mhurhangee/patent-ind-claim-en huggingface dataset:
A phase adjusting circuit having an output which is to be connected to a circuit main body provided with a drive circuit for converting a DC electric power into a high frequency alternating current provided to a load , comprising: a phase synchronizing circuit including: a reference-signal input terminal from which a reference signal (Sr) is input; a feedback-signal input terminal from which a feedback signal (Sf), representing a waveform of resonant current of the load , is input; and an output terminal from which an output signal (So) based on a phase difference between the reference signal (Sr) and the feedback signal (Sf) is output; a first circuit that is connected to the reference-signal input terminal and the output terminal , and is configured to cause a phase of the reference signal (Sr) to be delayed in a case where an oscillation frequency of the circuit main body including the phase synchronizing circuit falls in a first range; and characterized by further comprising a second circuit that is connected to the output terminal of said phase synchronizing circuit and is configured to cause the output signal (So) of said phase synchronizing circuit to be delayed in a case where the oscillation frequency of the circuit main body falls in a second low frequency range that is lower than the first range to provide the output of said phase adjusting circuit . a phase synchronizing circuit including: a reference-signal input terminal from which a reference signal (Sr) is input; a feedback-signal input terminal from which a feedback signal (Sf), representing a waveform of resonant current of the load , is input; and an output terminal from which an output signal (So) based on a phase difference between the reference signal (Sr) and the feedback signal (Sf) is output; a reference-signal input terminal from which a reference signal (Sr) is input; a feedback-signal input terminal from which a feedback signal (Sf), representing a waveform of resonant current of the load , is input; and an output terminal from which an output signal (So) based on a phase difference between the reference signal (Sr) and the feedback signal (Sf) is output; a first circuit that is connected to the reference-signal input terminal and the output terminal , and is configured to cause a phase of the reference signal (Sr) to be delayed in a case where an oscillation frequency of the circuit main body including the phase synchronizing circuit falls in a first range; and characterized by further comprising a second circuit that is connected to the output terminal of said phase synchronizing circuit and is configured to cause the output signal (So) of said phase synchronizing circuit to be delayed in a case where the oscillation frequency of the circuit main body falls in a second low frequency range that is lower than the first range to provide the output of said phase adjusting circuit .
An electronic device comprising: a housing having a hole formed therein; an audio device provided inside the housing and arranged to communicate with an outside of the electronic device through the hole; a gas sensor provided inside the housing and arranged to communicate with the outside through the hole; a proximity sensor provided inside the housing; a wireless communication module provided inside the housing; and a processor provided inside the housing and electrically connected to the audio device, the gas sensor, the proximity sensor, and the wireless communication module, wherein the processor is configured to: acquire data associated with a particular component of the air in contact with the gas sensor, recognize a user gesture of starting a proximity call by using the proximity sensor wherein during the proximity call the user talks into the electronic device while placing their ear in contact with or close to the device, and calculate air quality by analyzing at least one of data acquired by the gas sensor before the proximity call starting gesture is recognized and data acquired by the gas sensor after a gesture of ending the proximity call is recognized. a housing having a hole formed therein; an audio device provided inside the housing and arranged to communicate with an outside of the electronic device through the hole; a gas sensor provided inside the housing and arranged to communicate with the outside through the hole; a proximity sensor provided inside the housing; a wireless communication module provided inside the housing; and a processor provided inside the housing and electrically connected to the audio device, the gas sensor, the proximity sensor, and the wireless communication module, wherein the processor is configured to: acquire data associated with a particular component of the air in contact with the gas sensor, recognize a user gesture of starting a proximity call by using the proximity sensor wherein during the proximity call the user talks into the electronic device while placing their ear in contact with or close to the device, and calculate air quality by analyzing at least one of data acquired by the gas sensor before the proximity call starting gesture is recognized and data acquired by the gas sensor after a gesture of ending the proximity call is recognized. acquire data associated with a particular component of the air in contact with the gas sensor, recognize a user gesture of starting a proximity call by using the proximity sensor wherein during the proximity call the user talks into the electronic device while placing their ear in contact with or close to the device, and calculate air quality by analyzing at least one of data acquired by the gas sensor before the proximity call starting gesture is recognized and data acquired by the gas sensor after a gesture of ending the proximity call is recognized.
