mhurhangee/patent-ind-claim-en huggingface dataset:
Mechanical oscillator for a horological movement, the oscillator comprising: a central fixed part being configured to be fixed to a frame of the horological movement; an inertial rim coaxial with a pivoting axis of the mechanical oscillator; at least two rigid links extending radially between the central fixed part and the inertial rim and supporting the inertial rim ; and at least two flexible links extending radially from the central fixed part ; each flexible link comprising a first flexible element and a second flexible element substantially coplanar to the first element , the first flexible element and the second flexible element being rigidly connected at their distal extremity; the proximal extremity of the first flexible element being fixed to the fixed part and the proximal extremity of the second flexible element being fixed to one of said at least two rigid links , such that the inertial rim can oscillate around the pivoting axis ; characterized in that the first flexible element comprises two first blades and the second flexible element comprises one second blade coplanar with said first blades ; and in that said two first blades are arranged on each side of one second blade . a central fixed part being configured to be fixed to a frame of the horological movement; an inertial rim coaxial with a pivoting axis of the mechanical oscillator; at least two rigid links extending radially between the central fixed part and the inertial rim and supporting the inertial rim ; and at least two flexible links extending radially from the central fixed part ; each flexible link comprising a first flexible element and a second flexible element substantially coplanar to the first element , the first flexible element and the second flexible element being rigidly connected at their distal extremity; the proximal extremity of the first flexible element being fixed to the fixed part and the proximal extremity of the second flexible element being fixed to one of said at least two rigid links , such that the inertial rim can oscillate around the pivoting axis ; characterized in that the first flexible element comprises two first blades and the second flexible element comprises one second blade coplanar with said first blades ; and in that said two first blades are arranged on each side of one second blade .
An optical device comprising: a reflector being curved along a first directional axis and being rotationally asymmetric along the first directional axis; a partially reflective circular polarizer , for selecting polarized light, positioned between the reflector and an expected position of a first user eye and curved along the first directional axis; and an electronic display , configured to provide light to the first user eye, positioned at an eye-ward side of the partially reflective circular polarizer and curved to fit a contour of the eye-ward side of the partially reflective circular polarizer. a reflector being curved along a first directional axis and being rotationally asymmetric along the first directional axis; a partially reflective circular polarizer , for selecting polarized light, positioned between the reflector and an expected position of a first user eye and curved along the first directional axis; and an electronic display , configured to provide light to the first user eye, positioned at an eye-ward side of the partially reflective circular polarizer and curved to fit a contour of the eye-ward side of the partially reflective circular polarizer.
A power module (100; 200; 500) configured to supply power to a load , comprising: a current generator configured to generate a current; a current rail configured to receive the current and output the current from the power module, wherein the current rail includes a first opening formed therethrough, and the current, while flowing along the current rail in an output direction, produces a magnetic field; and a magnetic sensor disposed in the first opening of the current rail , wherein the magnetic sensor is configured to generate a differential sensor signal based on the magnetic field impinging thereon, wherein the current generator is configured to regulate the current based on the differential sensor signal, characterised in that the power module (100; 200; 500) further comprises: an insulator body structure , wherein the insulator body structure includes a second opening formed therethrough, the second opening being aligned with the first opening of the current rail , wherein the magnetic sensor is disposed partially in the first opening and partially in the second opening. a current generator configured to generate a current; a current rail configured to receive the current and output the current from the power module, wherein the current rail includes a first opening formed therethrough, and the current, while flowing along the current rail in an output direction, produces a magnetic field; and a magnetic sensor disposed in the first opening of the current rail , wherein the magnetic sensor is configured to generate a differential sensor signal based on the magnetic field impinging thereon, wherein the current generator is configured to regulate the current based on the differential sensor signal, characterised in that the power module (100; 200; 500) further comprises: an insulator body structure , wherein the insulator body structure includes a second opening formed therethrough, the second opening being aligned with the first opening of the current rail , wherein the magnetic sensor is disposed partially in the first opening and partially in the second opening.
