mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: an intra-body probe having a plurality of unipolar electrodes, the probe being configured to contact tissue in a heart; a display; and a processor, which is configured to receive an electrical signal from the electrodes and, for a plurality of pairs of unipolar electrodes, to perform the steps of: recording a bipolar electrogram from a pair of unipolar electrodes; recording a unipolar electrogram from one of the electrodes of the pair of unipolar electrodes; defining a time interval comprising a window of interest wherein a rate of change in a potential of the bipolar electrogram exceeds a predetermined value; establishing an annotation in the unipolar electrogram, wherein the annotation denotes a maximum rate of change in a potential of the unipolar electrogram within the window of interest; assigning a quality value to the annotation; and generating on the display a 3-dimensional map of a portion of the heart wherein the map includes the annotation and the quality value thereof. an intra-body probe having a plurality of unipolar electrodes, the probe being configured to contact tissue in a heart; a display; and a processor, which is configured to receive an electrical signal from the electrodes and, for a plurality of pairs of unipolar electrodes, to perform the steps of: recording a bipolar electrogram from a pair of unipolar electrodes; recording a unipolar electrogram from one of the electrodes of the pair of unipolar electrodes; defining a time interval comprising a window of interest wherein a rate of change in a potential of the bipolar electrogram exceeds a predetermined value; establishing an annotation in the unipolar electrogram, wherein the annotation denotes a maximum rate of change in a potential of the unipolar electrogram within the window of interest; assigning a quality value to the annotation; and generating on the display a 3-dimensional map of a portion of the heart wherein the map includes the annotation and the quality value thereof. recording a bipolar electrogram from a pair of unipolar electrodes; recording a unipolar electrogram from one of the electrodes of the pair of unipolar electrodes; defining a time interval comprising a window of interest wherein a rate of change in a potential of the bipolar electrogram exceeds a predetermined value; establishing an annotation in the unipolar electrogram, wherein the annotation denotes a maximum rate of change in a potential of the unipolar electrogram within the window of interest; assigning a quality value to the annotation; and generating on the display a 3-dimensional map of a portion of the heart wherein the map includes the annotation and the quality value thereof.
Security element, wherein the security element has a visible side and a rear side opposite this, wherein the security element comprises at least one luminous layer which is formed as a self-luminous luminous layer and which is able to emit light, as well as at least one masking layer which, during observation of the security element from the visible side, is arranged in front of the at least one luminous layer, wherein the at least one masking layer has at least one opaque region, characterised in that the at least one masking layer has at least two transparent openings (41, 42), and the at least two transparent openings (41, 42) possess a substantially higher transmittance than the at least one opaque region with respect to the light emitted by at least one luminous layer, preferably a transmittance that is at least 20 % higher, particularly preferably a transmittance that is at least 50 % higher, and light which leaves the security element through the masking layer under different exit angles (θ 1, θ 2) provides respective different optical information.
A method for producing an unsaturated aldehyde and/or an unsaturated carboxylic acid, the method comprising subjecting an alkene to gas-phase catalytic partial oxidation with molecular oxygen by using a multitubular reactor having a complex metal oxide catalyst filled therein, thereby obtaining a corresponding unsaturated aldehyde and/or unsaturated carboxylic acid, wherein two or more catalyst layers each containing a complex metal oxide catalyst are stuck in an axial direction of the tube, thereby achieving multilayer filling; a formulation of the complex metal oxide catalyst contained in one catalyst layer is different from a formulation of the complex metal oxide catalyst contained in at least one of other catalyst layers; a ratio of a component amount of bismuth to a component amount of molybdenum of the catalyst layer on the most gas inlet side in the tube axis is larger than a ratio of a component amount of bismuth to a component amount of molybdenum of the catalyst layer on the most gas outlet side in the tube axis; in all of the two catalyst layers adjacent to each other, a ratio of a component amount of bismuth to a component amount of molybdenum of the catalyst layer on the gas inlet side in the tube axis is equal to or larger than a ratio of a component amount of bismuth to a component amount of molybdenum of the catalyst layer on the gas outlet side in the tube axis; and the catalyst layer on the most gas outlet side in the tube axis contains a catalyst containing a compound represented by the following formula: Mo 12 Bi a Fe b Co c Ni d X e Y f Z g O h wherein X is at least one element selected from the group consisting of magnesium (Mg), calcium (Ca), manganese (Mn), copper (Cu), zinc (Zn), cerium (Ce) and samarium (Sm); Y is at least one element selected from the group consisting of boron, phosphorus, arsenic (As), antimony (Sb), tungsten, silicon (Si) and aluminum (Al); Z is at least one element selected from the group consisting of sodium (Na), potassium, rubidium (Rb) and cesium (Cs); a to h represent atomic ratios of the respective components; a = 0.40 or more and less than 0.80; b = 1.0 to 2.5; c = 3.0 to 7.5; d = 2.0 to 3.5; e = 0 to 10; f= 0 to 10; g = 0.01 to 1.0; his expressed by a numerical value satisfying oxidation states of other elements; d/a is more than 2.5 and 8.8 or less; d/g is 2.0 or more and 350 or less; and a/g is 0.4 or more and less than 80.
