mhurhangee/patent-ind-claim-en huggingface dataset:
An acoustic damping resonator system for a turbine engine , the acoustic damping resonator system comprising: at least one resonator housing defining at least one inner channel with an inner surface and an outer surface on an opposite side of the at least one resonator housing from the inner surface ; at least one resonator chamber receiver positioned in the at least one resonator housing and formed from at least one orifice ; at least one resonator chamber positioned at least partially within the at least one resonator chamber receiver ; wherein a joint is formed between the at least one resonator chamber and the at least one resonator housing defining the at least one resonator chamber receiver , wherein the at least one resonator chamber is formed from a resonator box having a further inner surface , at least one further outer surface and at least one side surface , characterized in said at least one further inner surface being included in the at least one resonator chamber , and being offset radially outward from the inner surface of the at least one resonator housing . at least one resonator housing defining at least one inner channel with an inner surface and an outer surface on an opposite side of the at least one resonator housing from the inner surface ; at least one resonator chamber receiver positioned in the at least one resonator housing and formed from at least one orifice ; at least one resonator chamber positioned at least partially within the at least one resonator chamber receiver ; wherein a joint is formed between the at least one resonator chamber and the at least one resonator housing defining the at least one resonator chamber receiver , wherein the at least one resonator chamber is formed from a resonator box having a further inner surface , at least one further outer surface and at least one side surface ,
Method for carrying out a changeover process in a system for producing beverage containers , wherein this system in a working operation produces plastic containers from plastic parisons by means of a transforming device and these produced containers are transported to a filling device and the containers are filled with a liquid and in particular a beverage, wherein the liquid is introduced into the container at a temperature of over 50°C, characterised in that at least the transforming device and the filling device are at least intermittently in data communication and for carrying out the changeover process by at least the transforming device or the filling device a value (W1) is output and/or used which is characteristic for a changeover status of this transforming device or this filling device .
An x-ray interferometric imaging system comprising: a source of x-rays comprising: a vacuum chamber ; an emitter for an electron beam ; and an electron target comprising: a substrate comprising a first material and, embedded in the substrate, at least a plurality of discrete structures comprising a second material selected for its x-ray generating properties, and in which said plurality of discrete structures are arranged within a periodic pattern of sub-sources of x-rays; a beam-splitting x-ray grating comprising periodic structures that form an x-ray phase-shifting grating positioned to diffract x-rays generated by the sub-sources of x-rays; an x-ray detector comprising a two-dimensional array of x-ray detecting elements, positioned to detect the x-rays diffracted by the beam-splitting grating ; and an antiscattering grid having periodic array of absorbing structures comprising an x-ray absorbing material positioned between the beam splitting x-ray grating and the detector . a source of x-rays comprising: a vacuum chamber ; an emitter for an electron beam ; and an electron target comprising: a substrate comprising a first material and, embedded in the substrate, at least a plurality of discrete structures comprising a second material selected for its x-ray generating properties, and in which said plurality of discrete structures are arranged within a periodic pattern of sub-sources of x-rays; a vacuum chamber ; an emitter for an electron beam ; and an electron target comprising: a substrate comprising a first material and, embedded in the substrate, at least a plurality of discrete structures comprising a second material selected for its x-ray generating properties, and in which said plurality of discrete structures are arranged within a periodic pattern of sub-sources of x-rays; a substrate comprising a first material and, embedded in the substrate, at least a plurality of discrete structures comprising a second material selected for its x-ray generating properties, and in which said plurality of discrete structures are arranged within a periodic pattern of sub-sources of x-rays; a beam-splitting x-ray grating comprising periodic structures that form an x-ray phase-shifting grating positioned to diffract x-rays generated by the sub-sources of x-rays; an x-ray detector comprising a two-dimensional array of x-ray detecting elements, positioned to detect the x-rays diffracted by the beam-splitting grating ; and an antiscattering grid having periodic array of absorbing structures comprising an x-ray absorbing material positioned between the beam splitting x-ray grating and the detector .
