mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical training device comprising: a base ; and a top cover connected to and spaced apart from the base by at least one leg to define an internal cavity between the top cover and the base, the top cover having an opening and an insert sized and configured to be removably fitted into the opening of the top cover and connected thereto; characterised in that the at least one leg is configured to allow angulation of the top cover with respect to the base, wherein an angle between respective planes of the top cover and the base is selectably adjustable so as to simulate a patient in a Trendelenburg position or a reverse Trendelenburg position, the selectable angle between the top cover and the base being adjustable within a range of 0 ° to 60 °. a base ; and a top cover connected to and spaced apart from the base by at least one leg to define an internal cavity between the top cover and the base, the top cover having an opening and an insert sized and configured to be removably fitted into the opening of the top cover and connected thereto; characterised in that the at least one leg is configured to allow angulation of the top cover with respect to the base, wherein an angle between respective planes of the top cover and the base is selectably adjustable so as to simulate a patient in a Trendelenburg position or a reverse Trendelenburg position, the selectable angle between the top cover and the base being adjustable within a range of 0 ° to 60 °.
A method for making solar modules, comprising the steps of: - scribing a solar cell wafer to form a plurality of scribe lines in a solar cell wafer; - applying an electrically conductive adhesive bonding material to portions of a top or bottom surface of the solar cell wafer along the scribe lines; and - cleaving, after the applying the electrically conductive adhesive bonding material to the solar cell wafer , the solar cell wafer along the scribe lines to provide a plurality of physically separated solar cell strips; characterized in that the step of separating comprises the steps of: - advancing the solar cell wafer along a curved upper surface of a vacuum manifold by means of a perforated belt ; and - applying, by the vacuum manifold, a vacuum to a bottom surface of the solar cell wafer through perforations in the perforated belt to flex the solar cell wafer against the curved portion of the surface of the vacuum manifold and thereby sequentially cleave the solar cell along a plurality of scribe lines in the solar cell wafer. - scribing a solar cell wafer to form a plurality of scribe lines in a solar cell wafer; - applying an electrically conductive adhesive bonding material to portions of a top or bottom surface of the solar cell wafer along the scribe lines; and - cleaving, after the applying the electrically conductive adhesive bonding material to the solar cell wafer , the solar cell wafer along the scribe lines to provide a plurality of physically separated solar cell strips; - advancing the solar cell wafer along a curved upper surface of a vacuum manifold by means of a perforated belt ; and - applying, by the vacuum manifold, a vacuum to a bottom surface of the solar cell wafer through perforations in the perforated belt to flex the solar cell wafer against the curved portion of the surface of the vacuum manifold and thereby sequentially cleave the solar cell along a plurality of scribe lines in the solar cell wafer.
A method of determining a location of a target analyte in a biological sample, the method comprising: (a) contacting the biological sample with an array comprising a plurality of capture probes, wherein a capture probe of the plurality comprises (i) a capture domain and (ii) a spatial barcode; (b) releasing one or more target analyte(s) from the biological sample, wherein a target analyte of the one or more target analyte(s) released from the biological sample is hybridized to the capture domain of the capture probe; (c) extending an end of the capture probe using the target analyte hybridized to the capture domain of the capture probe as a template, to generate an extended capture probe; (d) exposing the capture probe to: (i) a base; and (ii) a detergent, wherein the exposing is performed at a temperature of about 30 °C to about 80 °C and wherein the exposing results in release of the extended capture probe of step (c) from the array; (e) adding a neutralizing agent; and (f) determining (i) all or a part of a sequence corresponding to the target analyte hybridized to the capture domain or a complement thereof, and (ii) a sequence corresponding to the spatial barcode or complement thereof, and using the determined sequences of (i) and (ii) to determine the location of the target analyte in the biological sample. (a) contacting the biological sample with an array comprising a plurality of capture probes, wherein a capture probe of the plurality comprises (i) a capture domain and (ii) a spatial barcode; (b) releasing one or more target analyte(s) from the biological sample, wherein a target analyte of the one or more target analyte(s) released from the biological sample is hybridized to the capture domain of the capture probe; (c) extending an end of the capture probe using the target analyte hybridized to the capture domain of the capture probe as a template, to generate an extended capture probe; (d) exposing the capture probe to: (i) a base; and (ii) a detergent, wherein the exposing is performed at a temperature of about 30 °C to about 80 °C and wherein the exposing results in release of the extended capture probe of step (c) from the array; (i) a base; and (ii) a detergent, (e) adding a neutralizing agent; and (f) determining (i) all or a part of a sequence corresponding to the target analyte hybridized to the capture domain or a complement thereof, and (ii) a sequence corresponding to the spatial barcode or complement thereof, and using the determined sequences of (i) and (ii) to determine the location of the target analyte in the biological sample. (i) all or a part of a sequence corresponding to the target analyte hybridized to the capture domain or a complement thereof, and (ii) a sequence corresponding to the spatial barcode or complement thereof, and using the determined sequences of (i) and (ii) to determine the location of the target analyte in the biological sample.
