mhurhangee/patent-ind-claim-en huggingface dataset:
A method for non-therapeutic cognitive enhancement, comprising: determining , by a processor , a target frequency corresponding to a target brain state; and stimulating , by the processor , a brain of a user using feedback to attempt to achieve the target brain state in the user by repeating the following one or more times: measuring an electrical output of the brain of the user received from one or more sensors coupled to the user; determining a current frequency associated with the brain of the user based on the measured electrical output; determining a difference between the current frequency associated with the brain of the user and the target frequency; and when the difference between the current frequency and the target frequency is greater than a predetermined amount, sending a signal to the brain of the user through one or more pathways, the signal having a frequency operable to modify the current frequency associated with the brain of the user towards the target frequency, characterized by modulating, using the processor , the signal with a code identifying the signal; and filtering, using the processor , the signal from the electrical output of the brain of the user based on the code. determining , by a processor , a target frequency corresponding to a target brain state; and stimulating , by the processor , a brain of a user using feedback to attempt to achieve the target brain state in the user by repeating the following one or more times: measuring an electrical output of the brain of the user received from one or more sensors coupled to the user; determining a current frequency associated with the brain of the user based on the measured electrical output; determining a difference between the current frequency associated with the brain of the user and the target frequency; and when the difference between the current frequency and the target frequency is greater than a predetermined amount, sending a signal to the brain of the user through one or more pathways, the signal having a frequency operable to modify the current frequency associated with the brain of the user towards the target frequency, measuring an electrical output of the brain of the user received from one or more sensors coupled to the user; determining a current frequency associated with the brain of the user based on the measured electrical output; determining a difference between the current frequency associated with the brain of the user and the target frequency; and when the difference between the current frequency and the target frequency is greater than a predetermined amount, sending a signal to the brain of the user through one or more pathways, the signal having a frequency operable to modify the current frequency associated with the brain of the user towards the target frequency, characterized by modulating, using the processor , the signal with a code identifying the signal; and filtering, using the processor , the signal from the electrical output of the brain of the user based on the code.
A recording medium case configured to accommodate a recording medium device having a recording disk and configured to be removably disposed in an accommodating section of an electronic device , wherein the recording medium device has a substantially rectangular shape, the recording medium case comprising: a pair of side sections located parallel to slot-in/pull-out directions in which the recording medium case is slotted into the accommodating section and is pulled out from the accommodating section; and at least one protruding section formed on each side section such that at least one part of each side section is protruded to an outside of the recording medium case so as to make contact with one of side surfaces of the accommodating section to enhance the vibration resistance when the recording medium case is accommodated in the accommodating section; characterized in that the at least one protruding section is divided into a plurality of small flexible protrusions in a direction perpendicular to the longitudinal direction of the side sections . a pair of side sections located parallel to slot-in/pull-out directions in which the recording medium case is slotted into the accommodating section and is pulled out from the accommodating section; and at least one protruding section formed on each side section such that at least one part of each side section is protruded to an outside of the recording medium case so as to make contact with one of side surfaces of the accommodating section to enhance the vibration resistance when the recording medium case is accommodated in the accommodating section; characterized in that the at least one protruding section is divided into a plurality of small flexible protrusions in a direction perpendicular to the longitudinal direction of the side sections .
