mhurhangee/ep-ind-claims huggingface dataset:
A filtration system, comprising: a chamber; a first bypass valve; a fine mesh filter disposed within the chamber and defining a first volume, the first volume in fluid communication with a main exit conduit; and a coarse mesh filter disposed within the chamber and at least partially surrounding the fine mesh filter, the coarse mesh filter and the fine mesh filter defining a second volume, the second volume in fluid communication with the first bypass valve, the coarse mesh filter and the chamber defining a third volume, characterised in that the filtration system further comprises a second bypass valve, the third volume being in fluid communication with the second bypass valve. a chamber; a first bypass valve; a fine mesh filter disposed within the chamber and defining a first volume, the first volume in fluid communication with a main exit conduit; and a coarse mesh filter disposed within the chamber and at least partially surrounding the fine mesh filter, the coarse mesh filter and the fine mesh filter defining a second volume, the second volume in fluid communication with the first bypass valve, the coarse mesh filter and the chamber defining a third volume, characterised in that the filtration system further comprises a second bypass valve, the third volume being in fluid communication with the second bypass valve.
Method for managing the display of at least one rear-view screen (3a, 3b) of a motor vehicle, wherein - at least one driving parameter of the motor vehicle is monitored, characterized in that - the display intensity of at least one rear-view screen (3a, 3b) is augmented to a strong lighting mode, in relation to the trending of the driving parameter, while during and after the activation of the strong lighting mode, the display intensity of the rear-view screen (3a, 3b) is reduced to a low level in an attenuated lighting mode. - at least one driving parameter of the motor vehicle is monitored, characterized in that - the display intensity of at least one rear-view screen (3a, 3b) is augmented to a strong lighting mode, in relation to the trending of the driving parameter, while during and after the activation of the strong lighting mode, the display intensity of the rear-view screen (3a, 3b) is reduced to a low level in an attenuated lighting mode.
An AC amplifier circuit, comprising: first & second transistors (110;130) each having a respective source and drain node, wherein the drain node of the first transistor and the drain node of the second transistor are each connected directly at a common node to an output node of the circuit, and wherein the circuit has a capacitanceC as seen from the output node; and an inductance network having a first terminal connected to the source node of the first transistor and having a second terminal connected at a second terminal to a supply node, characterized in that the inductance value of the inductance network is determined according to the formula L=kC/gm 2, where k is a constant, gm is the transconductance of the circuit and C is the capacitance as seen from the output node of the circuit, and in that the inductance network, capacitance C, and effective resistance 1/gm 2 form a parallel resonant circuit, wherein the inductance value of the inductance network substantially cancels the capacitance C as seen from the output node. first & second transistors (110;130) each having a respective source and drain node, wherein the drain node of the first transistor and the drain node of the second transistor are each connected directly at a common node to an output node of the circuit, and wherein the circuit has a capacitanceC as seen from the output node; and an inductance network having a first terminal connected to the source node of the first transistor and having a second terminal connected at a second terminal to a supply node, characterized in that the inductance value of the inductance network is determined according to the formula L=kC/gm 2, where k is a constant, gm is the transconductance of the circuit and C is the capacitance as seen from the output node of the circuit, and in that the inductance network, capacitance C, and effective resistance 1/gm 2 form a parallel resonant circuit, wherein the inductance value of the inductance network substantially cancels the capacitance C as seen from the output node.
A hydroponic-culture seeded paper production apparatus comprising: a) a base sheet supply section configured to supply a long base sheet; b) an adhesive application section configured to apply a water-soluble adhesive to a surface of the long base sheet supplied from the base sheet supply section, at a predetermined interval; c) a seed placing section configured to place multiple seeds on the surface of the long base sheet; d) a removal section configured to remove, from the long base sheet, a seed that fails to adhere to the long base sheet; and e) a seed fixation section configured to transport the long base sheet that has passed through the removal section by rolling the long base sheet between a pair of rollers (51, 52) softer than the seed, wherein the roller which is located on a side of the seed is harder than the roller which is located on a side of the long base sheet. a) a base sheet supply section configured to supply a long base sheet; b) an adhesive application section configured to apply a water-soluble adhesive to a surface of the long base sheet supplied from the base sheet supply section, at a predetermined interval; c) a seed placing section configured to place multiple seeds on the surface of the long base sheet; d) a removal section configured to remove, from the long base sheet, a seed that fails to adhere to the long base sheet; and e) a seed fixation section configured to transport the long base sheet that has passed through the removal section by rolling the long base sheet between a pair of rollers (51, 52) softer than the seed, wherein the roller which is located on a side of the seed is harder than the roller which is located on a side of the long base sheet.
