mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting system information SI, in a 5G radio system, comprising: transmitting , by a base station, a minimum SI message, wherein the minimum SI message comprises information regarding transmission of at least one additional SI message; and transmitting , by the base station, the at least one additional SI message according to the information in the minimum SI message, wherein the minimum SI message comprises an indicator for indicating the transmission of the at least one additional SI message, and the indicator further indicates that the at least one additional SI message are periodically broadcasted, and wherein the minimum SI message indicates whether a UE is allowed to send an SI request. transmitting , by a base station, a minimum SI message, wherein the minimum SI message comprises information regarding transmission of at least one additional SI message; and transmitting , by the base station, the at least one additional SI message according to the information in the minimum SI message, wherein the minimum SI message comprises an indicator for indicating the transmission of the at least one additional SI message, and the indicator further indicates that the at least one additional SI message are periodically broadcasted, and wherein the minimum SI message indicates whether a UE is allowed to send an SI request.
A method for optical characterisation of the quality of a bifacial photovoltaic module (PV), the module including a first active face (FAV) and a second active face (FAR), opposite to the first face, and, on each of said first and second faces, a stack of layers including at least one layer of a semiconductor material with photovoltaic properties and having a band gap, the method comprising: - illuminating a plurality of surface elements on each face using a light source (SLM) comprising at least one wavelength less than the wavelength of the band gap and measuring a photoluminescence intensity emitted by each surface element of this face at least at the wavelength of the band gap, - according to the measurement of photoluminescence intensity emitted by each surface element of each face, estimating a photovoltaic performance parameter (V oc (x, y); J SC (x, y); P elec (x, y)) for this surface element, - for each surface element, estimating a bifaciality coefficient comparing the photovoltaic performance parameter of each surface element of the first face with the photovoltaic performance parameter of a homologous surface element of the second face, disposed under the surface element of the first face, and - establishing a mapping of the bifaciality coefficient of the module. - illuminating a plurality of surface elements on each face using a light source (SLM) comprising at least one wavelength less than the wavelength of the band gap and measuring a photoluminescence intensity emitted by each surface element of this face at least at the wavelength of the band gap, - according to the measurement of photoluminescence intensity emitted by each surface element of each face, estimating a photovoltaic performance parameter (V oc (x, y); J SC (x, y); P elec (x, y)) for this surface element, - for each surface element, estimating a bifaciality coefficient comparing the photovoltaic performance parameter of each surface element of the first face with the photovoltaic performance parameter of a homologous surface element of the second face, disposed under the surface element of the first face, and - establishing a mapping of the bifaciality coefficient of the module.
A method for producing one or more fluid hydrocarbon products from a solid hydrocarbonaceous material that comprises at least one of xylitol, glucose, cellobiose, cellulose, hemi-cellulose, lignin, sugar cane bagasse, wood and corn stover, the method comprising: providing a solid catalyst in a fluidized bed reactor, wherein the solid catalyst comprises a zeolite catalyst which is ZSM-5, fluidizing the catalyst using a fluidization fluid, the residence time of the fluidization fluid in the reactor being from 2 to 480 seconds; feeding the solid hydrocarbonaceous material to the fluidized bed reactor at a mass-normalized space velocity of between 0.01 hour -1 and 0.1 hour -1 ; catalytically pyrolyzing at least a portion of the hydrocarbonaceous material by heat alone without oxidation; wherein the temperature within the reactor is between 500°C and 1000°C, and the residence time of the hydrocarbonaceous material in the reactor is from 2 to 480 seconds, and separating the catalyst from the one or more fluid hydrocarbon products in a separator, the temperature in the separator being from 200°C to 500°C, the residence time of the catalyst in the separator being at least 1 second; wherein the one or more fluid hydrocarbon products comprise a relatively larger amount of aromatics than olefins, the amount of aromatics being at least 6% or more. providing a solid catalyst in a fluidized bed reactor, wherein the solid catalyst comprises a zeolite catalyst which is ZSM-5, fluidizing the catalyst using a fluidization fluid, the residence time of the fluidization fluid in the reactor being from 2 to 480 seconds; feeding the solid hydrocarbonaceous material to the fluidized bed reactor at a mass-normalized space velocity of between 0.01 hour -1 and 0.1 hour -1 ; catalytically pyrolyzing at least a portion of the hydrocarbonaceous material by heat alone without oxidation; wherein the temperature within the reactor is between 500°C and 1000°C, and the residence time of the hydrocarbonaceous material in the reactor is from 2 to 480 seconds, and separating the catalyst from the one or more fluid hydrocarbon products in a separator, the temperature in the separator being from 200°C to 500°C, the residence time of the catalyst in the separator being at least 1 second; wherein the one or more fluid hydrocarbon products comprise a relatively larger amount of aromatics than olefins, the amount of aromatics being at least 6% or more.
