mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for sampling food products and/or surfaces comprising, a bag constructed from a flexible, liquid-impermeable sheet material, the bag comprising a sealable top opening and a sample collection material secured to an inside surface of the bag, the bag being of a size large enough to permit inversion of the bag to expose the sample collection material for collection of samples from surfaces and re-inversion to enclose the sample collection material, wherein the bag is further provided with a removable top seal external to the sealable top opening. a bag constructed from a flexible, liquid-impermeable sheet material, the bag comprising a sealable top opening and a sample collection material secured to an inside surface of the bag, the bag being of a size large enough to permit inversion of the bag to expose the sample collection material for collection of samples from surfaces and re-inversion to enclose the sample collection material, wherein the bag is further provided with a removable top seal external to the sealable top opening.
A method comprising: positioning a heat source proximate to a first side of a composite material , said composite material having a first side and a second side, with a structure located proximate to the second side of the composite material, said structure having a first side and a second side, with the first side of the structure located proximate to the second side of the composite material ; positioning a thermoelectric device proximate to the second side of the structure, said thermoelectric device in communication with a controller ; contacting the second side of the structure with a temperature sensing device , said temperature sensing device in communication with the controller ; activating the heat source; applying heat from the heat source to the first side of the composite material; heating the composite material to a first temperature; providing an electric current to the thermoelectric device; and substantially maintaining the temperature of the structure at a second temperature that is different than the first temperature of the composite material. positioning a heat source proximate to a first side of a composite material , said composite material having a first side and a second side, with a structure located proximate to the second side of the composite material, said structure having a first side and a second side, with the first side of the structure located proximate to the second side of the composite material ; positioning a thermoelectric device proximate to the second side of the structure, said thermoelectric device in communication with a controller ; contacting the second side of the structure with a temperature sensing device , said temperature sensing device in communication with the controller ; activating the heat source; applying heat from the heat source to the first side of the composite material; heating the composite material to a first temperature; providing an electric current to the thermoelectric device; and substantially maintaining the temperature of the structure at a second temperature that is different than the first temperature of the composite material.
An optical device comprising an image sensor and a collecting entrance lens , the optical device having a predetermined field of view, the optical device further comprising a dynamically configurable light barrier having at least two masking elements , the dynamically configurable light barrier being configured so that at least one of the masking elements can be set in a state in which light passes through, the at least two masking elements being configured so that images acquired by the image sensor when one of the at least two masking elements is configured in a state in which light passes through represent different portions of the predetermined field of view than images acquired by the image sensor when another one of the at least two masking elements is configured in a state in which light passes through, the optical device further comprising a micro-prism array , each micro-prism of the micro-prism array being associated with a different masking element, each micro-prism aims at directing light passing through the associated masking element to the image sensor.
A method of operating a first terminal device for transmitting data to a second terminal device in a device-to-device communication mode in a wireless telecommunications system supporting communications on a first carrier operating over a first frequency band and a second carrier operating over a second frequency band; the method comprising: transmitting from the first terminal device to the second terminal device in a device-to-device communication mode on the first carrier control signalling comprising an indication that the first terminal device intends to transmit data to the second terminal device using the device-to-device communication mode on the second carrier after a carrier switch-over time; and after the carrier switch-over time, transmitting data to the second terminal device on the second carrier using the device-to-device communication mode. transmitting from the first terminal device to the second terminal device in a device-to-device communication mode on the first carrier control signalling comprising an indication that the first terminal device intends to transmit data to the second terminal device using the device-to-device communication mode on the second carrier after a carrier switch-over time; and after the carrier switch-over time, transmitting data to the second terminal device on the second carrier using the device-to-device communication mode.
