mhurhangee/patent-ind-claim-en huggingface dataset:
A respiratory air measuring device , comprising: an inlet opening ; an outlet opening , wherein a measuring air stream is configured to flow from the inlet opening to the outlet opening; a diffuser coupled to the outlet opening, the diffuser configured to widen an air stream exiting the outlet so that the exiting air stream is barely perceptible; a connector disposed on the inlet opening, the connector configured to fasten the respiratory air measuring device directly or indirectly to a connecting opening of a covering hood ; at least one sensor device disposed downstream of the connecting opening in a flow direction of the measuring air stream, the sensor device configured to measure at least one com ponent of the respiratory air of a patient; a flow generator disposed downstream of the sensor device in the flow direction of the measuring air stream, the flow generator configured to generate the measuring air stream in a channel portion having a free cross-section between 100mm 2 and 600mm 2 and that is open to the inlet opening and to the outlet opening, the flow generator comprising: an air connection configured to supply a generator air stream with an overpressure of up to 0.5 bar; and at least one flow nozzle from which the generator air stream is configured to exit, the flow nozzle configured to affect the generator air stream flow so that the generator air stream creates the measuring air stream. an inlet opening ; an outlet opening , wherein a measuring air stream is configured to flow from the inlet opening to the outlet opening; a diffuser coupled to the outlet opening, the diffuser configured to widen an air stream exiting the outlet so that the exiting air stream is barely perceptible; a connector disposed on the inlet opening, the connector configured to fasten the respiratory air measuring device directly or indirectly to a connecting opening of a covering hood ; at least one sensor device disposed downstream of the connecting opening in a flow direction of the measuring air stream, the sensor device configured to measure at least one com ponent of the respiratory air of a patient; a flow generator disposed downstream of the sensor device in the flow direction of the measuring air stream, the flow generator configured to generate the measuring air stream in a channel portion having a free cross-section between 100mm 2 and 600mm 2 and that is open to the inlet opening and to the outlet opening, the flow generator comprising: an air connection configured to supply a generator air stream with an overpressure of up to 0.5 bar; and at least one flow nozzle from which the generator air stream is configured to exit, the flow nozzle configured to affect the generator air stream flow so that the generator air stream creates the measuring air stream. an air connection configured to supply a generator air stream with an overpressure of up to 0.5 bar; and at least one flow nozzle from which the generator air stream is configured to exit, the flow nozzle configured to affect the generator air stream flow so that the generator air stream creates the measuring air stream.
A wheelchair docking system for being coupled to a floor , comprising: a frame having an upper portion and a lower portion , the upper portion being movable relative to the lower portion between a lowered position and a raised position; a coupler mechanism configured to engage a wheelchair during a docking operation, the coupler mechanism being positioned on the upper portion ; a first latching mechanism configured to couple to a coupling device on the wheelchair , the first latching mechanism being movable between a retracted position and a latching position, the first latching mechanism spaced from the coupler mechanism ; a second latching mechanism for moving the upper portion of the frame between its lowered position and raised position, the second latching mechanism configured to prevent a wheelchair from tilting to the left or right; a first release mechanism for operably controlling movement of the first latching mechanism ; and a second release mechanism for operably controlling the second latching mechanism to move the upper portion from its lowered position to its raised position. a frame having an upper portion and a lower portion , the upper portion being movable relative to the lower portion between a lowered position and a raised position; a coupler mechanism configured to engage a wheelchair during a docking operation, the coupler mechanism being positioned on the upper portion ; a first latching mechanism configured to couple to a coupling device on the wheelchair , the first latching mechanism being movable between a retracted position and a latching position, the first latching mechanism spaced from the coupler mechanism ; a second latching mechanism for moving the upper portion of the frame between its lowered position and raised position, the second latching mechanism configured to prevent a wheelchair from tilting to the left or right; a first release mechanism for operably controlling movement of the first latching mechanism ; and a second release mechanism for operably controlling the second latching mechanism to move the upper portion from its lowered position to its raised position.
