mhurhangee/patent-ind-claim-en huggingface dataset:
A transcatheter delivery system comprising a delivery catheter , the delivery catheter including, a body portion ; a support portion extending from the body portion , the support portion configured to support an implantable device and having a longitudinal axis, the support portion including, a proximal guide having a constraint passage and a transverse outer profile; a stake member ; a proximal constraint extending longitudinally from the body portion then through the constraint passage of the proximal guide and then radially from the constraint passage of the proximal guide , the proximal constraint secured to the stake member in a releasable, looped configuration to define a proximal constraining loop ; and an actuation portion configured to tension the constraint, de-tension the constraint, and release the constraint from the stake member : wherein the proximal constraint is configured to be tensioned to the stake member to maintain the supported implantable device in a compacted delivery configuration, de-tensioned from the stake member to permit the supported implantable device to be transitioned to an expanded deployed configuration, and to be released from the stake member to release the supported implantable device from the delivery catheter. a body portion ; a support portion extending from the body portion , the support portion configured to support an implantable device and having a longitudinal axis, the support portion including, a proximal guide having a constraint passage and a transverse outer profile; a stake member ; a proximal constraint extending longitudinally from the body portion then through the constraint passage of the proximal guide and then radially from the constraint passage of the proximal guide , the proximal constraint secured to the stake member in a releasable, looped configuration to define a proximal constraining loop ; and an actuation portion configured to tension the constraint, de-tension the constraint, and release the constraint from the stake member : wherein the proximal constraint is configured to be tensioned to the stake member to maintain the supported implantable device in a compacted delivery configuration, de-tensioned from the stake member to permit the supported implantable device to be transitioned to an expanded deployed configuration, and to be released from the stake member to release the supported implantable device from the delivery catheter.
Lighting arrangement comprising - a housing extending along a longitudinal axis (L), - a LED light source for producing light, which is disposed within the housing and extends along the longitudinal axis (L), wherein a light outlet opening for the light is delimited by the housing , - a sensor , in particular for detecting a brightness and/or a movement in a vicinity of the lighting arrangement, characterized by - a carrier element for the sensor , which is designed to be arranged within the housing relative to the LED light source at different longitudinal positions with reference to the longitudinal axis (L), wherein the carrier element comprises a shading region , by means of which the sensor is shaded from the light of the LED light source . - a housing extending along a longitudinal axis (L), - a LED light source for producing light, which is disposed within the housing and extends along the longitudinal axis (L), wherein a light outlet opening for the light is delimited by the housing , - a sensor , in particular for detecting a brightness and/or a movement in a vicinity of the lighting arrangement, characterized by - a carrier element for the sensor , which is designed to be arranged within the housing relative to the LED light source at different longitudinal positions with reference to the longitudinal axis (L),
A system for processing a pavement reinstatement such that the reinstated pavement has a target air voids content , the system comprising: a weighing apparatus for measuring a mass of reinstatement material; and a reinstatement apparatus comprising a user device , the reinstatement apparatus being adapted to receive reinstatement dimension information and reinstatement material information and adapted to determine a required reinstatement material mass from the received reinstatement dimension information and reinstatement material information , the required reinstatement material mass being the mass required for providing the target air voids content ; wherein the weighing apparatus is adapted to provide, to the reinstatement apparatus or to a user, an indication of the mass actually measured by the weighing apparatus ; and wherein the reinstatement apparatus is adapted to receive, from the weighing apparatus or from a user input, an indication of the mass actually measured by the weighing apparatus ; whereby to provide the target air voids content . a weighing apparatus for measuring a mass of reinstatement material; and a reinstatement apparatus comprising a user device , the reinstatement apparatus being adapted to receive reinstatement dimension information and reinstatement material information and adapted to determine a required reinstatement material mass from the received reinstatement dimension information and reinstatement material information , the required reinstatement material mass being the mass required for providing the target air voids content ; wherein the weighing apparatus is adapted to provide, to the reinstatement apparatus or to a user, an indication of the mass actually measured by the weighing apparatus ; and wherein the reinstatement apparatus is adapted to receive, from the weighing apparatus or from a user input, an indication of the mass actually measured by the weighing apparatus ; whereby to provide the target air voids content .