A door panel comprising: a body having front and rear door skins sandwiching, at least partially, two stiles , which together delimit an interior for injection of filling material, wherein at least one of the stiles comprises a hollow structure with a partitioned hollow interior that extends along substantially the entire length of the body to offer mechanical strength to the door and to provide foundation for installing door fittings, the front and rear skins engage outer surfaces of the stile through respective engagement means, and the engagement means comprise male members extending from the front and rear skins respectively for engaging female members provided on the outer surface of the stile ; characterised in that : the female member is in the form of a slanted groove defined between two parallel slanted walls, and one of the parallel slanted walls presses against the male member to form a fluid tight engagement. a body having front and rear door skins sandwiching, at least partially, two stiles , which together delimit an interior for injection of filling material, wherein at least one of the stiles comprises a hollow structure with a partitioned hollow interior that extends along substantially the entire length of the body to offer mechanical strength to the door and to provide foundation for installing door fittings, the front and rear skins engage outer surfaces of the stile through respective engagement means, and the engagement means comprise male members extending from the front and rear skins respectively for engaging female members provided on the outer surface of the stile ; characterised in that : the female member is in the form of a slanted groove defined between two parallel slanted walls, and one of the parallel slanted walls presses against the male member to form a fluid tight engagement. the female member is in the form of a slanted groove defined between two parallel slanted walls, and one of the parallel slanted walls presses against the male member to form a fluid tight engagement.
An in vitro method for measuring RNA in a sample comprising (a) dephosphorylating RNA in a sample, thereby generating dephosphorylated RNA, (b) ligating, to the dephosphorylated RNA, a ddNTP-ended oligodeoxynucleotide linker having two or more randomized nucleotides at its 5'-end (Linker 1), thereby generating a linker-ligated RNA, (c) removing excess Linker 1 by treating with deadenylase to remove a ligase-mediated intermediate and then degrading Linker 1 with the 2'-deoxyribonuclease Rec J, (d) reverse transcribing the linker-ligated RNA into cDNA using a primer complementary to Linker 1 and reverse transcriptase, (e) degrading residual RNA, (f) ligating a hairpin/splint oligodeoxynucleotide linker comprising, in a 5' to 3' orientation, a double-stranded stem region, a single-stranded loop region, a random nucleotide sequence region capable of hybridizing to the cDNA, and a single-stranded 3' end (Linker 2) to the cDNA, thereby generating a linker-ligated cDNA (g) removing excess Linker 2 by treating with deadenylase to remove a ligase-mediated intermediate and then degrading Linker 2 with the 2'-deoxyribonuclease Rec J, and (h) amplifying and/or sequencing the linker-ligated cDNA using Primer 1 and Primer 2, wherein Primers 1 and 2 comprise reverse complements of sequences in Linkers 1 and 2 in the linker-ligated cDNA. (a) dephosphorylating RNA in a sample, thereby generating dephosphorylated RNA, (b) ligating, to the dephosphorylated RNA, a ddNTP-ended oligodeoxynucleotide linker having two or more randomized nucleotides at its 5'-end (Linker 1), thereby generating a linker-ligated RNA, (c) removing excess Linker 1 by treating with deadenylase to remove a ligase-mediated intermediate and then degrading Linker 1 with the 2'-deoxyribonuclease Rec J, (d) reverse transcribing the linker-ligated RNA into cDNA using a primer complementary to Linker 1 and reverse transcriptase, (e) degrading residual RNA, (f) ligating a hairpin/splint oligodeoxynucleotide linker comprising, in a 5' to 3' orientation, a double-stranded stem region, a single-stranded loop region, a random nucleotide sequence region capable of hybridizing to the cDNA, and a single-stranded 3' end (Linker 2) to the cDNA, thereby generating a linker-ligated cDNA (g) removing excess Linker 2 by treating with deadenylase to remove a ligase-mediated intermediate and then degrading Linker 2 with the 2'-deoxyribonuclease Rec J, and (h) amplifying and/or sequencing the linker-ligated cDNA using Primer 1 and Primer 2, wherein Primers 1 and 2 comprise reverse complements of sequences in Linkers 1 and 2 in the linker-ligated cDNA.
