mhurhangee/patent-ind-claim-en huggingface dataset:
A modular initiator assembly comprising: a receptacle having a first portion and an extending connection portion having a pair of pincer electrical contacts , and a wedge shaped protrusion located in between the pair of electrical contacts ; and a connector adapted to accept the connection portion of the receptacle and having a pair of electrically conductive blades therethrough, each blade having only a single side springing extension ; wherein the single side springing extensions contact each other, wherein the installation of the receptacle into the connector causes the pincer electrical contacts to first electrically couple the corresponding blades to the receptacle , which are shunted due to the springing extensions , and then second, when fully inserted, the wedge shaped protrusion separates the springing extensions to electrically unshunt an initiator . a receptacle having a first portion and an extending connection portion having a pair of pincer electrical contacts , and a wedge shaped protrusion located in between the pair of electrical contacts ; and a connector adapted to accept the connection portion of the receptacle and having a pair of electrically conductive blades therethrough, each blade having only a single side springing extension ; wherein the single side springing extensions contact each other, wherein the installation of the receptacle into the connector causes the pincer electrical contacts to first electrically couple the corresponding blades to the receptacle , which are shunted due to the springing extensions , and then second, when fully inserted, the wedge shaped protrusion separates the springing extensions to electrically unshunt an initiator .
A method for generating a hologram characterizing a scattered field emanating from a sample, the method comprising: providing an illuminating beam ; sequentially scanning a position of a probe relative to the sample , wherein the probe comprises a focus of the illuminating beam adapted to illuminate the sample or a probe tip illuminated by the illuminating beam ; generating a reference beam (Ur) from the illuminating beam by a beamsplitter and imposing a specified phase function on the reference beam (Ur) as a function of time relative to a scanning position of the probe during a course of the sequential scanning, wherein the phase function is quasi-constant during the scanning of each position; superimposing with the reference beam (Ur) a field associated with a field scattered by the sample (Us); detecting the superimposed reference beam and field associated with the field scattered by the sample for each position to produce a detected signal; and recording the detected signal as a function of position in order to obtain a hologram, further comprising processing the hologram to generate an image of at least one of phase and amplitude associated with the scattered field. providing an illuminating beam ; sequentially scanning a position of a probe relative to the sample , wherein the probe comprises a focus of the illuminating beam adapted to illuminate the sample or a probe tip illuminated by the illuminating beam ; generating a reference beam (Ur) from the illuminating beam by a beamsplitter and imposing a specified phase function on the reference beam (Ur) as a function of time relative to a scanning position of the probe during a course of the sequential scanning, wherein the phase function is quasi-constant during the scanning of each position; superimposing with the reference beam (Ur) a field associated with a field scattered by the sample (Us); detecting the superimposed reference beam and field associated with the field scattered by the sample for each position to produce a detected signal; and recording the detected signal as a function of position in order to obtain a hologram, further comprising processing the hologram to generate an image of at least one of phase and amplitude associated with the scattered field.
Smoke detector , wherein the smoke detector is connectable to at least one monitoring camera that is embodied for recording images of a monitoring region, wherein the monitoring region comprises at least one spatially fixed light object that generates and/or emits light rays, wherein the at least one spatially fixed light object is embodied in the form of a window or an artificial illumination device, having an evaluation device , wherein the evaluation device is embodied to detect at least one smoke detection feature in the monitoring region to detect smoke in the images, wherein the evaluation device captures the at least one light object in the images, wherein the evaluation device detects a change in light scattering of the at least one captured spatially fixed light object as the at least one smoke detection feature, characterized in that the evaluation device captures a light object region and a light scattering region as the captured spatially fixed light object , wherein the light object region comprises an area and/or contour profile of the spatially fixed light object captured by the evaluation device and wherein the light scattering region is a region adjoining the light object region , wherein the evaluation device detects a change in the light scattering region as the change in the light scattering.
