mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a waterproof boot, which comprises: - a step of arranging a waterproof sock made of synthetic rubber; - a step of arranging a bottom provided with a sole and with a raised edge fixed perimetrically in a single body to the sole ; - a step of inserting a rigid form within said waterproof sock ; - a step of associating said waterproof sock with said bottom with the interposition of a glue layer ; - a step of extracting said rigid form from said waterproof sock ; said method being characterized in that it further comprises: - a step of stitching the raised edge of said bottom to said waterproof sock along an annular line of sewing stitches ; - a step of sealing the sewing stitches with a sealant layer placed astride said annular line of sewing stitches . - a step of arranging a waterproof sock made of synthetic rubber; - a step of arranging a bottom provided with a sole and with a raised edge fixed perimetrically in a single body to the sole ; - a step of inserting a rigid form within said waterproof sock ; - a step of associating said waterproof sock with said bottom with the interposition of a glue layer ; - a step of extracting said rigid form from said waterproof sock ; - a step of stitching the raised edge of said bottom to said waterproof sock along an annular line of sewing stitches ; - a step of sealing the sewing stitches with a sealant layer placed astride said annular line of sewing stitches .
A measuring and analysis device for measuring and analyzing breathing of the patient, the measuring and analysis device comprising: a connector housing defining a passage, a first portion of the connector housing connected to a patient interface device; an air flow sensor disposed in the connector housing for measuring an air flow rate through the connector housing; a pressure sensor disposed in the connector housing for measuring a pressure in the connector housing; and a processor configured for data acquisition, data storage, data processing, and data output based on the air flow rate and the pressure, characterized in that the processor is further configured to differentiate between rescue breaths and chest compressions by: (i) performing Fast Fourier Transform (FFT) on raw signals from the air flow sensor and/or the pressure sensor to obtain amplitudes of fluctuations at different frequencies corresponding to each of the rescue breaths and the chest compressions, wherein the rescue breaths occur at a frequency less than 1 Hertz and the chest compressions occur at a frequency of 1-2 Hertz; and (ii) band-pass filtering the raw signals from the air flow sensor and/or the pressure sensor at each frequency to obtain a separate time trace for each of the rescue breaths and the chest compressions. a connector housing defining a passage, a first portion of the connector housing connected to a patient interface device; an air flow sensor disposed in the connector housing for measuring an air flow rate through the connector housing; a pressure sensor disposed in the connector housing for measuring a pressure in the connector housing; and a processor configured for data acquisition, data storage, data processing, and data output based on the air flow rate and the pressure, characterized in that the processor is further configured to differentiate between rescue breaths and chest compressions by: (i) performing Fast Fourier Transform (FFT) on raw signals from the air flow sensor and/or the pressure sensor to obtain amplitudes of fluctuations at different frequencies corresponding to each of the rescue breaths and the chest compressions, wherein the rescue breaths occur at a frequency less than 1 Hertz and the chest compressions occur at a frequency of 1-2 Hertz; and (ii) band-pass filtering the raw signals from the air flow sensor and/or the pressure sensor at each frequency to obtain a separate time trace for each of the rescue breaths and the chest compressions. (i) performing Fast Fourier Transform (FFT) on raw signals from the air flow sensor and/or the pressure sensor to obtain amplitudes of fluctuations at different frequencies corresponding to each of the rescue breaths and the chest compressions, wherein the rescue breaths occur at a frequency less than 1 Hertz and the chest compressions occur at a frequency of 1-2 Hertz; and (ii) band-pass filtering the raw signals from the air flow sensor and/or the pressure sensor at each frequency to obtain a separate time trace for each of the rescue breaths and the chest compressions.
A non-aqueous, non-oil liquid composition comprising: i) live Bacillus amyloliquefaciens strain BA-1; and ii) a liquid carrier comprising a mixture of a polyethylene glycol and glycerol. i) live Bacillus amyloliquefaciens strain BA-1; and ii) a liquid carrier comprising a mixture of a polyethylene glycol and glycerol.
A method for analysing urinary cells, the method comprising the steps of: - contacting a urine sample obtained from a patient with a. a buffer substance suitable to create and/or maintain a pH value in the range of 6 to 8, within said urine sample, and b. a formaldehyde releasing compound yielding a preserved urine sample, - analysing urinary cells within said preserved urine sample wherein the final concentration of the formaldehyde releasing compound is between 1 % (w/v) and 3 % (w/v), and wherein said analysing comprises a flowcytometric analysis. - contacting a urine sample obtained from a patient with a. a buffer substance suitable to create and/or maintain a pH value in the range of 6 to 8, within said urine sample, and b. a formaldehyde releasing compound yielding a preserved urine sample, a. a buffer substance suitable to create and/or maintain a pH value in the range of 6 to 8, within said urine sample, and b. a formaldehyde releasing compound yielding a preserved urine sample, - analysing urinary cells within said preserved urine sample wherein the final concentration of the formaldehyde releasing compound is between 1 % (w/v) and 3 % (w/v), and wherein said analysing comprises a flowcytometric analysis.
