mhurhangee/ep-ind-claims huggingface dataset:
A doubling-up fitting comprising: - an expansion sleeve which has a sleeve base with a sleeve base opening and has at least one expansion tab which can be spread radially outward, characterized in that the doubling-up fitting further comprises: - an inner ring which is axially displaceable in the expansion sleeve towards the sleeve base in a tightening direction in order to spread the at least one expansion tab radially outward; - a threaded bolt with a screw thread and with a bolt head which engages behind the inner ring in the tightening direction; and - a threaded part which has a widened head and can be screwed to the screw thread of the threaded bolt; wherein the opening diameter of the sleeve base opening and the clear opening diameter of the inner ring are each greater than the bolt diameter of the threaded bolt. - an expansion sleeve which has a sleeve base with a sleeve base opening and has at least one expansion tab which can be spread radially outward, characterized in that the doubling-up fitting further comprises: - an inner ring which is axially displaceable in the expansion sleeve towards the sleeve base in a tightening direction in order to spread the at least one expansion tab radially outward; - a threaded bolt with a screw thread and with a bolt head which engages behind the inner ring in the tightening direction; and - a threaded part which has a widened head and can be screwed to the screw thread of the threaded bolt; - an inner ring which is axially displaceable in the expansion sleeve towards the sleeve base in a tightening direction in order to spread the at least one expansion tab radially outward; - a threaded bolt with a screw thread and with a bolt head which engages behind the inner ring in the tightening direction; and - a threaded part which has a widened head and can be screwed to the screw thread of the threaded bolt; wherein the opening diameter of the sleeve base opening and the clear opening diameter of the inner ring are each greater than the bolt diameter of the threaded bolt.
A method of processing sensor logs, wherein the method is performed using one or more processors or dedicated hardware, the method comprising: accessing a first sensor log and a corresponding first reference log, each of the first sensor log and the first reference log comprising a series of measured values of a parameter according to a first time series; accessing a second sensor log and a corresponding second reference log, each of the second sensor log and the second reference log comprising a series of measured values of a parameter according to a second time series; dynamically time warping the first reference log and/or the second reference log by a first transformation between the first time series and a common time-frame and/or a second transformation between the second time series and the common time-frame, wherein dynamically time warping the first and second reference logs comprises: dividing the first time series into a plurality of sub-periods in dependence upon the first reference log; and dividing the second time series into a plurality of sub-periods in dependence upon the second reference log; and generating a first warped sensor log and/or a second warped sensor log by dynamically time warping the first sensor log by the first transformation and/or the second sensor log by the second transformation. accessing a first sensor log and a corresponding first reference log, each of the first sensor log and the first reference log comprising a series of measured values of a parameter according to a first time series; accessing a second sensor log and a corresponding second reference log, each of the second sensor log and the second reference log comprising a series of measured values of a parameter according to a second time series; dynamically time warping the first reference log and/or the second reference log by a first transformation between the first time series and a common time-frame and/or a second transformation between the second time series and the common time-frame, wherein dynamically time warping the first and second reference logs comprises: dividing the first time series into a plurality of sub-periods in dependence upon the first reference log; and dividing the second time series into a plurality of sub-periods in dividing the first time series into a plurality of sub-periods in dependence upon the first reference log; and dividing the second time series into a plurality of sub-periods in dependence upon the second reference log; and generating a first warped sensor log and/or a second warped sensor log by dynamically time warping the first sensor log by the first transformation and/or the second sensor log by the second transformation.
A method at a client device side for communication and for establishing a remote session between the client device and a remote server and for forwarding the remote session to a host device, the method comprising: establishing a remote session between the client device and the remote server; establishing a trusted relationship between the client device and the host device by performing message exchanges to pair the client device with the host device; providing remote session login information to the host device to enable the host device to re-establish the remote session with the remote server, the remote session login information including an identity of the remote server, an identity of a user of the client device, and information authenticating the user of the client device; and after the host device has re-established the remote session with the remote server using the login information, terminating, by the client device, the remote session between the client device and the remote server. establishing a remote session between the client device and the remote server; establishing a trusted relationship between the client device and the host device by performing message exchanges to pair the client device with the host device; providing remote session login information to the host device to enable the host device to re-establish the remote session with the remote server, the remote session login information including an identity of the remote server, an identity of a user of the client device, and information authenticating the user of the client device; and after the host device has re-established the remote session with the remote server using the login information, terminating, by the client device, the remote session between the client device and the remote server.
