mhurhangee/patent-ind-claim-en huggingface dataset:
Stove , having: - a box, comprising cladding walls delimiting a reception volume; - a combustion chamber , arranged outside of the reception volume, and comprising a burner supplied with combustion air (A) to produce a flame; - a tank for fuel (C), arranged in the reception volume; - fastening means, arranged to fasten the combustion chamber to the box so as to leave a spacing zone (ZE) between the combustion chamber and the box; - a feed pipe , comprising a part extending in the spacing zone (ZE), and arranged to connect the tank for fuel (C) to the combustion chamber so as to feed the burner with fuel; - a discharge duct (C e ), arranged in the reception volume to discharge combustion flue-gases (F) out of the box; - a discharge pipe , comprising a part extending in the spacing zone (ZE), and arranged to connect the combustion chamber to the discharge duct (C e ) so as to discharge the combustion flue-gases (F) from the combustion chamber ; characterized in that said stove also has - a heat exchanger , arranged in the reception volume to transfer heat energy from the combustion flue-gases (F) to ambient air of a room to be heated circulating in the reception volume; - circulation means, arranged to make the ambient air circulate from the room to be heated into the reception volume via the heat exchanger . - a box, comprising cladding walls delimiting a reception volume; - a combustion chamber , arranged outside of the reception volume, and comprising a burner supplied with combustion air (A) to produce a flame; - a tank for fuel (C), arranged in the reception volume; - fastening means, arranged to fasten the combustion chamber to the box so as to leave a spacing zone (ZE) between the combustion chamber and the box; - a feed pipe , comprising a part extending in the spacing zone (ZE), and arranged to connect the tank for fuel (C) to the combustion chamber so as to feed the burner with fuel; - a discharge duct (C e ), arranged in the reception volume to discharge combustion flue-gases (F) out of the box; - a discharge pipe , comprising a part extending in the spacing zone (ZE), and arranged to connect the combustion chamber to the discharge duct (C e ) so as to discharge the combustion flue-gases (F) from the combustion chamber ; - a heat exchanger , arranged in the reception volume to transfer heat energy from the combustion flue-gases (F) to ambient air of a room to be heated circulating in the reception volume; - circulation means, arranged to make the ambient air circulate from the room to be heated into the reception volume via the heat exchanger .
Transmitting means for communicating in water with a receiving means in an underwater radio communication system with electromagnetic waves, the transmitting means comprising: first distortion compensation means configured to apply, to a transmitting signal, a pre-distortion for compensating for a distortion resulting from propagation in seawater in accordance with a frequency of the electromagnetic waves due to an electrical conductivity of seawater, characterized in that the transmitting means further comprising distance determination means configured to determine a transmission distance between the transmitting means and the receiving means, wherein the first compensation means is configured to determine an amplitude and a phase for the pre-distortion in accordance with a frequency of the transmitting signal and the transmission distance. first distortion compensation means configured to apply, to a transmitting signal, a pre-distortion for compensating for a distortion resulting from propagation in seawater in accordance with a frequency of the electromagnetic waves due to an electrical conductivity of seawater, characterized in that the transmitting means further comprising distance determination means configured to determine a transmission distance between the transmitting means and the receiving means, wherein the first compensation means is configured to determine an amplitude and a phase for the pre-distortion in accordance with a frequency of the transmitting signal and the transmission distance.
A composition comprising a lipid construct, wherein the construct comprises an amphipathic lipid and an extended amphipathic lipid, wherein the extended amphipathic lipid comprises proximal, medial and distal moieties, wherein the proximal moiety connects the extended amphipathic lipid to the construct, the distal moiety targets the construct to a receptor displayed by a hepatocyte, and the medial moiety connects the proximal and distal moieties, wherein the amphipathic lipid comprises at least one lipid selected from the group consisting of 1,2-distearoyl-sn-glycero-3-phosphocholine, dicetyl phosphate, and cholesterol or derivatives thereof; and wherein the extended amphipathic lipid is selected from the group consisting of biotin DHPE; and biotin-X-DHPE.