An epoxy resin composition comprising an epoxy resin, an acid anhydride-based curing agent, and a curing accelerator, the epoxy resin being represented by the formula : wherein X is a divalent group obtained by removing two hydrogen atoms from a hydrocarbon ring, or a divalent group represented by the formula : wherein Y is a bond, a C 1-6 alkylene group, an oxygen atom (-O-), or a group represented by the formula: -S(O) m - wherein m is 0, 1, or 2; R 1 is the same or different, and is a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; R 2 is the same or different, and is a C 1-18 alkylene group, wherein one or more carbon atoms of this group other than a carbon atom directly bonded to a silicon atom may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; R 3 is the same or different, and is a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; and n is the same or different, and is an integer of 0 to 3, wherein the curing accelerator is a tertiary amine compound or an imidazole compound. wherein Y is a bond, a C 1-6 alkylene group, an oxygen atom (-O-), or a group represented by the formula: -S(O) m - wherein m is 0, 1, or 2; R 1 is the same or different, and is a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; R 2 is the same or different, and is a C 1-18 alkylene group, wherein one or more carbon atoms of this group other than a carbon atom directly bonded to a silicon atom may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; R 3 is the same or different, and is a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; and n is the same or different, and is an integer of 0 to 3, wherein the curing accelerator is a tertiary amine compound or an imidazole compound.
A display device comprising a signal controller , a data driver , a scan driver , a power supply , and a display , wherein the display comprises a matrix of sub-pixels, including a plurality of rows and columns of sub-pixels, at the intersection of the scan lines and data lines , and a curved area comprising a display area and a non-display area separated from each other by a curved edge comprising at least one curved segment defined by a plurality of sub-pixel steps, wherein, in any column of sub-pixels, the sub-pixel located at an end of the column in the display area and which is directly adjacent to the at least one curved segment is referred to as being located at a step end, the signal controller being configured to: receive image information specifying a first grayscale value for a sub-pixel of the display area ; receive location information for the sub-pixel, the location information comprising a column and a row associated with the subpixel; identify whether the location information indicates that the sub-pixel is adjacent to the curved edge, and if the sub-pixel is not adjacent to the curved edge, send instructions to the data driver to supply the sub-pixel with a first voltage corresponding to the first grayscale value; and if the sub-pixel is adjacent to the curved edge, identify whether the location information indicates that the sub-pixel is located at a step end, and if the sub-pixel is located at a step end, send instructions to the data driver to supply the sub-pixel with a second voltage that corresponds to a second grayscale, which is less than the first grayscale; and if the sub-pixel is not located at a step end, send instructions to the data driver to supply the sub-pixel with a third voltage that corresponds to a third grayscale, the third grayscale being less than the first grayscale and greater than the second grayscale. receive image information specifying a first grayscale value for a sub-pixel of the display area ; receive location information for the sub-pixel, the location information comprising a column and a row associated with the subpixel; identify whether the location information indicates that the sub-pixel is adjacent to the curved edge, and if the sub-pixel is not adjacent to the curved edge, send instructions to the data driver to supply the sub-pixel with a first voltage corresponding to the first grayscale value; and if the sub-pixel is adjacent to the curved edge, identify whether the location information indicates that the sub-pixel is located at a step end, and if the sub-pixel is located at a step end, send instructions to the data driver to supply the sub-pixel with a second voltage that corresponds to a second grayscale, which is less than the first grayscale; and if the sub-pixel is not located at a step end, send instructions to the data driver to supply the sub-pixel with a third voltage that corresponds to a third grayscale, the third grayscale being less than the first grayscale and greater than the second grayscale.
An apparatus for preloading a bearing assembly on a shaft , the apparatus comprising: a first annular threaded member positioned about the shaft ; a second annular threaded member positioned about the shaft ; the first and second threaded members having intermeshing threads such that rotation of the second threaded member causes axial translation of the first threaded member to apply a first axial force to the bearing assembly to preload the bearing assembly ; a first actuator operable to rotate the second threaded member relative to the first threaded member to apply the first axial force to the bearing assembly; characterized in that the apparatus further comprises a plurality of additional linear actuators providing a second axial force to the first threaded member in a direction to reduce friction between the intermeshing threads . a first annular threaded member positioned about the shaft ; a second annular threaded member positioned about the shaft ; the first and second threaded members having intermeshing threads such that rotation of the second threaded member causes axial translation of the first threaded member to apply a first axial force to the bearing assembly to preload the bearing assembly ; a first actuator operable to rotate the second threaded member relative to the first threaded member to apply the first axial force to the bearing assembly; characterized in that the apparatus further comprises a plurality of additional linear actuators providing a second axial force to the first threaded member in a direction to reduce friction between the intermeshing threads .