Dish brush for mounting at a vertical driving axle under a conventional sweeping machine for cleaning mostly paved surfaces with sweeping elements, wherein said dish brush is built-up of a circular plate with a raised outer edge , wherein at the bottom side of said raised outer edge are fixed at mutually equal tangential distances said sweeping elements characterised in that said raised outer contour edge is executed under an angle alpha (a) with the circular plate to form with the sweeping elements a to the outside protruding circular dish brush with an axial diameter D1 and a raised contour edge diameter D2 all with a plate thickness d, wherein against the bottom side of said raised contour edge at radial angles of five beta ( 5 β) sweeping elements in the form of steel cable plugs with a circular holder and between them at radial angles beta (β) brush-shaped sweeping elements with a rectangular holder are fixed by welding, wherein said cable plugs with their cylindrical holder are welded against the bottom side of raised contour edge and said sweeping elements are welded through slit openings from the upper side of said raised outer contour edge .
A driving behavior monitoring method, comprising: determining (S11; S24) a state evaluation value of a driving behavior according to a state parameter of a driver in a driving process; determining (S12; S25) a state threshold of the driving behavior according to a state threshold determining parameter of the driving behavior; and determining (S13; S26) a type of the driving behavior according to the state evaluation value of the driving behavior and the state threshold of the driving behavior; wherein the determining (S13) a type of the driving behavior according to the state evaluation value of the driving behavior and the state threshold of the driving behavior comprises: determining a state target value of the normal driving behavior according to a reference value of a normal driving behavior and the state threshold of the driving behavior; and determining the type of the driving behavior according to a comparison result between the state evaluation value of the driving behavior and the state target value of the normal driving behavior. determining (S11; S24) a state evaluation value of a driving behavior according to a state parameter of a driver in a driving process; determining (S12; S25) a state threshold of the driving behavior according to a state threshold determining parameter of the driving behavior; and determining (S13; S26) a type of the driving behavior according to the state evaluation value of the driving behavior and the state threshold of the driving behavior; wherein the determining (S13) a type of the driving behavior according to the state evaluation value of the driving behavior and the state threshold of the driving behavior comprises: determining a state target value of the normal driving behavior according to a reference value of a normal driving behavior and the state threshold of the driving behavior; and determining the type of the driving behavior according to a comparison result between the state evaluation value of the driving behavior and the state target value of the normal driving behavior. determining a state target value of the normal driving behavior according to a reference value of a normal driving behavior and the state threshold of the driving behavior; and determining the type of the driving behavior according to a comparison result between the state evaluation value of the driving behavior and the state target value of the normal driving behavior.
An electrode slurry coating apparatus, comprising: an electrode slurry discharge flow path configured to discharge an electrode slurry through a slit formed on an interface between first and second dies; an electrode slurry storage tank configured to be fluidly connected to the electrode slurry discharge flow path and store the electrode slurry therein at a static pressure condition; and a static pressure opening and closing valve configured to be located on a flow path on which the electrode slurry discharge flow path is fluidly connected to the electrode slurry storage tank , wherein an opening or closing of the static pressure opening and closing valve is determined according to a difference between a pressure of the electrode slurry discharge flow path and an internal pressure of the electrode slurry storage tank , characterized in that the static pressure opening and closing valve includes a shielding member supported by an elastic force of an elastic body, and the shielding member is configured to open if a force of pressurizing the shielding member by the pressure of the electrode slurry discharge flow path exceeds a predetermined reference value. an electrode slurry discharge flow path configured to discharge an electrode slurry through a slit formed on an interface between first and second dies; an electrode slurry storage tank configured to be fluidly connected to the electrode slurry discharge flow path and store the electrode slurry therein at a static pressure condition; and a static pressure opening and closing valve configured to be located on a flow path on which the electrode slurry discharge flow path is fluidly connected to the electrode slurry storage tank , wherein an opening or closing of the static pressure opening and closing valve is determined according to a difference between a pressure of the electrode slurry discharge flow path and an internal pressure of the electrode slurry storage tank , characterized in that the static pressure opening and closing valve includes a shielding member supported by an elastic force of an elastic body, and the shielding member is configured to open if a force of pressurizing the shielding member by the pressure of the electrode slurry discharge flow path exceeds a predetermined reference value.
