mhurhangee/ep-ind-claims huggingface dataset:
Spectral camera comprising: an image sensor; a camera lens; a rotatable filter carrousel comprising a plurality of spectral filters for obtaining multispectral images and arranged around a cylindrical surface; a camera lens mount placed outside the filter carousel for interchangeably mounting the camera lens; wherein the image sensor is arranged within the filter carrousel to capture images incident through one of the spectral filters, said spectral filter being interchangeable by rotation of the filter carrousel; wherein the spectral filters are arranged tangentially around the cylindrical surface and are fixed within individual niches or holes of the cylindrical surface by a filter stop; comprising a motor for rotating the filter carrousel; wherein the motor is configured for rotating the filter carrousel at a constant rotational speed; wherein the spectral camera is configured to capture in synchronization one image for each of the spectral filters as the filter carrousel rotates; wherein the spectral filters are bandpass interference spectral filters covering the full UV-VIS-NIR range of 350nm-1200nm, wherein the bandpass interference spectral filters in the ultraviolet part of the spectrum have a FWHM of 10nm and a step between the bands of 10nm, in the visible part of the spectrum have a FWHM of 25nm and a step between the bands of 25nm and in the near infrared part of the spectrum have a FWHM of 25 nm and a step between the bands of 50nm with the last near infrared filter of 1200nm having a FWHM bandwidth of 50nm. an image sensor; a camera lens; a rotatable filter carrousel comprising a plurality of spectral filters for obtaining multispectral images and arranged around a cylindrical surface; a camera lens mount placed outside the filter carousel for interchangeably mounting the camera lens; wherein the image sensor is arranged within the filter carrousel to capture images incident through one of the spectral filters, said spectral filter being interchangeable by rotation of the filter carrousel; wherein the spectral filters are arranged tangentially around the cylindrical surface and are fixed within individual niches or holes of the cylindrical surface by a filter stop; comprising a motor for rotating the filter carrousel; wherein the motor is configured for rotating the filter carrousel at a constant rotational speed; wherein the spectral camera is configured to capture in synchronization one image for each of the spectral filters as the filter carrousel rotates; wherein the spectral filters are bandpass interference spectral filters covering the full UV-VIS-NIR range of 350nm-1200nm, wherein the bandpass interference spectral filters in the ultraviolet part of the spectrum have a FWHM of 10nm and a step between the bands of 10nm, in the visible part of the spectrum have a FWHM of 25nm and a step between the bands of 25nm and in the near infrared part of the spectrum have a FWHM of 25 nm and a step between the bands of 50nm with the last near infrared filter of 1200nm having a FWHM bandwidth of 50nm.
Apolipoprotein-E mimicking peptide for use in treating atherosclerosis, wherein the dosing regimen comprises at least one treatment cycle followed by a rest phase, wherein the treatment cycle comprises administering an effective amount of an Apolipoprotein-E mimicking peptide once a week for at least four weeks, wherein the Apolipoprotein-E mimicking peptideis not administered during the rest phase.
A power supply apparatus that has a plurality of secondary batteries (11, 12, 50, 61, 62) connected in series, outputs a composite voltage of all of the secondary batteries (11, 12, 50, 61, 62), and outputs an output of a part of the secondary batteries (11, 12, 50, 61, 62) as a partial voltage, the power supply apparatus comprising: a detecting unit that detects states of the secondary batteries (11, 12, 50, 61, 62); characterized in that the power supply apparatus further comprises a changing unit (13, 14, 15, 16, 34, 36, 37, 51, 52, 53, 54, 55, 63, 64, 65, 66, 67, 68, 69, 70, 71) that changes an order of series connection of the plurality of secondary batteries (11, 12, 50, 61, 62) based on a detection result of the detecting unit in such a manner that the partial voltage is outputted from a part of the secondary batteries that is in a relatively good state so as to prevent a load from being concentrated on one of the secondary batteries. a detecting unit that detects states of the secondary batteries (11, 12, 50, 61, 62); characterized in that the power supply apparatus further comprises a changing unit (13, 14, 15, 16, 34, 36, 37, 51, 52, 53, 54, 55, 63, 64, 65, 66, 67, 68, 69, 70, 71) that changes an order of series connection of the plurality of secondary batteries (11, 12, 50, 61, 62) based on a detection result of the detecting unit in such a manner that the partial voltage is outputted from a part of the secondary batteries that is in a relatively good state so as to prevent a load from being concentrated on one of the secondary batteries.
