mhurhangee/patent-ind-claim-en huggingface dataset:
A system for in situ preparation of a plurality of analytical substrates customizable for a particular disease profile, the system comprising: an automated immunochemistry analyzer configured to store a plurality of capture reagents, each capture reagent being a different immunogen, the automated immunochemistry analyzer also configured to store a plurality of paramagnetic particles, wherein the automated immunochemistry analyzer comprises: a reaction rotor for holding at least one cuvette; a user interface configured to allow a selection of a capture reagent, or a combination of two or more capture reagents, from the plurality of capture reagents based on input by a user; and a logic implementer configured to cause the automated immunochemistry analyzer to (i) mix together each capture reagent of the combination of two or more capture reagents in a cuvette located within the reaction rotor , (ii) bind the capture reagent or the combination of two or more capture reagents to the paramagnetic particles in the cuvette, such that the respective analytical substrate does not have any unbound capture reagent associated therewith by providing a wash buffer to the mixture of the paramagnetic particles with the capture reagent or the combination of two or more capture reagents in the cuvette, localizing the mixture in the cuvette using at least one magnet, and disposing of at least a portion of the wash buffer in addition to the unbound capture reagent from the cuvette, wherein the analytical substrate is formed by the automated immunochemistry analyzer in the cuvette for the purpose of detecting an immunogen-binding molecule in a patient's blood sample, and wherein the automated immunochemistry analyzer is adapted to prepare a plurality of custom analytical substrates simultaneously. a reaction rotor for holding at least one cuvette; a user interface configured to allow a selection of a capture reagent, or a combination of two or more capture reagents, from the plurality of capture reagents based on input by a user; and a logic implementer configured to cause the automated immunochemistry analyzer to (i) mix together each capture reagent of the combination of two or more capture reagents in a cuvette located within the reaction rotor , (ii) bind the capture reagent or the combination of two or more capture reagents to the paramagnetic particles in the cuvette, such that the respective analytical substrate does not have any unbound capture reagent associated therewith by providing a wash buffer to the mixture of the paramagnetic particles with the capture reagent or the combination of two or more capture reagents in the cuvette, localizing the mixture in the cuvette using at least one magnet, and disposing of at least a portion of the wash buffer in addition to the unbound capture reagent from the cuvette, wherein the analytical substrate is formed by the automated immunochemistry analyzer in the cuvette for the purpose of detecting an immunogen-binding molecule in a patient's blood sample, and wherein the automated immunochemistry analyzer is adapted to prepare a plurality of custom analytical substrates simultaneously.
An optical sensor module, the optical sensor module comprising: an optical sensor array of optical detectors, arranged below a display panel to receive probe light that is generated when a finger is illuminated by a light source and returned from the display panel, the probe light being used for detecting a fingerprint of the finger; an array of optical collimators located between the display panel and the optical sensor array to collect the probe light returned from the display panel and to separate probe light from different locations while directing the collected probe light to the optical sensor array, wherein the array of optical collimators is spaced from the optical sensor array to effectuate a pinhole camera effect that enhances an optical imaging resolution of the optical sensor array, and an optical layer between the optical collimators and the display panel to select angled probe light returned from the display panel to enter the optical collimators while reducing an amount of the returned probe light that is perpendicular to the display panel wherein the optical layer includes an optical diffraction pattern that diffracts the returned probe light to direct the angled probe light returned from the display panel to enter the optical collimators. an optical sensor array of optical detectors, arranged below a display panel to receive probe light that is generated when a finger is illuminated by a light source and returned from the display panel, the probe light being used for detecting a fingerprint of the finger; an array of optical collimators located between the display panel and the optical sensor array to collect the probe light returned from the display panel and to separate probe light from different locations while directing the collected probe light to the optical sensor array, wherein the array of optical collimators is spaced from the optical sensor array to effectuate a pinhole camera effect that enhances an optical imaging resolution of the optical sensor array, and an optical layer between the optical collimators and the display panel to select angled probe light returned from the display panel to enter the optical collimators while reducing an amount of the returned probe light that is perpendicular to the display panel wherein the optical layer includes an optical diffraction pattern that diffracts the returned probe light to direct the angled probe light returned from the display panel to enter the optical collimators.
