mhurhangee/patent-ind-claim-en huggingface dataset:
A method for distinguishing cancer cells, which method distinguishes 1) cancer cells sensitive to a PI3K inhibitor and insensitive to an MEK inhibitor, and/or cancer cells sensitive to an MEK inhibitor and insensitive to a PI3K inhibitor, from 2) cancer cells insensitive to both a PI3K inhibitor and an MEK inhibitor, and/or sensitive to both a PI3K inhibitor and an MEK inhibitor; the method being characterized by distinguishing cancer cells by the enzyme activity ratio of PI3K and MEK in cancer cells, wherein cancer cells are a biopsy tissue sample derived from a patient with triple negative breast cancer, wherein the enzyme activity is measured by capturing the enzyme using an antibody which specifically binds to PI3K or MEK; and wherein the enzyme activity is measured using a substrate specific to PI3K and/or MEK. 1) cancer cells sensitive to a PI3K inhibitor and insensitive to an MEK inhibitor, and/or cancer cells sensitive to an MEK inhibitor and insensitive to a PI3K inhibitor, from 2) cancer cells insensitive to both a PI3K inhibitor and an MEK inhibitor, and/or sensitive to both a PI3K inhibitor and an MEK inhibitor; the method being characterized by distinguishing cancer cells by the enzyme activity ratio of PI3K and MEK in cancer cells, wherein cancer cells are a biopsy tissue sample derived from a patient with triple negative breast cancer, sensitive to both a PI3K inhibitor and an MEK inhibitor; the method being characterized by distinguishing cancer cells by the enzyme activity ratio of PI3K and MEK in cancer cells, wherein cancer cells are a biopsy tissue sample derived from a patient with triple negative breast cancer, wherein the enzyme activity is measured by capturing the enzyme using an antibody which specifically binds to PI3K or MEK; and wherein the enzyme activity is measured using a substrate specific to PI3K and/or MEK.
An attaching member that is configured to hold a flexible tube (r) through which liquid related to blood purification treatment is made to flow, the attaching member being attachable to a blood purification apparatus (B) and comprising: an anchor portion defined by a slit in such a manner as to be separated from an other portion and to be foldable, the anchor portion being capable of anchoring the flexible tube (r) when folded to be raised from the other portion, wherein the anchor portion has an opening into which the flexible tube (r) is inserted to be anchored, characterized in that the slit is one of a plurality of slits provided at arbitrary positions, and any selected portion that is defined by a specific one of the slits is folded in such a manner as to be raised and to form the anchor portion at an arbitrary position where the flexible tube (r) is to be anchored. an anchor portion defined by a slit in such a manner as to be separated from an other portion and to be foldable, the anchor portion being capable of anchoring the flexible tube (r) when folded to be raised from the other portion, wherein the anchor portion has an opening into which the flexible tube (r) is inserted to be anchored, characterized in that the slit is one of a plurality of slits provided at arbitrary positions, and any selected portion that is defined by a specific one of the slits is folded in such a manner as to be raised and to form the anchor portion at an arbitrary position where the flexible tube (r) is to be anchored.
A computer-implemented method comprising: obtaining, by a mobile device comprising a deployment application, a file comprising a plurality of guidance elements that describe a workflow for configuring an apparatus that is an automation device that is used in an industrial environment, wherein the guidance elements are elements that comprise instructions that can be translated into computer instructions by the deployment application, and wherein the plurality of guidance elements are combined to create the workflow ; connecting to the apparatus and determining, by the deployment application, a type of the apparatus and based on the type of the apparatus , determine a communication protocol to use for a connection between the deployment application and the automation device; translating, by the deployment application, the workflow to be compatible with the apparatus by accessing, by the deployment application, information regarding how various parameters map to the plurality of guidance elements , wherein the various parameters are comprised in settings of the apparatus , that is the automation device, and wherein translation of the workflow comprises translating the guidance elements guidance elements into computer instructions; and causing the apparatus to be configured by executing the computer instructions. obtaining, by a mobile device comprising a deployment application, a file comprising a plurality of guidance elements that describe a workflow for configuring an apparatus that is an automation device that is used in an industrial environment, wherein the guidance elements are elements that comprise instructions that can be translated into computer instructions by the deployment application, and wherein the plurality of guidance elements are combined to create the workflow ; connecting to the apparatus and determining, by the deployment application, a type of the apparatus and based on the type of the apparatus , determine a communication protocol to use for a connection between the deployment application and the automation device; translating, by the deployment application, the workflow to be compatible with the apparatus by accessing, by the deployment application, information regarding how various parameters map to the plurality of guidance elements , wherein the various parameters are comprised in settings of the apparatus , that is the automation device, and wherein translation of the workflow comprises translating the guidance elements guidance elements into computer instructions; and causing the apparatus to be configured by executing the computer instructions.
