mhurhangee/ep-ind-claims huggingface dataset:
Hydrogenated nitrile rubber having i) a content of phosphines, diphosphines or mixtures thereof within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, ii) a content of phosphine oxides, diphosphine oxides or mixtures thereof in the range from 0.25 to 6% by weight, based on the hydrogenated nitrile rubber, and iii) a total halogen content in the range from 25 to 10 000 ppm. i) a content of phosphines, diphosphines or mixtures thereof within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, ii) a content of phosphine oxides, diphosphine oxides or mixtures thereof in the range from 0.25 to 6% by weight, based on the hydrogenated nitrile rubber, and iii) a total halogen content in the range from 25 to 10 000 ppm.
An isolated plasminogen variant or plasmin obtained from it, or an isolated plasmin variant, or a proteolytically active or reversible inactive derivative of any of said plasmins characterized in that: it comprises in its catalytic domain a mutation of the amino acid glutamate at position 138 of the human plasmin catalytic domain, or of the corresponding amino acid residue of a non-human plasmin catalytic domain, wherein said human plasmin catalytic domain is starting with the amino acid valine at position 1 which is the same valine amino acid occurring at position 562 of human Glu-plasminogen. it comprises in its catalytic domain a mutation of the amino acid glutamate at position 138 of the human plasmin catalytic domain, or of the corresponding amino acid residue of a non-human plasmin catalytic domain, wherein said human plasmin catalytic domain is starting with the amino acid valine at position 1 which is the same valine amino acid occurring at position 562 of human Glu-plasminogen.
A variable reluctance machine including a stator and a rotor, the rotor comprising a first core portion (32, 34, 38, 48, 52, 40', 62) and at least two unlaminated rotor poles (30, 36, 42, 50, 42, 60) made from magnetisable material and the stator comprising stator poles, characterised in that the at least two rotor poles are connected at one axial end by the first core portion and extend from the first core portion in an axial direction through the stator and in that the first core portion lies outside the axial extent of the stator poles.
A one-pack aqueous coating composition comprising dispersed carbonyl functional vinyl polymer(s) particles, characterized in that the coating composition further comprises carbodihydrazide which has two hydrazide groups and the following structural formula whereby (i) the equivalent molar ratio of hydrazide groups to carbonyl groups is from 0.1 to 0.95, and wherein the equivalent molar ratio of hydrazide groups to carbonyl groups is calculated by dividing the molar amount of hydrazide groups by the molar amount of carbonyl groups reactive with hydrazide groups, (ii) the ratio of number-average molecular weight of the carbonyl functional vinyl polymer(s) as determined by size exclusion chromatography as described in the description to acid value of the carbonyl functional vinyl polymer(s) is higher than 400, and (iii) the acid value of the carbonyl functional vinyl polymer(s) is from 2 to 100 mg KOH/gram carbonyl functional vinyl polymer, and wherein the acid value of the carbonyl functional vinyl polymer(s) is determined by the following equation: AV = total molar amount of carboxylic acid components included in the carbonyl funtional vinyl polymer s per gram of total amount of components included in the carbonyl functional vinyl polymer s * 56.1 * 1000. (i) the equivalent molar ratio of hydrazide groups to carbonyl groups is from 0.1 to 0.95, and wherein the equivalent molar ratio of hydrazide groups to carbonyl groups is calculated by dividing the molar amount of hydrazide groups by the molar amount of carbonyl groups reactive with hydrazide groups, (ii) the ratio of number-average molecular weight of the carbonyl functional vinyl polymer(s) as determined by size exclusion chromatography as described in the description to acid value of the carbonyl functional vinyl polymer(s) is higher than 400, and (iii) the acid value of the carbonyl functional vinyl polymer(s) is from 2 to 100 mg KOH/gram carbonyl functional vinyl polymer, and wherein the acid value of the carbonyl functional vinyl polymer(s) is determined by the following equation: AV = total molar amount of carboxylic acid components included in the carbonyl funtional vinyl polymer s per gram of total amount of components included in the carbonyl functional vinyl polymer s * 56.1 * 1000.
