mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a cold worked and solution-annealed object in sea water applications comprising a duplex stainless steel consisting of the composition in weight% (wt %): C less than or equal to 0.03; Si less than or equal to 0.5; Mn less than or equal to 1.0; Ni 6.0 to 7.0; Cr 23.0 to 24.0; Mo 2.5 to 4.5; N 0.1 to 0.2; P less than or equal to 0.03; S less than or equal to 0.03; Cu less than or equal to 0.3; Al less than or equal to 0.10; Optionally Ti, Ca, Ce and B in an amount of max 0.5 wt% in total; the balance being Fe and inevitable impurities; wherein the duplex stainless steel fulfills the equation of Cr+50N ≤34; and wherein the duplex stainless steel has a ferrite phase content in the range of from 40% to 60 % by volume measured according to ASTM E562 and an austenite phase content in the range of 40 to 60 % by volume; in sea water applications; and wherein the austenite spacing of the duplex stainless steel is in the range of from 5-35 μm measured according to DNV-RP-F112; and wherein the PRE= Cr+3.3Mo+16N of the duplex stainless steel is at least 31; and wherein the proof strength (R p0.2 ) of the duplex stainless steel is in the range of from 450-700 MPa; and wherein the elongation (A) of the duplex stainless steel is in the range of from 15-45% the balance being Fe and inevitable impurities; wherein the duplex stainless steel fulfills the equation of Cr+50N ≤34; and wherein the duplex stainless steel has a ferrite phase content in the range of from 40% to 60 % by volume measured according to ASTM E562 and an austenite phase content in the range of 40 to 60 % by volume; in sea water applications; and wherein the austenite spacing of the duplex stainless steel is in the range of from 5-35 μm measured according to DNV-RP-F112; and wherein the PRE= Cr+3.3Mo+16N of the duplex stainless steel is at least 31; and wherein the proof strength (R p0.2 ) of the duplex stainless steel is in the range of from 450-700 MPa; and wherein the elongation (A) of the duplex stainless steel is in the range of from 15-45%
Rotor blade for an aircraft gas turbine, comprising a blade root element and a stream deflection portion which adjoins the blade root element in a radial direction (RR), respective centers of gravity of blade cross-sectional areas of the stream deflection portion lying on a common thread axis , the thread axis being inclined, in the attached state of the rotor blade on the gas turbine relative to the radial direction (RR) in the gas flow direction, in the axial direction (AR) and/or in the circumferential direction of the gas turbine, and the rotor blade being suitable for use in a high-speed low-pressure turbine which is connected to a fan of the aircraft gas turbine by means of a reduction gear, characterized in that the thread axis , starting from a first center of gravity of a first blade cross-sectional area adjoining the blade root element , extending within a cone , the cone tip of which lies in the first center of gravity and the cone height (KH) of which extends orthogonally to the plane of the blade cross-sectional areas , the cone height (KH), in the attached state of the rotor blade on the aircraft gas turbine, extending in the radial direction (RR) of the aircraft gas turbine, which radial direction (RR) extends through the first center of gravity , the opening angle (β) of the cone being greaterthan or equal to 0.5° and smaller than or equal to 2°, and the thread axis , starting from the first center of gravity of a first blade cross-sectional area adjoining the blade root element , extending within a lateral surface of the cone . a blade root element and a stream deflection portion which adjoins the blade root element in a radial direction (RR), respective centers of gravity of blade cross-sectional areas of the stream deflection portion lying on a common thread axis , the thread axis being inclined, in the attached state of the rotor blade on the gas turbine relative to the radial direction (RR) in the gas flow direction, in the axial direction (AR) and/or in the circumferential direction of the gas turbine, and the rotor blade being suitable for use in a high-speed low-pressure turbine which is connected to a fan of the aircraft gas turbine by means of a reduction gear, characterized in that the thread axis , starting from a first center of gravity of a first blade cross-sectional area adjoining the blade root element , extending within a cone , the cone tip of which lies in the first center of gravity and the cone height (KH) of which extends orthogonally to the plane of the blade cross-sectional areas , the cone height (KH), in the attached state of the rotor blade on the aircraft gas turbine, extending in the radial direction (RR) of the aircraft gas turbine, which radial direction (RR) extends through the first center of gravity , the opening angle (β) of the cone being greaterthan or equal to 0.5° and smaller than or equal to 2°, and the thread axis , starting from the first center of gravity of a first blade cross-sectional area adjoining the blade root element , extending within a lateral surface of the cone .
