mhurhangee/ep-ind-claims huggingface dataset:
A protection cover of a vehicle, wherein the protection cover is configured to be mounted at a windshield of said vehicle and covers and protects the electronic device positioned in an interior space of said protection cover, characterised in that the protection cover comprises air intake slots at a front side of said protection cover and air outtake slots at a rear side of said protection cover, wherein the air intake slots are directed in a driving direction of the vehicle and wherein an inclination angle (α) between the front side of the protection cover and the windshield is in the range of 20-60 degrees, wherein the air outtake slots at the rear side of the protection cover are positioned higher than the air intake slots at the front side of the protection cover to force an airstream inside the protection cover with a high air speed to reduce the temperature in the interior space of said protection cover.
A method of synchronizing a state of a computer interpretable guideline engine with a state of patient care, the method comprising: receiving historic patient data for one or more patients, wherein patient data includes workflow data and clinical data, wherein the workflow data includes information on a plurality of care steps for each of the patients and the clinical data includes clinical measurements and observations collected from each of the patients; resolving missing patient data for each of the patients utilizing historic patient data, inference based on historic patient data, or prompting users; updating the engine state utilizing the resolved patient data; receiving current patient data for one or more patients; and updating the engine state utilizing the current patient data, characterized in that missing data is ranked by Principal Components Analysis to determine relevant questions to ask the users, wherein a priori segmentation of the computer interpretable guideline is performed to determine which patient data can be inferred and which patient data needs to be provided by the users. receiving historic patient data for one or more patients, wherein patient data includes workflow data and clinical data, wherein the workflow data includes information on a plurality of care steps for each of the patients and the clinical data includes clinical measurements and observations collected from each of the patients; resolving missing patient data for each of the patients utilizing historic patient data, inference based on historic patient data, or prompting users; updating the engine state utilizing the resolved patient data; receiving current patient data for one or more patients; and updating the engine state utilizing the current patient data, characterized in that missing data is ranked by Principal Components Analysis to determine relevant questions to ask the users, wherein a priori segmentation of the computer interpretable guideline is performed to determine which patient data can be inferred and which patient data needs to be provided by the users.
A composition comprising an effective amount of aVEGFR3 agonist, which has at least 85% sequence identity to VEGF-c or VEGF-d, for use in a method of treating a neurodegenerative disease in the central nervous system of a subject, the method comprising: determining the subject to be in need of treatment of a neurodegenerative disease in the central nervous system; and administering an effective amount of the VEGFR3 agonist to a meningeal space of the subject in need, whereby said administration is effective to increase the diameter of a meningeal lymphatic vessel of the subject, thereby increasing fluid flow in the central nervous system of the subject. determining the subject to be in need of treatment of a neurodegenerative disease in the central nervous system; and administering an effective amount of the VEGFR3 agonist to a meningeal space of the subject in need, whereby said administration is effective to increase the diameter of a meningeal lymphatic vessel of the subject, thereby increasing fluid flow in the central nervous system of the subject.
A method for validity verification of a network, comprising: receiving, at a first base station, a radio resource control resume request message from a terminal; sending, at the first base station, a first message to a second base station when the first base station decides to reject access of the terminal, wherein the first message carries first indication information, and the first indication information is for indicating to the second base station that the first base station decides to reject access of the terminal and requests to activate UE security; and receiving, at the first base station, a second message from the second base station, wherein the second message carries security information, and the security information comprises a first key and a first security algorithm; and sending, at the first base station, the RRC reject message to the terminal through a first signaling radio bearer, when the first base station supports the first security algorithm, wherein the RRC reject message is integrity protected by the first base station. receiving, at a first base station, a radio resource control resume request message from a terminal; sending, at the first base station, a first message to a second base station when the first base station decides to reject access of the terminal, wherein the first message carries first indication information, and the first indication information is for indicating to the second base station that the first base station decides to reject access of the terminal and requests to activate UE security; and receiving, at the first base station, a second message from the second base station, wherein the second message carries security information, and the security information comprises a first key and a first security algorithm; and sending, at the first base station, the RRC reject message to the terminal through a first signaling radio bearer, when the first base station supports the first security algorithm, wherein the RRC reject message is integrity protected by the first base station.
