mhurhangee/ep-ind-claims huggingface dataset:
A device for automatic notification customization comprising: a controller; a notification device; and a memory storing: notification data; and identification data, the identification data comprising one or more of: an identifier of the device; and an account identifier identifying an account associated with the device, the controller configured to: alter the notification data using the identification data to generate altered notification data by producing a hash of at least a portion of the identification data and using the hash as input to an application for altering the notification data; determine that a notification of an event is to occur at the device; and control the notification device to provide the altered notification data. a controller; a notification device; and a memory storing: notification data; and identification data, the identification data comprising one or more of: an identifier of the device; and an account identifier identifying an account associated with the device, the controller configured to: alter the notification data using the identification data to generate altered notification data by producing a hash of at least a portion of the identification data and using the hash as input to an application for altering the notification data; determine that a notification of an event is to occur at the device; and control the notification device to provide the altered notification data. alter the notification data using the identification data to generate altered notification data by producing a hash of at least a portion of the identification data and using the hash as input to an application for altering the notification data; determine that a notification of an event is to occur at the device; and control the notification device to provide the altered notification data.
An orthodontic appliance comprising: a concave trough having receptacles (108, 120) each corresponding to a number of a patient's teeth, the trough having at least one receptacle (108, 120) configured to reposition one of the patient's teeth from a first position to a second position; a first anchor having a bonding base and a body; a second anchor having a bonding base and body; and an arch member releasably coupled to the first and second anchors (211, 212), wherein the concave trough includes a receptacle having surfaces at least partially enveloping the anchor body and arch member; and wherein the enveloping receptacle includes engagement regions and relief regions (124,128); said engagement regions coupling the trough to the anchor body, and wherein said relief regions (124, 128) have larger dimensions than the arch member such that the receptacle makes minimal or no direct contact with the arch member during wear. a concave trough having receptacles (108, 120) each corresponding to a number of a patient's teeth, the trough having at least one receptacle (108, 120) configured to reposition one of the patient's teeth from a first position to a second position; a first anchor having a bonding base and a body; a second anchor having a bonding base and body; and an arch member releasably coupled to the first and second anchors (211, 212), wherein the concave trough includes a receptacle having surfaces at least partially enveloping the anchor body and arch member; and wherein the enveloping receptacle includes engagement regions and relief regions (124,128); said engagement regions coupling the trough to the anchor body, and wherein said relief regions (124, 128) have larger dimensions than the arch member such that the receptacle makes minimal or no direct contact with the arch member during wear.
A method of generating an inclusion list for targeted mass spectrometric analysis, comprising: a. generating, using a mass spectrometer and a chromatography column, experimentally-acquired data for a plurality of isobarically-labeled peptides of interest, the data including, for each one of the isobarically-labeled peptides, a mass-to-charge ratio (m/z), a charge state, and a chromatographic retention time; b. receiving, at a computer, said experimentally -acquired data; c. determining, via the computer, for each one of the isobarically-labeled peptides, predicted properties for a corresponding unlabeled peptide, the predicted properties including a predicted m/z, a predicted charge state, and a predicted chromatographic retention time; and d. storing the predicted properties for each corresponding unlabeled peptide to the inclusion list; wherein the predicted chromatographic retention time for the corresponding unlabeled peptide is determined based on hydrophobicity indices of the isobarically-labeled peptide and the corresponding unlabeled peptide, and chromatographic conditions for the targeted mass spectrometric analysis. a. generating, using a mass spectrometer and a chromatography column, experimentally-acquired data for a plurality of isobarically-labeled peptides of interest, the data including, for each one of the isobarically-labeled peptides, a mass-to-charge ratio (m/z), a charge state, and a chromatographic retention time; b. receiving, at a computer, said experimentally -acquired data; c. determining, via the computer, for each one of the isobarically-labeled peptides, predicted properties for a corresponding unlabeled peptide, the predicted properties including a predicted m/z, a predicted charge state, and a predicted chromatographic retention time; and d. storing the predicted properties for each corresponding unlabeled peptide to the inclusion list;
A brassiere comprising: at least one cover layer having a pre-formed shape defining a pair of breast cups, the cover layer at the region of each breast cup having an upper region (37, 38) for positioning at or towards the clavicle of a person, a medial inner region for positioning at or towards the sternum, a lower region (39, 40) for positioning at or towards the inframammary fold of a breast, a lateral region for positioning at or towards the serratus anterior and a central region for positioning generally at the nipple; an inflatable main bladder positioned respectively behind the cover layer at each cup, the main bladder extending along the lower region from the medial region to the lateral region of each cup; the main bladder having an inlet port to allow an inflation fluid to be introduced into the main bladder to lift the breast against gravity; a second breast movement component positioned respectively at each breast cup at the upper region and the medial inner region configured to move the breast laterally outward from the inner region in an orientation towards the lateral region; wherein the main bladder of a first cup of the pair of cups is configured to lift a first breast against gravity and characterized in that the second movement component of a second cup of the pair of cups is configured to move a second breast in the direction towards the lateral region and away from the first breast. at least one cover layer having a pre-formed shape defining a pair of breast cups, the cover layer at the region of each breast cup having an upper region (37, 38) for positioning at or towards the clavicle of a person, a medial inner region for positioning at or towards the sternum, a lower region (39, 40) for positioning at or towards the inframammary fold of a breast, a lateral region for positioning at or towards the serratus anterior and a central region for positioning generally at the nipple; an inflatable main bladder positioned respectively behind the cover layer at each cup, the main bladder extending along the lower region from the medial region to the lateral region of each cup; the main bladder having an inlet port to allow an inflation fluid to be introduced into the main bladder to lift the breast against gravity; a second breast movement component positioned respectively at each breast cup at the upper region and the medial inner region configured to move the breast laterally outward from the inner region in an orientation towards the lateral region; wherein the main bladder of a first cup of the pair of cups is configured to lift a first breast against gravity and characterized in that the second movement component of a second cup of the pair of cups is configured to move a second breast in the direction towards the lateral region and away from the first breast.
