mhurhangee/patent-ind-claim-en huggingface dataset:
A method for interacting with an object (6a-6c) which is displayed to a user via smart glasses , wherein the smart glasses comprise a display, the method comprising the steps of: displaying the object (6a-6c) for the user using the display of the smart glasses ; detecting that the user closes a first eye and keeps the first eye closed during a specified period of time using a first camera which records the first eye of the user ; recording a hand of the user using a second camera ; ascertaining the position of the smart glasses relative to the second eye of the user using a third camera of the smart glasses which is directed toward the second eye; determining that the user performs an input action for the object (6a-6c) during the specified period of time; wherein the input action includes the hand of the user assuming a configuration and, from the perspective of the second eye of the user , a position with respect to the object that satisfy a predetermined condition; and carrying out an action with respect to the object (6a-6c), wherein the action is associated with the input action in advance. displaying the object (6a-6c) for the user using the display of the smart glasses ; detecting that the user closes a first eye and keeps the first eye closed during a specified period of time using a first camera which records the first eye of the user ; recording a hand of the user using a second camera ; ascertaining the position of the smart glasses relative to the second eye of the user using a third camera of the smart glasses which is directed toward the second eye; determining that the user performs an input action for the object (6a-6c) during the specified period of time; wherein the input action includes the hand of the user assuming a configuration and, from the perspective of the second eye of the user , a position with respect to the object that satisfy a predetermined condition; and carrying out an action with respect to the object (6a-6c), wherein the action is associated with the input action in advance.
A method of applying energy to a cavity , the method comprising: applying RF energy to the cavity, wherein the application of RF energy is conducted by sweeping over a plurality of excitation setups, each excitation setup resulting in a respective field pattern in the cavity and being defined by respective values of one or more controllable field affecting parameters, wherein the one or more controllable field affecting parameters comprise: phase difference between EM fields emitted by two radiating elements; a difference between intensities at which two radiating elements emit EM fields of the same frequency; a status of a radiating element being on or off; a position of a radiating element; an orientation of a radiating element; or cavity dimensions; receiving RF feedback from the cavity; and applying processing energy to the cavity based on the received RF feedback, wherein applying processing energy comprises heating by convection, infrared, or both. applying RF energy to the cavity, wherein the application of RF energy is conducted by sweeping over a plurality of excitation setups, each excitation setup resulting in a respective field pattern in the cavity and being defined by respective values of one or more controllable field affecting parameters, wherein the one or more controllable field affecting parameters comprise: phase difference between EM fields emitted by two radiating elements; a difference between intensities at which two radiating elements emit EM fields of the same frequency; a status of a radiating element being on or off; a position of a radiating element; an orientation of a radiating element; or cavity dimensions; receiving RF feedback from the cavity; and applying processing energy to the cavity based on the received RF feedback, wherein applying processing energy comprises heating by convection, infrared, or both.
A method of performing a diagnostic test, in particular a coagulation test, preferably a viscoelastic analysis, on a sample , in particular a blood sample or a fraction of a blood sample, comprising the following steps: a) providing a pipette tip , the pipette tip comprising a constituent (A) and a constituent (B) in a spatially separated manner, wherein the constituents (A) and (B) are adapted to form a diagnostic composition upon combination, wherein each of the constituents (A) and (B) are, independently from each other, an essentially dry formulation or a dry formulation, an essentially dry formulation being defined by a remaining amount of liquid in the composition of up to 10 % by weight, a Z and wherein the constituent (A) is different than the constituent (B); b) aspirating the sample into the pipette tip , thereby mixing, preferably dissolving, the constituent (A) and the constituent (B) of said pipette tip in the sample and obtaining a mixture, preferably a solution, of the sample and constituents (A) and (B), wherein in said mixture, constituents (A) and (B) form a diagnostic composition that is required to perform the diagnostic test on the sample ; c) optionally, transferring the mixture of the sample and the diagnostic composition into a measurement container suitable for performing said diagnostic test, such as a cuvette; d) optionally, putting the measurement container such as the cuvette, into an apparatus suitable for performing said diagnostic test; and e) performing the diagnostic test of said mixture, optionally in the measurement container such as the cuvette. a) providing a pipette tip , the pipette tip comprising a constituent (A) and a constituent (B) in a spatially separated manner, wherein the constituents (A) and (B) are adapted to form a diagnostic composition upon combination, wherein each of the constituents (A) and (B) are, independently from each other, an essentially dry formulation or a dry formulation, an essentially dry formulation being defined by a remaining amount of liquid in the composition of up to 10 % by weight, a Z and wherein the constituent (A) is different than the constituent (B); b) aspirating the sample into the pipette tip , thereby mixing, preferably dissolving, the constituent (A) and the constituent (B) of said pipette tip in the sample and obtaining a mixture, preferably a solution, of the sample and constituents (A) and (B), wherein in said mixture, constituents (A) and (B) form a diagnostic composition that is required to perform the diagnostic test on the sample ; c) optionally, transferring the mixture of the sample and the diagnostic composition into a measurement container suitable for performing said diagnostic test, such as a cuvette; d) optionally, putting the measurement container such as the cuvette, into an apparatus suitable for performing said diagnostic test; and e) performing the diagnostic test of said mixture, optionally in the measurement container such as the cuvette.