A method of monitoring viability of a biofilm comprising Pseudomonas aeruginosa bacteria "ex vivo", the method comprising: (a) introducing a fluid sample into a microfluidic device including a working electrode and a reference electrode; (b) performing an electrochemical measurement to detect pyocyanin in the fluid sample; and (c) determining a concentration of pyocyanin in the fluid sample by using a previously determined correlation between pyocyanin concentration and current flow through the working electrode; wherein the pyocyanin concentration in the fluid sample provides a measure of the viability of the biofilm. (a) introducing a fluid sample into a microfluidic device including a working electrode and a reference electrode; (b) performing an electrochemical measurement to detect pyocyanin in the fluid sample; and (c) determining a concentration of pyocyanin in the fluid sample by using a previously determined correlation between pyocyanin concentration and current flow through the working electrode;
An LED driver for controlling an LED light source, the LED driver comprising: a power converter circuit operable to receive a rectified AC voltage and to generate a DC bus voltage; a LED drive circuit operable to receive the bus voltage and to control the magnitude of a load current conducted through the LED light source, the LED drive circuit comprising a feedback circuit operable to generate first and second load current feedback signals representative of the magnitude of the load current, the first and second load current feedback signals characterized by respective first and second gains applied to the magnitude of the load current, the first gain different than the second gain; and a control circuit operable to use a weighted sum of the first and second load current feedback signals to combine the first and second load current feedback signals, the control circuit operatively coupled to the LED drive circuit for controlling the magnitude of the load current through the load in response to the weighted sum of the first and second load current feedback signals, such that the LED drive circuit is able to control the magnitude of the load current conducted through the load from a minimum load current to a maximum load current; wherein the weighting factors of the weighted sum of the first and second load current feedback signals are function of the magnitude of the second load current feedback signal. a power converter circuit operable to receive a rectified AC voltage and to generate a DC bus voltage; a LED drive circuit operable to receive the bus voltage and to control the magnitude of a load current conducted through the LED light source, the LED drive circuit comprising a feedback circuit operable to generate first and second load current feedback signals representative of the magnitude of the load current, the first and second load current feedback signals characterized by respective first and second gains applied to the magnitude of the load current, the first gain different than the second gain; and a control circuit operable to use a weighted sum of the first and second load current feedback signals to combine the first and second load current feedback signals, the control circuit operatively coupled to the LED drive circuit for controlling the magnitude of the load current through the load in response to the weighted sum of the first and second load current feedback signals, such that the LED drive circuit is able to control the magnitude of the load current conducted through the load from a minimum load current to a maximum load current; wherein the weighting factors of the weighted sum of the first and second load current feedback signals are function of the magnitude of the second load current feedback signal.
An extracorporeal treatment apparatus configured to receive an extracorporeal circuit, the treatment apparatus comprising a pump configured to pump a liquid through a passage in the extracorporeal circuit while the circuit is mounted to the treatment apparatus; a flow coupling connectable to an outlet of the passage; and a controller which: controls the pump to move liquid through the passage, and the flow coupling; collects data indicative of a pressure condition of the liquid flowing through the passage and flow coupling; identify a parameter value which correlates to the indicated pressure condition, wherein the identified parameter value is one a plurality of known parameter values or ranges, wherein each value or range of values uniquely corresponds to a circuit type of a plurality extracorporeal circuit types that may be mounted to the treatment apparatus, and determine an operational setting for the treatment apparatus or determine whether a current operational setting is proper based on the type of extracorporeal circuit corresponding to the identified parameter value; characterised in that the flow impedance at the flow coupling is a constant or known value and in that said flow impedance at the flow coupling is due to a flow restriction having a smaller cross-sectional flow area for the liquid than does any portion of the liquid passage extending from the pump to the flow coupling. controls the pump to move liquid through the passage, and the flow coupling; collects data indicative of a pressure condition of the liquid flowing through the passage and flow coupling; identify a parameter value which correlates to the indicated pressure condition, wherein the identified parameter value is one a plurality of known parameter values or ranges, wherein each value or range of values uniquely corresponds to a circuit type of a plurality extracorporeal circuit types that may be mounted to the treatment apparatus, and determine an operational setting for the treatment apparatus or determine whether a current operational setting is proper based on the type of extracorporeal circuit corresponding to the identified parameter value; characterised in that the flow impedance at the flow coupling is a constant or known value and in that said flow impedance at the flow coupling is due to a flow restriction having a smaller cross-sectional flow area for the liquid than does any portion of the liquid passage extending from the pump to the flow coupling.
A rotorcraft blade control system comprising: a mechanical linkage (117a-b) to connect to a rotorcraft blade (104a-d) comprising a feather axis; a pneumatic muscle (107a-b) connected to the mechanical linkage (117a-b); and a movement member connected to the mechanical linkage (117a-b), the pneumatic muscle (107a-b) and the movement member to move the mechanical linkage (117a-b) to control movement of the rotorcraft blade (104a-d) on the feather axis. a mechanical linkage (117a-b) to connect to a rotorcraft blade (104a-d) comprising a feather axis; a pneumatic muscle (107a-b) connected to the mechanical linkage (117a-b); and a movement member connected to the mechanical linkage (117a-b), the pneumatic muscle (107a-b) and the movement member to move the mechanical linkage (117a-b) to control movement of the rotorcraft blade (104a-d) on the feather axis.