An automotive engine coolant composition comprising: a non-silicone surfactant; an anti-foaming agent containing a mineral oil and silica; and a base, wherein the base includes at least one alcohol selected from the group consisting of a monohydric alcohol, a dihydric alcohol, a trihydric alcohol, and a glycol monoalkyl ether and/or water, wherein the coolant composition has a kinematic viscosity is 8.5 mm 2 /s or more at 25°C and 2.0 mm 2 /s or less at 100°C, wherein the kinematic viscosity is measured according to JIS K 2283; and with respect to 100 parts by mass of the coolant composition, a content of the mineral oil is 0.01 to 0.4 parts by mass, and a content of the silica is 0.003 to 0.1 parts by mass. a non-silicone surfactant; an anti-foaming agent containing a mineral oil and silica; and a base, wherein the base includes at least one alcohol selected from the group consisting of a monohydric alcohol, a dihydric alcohol, a trihydric alcohol, and a glycol monoalkyl ether and/or water, wherein the coolant composition has a kinematic viscosity is 8.5 mm 2 /s or more at 25°C and 2.0 mm 2 /s or less at 100°C, wherein the kinematic viscosity is measured according to JIS K 2283; and with respect to 100 parts by mass of the coolant composition, a content of the mineral oil is 0.01 to 0.4 parts by mass, and a content of the silica is 0.003 to 0.1 parts by mass.
A light guide plate for an edge-lit backlight module comprises a first recessed portion and a second recessed portion , wherein the first recessed portion is provided at the bottom of a light incident end of the light guide plate for accommodating a light source , and the second recessed portion is provided at the top of the light incident end of the light guide plate , corresponding to the first recessed portion, wherein the first recessed portion and the second recessed portion are overlapped with each other, a light converging structure is provided at the bottom surface of the first recessed portion , the second recessed portion is a cone having an apex adjacent to the first recessed portion and a base parallel to a bottom surface of the light guide plate , characterized in that the light converging structure is a spherical cap structure which protrudes away from the apex of the cone, such that light emitted from the light source directly arrives at the second recessed portion after passing through the light converging structure of the first recessed portion .
A method of automatic remote control of a moving conveyance travelling on a predefined path , the moving conveyance including an on-board wireless radio unit and an image-capturing device installed on the moving conveyance so as to capture images of the predefined path ahead the moving conveyance , wherein a server remotely controlling the moving conveyance performs: - receiving (S301) from the on-board wireless radio unit images captured by the image-capturing device ; - analyzing (S302) the received images so as to detect presence of obstacle ahead the moving conveyance on the predefined path ; and - instructing (S304) the on-board wireless radio unit to stop the moving conveyance in case of obstacle presence detection; characterized in that the server further performs for each received image: - determining (S402) a distance Dfov from the received image, wherein Dfov represents a distance ahead considered as clear from any obstacle presence ; and - increasing (S404) quantity of uplink transmission resources allocated for allowing the on-board wireless radio unit to transmit the images toward the server , when a decrease of said distance Dfov is determined. - receiving (S301) from the on-board wireless radio unit images captured by the image-capturing device ; - analyzing (S302) the received images so as to detect presence of obstacle ahead the moving conveyance on the predefined path ; and - instructing (S304) the on-board wireless radio unit to stop the moving conveyance in case of obstacle presence detection; - determining (S402) a distance Dfov from the received image, wherein Dfov represents a distance ahead considered as clear from any obstacle presence ; and - increasing (S404) quantity of uplink transmission resources allocated for allowing the on-board wireless radio unit to transmit the images toward the server , when a decrease of said distance Dfov is determined.
