mhurhangee/patent-ind-claim-en huggingface dataset:
A display being either a rear-projection display or a front-projection display, comprising: - a projector comprising: -- a light source , -- a reflection-type first spatial light modulator panel located to modulate light from the light source , and -- an optical system ; - a screen including a second spatial light modulator panel , the second spatial light modulator panel being a transmission-type light modulator in the case of a rear-projection display and a reflection-type light modulator in the case of a front-projection display, the optical system being configured to image light modulated by the first spatial light modulator panel onto the second spatial light modulator panel ; and - a controller configured to receive data which define an image, to generate based on the received data a first driving signal for the first spatial light modulator panel and a second driving signal for the second spatial light modulator panel so that the light modulated by the first and second spatial light modulator panels (16, 16A; 20, 36) approaches the image defined by the image data, and to control the first spatial light modulator panel with the first driving signal and the second spatial light modulator panel with the second driving signal; - wherein the light source is configured to emit light in a first direction parallel to the second spatial light modulator panel ; - wherein the first spatial light modulator panel is configured to redirect the light it modulates in a direction normal to said first direction. - a projector comprising: -- a light source , -- a reflection-type first spatial light modulator panel located to modulate light from the light source , and -- an optical system ; -- a light source , -- a reflection-type first spatial light modulator panel located to modulate light from the light source , and -- an optical system ; - a screen including a second spatial light modulator panel , the second spatial light modulator panel being a transmission-type light modulator in the case of a rear-projection display and a reflection-type light modulator in the case of a front-projection display, the optical system being configured to image light modulated by the first spatial light modulator panel onto the second spatial light modulator panel ; and - a controller configured to receive data which define an image, to generate based on the received data a first driving signal for the first spatial light modulator panel and a second driving signal for the second spatial light modulator panel so that the light modulated by the first and second spatial light modulator panels (16, 16A; 20, 36) approaches the image defined by the image data, and to control the first spatial light modulator panel with the first driving signal and the second spatial light modulator panel with the second driving signal; - wherein the light source is configured to emit light in a first direction parallel to the second spatial light modulator panel ; - wherein the first spatial light modulator panel is configured to redirect the light it modulates in a direction normal to said first direction.
Method of manufacturing an optoelectronic device comprising at least one LED (L) and at least one photodiode (P), comprising the following steps: a) forming a semiconductor support stack comprising at least one doped semiconductor layer ; b) simultaneously forming, during a common epitaxy step, an active emission semiconductor stack of the LED (L) and an active reception semiconductor stack of the photodiode (P); c) forming trenches (220; 320) vertically extending through the support stack and laterally delimiting at least one first support pad (SL) and at least one second support pad (SP), wherein, at the end of steps b) and c), the active emission semiconductor stack of the LED (L) covers the first support pad (SL) and the active reception stack of the photodiode (P) covers the second support pad (SP), le method further comprising, after step c), a step d) of porosification of said doped semiconductor layer in the first support pad (SL) without porosifying said doped semiconductor layer in the second support pad (SP), or a step of porosification of said doped semiconductor layer in the second support pad (SP) without porosifying said doped semiconductor layer in the first support pad (SL). a) forming a semiconductor support stack comprising at least one doped semiconductor layer ; b) simultaneously forming, during a common epitaxy step, an active emission semiconductor stack of the LED (L) and an active reception semiconductor stack of the photodiode (P); c) forming trenches (220; 320) vertically extending through the support stack and laterally delimiting at least one first support pad (SL) and at least one second support pad (SP), wherein, at the end of steps b) and c), the active emission semiconductor stack of the LED (L) covers the first support pad (SL) and the active reception stack of the photodiode (P) covers the second support pad (SP), le method further comprising, after step c), a step d) of porosification of said doped semiconductor layer in the first support pad (SL) without porosifying said doped semiconductor layer in the second support pad (SP), or a step of porosification of said doped semiconductor layer in the second support pad (SP) without porosifying said doped semiconductor layer in the first support pad (SL).
