mhurhangee/patent-ind-claim-en huggingface dataset:
Method for monitoring the vibration characteristics in a Coriolis flowmeter , which can be inserted into a pipe, wherein the Coriolis flowmeter features a vibration system which can be excited to produce mechanical vibrations, with at least one measuring tube (A, B) through which medium can flow, wherein said method comprises the following steps: A) Excitation of the vibration system to produce mechanical vibrations according to an excitation input signal by at least one exciter , wherein the excitation input signal features transient signal modulations occurring at intervals, B) Detection by a sensor of at least one response variable of the generated mechanical vibrations of the vibration system , C) Simulation of the excited vibration system using a digital model (DM), which features at least one adjustable parameter, wherein the simulation comprises the excitation of the digital model (DM) in the same manner as the vibration system , the calculation of a simulation response variable of the simulated vibrations according to the digital model (DM) and the iterative adjustment, performed over several signal modulations, of the at least one adjustable parameter in such a way that the simulation response variable approximates the response variable in an iterative manner, and D) Determination as to whether an associated limit value is exceeded by the at least one parameter value determined in an iterative manner for the at least one adjustable parameter or by at least one variable which is derived therefrom. A) Excitation of the vibration system to produce mechanical vibrations according to an excitation input signal by at least one exciter , wherein the excitation input signal features transient signal modulations occurring at intervals, B) Detection by a sensor of at least one response variable of the generated mechanical vibrations of the vibration system , C) Simulation of the excited vibration system using a digital model (DM), which features at least one adjustable parameter, wherein the simulation comprises the excitation of the digital model (DM) in the same manner as the vibration system , the calculation of a simulation response variable of the simulated vibrations according to the digital model (DM) and the iterative adjustment, performed over several signal modulations, of the at least one adjustable parameter in such a way that the simulation response variable approximates the response variable in an iterative manner, and D) Determination as to whether an associated limit value is exceeded by the at least one parameter value determined in an iterative manner for the at least one adjustable parameter or by at least one variable which is derived therefrom.
Non-therapeutic use of a feed supplement comprising a resin acid based composition comprising over 10% (w/w) resin acids in the modulation of microbial population of the animal digestive tract for improving the feed conversion ratio.
A method for simulating film grain in an image block comprising: computing the average of the pixel luminance values within the image block; selecting a film grain block from among a pool of previously established blocks containing film grain wherein selection is performed as a function of the average luminance value of the image block and a random number; and blending each pixel in the selected film grain block with a corresponding pixel in the image block; wherein film grain blocks of said pool are distributed over one or up to eight luminance intensity intervals.
A pipe restraint assembly , comprising: a pipe; a restraint body configured to be removably attached to a portion of the pipe, wherein the portion of the pipe is associated with a postulated pipe failure associated with a release of high pressure fluid; a plurality of apertures that penetrate through the restraint body and are positioned proximate to a location of the postulated pipe failure, wherein the apertures are configured to provide a number of passageways for the fluid to exit from the location of the postulated pipe failure and be released outside of the restraint body ; and one or more pipe restraints , wherein the one or more pipe restraints extend into a corresponding aperture of the plurality of apertures to maintain the position of the apertures relative to the location of the postulated pipe failure. a pipe; a restraint body configured to be removably attached to a portion of the pipe, wherein the portion of the pipe is associated with a postulated pipe failure associated with a release of high pressure fluid; a plurality of apertures that penetrate through the restraint body and are positioned proximate to a location of the postulated pipe failure, wherein the apertures are configured to provide a number of passageways for the fluid to exit from the location of the postulated pipe failure and be released outside of the restraint body ; and one or more pipe restraints , wherein the one or more pipe restraints extend into a corresponding aperture of the plurality of apertures to maintain the position of the apertures relative to the location of the postulated pipe failure.