A decorative sheet comprising at least a base material layer, and a surface protective layer formed of an ionizing radiation curable resin composition, further comprising a primer layer between the base material layer and the surface protective layer, the surface protective layer containing a blocked isocyanate; wherein the ionizing radiation curable resin composition contains a polycarbonate (meth)acrylate. further comprising a primer layer between the base material layer and the surface protective layer, the surface protective layer containing a blocked isocyanate;
A method for biosensing a target substance, the method comprising: bringing a solution, or other matrix material, containing the target substance into contact with a sensor device having a surface, a collection of particles tethered to the surface by tether molecules, and a collection of capture molecules, wherein the collection of capture molecules comprises first capture molecules attached to the particles or to the tether molecules, and second capture molecules attached to the surface or to the tether molecules, wherein the first capture molecules are selected to bind to the target substance and have a first target dissociation rate, and the second capture molecules are selected to bind to the target substance and have a second target dissociation rate that differs from the first target dissociation rate by at least a factor of three; detecting a time series of a spatial coordinate parameter of the particles, wherein the spatial coordinate parameter is measured relative to the surface, identifying within the detected time series a time sequence of individual association/dissociation events of the target substance with the capture molecules, wherein each of the events corresponds to a change between binding states of a first capture molecule CM1 and a second capture molecule CM2 to a target substance T; determining a concentration of the target substance in the solution, or other matrix material, from the identified time sequence of individual association/dissociation events. bringing a solution, or other matrix material, containing the target substance into contact with a sensor device having a surface, a collection of particles tethered to the surface by tether molecules, and a collection of capture molecules, wherein the collection of capture molecules comprises first capture molecules attached to the particles or to the tether molecules, and second capture molecules attached to the surface or to the tether molecules, wherein the first capture molecules are selected to bind to the target substance and have a first target dissociation rate, and the second capture molecules are selected to bind to the target substance and have a second target dissociation rate that differs from the first target dissociation rate by at least a factor of three; detecting a time series of a spatial coordinate parameter of the particles, wherein the spatial coordinate parameter is measured relative to the surface, identifying within the detected time series a time sequence of individual association/dissociation events of the target substance with the capture molecules, wherein each of the events corresponds to a change between binding states of a first capture molecule CM1 and a second capture molecule CM2 to a target substance T; determining a concentration of the target substance in the solution, or other matrix material, from the identified time sequence of individual association/dissociation events.
Wire mesh welding machine comprising a feed device for groups of parallel longitudinal wires, by means of which device the longitudinal wires of the wire mesh can be brought into guides arranged upstream of a welding press and then into a welding position respectively resting on a transverse wire in the welding press, which feed device has, on the inlet side with respect to a production and flow direction, a carriage which is provided with clamping elements (2.1) for the longitudinal wires and is cyclically movable forwards in the direction of the longitudinal wires when said wires are conveyed in the flow direction of the wire mesh and backwards when the longitudinal wires are released, said welding machine also comprising a transport apparatus arranged on the outlet side, by means of which a wire mesh which is welded to transverse wires at the front end can be gripped and extracted from the welding press, characterised in that the wire mesh welding machine has, at a distance from and subsequent to the first carriage, a second carriage which is also movable and provided with clamping elements (3.1), it being possible for the relevant longitudinal wire group to be alternately received by means of the two carriages (2, 3) and also alternately moved in the flow direction using the transport apparatus on the outlet side.