An apparatus comprising at least one processing core and at least one memory including computer program code, the at least one memory and the computer program code being configured to, with the at least one processing core, cause the apparatus at least to: receive, from a first user, a ciphertext, a first hash value and a first encrypted encryption key, the ciphertext being obtained by encrypting a plaintext by the first encryption key, and the first hash value being the hash of the plaintext; store the ciphertext, the first encryption key and the first hash value; receive, from a second user, a second hash value and a second ciphertext, the second ciphertext being obtained by encrypting the plaintext by a second encryption key, and the second hash value being the hash of the plaintext; responsive to a determination the first hash value is the same as the second hash value, obtain a re-encryption key generated using a proxy re-encryption key generation algorithm; apply the re-encryption key to the first encrypted encryption key to obtain a re-encrypted encryption key, the re-encrypted encryption key being decryptable with a secret key of the second user, and discard the second ciphertext, and provide the re-encrypted encryption key to the second user. receive, from a first user, a ciphertext, a first hash value and a first encrypted encryption key, the ciphertext being obtained by encrypting a plaintext by the first encryption key, and the first hash value being the hash of the plaintext; store the ciphertext, the first encryption key and the first hash value; receive, from a second user, a second hash value and a second ciphertext, the second ciphertext being obtained by encrypting the plaintext by a second encryption key, and the second hash value being the hash of the plaintext; responsive to a determination the first hash value is the same as the second hash value, obtain a re-encryption key generated using a proxy re-encryption key generation algorithm; apply the re-encryption key to the first encrypted encryption key to obtain a re-encrypted encryption key, the re-encrypted encryption key being decryptable with a secret key of the second user, and discard the second ciphertext, and provide the re-encrypted encryption key to the second user.
A method for preparing ethylene in a propylene preparation process using a propane dehydrogenation process, the method comprising the steps of: passing a reactant stream containing methane, ethane, and ethylene, which are by-products generated in a de-ethanizer in a propane dehydrogenation process, through a demethanizer , thereby preferentially separating the methane; separating the ethane from the ethylene by passing the reactant stream, from which the methane has been separated, through an ethane/ethylene splitter ; converting the ethane to ethylene by additionally allowing the separated ethane to react in an ethane reactor ; passing the reactant stream, which has passed through the ethane reactor , through a quenching tower , thereby cooling the reactant stream; neutralizing the cooled reactant stream by passing it through a scrubber ; and introducing the neutralized reactant stream in front of a compressor and recycling it to the dehydrogenation process; wherein the ethylene is recovered in the step of separating the ethane from the ethylene and the step of converting the ethane to the ethylene.
A polymeric conjugate represented by the formula: Wherein: T1 is a first agent that down-regulates MEK and/or BRAF, and is either selumetinib or a structural analog thereof, wherein selumetinib and the structural analog thereof exhibit substantially the same biological activity; T2 is a second agent that down-regulates MEK and/or BRAF, and is either dabrafenib or a structural analog thereof, wherein dabrafenib and the structural analog thereof exhibit substantially the same biological activity; L is a targeting moiety which exhibits high affinity to polypeptides that are expressed on the surface of tumor cells or in the microenvironment of tumor cells; y ranges from 50 to 99.9 mol percent; x ranges from 0.1 to 50 mol percent; z ranges from 0.1 to 20 mol percent; and n ranges from 0 to 10 mol percent, wherein said first agent and said second agent act in synergy in downregulation of proliferation of melanoma cells. T1 is a first agent that down-regulates MEK and/or BRAF, and is either selumetinib or a structural analog thereof, wherein selumetinib and the structural analog thereof exhibit substantially the same biological activity; T2 is a second agent that down-regulates MEK and/or BRAF, and is either dabrafenib or a structural analog thereof, wherein dabrafenib and the structural analog thereof exhibit substantially the same biological activity; L is a targeting moiety which exhibits high affinity to polypeptides that are expressed on the surface of tumor cells or in the microenvironment of tumor cells; y ranges from 50 to 99.9 mol percent; x ranges from 0.1 to 50 mol percent; z ranges from 0.1 to 20 mol percent; and n ranges from 0 to 10 mol percent, wherein said first agent and said second agent act in synergy in downregulation of proliferation of melanoma cells.
