mhurhangee/patent-ind-claim-en huggingface dataset:
A machine tool comprising: first and second support arms ; a rigid structure which couples the first support arm to the second support arm; a first rotary drive operable to rotate the first support arm and the rigid structure relative to each other about a first rotational reference axis ; a second rotary drive operable to rotate the second support arm and the rigid structure relative to each other about a second rotational reference axis , wherein the first and second rotational reference axes are parallel; a tool mount carried by the first support arm at a location spaced from the first rotational axis, wherein the tool mount is rotatable relative to the first support arm about a tool reference axis which is parallel with the rotational reference axes and fixed in position relative to the first support arm; a tool drive for rotating the tool mount about the tool reference axis; a workpiece mount carried by the second support arm at a location spaced from the second rotational axis; and a control arrangement configured to control the first and second rotary drives such that the workpiece mount follows a predetermined path relative to the tool mount in a plane perpendicular to the rotational reference axes, characterised in that the first and second rotational reference axes are spaced apart by an unadjustable fixed distance. first and second support arms ; a rigid structure which couples the first support arm to the second support arm; a first rotary drive operable to rotate the first support arm and the rigid structure relative to each other about a first rotational reference axis ; a second rotary drive operable to rotate the second support arm and the rigid structure relative to each other about a second rotational reference axis , wherein the first and second rotational reference axes are parallel; a tool mount carried by the first support arm at a location spaced from the first rotational axis, wherein the tool mount is rotatable relative to the first support arm about a tool reference axis which is parallel with the rotational reference axes and fixed in position relative to the first support arm; a tool drive for rotating the tool mount about the tool reference axis; a workpiece mount carried by the second support arm at a location spaced from the second rotational axis; and a control arrangement configured to control the first and second rotary drives such that the workpiece mount follows a predetermined path relative to the tool mount in a plane perpendicular to the rotational reference axes, characterised in that the first and second rotational reference axes are spaced apart by an unadjustable fixed distance.
A miniature circuit breaker, comprising a circuit breaker body and a current detection unit , wherein the circuit breaker body and the current detection unit are located in respectively independent cavities in the circuit breaker and are electrically connected to each other; and after a current that flows from one end of the circuit breaker body flows through the current detection unit, the current flows into another end of the circuit breaker body; the current detection unit comprises a voltage drop detection assembly and a signal output terminal ; characterized in that the voltage drop detection assembly comprises a first voltage sampling point and a second voltage sampling point , wherein the first voltage sampling point and the second voltage sampling point are connected to the signal output terminal; and the signal output terminal is configured to output a voltage difference sampling value, wherein the voltage difference sampling value is a voltage difference between the first voltage sampling point and the second voltage sampling point. the current detection unit comprises a voltage drop detection assembly and a signal output terminal ; characterized in that the voltage drop detection assembly comprises a first voltage sampling point and a second voltage sampling point , wherein the first voltage sampling point and the second voltage sampling point are connected to the signal output terminal; and the signal output terminal is configured to output a voltage difference sampling value, wherein the voltage difference sampling value is a voltage difference between the first voltage sampling point and the second voltage sampling point.
A method for determining a flow rate of a fluid through a flow sensor with a measurement channel , in particular a flow sensor for testing a respirator, wherein the method comprises at least the following steps: a. providing a fluid in the measurement channel of the flow sensor ; b. capturing at least one first differential pressure in the measurement channel , wherein the at least one first differential pressure is present in a first differential-pressure area in the measurement channel ; c. capturing at least one second differential pressure in the measurement channel , wherein the at least one second differential pressure is present in a second differential-pressure area in the measurement channel and the differential pressure in the second differential-pressure area comprises the differential pressure in the first differential-pressure area ; d. transmitting the captured differential pressures to an evaluation unit ; e. determining a flow rate in the measurement channel by means of the evaluation unit based on the captured differential pressures, characterized in that three resistance elements (20a-20c) are provided in the measurement channel , and in that the first differential pressure is captured via the second resistance element , or is captured via the second and third resistance elements . a. providing a fluid in the measurement channel of the flow sensor ; b. capturing at least one first differential pressure in the measurement channel , wherein the at least one first differential pressure is present in a first differential-pressure area in the measurement channel ; c. capturing at least one second differential pressure in the measurement channel , wherein the at least one second differential pressure is present in a second differential-pressure area in the measurement channel and the differential pressure in the second differential-pressure area comprises the differential pressure in the first differential-pressure area ; d. transmitting the captured differential pressures to an evaluation unit ; e. determining a flow rate in the measurement channel by means of the evaluation unit based on the captured differential pressures, characterized in that three resistance elements (20a-20c) are provided in the measurement channel , and in that the first differential pressure is captured via the second resistance element , or is captured via the second and third resistance elements .
