mhurhangee/patent-ind-claim-en huggingface dataset:
A windscreen attachable to a microphone , wherein the microphone comprises a sound collecting part (111 and 114) configured to collect sound and a light emitting part configured to indicate an operation state of the sound collecting part (111 and 114), the windscreen comprising: a windscreen body that is adapted to cover the sound collecting part (111 and 114); and a fixing member that is adapted to fix the windscreen body to the microphone , wherein the windscreen body includes an insertion hole in which the sound collecting part (111 and 114) is disposable, the fixing member includes a light guide part that is disposed outside the insertion hole , and the light guide part that is adapted to guide light from the light emitting part , the windscreen is characterized in that the fixing member includes a positioning part (222, 223a-223c and 224a-224c) that is disposable within the insertion hole , the positioning part (222, 223a-223c and 224a-224c) is adapted to position the light guide part to the light emitting part , and the light guide part is integrally formed with the positioning part (222, 223a-223c and 224a-224c). a windscreen body that is adapted to cover the sound collecting part (111 and 114); and a fixing member that is adapted to fix the windscreen body to the microphone , wherein the windscreen body includes an insertion hole in which the sound collecting part (111 and 114) is disposable, the fixing member includes a light guide part that is disposed outside the insertion hole , and the light guide part that is adapted to guide light from the light emitting part , the windscreen is characterized in that the fixing member includes a positioning part (222, 223a-223c and 224a-224c) that is disposable within the insertion hole , the positioning part (222, 223a-223c and 224a-224c) is adapted to position the light guide part to the light emitting part , and the light guide part is integrally formed with the positioning part (222, 223a-223c and 224a-224c).
A cascade element for a thrust reverser system of an engine , particularly a jet engine, comprising: a number of adjacently arranged deflecting blades for deflecting an airflow, characterized in that at least one of the deflecting blades is twisted about its longitudinal axis at least along a twisting longitudinal section . a number of adjacently arranged deflecting blades for deflecting an airflow, characterized in that at least one of the deflecting blades is twisted about its longitudinal axis at least along a twisting longitudinal section .
An aerosol-generating article having a proximal end and a distal end , the aerosol-generating article comprising: - an inner tubular element comprising an inner wrapping sheet circumscribing a combustible heat source positioned towards the distal end of the aerosol-generating article ; - an outer wrapping sheet to form an outer tubular element of the aerosol-generating article when rolled about a longitudinal axis , the outer wrapping sheet comprising: a first edge comprising a proximal portion and a distal portion , wherein the proximal portion includes a glued section, and wherein the distal portion extends from the proximal portion at an acute angle (α) relative to the longitudinal axis . - an inner tubular element comprising an inner wrapping sheet circumscribing a combustible heat source positioned towards the distal end of the aerosol-generating article ; - an outer wrapping sheet to form an outer tubular element of the aerosol-generating article when rolled about a longitudinal axis , the outer wrapping sheet comprising: a first edge comprising a proximal portion and a distal portion , wherein the proximal portion includes a glued section, and wherein the distal portion extends from the proximal portion at an acute angle (α) relative to the longitudinal axis .
A blower, comprising: a first tower having a first inner wall and a first outer wall which are configured to form a first inner air flow path on an upper portion of the blower; a second tower having a second inner wall and a second outer wall which are configured to form a second inner air flow path on the upper portion of the blower, wherein the second inner wall is facing the first inner wall and is spaced apart laterally from the first inner wall to form a blowing space therebetween; a first discharge port formed in the first inner wall and configured to discharge a frontward airflow to the blowing space; a second discharge port formed in the second inner wall to discharge a frontward airflow to the blowing space; a fan provided in a lower portion of the blower below the first and second towers and configured to blow air toward the first and second inner air flow paths; a first guide board provided movably inside the first tower to protrude to the blowing space; a second guide board provided movably inside the second tower to protrude to the blowing space, and wherein the first and second guide boards are configured to block a front of the blowing space to change a direction of an air discharged from the first and second discharge ports to upward. a first tower having a first inner wall and a first outer wall which are configured to form a first inner air flow path on an upper portion of the blower; a second tower having a second inner wall and a second outer wall which are configured to form a second inner air flow path on the upper portion of the blower, wherein the second inner wall is facing the first inner wall and is spaced apart laterally from the first inner wall to form a blowing space therebetween; a first discharge port formed in the first inner wall and configured to discharge a frontward airflow to the blowing space; a second discharge port formed in the second inner wall to discharge a frontward airflow to the blowing space; a fan provided in a lower portion of the blower below the first and second towers and configured to blow air toward the first and second inner air flow paths; a first guide board provided movably inside the first tower to protrude to the blowing space; a second guide board provided movably inside the second tower to protrude to the blowing space, and wherein the first and second guide boards are configured to block a front of the blowing space to change a direction of an air discharged from the first and second discharge ports to upward.