A method for cleaning a semiconductor wafer, including: supplying a semiconductor wafer whose surface has an oxide film formed thereon with a cleaning solution capable of removing the oxide film; and cleaning, while rotating, the semiconductor wafer to remove the oxide film formed on the surface of the semiconductor wafer, wherein the oxide film is removed such that a rotational speed of the semiconductor wafer is 300 rpm or more before the contact angle between the semiconductor wafer and pure water exceeds 5°, and then the rotational speed of the semiconductor wafer is changed to 100 rpm or less to completely remove the oxide film, wherein the semiconductor wafer is a silicon wafer, and the cleaning solution capable of removing the oxide film is hydrofluoric acid. supplying a semiconductor wafer whose surface has an oxide film formed thereon with a cleaning solution capable of removing the oxide film; and cleaning, while rotating, the semiconductor wafer to remove the oxide film formed on the surface of the semiconductor wafer, wherein the oxide film is removed such that a rotational speed of the semiconductor wafer is 300 rpm or more before the contact angle between the semiconductor wafer and pure water exceeds 5°, and then the rotational speed of the semiconductor wafer is changed to 100 rpm or less to completely remove the oxide film, wherein the semiconductor wafer is a silicon wafer, and the cleaning solution capable of removing the oxide film is hydrofluoric acid.
A woven fabric comprising a weft yarn and two warp yarns A and B, wherein the weft yarn comprises a combination of: individual yarns comprising UHMWPE yarns, and individual natural yarns, wherein the amount of yarns comprising UHMWPE yarns in the weft yarn is between 33 and 66wt% of the total amount of weft yarn; the warp yarn A comprises at least 50 wt% of a natural fiber; the warp yarn B comprises of a combination of individual UHMWPE yarns and individual natural yarns, the amount of UHMWPE yarns being between 10 and 50wt% of the total amount of warp yarn B; and the fabric has an outside layer comprising the warp yarn A and an inside layer comprising the warp yarn B and said outside and inside layer being at least partially interconnected by the weft yarn. individual yarns comprising UHMWPE yarns, and individual natural yarns, wherein the amount of yarns comprising UHMWPE yarns in the weft yarn is between 33 and 66wt% of the total amount of weft yarn; the warp yarn A comprises at least 50 wt% of a natural fiber; the warp yarn B comprises of a combination of individual UHMWPE yarns and individual natural yarns, the amount of UHMWPE yarns being between 10 and 50wt% of the total amount of warp yarn B; and the fabric has an outside layer comprising the warp yarn A and an inside layer comprising the warp yarn B and said outside and inside layer being at least partially interconnected by the weft yarn.
A method for preparing a reverberation signal for playback using headphones, the reverberation signal corresponding to a virtual sound source signal originating at a specified location in a local listener environment, the method comprising: Generating , using a processor circuit, a reverberation signal for the virtual sound source signal using information about a reference impulse response for a reference environment and information about a local reverberation decay for the local listener environment; characterised by Scaling , using the processor circuit, the reverberation signal for the virtual sound source signal according to a relationship between volume characteristics of the local listener environment and the reference environment. Generating , using a processor circuit, a reverberation signal for the virtual sound source signal using information about a reference impulse response for a reference environment and information about a local reverberation decay for the local listener environment; characterised by Scaling , using the processor circuit, the reverberation signal for the virtual sound source signal according to a relationship between volume characteristics of the local listener environment and the reference environment.
An ex vivo method for detecting breast cancer or disease recurrence, the method comprising contacting a bodily fluid sample from a subject at risk of having breast cancer or breast cancer recurrence, with galectin-1 (GAL1) or an antigenic fragment thereof, wherein the presence of autoantibodies against GAL1 in a bodily fluid sample from the subject correlates with a likelihood of the subject having breast cancer or breast cancer recurrence.
Method of manufacturing a cocoa-flavored frozen dessert, comprising the steps of: a) adding water to cocoa beans or nibs to form a suspension; b) wet grinding said suspension; c) subjecting said suspension to a heat treatment at a temperature of 70°C or less; d) separating the suspension into a water phase (heavy phase), a fat phase (light phase) and a solid phase, said fat phase comprising cocoa butter as a major component and solids and/or water as minor components and said solid phase comprising cocoa powder and water; and e) subjecting a mixture comprising a natural or artificial sweetener to pasteurization, homogenisation and freezing to obtain the cocoa-flavored frozen dessert; wherein the non-dried solid phase obtained in step d) and having a water content of 50 % by weight or more based on the total weight of the solid phase is added to the mixture before or during step e), and wherein the cocoa-flavored frozen dessert obtained in step e) comprises at least 2 wt.-% of cocoa powder as introduced by the non-dried solid phase, based on the total solid content of the cocoa-flavored frozen dessert. a) adding water to cocoa beans or nibs to form a suspension; b) wet grinding said suspension; c) subjecting said suspension to a heat treatment at a temperature of 70°C or less; d) separating the suspension into a water phase (heavy phase), a fat phase (light phase) and a solid phase, said fat phase comprising cocoa butter as a major component and solids and/or water as minor components and said solid phase comprising cocoa powder and water; and e) subjecting a mixture comprising a natural or artificial sweetener to pasteurization, homogenisation and freezing to obtain the cocoa-flavored frozen dessert; wherein the non-dried solid phase obtained in step d) and having a water content of 50 % by weight or more based on the total weight of the solid phase is added to the mixture before or during step e), and wherein the cocoa-flavored frozen dessert obtained in step e) comprises at least 2 wt.-% of cocoa powder as introduced by the non-dried solid phase, based on the total solid content of the cocoa-flavored frozen dessert. wherein the non-dried solid phase obtained in step d) and having a water content of 50 % by weight or more based on the total weight of the solid phase is added to the mixture before or during step e), and wherein the cocoa-flavored frozen dessert obtained in step e) comprises at least 2 wt.-% of cocoa powder as introduced by the non-dried solid phase, based on the total solid content of the cocoa-flavored frozen dessert.
