mhurhangee/patent-ind-claim-en huggingface dataset:
A scanning optical system, comprising: a rotatable mirror unit (MU) including a first mirror surface (M1) inclining relative to a rotation axis (RO) and a second mirror surface (M2); and a light projecting system (LPS) including at least one light source (LD) which emits a light flux through the mirror unit (MU); wherein the light flux emitted from the light source is reflected on the first mirror surface of the mirror unit, then, proceeds to the second mirror surface, further is reflected on the second mirror surface, and is projected so as to scan a measurement range correspondingly to rotation of the mirror unit, and wherein the spot of the light flux emitted from the light projecting system is longer in a sub scanning angle direction parallel to the rotation axis than in a scanning angle direction orthogonal to the sub scanning angle direction in the measurement range and satisfies the following conditional expression, θ 1 − 90 × α ≤ 225 in the expression, θ1 is an intersection angle in degrees between the first mirror surface and the second mirror surface, and α is a rotation angle in degrees, wherein the mirror unit includes multiple pairs of the first mirror surfaces and the second mirror surfaces, and the respective intersection angles of the multiple pairs are different from each other. a rotatable mirror unit (MU) including a first mirror surface (M1) inclining relative to a rotation axis (RO) and a second mirror surface (M2); and a light projecting system (LPS) including at least one light source (LD) which emits a light flux through the mirror unit (MU); wherein the light flux emitted from the light source is reflected on the first mirror surface of the mirror unit, then, proceeds to the second mirror surface, further is reflected on the second mirror surface, and is projected so as to scan a measurement range correspondingly to rotation of the mirror unit, and wherein the spot of the light flux emitted from the light projecting system is longer in a sub scanning angle direction parallel to the rotation axis than in a scanning angle direction orthogonal to the sub scanning angle direction in the measurement range and satisfies the following conditional expression, θ 1 − 90 × α ≤ 225 in the expression, θ1 is an intersection angle in degrees between the first mirror surface and the second mirror surface, and α is a rotation angle in degrees, wherein the mirror unit includes multiple pairs of the first mirror surfaces and the second mirror surfaces, and the respective intersection angles of the multiple pairs are different from each other.
A manual braiding machine , comprising: a set of strand shuttles , each strand shuttle of the set of the strand shuttles having a strand holder positioned for holding a strand of flexible material and for dispensing the strand of flexible material ; a tensioner arm hingedly coupled to the plurality of shuttle stations , and positioned and biased to releasably securely receive and apply tension to the strands dispensed by the set of strand shuttles to retract the strands from the strand shuttles ; a plurality of shuttle stations at which the strand shuttles can be parked, the plurality of shuttle stations being arranged in a circuit; at least one shuttle carriage that, when driven, repeatedly selects an immediately previously unselected at least one strand shuttle of the set of the strand shuttles and moves each of the immediately previously unselected at least one strand shuttle of the set of the strand shuttles from one of the plurality of the shuttle stations at which the immediately previously unselected one strand shuttle of the set of the strand shuttles is parked to another of the plurality of the shuttle stations along the circuit so as to braid the strands of flexible material ; and a drive arrangement coupled to the at least one shuttle carriage to drive the at least one shuttle carriage . a set of strand shuttles , each strand shuttle of the set of the strand shuttles having a strand holder positioned for holding a strand of flexible material and for dispensing the strand of flexible material ; a tensioner arm hingedly coupled to the plurality of shuttle stations , and positioned and biased to releasably securely receive and apply tension to the strands dispensed by the set of strand shuttles to retract the strands from the strand shuttles ; a plurality of shuttle stations at which the strand shuttles can be parked, the plurality of shuttle stations being arranged in a circuit; at least one shuttle carriage that, when driven, repeatedly selects an immediately previously unselected at least one strand shuttle of the set of the strand shuttles and moves each of the immediately previously unselected at least one strand shuttle of the set of the strand shuttles from one of the plurality of the shuttle stations at which the immediately previously unselected one strand shuttle of the set of the strand shuttles is parked to another of the plurality of the shuttle stations along the circuit so as to braid the strands of flexible material ; and a drive arrangement coupled to the at least one shuttle carriage to drive the at least one shuttle carriage .
