mhurhangee/ep-ind-claims huggingface dataset:
A method of making a simulated dissectible tissue characterized in comprising the steps of: creating a first silicone sheet and a second silicone sheet and letting them fully cure; spreading a thin layer of silicone gel (58a, 58b) on the inner surface of each silicone sheet (48, 50) and allowing subsequently formed gel layers (58a, 58b) to fully cure to form first and second silicone gel-lined layers; pouring a layer comprising a silicone gel over the first silicone gel lined layer to subsequently form a porous third layer; and laying the second silicone gel lined layer over the porous third layer before the poured layer has cured to create a sandwich-like construction wherein, to form the third porous layer a material is selected from the group consisting of: a mixture of silicone gel and alcohol; and a mixture of silicone gel, deadener and alcohol, which mixture is heated to impart porosity to the third layer by evaporation of alcohol.
A heating engine control circuit to control operation of a heater of a non-nicotine electronic vaping device, the heating engine control comprising: a rail converter circuit configured to convert a power supply voltage into a power signal based on a vaping enable signal, the vaping enable signal being a pulse width modulated signal; and characterised by a gate driver circuit including an integrated gate driver, the integrated gate configured to control application of power to the heater of the non-nicotine electronic vaping device based on the power signal, a first enable signal and a second enable signal. a rail converter circuit configured to convert a power supply voltage into a power signal based on a vaping enable signal, the vaping enable signal being a pulse width modulated signal; and characterised by a gate driver circuit including an integrated gate driver, the integrated gate configured to control application of power to the heater of the non-nicotine electronic vaping device based on the power signal, a first enable signal and a second enable signal.
A method for processing semi persistent scheduling, SPS, applied to a first communication device, comprising: monitoring control information on one control channel, wherein the control information is used for indicating activation or release of SPS resources on a plurality of carriers, and the SPS resources are semi persistent communication resources configured; and sending response information on at least one data channel, wherein the response information comprises a response to activation or release of one or more SPS resources; wherein the control channel is a physical downlink control channel, and a new data indicator, NDI, field of hybrid automatic repeat request, HARQ, in the control information carries an instruction to activate or release the SPS resources on the plurality of carriers; wherein a bit value 0 of NDI indicates activation and a bit value 1 of NDI indicates release; or, a bit value 1 of NDI indicates activation and a bit value 0 of NDI indicates release. monitoring control information on one control channel, wherein the control information is used for indicating activation or release of SPS resources on a plurality of carriers, and the SPS resources are semi persistent communication resources configured; and sending response information on at least one data channel, wherein the response information comprises a response to activation or release of one or more SPS resources; wherein the control channel is a physical downlink control channel, and a new data indicator, NDI, field of hybrid automatic repeat request, HARQ, in the control information carries an instruction to activate or release the SPS resources on the plurality of carriers; wherein a bit value 0 of NDI indicates activation and a bit value 1 of NDI indicates release; or, a bit value 1 of NDI indicates activation and a bit value 0 of NDI indicates release.
A Ranking cycle, comprising: an waste-heat recovery device that is configured to exchange heat between cooling water coming out from an engine and exhaust gas exhausted from the engine; a heat exchanger (91, 92) including an evaporator through which the cooling water coming out from the engine flows to recover waste-heat of the engine to refrigerant, and a superheater through which the cooling water coming out from the waste-heat recovery device flows to recover the waste-heat of the engine to the refrigerant; an expander that is configured to generate power using the refrigerant coming out from the heat exchanger (91, 92); a condenser that is configured to condense the refrigerant coming out from the expander; and a refrigerant pump that is configured to supply the refrigerant coming out from the condenser to the heat exchanger (91, 92) by being driven by the expander; wherein the cooling water coming out from the superheater is returned to the engine after being joined with the cooling water coming out from the evaporator. an waste-heat recovery device that is configured to exchange heat between cooling water coming out from an engine and exhaust gas exhausted from the engine; a heat exchanger (91, 92) including an evaporator through which the cooling water coming out from the engine flows to recover waste-heat of the engine to refrigerant, and a superheater through which the cooling water coming out from the waste-heat recovery device flows to recover the waste-heat of the engine to the refrigerant; an expander that is configured to generate power using the refrigerant coming out from the heat exchanger (91, 92); a condenser that is configured to condense the refrigerant coming out from the expander; and a refrigerant pump that is configured to supply the refrigerant coming out from the condenser to the heat exchanger (91, 92) by being driven by the expander; wherein the cooling water coming out from the superheater is returned to the engine after being joined with the cooling water coming out from the evaporator.