Group for weighing containers including: a movable member for drawing at least one container, the movable member featuring a peripheral edge wherein a recess forming a seat for drawing the container is achieved, the movable member being movable in a first movement direction so as a first wall of the seat abuts and draws the container; a weighing cell for weighing said container, including a support plane for receiving and supporting the container; guide means for guiding the container; the movable member being further movable in a further second movement direction, opposite to the first movement direction, for detaching the seat from the container and leave the container on the support plane for weighing; characterised in that: the weighing cell, the movable member and the guide means are arranged in such a way that when the container is drawn by the movable member the container can slide on the support plane and being guided by the guide means outwards with respect to the seat; the guide means includes a lateral guide wall being part of the weighing cell. a movable member for drawing at least one container, the movable member featuring a peripheral edge wherein a recess forming a seat for drawing the container is achieved, the movable member being movable in a first movement direction so as a first wall of the seat abuts and draws the container; a weighing cell for weighing said container, including a support plane for receiving and supporting the container; guide means for guiding the container; the movable member being further movable in a further second movement direction, opposite to the first movement direction, for detaching the seat from the container and leave the container on the support plane for weighing; characterised in that: the weighing cell, the movable member and the guide means are arranged in such a way that when the container is drawn by the movable member the container can slide on the support plane and being guided by the guide means outwards with respect to the seat; the guide means includes a lateral guide wall being part of the weighing cell. the weighing cell, the movable member and the guide means are arranged in such a way that when the container is drawn by the movable member the container can slide on the support plane and being guided by the guide means outwards with respect to the seat; the guide means includes a lateral guide wall being part of the weighing cell.
A method of generating a template, in an implantable medical device, of a normal heartbeat of a heart of a patient, comprising: detecting heartbeats as a plurality of events; collecting a predetermined number of detected non-paced heartbeats having predetermined characteristics during a first sample collection interval and identifying them as first selected events; generating a current template from the collected first selected events; waiting a predetermined delay; characterised by collecting a predetermined number greater than one of detected non-paced heartbeats having predetermined characteristics during a second sample collection interval subsequent to the first sample collection interval and the predetermined delay and identifying the predetermined number of detected non-paced heartbeats collected during the second sample collection interval.as second selected events; then, after said second sample collection interval, comparing the plurality of collected second selected events with the current template to obtain a result; and modifying the current template to generate an updated template from the collected second selected events in response to the result being an invalid template. detecting heartbeats as a plurality of events; collecting a predetermined number of detected non-paced heartbeats having predetermined characteristics during a first sample collection interval and identifying them as first selected events; generating a current template from the collected first selected events; waiting a predetermined delay; characterised by collecting a predetermined number greater than one of detected non-paced heartbeats having predetermined characteristics during a second sample collection interval subsequent to the first sample collection interval and the predetermined delay and identifying the predetermined number of detected non-paced heartbeats collected during the second sample collection interval.as second selected events; then, after said second sample collection interval, comparing the plurality of collected second selected events with the current template to obtain a result; and modifying the current template to generate an updated template from the collected second selected events in response to the result being an invalid template.
A display apparatus, comprising: a display panel at which images are displayed; a light source configured to radiate light at the display panel; a bottom chassis disposed at a rear of the light source; and a case provided at a rear of the bottom chassis; characterised in that: the display apparatus comprises a circulative cooling path forming a single closed loop around the bottom chassis that is configured to have air circulated at the sides, front and rear of the bottom chassis while provided in between of the bottom chassis and the case; and a blower apparatus to have the air circulated through the circulative cooling path. a display panel at which images are displayed; a light source configured to radiate light at the display panel; a bottom chassis disposed at a rear of the light source; and a case provided at a rear of the bottom chassis; characterised in that: the display apparatus comprises a circulative cooling path forming a single closed loop around the bottom chassis that is configured to have air circulated at the sides, front and rear of the bottom chassis while provided in between of the bottom chassis and the case; and a blower apparatus to have the air circulated through the circulative cooling path. the display apparatus comprises a circulative cooling path forming a single closed loop around the bottom chassis that is configured to have air circulated at the sides, front and rear of the bottom chassis while provided in between of the bottom chassis and the case; and a blower apparatus to have the air circulated through the circulative cooling path.