A power supply apparatus for a home appliance, comprising: a power line to supply alternating current (AC) power from an AC power source ; first and second rectifiers , each of the first and second rectifiers configured to rectify the AC power supplied through the power line whereby the first rectifier is configured to be connected to a motor ; a main relay connected to an input of the first rectifier to switch the AC power to the first rectifier ; a switching mode power supply (SMPS) connected to an output of the second rectifier to generate a direct current (DC) voltage for driving the home appliance based on a rectified voltage from the second rectifier; a load switch connected to an output of the SMPS to switch the DC voltage from the SMPS ; and a back electromotive force protection diode connected between a smoothing capacitor of the first rectifier and a smoothing capacitor of the second rectifier to bypass a back electromotive force generated in the motor connected to the first rectifier , wherein the main relay is connected between the AC power source and the first rectifier and is operated by the DC voltage generated by the SMPS , and the main relay and the load switch are configured to be turned on/off in response to a home appliance operation signal or a home appliance operation stop signal, and the SMPS is configured to supply main power for an operation of the home appliance or standby power for a standby mode of the home appliance in response to the home appliance operation signal or home appliance operation stop signal. a power line to supply alternating current (AC) power from an AC power source ; first and second rectifiers , each of the first and second rectifiers configured to rectify the AC power supplied through the power line whereby the first rectifier is configured to be connected to a motor ; a main relay connected to an input of the first rectifier to switch the AC power to the first rectifier ; a switching mode power supply (SMPS) connected to an output of the second rectifier to generate a direct current (DC) voltage for driving the home appliance based on a rectified voltage from the second rectifier; a load switch connected to an output of the SMPS to switch the DC voltage from the SMPS ; and a back electromotive force protection diode connected between a smoothing capacitor of the first rectifier and a smoothing capacitor of the second rectifier to bypass a back electromotive force generated in the motor connected to the first rectifier , wherein the main relay is connected between the AC power source and the first rectifier and is operated by the DC voltage generated by the SMPS , and the main relay and the load switch are configured to be turned on/off in response to a home appliance operation signal or a home appliance operation stop signal, and the SMPS is configured to supply main power for an operation of the home appliance or standby power for a standby mode of the home appliance in response to the home appliance operation signal or home appliance operation stop signal.
Device for forming a hole in a workpiece , comprising a drilling tool , the device comprising: a support means that is or can be assigned to the drilling tool and is configured for supporting the drilling tool on at least one supporting region , wherein the support means comprises an elongate base body that comprises at least two base body elements , wherein at least one base body element is mounted so as to be movable relative to at least one further base body element in order to change the length dimension of the base body , wherein the support means is detachably fastened to a machining head that is or can be assigned to the drilling tool , wherein the support means comprises a fastening body that is arranged or formed on the base body , which can be fastened to a fastening element of the machining head by means of a fastening element , wherein the fastening of the fastening body to the machining head is realised by the form-fitting cooperation of at least one fastening body-side fastening element and at least one corresponding machining head-side fastening element, characterised in that the form-fittingly cooperating fastening elements are formed by or comprise a dovetail-like or dovetail-shaped fastening section on the fastening body side, and a corresponding receptacle for the dovetail-shaped or dovetail-like fastening section. a support means that is or can be assigned to the drilling tool and is configured for supporting the drilling tool on at least one supporting region , wherein the support means comprises an elongate base body that comprises at least two base body elements , wherein at least one base body element is mounted so as to be movable relative to at least one further base body element in order to change the length dimension of the base body , wherein the support means is detachably fastened to a machining head that is or can be assigned to the drilling tool , wherein the support means comprises a fastening body that is arranged or formed on the base body , which can be fastened to a fastening element of the machining head by means of a fastening element , wherein the fastening of the fastening body to the machining head is realised by the form-fitting cooperation of at least one fastening body-side fastening element and at least one corresponding machining head-side fastening element, characterised in that the form-fittingly cooperating fastening elements are formed by or comprise a dovetail-like or dovetail-shaped fastening section on the fastening body side, and a corresponding receptacle for the dovetail-shaped or dovetail-like fastening section.
