mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor system for generating information about the movement of a moving surface , adapted for being removable attached to a mounting surface of an arrangement with the moving surface to be detected for a change, from where said moving surface is viewable, comprising: one light generating device for generating light to be directed to said moving surface; and one light sensor for capturing reflected light from said moving surface; the system further comprising first optical means for focusing light emitted from said light generating device in a parallel beam perpendicular to the moving surface and second optical means having a field of view characterized by angle α for focusing light reflected from said moving surface on said light sensor, wherein a change on said moving surface, is detected based on said reflected light captured by said light sensor; said system further comprising a further light generating device for generating light to be directed to said moving surface; and a further light sensor for capturing reflected light from said moving surface; wherein said change on said moving surface is further detected based on said reflected light captured by said further light sensor; wherein said one light generating device and said one light sensor being arranged relatively towards each other in that the distance L1 of said one light generating device, and the distance L2 of said one light sensor to the perpendicular X of the moving surface is such that there is an overlap between the parallel beam of said one light generating device and the field of view characterized by angle α' of said one light sensor, and wherein said further light generating device and said further light sensor being arranged relatively towards each other in that the distance L1 of said further light generating device, and the distance L2 of said further light sensor to the perpendicular X of the moving surface is such that there is an overlap between the parallel beam of said further light generating device and the field of view characterized by angle α' of said further light sensor, and wherein said change on said moving surface as detected twice in a respective manner is compared for generating information about the movement of said moving surface.
A system for independent volume adjustment of an audio signal for a sound zone in a plurality of sound zones, the system comprising: a plurality of loudspeakers associated with each sound zone in the plurality of sound zones; a tuning system having an equalizer applied to each loudspeaker in the plurality of loudspeakers for each sound zone; a gain modification setting for each sound zone that is set independently for each sound zone, the gain modification setting having a headrest gain setting for a stereo component of the audio signal and a bass gain setting for a mono component of the audio signal; a high pass filter applied to the audio signal to separate a stereo component for distribution to the plurality of loudspeakers in each sound zone in the plurality of sound zones and playback using the headrest gain setting; a low pass filter applied to the audio signal to separate a low frequency mono component for distribution to the plurality of loudspeakers in each sound zone and playback using the bass gain setting, the low frequency mono component having an individual sound zone algorithm applied thereto for distribution to all of the loudspeakers in the plurality of loudspeakers; and routing the modified stereo component of the audio signal and the modified mono component of the audio signal to predetermined loudspeakers thereby defining a tunable field for each sound zone in the plurality of sound zones, wherein the gain modification setting for each sound zone further comprises a height speaker gain setting applied to the low frequency mono component for distribution to the plurality of loudspeakers. a plurality of loudspeakers associated with each sound zone in the plurality of sound zones; a tuning system having an equalizer applied to each loudspeaker in the plurality of loudspeakers for each sound zone; a gain modification setting for each sound zone that is set independently for each sound zone, the gain modification setting having a headrest gain setting for a stereo component of the audio signal and a bass gain setting for a mono component of the audio signal; a high pass filter applied to the audio signal to separate a stereo component for distribution to the plurality of loudspeakers in each sound zone in the plurality of sound zones and playback using the headrest gain setting; a low pass filter applied to the audio signal to separate a low frequency mono component for distribution to the plurality of loudspeakers in each sound zone and playback using the bass gain setting, the low frequency mono component having an individual sound zone algorithm applied thereto for distribution to all of the loudspeakers in the plurality of loudspeakers; and routing the modified stereo component of the audio signal and the modified mono component of the audio signal to predetermined loudspeakers thereby defining a tunable field for each sound zone in the plurality of sound zones,
A cleaning system for cleaning a lamella plate settler , comprising at least one mechanical cleaning device ; suspension means adapted to suspend the mechanical cleaning device ; wherein the suspension means comprises displacement means for lowering and raising the at least one mechanical cleaning device for mechanical cleaning of a lamella plate positioned below the cleaning system , characterized by a frame supporting the at least one cleaning device ; wheels attached to the frame and adapted to move on rails , the wheels comprising driving wheels , a sensor , preferably an inductive sensor, adapted to sense the rotational position of the driving wheels , further the sensor is connected to a control system, which control system is adapted to control: the turning of the wheels , the movement of the cleaning system between different cleaning positions and the initiation of lowering and raising of the at least one mechanical cleaning device . at least one mechanical cleaning device ; suspension means adapted to suspend the mechanical cleaning device ; wherein the suspension means comprises displacement means for lowering and raising the at least one mechanical cleaning device for mechanical cleaning of a lamella plate positioned below the cleaning system , characterized by a frame supporting the at least one cleaning device ; wheels attached to the frame and adapted to move on rails , the wheels comprising driving wheels , a sensor , preferably an inductive sensor, adapted to sense the rotational position of the driving wheels , further the sensor is connected to a control system, which control system is adapted to control: the turning of the wheels , the movement of the cleaning system between different cleaning positions and the initiation of lowering and raising of the at least one mechanical cleaning device .
