mhurhangee/patent-ind-claim-en huggingface dataset:
An inhaler for delivering medication to a user, the inhaler comprising: a main body having a mouthpiece and a mouthpiece cover ; a slider at least partially disposed within the main body; and an electronics module having a switch ; wherein the electronics module is configured to be in an off state prior to a user moving the mouthpiece cover to expose the mouthpiece for the first time; wherein, when the mouthpiece cover is moved to expose the mouthpiece, the slider is configured to engage the switch, causing the electronics module to transition from the off state to an active state and to sense an inhalation by the user from the mouthpiece, and wherein the electronics module is configured to not return to the off state after the mouthpiece cover is moved to expose the mouthpiece for the first time by the user. a main body having a mouthpiece and a mouthpiece cover ; a slider at least partially disposed within the main body; and an electronics module having a switch ; wherein the electronics module is configured to be in an off state prior to a user moving the mouthpiece cover to expose the mouthpiece for the first time; wherein, when the mouthpiece cover is moved to expose the mouthpiece, the slider is configured to engage the switch, causing the electronics module to transition from the off state to an active state and to sense an inhalation by the user from the mouthpiece, and wherein the electronics module is configured to not return to the off state after the mouthpiece cover is moved to expose the mouthpiece for the first time by the user.
A method implemented at a policy control node in a wireless communication network, comprising: transmitting Diameter related attribute information to a network repository node during a registration procedure of the policy control node to enable the network repository node to provide the Diameter related attribute information to a session management node during a discovery procedure for the policy control node initiated by the session management node, wherein the Diameter related attribute information comprises an identifier of a diameter host and a diameter realm for the policy control node, wherein the session management node is a Session Management Function, and the Session Management Function is collocated with a Binding Support Function.
An organic light emitting display device comprising: an insulating film on a substrate ; a first pixel area and a second pixel area on the insulating film , the first pixel area and the second pixel area each including a first electrode ; a film on the insulating film and between the first electrode of the first pixel area and the first electrode of the second pixel area; a hole (T) in the film between the first electrode of the first pixel and the first electrode of the second pixel, wherein the hole penetrates the film and extends at least partially into the insulating film; an organic light emitting layer on the first electrodes of the first pixel area and the second pixel area and the film ; and a second electrode on the organic light emitting layer , characterized in that each of the first electrodes includes a reflective electrode and a transparent electrode on the reflective electrode , and wherein a height (H1) at an edge of the film is lower than a height of the transparent electrode and higher than a height of the reflective electrode . an insulating film on a substrate ; a first pixel area and a second pixel area on the insulating film , the first pixel area and the second pixel area each including a first electrode ; a film on the insulating film and between the first electrode of the first pixel area and the first electrode of the second pixel area; a hole (T) in the film between the first electrode of the first pixel and the first electrode of the second pixel, wherein the hole penetrates the film and extends at least partially into the insulating film; an organic light emitting layer on the first electrodes of the first pixel area and the second pixel area and the film ; and a second electrode on the organic light emitting layer , characterized in that each of the first electrodes includes a reflective electrode and a transparent electrode on the reflective electrode , and wherein a height (H1) at an edge of the film is lower than a height of the transparent electrode and higher than a height of the reflective electrode .
An organic compound represented by formula below, wherein each of R 1 to R 22 is independently selected from the group consisting of a hydrogen atom, a halogen atom, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, a substituted or unsubstituted amino group, a substituted or unsubstituted aryl group, a substituted or unsubstituted heterocyclic group, a substituted or unsubstituted aryloxy group, a silyl group, and a cyano group, wherein R 9 in the formula is a substituted or unsubstituted phenyl group.