A laundry washer or washer/dryer comprising a body ; a tub which is disposed into the body ; a drum which is disposed in the tub , which rotates around its own axis and wherein the laundry is placed; a shock absorber which connects the tub and the body to each other and which has a cylinder fixed to the tub from one end and a piston fixed to the body from one end and moving linearly in the cylinder ; a cylinder connection member which enables the shock absorber to be fixed to the tub ; a piston connection member which enables the shock absorber to be fixed to the body ; and a mounting plate which enables the shock absorber to be mounted to the tub by means of the cylinder connection member , the cylinder connection member having a convex support plate ; and the mounting plate which comes into contact with the support plate and which has a recess formed so as to correspond to the convex form of the mounting surface characterized by the mounting plate having a channel which enables the cylinder connection member to be rotated on the mounting plate such that the cylinder connection member is shifted to the locking position to be fixed on the mounting plate , and the cylinder connection member having a lug which can be slidably moved in the channel .
A cleaning apparatus for cleaning a rail vehicle, comprising - at least one detection device for detecting soiling (G) on a rail vehicle to be cleaned, - at least one cleaning device for cleaning the rail vehicle having -- at least one cleaning element , and -- at least one multi-axis robot for positioning the at least one cleaning element relative to the rail vehicle, - a control device for controlling the at least one cleaning device in dependence on the detected soiling (G), characterized by a travel motion control device for controlling the travel motion of the vehicle to be cleaned in dependence on the detected soiling (G). - at least one detection device for detecting soiling (G) on a rail vehicle to be cleaned, - at least one cleaning device for cleaning the rail vehicle having -- at least one cleaning element , and -- at least one multi-axis robot for positioning the at least one cleaning element relative to the rail vehicle, -- at least one cleaning element , and -- at least one multi-axis robot for positioning the at least one cleaning element relative to the rail vehicle, - a control device for controlling the at least one cleaning device in dependence on the detected soiling (G),
A polymer composition comprising a random copolymer, wherein the random copolymer is produced with a metallocene catalyst, and a radiation additive, wherein the random copolymer comprises propylene and less than 2 wt.% ethylene and exhibits a melt flow rate of from 30 to 100 dg/min., the polymer composition exhibits a flexural modulus of from 1100 MPa to 1380 MPa (160 kpsi to 200 kpsi) and the polymer composition contains 0.10 wt% to 0.25 wt% of clarifier which is a sorbitol derivative, wherein a polymer article produced from the polymer composition exhibits low plate out, a haze at 0.508 mm (20 mils) of no greater than 15%, radiation stability and autoclavability.
Oxygen reduced stored blood for use in a method of treating hemorrhagic trauma in a patient in need thereof, wherein the oxygen reduced stored blood comprises an initial oxygen saturation of 20% or less and is maintained at an oxygen saturation of 20% or less for a storage period, wherein the hemorrhagic trauma patient in need thereof is in hemorrhagic shock prior to administration of the oxygen reduced stored blood, and wherein the hemorrhagic shock is reversed after administration of the oxygen reduced stored blood, wherein the method comprises transfusion therapy.
A method of communicating data and control information on an uplink channel in a wireless communication system, comprising: configuring at least two zones in an uplink subframe included in a frame using a signaling message, wherein the frame is for communicating symbols between a base station (BS-1) and a user equipment, UE, a first zone is configured as a physical uplink control channel, PUCCH, for transmission of control information and a second zone is configured as a physical uplink shared channel, PUSCH, for transmission of data information; transmitting the first zone configuration to the UE ; receiving the control information as uplink control information, UCI, on the PUCCH resource in the first zone using a single carrier modulation and receiving the data on the PUSCH resource in the second zone using a multicarrier modulation; and decoding the UCI on the PUCCH resource in the first zone using the single carrier modulation and decoding the data on the PUSCH resource in the second zone using multi-carrier modulation, characterized in that the subframe is divided in eight microframes of a duration of 125 μs each, where each microframe includes one or more of the symbols, and the microframes are formatted such that the at least two zones are multiplexed in the frequency domain in the microframes such that zones corresponding to PUCCH resources and zones corresponding to PUSCH resources alternate. configuring at least two zones in an uplink subframe included in a frame using a signaling message, wherein the frame is for communicating symbols between a base station (BS-1) and a user equipment, UE, a first zone is configured as a physical uplink control channel, PUCCH, for transmission of control information and a second zone is configured as a physical uplink shared channel, PUSCH, for transmission of data information; transmitting the first zone configuration to the UE ; receiving the control information as uplink control information, UCI, on the PUCCH resource in the first zone using a single carrier modulation and receiving the data on the PUSCH resource in the second zone using a multicarrier modulation; and decoding the UCI on the PUCCH resource in the first zone using the single carrier modulation and decoding the data on the PUSCH resource in the second zone using multi-carrier modulation,