A method for diagnosing a fault condition in an electric machine , the electric machine comprising a rotor having an axis of rotation and comprising a plurality of permanent magnets (M1-M8), the method comprising: rotating the rotor so that each of the plurality of permanent magnets passes a magnetic flux density sensor; measuring values of magnetic flux density using the magnetic flux density sensor at a plurality of positions of the rotor; analysing the measured values of magnetic flux density and comparing a magnitude of a peak amplitude in a time or frequency domain with a reference value; and, if the peak amplitude is below the reference value, determining that the electric machine has a fault condition, the method further comprising: determining the difference between the magnitude of the peak amplitude and the reference value, wherein if the electric machine is determined to have a fault condition, the severity of the fault condition is determined based on the difference, characterised in that the magnetic flux density sensor is a magnetoresistive sensor. rotating the rotor so that each of the plurality of permanent magnets passes a magnetic flux density sensor; measuring values of magnetic flux density using the magnetic flux density sensor at a plurality of positions of the rotor; analysing the measured values of magnetic flux density and comparing a magnitude of a peak amplitude in a time or frequency domain with a reference value; and, if the peak amplitude is below the reference value, determining that the electric machine has a fault condition, the method further comprising: determining the difference between the magnitude of the peak amplitude and the reference value, wherein if the electric machine is determined to have a fault condition, the severity of the fault condition is determined based on the difference, characterised in that the magnetic flux density sensor is a magnetoresistive sensor.
A method comprising: receiving a request to initialize a region of a memory , wherein content stored in the region is encrypted based at least in part on a stored nonce value and a key; and in response to the request , performing cryptographic-based initialization of the memory , including altering the stored nonce value to initialize the region of the memory characterized in that the region is associated with a cache line, and altering the stored nonce value comprises changing a count value associated with the cache line. receiving a request to initialize a region of a memory , wherein content stored in the region is encrypted based at least in part on a stored nonce value and a key; and in response to the request , performing cryptographic-based initialization of the memory , including altering the stored nonce value to initialize the region of the memory characterized in that the region is associated with a cache line, and altering the stored nonce value comprises changing a count value associated with the cache line.
A lighting device , comprising: a plurality of light emitting devices individually configured to output light; and a diffractive optical element (DOE) configured to: transmit a portion of the light output from each of the plurality of light emitting devices to provide a plurality of first type light beams that are not diffracted; and diffract a portion of the light output from at least one of the plurality of light emitting devices to provide a plurality of second type light beams that are irradiated within a region that is defined by the plurality of first type light beams. a plurality of light emitting devices individually configured to output light; and a diffractive optical element (DOE) configured to: transmit a portion of the light output from each of the plurality of light emitting devices to provide a plurality of first type light beams that are not diffracted; and diffract a portion of the light output from at least one of the plurality of light emitting devices to provide a plurality of second type light beams that are irradiated within a region that is defined by the plurality of first type light beams. transmit a portion of the light output from each of the plurality of light emitting devices to provide a plurality of first type light beams that are not diffracted; and diffract a portion of the light output from at least one of the plurality of light emitting devices to provide a plurality of second type light beams that are irradiated within a region that is defined by the plurality of first type light beams.
A method of driving a semiconductor laser having: a substrate ; a tuning element comprising an insulating cladding and a first electrode formed on a resistive cladding , wherein the insulating cladding is positioned between the resistive cladding and the substrate; and a waveguide laser structure comprising an active region , cladding layers , a resistive cladding and a second electrode formed on the resistive cladding of the laser structure, and a third electrode connected to the substrate, wherein the cladding layers are positioned between the resistive cladding and the substrate and the active region is positioned within the cladding layers ; wherein the resistive claddings are a continuous layer that has a reduced thickness that forms a trench between the first electrode and the second electrode , the method comprising: applying a first waveform to the first electrode of the semiconductor laser , wherein the reduced thickness of the resistive cladding creates a resistor between the first electrode and the second electrode that generates heat in response to the first waveform; and applying a second waveform to the second electrode to provide current injection by the second and third electrodes; wherein the first waveform and the second waveform are simultaneously modulated in order to change an emission wavelength of light emitted from the semiconductor laser and to achieve a substantially constant output power of the light emitted from the semiconductor laser . a tuning element comprising an insulating cladding and a first electrode formed on a resistive cladding , wherein the insulating cladding is positioned between the resistive cladding and the substrate; and a waveguide laser structure comprising an active region , cladding layers , a resistive cladding and a second electrode formed on the resistive cladding of the laser structure, and a third electrode connected to the substrate, wherein the cladding layers are positioned between the resistive cladding and the substrate and the active region is positioned within the cladding layers ; wherein the resistive claddings are a continuous layer that has a reduced thickness that forms a trench between the first electrode and the second electrode , the method comprising: applying a first waveform to the first electrode of the semiconductor laser , wherein the reduced thickness of the resistive cladding creates a resistor between the first electrode and the second electrode that generates heat in response to the first waveform; and applying a second waveform to the second electrode to provide current injection by the second and third electrodes; wherein the first waveform and the second waveform are simultaneously modulated in order to change an emission wavelength of light emitted from the semiconductor laser and to achieve a substantially constant output power of the light emitted from the semiconductor laser .
