mhurhangee/ep-ind-claims huggingface dataset:
A gas burner, said burner comprising a metal burner membrane, said membrane comprising a base section (201, 401, 501 having a smallest radius of curvature being R base and a closing section (203, 408, 504), said membrane being uninterrupted comprises a transition region (202, 402, 502, 502') for connecting said base section to said closing section, said transition region has a smallest radius of curvature r transition that is larger than or equal to 0.02×R base and smaller than or equal to 0.35×R base and wherein said burner membrane comprises a fabric (305, 512) of braided or knitted or woven stainless steel fibres, wherein said burner membrane comprises a deep drawn or stamped plate in which holes are drilled or a deep drawn or stamped wire mesh; wherein said fabric is stretched over the deep drawn or stamped plate in which holes are drilled or wherein said fabric is supported by the deep drawn or stamped wire mesh; and wherein said burner membrane does not comprise welding seams.
A method for altered token sandboxing, comprising: creating a process based on a naked token having no privileges; after the process has been created with the naked token, suspending the process; obtaining an impersonation token having more privileges than the naked token; resuming the process with the impersonation token; after the process has been resumed, acquiring one or more resources needed for the process using the impersonation token; after the one or more resources have been acquired, replacing, in the resumed process, the impersonation token with the naked token; and executing the resumed process with the naked token and the acquired resources. creating a process based on a naked token having no privileges; after the process has been created with the naked token, suspending the process; obtaining an impersonation token having more privileges than the naked token; resuming the process with the impersonation token; after the process has been resumed, acquiring one or more resources needed for the process using the impersonation token; after the one or more resources have been acquired, replacing, in the resumed process, the impersonation token with the naked token; and executing the resumed process with the naked token and the acquired resources.
A compound of Formula I for use in the treatment or in the prophylaxis of a bacterial infection: wherein L is a substituted or non-substituted aromatic ligand; Z is a halogen or coordinating ligand; M is a group 8 or group 9 transition metal selected from; Fe, Ru, Co, Rh and Os; wherein one of A or B is a substituted or non-substituted, especially non-substituted, indole; and the second of B or A is a substituted or non-substituted, especially a non-substituted, pyridine, and A and B coordinate to the transition metal M through the nitrogen atom of the indole or pyridine. wherein L is a substituted or non-substituted aromatic ligand; Z is a halogen or coordinating ligand; M is a group 8 or group 9 transition metal selected from; Fe, Ru, Co, Rh and Os; wherein one of A or B is a substituted or non-substituted, especially non-substituted, indole; and the second of B or A is a substituted or non-substituted, especially a non-substituted, pyridine, and A and B coordinate to the transition metal M through the nitrogen atom of the indole or pyridine.
Aqueous coating composition comprising at least one mixture of at least one polymeric resin and at least one polymeric resin, different therefrom, where the polymeric resin is a polyamide and the polymeric resin is a polyester which is at least obtainable by reaction of at least one polymerized aliphatic C 12 -C 24 -monocarboxylic acid with at least one diol and/or polyol, at least one binder comprising at least one polymeric resin, which is different from the polymeric resins and, and optionally at least one crosslinking agent, and at least one pigment for at least partly coating an optionally coated substrate with a basecoat film, characterized in that the polyamide used as polymeric resin has an acid number < 10 mg of KOH per g of polyamide and the mixture is obtainable by dispersing of the polymeric resin in water or an aqueous medium in the presence of the polymeric resin.