A portable radiation detection device , comprising: a detector unit comprising a scintillator and a photomultiplier coupled to said scintillator ; and a control unit comprising control circuitry electrically coupled to said photomultiplier , and comprising a high-voltage power supply unit , wherein said high-voltage power supply unit comprises a voltage multiplier circuit comprising a voltage multiplier ladder network comprising capacitors and diodes, the portable radiation detection device being characterized in that : said photomultiplier comprises an array of avalanche photodiodes, and in that said detector unit comprises a low-drop voltage regulator unit coupled to said voltage multiplier circuit. a detector unit comprising a scintillator and a photomultiplier coupled to said scintillator ; and a control unit comprising control circuitry electrically coupled to said photomultiplier , and comprising a high-voltage power supply unit , wherein said high-voltage power supply unit comprises a voltage multiplier circuit comprising a voltage multiplier ladder network comprising capacitors and diodes, the portable radiation detection device being characterized in that : said photomultiplier comprises an array of avalanche photodiodes, and in that said detector unit comprises a low-drop voltage regulator unit coupled to said voltage multiplier circuit.
A method for securely providing a place-shifted media stream from a place shifting device to a remote player via a communications network , the method comprising: receiving a request for a connection from the remote player at the place shifting device via the communications network; in response to the request for the connection, the place shifting device requesting authorization from a central server via the communications network, wherein the request for authorization from the place shifting device includes requesting from the central server an authorization credential; the remote player requesting authorization from the central server via the communications network , wherein the request for authorization from the remote player includes requesting from the central server an authorization credential; the central server validating and authorizing a placeshifting session between the remote device and the place shifting device and transmitting an authorization credential to both the remote player and the place shifting device via the communications network ; and establishing the place-shifted media stream between the place shifting device and the remote player over the communications network in response to the authorization received from the central server, wherein the authorization credentials are used to secure the place-shifted media stream by encrypting at least a portion of the place-shifted media stream based on the authorization credential. receiving a request for a connection from the remote player at the place shifting device via the communications network; in response to the request for the connection, the place shifting device requesting authorization from a central server via the communications network, wherein the request for authorization from the place shifting device includes requesting from the central server an authorization credential; the remote player requesting authorization from the central server via the communications network , wherein the request for authorization from the remote player includes requesting from the central server an authorization credential; the central server validating and authorizing a placeshifting session between the remote device and the place shifting device and transmitting an authorization credential to both the remote player and the place shifting device via the communications network ; and establishing the place-shifted media stream between the place shifting device and the remote player over the communications network in response to the authorization received from the central server, wherein the authorization credentials are used to secure the place-shifted media stream by encrypting at least a portion of the place-shifted media stream based on the authorization credential.
An uplink transmission method, comprising: when transmitting , in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process, or at a first moment before transmitting, in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process: when a first condition is satisfied, considering that a new data indicator, NDI, for the first HARQ process is toggled, wherein the first condition requires that the first HARQ process is a preconfigured HARQ process that can be used for autonomous uplink transmission, and before the subframe, there is no uplink grant for the first HARQ process delivered to a HARQ entity such that the first HARQ process is not used for transmission before the subframe, and transmission performed in the subframe is initial transmission for the first HARQ process; and performing new uplink data transmission in the subframe by using the first HARQ process when transmitting , in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process, or at a first moment before transmitting, in a subframe in which an autonomous uplink transmission resource is configured, uplink data by using a first hybrid automatic repeat request, HARQ, process: when a first condition is satisfied, considering that a new data indicator, NDI, for the first HARQ process is toggled, wherein the first condition requires that the first HARQ process is a preconfigured HARQ process that can be used for autonomous uplink transmission, and before the subframe, there is no uplink grant for the first HARQ process delivered to a HARQ entity such that the first HARQ process is not used for transmission before the subframe, and transmission performed in the subframe is initial transmission for the first HARQ process; and performing new uplink data transmission in the subframe by using the first HARQ process
A psoralen, and lapatinib for use in the treatment of a cell proliferation disorder or disease, said treatment comprising administering said psoralen and lapatinib to a subject in need thereof and applying initiation radiation energy from an energy source, wherein the treatment reduces diseased cell growth and/or viability compared to that of diseased cells treated with lapatinib alone, or a combination of lapatinib and the psoralen, or a combination of lapatinib and the initiation radiation energy, wherein the treatment reduces tumor cell growth and/or viability in lapatinib resistant tumor cells; or: a psoralen, and neratinib for use in the treatment of a cell proliferation disorder or disease, said treatment comprising administering said psoralen and neratinib to a subject in need thereof and applying initiation radiation energy from an energy source; wherein the treatment reduces diseased cell growth and/or viability compared to that of diseased cells treated with neratinib alone, or a combination of neratinib and the psoralen, or a combination of neratinib and the radiation energy, wherein the diseased cells are ErbB2+ breast cancer cells. a psoralen, and neratinib for use in the treatment of a cell proliferation disorder or disease, said treatment comprising administering said psoralen and neratinib to a subject in need thereof and applying initiation radiation energy from an energy source; wherein the treatment reduces diseased cell growth and/or viability compared to that of diseased cells treated with neratinib alone, or a combination of neratinib and the psoralen, or a combination of neratinib and the radiation energy, wherein the diseased cells are ErbB2+ breast cancer cells.