Emulsion comprising a (1→3)-β-D-glucan, a cationic emulsifier, a recovered binder having a penetration of less than 70·10 -1 mm and more than 10·10 -1 mm according to ASTM D5-97, wherein the recovered binder comprises a light coloured oil having a colour of D8.0 according to ASTM D1500 or less and a clear binder, wherein the clear binder is selected from the group consisting of petroleum hydrocarbon resins, natural resins and synthetic hydrocarbon resins, wherein the weight ratio of the light coloured oil and the clear binder in the recovered binder is between 20: 80 and 80:20, based on the total weight of the recovered binder, wherein the (1→3)-β-D-glucan is used in admixture with an oil, wherein the (1→3)-β-D-glucan is scleroglucan, wherein the emulsion comprises 0.0005 wt.% to 0.1 wt.% of the scleroglucan and 0.01 wt.% to 20 wt.% of the cationic emulsifier, based on the total weight of the emulsion, and wherein the cationic emulsifier is: (a) derived from amines having the formula: R-NH-(C m H 2m -NH) p -(C n H 2n )-NH 2 wherein R is a C 1 -C 30 aliphatic group, m is an integer in the range from 1 to 8, p is an integer in the range of 0 to 6, and n is an integer in the range of 1 - 8; or (b) derived from amidoamines having the formula: R-C(O)NH-(C m H 2m -NH) p -(C n H 2n )-NH 2 wherein R is a C 1 -C 30 aliphatic group, m is an integer in the range from 1 to 8, p is an integer in the range of 0 to 6, and n is an integer in the range of 1 - 8. (a) derived from amines having the formula: R-NH-(C m H 2m -NH) p -(C n H 2n )-NH 2 wherein R is a C 1 -C 30 aliphatic group, m is an integer in the range from 1 to 8, p is an integer in the range of 0 to 6, and n is an integer in the range of 1 - 8; or (b) derived from amidoamines having the formula: R-C(O)NH-(C m H 2m -NH) p -(C n H 2n )-NH 2 wherein R is a C 1 -C 30 aliphatic group, m is an integer in the range from 1 to 8, p is an integer in the range of 0 to 6, and n is an integer in the range of 1 - 8.
An imaging assembly comprising: a rotatable gantry comprising a first array of positron emission detectors and a second array of rotatable positron emission detectors mounted on the gantry opposite the first array of positron emission detectors ; a housing disposed over the gantry and comprising a bore and a stationary radiation source holder spaced away from a patient region within the bore , wherein the stationary radiation source holder is located within the housing or on a surface of the housing ; and a processor configured to receive positron emission path data from the first and second arrays of positron emission detectors and to extract positron emission data representing positron emission activity originating from the stationary radiation source holder , and to generate a fault signal when the extracted positron emission data does not satisfy one or more threshold criteria, and wherein a threshold criterion comprises a spatial filter that selects for positron emission activity originating from a location of the stationary radiation source holder, and wherein the fault signal is generated when applying the spatial filter to the extracted positron emission data indicates that the positron emission activity does not co-localize with the location of the stationary radiation source holder. a rotatable gantry comprising a first array of positron emission detectors and a second array of rotatable positron emission detectors mounted on the gantry opposite the first array of positron emission detectors ; a housing disposed over the gantry and comprising a bore and a stationary radiation source holder spaced away from a patient region within the bore , wherein the stationary radiation source holder is located within the housing or on a surface of the housing ; and a processor configured to receive positron emission path data from the first and second arrays of positron emission detectors and to extract positron emission data representing positron emission activity originating from the stationary radiation source holder , and to generate a fault signal when the extracted positron emission data does not satisfy one or more threshold criteria, and wherein a threshold criterion comprises a spatial filter that selects for positron emission activity originating from a location of the stationary radiation source holder, and wherein the fault signal is generated when applying the spatial filter to the extracted positron emission data indicates that the positron emission activity does not co-localize with the location of the stationary radiation source holder.
A poly(ADP ribose) polymerase (PARP) inhibitor, or a pharmaceutically acceptable salt or solvate thereof, for use in treating, preventing or ameliorating medial vascular calcification or intimal atherosclerotic calcification, wherein the PARP inhibitor is olaparib; rucaparib; niraparib; veliparib; talazoparib; minocycline; cilostazol or N-(6-oxo-5,6-dihydrophenanthridin-2-yl)-(N,N-dimethylamino)acetamide hydrochloride (PJ34).
A method of manufacturing a wind turbine blade , the method comprising, wrapping an exterior surface of a mandrel with a thermoplastic composite material ; and consolidating the thermoplastic composite material using at least one susceptor sheet ; wherein the mandrel is a segmented mandrel comprising a plurality of segments (31a - 31d), each having its own cross-sectional profile, and wherein each of the mandrel segments (31a - 31d) are individually wrapped with said thermoplastic composite material and consolidated.