An apparatus for launching pigs (P) into a process flow, the apparatus comprising: a housing defining a chamber with a first length and having an inlet and an outlet , the inlet for receiving pigs (P) from a first to a last into the chamber , the outlet in communication with the process flow and for passing pigs (P) from the first to the last out of the chamber to the process flow, a portion of the chamber in communication with the process flow; a guide disposed in the chamber and for guiding pigs (P) in the chamber , a surface of the guide being movable continuously along the length of the chamber from the inlet toward the outlet ; and an actuator operatively coupled to the surface of the guide , the actuator for moving pigs (P) together along the first length of the chamber with the surface of the guide from the inlet toward the outlet and for mechanically feeding each of the pigs (P) successively from the first to the last toward the outlet , wherein the surface of the guide comprises a paddle for engaging the last of the pigs (P), and wherein the actuator is operatively coupled to the paddle . a housing defining a chamber with a first length and having an inlet and an outlet , the inlet for receiving pigs (P) from a first to a last into the chamber , the outlet in communication with the process flow and for passing pigs (P) from the first to the last out of the chamber to the process flow, a portion of the chamber in communication with the process flow; a guide disposed in the chamber and for guiding pigs (P) in the chamber , a surface of the guide being movable continuously along the length of the chamber from the inlet toward the outlet ; and an actuator operatively coupled to the surface of the guide , the actuator for moving pigs (P) together along the first length of the chamber with the surface of the guide from the inlet toward the outlet and for mechanically feeding each of the pigs (P) successively from the first to the last toward the outlet , wherein the surface of the guide comprises a paddle for engaging the last of the pigs (P), and wherein the actuator is operatively coupled to the paddle .
A fan track liner assembly comprising: a gas turbine engine fan case having a cavity ; a fan track body received in the cavity and having a first surface , an inner core and a second surface , the first surface is made of abradable material and is operable to engage a blade member , the inner core is made of collapsible material that is operable to be deformed during a catastrophic condition, the second surface has a profile that is configured to substantially mate with an inside surface of the fan case ; a first mounting member extending from the fan track body ; and a second mounting member extending from the fan track body ; the fan track liner assembly being characterized by : a flexible material covering an opening extending between a fan case hook and a forward surface of the fan track body that leads into a void disposed between the fan track body and the inside surface of the fan case , the flexible material operable to yield into the void during a catastrophic event.
System, comprising a cutting device for cutting a towed array sonar , wherein the cutting device comprises a first cutter for cutting the towed array sonar , wherein (a) the cutting device comprises a second cutter for cutting the towed array sonar , (b) wherein the second cutter is arranged spaced apart at a predetermined distance from the first cutter ; characterized in that the cutting device contains one or more sensor devices for obtaining information about the position of at least one of the cutting blades , wherein the sensor devices comprise a connection for connecting to an operating unit of the cutting device for providing the information for the operating unit , wherein the operating unit comprises a connection to the cutters for activating the cutters on the basis of the information of the sensor devices or as a result of control by an operator. (a) the cutting device comprises a second cutter for cutting the towed array sonar , (b) wherein the second cutter is arranged spaced apart at a predetermined distance from the first cutter ;
A bean grinding device , comprising a grinding assembly and an adjusting assembly, wherein the grinding assembly comprises a bean grinding chamber , an outer grinding wheel , and an inner grinding wheel ; the outer grinding wheel and the inner grinding wheel are disposed inside the bean grinding chamber ; the adjusting assembly comprises at least two stages of adjusting mechanisms; the at least two stages of adjusting mechanisms comprises a first adjusting mechanism and a second adjusting mechanism; the first adjusting mechanism and the bean grinding chamber are connected by means of a track; the second adjusting mechanism and the outer grinding wheel are connected by means of a track; positions of the first adjusting mechanism and the second adjusting mechanism are relatively fixed in an axial direction; the first adjusting mechanism and the second adjusting mechanism are configured to adjust a height of the outer grinding wheel and adjust a distance between the outer grinding wheel and the inner grinding wheel ; characterized in that the grinding assembly further comprises an outer grinding wheel sleeve ; the outer grinding wheel is fixedly installed in the outer grinding wheel sleeve ; the outer grinding wheel sleeve comprises a protruding member and a position locking member ; the protruding member is configured to be connected to the track of the second adjusting mechanism; the bean grinding chamber has a position locking groove ; and the position locking member is configured to be locked in the position locking groove and restrict a movement of the outer grinding wheel in a circumferential direction. characterized in that the grinding assembly further comprises an outer grinding wheel sleeve ; the outer grinding wheel is fixedly installed in the outer grinding wheel sleeve ; the outer grinding wheel sleeve comprises a protruding member and a position locking member ; the protruding member is configured to be connected to the track of the second adjusting mechanism; the bean grinding chamber has a position locking groove ; and the position locking member is configured to be locked in the position locking groove and restrict a movement of the outer grinding wheel in a circumferential direction.
