mhurhangee/ep-ind-claims huggingface dataset:
A nitroxylated protein having the structure: wherein Z represents the protein; each of R 1, R 2, R 3, and R 4 is independently C 1 -C 4 alkyl; X is oxygen, sulfur, nitrogen, phosphorus, or silicon; Y is CH 2; m is 0 or 1; n is 0 or 1; p is the average number of nitroxyl groups conjugated to the protein; and N is a nitrogen of the protein. Z represents the protein; each of R 1, R 2, R 3, and R 4 is independently C 1 -C 4 alkyl; X is oxygen, sulfur, nitrogen, phosphorus, or silicon; Y is CH 2; m is 0 or 1; n is 0 or 1; p is the average number of nitroxyl groups conjugated to the protein; and N is a nitrogen of the protein.
A battery pack comprising: a rectangular core pack having an electrode group, which includes a cathode, an anode, and a separating film, and an electrolyte mounted therein in a sealed state; a case body having an inner space for receiving the core pack; and an upper cover mounted on the case body having the core pack received therein for sealing the core pack, wherein the upper cover is provided at the edge thereof with a plurality of elastic locking members, and the case body is provided at the edge thereof with a plurality of locking grooves, which correspond to the locking members of the upper cover, such that the locking members of the upper cover are inserted into the locking grooves of the case body while the core pack is received in the case body, whereby the upper cover is coupled to the case body, wherein each of the locking members comprises a pair of locking protrusions (414a, 414b), which are connected to each other while a spacing groove is formed between the locking protrusions, the locking protrusions are provided at the outsides thereof with protrusions (416a, 416b), which are formed in the shape of a downward taper, and each of the locking grooves has a width (w) less than the maximum distance between the protrusions of the locking protrusions, wherein the upper cover is made of stainless steel, and the case body is made of a plastic material at least at the areas where the locking grooves are formed, whereby the looking protrusions inserted into the locking groove penetrate into the case body adjacent to the locking groove by a restoring force to further increase the locking force between the locking member and looking groove.
An apparatus for annotation of late potentials comprising abnormal ventricular activation signals, comprising: an interface, which is configured to: receive a bipolar signal sensed by a pair of electrodes at a location in a heart of a patient; receive one or more electrocardiogram signals sensed by one or more body-surface electrodes attached to the patient; and a processor, which is configured to: identify in the bipolar signal two or more successive QRS complexes; detect in the bipolar signal one or more activations occurring within a window-of-interest that begins at least a given time with respect to the identified QRS complexes; check whether the one or more detected activations are late potentials, by verifying whether (i) the one or more activations do not coincide with a predefined event observed in the one or more ECG signals, and (ii) the one or more activations are repeatable in the successive QRS complexes; and in response to deciding that at least one of the one or more detected activations is a late potential, visualize the latest of the at least one of the one or more late potentials to a user. an interface, which is configured to: receive a bipolar signal sensed by a pair of electrodes at a location in a heart of a patient; receive one or more electrocardiogram signals sensed by one or more body-surface electrodes attached to the patient; and receive a bipolar signal sensed by a pair of electrodes at a location in a heart of a patient; receive one or more electrocardiogram signals sensed by one or more body-surface electrodes attached to the patient; and a processor, which is configured to: identify in the bipolar signal two or more successive QRS complexes; detect in the bipolar signal one or more activations occurring within a window-of-interest that begins at least a given time with respect to the identified QRS complexes; check whether the one or more detected activations are late potentials, by verifying whether (i) the one or more activations do not coincide with a predefined event observed in the one or more ECG signals, and (ii) the one or more activations are repeatable in the successive QRS complexes; and in response to deciding that at least one of the one or more detected activations is a late potential, visualize the latest of the at least one of the one or more late potentials to a user. identify in the bipolar signal two or more successive QRS complexes; detect in the bipolar signal one or more activations occurring within a window-of-interest that begins at least a given time with respect to the identified QRS complexes; check whether the one or more detected activations are late potentials, by verifying whether (i) the one or more activations do not coincide with a predefined event observed in the one or more ECG signals, and (ii) the one or more activations are repeatable in the successive QRS complexes; and in response to deciding that at least one of the one or more detected activations is a late potential, visualize the latest of the at least one of the one or more late potentials to a user.
A pharmaceutical composition formulated for parenteral delivery, comprising an IL-2 variant protein having at least 95% sequence identity to SEQ ID NO: 1, and containing the substitution D109C relative to SEQ ID NO: 1.