An apparatus comprising: a plurality of bio-signal acquisition channels , each bio-signal acquisition channel comprising a gain amplifier configured to, by bipolar sensing for each input, amplify differential biopotential signals received from a pair of associated surface electrodes placed on a patient ; to generate a differential wide-band cardiac phase gradient signal , wherein the gain amplifier is configured to amplify each differential biopotential signal to generate a wide-band cardiac phase gradient signal that has a frequency component above 1kHz, and each output of the plurality of bio-signal acquisition channels is configured to feed an analog-to-digital conversion circuit ; wherein the analog-to-digital conversion circuit is configured to simultaneously sample, each of the plurality of bio-signal acquisition channels to generate a differential wide-band cardiac phase gradient signal data stream.
N-acetylcysteine (NAC) for use in a method for treating idiopathic pulmonary fibrosis (IPF) in a patient, comprising administering NAC to a patient after a sample from the patient has been genotyped and determined to be any one of: a) homozygous or heterozygous for a thymine at the single nucleotide polymorphism rs3750920; b) homozygous or heterozygous for guanine at the single nucleotide polymorphism rs5743894; or c) homozygous or heterozygous for thymine at the single nucleotide polymorphism rs35705950. a) homozygous or heterozygous for a thymine at the single nucleotide polymorphism rs3750920; b) homozygous or heterozygous for guanine at the single nucleotide polymorphism rs5743894; or c) homozygous or heterozygous for thymine at the single nucleotide polymorphism rs35705950.
A method for selectable band suppression for a distributed antenna system comprising at least one master unit and at least one remote antenna unit that is communicatively coupled to the at least one master unit , the at least one remote antenna unit carrying a remote downlink radio frequency signal comprising a first downlink frequency band and a second downlink frequency band, and a remote uplink radio frequency signal comprising a first uplink frequency band and a second uplink frequency band, the method comprising: determining whether the distributed antenna system is operating under a first status condition or a second status condition; when the distributed antenna system is determined to be operating under the first status condition, controlling at least one radio frequency, RF, band suppression element to suppress the first downlink frequency band while passing the second downlink frequency band along a downlink signal path and to suppress the first uplink frequency band while passing the second uplink frequency band along an uplink signal path; when the distributed antenna system is determined to be operating under the second status condition, controlling the at least one RF band suppression element to pass the first downlink frequency band and the second downlink frequency band along the downlink signal path and to pass the first uplink frequency band and the second uplink frequency band along the uplink signal path. determining whether the distributed antenna system is operating under a first status condition or a second status condition; when the distributed antenna system is determined to be operating under the first status condition, controlling at least one radio frequency, RF, band suppression element to suppress the first downlink frequency band while passing the second downlink frequency band along a downlink signal path and to suppress the first uplink frequency band while passing the second uplink frequency band along an uplink signal path; when the distributed antenna system is determined to be operating under the second status condition, controlling the at least one RF band suppression element to pass the first downlink frequency band and the second downlink frequency band along the downlink signal path and to pass the first uplink frequency band and the second uplink frequency band along the uplink signal path.
A method of communication comprising: determining that first data is to be communicated, wherein the first data is associated with a first latency period that is shorter than a second latency period associated with second data currently being communicated using a nominal transmission time interval; characterised by : selecting , based on the determination, a multi-symbol transmission time interval TTI , for communicating the first data, wherein the multi-symbol TTI is scaled to change the number of symbol time periods in a nominal TTI based on a latency requirement of the data to be communicated, and specifies a plurality of symbol time periods for each of a first scaled TTI (730+732) and a second scaled TTI ; communicating the first data during the first scaled TTI (730+732) using the plurality of symbol time periods of the first scaled TTI (730+732); and communicating feedback information based on at least a portion of the first data during the second scaled TTI using at least one of the plurality of symbol time periods of the second scaled TTI , wherein the second scaled TTI successively follows the first scaled TTI (730+732). selecting , based on the determination, a multi-symbol transmission time interval TTI , for communicating the first data, wherein the multi-symbol TTI is scaled to change the number of symbol time periods in a nominal TTI based on a latency requirement of the data to be communicated, and specifies a plurality of symbol time periods for each of a first scaled TTI (730+732) and a second scaled TTI ; communicating the first data during the first scaled TTI (730+732) using the plurality of symbol time periods of the first scaled TTI (730+732); and communicating feedback information based on at least a portion of the first data during the second scaled TTI using at least one of the plurality of symbol time periods of the second scaled TTI , wherein the second scaled TTI successively follows the first scaled TTI (730+732).