A flow cytometer comprising: a condition selection unit that selects a measurement condition from a plurality of measurement conditions corresponding to information for specifying a measurement item received by an input unit ; a measurement unit having a flow cell through which passes a particle-containing liquid that contains particles in a sample, and which optically measuring the particles in the particle-containing liquid passing through the flow cell according to the measurement condition selected by the condition selection unit ; wherein the plurality of measurement conditions includes at least information relating to adjustment of detection sensitivity for detecting optical information of light derived from the particle, information relating to correction of the detected optical information, and information relating to gating for setting an area of particles to be selected based on the optical information wherein the information relating to the correction of the detected optical information includes information relating to a light wavelength distribution amount outside a detection target included in the detected optical information, the light wavelength distribution amount being the distribution of the wavelength of the light and the amount of light. a condition selection unit that selects a measurement condition from a plurality of measurement conditions corresponding to information for specifying a measurement item received by an input unit ; a measurement unit having a flow cell through which passes a particle-containing liquid that contains particles in a sample, and which optically measuring the particles in the particle-containing liquid passing through the flow cell according to the measurement condition selected by the condition selection unit ; wherein the plurality of measurement conditions includes at least information relating to adjustment of detection sensitivity for detecting optical information of light derived from the particle, information relating to correction of the detected optical information, and information relating to gating for setting an area of particles to be selected based on the optical information wherein the information relating to the correction of the detected optical information includes information relating to a light wavelength distribution amount outside a detection target included in the detected optical information, the light wavelength distribution amount being the distribution of the wavelength of the light and the amount of light.
A method comprising: receiving (S416), by a mobile device from an access device, a digital certificate to the mobile device; determining (S418), by the mobile device, that the access device is authentic by comparing a first geo-location of the access device in the digital certificate to a second geo-location of the mobile device and determining that the mobile device is proximate to the access device, wherein the mobile device and the access device are at a resource provider location; receiving (S305), by the mobile device, a first biometric template of a user or a derivative thereof from the access device; determining, by the mobile device, that the first biometric template and a second biometric template on the mobile device match or that the derivative of the first biometric template and a derivative of a second biometric template on the mobile device match; transmitting (S306), by the mobile device to the access device, a confirmation of the match between the first biometric template and a second biometric template on the mobile device; and conducting, by the mobile device, a transaction with the access device after the mobile device has determined that the access device is authentic. receiving (S416), by a mobile device from an access device, a digital certificate to the mobile device; determining (S418), by the mobile device, that the access device is authentic by comparing a first geo-location of the access device in the digital certificate to a second geo-location of the mobile device and determining that the mobile device is proximate to the access device, wherein the mobile device and the access device are at a resource provider location; receiving (S305), by the mobile device, a first biometric template of a user or a derivative thereof from the access device; determining, by the mobile device, that the first biometric template and a second biometric template on the mobile device match or that the derivative of the first biometric template and a derivative of a second biometric template on the mobile device match; transmitting (S306), by the mobile device to the access device, a confirmation of the match between the first biometric template and a second biometric template on the mobile device; and conducting, by the mobile device, a transaction with the access device after the mobile device has determined that the access device is authentic.