A catalyst system suitable especially for the removal of CO compounds, said system consisting of an oxide of fluorite crystalline structure conforming to the following molar formulation: Ce 1-u M y A z D v O 2-x, wherein: - Ce is cerium, - u is between 0.05 and 0.45, - M represents at least one element selected from the following: Gd, Y, Sc, Sm, Nd, Pr, Zn, - y is between 0.01 and 0.4, - A represents at least one element possessing a plurality of oxidation states and selected from the following: Ti, Ga, In, V, Cr, Mn, Fe, Sn, Co, Ni, Cu, - z is greater than 0 and less than 0.4, - D represents at least one element other than A and chosen from: Pt, Pd, Rh, Ru, Cu, Fe, Ag, and Au, - v is between 0.001 and 0.4, - x is greater than 0 wherein the metals, more particularly the precious metals, are disposed in insertion or in substitution in the crystal lattice and wherein the oxide comprises oxygen vacancies in its crystal lattice. - Ce is cerium, - u is between 0.05 and 0.45, - M represents at least one element selected from the following: Gd, Y, Sc, Sm, Nd, Pr, Zn, - y is between 0.01 and 0.4, - A represents at least one element possessing a plurality of oxidation states and selected from the following: Ti, Ga, In, V, Cr, Mn, Fe, Sn, Co, Ni, Cu, - z is greater than 0 and less than 0.4, - D represents at least one element other than A and chosen from: Pt, Pd, Rh, Ru, Cu, Fe, Ag, and Au, - v is between 0.001 and 0.4, - x is greater than 0
An effective fraction of Rehmannia glutinosa Libosch. for reducing blood glucose and lipid levels, containing catalpol in an amount of 50% or more produced by extracting fresh Rehmannia glutinosa Libosch. with water or ethanol and concentrating the resultant extract liquid to obtain an extract, dissolving the extract with water to obtain a solution, filtrating the solution, loading the filtrate on a column packed with macroporous adsorption resin, eluting the loaded filtrate with water until the water eluate becomes clear, gradiently eluting the water eluate with ethanol, and recovering, concentrating and drying the ethanol eluate.
A left atrial appendage occlusion device (1, 100, 200) comprising: (i) an occluder disk (2, 102, 202), configured to substantially prevent blood from at least one of entering and exiting the left atrial appendage; (ii) a middle portion (97, 197, 297) that includes a coiled element (5, 105, 205), wherein the coiled element (5, 105, 205) connects to the occluder disk (2, 102, 202), has a substantially constant cross section and allows for at least one of variable length, variable orientation, and varied angles of the occlusion device (1, 100, 200); and (iii) a first anchoring element (6, 106, 206) that connects to the coiled element characterized in that the first anchoring element (6, 106, 206) includes scalloped edges (96, 196, 296) that are configured to anchor the occlusion device (1, 100, 200) to inner walls of the left atrial appendage and reduce the risk of one of penetration and perforation of walls of the left atrial appendage. (i) an occluder disk (2, 102, 202), configured to substantially prevent blood from at least one of entering and exiting the left atrial appendage; (ii) a middle portion (97, 197, 297) that includes a coiled element (5, 105, 205), wherein the coiled element (5, 105, 205) connects to the occluder disk (2, 102, 202), has a substantially constant cross section and allows for at least one of variable length, variable orientation, and varied angles of the occlusion device (1, 100, 200); and (iii) a first anchoring element (6, 106, 206) that connects to the coiled element characterized in that the first anchoring element (6, 106, 206) includes scalloped edges (96, 196, 296) that are configured to anchor the occlusion device (1, 100, 200) to inner walls of the left atrial appendage and reduce the risk of one of penetration and perforation of walls of the left atrial appendage.
A system for cardiac mapping, comprising: at least one processor; and memory storing instructions that, when executed by the at least one processor, cause the system to: receive biometric data obtained from a patient, extract beat segments from the biometric data, classify the beat segments into clusters, and generate at least one map based on data associated with beat segments in one of the clusters, characterized in that each cluster represents an arrhythmia type and the instructions cause the system to generate said map in response to the beat segments being classified into a number of clusters that is below a threshold number. at least one processor; and memory storing instructions that, when executed by the at least one processor, cause the system to: receive biometric data obtained from a patient, extract beat segments from the biometric data, classify the beat segments into clusters, and generate at least one map based on data associated with beat segments in one of the clusters, characterized in that each cluster represents an arrhythmia type and the instructions cause the system to generate said map in response to the beat segments being classified into a number of clusters that is below a threshold number. receive biometric data obtained from a patient, extract beat segments from the biometric data, classify the beat segments into clusters, and generate at least one map based on data associated with beat segments in one of the clusters, characterized in that each cluster represents an arrhythmia type and the instructions cause the system to generate said map in response to the beat segments being classified into a number of clusters that is below a threshold number.