A mouthpiece for performing a treatment of teeth, the mouthpiece comprising: - one or more light sources arranged to illuminate teeth, - an optical light distribution unit with a output surface, where the optical light distribution unit is arranged to redirect at least a part of the light rays from the one or more light sources before the light rays exit through the output surface to the teeth and/or to redirect scattered light rays injected into the optical light distribution unit from the output surface back to the output surface, - where the one or more light sources and the optical light distribution unit are arranged to provide an irradiance of the teeth greater than 20 mW/cm2, characterized in that the one or more light sources are mounted on a support structure having a thermal insulance which is lower than the thermal insulance of the optical light distribution unit. - one or more light sources arranged to illuminate teeth, - an optical light distribution unit with a output surface, where the optical light distribution unit is arranged to redirect at least a part of the light rays from the one or more light sources before the light rays exit through the output surface to the teeth and/or to redirect scattered light rays injected into the optical light distribution unit from the output surface back to the output surface, - where the one or more light sources and the optical light distribution unit are arranged to provide an irradiance of the teeth greater than 20 mW/cm2,
A process of forming an overmolded lead frame assembly for a pressure sensing application, the process comprising: performing a primary overmolding operation that includes overmolding a frontside and a backside of a lead frame with a first mold while clamping the lead frame at both the frontside and the backside of a wire bonding area on the lead frame, wherein clamping the lead frame at the wire bonding area prevents the frontside and the backside of the wire bonding area from being covered by the first mold during the primary overmolding operation and creates: an electronics cavity that provides an opening within the first mold that exposes the frontside of the wire bonding area for subsequent wire-bonding of a microelectromechanical system (MEMS) pressure sensing element to the frontside of the wire bonding area; and a pressure through-hole for placement of the MEMS pressure sensing element; and performing a secondary overmolding operation that includes overmolding, with a second mold, a portion of a backside of the first mold and the backside of the wire bonding area that was prevented from being covered by the first mold, by clamping the frontside and the backside of the wire bonding area during the primary overmolding operation, while preventing the pressure through-hole from being covered by the second mold during the secondary overmolding operation. performing a primary overmolding operation that includes overmolding a frontside and a backside of a lead frame with a first mold while clamping the lead frame at both the frontside and the backside of a wire bonding area on the lead frame, wherein clamping the lead frame at the wire bonding area prevents the frontside and the backside of the wire bonding area from being covered by the first mold during the primary overmolding operation and creates: an electronics cavity that provides an opening within the first mold that exposes the frontside of the wire bonding area for subsequent wire-bonding of a microelectromechanical system (MEMS) pressure sensing element to the frontside of the wire bonding area; and a pressure through-hole for placement of the MEMS pressure sensing element; and an electronics cavity that provides an opening within the first mold that exposes the frontside of the wire bonding area for subsequent wire-bonding of a microelectromechanical system (MEMS) pressure sensing element to the frontside of the wire bonding area; and a pressure through-hole for placement of the MEMS pressure sensing element; and performing a secondary overmolding operation that includes overmolding, with a second mold, a portion of a backside of the first mold and the backside of the wire bonding area that was prevented from being covered by the first mold, by clamping the frontside and the backside of the wire bonding area during the primary overmolding operation, while preventing the pressure through-hole from being covered by the second mold during the secondary overmolding operation.
A method of making a relief image, the method comprising: (a) providing a film comprising an imageable material disposed on a carrier sheet; (b) forming a mask image on the carrier sheet by producing exposed and non-exposed areas of the imageable material to form a transferable mask; (c) placing the transferable mask having the mask image in proximity with a photosensitive material and transferring the mask image to the photosensitive material that is sensitive to UV curing radiation such that the imageable material adheres more to the photosensitive material than to the carrier sheet; (d) exposing the photosensitive material to the UV curing radiation through the mask image to form an imaged article, wherein the mask image is substantially opaque to the UV curing radiation; and (e) developing the imaged article to form the relief image. (a) providing a film comprising an imageable material disposed on a carrier sheet; (b) forming a mask image on the carrier sheet by producing exposed and non-exposed areas of the imageable material to form a transferable mask; (c) placing the transferable mask having the mask image in proximity with a photosensitive material and transferring the mask image to the photosensitive material that is sensitive to UV curing radiation such that the imageable material adheres more to the photosensitive material than to the carrier sheet; (d) exposing the photosensitive material to the UV curing radiation through the mask image to form an imaged article, wherein the mask image is substantially opaque to the UV curing radiation; and (e) developing the imaged article to form the relief image.
The use of hydrogen- or lithium-containing manganese oxide having a spinel crystal structure and a particle size of primary particles in the range of 20 to 70 nm when measured using transmission electron microscope imaging as a tritium adsorbent to trap tritium from tritium- containing water.