A spectacle frame comprising a front face for supporting the lenses, substantially oriented in a vertical plane when said frame is being worn, and temples connected to the front face by means of hinges , said hinges each comprising an attachment member , respectively rigidly connected to the front face of the frame and to the temples , each receiving a hinging member having its free end provided with a hinge pin , said hinge pins being perpendicular to each other, characterized in that : ▪ the attachment members are hollow and define a cylindrical sheath, ▪ the hinging members each comprise a rod , intended to be received in the respective sheath, one of the ends of the rod being provided with an abutment and the other end being provided with said hinge pin, each of the rods receiving a sliding ring or an equivalent member submitted to the action of a spring bearing against the abutment , said ring or equivalent member being rigidly connected to the corresponding attachment member near the free end thereof, ▪ the hinge pins of the hinging members are rigidly connected to each other by means of a connection member crossed by said hinge pins . ▪ the attachment members are hollow and define a cylindrical sheath, ▪ the hinging members each comprise a rod , intended to be received in the respective sheath, one of the ends of the rod being provided with an abutment and the other end being provided with said hinge pin, each of the rods receiving a sliding ring or an equivalent member submitted to the action of a spring bearing against the abutment , said ring or equivalent member being rigidly connected to the corresponding attachment member near the free end thereof, ▪ the hinge pins of the hinging members are rigidly connected to each other by means of a connection member crossed by said hinge pins .
A windpower plant, especially for the production of electrical energy, which has an air inlet sector , which is connected to the wind flow entry area by the air deflector sector, where the air inlet sector forms a single space with the air outlet sector , which is geometrically cylindrical, the air deflector sector has a continuously narrowing cross-section in the direction of the air inlet sector , where the air deflector sector is equipped with an opening gap, and where the air outlet sector is firmly connected to an air deflector plate for setting wind direction, where the wind motor that is mounted in the symmetry axis of the air inlet sector is connected to an energy recovery device and the windpower plant is equipped with a built-in control device, characterised in that the air deflector sector is a split air deflector sector , which is made up of connected air deflector sector elements (1/1, 1/2, 1/3 ... 1/8 ...), there are the opening gaps in the deflector sector between the air deflector sectors elements (1/1, 1/2, 1/3 ... 1/8 ...), the a side of the air outlet sector opposite the air flow direction is closed and the cylindrical shell surface of the air outlet sector is axially located with even spacing, with approximately rectangular air gaps , and a control disc (8/1) fitted to the shaft in the air outlet sector and an axially connected force element (7/1) is provided and a vertical control rod (8/2) is connected to the control disc (8/1) in the radial direction, and a main runner (10/2) is connected to the air inlet sector , where the main runner (10/2) is connected to the base of the windpower plant by a hinged structure (10/1), furthermore, the main runner (10/2) and the parallel vertical control rod (8/2) are equipped with through holes, and in these through holes there are horizontal control rods (8/3) inserted, and the horizontal control rods (8/3) on the section between the main runner (10/2) and the split air deflector sector are equipped with force elements (7/2), furthermore, the horizontal control rods (8/3) are connected to one of the air deflector sector elements (1/1, 1/2, 1/3 ... 1/8 ...) at one end, and are connected to the locking elements (8/4) at the other end.