A piezoelectric element array assembly comprising: at least one piezoelectric element configured to produce ultrasound energy responsive to amplified driving pulses; and a lens layer bonded to the at least one piezoelectric element, the lens layer having a plurality of lenses formed therein that are configured to focus ultrasound energy created by single ones of the at least one piezoelectric element into a plurality of wells of a microplate disposable in ultrasonic communication with the lens layer, wherein more than one of the plurality of lenses overlie single ones of the at least one piezoelectric element. at least one piezoelectric element configured to produce ultrasound energy responsive to amplified driving pulses; and a lens layer bonded to the at least one piezoelectric element, the lens layer having a plurality of lenses formed therein that are configured to focus ultrasound energy created by single ones of the at least one piezoelectric element into a plurality of wells of a microplate disposable in ultrasonic communication with the lens layer, wherein more than one of the plurality of lenses overlie single ones of the at least one piezoelectric element.
An aluminum alloy, based on the total weight of the aluminum alloy, the aluminum alloy comprising: 8-11% of Si; 2-4% of Cu; 0.6-4% of Zn; 0.65-1.1% of Mn; 0.35-0.65% of Mg; 0.001-0.05% of Cr; 0.01-0.03% of Sr; 0.08-0.12% of Ti; 0.008-0.02% of B; 0.1-0.3% of Fe; 0.01-0.02% of Ga; 0.008-0.015% of Sn; at most 0.01% of P; and the balance of Al and less than 0.1% of inevitable impurities. 8-11% of Si; 2-4% of Cu; 0.6-4% of Zn; 0.65-1.1% of Mn; 0.35-0.65% of Mg; 0.001-0.05% of Cr; 0.01-0.03% of Sr; 0.08-0.12% of Ti; 0.008-0.02% of B; 0.1-0.3% of Fe; 0.01-0.02% of Ga; 0.008-0.015% of Sn; at most 0.01% of P; and the balance of Al and less than 0.1% of inevitable impurities.
A hand welder for the welding of workpieces (10, 11) made of thermoplastic material, comprising a heating device for the plastification of welding material made of thermoplastic material, a supply device for supplying the welding material to the heating device, and comprising an ejection device for ejecting the welding material plasticised in the heating device in the region of a welding shoe, a hot air device being provided which has a hot air outlet next to the welding shoe, characterised in that a temperature sensor is provided for recording the temperature of the workpieces (10, 11) during the welding process in the region between the welding shoe and the hot air outlet which is connected to an evaluation device.