A method for manufacturing a part made of a first ceramic or made of carbon, consolidated by a second ceramic, having a determined geometry, wherein the following successive steps are carried out: a) a preform made of an organic polymer is manufactured, the preform having the same geometry as the part to be manufactured; b) the preform made of an organic polymer is impregnated with a first-ceramic precursor resin or a carbon precursor resin; c) the first-ceramic precursor resin or the carbon precursor resin is cross-linked and/or polymerised and then pyrolysed; d) optionally, steps b) and c) are repeated; whereby, at the end of step c) or step d), a part made of a first ceramic or made of carbon, having the same geometry as the part to be manufactured, is obtained; e) the second ceramic is deposited onto the part made of a first ceramic or made of carbon obtained at the end of step c) or step d), by a Chemical Vapour Deposition method or a Chemical Vapour Infiltration method. a) a preform made of an organic polymer is manufactured, the preform having the same geometry as the part to be manufactured; b) the preform made of an organic polymer is impregnated with a first-ceramic precursor resin or a carbon precursor resin; c) the first-ceramic precursor resin or the carbon precursor resin is cross-linked and/or polymerised and then pyrolysed; d) optionally, steps b) and c) are repeated; whereby, at the end of step c) or step d), a part made of a first ceramic or made of carbon, having the same geometry as the part to be manufactured, is obtained; e) the second ceramic is deposited onto the part made of a first ceramic or made of carbon obtained at the end of step c) or step d), by a Chemical Vapour Deposition method or a Chemical Vapour Infiltration method.
A current sensor (101; 102; 103) which is configured for measuring a current having a frequency which is higher than a minimum frequency and lower than a maximum frequency and which comprises: a first current path (12; 22) including a first flat-shaped portion (12f; 22f); and a first magnetoelectric conversion element arranged on the first current path (12; 22) and configured to detect magnetism generated when a current to be measured flows through the first current path (12; 22), wherein the first magnetoelectric conversion element is arranged at a position on the first current path (12; 22), at which a minimum frequency magnetic flux density serving as a magnetic flux density in a case of passing the current to be measured of the minimum frequency and a maximum frequency magnetic flux density serving as a magnetic flux density in a case of passing the current to be measured of the maximum frequency substantially coincide with each other, characterised in that a first conductive convex portion is provided, in the first current path (12; 22), in a direction in which the current to be measured flows, and the first conductive convex portion is provided to stand from one of end portions of the first flat-shaped portion (12f; 22f). a first current path (12; 22) including a first flat-shaped portion (12f; 22f); and a first magnetoelectric conversion element arranged on the first current path (12; 22) and configured to detect magnetism generated when a current to be measured flows through the first current path (12; 22), wherein the first magnetoelectric conversion element is arranged at a position on the first current path (12; 22), at which a minimum frequency magnetic flux density serving as a magnetic flux density in a case of passing the current to be measured of the minimum frequency and a maximum frequency magnetic flux density serving as a magnetic flux density in a case of passing the current to be measured of the maximum frequency substantially coincide with each other, characterised in that a first conductive convex portion is provided, in the first current path (12; 22), in a direction in which the current to be measured flows, and the first conductive convex portion is provided to stand from one of end portions of the first flat-shaped portion (12f; 22f).
Floor sanding device , comprising: - a carrier plate and a drive for driving the carrier plate; - a treatment plate for treating a surface of a floor, wherein the treatment plate is operatively coupled to the carrier plate; and - an intermediary plate that is arranged between the carrier plate and the treatment plate, characterized in that the intermediary plate comprises at least one compartment for receiving at least one pressure member for providing a higher local pressure. - a carrier plate and a drive for driving the carrier plate; - a treatment plate for treating a surface of a floor, wherein the treatment plate is operatively coupled to the carrier plate; and - an intermediary plate that is arranged between the carrier plate and the treatment plate, characterized in that the intermediary plate comprises at least one compartment for receiving at least one pressure member for providing a higher local pressure.
A compressor comprising a compression mechanism , a motor coupled with the compression mechanism via a driving shaft , and a casing for accommodating the compression mechanism and the motor , wherein the motor includes a motor stator , and a motor rotor disposed inside the motor stator and coupled to the driving shaft , the compression mechanism is spot-joined to the casing via a plurality of compression mechanism-side spot-joined portions formed by spot welding and, the motor stator is spot-joined to the casing via a plurality of spot-joined portions formed by spot welding and provided at different positions in a circumferential direction of the driving shaft , characterized in that all of the plurality of the motor-stator spot-joined portions formed by spot welding are provided at positions different from the compression mechanism-side spot-joined portions in the circumferential direction of the driving shaft and never at the same position in the circumferential direction of the driving shaft .
