mhurhangee/ep-ind-claims huggingface dataset:
A modifier selected from the group consisting of compounds represented by Formulae 1-1, 1-2 and 1-5 to 1-8 below. wherein, in Formulae 1-1, 1-2 and 1-5 to 1-8, R 13 is a C 1 -C 20 alkyl group.
A circuit, comprising: an array of CMOS-fabricated pixels formed in columns and rows, each pixel (105 1) comprising: a chemically-sensitive field effect transistor (chemFET) having a floating gate structure, a source terminal, and a drain terminal, the drain terminal coupled to a first readout signal line (116 1); a first switch coupling the source terminal of the chemFET to a current source (106 j), the first switch comprising one first transistor; and a second switch coupling the source terminal of the chemFET to a second readout signal line (114 1), the second switch comprising one second transistor, wherein the first and second switches (Q3, Q2) are controlled by a row selection line (118 1) coupled to the two switches (Q3, Q2). an array of CMOS-fabricated pixels formed in columns and rows, each pixel (105 1) comprising: a chemically-sensitive field effect transistor (chemFET) having a floating gate structure, a source terminal, and a drain terminal, the drain terminal coupled to a first readout signal line (116 1); a first switch coupling the source terminal of the chemFET to a current source (106 j), the first switch comprising one first transistor; and a second switch coupling the source terminal of the chemFET to a second readout signal line (114 1), the second switch comprising one second transistor, wherein the first and second switches (Q3, Q2) are controlled by a row selection line (118 1) coupled to the two switches (Q3, Q2). a chemically-sensitive field effect transistor (chemFET) having a floating gate structure, a source terminal, and a drain terminal, the drain terminal coupled to a first readout signal line (116 1); a first switch coupling the source terminal of the chemFET to a current source (106 j), the first switch comprising one first transistor; and a second switch coupling the source terminal of the chemFET to a second readout signal line (114 1), the second switch comprising one second transistor, wherein the first and second switches (Q3, Q2) are controlled by a row selection line (118 1) coupled to the two switches (Q3, Q2).
A method of processing of detected high energy radiation data from a semiconductor device comprising the steps of: measuring a pulse energy reading from radiation incident at the semiconductor device; filtering the signal and determining the time that the filtered signal exceeds a predetermined threshold energy; if the determined time is within predetermined parameter(s) comprising at least a predetermined maximum, storing the pulse energy reading in a first, pulse energy data register; if the determined time is above a predetermined maximum, discarding the pulse energy reading and incrementing a count in a second, discard data register; repeating the above steps to acquire a dataset of pulse energy readings of a desired size in the first data register, wherein the pulse energy data register comprises a plurality of energy selective bins, acquired energy data is resolved in energy selective manner at a plurality of energies and/ or across a plurality of energy bands, and each pulse is selectively stored in one of such bins according to the height of the pulse; and on completion of such acquisition; using the second, discard data register to supplement the dataset of pulse energy readings by numerically correcting discarded counts and adding back into the dataset of pulse energy readings. measuring a pulse energy reading from radiation incident at the semiconductor device; filtering the signal and determining the time that the filtered signal exceeds a predetermined threshold energy; if the determined time is within predetermined parameter(s) comprising at least a predetermined maximum, storing the pulse energy reading in a first, pulse energy data register; if the determined time is above a predetermined maximum, discarding the pulse energy reading and incrementing a count in a second, discard data register; repeating the above steps to acquire a dataset of pulse energy readings of a desired size in the first data register, wherein the pulse energy data register comprises a plurality of energy selective bins, acquired energy data is resolved in energy selective manner at a plurality of energies and/ or across a plurality of energy bands, and each pulse is selectively stored in one of such bins according to the height of the pulse; and on completion of such acquisition; using the second, discard data register to supplement the dataset of pulse energy readings by numerically correcting discarded counts and adding back into the dataset of pulse energy readings.
Optical sensor arrangement for detection of a first liquid medium in a second liquid medium by means of reflection of an emitted light beam of a wavelength at a reflective surface, having a light source as well as an associated first receiver, having - two glass rod lenses (20a, 20b) which are arranged in parallel to each other, characterised in that the glass rod lenses each have a to some degree polished, sloping boundary surface (21a, 21b) with regard to their optical axis respectively, - the reflective surface is arranged opposite the two glass rod lenses (20a, 20b), - the light source is allocated to the first glass rod lens, - the first receiver is allocated to the second glass rod lens, - the sloping boundary surfaces (21a, 21b) are designed in such a way that in the case of sole presence of the second liquid medium in a detection chamber, the emitted light beam is reflected back into the first glass rod lens after impact on the reflective surface, and yet in the case of a very low concentration of the first medium in the second medium, portions of scattered light resulting from drops of the first medium are led to the first receiver via the second glass rod lens. - two glass rod lenses (20a, 20b) which are arranged in parallel to each other, characterised in that the glass rod lenses each have a to some degree polished, sloping boundary surface (21a, 21b) with regard to their optical axis respectively, - the reflective surface is arranged opposite the two glass rod lenses (20a, 20b), - the light source is allocated to the first glass rod lens, - the first receiver is allocated to the second glass rod lens, - the sloping boundary surfaces (21a, 21b) are designed in such a way that in the case of sole presence of the second liquid medium in a detection chamber, the emitted light beam is reflected back into the first glass rod lens after impact on the reflective surface, and yet in the case of a very low concentration of the first medium in the second medium, portions of scattered light resulting from drops of the first medium are led to the first receiver via the second glass rod lens.
