mhurhangee/patent-ind-claim-en huggingface dataset:
A LiDAR system , comprising: a signal generator for generating a continuous periodic signal; a pulse modulation circuit for applying a pulse modulation signal to the continuous signal to convert the continuous signal into a plurality of pulses of the continuous signal; an amplitude modulation circuit for generating an amplitude modulation envelope signal and applying the amplitude modulation envelope signal to the plurality of pulses to generate a plurality of amplitude-modulated pulses of the continuous signal; an optical modulation circuit for receiving the plurality of amplitude-modulated pulses of the continuous signal and applying the amplitude-modulated pulses of the continuous signal to an optical signal to generate a pulse amplitude-modulated, PAM, optical signal; optical transmission elements for transmitting the PAM optical signal into a region; optical receiving elements for receiving reflected optical signals from the region; and receive signal processing circuitry for receiving the reflected optical signals and using quadrature detection to process the reflected optical signals. a signal generator for generating a continuous periodic signal; a pulse modulation circuit for applying a pulse modulation signal to the continuous signal to convert the continuous signal into a plurality of pulses of the continuous signal; an amplitude modulation circuit for generating an amplitude modulation envelope signal and applying the amplitude modulation envelope signal to the plurality of pulses to generate a plurality of amplitude-modulated pulses of the continuous signal; an optical modulation circuit for receiving the plurality of amplitude-modulated pulses of the continuous signal and applying the amplitude-modulated pulses of the continuous signal to an optical signal to generate a pulse amplitude-modulated, PAM, optical signal; optical transmission elements for transmitting the PAM optical signal into a region; optical receiving elements for receiving reflected optical signals from the region; and receive signal processing circuitry for receiving the reflected optical signals and using quadrature detection to process the reflected optical signals.
A method for forming a ceramic matrix composite (CMC) component with an internal cooling channel , the method comprising: forming a first fiber member ; forming a first depression in a surface of the first fiber member by pressing the first fiber member and wherein pressing comprises applying a force to the first fiber member with a shaped tool comprising a protrusion matching a shape of the first depression; maintaining a shape of the first depression by at least one of: applying a binder material to the first fiber member ; stitching the first fiber member with a fiber tow ; or passing a barbed needle through the first fiber member ; covering the first depression with a second fiber member to form a near-net shape fiber preform of a component with an internal channel defined in part by the first depression; and densifying the fiber preform . forming a first fiber member ; forming a first depression in a surface of the first fiber member by pressing the first fiber member and wherein pressing comprises applying a force to the first fiber member with a shaped tool comprising a protrusion matching a shape of the first depression; maintaining a shape of the first depression by at least one of: applying a binder material to the first fiber member ; stitching the first fiber member with a fiber tow ; or passing a barbed needle through the first fiber member ; applying a binder material to the first fiber member ; stitching the first fiber member with a fiber tow ; or passing a barbed needle through the first fiber member ; covering the first depression with a second fiber member to form a near-net shape fiber preform of a component with an internal channel defined in part by the first depression; and densifying the fiber preform .
Method for rearing animals and in particular poultry or pigs, where water is supplied to the animals in order to water them, which is characterized in that oxygen and CO 2 are injected into the drinking water, before the latter reaches the animals, according to one of the following modes: - two injections, one of CO 2 and one of oxygen, are carried out simultaneously into the water; - the injection into the water of a mixture of oxygen and CO 2 is carried out. - two injections, one of CO 2 and one of oxygen, are carried out simultaneously into the water; - the injection into the water of a mixture of oxygen and CO 2 is carried out.
