mhurhangee/ep-ind-claims huggingface dataset:
A conformationally stabilized ubiquitin protein comprising one or more amino acid substitutions relative to a wild-type ubiquitin protein, wherein said protein comprises one or more amino acid substitutions at a position selected from the group consisting of A7, A8, A13, A34, A36, A69, and A71, wherein the position is relative to A1-A76 of SEQ ID NO:1, wherein said protein comprises (a) substitution A7 or a substitution A8; and (b) substitution A69.
A method for making solar modules, comprising the steps of: - scribing a solar cell wafer to form a plurality of scribe lines in a solar cell wafer; - applying an electrically conductive adhesive bonding material to portions of a top or bottom surface of the solar cell wafer along the scribe lines; and - cleaving, after the applying the electrically conductive adhesive bonding material to the solar cell wafer, the solar cell wafer along the scribe lines to provide a plurality of physically separated solar cell strips; characterized in that the step of separating comprises the steps of: - advancing the solar cell wafer along a curved upper surface of a vacuum manifold by means of a perforated belt; and - applying, by the vacuum manifold, a vacuum to a bottom surface of the solar cell wafer through perforations in the perforated belt to flex the solar cell wafer against the curved portion of the surface of the vacuum manifold and thereby sequentially cleave the solar cell along a plurality of scribe lines in the solar cell wafer. - scribing a solar cell wafer to form a plurality of scribe lines in a solar cell wafer; - applying an electrically conductive adhesive bonding material to portions of a top or bottom surface of the solar cell wafer along the scribe lines; and - cleaving, after the applying the electrically conductive adhesive bonding material to the solar cell wafer, the solar cell wafer along the scribe lines to provide a plurality of physically separated solar cell strips; - advancing the solar cell wafer along a curved upper surface of a vacuum manifold by means of a perforated belt; and - applying, by the vacuum manifold, a vacuum to a bottom surface of the solar cell wafer through perforations in the perforated belt to flex the solar cell wafer against the curved portion of the surface of the vacuum manifold and thereby sequentially cleave the solar cell along a plurality of scribe lines in the solar cell wafer.
A method implemented by one or more processors, the method comprising: receiving audio data in the form of a verbal command corresponding to a request to create an image shortcut setting; receiving image data from a real-time image feed generated by a camera of a computing device; identifying, from the audio data, one or more computer actions to be performed; identifying, from the image data, an object identifier corresponding to an object at which the camera of the computing device is directed, wherein identifying the object identifier includes processing the image data using one or more image processing techniques; generating the image shortcut setting based on the request and the object identifier, wherein the image shortcut setting is configured to cause the one or more computer actions to be performed in response to identifying the object identifier from subsequent image data from a subsequent real-time image feed from the camera; and causing, according to the image shortcut setting, the one or more computer actions to be performed in response to identifying the object identifier from the subsequent image data. receiving audio data in the form of a verbal command corresponding to a request to create an image shortcut setting; receiving image data from a real-time image feed generated by a camera of a computing device; identifying, from the audio data, one or more computer actions to be performed; identifying, from the image data, an object identifier corresponding to an object at which the camera of the computing device is directed, wherein identifying the object identifier includes processing the image data using one or more image processing techniques; generating the image shortcut setting based on the request and the object identifier, wherein the image shortcut setting is configured to cause the one or more computer actions to be performed in response to identifying the object identifier from subsequent image data from a subsequent real-time image feed from the camera; and causing, according to the image shortcut setting, the one or more computer actions to be performed in response to identifying the object identifier from the subsequent image data.
A method for aiding in the diagnosis of irritable bowel syndrome in a subject, said method comprising: measuring the level of an array of at least two bacterial antigen antibody markers in a biological sample taken from the subject, wherein at least one marker of the array is antibodies against E. coli FliC; applying a statistical analysis to the measured level of the array of bacterial antigen antibody markers to generate a bacterial antigen antibody marker profile; and comparing said bacterial antigen antibody marker profile to a diagnostic model to determine whether the individual has an increased likelihood of having IBS compared to being a healthy control. measuring the level of an array of at least two bacterial antigen antibody markers in a biological sample taken from the subject, wherein at least one marker of the array is antibodies against E. coli FliC; applying a statistical analysis to the measured level of the array of bacterial antigen antibody markers to generate a bacterial antigen antibody marker profile; and comparing said bacterial antigen antibody marker profile to a diagnostic model to determine whether the individual has an increased likelihood of having IBS compared to being a healthy control.