Terpolymer, wherein 20 to 35 % by weight of the structural units are derived from acrylic acid, 45 to 60 % by weight of the structural units from a hydrophobic methacrylate selected from a group consisting of isopropyl methacrylate, tert-butyl methacrylate and cyclohexyl methacrylate and 20 to 35 % by weight of the structural units from a third olefinic monomer selected from the group consisting of N-vinyl lactam, hydroxy ethyl methacrylate and phenoxyethyl acrylate with the proviso that the total amount of structural units derived from the three monomer groups adds up to 100 % by weight.
A composite for use in transdermal delivery comprising a metal-organic framework, nanocellulose and an active ingredient; wherein the metal-organic framework is a zeolite imidazolate framework (ZIF)-8; and an imine group of the ZIF-8 is combined with the nanocellulose. wherein the metal-organic framework is a zeolite imidazolate framework (ZIF)-8; and an imine group of the ZIF-8 is combined with the nanocellulose.
Needle body for a compound-needle assembly of a warp knitting machine, comprising a shank , which is bounded by two mutually parallel flat sides to which a thickness direction (D) is perpendicular, and by an upper edge and a lower edge , and a hook for receiving yarn, wherein a drive portion of the shank is configured for attachment of the needle body to a driving device of a warp knitting machine, wherein a loop-sliding portion of the shank is configured for guiding a loop to be knocked over, a lower hook edge is disposed opposite to and facing away from a bent-back part of the hook , and the lower hook edge extends at least in a longitudinal direction (L) of the needle body , and the longitudinal direction (L) is perpendicular to the thickness direction (D) and to an elevational direction (H) of the needle body 1, which is perpendicular to the thickness direction (D), and an upper hook edge is disposed at the bent-back part of the hook and faces away from the lower hook edge , between the drive portion and the hook , the shank has a slotted portion in which a slot with a slot bottom is sunk in the upper edge and the slot bottom is curved lengthwise, characterised in that a hook height , which is to be measured at the point in the longitudinal direction (L) where the distance in the elevational direction (H) between the lower hook edge and the upper hook edge is greatest, is a maximum of 0.81mm and a cross-sectional height , which is to be measured perpendicular to the thickness direction (D) in a cross section of the shank in a loop-sliding portion , is a maximum of 0.81mm. and a hook for receiving yarn, wherein a drive portion of the shank is configured for attachment of the needle body to a driving device of a warp knitting machine, wherein a loop-sliding portion of the shank is configured for guiding a loop to be knocked over, a lower hook edge is disposed opposite to and facing away from a bent-back part of the hook , and the lower hook edge extends at least in a longitudinal direction (L) of the needle body , and the longitudinal direction (L) is perpendicular to the thickness direction (D) and to an elevational direction (H) of the needle body 1, which is perpendicular to the thickness direction (D), and an upper hook edge is disposed at the bent-back part of the hook and faces away from the lower hook edge , between the drive portion and the hook , the shank has a slotted portion in which a slot with a slot bottom is sunk in the upper edge and the slot bottom is curved lengthwise, characterised in that a hook height , which is to be measured at the point in the longitudinal direction (L) where the distance in the elevational direction (H) between the lower hook edge and the upper hook edge is greatest, is a maximum of 0.81mm and a cross-sectional height , which is to be measured perpendicular to the thickness direction (D) in a cross section of the shank in a loop-sliding portion , is a maximum of 0.81mm.
