mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for generating a super-resolution image for a specimen through a super-resolution system based on a low resolution image of the specimen comprising: obtaining the low resolution image of the specimen using a low resolution objective of a microscopy inspection system; detecting one or more artifacts in the low resolution image; identifying a suitability of the one or more artifacts for generation of the super-resolution image of at least a portion of the specimen from the low resolution image; generating the super-resolution image of the at least a portion of the specimen from the low resolution image of the specimen using a super-resolution image simulation; identifying an accuracy assessment of the super-resolution image based on one or more degrees of equivalence between the super-resolution image and one or more actually scanned high resolution images of at least a portion of one or more related specimens identified using a simulated image classifier; determining whether to further process the super-resolution image based on the accuracy assessment of the super-resolution image, the determining comprising: determining whether to further process the super-resolution image based on the suitability of the one or more artifacts for generation of the super-resolution image; and further processing the super-resolution image if it is determined to further process the super-resolution image; wherein an artifact refers to a specimen, portion of a specimen, features, abnormalities and/or defects in the specimen. obtaining the low resolution image of the specimen using a low resolution objective of a microscopy inspection system; detecting one or more artifacts in the low resolution image; identifying a suitability of the one or more artifacts for generation of the super-resolution image of at least a portion of the specimen from the low resolution image; generating the super-resolution image of the at least a portion of the specimen from the low resolution image of the specimen using a super-resolution image simulation; identifying an accuracy assessment of the super-resolution image based on one or more degrees of equivalence between the super-resolution image and one or more actually scanned high resolution images of at least a portion of one or more related specimens identified using a simulated image classifier; determining whether to further process the super-resolution image based on the accuracy assessment of the super-resolution image, the determining comprising: determining whether to further process the super-resolution image based on the suitability of the one or more artifacts for generation of the super-resolution image; and further processing the super-resolution image if it is determined to further process the super-resolution image; wherein an artifact refers to a specimen, portion of a specimen, features, abnormalities and/or defects in the specimen.
A spray dried powder comprising vancomycin hydrochloride, the spray dried powder comprising 100 part by weight vancomycin hydrochloride, 15-35 part by weight trehalose, and 0.005-0.05 part by weight polyoxyethylene sorbitan monooleat (tween 80).
A sensor module for measuring a distance to a target and/or a velocity of the target, the sensor module comprising at least two laser sources for emitting laser light, at least two detectors being adapted to detect modulated laser light and at least one control element, the control element being adapted to vary a focus point of the laser light, characterized in that the laser sources are adapted to emit laser light in essentially the same direction, wherein the control element is adapted to vary the focus point of the laser light emitted by the at least two laser sources differently.
A system (100; 300; 600; 700) for delivering a temperature-controlled gas (200; 214; 507; 586) to a therapy site comprising: a gas temperature regulator (102; 702; 924) having a gas intake port (105; 712); a therapy pad (110; 578; 620), wherein a first surface (500; 554; 580; 630; 962) of the therapy pad is configured to mate with the therapy site and the first surface of the therapy pad is a heat exchange layer (550; 513; 588; 964), the first surface including at least one aperture (506; 635; 582; 706) through which gas is expelled from the pad; a coupling tube (108; 202; 584; 800), having a first end configured to receive gas from the temperature regulator and a second end configured to deliver gas to the therapy pad at a controlled temperature; a connector fixed to the therapy pad and structured to receive an electrode (522; 510; 512) for delivering a current, wherein the connector is positioned adjacent the at least one aperture; and an electrode (522; 510; 512) that mates with the connector, wherein when mated with the connector, the electrode is positioned within a flow stream of gas that exits the at least one aperture. a gas temperature regulator (102; 702; 924) having a gas intake port (105; 712); a therapy pad (110; 578; 620), wherein a first surface (500; 554; 580; 630; 962) of the therapy pad is configured to mate with the therapy site and the first surface of the therapy pad is a heat exchange layer (550; 513; 588; 964), the first surface including at least one aperture (506; 635; 582; 706) through which gas is expelled from the pad; a coupling tube (108; 202; 584; 800), having a first end configured to receive gas from the temperature regulator and a second end configured to deliver gas to the therapy pad at a controlled temperature; a connector fixed to the therapy pad and structured to receive an electrode (522; 510; 512) for delivering a current, wherein the connector is positioned adjacent the at least one aperture; and an electrode (522; 510; 512) that mates with the connector, wherein when mated with the connector, the electrode is positioned within a flow stream of gas that exits the at least one aperture.
