mhurhangee/ep-ind-claims huggingface dataset:
Internal combustion engine with a cooling system which configures a first cooling circuit, into which a combustion engine and an EGR cooler are integrated, characterized in that coolant can be transferred from a second cooling circuit which integrates at least one coolant cooler controllably by means of a valve into a portion of the first cooling circuit, which portion lies downstream of the combustion engine and upstream of the EGR cooler.
A silicon-based device for quantum information processing, the device comprising: a first plurality of confinement regions configured to confine spinful charge carriers for use as data qubits; a second plurality of confinement regions configured to confine spinful charge carriers for use as ancillary qubits, each confinement region of the second plurality of confinement regions coupled to measurement apparatus for measuring an ancillary qubit; a third plurality of confinement regions configured to confine spinful charge carriers, each confinement region of the third plurality of confinement regions situated on a line between a first confinement region of the first plurality of confinement regions and a second confinement region of the second plurality of confinement regions in order to space them apart and configured to mediate interactions between a data qubit of the first confinement region and an ancillary qubit of the second confinement region, wherein the mediated interactions comprise interactions affecting respective data qubits and respective ancillary qubits at substantially the same time to enable coupling interactions between the respective data qubits and the respective ancillary qubits; and one or more charge reservoirs; wherein each confinement region of the third plurality of confinement regions is coupled to a charge reservoir of the one or more charge reservoirs. a first plurality of confinement regions configured to confine spinful charge carriers for use as data qubits; a second plurality of confinement regions configured to confine spinful charge carriers for use as ancillary qubits, each confinement region of the second plurality of confinement regions coupled to measurement apparatus for measuring an ancillary qubit; a third plurality of confinement regions configured to confine spinful charge carriers, each confinement region of the third plurality of confinement regions situated on a line between a first confinement region of the first plurality of confinement regions and a second confinement region of the second plurality of confinement regions in order to space them apart and configured to mediate interactions between a data qubit of the first confinement region and an ancillary qubit of the second confinement region, wherein the mediated interactions comprise interactions affecting respective data qubits and respective ancillary qubits at substantially the same time to enable coupling interactions between the respective data qubits and the respective ancillary qubits; and one or more charge reservoirs; wherein each confinement region of the third plurality of confinement regions is coupled to a charge reservoir of the one or more charge reservoirs.
A system for non-destructive inspection of structural components comprising: an ultrasonic probe having a contact face for contacting a surface of a structural component to be inspected and being adapted to emit ultrasonic energy into the structural component when the contact face abuts on a surface of the structural component, a thermal imaging camera adapted to inspect a portion of a surface of the structural component so as to detect a region of the surface of the structural component where an increase of the temperature occurs, and a control unit that is connected to the ultrasonic probe and the thermal imaging camera, wherein the contact face extends in a plane, characterized in that said contact face is provided with at least two bars (29, 31, 53, 59), which are arranged in parallel, wherein the distance between the adjacent bars (29, 31, 53, 59) is adjustable and, when more than two bars are used, the distance between adjacent bars is unitary for the entire arrangement. an ultrasonic probe having a contact face for contacting a surface of a structural component to be inspected and being adapted to emit ultrasonic energy into the structural component when the contact face abuts on a surface of the structural component, a thermal imaging camera adapted to inspect a portion of a surface of the structural component so as to detect a region of the surface of the structural component where an increase of the temperature occurs, and a control unit that is connected to the ultrasonic probe and the thermal imaging camera, wherein the contact face extends in a plane, characterized in that said contact face is provided with at least two bars (29, 31, 53, 59), which are arranged in parallel, wherein the distance between the adjacent bars (29, 31, 53, 59) is adjustable and, when more than two bars are used, the distance between adjacent bars is unitary for the entire arrangement.
A multi-spectral camera comprising: a light blocking element having at least one hole allowing light to pass through; a dispersive element for spreading light from the at least one hole in different wavelength-dependent directions; a lens for focusing all light from the dispersive element on an image plane; a microlens array arranged to receive all light from the lens to spread the light in dependence on the different wavelength-dependent directions; an image sensor arranged to receive all light from the microlens array for generating a pixel value signal comprising incident light values for pixels of the image sensor; and a processor for generating a multi-spectral image from the pixel value signal, said multi-spectral camera further comprising a user input and a controller for adjusting a position of the microlens array in a direction of a normal of the microlens array and/or the image sensor in response to the user input. a light blocking element having at least one hole allowing light to pass through; a dispersive element for spreading light from the at least one hole in different wavelength-dependent directions; a lens for focusing all light from the dispersive element on an image plane; a microlens array arranged to receive all light from the lens to spread the light in dependence on the different wavelength-dependent directions; an image sensor arranged to receive all light from the microlens array for generating a pixel value signal comprising incident light values for pixels of the image sensor; and a processor for generating a multi-spectral image from the pixel value signal, said multi-spectral camera further comprising a user input and a controller for adjusting a position of the microlens array in a direction of a normal of the microlens array and/or the image sensor in response to the user input.