A container ship, comprising: an engine room disposed under a stern main deck to accommodate a propulsion engine fueled by LNG; a cargo hold (CHn) that is disposed under the stern main deck and adjacent to the engine room; an LNG storage tank disposed in the cargo hold (CHn) adjacent to the engine room to store LNG; a fuel supply unit that is disposed in the cargo hold (CHn) and directly above the LNG storage tank, wherein the fuel supply unit is provided with a vaporizer for regasifying LNG from the LNG storage tank and supplying regasified gas to the propulsion engine; and a void space defined between the LNG storage tank and the fuel supply unit in the cargo hold to isolate the LNG storage tank from the fuel supply unit; a cargo loading deck for loading containers, that is disposed on the main deck and above the fuel supply unit; an accommodation space that is disposed on the main deck under which the engine room is disposed, a double bulkhead disposed such that the cargo hold (CHn) adjacent to the engine room is divided by the double bulkhead into a space for placing containers, and a space for placing the LNG storage tank, the void space and the fuel supply unit as the remaining space excluding the space for placing containers; and a gas detector for gas detecting leakage of LNG, the double bulkhead being provided with said gas detector. an engine room disposed under a stern main deck to accommodate a propulsion engine fueled by LNG; a cargo hold (CHn) that is disposed under the stern main deck and adjacent to the engine room; an LNG storage tank disposed in the cargo hold (CHn) adjacent to the engine room to store LNG; a fuel supply unit that is disposed in the cargo hold (CHn) and directly above the LNG storage tank, wherein the fuel supply unit is provided with a vaporizer for regasifying LNG from the LNG storage tank and supplying regasified gas to the propulsion engine; and a void space defined between the LNG storage tank and the fuel supply unit in the cargo hold to isolate the LNG storage tank from the fuel supply unit; a cargo loading deck for loading containers, that is disposed on the main deck and above the fuel supply unit; an accommodation space that is disposed on the main deck under which the engine room is disposed, a double bulkhead disposed such that the cargo hold (CHn) adjacent to the engine room is divided by the double bulkhead into a space for placing containers, and a space for placing the LNG storage tank, the void space and the fuel supply unit as the remaining space excluding the space for placing containers; and a gas detector for gas detecting leakage of LNG, the double bulkhead being provided with said gas detector.
A method of determining a use for a plurality of gas turbine engine components (100; 120A, 120B) comprising the steps of: measuring at least one property of said components (100; 120A, 120B); comparing the at least one property of each component (100; 120A, 120B) to a known specification; and classifying each component (100; 120A, 120B) into one of at least first and second categories, wherein the at least one property of components in the first category is closer to said known specification than the at least one property of components in the second category, and recommending a suggested future use for the first category on a first aircraft expected to operate in more challenging flight conditions and for the second category on a second aircraft expected to operate in less challenging flight conditions, wherein the recommended future use includes a suggestion to utilize components (120A, 120B) of said first and second categories on particular type flights (A, B, C). measuring at least one property of said components (100; 120A, 120B); comparing the at least one property of each component (100; 120A, 120B) to a known specification; and classifying each component (100; 120A, 120B) into one of at least first and second categories, wherein the at least one property of components in the first category is closer to said known specification than the at least one property of components in the second category, and recommending a suggested future use for the first category on a first aircraft expected to operate in more challenging flight conditions and for the second category on a second aircraft expected to operate in less challenging flight conditions, wherein the recommended future use includes a suggestion to utilize components (120A, 120B) of said first and second categories on particular type flights (A, B, C).
A concentrate for dilution comprising a S1P receptor modulator or agonist or a pharmaceutically acceptable salt thereof, and 65 to 99% by weight of propylene glycol, based on the total weight of the composition.
