mhurhangee/patent-ind-claim-en huggingface dataset:
A collar system for a dust extractor comprising: a collar which comprises a drill passage which extends through the collar and an extension which forms an internal passage which connects at one end with the drill passage , the extension being attached to or capable of being attached to the housing of a dust extractor to enable the internal passage to connect to a suction passage of the dust extractor; wherein there is provided a moveable cover mounted adjacent an entrance of the drill passage which is capable of being moved between a first position where it covers the entrance and a second position where it is remote from the entrance, wherein the cover comprises at lone east hole which passes through the cover ; characterized in that the cover comprises; a rigid outer ring ; and a resiliently deformable washer mounted inside of the outer ring ; wherein the washer has an inner section through which the hole extends and an outer section which surrounds the inner section which connects between the outer ring and the inner section ; wherein the thickness of the outer section is less than that of the inner section ; wherein the washer comprises plurality of radial ribs formed on the surface of the outer section which extend from the inner section radially outwardly to the outer ring . a collar which comprises a drill passage which extends through the collar and an extension which forms an internal passage which connects at one end with the drill passage , the extension being attached to or capable of being attached to the housing of a dust extractor to enable the internal passage to connect to a suction passage of the dust extractor; wherein there is provided a moveable cover mounted adjacent an entrance of the drill passage which is capable of being moved between a first position where it covers the entrance and a second position where it is remote from the entrance, wherein the cover comprises at lone east hole which passes through the cover ; characterized in that the cover comprises; a rigid outer ring ; and a resiliently deformable washer mounted inside of the outer ring ; wherein the washer has an inner section through which the hole extends and an outer section which surrounds the inner section which connects between the outer ring and the inner section ; wherein the thickness of the outer section is less than that of the inner section ; wherein the washer comprises plurality of radial ribs formed on the surface of the outer section which extend from the inner section radially outwardly to the outer ring .
An organic light-emitting diode, comprising a first electrode , a second electrode, and an organic light-emitting functional layer located between the first electrode and the second electrode, wherein the second electrode is a composite transparent electrode , the composite transparent electrode comprising: a metal layer ; a transparent conducting oxide layer , wherein the transparent conducting oxide layer is located on a side of the metal layer away from the organic light-emitting functional layer ; and a transparent cover layer located between the metal layer and the transparent conducting oxide layer , wherein the metal layer is electrically connected to the transparent conducting oxide layer , the composite transparent electrode is characterized in that the transparent cover layer directly contacts the metal layer and the transparent conducting oxide layer , and a material of the cover layer comprises an insulating metal oxide having a dielectric constant ε in a range of ε>10. a metal layer ; a transparent conducting oxide layer , wherein the transparent conducting oxide layer is located on a side of the metal layer away from the organic light-emitting functional layer ; and a transparent cover layer located between the metal layer and the transparent conducting oxide layer , wherein the metal layer is electrically connected to the transparent conducting oxide layer , the composite transparent electrode is characterized in that the transparent cover layer directly contacts the metal layer and the transparent conducting oxide layer , and a material of the cover layer comprises an insulating metal oxide having a dielectric constant ε in a range of ε>10.
A gas-discharge slab-laser, comprising: a laser-housing having a hollow interior region ; a first elongated planar electrode located within the hollow interior region; a second elongated planar electrode located within the hollow interior region, the second elongated electrode spaced-apart and parallel to the first elongated electrode, the spaced-apart first and second elongated electrodes defining a discharge-gap of the slab-laser; and wherein, the first and second elongated electrodes are spaced apart by first and second elongated ceramic strips , laterally-separated and parallel to each other, each of said strips being formed from a plurality of segments , said segments being slightly separated from each other, the separation being small compared to the length of each ceramic segment . a laser-housing having a hollow interior region ; a first elongated planar electrode located within the hollow interior region; a second elongated planar electrode located within the hollow interior region, the second elongated electrode spaced-apart and parallel to the first elongated electrode, the spaced-apart first and second elongated electrodes defining a discharge-gap of the slab-laser; and wherein, the first and second elongated electrodes are spaced apart by first and second elongated ceramic strips , laterally-separated and parallel to each other, each of said strips being formed from a plurality of segments , said segments being slightly separated from each other, the separation being small compared to the length of each ceramic segment .