A method for automatically optimizing performance of an object tracking system, comprising: receiving, within an optimizer, locations of each of a plurality of tags, where each tag is attached to an object tracked by the object tracking system; grouping, within the optimizer, identifiers of the tags within two or more tag sets based upon detected location of each of the tags, as determined by the object tracking system, a first of the tag sets (3512) identifying a plurality of tags located within a first area and each other one of the tag sets (3512, 3512) identifying tags not located within the first area; and configuring each tag identified within the first tag set with a first ping rate and configuring tags identified within each other tags sets with a second ping rate that is less than the first ping rate. receiving, within an optimizer, locations of each of a plurality of tags, where each tag is attached to an object tracked by the object tracking system; grouping, within the optimizer, identifiers of the tags within two or more tag sets based upon detected location of each of the tags, as determined by the object tracking system, a first of the tag sets (3512) identifying a plurality of tags located within a first area and each other one of the tag sets (3512, 3512) identifying tags not located within the first area; and configuring each tag identified within the first tag set with a first ping rate and configuring tags identified within each other tags sets with a second ping rate that is less than the first ping rate.
A method of preparing a fluorinated aryl or heteroaryl substrate, comprising: (a) combining a quaternary ammonium cyanide and an aryl or heteroaryl substrate substituted with at least one chloro, bromo, sulfonyl, or nitro group, thereby providing a mixture; and (b) combining hexafluorobenzene and the mixture to thereby provide the fluorinated aryl or heteroaryl substrate. (a) combining a quaternary ammonium cyanide and an aryl or heteroaryl substrate substituted with at least one chloro, bromo, sulfonyl, or nitro group, thereby providing a mixture; and (b) combining hexafluorobenzene and the mixture to thereby provide the fluorinated aryl or heteroaryl substrate.
Zero waste dosing method to fill containers of liquids which provides to use, at a delivery station of the liquid product, at least a volumetric pump with a rotor and stator, associated with a tank of the liquid to be introduced into said containers, wherein, as a function of at least the liquid, it comprises a step of filling each container, defining a "zero" angular start-of-delivery position of the volumetric pump and an angular end-of-delivery position of the desired quantity of liquid as a function of the "zero" angular position, wherein the "zero" angular position and/or the angular end-of-delivery position of the desired quantity of liquid are controlled and regulated by control and command means configured to re-position the "zero" angular position and/or the angular end-of-delivery position, characterized in that said method provides to control, by means of selective interception of the liquid delivered downstream of the outlet pipe of the volumetric pump, the desired delivery quantity of the liquid by defining an end-of-cycle delivery transitory through the angular end-of-delivery position.
An implantable medical device comprising: a balloon expandable scaffold (200; 300), the scaffold having a longitudinal axis (A-A), a set of longitudinally spaced rings (212, 212a, 212b, 212c, 212d; 312, 312a, 312b, 312c, 312d) formed by struts (230; 330) connected at crowns (207, 209, 210; 307, 309, 310), the struts configured to fold towards and unfold away from each other at the crowns, the set of longitudinally spaced rings including a proximal end ring (212d; 312d), a distal end ring opposing the proximal end ring, and interior rings (212a, 212b, 212c; 312a, 312b, 312c) positioned between the end rings, wherein each ring is associated with its direct neighboring ring by links (234; 234a, 234b, 234c, 234d; 237; 334; 334a, 334b, 334c, 334d) extending parallel to the longitudinal axis (A-A), and characterized in that at least one of the links of the scaffold comprising a marker structure for holding a pair of markers, and the marker structure includes a pair of depots (502a, 502b) in which the markers are placed, the depots being placed in a planar view along a vertical axis (B-B) perpendicular to the longitudinal axis (A-A); and wherein the set of rings includes a minimum crimped diameter such that in the minimum crimped diameter, a pair of rings, between which the marker structure resides, do not make contact with the marker structure. a balloon expandable scaffold (200; 300), the scaffold having a longitudinal axis (A-A), a set of longitudinally spaced rings (212, 212a, 212b, 212c, 212d; 312, 312a, 312b, 312c, 312d) formed by struts (230; 330) connected at crowns (207, 209, 210; 307, 309, 310), the struts configured to fold towards and unfold away from each other at the crowns, the set of longitudinally spaced rings including a proximal end ring (212d; 312d), a distal end ring opposing the proximal end ring, and interior rings (212a, 212b, 212c; 312a, 312b, 312c) positioned between the end rings, wherein each ring is associated with its direct neighboring ring by links (234; 234a, 234b, 234c, 234d; 237; 334; 334a, 334b, 334c, 334d) extending parallel to the longitudinal axis (A-A), and characterized in that at least one of the links of the scaffold comprising a marker structure for holding a pair of markers, and the marker structure includes a pair of depots (502a, 502b) in which the markers are placed, the depots being placed in a planar view along a vertical axis (B-B) perpendicular to the longitudinal axis (A-A); and wherein the set of rings includes a minimum crimped diameter such that in the minimum crimped diameter, a pair of rings, between which the marker structure resides, do not make contact with the marker structure.