A system comprising: a processor configured to be coupled to an electrical lead that is configured to sense electrical activity in a patient; a memory coupled to the processor, the memory containing computer readable instructions that, when executed by the processor, cause the processor to: detect a pain signature in the sensed electrical activity; determine a treatment protocol in response to the detected pain signature; and cause the treatment protocol to be delivered to the patient via the electrical lead; wherein the processor is able of detecting the pain signature in the sensed electrical activity by detecting a pain signature comprising a pattern of burst-firing, each burst of said burst firing comprising at least 10 times the number of spikes compared to a control non-pain pattern and wherein said burst firing comprises: (a) a maximum interval signifying burst onset of 6 ms; and (b) a maximum interspike interval of 9 ms; and (c) longest increase in interspike interval within a burst of 2 ms; and (d) a minimum number of spikes within a burst of 2. a processor configured to be coupled to an electrical lead that is configured to sense electrical activity in a patient; a memory coupled to the processor, the memory containing computer readable instructions that, when executed by the processor, cause the processor to: detect a pain signature in the sensed electrical activity; determine a treatment protocol in response to the detected pain signature; and cause the treatment protocol to be delivered to the patient via the electrical lead; detect a pain signature in the sensed electrical activity; determine a treatment protocol in response to the detected pain signature; and cause the treatment protocol to be delivered to the patient via the electrical lead; wherein the processor is able of detecting the pain signature in the sensed electrical activity by detecting a pain signature comprising a pattern of burst-firing, each burst of said burst firing comprising at least 10 times the number of spikes compared to a control non-pain pattern and wherein said burst firing comprises: (a) a maximum interval signifying burst onset of 6 ms; and (b) a maximum interspike interval of 9 ms; and (c) longest increase in interspike interval within a burst of 2 ms; and (d) a minimum number of spikes within a burst of 2. (a) a maximum interval signifying burst onset of 6 ms; and (b) a maximum interspike interval of 9 ms; and (c) longest increase in interspike interval within a burst of 2 ms; and (d) a minimum number of spikes within a burst of 2.
A manufacturing method of an aircraft member to perform extrusion processing by using an Mg-Al-Ca based alloy containing an (Mg, Al) 2 Ca compound, the manufacturing method comprising: selecting a billet of an Mg-Al-Ca based alloy containing Al: greater than or equal to 6 atom% and less than or equal to 8 atom%, Ca: greater than or equal to 3 atom% and less than or equal to 4 atom%, optionally Mn: less than or equal to 0.3 atom%, and optionally Si: less than or equal to 0.1 atom% with respect to the whole amount, the remaining part being Mg and unavoidable impurities; and extruding the billet under a condition where a temperature of the billet is maintained to be lower than a melting temperature of the (Mg, Al) 2 Ca compound, wherein the billet contains the (Mg, Al) 2 Ca compound by greater than or equal to 10 volume% and less than or equal to 35 volume%, the (Mg, Al) 2 Ca compound having a melting temperature of 490 degrees Celsius, wherein the condition is set by an extrusion temperature and an extrusion exit rate, wherein with respect to a straight line connecting a first plot (x: 375 degrees Celsius, y: 3.6 m/min) to a second plot (x: 450 degrees Celsius, y: 0.9 m/min) in a graph of an x-y coordinate system where an x-axis represents the extrusion temperature (degrees Celsius) and a y-axis represents the extrusion exit rate (m/min), the extrusion temperature and the extrusion exit rate are selected from values on the straight line or a range in which x and y are smaller than values on the straight line, and wherein the extrusion temperature in the condition is higher than or equal to 350 degrees Celsius. selecting a billet of an Mg-Al-Ca based alloy containing Al: greater than or equal to 6 atom% and less than or equal to 8 atom%, Ca: greater than or equal to 3 atom% and less than or equal to 4 atom%, optionally Mn: less than or equal to 0.3 atom%, and optionally Si: less than or equal to 0.1 atom% with respect to the whole amount, the remaining part being Mg and unavoidable impurities; and extruding the billet under a condition where a temperature of the billet is maintained to be lower than a melting temperature of the (Mg, Al) 2 Ca compound, wherein the billet contains the (Mg, Al) 2 Ca compound by greater than or equal to 10 volume% and less than or equal to 35 volume%, the (Mg, Al) 2 Ca compound having a melting temperature of 490 degrees Celsius, wherein the condition is set by an extrusion temperature and an extrusion exit rate, wherein with respect to a straight line connecting a first plot (x: 375 degrees Celsius, y: 3.6 m/min) to a second plot (x: 450 degrees Celsius, y: 0.9 m/min) in a graph of an x-y coordinate system where an x-axis represents the extrusion temperature (degrees Celsius) and a y-axis represents the extrusion exit rate (m/min), the extrusion temperature and the extrusion exit rate are selected from values on the straight line or a range in which x and y are smaller than values on the straight line, and wherein the extrusion temperature in the condition is higher than or equal to 350 degrees Celsius.