A method for making downhole electromagnetic logging while drilling measurements, the method comprising (a) rotating an electromagnetic logging while drilling tool in a subterranean wellbore , the logging tool including a plurality of transmitter antennas and a plurality of receiver antennas symmetrically spaced along a logging while drilling tool body , the plurality of transmitter antennas including at least one axial transmitter antenna and at least one transverse transmitter antenna, the plurality of receiver antennas including at least one axial receiver antenna and at least one transverse receiver antenna; (b) applying a time varying electrical current to the at least one axial transmitter antenna and the at least one transverse transmitter antenna while rotating in (a) to produce corresponding time varying magnetic fields; (c) causing the at least one axial receiver antenna and the at least one transverse receiver antenna to receive corresponding time varying electromagnetic voltage measurements while rotating in (a) for each of the time varying magnetic fields produced in (b); (d) processing the voltage measurements acquired in (b) to compute harmonic voltage coefficients; characterized by (e) processing ratios of the harmonic voltage coefficients to compute gain compensated quantities including symmetrized and anti-symmetrized quantities, the symmetrized quantities being proportional to a difference between xz and zx values and the anti-symmetrized quantities being proportional to a sum of the xz and zx values, wherein transmitter and receiver gains are fully cancelled out of the gain compensated quantities. (a) rotating an electromagnetic logging while drilling tool in a subterranean wellbore , the logging tool including a plurality of transmitter antennas and a plurality of receiver antennas symmetrically spaced along a logging while drilling tool body , the plurality of transmitter antennas including at least one axial transmitter antenna and at least one transverse transmitter antenna, the plurality of receiver antennas including at least one axial receiver antenna and at least one transverse receiver antenna; (b) applying a time varying electrical current to the at least one axial transmitter antenna and the at least one transverse transmitter antenna while rotating in (a) to produce corresponding time varying magnetic fields; (c) causing the at least one axial receiver antenna and the at least one transverse receiver antenna to receive corresponding time varying electromagnetic voltage measurements while rotating in (a) for each of the time varying magnetic fields produced in (b); (d) processing the voltage measurements acquired in (b) to compute harmonic voltage coefficients; characterized by (e) processing ratios of the harmonic voltage coefficients to compute gain compensated quantities including symmetrized and anti-symmetrized quantities, the symmetrized quantities being proportional to a difference between xz and zx values and the anti-symmetrized quantities being proportional to a sum of the xz and zx values, wherein transmitter and receiver gains are fully cancelled out of the gain compensated quantities.
A method of decoding a bitstream of video data by an electronic device , the method comprising: determining a block unit from an image frame according to the bitstream; determining a line index of the block unit in the bitstream; comparing the line index with a first predefined value to determine whether a mode flag is included in the bitstream, wherein the mode flag is included in the bitstream only when the line index is equal to the first predefined value indicating a first reference line adjacent to the block unit and included in a plurality of reference lines; determining a mode index in the bitstream for directly selecting an intra prediction mode of the block unit from a most probable mode (MPM) list of the block unit when the mode flag is not included in the bitstream; determining whether the value of the mode flag is equal to a second predefined value when the mode flag is included in the bitstream to determine, for selecting the intra prediction mode based on the mode index, whether the intra prediction mode is selected from the MPM list or from a plurality of remaining intra prediction mode candidates; selecting one of the plurality of reference lines based on the line index; and reconstructing the block unit based on the selected one of the plurality of reference lines and the intra prediction mode. determining a block unit from an image frame according to the bitstream; determining a line index of the block unit in the bitstream; comparing the line index with a first predefined value to determine whether a mode flag is included in the bitstream, wherein the mode flag is included in the bitstream only when the line index is equal to the first predefined value indicating a first reference line adjacent to the block unit and included in a plurality of reference lines; determining a mode index in the bitstream for directly selecting an intra prediction mode of the block unit from a most probable mode (MPM) list of the block unit when the mode flag is not included in the bitstream; determining whether the value of the mode flag is equal to a second predefined value when the mode flag is included in the bitstream to determine, for selecting the intra prediction mode based on the mode index, whether the intra prediction mode is selected from the MPM list or from a plurality of remaining intra prediction mode candidates; selecting one of the plurality of reference lines based on the line index; and reconstructing the block unit based on the selected one of the plurality of reference lines and the intra prediction mode.