Method for manufacturing a biodegradable and home compostable cup intended for containing hot and cold food beverages from at least one sheet of virgin paperboard, comprising a step (3.2) for cutting out at least one sheet of coated paperboard to form a side wall and a bottom, and a step for joining (3.3, 3.4, 3.5, 3.6, 3.7) the sheets thus cut out by heat-sealing to form the cup, characterized in that said at least one virgin paperboard sheet is coated on at least the interior side of the cup with a biodegradable and compostable aqueous phase varnish according to a coating/spreading technique, comprising a step of application of the virgin paperboard sheet against at least one bubbling cylinder each plunging into a tub containing said varnish, said biodegradable and compostable varnish having heat-sealing capacities to weld together the sheets thus cut, a step for the passage of the thus coated paperboard sheet before an air knife generator to ensure a uniform thickness of the varnish layer throughout the surface of the paperboard and a subsequent step for drying the thus impregnated sheet before a drying station . the deposit of dry extract of biodegradable and compostable varnish being 8 to 16 grams per m 2 on the paperboard face intended to be on the interior of the cups
A polypeptide having beta-glucanase activity, selected from the group consisting of: (a) a polypeptide having at least 89%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99% or 100% sequence identity to the mature polypeptide of the sequence of: SEQ ID NO: 7; (b) a polypeptide encoded by a polynucleotide having at least 89% sequence identity to the mature polypeptide coding sequence of the sequence of: SEQ ID NO: 6; and (c) a fragment of the polypeptide of (a), or (b) that has beta-glucanase activity. (a) a polypeptide having at least 89%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99% or 100% sequence identity to the mature polypeptide of the sequence of: SEQ ID NO: 7; (b) a polypeptide encoded by a polynucleotide having at least 89% sequence identity to the mature polypeptide coding sequence of the sequence of: SEQ ID NO: 6; and (c) a fragment of the polypeptide of (a), or (b) that has beta-glucanase activity.
A method of producing a multilayer polyethylene sealant film comprising coextruding and stretching a sealant layer comprising a low density polyethylene resin or linear low density polyethylene resin having a melting point of 90-110°C and a Vicat softening temperature of 70-105 °C and an orientation layer comprising a polyethylene resin having a melting point of 120-130°C and a Vicat softening temperature of 80-120°C, wherein the melting point and Vicat softening temperature of the sealant layer is lower than those of the orientation layer, by an inflation method at a surface temperature at the maximum diameter portion of the bubble higher than the melting point of the sealant layer and higher than the Vicat softening temperature of the orientation layer but lower than the melting point of the orientation layer, wherein the blow ratio is 2 - 3.5, characterized in that the low density polyethylene resin or linear low density polyethylene resin of the sealant layer has a melt flow rate (MFR) of 0.1-5 g/10 minutes and the polyethylene resin of the orientation layer has a melt flow rate of 0.1-5 g/10 minutes, a molecular weight distribution (Mw/Mn) of 6 or more and a melt tension of 5-15 g, wherein the melt flow rate is measured under the conditions at 190°C and a load of 21.18 N, according to JIS K 7210 and the melt tension is measured by using a capillary rheometer provided with an orifice having a length of 8 mm, a diameter of 2 mm and an entrance angle of 90 degrees, at 190°C at a piston descending speed of 10 mm/min at a winding speed of 10 m/min, and indicated by the necessary load (g) for taking up, according to JIS K 7119.
A sound signal receiving and decoding method to be performed by a terminal apparatus connected to a first communication line and a second communication line with a lower priority level than the first communication line, the method comprising: a reception step (S221) of, for a predetermined frame among a plurality of frames, outputting a monaural code included in a first code string input from the first communication line and an extended code with the closest frame number to that of the monaural code among extended codes included in a second code string input from the second communication line, and for a frame other than the predetermined frame, outputting the monaural code included in the first code string input from the first communication line and the most recent extended code among extended codes that have already been output; and a decoding step of (S222), for each frame, obtaining and outputting decoded digital sound signals of C (C being an integer that is at least 2) channels based on the monaural code output in the reception step and the extended code output in the reception step. a reception step (S221) of, for a predetermined frame among a plurality of frames, outputting a monaural code included in a first code string input from the first communication line and an extended code with the closest frame number to that of the monaural code among extended codes included in a second code string input from the second communication line, and for a frame other than the predetermined frame, outputting the monaural code included in the first code string input from the first communication line and the most recent extended code among extended codes that have already been output; and a decoding step of (S222), for each frame, obtaining and outputting decoded digital sound signals of C (C being an integer that is at least 2) channels based on the monaural code output in the reception step and the extended code output in the reception step.