Method for scanning an abutment , comprising the steps a1) positioning a rubber dam below an exposed portion (A) of an abutment , wherein the abutment is positioned in an implant for a dental restauration, and a2) positioning of a spacer between the rubber dam and a geometrical structure , wherein the geometrical structure is a protrusion , and wherein the spacer is positioned to surround the abutment , and wherein the spacer is an O-ring b) scanning of the abutment , wherein the rubber dam is positioned in such a way, that a geometrical structure of the abutment is scannable, wherein the geometrical structure serves as positioning reference, and wherein the abutment is the final restauration abutment. a1) positioning a rubber dam below an exposed portion (A) of an abutment , wherein the abutment is positioned in an implant for a dental restauration, and a2) positioning of a spacer between the rubber dam and a geometrical structure , wherein the geometrical structure is a protrusion , and wherein the spacer is positioned to surround the abutment , and wherein the spacer is an O-ring wherein the geometrical structure is a protrusion , and wherein the spacer is positioned to surround the abutment , and wherein the spacer is an O-ring b) scanning of the abutment , wherein the rubber dam is positioned in such a way, that a geometrical structure of the abutment is scannable, wherein the geometrical structure serves as positioning reference, and wherein the abutment is the final restauration abutment. wherein the rubber dam is positioned in such a way, that a geometrical structure of the abutment is scannable, wherein the geometrical structure serves as positioning reference, and wherein the abutment is the final restauration abutment.
A method of determining a compensation code for an Input/Output, IO, cell of an integrated chip, IC, , the IO cell comprising its own power supply, the method comprising: - obtaining a first elementary compensation code from a memory cell associated with the IC, the first elementary compensation code accounting for process variations of the IC and being based, at least, on an information representative of Process, Voltage and Temperature, PVT, operating conditions of the IC; In response to a variation of the PVT operating conditions: - measuring an output voltage of the I/O cell under the PVT operating conditions and determining a second elementary compensation code as a function of at least the measured output voltage, the second compensation code accounting for voltage variations of the I/O cell; - measuring a temperature of the IC under the PVT operating conditions and determining a third elementary compensation code as a function of at least the measured temperature, the third compensation code accounting for temperature variations of the IC; and, - determining the compensation code as a function of at least the first elementary compensation code, the second elementary compensation code and the third elementary compensation code. - obtaining a first elementary compensation code from a memory cell associated with the IC, the first elementary compensation code accounting for process variations of the IC and being based, at least, on an information representative of Process, Voltage and Temperature, PVT, operating conditions of the IC; - measuring an output voltage of the I/O cell under the PVT operating conditions and determining a second elementary compensation code as a function of at least the measured output voltage, the second compensation code accounting for voltage variations of the I/O cell; - measuring a temperature of the IC under the PVT operating conditions and determining a third elementary compensation code as a function of at least the measured temperature, the third compensation code accounting for temperature variations of the IC; and, - determining the compensation code as a function of at least the first elementary compensation code, the second elementary compensation code and the third elementary compensation code.