An electronic device comprising a system for grounding comprising: • a first electronic board comprising a first ground plane and at least one footprint adapted to connect said first ground plane with an electronic component; • at least a second electronic board comprising a second ground plane, said second electronic board being superposed onto the first electronic board, • a grounding metallic piece comprising a first part perpendicular to said first electronic board and a second part parallel to said first electronic board: characterized in that • said at least one footprint defines a closed line on said first electronic board ; • the metallic piece is dimensioned such that the first part corresponds to a projection of said closed line defined by one of said at least one footprint , and such that the shape of the second part corresponds to the shape defined by said closed line, and the metallic piece is also adapted to provide a shielding of at least one component positioned between said first electronic board and the metallic piece ; • the second part comprises elements providing a contact with said second electronic board thus electrically connecting the second ground plane with said first ground plane. • a first electronic board comprising a first ground plane and at least one footprint adapted to connect said first ground plane with an electronic component; • at least a second electronic board comprising a second ground plane, said second electronic board being superposed onto the first electronic board, • a grounding metallic piece comprising a first part perpendicular to said first electronic board and a second part parallel to said first electronic board: characterized in that • said at least one footprint defines a closed line on said first electronic board ; • the metallic piece is dimensioned such that the first part corresponds to a projection of said closed line defined by one of said at least one footprint , and such that the shape of the second part corresponds to the shape defined by said closed line, and the metallic piece is also adapted to provide a shielding of at least one component positioned between said first electronic board and the metallic piece ; • the second part comprises elements providing a contact with said second electronic board thus electrically connecting the second ground plane with said first ground plane.
A method for transferring specimen containers between automated microbial detection apparatuses , said method comprising: transporting a specimen container in a locator well to a container transfer station in a first automated microbial detection apparatus ; sensing the specimen container at the container transfer station using a first sensor; transferring the specimen container from the container transfer station of the first automated microbial detection apparatus to an automated loading mechanism of a second automated microbial detection apparatus using a system transfer mechanism , wherein said system transfer mechanism lifts the specimen container at the container transfer station; detecting that the specimen container is positioned over the automated loading mechanism of the second automated microbial detection apparatus using a second sensor ; and releasing the specimen container onto the automated loading mechanism of the second automated microbial detection apparatus ; wherein the automated loading mechanism of the second automated microbial detection apparatus is activated prior to releasing the specimen container onto the automated loading mechanism . transporting a specimen container in a locator well to a container transfer station in a first automated microbial detection apparatus ; sensing the specimen container at the container transfer station using a first sensor; transferring the specimen container from the container transfer station of the first automated microbial detection apparatus to an automated loading mechanism of a second automated microbial detection apparatus using a system transfer mechanism , wherein said system transfer mechanism lifts the specimen container at the container transfer station; detecting that the specimen container is positioned over the automated loading mechanism of the second automated microbial detection apparatus using a second sensor ; and releasing the specimen container onto the automated loading mechanism of the second automated microbial detection apparatus ; wherein the automated loading mechanism of the second automated microbial detection apparatus is activated prior to releasing the specimen container onto the automated loading mechanism .
A memory device , comprising: a memory cell array configured to store data and status data; and a data output circuit configured to: transmit status data to an external device through at least one data line during a latency period (LP) in response to a read enable signal received from the external device , wherein the status data (SD) is generated based on misalignment between transmitted data and a clock signal (CK), wherein status data includes retraining data indicating whether to perform the retraining operation on the memory device; and transmit the data stored in the memory cell array to the external device through the at least one data line during a period subsequent to the latency period (LP), wherein the status data further include a data (DCM) associated with a duty cycle modulation of a signal of the memory device , a data associated with an oscillation of a data strobe signal (DQS), memory core status data and a ZQ code for adjusting the gain, or strength, of an input/output driver. a memory cell array configured to store data and status data; and a data output circuit configured to: transmit status data to an external device through at least one data line during a latency period (LP) in response to a read enable signal received from the external device , wherein the status data (SD) is generated based on misalignment between transmitted data and a clock signal (CK), wherein status data includes retraining data indicating whether to perform the retraining operation on the memory device; and transmit the data stored in the memory cell array to the external device through the at least one data line during a period subsequent to the latency period (LP), transmit status data to an external device through at least one data line during a latency period (LP) in response to a read enable signal received from the external device , wherein the status data (SD) is generated based on misalignment between transmitted data and a clock signal (CK), wherein status data includes retraining data indicating whether to perform the retraining operation on the memory device; and transmit the data stored in the memory cell array to the external device through the at least one data line during a period subsequent to the latency period (LP),