An occluder (10,210,410) for selectively preventing fluid flow through tubing of an infusion set, the occluder comprising: a body (18, 218, 418) having a void therein for receiving a plunger; a first biasing element (70, 258, 470) for biasing the plunger; wherein said plunger (22, 222, 422) is movable within the body, and cooperating with the body to selectively pinch tubing passing through the body, the plunger having a first, occluding position into which the plunger is biased, and a second, non-occluding position wherein the plunger is biased to return to the first, occluding position when no external force is applied thereto characterized in that the body (18,218,418) comprises a ledge (248, 520), and that the plunger (22,222,422) has a third, non-occluding position wherein the plunger is held in the non-occluding position, wherein the occluder comprises a locking mechanism for preventing movement of the plunger from the first, occluding position to the second, non-occluding position; and at least one guide arm (238, 454), the guide arm (238, 454) having a catch (244, 504) extending therefrom which engages the ledge (248, 520) of the body (218, 418) unless a force is applied to the guide arm to move the catch away from the body, wherein the locking mechanism comprises the catch (244,504) disposed along the plunger, and wherein the guide arm has a release projection disposed thereon, wherein moving the release projection laterally inwardly moves the catch away from the ledge and allows the plunger to move to the second position. a body (18, 218, 418) having a void therein for receiving a plunger; a first biasing element (70, 258, 470) for biasing the plunger; wherein said plunger (22, 222, 422) is movable within the body, and cooperating with the body to selectively pinch tubing passing through the body, the plunger having a first, occluding position into which the plunger is biased, and a second, non-occluding position wherein the plunger is biased to return to the first, occluding position when no external force is applied thereto characterized in that the body (18,218,418) comprises a ledge (248, 520), and that the plunger (22,222,422) has a third, non-occluding position wherein the plunger is held in the non-occluding position, wherein the occluder comprises a locking mechanism for preventing movement of the plunger from the first, occluding position to the second, non-occluding position; and at least one guide arm (238, 454), the guide arm (238, 454) having a catch (244, 504) extending therefrom which engages the ledge (248, 520) of the body (218, 418) unless a force is applied to the guide arm to move the catch away from the body, wherein the locking mechanism comprises the catch (244,504) disposed along the plunger, and wherein the guide arm has a release projection disposed thereon, wherein moving the release projection laterally inwardly moves the catch away from the ledge and allows the plunger to move to the second position.
A print control device comprising: a management unit that receives a print instruction and manages the print instruction; a generation unit that generates print data of an intermediate format based on the received print instruction; a conversion unit that converts the print data of the intermediate format generated by the generation unit to image data for drawing; a print controller that controls a printing device based on the image data converted by the conversion unit; and a storage unit that respectively stores attribute information indicating an attribute of the print instruction stored by the management unit and history information indicating a processing state of the print instruction stored by the generation unit and the conversion unit in a nonvolatile memory after execution of a given process; characterized in that the history information includes first control information indicating a processing state of a print instruction being processed by the generation unit, second control information indicating a processing state of a print instruction being processed by the conversion unit, first management information for managing the generated print data of the intermediate format, and second management information for managing the converted image data for drawing; and when the print process based on the print instruction is completed, and a print process based on another print instruction is not continuously executed, the storage unit stores the first and second control information of the history information in the nonvolatile memory and does not store the first and second management information in the nonvolatile memory in a case where a print process based on another print instruction is continuously executed. a management unit that receives a print instruction and manages the print instruction; a generation unit that generates print data of an intermediate format based on the received print instruction; a conversion unit that converts the print data of the intermediate format generated by the generation unit to image data for drawing; a print controller that controls a printing device based on the image data converted by the conversion unit; and a storage unit that respectively stores attribute information indicating an attribute of the print instruction stored by the management unit and history information indicating a processing state of the print instruction stored by the generation unit and the conversion unit in a nonvolatile memory after execution of a given process; characterized in that
A spring assembly comprising: a spring with a coating, a spring retainer made of plastic material, an adhesive layer by which the spring and the spring retainer are adhesively connected to one another, characterised in that the hardness of the adhesive layer is lower than the hardness of the coating of the spring. a spring with a coating, a spring retainer made of plastic material, an adhesive layer by which the spring and the spring retainer are adhesively connected to one another, characterised in that the hardness of the adhesive layer is lower than the hardness of the coating of the spring.
