mhurhangee/patent-ind-claim-en huggingface dataset:
A method to identify the early stage of Parkinson's disease through the in vitro determination of the levels of the C-terminal peptide containing portion of the VGF protein present in plasma of a human subject, said method consisting in the following steps: 1) submitting the plasma of said subject to an ELISA assay which uses antibodies that specifically mark the VGF protein C-terminal peptide, said C-terminal peptide being represented by the amino acid sequence -I EHVL LRRP; 2) calculating the VGF protein levels by the spectrophotometric determination of the optical density of the samples obtained at the end of the ELISA immuno-enzymatic reaction of step 1), said spectrophotometric determination being calculated in absorbance at 495 nm. 1) submitting the plasma of said subject to an ELISA assay which uses antibodies that specifically mark the VGF protein C-terminal peptide, said C-terminal peptide being represented by the amino acid sequence -I EHVL LRRP; 2) calculating the VGF protein levels by the spectrophotometric determination of the optical density of the samples obtained at the end of the ELISA immuno-enzymatic reaction of step 1), said spectrophotometric determination being calculated in absorbance at 495 nm.
A rotor for a compressor, comprising: a hub ; and a plurality of airfoils having a root , a tip opposite the root and a span (S) that extends from 0% at the root to 100% at the tip, each of the plurality of airfoils coupled to the hub at the root and spaced apart from adjacent ones of the plurality of airfoils over the span by a throat dimension defined between the adjacent ones of the plurality of airfoils and being the minimum physical distance between the two airfoils at a spanwise location, the throat dimension has a maximum value at a spanwise location between 70% of the span and 80% of the span of the adjacent ones of the plurality of airfoils, at 10% of the span of the adjacent ones of the plurality of airfoils above or below the spanwise location of the maximum value, the throat dimension is less than 97% of the maximum value, the throat dimension decreases from the maximum value to the tip, and the throat dimension at 10% of the span of the adjacent ones of the plurality of airfoils is less than 60% of the maximum value a hub ; and a plurality of airfoils having a root , a tip opposite the root and a span (S) that extends from 0% at the root to 100% at the tip, each of the plurality of airfoils coupled to the hub at the root and spaced apart from adjacent ones of the plurality of airfoils over the span by a throat dimension defined between the adjacent ones of the plurality of airfoils and being the minimum physical distance between the two airfoils at a spanwise location, the throat dimension has a maximum value at a spanwise location between 70% of the span and 80% of the span of the adjacent ones of the plurality of airfoils, at 10% of the span of the adjacent ones of the plurality of airfoils above or below the spanwise location of the maximum value, the throat dimension is less than 97% of the maximum value, the throat dimension decreases from the maximum value to the tip, and the throat dimension at 10% of the span of the adjacent ones of the plurality of airfoils is less than 60% of the maximum value
An electrical power generation system, comprising: a micro-turbine alternator, comprising: a combustor ; a first stage turbine configured to be driven by a combustor exhaust from the combustor; at least one compressor operably connected to the combustor to provide a compressed airflow to the combustor; a catalytic converter configured convert the combustor exhaust to a catalytic exhaust that comprises at least exothermic heat; a second stage turbine configured to be driven by the catalytic exhaust from the catalytic converter; one or more shafts connecting the first stage turbine and the second stage turbine to the at least one compressor such that rotation of the first stage turbine and the second stage turbine drives rotation of the at least one compressor; and characterized by an exhaust turbine reheat cycle configured to transfer heat from the combustor exhaust entering the first stage turbine to the combustor exhaust entering the catalytic converter. a combustor ; a first stage turbine configured to be driven by a combustor exhaust from the combustor; at least one compressor operably connected to the combustor to provide a compressed airflow to the combustor; a catalytic converter configured convert the combustor exhaust to a catalytic exhaust that comprises at least exothermic heat; a second stage turbine configured to be driven by the catalytic exhaust from the catalytic converter; one or more shafts connecting the first stage turbine and the second stage turbine to the at least one compressor such that rotation of the first stage turbine and the second stage turbine drives rotation of the at least one compressor; and characterized by an exhaust turbine reheat cycle configured to transfer heat from the combustor exhaust entering the first stage turbine to the combustor exhaust entering the catalytic converter.