Actuator for a haptic-feedback-providing touch-interface module, the interface module comprising a touch surface that is able to detect at least one characteristic of a press of a user, the actuator including: - a chassis that is intended to make contact with the touch interface via a contact wall in order to transmit haptic feedback to the touch surface; - a stator that is connected to the chassis; - a movable core that is connected, via at least one elastic element, to the chassis and that is intended to be driven to move by the stator in order to generate the haptic feedback; and - an electromagnet and at least one permanent magnet, one of which is borne by the stator and the other of which is borne by the movable core, the actuator being characterized in that it further includes a damper that is placed between the movable core and the contact wall, and in that said elastic element is dimensioned so - that in the state in which the electromagnet is not powered, the movable core applies a bearing force in the direction of the contact wall, - that in the state in which the electromagnet is powered with current in a first predefined bias direction, the movable core separates from the contact wall of the chassis against the force of said elastic element, and - that in the state in which the electromagnet is powered with current in a second predefined bias direction that is opposite the first bias direction so that the direction of the current and thus the magnetic field inverts in order to propel the movable core in the direction of the contact wall of the chassis and in order to maintain the movable core in abutment against this contact wall. - a chassis that is intended to make contact with the touch interface via a contact wall in order to transmit haptic feedback to the touch surface; - a stator that is connected to the chassis; - a movable core that is connected, via at least one elastic element, to the chassis and that is intended to be driven to move by the stator in order to generate the haptic feedback; and - an electromagnet and at least one permanent magnet, one of which is borne by the stator and the other of which is borne by the movable core, the actuator being characterized in that it further includes a damper that is placed between the movable core and the contact wall, and in that said elastic element is dimensioned so - that in the state in which the electromagnet is not powered, the movable core applies a bearing force in the direction of the contact wall, - that in the state in which the electromagnet is powered with current in a first predefined bias direction, the movable core separates from the contact wall of the chassis against the force of said elastic element, and - that in the state in which the electromagnet is powered with current in a second predefined bias direction that is opposite the first bias direction so that the direction of the current and thus the magnetic field inverts in order to propel the movable core in the direction of the contact wall of the chassis and in order to maintain the movable core in abutment against this contact wall.
Method for controlling an internal combustion engine of an agricultural vehicle comprising the following steps, - detecting a rotation speed of said internal combustion engine; and - generating a control signal consisting of a quantity of fuel/cycle with the help of a PID controller based on an engine speed error; - acquisition of a rated torque curve of said internal combustion engine, as a function of the rotation speed of said internal combustion engine, - selection of a predefined speed value of the internal combustion engine, - introduction of a modified torque curve having an increased portion whose torque values are increased with respect to a corresponding first portion of the rated curve for speeds below said predefined speed value, and an unchanged portion whose torque values are unchanged with respect to a corresponding second portion of the rated curve for speeds greater than said predefined speed value, - switching from said rated torque curve to said modified torque curve, when at least one operating condition has occurred, such that said internal combustion engine delivers a torque not greater than said modified torque curve rather than, otherwise, a torque not greater than said rated torque curve, characterized in that the first portion has torque values that increase with increasing speeds. - detecting a rotation speed of said internal combustion engine; and - generating a control signal consisting of a quantity of fuel/cycle with the help of a PID controller based on an engine speed error; - acquisition of a rated torque curve of said internal combustion engine, as a function of the rotation speed of said internal combustion engine, - selection of a predefined speed value of the internal combustion engine, - introduction of a modified torque curve having an increased portion whose torque values are increased with respect to a corresponding first portion of the rated curve for speeds below said predefined speed value, and an unchanged portion whose torque values are unchanged with respect to a corresponding second portion of the rated curve for speeds greater than said predefined speed value, - switching from said rated torque curve to said modified torque curve, when at least one operating condition has occurred, such that said internal combustion engine delivers a torque not greater than said modified torque curve rather than, otherwise, a torque not greater than said rated torque curve,
Case for cooling of medicines consisting of a bottom part and a lid, characterized in that the bottom part comprises a cooling plate with cooling contact pins, suitable for receiving medicaments in a cooling-contacting manner, which can be arranged in a fixed manner or in a manually variable, stretchable manner, depending on the space requirement, whereby the cooling plate cooperates with a heat exchanger, whereby the cooling contact pins can be arranged with the cooling plate via a conical plug-in connection, whereby an evaporation hollow space is provided between the cooling plate and the heat exchanger.