An illumination device comprising: a light source that emits light having a first wavelength range along a first beam path; a wavelength converting element in the first beam path, the wavelength converting element being physically separated from the light source, the wavelength converting element converting the light having a first wavelength range into light having a second wavelength range along a second beam path; and a color separation element disposed between the light source and the wavelength converting element, the color separation element being configured to prevent substantially all of the light having the second wavelength range from being incident on the light source, characterized in that the wavelength converting element comprises a rotatable element 2), the rotatable element having at least a first section being covered with a first phosphor that converts the light having a first wavelength range to the light having the second wavelength range and a second section being covered with a second phosphor that converts the light having a first wavelength range to the light having a third wavelength range, wherein the color separation element is configured to further prevent substantially all of the light having the third wavelength range from being incident on the light source. a light source that emits light having a first wavelength range along a first beam path; a wavelength converting element in the first beam path, the wavelength converting element being physically separated from the light source, the wavelength converting element converting the light having a first wavelength range into light having a second wavelength range along a second beam path; and a color separation element disposed between the light source and the wavelength converting element, the color separation element being configured to prevent substantially all of the light having the second wavelength range from being incident on the light source, characterized in that the wavelength converting element comprises a rotatable element 2), the rotatable element having at least a first section being covered with a first phosphor that converts the light having a first wavelength range to the light having the second wavelength range and a second section being covered with a second phosphor that converts the light having a first wavelength range to the light having a third wavelength range, wherein the color separation element is configured to further prevent substantially all of the light having the third wavelength range from being incident on the light source.
An armor piece comprising: a tested material ; a plurality of electrical contacts distributed about and electrically connected to the tested material; characterized in that it further comprises a non-volatile memory (NVM) device attached to the tested material so that a major surface of the NVM device is perpendicular to a major surface of the tested material, wherein the NVM device is hardened against exposure to x-ray radiation; and wherein the NVM device is configured to provide at least one technique to reduce an effect of errors selected from the group consisting of data redundancy and error-correcting code. a tested material ; a plurality of electrical contacts distributed about and electrically connected to the tested material; characterized in that it further comprises a non-volatile memory (NVM) device attached to the tested material so that a major surface of the NVM device is perpendicular to a major surface of the tested material, wherein the NVM device is hardened against exposure to x-ray radiation; and wherein the NVM device is configured to provide at least one technique to reduce an effect of errors selected from the group consisting of data redundancy and error-correcting code.
Hose arrangement comprising a hose which has at least one bending section and at least one push-on section , and at least one connecting element onto which the push-on section is pushed in the position of use, wherein the at least one bending section is formed with corrugations , wherein the hose arrangement has a sheathing around the hose located beneath it, wherein the sheathing is a reinforcing fabric or reinforcing mesh, characterized in that an internal diameter of a cross-section of the at least one bending section is not greater than an internal diameter of a cross-section of the at least one connecting element , wherein the connecting element has a stop up to which the hose is pushed onto the connecting element in the position of use, and wherein the at least one bending section has a stop which is acted upon by the connecting element in the position of use.
A driver circuit for driving a light circuit comprising at least one light emitting diode, the driver circuit comprising a converter for converting an input signal into an output signal comprising a pulse per cycle for driving the light circuit , the converter comprising an adapter , characterized in that the driver circuit comprises a storage medium storing a measured amplitude value and a nominal amplitude value of the input signal or a measured amplitude value signal and a nominal amplitude value of the output signal, wherein the adapter is arranged for increasing the width of the pulse in case the measured amplitude value is smaller than the nominal amplitude value, and decreasing the width of the pulse in case the measured amplitude value is larger than the nominal amplitude value.