mhurhangee/ep-ind-claims huggingface dataset:
A sterile aqueous ophthalmic solution comprising 0.05% to 0.5% (w/w) of N-(N-acetylcysteinyl-)chitosan or a pharmaceutically acceptable salt thereof in a carrier solution, wherein the N-(N-acetylcysteinyl-)chitosan has a content of free thiol groups in an amount of from 80 μmol/g polymer to 280 μmol/g polymer.
A method of preparing a personal care formulation that is substantially free of silicone comprising preparing a base formulation and incorporating into the base formulation a silicone replacement consisting substantially of at least one polymeric ester and at least one non-polymeric ester, wherein the polymeric ester is an esterification reaction product of glycerin, sebacic acid and caprylic acid; and the non-polymeric ester is an esterification reaction product of succinic acid and 1-heptanol, wherein the base formulation comprises at least one additional ingredient that is not silicone and selected among: a surfactant, a flavorant, a fragrance, an opacifier, a solvent, a colorant, a wax, an emulsifier, a fat, an oil, a preservative, a UV absorbing compound, a detergent, a foaming agent, a stabilizer, a pH modifier, a moisturizer, water, an alcohol, a urea, a wetting agent, and a skin or hair conditioner.
A random access sequence generation method, comprising: obtaining, by an apparatus, a cyclic shift value C v according to a shift sequence number v, wherein C v = d offset + d start ⌊ v / n shift RA ⌋ + v mod n shift RA N CS v is an integer, d offset is a constant integer or d offset is zero, N CS is a quantity of cyclic shifts allocated to a user equipment, n shift RA and d start satisfy formulas and; or n shift RA and d start satisfy formulas and; or n shift RA and d s tart satisfy formulas and; or n shift RA and d start satisfy formulas and; wherein n shift RA = ⌊ 4 d u − N ZC N CS ⌋ d start = 4 d u − N ZC + n shift RA ⋅ N CS n shift RA = ⌊ N ZC − 3 d u N CS ⌋ d start = N ZC − 3 d u + n shift RA ⋅ N CS n shift RA = ⌊ 3 d u − N ZC N CS ⌋ d start = 3 d u − N ZC + n shift RA ⋅ N CS n shift RA = ⌊ N ZC − 2 d u N CS ⌋ d start = 2 N ZC − 2 d u + n shift RA ⋅ N CS wherein N ZC is a length of the random access sequence, and a root of the random access sequence is u, d u = { p 0 ≤ p < N ZC / 2 N ZC − p another value, p is a minimum non-negative integer that satisfies ( pu) mod N ZC = 1; and generating, by the apparatus, the random access sequence according to the cyclic shift value C v. v is an integer, d offset is a constant integer or d offset is zero, N CS is a quantity of cyclic shifts allocated to a user equipment, n shift RA and d start satisfy formulas and; or n shift RA and d start satisfy formulas and; or n shift RA and d s tart satisfy formulas and; or n shift RA and d start satisfy formulas and; wherein n shift RA = ⌊ 4 d u − N ZC N CS ⌋ d start = 4 d u − N ZC + n shift RA ⋅ N CS n shift RA = ⌊ N ZC − 3 d u N CS ⌋ d start = N ZC − 3 d u + n shift RA ⋅ N CS n shift RA = ⌊ 3 d u − N ZC N CS ⌋ d start = 3 d u − N ZC + n shift RA ⋅ N CS n shift RA = ⌊ N ZC − 2 d u N CS ⌋ d start = 2 N ZC − 2 d u + n shift RA ⋅ N CS wherein N ZC is a length of the random access sequence, and a root of the random access sequence is u, d u = { p 0 ≤ p < N ZC / 2 N ZC − p another value, p is a minimum non-negative integer that satisfies ( pu) mod N ZC = 1; and generating, by the apparatus, the random access sequence according to the cyclic shift value C v. N ZC is a length of the random access sequence, and a root of the random access sequence is u, d u = { p 0 ≤ p < N ZC / 2 N ZC − p another value, p is a minimum non-negative integer that satisfies ( pu) mod N ZC = 1; and generating, by the apparatus, the random access sequence according to the cyclic shift value C v.