An unducted flow straightener for a turbomachine having a longitudinal axis (X), the flow straightener comprising: - a plurality of stator vanes extending substantially along a radial axis (Z), each stator vane comprising a root and a blade rising radially from the root , the root comprising two half-platforms extending on either side of the blade , - a plurality of pivots , each associated with a stator vane and pivotally mounted along a pitch axis (A) and intended to be connected to a pitch change system for changing the pitch of the blades, each pivot comprising an upper platform and a cylindrical lower portion , - a plurality of attachment systems, each associated with a stator vane and being adapted to attach the half-platforms of the root of the vane to the associated pivot, each attachment system comprising a clamping system and two plates arranged on either side of the blade , each of the plates having a shape substantially identical to each half-platform, the clamping system being designed to clamp the half-platforms of the root of the vane between the plates of the attachment system and the upper platform of the pivot. - a plurality of stator vanes extending substantially along a radial axis (Z), each stator vane comprising a root and a blade rising radially from the root , the root comprising two half-platforms extending on either side of the blade , - a plurality of pivots , each associated with a stator vane and pivotally mounted along a pitch axis (A) and intended to be connected to a pitch change system for changing the pitch of the blades, each pivot comprising an upper platform and a cylindrical lower portion , - a plurality of attachment systems, each associated with a stator vane and being adapted to attach the half-platforms of the root of the vane to the associated pivot, each attachment system comprising a clamping system and two plates arranged on either side of the blade , each of the plates having a shape substantially identical to each half-platform, the clamping system being designed to clamp the half-platforms of the root of the vane between the plates of the attachment system and the upper platform of the pivot.
An outer rotor-type brushless motor, comprising: a stator including a cylindrical housing having a cylindrical hole , a stator core , in which coils are formed on stator pole teeth , being attached to one end of the housing , and a bearing being coaxially incorporated in the cylindrical hole of the hosing ; and a rotor including a rotor yoke having a magnet facing the stator pole teeth , a rotor hub being provided to the center of the rotor yoke , and a rotor shaft being connected to the rotor hub and rotatably supported by the bearing , wherein the rotor is assembled to the stator in a state where a first resin washer , through which the rotor shaft is pierced and which contacts an end face of the rotor hub , and a second resin washer , which contacts an end face of the bearing incorporated in a center hole of the stator core , contact each other, characterized in that the second resin washer has an elastic projected section which is elastically deformable, wherein an outside dimension of the second resin washer is larger than that of the first resin washer , and the second resin washer is retained by fitting the projected section into a concave section formed in an inner wall of the center hole of the stator core . a stator including a cylindrical housing having a cylindrical hole , a stator core , in which coils are formed on stator pole teeth , being attached to one end of the housing , and a bearing being coaxially incorporated in the cylindrical hole of the hosing ; and a rotor including a rotor yoke having a magnet facing the stator pole teeth , a rotor hub being provided to the center of the rotor yoke , and a rotor shaft being connected to the rotor hub and rotatably supported by the bearing , wherein the rotor is assembled to the stator in a state where a first resin washer , through which the rotor shaft is pierced and which contacts an end face of the rotor hub , and a second resin washer , which contacts an end face of the bearing incorporated in a center hole of the stator core , contact each other, characterized in that the second resin washer has an elastic projected section which is elastically deformable, wherein an outside dimension of the second resin washer is larger than that of the first resin washer , and the second resin washer is retained by fitting the projected section into a concave section formed in an inner wall of the center hole of the stator core .