An implantable dental device for implanting within a subject's mouth, comprising: a 3 dimensional trabecular meshwork structure configured to promote bone growth and having a plurality of interconnected cells configured for receiving bone graft material therein, the structure having a length, a height coextending substantially along a vertical axis extending between the mandible and maxilla, a width coextending substantially along a horizontal axis extending between facial and lingual sides, a first end, and a second end, the structure configured for permanent placement within the patient's mouth; characterised by a plurality of root-form implants (567, 567") formed integral with the meshwork structure, the root-form implants (567, 567") having a substantially cylindrical body, at least a portion of the cylindrical body of at least one of the root-form implants configured for at least partial penetration within a jaw bone; at least one fixating surface located substantially on the structure for receiving at least one fixating element for operatively and fixedly attaching the structure to the patient's jawbone; and a plurality of prosthesis receiving surfaces, each of the prosthesis receiving surfaces disposed adjacent a corresponding root-form implant (567, 567") for receiving a corresponding number of prostheses thereon. a 3 dimensional trabecular meshwork structure configured to promote bone growth and having a plurality of interconnected cells configured for receiving bone graft material therein, the structure having a length, a height coextending substantially along a vertical axis extending between the mandible and maxilla, a width coextending substantially along a horizontal axis extending between facial and lingual sides, a first end, and a second end, the structure configured for permanent placement within the patient's mouth; characterised by a plurality of root-form implants (567, 567") formed integral with the meshwork structure, the root-form implants (567, 567") having a substantially cylindrical body, at least a portion of the cylindrical body of at least one of the root-form implants configured for at least partial penetration within a jaw bone; at least one fixating surface located substantially on the structure for receiving at least one fixating element for operatively and fixedly attaching the structure to the patient's jawbone; and a plurality of prosthesis receiving surfaces, each of the prosthesis receiving surfaces disposed adjacent a corresponding root-form implant (567, 567") for receiving a corresponding number of prostheses thereon.
An energy harvesting apparatus, comprising: a housing (102, 302), wherein the housing is configured to receive a pill pack (104, 304); and a low power wireless transmitter (132, 332) integral with the housing (102, 302), an energy harvesting electrical generator incorporated into the housing (102, 302), wherein the energy harvesting electrical generator is adapted to convert motion associated with compression of at least one blister (103 1-n, 303 1-n) of the pill pack (104, 304) expelling one or more pills (105 1-n, 305 1-n) from the pill pack into electrical energy, characterized in that only the electrical energy resulting from such conversion of motion into electrical energy is used to collect one or more data points associated with operation of the pill pack during the expelling of the one or more pills and to wirelessly transmit one or more data points from the low power wireless transmitter (132, 332) to a remote computing device. a housing (102, 302), wherein the housing is configured to receive a pill pack (104, 304); and a low power wireless transmitter (132, 332) integral with the housing (102, 302), an energy harvesting electrical generator incorporated into the housing (102, 302), wherein the energy harvesting electrical generator is adapted to convert motion associated with compression of at least one blister (103 1-n, 303 1-n) of the pill pack (104, 304) expelling one or more pills (105 1-n, 305 1-n) from the pill pack into electrical energy, characterized in that only the electrical energy resulting from such conversion of motion into electrical energy is used to collect one or more data points associated with operation of the pill pack during the expelling of the one or more pills and to wirelessly transmit one or more data points from the low power wireless transmitter (132, 332) to a remote computing device.
A method of recovering an extracellular vesicle(s), comprising: treating an extracellular vesicle-containing sample with 20 to 200 mM of a chelating agent; and separating the extracellular vesicle(s) from the extracellular vesicle-containing sample treated with the chelating agent. treating an extracellular vesicle-containing sample with 20 to 200 mM of a chelating agent; and separating the extracellular vesicle(s) from the extracellular vesicle-containing sample treated with the chelating agent.
A method of separating ions in time, comprising the steps of: separating a bulk of ions in time as a function of a first molecular characteristic; sequentially separating in time as a function of ion mobility at least some of said ions previously separated in time as said function of a first molecular characteristic; and characterised by sequentially separating in time as a function of ion mass using a time-of -flight mass spectrometer at least some of said ions previously separated in time as said function of ion mobility, separating a bulk of ions in time as a function of a first molecular characteristic; sequentially separating in time as a function of ion mobility at least some of said ions previously separated in time as said function of a first molecular characteristic; and characterised by sequentially separating in time as a function of ion mass using a time-of -flight mass spectrometer at least some of said ions previously separated in time as said function of ion mobility,