A method for detecting downlink control information, comprising: a user equipment, UE, receiving a resource block set and pre-defined information configured by a base station, and detecting (S504) downlink control information borne by an enhanced physical downlink control channel, ePDCCH, in a resource block according to the resource block set and the pre-defined information configured by a base station, the pre-defined information includes the following (S502): a mapping mode of the ePDCCH, configuration information about aggregation levels in a user dedicated search space to be detected in the resource block set, the mapping mode of the ePDCCH comprising at least one of continuous mapping and discrete mapping, an amount of candidate set corresponding to the detected aggregation level in the resource block set, and a downlink control information format. a mapping mode of the ePDCCH, configuration information about aggregation levels in a user dedicated search space to be detected in the resource block set, the mapping mode of the ePDCCH comprising at least one of continuous mapping and discrete mapping, an amount of candidate set corresponding to the detected aggregation level in the resource block set, and a downlink control information format.
An electrical cabinet (2; 2a; 2b; 2c) with thermal insulation, the electrical cabinet defining an enclosure for receiving at least one electrical appliance, said electrical cabinet including at least one thermally insulating wall mounted on a face (22; 24) of the electrical cabinet, said insulating wall including a hollow inner cavity , characterized in that the electrical cabinet further includes: a mechanical device (10; 10'), such as a compressor or a pump, configured to modify the pressure inside said cavity , the mechanical device being fluidically connected to said cavity, at least one measuring device , configured to determine a temperature difference between the inside of the cabinet and the outside of the cabinet, an electronic control device , configured to control the mechanical device (10; 10') so as to modify the pressure inside said cavity as a function of the measured temperature difference. said insulating wall including a hollow inner cavity , characterized in that the electrical cabinet further includes: a mechanical device (10; 10'), such as a compressor or a pump, configured to modify the pressure inside said cavity , the mechanical device being fluidically connected to said cavity, at least one measuring device , configured to determine a temperature difference between the inside of the cabinet and the outside of the cabinet, an electronic control device , configured to control the mechanical device (10; 10') so as to modify the pressure inside said cavity as a function of the measured temperature difference. a mechanical device (10; 10'), such as a compressor or a pump, configured to modify the pressure inside said cavity , the mechanical device being fluidically connected to said cavity, at least one measuring device , configured to determine a temperature difference between the inside of the cabinet and the outside of the cabinet, an electronic control device , configured to control the mechanical device (10; 10') so as to modify the pressure inside said cavity as a function of the measured temperature difference.
A multilayer film comprising: (a) a layer of a first polymer comprising polymerized units of vinyl alcohol; and (b) a layer of a second polymer selected from the group consisting of maleic anhydride-isobutylene copolymers, neutralized maleic anhydride-isobutylene copolymers, chemically modified maleic anhydride-isobutylene copolymers, and mixtures thereof.
