mhurhangee/ep-ind-claims huggingface dataset:
A method of analyzing a heterogeneous tumor biopsy from a human subject, comprising: i. randomly partitioning cells from the biopsy into discrete locations, wherein the cells are sorted prior to partitioning according to the presence of one or more cell surface markers; ii. collecting individually partitioned cells from the discrete locations using an automated device; iii. performing transcriptome analysis on at least 50 genes of the individually partitioned cells, wherein transcriptome analysis is utilized to categorize isolated cells into groups which show similarities in their expression profile; and iv. using transcriptome data to identify one or more therapeutic targets for treatment of said heterogeneous tumor, wherein the expression profiles obtained are compared with a reference or control profile to make a diagnosis, prognosis, or analysis of drug effectiveness, wherein the one or more therapeutic targets are a DNA methyltransferase, a RNA methyltransferase, a methyltransferase-like enzyme, a histone lysine methyltransferase, a histone arginine methyltransferase, a histone demethylase, a protein kinase. i. randomly partitioning cells from the biopsy into discrete locations, wherein the cells are sorted prior to partitioning according to the presence of one or more cell surface markers; ii. collecting individually partitioned cells from the discrete locations using an automated device; iii. performing transcriptome analysis on at least 50 genes of the individually partitioned cells, wherein transcriptome analysis is utilized to categorize isolated cells into groups which show similarities in their expression profile; and iv. using transcriptome data to identify one or more therapeutic targets for treatment of said heterogeneous tumor, wherein the expression profiles obtained are compared with a reference or control profile to make a diagnosis, prognosis, or analysis of drug effectiveness, wherein the one or more therapeutic targets are a DNA methyltransferase, a RNA methyltransferase, a methyltransferase-like enzyme, a histone lysine methyltransferase, a histone arginine methyltransferase, a histone demethylase, a protein kinase.
A robotic system configured to interact with an anatomy held by a limb holder, the robotic system comprising: a force-applying device configured to apply a force to the anatomy held by the limb holder; wherein the robotic system is configured to: measure an extent to which the anatomy moves relative to the limb holder in response to the force applied to the anatomy by the force-applying device; and the robotic system further comprising: a manipulator; and a controller configured to: autonomously control the manipulator based on the measured extent. a force-applying device configured to apply a force to the anatomy held by the limb holder; wherein the robotic system is configured to: measure an extent to which the anatomy moves relative to the limb holder in response to the force applied to the anatomy by the force-applying device; and a manipulator; and a controller configured to: autonomously control the manipulator based on the measured extent.
Rotating electrical machine, notably for a motor vehicle, comprising: - an electrical control module of the rotating electrical machine, - a heat sink associated with the electrical control module, - a bearing arranged to support a rolling bearing supporting the rotation of a shaft of the rotating electrical machine, - an electrical insulator inserted axially between the bearing and the heat sink, said electrical insulator being arranged to electrically insulate the heat sink from the bearing, and - a cooling chamber arranged to allow the circulation of a coolant for cooling the heat sink, characterized in that the cooling chamber is delimited by an axial end face of the heat sink and an opposite face of the electrical insulator, thus also forming a seal for the cooling chamber. - an electrical control module of the rotating electrical machine, - a heat sink associated with the electrical control module, - a bearing arranged to support a rolling bearing supporting the rotation of a shaft of the rotating electrical machine, - an electrical insulator inserted axially between the bearing and the heat sink, said electrical insulator being arranged to electrically insulate the heat sink from the bearing, and - a cooling chamber arranged to allow the circulation of a coolant for cooling the heat sink, characterized in that the cooling chamber is delimited by an axial end face of the heat sink and an opposite face of the electrical insulator, thus also forming a seal for the cooling chamber.
