mhurhangee/patent-ind-claim-en huggingface dataset:
A mouthpiece for an aerosol-generating device, wherein the mouthpiece comprises: • an inlet portion configured for receiving an aerosol, • an outlet portion configured for outflow of the aerosol, and • an airflow path connecting the inlet portion and the outlet portion , wherein the airflow path comprises an inner wall ,wherein the inner wall of the airflow path is at least partially lined with a capillary material , and wherein the capillarity of the capillary material increases towards the inlet portion , and wherein the capillary material is a woven fiber tube. • an inlet portion configured for receiving an aerosol, • an outlet portion configured for outflow of the aerosol, and • an airflow path connecting the inlet portion and the outlet portion , wherein the airflow path comprises an inner wall ,wherein the inner wall of the airflow path is at least partially lined with a capillary material , and wherein the capillarity of the capillary material increases towards the inlet portion , and wherein the capillary material is a woven fiber tube.
Industrial truck , comprising a frame and at least one support roller unit , comprising • at least one non-driven support roller having a substantially horizontally extending roller axis (A), • a pivot bearing having a substantially vertically extending axis of rotation (B), the roller axis (A) and the axis of rotation (B) being arranged spaced apart from one another at a predetermined spacing (D), the pivot bearing is designed as an annular pivot bearing having an outer bearing element and an inner bearing element that is rotatable relative to the outer bearing element , about the axis of rotation (B), an axle pin of the at least one non-driven support roller is mounted indirectly or directly on the inner bearing element of the pivot bearing , and the pivot bearing is arranged at least in part within the height extension (H) of the at least one non-driven support roller , characterised in that the pivot bearing is arranged completely within the height extension (H) of the at least one non-driven support roller , and in that the fastening points which are provided for fastening the support roller unit on the frame of the industrial truck are arranged within the height extension (H) of the at least one support roller . • at least one non-driven support roller having a substantially horizontally extending roller axis (A), • a pivot bearing having a substantially vertically extending axis of rotation (B), the roller axis (A) and the axis of rotation (B) being arranged spaced apart from one another at a predetermined spacing (D), the pivot bearing is designed as an annular pivot bearing having an outer bearing element and an inner bearing element that is rotatable relative to the outer bearing element , about the axis of rotation (B), an axle pin of the at least one non-driven support roller is mounted indirectly or directly on the inner bearing element of the pivot bearing , and the pivot bearing is arranged at least in part within the height extension (H) of the at least one non-driven support roller , characterised in that the pivot bearing is arranged completely within the height extension (H) of the at least one non-driven support roller , and in that the fastening points which are provided for fastening the support roller unit on the frame of the industrial truck are arranged within the height extension (H) of the at least one support roller .
A nicotinyl alcohol ether derivative of Formula (I): or a stereoisomer or a pharmaceutically acceptable salt thereof, wherein: R 1 is selected from R 3 is selected from substituted C 1 -C 8 saturated alkylamino, substituted C 2 -C 6 unsaturated alkylamino, substituted N-containing C 2 -C 6 heterocycle-1-yl, wherein each is mono-, di-, tri-, or tetra-substituted with substituent(s) selected from fluorine, chlorine, bromine, iodine, hydroxy, C 1 -C 5 alkyl, C 1 -C 5 alkoxy, amino, C 1 -C 6 alkylamino, acetylamino, cyano, ureido (-NH(C=O)NH 2 ), guanidino (-NH(C=NH)NH 2 ), ureido amino (-NH-NH(C=O)NH 2 ), guanidino amino (-NH-NH(C=NH)NH 2 ), sulfonylamino (-NHSO 3 H), sulfamoyl (-SO 2 NH 2 ), methanesulfonylamino (-NH-SO 2 CH 3 ), hydroxyformyl (-COOH), C 1 -C 8 alkoxyl carbonyl, sulfydryl, imidazolyl, thiazolyl, oxazolyl, tetrazolyl, X is selected from hydrogen, fluorine, chlorine, bromine, iodine, C 1 -C 4 alkyl, ethenyl, trifluoromethyl, methoxy.