A method of feeding an animal comprising: placing a closed food container containing animal food in an animal feeding system ; employing the animal feeding system to open the food container by lifting or grabbing a holding feature in said container comprising a tip, foil or cover , and to present the food to an animal for eating; and employing the animal feeding system to re-close the food container by closing said container with said tip, foil or cover on said container . placing a closed food container containing animal food in an animal feeding system ; employing the animal feeding system to open the food container by lifting or grabbing a holding feature in said container comprising a tip, foil or cover , and to present the food to an animal for eating; and employing the animal feeding system to re-close the food container by closing said container with said tip, foil or cover on said container .
Ventilation device for ventilating a living space , comprising at least one duct through which a flow can pass, at least one filter receptacle and at least one filter apparatus through which a flow can pass, wherein the filter apparatus can be inserted at least partially into the filter receptacle such that in the inserted state it spans a cross-section of the duct through which a flow can pass, wherein the filter apparatus has at least one first zone and at least one second zone different from the former, wherein the second zone contacts the filter receptacle during an insertion and in the inserted state, wherein the second zone is configured to have greater flexibility than the first zone , wherein the filter apparatus is formed in the region of the first zone with at least one filter element and in the region of the second zone with at least one sealing element , characterised in that the second zone is dimensioned such that it projects at least partially out of the filter receptacle , and wherein the second zone thereby projects inwardly beyond the filter receptacle , so that the projecting portion of the second zone can be flowed through by air flowing through the duct .
A gas sensor for determining the NO 2 and NO x concentrations, comprising: a platinum reference electrode ; at least two sensing electrodes including a first La 2 CuO 4 sensing electrode and a second La 2 CuO 4 sensing electrode , wherein each of the reference and sensing electrodes is in contact with an oxygen ion-conducting electrolyte and exposed to an environment of interest; a mechanism configured to: - alter a corresponding one or more temperatures of one or more of the at least two sensing electrodes , - establish a temperature difference (dT) between the first La 2 CuO 4 sensing electrode and the second La 2 CuO 4 sensing electrode , and - establish a temperature difference between the first La 2 CuO 4 sensing electrode and the platinum reference electrode ; and a detector configured to measure a first electrical characteristic between the first La 2 CuO 4 sensing electrode and the reference electrode , and a second electrical characteristic between the first La 2 CuO 4 sensing electrode and the second La 2 CuO 4 sensing electrode , wherein the concentration of NO 2 in the environment of interest is based on the first electrical characteristic and the total concentration of NO 2 and NO (NO x ) in the environment of interest is based on the second electrical characteristic. a platinum reference electrode ; at least two sensing electrodes including a first La 2 CuO 4 sensing electrode and a second La 2 CuO 4 sensing electrode , wherein each of the reference and sensing electrodes is in contact with an oxygen ion-conducting electrolyte and exposed to an environment of interest; a mechanism configured to: - alter a corresponding one or more temperatures of one or more of the at least two sensing electrodes , - establish a temperature difference (dT) between the first La 2 CuO 4 sensing electrode and the second La 2 CuO 4 sensing electrode , and - establish a temperature difference between the first La 2 CuO 4 sensing electrode and the platinum reference electrode ; and - alter a corresponding one or more temperatures of one or more of the at least two sensing electrodes , - establish a temperature difference (dT) between the first La 2 CuO 4 sensing electrode and the second La 2 CuO 4 sensing electrode , and - establish a temperature difference between the first La 2 CuO 4 sensing electrode and the platinum reference electrode ; and a detector configured to measure a first electrical characteristic between the first La 2 CuO 4 sensing electrode and the reference electrode , and a second electrical characteristic between the first La 2 CuO 4 sensing electrode and the second La 2 CuO 4 sensing electrode , wherein the concentration of NO 2 in the environment of interest is based on the first electrical characteristic and the total concentration of NO 2 and NO (NO x ) in the environment of interest is based on the second electrical characteristic.