Medium chain fatty acids or a composition comprising medium chain fatty acids for use in the prevention or treatment of valvular heart disease in a subject wherein the subject is a human and wherein, the valvular heart disease is selected from the group consisting of mitral valve insufficiency, aortic valve insufficiency, or tricuspid valve insufficiency, wherein said medium chain fatty acids and/or composition comprising medium chain fatty acids is administered simultaneously, sequentially or separately to a medicine intended to treat and/or prevent valvular heart disease in a subject, wherein the medium chain fatty acid refers to one or more compounds of formula (I), including mixtures of compounds of formula (I) wherein, R1 is a C5 to C11 branched or unbranched acyclic alkyl or acyclic alkenyl group, or in the form of monoacylglyerides, diacylglycerides or triacylglycerides thereof. and wherein, the valvular heart disease is selected from the group consisting of mitral valve insufficiency, aortic valve insufficiency, or tricuspid valve insufficiency, wherein said medium chain fatty acids and/or composition comprising medium chain fatty acids is administered simultaneously, sequentially or separately to a medicine intended to treat and/or prevent valvular heart disease in a subject, wherein the medium chain fatty acid refers to one or more compounds of formula (I), including mixtures of compounds of formula (I) wherein, R1 is a C5 to C11 branched or unbranched acyclic alkyl or acyclic alkenyl group, or in the form of monoacylglyerides, diacylglycerides or triacylglycerides thereof.
A multifunctional seedling culturing apparatus, comprising a fixed seedling culturing pedestal and a movable seedling culturing shelf cart , wherein the fixed seedling culturing pedestal comprises a frame , and a plurality of light sources are disposed on the frame ; and the movable seedling culturing shelf cart comprises a board shelf , at least two boards are disposed on the board shelf , a plurality of planting plates are disposed on the at least two boards , a movable apparatus is disposed on a bottom of the board shelf , and the at least two boards on the board shelf match a plurality of light source positions on the fixed seedling culturing pedestal , the frame includes a vertical support , a ventilating board and a plurality of lamp panels which is disposed on the ventilating board of the vertical support in a lateral outward-extending manner, characterized in that the frame further includes a top support , and the vertical support and/or the top support further include(s) a ventilating device, and the ventilating board further includes a plurality of air holes, and the ventilating device is configured to extract external air and to exhaust air flows from the air holes on the ventilating board to form a ventilating and exhaust system. the movable seedling culturing shelf cart comprises a board shelf , at least two boards are disposed on the board shelf , a plurality of planting plates are disposed on the at least two boards , a movable apparatus is disposed on a bottom of the board shelf , and the at least two boards on the board shelf match a plurality of light source positions on the fixed seedling culturing pedestal , the frame includes a vertical support , a ventilating board and a plurality of lamp panels which is disposed on the ventilating board of the vertical support in a lateral outward-extending manner, characterized in that the frame further includes a top support , and the vertical support and/or the top support further include(s) a ventilating device, and the ventilating board further includes a plurality of air holes, and the ventilating device is configured to extract external air and to exhaust air flows from the air holes on the ventilating board to form a ventilating and exhaust system.