A catheter system comprising: a delivery catheter assembly comprising: a main body having a proximal end portion and a distal end portion ; a delivery catheter sheath projecting distally from the distal end portion of the main body ; an inner core configured to a support a stent thereon, the inner core being axially advanceable through the main body of the delivery catheter assembly and the delivery catheter sheath ; a handle member supported by the main body of the delivery catheter assembly , the delivery catheter assembly being configured such that the handle member and the inner core move together in an axial direction when the handle member is connected to the inner core ; and an adjustment member supported by the main body , the adjustment member being configured such that rotation of the adjustment member causes the adjustment member to move axially along the main body ; wherein the handle member is axially moveable along the main body of the delivery catheter assembly between the distal end portion of the main body and the adjustment member by either axially sliding the handle member relative to the main body or by rotating the adjustment member relative to the main body when the adjustment member is rotated to provide an axial contact force with the handle member ; and wherein the main body comprises a slot configured to receive a protruding portion of the handle member . a main body having a proximal end portion and a distal end portion ; a delivery catheter sheath projecting distally from the distal end portion of the main body ; an inner core configured to a support a stent thereon, the inner core being axially advanceable through the main body of the delivery catheter assembly and the delivery catheter sheath ; a handle member supported by the main body of the delivery catheter assembly , the delivery catheter assembly being configured such that the handle member and the inner core move together in an axial direction when the handle member is connected to the inner core ; and an adjustment member supported by the main body , the adjustment member being configured such that rotation of the adjustment member causes the adjustment member to move axially along the main body ; wherein the handle member is axially moveable along the main body of the delivery catheter assembly between the distal end portion of the main body and the adjustment member by either axially sliding the handle member relative to the main body or by rotating the adjustment member relative to the main body when the adjustment member is rotated to provide an axial contact force with the handle member ; and wherein the main body comprises a slot configured to receive a protruding portion of the handle member .
A metrology system for monitoring radio frequency (RF) power at a plurality of locations in a circuit, comprising: a plurality of sense channels (20-1, 62-1, 64-11/64-12; 20-2, 62-2, 64-21/64-22) that each is configured to generate an output signal based on an electrical property of the RF power at one of the locations in the circuit, each sense channel comprising: a RF sensor (20-1, 20-2) that is configured to generate a first signal based on the electrical property of the RF power; an oscillator (62-1, 62-2) that is configured to generate a periodic signal; and a mixer module (64-11/64-12, 64-21/64-22) that is configured to mix the first signal with the periodic signal to generate the output signal for the sense channel; and a RF combiner module that is configured to receive the output signal from each sense channel from the mixer module and is configured to generate a second output signal based on the plurality of output signals from the sense channels. a RF sensor (20-1, 20-2) that is configured to generate a first signal based on the electrical property of the RF power; an oscillator (62-1, 62-2) that is configured to generate a periodic signal; and a mixer module (64-11/64-12, 64-21/64-22) that is configured to mix the first signal with the periodic signal to generate the output signal for the sense channel; and a RF combiner module that is configured to receive the output signal from each sense channel from the mixer module and is configured to generate a second output signal based on the plurality of output signals from the sense channels.
A flow measurement sensing device comprising: a first venturi comprising a first shield portion ; an elongated portion connected to an outer surface of the first venturi ; a second venturi housed within the first venturi , the second venturi comprising: a second shield portion ; and at least one passageway inlet ; and a first integral passageway extending from the at least one passageway inlet through the elongated portion ; wherein the first venturi and the second venturi are configured to sample portions of an airflow (F); characterized in that : the first integral passageway comprises: a first tapered segment beginning at and in the region adjacent the passageway inlet , the first tapered segment having a first cross-sectional shape; and a second segment having a second cross-sectional shape; wherein the first cross-sectional shape of the first segment is an ellipse or a rectangle; wherein a long axis of the first cross-sectional shape extends in a direction perpendicular to the airflow (F); and wherein the second cross-sectional shape of the second segment is a circle. a first venturi comprising a first shield portion ; an elongated portion connected to an outer surface of the first venturi ; a second venturi housed within the first venturi , the second venturi comprising: a second shield portion ; and at least one passageway inlet ; and a second shield portion ; and at least one passageway inlet ; and a first integral passageway extending from the at least one passageway inlet through the elongated portion ; wherein the first venturi and the second venturi are configured to sample portions of an airflow (F); characterized in that : the first integral passageway comprises: a first tapered segment beginning at and in the region adjacent the passageway inlet , the first tapered segment having a first cross-sectional shape; and a second segment having a second cross-sectional shape; wherein the first cross-sectional shape of the first segment is an ellipse or a rectangle; wherein a long axis of the first cross-sectional shape extends in a direction perpendicular to the airflow (F); and wherein the second cross-sectional shape of the second segment is a circle. the first integral passageway comprises: a first tapered segment beginning at and in the region adjacent the passageway inlet , the first tapered segment having a first cross-sectional shape; and a second segment having a second cross-sectional shape; wherein the first cross-sectional shape of the first segment is an ellipse or a rectangle; wherein a long axis of the first cross-sectional shape extends in a direction perpendicular to the airflow (F); and wherein the second cross-sectional shape of the second segment is a circle.