A computer-implemented method of operating an electronic flight planning system for aircraft, wherein the electronic flight planning system comprises a network interface , a flight plan deconfliction engine and a user interface , the method comprising: at the network interface , receiving as data input to the system from one or more users a plurality of flight plans forming a plurality of received flight plans, each received flight plan defining a flight by one of a plurality of aircraft and being associated with one of the said one or more users; determining by the flight plan deconfliction engine , for each flight by one of said plurality of aircraft, as defined in the respective received flight plan, a three-dimensional region of potential conflict, representative both of an uncertainty in the position of the aircraft and of a region of air exclusion appropriate for the aircraft or for the respective received flight plan; determining by the flight plan deconfliction engine , on the basis of the determined three-dimensional regions of potential conflict, whether any one of the received flight plans is in conflict with any one of the other received flight plans and identifying one or more conflicts between flight plans of said plurality of received flight plans; characterised in that the method further comprises: before the flight of said plurality of aircraft, communicating by the user interface the one or more conflicts to the users associated with the received flight plans for which the one or more conflicts were identified. at the network interface , receiving as data input to the system from one or more users a plurality of flight plans forming a plurality of received flight plans, each received flight plan defining a flight by one of a plurality of aircraft and being associated with one of the said one or more users; determining by the flight plan deconfliction engine , for each flight by one of said plurality of aircraft, as defined in the respective received flight plan, a three-dimensional region of potential conflict, representative both of an uncertainty in the position of the aircraft and of a region of air exclusion appropriate for the aircraft or for the respective received flight plan; determining by the flight plan deconfliction engine , on the basis of the determined three-dimensional regions of potential conflict, whether any one of the received flight plans is in conflict with any one of the other received flight plans and identifying one or more conflicts between flight plans of said plurality of received flight plans; characterised in that the method further comprises: before the flight of said plurality of aircraft, communicating by the user interface the one or more conflicts to the users associated with the received flight plans for which the one or more conflicts were identified.
Positive electrode active substance particles each comprising: a core particle X comprising a lithium nickelate composite oxide having a layer structure which is represented by the formula: Li 1+a Ni 1-b-c Co b M c O 2 wherein M is at least one element selected from the group consisting of Mn, Al, B, Mg, Ti, Sn, Zn and Zr; a is a number of -0.1 to 0.2 (-0.1 ≤ a ≤ 0.2); b is a number of 0.05 to 0.5 (0.05 ≤ b ≤ 0.5); and c is a number of 0.01 to 0.4 (0.01 ≤ c ≤ 0.4); and a coating compound Y comprising at least one element selected from the group consisting of Al, Mg, Zr, Ti and Si, in which the coating compound Y has an average film thickness of 0.2 to 5 nm, a degree of crystallinity of 50 to 95%, a degree of epitaxy of 50 to 95% and a coating ratio i.e. coverage, of 50 to 95%. a core particle X comprising a lithium nickelate composite oxide having a layer structure which is represented by the formula: Li 1+a Ni 1-b-c Co b M c O 2 wherein M is at least one element selected from the group consisting of Mn, Al, B, Mg, Ti, Sn, Zn and Zr; a is a number of -0.1 to 0.2 (-0.1 ≤ a ≤ 0.2); b is a number of 0.05 to 0.5 (0.05 ≤ b ≤ 0.5); and c is a number of 0.01 to 0.4 (0.01 ≤ c ≤ 0.4); and a coating compound Y comprising at least one element selected from the group consisting of Al, Mg, Zr, Ti and Si, in which the coating compound Y has an average film thickness of 0.2 to 5 nm, a degree of crystallinity of 50 to 95%, a degree of epitaxy of 50 to 95% and a coating ratio i.e. coverage, of 50 to 95%.
Method for controlling a closing process of an elevator door of an elevator car , the method comprising: monitoring an access to the elevator car by means of a light barrier , at least one detector of the light barrier outputting a light barrier signal change when the light barrier is temporarily interrupted; monitoring a weight of the elevator car by means of a weight measuring arrangement which outputs a weight signal change when the weight of the elevator car changes; controlling the closing process of the elevator door taking into account both the light barrier signal change and the weight signal change, characterized in that , in the case that, on at least one occasion, the weight signal change indicates a change in the weight of the elevator car by more than a predetermined minimum weight, but no light barrier signal change indicating a temporary interruption of the light barrier is detected in a timely manner, an emergency closing mode is activated in which the closing process is controlled such that a hazard potential for a person in a movement range of the elevator door is reduced in comparison to a normal closing of the elevator door . monitoring an access to the elevator car by means of a light barrier , at least one detector of the light barrier outputting a light barrier signal change when the light barrier is temporarily interrupted; monitoring a weight of the elevator car by means of a weight measuring arrangement which outputs a weight signal change when the weight of the elevator car changes; controlling the closing process of the elevator door taking into account both the light barrier signal change and the weight signal change, characterized in that , in the case that, on at least one occasion, the weight signal change indicates a change in the weight of the elevator car by more than a predetermined minimum weight, but no light barrier signal change indicating a temporary interruption of the light barrier is detected in a timely manner, an emergency closing mode is activated in which the closing process is controlled such that a hazard potential for a person in a movement range of the elevator door is reduced in comparison to a normal closing of the elevator door .