An ophthalmic system, comprising: an ophthalmic imaging device configured to generate an image of a portion of an imaged eye of a patient; an image processor, configured to determine a misalignment of the imaged eye and the imaging device by processing the generated image, and to generate a control signal according to the determined misalignment; and a misalignment-reduction system, configured to receive the control signal, and to generate a misalignment-reduction response, and a patient interface, configured to dock to the imaged eye of the patient after the misalignment-reduction system executed the misalignment-reduction response, wherein the ophthalmic system is characterized by at least one of: a) the misalignment-reduction system comprises a fixation light source; and the misalignment-reduction response comprises the fixation light source generating a fixation light in response to the received control signal, and b) the image processor is configured to determine an angular and a lateral misalignment by processing the image; and the misalignment-reduction system comprises only one of a fixation light source and a gantry controller. an ophthalmic imaging device configured to generate an image of a portion of an imaged eye of a patient; an image processor, configured to determine a misalignment of the imaged eye and the imaging device by processing the generated image, and to generate a control signal according to the determined misalignment; and a misalignment-reduction system, configured to receive the control signal, and to generate a misalignment-reduction response, and a patient interface, configured to dock to the imaged eye of the patient after the misalignment-reduction system executed the misalignment-reduction response, a) the misalignment-reduction system comprises a fixation light source; and the misalignment-reduction response comprises the fixation light source generating a fixation light in response to the received control signal, and b) the image processor is configured to determine an angular and a lateral misalignment by processing the image; and the misalignment-reduction system comprises only one of a fixation light source and a gantry controller.
A method for manufacturing at least one monolithic inorganic porous support having a porosity comprised between 10% and 60% and an average pore diameter ranging from 0.5 μm to 50 μm, using a 3D printing machine including at least one extrusion head movably mounted in space relative to and above a fixed horizontal plate, said 3D printing machine allowing the deposition of a string ( 7 i,j) of inorganic composition to build, from a 3D digital model, a manipulable three-dimensional green structure intended to form the monolithic inorganic porous support(s), the method consisting of: - having the inorganic composition including a powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a matrix, - supplying the extrusion head of the 3D printing machine with the inorganic composition and causing its extrusion to form the string ( 7 i,j), - building, using said string ( 7 i,j) on said horizontal plate, the manipulable three-dimensional green structure in accordance with the 3D digital model, - accelerating the consolidation of the manipulable three-dimensional green structure in accordance with the 3D digital model as the string ( 7 i,j) is extruded, - placing this manipulable three-dimensional green structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 time the melting temperature of at least one material forming the powdery solid inorganic phase. - having the inorganic composition including a powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a matrix, - supplying the extrusion head of the 3D printing machine with the inorganic composition and causing its extrusion to form the string ( 7 i,j), - building, using said string ( 7 i,j) on said horizontal plate, the manipulable three-dimensional green structure in accordance with the 3D digital model, - accelerating the consolidation of the manipulable three-dimensional green structure in accordance with the 3D digital model as the string ( 7 i,j) is extruded, - placing this manipulable three-dimensional green structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 time the melting temperature of at least one material forming the powdery solid inorganic phase.
A cartridge tray (100, 1600) comprising: a base member (110, 1610) including a plurality of slots (112, 1612, 1002) arranged adjacent to one another within the base member, wherein each of the plurality of slots (112, 1612, 1002) is configured to receive a test cartridge (180, 300); a hinged frame (120, 1620) coupled to the base member (110, 1610), wherein the hinged frame (120, 1620) is configured to rotate about a hinge between an opened position and a closed position; a locking mechanism (130, 1630) to lock the hinged frame (120, 1620) in the closed position when the hinged frame (120, 1620) rotates to the closed position; and characterized in that: the slots (112, 1612, 1002) are horizontally elongated; and the hinged frame (120, 1620) includes a horizontal push bar (122, 1622) to be received by a recess portion of test cartridges (180, 300) received in the plurality of horizontally elongated slots (112, 1612, 1002) and is configured to apply a downward force to fix the test cartridges (180, 300) received in the plurality of horizontally elongated slots (112, 1612, 1002) when the hinged frame (120, 1620) is in the closed position. a base member (110, 1610) including a plurality of slots (112, 1612, 1002) arranged adjacent to one another within the base member, wherein each of the plurality of slots (112, 1612, 1002) is configured to receive a test cartridge (180, 300); a hinged frame (120, 1620) coupled to the base member (110, 1610), wherein the hinged frame (120, 1620) is configured to rotate about a hinge between an opened position and a closed position; a locking mechanism (130, 1630) to lock the hinged frame (120, 1620) in the closed position when the hinged frame (120, 1620) rotates to the closed position; and characterized in that: the slots (112, 1612, 1002) are horizontally elongated; and the hinged frame (120, 1620) includes a horizontal push bar (122, 1622) to be received by a recess portion of test cartridges (180, 300) received in the plurality of horizontally elongated slots (112, 1612, 1002) and is configured to apply a downward force to fix the test cartridges (180, 300) received in the plurality of horizontally elongated slots (112, 1612, 1002) when the hinged frame (120, 1620) is in the closed position. the slots (112, 1612, 1002) are horizontally elongated; and the hinged frame (120, 1620) includes a horizontal push bar (122, 1622) to be received by a recess portion of test cartridges (180, 300) received in the plurality of horizontally elongated slots (112, 1612, 1002) and is configured to apply a downward force to fix the test cartridges (180, 300) received in the plurality of horizontally elongated slots (112, 1612, 1002) when the hinged frame (120, 1620) is in the closed position.