A method of making a polymer-modified polyol wherein an olamine is reacted with an organic polyisocyanate in the presence of a polyol and at least one catalyst which is a metal salt of an organic acid, the olamine reacting at least predominantly polyfunctionally with the isocyanate, wherein the, or at least one, said catalyst is present in a proportion of 0.005-0.050 mMoles/100g polyol and is one or more of a metal ricinoleate salt, stannous dilaurate, stannous dipalmitate, stannous dioleate, zinc octoate, zinc dineodecanoate, or bismuth trineodecanoate, and wherein the viscosity of the polymer-modified polyol is from 2250 to 4500 mPa.s. when measured at 25°C using a Brookfield or Brookfield compatible viscometer.
An operation device, comprising: a main body; a lifting and lowering mechanism unit movably supported with respect to the main body and comprising a driven portion configured to receive driving force for movement of the lifting and lowering mechanism unit; a driving unit attached to the main body and configured to drive the lifting and lowering mechanism unit by a driving pin provided on a rotation gear, wherein the lifting and lowering mechanism unit comprises a groove portion, said operation device being characterized in that the driving pin is accommodated into said groove portion by rotation of the rotation gear when the driving unit is mounted on the main body. a main body; a lifting and lowering mechanism unit movably supported with respect to the main body and comprising a driven portion configured to receive driving force for movement of the lifting and lowering mechanism unit; a driving unit attached to the main body and configured to drive the lifting and lowering mechanism unit by a driving pin provided on a rotation gear, wherein the lifting and lowering mechanism unit comprises a groove portion, said operation device being characterized in that the driving pin is accommodated into said groove portion by rotation of the rotation gear when the driving unit is mounted on the main body.
A system for power conversion configured to facilitate delivery of electric energy to a utility grid, comprising: a first generator-side converter circuit, comprising a first diode bridge (202 1) or a first thyristor bridge and coupled in series with a second generator-side converter circuit comprising a second diode bridge (202 2) or a second thyristor bridge, wherein the first generator-side converter circuit is coupled to a first generator (104 1) of a set of generators that are coupled to a turbine, and the second generator-side converter circuit is coupled to a second generator (104 2) of the set of generators, the first generator (104 1) and the second generator (104 2) are configured to convert kinetic energy generated by the turbine into electric energy, and the first generator-side converter circuit and the second generator-side converter circuit are configured to receive the electric energy from the first generator (104 1) and the second generator (104 2), respectively, and to generate a direct current, DC, signal; and a grid-side converter circuit, coupled to outputs of the first generator-side converter circuit and the second generator-side converter circuit via a direct current, DC, link (402 1, 402 2), configured to convert the DC current into a three-phase alternating current, AC, current, characterised in that the grid-side converter circuit comprises a current source inverter, and in that a direct current,DC, link voltage is varied to control the first generator-side converter circuit and the second generator-side converter circuit in order to achieve maximum power point tracking at the generator-side. a first generator-side converter circuit, comprising a first diode bridge (202 1) or a first thyristor bridge and coupled in series with a second generator-side converter circuit comprising a second diode bridge (202 2) or a second thyristor bridge, wherein the first generator-side converter circuit is coupled to a first generator (104 1) of a set of generators that are coupled to a turbine, and the second generator-side converter circuit is coupled to a second generator (104 2) of the set of generators, the first generator (104 1) and the second generator (104 2) are configured to convert kinetic energy generated by the turbine into electric energy, and the first generator-side converter circuit and the second generator-side converter circuit are configured to receive the electric energy from the first generator (104 1) and the second generator (104 2), respectively, and to generate a direct current, DC, signal; and a grid-side converter circuit, coupled to outputs of the first generator-side converter circuit and the second generator-side converter circuit via a direct current, DC, link (402 1, 402 2), configured to convert the DC current into a three-phase alternating current, AC, current, characterised in that the grid-side converter circuit comprises a current source inverter, and in that a direct current,DC, link voltage is varied to control the first generator-side converter circuit and the second generator-side converter circuit in order to achieve maximum power point tracking at the generator-side.