Woven-fabric belt for a machine producing and/or processing a fibrous web, having longitudinal threads which while configuring thread intersection points (KA-KI) are interwoven with cross threads (A-M), and having an upper side and a lower side opposite thereto, and a woven-fabric seam portion, wherein each longitudinal thread when viewed in the length thereof has two end-side longitudinal thread end portions (1, 2) having a respective thread end (5, 6), wherein the woven-fabric seam portion is formed by interweaving the longitudinal thread end portions (1, 2) with cross threads (A-M) which are referred to as woven-fabric seam cross threads (A-M), wherein at least some of the longitudinal thread end portions (1, 2) upon interweaving with the woven-fabric cross threads (A-M) follow a weaving path along which the respective longitudinal thread end portion (1, 2) when viewed in the direction toward the thread end (5, 6) thereof repeatedly and alternatingly configures floats (F10, F11, F12, F13, F20, F21, F22, F23) on the upper side and on the lower side, one float (F10, F11, F12, F13, F20, F21, F22, F23) on the lower side being disposed between two directly adjacent floats (F10, F11, F12, F13, F20, F21, F22, F23) on the upper side and vice-versa, wherein in the weaving path a last float (F10, F11, F12, F13, F20, F21, F22, F23) before the thread end (5, 6) is formed on one of the upper and lower side (3, 4) and the longitudinal thread end portion (1, 2), subsequent to the last float (F10, F11, F12, F13, F20, F21, F22, F23) before the thread end (5, 6), changes from the one of the upper and lower side (3, 4) to the other of the upper and lower side (3, 4), and the longitudinal thread end portion (1, 2) at least at one thread intersection point (KA-KI) is connected in a materially integral manner to a woven-fabric seam cross thread (A-M) by means of the influence of radiation energy, and the at least one thread intersection point (KA-KI) at which the longitudinal thread end (1, 2) portion is connected in a materially integral manner to a woven-fabric seam cross thread (A-M) is disposed in at least one float (F10, F11, F12, F13, F20, F21, F22, F23) which in the weaving path lies before the last float (F10, F11, F12, F13, F20, F21, F22, F23), characterized in that at least some longitudinal threads and/or at least some woven-fabric seam cross threads have a flattened cross-sectional shape.
Low-pressure cooking pot, composed of a round or oval pot which is provided with a defined capacity and which has an outwardly curved pouring edge around its upper edge, a lid which is suitable for the upper opening and which comprises a sealing ring made of elastic material, a closure mechanism which is provided on the lid and which is equipped with movable claws in order to engage behind the pouring edge, and a pressure-relief valve provided in the lid, wherein the sealing ring surrounds the outer circumference of the lid edge and engages around the lid edge with an upper flange and a lower flange, characterized in that a sealing lip which extends outwards from the outer circumference of the sealing ring is provided on the sealing ring, said sealing lip being offset inwards to a certain extent and extending downwards, that the sealing lip rests against the inner face of the pot under tension when the lid is placed on the pot, and that the sealing lip extends downwards so far that it still rests against the inner face of the pot when the lid is slightly lifted in its operating position and the claws rest with their lower locking legs against the lower side of the pouring edge of the pot.
A method for producing a retinal cell or a retinal tissue, comprising the following steps: a first step of culturing a mammalian pluripotent stem cell in the absence of a feeder cell for a period not exceeding 30 days in a medium comprising a) a factor for maintaining an undifferentiated state, wherein the factor for maintaining an undifferentiated state is one or more substances selected from the group consisting of bFGF, FGF4, FGF8, TGFβ, TGFβ2, Nodal, Activin A and Activin B and b) an MEK inhibitor, a second step of culturing the cell obtained in the first step in suspension to form a cell aggregate, and a third step of culturing the aggregate obtained in the second step in suspension in the presence of a BMP signal transduction pathway activating substance to obtain an aggregate containing a retinal cell or a retinal tissue, wherein the BMP signal transduction pathway activating substance is one or more proteins selected from the group consisting of BMP2, BMP4, BMP7 and GDF7. a first step of culturing a mammalian pluripotent stem cell in the absence of a feeder cell for a period not exceeding 30 days in a medium comprising a) a factor for maintaining an undifferentiated state, wherein the factor for maintaining an undifferentiated state is one or more substances selected from the group consisting of bFGF, FGF4, FGF8, TGFβ, TGFβ2, Nodal, Activin A and Activin B and b) an MEK inhibitor, a second step of culturing the cell obtained in the first step in suspension to form a cell aggregate, and a third step of culturing the aggregate obtained in the second step in suspension in the presence of a BMP signal transduction pathway activating substance to obtain an aggregate containing a retinal cell or a retinal tissue, wherein the BMP signal transduction pathway activating substance is one or more proteins selected from the group consisting of BMP2, BMP4, BMP7 and GDF7.