An expansion wedge unit comprising a housing, an expansion wedge and a guide unit, wherein the guide unit and the expansion wedge can be arranged in a first housing region of the housing, wherein the guide unit rests with a first guide portion on a wall of the first housing region such that it is secured against displacement and pivoting relative to the housing transversely to an actuation axis, wherein the expansion wedge is guided in a second guide portion of the guide unit, wherein a reset region is provided between the first guide portion and the second guide portion and allows a sprung relative movement between the first guide portion and the second guide portion, wherein the reset region comprises a rubber element, wherein the rubber element is configured as a hollow cylinder, characterized in that the first guide portion is the outer casing surface of the rubber element and wherein the second guide portion is the inner casing surface of the rubber element.
A system for correcting a refractive condition of an eye having a cornea, the system comprising: a laser subsystem operable to produce a non-ultraviolet, ultrashort pulsed beam having a wavelength in the range of 400nm to 3000nm; a patient interface configured to applanate the cornea during an intrastromal incision, the pulsed beam being directed through the patient interface and into the cornea; a scanner operable to direct the pulsed beam at the eye; and a controller coupled to the laser subsystem and the scanner, the controller configured to: determine an intrastromal incision pattern based on the refractive condition; and direct the scanner to intrastromally incise the pattern in the cornea with the pulsed beam, the refractive condition being corrected by the pattern intrastromally incised in the cornea following de-applanation of the cornea by the patient interface, wherein the pattern has a maximum radius of about 5 mm and a minimum radius of about 1 mm, wherein the pattern has a minimum depth from an anterior surface of the cornea of about 50 microns and a maximum depth of about 50 microns toward the anterior surface from an endothelium of the cornea, and characterized in that the post-procedure pattern comprises a group of ring incisions (72, 74). a laser subsystem operable to produce a non-ultraviolet, ultrashort pulsed beam having a wavelength in the range of 400nm to 3000nm; a patient interface configured to applanate the cornea during an intrastromal incision, the pulsed beam being directed through the patient interface and into the cornea; a scanner operable to direct the pulsed beam at the eye; and a controller coupled to the laser subsystem and the scanner, the controller configured to: determine an intrastromal incision pattern based on the refractive condition; and direct the scanner to intrastromally incise the pattern in the cornea with the pulsed beam, the refractive condition being corrected by the pattern intrastromally incised in the cornea following de-applanation of the cornea by the patient interface, wherein the pattern has a maximum radius of about 5 mm and a minimum radius of about 1 mm, wherein the pattern has a minimum depth from an anterior surface of the cornea of about 50 microns and a maximum depth of about 50 microns toward the anterior surface from an endothelium of the cornea, and characterized in that the post-procedure pattern comprises a group of ring incisions (72, 74). determine an intrastromal incision pattern based on the refractive condition; and direct the scanner to intrastromally incise the pattern in the cornea with the pulsed beam, the refractive condition being corrected by the pattern intrastromally incised in the cornea following de-applanation of the cornea by the patient interface, wherein the pattern has a maximum radius of about 5 mm and a minimum radius of about 1 mm, wherein the pattern has a minimum depth from an anterior surface of the cornea of about 50 microns and a maximum depth of about 50 microns toward the anterior surface from an endothelium of the cornea, and characterized in that the post-procedure pattern comprises a group of ring incisions (72, 74).
A reference fluid bag assembly comprising: a sealed oxygen reference fluid containing bag adapted for being pierced by an access probe for withdrawal of the oxygen reference fluid and an access system comprising: a sealing element (8, 22, 26) attached to an outer surface of the bag preventing any leakage between the bag and the access probe when the access probe has penetrated the bag, and a longitudinal support element provided inside the bag extending essentially parallel to an edge of the bag and being adapted to support the bag when the bag is penetrated by the access probe, and further comprising at least one passage (13, 14) for receiving the access probe. a sealing element (8, 22, 26) attached to an outer surface of the bag preventing any leakage between the bag and the access probe when the access probe has penetrated the bag, and a longitudinal support element provided inside the bag extending essentially parallel to an edge of the bag and being adapted to support the bag when the bag is penetrated by the access probe, and further comprising at least one passage (13, 14) for receiving the access probe.