Inductance circuit, comprising: a) a core made of a single-piece magnetic material with overall volume V, comprising a frame , and a bar located at the centre of the frame so as to form two rectangular magnetic loops symmetric about the bar , contiguous at a plane of symmetry of the bar , and with effective magnetic length I, the straight parts of the frame have a cross-section with area A, and the bar has a cross-section 2A equal to twice the cross-section A, b) a coil comprising a number N of turns designed to generate magnetic induction in the bar , c) fins exposed to the external environment and designed to dissipate heat, the fins being made of the same magnetic material as the core, the inductance circuit being characterised in that the fins are at least partly within at least one volume zone of the frame , located along the prolongation of at least one end of the bar . a) a core made of a single-piece magnetic material with overall volume V, comprising a frame , and a bar located at the centre of the frame so as to form two rectangular magnetic loops symmetric about the bar , contiguous at a plane of symmetry of the bar , and with effective magnetic length I, the straight parts of the frame have a cross-section with area A, and the bar has a cross-section 2A equal to twice the cross-section A, b) a coil comprising a number N of turns designed to generate magnetic induction in the bar , c) fins exposed to the external environment and designed to dissipate heat, the fins being made of the same magnetic material as the core,
A vehicle control system for a vehicle , the vehicle control system comprising a controller , wherein the controller has a primary parked mode and an activatable secondary parked mode in which the controller automatically controls a plurality of components (120a-c) of the vehicle , and activation of the secondary parked mode changes the state of each component (120a-c) from an in use state to a parked state when the vehicle is parked, wherein the secondary parked mode is manually activatable by virtue of a user interface device linked to a particular component of the vehicle , and wherein the user interface device comprises a primary portion that controls only the particular component and the user interface device comprises a secondary portion that both controls the particular component and activates the secondary parked mode. wherein the secondary parked mode is manually activatable by virtue of a user interface device linked to a particular component of the vehicle , and wherein the user interface device comprises a primary portion that controls only the particular component and the user interface device comprises a secondary portion that both controls the particular component and activates the secondary parked mode.
An environmental information update apparatus comprising: an update unit configured to update information regarding an obstacle region and information regarding an empty region, an obstacle existing in space where a mobile body moves in the obstacle region, the obstacle not existing in the empty region, characterized in that the update unit is configured to update the obstacle region, and update the empty region on a basis of different periods of elapsed time, update a region for which information regarding the obstacle region has been obtained as the obstacle region after a first period of time has elapsed, and update a region for which information regarding the empty region has been obtained as the empty region after a second period of time has elapsed, and the second period of time is longer than the first period of time. an update unit configured to update information regarding an obstacle region and information regarding an empty region, an obstacle existing in space where a mobile body moves in the obstacle region, the obstacle not existing in the empty region, characterized in that the update unit is configured to update the obstacle region, and update the empty region on a basis of different periods of elapsed time, update a region for which information regarding the obstacle region has been obtained as the obstacle region after a first period of time has elapsed, and update a region for which information regarding the empty region has been obtained as the empty region after a second period of time has elapsed, and update the obstacle region, and update the empty region on a basis of different periods of elapsed time, update a region for which information regarding the obstacle region has been obtained as the obstacle region after a first period of time has elapsed, and update a region for which information regarding the empty region has been obtained as the empty region after a second period of time has elapsed, and the second period of time is longer than the first period of time.
Vehicle , in particular a rail vehicle, comprising a driver's cab , the cab extending in a longitudinal direction (L) and comprising a longitudinal plane (PL) extending in the longitudinal direction (L), said cab comprising a floor and a ceiling arranged opposite the floor in an elevation direction (Z) substantially perpendicular to the longitudinal direction (L), said cab comprising a control device for the vehicle , said control device comprising a control unit comprising a seat and a control console , the control unit further comprising a first support arm mounted on the control unit and a second support arm mounted on the first support arm and on a support element of the cab , the control unit being rotatable relative to the first support arm about a first transverse axis of rotation (AT1) and rotatable relative to the first support arm about a first elevation axis of rotation (AZ1) substantially perpendicular to the first transverse axis of rotation (AT1), the first support arm being rotatable relative to the second support arm about a second transverse axis of rotation (AT2) substantially parallel to the first transverse axis of rotation (AT1), the second support arm being rotatable relative to the support element of the cab about a third transverse axis of rotation (AT3) substantially parallel to the first transverse axis of rotation and rotatable relative to the support element of the cab about a second elevation axis of rotation (AZ2) substantially parallel to the first elevation axis of rotation (AZ1). the control unit being rotatable relative to the first support arm about a first transverse axis of rotation (AT1) and rotatable relative to the first support arm about a first elevation axis of rotation (AZ1) substantially perpendicular to the first transverse axis of rotation (AT1), the first support arm being rotatable relative to the second support arm about a second transverse axis of rotation (AT2) substantially parallel to the first transverse axis of rotation (AT1), the second support arm being rotatable relative to the support element of the cab about a third transverse axis of rotation (AT3) substantially parallel to the first transverse axis of rotation and rotatable relative to the support element of the cab about a second elevation axis of rotation (AZ2) substantially parallel to the first elevation axis of rotation (AZ1).