A laparoscopic tool system comprising: a frame having a periphery and a central opening in a horizontal plane, said frame being configured to lie over a transcutaneous incision; a first tool pivotally attached to an exterior of the frame at a first location, wherein a mid-portion of the first tool passes through the central opening of the frame; and a second tool pivotally attached to an exterior of the frame at a second location, wherein a mid-portion of the second tool passes through the central opening of the frame; wherein the tools (14 and 20) pivot in at least two vertical planes relative to the frame and wherein the mid-portions (16 and 22) of the tools are positioned to avoid interference as the tools are pivoted in said at least two vertical planes. a frame having a periphery and a central opening in a horizontal plane, said frame being configured to lie over a transcutaneous incision; a first tool pivotally attached to an exterior of the frame at a first location, wherein a mid-portion of the first tool passes through the central opening of the frame; and a second tool pivotally attached to an exterior of the frame at a second location, wherein a mid-portion of the second tool passes through the central opening of the frame; wherein the tools (14 and 20) pivot in at least two vertical planes relative to the frame and wherein the mid-portions (16 and 22) of the tools are positioned to avoid interference as the tools are pivoted in said at least two vertical planes.
Power circuit suitable for combining or splitting broadband signals, the circuit comprising: a stepped impedance section , a core section and a first, second and third port , said stepped impedance section and said core section being interconnected at an interconnection , and where said stepped impedance section comprises the first port and a first transmission line running from said first port to said interconnection , and where said core section comprises the second port and the third port , and a second transmission line running from said interconnection to the second port and a third transmission line running from said interconnection to the third port , and where the second and third transmission lines each have at least a first and a second core subsection , where the number of core subsections of the second transmission line and the number of core subsections of the third transmission line is equal, each core subsection having a line impedance, said core subsections forming at least two pairs of core subsections where the first pair of core subsections comprises the first core subsection of the second transmission line and the first core subsection of the third transmission line and the second pair of core subsections comprises the second core subsection of the second transmission line and the second core subsection of the third transmission line , and each pair of core subsections comprises resistance means connecting the core subsections, characterised in that the first transmission line comprises at least two stepped impedance subsections , each stepped impedance subsection having a line impedance, and where the line impedances of the at least two stepped impedance subsections differs, and in that , the line impedances of each core subsection of said second and third transmission lines are equal, and the resistance of each of the resistance means connecting said second and third transmission lines in each pair of core subsections differs, and in that the number of stepped impedance subsections of the stepped impedance section is equal to the number of pairs of core subsections of the core section , and in that the resistances of the resistance means of the core section decreases from the second and third ports towards the interconnection .. the first transmission line comprises at least two stepped impedance subsections , each stepped impedance subsection having a line impedance, and where the line impedances of the at least two stepped impedance subsections differs, and in that , the line impedances of each core subsection of said second and third transmission lines are equal, and the resistance of each of the resistance means connecting said second and third transmission lines in each pair of core subsections differs, and in that the number of stepped impedance subsections of the stepped impedance section is equal to the number of pairs of core subsections of the core section , and in that the resistances of the resistance means of the core section decreases from the second and third ports towards the interconnection ..