Method for operating a converter circuit, with the converter circuit having n input phase connections (U1, V1, W1) and p output phase connections (U2, V2, W2), where n ≥ 2 and p ≥ 2, comprising (n·p) two-pole switching cells for switching at least one positive and at least one negative voltage between the poles, with each output phase connection (U2, V2, W2) being connected in series to each input phase connection (U1, V1, W1) in each case by means of a switching cell, and each switching cell having drivable bidirectional power semiconductor switches with a controlled unidirectional current guidance direction, and a capacitive energy storage means, in which method the power semiconductor switches of the switching cells are driven by means of a drive signal, wherein at least one inductance is connected into each series connection of the respective output phase connection (U2, V2, W2) with the associated switching cell and the respective input phase connection (U1, V1, W1), with a switching cell together with an inductance of this kind in each case forming a phase module, and, for each phase module, the drive signal is formed from a reference signal (V ref, U1) in respect of the voltage across the phase module and from a voltage signal (V L) across the inductance of the phase module, wherein the voltage signal (V L) across the inductance of the phase module is formed from an intermediate setpoint value (Δi U1) of the current (i U1) through the phase module, and wherein each switching cell has four drivable bidirectional power semiconductor switches with a controlled unidirectional current guidance direction, which power semiconductor switches are connected in the manner of a bridge circuit, and a capacitive energy storage means which is connected parallel to the bridge circuit of the power semiconductor switches, the phase module additionally has at least one further two-pole switching cell, which is connected into the series connection, for switching at least one positive and at least one negative voltage between the poles, characterized in that the intermediate setpoint value (Δi U1) of the current (i U1) through the phase module is formed from a sum (Usum1) of the voltages across the capacitive energy storage means of the switching cells of the phase module, from a sum voltage setpoint value (V ref, UC) and from the reference signal (V ref, U1) in respect of the voltage across the phase module in accordance with the formula Δi u1 =F·(V ref,UC -Usum1)·V ref,U1, where F is a predefinable controller function.
A method of Enhanced Oil Recovery from paleo or residual oil zones in a subterranean geological formation, the method comprising: a first injecting step of injecting a first composition comprising CO 2, the first composition being injected at its supercritical state, into the subterranean geological formation; a second injecting step of injecting a second composition comprising CO 2 and a hydrocarbon, the second composition being injected at its supercritical state, into the subterranean geological formation, wherein the first composition and the second composition are different and wherein the different injected compositions have different viscosities and densities; and extracting oil from the subterranean geological formation; wherein the method comprises cycling alternately between the first injecting step and the second injecting step. a first injecting step of injecting a first composition comprising CO 2, the first composition being injected at its supercritical state, into the subterranean geological formation; a second injecting step of injecting a second composition comprising CO 2 and a hydrocarbon, the second composition being injected at its supercritical state, into the subterranean geological formation, wherein the first composition and the second composition are different and wherein the different injected compositions have different viscosities and densities; and extracting oil from the subterranean geological formation; wherein the method comprises cycling alternately between the first injecting step and the second injecting step.
A method for video tone mapping, the method comprising: determining a first video component and a second video component by processing video data; applying tone mapping to the first video component; determining a scaling factor based on a ratio of the first video component and the tone-mapped first video component; performing a perception gain control, PGC, processing to the second video component with the scaling factor; and generating a tone mapped video by combining the tone-mapped first video component with the processed second video component. determining a first video component and a second video component by processing video data; applying tone mapping to the first video component; determining a scaling factor based on a ratio of the first video component and the tone-mapped first video component; performing a perception gain control, PGC, processing to the second video component with the scaling factor; and generating a tone mapped video by combining the tone-mapped first video component with the processed second video component.
A method of communication between a server and a user equipment through a set of command/response pairs, characterized in that the user equipment uses an IMSI field of an Attach Request frame as defined by ETSI TS 124.008 to convey a command of one of said pairs to the server, in that the server uses an Authentication parameter RAND field or an Authentication parameter AUTN field of an Authentication Request frame as defined by ETSI TS 124.008 to convey a response corresponding to said command and in that the server sends the Authentication Request frame in response to the Attach Request frame.
A photovoltaic ("PV") module, comprising: a first solar cell (300a, 400a, 500a, 600a, 700, 800) that includes a first conductive foil having a first portion (302a, 402a, 502a, 602a) with a first yield strength and a second portion (304a, 404a, 504a, 604a), wherein the first portion is disposed above and coupled to a semiconductor region of the first solar cell and the second portion extends past an edge of the first solar cell; and an interconnect structure (304a, 304b, 404a, 404b, 504a, 504b, 604a, 604b) coupled to a second solar cell (300b, 400b, 500b, 600b, 710, 810), wherein the interconnect structure includes the second portion, wherein the second solar cell that includes a second conductive foil having a first portion (302b, 402b, 502b, 602b) and a second portion (304b, 404b, 504b, 604b), wherein the first portion of the second conductive foil is disposed above and coupled to a semiconductor region of the second solar cell, the interconnect structure includes the second portion of the first conductive foil coupled to the second portion of the second conductive foil, and characterized in that the second portion of the first conductive foil has a second yield strength greater than the first yield strength, and in that the interconnect structure further includes an additional material (408, 508, 608) coupled to the second portion of the first conductive foil and the second portion of the second conductive foil, wherein the additional material, the second portion of the first conductive foil, and the second portion of the second conductive foil collectively have the second yield strength. a first solar cell (300a, 400a, 500a, 600a, 700, 800) that includes a first conductive foil having a first portion (302a, 402a, 502a, 602a) with a first yield strength and a second portion (304a, 404a, 504a, 604a), wherein the first portion is disposed above and coupled to a semiconductor region of the first solar cell and the second portion extends past an edge of the first solar cell; and an interconnect structure (304a, 304b, 404a, 404b, 504a, 504b, 604a, 604b) coupled to a second solar cell (300b, 400b, 500b, 600b, 710, 810), wherein the interconnect structure includes the second portion, wherein the second solar cell that includes a second conductive foil having a first portion (302b, 402b, 502b, 602b) and a second portion (304b, 404b, 504b, 604b), wherein the first portion of the second conductive foil is disposed above and coupled to a semiconductor region of the second solar cell, the interconnect structure includes the second portion of the first conductive foil coupled to the second portion of the second conductive foil, and characterized in that the second portion of the first conductive foil has a second yield strength greater than the first yield strength, and in that the interconnect structure further includes an additional material (408, 508, 608) coupled to the second portion of the first conductive foil and the second portion of the second conductive foil, wherein the additional material, the second portion of the first conductive foil, and the second portion of the second conductive foil collectively have the second yield strength.
