mhurhangee/patent-ind-claim-en huggingface dataset:
Power capacitor with a protective device, with at least one self-healing winding and a pressure and overcurrent protective device, comprising a flexible, axially deformable diaphragm and a fuse connected in series to the circuit of one of the electrodes of the winding , located in a rigid housing and sealed with resin, so that an air chamber is formed in the space under the flexible, axially deformable diaphragm , wherein inside the body of the protective device there is the circular, flexible, axially deformable diaphragm , fixedly built in a cylindrical portion of the body of the protective device on the side of the winding forming the air chamber from the side of the winding, wherein in the side surface of the cylindrical portion of the body there is a cylinder projection forming an open channel along the side surface, from the side of the air chamber , closed with a removable barrier , over which a tube coaxial with the channel under the removable barrier is built, so that after removal of the removable barrier it is formed an extension of the open channel , connecting the air chamber with the open portion of the body of the protective device, wherein opening of the channels releases gas from the air chamber .
Metal-salen complex compound which is represented by formula : wherein each of R 1 , and R 2 is H, for use as radical inhibitor.
Drill bit having a shank , a helix and a drill head , a drill-bit axis which extends through the shank , the helix and the drill head , the helix has a conveying flank which is inclined with respect to the drill-bit axis , which faces the drill head and which extends helically about the drill-bit axis , a recess , extending helically about the drill-bit axis , in the conveying flank , characterized in that a roughness of the surface in the recess is less than a roughness of the surface of the conveying flank outside the recess . a shank , a helix and a drill head , a drill-bit axis which extends through the shank , the helix and the drill head , the helix has a conveying flank which is inclined with respect to the drill-bit axis , which faces the drill head and which extends helically about the drill-bit axis , a recess , extending helically about the drill-bit axis , in the conveying flank , characterized in that a roughness of the surface in the recess is less than a roughness of the surface of the conveying flank outside the recess .
Storage device for storing and retrieving energy, having at least one rotor block which is arranged vertically movably on at least one vertically arranged guide rod , the rotor block having a first adjusting device with at least one motor generator which is connected by means of the guide rod in such a way that the rotor block is moved vertically upwards along the guide rod by means of the first adjusting device can be moved, so that in motorized mode electrical energy supplied to the motor generator can be stored as potential energy of the rotor block , whereby the slider block can be moved downwards so that in a generator mode, the potential energy of the rotor block can be converted into electrical energy in the motor generator , wherein a second adjusting device with at least one drive is provided, which is connected to the rotor block and by means of which the rotor block can be moved downwards, characterized in that the second adjusting device comprises at least one threaded rod with a thread , which engages with the rotor block and engages through it.
Drainage fitting for a flushing cistern, comprising a valve body with a sealing element cooperating with a valve seat , and a float , wherein the valve body is movable with the sealing element from the valve seat along a center axis (M) from a resting position into a flushing position and from the flushing position into the resting position, and a float chamber with an opening , through which the valve body extends, wherein the float is movable within the float chamber along the center axis (M) and hydraulically cooperates with the float chamber , wherein the float chamber comprises at least one guiding passage formed for the triggering of a first flushing with a first flushing amount, through which, as soon as a flushing water level (S) surrounding the drainage fitting has sunken to the height of the guiding passage , air from areas outside of the float chamber can enter into the float chamber , such that the pressure ratios between the float chamber and the areas outside of the float chamber can be equalized, wherein the float is movable from the flushing position to the resting position upon the equalization of the pressure ratios, wherein a central axis (Z) extends centrally through the float chamber , wherein the valve body is arranged in a laterally offset manner with respect to the float chamber , such that the center axis (M) lies with a transverse offset (Q) with respect to the central axis (Z) of the float chamber and wherein the drainage fitting furthermore comprises a control unit for controlling a second flushing amount, wherein the control unit provides, upon reaching a water level prescribed for the second flushing amount, with a closing weight a closing force on the valve body , wherein the closing force can be switched or transferred, respectively, via a switching device from the control unit to the valve body .