A vertically driving marking robot , comprising: a robot body; at least one magnet (58/80) in or coupled with the robot body constraining the robot to move parallel to a vertical, magnetically responsive surface ; a drive configured to displace the robot relative to the vertical, magnetically responsive surface while the robot is held to the vertical, magnetically responsive surface ; a holder configured to hold a marker in or on the robot body; an accelerometer measuring a gravity vector having a magnitude and a direction; a magnetic force sensor configured to measure a magnetic field generated by the at least one magnet of the robot and the vertical, magnetically responsive surface ; a computing device in communication with the optical sensors , the accelerometer , the magnetic force sensor , and the drive, wherein the computing device includes a processor and computer-readable memory in communication with the processor, wherein the computer-readable memory includes non-transitory program code for generating a drift correction in response to and as a function of a measurement from the magnetic force sensor for the following actions: a) generating the drift correction to compensate for drive slippage drift in response to and as a function of the gravity vector; and b) commanding the drive to displace the robot along a desired trajectory in response to the drift correction. a robot body; at least one magnet (58/80) in or coupled with the robot body constraining the robot to move parallel to a vertical, magnetically responsive surface ; a drive configured to displace the robot relative to the vertical, magnetically responsive surface while the robot is held to the vertical, magnetically responsive surface ; a holder configured to hold a marker in or on the robot body; an accelerometer measuring a gravity vector having a magnitude and a direction; a magnetic force sensor configured to measure a magnetic field generated by the at least one magnet of the robot and the vertical, magnetically responsive surface ; a computing device in communication with the optical sensors , the accelerometer , the magnetic force sensor , and the drive, wherein the computing device includes a processor and computer-readable memory in communication with the processor, wherein the computer-readable memory includes non-transitory program code for generating a drift correction in response to and as a function of a measurement from the magnetic force sensor for the following actions: a) generating the drift correction to compensate for drive slippage drift in response to and as a function of the gravity vector; and b) commanding the drive to displace the robot along a desired trajectory in response to the drift correction. a) generating the drift correction to compensate for drive slippage drift in response to and as a function of the gravity vector; and b) commanding the drive to displace the robot along a desired trajectory in response to the drift correction.
A flexible endoscope comprising a handle, which is connected to an insertion tube by a distal guiding connector, wherein the insertion tube is in the form of an elastic tubular member equipped with a bunch of functional channels and ended with a distal tip, the endoscope further comprising a removable and independent optical-illumination module containing an elastic tube ended with a capsule and the insertion tube is divided into a distal tip , a bending section and a flexible part while within the insertion tube an optical-illumination channel is formed, and in addition within the elastic tube an optical fiber bundles (12b4) and electrical wires (12b3) are provided and ended with terminals for peripheral devices, wherein a micro camera (12a6) equipped with lenses (12a3) and with terminals of optical fiber bundle (12b4) and electrical wires (12b3) is provided within the capsule , wherein in a cross-section a diameter of the capsule is larger than the diameter of the elastic tube and moreover if the optical-illumination module is installed in the endoscope the capsule is placed stable in a distal tip that is formed by movable connected parts, wherein the distal tip is formed by at least the two parts that are connected in separable or inseparable manner and these parts, when connected, form the internal optical-illumination channel inside which the capsule of the optical-illumination module is installed and furthermore the distal tip is equipped with a hook (1a2c) having a length matched to a narrowing formed between the capsule and the elastic tube of the optical-illumination module to prevent the capsule from moving back by supporting its rear wall.
A process for the racemization of an enantiomerically enriched (S)-1-aminoindane mixture comprising the following steps: (a) providing a material comprising (S)-1-aminoindane enriched mixtures; (b) mixing the material with 1-indanone and at least one organic solvent in the presence of an aprotic base to form an optically active compound of formula II, (c) racemization of the Schiff base of formula II by treatment with a base, (d) hydrogenation of the racemic compound of formula II, to obtain racemic or nearly racemic 1-aminoindane. (a) providing a material comprising (S)-1-aminoindane enriched mixtures; (b) mixing the material with 1-indanone and at least one organic solvent in the presence of an aprotic base to form an optically active compound of formula II, (c) racemization of the Schiff base of formula II by treatment with a base, (d) hydrogenation of the racemic compound of formula II, to obtain racemic or nearly racemic 1-aminoindane.