Interface device responsive to a movement of a body or an object, comprising: a detection surface , at least one capacitive sensor, wherein the sensor or the sensors each comprise a measurement electrode comprising an active surface oriented toward the detection surface or substantially coinciding with the detection surface, electronic stimulation and treatment means to stimulate the measurement electrodes and to treat the signals sent by the capacitive sensors configured to provide an information regarding a distance between the active surface of the electrodes and the object , wherein the active surfaces of the measurement electrodes are independent of one another, and wherein the electronic stimulation and treatment means are further configured to sample the measurement electrodes independently of one another, characterized in that the electronic stimulation and treatment means are further configured to: detect and identify a relative movement of the body or of the object with regard to the active surface of the measurement electrodes and detect a contact of the body or of the object with the detection surface characterized in that interface device comprises a guard made of electrically conductive material arranged in proximity to the measurement electrodes at least along their surface, which is substantially opposite to the active surface, wherein the guard is stimulated to an alternating electric potential substantially identical to that of the measurement electrodes . a detection surface , at least one capacitive sensor, wherein the sensor or the sensors each comprise a measurement electrode comprising an active surface oriented toward the detection surface or substantially coinciding with the detection surface, electronic stimulation and treatment means to stimulate the measurement electrodes and to treat the signals sent by the capacitive sensors configured to provide an information regarding a distance between the active surface of the electrodes and the object , wherein the active surfaces of the measurement electrodes are independent of one another, and wherein the electronic stimulation and treatment means are further configured to sample the measurement electrodes independently of one another, characterized in that the electronic stimulation and treatment means are further configured to: detect and identify a relative movement of the body or of the object with regard to the active surface of the measurement electrodes and detect a contact of the body or of the object with the detection surface detect and identify a relative movement of the body or of the object with regard to the active surface of the measurement electrodes and detect a contact of the body or of the object with the detection surface characterized in that interface device comprises a guard made of electrically conductive material arranged in proximity to the measurement electrodes at least along their surface, which is substantially opposite to the active surface, wherein the guard is stimulated to an alternating electric potential substantially identical to that of the measurement electrodes .
A nonaqueous electrolyte battery comprising: a negative electrode comprising a negative electrode current collector and a negative electrode active material-containing layer provided on the negative electrode current collector, the negative electrode active material-containing layer comprising a negative electrode active material comprising an orthorhombic Na-containing niobium titanium composite oxide, the orthorhombic Na-containing niobium titanium composite oxide being represented by a general formula of Li 2+v Na 2-y M1 x Ti 6-y-z Nb y M2 z O 14+δ , wherein M1 is at least one selected from the group consisting of Cs, K, Sr, Ba and Ca, M2 is at least one selected from the group consisting of Zr, Sn, V, Ta, Mo, W, Fe, Co, Mn and Al, and 0 ≤ v < 2, 0 ≤ x < 2, 0.1 ≤ y ≤ 0.8, 0 ≤ z < 3, and -0.5 ≤ δ ≤ 0.5; a positive electrode comprising a positive electrode current collector and a positive electrode active material-containing layer provided on the positive electrode current collector, the positive electrode active material-containing layer comprising a positive electrode active material; and a nonaqueous electrolyte, wherein a mass C [g/m 2 ] of the positive electrode active material per unit area of the positive electrode and a mass A [g/m 2 ] of the negative electrode active material per unit area of the negative electrode satisfy the following formula : 0.95 ≤ A / C ≤ 1.5 a negative electrode comprising a negative electrode current collector and a negative electrode active material-containing layer provided on the negative electrode current collector, the negative electrode active material-containing layer comprising a negative electrode active material comprising an orthorhombic Na-containing niobium titanium composite oxide, the orthorhombic Na-containing niobium titanium composite oxide being represented by a general formula of Li 2+v Na 2-y M1 x Ti 6-y-z Nb y M2 z O 14+δ , wherein M1 is at least one selected from the group consisting of Cs, K, Sr, Ba and Ca, M2 is at least one selected from the group consisting of Zr, Sn, V, Ta, Mo, W, Fe, Co, Mn and Al, and 0 ≤ v < 2, 0 ≤ x < 2, 0.1 ≤ y ≤ 0.8, 0 ≤ z < 3, and -0.5 ≤ δ ≤ 0.5; a positive electrode comprising a positive electrode current collector and a positive electrode active material-containing layer provided on the positive electrode current collector, the positive electrode active material-containing layer comprising a positive electrode active material; and a nonaqueous electrolyte, wherein a mass C [g/m 2 ] of the positive electrode active material per unit area of the positive electrode and a mass A [g/m 2 ] of the negative electrode active material per unit area of the negative electrode satisfy the following formula : 0.95 ≤ A / C ≤ 1.5
A method for wireless communication at a user equipment, UE , comprising: transmitting an indication of a capability to support concurrent or time division multiplexed uplink, UL, transmission of at least one of multiple uplink, UL, channels across multiple component carriers, the indication being transmitted in a band combination index field; transmitting a second indication of at least one of a number of physical antennas or a number of transmission layers of the at least one of the multiple uplink, UL, channels supported for each of the multiple component carriers or each of multiple combinations of the multiple component carriers; and receiving , based on the indication and the second indication, a configuration to transmit over the at least one of the multiple uplink, UL, channels over the multiple component carriers using concurrent transmission or time division multiplexed transmission. transmitting an indication of a capability to support concurrent or time division multiplexed uplink, UL, transmission of at least one of multiple uplink, UL, channels across multiple component carriers, the indication being transmitted in a band combination index field; transmitting a second indication of at least one of a number of physical antennas or a number of transmission layers of the at least one of the multiple uplink, UL, channels supported for each of the multiple component carriers or each of multiple combinations of the multiple component carriers; and receiving , based on the indication and the second indication, a configuration to transmit over the at least one of the multiple uplink, UL, channels over the multiple component carriers using concurrent transmission or time division multiplexed transmission.