Fully automatic coffee maker for domestic use with a centrifuge chamber with a chamber upper part and a chamber lower part which can be moved in relation thereto as a brewing compartment, with a motor for driving the centrifuge chamber, with a grinder which is arranged coaxially to the centrifuge chamber and above it and which can be driven by the motor, and with a direct coupling between the chamber upper part and the grinder, characterised in that the grinder comprises a fixed grinder tool and a rotatable grinder container.
A process for preparing a partially cross-linked alginate solution which is stable at room temperature for at least 24 hours comprising: providing a first aqueous solution comprising a monovalent alginate salt; providing a second aqueous solution comprising a divalent cation salt; and uniformly mixing the first aqueous solution and the second aqueous solution in a microfluidic multilamination mixing process to provide the partially cross-linked alginate solution, wherein the alginate has a molecular weight ranging from about 10 to about 100 kDa, the alginate concentration in the partially cross-linked alginate solution is in the range of 0.8 to 1.5% w/v, the divalent cation concentration in the partially cross-linked alginate solution is in the range of 0.02 to 0.04% w/v, and said alginate solution exhibits an elastic response (G') which is equal or greater than its viscous response (G") under an oscillatory frequency ranging between 0.1 to 10 Hz and at room temperature.
Filling machine for filling containers with a filling material, having a plurality of filling positions formed on a rotating transport element, for example on the circumference of a rotor that can be driven in rotation about a vertical machine axis, said filling positions each having a filling element for the controlled dispensing of the filling material into a container, and also a functional element which is designed as a container carrier, which, together with at least one further functional element assigned to the respective filling position, is arranged on a carrier common to all the filling positions in the form of a carrier ring, which is configured in such a way as to be moved together with the transport element, in synchrony and in the same direction, but in the transport direction of the transport element, as well as being adjustable against this transport direction relative to the transport element by one adjustment step, which corresponds to the opposite spacing interval which the functional elements assigned to the respective filling position have in relation to one another in the transport direction, wherein the container carrier is equipped with a weighing cell, secured to the common carrier, for a quantity-controlled filling of the containers, wherein the at least one container carrier is held above the weighing cell on the common carrier, and wherein each filling position comprises at least two different container carriers, and that an independent weighing cell is assigned to each container carrier, or that a common weighing cell is assigned to the container carriers of each filling position.
An industrial vehicle comprising an Environmental Based Localization sensor communicatively coupled to one or more processors, wherein the EBL sensor detects objects within a field of view and the one or more processors execute machine readable instructions to: provide a location of a sensor origin of the EBL sensor with respect to the industrial facility; and navigate the industrial vehicle through the industrial facility; characterized in that the one or more processors execute machine readable instructions to: access a feature set and an occlusion set that are associated with an industrial facility; determine an occlusion path (140, 142) that intersects a detectable occlusion of the occlusion set and the sensor origin of the EBL sensor; determine a feature intersection (152, 154) of the occlusion path, wherein the feature intersection is located on a detectable feature of the feature set or a projection of the detectable feature of the feature set; classify the detectable feature as an occluded detectable feature based at least in part upon the location of the feature intersection (152, 154); and the one or more processors executing machine readable instructions to navigate the industrial vehicle comprises executing instructions to navigate the industrial vehicle through the industrial facility utilizing the feature set exclusive of the occluded detectable feature. provide a location of a sensor origin of the EBL sensor with respect to the industrial facility; and navigate the industrial vehicle through the industrial facility; access a feature set and an occlusion set that are associated with an industrial facility; determine an occlusion path (140, 142) that intersects a detectable occlusion of the occlusion set and the sensor origin of the EBL sensor; determine a feature intersection (152, 154) of the occlusion path, wherein the feature intersection is located on a detectable feature of the feature set or a projection of the detectable feature of the feature set; classify the detectable feature as an occluded detectable feature based at least in part upon the location of the feature intersection (152, 154); and the one or more processors executing machine readable instructions to navigate the industrial vehicle comprises executing instructions to navigate the industrial vehicle through the industrial facility utilizing the feature set exclusive of the occluded detectable feature.
