mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula wherein Ar is aryl or heteroaryl substituted with Ra and Rb, wherein Ra is NH 2, NH-G, O-G'or (CH 2) n -A and Rb is hydrogen, halogen, NO 2, NH 2, NH-G or NH-CO-L, wherein A is optionally substituted heterocyclyl, G is straight or branched substituted C 1 -C 6 alkyl or an optionally substituted heterocyclyl, G' is straight or branched C 1 -C 6 alkyl substituted with N(C 1 -C 6 alkyl) 2, or an optionally substituted heterocyclyl, and L is optionally substituted heteroaryl; Ar' is aryl, optionally substituted with halogen; R1, R2 and R3 are hydrogen; R' and R" are each independently hydrogen or methyl; n is 0 or 1; or a pharmaceutically acceptable salt thereof. Ar is aryl or heteroaryl substituted with Ra and Rb, wherein Ra is NH 2, NH-G, O-G'or (CH 2) n -A and Rb is hydrogen, halogen, NO 2, NH 2, NH-G or NH-CO-L, wherein A is optionally substituted heterocyclyl, G is straight or branched substituted C 1 -C 6 alkyl or an optionally substituted heterocyclyl, G' is straight or branched C 1 -C 6 alkyl substituted with N(C 1 -C 6 alkyl) 2, or an optionally substituted heterocyclyl, and L is optionally substituted heteroaryl; Ra is NH 2, NH-G, O-G'or (CH 2) n -A and Rb is hydrogen, halogen, NO 2, NH 2, NH-G or NH-CO-L, wherein A is optionally substituted heterocyclyl, G is straight or branched substituted C 1 -C 6 alkyl or an optionally substituted heterocyclyl, G' is straight or branched C 1 -C 6 alkyl substituted with N(C 1 -C 6 alkyl) 2, or an optionally substituted heterocyclyl, and L is optionally substituted heteroaryl; A is optionally substituted heterocyclyl, G is straight or branched substituted C 1 -C 6 alkyl or an optionally substituted heterocyclyl, G' is straight or branched C 1 -C 6 alkyl substituted with N(C 1 -C 6 alkyl) 2, or an optionally substituted heterocyclyl, and L is optionally substituted heteroaryl; Ar' is aryl, optionally substituted with halogen; R1, R2 and R3 are hydrogen; R' and R" are each independently hydrogen or methyl; n is 0 or 1; or
A computer system comprising - a housing having at least one housing wall, the at least one housing wall having a first recess for mounting a first add-on board having a first height profile - a system board arranged in the housing and extending perpendicular to the at least one housing wall, wherein the first recess in the at least one housing wall extends perpendicular to the system board; - a mounting device adapted to be mounted in the first recess and to mount a second add-on board having a second height profile parallel to the system board in the computer system, Characterized in that the at least one housing wall comprises an opening adjoining the first recess, in which opening a part of the holding device extending parallel to the at least one housing wall can be arranged, and wherein the opening is arranged to be covered with a blind if the computer system is arranged to mount the first add-on board having the first height profile in the first recess. - a housing having at least one housing wall, the at least one housing wall having a first recess for mounting a first add-on board having a first height profile - a system board arranged in the housing and extending perpendicular to the at least one housing wall, wherein the first recess in the at least one housing wall extends perpendicular to the system board; - a mounting device adapted to be mounted in the first recess and to mount a second add-on board having a second height profile parallel to the system board in the computer system,
A method for applying a trimming operation to an image content, comprising the steps of: (a) detecting a person and an object in the image content by using a face detection technology and an object detection technology; (b) calculating an area of a face region of the detected person and an area of a region of the detected object and calculating a distance between a central point of the face region of the detected person and a central point of the image content and a distance between a central point of the detected object and the central point of the image content; characterised by (c) applying the trimming operation to the object if the area of the region of the detected object is determined to be larger than that of the face region of the detected person by over a first preset percentage, and applying the trimming operation to the object if the distance between the central point of the detected object and that of the image content is determined to be a second preset value or less and the distance between the central point of the face of the detected person and that of the image content is determined to be larger than the distance between the central point of the detected object and the central point of the image content by over a third preset value. (a) detecting a person and an object in the image content by using a face detection technology and an object detection technology; (b) calculating an area of a face region of the detected person and an area of a region of the detected object and calculating a distance between a central point of the face region of the detected person and a central point of the image content and a distance between a central point of the detected object and the central point of the image content; characterised by (c) applying the trimming operation to the object if the area of the region of the detected object is determined to be larger than that of the face region of the detected person by over a first preset percentage, and applying the trimming operation to the object if the distance between the central point of the detected object and that of the image content is determined to be a second preset value or less and the distance between the central point of the face of the detected person and that of the image content is determined to be larger than the distance between the central point of the detected object and the central point of the image content by over a third preset value.