A method of correcting a magnetic field of a medical apparatus , wherein the medical apparatus comprises a magnetic resonance imaging system for acquiring magnetic resonance data from an imaging zone , wherein the magnetic resonance imaging system comprises a magnet for generating the magnetic field within the imaging zone, wherein the magnet is further adapted for generating the magnetic field such that the magnetic field has a zero crossing outside of the imaging zone, wherein the medical apparatus further comprises a gantry configured for rotating about the imaging zone, wherein the gantry is configured to rotate about a rotational axis , wherein the medical apparatus further comprises a ferromagnetic component located on one side of the zero crossing, wherein the gantry is further configured to rotate the ferromagnetic component about the rotational axis, wherein the method comprises the step of installing a magnetic correcting element located on the opposite side of the zero crossing on a radial path perpendicular to the rotational axis, wherein the radial path passes within a predetermined distance of the ferromagnetic component, wherein the magnetic correcting element is positioned on the radial path such that a change in the magnetic field within the imaging zone due to the ferromagnetic component is reduced, wherein the method further comprises the steps of repeatedly: - measuring the magnetic field within the imaging zone for at least one rotational position; - determining the change in the magnetic field in the imaging zone due to the ferromagnetic component using the measured magnetic field; and - adjusting the position of the magnetic correcting element along the radial path if the change in the magnetic field is above a predetermined threshold to iteratively reduce the change in the magnetic field. - measuring the magnetic field within the imaging zone for at least one rotational position; - determining the change in the magnetic field in the imaging zone due to the ferromagnetic component using the measured magnetic field; and - adjusting the position of the magnetic correcting element along the radial path if the change in the magnetic field is above a predetermined threshold to iteratively reduce the change in the magnetic field.
A tissue ablation device, comprising a EM generator unit, at least two movable coaxial elongated electrodes comprising an external electrode and an internal electrode, and a mechanism adapted to vary the EM field for a specific tissue area by means of a relative movement between said electrodes; said device furthermore comprising a gas-based cooling system that comprises fluid circulation tubes located within said external electrode, wherein said internal electrode is retractable within said external electrode , and wherein the cooling system is adapted for providing cryoablation alone or in combination with EM ablation.
A processor comprising: a decoder to decode a vector bit shuffle instruction, the vector bit shuffle instruction comprising a first source operand, a second source operand, and a destination operand; a first vector register identified by the first source operand to store a plurality of source data elements; a second vector register identified by the second source operand to store a plurality of control elements, each of the control elements corresponding to a different one of the plurality of source data elements in the first vector register and comprising a plurality of bit fields, each bit field corresponding to a single bit position in a destination mask register identified by the destination operand, and each bit field further to identify exactly one bit from the corresponding source data element to be copied to the corresponding single-bit position in the destination mark register; and vector bit shuffle logic to read the bit fields from the second vector register, and, for each bit field, to identify exactly one bit from the corresponding source data elements and to responsively copy only the identified bit from the corresponding source data element to a single-bit bit position corresponding to the bit field in the destination mask register. a decoder to decode a vector bit shuffle instruction, the vector bit shuffle instruction comprising a first source operand, a second source operand, and a destination operand; a first vector register identified by the first source operand to store a plurality of source data elements; a second vector register identified by the second source operand to store a plurality of control elements, each of the control elements corresponding to a different one of the plurality of source data elements in the first vector register and comprising a plurality of bit fields, each bit field corresponding to a single bit position in a destination mask register identified by the destination operand, and each bit field further to identify exactly one bit from the corresponding source data element to be copied to the corresponding single-bit position in the destination mark register; and vector bit shuffle logic to read the bit fields from the second vector register, and, for each bit field, to identify exactly one bit from the corresponding source data elements and to responsively copy only the identified bit from the corresponding source data element to a single-bit bit position corresponding to the bit field in the destination mask register.