A branching air supply device for a refrigerator, comprising: a housing having a first half portion and a second half portion that are symmetric about a geometric symmetrical plane, the first half portion and the second half portion each being provided with at least one air inlet and a plurality of air outlets ; and a first adjusting piece and a second adjusting piece symmetrically arranged with respect to the geometric symmetrical plane that are respectively configured to completely shield, partially shield or completely expose each of the air outlets of the first half portion and the second half portion in a controlled mode so as to adjust an air-outlet area of each of the air outlets , wherein the first adjusting piece and the second adjusting piece are configured to synchronously move in opposite directions to completely shield, partially shield or completely expose the plurality of air outlets of the first half portion and the second half portion in a synchronous and symmetrical manner, wherein the branching air supply device further comprises a motor , and a transmission mechanism , wherein the transmission mechanism comprises a first gear mounted to an output shaft of the motor ; and two second gears that are coaxially fixed to a surface of rotary table portions of the first adjusting piece and the second adjusting piece respectively, characterized in that the two second gears are engaged with each other and that one of the second gears being engaged with the first gear . a housing having a first half portion and a second half portion that are symmetric about a geometric symmetrical plane, the first half portion and the second half portion each being provided with at least one air inlet and a plurality of air outlets ; and a first adjusting piece and a second adjusting piece symmetrically arranged with respect to the geometric symmetrical plane that are respectively configured to completely shield, partially shield or completely expose each of the air outlets of the first half portion and the second half portion in a controlled mode so as to adjust an air-outlet area of each of the air outlets , wherein the first adjusting piece and the second adjusting piece are configured to synchronously move in opposite directions to completely shield, partially shield or completely expose the plurality of air outlets of the first half portion and the second half portion in a synchronous and symmetrical manner, wherein the branching air supply device further comprises a motor , and a transmission mechanism , wherein the transmission mechanism comprises a first gear mounted to an output shaft of the motor ; and two second gears that are coaxially fixed to a surface of rotary table portions of the first adjusting piece and the second adjusting piece respectively, characterized in that the two second gears are engaged with each other and that one of the second gears being engaged with the first gear .
A waste tank for a sanitary facility, wherein the waste tank serves to receive the fecal matter and/or the waste water from at least one sanitary device of the sanitary facility and has at least one inlet and at least one outlet , wherein at least one suction float comprising at least one suction chamber and comprising at least one suction screen is arranged in the waste tank , wherein at least one suction line for connection to at least one suction pump is connected to the suction chamber , wherein liquid can be extracted from the waste tank by means of the suction float or by means of the suction line , respectively, which liquid is used as flushing liquid for at least one sanitary device of the sanitary facility, characterized in that the suction float has at least one float chamber , and wherein the float chamber is filled with air or essentially with air, respectively.
A rectangular glass substrate being at least 6 mm thick and having a front surface , a back surface, four side surfaces , and eight chamfer surfaces defined between the front surface and the side surfaces and between the back surface and the side surfaces , wherein along an edge line between the front surface and the chamfer surfaces disposed adjacent thereto, the substrate includes a first curved surface having an average gradient of not more than 25 % in a range from the front surface to a position 50 μm inside the front surface, and along an edge line between at least one of the four side surfaces and the chamfer surfaces disposed adjacent to the front surface , the substrate includes a second curved surface having an average gradient of at least 30 % in a range from the at least one side surface to a position 50 μm inside the at least one side surface . along an edge line between the front surface and the chamfer surfaces disposed adjacent thereto, the substrate includes a first curved surface having an average gradient of not more than 25 % in a range from the front surface to a position 50 μm inside the front surface, and along an edge line between at least one of the four side surfaces and the chamfer surfaces disposed adjacent to the front surface , the substrate includes a second curved surface having an average gradient of at least 30 % in a range from the at least one side surface to a position 50 μm inside the at least one side surface .