An electromagnetic flowmeter assembly comprising: a magnetic flowmeter configured to couple to a process pipe at a coupling point and measure a flowrate of a flow of process fluid, the magnetic flowmeter having flowmeter electronics, a liner, and a pair of electrodes coupled to the flowmeter electronics and being disposed to measure an electrical characteristic of the process fluid flowing through the liner; and a conductive polymer reference connection (104, 112, 300) spaced from the pair of electrodes and configured to contact the process fluid, the conductive polymer reference connection (104,112) being coupled to the flowmeter electronics; wherein the conductive polymer reference connection comprises a conductive polymer section molded into the liner of the magnetic flowmeter; and wherein the conductive polymer reference connection comprises a ring. a magnetic flowmeter configured to couple to a process pipe at a coupling point and measure a flowrate of a flow of process fluid, the magnetic flowmeter having flowmeter electronics, a liner, and a pair of electrodes coupled to the flowmeter electronics and being disposed to measure an electrical characteristic of the process fluid flowing through the liner; and a conductive polymer reference connection (104, 112, 300) spaced from the pair of electrodes and configured to contact the process fluid, the conductive polymer reference connection (104,112) being coupled to the flowmeter electronics; wherein the conductive polymer reference connection comprises a conductive polymer section molded into the liner of the magnetic flowmeter; and wherein the conductive polymer reference connection comprises a ring.
A motion assistance apparatus comprising: a fixing member configured to be fixed to a user; a first supporting module configured to support a right leg of the user; a second supporting module configured to support a left leg of the user; a driving module on one side of the fixing member, the driving module including a driving source configured to transmit mechanical power, characterized in that the driving module is configured to transmit mechanical power of a single driving source to the first supporting module and the second supporting module; said driving module further comprising: a first decelerator configured to operate based on the mechanical power received from the driving source, and a second decelerator configured to operate based on the mechanical power received from the driving source; a first joint member and a second joint member configured to assist respective rotary motions of the first and the second supporting modules (50,70); a first power transmitting member configured to transmit the mechanical power between an output terminal of the first decelerator and the first joint member; a second power transmitting member configured to transmit the mechanical power between an output terminal of the second decelerator and the second joint member; and a stopper module configured to selectively enable or disable a transmission of the mechanical power between the driving source and at least one of the first joint member and the second joint member. a fixing member configured to be fixed to a user; a first supporting module configured to support a right leg of the user; a second supporting module configured to support a left leg of the user; a driving module on one side of the fixing member, the driving module including a driving source configured to transmit mechanical power, characterized in that the driving module is configured to transmit mechanical power of a single driving source to the first supporting module and the second supporting module; said driving module further comprising: a first decelerator configured to operate based on the mechanical power received from the driving source, and a second decelerator configured to operate based on the mechanical power received from the driving source; a first decelerator configured to operate based on the mechanical power received from the driving source, and a second decelerator configured to operate based on the mechanical power received from the driving source; a first joint member and a second joint member configured to assist respective rotary motions of the first and the second supporting modules (50,70); a first power transmitting member configured to transmit the mechanical power between an output terminal of the first decelerator and the first joint member; a second power transmitting member configured to transmit the mechanical power between an output terminal of the second decelerator and the second joint member; and a stopper module configured to selectively enable or disable a transmission of the mechanical power between the driving source and at least one of the first joint member and the second joint member.