Process of implementing a data-sharing relationship, wherein the data is an email, the process comprising: - generating, by a recipient's data sharing system, DSS, client, a public-encryption key, and a corresponding private-decryption key; - transmitting, by the recipient's DSS client, the public-encryption key to a sender DSS client; - providing the sender with a plurality of encryption keys of a plurality of contacts of the sender; - encrypting, by the sender DSS client, an email to be transmitted, wherein: • if the email is to be shared only with a contact of the sender, the sender encrypts the email with at least one of the provided plurality of encryption keys of the sender; and • if the email is to be sent to one or more users who are not contacts of the sender, the sender encrypts the email with the recipient's public encryption key; - sending, by the sender DSS client, the encrypted email to the recipient; - using, by the recipient DSS client, the corresponding private-decryption key to decrypt the encrypted email, thus revealing a copy of the original unencrypted email. - generating, by a recipient's data sharing system, DSS, client, a public-encryption key, and a corresponding private-decryption key; - transmitting, by the recipient's DSS client, the public-encryption key to a sender DSS client; - providing the sender with a plurality of encryption keys of a plurality of contacts of the sender; - encrypting, by the sender DSS client, an email to be transmitted, wherein: • if the email is to be shared only with a contact of the sender, the sender encrypts the email with at least one of the provided plurality of encryption keys of the sender; and • if the email is to be sent to one or more users who are not contacts of the sender, the sender encrypts the email with the recipient's public encryption key; • if the email is to be shared only with a contact of the sender, the sender encrypts the email with at least one of the provided plurality of encryption keys of the sender; and • if the email is to be sent to one or more users who are not contacts of the sender, the sender encrypts the email with the recipient's public encryption key; - sending, by the sender DSS client, the encrypted email to the recipient; - using, by the recipient DSS client, the corresponding private-decryption key to decrypt the encrypted email, thus revealing a copy of the original unencrypted email.
A network equipment comprising: a radio transceiver configured to communicate with at least one user equipment over a mobile telecommunications network; and a processor configured to: control the radio transceiver to receive at least one physical random access channel, PRACH, preamble on a first time-frequency resource; determine a time-frequency resource index; control the radio transceiver to transmit a first downlink, DL, grant on a second time-frequency resource, the first DL grant scheduling a random access response, RAR, corresponding to the received PRACH preamble on a third time-frequency resource, wherein the RAR comprises the time-frequency resource index; control the radio transceiver to receive a connection request message on a fourth time-frequency resource, wherein the fourth time-frequency resource is determined based on the RAR; and control the radio transceiver to transmit a second DL grant on a fifth time-frequency resource, the second DL grant scheduling a contention resolution message, wherein the fifth time-frequency resource is based on the time-frequency resource index. a radio transceiver configured to communicate with at least one user equipment over a mobile telecommunications network; and a processor configured to: control the radio transceiver to receive at least one physical random access channel, PRACH, preamble on a first time-frequency resource; determine a time-frequency resource index; control the radio transceiver to transmit a first downlink, DL, grant on a second time-frequency resource, the first DL grant scheduling a random access response, RAR, corresponding to the received PRACH preamble on a third time-frequency resource, wherein the RAR comprises the time-frequency resource index; control the radio transceiver to receive a connection request message on a fourth time-frequency resource, wherein the fourth time-frequency resource is determined based on the RAR; and control the radio transceiver to transmit a second DL grant on a fifth time-frequency resource, the second DL grant scheduling a contention resolution message, wherein the fifth time-frequency resource is based on the time-frequency resource index. control the radio transceiver to receive at least one physical random access channel, PRACH, preamble on a first time-frequency resource; determine a time-frequency resource index; control the radio transceiver to transmit a first downlink, DL, grant on a second time-frequency resource, the first DL grant scheduling a random access response, RAR, corresponding to the received PRACH preamble on a third time-frequency resource, wherein the RAR comprises the time-frequency resource index; control the radio transceiver to receive a connection request message on a fourth time-frequency resource, wherein the fourth time-frequency resource is determined based on the RAR; and control the radio transceiver to transmit a second DL grant on a fifth time-frequency resource, the second DL grant scheduling a contention resolution message, wherein the fifth time-frequency resource is based on the time-frequency resource index.