An apparatus for Internet of Things, IoT, communication, comprising: a provisioning service including one or more devices, the devices including at least one memory adapted to store run-time data for the devices, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the provisioning service to perform actions, including: receiving (6-2) an identification message, wherein the identification message includes information that is associated with identification of a first IoT device ; validating (6-3) the first IoT device, wherein validating the first IoT device includes validating a mobile provisioning application, MPA, connection of a trusted MPA device from which the identification information was received; making a determination of an IoT hub from a plurality of IoT hubs to be associated with the first IoT device based at least in part on the identification message; and causing a registration of the first IoT device with the determined IoT hub. receiving (6-2) an identification message, wherein the identification message includes information that is associated with identification of a first IoT device ; validating (6-3) the first IoT device, wherein validating the first IoT device includes validating a mobile provisioning application, MPA, connection of a trusted MPA device from which the identification information was received; making a determination of an IoT hub from a plurality of IoT hubs to be associated with the first IoT device based at least in part on the identification message; and causing a registration of the first IoT device with the determined IoT hub.
A battery pack comprising: one or more cells ; a flexible and inflatable duct positioned proximally to the surface of at least one of the one or more cells such that heat can be exchanged between the duct and at least one of the one or more cells ; and a potting means adapted to act as a support for at least a part of the duct wherein, in use, the shape of the duct partially conforms to the surface shape of the one or more cells .
A method for controlling a door arrangement comprising a door leaf which is guided in lateral guides and is, driven by a drive means , movable to and from between an open and a closed position in a door closing plane of a door opening, wherein the door arrangement comprises a safety device which monitors, at least on one side, a monitored area that is positioned in front of the door opening and displaced in parallel to the door closing plane, and which performs a failure routine when an object is detected in the monitored area and hence a collision of the object with the door leaf is immanent, wherein the current position of the object and the current position of a leading edge of the door leaf are detected, characterized in that the direction of movement of the door leaf is detected and the failure routine is initiated depending on the current position of the object and the leading edge of the door leaf as well as the direction of movement of the door leaf .
A laminate material comprising a liquid impervious, moisture vapor breathable elastic film positioned between a first material and a second material , wherein the first material comprises a nonwoven layer and the second material comprises a spunbond-meltblown-spunbond laminate, characterized in that : the elastic film , first material , and second material each include a carbon black pigment and titanium dioxide, wherein the elastic film further includes a fluorochemical additive, wherein the first material and the second material further include a slip additive, and wherein the laminate material exhibits an opacity of greater than about 98% and a light transmittance of less than about 0.1.
A method for detecting a flow time required by a fluid to flow through a measuring path from a manipulation location to a detection location spaced from the manipulation location in a flow direction of the fluid , the method comprising the steps of A) providing a flow of the fluid , B) at a first point in time, changing a nuclear magnetic or electron magnetic polarisation of the fluid at the manipulation location , C) measuring a magnetic flux density of a magnetic field emanating from the fluid due to the nuclear magnetic or electron magnetic polarisation as a function of time with a magnetometer at the detection location , and D) determining the flow time as a difference between the first point in time and a second point in time, wherein at the second point in time the change in the nuclear magnetic or electron magnetic polarisation at the manipulation location from step B) causes a change in the flux density of the magnetic field emanating from the fluid at the detection location , characterised in that the method comprises the step before step B): E) generating a nuclear magnetic or an electron magnetic polarisation of the fluid by flowing through a bias magnetisation path comprising a bias magnetic field, and wherein the method in step B) comprises the step of irradiating an electromagnetic field into the fluid at the detection location at the first point in time, and wherein the magnetometer is located in a magnetic shield , wherein in the magnetic shield without the fluid there is a magnetic field having a field strength of 10 μT or less. A) providing a flow of the fluid , B) at a first point in time, changing a nuclear magnetic or electron magnetic polarisation of the fluid at the manipulation location , C) measuring a magnetic flux density of a magnetic field emanating from the fluid due to the nuclear magnetic or electron magnetic polarisation as a function of time with a magnetometer at the detection location , and D) determining the flow time as a difference between the first point in time and a second point in time, wherein at the second point in time the change in the nuclear magnetic or electron magnetic polarisation at the manipulation location from step B) causes a change in the flux density of the magnetic field emanating from the fluid at the detection location , the method comprises the step before step B): E) generating a nuclear magnetic or an electron magnetic polarisation of the fluid by flowing through a bias magnetisation path comprising a bias magnetic field, and wherein the method in step B) comprises the step of irradiating an electromagnetic field into the fluid at the detection location at the first point in time, and wherein the magnetometer is located in a magnetic shield , wherein in the magnetic shield without the fluid there is a magnetic field having a field strength of 10 μT or less.