A system for detecting an overflow event in a combined sewer comprising: - a sensor for detecting the level of water in the combined sewer , the sensor being a non-contact level sensor positioned at a height above an overflow outlet of the combined sewer , - a controller adapted to receive sensor data from the sensor , - a transmission module adapted to transmit sensor data to a data collection system , - an on-board power source for providing power to the sensor , the controller and the transmission module ; and, wherein the system is configured to operate in two modes, a coarse detection and transmission mode, and an overflow detection and transmission mode; and, wherein, in the coarse detection mode the system is configured to detect the level of water in the combined sewer at an interval of t(detection) coarse , and, wherein the system is configured to operate in a coarse transmission mode wherein in the coarse transmission mode sensor data representing the level of water in the combined sewer is transmitted at an interval of t(transmission) coarse , and, wherein, in the overflow detection and transmission mode the system is configured to: (i) detect the level of water in the combined sewer at an interval of t(detection) overflow , wherein t(detection) overflow is less than t(detection) coarse , and, (ii) operate in an overflow transmission mode wherein data representing the level of water in the combined sewer is transmitted at an interval of t(transmission) overflow , wherein t(transmission) overflow is less than t(transmission) coarse ; and, wherein the system is adapted to enter the overflow detection and transmission mode if the level of the water in the combined sewer exceeds a predetermined threshold H o , corresponding to a first level, and wherein when the system is in the overflow detection and transmission mode, the system is adapted to enter the coarse detection and transmission mode if the level of the water in the combined sewer below falls below a threshold corresponding to a second level, which is less than the first level. - a sensor for detecting the level of water in the combined sewer , the sensor being a non-contact level sensor positioned at a height above an overflow outlet of the combined sewer , - a controller adapted to receive sensor data from the sensor , - a transmission module adapted to transmit sensor data to a data collection system , - an on-board power source for providing power to the sensor , the controller and the transmission module ; and, (i) detect the level of water in the combined sewer at an interval of t(detection) overflow , wherein t(detection) overflow is less than t(detection) coarse , and, (ii) operate in an overflow transmission mode wherein data representing the level of water in the combined sewer is transmitted at an interval of t(transmission) overflow , wherein t(transmission) overflow is less than t(transmission) coarse ;
Medical device comprising at least one tube , characterised in that, the at least one tube comprises: an outer surface defining a cross section profile with at least one substantially non-concave side plane that is flatter than that of a concave cross section of a circular tube with similar outer and inner dimensions; and a pattern of a plurality of slots (12, 20, 51, 54, 73, a, b, c) formed in the at least one substantially non-concave side plane such that tines are defined thereby, the tines being bendable without buckling in such a way that the medical device is capable of expansion and contraction. an outer surface defining a cross section profile with at least one substantially non-concave side plane that is flatter than that of a concave cross section of a circular tube with similar outer and inner dimensions; and a pattern of a plurality of slots (12, 20, 51, 54, 73, a, b, c) formed in the at least one substantially non-concave side plane such that tines are defined thereby, the tines being bendable without buckling in such a way that the medical device is capable of expansion and contraction.
A household appliance, comprising a projection apparatus, wherein the household appliance further comprises a touch control module for touch control operation by the user, characterized in that the touch control module includes a capacitive touch control apparatus, a resistive touch control apparatus, an infrared touch control apparatus or a surface acoustic wave touch control apparatus and the projection apparatus is used to perform projection onto the touch control module and indicate, by using the projection, a touch control position corresponding to the touch control module.