A display control apparatus comprising: a proximity detector configured to detect proximity of an indicator to a display surface; a touch detector configured to detect touch of the indicator against the display surface; and a control unit configured to control display of an indicant on the display surf ace when the proximity detector detects that the indicator is in proximity to the display surface and to determine whether the indicant is selected based on detection of the touch of the indicator against the display surface by the touch detector; wherein the control unit is further configured to control size of the indicant displayed on the display surface based on detecting at least three areas on the display surface corresponding, respectively, to at least three indicators detected by the proximity detector to be in proximity to the display surface, to control the size of the indicant displayed on the display surface based on detecting a center position of each of the at least three areas, and to control the size of the indicant displayed on the display surface based on detecting a distance between the center positions of two areas of the at least three areas that are neighboring. a proximity detector configured to detect proximity of an indicator to a display surface; a touch detector configured to detect touch of the indicator against the display surface; and a control unit configured to control display of an indicant on the display surf ace when the proximity detector detects that the indicator is in proximity to the display surface and to determine whether the indicant is selected based on detection of the touch of the indicator against the display surface by the touch detector; wherein the control unit is further configured to control size of the indicant displayed on the display surface based on detecting at least three areas on the display surface corresponding, respectively, to at least three indicators detected by the proximity detector to be in proximity to the display surface, to control the size of the indicant displayed on the display surface based on detecting a center position of each of the at least three areas, and to control the size of the indicant displayed on the display surface based on detecting a distance between the center positions of two areas of the at least three areas that are neighboring.
A force sensor (100, 100', 200, 300, 400, 400', 500, 600) for use in a powered surgical device, the force sensor comprising: a substrate (110, 110', 210, 310, 410, 410', 510, 610) including a central aperture (101, 201, 401, 501) extending along a longitudinal axis of the substrate, the substrate having a proximal surface, a distal surface, a first side surface, a second side surface, a top surface, and a bottom surface, at least one of the distal surface, the first side surface, the second side surface, the top surface, or the bottom surface including a recess (111, 113, 111', 211, 213, 311, 313, 411, 411', 511, 611) defined therein; a plurality of sensing elements (Se) disposed within the recess; and a plate (120, 130, 320, 330, 420, 420', 520, 530, 620) disposed over the recess and mounted to the substrate to hermetically seal the plurality of sensing elements within the substrate, whereby the force sensor is sealed and configured to withstand environmental stresses associated with cleaning and sterilization. a substrate (110, 110', 210, 310, 410, 410', 510, 610) including a central aperture (101, 201, 401, 501) extending along a longitudinal axis of the substrate, the substrate having a proximal surface, a distal surface, a first side surface, a second side surface, a top surface, and a bottom surface, at least one of the distal surface, the first side surface, the second side surface, the top surface, or the bottom surface including a recess (111, 113, 111', 211, 213, 311, 313, 411, 411', 511, 611) defined therein; a plurality of sensing elements (Se) disposed within the recess; and a plate (120, 130, 320, 330, 420, 420', 520, 530, 620) disposed over the recess and mounted to the substrate to hermetically seal the plurality of sensing elements within the substrate, whereby the force sensor is sealed and configured to withstand environmental stresses associated with cleaning and sterilization.
A content reproduction control device connectable to a content reproducing device configured to reproduce contents and a content output device configured to output the contents to the content reproducing device, and configured to control the content reproducing device and the content output device, the device comprising: operation sections (306b and 310) used to select one of reproducing first contents in the content reproduction control device by the content reproducing device and reproducing second contents in the content output device by the content reproducing device; and a controller configured to instruct the content reproducing device to switch an input source in the content reproducing device to the content output device, when reproducing the second contents is selected. operation sections (306b and 310) used to select one of reproducing first contents in the content reproduction control device by the content reproducing device and reproducing second contents in the content output device by the content reproducing device; and a controller configured to instruct the content reproducing device to switch an input source in the content reproducing device to the content output device, when reproducing the second contents is selected.
