mhurhangee/patent-ind-claim-en huggingface dataset:
A process for extracting a polar lipid-rich extract from a marine animal material comprising: contacting said marine animal material with a concentrated protic solvent under conditions such that polar lipids are preferentially extracted to form a slurry comprising a polar lipid solution and biological residue material; separating said polar lipid solution from said biological residue material to provide a separated polar lipid solution; adding an aqueous solution to said polar lipid solution to dilute said protic solvent so that said polar lipid solution separates into an upper phase comprising diluted protic solvent and a lower polar lipid-rich bottom phase, comprising adding said aqueous solution to dilute the concentration of said protic solvent to 50% to 70% w/w when combined with the moisture in said marine animal material; and isolating said polar lipid-rich bottom phase to provide said polar lipid-rich extract. contacting said marine animal material with a concentrated protic solvent under conditions such that polar lipids are preferentially extracted to form a slurry comprising a polar lipid solution and biological residue material; separating said polar lipid solution from said biological residue material to provide a separated polar lipid solution; adding an aqueous solution to said polar lipid solution to dilute said protic solvent so that said polar lipid solution separates into an upper phase comprising diluted protic solvent and a lower polar lipid-rich bottom phase, comprising adding said aqueous solution to dilute the concentration of said protic solvent to 50% to 70% w/w when combined with the moisture in said marine animal material; and isolating said polar lipid-rich bottom phase to provide said polar lipid-rich extract.
A method for operating an electrolysis system in which water is converted into oxygen and hydrogen in an electrolysis unit , wherein a fluid stream (c, d) that comprises water and gas is conveyed from an oxygen side of the electrolysis unit to a gas separator , wherein an ignition of an ignition device is actively generated in the fluid stream (c). wherein a fluid stream (c, d) that comprises water and gas is conveyed from an oxygen side of the electrolysis unit to a gas separator , wherein an ignition of an ignition device is actively generated in the fluid stream (c).
Device for attaching an object or a person to the sports equipment , which device has a strap that is fitted to be secured at its first end to the body of the sports equipment , which strap has a second end that is fitted to be releasably secured to the body by means of a release mechanism , which release mechanism has a fastening part and an engagement part , which can be releasably connected to one another, wherein one of the two parts is fastened to the body, and the other of the two parts is fastened to the end of the strap , wherein the engagement part has an engagement element that interacts in a form fitting manner with a bail element of the fastening part , wherein the bail element can be pivoted on the fastening part about a pivot axle between an open position that releases the engagement element and an engaged position that engages with the engagement element , wherein the engaged position of the bail element can be secured in place by a securing element , wherein the securing element as well as the bail element are secured to the fastening part , wherein one of the two elements is secured to the fastening part via a spring mechanism , such that the distance between the pivot axle of the bail element and the securing element changes when a tensile load is applied to the bail element , wherein the securing element is in a securing position on the bail element such that it releases the bail element when a defined release force exerted on the bail element has been exceeded.
A method to detect live and/or dead cells in a sample, comprising: a) contacting a sample with a peptide substrate for a first protease and a peptide substrate for a second protease, wherein a reaction with one of the substrates mediated by one of the proteases yields a fluorogenic product and a reaction with the other substrate mediated by the other protease yields a luminogenic or a fluorogenic product, wherein one of the substrates is substantially cell permeant and specific for an aminopeptidase, a cathepsin, or a protease associated with the proteasome; and the other substrate is substantially cell impermeant and specific for tripeptidyl peptidase, a calpain, or a chymotrypsin ; and wherein if both reactions yield fluorogenic products, the fluorophores on the two substrates are spectrally distinct; and b) detecting or determining fluorescence and/or luminescence in the sample, thereby detecting or determining the number or presence of live and/or dead cells in the sample; wherein the substantially cell permeant substrate is Gly-Phe-AFC, Gly-Phe-AMC, Gly-Gly-Leu-AMC, Z-Gly-Gly-Leu-AMC, Phe-AMC, or Tyr-AMC, and wherein the substantially cell impermeant substrate is Ala-Ala-Phe-AMC, (Ala-Ala-Phe) 2 -R110, Ala-Ala-Phe-aminoluciferin, or Z-Leu-Leu-Val-Tyr-aminoluciferin, wherein: AFC is 7-amino-4-trifluoromethylcoumarin; AMC is 7-amino-4-methylcoumarin; and, R110 is rhodamine-110. a) contacting a sample with a peptide substrate for a first protease and a peptide substrate for a second protease, wherein a reaction with one of the substrates mediated by one of the proteases yields a fluorogenic product and a reaction with the other substrate mediated by the other protease yields a luminogenic or a fluorogenic product, wherein one of the substrates is substantially cell permeant and specific for an aminopeptidase, a cathepsin, or a protease associated with the proteasome; and the other substrate is substantially cell impermeant and specific for tripeptidyl peptidase, a calpain, or a chymotrypsin ; and wherein if both reactions yield fluorogenic products, the fluorophores on the two substrates are spectrally distinct; and b) detecting or determining fluorescence and/or luminescence in the sample, thereby detecting or determining the number or presence of live and/or dead cells in the sample; AFC is 7-amino-4-trifluoromethylcoumarin; AMC is 7-amino-4-methylcoumarin; and, R110 is rhodamine-110.