A method, comprising: removing (504, 802, 902) one or more oxide layers from a qubit formed on a substrate; and depositing (508a, 508b, 804, 904) a self assembled monolayer on the qubit, removing one or more second oxide layers from the substrate; and depositing (506a, 506b) the self assembled monolayer on the substrate. removing (504, 802, 902) one or more oxide layers from a qubit formed on a substrate; and depositing (508a, 508b, 804, 904) a self assembled monolayer on the qubit, removing one or more second oxide layers from the substrate; and depositing (506a, 506b) the self assembled monolayer on the substrate.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is halo; R 2 is halo; R 3 is (C 1 -C 6)alkyl; R 4 is (C 1 -C 6)alkyl; and Q is CH or N; for use in treating castration resistant prostate cancer (CRPC) or osteoblastic bone metastases associated with CRPC. R 1 is halo; R 2 is halo; R 3 is (C 1 -C 6)alkyl; R 4 is (C 1 -C 6)alkyl; and Q is CH or N;
A method including: receiving a plurality of images captured using structured illumination microscopy in an optical system, each image of the plurality of images having a first field of view; defining a window, the window defining a second field of view representing a portion of the first field of view such that the second field of view is smaller than the first field of view; moving the window in relation to each image of a plurality of images; capturing a plurality of sub-tiles from each image of the plurality of images while moving the window in relation to each image of the plurality of images, each sub-tile of the plurality of plurality of sub-tiles representing a portion of the corresponding image of the plurality of images, the portion represented by each sub-tile of the plurality of sub-tiles being defined by the second field of view at a position corresponding to a moment at which the sub-tile of the plurality of sub-tiles is captured; estimating parameters associated with each sub-tile of the plurality of sub-tiles, the parameters including two or more parameters selected from the group consisting of modulation, angle, spacing, phase offset, and phase deviation; estimating a full width at half maximum (FWHM) value associated with each sub-tile of the plurality of sub-tiles; and storing the estimated parameters and FWHM values in a predetermined format. receiving a plurality of images captured using structured illumination microscopy in an optical system, each image of the plurality of images having a first field of view; defining a window, the window defining a second field of view representing a portion of the first field of view such that the second field of view is smaller than the first field of view; moving the window in relation to each image of a plurality of images; capturing a plurality of sub-tiles from each image of the plurality of images while moving the window in relation to each image of the plurality of images, each sub-tile of the plurality of plurality of sub-tiles representing a portion of the corresponding image of the plurality of images, the portion represented by each sub-tile of the plurality of sub-tiles being defined by the second field of view at a position corresponding to a moment at which the sub-tile of the plurality of sub-tiles is captured; estimating parameters associated with each sub-tile of the plurality of sub-tiles, the parameters including two or more parameters selected from the group consisting of modulation, angle, spacing, phase offset, and phase deviation; estimating a full width at half maximum (FWHM) value associated with each sub-tile of the plurality of sub-tiles; and storing the estimated parameters and FWHM values in a predetermined format.
A method for locating a fault cause, comprising: obtaining parameter values of a plurality of running parameters and a parameter value of a fault parameter in preset duration before a wavelength division multiplexing board device is faulty, wherein the fault parameter is a parameter that is abnormal when the wavelength division multiplexing board device is faulty; determining a correlation between each of the plurality of running parameters and the fault parameter based on the parameter values of the plurality of running parameters and the parameter value of the fault parameter, wherein the correlation represents a correlation degree between a parameter value change of a running parameter and a parameter value change of a fault parameter; and determining at least one target parameter from the plurality of running parameters based on a value of the correlation, wherein a correlation between each of the at least one target parameter and the fault parameter is greater than a correlation between the fault parameter and a running parameter other than the at least one target parameter in the plurality of running parameters. obtaining parameter values of a plurality of running parameters and a parameter value of a fault parameter in preset duration before a wavelength division multiplexing board device is faulty, wherein the fault parameter is a parameter that is abnormal when the wavelength division multiplexing board device is faulty; determining a correlation between each of the plurality of running parameters and the fault parameter based on the parameter values of the plurality of running parameters and the parameter value of the fault parameter, wherein the correlation represents a correlation degree between a parameter value change of a running parameter and a parameter value change of a fault parameter; and determining at least one target parameter from the plurality of running parameters based on a value of the correlation, wherein a correlation between each of the at least one target parameter and the fault parameter is greater than a correlation between the fault parameter and a running parameter other than the at least one target parameter in the plurality of running parameters.