A microneedle array comprising: a sheet portion; and at least one needle present on an upper surface of the sheet portion, wherein the needle contains a water-soluble polymer and a medicament, the water-soluble polymer occupies 50% by mass or greater of the total solid content of the needle, the water-soluble polymer and the medicament are present at a mass ratio of Formula 1, in a needle tip region which includes a needle tip of each needle and has a height corresponding to 20% of the total height of each needle, and the sheet portion contains a water-soluble polymer. Formula 1; water-soluble polymer:medicament = 0.05 to 0.9:1 a sheet portion; and at least one needle present on an upper surface of the sheet portion, wherein the needle contains a water-soluble polymer and a medicament, the water-soluble polymer occupies 50% by mass or greater of the total solid content of the needle, the water-soluble polymer and the medicament are present at a mass ratio of Formula 1, in a needle tip region which includes a needle tip of each needle and has a height corresponding to 20% of the total height of each needle, and the sheet portion contains a water-soluble polymer. Formula 1; water-soluble polymer:medicament = 0.05 to 0.9:1
A 3D image processing apparatus comprising: an input for receiving a plurality of images of an object to be examined corresponding to a plurality of projection directions both with and without the contrast medium injected into a blood vessel of the object, respectively "contrast" images and "mask" images; a storing unit configured to store said plurality of mask and contrast images; the apparatus characterized by; a reconstruction unit configured to reconstruct a first volume data from a plurality of contrast images and to separately reconstruct a second volume data from the plurality of mask images; a subtracting unit configured to generate a third volume data by subtracting the second volume data from the first volume data; an image processing unit configured to generate data of a first 3D image representing a bone structure and/or a soft tissue structure from the second volume data, and to generate data of a second 3D image representing a contrasted blood vessel from the third volume data, wherein said 3D images are obtained by rearranging volume data into 2D pixel matrix so as to render the data on the display unit having a 2D display screen; an image synthesizing unit configured to generate data of a synthetic image by synthesizing the first 3D image with the second 3D image; and a displaying unit configured to display the synthetic image. an input for receiving a plurality of images of an object to be examined corresponding to a plurality of projection directions both with and without the contrast medium injected into a blood vessel of the object, respectively "contrast" images and "mask" images; a storing unit configured to store said plurality of mask and contrast images; the apparatus characterized by; a reconstruction unit configured to reconstruct a first volume data from a plurality of contrast images and to separately reconstruct a second volume data from the plurality of mask images; a subtracting unit configured to generate a third volume data by subtracting the second volume data from the first volume data; an image processing unit configured to generate data of a first 3D image representing a bone structure and/or a soft tissue structure from the second volume data, and to generate data of a second 3D image representing a contrasted blood vessel from the third volume data, wherein said 3D images are obtained by rearranging volume data into 2D pixel matrix so as to render the data on the display unit having a 2D display screen; an image synthesizing unit configured to generate data of a synthetic image by synthesizing the first 3D image with the second 3D image; and a displaying unit configured to display the synthetic image.
Process for controlling a variable-reluctance synchronous electric motor, implemented in a processing unit, said processing unit being coupled to a power converter connected by output phases (a, b, c) to said electric motor and designed to execute a control scheme for applying variable voltages to said electric motor, said process comprising a phase of identifying a flux inductance value of said electric motor, this identification phase comprising: - a step of generation of a reference current ( i d) at the beginning of said control scheme, said reference current ( i d) taking successively several values according to a predetermined profile, - for each reference-current value ( i d), a step of determination of a current value ( i d) corresponding to currents measured in the output phases of the motor, - for each reference-current value ( i d), a step of determination, by an identification module, of an inductance value L d EST as a function of a reference-current value applied at the input, of the corresponding current value determined on the basis of the currents measured in the output phases, and of a predetermined or variable inductance value ( L̂ d), - for each current value ( i d) determined on the basis of the currents measured in the three output phases, storage of the corresponding inductance value L d EST determined in the course of the determination step. - a step of generation of a reference current ( i d) at the beginning of said control scheme, said reference current ( i d) taking successively several values according to a predetermined profile, - for each reference-current value ( i d), a step of determination of a current value ( i d) corresponding to currents measured in the output phases of the motor, - for each reference-current value ( i d), a step of determination, by an identification module, of an inductance value L d EST as a function of a reference-current value applied at the input, of the corresponding current value determined on the basis of the currents measured in the output phases, and of a predetermined or variable inductance value ( L̂ d), - for each current value ( i d) determined on the basis of the currents measured in the three output phases, storage of the corresponding inductance value L d EST determined in the course of the determination step.
Bone anchor comprising an anchor member (1, 1') having an open first end and an open second end and a tubular section between the first end and the second end, a longitudinal axis extending from the first end to the second end, and a bone engagement structure for engaging the bone in at least a portion of the tubular section; wherein the anchor member is made of a first material; a core member (2, 2') having a first end and a second end and comprising a tip at the second end, the tip tapering towards the second end, the core member (2, 2') being insertable into the anchor member from the first end and connectable thereto; wherein the core member (2, 2') is made of a second material that is different from the first material, wherein the anchor member (1, 1') comprises at least two slits extending substantially parallel to the longitudinal axis and being open to the second end wherein the anchor member (1, 1') is expandable at the second end, and an inner wall of the tubular section of the anchor member has a contour (17, 18) that cooperates with a corresponding contour (26a, 34a, 34a') of the core member (2, 2') in such a manner that a rotation of the core member (2, 2') relative to the anchor member is prevented, wherein, when the core is advanced into a fully inserted configuration of the core member (2, 2'), the tip expands the anchor member (1, 1') at the second end before the tip exits from the anchor member (1, 1') at the second end and the expanded second end snaps back so that in the fully inserted configuration of the core member (1, 1'), the anchor member (1, 1') forms an abutment at its second end against a base surface of the tip in a direction of the longitudinal axis.