A method of manufacturing a fuel injector for supplying fuel to a fuel consuming device, said fuel injector having a fuel inlet which communicates fuel into said fuel injector ; a fuel injector body ; an outlet body having an upstream surface , a downstream surface , and an outlet aperture fluidly connecting said upstream surface to said downstream surface ; and a valve assembly downstream of said fuel inlet and upstream of said outlet aperture such that said valve assembly is moveable along an axis between 1) a closed position in which fluid communication is prevented from said fuel inlet to said outlet aperture and 2) an open position in which fluid communication is provided from said fuel inlet to said outlet aperture ; characterized in that said outlet body includes a 2-dimensional matrix of cells on said downstream surface , said 2-dimensional matrix of cells comprising a finder pattern , a timing pattern , and a field of unpopulated and populated cells which represent bits of data, said method comprising: using said 2-dimensional matrix of cells to orient said outlet body relative to said fuel injector body and wherein: said finder pattern includes a first edge with continuous populated cells and a second edge with continuous populated cells adjacent to said first edge such that said first edge and said second edge form a right angle; said timing pattern includes a third edge with alternating populated cells and unpopulated cells and a fourth edge with alternating populated cells and unpopulated cells adjacent to said third edge such that said third edge and said fourth edge form a right angle; and said field of unpopulated and populated cells is within a perimeter defined by said finder pattern and by said timing pattern and , wherein using said 2-dimensional matrix of cells to orient said outlet body relative to said fuel injector body comprises: providing said 2-dimensional matrix of cells on said outlet body in a predetermined relationship relative to said outlet aperture . said finder pattern includes a first edge with continuous populated cells and a second edge with continuous populated cells adjacent to said first edge such that said first edge and said second edge form a right angle; said timing pattern includes a third edge with alternating populated cells and unpopulated cells and a fourth edge with alternating populated cells and unpopulated cells adjacent to said third edge such that said third edge and said fourth edge form a right angle; and said field of unpopulated and populated cells is within a perimeter defined by said finder pattern and by said timing pattern and , wherein using said 2-dimensional matrix of cells to orient said outlet body relative to said fuel injector body comprises: providing said 2-dimensional matrix of cells on said outlet body in a predetermined relationship relative to said outlet aperture .
Drilling device for machining tubes on tube sheets of heat exchangers in a radioactive environment, wherein the drilling device has a retaining plate , a first drive , a tool shaft and a feed device , wherein the first drive , which drives the tool shaft , is arranged on a second side of the retaining plate , wherein a forward feed of the tool shaft is brought about by the feed device , wherein the retaining plate is clampable in the tubes with at least two retaining fingers on a first side, characterized in that a tool chuck on a first end side of the tool shaft is connected detachably to the latter, in that the tool chuck is unlockable from the tool shaft by way of an unlocking instrument of the drilling device, and in that the unlocking instrument is controllable by a remote-control device.
Tool receptacle having a receptacle body , wherein the receptacle body has an axis of rotation , has an interface at the rear for receiving of the tool receptacle in a working spindle of a power tool, and has a receptacle opening at the front for force-fitting retention of a rotatable tool, wherein the receptacle opening contains slots extending radially outwards from its inner wall and running in a longitudinal direction of the receptacle body , wherein the receptacle body contains an insert which is fastened in an insert receptacle , wherein the insert is formed with a connection for a connection part of an inner coolant supply or lubricant supply or compressed-air line such that, during machining, coolant or lubricant or compressed air can be conducted through the tool receptacle to the tool via the slots , wherein the radius of the insert receptacle of the receptacle body is greater than the maximum radius r of the slots , characterized in that the connection is in the form of a connection thread that is formed as an inner thread.
A data security method for digitally signing a message by a client device , the method comprising: issuing a signature request to a server ; generating a first signature part as functions of selected ones of first signature parameters; receiving from the server a second signature part, said second signature part having been computed by the server as functions of second signature parameters and at least one of the first signature parameters; verifying components of the second signature part; and generating a final digital signature of the message from the first and second signature parts only if the components of the second signature part are valid; and CHARACTERISED BY receiving a secret value from a user ; sending to the server a public part (pk2) of a third key pair and the secret value; receiving from the server public components of a first public-private key pair (pk0) and a second public-private key pair (pk1); computing first signature parameters as functions of a secret part (sk2) of the third key pair, a time value, and the message; computing an encryption value (w) as an encryption of at least selected ones of the first signature parameters, wherein the encryption value encodes an encryption of the secret value; transmitting the encryption value to the server; receiving from the server at least one second signature parameter and a corresponding timestamp value (ts); AND verifying the second signature parameter(s) and generating a final digital signature of the message only if the second signature parameters are valid. issuing a signature request to a server ; generating a first signature part as functions of selected ones of first signature parameters; receiving from the server a second signature part, said second signature part having been computed by the server as functions of second signature parameters and at least one of the first signature parameters; verifying components of the second signature part; and generating a final digital signature of the message from the first and second signature parts only if the components of the second signature part are valid; and CHARACTERISED BY receiving a secret value from a user ; sending to the server a public part (pk2) of a third key pair and the secret value; receiving from the server public components of a first public-private key pair (pk0) and a second public-private key pair (pk1); computing first signature parameters as functions of a secret part (sk2) of the third key pair, a time value, and the message; computing an encryption value (w) as an encryption of at least selected ones of the first signature parameters, wherein the encryption value encodes an encryption of the secret value; transmitting the encryption value to the server; receiving from the server at least one second signature parameter and a corresponding timestamp value (ts); AND verifying the second signature parameter(s) and generating a final digital signature of the message only if the second signature parameters are valid.