A thermal diffusivity measuring device with (a) a sample holder for accommodating a sample to be measured, (b) a light source that comprises a continuous wave laser which - is designed to emit an intensity-modulated laser beam , the intensity (I 48 ) of which is modulated with an intensity modulation frequency (f I ), and - is arranged to emit the laser beam along a light path , (c) an optical system for directing the pulse of light in the light path onto the sample , (d) an infrared sensor for time-dependent detection of an infrared radiation intensity (I 22 ) emitted by the sample , and (e) an evaluation unit that is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity (I 22 ) and the intensity modulation frequency (f I ), characterised in that (f) the light source has a pulse light source and is designed to emit a pulse of light of a predetermined pulse energy (W) in the light path , and (g) the evaluation unit is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity(I 22 ) caused by the pulse of light . (a) a sample holder for accommodating a sample to be measured, (b) a light source that comprises a continuous wave laser which - is designed to emit an intensity-modulated laser beam , the intensity (I 48 ) of which is modulated with an intensity modulation frequency (f I ), and - is arranged to emit the laser beam along a light path , - is designed to emit an intensity-modulated laser beam , the intensity (I 48 ) of which is modulated with an intensity modulation frequency (f I ), and - is arranged to emit the laser beam along a light path , (c) an optical system for directing the pulse of light in the light path onto the sample , (d) an infrared sensor for time-dependent detection of an infrared radiation intensity (I 22 ) emitted by the sample , and (e) an evaluation unit that is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity (I 22 ) and the intensity modulation frequency (f I ), (f) the light source has a pulse light source and is designed to emit a pulse of light of a predetermined pulse energy (W) in the light path , and (g) the evaluation unit is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity(I 22 ) caused by the pulse of light .
A capacitive manometer comprising: (a) a diaphragm including a common electrode and (b) an electrode structure including a center electrode and ring electrode , wherein the diaphragm is movable relative to the electrode structure between (i) a zero position when the pressure on each side of the diaphragm is the same and (ii) a maximum differential position when the maximum measurable differential pressure is applied to the diaphragm, and a diaphragm support structure arranged so as to support the diaphragm so that the diaphragm is constrained relative to the electrode structure, and the common electrode is spaced from and axially aligned with the center and ring electrodes relative to an alignment axis of the manometer; and an electrode support structure arranged to support the electrode structure characterised in that it comprises a compliant ring including at least three flexures integrally formed in the ring and angularly spaced around the alignment axis; wherein the flexures are equiangularly spaced around the compliant ring, wherein the ring includes slots formed in the ring so as to form the flexures between adjacent pairs of slots, and wherein the slots are formed in the axial direction of the manometer and are of equal length; wherein the electrode support is clamped in place relative to the diaphragm at the locations of the compliant ring flexures. (a) a diaphragm including a common electrode and (b) an electrode structure including a center electrode and ring electrode , wherein the diaphragm is movable relative to the electrode structure between (i) a zero position when the pressure on each side of the diaphragm is the same and (ii) a maximum differential position when the maximum measurable differential pressure is applied to the diaphragm, and a diaphragm support structure arranged so as to support the diaphragm so that the diaphragm is constrained relative to the electrode structure, and the common electrode is spaced from and axially aligned with the center and ring electrodes relative to an alignment axis of the manometer; and an electrode support structure arranged to support the electrode structure
A vehicle pillar structure comprising: a non-transparent first supporting member that extends with a length direction thereof in a direction along a vehicle width direction end of a windshield glass , and that comprises a material with a coefficient of linear thermal expansion along the length direction of a first value; a non-transparent second supporting member that extends such that a length direction thereof is along a vehicle front end of a side door glass , that is disposed spaced apart from the first supporting member , and that comprises a material with a coefficient of linear thermal expansion along the length direction of a second value; and a resin transparent member that is disposed spanning between the first supporting member and the second supporting member , that is joined to length direction faces of the first supporting member and the second supporting member , that comprises a material with a coefficient of linear thermal expansion along the length directions of the first supporting member and the second supporting member of a larger value than the first value and the second value, characterised in that the resin transparent member includes multiple glass fibers with length directions thereof oriented such that fiber length directions are substantially orthogonal to the length directions of the first supporting member and the second supporting member . a non-transparent first supporting member that extends with a length direction thereof in a direction along a vehicle width direction end of a windshield glass , and that comprises a material with a coefficient of linear thermal expansion along the length direction of a first value; a non-transparent second supporting member that extends such that a length direction thereof is along a vehicle front end of a side door glass , that is disposed spaced apart from the first supporting member , and that comprises a material with a coefficient of linear thermal expansion along the length direction of a second value; and a resin transparent member that is disposed spanning between the first supporting member and the second supporting member , that is joined to length direction faces of the first supporting member and the second supporting member , that comprises a material with a coefficient of linear thermal expansion along the length directions of the first supporting member and the second supporting member of a larger value than the first value and the second value, characterised in that the resin transparent member includes multiple glass fibers with length directions thereof oriented such that fiber length directions are substantially orthogonal to the length directions of the first supporting member and the second supporting member .