A lighting unit (200; 300; 310), comprising: a printed circuit board, PCB, (102; 302, 304) comprising a front surface , a back surface and at least one tab , said at least one tab being adapted to be bent in a direction away from said PCB (102; 302, 304) to form an angled surface with respect to the PCB; a plurality of light emitting elements on said PCB , said light emitting elements being positioned on said angled surface of said at least one tab when said at least one tab is bent in said direction away from said PCB; and conductors electrically connected with said PCB (102; 302, 304) to provide an electrical signal to said light emitting elements such that said light emitting elements emit light substantially away from said PCB; characterized in that at least one light emitting element is mounted on said front surface and at least one light emitting element is mounted on said back surface of said PCB (102; 302, 304). a printed circuit board, PCB, (102; 302, 304) comprising a front surface , a back surface and at least one tab , said at least one tab being adapted to be bent in a direction away from said PCB (102; 302, 304) to form an angled surface with respect to the PCB; a plurality of light emitting elements on said PCB , said light emitting elements being positioned on said angled surface of said at least one tab when said at least one tab is bent in said direction away from said PCB; and conductors electrically connected with said PCB (102; 302, 304) to provide an electrical signal to said light emitting elements such that said light emitting elements emit light substantially away from said PCB; characterized in that at least one light emitting element is mounted on said front surface and at least one light emitting element is mounted on said back surface of said PCB (102; 302, 304).
A three-dimensional printer, comprising: a hopper positioned above a movable build material support to deposit build material thereon, the moveable build material support positioned adjacent to a build platform and being moveable in a first axis; a recoater to form a layer of build material on the build platform using build material deposited on the build material support ; and a controller to: control the build material support to move in a first direction in the first axis to cause a band of build material to be distributed thereon; characterised in that the controller is to: control the recoater to move over the build platform to form a layer of build material thereon and to return any excess build material to the build material support; and control the build material support to move in a direction opposite the first direction such that any excess build material on the build material support is returned to the hopper. a hopper positioned above a movable build material support to deposit build material thereon, the moveable build material support positioned adjacent to a build platform and being moveable in a first axis; a recoater to form a layer of build material on the build platform using build material deposited on the build material support ; and a controller to: control the build material support to move in a first direction in the first axis to cause a band of build material to be distributed thereon; characterised in that the controller is to: control the recoater to move over the build platform to form a layer of build material thereon and to return any excess build material to the build material support; and control the build material support to move in a direction opposite the first direction such that any excess build material on the build material support is returned to the hopper. control the build material support to move in a first direction in the first axis to cause a band of build material to be distributed thereon; characterised in that the controller is to: control the recoater to move over the build platform to form a layer of build material thereon and to return any excess build material to the build material support; and control the build material support to move in a direction opposite the first direction such that any excess build material on the build material support is returned to the hopper. control the recoater to move over the build platform to form a layer of build material thereon and to return any excess build material to the build material support; and control the build material support to move in a direction opposite the first direction such that any excess build material on the build material support is returned to the hopper.
An aerosol generating article comprising: a shell that extends along a first axis; a material part disposed inside the shell, wherein the material part comprises a substrate for generating an aerosol and one or more inductively heatable susceptors for heating the substrate; characterised by a conductive loop that is spaced from the material part along the first axis and is configured to produce, when in the presence of an oscillating magnetic field aligned substantially along the first axis, a reverse magnetic field aligned oppositely to the oscillating magnetic field. a shell that extends along a first axis; a material part disposed inside the shell, wherein the material part comprises a substrate for generating an aerosol and one or more inductively heatable susceptors for heating the substrate; characterised by a conductive loop that is spaced from the material part along the first axis and is configured to produce, when in the presence of an oscillating magnetic field aligned substantially along the first axis, a reverse magnetic field aligned oppositely to the oscillating magnetic field.