Rolling device with at least one upper work roll and lower work roll as well as at least one upper backing roll and lower backing roll , wherein the work rolls and the backing rolls are mounted in a common roll stand , the work rolls are adjustable relative to one another for setting a predetermined rolling gap and the work rolls are each operatively connected with at least one bending device, wherein at least one first bending device is associated with the upper work roll and at least one second bending device is associated with the lower work roll , the second bending device comprises bending cylinders which are arranged vertically in stationary location and the upper work roll is adjustable or entrainable by means of the first bending device by a vertical setting of the height of the rolling gap , wherein the first bending device comprises bending arms co-operating with bending cylinders arranged in stationary location, characterised in that the bending cylinders of the first bending device are supported on an upper cross beam of a roll housing of the roll stand .
A battery package comprising: a battery assembly comprising a battery cell stack formed by stacking a plurality of battery cells comprising a cell lead , and a sensing block , the sensing block comprising: a block body portion comprising a terminal seat portion , and a cell lead coupling portion provided on one or both sides of the terminal seat portion ; and a first connecting member configured to be seated on the terminal seat portion , and provided using a conductive material, wherein the sensing block is configured to be coupled to a side surface of the battery cell stack , wherein the cell lead is configured to be inserted into the cell lead coupling portion of the sensing block , and electrically and structurally connected to the first connecting member , characterized in that the battery package includes a lower housing provided on a lower side of the battery assembly , wherein the lower housing comprises: a second connecting member provided at a position corresponding to the first connecting member , wherein when the battery assembly is coupled to the lower housing , the first connecting member is connected to the second connecting member . a battery assembly comprising a battery cell stack formed by stacking a plurality of battery cells comprising a cell lead , and a sensing block , the sensing block comprising: a block body portion comprising a terminal seat portion , and a cell lead coupling portion provided on one or both sides of the terminal seat portion ; and a first connecting member configured to be seated on the terminal seat portion , and provided using a conductive material, wherein the sensing block is configured to be coupled to a side surface of the battery cell stack , wherein the cell lead is configured to be inserted into the cell lead coupling portion of the sensing block , and electrically and structurally connected to the first connecting member , characterized in that the battery package includes a lower housing provided on a lower side of the battery assembly , wherein the lower housing comprises: a second connecting member provided at a position corresponding to the first connecting member , wherein when the battery assembly is coupled to the lower housing , the first connecting member is connected to the second connecting member .
Poultry container door for a container for holding live poultry, comprising a container door corner part and a container door frame , wherein the container door corner part is releasable connectable to the container door frame , the container door corner part comprising two substantially flat panels provided with apertures , the two substantially flat panels rectangularly joined together and forming an elongate corner part with a substantially L-shaped cross-section, at least one of the panels also comprises at least one open groove and the container door frame comprising a frame profile section , wherein the poultry container door corner part is held by the frame profile section in the open groove , wherein coupling elements of the poultry container door corner part are coupled with the counter-couplings of the poultry container door frame . the container door corner part comprising two substantially flat panels provided with apertures , the two substantially flat panels rectangularly joined together and forming an elongate corner part with a substantially L-shaped cross-section, at least one of the panels also comprises at least one open groove and the container door frame comprising a frame profile section ,
A method for measuring at least one inhalation flow feature in an inhaler , wherein a capsule containing a formulation is located in the inhaler, the method comprising the steps of sensing an impact feature relating to impacts of the capsule on the inhaler and correlating the impact feature to at least one inhalation flow feature, the method characterized in that the correlating the impact feature to at least one inhalation flow feature comprises: determining at least one characteristic of the sensed impact feature; and relating the at least one characteristic of the sensed impact feature to at least one inhalation flow feature, wherein the at least one characteristic comprises at least one of a mean value of the impact feature, a peak value of the impact feature and a duration of the impact feature above a threshold, and wherein the at least one inhalation flow feature comprises at least one of a peak inhalation flow, an inhalation flow duration and an inhalation flow volume. determining at least one characteristic of the sensed impact feature; and relating the at least one characteristic of the sensed impact feature to at least one inhalation flow feature, wherein the at least one characteristic comprises at least one of a mean value of the impact feature, a peak value of the impact feature and a duration of the impact feature above a threshold, and a mean value of the impact feature, a peak value of the impact feature and a duration of the impact feature above a threshold, and wherein the at least one inhalation flow feature comprises at least one of a peak inhalation flow, an inhalation flow duration and an inhalation flow volume. a peak inhalation flow, an inhalation flow duration and an inhalation flow volume.