A method for detecting a server fault, comprising: collecting sample monitoring data of a plurality of servers, the sample monitoring data signifying operating states of the plurality of servers; analyzing the sample monitoring data to obtain a standard operating fault which is an operating fault reflected by the sample monitoring data; performing training, using a machine learning method based on the sample monitoring data, the standard operating fault and an initial detection mode, to obtain a fault detection model for the plurality of servers, wherein the initial detection model includes an initialized neural network, and the neurons in the initialized neural network have initial parameter values; and collecting current monitoring data of a target server, and inputting the current monitoring data into the fault detection model to determine an operating fault corresponding to the current monitoring data. collecting sample monitoring data of a plurality of servers, the sample monitoring data signifying operating states of the plurality of servers; analyzing the sample monitoring data to obtain a standard operating fault which is an operating fault reflected by the sample monitoring data; performing training, using a machine learning method based on the sample monitoring data, the standard operating fault and an initial detection mode, to obtain a fault detection model for the plurality of servers, wherein the initial detection model includes an initialized neural network, and the neurons in the initialized neural network have initial parameter values; and collecting current monitoring data of a target server, and inputting the current monitoring data into the fault detection model to determine an operating fault corresponding to the current monitoring data.
Device for generating physical plasma by means of dielectric barrier discharges with respect to a surface of an object, comprising - a high voltage terminal, - a plurality of electrode bodies - capacitively coupled to the one high voltage terminal, - comprising exposed electrode surfaces and - elongated in parallel to one another towards distal ends, and - spacers made of dielectric which project beyond the exposed electrode surfaces of the electrode bodies, characterized in that the spacers made of dielectric are attached to the distal ends of the electrode bodies and, in extension of the electrode bodies, project by 1.0 mm to 5.0 mm beyond the exposed electrode surfaces of the electrode bodies. - a high voltage terminal, - a plurality of electrode bodies - capacitively coupled to the one high voltage terminal, - comprising exposed electrode surfaces and - elongated in parallel to one another towards distal ends, and - capacitively coupled to the one high voltage terminal, - comprising exposed electrode surfaces and - elongated in parallel to one another towards distal ends, and - spacers made of dielectric which project beyond the exposed electrode surfaces of the electrode bodies,
An interface dressing comprising an elastomeric matrix, the elastomeric matrix being provided with a plurality of through-holes, each through-hole having a contour about a central axis, the interface dressing being characterized in that at least one part of the plurality of through-holes is arranged so as to form at least one pattern wherein each through-hole is adjacent to at least one other through-hole, the adjacent through-holes having contours, images of which, when moved translationally in a plane perpendicular to the central axes in order to merge images of said central axes by means of said translational movement, do not become superimposed.
A pyrimidine or pyridopyridone compound or pharmaceutical acceptable salt or stereoisomer thereof as shown in formula: Wherein: Y is selected from the group consisting of C and N, and no substitution by R 6 when Y is N; R 1 is selected from the group consisting of C1-C6 alkyl, C3-C6 cycloalkyl and C3-C6 cycloalkyl-substituted methyl; R 2 is selected from the group consisting of halogen, COR 5 and COOR 5; R 3 is selected from the group consisting of H and C1-C6 alkyl; R 4 is selected from the group consisting of C1-C6 alkyl, hydroxy-substituted C1-C6 alkyl, alkoxy-substituted C1-C6 alkyl, phenyl and halogen-substituted phenyl; R 5 is selected from the group consisting of H, C1-C6 alkyl, C1-C6 fluoroalkyl and C3-C6 cycloalkyl; R 6 is selected from the group consisting of H, F, CN and CH 3; m is selected from the group consisting of 0, 1 and 2; n is selected from the group consisting of 1, 2 and 3; and p is selected from the group consisting of 1, 2 and 3. Wherein: Y is selected from the group consisting of C and N, and no substitution by R 6 when Y is N; R 1 is selected from the group consisting of C1-C6 alkyl, C3-C6 cycloalkyl and C3-C6 cycloalkyl-substituted methyl; R 2 is selected from the group consisting of halogen, COR 5 and COOR 5; R 3 is selected from the group consisting of H and C1-C6 alkyl; R 4 is selected from the group consisting of C1-C6 alkyl, hydroxy-substituted C1-C6 alkyl, alkoxy-substituted C1-C6 alkyl, phenyl and halogen-substituted phenyl; R 5 is selected from the group consisting of H, C1-C6 alkyl, C1-C6 fluoroalkyl and C3-C6 cycloalkyl; R 6 is selected from the group consisting of H, F, CN and CH 3; m is selected from the group consisting of 0, 1 and 2; n is selected from the group consisting of 1, 2 and 3; and p is selected from the group consisting of 1, 2 and 3.