A composition comprising a peptide selected from: RPEWWMDYQKRY (SEQ ID NO: 6), dN-PEVVWMDYQKR-dY (SEQ ID NO: 7), NPDWWMEYQKR-dY (SEQ ID NO: 8), NPDWWMDFQKR-dS (SEQ ID NO: 9), DPEVVWMD-4-Pal-QKR-dY (SEQ ID NO: 11), DPEVVWAD-4-Pal-QKR-dY (SEQ ID NO: 14), NorR-PEWWMDYQKR-dY (SEQ ID NO: 46), NorR-PEWWMDWQKR-dY (SEQ ID NO: 47), GRPEWWMDYQKRY (SEQ ID NO: 3), PEWWMDYQKR-dY (SEQ ID NO: 17) and EWWMDFQKR-dY (SEQ ID NO: 18), wherein dN denotes D-asparagine, dY denotes D-tyrosine, dS denotes D-serine, 4-Pal denotes 4-pyridyl alanine and NorR denotes Norarginine; and wherein palmitic acid-PEG8 is linked at the N-terminus of the peptide, wherein PEG8 denotes that the average number of ethylene glycol units is 8.
Bending device for bending door hinges comprising a base body forming a bearing surface for bearing on the frame of a door, a slot in the base body for fitting the bending device onto a frame part of a door hinge, tensioning means for tensioning the bending device relative to the frame part of a door hinge and a handle for levering the bending device and bending the door hinge, characterized in that the tensioning means is realized by a stop screw , whereby the stop screw acts directly on the frame part in the braced state.
Method for packing cheese wherein the cheese is allowed to ripen further when packed in a closed food receiving area of a packaging, wherein the gas pressure within the closed volume comprising the cheese is balanced with that outside the packaging and the gas mixture within said closed volume is adjusted pursuant to the ripening process of the cheese to provide an ideal gas atmosphere for the packaged cheese during its whole storage period, characterised in that the cheese is packed in an inner food receiving area of the packaging and the food receiving area of the packaging containing the cheese is then closed by a sealing procedure, wherein the packaging is at least partly made of a breathable film that is at least partly permeable for vapour, nitrogen, oxygen and carbon dioxide in both directions through the breathable film, wherein the breathable film is a laminate having an inner sealable plastic film facing the food receiving area and having an outer membrane made of a continuous, non-porous layer of paper bonded to the inner sealable plastic film by a continuous or patterned adhesive layer and wherein the inner sealable plastic film is perforated.
A lighting device (DEj) including light-emitting diodes (DL) suitable to participate in the formation of beams of light (FLjk) ensuring short range illuminations of a dipped headlight function, and medium range illuminations of a full beam function for a vehicle (V), and electrical supply means (MA) suitable to provide to said light-emitting diodes (DL) electrical supplies defined by commands so that they provide light intensities as a function of these electrical supplies, in which some of said light-emitting diodes (DL) are of the high brightness type and suitable to participate in the formation of a beam of light (FLj3) having a long range greater than said medium range, and in which control means (MC) are suitable, in the case of reception of an authorisation for long range illumination in front of said vehicle (V), to provide to said electrical supply means (MA) successive commands suitable to induce a light beam (FLjk) ensuring an illumination having a range increasing progressively from said short range to said long range, via said medium range, characterized in that said control means (MC) are suitable to provide to said electrical supply means (MA) a command intended to induce a maximum value of said long range as a function of a radius of curvature of a portion of a carriageway on which said vehicle (V) is travelling.
A method for determining when an estimated altitude of a mobile device can be used for calibration or location determination, the method comprising: determining an area in which the mobile device is expected to reside, the area comprising a plurality of sections, each section of the plurality of sections being a terrain tile; for each section of the plurality of sections in the area, determining an altitude value of that section; determining if a threshold percentage of the altitude values meets a threshold condition; and if the threshold percentage of altitude values meets the threshold condition, determining that the estimated altitude of the mobile device can be used for determining a position of the mobile device or for calibrating a pressure sensor of the mobile device, the estimated altitude of the mobile device being determined using a pressure measured by the pressure sensor of the mobile device. determining an area in which the mobile device is expected to reside, the area comprising a plurality of sections, each section of the plurality of sections being a terrain tile; for each section of the plurality of sections in the area, determining an altitude value of that section; determining if a threshold percentage of the altitude values meets a threshold condition; and if the threshold percentage of altitude values meets the threshold condition, determining that the estimated altitude of the mobile device can be used for determining a position of the mobile device or for calibrating a pressure sensor of the mobile device, the estimated altitude of the mobile device being determined using a pressure measured by the pressure sensor of the mobile device.