Impact bar for lining an impact chamber of an impact crusher with the following features: a) the impact bar has a front side , a rear side at a distance from the front side and two longitudinal sides , which extend from the front side to the rear side ; b) the front side does not run parallel to the rear side and includes, with the rear side , an angle (W3) which is smaller than 90° and greater than 0°; c) the two longitudinal sides run at least partially in longitudinal side planes (E1, E2), which intersect; d) an outer holding region with undercuts and protruding relative to the rear side is arranged on the rear side for releasably, positively fastening the impact bar ; e) the holding region has a widened foot and a shank , which is narrower relative to the foot , the foot being connected to the rear side via the shank , wherein the undercuts are located to the side of the shank and are delimited by the foot and the rear side , wherein the undercuts have in each case rounded regions in the cross section which extend from the rear side to upper flanks of the foot ; characterised by the following feature: f) the foot has a longitudinal recess on its foot sole facing away from the rear side . a) the impact bar has a front side , a rear side at a distance from the front side and two longitudinal sides , which extend from the front side to the rear side ; b) the front side does not run parallel to the rear side and includes, with the rear side , an angle (W3) which is smaller than 90° and greater than 0°; c) the two longitudinal sides run at least partially in longitudinal side planes (E1, E2), which intersect; d) an outer holding region with undercuts and protruding relative to the rear side is arranged on the rear side for releasably, positively fastening the impact bar ; e) the holding region has a widened foot and a shank , which is narrower relative to the foot , the foot being connected to the rear side via the shank , wherein the undercuts are located to the side of the shank and are delimited by the foot and the rear side , wherein the undercuts have in each case rounded regions in the cross section which extend from the rear side to upper flanks of the foot ;
A method of loading a prosthetic heart valve into a delivery device, the prosthetic heart valve including: an inner frame having a tubular shape; and a braided wire mesh arranged outside of the inner frame and defining a circumferential flange around the inner frame ; the method comprising the steps of: providing a delivery device having a lumen defined by a wall and a distal aperture at a distal end thereof, the lumen having a diameter that is less than that of the inner frame and braided wire mesh ; providing the prosthetic heart valve in a radially uncompressed condition; positioning the prosthetic heart valve such that the inner frame is received through the distal aperture and into the lumen; moving the prosthetic heart valve fully into the lumen such that the inner frame and braided wire mesh are radially compressed; wherein the step of moving the braided wire mesh into the lumen of the delivery device includes inverting the circumferential flange . an inner frame having a tubular shape; and a braided wire mesh arranged outside of the inner frame and defining a circumferential flange around the inner frame ; the method comprising the steps of: providing a delivery device having a lumen defined by a wall and a distal aperture at a distal end thereof, the lumen having a diameter that is less than that of the inner frame and braided wire mesh ; providing the prosthetic heart valve in a radially uncompressed condition; positioning the prosthetic heart valve such that the inner frame is received through the distal aperture and into the lumen; moving the prosthetic heart valve fully into the lumen such that the inner frame and braided wire mesh are radially compressed; wherein the step of moving the braided wire mesh into the lumen of the delivery device includes inverting the circumferential flange . providing a delivery device having a lumen defined by a wall and a distal aperture at a distal end thereof, the lumen having a diameter that is less than that of the inner frame and braided wire mesh ; providing the prosthetic heart valve in a radially uncompressed condition; positioning the prosthetic heart valve such that the inner frame is received through the distal aperture and into the lumen; moving the prosthetic heart valve fully into the lumen such that the inner frame and braided wire mesh are radially compressed; wherein the step of moving the braided wire mesh into the lumen of the delivery device includes inverting the circumferential flange .