An apparatus of a user equipment, UE, the apparatus comprising: an interface configured to receive an RRCConnectionReconfiguration communication from an evolved node B, eNB, the RRCConnectionReconfiguration communication comprising a field for a per component carrier gap indication request, perCCgapRequest, requesting measurement gap preferences of the UE per component carrier; and processing circuitry coupled to the interface and configured to: decode the RRCConnectionReconfiguration communication from the eNB to identify the PerCCgapRequest; set content of an RRCConnectionReconfigurationComplete message to include an indication of the measurement gap preferences of the UE per component carrier in response to the PerCCgapRequest, wherein the indication of the measurement gap preferences include, for each of a plurality of serving cell identifiers, IDs, an indication of whether or not the UE needs a measurement gap and whether or not the measurement gap is a network controlled small gap, NCSG, for the respective component carrier; and initiate transmission of the RRCConnectionReconfigurationComplete message comprising the measurement gap preferences of the UE per component carrier to the eNB. an interface configured to receive an RRCConnectionReconfiguration communication from an evolved node B, eNB, the RRCConnectionReconfiguration communication comprising a field for a per component carrier gap indication request, perCCgapRequest, requesting measurement gap preferences of the UE per component carrier; and processing circuitry coupled to the interface and configured to: decode the RRCConnectionReconfiguration communication from the eNB to identify the PerCCgapRequest; set content of an RRCConnectionReconfigurationComplete message to include an indication of the measurement gap preferences of the UE per component carrier in response to the PerCCgapRequest, wherein the indication of the measurement gap preferences include, for each of a plurality of serving cell identifiers, IDs, an indication of whether or not the UE needs a measurement gap and whether or not the measurement gap is a network controlled small gap, NCSG, for the respective component carrier; and initiate transmission of the RRCConnectionReconfigurationComplete message comprising the measurement gap preferences of the UE per component carrier to the eNB. decode the RRCConnectionReconfiguration communication from the eNB to identify the PerCCgapRequest; set content of an RRCConnectionReconfigurationComplete message to include an indication of the measurement gap preferences of the UE per component carrier in response to the PerCCgapRequest, wherein the indication of the measurement gap preferences include, for each of a plurality of serving cell identifiers, IDs, an indication of whether or not the UE needs a measurement gap and whether or not the measurement gap is a network controlled small gap, NCSG, for the respective component carrier; and initiate transmission of the RRCConnectionReconfigurationComplete message comprising the measurement gap preferences of the UE per component carrier to the eNB.
A reducing gas supplying apparatus , comprising: a chamber defining a space in which soldering is performed on a target object (T); a vaporizer for generating a reducing gas (FG) to be supplied into the chamber , the vaporizer being configured to receive a reducing liquid (FL) to be converted into the reducing gas (FG) and vaporize the reducing liquid (FL) to generate the reducing gas (FG); an intermediate container for temporarily reserving the reducing liquid (FL) before the reducing liquid (FL) in a reducing liquid bottle containing the reducing liquid (FL) is introduced into the vaporizer ; a transport tube for directing the reducing liquid (FL) in the reducing liquid bottle to the intermediate container ; a supply tube for directing the reducing liquid (FL) in the intermediate container to the vaporizer ; a transport part for delivering the reducing liquid (FL) in the reducing liquid bottle into the intermediate container ; and a supply part for delivering the reducing liquid (FL) in the intermediate container into the vaporizer ; wherein the transport part includes a vacuum tube and a vacuum pump , the vacuum tube discharging gas in the intermediate container without going through the vaporizer , the vacuum pump being installed in the vacuum tube and being configured to create a negative pressure in the intermediate container . a chamber defining a space in which soldering is performed on a target object (T); a vaporizer for generating a reducing gas (FG) to be supplied into the chamber , the vaporizer being configured to receive a reducing liquid (FL) to be converted into the reducing gas (FG) and vaporize the reducing liquid (FL) to generate the reducing gas (FG); an intermediate container for temporarily reserving the reducing liquid (FL) before the reducing liquid (FL) in a reducing liquid bottle containing the reducing liquid (FL) is introduced into the vaporizer ; a transport tube for directing the reducing liquid (FL) in the reducing liquid bottle to the intermediate container ; a supply tube for directing the reducing liquid (FL) in the intermediate container to the vaporizer ; a transport part for delivering the reducing liquid (FL) in the reducing liquid bottle into the intermediate container ; and a supply part for delivering the reducing liquid (FL) in the intermediate container into the vaporizer ; wherein the transport part includes a vacuum tube and a vacuum pump , the vacuum tube discharging gas in the intermediate container without going through the vaporizer , the vacuum pump being installed in the vacuum tube and being configured to create a negative pressure in the intermediate container .