A sample sectioning device (100; 200) comprising: a cutting mechanism (112; 212) that is operable to cut sections from a sample; a sample holder (107; 207) that is operable to hold the sample; a drive system (102; 202) coupled with the sample holder (107; 207) to drive movement of the sample holder (107; 207); and a rotating member (224, 228) coupled to the drive system (102; 202) to drive vertical movement of the drive system (102; 202), wherein the rotating member (224, 228) comprises a rotating arm rotatably attached at a first end to the drive system (102; 202) and fixedly attached at a second end to a vertically oriented rotating disk member, and wherein the rotating arm is oriented substantially parallel to the rotating disk member, the sample sectioning device being characterised in that it comprises a surface orientation sensor (114; 214), and in that when the rotating arm is in a first substantially vertical position, corresponding to a 0 degree angle of rotation, the sample holder (107; 207) is aligned with the cutting mechanism (112; 212), and in that when the rotating arm is in a second substantially vertical position, corresponding to a 180 degree angle of rotation, the sample holder is aligned with the surface orientation sensor (114; 214), and wherein in operation, a slicing movement of the sample holder (107; 207) is caused by rotating the rotating disk member and the rotating arm alternately forward and backward within an angle of rotation limited to between 0 degrees and 90 degrees. a cutting mechanism (112; 212) that is operable to cut sections from a sample; a sample holder (107; 207) that is operable to hold the sample; a drive system (102; 202) coupled with the sample holder (107; 207) to drive movement of the sample holder (107; 207); and a rotating member (224, 228) coupled to the drive system (102; 202) to drive vertical movement of the drive system (102; 202), wherein the rotating member (224, 228) comprises a rotating arm rotatably attached at a first end to the drive system (102; 202) and fixedly attached at a second end to a vertically oriented rotating disk member, and wherein the rotating arm is oriented substantially parallel to the rotating disk member, the sample sectioning device being characterised in that it comprises a surface orientation sensor (114; 214), and in that when the rotating arm is in a first substantially vertical position, corresponding to a 0 degree angle of rotation, the sample holder (107; 207) is aligned with the cutting mechanism (112; 212), and in that when the rotating arm is in a second substantially vertical position, corresponding to a 180 degree angle of rotation, the sample holder is aligned with the surface orientation sensor (114; 214), and wherein in operation, a slicing movement of the sample holder (107; 207) is caused by rotating the rotating disk member and the rotating arm alternately forward and backward within an angle of rotation limited to between 0 degrees and 90 degrees.
A method of operating a resource allocation management device (106 or 600), the method comprising: receiving, from a first wireless base station (102 or 400), first user equipment, UE, information including at least one of timing advance or power headroom information for one or more UEs (110, 112, 114, 116, 118, or 500) in communication with said first wireless base station (102 or 400); estimating, based on the received first UE information, a first wireless base station coverage area; making a first resource allocation to the first wireless base station (102 or 400) based on the estimated first wireless base station coverage area, said first resource allocation including an allocation of at least one of a frequency bandwidth allocation or transmission power allocation to the first wireless base station (102 or 400); prior to estimating the first wireless base station coverage area, identifying the UE with the largest timing advance in communication with the first wireless base station (102 or 400); and determining if the UE in communication with the first wireless base station (102 or 400) having the largest timing advance also has the lowest power headroom of the UEs for which power headroom information is provided in said first UE information. receiving, from a first wireless base station (102 or 400), first user equipment, UE, information including at least one of timing advance or power headroom information for one or more UEs (110, 112, 114, 116, 118, or 500) in communication with said first wireless base station (102 or 400); estimating, based on the received first UE information, a first wireless base station coverage area; making a first resource allocation to the first wireless base station (102 or 400) based on the estimated first wireless base station coverage area, said first resource allocation including an allocation of at least one of a frequency bandwidth allocation or transmission power allocation to the first wireless base station (102 or 400); prior to estimating the first wireless base station coverage area, identifying the UE with the largest timing advance in communication with the first wireless base station (102 or 400); and determining if the UE in communication with the first wireless base station (102 or 400) having the largest timing advance also has the lowest power headroom of the UEs for which power headroom information is provided in said first UE information.
A method of identifying a patient as eligible for CD30-directed therapy, wherein the patient has ovarian serous carcinoma, melanoma or skin squamous cell carcinoma, triple negative breast cancer, undifferentiated pancreatic carcinoma or adenocarcinoma, small cell lung cancer, squamous cell lung cancer, endometrial carcinoma, anal squamous cell carcinoma, anaplastic thyroid carcinoma, thymic carcinoma, carcinoma of unknown primary origin, genitourinary squamous cell carcinoma, gynecologic carcinosarcoma, Leydig cell tumor or Sertoli cell tumor, comprising determining the expression level of CD30 in a sample taken from the patient and identifying the patient as eligible for CD30-directed therapy based on the expression of CD30 in the sample.