A paper tube comprising, in the vicinity of at least one end, a tail thread wrapping groove having parallel edges along a circumferential direction perpendicular to the axis of the paper tube, the paper tube comprising a recession, the maximum width of which is greater than the width (W) of the tail thread wrapping groove and the deepest part of which is deeper than the tail thread wrapping groove (D2), over the tail thread wrapping groove or an extension of the tail thread wrapping groove, wherein the recession has a groove shape such that at least one side is greater than the width of the tail thread wrapping groove , and intersects the circumferential direction perpendicular to the axis of the paper tube, wherein the groove-shaped recession is provided orthogonally to the tail thread wrapping groove or the extension of the tail thread wrapping groove, and characterized in that the groove-shaped recession reaches an end of the paper tube. wherein the recession has a groove shape such that at least one side is greater than the width of the tail thread wrapping groove , and intersects the circumferential direction perpendicular to the axis of the paper tube, wherein the groove-shaped recession is provided orthogonally to the tail thread wrapping groove or the extension of the tail thread wrapping groove, and characterized in that the groove-shaped recession reaches an end of the paper tube.
A phase analyzer comprising: a data acquisition unit that is configured to acquire spectrum imaging data in which a position on a sample (S) is associated with a spectrum of a signal from the sample (S); a phase analysis unit that is configured to perform phase analysis based on the spectrum imaging data; a display control unit that is configured to display results of the phase analysis on a first screen ; and a condition reception unit that is configured to receive an instruction from a user to change a condition for the phase analysis, when the condition reception unit has received the instruction to change the condition, the phase analysis unit is configured to perform phase analysis under the changed condition, characterised in that the display control unit is configured to display on a second screen the results of the phase analysis performed under the changed condition whilst the first screen displays the results of the phase analysis made under the condition before the change, the display control unit is configured to display on the first screen the results of the phase analysis displayed on the second screen when a first operation has been performed by the user on the second screen , and the display control unit is configured to close the second screen and cause the first screen to display the results of the phase analysis made under the condition before the change, the results of the phase analysis made under the changed condition being discarded, when a second operation has been performed by the user on the second screen . a data acquisition unit that is configured to acquire spectrum imaging data in which a position on a sample (S) is associated with a spectrum of a signal from the sample (S); a phase analysis unit that is configured to perform phase analysis based on the spectrum imaging data; a display control unit that is configured to display results of the phase analysis on a first screen ; and a condition reception unit that is configured to receive an instruction from a user to change a condition for the phase analysis, when the condition reception unit has received the instruction to change the condition, the phase analysis unit is configured to perform phase analysis under the changed condition, characterised in that the display control unit is configured to display on a second screen the results of the phase analysis performed under the changed condition whilst the first screen displays the results of the phase analysis made under the condition before the change, the display control unit is configured to display on the first screen the results of the phase analysis displayed on the second screen when a first operation has been performed by the user on the second screen , and the display control unit is configured to close the second screen and cause the first screen to display the results of the phase analysis made under the condition before the change, the results of the phase analysis made under the changed condition being discarded, when a second operation has been performed by the user on the second screen .
A communication device for handling a hybrid automatic repeat request, hereafter referred to as HARQ, transmission, the communication device comprising: a storage unit, for storing instructions of: performing a first downlink, hereafter referred to as DL, reception in a first subframe from a serving cell ; and transmitting a first HARQ feedback in a second subframe to the serving cell in response to the first DL reception, wherein the second subframe is determined according to the first subframe and a sum of a predetermined timing and a first HARQ timing ; wherein the predetermined timing is a fixed value stored in the communication device, or is configured by the serving cell; wherein the first HARQ timing is dynamically or semi-statically configured; and a processing circuit, coupled to the storage unit, configured to execute the instructions stored in the storage unit. performing a first downlink, hereafter referred to as DL, reception in a first subframe from a serving cell ; and transmitting a first HARQ feedback in a second subframe to the serving cell in response to the first DL reception, wherein the second subframe is determined according to the first subframe and a sum of a predetermined timing and a first HARQ timing ; wherein the predetermined timing is a fixed value stored in the communication device, or is configured by the serving cell; wherein the first HARQ timing is dynamically or semi-statically configured; and a processing circuit, coupled to the storage unit, configured to execute the instructions stored in the storage unit.
A biosensor for detecting and quantifying fluorescently-labeled biomolecules ; said biosensor comprising a nanochannel defined between two substrates and containing one or more selectively functionalized areas on which are immobilized biomarkers , said nanochannel further defined by a lateral input aperture and a lateral output aperture , said input aperture being designed to allow a solution containing biomolecules to enter said nanochannel characterized in that said output aperture contains or is in contact with a driving component adapted to absorb said solution through said nanochannel by capillarity.