A mounting device for an explosive charge for breaching a structure, comprising: a first layer comprising a first foam material; and a second layer comprising a second foam material, wherein the first layer comprises a first surface for facing a target and a second surface adjoining or bonded to a surface of the second layer, the second layer comprising a recess configured for receiving the explosive charge from a side of the second layer opposite the surface of the second layer adjoining or bonded to the second surface of the first layer. a first layer comprising a first foam material; and a second layer comprising a second foam material, wherein the first layer comprises a first surface for facing a target and a second surface adjoining or bonded to a surface of the second layer, the second layer comprising a recess configured for receiving the explosive charge from a side of the second layer opposite the surface of the second layer adjoining or bonded to the second surface of the first layer.
A near-eye or heads-up display system, comprising: an optical waveguide including an input diffraction grating and an output coupler ; a display engine configured to produce an image and to direct light (141-144, 151-156, 246, 248, 250) corresponding to the image and having a first linear polarization state toward the input diffraction grating of the optical waveguide ; the input diffraction grating of the optical waveguide configured to diffract light (141-144, 151-156, 246, 248, 250) corresponding to the image, that is incident on the input diffraction grating, into the optical waveguide; and a quarter-wave retarder, QWR , positioned within the display engine , or between the display engine and the input diffraction grating of the optical waveguide , so that linearly polarized light (142-144, 151-153, 155-156, 246, 250) corresponding to the image and having the first linear polarization state, which is directed toward the input diffraction grating of the optical waveguide, is converted to circularly polarized light before being diffracted into the optical waveguide by the input diffraction grating; wherein the QWR will change from circularly polarized light (142-144, 151-153, 155-156, 246, 250) to linearly polarized light having a second linear polarization state that is orthogonal to the first linear polarization state, any circularly polarized light corresponding to the image that after being diffracted into the optical waveguide by the input diffraction grating is diffracted out of the optical waveguide by the input diffraction grating. an optical waveguide including an input diffraction grating and an output coupler ; a display engine configured to produce an image and to direct light (141-144, 151-156, 246, 248, 250) corresponding to the image and having a first linear polarization state toward the input diffraction grating of the optical waveguide ; the input diffraction grating of the optical waveguide configured to diffract light (141-144, 151-156, 246, 248, 250) corresponding to the image, that is incident on the input diffraction grating, into the optical waveguide; and a quarter-wave retarder, QWR , positioned within the display engine , or between the display engine and the input diffraction grating of the optical waveguide , so that linearly polarized light (142-144, 151-153, 155-156, 246, 250) corresponding to the image and having the first linear polarization state, which is directed toward the input diffraction grating of the optical waveguide, is converted to circularly polarized light before being diffracted into the optical waveguide by the input diffraction grating; wherein the QWR will change from circularly polarized light (142-144, 151-153, 155-156, 246, 250) to linearly polarized light having a second linear polarization state that is orthogonal to the first linear polarization state, any circularly polarized light corresponding to the image that after being diffracted into the optical waveguide by the input diffraction grating is diffracted out of the optical waveguide by the input diffraction grating.
Sensor device for a vehicle , comprising : a control unit for actuating a movable part in the form of a door or a side mirror of the vehicle , and a sensor unit for monitoring at least a first activation area (A1), wherein the control unit is adapted to actuate the movable part of the vehicle , when at least one activation action (H1, H2, B1, B2) of a user in the first activation area (A1) has been detected by the sensor unit , wherein the sensor unit is adapted to detect the at least one activation action (H1, H2, B1, B2) of the user by means of electromagnetic waves in the radio frequency range, characterized in that the sensor device is used, as a function of the speed (V) of the vehicle , either for actuating the movable part of the vehicle or for assisted and/or autonomous driving of the vehicle , and that different activation areas (A1, A2, A3) are assigned to the sensor unit . a control unit for actuating a movable part in the form of a door or a side mirror of the vehicle , and a sensor unit for monitoring at least a first activation area (A1), wherein the control unit is adapted to actuate the movable part of the vehicle , when at least one activation action (H1, H2, B1, B2) of a user in the first activation area (A1) has been detected by the sensor unit , wherein the sensor unit is adapted to detect the at least one activation action (H1, H2, B1, B2) of the user by means of electromagnetic waves in the radio frequency range, characterized in that the sensor device is used, as a function of the speed (V) of the vehicle , either for actuating the movable part of the vehicle or for assisted and/or autonomous driving of the vehicle , and that different activation areas (A1, A2, A3) are assigned to the sensor unit .