A photographing device comprising: a photographing unit for photographing an object ; an image processor arranged to extract a first partial representation of the object from a first image obtained by the photographing unit, the first partial representation comprising all of the object that is in the first image; a controller arranged to control the image processor to obtain a second partial representation of the object that is not in the first image based on a predetermined function that describes the shape of the second partial representation of the object based on the first partial representation and to combine the first and second partial representations as a restored extracted object; and a display arranged to display a background live view obtained by superimposing the restored extracted object on a live view of a background; and the controller being further arranged to obtain a second image corresponding to the live view of the background when a command to shoot the background is input, and to obtain a composite image based on the restored extracted object and the second image, wherein the first partial representation comprises a face area and a body area and the second partial representation comprises a shoulder area, and wherein the second partial representation is determined by the predetermined function using a width of the face area and a width of the body area. a photographing unit for photographing an object ; an image processor arranged to extract a first partial representation of the object from a first image obtained by the photographing unit, the first partial representation comprising all of the object that is in the first image; a controller arranged to control the image processor to obtain a second partial representation of the object that is not in the first image based on a predetermined function that describes the shape of the second partial representation of the object based on the first partial representation and to combine the first and second partial representations as a restored extracted object; and a display arranged to display a background live view obtained by superimposing the restored extracted object on a live view of a background; and the controller being further arranged to obtain a second image corresponding to the live view of the background when a command to shoot the background is input, and to obtain a composite image based on the restored extracted object and the second image, wherein the first partial representation comprises a face area and a body area and the second partial representation comprises a shoulder area, and wherein the second partial representation is determined by the predetermined function using a width of the face area and a width of the body area.
A screw compressor system, which has the following: a screw compressor block, a suction control valve, optionally with an air filter apparatus, an oil separation tank, an oil circulation system with an oil temperature controller, an oil filter and connections for a cooler, a fine separator with an oil return apparatus, and a minimum pressure-maintaining valve with a clean air outlet, wherein, in the screw compressor system , the screw compressor block, the oil separation tank, the oil supply duct for the oil temperature controller and the air intake duct are combined in a base housing as base module with lid ; the fine separator, the oil return, the minimum pressure-maintaining valve with the clean air outlet, the oil temperature controller, the oil filter and the connections for the cooler are combined in a further module component in the form of a multifunction block , wherein different multifunction blocks which comprise different components according to size and number can be connected to the base housing , and the screw compressor block is arranged above an oil level in the base housing , characterised in that the multifunction block is arranged on an operator side of the base housing of the screw compressor system , the base housing has a drive side lying approximately at right angles to the operator side , an oil fill fitting is arranged on the corner between the operator side and the drive side , via the vertical position of which fitting the oil level is determined, the compressed air-oil mixture is routed through an outlet tube in a front corner above the oil level of the base housing , repeatedly deflected by ribs and baffle plates and then through the outlet opening which is located diagonally on the other upper corner of the base housing and into the air intake duct for fine separation.
An acoustic roller shutter slat , articulated to at least one adjacent slat to constitute a roller shutter apron capable of closing an opening made in a wall, each slat having large sides and small sides provided with fastening means for fastening to at least one adjacent slat , said sides delimiting an inner volume of the slat , characterized in that at least one of the large sides is provided with at least one longitudinal fold extending, inside the volume , towards the other large side , said longitudinal fold consists of a part folded back on itself and forming a double thickness.
Method for regulating a volume flow flowing in an air duct of an air conditioning and/or room air system by means of a damper blade mounted in the air duct and capable of pivoting about a pivot axis , wherein the damper blade can be pivoted by means of a drive between a maximum open position and a maximum setting position, wherein the actual volume flow is determined by the detection of at least one suitable actual value, and wherein reference values and assigned angle settings of the regulating setting of the damper blade are deposited in a databank, wherein, by means of an electronic control and/or regulating device , a comparison is carried out between the respective currently determined actual value of the volume flow and the currently selected reference value, and wherein the damper blade is pivoted during operation by means of the drive , as a dependency of the actual value, between a basic setting and a regulated setting, wherein, in the event of an actual value being above the currently selected reference value, the control and/or regulating device issues a setting adjustment signal to the drive , whereupon the drive moves the damper blade out of its current setting into its regulating setting deposited for the currently adjusted and set reference value, characterised in that deposited in the databank for the various different operational states, in addition to the reference values and the allocated angle settings of the regulating position, additional angle settings are deposited for preliminary choke settings, wherein the angle setting of the preliminary choke settings is greater than the maximum open position and smaller than the regulating setting, and wherein the control and/or regulating device already issues a setting adjustment signal to the drive at an actual value which is smaller than the reference value which is deposited, whereupon the drive then moves the damper blade out of the current position into a preliminary choke position deposited for the reference value which is currently set.