A method of manufacturing a deco glass panel , the method comprising: a pattern forming step of applying an adhesive onto a mother substrate of the deco glass panel in a prescribed pattern; a glass powder applying step of applying glass powder onto the surface of the mother substrate of the deco glass panel having the adhesive applied thereonto; an adhesive hardening step of hardening the adhesive applied onto the glass panel , by heating the deco glass panel in a state where the glass powder has been applied; a preheating step of heating the deco glass panel at a temperature lower than a melting point of the glass powder; a welding step of welding the deco glass panel at a temperature higher than a melting point of the glass powder, but lower than a melting point of the mother substrate of the deco glass panel ; a cooling step of cooling the deco glass panel ; and an attaching step of attaching a prescribed rear surface pattern on a rear surface of the deco glass panel , wherein the glass powder comprises, by weight, 11 to 20% SiO 2 , 30 to 35% ZnO, 15 to 20% B 2 O 3 , 10 to 18% Na 2 O, 1 to 5% Al 2 O 3 , 1 to 4% ZrO 2 , 1 to 4% CaO, 0.05 to 0.25% Fe 2 O 3 and 0.001 to 0.004% MnO. a pattern forming step of applying an adhesive onto a mother substrate of the deco glass panel in a prescribed pattern; a glass powder applying step of applying glass powder onto the surface of the mother substrate of the deco glass panel having the adhesive applied thereonto; an adhesive hardening step of hardening the adhesive applied onto the glass panel , by heating the deco glass panel in a state where the glass powder has been applied; a preheating step of heating the deco glass panel at a temperature lower than a melting point of the glass powder; a welding step of welding the deco glass panel at a temperature higher than a melting point of the glass powder, but lower than a melting point of the mother substrate of the deco glass panel ; a cooling step of cooling the deco glass panel ; and an attaching step of attaching a prescribed rear surface pattern on a rear surface of the deco glass panel , wherein the glass powder comprises, by weight, 11 to 20% SiO 2 , 30 to 35% ZnO, 15 to 20% B 2 O 3 , 10 to 18% Na 2 O, 1 to 5% Al 2 O 3 , 1 to 4% ZrO 2 , 1 to 4% CaO, 0.05 to 0.25% Fe 2 O 3 and 0.001 to 0.004% MnO.
A vehicle door assembly comprising: an upper frame ; an inner frame structure in mechanical communication with said upper frame and forming a combined upper frame and inner frame structure ; an outer body panel ; and a composite reinforcement component positioned between said outer body panel and a lower section of said combined upper and inner frame structure, wherein said composite reinforcement component is molded as a single piece and constituted by an upper portion that provides reinforcement to the upper frame part of the door assembly, by a side cross beam that is a lower portion of the composite reinforcement component, by a left side that increases the stiffness of the door assembly in a lock area and the stiffness of the side cross beam, and by a right side that increases the stiffness of the door assembly in an area of a set of hinges that secure the door assembly to a frame of the vehicle and the stiffness of a side cross beam, and wherein said composite reinforcement component is reinforced with continuous or chopped fibers and is formed by stamping or resin transfer molding (RTM), wherein the combined upper frame and inner frame structure and the composite reinforcement component have a "hat" section that extends at bond flange , and wherein the outer body panel is bonded or secured at said bond flange . an upper frame ; an inner frame structure in mechanical communication with said upper frame and forming a combined upper frame and inner frame structure ; an outer body panel ; and a composite reinforcement component positioned between said outer body panel and a lower section of said combined upper and inner frame structure, wherein said composite reinforcement component is molded as a single piece and constituted by an upper portion that provides reinforcement to the upper frame part of the door assembly, by a side cross beam that is a lower portion of the composite reinforcement component, by a left side that increases the stiffness of the door assembly in a lock area and the stiffness of the side cross beam, and by a right side that increases the stiffness of the door assembly in an area of a set of hinges that secure the door assembly to a frame of the vehicle and the stiffness of a side cross beam, and wherein said composite reinforcement component is reinforced with continuous or chopped fibers and is formed by stamping or resin transfer molding (RTM), wherein the combined upper frame and inner frame structure and the composite reinforcement component have a "hat" section that extends at bond flange , and wherein the outer body panel is bonded or secured at said bond flange .