A Light Control and Data Interface Module (LCDIM) comprising: a radio frequency transceiver ; an LED driver configured to supply electrical power to an LED based light engine that is electrically coupled to the LCDIM; and one or more processors configured to: receive a request from a mobile electronics device based on one or more signals received by the radio frequency transceiver; communicate a command signal to the LED driver that causes the LED driver to control the electrical power to the LED based light engine such that the LED based light engine emits an amount of modulated illumination light , the modulated illumination light indicating a first optical code; receive an indication of a second optical code from the mobile electronics device based on one or more signals received by the radio frequency transceiver, wherein the second optical code is determined by the mobile electronics device from an amount of the modulated illumination light detected by the mobile electronics device; and determine (5, Fig. 4) whether the first optical code matches the second optical code. a radio frequency transceiver ; an LED driver configured to supply electrical power to an LED based light engine that is electrically coupled to the LCDIM; and one or more processors configured to: receive a request from a mobile electronics device based on one or more signals received by the radio frequency transceiver; communicate a command signal to the LED driver that causes the LED driver to control the electrical power to the LED based light engine such that the LED based light engine emits an amount of modulated illumination light , the modulated illumination light indicating a first optical code; receive an indication of a second optical code from the mobile electronics device based on one or more signals received by the radio frequency transceiver, wherein the second optical code is determined by the mobile electronics device from an amount of the modulated illumination light detected by the mobile electronics device; and determine (5, Fig. 4) whether the first optical code matches the second optical code. receive a request from a mobile electronics device based on one or more signals received by the radio frequency transceiver; communicate a command signal to the LED driver that causes the LED driver to control the electrical power to the LED based light engine such that the LED based light engine emits an amount of modulated illumination light , the modulated illumination light indicating a first optical code; receive an indication of a second optical code from the mobile electronics device based on one or more signals received by the radio frequency transceiver, wherein the second optical code is determined by the mobile electronics device from an amount of the modulated illumination light detected by the mobile electronics device; and determine (5, Fig. 4) whether the first optical code matches the second optical code.
A connection device for a flexible hose, the connection device comprising a first and second hose-holder , a first and second pressing ring nut having both a tubular outer body with the same constant outer diameter, the first hose-holder being mounted on an end portion of the flexible hose and locked in position by means of the first pressing ring nut , the second hose-holder being mounted on the other end portion of the flexible hose and locked in position by means of the second pressing ring nut , the connection device further comprising an element for mutually connecting said first and second hose-holders , the element comprising a substantially tubular body having a longitudinal hole , said element comprising a circulating ball portion for the connection to one of said first or second hose-holder , wherein the inner diameter of said second hose-holder is the same as the inner diameter of said first hose-holder , and wherein the largest outer diameter of said element is smaller than the outer diameter of said first pressing ring nut and smaller than the outer diameter of said second pressing ring nut .
Damping system (26; 74) for damping vibrations of a rotor blade of a rotor of a turbomachine, for example an aircraft engine, comprising a damping element (28; 78) which is guided on a rotor-side support (30; 76) such that the damping element carries out a radially outward movement when the rotor rotates and can be brought into contact with a lower platform region of the rotor blade , the damping element (28; 78) being U-shaped and surrounding the support (30; 76) in portions, characterized in that a circumferential contact surface formed by an elevation is arranged as a stop for the damping element (28; 78) in the lower platform region and an end-face contact surface for producing frictional contact between the damping element (28; 78) and the rotor blade is provided.
An electric pulse tool , where torque is delivered in pulses on an output shaft of the electric pulse tool , the electric pulse tool comprises an electric motor adapted to drive the output shaft ; whereby the electrical pulse tool for each period is operative to: - provide a current pulse to said electric motor during a current on time interval (T CURRENT ) ; - pause current feed to the electric motor after the current on time interval (T CURRENT ) until the end of the torque pulse; - determine the width (T WIDTH ) of the torque pulse; - continue pausing current feed to the electric motor during a pause interval (T PAUSE ) from the end of the torque pulse, wherein the pause interval (T PAUSE ) is determined based on the width (T WIDTH ) of the torque pulse, such that a wider torque pulse results in a wider pause interval (T PAUSE ) and a narrower torque pulse results in a shorter pause interval (T PAUSE ) . - provide a current pulse to said electric motor during a current on time interval (T CURRENT ) ; - pause current feed to the electric motor after the current on time interval (T CURRENT ) until the end of the torque pulse; - determine the width (T WIDTH ) of the torque pulse; - continue pausing current feed to the electric motor during a pause interval (T PAUSE ) from the end of the torque pulse, wherein the pause interval (T PAUSE ) is determined based on the width (T WIDTH ) of the torque pulse, such that a wider torque pulse results in a wider pause interval (T PAUSE ) and a narrower torque pulse results in a shorter pause interval (T PAUSE ) .