A method for plasma dicing a substrate , the method comprising: - providing a process chamber having a wall; - providing a plasma source adjacent to the wall of the process chamber ; - providing a work piece support within the process chamber ; - providing an electrostatic chuck within said work piece support , said electrostatic chuck having a plurality of gas inlet ports ; - providing a lift mechanism within the process chamber ; - loading a work piece onto said work piece support using said lift mechanism , said work piece having a support film , a frame and the substrate , said lift mechanism engaging the frame of said work piece outside an outer diameter of the substrate of said work piece and said plurality of gas inlet ports is positioned outside of said outer diameter of the substrate of said work piece ; - electrostatically clamping said work piece to said work piece support using said electrostatic chuck ; - generating a plasma using the plasma source ; and etching the work piece using the generated plasma . - providing a process chamber having a wall; - providing a plasma source adjacent to the wall of the process chamber ; - providing a work piece support within the process chamber ; - providing an electrostatic chuck within said work piece support , said electrostatic chuck having a plurality of gas inlet ports ; - providing a lift mechanism within the process chamber ; - loading a work piece onto said work piece support using said lift mechanism , said work piece having a support film , a frame and the substrate , said lift mechanism engaging the frame of said work piece outside an outer diameter of the substrate of said work piece and said plurality of gas inlet ports is positioned outside of said outer diameter of the substrate of said work piece ; - electrostatically clamping said work piece to said work piece support using said electrostatic chuck ; - generating a plasma using the plasma source ; and etching the work piece using the generated plasma .
Egg cellular extract for use in promoting, accelerating, or improving healing of chronic wound in a diabetic subject, wherein said egg cellular extract is fish egg cellular extract.
A device for testing an at least partially autonomous apparatus with sensors, comprising a selecting arrangement adapted to determine a scenario for testing depending on a probability defined for the scenario in a probability distribution (σ1, ..., σz), and to determine a test case (*) depending on the scenario and depending on information about the apparatus , and a testing arrangement adapted to determine an output for the apparatus depending on the test case (*), detect a response to the test case (*) of the apparatus and to determine a result of the testing depending on the response wherein the probability distribution (σ1, ..., σz) indicates relevancies of scenarios (s1, ..., sq) for testing principles (PI, ..., Pn), wherein the selecting arrangement is adapted to receive information about a principle and to select a scenario from a plurality of scenarios (s1, ..., sq) depending on the probability defined for the scenario in the probability distribution (σ1, ..., σz) for the plurality of scenarios (s1, ..., sq), wherein the principles are defined by a legal framework or a general condition, wherein the scenario refers to a context that is combined with an action to form a concrete situation, wherein the test case refers to the action and the context for the action, wherein the testing arrangement is adapted to compare in the test case a reaction of the apparatus to the test situation to a desired reaction to determine the result of the test, wherein the selecting arrangement is adapted to select the context for the test case (*) from a plurality of contexts (K1, ..., Km) defined by the scenario, wherein the test case (*) is defined depending on at least one sensor signal of the sensor, including an audio signal, a video signal, a radar sensor signal, an ultrasonic sensor signal or a time of flight sensor signal, wherein testing the sensor of the autonomous apparatus is not selected for those conditions which have no significant effect on the tested sensor signal, wherein a resulting scenario is synthesized in a signal or signals for testing the autonomous apparatus , wherein sensors at the autonomous apparatus capture a response, which is a reaction. wherein the selecting arrangement is adapted to select the context for the test case (*) from a plurality of contexts (K1, ..., Km) defined by the scenario, wherein the test case (*) is defined depending on at least one sensor signal of the sensor, including an audio signal, a video signal, a radar sensor signal, an ultrasonic sensor signal or a time of flight sensor signal, wherein testing the sensor of the autonomous apparatus is not selected for those conditions which have no significant effect on the tested sensor signal, wherein a resulting scenario is synthesized in a signal or signals for testing the autonomous apparatus , wherein sensors at the autonomous apparatus capture a response, which is a reaction.
Safety apparatus for motor vehicles, comprising at least a supporting body associable with a motor vehicle, at least an acceleration measuring device associated with said supporting body and able to measure the instantaneous acceleration of said motor vehicle along at least one direction, at least one communication unit associated with said supporting body and able to set up a radiofrequency communication with at least a remote unit (C), at least a location device associated with said supporting body and able to locate the position of said motor vehicle, at least an electronic siren associated with said supporting body and able to emit an alarm acoustic signal, characterised by the fact that it comprises check means configured for periodically checking the presence of said radiofrequency communication between said communication unit and said remote unit (C), and activation means operatively connected to said check means and to said electronic siren , wherein said check means are configured for sending at least an alarm signal to said activation means if said radiofrequency communication between said communication unit and said remote unit (C) is interrupted, and wherein said activation means are configured for activating said electronic siren if said check means detect a forced interruption of said radiofrequency communication, and wherein said supporting body is made up of a substantially box-shaped container body which can be fixed on said motor vehicle and which houses at least said acceleration measuring device , said communication unit , said location device , said electronic siren , said check means and said activation means , wherein said check means are made integral inside said communication unit , wherein said safety apparatus comprises at least an antenna operatively connected to said communication unit and associated with said supporting body or housed inside said container body , and wherein said safety apparatus comprises at least a power supply internal battery.