A photoelectric conversion element comprising a conductive layer, a photoelectric conversion layer, and a counter electrode, at least the photoelectric conversion layer being filled with an electrolyte, wherein, in the photoelectric conversion layer, at least one of a dye formed of a compound having no more than one thiocyanate group and a dye formed of a compound not having a thiocyanate group is adsorbed onto a porous semiconductor layer formed of a semiconductor material, and the electrolyte includes at least one of pyrazole and a pyrazole derivative.
Installation for supplying respiratory gas to a user, comprising: - a gas source for supplying an oxygen-containing respiratory gas, - a main gas delivery line fluidically connecting the gas source to a respiratory interface configured to administer the oxygen-containing respiratory gas to the user, during each inspiratory phase of said user, - a gas recovery line configured to recover and convey at least some of the CO 2 /O 2 gas mixture exhaled by the user and located in the respiratory interface, during each expiratory phase of the user, said gas recovery line fluidically connecting the respiratory interface to a gas purification system comprising adsorbers arranged in parallel and each containing at least one adsorbent, said gas recovery line supplying said gas purification system with said CO 2 /O 2 gas mixture exhaled by the user, and - a gas recycling line fluidically connecting the gas purification system to the main gas delivery line, characterized in that the gas source comprises an oxygen generation unit comprising: - at least one electrochemical separation module, - a first gas line for supplying said at least one electrochemical separation module with air, - gas heating means arranged on the first internal gas line, upstream of said at least one electrochemical separation module, and - a second gas line fluidically connecting said at least one electrochemical separation module to the gas purification system, for conveying a flow of waste gas to the gas purification system in order to regenerate said at least one adsorbent contained in at least one of said adsorbers. - a gas source for supplying an oxygen-containing respiratory gas, - a main gas delivery line fluidically connecting the gas source to a respiratory interface configured to administer the oxygen-containing respiratory gas to the user, during each inspiratory phase of said user, - a gas recovery line configured to recover and convey at least some of the CO 2 /O 2 gas mixture exhaled by the user and located in the respiratory interface, during each expiratory phase of the user, said gas recovery line fluidically connecting the respiratory interface to a gas purification system comprising adsorbers arranged in parallel and each containing at least one adsorbent, said gas recovery line supplying said gas purification system with said CO 2 /O 2 gas mixture exhaled by the user, and - a gas recycling line fluidically connecting the gas purification system to the main gas delivery line, - at least one electrochemical separation module, - a first gas line for supplying said at least one electrochemical separation module with air, - gas heating means arranged on the first internal gas line, upstream of said at least one electrochemical separation module, and - a second gas line fluidically connecting said at least one electrochemical separation module to the gas purification system, for conveying a flow of waste gas to the gas purification system in order to regenerate said at least one adsorbent contained in at least one of said adsorbers.
An apparatus for entrenching a flexible elongate member in the ground, the apparatus comprising: a downwardly extending blade having a forward facing edge for parting the ground, the apparatus thereby forming a trench in the ground as the apparatus is moved forwards along the ground in use; an aggregate dispenser having an opening located rearwardly of the blade, the apparatus thereby filling the trench with aggregate as the apparatus is moved forwards along the ground in use; a guide for guiding a flexible elongate member through the apparatus such that the member exits the apparatus rearwardly at or near a lower end of the blade, the apparatus thereby embedding the member in the aggregate in the trench as the apparatus is moved forwards along the ground in use; and a roller for consolidating/compacting the aggregate in the trench as the apparatus is moved forwards along the ground in use; characterised in that the roller also serves as a wheel on which the apparatus can be moved forwards in use. a downwardly extending blade having a forward facing edge for parting the ground, the apparatus thereby forming a trench in the ground as the apparatus is moved forwards along the ground in use; an aggregate dispenser having an opening located rearwardly of the blade, the apparatus thereby filling the trench with aggregate as the apparatus is moved forwards along the ground in use; a guide for guiding a flexible elongate member through the apparatus such that the member exits the apparatus rearwardly at or near a lower end of the blade, the apparatus thereby embedding the member in the aggregate in the trench as the apparatus is moved forwards along the ground in use; and a roller for consolidating/compacting the aggregate in the trench as the apparatus is moved forwards along the ground in use; characterised in that the roller also serves as a wheel on which the apparatus can be moved forwards in use.