Timepiece lever for transmitting a motion between, on the one hand an input wheel set carried by a pivoting plate included by said lever mounted to pivot about a first pivot axis, and on the other hand at least one output wheel set external to said lever which includes, mounted pivoting about a second pivot axis remote from said first pivot axis, at least one output wheel set carried by said pivoting plate, the angular position of said second pivot axis of said at least one output wheel set with respect to said first pivot axis being variable, where said input wheel set constantly transmits its motion to said output wheel set which is actuated with a motion of pivoting around said second pivot axis, characterised in that said lever includes a first friction connection between a first friction surface of said input wheel set and a second friction surface of said pivoting plate and a second friction connection between a third friction surface of said output wheel set and a fourth friction surface of said pivoting plate, and in that said first friction connection is weaker than said second friction connection.
Apparatus (40, 120) configured to compress a cardiac stent-valve to a maximum outer diameter of about 10 mm or less for loading into a delivery catheter, the apparatus (40, 120) comprising a first compressor stage for compressing the stent-valve; and a second compressor stage coupled or couplable to the first compressor stage and configured to further compress a portion of the stent-valve after passing through the first compressor stage wherein the first compressor stage comprises a hollow channel, and the first compressor stage is configured for progressively compressing the stent-valve in response to, or in association with, longitudinal advancement of the stent-valve within the hollow channel, characterized in that the second compressor stage is configured to compress a portion of the stentvalve at the second compressor stage without advancement of the stent-valve within the second compressor stage.
A method of installing insulation material within wall cavities defined between adjacent wall studs of a wall frame, the method comprising: arranging one or more insulation robots (1030A, 1030B) with insulation heads attached thereto about the wall frame such that the insulation material can be installed within all of the wall cavities of the wall frame; arranging the insulation head over and/or at least partially within a first wall cavity, adjacent a first end of the first wall cavity; blowing the insulation material through a supply fitting attached to a frame of the insulation head; arranging a segmented partition on an end of the frame opposite the first end of the first wall cavity; monitoring an amount of the insulation material within the wall cavity; determining when an adequate density of the insulation material has been installed within the wall cavity at the first end of the first wall cavity; advancing the insulation head, using the insulation robot (1030A, 1030B), along the length of the first wall cavity away from the first end; and moving the insulation head to subsequent wall cavities to fill each wall cavity of the wall frame with a predetermined density of the insulation material. arranging one or more insulation robots (1030A, 1030B) with insulation heads attached thereto about the wall frame such that the insulation material can be installed within all of the wall cavities of the wall frame; arranging the insulation head over and/or at least partially within a first wall cavity, adjacent a first end of the first wall cavity; blowing the insulation material through a supply fitting attached to a frame of the insulation head; arranging a segmented partition on an end of the frame opposite the first end of the first wall cavity; monitoring an amount of the insulation material within the wall cavity; determining when an adequate density of the insulation material has been installed within the wall cavity at the first end of the first wall cavity; advancing the insulation head, using the insulation robot (1030A, 1030B), along the length of the first wall cavity away from the first end; and moving the insulation head to subsequent wall cavities to fill each wall cavity of the wall frame with a predetermined density of the insulation material.