A brake control method for controlling a braking system of a vehicle, the braking system having a plurality of brake device groups , the method comprising: - a brake control unit receiving a plurality of external brake demand signals each determining a brake target to be achieved by the braking system; - the brake control unit receiving an external priority demand signal that controls priority of a first brake target over a second brake target; - the brake control unit , if it is determined that not all brake targets can be met simultaneously, generating the brake command signals such that the first brake target or second brake target is prioritized based on the priority demand signal; and - the brake control unit outputting the brake command signals to the braking system, so as to cause braking and/or steering of the vehicle, characterized in that the braking system includes a brake command distributor unit that receives the priority demand signal and each of at least one first internal brake demand signal and each of at least one second internal brake demand signal, wherein the first internal brake demand signal is associated with the first brake target and the second internal brake demand signal is associated with the second brake target, and wherein the brake command distributor unit generates the brake command signals by combining the internal brake demand signals using a weight based on the priority demand signal. - a brake control unit receiving a plurality of external brake demand signals each determining a brake target to be achieved by the braking system; - the brake control unit receiving an external priority demand signal that controls priority of a first brake target over a second brake target; - the brake control unit , if it is determined that not all brake targets can be met simultaneously, generating the brake command signals such that the first brake target or second brake target is prioritized based on the priority demand signal; and - the brake control unit outputting the brake command signals to the braking system, so as to cause braking and/or steering of the vehicle,
A method, comprising: measuring, by a processor and via a monitor circuit coupled to a battery , a first temperature of the battery at a first time; measuring, by the processor and via the monitor circuit, a first voltage of the battery at the first time; generating, by the processor, a first data point comprising the first voltage and the first temperature; assigning, by the processor, the first data point to a first cell of a plurality of cells in a matrix stored on a memory in communication with the processor, wherein the matrix comprises a first axis comprising a plurality of voltage ranges and a second axis comprising a plurality of temperature ranges, wherein each cell of the plurality of cells is associated with a particular temperature range and voltage range, wherein the first cell is associated with a first voltage range of the plurality of voltage ranges and a first temperature range of the plurality of temperature ranges, wherein the first voltage is within the first voltage range and the first temperature is within the first temperature range; incorporating, by the processor, a first real number associated with the first data point into a first counter comprised in the first cell; and producing, by the processor, a first value comprised in the first counter in response to incorporating the first real number into the first counter, wherein a current of the battery is not measured, and wherein the monitor circuit is embedded into or attached onto the battery. measuring, by a processor and via a monitor circuit coupled to a battery , a first temperature of the battery at a first time; measuring, by the processor and via the monitor circuit, a first voltage of the battery at the first time; generating, by the processor, a first data point comprising the first voltage and the first temperature; assigning, by the processor, the first data point to a first cell of a plurality of cells in a matrix stored on a memory in communication with the processor, wherein the matrix comprises a first axis comprising a plurality of voltage ranges and a second axis comprising a plurality of temperature ranges, wherein each cell of the plurality of cells is associated with a particular temperature range and voltage range, wherein the first cell is associated with a first voltage range of the plurality of voltage ranges and a first temperature range of the plurality of temperature ranges, wherein the first voltage is within the first voltage range and the first temperature is within the first temperature range; incorporating, by the processor, a first real number associated with the first data point into a first counter comprised in the first cell; and producing, by the processor, a first value comprised in the first counter in response to incorporating the first real number into the first counter, wherein a current of the battery is not measured, and wherein the monitor circuit is embedded into or attached onto the battery.
Apparatus for the transmission of signals from a housing made at least partially from metal for the purpose of identification using electromagnetic waves (RFID), comprising: - at least a first housing opening , - a coil arrangement designed to generate the electromagnetic waves (RFID), characterized in that the coil arrangement has a coil core which, at least in an end area, extends along a vector (B max ) in such a way that the magnetic flow density entering or exiting the end area of the coil arrangement has a maximum value along the vector (Bmax), and wherein the coil arrangement is arranged in the housing in such a way that the vector (B max ) is directed towards the first housing opening . - at least a first housing opening , - a coil arrangement designed to generate the electromagnetic waves (RFID), characterized in that the coil arrangement has a coil core which, at least in an end area, extends along a vector (B max ) in such a way that the magnetic flow density entering or exiting the end area of the coil arrangement has a maximum value along the vector (Bmax), and wherein the coil arrangement is arranged in the housing in such a way that the vector (B max ) is directed towards the first housing opening .