A method for tracking an object moving relative to a moving platform, the moving platform moving relative to an external frame of reference, the method comprising: updating an inertial orientation estimate of the object relative to the external frame of reference using at least one angular rate sensor comprised in a sensor unit fixed to the object; obtaining measurements from a platform-mounted inertial navigation system (INS) of the orientation of the platform with respect to said external frame of reference; and at certain measurement times, obtaining measurements from a non-inertial sensor of the orientation of the sensor unit relative to a measurement reference coordinate frame fixed with respect to the platform, and characterised by combining said platform-referenced non-inertial orientation measurements with the INS measurement of platform orientation to form an indirect measurement of the orientation of said object with respect to said external frame of reference. updating an inertial orientation estimate of the object relative to the external frame of reference using at least one angular rate sensor comprised in a sensor unit fixed to the object; obtaining measurements from a platform-mounted inertial navigation system (INS) of the orientation of the platform with respect to said external frame of reference; and at certain measurement times, obtaining measurements from a non-inertial sensor of the orientation of the sensor unit relative to a measurement reference coordinate frame fixed with respect to the platform, and characterised by combining said platform-referenced non-inertial orientation measurements with the INS measurement of platform orientation to form an indirect measurement of the orientation of said object with respect to said external frame of reference.
An electronic device , comprising: a first housing including a first inner face ; a second housing including a second inner face ; a hinge pivotably connecting the first housing to the second housing for rotation between at least a folded configuration and an open configuration, wherein the first inner face is adjacent the second inner face in the folded configuration; and a camera extending from the first inner face; characterized in that the electronic device further comprises a cap on the second inner face and in alignment with the camera in the folded configuration, the cap configured to retract from the second inner face in the folded configuration to accommodate extension of the camera from the first inner face. a first housing including a first inner face ; a second housing including a second inner face ; a hinge pivotably connecting the first housing to the second housing for rotation between at least a folded configuration and an open configuration, wherein the first inner face is adjacent the second inner face in the folded configuration; and a camera extending from the first inner face; characterized in that the electronic device further comprises a cap on the second inner face and in alignment with the camera in the folded configuration, the cap configured to retract from the second inner face in the folded configuration to accommodate extension of the camera from the first inner face.
A travelling speed control apparatus of construction machinery, comprising: first and second hydraulic pumps configured to supply hydraulic oil to first and second travel motors respectively; first and second pressure sensors installed in hydraulic lines of the first and second hydraulic pumps configured to detect first and second pump pressures acting on the first and second travel motors respectively; a selection portion through which an operator selects a travelling speed auto control mode, at least one travelling speed control valve switchable by an inputted travelling speed control signal configured to adjust a swash plate angle of each of the first and second travel motors ; a travelling speed controller configured to compare a difference value between the first and second pump pressures with a predetermined value, output the travelling speed control signal to the travelling speed control valve configured to shift rotational speed steps of the first and second travel motors from second step to first step when the travelling speed controller receives a selection signal of the travelling speed auto control mode from the selection portion , one of the first and second pump pressures is 0 bar, and the difference value is greater than the predetermined value, and, when it is determined that the first and second pump pressures are less than a predetermined value, output the travelling speed control signal to the travelling speed control valve configured to shift the rotational speed steps of the first and second travel motors from the first speed to the second speed to the travelling speed control valve . first and second hydraulic pumps configured to supply hydraulic oil to first and second travel motors respectively; first and second pressure sensors installed in hydraulic lines of the first and second hydraulic pumps configured to detect first and second pump pressures acting on the first and second travel motors respectively; a selection portion through which an operator selects a travelling speed auto control mode, at least one travelling speed control valve switchable by an inputted travelling speed control signal configured to adjust a swash plate angle of each of the first and second travel motors ; a travelling speed controller configured to compare a difference value between the first and second pump pressures with a predetermined value, output the travelling speed control signal to the travelling speed control valve configured to shift rotational speed steps of the first and second travel motors from second step to first step when the travelling speed controller receives a selection signal of the travelling speed auto control mode from the selection portion , one of the first and second pump pressures is 0 bar, and the difference value is greater than the predetermined value, and, when it is determined that the first and second pump pressures are less than a predetermined value, output the travelling speed control signal to the travelling speed control valve configured to shift the rotational speed steps of the first and second travel motors from the first speed to the second speed to the travelling speed control valve .