A liquid recycling atomization device, comprising a housing, a liquid conducting member, and a heating element arranged on the liquid conducting member; a liquid storage cavity being formed in the housing such that liquid in the liquid storage cavity can be conducted through the liquid conducting member to the heating element for heating and atomization; an air inlet and an air outlet being formed in the housing such that air can enter the housing from the air inlet and smoke can flow out of housing through the air outlet; wherein, the liquid recycling atomization device further comprises a liquid absorbing structure arranged on an outer periphery of the air inlet to absorb the liquid on the outer periphery of the air inlet; the liquid absorbing structure is connected with the liquid conducting member such that the liquid conducting member can absorb the liquid absorbed by the liquid absorbing structure and thus the liquid can be heated and atomized by the heating element; the liquid recycling atomization device comprises a liquid storage cup and a base covering an opening of the liquid storage cup, and the liquid absorbing structure is located between the liquid conducting member and the base; wherein, inside the liquid recycling atomization device, an annular air inlet protrusion surrounding the air inlet is arranged on an outer periphery of the air inlet; wherein the liquid recycling atomization device comprises a sealing member for sealing the opening of the liquid storage cup; an air vent is formed in the sealing member such that an airflow entering the housing can pass through the air vent; and an annular vent protrusion surrounding the air vent is arranged on an outer periphery of the air vent; and wherein the air inlet and the air vent are staggered from each other. wherein, the liquid recycling atomization device further comprises a liquid absorbing structure arranged on an outer periphery of the air inlet to absorb the liquid on the outer periphery of the air inlet; the liquid absorbing structure is connected with the liquid conducting member such that the liquid conducting member can absorb the liquid absorbed by the liquid absorbing structure and thus the liquid can be heated and atomized by the heating element; the liquid recycling atomization device comprises a liquid storage cup and a base covering an opening of the liquid storage cup, and the liquid absorbing structure is located between the liquid conducting member and the base; wherein, inside the liquid recycling atomization device, an annular air inlet protrusion surrounding the air inlet is arranged on an outer periphery of the air inlet; wherein the liquid recycling atomization device comprises a sealing member for sealing the opening of the liquid storage cup; an air vent is formed in the sealing member such that an airflow entering the housing can pass through the air vent; and an annular vent protrusion surrounding the air vent is arranged on an outer periphery of the air vent; and wherein the air inlet and the air vent are staggered from each other.
An enhanced vapor injection heat pump air-conditioning system comprising a heating circuit that comprises a compressor, a first condenser, a first heat exchanger, a first expansion valve and a second condenser which are connected end to end in sequence; wherein the first heat exchanger comprises a first channel and a second channel, a first end of the first channel is in communication with the first condenser, and a second end of the first channel is in communication with the first expansion valve; and a first end of the second channel is in communication with the first condenser through a second expansion valve, and a second end of the second channel is in communication with an inlet of the compressor, characterized in that in the heating circuit, one part of low-temperature and high-pressure coolant flowing out of the first condenser passes through the first channel of the first heat exchanger, and the other part of the low-temperature and high-pressure coolant flowing out of the first condenser expands and absorbs heat when passing through the second expansion valve and becomes a low-temperature and low-pressure coolant which directly flows into the second channel to absorb heat from the low-temperature and high-pressure coolant in the first channel. wherein the first heat exchanger comprises a first channel and a second channel, a first end of the first channel is in communication with the first condenser, and a second end of the first channel is in communication with the first expansion valve; and a first end of the second channel is in communication with the first condenser through a second expansion valve, and a second end of the second channel is in communication with an inlet of the compressor, characterized in that in the heating circuit, one part of low-temperature and high-pressure coolant flowing out of the first condenser passes through the first channel of the first heat exchanger, and the other part of the low-temperature and high-pressure coolant flowing out of the first condenser expands and absorbs heat when passing through the second expansion valve and becomes a low-temperature and low-pressure coolant which directly flows into the second channel to absorb heat from the low-temperature and high-pressure coolant in the first channel.