An automatic plant tissue sampling system comprising: a plant handler configured to transport one or more plants from a first location to a second location; a plug handler configured to identify an individual plant of the one or more plants and secure the individual plant for movement relative to the one or more plants; a popper configured to engage the individual plant to move the plant into the plug handler; an imager configured to image a plant moved by the plant handler to identify a sampling location; a processor in communication with the imager and configured to receive an image of the plant and further configured to select a location on the plant to sample; a sampler configured to remove a tissue sample from the sampling location of the plant selected by the processor; and a collection vessel configured to receive tissue samples. a plant handler configured to transport one or more plants from a first location to a second location; a plug handler configured to identify an individual plant of the one or more plants and secure the individual plant for movement relative to the one or more plants; a popper configured to engage the individual plant to move the plant into the plug handler; an imager configured to image a plant moved by the plant handler to identify a sampling location; a processor in communication with the imager and configured to receive an image of the plant and further configured to select a location on the plant to sample; a sampler configured to remove a tissue sample from the sampling location of the plant selected by the processor; and a collection vessel configured to receive tissue samples.
A pipe extending from a first portion to a second portion and arranged to transfer fluid at an operational pressure from the first portion to the second portion; wherein the pipe comprises a first bend portion between the first and second portions (504, 512) in which the pipe transitions from extending in a first direction to extending in a second direction, and a second bend portion between the first and second portions (504, 512), in which the pipe transitions from extending in the second direction to extending in a third direction; and wherein the first bend portion of the pipe comprises a first non-circular cross section and the second bend portion comprises a second, different, non-circular cross section, the first and second non-circular cross sections (700, 800) having shapes selected to resist relative movement of the first and second portions (504, 512) when the pipe is subject to the operational pressure; characterized in that the first non-circular cross section has a longest axis which lies in a plane defined by the first and second directions (C, D); and the second non-circular cross section has a longest axis which lies perpendicular to a plane defined by the second and third directions (D, E). wherein the pipe comprises a first bend portion between the first and second portions (504, 512) in which the pipe transitions from extending in a first direction to extending in a second direction, and a second bend portion between the first and second portions (504, 512), in which the pipe transitions from extending in the second direction to extending in a third direction; and wherein the first bend portion of the pipe comprises a first non-circular cross section and the second bend portion comprises a second, different, non-circular cross section, the first and second non-circular cross sections (700, 800) having shapes selected to resist relative movement of the first and second portions (504, 512) when the pipe is subject to the operational pressure; characterized in that the first non-circular cross section has a longest axis which lies in a plane defined by the first and second directions (C, D); and the second non-circular cross section has a longest axis which lies perpendicular to a plane defined by the second and third directions (D, E).
Implant composed of an implant structure and a coating that is located thereon at least partially, characterized in that the coating on the implant structure, the surface of which is formed in a smooth, structured and/or porous manner, - contains gallium ions in the form of gallium compounds that are sparingly soluble in aqueous and/or physiological media, wherein the gallium content in the coating amounts to 1 to 50 atom percent and the gallium compounds are present in the form of gallium phosphate, wherein the gallium phosphate is present in amorphous or nanocrystalline form, - has a thickness of 0.1 to 50 μm, and - has a porous structure with a pore density of 10 4 to 10 7 pores/mm 2 and an average pore size between 0.1 and 10 μm. - contains gallium ions in the form of gallium compounds that are sparingly soluble in aqueous and/or physiological media, wherein the gallium content in the coating amounts to 1 to 50 atom percent and the gallium compounds are present in the form of gallium phosphate, wherein the gallium phosphate is present in amorphous or nanocrystalline form, - has a thickness of 0.1 to 50 μm, and - has a porous structure with a pore density of 10 4 to 10 7 pores/mm 2 and an average pore size between 0.1 and 10 μm.