A wind turbine comprising - a canopy mounted at the top of a tower and enclosing components of the wind turbine ; and - a hoist window to facilitate transfer of loads into and out of the wind turbine , and a safety door assembly for the hoist window , wherein the safety door assembly comprises - a sliding door arranged to reveal or conceal the hoist window in the side wall of the canopy ; and - a barrier assembly which can be closed to inhibit access to an area in front of the hoist window or opened to permit access to the area in front of the hoist window ; wherein the barrier assembly is adapted to prevent the sliding door from revealing the hoist window when the barrier assembly is open; and the sliding door is adapted to prevent opening of the closed barrier assembly when the sliding door reveals the hoist window . - a canopy mounted at the top of a tower and enclosing components of the wind turbine ; and - a hoist window to facilitate transfer of loads into and out of the wind turbine , and a safety door assembly for the hoist window , - a sliding door arranged to reveal or conceal the hoist window in the side wall of the canopy ; and - a barrier assembly which can be closed to inhibit access to an area in front of the hoist window or opened to permit access to the area in front of the hoist window ; wherein the barrier assembly is adapted to prevent the sliding door from revealing the hoist window when the barrier assembly is open; and the sliding door is adapted to prevent opening of the closed barrier assembly when the sliding door reveals the hoist window . the barrier assembly is adapted to prevent the sliding door from revealing the hoist window when the barrier assembly is open; and the sliding door is adapted to prevent opening of the closed barrier assembly when the sliding door reveals the hoist window .
An x-ray scintillator comprising a pore matrix having a plurality of pores formed in a substrate , wherein each of said pores is at least partially covered with a multi-layered coating comprising at least a reflective layer and a protective layer , wherein said at least partially coated pores are filled with scintillating material for absorbing x-ray photons to produce secondary photons, wherein said at least partially coated pores are filled with scintillating material comprising Cesium Iodide, Csl, through a melting process such that the filled pores include solidified, melted scintillating material, wherein said reflective layer of said multi-layered coating is arranged between the scintillating material and the substrate for reflecting the secondary photons, and wherein said protective layer of said multi-layered coating is arranged between the reflective layer and the scintillating material for protecting the reflective layer while allowing reflection of the secondary photons by the reflective layer, and said protective layer comprises transparent oxide, nitride and/or silicide, whereby the multi-layered coating is capable of withstanding, without degradation, the melting process used to fill the pores with scintillating material, and protects the reflective layer from mechanical and/or chemical influences that would otherwise degrade or even damage the reflective properties, and wherein the protective layer is substantially optically inactive with respect to the secondary photons so that the protective layer does not have any optical effect on the secondary photons.
An electronic device comprising a display module and an electronics module that are arranged in a common housing , wherein the common housing is completed by a front cover , wherein the display module is arranged directly adjacent to the front cover , wherein the electronics module comprises a printed circuit board having multiple layers and a plurality of electronic components attached to the printed circuit board , wherein the electronics module is arranged adjacent to the display module and wherein the printed circuit board comprises a first layer and a second layer delimiting the printed circuit board on opposing sides and the first layer is an electromagnetic interference shielding layer characterized in that the first layer is arranged facing the display module . wherein the common housing is completed by a front cover , wherein the display module is arranged directly adjacent to the front cover , wherein the electronics module comprises a printed circuit board having multiple layers and a plurality of electronic components attached to the printed circuit board , wherein the electronics module is arranged adjacent to the display module and wherein the printed circuit board comprises a first layer and a second layer delimiting the printed circuit board on opposing sides and the first layer is an electromagnetic interference shielding layer characterized in that the first layer is arranged facing the display module .
2-((2-fluoro-4-iodophenyl)amino)-1-methyl-4-((6-methylpyridin-3-yl)oxy)-6-oxo-1,6-di hydropyridine-3-carboxamide p-toluenesulfonate of formula (I),
A universal debugging method for a USB device, wherein the method comprises: receiving input information of a terminal through a HID device; when report ID of the input information is a serial port ID, transmitting the input information to a buffer of a virtual serial port TTY device; extracting the input information of the terminal from the buffer of the virtual serial port TTY device, executing a shell command on the input information, and returning execution result to the terminal through the original path. receiving input information of a terminal through a HID device; when report ID of the input information is a serial port ID, transmitting the input information to a buffer of a virtual serial port TTY device; extracting the input information of the terminal from the buffer of the virtual serial port TTY device, executing a shell command on the input information, and returning execution result to the terminal through the original path.