A cylindrical lock operable with a rotatable key, said lock comprising a base body provided with a cylindrical bore, in which a set of annular plates constituting at least catchers is arranged axially, said catchers being locked against unintended rotation and adapted for an engagement with a shank of the rotatable key, with at least one tumbler as well as with guiding means for aligning the catchers in a position enabling the rotatable key to be removed from the lock, wherein a plurality of adjacent spacing shims is arranged axially in the cylindrical bore, the spacing shims being locked against relative movement, and a transversal slot for an insertion of the tumbler is provided in the circumferential area of each of the spacing shims, wherein at least the catchers are individually freely rotatably completely nested in the spacing shims, which are adapted for engagement with at least one tumbler, with means for locking the catchers against unintended rotation and with means for aligning the same in a position enabling the rotatable key to be removed and the shank of the key to pass through, the last spacing shim adjoining to a terminating element characterized in that a labyrinth hole for a pair of return rods is arranged opposite to the transversal slot and along the internal circumferential surface of the unilateral rim of each spacing shim, said hole being provided with two opposed guiding edges (49, 50) and with an abutment edge (51, 52) at either end, the edges (51, 52) merging into retaining grooves (53, 54) in the direction towards the internal circumferential surface of the unilateral rim of the spacing shim.
A method comprising, by an OPC UA client: importing a nodeset file pertaining to an OPC UA-enabled automation device, wherein the nodeset file describes an address space of an OPC UA server of the automation device and further comprises validation logic used to validate data to be written to the automation device; preparing data to be written to the automation device; using the validation logic to validate the prepared data; and writing the validated data to the automation device; the method further comprising performing an industrial manufacturing process using an industrial automation system comprising the said automation device to which data has been written. importing a nodeset file pertaining to an OPC UA-enabled automation device, wherein the nodeset file describes an address space of an OPC UA server of the automation device and further comprises validation logic used to validate data to be written to the automation device; preparing data to be written to the automation device; using the validation logic to validate the prepared data; and writing the validated data to the automation device; the method further comprising performing an industrial manufacturing process using an industrial automation system comprising the said automation device to which data has been written.
Escape route security device for securing a door in an escape route, having a locking device that can be switched, in particular unlocked, by an emergency button, wherein the emergency button has a housing or is arranged in or on a housing which can be mounted on a wall in the region of an escape route, characterised in that an adapter plate is provided for mounting the housing, said adapter plate being able to be connected to a flush-mounted socket via fixing means and having receivers for fixing the housing, and wherein the adapter plate has second fixing means for fixing the adapter plate on a wall, wherein the second fixing means are formed as screw connections that are arranged in such a way that, in the case of an adapter plate fixed on a lower flush-mounted socket, they are neither in a region that lies above or below a lower flush-mounted socket in the vertical projection, nor that lies to the left or right of the of the lower flush-mounted socket in the horizontal projection.
A robot cleaner system comprising a robot cleaner configured to perform cleaning, while driving automatically; a recharging base for the robot cleaner; and a remote control device having a camera and configured to perform remote-control of the robot cleaner, wherein the remote control device is arranged to generate mapping information between an actual region and a virtual region based on image information on the robot cleaner and a region near the robot cleaner, or based on image information on the recharging base and a region near the recharging base, the image information being generated by the camera; wherein recognition means (112, 312, 412) are provided in the robot cleaner or the recharging base and wherein the mapping information is generated on the basis of shape information of the recognition means; and wherein the recognition means comprise LED lighting configured to be activated to provide a light toward an outside of a case from an inside of the case provided in the robot cleaner or the recharging base.