A touch panel comprising: a plurality of first electrodes arranged on a substrate in a first direction; and a plurality of second electrodes arranged in a second direction, which intersects the first direction, the second electrodes being electrically isolated from the first electrodes , wherein each of the first electrodes comprises a first touch electrode , the first touch electrode comprising a first metal mesh pattern having a lattice structure and a first floating unit disposed in a central part of the first metal mesh pattern , the first floating unit being electrically isolated from the first metal mesh pattern ; and each of the second electrodes comprises a second touch electrode , the second touch electrode comprising a second metal mesh pattern having a lattice structure and a second floating unit electrically isolated from the second metal mesh pattern ; and characterised in that : the first floating unit is made of a material different from a material of the first metal mesh pattern ; the second floating unit is made of a material different from a material of the second metal mesh pattern ; and each of the first and second floating units is made of a transparent conductive material. a plurality of first electrodes arranged on a substrate in a first direction; and a plurality of second electrodes arranged in a second direction, which intersects the first direction, the second electrodes being electrically isolated from the first electrodes , wherein each of the first electrodes comprises a first touch electrode , the first touch electrode comprising a first metal mesh pattern having a lattice structure and a first floating unit disposed in a central part of the first metal mesh pattern , the first floating unit being electrically isolated from the first metal mesh pattern ; and each of the second electrodes comprises a second touch electrode , the second touch electrode comprising a second metal mesh pattern having a lattice structure and a second floating unit electrically isolated from the second metal mesh pattern ; and characterised in that : the first floating unit is made of a material different from a material of the first metal mesh pattern ; the second floating unit is made of a material different from a material of the second metal mesh pattern ; and each of the first and second floating units is made of a transparent conductive material. the first floating unit is made of a material different from a material of the first metal mesh pattern ; the second floating unit is made of a material different from a material of the second metal mesh pattern ; and each of the first and second floating units is made of a transparent conductive material.
A method for making a high-protein acidic liquid food product comprising 1-5, 5-10, 10-15 or 15-20% weight/weight microalgal protein from microalgal flour, the method comprising: (a) making a protein-supplemented acidic liquid by combining an acidic liquid with high-protein microalgal flour, or combining a non-acidic liquid with high-protein microalgal flour and an acid, to arrive at a microalgal protein-supplemented liquid having a pH of 4.6 or less; and (b) subjecting the protein-supplemented liquid to a heating step so as to inactivate microbes, wherein, after the heating step, the dynamic viscosity, when measured at 22°C and a shear rate of 61-66 s -1 , of the liquid increases by no more than 0.5, 1, 2, 5, 7 or 10%; and wherein the high-protein microalgal flour comprises at least 55% microalgal cell protein by dry weight. (a) making a protein-supplemented acidic liquid by combining an acidic liquid with high-protein microalgal flour, or combining a non-acidic liquid with high-protein microalgal flour and an acid, to arrive at a microalgal protein-supplemented liquid having a pH of 4.6 or less; and (b) subjecting the protein-supplemented liquid to a heating step so as to inactivate microbes, wherein, after the heating step, the dynamic viscosity, when measured at 22°C and a shear rate of 61-66 s -1 , of the liquid increases by no more than 0.5, 1, 2, 5, 7 or 10%; and wherein the high-protein microalgal flour comprises at least 55% microalgal cell protein by dry weight. wherein, after the heating step, the dynamic viscosity, when measured at 22°C and a shear rate of 61-66 s -1 , of the liquid increases by no more than 0.5, 1, 2, 5, 7 or 10%; and wherein the high-protein microalgal flour comprises at least 55% microalgal cell protein by dry weight.
A method of performing real-time sensor diagnostics on a subcutaneous or implanted sensor having a servo controlled device which maintains a prescribed voltage between a reference electrode and at least one working electrode by adjusting the voltage at a counter electrode and a biomolecule placed in the vicinity of the sensor electrodes and used as a catalyzing agent; the method comprising: a) performing a first electrochemical impedance spectroscopy (EIS) procedure to generate a first set of impedance-related data for the at least one working electrode; (b) after a predetermined time interval, performing a second EIS procedure to generate a second set of impedance-related data for the at least one electrode; and characterised in that the method further comprises: (c) determining based on the second set of impedance-related data that the sensor is still in place if the |Z| slope of complex impedance Z is not constant across a tested frequency range and/or if the phase angle is not about -90°; and (d) if the sensor is still in place, based on the first and second sets of impedance-related data, determining whether the sensor is functioning normally. a) performing a first electrochemical impedance spectroscopy (EIS) procedure to generate a first set of impedance-related data for the at least one working electrode; (b) after a predetermined time interval, performing a second EIS procedure to generate a second set of impedance-related data for the at least one electrode; and characterised in that the method further comprises: (c) determining based on the second set of impedance-related data that the sensor is still in place if the |Z| slope of complex impedance Z is not constant across a tested frequency range and/or if the phase angle is not about -90°; and (d) if the sensor is still in place, based on the first and second sets of impedance-related data, determining whether the sensor is functioning normally. (c) determining based on the second set of impedance-related data that the sensor is still in place if the |Z| slope of complex impedance Z is not constant across a tested frequency range and/or if the phase angle is not about -90°; and (d) if the sensor is still in place, based on the first and second sets of impedance-related data, determining whether the sensor is functioning normally.