A liquid pharmaceutical formulation for injection comprising: (i) an antibody; (ii) thiamine pyrophosphate 1-(3-aminopropyl)-2-methyl-1H-imidazole (TPP-APMI); and (iii) a pharmaceutically acceptable solvent; wherein the liquid pharmaceutical formulation, when in a volume suitable for injection: (a) has an absolute viscosity from about 1 mPa*s (cP) to about 100 mPa*s (cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a corresponding composition comprising the antibody and the pharmaceutically acceptable solvent but without the TPP-APMI; wherein the absolute viscosity is an extrapolated zero-shear viscosity. (i) an antibody; (ii) thiamine pyrophosphate 1-(3-aminopropyl)-2-methyl-1H-imidazole (TPP-APMI); and (iii) a pharmaceutically acceptable solvent; wherein the liquid pharmaceutical formulation, when in a volume suitable for injection: (a) has an absolute viscosity from about 1 mPa*s (cP) to about 100 mPa*s (cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a corresponding composition comprising the antibody and the pharmaceutically acceptable solvent but without the TPP-APMI; (a) has an absolute viscosity from about 1 mPa*s (cP) to about 100 mPa*s (cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a corresponding composition comprising the antibody and the pharmaceutically acceptable solvent but without the TPP-APMI; wherein the absolute viscosity is an extrapolated zero-shear viscosity.
A method for generating a multi-level classifier for image processing, the method comprising: analysing, by an image processing system , an input image to extract one or more unique key feature descriptors associated with the input image, wherein the input image is of a predetermined image type; resizing, by the image processing system , the one or more unique key feature descriptors into a predefined standard template format, wherein the predefined standard template format is utilized to develop, at a first level, an image type classifier ; resizing, by the image processing system , the one or more unique key feature descriptors based on each of one or more template classifiers of the predetermined image type, where the template classifiers are either generated dynamically by the processor, or are taken from a classifier template database; determining, by the image processing system , a signal quality value for each of the one or more template classifiers based upon the signal to noise ratio within the input image, wherein the signal quality value is determined by validating each of the one or more unique key feature descriptors resized against each of the one or more template classifiers; and identifying, by the image processing system , one of the one or more template classifiers corresponding to a highest signal quality value, wherein the identified one of the one or more template classifiers is utilized to develop, at a second level, an image prediction classifier . analysing, by an image processing system , an input image to extract one or more unique key feature descriptors associated with the input image, wherein the input image is of a predetermined image type; resizing, by the image processing system , the one or more unique key feature descriptors into a predefined standard template format, wherein the predefined standard template format is utilized to develop, at a first level, an image type classifier ; resizing, by the image processing system , the one or more unique key feature descriptors based on each of one or more template classifiers of the predetermined image type, where the template classifiers are either generated dynamically by the processor, or are taken from a classifier template database; determining, by the image processing system , a signal quality value for each of the one or more template classifiers based upon the signal to noise ratio within the input image, wherein the signal quality value is determined by validating each of the one or more unique key feature descriptors resized against each of the one or more template classifiers; and identifying, by the image processing system , one of the one or more template classifiers corresponding to a highest signal quality value, wherein the identified one of the one or more template classifiers is utilized to develop, at a second level, an image prediction classifier .
A weighing system, comprising a weighing plate , a weighing unit , a separation mechanism , and a weight loading mechanism ; wherein the separation mechanism is configured to control a separation and combination of the weighing plate and the weighing unit , so that the weighing plate or the weighing plate including an object to be weighed carried by the weighing plate apply no force to the weighing unit ; and wherein the weight loading mechanism is configured to load a weight onto the weighing unit or removes a weight from the weighing unit ; characterized in that the weighing system is configured to record a weighing value of the weighing unit during the action of separation and a sensitivity of the weighing unit during the action of weight loading; and in that the weighing system is configured to modify the weighing value at the time of the most recent combination of the weighing plate and the weighing unit based on the recorded weighing value and sensitivity by means of the following formula, Wtrue = Wi × Si S 0 where Wtrue is a modified weighing value, Wi is a latest weighing value, Si is the latest recorded sensitivity, and S 0 is a firstly recorded sensitivity. a weighing plate , a weighing unit , a separation mechanism , and a weight loading mechanism ; wherein the separation mechanism is configured to control a separation and combination of the weighing plate and the weighing unit , so that the weighing plate or the weighing plate including an object to be weighed carried by the weighing plate apply no force to the weighing unit ; and wherein the weight loading mechanism is configured to load a weight onto the weighing unit or removes a weight from the weighing unit ; the weighing system is configured to record a weighing value of the weighing unit during the action of separation and a sensitivity of the weighing unit during the action of weight loading; and a weighing value of the weighing unit during the action of separation and a sensitivity of the weighing unit during the action of weight loading; and in that the weighing system is configured to modify the weighing value at the time of the most recent combination of the weighing plate and the weighing unit based on the recorded weighing value and sensitivity by means of the following formula, Wtrue = Wi × Si S 0 where Wtrue is a modified weighing value, Wi is a latest weighing value, Si is the latest recorded sensitivity, and S 0 is a firstly recorded sensitivity.