An upper comprising: an upper main body configured to cover an instep of a foot, wherein a first region and a second region adjacent to the first region are formed in the upper main body , the upper main body includes: a plurality of first linear bodies provided across the first region and the second region or provided in the second region and not in the first region ; and a plurality of second linear bodies provided in the first region while avoiding the second region and having an end located at a boundary portion between the first region and the second region , the first linear bodies have different stretchability than the second linear bodies , the upper main body further comprises a plurality of reference linear bodies , the plurality of first linear bodies and the plurality of second linear bodies extend in one of a fore-rear direction or a foot-width direction, and the plurality of reference linear bodies extend in the other of the fore-rear direction or the foot-width direction, the plurality of first linear bodies alternately pass the front side and back side of the reference linear bodies in the first region and second region or in the second region and not in the first region , and the plurality of second linear bodies alternately pass the front side and back side of the reference linear bodies in the first region . an upper main body configured to cover an instep of a foot, wherein a first region and a second region adjacent to the first region are formed in the upper main body , the upper main body includes: a plurality of first linear bodies provided across the first region and the second region or provided in the second region and not in the first region ; and a plurality of second linear bodies provided in the first region while avoiding the second region and having an end located at a boundary portion between the first region and the second region , the first linear bodies have different stretchability than the second linear bodies , the upper main body further comprises a plurality of reference linear bodies , the plurality of first linear bodies and the plurality of second linear bodies extend in one of a fore-rear direction or a foot-width direction, and the plurality of reference linear bodies extend in the other of the fore-rear direction or the foot-width direction, the plurality of first linear bodies alternately pass the front side and back side of the reference linear bodies in the first region and second region or in the second region and not in the first region , and the plurality of second linear bodies alternately pass the front side and back side of the reference linear bodies in the first region .
A method performed by an electronic device for establishing a communication link between the electronic device and a further electronic device, comprising: transmitting to the further electronic device a handover request message via an NFC link for requesting formation of communication between the electronic device and the further electronic device using an alternative carrier for at least one alternative communication link, wherein the handover request message includes a provision for collision resolution information; and receiving a handover select message from the further electronic device via the NFC link, wherein the handover select message includes a provision for power condition information of the alternative carriers provided by the further electronic device. transmitting to the further electronic device a handover request message via an NFC link for requesting formation of communication between the electronic device and the further electronic device using an alternative carrier for at least one alternative communication link, wherein the handover request message includes a provision for collision resolution information; and receiving a handover select message from the further electronic device via the NFC link, wherein the handover select message includes a provision for power condition information of the alternative carriers provided by the further electronic device.