A system for docking an object on a support wall , in particular of an object transport vehicle, of the type comprising at least one docking rail intended to be fastened on the support wall , which is provided with a bearing means of the docked object, and a device for holding the object in its docked position, which comprises stationary docking means secured to the rail and a holding link whereof the ends can be connected to the stationary docking means and which partially surrounds the object , characterized in that the rail comprises a plurality of rail modules assembled to one another in the longitudinal direction, each module comprising, on its facing end faces, centering means in the aligned position.
A cleaning wafer mountable in an integrated chip manufacturing apparatus , comprising a resilient cleaning pad having a first side opposing a second, cleaning side , the second, cleaning side being non-planar and including at least first and second pre-formed cleaning sections, the first pre-formed cleaning section being greater in thickness than the second pre-formed cleaning section, at least one of the pre-formed cleaning sections having a predetermined level of tack, characterized in that the first pre-formed cleaning section comprises a first compressible protrusion providing predetermined first means for urging the second, cleaning side away from contact with a portion of the integrated chip manufacturing apparatus.
A method of controlling noise emissions from individual blades of a wind turbine , the method comprising: defining a wind turbine model describing dynamics of the wind turbine , the wind turbine model including a description of intensity and direction of noise emissions from each individual blade as a function of azimuthal angle ; and, applying a model-based control algorithm using the wind turbine model to determine at least one control output , and using the at least one control output to control noise emissions from each individual blade . defining a wind turbine model describing dynamics of the wind turbine , the wind turbine model including a description of intensity and direction of noise emissions from each individual blade as a function of azimuthal angle ; and, applying a model-based control algorithm using the wind turbine model to determine at least one control output , and using the at least one control output to control noise emissions from each individual blade .
A surgical snare comprising: a coaxial cable having an inner conductor , an outer conductor and a dielectric material separating the inner conductor from the outer conductor ; a distal head assembly disposed at a distal end of the coaxial cable , the distal head assembly having an end cap that is electrically connected to the inner conductor ; and a snare wire slidably mounted in the distal head assembly to form a retractable loop beyond the end cap , characterised in that a first end of the snare wire is connected to a movable boss that is slidably mounted on the coaxial cable . a coaxial cable having an inner conductor , an outer conductor and a dielectric material separating the inner conductor from the outer conductor ; a distal head assembly disposed at a distal end of the coaxial cable , the distal head assembly having an end cap that is electrically connected to the inner conductor ; and a snare wire slidably mounted in the distal head assembly to form a retractable loop beyond the end cap , characterised in that a first end of the snare wire is connected to a movable boss that is slidably mounted on the coaxial cable .
A method for manufacturing a plastic material , the method comprising: supplying a first plastic raw material ; determining a concentration of a marker having a luminescence in the supplied first plastic raw material by detecting an intensity of the luminescence; supplying a second plastic raw material having a higher concentration of the marker than the first plastic raw material to the first plastic raw material in case the concentration of the marker is below a target concentration, depending on the determined concentration of the marker in the first plastic raw material, such that a mixture of the first and second plastic raw materials is obtained, which has a target concentration of the marker; and supplying a third plastic raw material that does not contain the marker to the mixture in a predetermined ratio to the mixture, such that the plastic material containing a predetermined portion of the mixture is obtained. supplying a first plastic raw material ; determining a concentration of a marker having a luminescence in the supplied first plastic raw material by detecting an intensity of the luminescence; supplying a second plastic raw material having a higher concentration of the marker than the first plastic raw material to the first plastic raw material in case the concentration of the marker is below a target concentration, depending on the determined concentration of the marker in the first plastic raw material, such that a mixture of the first and second plastic raw materials is obtained, which has a target concentration of the marker; and supplying a third plastic raw material that does not contain the marker to the mixture in a predetermined ratio to the mixture, such that the plastic material containing a predetermined portion of the mixture is obtained.