An ultrasonic inspection method in which a pulse signal is output to an ultrasonic sensor to generate and transmit ultrasonic waves, the ultrasonic waves reflected or scattered by an object are received and converted into a waveform signal by the ultrasonic sensor, and the waveform signal is digitized to acquire waveform data , the ultrasonic inspection method comprising: acquiring a plurality of the waveform data ; executing modulation processing (S101); and executing demodulation processing (S102), characterised in that the plurality of waveform data are acquired in multiple inspections and under the same inspection conditions or acquired by duplication and, in the modulation processing, the plurality of waveform data are modulated by a phase modulation method in which the plurality of waveform data are each temporally shifted, multiplied by either a positive sign or a negative sign according to a preset code string, and are added up to generate composite waveform data (34; 34A; 34B), and in the demodulation processing (S102), the composite waveform data (34; 34A; 34B) is demodulated to generate compressed waveform data (36; 36A) by generating a matched filter (35; 35A; 35B) obtained by temporally inverting the composite waveform data (34; 34A; 34B) and performing a convolution integral on the composite waveform data (34; 34A; 34B) using the matched filter (35, 35A; 35B). acquiring a plurality of the waveform data ; executing modulation processing (S101); and executing demodulation processing (S102), characterised in that the plurality of waveform data are acquired in multiple inspections and under the same inspection conditions or acquired by duplication and, in the modulation processing, the plurality of waveform data are modulated by a phase modulation method in which the plurality of waveform data are each temporally shifted, multiplied by either a positive sign or a negative sign according to a preset code string, and are added up to generate composite waveform data (34; 34A; 34B), and in the demodulation processing (S102), the composite waveform data (34; 34A; 34B) is demodulated to generate compressed waveform data (36; 36A) by generating a matched filter (35; 35A; 35B) obtained by temporally inverting the composite waveform data (34; 34A; 34B) and performing a convolution integral on the composite waveform data (34; 34A; 34B) using the matched filter (35, 35A; 35B).
A compound having the structure of Formula (I): TM-Ln-AM (I), wherein TM is a targeting moiety comprising an antibody, or functional fragment thereof, that is capable of binding to a tumor antigen specifically or preferably in comparison to a non-tumor antigen, wherein the tumor antigen is ErbB1 (EGFR), AM is an activating moiety that is a human TLR7 and TLR8 ligand, Ln is a linker wherein L has the following formula: -T a -W w -Y y - wherein T is a stretcher unit, a is 0 or 1, each W is independently an amino acid unit, w is independently an integer of 2 to 12, Y is a spacer unit and y is 0, 1, or 2; and n is 1, or a pharmaceutically acceptable salt thereof, for use in the treatment of cancer.
A forming machine for making pasta filata cheese sticks, comprising - a motorized cylindrical drum with a horizontal axis, which has a diameter and a series of mutually parallel grooves having a profile that is elongated along the longitudinal dimension of the drum , - a body provided with a concave surface with a profile shaped like a cylindrical sector that has the same diameter as the drum and is pushed into abutment against the drum , said body having an elongated slit that leads onto said concave surface and is adapted to receive pasta filata under pressure, characterized in that said slit is extended obliquely with respect to said grooves and faces said grooves from one end thereof to an intermediate point that is proximate to their opposite ends, from which respective venting channels extend. - a motorized cylindrical drum with a horizontal axis, which has a diameter and a series of mutually parallel grooves having a profile that is elongated along the longitudinal dimension of the drum , - a body provided with a concave surface with a profile shaped like a cylindrical sector that has the same diameter as the drum and is pushed into abutment against the drum , said body having an elongated slit that leads onto said concave surface and is adapted to receive pasta filata under pressure,