A method of producing a temperature model of a surface of an object , the temperature model comprising a set of surface points, each surface point being indicative of the local temperature of the surface, the method being characterised by - using ultrasonic transducers for producing and receiving substantially non-dispersive ultrasonic waves, - iteratively adjusting the local temperatures of the surface points in the temperature model by using any discrepancies between measured travel times of the substantially non-dispersive ultrasonic waves over the surface and model-based predictions of said travel times, and - the temperature model representing local temperatures of the surface . - using ultrasonic transducers for producing and receiving substantially non-dispersive ultrasonic waves, - iteratively adjusting the local temperatures of the surface points in the temperature model by using any discrepancies between measured travel times of the substantially non-dispersive ultrasonic waves over the surface and model-based predictions of said travel times, and - the temperature model representing local temperatures of the surface .
Method for producing a micro system, with the steps: - Providing a substrate made of aluminium oxide; - Producing a thin layer on the substrate by depositing lead zirconium titanate on the substrate with a thermal deposition process in such a way that the lead zirconium titanate in the thin layer is self-polarised and is present predominantly in the rhombohedral phase, in which the zirconium content of the lead zirconium titanate in the thin layer is in the range of the morphotropic phase boundary, in which the substrate has a layer of platinum on its surface , onto which the lead zirconium titanate is deposited, in which the temperature of the substrate is greater than 500° C, in which the lead zirconium titanate has a pyroelectric coefficient greater than 1.3*10 -4 C/Km 2 , in which the surface of the substrate , to which the thin layer is applied, is polished; - Cooling the substrate with the thin layer . - Providing a substrate made of aluminium oxide; - Producing a thin layer on the substrate by depositing lead zirconium titanate on the substrate with a thermal deposition process in such a way that the lead zirconium titanate in the thin layer is self-polarised and is present predominantly in the rhombohedral phase, in which the zirconium content of the lead zirconium titanate in the thin layer is in the range of the morphotropic phase boundary, in which the substrate has a layer of platinum on its surface , onto which the lead zirconium titanate is deposited, in which the temperature of the substrate is greater than 500° C, in which the lead zirconium titanate has a pyroelectric coefficient greater than 1.3*10 -4 C/Km 2 , in which the surface of the substrate , to which the thin layer is applied, is polished; - Cooling the substrate with the thin layer .
A method for isolating analytes that may be present in fluid samples in an automated system , the method comprising the automated steps of: a) loading samples on the automated system with identifiers, or identifying loaded samples according to sample type and analytical test to be performed, wherein said samples are loaded in a linear array; b) transferring instructions from a control unit to a first and a second pipetting device comprising allocation of individual samples in said linear array to a two-dimensional nxm arrangement of individual tests in a processing plate ; c) transferring said fluid samples from at least two sample vessels to a at least two vessels of said processing plate with the first pipetting device comprising at least two pipetting units in linear arrangement, wherein said pipetting units are coupled to pipette tips ; d) combining together a solid support material and said fluid sample in a well of said processing plate for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; e) isolating the solid support material from other material present in the fluid sample in a separation station; and f) purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer, characterized in that said solid support material and said wash buffer are mixed by aspirating and dispensing with a second pipetting device , said second pipetting device comprising pipetting units in a two-dimensional nxm arrangement for coupling to pipette tips ; wherein said pipette tips used in step c) are re-used in step f). a) loading samples on the automated system with identifiers, or identifying loaded samples according to sample type and analytical test to be performed, wherein said samples are loaded in a linear array; b) transferring instructions from a control unit to a first and a second pipetting device comprising allocation of individual samples in said linear array to a two-dimensional nxm arrangement of individual tests in a processing plate ; c) transferring said fluid samples from at least two sample vessels to a at least two vessels of said processing plate with the first pipetting device comprising at least two pipetting units in linear arrangement, wherein said pipetting units are coupled to pipette tips ; d) combining together a solid support material and said fluid sample in a well of said processing plate for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; e) isolating the solid support material from other material present in the fluid sample in a separation station; and f) purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer,
A genetically recombinant Saccharomyces cerevisiae useful for degrading and utilizing kitchen wastes, wherein the genetically recombinant Saccharomyces cerevisiae was constructed by introducing genes encoding α-amylase (AMY), glucoamylase (GA) and acid protease (AP) into Saccharomyces cerevisiae through a saccharomyces cerevisiae expression vector and achieving correct expression and secretion, and wherein the genes encoding AMY, GA and AP do not have restriction sites for Nhe I and Xba I .