A liquid crystal display device comprising a first substrate, a second substrate, a liquid crystal composition layer sandwiched between the first substrate and the second substrate, a color filter constituted by a black matrix and at least RGB three color pixel portions, a pixel electrode, and a common electrode, wherein the liquid crystal composition layer contains a liquid crystal composition containing at least one compound represented by general formula, in general formula, R 31 represents an alkyl group or alkoxy group having 1 to 10 carbon atoms or an alkenyl group or alkenyloxy group having 2 to 10 carbon atoms, M 31 to M 33 each independently represent a trans-1,4-cyclohexylene group or a 1,4-phenylene group, one or two -CH 2 - in the trans-1,4-cyclohexylene group may be substituted with -O- unless oxygen atoms directly bond to each other, one or two hydrogen atoms in the phenylene group may be substituted with a fluorine atom, X 31 and X 32 each independently represent a hydrogen atom or a fluorine atom, Z 31 represents a fluorine atom, a trifluoromethoxy group, or a trifluoromethyl group, n 31 and n 32 each independently represent 0, 1, or 2, n 31 + n 32 represents 0, 1, or 2, and when a plurality of M 31 or M 33 are present, the plurality of M 31 may be the same or different or the plurality of M 33 may be the same or different, and at least one compound selected from the group consisting of compounds represented by general formula (II-a) to general formula (II-e), in general formulae, R 21 to R 30 each independently represent an alkyl group having 1 to 10 carbon atoms or an alkenyl group having 2 to 10 carbon atoms, and X 21 represents a hydrogen atom or a fluorine atom; the RGB three color pixel portions contain, in a G pixel portion as a coloring material, a halogenated metal phthalocyanine pigment having a central metal selected from the group consisting of Al, Si, Sc, Ti, V, Mg, Fe, Co, Ni, Zn, Ga, Ge, Y, Zr, Nb, In, Sn, and Pb; when the central metal is a trivalent metal, any one of a halogen atom, a hydroxyl group, and a sulfonic acid group bonds to the central metal or the central metal forms an oxo-bridge or thio-bridge; and, when the central metal is a tetravalent metal, a single oxygen atom or any two of a halogen atom, a hydroxyl group, and a sulfonic acid group which may be the same or different bond to the central metal.
An apparatus of a mobile communications network, the apparatus comprising at least one processor, and at least one memory including computer program code, the at least one processor, with the at least one memory and the computer program code, being configured to cause the apparatus to perform the steps of: detecting a handover that is requested by a user equipment, wherein the user equipment moves from a first area of a first mobile-edge-computing server to a second area of a second mobile-edge-computing server, determining whether the user equipment has an ongoing application session with the first mobile-edge-computing server, determining whether the ongoing application session should be moved from the first mobile-edge-computing server to the second mobile-edge-computing server, if the user equipment has been determined to have the ongoing application session, and moving the ongoing application session from the first mobile-edge-computing server to the second mobile-edge-computing server, if the application session has been determined to be moved. detecting a handover that is requested by a user equipment, wherein the user equipment moves from a first area of a first mobile-edge-computing server to a second area of a second mobile-edge-computing server, determining whether the user equipment has an ongoing application session with the first mobile-edge-computing server, determining whether the ongoing application session should be moved from the first mobile-edge-computing server to the second mobile-edge-computing server, if the user equipment has been determined to have the ongoing application session, and moving the ongoing application session from the first mobile-edge-computing server to the second mobile-edge-computing server, if the application session has been determined to be moved.
A method for operating an injection moulding machine, comprising at least one plasticising device (2, 3) with at least one plasticising screw, which can be driven about a screw longitudinal axis in both a rotationally and a translationally movable manner, wherein by means of the plasticising device (2, 3) plastic melt is provided for injecting into a mould cavity in a screw antechamber, characterised in that in order to inject the plastic melt into the mould cavity, i.e. at least during an injection phase and during a holding-pressure phase, the plasticising screw is driven both translationally and rotationally by means of at least one drive unit, wherein the rotational drive of the plasticising screw is effected at a speed (n scr) such that a backflow (ṁ druck) of the melt from the screw antechamber back into the screw threads of the plasticising screw is overlaid by an opposing delivery flow (ṁ schlepp) caused by the rotation of the plasticising screw due to a translational injection movement of the plasticising screw, wherein a differential flow (ṁ Δ) is created from the backflow (ṁ druck) and the opposing delivery flow (ṁ schlepp) and the differential flow (ṁ Δ) is influenced at least during the injection phase by influencing the speed (n scr) of the plasticising screw, and the method is carried out without the use of a backflow barrier.