An LED bulb having a light guide body, comprising a bulb holder, a bulb shell, a luminous body, a power source, a connector, and a light guide body, wherein the connector is fixedly connected to the bulb holder, the bulb shell is fixed on the connector, the luminous body and the power source are located in the bulb holder, the luminous body and the power source are connected by using a wire, a lower end of the light guide body is plugged with the connector, and a bottom of the light guide body is in contact with the luminous body, wherein the light guide body is a hollow cylinder; characterized in that the light guide body is engraved with glyphs; and a top terminal end surface of the light guide body has a wavy shape defined by a surface that extends substantially perpendicularly to a longitudinal axis of the light guide body, the surface is flat in a radial direction of the light guide body and has a plurality of alternating peaks and valleys with transitional sloped portions therebetween along a circumferential direction of the light guide body.
A method comprising: receiving, by a communication controller of a source device and from an audio source of the source device, audio data to be wirelessly transmitted to a sink device, wherein the audio data is received from the audio source at a rate; storing, by the communication controller and in a buffer, the audio data as a sequence of audio blocks, wherein each audio block includes audio data for a respective output time; transmitting, by the source device and to the sink device, audio blocks of the sequence of audio blocks using a wireless link between the source device and the sink device; responsive to determining that a particular audio block has been successfully received by the sink device, removing, by the communications controller and from the buffer, an audio block corresponding to the particular audio block; determining a current condition of the wireless link; and automatically adjusting, by the communication controller and based on the current condition of the wireless link, the rate at which audio data is received from the audio source, wherein automatically adjusting the rate at which audio data is received comprises outputting, by the communication controller and to the audio source, a request to reduce the rate at which the audio source inserts audio blocks into the buffer to defer dropping an oldest audio block from the buffer when the data buffer becomes full. receiving, by a communication controller of a source device and from an audio source of the source device, audio data to be wirelessly transmitted to a sink device, wherein the audio data is received from the audio source at a rate; storing, by the communication controller and in a buffer, the audio data as a sequence of audio blocks, wherein each audio block includes audio data for a respective output time; transmitting, by the source device and to the sink device, audio blocks of the sequence of audio blocks using a wireless link between the source device and the sink device; responsive to determining that a particular audio block has been successfully received by the sink device, removing, by the communications controller and from the buffer, an audio block corresponding to the particular audio block; determining a current condition of the wireless link; and automatically adjusting, by the communication controller and based on the current condition of the wireless link, the rate at which audio data is received from the audio source, wherein automatically adjusting the rate at which audio data is received comprises outputting, by the communication controller and to the audio source, a request to reduce the rate at which the audio source inserts audio blocks into the buffer to defer dropping an oldest audio block from the buffer when the data buffer becomes full.
An electrosurgical generator having connectors (16,18) for an electrosurgical instrument and comprising a high-voltage generator, which is electrically connected to the connectors (16,18) and which is designed to produce a high-frequency alternating current in its activated state and output said high-frequency alternating current via the connectors (16, 18), wherein the electrosurgical generator has an effective power determination unit comprising a phase shift determination unit that is designed to supply an output signal representing a phase shift between the current and the voltage of an alternating current output during operation, wherein the phase shift determination unit is designed to produce a pulsed DC voltage signal, in which the pulse width reflects a time difference between the zero crossings of the current and the voltage - and consequently the phase shift - and to process the pulsed DC voltage signal by means of a low-pass filter to form a low-pass filter output signal, the magnitude of which depends on the pulse width of the pulses of the pulsed DC voltage signal, characterized in that a switch unit is provided which is arranged and designed to ensure that the low-pass filter is only supplied with the pulsed DC voltage if the high-voltage generator is switched on, but not if the high-voltage generator is switched off.