A method for limiting a speed during accelerator operation of a commercial vehicle with a speed limiting device, which is designed to reduce the motor output and/or fuel supply of the commercial vehicle after reaching a prescribed maximum vehicle speed, independently of the position of the accelerator pedal, as soon as a speed of the commercial vehicle exceeds the prescribed maximum vehicle speed; wherein the prescribed maximum vehicle speed is changed in accordance with topographical data and/or road-related information, characterized in that a kick-down actuation of the accelerator pedal allows a transgression of the prescribed maximum vehicle speed up to a prescribed maximum value of the vehicle speed. wherein the prescribed maximum vehicle speed is changed in accordance with topographical data and/or road-related information, characterized in that a kick-down actuation of the accelerator pedal allows a transgression of the prescribed maximum vehicle speed up to a prescribed maximum value of the vehicle speed.
Locating apparatus, in particular handheld locating device, having a locating unit (26a, 26b, 26g) which has at least a first antenna (28a-g, 68d, 68f, 72f, 76f) and a second antenna (30a-g, 70d, 70f, 74f, 78f), wherein the locating unit (26a, 26b, 26g) has at least one compensation means which at least partially compensates for at least crosstalk of a signal from the first antenna (28a-g, 68d, 68f, 72f, 76f) to the second antenna (30a-g, 70d, 70f, 74f, 78f) during operation, characterized in that the compensation means links at least one item of information relating to the crosstalk in an analogue manner to a signal received by the second antenna (30a-g, 70d, 70f, 74f, 78f), wherein the compensation means substantially reduces an influence at least of the crosstalk on a signal arriving at a receiver.
A composition, system, or kit comprising: a CSPG reduction peptide, or a nucleic acid sequence encoding said CRP, wherein said CRP is a fusion protein comprising the following: a) a first amino acid sequence encoding a cell membrane penetrating domain, wherein said first amino acid sequence comprises SEQ ID NO: 15; b) a second amino acid sequence encoding a chondroitin sulfate proteoglycan (CSPG) binding domain, wherein said second amino acid sequence comprises SEQ ID NO:40; and c) a third amino acid sequence encoding a lysosome targeting domain, wherein said third amino acid sequence comprises SEQ ID NO:29. a) a first amino acid sequence encoding a cell membrane penetrating domain, wherein said first amino acid sequence comprises SEQ ID NO: 15; b) a second amino acid sequence encoding a chondroitin sulfate proteoglycan (CSPG) binding domain, wherein said second amino acid sequence comprises SEQ ID NO:40; and c) a third amino acid sequence encoding a lysosome targeting domain, wherein said third amino acid sequence comprises SEQ ID NO:29.
A system for determining a camera pose relative to an object including a unique feature, comprising: a monocular camera configured to produce an image of the object; and a processing unit in operative communication with the monocular camera, the processing unit configured to: identify a contour of said object in said image; identify the unique feature on said contour of the object in the image produced by the monocular camera, synthesize at least four points along said contour of the object in the image using the identified unique feature as a starting point, synthesize a same number of points as synthesized in the image with the unique feature as the starting point along a contour of the object in a three-dimensional reference model, the reference model preprogrammed into a memory of the processing unit, correlate the points from the reference model to the points from the contour in the image, and determine a pose of the monocular camera based on the correlated points. a monocular camera configured to produce an image of the object; and a processing unit in operative communication with the monocular camera, the processing unit configured to: identify a contour of said object in said image; identify the unique feature on said contour of the object in the image produced by the monocular camera, synthesize at least four points along said contour of the object in the image using the identified unique feature as a starting point, synthesize a same number of points as synthesized in the image with the unique feature as the starting point identify a contour of said object in said image; identify the unique feature on said contour of the object in the image produced by the monocular camera, synthesize at least four points along said contour of the object in the image using the identified unique feature as a starting point, synthesize a same number of points as synthesized in the image with the unique feature as the starting point along a contour of the object in a three-dimensional reference model, the reference model preprogrammed into a memory of the processing unit, correlate the points from the reference model to the points from the contour in the image, and determine a pose of the monocular camera based on the correlated points. correlate the points from the reference model to the points from the contour in the image, and determine a pose of the monocular camera based on the correlated points.
An epicyclic gearbox comprising a gearbox housing, one or more gearbox parts rotating in relation to said housing, and one or more sensors comprising means for measuring vibrations and/or acoustic emission of said gearbox, wherein said one or more sensors are mounted on one or more of said rotating parts of said gearbox, characterized in that said one or more sensors are mounted on at least one planet carrier of said epicyclic gearbox.