An arrangement for controlling a shutdown phase of a WHR-system, wherein the WHR-system comprises a main circuit which comprises a pump , an evaporator , an expander and a condenser , and a compensation tank which is configured to compensate for volume changes of a working fluid in the main circuit during operation of the WHR-system, wherein the arrangement comprises a control unit configured to receive information when the shutdown phase of the WHR-system is to be initiated and flow means able to supply working fluid from the compensation tank to the main circuit , and that the control unit is configured to activate said flow means such that working fluid is supplied from the compensation tank to the main circuit when it receives information indicating that the shutdown phase of the WHR-system is to be initiated, wherein said flow means comprises a flow member arranged to circulate the working fluid in the main circuit during at least a part of the shutdown phase, and wherein the flow member is the pump in the WHR-system, characterized in that said flow means comprises a first connection line and a second connection line connecting the compensation tank and the main circuit, a first valve member configured to direct working fluid from the main circuit to the compensation tank via the first connection line and a second valve member configured to direct working fluid from the compensation tank to the main circuit via the second connection line .
A composition comprising oil obtained from Nigella sativa seeds and one or more surface-active agents, wherein the concentration of thymoquinone in said composition is at least 2 % (w/w), wherein the concentration of said surface-active agent(s) is at least 0.2 % (w/w), and wherein said one or more surface-active agents are selected from the group consisting of D-α-Tocopherol polyethylene glycol succinate (TPGS), lecithin and isolecithin.
An antenna device comprising a shield box including a dielectric in a prismatic shape and a conductor coating a portion of the dielectric, wherein, assuming one surface of the shield box as a main surface and a surface opposing the main surface as a back surface, the main surface has a structure in which patterns formed by a planar shape of the conductor coating the dielectric and a planar shape of the dielectric not coated with the conductor coincide with each other when rotated around a geometric center of gravity of the main surface by 180 degrees, wherein a fraction of the dielectric coated with the conductor is larger on the back surface than on the main surface, when defining an x-axis and a y-axis parallel to the main surface and orthogonal to each other and also defining a z-axis perpendicular to the main surface, dimensions of the shield box are equal to or less than half a wavelength of a frequency used in directions of the x-, y-, and z-axes, and the main surface has a structure in which the planar shape of the conductor coating the dielectric includes two trapezoids or triangles not axially symmetric about a first centerline equally dividing the main surface in two without overlapping the conductor , lower bases of the two trapezoids or triangles adjoin mutually opposing sides of the main surface, and the planar shape of the dielectric not coated by the conductor is not axially symmetric about a second centerline equally dividing the main surface in two and orthogonal to the first centerline. wherein, assuming one surface of the shield box as a main surface and a surface opposing the main surface as a back surface, the main surface has a structure in which patterns formed by a planar shape of the conductor coating the dielectric and a planar shape of the dielectric not coated with the conductor coincide with each other when rotated around a geometric center of gravity of the main surface by 180 degrees, wherein a fraction of the dielectric coated with the conductor is larger on the back surface than on the main surface, when defining an x-axis and a y-axis parallel to the main surface and orthogonal to each other and also defining a z-axis perpendicular to the main surface, dimensions of the shield box are equal to or less than half a wavelength of a frequency used in directions of the x-, y-, and z-axes, and the main surface has a structure in which the planar shape of the conductor coating the dielectric includes two trapezoids or triangles not axially symmetric about a first centerline equally dividing the main surface in two without overlapping the conductor , lower bases of the two trapezoids or triangles adjoin mutually opposing sides of the main surface, and the planar shape of the dielectric not coated by the conductor is not axially symmetric about a second centerline equally dividing the main surface in two and orthogonal to the first centerline.
Chemiluminescent imidazopyrazinone-based photosensitizer compound, including salts, tautomers and stereoisomers thereof, with available singlet and triplet excited states of formula (I): wherein, R 1 is a hydrogen, an alkyl group, an amine group, a substituted or unsubstituted aryl, a substituted or unsubstituted heteroaryl or an Electron Donating Group; R 2 is a hydrogen or an alkyl group; R 3 is a substituted or unsubstituted aryl, a substituted or unsubstituted heteroaryl that is an Electron Withdrawing Group with organic spin converters; R 4 is a halogen atom, a substituted or unsubstituted aryl, a substituted or unsubstituted heteroaryl that is an Electron Withdrawing Group with organic spin converters; wherein at least one of R 3 or R 4 is a substituted or unsubstituted heteroaryl that is an Electron Withdrawing Group with organic spin converters. R 1 is a hydrogen, an alkyl group, an amine group, a substituted or unsubstituted aryl, a substituted or unsubstituted heteroaryl or an Electron Donating Group; R 2 is a hydrogen or an alkyl group; R 3 is a substituted or unsubstituted aryl, a substituted or unsubstituted heteroaryl that is an Electron Withdrawing Group with organic spin converters; R 4 is a halogen atom, a substituted or unsubstituted aryl, a substituted or unsubstituted heteroaryl that is an Electron Withdrawing Group with organic spin converters; wherein at least one of R 3 or R 4 is a substituted or unsubstituted heteroaryl that is an Electron Withdrawing Group with organic spin converters.