A method for making a metal matrix composite material comprising: (a) forming a metal box comprising a bottom forming plate having a length and a width, a first pair of side forming plates having a length and a height, and a second pair of side forming plates having a width and a height; (b) mixing a metal powder and a ceramic powder to prepare a mixed powder; (c) over-filling the metal box with the mixed powder, wherein prior to said over-filling a riser frame or sleeve is placed over and/or around the metal box to contain the extra mixed powder; (d) after said over-filling, compacting the mixed powder in the metal box by applying pressure or force of at least 13.8 MPa (1 TSI) to provide the metal box comprising a compacted powder preform, wherein the mixed powder is not subjected to sintering and the compacted powder preform has a density ratio of at least 0.65 where the density ratio is calculated by dividing the weight of the mixed powder by the volume of the metal box then dividing by the theoretical density of the mixed powder assuming a fully dense material; (e) removing riser frame or sleeve and then disposing a top forming plate onto the metal box in solid abutment against the metal box comprising the compacted powder preform and sealing around its edges to produce an assembly; and (f) performing hot working on the assembly to obtain the metal matrix composite material with a metal cladding. (a) forming a metal box comprising a bottom forming plate having a length and a width, a first pair of side forming plates having a length and a height, and a second pair of side forming plates having a width and a height; (b) mixing a metal powder and a ceramic powder to prepare a mixed powder; (c) over-filling the metal box with the mixed powder, wherein prior to said over-filling a riser frame or sleeve is placed over and/or around the metal box to contain the extra mixed powder; (d) after said over-filling, compacting the mixed powder in the metal box by applying pressure or force of at least 13.8 MPa (1 TSI) to provide the metal box comprising a compacted powder preform, wherein the mixed powder is not subjected to sintering and the compacted powder preform has a density ratio of at least 0.65 where the density ratio is calculated by dividing the weight of the mixed powder by the volume of the metal box then dividing by the theoretical density of the mixed powder assuming a fully dense material; (e) removing riser frame or sleeve and then disposing a top forming plate onto the metal box in solid abutment against the metal box comprising the compacted powder preform and sealing around its edges to produce an assembly; and (f) performing hot working on the assembly to obtain the metal matrix composite material with a metal cladding.
High-efficiency phosphor from the class of the oxynitridosilicates having a cation M and the empirical formula M( 1-c ) Si 2 O 2 N 2 :D c , where M contains strontium as a component, and where D is a divalent doping with europium, characterized in that strontium alone or M = Sr( 1-x-y )Ba y Ca x with x+y < 0.5 is used for M, where the oxynitridosilicate consisting entirely or predominantly of the high-temperature stable modification HT, and wherein the proportion c of the Eu in the cation M being between 0.1 and 20 mol-% of M, and wherein the proportion of impurities of W and Co is in each case below 100 ppm, based on the precursor substances, wherein in the XRD spectrum of the phosphor the proportion of foreign phases is selected such that at the XRD deflection angle 2θ in the range 25 to 32° the intensity of all foreign phase peaks is less than 1/3 of the intensity of the main peak characterizing the HT modification at about 31.8°.
A carbon dioxide (CO 2 ) energy storage system comprising: a storage tank configured to store a CO 2 slurry including dry ice and liquid CO 2 , wherein said storage tank stores the slurry at the CO 2 triple point temperature and pressure; a first pump coupled in flow communication with said storage tank , wherein said first pump is configured to receive the CO 2 slurry from said storage tank and to increase a pressure of the CO 2 slurry to a pressure above the CO 2 triple point pressure; a contactor coupled in flow communication with said first pump , wherein said contactor is configured to receive the high pressure CO 2 slurry from said first pump and also to receive a first flow of gaseous CO 2 at a pressure above the CO 2 triple point pressure; a decanter coupled in flow communication with said storage tank , wherein said decanter is configured to receive a flow of the CO 2 slurry from said storage tank and to remove a flow of high percentage dry ice slurry from the flow of CO 2 slurry; and a second pump coupled in flow communication between said decanter and said contactor , wherein said second pump is configured to channel the flow of high percentage dry ice slurry from the CO 2 slurry to said contactor at a pressure above the CO 2 triple point pressure. a storage tank configured to store a CO 2 slurry including dry ice and liquid CO 2 , wherein said storage tank stores the slurry at the CO 2 triple point temperature and pressure; a first pump coupled in flow communication with said storage tank , wherein said first pump is configured to receive the CO 2 slurry from said storage tank and to increase a pressure of the CO 2 slurry to a pressure above the CO 2 triple point pressure; a contactor coupled in flow communication with said first pump , wherein said contactor is configured to receive the high pressure CO 2 slurry from said first pump and also to receive a first flow of gaseous CO 2 at a pressure above the CO 2 triple point pressure; a decanter coupled in flow communication with said storage tank , wherein said decanter is configured to receive a flow of the CO 2 slurry from said storage tank and to remove a flow of high percentage dry ice slurry from the flow of CO 2 slurry; and a second pump coupled in flow communication between said decanter and said contactor , wherein said second pump is configured to channel the flow of high percentage dry ice slurry from the CO 2 slurry to said contactor at a pressure above the CO 2 triple point pressure.