An injection head for an engine, comprising: - a front plate delimiting a combustion chamber of the engine, with outlet openings for a first fuel component, - a baseplate arrangement arranged on a side of the front plate facing away from the combustion chamber, the baseplate arrangement comprising a base plate and nozzle bodies extending from the base plate in the direction of the combustion chamber for a second fuel component, the nozzle bodies corresponding to the outlet openings , - a first distributor plate arranged between the front plate and the base plate , - a first housing section (G1) with a first part (G11) and a second part (G12), wherein a first fuel inlet for the first fuel component is formed in the first part (G11), and wherein the first part (G11), the first distributor plate and the base plate delimit a first fuel chamber for the first fuel component, - a second housing section (G2) extending perpendicular to the front plate , wherein the second housing section (G2), the front plate and the first distributor plate delimit a second fuel chamber for the first fuel component; and - a third housing section (G3) disposed on a side of the first housing section (G1) opposite to the second housing section (G2) and having formed therein a second fuel inlet for the second fuel component, wherein the nozzle bodies pass through the first distributor plate , and wherein one or more through holes are formed in regions of the first distributor plate around the nozzle bodies passing through the first distributor plate . - a front plate delimiting a combustion chamber of the engine, with outlet openings for a first fuel component, - a baseplate arrangement arranged on a side of the front plate facing away from the combustion chamber, the baseplate arrangement comprising a base plate and nozzle bodies extending from the base plate in the direction of the combustion chamber for a second fuel component, the nozzle bodies corresponding to the outlet openings , - a first distributor plate arranged between the front plate and the base plate , - a first housing section (G1) with a first part (G11) and a second part (G12), wherein a first fuel inlet for the first fuel component is formed in the first part (G11), and wherein the first part (G11), the first distributor plate and the base plate delimit a first fuel chamber for the first fuel component, - a second housing section (G2) extending perpendicular to the front plate , wherein the second housing section (G2), the front plate and the first distributor plate delimit a second fuel chamber for the first fuel component; and - a third housing section (G3) disposed on a side of the first housing section (G1) opposite to the second housing section (G2) and having formed therein a second fuel inlet for the second fuel component,
A coextruded polymeric article comprising: first segments each having first and second opposed major surfaces and a thickness (t 1 ), the first segments comprising first material; and second segments comprising second material, wherein adjacent first segments are joined together via a second segment, wherein at least 10 percent by number of the second segments extend from the second major surface past the first major surface of each first adjacent segment and have Z a distal end , the second segments having first and second opposed major surfaces, wherein there is a gap between adjacent second segments; the article being characterised in that it further comprises adhesive on the first and second major surfaces of at least every other second segment except a portion of the major surface adjacent to the respective distal end is free of the adhesive, wherein the first segments, second segments, and adhesive each extend continuously for at least 5 millimeters. first segments each having first and second opposed major surfaces and a thickness (t 1 ), the first segments comprising first material; and second segments comprising second material, wherein adjacent first segments are joined together via a second segment, wherein at least 10 percent by number of the second segments extend from the second major surface past the first major surface of each first adjacent segment and have Z a distal end , the second segments having first and second opposed major surfaces, wherein there is a gap between adjacent second segments; the article being characterised in that it further comprises adhesive on the first and second major surfaces of at least every other second segment except a portion of the major surface adjacent to the respective distal end is free of the adhesive, wherein the first segments, second segments, and adhesive each extend continuously for at least 5 millimeters.
A 3-dimensional image generation system that captures and generates a 3-dimensional image of a target comprising plurality of obstacles , characterized by comprising: - a light source with an intensity which can be adjusted; - at least one image recorder , which captures images of said target and - at least one control unit, which controls said light source by increasing or decreasing its intensity within a time period, wherein the intensity of the light source changes continuously, and further controls said image recorder to capture a plurality of images of said target within said time period, and which determines the depth of said obstacles so as to capture and generate a 3-dimensional image by comparing the illumination level change of the obstacles between the plurality of captured images within said time period. - a light source with an intensity which can be adjusted; - at least one image recorder , which captures images of said target and - at least one control unit, which controls said light source by increasing or decreasing its intensity within a time period, wherein the intensity of the light source changes continuously, and further controls said image recorder to capture a plurality of images of said target within said time period, and
A power tool adapted to be retained on a vice , the vice having vice jaws defining a supporting surface and gripping surfaces ; the power tool characterised in comprising a projection arranged, when the power tool is supported for use on the supporting surface , to allow at least one of the gripping surfaces to be tightened against it to retain the power tool to the vice ; and wherein the projection is adapted to retract to a stowed position in response to the weight of the power tool being placed upon it.