Positive displacement pump having a drive unit (A) and a pump unit having at least one inline valve unit , wherein the inline valve unit is tensioned in an operating position (B) between two flanges and the flanges are connected to each other by means of connection and/or spacer means , wherein a displacement of the inline valve unit is possible without dismounting a connection and/or spacer means , characterized in that either the connection and/or spacer means are arranged in such a way that different distances between adjacent connection and/or spacer means arise and the largest distance between two adjacent connection and/or spacer means is greater than the outer dimensions (M) of the inline valve unit or adjacent connection and/or spacer means have the same distance to each other, and this distance is greater than the outer dimensions (M) of the inline valve unit .
A system for constructing a new frame using rendered content and non-rendered content from a first perspective, the system comprising: a non-transitory computer-readable storage medium storing executable computer instructions that, when executed, perform steps comprising: identifying the first perspective by capturing a first pose of a user; rendering visible surfaces of a first set of objects from the first perspective; selecting the non-visible surfaces of the first set of objects from the first perspective as the non-rendered content; storing both the rendered content and the non-rendered content from the first perspective, the rendered content corresponding to the visible surfaces of the first set of objects from the first perspective, and the non-rendered content corresponding to non-visible portions of the first set of objects from the first perspective; generating a new frame to be displayed, wherein the new frame is generated from a second perspective using the rendered content and the non-rendered content from the first perspective; displaying the new frame from the second perspective; and a processor configured to execute the computer instructions. identifying the first perspective by capturing a first pose of a user; rendering visible surfaces of a first set of objects from the first perspective; selecting the non-visible surfaces of the first set of objects from the first perspective as the non-rendered content; storing both the rendered content and the non-rendered content from the first perspective, the rendered content corresponding to the visible surfaces of the first set of objects from the first perspective, and the non-rendered content corresponding to non-visible portions of the first set of objects from the first perspective; generating a new frame to be displayed, wherein the new frame is generated from a second perspective using the rendered content and the non-rendered content from the first perspective; displaying the new frame from the second perspective; and a processor configured to execute the computer instructions.
A method for producing metal-coated optical fiber , said method comprising: (a) providing a length of optical fiber having a glass fiber surrounded by a liquid soluble polymeric coating; (b) passing said optical fiber through a series of solution baths including a metal plating solution bath such that the glass fiber will contact the solution in each bath for a predetermined dwell time, the series of solution baths effecting removal of said polymer coating and subsequent plating of metal on the glass fiber, wherein the glass fiber passes through the series of solution baths without contacting anything except for the respective solution in each of said solutions baths and wherein each of said solutions baths comprises a vessel having inlet and outlet holes through which said optical fiber passes horizontally without contacting said vessel, such that removal of the polymer coating and subsequent plating of metal occurs without physical contact with any solid materials; and (c) collecting the optical fiber on a pulley after the metal plating solution bath so that a selected quantity of said metal-coated optical fiber is gathered. (a) providing a length of optical fiber having a glass fiber surrounded by a liquid soluble polymeric coating; (b) passing said optical fiber through a series of solution baths including a metal plating solution bath such that the glass fiber will contact the solution in each bath for a predetermined dwell time, the series of solution baths effecting removal of said polymer coating and subsequent plating of metal on the glass fiber, wherein the glass fiber passes through the series of solution baths without contacting anything except for the respective solution in each of said solutions baths and wherein each of said solutions baths comprises a vessel having inlet and outlet holes through which said optical fiber passes horizontally without contacting said vessel, such that removal of the polymer coating and subsequent plating of metal occurs without physical contact with any solid materials; and (c) collecting the optical fiber on a pulley after the metal plating solution bath so that a selected quantity of said metal-coated optical fiber is gathered.