An objective lens comprising, disposed in order from an object, a first lens group having positive refractive power, a second lens group having positive refractive power, and a third lens group having negative refractive power, wherein the first lens group comprises, disposed in order from an object, a positive lens; a negative meniscus lens cemented to the positive lens and having a concave surface facing the object; and a positive meniscus lens having a concave surface facing the object, wherein the third lens group comprises, in order from the object, a first cemented lens (L31,L32), a second cemented lens (L33,L34), and a third cemented lens (L35,L36); characterised in that the objective lens satisfies following conditional expressions 2.05 ≤ n1m ≤ 2.30, 25 ≤ ν 1m, 6.0 < NA × f < 15.0, and 0.06 < d 0 / f < 0.20, where nlm: a refractive index of the negative meniscus lens with respect to a d-line, vim: an Abbe number of the negative meniscus lens, f: a focal length of the objective lens, NA: an object-side numerical aperture of the objective lens, and d0: the distance from the object to the object-side lens surface of the positive lens along the optical axis. a first lens group having positive refractive power, a second lens group having positive refractive power, and a third lens group having negative refractive power, wherein the first lens group comprises, disposed in order from an object, a positive lens; a negative meniscus lens cemented to the positive lens and having a concave surface facing the object; and a positive meniscus lens having a concave surface facing the object, wherein the third lens group comprises, in order from the object, a first cemented lens (L31,L32), a second cemented lens (L33,L34), and a third cemented lens (L35,L36); characterised in that the objective lens satisfies following conditional expressions 2.05 ≤ n1m ≤ 2.30, 25 ≤ ν 1m, 6.0 < NA × f < 15.0, and 0.06 < d 0 / f < 0.20, where nlm: a refractive index of the negative meniscus lens with respect to a d-line, vim: an Abbe number of the negative meniscus lens, f: a focal length of the objective lens, NA: an object-side numerical aperture of the objective lens, and d0: the distance from the object to the object-side lens surface of the positive lens along the optical axis. nlm: a refractive index of the negative meniscus lens with respect to a d-line, vim: an Abbe number of the negative meniscus lens, f: a focal length of the objective lens, NA: an object-side numerical aperture of the objective lens, and d0: the distance from the object to the object-side lens surface of the positive lens along the optical axis.
A method for executing, by a processor, a vector read instruction for placing one or more element data values into an output vector, comprising: identifying a vertical permute control vector comprising a plurality of elements, each element of the plurality of elements comprising a register address indicating a vector register of a plurality of vector registers of the processor; for each element of the plurality of elements: reading a register address from the vertical permute control vector; and retrieving an element data value from the vector register indicated by the register address, characterised in that a location of the element data value within the vector register is indicated by a location of the register address within the vertical permute control vector; and further characterised by identifying a horizontal permute control vector comprising a set of addresses corresponding to an output vector; and placing at least some of the retrieved element data values into the output vector based on the set of addresses in the horizontal permute control vector. identifying a vertical permute control vector comprising a plurality of elements, each element of the plurality of elements comprising a register address indicating a vector register of a plurality of vector registers of the processor; for each element of the plurality of elements: reading a register address from the vertical permute control vector; and retrieving an element data value from the vector register indicated by the register address, characterised in that a location of the element data value within the vector register is indicated by a location of the register address within the vertical permute control vector; and reading a register address from the vertical permute control vector; and retrieving an element data value from the vector register indicated by the register address, characterised in that a location of the element data value within the vector register is indicated by a location of the register address within the vertical permute control vector; and further characterised by identifying a horizontal permute control vector comprising a set of addresses corresponding to an output vector; and placing at least some of the retrieved element data values into the output vector based on the set of addresses in the horizontal permute control vector.
A decoder for determining an attenuation to be applied to an audio signal, comprising an identifier unit configured to identify spectral regions to be attenuated, the decoder being characterised by further comprising: a grouping unit configured to group subsequent identified spectral regions to form a continuous spectral region, a determination unit configured to determine a width of the continuous spectral region, and an application unit configured to apply an attenuation of the continuous spectral region adaptive to the width such that an increased width decreases the attenuation of the continuous spectral region.
A receiver circuit to receive a quadrature amplitude modulation, QAM, data signal, the receiver circuit comprising: a first de-mapper circuit to recover a set of encoded data bits from the QAM data signal by calculating a plurality of distances between a received QAM symbol and each of a plurality of possible constellation points; a decoder circuit to decode the set of encoded data bits recovered by the first de-mapper circuit; and a second de-mapper circuit to generate a set of un-encoded data bits for the received QAM symbol based, at least in part, on a result of the decoding and the plurality of distances calculated by the first de-mapper circuit; wherein the second de-mapper circuit is selectively operable in a first mode or a second mode, and wherein: when operating in the first mode, the second de-mapper circuit is to recover the set of un-encoded data bits concurrently with the first de-mapper circuit recovering the set of encoded data bits; and when operating in the second mode, the second de-mapper circuit is to generate the set of un-encoded data bits after receiving information about the plurality of distances calculated by the first de-mapper circuit and the result of the decoding. a first de-mapper circuit to recover a set of encoded data bits from the QAM data signal by calculating a plurality of distances between a received QAM symbol and each of a plurality of possible constellation points; a decoder circuit to decode the set of encoded data bits recovered by the first de-mapper circuit; and a second de-mapper circuit to generate a set of un-encoded data bits for the received QAM symbol based, at least in part, on a result of the decoding and the plurality of distances calculated by the first de-mapper circuit; wherein the second de-mapper circuit is selectively operable in a first mode or a second mode, and wherein: when operating in the first mode, the second de-mapper circuit is to recover the set of un-encoded data bits concurrently with the first de-mapper circuit recovering the set of encoded data bits; and when operating in the second mode, the second de-mapper circuit is to generate the set of un-encoded data bits after receiving information about the plurality of distances calculated by the first de-mapper circuit and the result of the decoding. when operating in the first mode, the second de-mapper circuit is to recover the set of un-encoded data bits concurrently with the first de-mapper circuit recovering the set of encoded data bits; and when operating in the second mode, the second de-mapper circuit is to generate the set of un-encoded data bits after receiving information about the plurality of distances calculated by the first de-mapper circuit and the result of the decoding.