A coated cell comprising: a cylindrical cell of a sodium sulfur battery having an outer peripheral surface ; a first coating material coating said outer peripheral surface ; a second coating material stacked radially outside said first coating material ; and a third coating material stacked radially outside said second coating material , each of said first coating material , said second coating material and said third coating material being a heat insulation material , a heat-resistant material or an electrical insulation material , said first coating material , said second coating material and said third coating material including all of said heat insulation material , said heat-resistant material and said electrical insulation material , wherein said heat insulation material is a mica sheet, said heat-resistant material is a carbon sheet, and said electrical insulation material is made of mica which is in plate-like form. a cylindrical cell of a sodium sulfur battery having an outer peripheral surface ; a first coating material coating said outer peripheral surface ; a second coating material stacked radially outside said first coating material ; and a third coating material stacked radially outside said second coating material , each of said first coating material , said second coating material and said third coating material being a heat insulation material , a heat-resistant material or an electrical insulation material , said first coating material , said second coating material and said third coating material including all of said heat insulation material , said heat-resistant material and said electrical insulation material , wherein said heat insulation material is a mica sheet, said heat-resistant material is a carbon sheet, and said electrical insulation material is made of mica which is in plate-like form.
A method for constructing a polar coding sequence, wherein the method is performed by a terminal or a network device, and the method comprises: storing a reliability sequence corresponding to a basic sequence, wherein a length of the reliability sequence corresponding to the basic sequence is less than a length of a reliability sequence corresponding to a mother code sequence; storing a reliability reference sequence, wherein the reliability reference sequence comprises at least one element remaining after the reliability sequence corresponding to the basic sequence is excluded from the reliability sequence corresponding to the mother code sequence; and constructing a polar coding sequence by using the reliability sequence corresponding to the basic sequence and an element in the reliability reference sequence, wherein the length of the reliability sequence corresponding to the mother code sequence is N max = 2 l max , and the length of the reliability sequence corresponding to the basic sequence is N s = 2 ls , wherein 1≤l s <lmax; and wherein an i th element in the reliability sequence corresponding to the basic sequence is PW i = ∑ j = 0 n − 1 B j β j , and ( i ) dec @( B n -1 B n -2 ... B 0 ) bin , wherein ( i ) dec indicates that i is a decimal number, ( B n -1 B n -2 ... B 0 ) bin indicates a binary number; and β is an exponent base; and wherein a length of the reliability reference sequence is l max - l s , and the reliability reference sequence is a quantized representation of PW 2 l s = β l s , PW 2 l s + 1 = β l s + 1 , ... , PW 2 l max − 1 = β l max − 1 . storing a reliability sequence corresponding to a basic sequence, wherein a length of the reliability sequence corresponding to the basic sequence is less than a length of a reliability sequence corresponding to a mother code sequence; storing a reliability reference sequence, wherein the reliability reference sequence comprises at least one element remaining after the reliability sequence corresponding to the basic sequence is excluded from the reliability sequence corresponding to the mother code sequence; and constructing a polar coding sequence by using the reliability sequence corresponding to the basic sequence and an element in the reliability reference sequence, wherein the length of the reliability sequence corresponding to the mother code sequence is N max = 2 l max , and the length of the reliability sequence corresponding to the basic sequence is N s = 2 ls , wherein 1≤l s <lmax; and wherein an i th element in the reliability sequence corresponding to the basic sequence is PW i = ∑ j = 0 n − 1 B j β j , and ( i ) dec @( B n -1 B n -2 ... B 0 ) bin , wherein ( i ) dec indicates that i is a decimal number, ( B n -1 B n -2 ... B 0 ) bin indicates a binary number; and β is an exponent base; and wherein a length of the reliability reference sequence is l max - l s , and the reliability reference sequence is a quantized representation of PW 2 l s = β l s , PW 2 l s + 1 = β l s + 1 , ... , PW 2 l max − 1 = β l max − 1 .