A system comprising: a plurality of stator vanes of a compressor for a gas turbine engine, the stator vanes and a plurality of rotatable blades included in a stage of the compressor, the rotatable blades configured to rotate about an axis of the compressor, and each of the stator vanes being rotatable about a corresponding vane axis that extends radially outward from the axis of the compressor; a plurality of electric motors, each of the electric motors configured to individually rotate a corresponding one of the stator vanes in the compressor; a motor controller configured to cause the electric motors to rotate the stator vanes in unison; the system being characterized in that it comprises a plurality of resolvers corresponding to the stator vanes, wherein the motor controller is further configured to cause one or more of the electric motors to rotate a corresponding one of the stator vanes in a direction until a corresponding stop point is reached, wherein the motor controller is further configured to receive, from each of the resolvers, an indication of an angular position of the corresponding stop point in the direction the corresponding one of the stator vanes was rotated, wherein the motor controller is further configured to store calibration information based on the indication of the angular position of the corresponding stop point in the direction the corresponding one of the stator vanes was rotated. a plurality of stator vanes of a compressor for a gas turbine engine, the stator vanes and a plurality of rotatable blades included in a stage of the compressor, the rotatable blades configured to rotate about an axis of the compressor, and each of the stator vanes being rotatable about a corresponding vane axis that extends radially outward from the axis of the compressor; a plurality of electric motors, each of the electric motors configured to individually rotate a corresponding one of the stator vanes in the compressor; a motor controller configured to cause the electric motors to rotate the stator vanes in unison; the system being characterized in that it comprises a plurality of resolvers corresponding to the stator vanes, wherein the motor controller is further configured to cause one or more of the electric motors to rotate a corresponding one of the stator vanes in a direction until a corresponding stop point is reached, wherein the motor controller is further configured to receive, from each of the resolvers, an indication of an angular position of the corresponding stop point in the direction the corresponding one of the stator vanes was rotated, wherein the motor controller is further configured to store calibration information based on the indication of the angular position of the corresponding stop point in the direction the corresponding one of the stator vanes was rotated.
An air conditioner, wherein the air conditioner comprises a housing, wherein the housing comprises: an air outlet passage formed in the housing; and an air outlet formed in an edge of the housing and communicated with the air outlet passage; and a first air guiding plate adjacent to the air outlet, and rotatably connected to the housing through a first rotating shaft; and a second air guiding plate rotatably positioned in the air outlet passage, and being capable of rotating through a second rotating shaft on the housing, wherein the air conditioner has an anti-straight blowing mode, the first air guiding plate is configured to shield a part of the air outlet when the air conditioner is in the anti-straight blowing mode; after the air outlet is closed by the first air guiding plate, a side of the first air guiding plate adjacent to an upper side of the air outlet is defined as a first side; and another side of the first air guiding plate adjacent to a lower side of the air outlet is defined as a second side, wherein the first rotating shaft comprises: a first surface extending towards the first side; and a second surface extending towards an edge of the upper side of the air outlet, wherein an angle between the first surface and the second surface is defined as α, characterized in that the angle α is larger than 40 degrees, and no more than 55 degrees, a distance M between the first side and the edge of the upper side of the air outlet has a range of 70 mm to 85 mm and a distance N between the second side and a lower edge of the air outlet has a range of 25 mm to 35 mm, when the air conditioner is in the anti-straight blowing mode. an air outlet passage formed in the housing; and an air outlet formed in an edge of the housing and communicated with the air outlet passage; and a side of the first air guiding plate adjacent to an upper side of the air outlet is defined as a first side; and another side of the first air guiding plate adjacent to a lower side of the air outlet is defined as a second side, a first surface extending towards the first side; and a second surface extending towards an edge of the upper side of the air outlet, wherein an angle between the first surface and the second surface is defined as α,
A valve prosthesis assembly for implantation into a native valve site, the valve prosthesis assembly comprising: a valve prosthesis including, a prosthetic valve component, and a frame including a central portion supporting the prosthetic valve component, the central portion configured to fit within an annulus of the native valve site, and an inflow portion configured to engage an upstream side of the annulus and restrict movement of the valve prosthesis in a downstream direction of blood flow at the native valve site; a separate support flange configured to be attached to the frame after the valve prosthesis has been deployed in situ; and a plurality of anchors configured to attach the support flange to the frame and configured to embed into the annulus to anchor the frame of the valve prosthesis to the native valve. a valve prosthesis including, a prosthetic valve component, and a frame including a central portion supporting the prosthetic valve component, the central portion configured to fit within an annulus of the native valve site, and an inflow portion configured to engage an upstream side of the annulus and restrict movement of the valve prosthesis in a downstream direction of blood flow at the native valve site; a prosthetic valve component, and a frame including a central portion supporting the prosthetic valve component, the central portion configured to fit within an annulus of the native valve site, and an inflow portion configured to engage an upstream side of the annulus and restrict movement of the valve prosthesis in a downstream direction of blood flow at the native valve site; a central portion supporting the prosthetic valve component, the central portion configured to fit within an annulus of the native valve site, and an inflow portion configured to engage an upstream side of the annulus and restrict movement of the valve prosthesis in a downstream direction of blood flow at the native valve site; a separate support flange configured to be attached to the frame after the valve prosthesis has been deployed in situ; and a plurality of anchors configured to attach the support flange to the frame and configured to embed into the annulus to anchor the frame of the valve prosthesis to the native valve.