A computer chassis (100, 200), comprising: a sled (110, 210); and a sliding bracket with a first end and a second end, the sliding bracket further comprising a removable power supplier socket (120, 220) housed at the first end, the removable power supplier socket (120, 220) configured to be moved out of the computer chassis (100, 200) via a set of mechanisms; wherein, upon the removable power supplier socket (120, 220) being moved out of the computer chassis (100, 200), the sled (110, 210) is capable of being pulled out of the computer chassis (100, 200), wherein the set of mechanisms further comprises a rotational element and a first elastic element, wherein a loaded position of the first elastic element biases the power supplier socket (120, 220) to rotate away from the sled (110, 210), wherein the rotational element further comprises an axis mechanically coupled to the first elastic element. a sled (110, 210); and a sliding bracket with a first end and a second end, the sliding bracket further comprising a removable power supplier socket (120, 220) housed at the first end, the removable power supplier socket (120, 220) configured to be moved out of the computer chassis (100, 200) via a set of mechanisms; wherein, upon the removable power supplier socket (120, 220) being moved out of the computer chassis (100, 200), the sled (110, 210) is capable of being pulled out of the computer chassis (100, 200), wherein the set of mechanisms further comprises a rotational element and a first elastic element, wherein a loaded position of the first elastic element biases the power supplier socket (120, 220) to rotate away from the sled (110, 210), wherein the rotational element further comprises an axis mechanically coupled to the first elastic element.
A structure for interfacing a body part of a patient with a plurality of sources for delivering illuminating light to the body part and a plurality of detectors for collecting light from the body part, respectively, for effecting diffuse optical tomography, the structure comprising: a first set of at least 3 interattached annular support members (202a-202e) of increasing diameters for the sources and the detectors, said annular support members being positioned one on top of the other with the annular support member having the smallest diameter at the bottom, wherein the annular support members together form a cup-shaped structure configured to hold the body part therein, each of the annular support members is detachably attached to an adjacent annular support member and the structure is adapted to provide an adjustable displacement in an axial direction, the number of annular support members is adjustable by removing some of the annular support members to accommodate various body part sizes, the displacements in the axial direction of the annular support members are adjustable based on the size and shape of the body part, and each annular support member has a plurality of sources and detectors optical apertures, the structure is adapted so that each annular support member is independently displaceable in the axial direction of the annular support members and optionally rotatable out of plane to bring a surface thereof into touch contact with the body part. a first set of at least 3 interattached annular support members (202a-202e) of increasing diameters for the sources and the detectors, said annular support members being positioned one on top of the other with the annular support member having the smallest diameter at the bottom, wherein the annular support members together form a cup-shaped structure configured to hold the body part therein, each of the annular support members is detachably attached to an adjacent annular support member and the structure is adapted to provide an adjustable displacement in an axial direction, the number of annular support members is adjustable by removing some of the annular support members to accommodate various body part sizes, the displacements in the axial direction of the annular support members are adjustable based on the size and shape of the body part, and each annular support member has a plurality of sources and detectors optical apertures, the structure is adapted so that each annular support member is independently displaceable in the axial direction of the annular support members and optionally rotatable out of plane to bring a surface thereof into touch contact with the body part.
A computer-implemented method comprising: receiving seismic data acquired by a sensor unit responsive to emission of seismic energy in a frequency sweep of a duration having a duration time T; correlating the seismic data and individual portions of the frequency sweep that correspond to individual time windows to generate individual sets of correlated seismic data; identifying an event that appears in two sets of correlated seismic data separated by almost about T/2 as a common event and identifying a corresponding event time in each of the individual sets of correlated seismic data; and comparing event times of the same event correlated with each of the individual time windows of the frequency sweep to determine a clock drift time corresponding to drift of the clock of the sensor unit with reference to a different clock. receiving seismic data acquired by a sensor unit responsive to emission of seismic energy in a frequency sweep of a duration having a duration time T; correlating the seismic data and individual portions of the frequency sweep that correspond to individual time windows to generate individual sets of correlated seismic data; identifying an event that appears in two sets of correlated seismic data separated by almost about T/2 as a common event and identifying a corresponding event time in each of the individual sets of correlated seismic data; and comparing event times of the same event correlated with each of the individual time windows of the frequency sweep to determine a clock drift time corresponding to drift of the clock of the sensor unit with reference to a different clock.
Sensitised composite scintillator having a body with a matrix made of polymer material or glass, comprising a combination of perovskite nanocrystals, including elements with a high atomic number which act as sensitisers and light-emitter species, these species being sensitised by the perovskite nanocrystals.