Positioning device for detachable and repeatable positioning in X-, Y- and Z-directions of a first object in relation to a second object , the positioning device comprising a first XY-reference means and a second corresponding XY-reference means , wherein the first XY-reference means is a disc spring with an in Z-direction tapered conical inner surface and the second XY-reference means is an element with an in Z-direction tapered conical outer surface , where further the first XY-reference means is arranged to be fixed to the first object and the second XY-reference means is arranged to be fixed to the second object , where in operating state of the positioning device the first object is positioned in the Z-direction in relation to the second object by that the second object is arranged to, directly or indirectly, support the first object in the Z-direction, and where at the same time the conical outer surface of the second XY-reference means is arranged to abut and press against the conical inner surface of the first XY-reference means , wherein said first XY-reference means is arranged to be as stiff as possible in the XY-plane, but arranged to be elastically deformable in the Z-direction, thus in turn accurately positioning the first object in relation to the second object in X- and Y-direction, characterised in that the disc spring is a belleville-spring.
A pharmaceutically-acceptable salt of 1-methylnicotinamide (1-MNA) for use in the prevention of a cardiovascular disease in a human subject having a high risk of development of a cardiovascular disease, wherein a pharmaceutically acceptable salt of 1-methylnicotinamide (1-MNA) is used in a therapeutically effective amount, and, wherein the cardiovascular disease is selected from the group consisting of coronary heart disease (CHD), peripheral artery disease, carotid artery disease, congestive heart failure, stroke, myocardial infarct, angina or a combination thereof, and wherein prior to administering the human subject has a blood or serum C-reactive protein (CRP) level of less than 10 mg/L, and wherein the human subject is a non-dyslipidemic human subject, and wherein a non-dyslipidemic human subject is a human subject having a normal total blood cholesterol level (≤200 mg/dL), a normal LDL-cholesterol level (≤130 mg/dL), a normal TG level (≤150 mg/dL), or a normal HDL-cholesterol level (≥60 mg/dL), or a combination thereof, and wherein the high risk occurs when the human subject has CRP level between 3 mg/L and 10 mg/L. wherein a pharmaceutically acceptable salt of 1-methylnicotinamide (1-MNA) is used in a therapeutically effective amount, and, wherein the cardiovascular disease is selected from the group consisting of coronary heart disease (CHD), peripheral artery disease, carotid artery disease, congestive heart failure, stroke, myocardial infarct, angina or a combination thereof, and wherein prior to administering the human subject has a blood or serum C-reactive protein (CRP) level of less than 10 mg/L, and wherein the human subject is a non-dyslipidemic human subject, and wherein a non-dyslipidemic human subject is a human subject having a normal total blood cholesterol level (≤200 mg/dL), a normal LDL-cholesterol level (≤130 mg/dL), a normal TG level (≤150 mg/dL), or a normal HDL-cholesterol level (≥60 mg/dL), or a combination thereof, and wherein the high risk occurs when the human subject has CRP level between 3 mg/L and 10 mg/L. and wherein prior to administering the human subject has a blood or serum C-reactive protein (CRP) level of less than 10 mg/L, and wherein the human subject is a non-dyslipidemic human subject, and wherein a non-dyslipidemic human subject is a human subject having a normal total blood cholesterol level (≤200 mg/dL), a normal LDL-cholesterol level (≤130 mg/dL), a normal TG level (≤150 mg/dL), or a normal HDL-cholesterol level (≥60 mg/dL), or a combination thereof, and wherein the high risk occurs when the human subject has CRP level between 3 mg/L and 10 mg/L.