A method for producing methanol, comprising; producing oxygen in an air separation plant with air compressors driven by a gas turbine; heating a hydrocarbon feed stream using exhaust from the gas turbine; exothermically reacting a first portion of the heated hydrocarbon feed stream with at least one of steam or an oxidant gas comprising molecular oxygen to produce an exothermically generated syngas product; endothermically reforming a second portion of the hydrocarbon feed stream with steam over a catalyst in a heat exchange reformer to produce an endothermically-reformed syngas product, wherein at least a portion of heat used in generation of the endothermically-reformed syngas product is obtained by recovering heat from the exothermically-generated syngas product and the endothermically reformed syngas product; combining the exothermically generated syngas product and the endothermically-reformed syngas product to produce a combined syngas stream; producing steam in a waste heat boiler by cooling the combined syngas stream, wherein the cooled combined syngas is passed to the methanol plant at a pressure in a range from about 70 to 100 bars; separating water from the cooled combined syngas to produce a methanol plant feed at substantially reaction loop pressure and having less than about 2% molar methane content and less than about 0.2% molar water content; after separating water, passing the cooled combined syngas to a methanol plant; and combining methanol plant combustible effluent with methane fuel to the gas turbine, wherein the cooled combined syngas is passed to the methanol plant without using a feed stream compressor, wherein the cooled combined syngas is passed to the methanol plant at a pressure in a range from about 70 to 100 bars, and wherein the second portion of the hydrocarbon feed stream Includes a steam to active carbon ratio in a range of about 5.5 to 6.5 and wherein the endothermic reforming occurs at a pressure of about 70 bars or greater.
Helmet comprising: - at least a cellular energy-absorbing insert ; - a foam liner comprising at least one recess shaped to accommodate the at least one cellular energy-absorbing insert ; the foam liner also comprises at least one vent for allowing an air transit from outside the helmet to the cellular energy-absorbing insert ; and being characterised by - a protective layer attached to the foam liner in correspondence of bottom/s of said recess/es , wherein the protective layer crosses the at least one vent ; wherein the protective layer is a protective layer permeable to air which comprises micro-holes in correspondence of the at least one vent, such that the at least one cellular energy-absorbing insert is not visible from outside the helmet through the vent . - at least a cellular energy-absorbing insert ; - a foam liner comprising at least one recess shaped to accommodate the at least one cellular energy-absorbing insert ; the foam liner also comprises at least one vent for allowing an air transit from outside the helmet to the cellular energy-absorbing insert ; and being characterised by - a protective layer attached to the foam liner in correspondence of bottom/s of said recess/es , wherein the protective layer crosses the at least one vent ;
A projector for illuminating at least one object with at least one illumination pattern , wherein the projector comprises at least one array of vertical-cavity surface-emitting lasers, VCSELs , wherein each of the VCSELs is configured for generating at least one light beam, wherein the projector comprises at least one optical system configured for generating a characteristic beam profile for each of the light beams generated by the VCSELs of the array , wherein the beam profile of neighboring VCSELs of the array differs in lateral and/or axial direction such that light beams of the VCSELs of the array are assignable to the corresponding VCSEL in three-dimensional space, wherein the optical system is configured for generating a plurality of different illumination patterns in axial dimension, wherein the optical system is configured for focusing the different illumination patterns for each VCSEL at different depths, wherein the optical system is configured for focusing the illumination patterns at different focus planes, wherein the focus planes are planes perpendicular to an optical axis of the optical system having different coordinates along the optical axis.