A battery module comprising a module case having a bottom plate; a plurality of battery cells; and a resin layer, wherein at least two convex portions for guiding the battery cells are formed on the bottom plate, wherein the plurality of battery cells are mounted between said convex portions, wherein the battery module further comprises a cooling plate and cooling fins, wherein the cooling plate is positioned between the surface of the bottom plate, formed between the convex portions, and the battery cells, wherein the cooling fins are mounted so as to cover the upper surface of the convex portions, wherein the battery cells are mounted between the cooling fins, wherein the resin layer has a thermal conductivity, as measured according to ASTM D5470 standard, of 2 W/m·K or more, is in contact with said cooling fins and said convex portions, and is between said cooling fins and said convex portions of the bottom plate, and wherein the resin layer covers the entire area of the bottom plate. a module case having a bottom plate; a plurality of battery cells; and a resin layer, wherein at least two convex portions for guiding the battery cells are formed on the bottom plate, wherein the plurality of battery cells are mounted between said convex portions, wherein the battery module further comprises a cooling plate and cooling fins, wherein the cooling plate is positioned between the surface of the bottom plate, formed between the convex portions, and the battery cells, wherein the cooling fins are mounted so as to cover the upper surface of the convex portions, wherein the battery cells are mounted between the cooling fins, wherein the resin layer has a thermal conductivity, as measured according to ASTM D5470 standard, of 2 W/m·K or more, is in contact with said cooling fins and said convex portions, and is between said cooling fins and said convex portions of the bottom plate, and wherein the resin layer covers the entire area of the bottom plate.
A computer-implemented method, comprising: determining locations (p 0) of particles within a first image of the particles, wherein the particles have fluorescence-material associated therewith wherein the first image has a center; calculating a transform parameter (a(O - p 0), s), wherein - the transform parameter (a(O - p 0), s) defines an estimated shift in the locations (p 0, p 1) of the particles between the first image of the particles and a second image of the particles, - the transform parameter comprises a radial component (a(O - p 0)) and a constant component (s), wherein the constant component (s) is the vector of the constant movement of the particles, and wherein the radial component (a(O - p 0)) is proportional to a distance between the locations of particles within the first image and said center of the first image; applying the transform parameter to the locations of the particles (p 0) within the first image to determine movement locations (p 1) of the particles within the second image, i.e. determining p 1 = T ( p 0) = p 0 + s + α(O - p 0). determining locations (p 0) of particles within a first image of the particles, wherein the particles have fluorescence-material associated therewith wherein the first image has a center; calculating a transform parameter (a(O - p 0), s), wherein - the transform parameter (a(O - p 0), s) defines an estimated shift in the locations (p 0, p 1) of the particles between the first image of the particles and a second image of the particles, - the transform parameter comprises a radial component (a(O - p 0)) and a constant component (s), wherein the constant component (s) is the vector of the constant movement of the particles, and wherein the radial component (a(O - p 0)) is proportional to a distance between the locations of particles within the first image and said center of the first image; - the transform parameter (a(O - p 0), s) defines an estimated shift in the locations (p 0, p 1) of the particles between the first image of the particles and a second image of the particles, - the transform parameter comprises a radial component (a(O - p 0)) and a constant component (s), wherein the constant component (s) is the vector of the constant movement of the particles, and wherein the radial component (a(O - p 0)) is proportional to a distance between the locations of particles within the first image and said center of the first image; applying the transform parameter to the locations of the particles (p 0) within the first image to determine movement locations (p 1) of the particles within the second image, i.e. determining p 1 = T ( p 0) = p 0 + s + α(O - p 0).