A process for producing volatile organic acids and potassium salts by treating a fermentation juice comprising volatile organic acids salts in the form of potassium salts, said fermentation juice being obtained from a fermentation process for the production of volatile organic acids in a fermentation medium having a pH regulated by the addition of a base comprising potash, characterized in that the process for the production of volatile organic acids and potassium salts comprises: - the addition of a strong acid to the fermentation juice to form an acidified fermentation juice, said acid being added in an amount sufficient to cause the precipitation of the potassium salt mixture, - and then the separation of the mixture of solid potassium salts from the acidified fermentation juice and the recovery of volatile organic acids by drying the precipitated mixture of potassium salts, and - the recovery i) on the one hand of volatile organic acids entrained with the drying vapors, and ii) on the other hand of dried potassium salts. - the addition of a strong acid to the fermentation juice to form an acidified fermentation juice, said acid being added in an amount sufficient to cause the precipitation of the potassium salt mixture, - and then the separation of the mixture of solid potassium salts from the acidified fermentation juice and the recovery of volatile organic acids by drying the precipitated mixture of potassium salts, and - the recovery i) on the one hand of volatile organic acids entrained with the drying vapors, and ii) on the other hand of dried potassium salts.
A method for processing an adaptive flow table, comprising: performing, by a wireless access device, resource scheduling and determining a terminal device or a data stream that performs uplink data transmission in a scheduled time period; querying, by the wireless access device, a corresponding flow rule of the terminal device or the data stream that performs data transmission in the scheduled time period, and updating the found flow rule to a flow table; and when receiving a data packet in the scheduled time period, querying by the wireless access device from the flow table, a flow rule corresponding to the data packet, and performing corresponding processing on the data packet according to the flow rule corresponding to the data packet, wherein the querying, by the wireless access device, a corresponding flow rule of the terminal device or the data stream that performs data transmission in the scheduled time period comprises: querying, by the wireless access device from a rule pool, the corresponding flow rule of the terminal device or the data stream according to a terminal device identifier of the terminal device or a connection identifier of the data stream. performing, by a wireless access device, resource scheduling and determining a terminal device or a data stream that performs uplink data transmission in a scheduled time period; querying, by the wireless access device, a corresponding flow rule of the terminal device or the data stream that performs data transmission in the scheduled time period, and updating the found flow rule to a flow table; and when receiving a data packet in the scheduled time period, querying by the wireless access device from the flow table, a flow rule corresponding to the data packet, and performing corresponding processing on the data packet according to the flow rule corresponding to the data packet, wherein the querying, by the wireless access device, a corresponding flow rule of the terminal device or the data stream that performs data transmission in the scheduled time period comprises: querying, by the wireless access device from a rule pool, the corresponding flow rule of the terminal device or the data stream according to a terminal device identifier of the terminal device or a connection identifier of the data stream.
A crystalline form of Compound I having the structure: characterized by an X-ray powder diffraction (XRPD) pattern comprising three or more peaks at 5.8, 11.4, 11.6, 17.7, 20.1, 20.9, 22.3, 23.9, 26.0 or 26.8 degrees 2θ (± 0.2 degrees 2θ), wherein the XRPD is made using CuK α1 radiation.
A cushion having embedded automatically-inflating air tubes, comprising: a plurality of automatically-inflating air-tubes arranged with regular intervals and having a rectangular cross-section filled with air; a high-elasticity cushion material formed by foaming, covering the air tubes, and integrally bonded to the outer surface of the air tubes; and an air injecting/discharging unit for injecting/discharging air into/out of the air tubes. a plurality of automatically-inflating air-tubes arranged with regular intervals and having a rectangular cross-section filled with air; a high-elasticity cushion material formed by foaming, covering the air tubes, and integrally bonded to the outer surface of the air tubes; and an air injecting/discharging unit for injecting/discharging air into/out of the air tubes.
An injection moulding press, comprising a plurality of moulds and an injector for each mould, each injector comprising an injection screw, a screw control motor, an injection cylinder and a plasticization cylinder, said moulds and said corresponding injectors being mounted on a platform with which they can be rotated.