A method of displaying fault tolerant Ethernet cable status comprising: collecting an updated FTE cable status from each of a plurality of FTE devices during operation of a process control system comprising a plant control network which is a token passing local area network comprising a node having an Universal Control Network status display configured for token bus control coupled to an Enhanced Universal Control Network (EUCN) that is Ethernet connected and including an Enhanced Network Interface Module (ENIM) that said FTE devices are Ethernet coupled to; storing said updated FTE cable status from each of said FTE devices in a memory; compiling a UCN cable status word including a plurality of cable status bits allocated for representing said updated FTE cable status for each of said FTE devices, wherein locations for said cable status bits in said UCN CSWs are used by said UCN status display to show changes in cable status; reading said UCN CSWs at said node and displaying said updated FTE cable status on said UCN status display. collecting an updated FTE cable status from each of a plurality of FTE devices during operation of a process control system comprising a plant control network which is a token passing local area network comprising a node having an Universal Control Network status display configured for token bus control coupled to an Enhanced Universal Control Network (EUCN) that is Ethernet connected and including an Enhanced Network Interface Module (ENIM) that said FTE devices are Ethernet coupled to; storing said updated FTE cable status from each of said FTE devices in a memory; compiling a UCN cable status word including a plurality of cable status bits allocated for representing said updated FTE cable status for each of said FTE devices, wherein locations for said cable status bits in said UCN CSWs are used by said UCN status display to show changes in cable status; reading said UCN CSWs at said node and displaying said updated FTE cable status on said UCN status display.
A droplet deposition apparatus comprising: control circuitry configured to generate a common drive waveform (29; 40); storage configured to store data, wherein the storage comprises a buffer configured to store scheduled image data relating to one or more pixels; and a droplet deposition head having one or more actuator elements configured to be driven in response to drive pulses derived from the common drive waveform (29; 40); wherein the common drive waveform (29; 40) comprises a plurality of pixel periods comprising a firing phase and a non-firing phase, each firing phase comprising a firing pulse and each non-firing phase comprising a non-firing pulse, wherein the characteristics of each non-firing pulse are defined in response to the data in the storage; wherein the firing pulse of a first pixel period is applied as a drive pulse to an actuator element based on the scheduled image data relating to a first pixel; wherein the non-firing pulse of the first pixel period is applied as a drive pulse to the actuator element based on past image data and/or the stored scheduled image data; and characterised in that the control circuitry is further configured such that the characteristics of the non-firing pulses in the common drive waveform (29; 40) are dependent on the scheduled image data in the buffer. control circuitry configured to generate a common drive waveform (29; 40); storage configured to store data, wherein the storage comprises a buffer configured to store scheduled image data relating to one or more pixels; and a droplet deposition head having one or more actuator elements configured to be driven in response to drive pulses derived from the common drive waveform (29; 40); wherein the common drive waveform (29; 40) comprises a plurality of pixel periods comprising a firing phase and a non-firing phase, each firing phase comprising a firing pulse and each non-firing phase comprising a non-firing pulse, wherein the characteristics of each non-firing pulse are defined in response to the data in the storage; wherein the firing pulse of a first pixel period is applied as a drive pulse to an actuator element based on the scheduled image data relating to a first pixel; wherein the non-firing pulse of the first pixel period is applied as a drive pulse to the actuator element based on past image data and/or the stored scheduled image data; and characterised in that the control circuitry is further configured such that the characteristics of the non-firing pulses in the common drive waveform (29; 40) are dependent on the scheduled image data in the buffer.