Method for processing an organic oil in steps, said method comprising the steps: A providing a raw oil; B degumming the raw oil by adding water and/or acid to the raw oil and forming at least two phases, an aqueous phase and an oil phase, and separating the phospholipid-enriched aqueous phase from the oil phase; the acid addition being the addition of a dilute acid or the addition of a concentrated acid in conjunction with a subsequent addition of water; C adding sodium hydrogen carbonate as a solution, as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and/or adding sodium acetate as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and removing alkaline earth metal compounds and/or phospholipids and/or steryl glycosides, in solution or suspension in an aqueous phase, from the oil phase, wherein following step C, in a step D, D a saponification of free fatty acids is carried out with the addition of an alkaline agent to the oil phase from step C, and said saponified fatty acids are removed from the oil phase, the saponified fatty acid comprising less than 3 wt% organic impurities, the alkaline agent being an inorganic alkali metal hydroxide solution. A providing a raw oil; B degumming the raw oil by adding water and/or acid to the raw oil and forming at least two phases, an aqueous phase and an oil phase, and separating the phospholipid-enriched aqueous phase from the oil phase; the acid addition being the addition of a dilute acid or the addition of a concentrated acid in conjunction with a subsequent addition of water; C adding sodium hydrogen carbonate as a solution, as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and/or adding sodium acetate as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and removing alkaline earth metal compounds and/or phospholipids and/or steryl glycosides, in solution or suspension in an aqueous phase, from the oil phase, wherein following step C, in a step D, D a saponification of free fatty acids is carried out with the addition of an alkaline agent to the oil phase from step C, and said saponified fatty acids are removed from the oil phase, the saponified fatty acid comprising less than 3 wt% organic impurities, the alkaline agent being an inorganic alkali metal hydroxide solution.
Battery structure for an electric vehicle comprising a. a battery case for at least one battery module and b. a protector comprising i. a top belt ii. a bottom belt and iii. a core arranged between and interconnecting the top belt and the bottom belt , characterized in that c. the top belt has a wavelike cross section. a. a battery case for at least one battery module and b. a protector comprising i. a top belt ii. a bottom belt and iii. a core arranged between and interconnecting the top belt and the bottom belt , characterized in that i. a top belt ii. a bottom belt and iii. a core arranged between and interconnecting the top belt and the bottom belt , characterized in that c. the top belt has a wavelike cross section.
A cardiac mapping catheter comprising: an array of electrodes including a plurality of bipolar electrode pairs for first and second electrodes , with said bipolar electrode pairs located with respect to one another such that said electrodes of said bipolar electrode pairs together define a perimeter surrounding an area; and wherein said first and second electrodes of each bipolar electrode pair are opposed to one another across said area wherein said array of electrodes (13, 14 15) comprises an electrode configuration wired for wide cross-perimeter electrode pairing for compass mapping, and wired for narrow-adjacent bipolar and unipolar recordings from said electrodes , characterized in that the cardiac mapping catheter further comprises an apparatus configured for simultaneously measuring and recording compass map readings, narrow-adjacent bipolar readings, and unipolar readings from electrical signals from said electrodes . an array of electrodes including a plurality of bipolar electrode pairs for first and second electrodes , with said bipolar electrode pairs located with respect to one another such that said electrodes of said bipolar electrode pairs together define a perimeter surrounding an area; and wherein said first and second electrodes of each bipolar electrode pair are opposed to one another across said area wherein said array of electrodes (13, 14 15) comprises an electrode configuration wired for wide cross-perimeter electrode pairing for compass mapping, and wired for narrow-adjacent bipolar and unipolar recordings from said electrodes , characterized in that the cardiac mapping catheter further comprises an apparatus configured for simultaneously measuring and recording compass map readings, narrow-adjacent bipolar readings, and unipolar readings from electrical signals from said electrodes .
Device for processing a rope formed in a pulper , comprising a pulper , a shredder and a conveying apparatus , in particular a winch, for pulling the rope , with its front end first, out of the pulper , wherein the conveying apparatus is arranged and designed such that the rope can be fed, with its front end first, directly to the shredder by means of the conveying apparatus , wherein the conveying apparatus is arranged above the pulper and between the pulper and the shredder .