A method of determining calibration values for a media advance system of a page wide array printing device comprising: printing a test pattern comprising a plurality of test marks on a calibration medium which advances along a media axis through the printing device, scanning the test pattern along a scan axis using a sensor and advancing the calibration medium along the media axis through the printing device, wherein the scan axis is orthogonal to the media axis, the sensor configured to output signals which indicate the detection of edges of the test marks; analyzing, based on the signals from the sensor, the dimensions of the scanned test marks, wherein analysing the dimensions of the scanned test marks includes determining the widths of at least two test marks along the scan axis, and determining calibration values from the analyzed dimensions of the test marks, wherein determining the calibration values includes determining the difference of the widths of the at least two test marks. printing a test pattern comprising a plurality of test marks on a calibration medium which advances along a media axis through the printing device, scanning the test pattern along a scan axis using a sensor and advancing the calibration medium along the media axis through the printing device, wherein the scan axis is orthogonal to the media axis, the sensor configured to output signals which indicate the detection of edges of the test marks; analyzing, based on the signals from the sensor, the dimensions of the scanned test marks, wherein analysing the dimensions of the scanned test marks includes determining the widths of at least two test marks along the scan axis, and determining calibration values from the analyzed dimensions of the test marks, wherein determining the calibration values includes determining the difference of the widths of the at least two test marks.
A device for diffusing a compound comprising: a chamber arranged to store a compound, wherein the chamber includes an agitator member configured to agitate the compound within the chamber to diffuse the compound into air within the chamber, wherein the agitator member is of a truncated horn shape or frustum shape, the agitator member including at least one conduit defined by the inner surfaces of the agitator member, said agitator member having a narrow end towards a base portion of the chamber and a wider end towards the upper or top portion of the chamber, characterized in that: the conduit is configured to provide liquid communication between a base portion of the chamber and a top portion of the chamber, wherein the agitator member is arranged to rotate so as to apply centrifugal force onto the compound within the chamber, wherein the centrifugal force is arranged to drive the compound from the base portion of the chamber to the top portion of the chamber, wherein when upon the compound reaches the top portion of the chamber, the compound is propelled from the agitator member towards a sidewall of the chamber, wherein the chamber has an opening towards the top of the chamber, wherein vents, formed as a part of a diffuser cover, enclose the chamber, wherein the diffuser cover is configured to allow air to be drawn into the chamber whilst allowing the air to be expelled from the chamber. a chamber arranged to store a compound, wherein the chamber includes an agitator member configured to agitate the compound within the chamber to diffuse the compound into air within the chamber, wherein the agitator member is of a truncated horn shape or frustum shape, the agitator member including at least one conduit defined by the inner surfaces of the agitator member, said agitator member having a narrow end towards a base portion of the chamber and a wider end towards the upper or top portion of the chamber, characterized in that: the conduit is configured to provide liquid communication between a base portion of the chamber and a top portion of the chamber, wherein the agitator member is arranged to rotate so as to apply centrifugal force onto the compound within the chamber, wherein the centrifugal force is arranged to drive the compound from the base portion of the chamber to the top portion of the chamber, wherein when upon the compound reaches the top portion of the chamber, the compound is propelled from the agitator member towards a sidewall of the chamber, wherein the chamber has an opening towards the top of the chamber, wherein vents, formed as a part of a diffuser cover, enclose the chamber, wherein the diffuser cover is configured to allow air to be drawn into the chamber whilst allowing the air to be expelled from the chamber.