A positive plate comprising a current collector and an electrode active material layer arranged on at least one surface of the current collector , characterized in that : the current collector comprises a support layer and a conductive layer arranged on at least one surface of the support layer , a single-sided thickness D2 of the conductive layer satisfies: 30 nm≤D2≤3 μm, a material of the conductive layer is aluminum or aluminum alloy, a density of the conductive layer is 2.5 g/cm 3 -2.8 g/cm 3 ; the electrode active material layer comprises an electrode active material, a binder, and a conductive agent, the binder in the electrode active material layer has an uneven distribution in a thickness direction of the electrode active material layer , the electrode active material layer is divided in the thickness direction into an inner region and an outer region, and based on a total weight of the electrode active material layer , a weight percentage of the binder in the inner region of the electrode active material layer is higher than a weight percentage of the binder in the outer region of the electrode active material layer . the current collector comprises a support layer and a conductive layer arranged on at least one surface of the support layer , a single-sided thickness D2 of the conductive layer satisfies: 30 nm≤D2≤3 μm, a material of the conductive layer is aluminum or aluminum alloy, a density of the conductive layer is 2.5 g/cm 3 -2.8 g/cm 3 ; the electrode active material layer comprises an electrode active material, a binder, and a conductive agent, the binder in the electrode active material layer has an uneven distribution in a thickness direction of the electrode active material layer , the electrode active material layer is divided in the thickness direction into an inner region and an outer region, and based on a total weight of the electrode active material layer , a weight percentage of the binder in the inner region of the electrode active material layer is higher than a weight percentage of the binder in the outer region of the electrode active material layer .
An orthopedic joint, comprising an upper part , a lower part mounted on the upper part so as to pivot about a pivot axis , and a rotation hydraulics unit , which has a housing with a chamber and with a pivot piston which is mounted pivotably in the latter and divides the chamber into a flexion chamber and an extension chamber , said chambers being connected hydraulically to each other via at least one channel , and with a pretensioning device which assists a pivoting movement of the upper part relative to the lower part , characterized in that the pretensioning device is coupled directly to the pivot piston via a support .
Nebulizer for aerosolizing a liquid consisting in 4 sub-units detachably secured together, said 4 sub-units being : - a nebulizer body comprising an aerosol-generating system (4; 23, 24) for generating an aerosol and a nebulization chamber for containing the aerosol, and further comprises a first axially-arranged inner conduit comprising a lumen and a lower end projecting into the liquid tank of the reservoir , the lower end of the first inner conduit terminating close to the bottom of the liquid tank , - a reservoir comprises a liquid tank for receiving a liquid to be aerosolized, the reservoir being detachably fixed to the nebulizer body , and further comprises a second inner conduit projecting axially and upwardly into the liquid tank , the first inner conduit of the nebulizer body being arranged as a sleeve around a downstream end of the second inner conduit of the reservoir and being spaced from the downstream end of the second inner conduit of the reservoir by a spacing , - a detachable cover fixed to the nebulizer body and forming the top of the nebulization chamber , and - a respiratory interface detachably fixed to and in fluid communication with the nebulization chamber , characterized in that the aerosol-generating system (4; 23, 24) of the nebulizer body comprises a nozzle element comprising an orifice and a deflector element facing the orifice of the nozzle element , said nozzle element and said deflector element being arranged into the lumen of the first inner conduit , and the detachable cover comprises at least two valves . - a nebulizer body comprising an aerosol-generating system (4; 23, 24) for generating an aerosol and a nebulization chamber for containing the aerosol, and further comprises a first axially-arranged inner conduit comprising a lumen and a lower end projecting into the liquid tank of the reservoir , the lower end of the first inner conduit terminating close to the bottom of the liquid tank , - a reservoir comprises a liquid tank for receiving a liquid to be aerosolized, the reservoir being detachably fixed to the nebulizer body , and further comprises a second inner conduit projecting axially and upwardly into the liquid tank , the first inner conduit of the nebulizer body being arranged as a sleeve around a downstream end of the second inner conduit of the reservoir and being spaced from the downstream end of the second inner conduit of the reservoir by a spacing , - a detachable cover fixed to the nebulizer body and forming the top of the nebulization chamber , and - a respiratory interface detachably fixed to and in fluid communication with the nebulization chamber ,