A communication method of a user equipment, UE, comprising: identifying whether a first discovery signal for discovering wireless local area network, WLAN, access points, APs, can be transmitted in a first scanning channel, wherein the first scanning channel is for discovering a first WLAN AP; transmitting, to an AP management entity, channel busy information associated with the first WLAN AP in case that the first discovery signal cannot be transmitted to the first WLAN AP during a predetermined period; receiving, from the AP management entity, information to set another channel as a second scanning channel according to the channel busy information for discovering a second WLAN AP; switching a channel for discovering WLAN AP, from the first scanning channel to the second scanning channel based on the information; transmitting a second discovery signal in the second scanning channel; receiving, from the second WLAN AP, a response signal transmitted after an offset time set determined based on load status of the second WLAN AP; and switching the second channel to a data transmission/reception channel to communicate with the second WLAN AP. identifying whether a first discovery signal for discovering wireless local area network, WLAN, access points, APs, can be transmitted in a first scanning channel, wherein the first scanning channel is for discovering a first WLAN AP; transmitting, to an AP management entity, channel busy information associated with the first WLAN AP in case that the first discovery signal cannot be transmitted to the first WLAN AP during a predetermined period; receiving, from the AP management entity, information to set another channel as a second scanning channel according to the channel busy information for discovering a second WLAN AP; switching a channel for discovering WLAN AP, from the first scanning channel to the second scanning channel based on the information; transmitting a second discovery signal in the second scanning channel; receiving, from the second WLAN AP, a response signal transmitted after an offset time set determined based on load status of the second WLAN AP; and switching the second channel to a data transmission/reception channel to communicate with the second WLAN AP.
An exhaust gas catalyst effective to adsorb NO x and hydrocarbons (HC) at or below a low temperature and to convert and release the adsorbed NO x and HC at temperatures above the low temperature, said exhaust gas catalyst comprising a first molecular sieve catalyst and a second molecular sieve catalyst, wherein the first molecular sieve catalyst comprises a first noble metal and a first molecular sieve, and the second molecular sieve catalyst comprises a second noble metal and a second molecular sieve; wherein the first noble metal and the second noble metal are both palladium; wherein the first molecular sieve is a small pore molecular sieve selected from the group of Framework Type consisting of ACO, AEI, AEN, AFN, AFT, AFX, ANA, APC, APD, ATT, CDO, CHA, DDR, DFT, EAB, EDI, EPI, ERI, GIS, GOO, IHW, ITE, ITW, LEV, KFI, MER, MON, NSI, OWE, PAU, PHI, RHO, RTH, SAT, SAV, SIV, THO, TSC, UEI, UFI, VNI, YUG AND ZON, and intergrowths of two or more; and wherein the second molecular sieve is a medium or large pore molecular sieve selected from the group consisting of BEA and MFI. wherein the first noble metal and the second noble metal are both palladium; wherein the first molecular sieve is a small pore molecular sieve selected from the group of Framework Type consisting of ACO, AEI, AEN, AFN, AFT, AFX, ANA, APC, APD, ATT, CDO, CHA, DDR, DFT, EAB, EDI, EPI, ERI, GIS, GOO, IHW, ITE, ITW, LEV, KFI, MER, MON, NSI, OWE, PAU, PHI, RHO, RTH, SAT, SAV, SIV, THO, TSC, UEI, UFI, VNI, YUG AND ZON, and intergrowths of two or more; and wherein the second molecular sieve is a medium or large pore molecular sieve selected from the group consisting of BEA and MFI.