A cardiac system comprising: a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the system, and sense a cardiac event in response to the cardiac electrical signal crossing an R-wave sensing threshold; a therapy delivery circuit configured to deliver electrical stimulation therapy to a patient's heart via electrodes coupled to the system; and a control circuit configured to: determine at least one sensed event parameter from the cardiac electrical signal for each one of a plurality of consecutive cardiac events sensed by the sensing circuit; compare the sensed event parameters to P-wave oversensing criteria; detect P-wave oversensing in response to the sensed event parameters meeting the P-wave oversensing criteria; and adjust at least one of an R-wave sensing control parameter or a therapy delivery control parameter in response to detecting the P-wave oversensing. a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the system, and sense a cardiac event in response to the cardiac electrical signal crossing an R-wave sensing threshold; receive a cardiac electrical signal from electrodes coupled to the system, and sense a cardiac event in response to the cardiac electrical signal crossing an R-wave sensing threshold; a therapy delivery circuit configured to deliver electrical stimulation therapy to a patient's heart via electrodes coupled to the system; and a control circuit configured to: determine at least one sensed event parameter from the cardiac electrical signal for each one of a plurality of consecutive cardiac events sensed by the sensing circuit; compare the sensed event parameters to P-wave oversensing criteria; detect P-wave oversensing in response to the sensed event parameters meeting the P-wave oversensing criteria; and adjust at least one of an R-wave sensing control parameter or a therapy delivery control parameter in response to detecting the P-wave oversensing. determine at least one sensed event parameter from the cardiac electrical signal for each one of a plurality of consecutive cardiac events sensed by the sensing circuit; compare the sensed event parameters to P-wave oversensing criteria; detect P-wave oversensing in response to the sensed event parameters meeting the P-wave oversensing criteria; and adjust at least one of an R-wave sensing control parameter or a therapy delivery control parameter in response to detecting the P-wave oversensing.
A method of transmitting an uplink signal for a user equipment of a Long-Term Evolution, LTE, system supportive of a dynamic change of radio resource usage, comprising: receiving downlink control information for transmission of the uplink signal when the user equipment is operating in a fallback mode; and dropping the transmission of the uplink signal in a specific subframe only when the uplink signal includes uplink control information piggybacked on an uplink data channel, wherein the specific subframe is designated as at least one of uplink subframes based on System Information Blocktype1, SIB1 based uplink-downlink configuration except for an uplink subframe based on downlink Hybrid Automatic Repeat reQuest, HARQ reference configuration, and wherein the fallback mode is applied when a reception of a reconfiguration message sent for reconfiguration for the radio resource usage fails. receiving downlink control information for transmission of the uplink signal when the user equipment is operating in a fallback mode; and dropping the transmission of the uplink signal in a specific subframe only when the uplink signal includes uplink control information piggybacked on an uplink data channel, wherein the specific subframe is designated as at least one of uplink subframes based on System Information Blocktype1, SIB1 based uplink-downlink configuration except for an uplink subframe based on downlink Hybrid Automatic Repeat reQuest, HARQ reference configuration, and wherein the fallback mode is applied when a reception of a reconfiguration message sent for reconfiguration for the radio resource usage fails.
An apparatus useable in an offshore drilling installation having a mud loop into a well drilled below the seabed, the apparatus comprising: a sensor configured to be located close to the seabed and to acquire values of at least one parameter related to a return mud flow; a blowout preventer located near the sensor and configured to regulate the return mud flow, wherein the blowout preventer comprises: a cavity extending from an annular space through which the return mud flow passes, the annular space surrounding a drill string through which mud flows towards a top of the well; and ram blocks configured to move inside the cavity to regulate the mud flow; and a controller connected to the blowout preventer and the sensor, the controller being configured to automatically control the blowout preventer to regulate the return mud flow towards achieving a value of a control parameter close to a predetermined value, based on the values acquired by the sensor. a sensor configured to be located close to the seabed and to acquire values of at least one parameter related to a return mud flow; a blowout preventer located near the sensor and configured to regulate the return mud flow, wherein the blowout preventer comprises: a cavity extending from an annular space through which the return mud flow passes, the annular space surrounding a drill string through which mud flows towards a top of the well; and ram blocks configured to move inside the cavity to regulate the mud flow; and a cavity extending from an annular space through which the return mud flow passes, the annular space surrounding a drill string through which mud flows towards a top of the well; and ram blocks configured to move inside the cavity to regulate the mud flow; and a controller connected to the blowout preventer and the sensor, the controller being configured to automatically control the blowout preventer to regulate the return mud flow towards achieving a value of a control parameter close to a predetermined value, based on the values acquired by the sensor.