Method for producing a dental restoration comprising a lithium silicate glass ceramic, wherein a) an amorphous glass having the following composition: 50 to 75 wt-% SiO 2 , 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2 , 0 to 8 wt-% Al 2 O 3 , 0 to 8 wt-% K 2 O and 0 to 15 wt-% additives with the proviso that the glass does not have one of the following compositions: 59,0 wt-% SiO 2 59,0 wt-% SiO 2 18,0 wt-% Li 2 O 19,0 wt-% Li 2 O 12,0 wt-% ZrO 2 12,0 wt-% ZrO 2 3,0 wt-% K 2 O 2,0 wt-% K 2 O 4,5 wt-% Al 2 O 3 4,5 wt-% Al 2 O 3 3,5 wt-% P 2 O 5 3,5 wt-% P 2 O 5 is subjected to at least one heat treatment which is a double-stage treatment with a first temperature from 600 to 800°C and a second temperature from 780 to 900°C resulting in a tooth coloured glass ceramic having a transmission of light with a wavelength between 360 nm to 740 nm, measured according to DIN EN 410, with a spectrophotometer Minolta CM-3610D, with a strength of at least 250 MPa, measured according to the 3-point-bending strength test conform to DIN ISO 6872, and with the colour of tooth, wherein during the at least one heat treatment at least a partial crystallisation occurs due to the increased temperatures, and b) the glass ceramic is formed to a dental restoration for immediate dental application and with a strength of at least 200 MPa, measured according to the 3-point-bending strength test conform to DIN ISO 6872, by using a subtractive process selected from the group consisting of milling, grinding and laser ablation. a) an amorphous glass having the following composition: 50 to 75 wt-% SiO 2 , 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2 , 0 to 8 wt-% Al 2 O 3 , 0 to 8 wt-% K 2 O and 0 to 15 wt-% additives with the proviso that the glass does not have one of the following compositions: 59,0 wt-% SiO 2 59,0 wt-% SiO 2 18,0 wt-% Li 2 O 19,0 wt-% Li 2 O 12,0 wt-% ZrO 2 12,0 wt-% ZrO 2 3,0 wt-% K 2 O 2,0 wt-% K 2 O 4,5 wt-% Al 2 O 3 4,5 wt-% Al 2 O 3 3,5 wt-% P 2 O 5 3,5 wt-% P 2 O 5 is subjected to at least one heat treatment which is a double-stage treatment with a first temperature from 600 to 800°C and a second temperature from 780 to 900°C resulting in a tooth coloured glass ceramic having a transmission of light with a wavelength between 360 nm to 740 nm, measured according to DIN EN 410, with a spectrophotometer Minolta CM-3610D, with a strength of at least 250 MPa, measured according to the 3-point-bending strength test conform to DIN ISO 6872, and with the colour of tooth, wherein during the at least one heat treatment at least a partial crystallisation occurs due to the increased temperatures, and 50 to 75 wt-% SiO 2 , 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2 , 0 to 8 wt-% Al 2 O 3 , 0 to 8 wt-% K 2 O and 0 to 15 wt-% additives b) the glass ceramic is formed to a dental restoration for immediate dental application and with a strength of at least 200 MPa, measured according to the 3-point-bending strength test conform to DIN ISO 6872, by using a subtractive process selected from the group consisting of milling, grinding and laser ablation.
A method for manufacturing an electrode, the method comprising: a first coating step (S10) of forming a first electrode mixture layer on one surface of a metal thin film for a current collector, which has a taping region in which a tape is bonded; a first drying step (S20) of drying the metal thin film where the first electrode mixture layer has been formed; a second coating step (S30) of forming a second electrode mixture layer on an opposite surface of a surface where the first electrode mixture layer of the first dried metal thin film; a second drying step (S40) of drying the metal thin film where the second electrode mixture layer has been formed, and a tape removing step of removing the tape in the taping region, wherein the metal thin film for the current collector includes the taping region formed at an opposite end of the coating start point, based on a coating direction in the first coating step. a first coating step (S10) of forming a first electrode mixture layer on one surface of a metal thin film for a current collector, which has a taping region in which a tape is bonded; a first drying step (S20) of drying the metal thin film where the first electrode mixture layer has been formed; a second coating step (S30) of forming a second electrode mixture layer on an opposite surface of a surface where the first electrode mixture layer of the first dried metal thin film; a second drying step (S40) of drying the metal thin film where the second electrode mixture layer has been formed, and a tape removing step of removing the tape in the taping region, wherein the metal thin film for the current collector includes the taping region formed at an opposite end of the coating start point, based on a coating direction in the first coating step.
A scintillator panel comprising a sheet-like substrate , a barrier rib provided on the substrate , and a scintillator layer filled in cells divided by the barrier rib , wherein the barrier rib is made of a material containing a low melting point glass having a softening temperature of 700 °C or lower as a main component, and the scintillator layer is made of a phosphor and a binder resin , and wherein a filling rate of the scintillator layer is 50% by volume or more, characterized in that a refractive index of Np of the phosphor and a refractive index of Nb of the binder resin satisfy a relation: − 0.3 < Np − Nb < 0.8 , and the content of the binder resin in the scintillator layer is 1% by mass or more and 30% by mass or less, and wherein a refractive index Nr of the barrier rib , and the refractive index Nb satisfy a relation: − 0.2 ≤ Nr − Nb ≤ 0.2 . the barrier rib is made of a material containing a low melting point glass having a softening temperature of 700 °C or lower as a main component, and the scintillator layer is made of a phosphor and a binder resin , and wherein a filling rate of the scintillator layer is 50% by volume or more, characterized in that a refractive index of Np of the phosphor and a refractive index of Nb of the binder resin satisfy a relation: − 0.3 < Np − Nb < 0.8 , and the content of the binder resin in the scintillator layer is 1% by mass or more and 30% by mass or less, and wherein a refractive index Nr of the barrier rib , and the refractive index Nb satisfy a relation: − 0.2 ≤ Nr − Nb ≤ 0.2 .