A method for manufacturing 1,4-bis(4-phenoxybenzoylbenzene), comprising: - reacting terephthaloyl chloride with diphenyl ether in a reaction solvent and in the presence of a Lewis acid, so as to obtain a product mixture comprising a 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex, wherein the reaction solvent is selected from methylene chloride, carbon disulfide, ortho-dichlorobenzene, meta-dichlorobenzene, para-dichlorobenzene, 1,2,4-trichlorobenzene, 1,2,3-trichlorobenzene, ortho-difluorobenzene, 1,2-dichloroethane, 1,1,2,2-tetrachloroethane, tetrachloroethylene, dichloromethane, nitrobenzene and mixtures thereof; - putting the product mixture in contact with a protic solvent, so as to obtain a first phase containing the Lewis acid and a second phase containing 1,4-bis(4-phenoxybenzoyl)benzene, wherein the protic solvent is an organic solvent selected from methanol, acetic acid, formic acid, ethanol, isopropanol and benzyl alcohol, an aqueous solution, or a mixture of an organic solvent with an aqueous solution; - subjecting at least the second phase to a solid / liquid separation step by centrifugal filtration, so as to recover solid 1,4-bis(4-phenoxybenzoyl)benzene ; and, - heating the second phase up to a maximum temperature of from 80°C to 160°C, wherein from 30 to 99.9 wt.% of the 1,4-bis(4-phenoxybenzoyl)benzene contained in the second phase is dissolved in the second phase at the maximum temperature, followed by cooling the second phase down to a separation temperature, before subjecting the second phase to the solid / liquid separation step. - reacting terephthaloyl chloride with diphenyl ether in a reaction solvent and in the presence of a Lewis acid, so as to obtain a product mixture comprising a 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex, wherein the reaction solvent is selected from methylene chloride, carbon disulfide, ortho-dichlorobenzene, meta-dichlorobenzene, para-dichlorobenzene, 1,2,4-trichlorobenzene, 1,2,3-trichlorobenzene, ortho-difluorobenzene, 1,2-dichloroethane, 1,1,2,2-tetrachloroethane, tetrachloroethylene, dichloromethane, nitrobenzene and mixtures thereof; - putting the product mixture in contact with a protic solvent, so as to obtain a first phase containing the Lewis acid and a second phase containing 1,4-bis(4-phenoxybenzoyl)benzene, wherein the protic solvent is an organic solvent selected from methanol, acetic acid, formic acid, ethanol, isopropanol and benzyl alcohol, an aqueous solution, or a mixture of an organic solvent with an aqueous solution; - subjecting at least the second phase to a solid / liquid separation step by centrifugal filtration, so as to recover solid 1,4-bis(4-phenoxybenzoyl)benzene ; and, - heating the second phase up to a maximum temperature of from 80°C to 160°C, wherein from 30 to 99.9 wt.% of the 1,4-bis(4-phenoxybenzoyl)benzene contained in the second phase is dissolved in the second phase at the maximum temperature, followed by cooling the second phase down to a separation temperature, before subjecting the second phase to the solid / liquid separation step.
Earth working machine with a slow running speed with a drive unit that includes a liquid-cooled internal combustion engine , wherein the liquid cooled internal combustion engine is arranged in an engine compartment with a bonnet , and is provided with a main cooler for cooling the cooling liquid of the internal combustion engine and at least one auxiliary cooler , which is e.g. an intercooler of air for supercharging, an oil cooler, a cooler for air conditioning, etc., wherein the main cooler is provided with a first fan and is arranged separately from the engine compartment, characterized by a common air suction space arranged between the engine compartment and the main cooler, said common air suction space being designed for drawing a cooling air from the outside of the engine compartment through holes being arranged in sides and in a top side of the bonnet to ensure the lowest temperature of the cooling air sucked into the common air suction space , said common air suction space comprises a first partition separating the common air suction space from the engine compartment, and a second partition , at which the main cooler is arranged, the first fan is driven by an independent drive to draw the cooling air from the common air suction space , running said cooling air through the main cooler and pushing it out to the outside of the machine , wherein the auxiliary cooler is provided with a second fan arranged for drawing the cooling air from the common air suction space , running said cooling air through the auxiliary cooler and through the engine compartment to the outside of the machine.