An abrasion resistant steel consisting of, on a percent by mass basis, 0.05% to 0.35% of C, 0.05% to 1.0% of Si, 0.1% to 2.0% of Mn, 0.1% to 1.2% of Ti, 0.1% or less of Al, 0,05% to 1.0% of Mo, at least one element of 0.1% to 1.0% of Cu, 0.1% to 2.0% of Ni, 0.1% to 1.0% of Cr, 0.05% to 1.0% of W, and 0.0003% to 0.0030% of B, and optionally at least one element of 0.005% to 1.0% of Nb and 0.005% to 1.0% of V on a percent by mass basis, and/or not more than 0.015% P, and/or not more than 0.012% S; and/or 0.01% or less N, wherein the remainder being Fe and incidental impurities, where DI* represented by Formula is less than 60. DI * = 33.85 × 0.1 × C * 0.5 × 0.7 × Si + 1 × 3.33 × Mn + 1 × 0.35 × Cu + 1 × 0.36 × Ni + 1 × 2.16 × Cr + 1 × 3 × Mo * + 1 × 1.5 × W * + 1 where C* = C - 1/4 × (Ti - (48/14)N), Mo* = Mo × (1 - 0.5 × (Ti - (48/14)N), W* = W × (1 - 0.5 × (Ti - (48/14)N), and C, Si, Mn, Cu, Ni, Cr, Mo, W, Ti, and N represent contents (percent by mass), and wherein the steel sheet has TS < 800MPa and YS < 600MPa.
A compaction assembly for a woven preform obtained by three-dimensional weaving of yarns and intended to form a composite turbomachine blade, said preform comprising parts predefining the airfoil, the foot of the blade and, between the airfoil and the foot, the root of the blade, the compaction assembly comprising a shaping mold delimiting an upwardly open housing, suitable for receiving a woven preform, and a compaction tool, that is vertically moveable and cooperates with the shaping mold for forming a compaction assembly allowing compaction of said preform when placed in the housing, characterized in that the compaction tool comprises at least one foot portion and wherein said compaction assembly defines a longitudinal direction and a vertical middle plane parallel to the longitudinal direction, the compaction tool comprising at least three separate compaction blocks (128 1 -128 7), among which are a central compaction block (128 1) passing through said middle plane and two side compaction blocks (128 6, 128 7) located at the side edges of said compaction tool, said compaction blocks being adapted to move downwards one by one towards the shaping mold in an independent way, starting with the central compaction block (128 1).
A composition comprising: semicrystalline polylactic acid polymer; polyvinyl acetate polymer having a glass transition temperature (Tg) of at least 25°C; plasticizer; and optionally amorphous polylactic acid polymer; wherein the composition does not exhibit plasticizer migration, as determined by placing 0.2 grams of the composition in a closed scintillation vial, aging at 80°C for 24 hours, and thereafter inspecting the sample surface, when samples having a dry surface are considered to pass and samples having a wet or oily surface are considered to fail; wherein the composition has a Tg less than 25°C; and wherein the Tg of the polyvinyl acetate polymer and the composition is measured in accordance with the method described in the description under the section entitled "DSC-Differential Scanning Calorimetry", the Tg referring to the midpoint temperature of the second heating scan. semicrystalline polylactic acid polymer; polyvinyl acetate polymer having a glass transition temperature (Tg) of at least 25°C; plasticizer; and optionally amorphous polylactic acid polymer; wherein the composition does not exhibit plasticizer migration, as determined by placing 0.2 grams of the composition in a closed scintillation vial, aging at 80°C for 24 hours, and thereafter inspecting the sample surface, when samples having a dry surface are considered to pass and samples having a wet or oily surface are considered to fail; wherein the composition has a Tg less than 25°C; and wherein the Tg of the polyvinyl acetate polymer and the composition is measured in accordance with the method described in the description under the section entitled "DSC-Differential Scanning Calorimetry", the Tg referring to the midpoint temperature of the second heating scan.
A process variable transmitter, comprising: an analog-to-digital (A/D) converter receiving a sensor signal provided by a sensor that senses a process variable and converts the sensor signal to a digital signal; a processor that receives the digital signal and provides a measurement output indicative of the digital signal; and a noise detector that receives the sensor signal and generates a first count value indicative of a number of positive noise events relative to a positive threshold value and a second count value indicative of a number of negative noise events relative to a negative threshold value, the processor generating a noise output, indicative of detected noise, based on the first and second count values. an analog-to-digital (A/D) converter receiving a sensor signal provided by a sensor that senses a process variable and converts the sensor signal to a digital signal; a processor that receives the digital signal and provides a measurement output indicative of the digital signal; and a noise detector that receives the sensor signal and generates a first count value indicative of a number of positive noise events relative to a positive threshold value and a second count value indicative of a number of negative noise events relative to a negative threshold value, the processor generating a noise output, indicative of detected noise, based on the first and second count values.