A kit for the detection of the presence of at least two domains of interest on a nucleic acid, said kit comprising at least two sets of at least three probes, each set of probes being capable of binding specifically on one of said at least two domains, wherein the binding of each set of at least three probes on the nucleic acid forms a sequence of codes formed by "dots" consisting of probes separated by small distances of approximatively 25-30kb, and "dashes" consisting of probes separated by long distances of approximatively 55-70kb, said sequence of codes being specific of one of said at least two domains and being the signature of said domain, wherein all the probes are labelled with the same label.
A method of forming a polymeric bicyclic diamine or quaternary ammonium cationic derivative thereof, the method comprising: providing a first monomer comprising one or more aromatic moieties, the first monomer comprising at least two amino groups, each of the amino groups being attached to an aromatic moiety; and contacting said first monomer with formaldehyde or a source of methylene. providing a first monomer comprising one or more aromatic moieties, the first monomer comprising at least two amino groups, each of the amino groups being attached to an aromatic moiety; and contacting said first monomer with formaldehyde or a source of methylene.
A crystal form A of stevioside M, wherein the structure is as shown in Formula I, and, in an X-ray powder diffraction method using Cu-Kα, the crystal form A has 3, 4, 5 or 6 characteristic diffraction peaks at 4.30, 6.57, 8.04, 16.31, 17.57 and 20.91, with the 2θ angles expressed in degrees.
A method for treating a biological sample for nucleic acid extraction, the method comprising: diluting a biological sample in an extraction buffer to form a mixture, wherein the extraction buffer comprises 3 wt. % to 10 wt. % organic solvent, wherein said organic solvent is one or more of acetone or ethanol; incubating the mixture at a temperature from 15°C to 35°C for five seconds to thirty minutes, to cause nucleic acid present in the biological sample to be extracted from at least a portion of the biological sample for further processing; separating at least a portion of the extraction buffer comprising at least a portion of the nucleic acid from the biological sample by heating for 3-5 minutes at 65°C; forming an amplification mixture comprising: the at least a portion of the extraction buffer comprising the at least a portion of the nucleic acid; and one or more amplification reaction buffers; and incubating the amplification mixture for 1 to 10 minutes at 25°C to 70°C.
A multi-fibre optical probe for in-line spectroscopic monitoring of high concentration mediums comprising; at least one light detection fibre (B) wherein each light detection fibre is for receiving light at a light receiving end, and at least two illumination fibres (A) for emitting light from a light emitting end; wherein the number of illumination fibres is equal to or greater than the number of light detection fibres, and the light emitting ends of each of the illumination fibres are each independently positioned 50 microns or less from the light receiving end of at least one light detection fibre; characterised in that the multi-fibre optical probe does not comprise a window between and/or in front of any of the light emitting ends of the illumination fibres and any of the light receiving ends of the light detection fibres. at least one light detection fibre (B) wherein each light detection fibre is for receiving light at a light receiving end, and at least two illumination fibres (A) for emitting light from a light emitting end; wherein the number of illumination fibres is equal to or greater than the number of light detection fibres, and the light emitting ends of each of the illumination fibres are each independently positioned 50 microns or less from the light receiving end of at least one light detection fibre; characterised in that the multi-fibre optical probe does not comprise a window between and/or in front of any of the light emitting ends of the illumination fibres and any of the light receiving ends of the light detection fibres.