An apparatus (100, 280, 284, 292, 500) for storing and changing needles for a medicament delivery device having a medicament container, the apparatus (100, 280, 284, 292, 500) comprising: a needle holder (192, 300, 304, 308, 312, 560) connecting a plurality of needles displaceably disposed thereon; and a user interface (104, 508) adapted to displace the needle holder (192, 300, 304, 308, 312, 560); characterized in that the apparatus (100, 280, 284, 292, 500) further comprises: a mount (172, 528) adapted to connect the apparatus (100, 280, 284, 292, 500) with the medicament delivery device; and a guide member (178, 532) adapted to guide displacement of the needle holder (192, 300, 304, 308, 312, 560), the guide member (178, 532) being disposed about the mount (172, 528); the needle holder (192, 300, 304, 308, 312, 560) being displaceable along a substantially planar circuitous path, which includes an activated position in which a selected needle axially aligns with the medicament container; and the user interface (104, 508) being rotatably disposed about the mount (172, 528) and having at least one internal engaging structure (136, 298, 572) for displacing the needle holder (192, 300, 304, 308, 312, 560) along the circuitous path. a needle holder (192, 300, 304, 308, 312, 560) connecting a plurality of needles displaceably disposed thereon; and a user interface (104, 508) adapted to displace the needle holder (192, 300, 304, 308, 312, 560); characterized in that the apparatus (100, 280, 284, 292, 500) further comprises: a mount (172, 528) adapted to connect the apparatus (100, 280, 284, 292, 500) with the medicament delivery device; and a guide member (178, 532) adapted to guide displacement of the needle holder (192, 300, 304, 308, 312, 560), the guide member (178, 532) being disposed about the mount (172, 528); the needle holder (192, 300, 304, 308, 312, 560) being displaceable along a substantially planar circuitous path, which includes an activated position in which a selected needle axially aligns with the medicament container; and the user interface (104, 508) being rotatably disposed about the mount (172, 528) and having at least one internal engaging structure (136, 298, 572) for displacing the needle holder (192, 300, 304, 308, 312, 560) along the circuitous path. a mount (172, 528) adapted to connect the apparatus (100, 280, 284, 292, 500) with the medicament delivery device; and a guide member (178, 532) adapted to guide displacement of the needle holder (192, 300, 304, 308, 312, 560), the guide member (178, 532) being disposed about the mount (172, 528); the needle holder (192, 300, 304, 308, 312, 560) being displaceable along a substantially planar circuitous path, which includes an activated position in which a selected needle axially aligns with the medicament container; and the user interface (104, 508) being rotatably disposed about the mount (172, 528) and having at least one internal engaging structure (136, 298, 572) for displacing the needle holder (192, 300, 304, 308, 312, 560) along the circuitous path.
A process for purifying an aqueous glyoxal solution comprising at least one acid by extractive acid removal, comprising the steps of i) mixing and dispersion of the aqueous glyoxal solution with an ion exchanger solution comprising 20 to 60% by weight of a tertiary amine and 80 to 40% by weight of an organic solvent which does not have unlimited miscibility with water at a temperature of 30 to 100°C, ii) phase separation and removal of the ion exchanger solution laden with the acid from the aqueous glyoxal solution at temperatures of 30 to 100°C, and iii) regeneration of the ion exchanger solution by contacting with a basic compound for neutralization of the acid and removal of the basic compound, iv) mixing and dispersion of the ion exchanger solution with water to free it of salts formed in the neutralization to obtain a dispersion of water and ion exchanger solution, v) phase separation and removal of the aqueous phase from the ion exchanger solution, and recycling of the ion exchanger solution into step i), which comprises phase separation and removal of the aqueous phase in step v) in such a way that the content of the aqueous phase of the regenerated ion exchanger solution obtained in step v) is < 1% by weight. i) mixing and dispersion of the aqueous glyoxal solution with an ion exchanger solution comprising 20 to 60% by weight of a tertiary amine and 80 to 40% by weight of an organic solvent which does not have unlimited miscibility with water at a temperature of 30 to 100°C, ii) phase separation and removal of the ion exchanger solution laden with the acid from the aqueous glyoxal solution at temperatures of 30 to 100°C, and iii) regeneration of the ion exchanger solution by contacting with a basic compound for neutralization of the acid and removal of the basic compound, iv) mixing and dispersion of the ion exchanger solution with water to free it of salts formed in the neutralization to obtain a dispersion of water and ion exchanger solution, v) phase separation and removal of the aqueous phase from the ion exchanger solution, and recycling of the ion exchanger solution into step i),