A vitreoretinal forceps for engaging and peeling membranes comprising: a body; pincers (13, 14) extending from a first end of the body, the pincers movable between an open configuration and a closed configuration; wherein each of the pincers (13, 14) comprises a hooked-shaped distal end, the hooked-shaped distal end comprising: a grasping surface inwardly offset from a remainder of the pincer; an end surface; and a rounded grasping edge disposed between the grasping surface and the end surface; and a textured surface formed along at least a portion of the grasping surface and wherein both the grasping edge and the end surface includes a textured surface; wherein the textured surface is configured to generate a capillary action with a contacted membrane as the pincers (13, 14) are moved into the closed configuration, wherein the textured surface comprises a plurality of protrusions and valleys formed therebetween defining a surface topography, and wherein the capillary action is operable to cause the membrane to be accepted into the valleys of the textured surface. a body; pincers (13, 14) extending from a first end of the body, the pincers movable between an open configuration and a closed configuration; wherein each of the pincers (13, 14) comprises a hooked-shaped distal end, the hooked-shaped distal end comprising: a grasping surface inwardly offset from a remainder of the pincer; an end surface; and a rounded grasping edge disposed between the grasping surface and the end surface; and a textured surface formed along at least a portion of the grasping surface and wherein both the grasping edge and the end surface includes a textured surface; wherein the textured surface is configured to generate a capillary action with a contacted membrane as the pincers (13, 14) are moved into the closed configuration, wherein the textured surface comprises a plurality of protrusions and valleys formed therebetween defining a surface topography, and wherein the capillary action is operable to cause the membrane to be accepted into the valleys of the textured surface. a grasping surface inwardly offset from a remainder of the pincer; an end surface; and a rounded grasping edge disposed between the grasping surface and the end surface; and a textured surface formed along at least a portion of the grasping surface and wherein both the grasping edge and the end surface includes a textured surface; wherein the textured surface is configured to generate a capillary action with a contacted membrane as the pincers (13, 14) are moved into the closed configuration, wherein the textured surface comprises a plurality of protrusions and valleys formed therebetween defining a surface topography, and wherein the capillary action is operable to cause the membrane to be accepted into the valleys of the textured surface.
PM01183, or a pharmaceutically acceptable salt thereof, for use in the treatment of cancer, comprising administering a therapeutically effective amount of PM01183, or a pharmaceutically acceptable salt thereof, in synergistic combination with a therapeutically effective amount of an antimetabolite, wherein the antimetabolite is selected from 5-fluorouracil, gemcitabine, cytarabine, capecitabine, decitabine, floxuridine, aminopterin, methotrexate, pemetrexed and raltitrexed.
A method for managing a network of a plurality of small cell base stations (F1, F2, F3), disposed in a region of a macro cell (R-BTS) in which at least one terminal (T1, T2, T3) is, each small cell base station (F1, F2, F3) being adapted to cover a small cell (Z1, Z2, Z3), the method being characterised by: - determining a set A of at least one small cell (Z1, Z2, Z3), covering said at least one terminal (T1, T2) present in the region, determining said set A consisting in locating each small cell and each terminal to obtain all the possible connections between a terminal and a small cell of the region; - selecting from said set A, the smallest subset B of at least one small cell for covering said at least one terminal (T1, T2); - activating said at least one small cell of said selected subset B. - determining a set A of at least one small cell (Z1, Z2, Z3), covering said at least one terminal (T1, T2) present in the region, determining said set A consisting in locating each small cell and each terminal to obtain all the possible connections between a terminal and a small cell of the region; - selecting from said set A, the smallest subset B of at least one small cell for covering said at least one terminal (T1, T2); - activating said at least one small cell of said selected subset B.
Antenna assembly comprising a steerable phased array antenna with omnidirectional sector and a GNSS antenna arranged in a housing, wherein the steerable phased array antenna with omnidirectional sector is formed by a truncated cone-shaped bottom reflector and a truncated cone-shaped top reflector arranged in a superposition facing each other with pointing end, wherein the steerable phased array antenna with omnidirectional sector further comprises an antenna array arranged in a spacing between the said truncated cone-shaped bottom reflector and truncated cone-shaped top reflector, characterized in that the truncated cone-shaped bottom reflector and the truncated cone-shaped top reflector are reflective for signals of the omnidirectional steerable phased array antenna, and the truncated cone-shaped top reflector is further transparent for GNSS signals for the GNSS antenna.