A dosimetry method comprising: imaging a sample displaced between a sensor surface and a surface of a microscopy sample chamber to produce an image of at least a part of the sample, the image being produced using lensless optical microscopy, the sample containing at least blood from a subject and optionally containing fiduciary beads distributed among blood cells of the sample; automatically differentiating cells of different types in the image; generating a count of one or more cell types based on the automatic differentiation, wherein generating a count of one or more cell types comprises generating a count of lymphocytes, the lymphocytes not distributed perfectly uniformly within the sample, such that there is a difference between the actual number of lymphocytes in the sample and the counts of lymphocytes generated based on the automatic differentiation; correcting the count of lymphocytes to take account for the difference based on the non perfectly uniform distribution of lymphocytes within the sample; and deriving a radiation dose the subject has absorbed based on the corrected count. imaging a sample displaced between a sensor surface and a surface of a microscopy sample chamber to produce an image of at least a part of the sample, the image being produced using lensless optical microscopy, the sample containing at least blood from a subject and optionally containing fiduciary beads distributed among blood cells of the sample; automatically differentiating cells of different types in the image; generating a count of one or more cell types based on the automatic differentiation, wherein generating a count of one or more cell types comprises generating a count of lymphocytes, the lymphocytes not distributed perfectly uniformly within the sample, such that there is a difference between the actual number of lymphocytes in the sample and the counts of lymphocytes generated based on the automatic differentiation; correcting the count of lymphocytes to take account for the difference based on the non perfectly uniform distribution of lymphocytes within the sample; and deriving a radiation dose the subject has absorbed based on the corrected count.
Device for closing off an opening provided in the bodywork of a motor vehicle, comprising: - a glazed fixed portion intended to be secured to the said vehicle and - a glazed movable panel suitable for moving relative to the fixed portion between a closed off position, in which it closes off an opening formed in the said fixed portion and at least one open position, in which the said opening is at least partially exposed, device characterised in that the movable panel is fitted to a movable frame which is provided with tilting means for tilting the movable panel relative to the said movable frame, the said tilting means including at least one rod (BLT1, BLT2) connecting the movable panel to the movable frame and being suitable for working with a slider fitted so as to slide relative to the movable frame. - a glazed fixed portion intended to be secured to the said vehicle and - a glazed movable panel suitable for moving relative to the fixed portion between a closed off position, in which it closes off an opening formed in the said fixed portion and at least one open position, in which the said opening is at least partially exposed,
A heat exchanger plate to be comprised by a plate heat exchanger configured for evaporation of a first fluid, the heat exchanger plate comprising a heat exchanger area extending in parallel with an extension plane (p) of the heat exchanger plate, an edge area extending around the heat exchanger area, a number of portholes extending through the heat exchanger area, and a peripheral rim surrounding a first porthole of said number of portholes and extending transversely to the extension plane (p) from a root end to a top end with a rim height H perpendicular to the extension plane (p), characterized in that the heat exchanger plate comprises at least one restriction hole extending through the peripheral rim and having a hole height h perpendicular to the extension plane (p), wherein the relation h/H is at most 30%, and that the heat exchanger plate has a thickness (t), wherein the peripheral rim forms a transition portion to the heat exchanger area, and wherein the transition portion is concavely curved with a radius (r) of curvature which is equal to or less than 3 times the thickness (t). a heat exchanger area extending in parallel with an extension plane (p) of the heat exchanger plate, an edge area extending around the heat exchanger area, a number of portholes extending through the heat exchanger area, and a peripheral rim surrounding a first porthole of said number of portholes and extending transversely to the extension plane (p) from a root end to a top end with a rim height H perpendicular to the extension plane (p), characterized in that the heat exchanger plate comprises at least one restriction hole extending through the peripheral rim and having a hole height h perpendicular to the extension plane (p), wherein the relation h/H is at most 30%, and that the heat exchanger plate has a thickness (t), wherein the peripheral rim forms a transition portion to the heat exchanger area, and wherein the transition portion is concavely curved with a radius (r) of curvature which is equal to or less than 3 times the thickness (t).
A TDI line sensor, wherein the TDI line sensor has n TDI lines (2.1-2.n), at least one readout electronics unit and a circuit arrangement for generating CCD control signals (T L) for the TDI lines (2.1-2.n), wherein the period of the CCD control signals (T L) is an integer multiple of a system period (T S), wherein all TDI lines (2.1-2.n) are controlled with the same CCD control signal (T L), characterised in that the TDI line sensor is configured such that an optimum period of the CCD control signals (T L) is calculated on the basis of the relative velocity, wherein the optimum period is not an integer multiple of the system period, wherein the period of the CCD control signals (T L) is changed as an integer multiple of the system period (T S) during the integration over all n TDI lines (2.1-2.n) so that the arithmetic mean of the period of the CCD control signals (T L) over the n integration steps corresponds to the optimum period, wherein the change in the period of the CCD control signals over the n integration steps is limited to one system period (T S).