as, in particular cans, barrels, or keg containers, comprising at least two mutually opposing treatment positions (BP1, BP2), each located laterally next to a transport device , in which the containers can be treated, as well as at least one motor driven transfer device , provided in the region of the treatment device , for transferring the containers from the transport device to at least one of the two opposing treatment positions (BP1, BP2) and back onto the at least one transport device , wherein the treatment device is configured at its at least two treatment positions (BP1, BP2) for the interior cleaning and/or for the filling of the containers , and/or for the sterilising of the containers , and comprises a machine frame , in which the treatment positions (BP1, BP2) are arranged, and wherein the at least one transfer device comprises at least three displacement arms for transferring the containers , which are arranged transversely to the transport direction (A) and are configured to be displaceable independently of one another by means of a motor in such a way that, for transferring the respective container , in each case two of the three displacement arms can be moved to come in contact with at least two essentially mutually opposed bearing points (A1, A2) on the outer surface of the corresponding container , and can be displaced synchronously with one another.
An obliteration catheter to controllably cut or damage internal areas of walls of a blood vessel comprising a cutting element, an insertion tube and an inner tube, wherein said cutting element comprises a springy resilient cutting element consisting of a sleeve and profiled longitudinal arms with sharp endings , whereas said longitudinal arms protrude from said sleeve , characterised in that said inner tube has a distal atraumatic tip , wherein said longitudinal arms are directed towards said atraumatic tip , wherein the cutting element is mounted on an assembly of the inner tube, proximally from said atraumatic distal tip .
A kinetic response system for measuring analyte presence on a chemical sensor element comprising: a chemical sensor element comprising one or more discrete binding detectors, each discrete binding detector comprising a graphene varactor; a measurement circuit comprising an excitation voltage generator configured to generate a series of excitation cycles over a time period, wherein each excitation cycle includes delivering a DC bias voltage to the discrete binding detectors at multiple discrete DC bias voltage values across a range of DC bias voltages; and a capacitance sensor configured to measure capacitance of the discrete binding detectors resulting from the excitation cycles; and a controller circuit, characterised in that said controller circuit is configured to determine the kinetics of change in at least one of a measured capacitance value and a calculated value based on the measured capacitance over the time period. a chemical sensor element comprising one or more discrete binding detectors, each discrete binding detector comprising a graphene varactor; a measurement circuit comprising an excitation voltage generator configured to generate a series of excitation cycles over a time period, wherein each excitation cycle includes delivering a DC bias voltage to the discrete binding detectors at multiple discrete DC bias voltage values across a range of DC bias voltages; and a capacitance sensor configured to measure capacitance of the discrete binding detectors resulting from the excitation cycles; and a controller circuit, characterised in that said controller circuit is configured to determine the kinetics of change in at least one of a measured capacitance value and a calculated value based on the measured capacitance over the time period.
Method for detecting a state of a fluid within a microfluidic plate using at least one sensor for detecting a state of a fluid within a microfluidic plate , comprising at least a first planar electrode and a second planar electrode arranged parallel to one another so as to form an electric capacitor , wherein the first planar electrode and the second planar electrode are configured to generate an electric field within the fluid, wherein the sensor is configured to detect the state of the fluid by means of a capacitance of the electric capacitor , the method comprising - providing a microfluidic plate , the microfluidic plate being a multiwell plate comprising a plurality of wells , - arranging the sensor above the multiwell plate with respect to a direction of gravity, - filling a fluid into at least one well , - generating an electric field within the fluid, and - detecting the state of the fluid by means of a capacitance of the electric capacitor , wherein the method further comprises detecting the presence or absence of a sealing foil sealing the well . - providing a microfluidic plate , the microfluidic plate being a multiwell plate comprising a plurality of wells , - arranging the sensor above the multiwell plate with respect to a direction of gravity, - filling a fluid into at least one well , - generating an electric field within the fluid, and - detecting the state of the fluid by means of a capacitance of the electric capacitor , wherein the method further comprises detecting the presence or absence of a sealing foil sealing the well .