A general-purpose engine comprising: an engine main body having a muffler on a side; a cooling mechanism which cools the engine main body; and a shroud which covers the engine main body and the cooling mechanism, wherein the cooling mechanism includes a cooling fan which produces a cooling air flow by rotating, and a blowing part which blows the cooling air flow produced by rotation of the cooling fan towards an upper part of the engine main body, and wherein a space through which the cooling air flow blown from the blowing part towards the upper part of the engine main body can flow from above to below is formed between the shroud and the muffler, characterized in that a return part guiding the cooling air flow towards a fixture fixing the muffler to the engine main body is formed on an inner wall surface of the shroud forming the space, wherein the fixture is disposed at a lower part of the muffler. wherein the cooling mechanism includes a cooling fan which produces a cooling air flow by rotating, and a blowing part which blows the cooling air flow produced by rotation of the cooling fan towards an upper part of the engine main body, and wherein a space through which the cooling air flow blown from the blowing part towards the upper part of the engine main body can flow from above to below is formed between the shroud and the muffler, characterized in that a return part guiding the cooling air flow towards a fixture fixing the muffler to the engine main body is formed on an inner wall surface of the shroud forming the space, wherein the fixture is disposed at a lower part of the muffler.
A lighting device comprising: a first tubular body; a second tubular body within the first tubular body; and a support structure within the first tubular body supporting a plurality of SSL elements on a support surface, said SSL elements being arranged to emit light under a range of angles including a first range, wherein the support structure is fixed within the first tubular body by the first tubular body and the second tubular body; wherein the support structure comprises a carrier selected from at least one of a printed circuit board and a heat sink, wherein the SSL elements are mounted on said carrier; characterized in that the carrier comprises at least one tube receiving member extending from the support surface, said at least one tube receiving member engaging with the second tubular body. a first tubular body; a second tubular body within the first tubular body; and a support structure within the first tubular body supporting a plurality of SSL elements on a support surface, said SSL elements being arranged to emit light under a range of angles including a first range, wherein the support structure is fixed within the first tubular body by the first tubular body and the second tubular body; wherein the support structure comprises a carrier selected from at least one of a printed circuit board and a heat sink, wherein the SSL elements are mounted on said carrier; characterized in that the carrier comprises at least one tube receiving member extending from the support surface, said at least one tube receiving member engaging with the second tubular body.
A method for preparing mesenchymal stem cell-derived exosomes, the method comprising: providing a cell sample obtained from mesenchymal stem cells; sub-culturing the cell sample in a low-glucose Dulbecco's Modified Eagle's Medium (DMEM) medium; culturing the sub-cultured cells in a substrate medium containing cycloheximide, and then obtaining a cell culture solution; and isolating exosomes from the cell culture solution, wherein in the obtaining of the cell culture solution, the substrate medium further comprises TNFα, wherein the treatment time of the TNFα and cycloheximide is 30 to 100 hours. sub-culturing the cell sample in a low-glucose Dulbecco's Modified Eagle's Medium (DMEM) medium; culturing the sub-cultured cells in a substrate medium containing cycloheximide, and then obtaining a cell culture solution; and isolating exosomes from the cell culture solution, wherein in the obtaining of the cell culture solution, the substrate medium further comprises TNFα, wherein the treatment time of the TNFα and cycloheximide is 30 to 100 hours.