An optical beam-shaping element (16, 116) for shaping and homogenizing an optical beam of rays, comprising an array of microlenses which have a respective vertex, wherein the lateral positions of the microlenses in the array, with respect to the respective vertex, are predetermined on the basis of a regular pattern, wherein respective reference positions for the vertex of a respective microlens are defined by the regular pattern, wherein the reference positions each form the center of a predetermined respective distribution zone, and wherein the lateral positions are arranged within the respective distribution region in accordance with a predetermined first stochastic distribution function, and wherein the microlenses have at least one respective phase shift feature which is selected such that the microlenses produce a respective phase shift for light passing through, wherein the respective phase shifts produced by the microlenses differ from one another in accordance with at least a predetermined second stochastic distribution function, characterized in that the phase shift feature comprises the microlenses differing from one another with respect to their thickness in accordance with the second distribution function, with the difference in thickness being effected solely by addition or subtraction of a planoparallel component with respect to a reference microlens; and in that a variation range of the thickness amounts to n / (n-1) x λ, where n is the refractive index of the microlenses and λ is a predetermined nominal wavelength for which the beam-shaping element (16, 116) is designed.
Propulsion system of an aircraft, said propulsion system including a turbojet including compression stages and a fan duct, and a heat exchanger system, which includes: - a heat exchanger fastened in the fan duct and including a supply connection, a transfer connection disposed aft of the heat exchanger and pneumatically connected to the supply connection through the heat exchanger, at least one scoop connection (252a-b) and an evacuation connection pneumatically connected to each scoop connection (252a-b) through the heat exchanger, - a supply pipe, which is connected to the supply connection, and which bleeds hot air from the compression stages and supplies the heat exchanger with the hot air bled in this way, - a transfer pipe, which is connected to the transfer connection, for transferring the hot air that has passed through the heat exchanger to an air management system of the aircraft, - for each scoop connection (252a-b), a scoop (216a-b), which is connected to the scoop connection (252a-b) and which bleeds cold air from the fan duct and supplies the heat exchanger with the cold air bled in this way, and - an evacuation pipe, which includes an inlet connected to the evacuation connection and an outlet, which emerges on the outside, where the passage of the hot air through the heat exchanger from the supply pipe to the transfer pipe takes place along a first transfer direction and where the passage of the cold air through the heat exchanger from each scoop (216a-b) to the inlet takes place along a second transfer direction parallel to the first transfer direction but in the opposite direction the propulsion system being characterized in that the supply connection is disposed forward of the heat exchanger, said at least one scoop connection (252a-b) is disposed aft of the heat exchanger, and the evacuation connection is disposed forward of the heat exchanger. - a heat exchanger fastened in the fan duct and including a supply connection, a transfer connection disposed aft of the heat exchanger and pneumatically connected to the supply connection through the heat exchanger, at least one scoop connection (252a-b) and an evacuation connection pneumatically connected to each scoop connection (252a-b) through the heat exchanger, - a supply pipe, which is connected to the supply connection, and which bleeds hot air from the compression stages and supplies the heat exchanger with the hot air bled in this way, - a transfer pipe, which is connected to the transfer connection, for transferring the hot air that has passed through the heat exchanger to an air management system of the aircraft, - for each scoop connection (252a-b), a scoop (216a-b), which is connected to the scoop connection (252a-b) and which bleeds cold air from the fan duct and supplies the heat exchanger with the cold air bled in this way, and - an evacuation pipe, which includes an inlet connected to the evacuation connection and an outlet, which emerges on the outside,
A signal processing device comprising: a plurality of terminals connectable to a plurality of signal sources; and a read circuit for converting signals input from said terminals into serial signals and outputting the serial signals, wherein: said read circuit comprises a holding capacitor connected to each of said terminals, a transfer switch for transferring a signal held in said holding capacitor to a common signal line, and a shift register for driving said transfer switch; characterized in that a semiconductor layer under said common signal line has a conductivity type opposite to a first conductivity type of a semiconductor substrate, the semiconductor layer under said common signal line is supplied with a fixed voltage, a transistor constituting the shift register is disposed in a semiconductor substrate of a first conductivity type, and the holding capacitor and the transfer switch are formed in the semiconductor layer. a plurality of terminals connectable to a plurality of signal sources; and a read circuit for converting signals input from said terminals into serial signals and outputting the serial signals, wherein: said read circuit comprises a holding capacitor connected to each of said terminals, a transfer switch for transferring a signal held in said holding capacitor to a common signal line, and a shift register for driving said transfer switch; characterized in that a semiconductor layer under said common signal line has a conductivity type opposite to a first conductivity type of a semiconductor substrate, the semiconductor layer under said common signal line is supplied with a fixed voltage, a transistor constituting the shift register is disposed in a semiconductor substrate of a first conductivity type, and the holding capacitor and the transfer switch are formed in the semiconductor layer. said read circuit comprises a holding capacitor connected to each of said terminals, a transfer switch for transferring a signal held in said holding capacitor to a common signal line, and a shift register for driving said transfer switch; characterized in that a semiconductor layer under said common signal line has a conductivity type opposite to a first conductivity type of a semiconductor substrate, the semiconductor layer under said common signal line is supplied with a fixed voltage, a transistor constituting the shift register is disposed in a semiconductor substrate of a first conductivity type, and the holding capacitor and the transfer switch are formed in the semiconductor layer.