A method of providing training feedback to an individual using a heart rate sensor and a display module supported by the individual during a physical activity, the method comprising the steps of: (a) determining a maximum heart rate value for the individual; (b) defining a heart rate zone as a range of heart rate values that correspond to a range of percentages of the maximum heart rate value; (c) associating a color with the heart rate zone; (d) wirelessly transmitting heart rate data from the heart rate sensor to the display module during the physical activity; and (e) visually displaying the color associated with the heart rate zone to the individual on the display module during the physical activity in response to the heart rate data, characterized in that the method further comprises the steps of (f) transmitting heart rate data from the display module to a remote computer after the physical activity; (g) determining whether the heart rate zones need to be adjusted; and (h) transmitting the adjusted heart rate zones back to the display module if the heart rate zones need to be adjusted. (a) determining a maximum heart rate value for the individual; (b) defining a heart rate zone as a range of heart rate values that correspond to a range of percentages of the maximum heart rate value; (c) associating a color with the heart rate zone; (d) wirelessly transmitting heart rate data from the heart rate sensor to the display module during the physical activity; and (e) visually displaying the color associated with the heart rate zone to the individual on the display module during the physical activity in response to the heart rate data, (f) transmitting heart rate data from the display module to a remote computer after the physical activity; (g) determining whether the heart rate zones need to be adjusted; and (h) transmitting the adjusted heart rate zones back to the display module if the heart rate zones need to be adjusted.
A magnesium-based alloy for the manufacture of electrodes (weight %), the magnesium-based alloy having a composition comprising about: 3.93% aluminum Al; 0.91 % zinc Zn; 0.48% manganese Mn; 0.0024% iron Fe; 0.010% silicon Si; 0.0002% pewter Sn; and the magnesium Mg balance of about 94.67%. 3.93% aluminum Al; 0.91 % zinc Zn; 0.48% manganese Mn; 0.0024% iron Fe; 0.010% silicon Si; 0.0002% pewter Sn; and the magnesium Mg balance of about 94.67%.
A portable communication device comprising: a receiver that includes a reception antenna which is configured to conduct communication with an external reader/writer device by electromagnetic coupling and in which a received resonant frequency is variable; a transmitter that includes a transmission antenna which is configured to conduct communication with an external non-contact data carrier by the electromagnetic coupling and to transmit an adjustment signal to the receiver in order to adjust the received resonant frequency; an adjustment signal generator that is configured to generate the adjustment signal and to output the adjustment signal to the transmitter ; an adjustment signal detector that is configured to detect a parameter including information on a transmission state of the adjustment signal; and a control circuit unit that is configured to correct a deviation of the received resonant frequency based on a detection result of the adjustment signal detector , wherein the reception antenna includes a variable-capacitance element in which a capacitance changes by a control voltage, wherein the control circuit unit is configured to adjust the received resonant frequency by changing the control voltage applied to the variable-capacitance element based on the detection result of the adjustment signal detector , and wherein the adjustment signal detector is configured to detect a phase difference between a phase of a received signal when the receiver receives the adjustment signal and a phase of the adjustment signal as the parameter. a receiver that includes a reception antenna which is configured to conduct communication with an external reader/writer device by electromagnetic coupling and in which a received resonant frequency is variable; a transmitter that includes a transmission antenna which is configured to conduct communication with an external non-contact data carrier by the electromagnetic coupling and to transmit an adjustment signal to the receiver in order to adjust the received resonant frequency; an adjustment signal generator that is configured to generate the adjustment signal and to output the adjustment signal to the transmitter ; an adjustment signal detector that is configured to detect a parameter including information on a transmission state of the adjustment signal; and a control circuit unit that is configured to correct a deviation of the received resonant frequency based on a detection result of the adjustment signal detector , wherein the reception antenna includes a variable-capacitance element in which a capacitance changes by a control voltage, wherein the control circuit unit is configured to adjust the received resonant frequency by changing the control voltage applied to the variable-capacitance element based on the detection result of the adjustment signal detector , and wherein the adjustment signal detector is configured to detect a phase difference between a phase of a received signal when the receiver receives the adjustment signal and a phase of the adjustment signal as the parameter.