A method, comprising: providing a plurality of cells contained within a plurality of microfluidic droplets, wherein the plurality of cells are contained within the plurality of microfluidic droplets at a density of less than about 1 cell/droplet; lysing the cells contained within the microfluidic droplets to produce cell lysates therein to produce a plurality of nucleic acid within the microfluidic droplets, wherein the nucleic acid is DNA; exposing the cell lysates to an enzyme to produce fragmented DNA sequences, wherein the enzyme is a non-nucleosome cleaving nuclease or an enzyme capable of cleaving DNA for analysis without destroying epigenetic information associated with the DNA; exposing adapters to at least some of the nucleic acid sequences, the adapters comprising an identification sequence, wherein unique barcodes or identification sequences are added to each droplet and added to the fragmented DNA, providing a unique identifier for each individual cell, and wherein the droplets containing the cells are fused with the droplets containing the adapters; and combining the microfluidic droplets to produce a common solution; and sequencing the DNA sequences containing attached adapters, wherein sequencing said DNA sequences is performed by chromatin immunoprecipitation (ChiP) sequencing. providing a plurality of cells contained within a plurality of microfluidic droplets, wherein the plurality of cells are contained within the plurality of microfluidic droplets at a density of less than about 1 cell/droplet; lysing the cells contained within the microfluidic droplets to produce cell lysates therein to produce a plurality of nucleic acid within the microfluidic droplets, wherein the nucleic acid is DNA; exposing the cell lysates to an enzyme to produce fragmented DNA sequences, wherein the enzyme is a non-nucleosome cleaving nuclease or an enzyme capable of cleaving DNA for analysis without destroying epigenetic information associated with the DNA; exposing adapters to at least some of the nucleic acid sequences, the adapters comprising an identification sequence, wherein unique barcodes or identification sequences are added to each droplet and added to the fragmented DNA, providing a unique identifier for each individual cell, and wherein the droplets containing the cells are fused with the droplets containing the adapters; and combining the microfluidic droplets to produce a common solution; and sequencing the DNA sequences containing attached adapters, wherein sequencing said DNA sequences is performed by chromatin immunoprecipitation (ChiP) sequencing.
A dough moulder including a housing having rollers and an access opening through which an operator deposits dough for the rollers; a guard adjacent the access opening; and a space above the guard and access opening in which the operator's arm can move; characterised by further comprising: a detector positioned above the access opening and defining a detector space within the space above the guard and access opening, the detector being operable to interrupt the operation of the rollers when the operator's arm is detected in the detector space. a detector positioned above the access opening and defining a detector space within the space above the guard and access opening, the detector being operable to interrupt the operation of the rollers when the operator's arm is detected in the detector space.
Microscope, comprising a microscope body, a mechanical holding device for microscope objectives, through which a microscope beam path extends, and an optical module attachable to the holding device for illuminating a sample volume and for collecting and transmitting light from the sample volume, wherein the optical module has: - a first optical arrangement with a first beam path; - a second optical arrangement with a second beam path intersecting the first beam path in the sample volume, wherein the second optical arrangement is configured as a light sheet module for generating a light sheet traversing the sample volume; - a coupling point for illuminating light for illuminating a part of the sample volume via the first beam path and/or the second beam path; and - an attachment element between the first optical arrangement and/or the second optical arrangement and the sample volume, wherein the first beam path or the second beam path extends at least partially through the attachment element, wherein the microscope comprises an area sensor for detecting light collected from the sample volume. - a first optical arrangement with a first beam path; - a second optical arrangement with a second beam path intersecting the first beam path in the sample volume, wherein the second optical arrangement is configured as a light sheet module for generating a light sheet traversing the sample volume; - a coupling point for illuminating light for illuminating a part of the sample volume via the first beam path and/or the second beam path; and - an attachment element between the first optical arrangement and/or the second optical arrangement and the sample volume, wherein the first beam path or the second beam path extends at least partially through the attachment element,
A controlled access dispensing system comprising: a controller, a cabinet, a first drawer column comprising one or more drawers (2a-2e), housed within said cabinet, and a locking arrangement for said first drawer column, the locking arrangement being coupled to said controller and comprising first and second co-operative locking mechanisms (32/42, 31/41) operable by the controller means to selectively allow a drawer (2a-2e) from the first drawer column to be released and withdrawn only to a pre-determined extent, said first and second locking mechanisms (32/42, 31/41) being operated in turn, one after the other, so that the first locking mechanism (32/42), responsible for limiting the extent to which a drawer is withdrawn, is correctly positioned, and then subsequently the second locking mechanism (31/41), responsible for releasing the selected drawer, is operated and thereby when a drawer is selected for release and the locking arrangement operated, the first locking mechanism (32/42) is first positioned to prevent withdrawal of that selected drawer beyond the pre-determined limit, before that selected drawer is released for withdrawal, wherein the first locking mechanism (32/42) responsible for limiting the extent to which a drawer is withdrawn comprises: (i) a first latching part; and (ii) a first locking part, shaped and configured for co-operating with said first latching part; characterised