A method of wireless communication, comprising: constructing , by a transmitter, an M x N grid to model a resource element, RE, map of transmission resources available to the transmitter within a shared communication channel, wherein M corresponds to a number of symbols for a scheduled physical signal and N corresponds to a number of tones of a transmission bandwidth for the transmitter operating on the shared communication channel; mapping , by the transmitter, the M x N grid to the RE map; puncturing , by the transmitter, one or more REs of the RE map associated with one or more unavailable subbands unavailable for transmission by the transmitter in the transmission resources; and transmitting , by the transmitter, a transmission according to unpunctured REs of the RE map. constructing , by a transmitter, an M x N grid to model a resource element, RE, map of transmission resources available to the transmitter within a shared communication channel, wherein M corresponds to a number of symbols for a scheduled physical signal and N corresponds to a number of tones of a transmission bandwidth for the transmitter operating on the shared communication channel; mapping , by the transmitter, the M x N grid to the RE map; puncturing , by the transmitter, one or more REs of the RE map associated with one or more unavailable subbands unavailable for transmission by the transmitter in the transmission resources; and transmitting , by the transmitter, a transmission according to unpunctured REs of the RE map.
A method of operating an ultrasound diagnostic apparatus , the method comprising: setting a region of interest (ROI) intended to be enlarged in an ultrasound image of an object ; acquiring ultrasound data corresponding to a candidate region including the ROI using a probe ; generating a candidate image corresponding to the candidate region , based on the acquired ultrasound data; detecting shaking of the probe by means of a shaking detecting unit ; and displaying by means of a display unit a portion of the candidate image corresponding to the ROI , based on the detected shaking of the probe , wherein the candidate image is obtained by enlarging an ultrasound image corresponding to the candidate region , and the area of the candidate region is proportional to a degree of shaking of the probe . setting a region of interest (ROI) intended to be enlarged in an ultrasound image of an object ; acquiring ultrasound data corresponding to a candidate region including the ROI using a probe ; generating a candidate image corresponding to the candidate region , based on the acquired ultrasound data; detecting shaking of the probe by means of a shaking detecting unit ; and displaying by means of a display unit a portion of the candidate image corresponding to the ROI , based on the detected shaking of the probe , wherein the candidate image is obtained by enlarging an ultrasound image corresponding to the candidate region , and the area of the candidate region is proportional to a degree of shaking of the probe .
A method, implemented in a mobile device , for determining a position of the mobile device in an indoor environment, the method comprising: receiving a request for the position of the mobile device within the indoor environment from an application running on the mobile device ; estimating the position of the mobile device within the indoor environment based on signals received from a plurality of wireless access points responsive to receiving the request for the position of the mobile device ; identifying an ambiguity in the position of the mobile device while estimating the position of the mobile device , where two or more position determination algorithms used for estimating the position provide conflicting results; identifying disambiguation information for resolving the ambiguity in the position of the mobile device ; requesting the disambiguation information for resolving the ambiguity associated with the position of the mobile device ; receiving the disambiguation information for resolving the ambiguity associated with the position of the mobile device , wherein said disambiguation information comprises information about the use of a particular position determination algorithm producing more accurate results for that particular indoor environment from other mobile devices; determining the position of the mobile device in the indoor environment by selecting results from the same positioning algorithm producing more accurate results for other mobile devices using the received disambiguation information. receiving a request for the position of the mobile device within the indoor environment from an application running on the mobile device ; estimating the position of the mobile device within the indoor environment based on signals received from a plurality of wireless access points responsive to receiving the request for the position of the mobile device ; identifying an ambiguity in the position of the mobile device while estimating the position of the mobile device , where two or more position determination algorithms used for estimating the position provide conflicting results; identifying disambiguation information for resolving the ambiguity in the position of the mobile device ; requesting the disambiguation information for resolving the ambiguity associated with the position of the mobile device ; receiving the disambiguation information for resolving the ambiguity associated with the position of the mobile device , wherein said disambiguation information comprises information about the use of a particular position determination algorithm producing more accurate results for that particular indoor environment from other mobile devices; determining the position of the mobile device in the indoor environment by selecting results from the same positioning algorithm producing more accurate results for other mobile devices using the received disambiguation information.