Pedal drive system for generating electrical power from muscle power of a user with at least - one pedal ; - an electric generator , connected mechanically with said at least one pedal; and - a control unit for controlling a feedback torque, applied at said pedal; characterized in that - the control unit comprises a haptic renderer , configured for control of said feedback torque based on at least one predefined pedal reference trajectory, wherein the control unit further comprises an inertia modeler , configured to iteratively adapt the at least one pedal reference trajectory, which adapted pedal reference trajectory is provided to the haptic renderer for control of said feedback torque. - one pedal ; - an electric generator , connected mechanically with said at least one pedal; and - a control unit for controlling a feedback torque, applied at said pedal; characterized in that - the control unit comprises a haptic renderer , configured for control of said feedback torque based on at least one predefined pedal reference trajectory, wherein the control unit further comprises an inertia modeler , configured to iteratively adapt the at least one pedal reference trajectory, which adapted pedal reference trajectory is provided to the haptic renderer for control of said feedback torque.
A measurement apparatus comprising: a static magnetic field application part that applies a static magnetic field of a constant magnitude in a first direction to a measurement subject ; a deflection magnetic field application part that applies a deflection magnetic field having a predetermined frequency in a second direction different from the first direction, to a portion of the measurement subject via a coil; a plurality of magnetic field detection elements that are arranged around the measurement subject and respectively detect a magnitude of a magnetic field on the basis of an electromagnetic wave generated and propagated in a portion of the measurement subject due to an application of the deflection magnetic field; a calculation part that calculates an impedance distribution of at least a portion of a region where the electromagnetic wave is propagated inside the measurement subject on the basis of detection results of the plurality of magnetic field detection elements ; and an image information output part that generates and outputs an image showing information about inside the measurement subject on the basis of the impedance distribution. a static magnetic field application part that applies a static magnetic field of a constant magnitude in a first direction to a measurement subject ; a deflection magnetic field application part that applies a deflection magnetic field having a predetermined frequency in a second direction different from the first direction, to a portion of the measurement subject via a coil; a plurality of magnetic field detection elements that are arranged around the measurement subject and respectively detect a magnitude of a magnetic field on the basis of an electromagnetic wave generated and propagated in a portion of the measurement subject due to an application of the deflection magnetic field; a calculation part that calculates an impedance distribution of at least a portion of a region where the electromagnetic wave is propagated inside the measurement subject on the basis of detection results of the plurality of magnetic field detection elements ; and an image information output part that generates and outputs an image showing information about inside the measurement subject on the basis of the impedance distribution.
An extracorporeal circulation apparatus comprising: a blood circuit including an arterial blood circuit and a venous blood circuit whose proximal ends are connected to a blood purifier , the blood circuit allowing a patient's blood to extracorporeally circulate from a distal end of the arterial blood circuit to a distal end of the venous blood circuit ; a discharge unit through which a priming solution supplied into the blood circuit is allowed to be discharged to an outside; a negative-pressure-generating unit configured to generate a negative pressure in a region of the blood circuit, the region being filled with the priming solution; and a control unit (E) configured to control the negative-pressure-generating unit, characterized in that the control unit (E) is configured to execute a priming step in which the priming solution supplied into the blood circuit is discharged through the discharge unit while a flow route in the blood circuit is filled with the priming solution; a negative-pressure-generating step in which, after the priming step, a negative pressure is generated in the region by the negative-pressure-generating unit; and a discharge step in which bubbles in the region subjected to the negative pressure generated in the negative-pressure-generating step are caused to flow and are discharged through the discharge unit. a blood circuit including an arterial blood circuit and a venous blood circuit whose proximal ends are connected to a blood purifier , the blood circuit allowing a patient's blood to extracorporeally circulate from a distal end of the arterial blood circuit to a distal end of the venous blood circuit ; a discharge unit through which a priming solution supplied into the blood circuit is allowed to be discharged to an outside; a negative-pressure-generating unit configured to generate a negative pressure in a region of the blood circuit, the region being filled with the priming solution; and a control unit (E) configured to control the negative-pressure-generating unit, characterized in that the control unit (E) is configured to execute a priming step in which the priming solution supplied into the blood circuit is discharged through the discharge unit while a flow route in the blood circuit is filled with the priming solution; a negative-pressure-generating step in which, after the priming step, a negative pressure is generated in the region by the negative-pressure-generating unit; and a discharge step in which bubbles in the region subjected to the negative pressure generated in the negative-pressure-generating step are caused to flow and are discharged through the discharge unit.