A working machine comprising: a lower traveling body ; a working machine main body mounted on the lower traveling body ; and a machine room cover and a bonnet mounted on the working machine main body , the machine room cover having an opening portion formed in the upper surface thereof, the bonnet projecting upward from the upper surface of the machine room cover , the bonnet comprising a frame-like raising member ; and a dome-like hood member that covers an opening in the upper part of the raising member , wherein the lower part of the raising member is attached to the machine room cover so as to surround the opening portion , and the hood member is attached to the raising member so as to be able to be rotationally opened and closed, characterised in that the raising member is attached to the machine room cover so as to be able to be rotationally opened and closed, and the hood member has the same outer dimensions as the raising member , and is placed on a top of the raising member . a lower traveling body ; a working machine main body mounted on the lower traveling body ; and a machine room cover and a bonnet mounted on the working machine main body , the machine room cover having an opening portion formed in the upper surface thereof, the bonnet projecting upward from the upper surface of the machine room cover , the bonnet comprising a frame-like raising member ; and a dome-like hood member that covers an opening in the upper part of the raising member , wherein the lower part of the raising member is attached to the machine room cover so as to surround the opening portion , and the hood member is attached to the raising member so as to be able to be rotationally opened and closed, characterised in that the raising member is attached to the machine room cover so as to be able to be rotationally opened and closed, and the hood member has the same outer dimensions as the raising member , and is placed on a top of the raising member .
An image sensor semiconductor package , comprising: a printed circuit board, PCB , comprising a first surface and a second surface opposite the first surface; an interposer comprising a first surface and a second surface opposite the first surface of the interposer, the interposer comprising a recess in its second surface and comprising one or more electrical vias passing through the interposer from the first surface of the interposer to the second surface of the interposer; a complementary metal-oxide semiconductor, CMOS, image sensor, CIS, die comprising a first surface comprising a photosensitive region and a second surface opposite the first surface of the CIS die, the second surface of the CIS die directly being coupled with the first surface of the interposer and the second surface of the interposer being coupled to the first surface of the PCB; an image signal processor, ISP , arranged within the recess of the interposer; one or more electrical couplers electrically coupling the CIS die with the PCB through the one or more electrical vias of the interposer; and a plurality of electrical contacts being comprised at the second surface of the PCB and being electrically coupled with the CIS die and with the ISP, characterized in that the ISP is arranged such that it is embedded within the recess. a printed circuit board, PCB , comprising a first surface and a second surface opposite the first surface; an interposer comprising a first surface and a second surface opposite the first surface of the interposer, the interposer comprising a recess in its second surface and comprising one or more electrical vias passing through the interposer from the first surface of the interposer to the second surface of the interposer; a complementary metal-oxide semiconductor, CMOS, image sensor, CIS, die comprising a first surface comprising a photosensitive region and a second surface opposite the first surface of the CIS die, the second surface of the CIS die directly being coupled with the first surface of the interposer and the second surface of the interposer being coupled to the first surface of the PCB; an image signal processor, ISP , arranged within the recess of the interposer; one or more electrical couplers electrically coupling the CIS die with the PCB through the one or more electrical vias of the interposer; and a plurality of electrical contacts being comprised at the second surface of the PCB and being electrically coupled with the CIS die and with the ISP, characterized in that the ISP is arranged such that it is embedded within the recess.
A fault detection method, wherein the method comprises: obtaining , by an optical transport network, OTN, device, a first OTN frame, wherein the first OTN frame comprises at least two payload areas, and each of the at least two payload areas comprises payload check information and payload data; and performing (S1202) fault detection according to the payload check information, wherein the payload check information is used to check payload data of a payload area in which the payload check information is located, wherein the payload area of the first OTN frame is divided into multiple to-be-checked areas for a separate fault detection. obtaining , by an optical transport network, OTN, device, a first OTN frame, wherein the first OTN frame comprises at least two payload areas, and each of the at least two payload areas comprises payload check information and payload data; and performing (S1202) fault detection according to the payload check information, wherein the payload check information is used to check payload data of a payload area in which the payload check information is located, wherein the payload area of the first OTN frame is divided into multiple to-be-checked areas for a separate fault detection.