A method of manufacturing a gas turbine engine air seal comprising: using an energy beam to build up sequential deposits of an agglomerated abradable feedstock material to form an abradable coating ; and controlling at least one of a structure and a composition of the air seal based on a pre-determined net shape model; characterized in that the abradable feedstock material comprises a MAXMET composite material having MAX phase particles coated with a metallic shell . using an energy beam to build up sequential deposits of an agglomerated abradable feedstock material to form an abradable coating ; and controlling at least one of a structure and a composition of the air seal based on a pre-determined net shape model; characterized in that the abradable feedstock material comprises a MAXMET composite material having MAX phase particles coated with a metallic shell .
An electronic device , comprising: at least one processor ; a main circuit board on which the processor is mounted; one or more peripheral electronic components ; one or more flexible printed circuits , each flexible printed circuit comprising circuit traces disposed on a flexible substrate and at least one ground plane , the flexible printed circuits configured to operatively couple the peripheral electronic components over the circuit traces to the main circuit board ; at least one structural member with which at least one of the main circuit board , peripheral components , or flexible printed circuits is disposed; and a grounded conductor incorporated in the structural member, wherein at least one of the flexible printed circuits is configured with at least a partially exposed ground plane and the exposed ground plane is electrically coupled to the grounded conductor over an electrical pathway that includes conductive foam or conductive adhesive; characterized in that the electronic device further comprises a thermal management system comprising a metallic component configured to dissipate thermal energy generated during operation of the electronic device and in which the grounding system is incorporated into at least a portion of the metallic component. at least one processor ; a main circuit board on which the processor is mounted; one or more peripheral electronic components ; one or more flexible printed circuits , each flexible printed circuit comprising circuit traces disposed on a flexible substrate and at least one ground plane , the flexible printed circuits configured to operatively couple the peripheral electronic components over the circuit traces to the main circuit board ; at least one structural member with which at least one of the main circuit board , peripheral components , or flexible printed circuits is disposed; and a grounded conductor incorporated in the structural member, wherein at least one of the flexible printed circuits is configured with at least a partially exposed ground plane and the exposed ground plane is electrically coupled to the grounded conductor over an electrical pathway that includes conductive foam or conductive adhesive; characterized in that the electronic device further comprises a thermal management system comprising a metallic component configured to dissipate thermal energy generated during operation of the electronic device and in which the grounding system is incorporated into at least a portion of the metallic component.
A method performed by a head mounted display, HMD, device that supports rendering of a virtual reality environment, comprising: obtaining sensor data describing a real world physical environment adjoining a user of the HMD device ; using the sensor data, reconstructing a geometry of the real world physical environment; tracking the user's head and gaze in the real world physical environment using the reconstructed geometry to determine a field of view and view position within the virtual reality environment; projecting a gaze ray outward from the view position along the user's gaze direction; identifying an intersection between the projected gaze ray and the virtual reality environment; placing a virtual object at the intersection within the virtual reality environment in response to user input, wherein the virtual reality environment is completely virtual; and determining when the placed virtual object extends outside the field of view; in response to determining that the placed virtual object extends outside the field of view, rotating the projected gaze ray from the view position from the original projected gaze ray in a direction of at least one of: left, right, up, down or combinations thereof at various angle of rotation and repositioning the virtual object at the intersection of the rotated projected gaze ray with the virtual reality environment to prevent clipping of the virtual object along an edge of the field of view when rendered on the display. obtaining sensor data describing a real world physical environment adjoining a user of the HMD device ; using the sensor data, reconstructing a geometry of the real world physical environment; tracking the user's head and gaze in the real world physical environment using the reconstructed geometry to determine a field of view and view position within the virtual reality environment; projecting a gaze ray outward from the view position along the user's gaze direction; identifying an intersection between the projected gaze ray and the virtual reality environment; placing a virtual object at the intersection within the virtual reality environment in response to user input, wherein the virtual reality environment is completely virtual; and determining when the placed virtual object extends outside the field of view; in response to determining that the placed virtual object extends outside the field of view, rotating the projected gaze ray from the view position from the original projected gaze ray in a direction of at least one of: left, right, up, down or combinations thereof at various angle of rotation and repositioning the virtual object at the intersection of the rotated projected gaze ray with the virtual reality environment to prevent clipping of the virtual object along an edge of the field of view when rendered on the display.