An additive manufacturing device (100, 500, 550, 600, 650), comprising: a vessel (1, 50) for containing a material (40, 51) which is polymerisable on exposure to radiation; a build platform (9, 70) having a build surface (71, 92), the build platform (9, 70) being mounted or mountable for movement relative to the vessel (1, 50); and a programmable radiation module (10, 60) comprising an array of individually addressable radiation emitting or transmitting elements, the array being configurable to produce radiation having a predetermined pattern by selective activation of elements of the array; wherein the programmable radiation module (10, 60) is positioned or positionable to irradiate uncured material (40, 51) adjacent the build surface (71, 92), or adjacent a previously cured structure on the build surface (71, 92), with the predetermined pattern without magnification; and characterised in that the radiation module (10, 60) is attached to or is integral with the vessel (1, 50). a vessel (1, 50) for containing a material (40, 51) which is polymerisable on exposure to radiation; a build platform (9, 70) having a build surface (71, 92), the build platform (9, 70) being mounted or mountable for movement relative to the vessel (1, 50); and a programmable radiation module (10, 60) comprising an array of individually addressable radiation emitting or transmitting elements, the array being configurable to produce radiation having a predetermined pattern by selective activation of elements of the array; wherein the programmable radiation module (10, 60) is positioned or positionable to irradiate uncured material (40, 51) adjacent the build surface (71, 92), or adjacent a previously cured structure on the build surface (71, 92), with the predetermined pattern without magnification; and characterised in that the radiation module (10, 60) is attached to or is integral with the vessel (1, 50).
A device for focusing a laser beam on the surface of a liquid, viscous or powdery product, whose level, i.e. the vertical position of the surface, varies over time, comprising: - a source emitting a focusable laser beam using optical means on said surface; - a nozzle at least partially cylindrical at a first end, being submerged in said product and able to fill at least partially with product; - optionally, a float located on the surface of the product inside the nozzle; - an imaging device, stationary relative to the source, situated on the side of a second end of the nozzle and equipped with an optic allowing to capture the entire image of the surface of the product or the float inside the nozzle between a first distance and a second distance, the first distance being smaller than the second distance; - an image-processing system coupled to the imaging device to determine the diameter of a circle for adjustment to the image of the contour of the nozzle at the level of the surface, called apparent diameter of the nozzle, or to determine the diameter or any other apparent transverse dimension of the float; - means for calculating, based on pre-established calibration curves, successively, the distance between the laser source and the surface as a function of the apparent inner diameter of the nozzle or the apparent transverse dimension of the float and the focusing of the laser beam on the surface resulting therefrom; - means (6, 7, 12) for modifying the focus of the laser beam by acting on the optical means as a function of the aforementioned calculation of the focus adapted to the distance calculated between the laser source and the surface. - a source emitting a focusable laser beam using optical means on said surface; - a nozzle at least partially cylindrical at a first end, being submerged in said product and able to fill at least partially with product; - optionally, a float located on the surface of the product inside the nozzle; - an imaging device, stationary relative to the source, situated on the side of a second end of the nozzle and equipped with an optic allowing to capture the entire image of the surface of the product or the float inside the nozzle between a first distance and a second distance, the first distance being smaller than the second distance; - an image-processing system coupled to the imaging device to determine the diameter of a circle for adjustment to the image of the contour of the nozzle at the level of the surface, called apparent diameter of the nozzle, or to determine the diameter or any other apparent transverse dimension of the float; - means for calculating, based on pre-established calibration curves, successively, the distance between the laser source and the surface as a function of the apparent inner diameter of the nozzle or the apparent transverse dimension of the float and the focusing of the laser beam on the surface resulting therefrom; - means (6, 7, 12) for modifying the focus of the laser beam by acting on the optical means as a function of the aforementioned calculation of the focus adapted to the distance calculated between the laser source and the surface.