A display device comprising: a processing unit, a display unit coupled to the processing unit and a near field communication unit coupled to the processing unit, characterized in that the processing unit is configured to extract display messages to be displayed by the display unit and corresponding near field communication messages to be stored in the near field communication unit from different parallel channels comprised in a single data source, wherein the corresponding near field communication messages are embedded within a data file or data stream that also contains the display messages, and wherein said processing unit is configured to synchronize the display messages with the corresponding near field communication messages which are configured to be read by an external near field communication-enabled mobile device. a processing unit, a display unit coupled to the processing unit and a near field communication unit coupled to the processing unit, characterized in that the processing unit is configured to extract display messages to be displayed by the display unit and corresponding near field communication messages to be stored in the near field communication unit from different parallel channels comprised in a single data source, wherein the corresponding near field communication messages are embedded within a data file or data stream that also contains the display messages, and wherein said processing unit is configured to synchronize the display messages with the corresponding near field communication messages which are configured to be read by an external near field communication-enabled mobile device.
A computer-implemented method, comprising: receiving at a network access component of an application executed at a client device a network request from an application component of the application , the network request for access to a network resource ; comparing , by the network access component , using a processor circuit, the network resource to a plurality of zero-rating rewrite rules stored in a data store of the client device to identify a zero-rating rewrite rule matching the network resource ; transforming , by the network access component , the network request to a zero-rated network request for the network resource using the identified zero-rating rewrite rule; and performing , by the network access component , the zero-rated network request using a network interface controller, the zero-rated network request comprising requesting the network resource from a zero-rated network server without generating specific bandwidth charges to the client. receiving at a network access component of an application executed at a client device a network request from an application component of the application , the network request for access to a network resource ; comparing , by the network access component , using a processor circuit, the network resource to a plurality of zero-rating rewrite rules stored in a data store of the client device to identify a zero-rating rewrite rule matching the network resource ; transforming , by the network access component , the network request to a zero-rated network request for the network resource using the identified zero-rating rewrite rule; and performing , by the network access component , the zero-rated network request using a network interface controller, the zero-rated network request comprising requesting the network resource from a zero-rated network server without generating specific bandwidth charges to the client.
A mobile device comprising: a camera configured for capturing an image ; a visual display ; and a processor communicatively coupled to the camera and the visual display , the processor being configured for: displaying the image on the visual display , wherein the image comprises a plurality of code symbols ; receiving a selection input indicating a selected code symbol of the plurality of code symbols ; characterized by the processor being further configured for: determining whether the selected code symbol is completely decodable to obtain data of the selected code symbol, including decoding the selected code symbol and using error detection means to verify that the decoding of the selected code symbol is a complete decoding; and in response to determining that the selected code symbol is completely decodable, displaying, on the visual display , a positive indicator overlaying the selected code symbol. a camera configured for capturing an image ; a visual display ; and a processor communicatively coupled to the camera and the visual display , the processor being configured for: displaying the image on the visual display , wherein the image comprises a plurality of code symbols ; receiving a selection input indicating a selected code symbol of the plurality of code symbols ; displaying the image on the visual display , wherein the image comprises a plurality of code symbols ; receiving a selection input indicating a selected code symbol of the plurality of code symbols ; determining whether the selected code symbol is completely decodable to obtain data of the selected code symbol, including decoding the selected code symbol and using error detection means to verify that the decoding of the selected code symbol is a complete decoding; and in response to determining that the selected code symbol is completely decodable, displaying, on the visual display , a positive indicator overlaying the selected code symbol.