An isolated antibody comprising a heavy chain and a light chain, wherein the antibody comprises: (i) a heavy chain comprising a heavy chain (HC) CDR1 having the sequence of SEQ ID NO: 27, an HC CDR2 having the sequence of SEQ ID NO: 28, and an HC CDR3 having the sequence of SEQ ID NO: 29, and (ii) a light chain comprising a light chain (LC) CDR1 having the sequence of SEQ ID NO: 30, a LC CDR2 having the sequence of SEQ ID NO: 31, and a LC CDR3 having the sequence of SEQ ID NO: 32; wherein the antibody binds human CSF1R, blocks the binding of CSF1 and IL34 to said CSF1R, and inhibits CSF1- and IL34-induced CSF1R phosphorylation. (i) a heavy chain comprising a heavy chain (HC) CDR1 having the sequence of SEQ ID NO: 27, an HC CDR2 having the sequence of SEQ ID NO: 28, and an HC CDR3 having the sequence of SEQ ID NO: 29, and (ii) a light chain comprising a light chain (LC) CDR1 having the sequence of SEQ ID NO: 30, a LC CDR2 having the sequence of SEQ ID NO: 31, and a LC CDR3 having the sequence of SEQ ID NO: 32; wherein the antibody binds human CSF1R, blocks the binding of CSF1 and IL34 to said CSF1R, and inhibits CSF1- and IL34-induced CSF1R phosphorylation.
A torque resistance mechanism for a multifunctional exercise apparatus, the torque resistance mechanism comprising an electrical torque motor/generator having a hollow space, a torsional spring accommodated co-axially in the hollow space, a part of a coupling mechanism having a first and a second part, and a selector having a first and a second position, wherein the selector enables a user to engage the part of the coupling mechanism in a first position with the electrical torque motor/generator and in a second position with the torsional spring .
A probe for electrosurgical treatment of tissue , comprising: a probe body in which an electrode channel extends up to a distal end of the probe body , an operating device comprising a housing , wherein the operating device is connected to a proximal end of the probe body and comprises an electrode operating element on the housing , which is movable between a first position (I) and a second position (II), an electrode which is arranged to be shiftable in the electrode channel in an extension direction (R) of the electrode channel , movably coupled to the electrode operating element , a water jet probe body in which a water channel extends up to a distal end of the water jet probe body , wherein the water jet probe body is shiftable in its extension direction (R) relative to the housing of the operating device , characterized in that the operating device is configured to allow a movement of the water jet probe body in the direction of an extended position only when the electrode is outside of the fully extended position (A) or when the electrode is in a fully retracted position (E). a probe body in which an electrode channel extends up to a distal end of the probe body , an operating device comprising a housing , wherein the operating device is connected to a proximal end of the probe body and comprises an electrode operating element on the housing , which is movable between a first position (I) and a second position (II), an electrode which is arranged to be shiftable in the electrode channel in an extension direction (R) of the electrode channel , movably coupled to the electrode operating element , a water jet probe body in which a water channel extends up to a distal end of the water jet probe body , wherein the water jet probe body is shiftable in its extension direction (R) relative to the housing of the operating device , characterized in that the operating device is configured to allow a movement of the water jet probe body in the direction of an extended position only when the electrode is outside of the fully extended position (A) or when the electrode is in a fully retracted position (E).
A memory network comprising: memory nodes , wherein each memory node includes memory and control logic; inter-node point-to-point links connecting the memory nodes with each other; and a point-to-point link connecting a memory controller of a processor to one of the memory nodes, wherein the control logic of each memory node is to perform a memory access invoked by the memory controller of the processor and is to route data or memory access commands to a destination in the memory network; characterised in that the control logic of a memory node is to schedule execution of memory accesses of memory requests from the memory controller of the processor according to local memory device status of the memory of the memory node. memory nodes , wherein each memory node includes memory and control logic; inter-node point-to-point links connecting the memory nodes with each other; and a point-to-point link connecting a memory controller of a processor to one of the memory nodes, wherein the control logic of each memory node is to perform a memory access invoked by the memory controller of the processor and is to route data or memory access commands to a destination in the memory network; characterised in that the control logic of a memory node is to schedule execution of memory accesses of memory requests from the memory controller of the processor according to local memory device status of the memory of the memory node.
A device for detecting a state of true perception loss of a human, the device including: processing means operable to detect from information on electrical signals sensed adjacent to the scalp of the human the activity of oscillations present in the electrical signals, wherein the oscillations are slow wave oscillations having a frequency between 0Hz and 5Hz, preferably between 0Hz and 2Hz, more preferably between 0Hz and 1.5Hz, and wherein the processing means is further operable to detect a time point of saturation of the slow wave oscillations as a marker for the state of true perception loss of the human, with saturation being characterised by the loss of anaesthetic dose dependency of the slow wave oscillations.