An automated aerodrome lighting control system for an aircraft, comprising: a communication radio configured to selectively transmit radio frequency signals, i.e. RF signals; an aerodrome lighting data source configured to at least selectively supply aerodrome lighting data representative of light control characteristics of aerodrome lighting associated with individual aerodromes; a camera mounted on the aircraft and having a field of view, the camera configured to capture images of the aerodrome lighting within its field of view and supply image data representative of an intensity of light transmitted from the aerodrome lighting within its field of view; and a processor in operable communication with the aerodrome lighting data source, the camera, and the communication radio, the processor configured to: retrieve, from the aerodrome lighting data source, aerodrome lighting data associated with an individual aerodrome, process the image data supplied from the camera, and command the communication radio to transmit RF signals consistent with the light control characteristics associated with the individual aerodrome and based on the image data supplied from the camera. a communication radio configured to selectively transmit radio frequency signals, i.e. RF signals; an aerodrome lighting data source configured to at least selectively supply aerodrome lighting data representative of light control characteristics of aerodrome lighting associated with individual aerodromes; a camera mounted on the aircraft and having a field of view, the camera configured to capture images of the aerodrome lighting within its field of view and supply image data representative of an intensity of light transmitted from the aerodrome lighting within its field of view; and a processor in operable communication with the aerodrome lighting data source, the camera, and the communication radio, the processor configured to: retrieve, from the aerodrome lighting data source, aerodrome lighting data associated with an individual aerodrome, process the image data supplied from the camera, and command the communication radio to transmit RF signals consistent with the light control characteristics associated with the individual aerodrome and based on the image data supplied from the camera. retrieve, from the aerodrome lighting data source, aerodrome lighting data associated with an individual aerodrome, process the image data supplied from the camera, and command the communication radio to transmit RF signals consistent with the light control characteristics associated with the individual aerodrome and based on the image data supplied from the camera.
A packaging including a second tub stacked onto a first tub along a central vertical axis (A), and a spacer structure arranged between the first tub and the second tub stacked onto each other along the central vertical axis (A), said first tub and said second tub being configured for the transport or storage of a plurality of medical containers such as syringes, wherein the spacer structure comprises: a central portion , supporting arms outwardly extending from said central portion , said supporting arms and said central portion being configured to be located between a cover film of the first tub and a bottom of the second tub ; wherein the supporting arms comprise first maintaining means configured to prevent radial displacements of the first tub relative to the spacer structure ; and second maintaining means configured to prevent radial displacements of the second tub relative to the spacer structure . a central portion , supporting arms outwardly extending from said central portion , said supporting arms and said central portion being configured to be located between a cover film of the first tub and a bottom of the second tub ; wherein the supporting arms comprise first maintaining means configured to prevent radial displacements of the first tub relative to the spacer structure ; and second maintaining means configured to prevent radial displacements of the second tub relative to the spacer structure .
Method for detecting and measuring objects when passing a monitored area , method for which - a first block of emitters placed on a first edge of the monitored area includes, for the flat emission of preferably electromagnetic radiation, an emitting unit that has a multitude of emitting elements and - a first block of receivers (31,), placed on a second edge of the monitored area opposite to the first edge, that includes a receiving unit with a multitude of receiving elements , that detects radiation emitted by the block of emitters , wherein - the first block of emitters and the first block of receivers generate a first flat substantially homogeneous sensing area that forms the monitored area and - a control unit that is connected with the first block of emitters and the first block of receivers for the control thereof, wherein the radiation emitted by an emitting element is received by a multitude of receiving elements and that the radiation received by a receiving element has been emitted by a multitude of emitting elements, and the control unit detects from the change caused by an object when passing the sensing area the projected extension at different times, while the object passes the sensing area , characterized in that all the emitting elements are operated synchronously, and two slot apertures are respectively provided in the block of emitters between the emitting elements and the radiation exit as well as in the block of receivers between the radiation entry and the receiving elements, with the aim of forming a flat sensing area. - a first block of emitters placed on a first edge of the monitored area includes, for the flat emission of preferably electromagnetic radiation, an emitting unit that has a multitude of emitting elements and - a first block of receivers (31,), placed on a second edge of the monitored area opposite to the first edge, that includes a receiving unit with a multitude of receiving elements , that detects radiation emitted by the block of emitters , wherein - the first block of emitters and the first block of receivers generate a first flat substantially homogeneous sensing area that forms the monitored area and - a control unit that is connected with the first block of emitters and the first block of receivers for the control thereof, wherein the radiation emitted by an emitting element is received by a multitude of receiving elements and that the radiation received by a receiving element has been emitted by a multitude of emitting elements, and the control unit detects from the change caused by an object when passing the sensing area the projected extension at different times, while the object passes the sensing area , characterized in that all the emitting elements are operated synchronously, and two slot apertures are respectively provided in the block of emitters between the emitting elements and the radiation exit as well as in the block of receivers between the radiation entry and the receiving elements, with the aim of forming a flat sensing area.