A phase locked loop for a beamforming system, comprising: - a loop filter configured to provide a control signal to a controllable oscillator, said controllable oscillator configured to provide an oscillator signal in response to the control signal; - a frequency divider configured to provide a first feedback signal and a second feedback signal in response to the oscillator signal, the second feedback signal delayed with respect to the first feedback signal; - a first comparator path configured to receive the first feedback signal and a second comparator path configured to receive the second feedback signal, each of the first and second comparator path (4, 5) configured to provide a respective current signal (CS, CS1, CS2) to the loop filter in response to a respective phase adjustment signal (FA1, FA2) and a phase deviation between a common reference signal and the respective feedback signal (FB, FBD). - a loop filter configured to provide a control signal to a controllable oscillator, said controllable oscillator configured to provide an oscillator signal in response to the control signal; - a frequency divider configured to provide a first feedback signal and a second feedback signal in response to the oscillator signal, the second feedback signal delayed with respect to the first feedback signal; - a first comparator path configured to receive the first feedback signal and a second comparator path configured to receive the second feedback signal, each of the first and second comparator path (4, 5) configured to provide a respective current signal (CS, CS1, CS2) to the loop filter in response to a respective phase adjustment signal (FA1, FA2) and a phase deviation between a common reference signal and the respective feedback signal (FB, FBD).
A compound represented by the following formula 1 or pharmaceutically acceptable salt thereof: wherein R 1 and R 2 are each independently selected from the group consisting of hydrogen, C 1 -C 5 alkyl group and C 6 -C 10 aryl group or R 1 and R 2 together with the carbon atom to which they attach form C 5 -C 6 cycloalkyl group; R 3,, R 4, R 5, R 6 and R 7 are each independently selected from the group consisting of hydrogen, halogen, C 1 -C 5 alkyl group, nitro group and unsubstituted or C 1 -C 3 alkyl-substituted amine group; R 8 and R 9 are each independently hydrogen or C 1 -C 3 alkyl group; n and m are each independently integer of 0-2.
A bonded abrasive tool, comprising a three-dimensional composite; wherein the composite comprises (a) a first continuous phase comprising 20-48 vol % abrasive grains, 20 to 48 vol % organic bond material and less than 10 vol% porosity, wherein 50 to 100 vol % of the abrasive grains are in the form of a plurality of grains agglomerated together by sintering the grain with an inorganic binder material; and (b) a second phase consisting of 16 to 34 vol% porosity; wherein the sum of the volume percentages of grain, bond and porosity for the combination of the first and second hases equals 100 %, and wherein the minimum burst speed is 30.48 m/s (6000 sfpm). (a) a first continuous phase comprising 20-48 vol % abrasive grains, 20 to 48 vol % organic bond material and less than 10 vol% porosity, wherein 50 to 100 vol % of the abrasive grains are in the form of a plurality of grains agglomerated together by sintering the grain with an inorganic binder material; and (b) a second phase consisting of 16 to 34 vol% porosity; wherein the sum of the volume percentages of grain, bond and porosity for the combination of the first and second hases equals 100 %, and wherein the minimum burst speed is 30.48 m/s (6000 sfpm).
A method for manufacturing a three-dimensional object, comprising the steps of: stacking a plurality of layers for forming an object; building a wall surrounding the object being formed at a distance from the object being formed; and supplying a fluid material between the wall and the object being formed as a support material for supporting the object; characterized by providing a layer comprising a portion for forming the object and a portion for forming the wall on an intermediate transfer member; and transferring the layer comprising the portion for forming the object and the portion for forming the wall to the object being formed and the wall surrounding the object being formed. stacking a plurality of layers for forming an object; building a wall surrounding the object being formed at a distance from the object being formed; and supplying a fluid material between the wall and the object being formed as a support material for supporting the object; characterized by providing a layer comprising a portion for forming the object and a portion for forming the wall on an intermediate transfer member; and transferring the layer comprising the portion for forming the object and the portion for forming the wall to the object being formed and the wall surrounding the object being formed.