A measurement apparatus for mounting within an enclosure of a machine tool, comprising; a non-contact tool measurement device (2;300;400), and a protection means (40,42; 70; 100; 230) for protecting the non-contact tool measurement device (2;300;400) from contaminants present within the machine enclosure, the protection means (40,42; 70; 100; 230) being switchable between at least a first mode that protects the non-contact tool measurement device (2;300;400) from contaminants and a second mode that provides less protection of the non-contact tool measurement device (2;300;400) from contaminants than the first mode, characterised in that ; the apparatus comprises a contaminant sensor (14;242; 302; 360; 410) for sensing contamination within the machine enclosure, the sensed contamination being used to determine when the protection means can adopt the second mode, and the non-contact tool measurement device (2;300;400) can acquire tool measurements when the protection means (40,42; 70; 100; 230) is placed in either one of the first and second modes. a non-contact tool measurement device (2;300;400), and a protection means (40,42; 70; 100; 230) for protecting the non-contact tool measurement device (2;300;400) from contaminants present within the machine enclosure, the protection means (40,42; 70; 100; 230) being switchable between at least a first mode that protects the non-contact tool measurement device (2;300;400) from contaminants and a second mode that provides less protection of the non-contact tool measurement device (2;300;400) from contaminants than the first mode, characterised in that ; the apparatus comprises a contaminant sensor (14;242; 302; 360; 410) for sensing contamination within the machine enclosure, the sensed contamination being used to determine when the protection means can adopt the second mode, and the non-contact tool measurement device (2;300;400) can acquire tool measurements when the protection means (40,42; 70; 100; 230) is placed in either one of the first and second modes. the apparatus comprises a contaminant sensor (14;242; 302; 360; 410) for sensing contamination within the machine enclosure, the sensed contamination being used to determine when the protection means can adopt the second mode, and the non-contact tool measurement device (2;300;400) can acquire tool measurements when the protection means (40,42; 70; 100; 230) is placed in either one of the first and second modes.
A virtual touch knob assembly (100; 200), comprising: a fixed virtual touch knob (110; 210) including a plurality of conductive plates (P1-P8; P1'-P16') around a cylindrical portion of the knob; a processor (130; 230) configured to read each of the plurality of conductive plates (P1-P8; P1'-P16') in a predetermined sequence and to determine whether a capacitance level has changed for one or more of said conductive plates; said processor (130; 230) configured to store in a state register , for each of said plurality of conductive plates (P1-P8; P1'-P16'), a value indicative of whether or not a capacitance level changed for a respective one of said plurality of conductive plates and, based on the values in said state register , to determine a turning direction of said virtual touch knob (110; 210), characterized in that said processor (130; 230) creates a right shift value by right shifting the state register values and a left shift value by left shifting the state register values; performs a further read of said plurality of conductive plates and updates the state register based on said further read of said plurality of conductive plates; produces a right shift AND result by logically ANDing said updated state register value with the right shift register value, and produces a left shift AND result by logically ANDing said updated state register value with the left shift register value; and determines (410-440) the turning direction based on said left shift AND result and said right shift AND result. a fixed virtual touch knob (110; 210) including a plurality of conductive plates (P1-P8; P1'-P16') around a cylindrical portion of the knob; a processor (130; 230) configured to read each of the plurality of conductive plates (P1-P8; P1'-P16') in a predetermined sequence and to determine whether a capacitance level has changed for one or more of said conductive plates; said processor (130; 230) configured to store in a state register , for each of said plurality of conductive plates (P1-P8; P1'-P16'), a value indicative of whether or not a capacitance level changed for a respective one of said plurality of conductive plates and, based on the values in said state register , to determine a turning direction of said virtual touch knob (110; 210), characterized in that said processor (130; 230) creates a right shift value by right shifting the state register values and a left shift value by left shifting the state register values; performs a further read of said plurality of conductive plates and updates the state register based on said further read of said plurality of conductive plates; produces a right shift AND result by logically ANDing said updated state register value with the right shift register value, and produces a left shift AND result by logically ANDing said updated state register value with the left shift register value; and determines (410-440) the turning direction based on said left shift AND result and said right shift AND result.
A polyrotaxane comprising a linear molecule, a cyclic molecule enclosing the linear molecule such that the cyclic molecule is skewered with the linear molecule, and blocking groups disposed at both ends of the linear molecule for preventing removal of the cyclic molecule, characterized in that : the cyclic molecule has a hydrosilyl group.
A tool for placing at least one object on a surface, wherein the tool has a first portion for gripping and releasing said object and a second portion adapted to be attached to a moveable system, wherein the tool comprises at least three individually controllable tool legs , wherein each tool leg is provided with a gripping device at a lower portion thereof; a rotation device , wherein the tool legs are attached to a base portion of the rotation device ; characterized in that at least one vibration device , wherein said tool legs are arranged to surround said at least one vibration device , wherein said vibration device comprises a lower portion having a substantially flat surface for abutting said upper surface of the object, and a vibrator , wherein said lower portion is connected to the base portion of the rotation device ; and in that said rotation device is arranged to be able to simultaneously rotate the at least three tool legs around a center of rotation of the object the tool is arranged to hold.