An X-ray imaging apparatus comprising: - an X-ray source (XR) for emitting a beam of X-ray radiation; - an X-ray detector (D) arranged opposite said X-ray source across an examination region for accommodating an object to be imaged; and - an interferometer (IF) arranged, at least partly in the beam of X-ray radiation during operation for performing differential phase contrast imaging and/or dark field imaging, between the X-ray source (XR) and the X-ray detector, the interferometer (IF) comprising at least one grating (G1) to modulate onto said X-ray radiation an interference pattern detectable by said X-ray detector; wherein a footprint of said at least one grating is smaller than a footprint of a radiation sensitive area of said X-ray detector; and wherein the apparatus is configured to effect, during an imaging operation, said at least one grating to move in a scanning motion across a field of view for scanning purposes relative to the X-ray detector whilst said X-ray detector remains stationary relative to the examination region. - an X-ray source (XR) for emitting a beam of X-ray radiation; - an X-ray detector (D) arranged opposite said X-ray source across an examination region for accommodating an object to be imaged; and - an interferometer (IF) arranged, at least partly in the beam of X-ray radiation during operation for performing differential phase contrast imaging and/or dark field imaging, between the X-ray source (XR) and the X-ray detector, the interferometer (IF) comprising at least one grating (G1) to modulate onto said X-ray radiation an interference pattern detectable by said X-ray detector; wherein a footprint of said at least one grating is smaller than a footprint of a radiation sensitive area of said X-ray detector; and wherein the apparatus is configured to effect, during an imaging operation, said at least one grating to move in a scanning motion across a field of view for scanning purposes relative to the X-ray detector whilst said X-ray detector remains stationary relative to the examination region.
Foundation machine configured for drilling the ground for structural foundation elements or retaining elements, said machine comprising: - a base machine comprising a structural frame and a movable assembly for moving the machine on the ground; - a mast , mechanically connected to the base machine , whereon an operating equipment is adapted to be mounted in order to drill the ground; - at least one video camera , mounted to the base machine and so oriented as to frame a field of view to be monitored; - a control system operatively connected to the at least one video camera in order to receive a signal representative of images acquired by the video camera , said foundation machine being characterized in that said control system comprises a neural network trained to recognize a human figure in the images acquired by the video camera , for recognizing when said at least one video camera is framing a human figure in the monitored field of view; wherein, if the neural network recognizes a human figure, the control system is configured for having the foundation machine perform some predetermined functions. - a base machine comprising a structural frame and a movable assembly for moving the machine on the ground; - a mast , mechanically connected to the base machine , whereon an operating equipment is adapted to be mounted in order to drill the ground; - at least one video camera , mounted to the base machine and so oriented as to frame a field of view to be monitored; - a control system operatively connected to the at least one video camera in order to receive a signal representative of images acquired by the video camera ,
A method for producing a multi-material composite, wherein a composite is formed from at least one metal layer , at least one fibre-reinforced or unreinforced first polymer layer and at least one fibre-reinforced or unreinforced second polymer layer formed from the polymer of the first polymer layer and nanoparticles, said second polymer layer being at least partially arranged between the metal layer and the first polymer layer , under the influence of elevated temperature or elevated temperature and elevated pressure a composite is formed, wherein nanoparticles of the second polymer layer diffuse into the first polymer layer so that a gradient layer is formed in which the nanoparticle concentration decreases toward the first polymer layer .
Electrically doped semiconducting material comprising i) at least one electrical dopant selected from metal salts consisting of at least one metal cation and at least one anion and ii) at least one matrix compound of formula 1 wherein each of R 1 , R 2 , R 1' , R 2' is independently selected from H, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl and C 6 -C 14 aryl or both substituents on the same aromatic ring of the xanthene skeleton are hydrocarbyl groups linked with each other to form together an anelated divalent C 2 -C 10 hydrocarbyl group and A and A' are independently selected from C 1 -C 20 heteroaryl group comprising at least one sp 2 hybridized nitrogen atom. i) at least one electrical dopant selected from metal salts consisting of at least one metal cation and at least one anion and ii) at least one matrix compound of formula 1 wherein each of R 1 , R 2 , R 1' , R 2' is independently selected from H, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl and C 6 -C 14 aryl or both substituents on the same aromatic ring of the xanthene skeleton are hydrocarbyl groups linked with each other to form together an anelated divalent C 2 -C 10 hydrocarbyl group and A and A' are independently selected from C 1 -C 20 heteroaryl group comprising at least one sp 2 hybridized nitrogen atom.