A communication device that performs a communication behavior for a user, comprising: a structure that includes a plurality of units and has a face unit having at least one unit that includes a face; a controller configured to cause the structure to perform a gesture by controlling a movement of the units, the gesture expressing the communication behavior; and at least one sensor configured to detect a position of a user around the structure , the position being relative to the structure , wherein the at least one sensor is configured to detect a position of the user's face, wherein the controller is configured to measure an angle between a direction in which the face unit faces and a direction of the user's face as viewed from the face unit and control the movement of the units such that the structure performs different gestures according to the angle, and the controller is configured to control the movement of the units such that the structure performs a first gesture if the angle is smaller than a predetermined threshold and is configured to control the movement of the units such that the structure performs a second gesture if the angle is equal to or larger than the threshold, the second gesture being different from the first gesture, characterized in that the controller is configured to control the movement of the units such that the units already moving in the first gesture have a movement range in the second gesture which is larger than the movement range of said units in the first gesture. a structure that includes a plurality of units and has a face unit having at least one unit that includes a face; a controller configured to cause the structure to perform a gesture by controlling a movement of the units, the gesture expressing the communication behavior; and at least one sensor configured to detect a position of a user around the structure , the position being relative to the structure , wherein the at least one sensor is configured to detect a position of the user's face, wherein the controller is configured to measure an angle between a direction in which the face unit faces and a direction of the user's face as viewed from the face unit and control the movement of the units such that the structure performs different gestures according to the angle, and the controller is configured to control the movement of the units such that the structure performs a first gesture if the angle is smaller than a predetermined threshold and is configured to control the movement of the units such that the structure performs a second gesture if the angle is equal to or larger than the threshold, the second gesture being different from the first gesture, characterized in that the controller is configured to control the movement of the units such that the units already moving in the first gesture have a movement range in the second gesture which is larger than the movement range of said units in the first gesture.
A wireless power transfer system comprising a power transmitter and a power receiver for receiving a power transfer from the power transmitter via an electromagnetic signal; the power receiver comprising: a power receiver coil for extracting power from the electromagnetic signal; a load controller arranged to disconnect a load of the power receiver coil during a foreign object detection interval; the power receiver characterized by further comprising: a power controller for transmitting power control messages to the power transmitter during the foreign object detection interval, the power control messages reflecting a difference between a level of an induced signal in the power receiver coil and a reference level; a message transmitter for transmitting a predetermined loading indication for the reference level to the power transmitter , the predetermined loading indication being indicative of a predetermined amount of power being extracted from the electromagnetic signal by the power receiver when the load is disconnected and the induced signal in the power receiver coil is at the reference level; and the power transmitter comprising: a power transmitter coil for generating the electromagnetic signal; the power transmitter characterized by further comprising: a message receiver for receiving the power control messages and the predetermined loading indication from the power receiver; a power loop controller for controlling a power level of the electromagnetic signal in response to the power control messages; a foreign object detector for, during the foreign object detection interval, performing a foreign object detection in response to a comparison of the power level of the electromagnetic signal and the predetermined loading indication. a power receiver coil for extracting power from the electromagnetic signal; a load controller arranged to disconnect a load of the power receiver coil during a foreign object detection interval; a power controller for transmitting power control messages to the power transmitter during the foreign object detection interval, the power control messages reflecting a difference between a level of an induced signal in the power receiver coil and a reference level; a message transmitter for transmitting a predetermined loading indication for the reference level to the power transmitter , the predetermined loading indication being indicative of a predetermined amount of power being extracted from the electromagnetic signal by the power receiver when the load is disconnected and the induced signal in the power receiver coil is at the reference level; a message receiver for receiving the power control messages and the predetermined loading indication from the power receiver; a power loop controller for controlling a power level of the electromagnetic signal in response to the power control messages; a foreign object detector for, during the foreign object detection interval, performing a foreign object detection in response to a comparison of the power level of the electromagnetic signal and the predetermined loading indication.