A method to manufacture a plastic object embedding a paper-based electronic circuit, comprising the steps of: A. providing or producing a paper-based electronic circuit, used as an in-mould label, and a mould, said mould being suitable for providing the shape of the plastic object; B. positioning the paper-based electronic circuit inside the mould; C. providing liquid plastic in the mould; and D. allowing the plastic to solidify and recovering the moulded plastic object embedding the paper-based electronic circuit; wherein the paper-based electronic circuit carries an electronic circuit which is at least partly printed on a paper-based substrate and wherein the paper-based substrate has a Bekk smoothness equal to or higher than 900 s. A. providing or producing a paper-based electronic circuit, used as an in-mould label, and a mould, said mould being suitable for providing the shape of the plastic object; B. positioning the paper-based electronic circuit inside the mould; C. providing liquid plastic in the mould; and D. allowing the plastic to solidify and recovering the moulded plastic object embedding the paper-based electronic circuit;
A cell culturing device comprising: (a) a base that contains nutrient media for microorganisms; (b) a porous membrane overlaying the nutrient media, wherein the nutrient media has a flat growth area raised above the base and a circumferential area that slopes from the edge of the flat growth area to the base, and wherein the nutrient media is capable of sustaining growth of microorganisms in the growth area; and (c) a lid that mates with the base to cover the membrane and the nutrient media, and wherein the device further comprises a film applied to the base and circumferential area, wherein the film adheres the membrane to the base and prevents growth of microorganisms outside the flat growth area and wherein the film is not porous. (a) a base that contains nutrient media for microorganisms; (b) a porous membrane overlaying the nutrient media, wherein the nutrient media has a flat growth area raised above the base and a circumferential area that slopes from the edge of the flat growth area to the base, and wherein the nutrient media is capable of sustaining growth of microorganisms in the growth area; and (c) a lid that mates with the base to cover the membrane and the nutrient media, and
Combination appliance which comprises a cooktop having at least one opening and a steam extraction device arranged below the cooktop for suctioning air from the space above the cooktop via the at least one opening which is the suction opening of the combination appliance , characterised in that the cooktop comprises a cover plate and at least one heating element, that the cover plate covers the at least one heating element from above, that the at least one opening is introduced into the cover plate, that the steam extraction device has a single blower with an air inlet opening which is arranged in the combination appliance such that the air inlet opening of the blower faces the cooktop and that the cooktop and the steam extraction device are connected to one another for introduction into a worktop via a common appliance housing and the blower of the steam extraction device is fastened to the base of the appliance housing .
Heamodialysis machine assembly comprising a base unit which comprises a machine housing and an internal fluidics within the machine housing , and an external fluidic set forming an external fluidics outside the machine housing , which comprises the blood lines defining the extracorporeal blood circuit and which is fluidically connected to the base unit via couplable fluid couplings, wherein there is provided a fluidic coaxial dual port coupling defined by a base unit side stationary dual port socket and a corresponding extracorporeal fluidic set side dual port plug releasably plugged onto the dual port socket , wherein both the dual port plug and the dual port socket comprise respectively a fluidic central line and a coaxial fluidic ring line surrounding the central line in an annular manner respectively, wherein a substitute liquid source is fluidically associated with the base unit and is fluidically connected to the socket ring line or the socket central line, and wherein the base unit has associated therewith a waste fluid target fluidically connected to the socket central line or the socket ring line. wherein both the dual port plug and the dual port socket comprise respectively a fluidic central line and a coaxial fluidic ring line surrounding the central line in an annular manner respectively, wherein a substitute liquid source is fluidically associated with the base unit and is fluidically connected to the socket ring line or the socket central line, and wherein the base unit has associated therewith a waste fluid target fluidically connected to the socket central line or the socket ring line.
A method of real-time image correction of a video stream from a surgical endoscope of a surgical robotic system, the video stream comprising a sequence of images, the method comprising: for an image in the sequence of images, identifying a plurality of regions, each region having a different range of values of at least one image property to another region ; applying a mask to the image which applies a region-specific modification to each region, each region-specific modification modifying the at least one image property of that region ; deriving data from the surgical robotic system ; determining a relationship between features in the image from the derived data ; modifying the mask for a subsequent image (n) in the video stream ; and applying the modified mask to the subsequent image (n) in the video stream ; wherein the mask is modified for the subsequent image (n) in the video stream when triggered by a certain action of a component of the surgical robotic system. for an image in the sequence of images, identifying a plurality of regions, each region having a different range of values of at least one image property to another region ; applying a mask to the image which applies a region-specific modification to each region, each region-specific modification modifying the at least one image property of that region ; deriving data from the surgical robotic system ; determining a relationship between features in the image from the derived data ; modifying the mask for a subsequent image (n) in the video stream ; and applying the modified mask to the subsequent image (n) in the video stream ; wherein the mask is modified for the subsequent image (n) in the video stream when triggered by a certain action of a component of the surgical robotic system.