An otorhinolaryngological treatment device comprising: a flexible first elongated body; an imaging unit (15, 25) which is provided on the first elongated body, for obtaining an image on the front side of a distal end of the first elongated body; a flexible second elongated body (12, 22) having a lumen (1211, 2211) in which the first elongated body is inserted; an expansive body (13, 23) which is provided on the second elongated body (12, 22) and has an effective expansive section (13a, 23a) capable of radial expansive deformation within a natural ostium located between a nasal cavity and a paranasal sinus to push open a stenosed part of the natural ostium; and a positioning unit which is provided on the second elongated body (12, 22), for positioning the effective expansive section (13a, 23a) of the second elongated body (12, 22) moved along the first elongated body relative to the first elongated body, wherein the positioning unit has a marker which is disposed on the second elongated body (12, 22) and which can be visually confirmed in the image obtained by the imaging unit, characterized in that the marker is disposed on an inner circumferential surface of the lumen (1211, 2211) in such a manner that positions of a distal end of the effective expansive section (13a, 23a) and the marker projected onto an extension axis of the second elongated body (12, 22) coincide with each other. a flexible first elongated body; an imaging unit (15, 25) which is provided on the first elongated body, for obtaining an image on the front side of a distal end of the first elongated body; a flexible second elongated body (12, 22) having a lumen (1211, 2211) in which the first elongated body is inserted; an expansive body (13, 23) which is provided on the second elongated body (12, 22) and has an effective expansive section (13a, 23a) capable of radial expansive deformation within a natural ostium located between a nasal cavity and a paranasal sinus to push open a stenosed part of the natural ostium; and a positioning unit which is provided on the second elongated body (12, 22), for positioning the effective expansive section (13a, 23a) of the second elongated body (12, 22) moved along the first elongated body relative to the first elongated body, wherein the positioning unit has a marker which is disposed on the second elongated body (12, 22) and which can be visually confirmed in the image obtained by the imaging unit, characterized in that the marker is disposed on an inner circumferential surface of the lumen (1211, 2211) in such a manner that positions of a distal end of the effective expansive section (13a, 23a) and the marker projected onto an extension axis of the second elongated body (12, 22) coincide with each other.
A method for application of a concentrate in diluted form, comprising the following steps: - transporting a concentrate from one or a plurality of concentrate containers through one or a plurality of concentrate lines in the direction of at least one outlet, - diluting the concentrate with a diluent, - applying the concentrate diluted with the diluent, - after an application, recycling at least a portion of the residual amounts of concentrate remaining in the concentrate lines to the concentrate container, wherein the residual amount or amounts remaining in one or a plurality of concentrate containers after an application are determined and written into a memory unit. - transporting a concentrate from one or a plurality of concentrate containers through one or a plurality of concentrate lines in the direction of at least one outlet, - diluting the concentrate with a diluent, - applying the concentrate diluted with the diluent, - after an application, recycling at least a portion of the residual amounts of concentrate remaining in the concentrate lines to the concentrate container,
A system for determining completeness of an ablation procedure on a target tissue, the system comprising: an electrosurgical energy source; a single electrode probe assembly connected to the electrosurgical energy source, the electrode probe assembly including a needle configured to deliver electrosurgical energy to the target tissue; a thermal feedback assembly connected to the electrosurgical source, the thermal feedback assembly including a plurality of temperature sensor assemblies located on opposed sides of the single electrode probe assembly so as to define a single axis or plane; and a computer configured to: measure a time of energy delivered to the target tissue, receive a temperature reading from the thermal feedback assembly, estimate a size of an ablation volume based on the temperature reading, a distance between the electrode probe assembly and each temperature sensor assembly of the plurality of temperature assemblies, and the measured time, and calculate a growth rate of the ablation volume based on a previous and a current estimated size, wherein the computer is further configured to determine the ablation procedure is complete when the growth rate is less than or equal to a growth rate threshold, the system being arranged such that when the ablation is deemed to be complete, the electrosurgical energy source terminates the energy supply. an electrosurgical energy source; a single electrode probe assembly connected to the electrosurgical energy source, the electrode probe assembly including a needle configured to deliver electrosurgical energy to the target tissue; a thermal feedback assembly connected to the electrosurgical source, the thermal feedback assembly including a plurality of temperature sensor assemblies located on opposed sides of the single electrode probe assembly so as to define a single axis or plane; and a computer configured to: measure a time of energy delivered to the target tissue, receive a temperature reading from the thermal feedback assembly, estimate a size of an ablation volume based on the temperature reading, a distance between the electrode probe assembly and each temperature sensor assembly of the plurality of temperature assemblies, and the measured time, and calculate a growth rate of the ablation volume based on a previous and a current estimated size, measure a time of energy delivered to the target tissue, receive a temperature reading from the thermal feedback assembly, estimate a size of an ablation volume based on the temperature reading, a distance between the electrode probe assembly and each temperature sensor assembly of the plurality of temperature assemblies, and the measured time, and calculate a growth rate of the ablation volume based on a previous and a current estimated size, wherein the computer is further configured to determine the ablation procedure is complete when the growth rate is less than or equal to a growth rate threshold, the system being arranged such that when the ablation is deemed to be complete, the electrosurgical energy source terminates the energy supply.