A method for controlling an adaptive Access Class Barring, ACB, for Mobile Originated-Short Message Service, MO-SMS, in a wireless access system, the method performed by an evolved Node-B, eNB, and comprising: determining (S502) whether to modify an ACB on the MO-SMS; estimating (S503) a SMS load, a Multimedia Telephony service, MMTEL, voice load and a MMTEL video load on the wireless access system in consideration of a number of attempts of User Equipments, UEs, for an initiation session per minute; generating (S504) three Random Access Channel, RACH, congestion levels based on the MMTEL voice load and the MMTEL video load; determining (S505) indication bits which are used for the adaptive ACB by comparing the SMS load with the three RACH congestion levels; and transmitting (S505a, S506a, S507a) an System Information Block, SIB, message including indication bits for one of the three RACH congestion levels, wherein the three RACH congestion levels are an open barring, a LessCongested level and a MoreCongested level, wherein the adaptive ACB is opened by no barring when the indication bits are for the open barring, or the adaptive ACB is performed based on a specific value represented by the LessCongested level or the MoreCogested level, and wherein the MoreCongested level represents more higher specific value of barring factors than a specific value represented by the LessCongested level. determining (S502) whether to modify an ACB on the MO-SMS; estimating (S503) a SMS load, a Multimedia Telephony service, MMTEL, voice load and a MMTEL video load on the wireless access system in consideration of a number of attempts of User Equipments, UEs, for an initiation session per minute; generating (S504) three Random Access Channel, RACH, congestion levels based on the MMTEL voice load and the MMTEL video load; determining (S505) indication bits which are used for the adaptive ACB by comparing the SMS load with the three RACH congestion levels; and transmitting (S505a, S506a, S507a) an System Information Block, SIB, message including indication bits for one of the three RACH congestion levels, wherein the three RACH congestion levels are an open barring, a LessCongested level and a MoreCongested level, wherein the adaptive ACB is opened by no barring when the indication bits are for the open barring, or the adaptive ACB is performed based on a specific value represented by the LessCongested level or the MoreCogested level, and wherein the MoreCongested level represents more higher specific value of barring factors than a specific value represented by the LessCongested level.
Electronic dazzling element , having: at least one optical emitter serving to emit a collimated light beam and having an electronic light-emitting means for generating light pulses and, in the beam direction upstream of the light-emitting means , at least one collimator for collimating the light pulses emitted by the light-emitting means ; and a control device for controlling the light-emitting means of the optical emitter , characterized in that a collimator drive , which is controllable by the control device for the purpose of changing the beam direction of the collimated light beam , is provided for moving the collimator . at least one optical emitter serving to emit a collimated light beam and having an electronic light-emitting means for generating light pulses and, in the beam direction upstream of the light-emitting means , at least one collimator for collimating the light pulses emitted by the light-emitting means ; and a control device for controlling the light-emitting means of the optical emitter , characterized in that a collimator drive , which is controllable by the control device for the purpose of changing the beam direction of the collimated light beam , is provided for moving the collimator .
A vehicle lighting device , comprising: an LED light source having a light emitting surface; a laser light source ; and a fluorescent body for emitting visible light in response to excitation light from the LED light source and the laser light source , the fluorescent body i) having a rear surface formed to have substantially the same size as the light emitting surface, and a front surface located opposite the rear surface, ii) being disposed on the light emitting surface such that the rear surface covers the whole light emitting surface, and iii) emitting the visible light from the whole of a front surface of the fluorescent body, in response to the excitation light from the LED light source , wherein the laser light source irradiates the excitation light to a portion of the fluorescent body on the front surface, the portion being to emit the visible light to a high illuminance area within a light distribution pattern (P) . an LED light source having a light emitting surface; a laser light source ; and a fluorescent body for emitting visible light in response to excitation light from the LED light source and the laser light source , the fluorescent body i) having a rear surface formed to have substantially the same size as the light emitting surface, and a front surface located opposite the rear surface, ii) being disposed on the light emitting surface such that the rear surface covers the whole light emitting surface, and iii) emitting the visible light from the whole of a front surface of the fluorescent body, in response to the excitation light from the LED light source , i) having a rear surface formed to have substantially the same size as the light emitting surface, and a front surface located opposite the rear surface, ii) being disposed on the light emitting surface such that the rear surface covers the whole light emitting surface, and iii) emitting the visible light from the whole of a front surface of the fluorescent body, in response to the excitation light from the LED light source , wherein the laser light source irradiates the excitation light to a portion of the fluorescent body on the front surface, the portion being to emit the visible light to a high illuminance area within a light distribution pattern (P) .