A construction assembly comprising a plurality of modular construction units in the form of wall panels and ceiling panels, said wall panels and ceiling panels being configured to extend at least in a first direction and in a second direction to create a closed construction assembly in the manner that said ceiling panels are configured to cover top of a four-sided closed construction assembly wherein; each wall and ceiling panel (12, 13) has two principal faces and four side faces, each wall panel is assembled with a neighboring ceiling panel through a multi-axis connector in the form of a U-shaped envelope intermediate element extending along a side face of said wall panel entirely covering said side face and partially covering two principal faces thereof, said multi-axis connector receives a plurality of multi-layer penetration means extending along at least a first and a second connection axis and assembling said wall panel with said ceiling panel passing through said wall panel or said ceiling panel. said multi-axis connector is configured to entirely cover first and second corner edges (24, 25) of a wall panel's side face, said side face directly facing a ceiling panel forming a connection surface between the wall panel and the ceiling panel, said multi-axis connector's connection surface connects the ceiling panel to the wall panel, said multi-axis connector comprises two connector legs at both sides of said connection surface forming the U-shaped envelope, characterized in that a multi-layer penetration means connects a first and second corner profile elements (15, 16) to the wall panel along the two connector legs of said multi-axis connector at both sides of said connection surface, said first and second corner profile elements (15, 16) respectively cover a first and second connection side of the structure formed by a pair of neighboring wall and ceiling panels (12, 13), said multi-layer penetration means extends through said ceiling panel and said connection surface of said multi-axis connector to connect the ceiling panel to the wall panel and, said first corner profile element partially covers one of the principal faces of the ceiling panel, additionally fully covers one of the side faces thereof and further fully covering one of the connector legs, extends over said connector leg to reach a position in contact with one of the principal faces of the wall panel.
A shearing method for applying a shear force on a plate-shaped workpiece in a single direction in a thickness direction to cut the workpiece, the method comprising: starting application of the shear force on the workpiece with a clearance between action points in a surface direction orthogonal to the thickness direction of the workpiece; applying the shear force after starting applying the shear force until a fractured surface is created on the workpiece; and increasing the clearance depending on the relative movement distance of the action points in the thickness direction of the workpiece after starting applying the shear force until the fractured surface is created on the workpiece, wherein C/t, a ratio of the clearance to a thickness (t) of the workpiece, is equal to or greater than 5% and is equal to or less than 20%. starting application of the shear force on the workpiece with a clearance between action points in a surface direction orthogonal to the thickness direction of the workpiece; applying the shear force after starting applying the shear force until a fractured surface is created on the workpiece; and increasing the clearance depending on the relative movement distance of the action points in the thickness direction of the workpiece after starting applying the shear force until the fractured surface is created on the workpiece, wherein C/t, a ratio of the clearance to a thickness (t) of the workpiece, is equal to or greater than 5% and is equal to or less than 20%.
A method for fermenting a wort in a fermentation tank comprising a bottom port in a bottom of the fermentation tank, and at least three side ports, being a first side port, a second side port, and a third side port, wherein said side ports are in fluid communication with each other, comprising the steps of: - letting wort into the fermentation tank via the bottom port; - pitching wort with yeast; - incubating wort with yeast under conditions that allow the yeast to grow, thereby obtaining a partly fermented wort; - pumping the partly fermented wort out of the fermentation tank via at least one of the side ports and back into the fermentation tank via at least another of the side ports for at least obtaining a further fermented wort, and - drawing off the further fermented wort out of at least one of the side ports. - letting wort into the fermentation tank via the bottom port; - pitching wort with yeast; - incubating wort with yeast under conditions that allow the yeast to grow, thereby obtaining a partly fermented wort; - pumping the partly fermented wort out of the fermentation tank via at least one of the side ports and back into the fermentation tank via at least another of the side ports for at least obtaining a further fermented wort, and - drawing off the further fermented wort out of at least one of the side ports.
An antenna array comprising a plurality of linear electromagnetic resonators having longitudinal axes oriented parallel to one another and not placed on a common axis, and at least one decoupling device arranged between two said adjacent linear electromagnetic resonators, said decoupling device comprising a plurality of open-loop electromagnetic resonators that are matched to a frequency located in the bandwidth of the two said adjacent linear electromagnetic resonators, that are electrically insulated from their environment, each said open-loop electromagnetic resonator having a characteristic dimension of the same order of magnitude as the length of the two said adjacent linear resonators, characterized in that the plurality of open-loop electromagnetic resonators are arranged in a plurality of respective planes that are not parallel to a plane (pr) containing the longitudinal axes of the two said adjacent linear electromagnetic resonators.