by the first latching part comprising a laterally arranged sequence of formations (11a-11j) provided on a side of each drawer (2a-2e) in the drawer column; and by the second locking mechanism (31/41) responsible for releasing a selected drawer comprising: (iii) a second latching part comprising a longitudinally arranged series of formations (12a-12e) provided on a side of each drawer in the first drawer column; and (iv) a second locking part shaped and configured for co-operating with said second latching part; wherein the first locking part is moveable such that in dependence upon a position of the first locking part relative to the first latching part a drawer selected for release may be withdrawn out of the cabinet only to a pre-determined extent; and wherein the second locking part is moveable such that in dependence upon a position of the second locking part relative to a position of the second latching part, a drawer from said first drawer column may be released for withdrawal from the cabinet to said pre-determined extent. (i) a first latching part; and (ii) a first locking part, shaped and configured for co-operating with said first latching part; characterised by the first latching part comprising a laterally arranged sequence of formations (11a-11j) provided on a side of each drawer (2a-2e) in the drawer column; and by the second locking mechanism (31/41) responsible for releasing a selected drawer comprising: (iii) a second latching part comprising a longitudinally arranged series of formations (12a-12e) provided on a side of each drawer in the first drawer column; and (iv) a second locking part shaped and configured for co-operating with said second latching part;
Computer-implemented method for designing a virtual three-dimensional dental design model using an augmented reality application, the augmented reality application being adapted to visualize the dental design model with a preliminary pose and scale in an image of a face comprising a mouth region with a dental situation, and for exporting the dental design model, the method comprising: - creating the dental design model using the augmented reality application, whereafter for exporting the dental design model the following steps are carried out: - providing a three-dimensional scan model of the dental situation, - aligning the scan model and the dental situation in the image to obtain a pose of the scan model, - calculating, based on the preliminary pose and scale and the pose of the scan model, at least one transformation to bring the design model and the scan model into a common coordinate system, in particular wherein the dental design model is brought to a coordinate system of the scan model, and - obtaining an aligned design model by aligning the design model and the scan model in the common coordinate system, and calculating a corrected scale of the dental design model and applying the corrected scale so that the scale of the aligned design model matches the scale of the scan model, wherein calculating the corrected scale comprises calculating a distance of the dental design model to a virtual camera to match a distance (d) of the scan model to the virtual camera. - creating the dental design model using the augmented reality application, whereafter for exporting the dental design model the following steps are carried out: - providing a three-dimensional scan model of the dental situation, - aligning the scan model and the dental situation in the image to obtain a pose of the scan model, - calculating, based on the preliminary pose and scale and the pose of the scan model, at least one transformation to bring the design model and the scan model into a common coordinate system, in particular wherein the dental design model is brought to a coordinate system of the scan model, and - obtaining an aligned design model by aligning the design model and the scan model in the common coordinate system, and calculating a corrected scale of the dental design model and applying the corrected scale so that the scale of the aligned design model matches the scale of the scan model, wherein calculating the corrected scale comprises calculating a distance of the dental design model to a virtual camera to match a distance (d) of the scan model to the virtual camera. aligning the design model and the scan model in the common coordinate system, and calculating a corrected scale of the dental design model and applying the corrected scale so that the scale of the aligned design model matches the scale of the scan model, wherein calculating the corrected scale comprises calculating a distance of the dental design model to a virtual camera to match a distance (d) of the scan model to the virtual camera.
A downhole depth, load and torque reference system comprising: a well feature disposed within a wellbore tubular, the well feature including a depth reference element, a load reference element and a torque reference element; and a mating assembly operable to be run downhole within the wellbore tubular on a conveyance; wherein, the mating assembly is operable to contact the depth reference element of the well feature to identify a depth of the well feature, operable to engage the torque reference element of the well feature such that rotation of the conveyance at the surface transmits sufficient torque to break the torque reference element and identify torque efficiency at the depth of the well feature and operable to engage the load reference element of the well feature such that applying weight at the surface to the conveyance transmits sufficient load to break the load reference element and identify load efficiency at the depth of the well feature. a well feature disposed within a wellbore tubular, the well feature including a depth reference element, a load reference element and a torque reference element; and a mating assembly operable to be run downhole within the wellbore tubular on a conveyance; wherein, the mating assembly is operable to contact the depth reference element of the well feature to identify a depth of the well feature, operable to engage the torque reference element of the well feature such that rotation of the conveyance at the surface transmits sufficient torque to break the torque reference element and identify torque efficiency at the depth of the well feature and operable to engage the load reference element of the well feature such that applying weight at the surface to the conveyance transmits sufficient load to break the load reference element and identify load efficiency at the depth of the well feature.