A method for transmitting a packet in a communication system, the method comprising: determining at least one motion pictures expert group, MPEG, media transport, MMT, asset which is to be protected by a forward error correction, FEC; determining a quantity of FEC flows which one or more MMT assets to be delivered in an MMT package are divided into; determining a FEC coding structure and a FEC code to be applied to the FEC flows; generating at least one MMT flow by dividing the at least one MMT asset, each of the at least one MMT flow comprising one or more of the at least one MMT asset; generating repair symbols composing at least one FEC repair flow by performing a FEC coding of the at least one MMT asset for the FEC flows based on the FEC coding structure, by using the FEC code; generating FEC source packets comprising source symbols composing a source flow and generating FEC repair packets comprising the repair symbols, the source symbols corresponding to payloads of MMT packets of the at least one MMT flow; transmitting, in a delivery function layer, the FEC source packets, the FEC repair packets and related asset identifier information to a receiving entity; and transmitting, in a control function layer, a FEC message including information on the FEC coding structure and the FEC code to the receiving entity, separately from the FEC source packets and the FEC repair packets; wherein the FEC message comprises for each MMT asset of each of the quantity of FEC flows, related asset identifier information. determining at least one motion pictures expert group, MPEG, media transport, MMT, asset which is to be protected by a forward error correction, FEC; determining a quantity of FEC flows which one or more MMT assets to be delivered in an MMT package are divided into; determining a FEC coding structure and a FEC code to be applied to the FEC flows; generating at least one MMT flow by dividing the at least one MMT asset, each of the at least one MMT flow comprising one or more of the at least one MMT asset; generating repair symbols composing at least one FEC repair flow by performing a FEC coding of the at least one MMT asset for the FEC flows based on the FEC coding structure, by using the FEC code; generating FEC source packets comprising source symbols composing a source flow and generating FEC repair packets comprising the repair symbols, the source symbols corresponding to payloads of MMT packets of the at least one MMT flow; transmitting, in a delivery function layer, the FEC source packets, the FEC repair packets and related asset identifier information to a receiving entity; and transmitting, in a control function layer, a FEC message including information on the FEC coding structure and the FEC code to the receiving entity, separately from the FEC source packets and the FEC repair packets; wherein the FEC message comprises for each MMT asset of each of the quantity of FEC flows, related asset identifier information.
A drive cycle controller comprising: a drive cycle switching unit configured to switch a drive cycle (Tx) of a microcomputer that is configured to monitor an output (Sk) of a device , wherein the drive cycle switching unit in a drive cycle switching mode is configured to switch the drive cycle (Tx) from a first drive cycle (Ta) to a second drive cycle (Tb) that is shorter than the first drive cycle (Ta) if the microcomputer detects a change in the output (Sk) of the device at an activation timing in the first drive cycle (Ta); and an output state determination unit configured to determine an output state of the device if the microcomputer confirms that the output (Sk) of the device has remained changed at an activation timing in the second drive cycle (Tb), the drive cycle controller being characterized in that the drive cycle switching unit is configured to enter the drive cycle switching mode in a state in which a vehicle power supply is off and to enter a fixed drive cycle mode in a state in which the vehicle power supply is on, the drive cycle switching unit in the fixed drive cycle mode is configured to set the drive cycle (Tx) to a third drive cycle having a fixed cycle, and the first drive cycle (Ta) is longer than the third drive cycle, and the second drive cycle (Tb) is shorter than the third drive cycle. a drive cycle switching unit configured to switch a drive cycle (Tx) of a microcomputer that is configured to monitor an output (Sk) of a device , wherein the drive cycle switching unit in a drive cycle switching mode is configured to switch the drive cycle (Tx) from a first drive cycle (Ta) to a second drive cycle (Tb) that is shorter than the first drive cycle (Ta) if the microcomputer detects a change in the output (Sk) of the device at an activation timing in the first drive cycle (Ta); and an output state determination unit configured to determine an output state of the device if the microcomputer confirms that the output (Sk) of the device has remained changed at an activation timing in the second drive cycle (Tb), the drive cycle controller being characterized in that the drive cycle switching unit is configured to enter the drive cycle switching mode in a state in which a vehicle power supply is off and to enter a fixed drive cycle mode in a state in which the vehicle power supply is on, the drive cycle switching unit in the fixed drive cycle mode is configured to set the drive cycle (Tx) to a third drive cycle having a fixed cycle, and the first drive cycle (Ta) is longer than the third drive cycle, and the second drive cycle (Tb) is shorter than the third drive cycle.