A detonator arrangement comprising a detonator having an initiation charge and a base charge , which initiation charge is arranged to initiate a detonation of said base charge , the said detonator arrangement comprises a securement device which is movable in relation to the detonator , which securement device can be disposed in a first position arranged to prevent a transfer of the detonation of the initiation charge to the base charge , whereby the detonation of the base charge is avoided, and in a second position arranged to allow the transfer of the detonation of the initiation charge to the base charge , whereby the detonation of the base charge is obtained wherein said securement device is arranged to be positioned at a distance from at least a part of said initiation charge in said first position (A) and is arranged to surround at least said part of said initiation charge , in said second position (B).
Foam-glass-granulate comprising loose expanded glass particles, the majority of which consists of glass, have expanded cavities, comprise a densely sintered surface made of glass, wherein the foam-glass-granulate has a raw-grain density between 0.9 g/cm 3 and 1.1 g/cm 3 , as well as a grain strength of more than 5 N/mm 2 , and it shows a water absorption of less than 10 wt.%, if it is exposed to water over a time period of 1 hour at a pressure of about 7 MPa.
A pharmaceutical composition comprising ginsenoside F2, for use in the prevention or treatment of insulin resistance.
An apparatus, comprising: at least one processor; and at least one memory including computer program code; wherein the at least one memory and the computer program code are configured to, with the at least one processor, cause the apparatus at least to: support communication of a source routed packet over a path from an ingress node to an egress node over a network, wherein the network includes a set of network elements having a respective set of network element identifiers associated therewith, wherein the source routed packet has encoded therein a plurality of source route blocks associated with respective subsets of network elements of the path sharing respective common prefixes based on the respective network element identifiers of the network elements in the respective subsets of network elements of the path, wherein each of the source route blocks includes, respectively, the respective common prefix shared by the network elements in the respective subset of network elements of the path and a respective offset list including a respective set of offset values associated with respective ones of the network elements in the respective subset of network elements of the path and configured to be combined with the respective common prefix shared by the network elements in the respective subset of network elements of the path to recover the respective network element identifiers of the respective ones of the network elements in the respective subset of network elements of the path. at least one processor; and at least one memory including computer program code; wherein the at least one memory and the computer program code are configured to, with the at least one processor, cause the apparatus at least to: support communication of a source routed packet over a path from an ingress node to an egress node over a network, wherein the network includes a set of network elements having a respective set of network element identifiers associated therewith, wherein the source routed packet has encoded therein a plurality of source route blocks associated with respective subsets of network elements of the path sharing respective common prefixes based on the respective network element identifiers of the network elements in the respective subsets of network elements of the path, wherein each of the source route blocks includes, respectively, the respective common prefix shared by the network elements in the respective subset of network elements of the path and a respective offset list including a respective set of offset values associated with respective ones of the network elements in the respective subset of network elements of the path and configured to be combined with the respective common prefix shared by the network elements in the respective subset of network elements of the path to recover the respective network element identifiers of the respective ones of the network elements in the respective subset of network elements of the path.
Soil-working tool , comprising - a disk body which has a circumferential cutting edge , the cutting edge having a wave shape, the disk body having a mounting region without a wave shape, which mounting region lies within a mounting plane , the wave-shaped cutting edge extending between two parallel boundary planes , the mounting region of the disk body without a wave shape and/or the mounting plane thereof being arranged outside a cutting edge extending region that extends between the boundary planes , characterized in that the cutting edge has an axial extension between the boundary planes in a range of 8 to 17 cm. - a disk body which has a circumferential cutting edge , the cutting edge having a wave shape, the disk body having a mounting region without a wave shape, which mounting region lies within a mounting plane , the wave-shaped cutting edge extending between two parallel boundary planes , the mounting region of the disk body without a wave shape and/or the mounting plane thereof being arranged outside a cutting edge extending region that extends between the boundary planes , characterized in that the cutting edge has an axial extension between the boundary planes in a range of 8 to 17 cm.
A process of joining a wing to an aircraft fuselage, the process comprising the steps of: - mapping a wing root of the wing , - mapping a centre-wing-box (CWB) of the aircraft fuselage , - determining a position to provide a hole pattern on the CWB , - providing the hole pattern on the CWB , and - attaching the wing root to the CWB , wherein: the step of mapping of the wing root includes obtaining a cloud of points and thereby measuring the wing root volume , wherein this obtaining a cloud of points involves the steps of: - mounting a primary template with a hole pattern on the wing root , - superposing the hole pattern of the primary template onto a hole pattern on the wing root , - installing targets on the primary template , - scanning the targets , or the step of mapping of the CWB includes obtaining a cloud of points and thereby measuring the CWB volume , wherein this obtaining a cloud of points involves the steps of: - mounting a secondary template with a hole pattern corresponding to a hole pattern of a primary template mounted on the wing root , on the CWB , - superposing the secondary template onto a nominal hole pattern position on the CWB , - installing targets on the secondary template , - scanning the targets . - mapping a wing root of the wing , - mapping a centre-wing-box (CWB) of the aircraft fuselage , - determining a position to provide a hole pattern on the CWB , - providing the hole pattern on the CWB , and - attaching the wing root to the CWB , the step of mapping of the wing root includes obtaining a cloud of points and thereby measuring the wing root volume , wherein this obtaining a cloud of points involves the steps of: - mounting a primary template with a hole pattern on the wing root , - superposing the hole pattern of the primary template onto a hole pattern on the wing root , - installing targets on the primary template , - scanning the targets , or - mounting a primary template with a hole pattern on the wing root , - superposing the hole pattern of the primary template onto a hole pattern on the wing root , - installing targets on the primary template , - scanning the targets , or the step of mapping of the CWB includes obtaining a cloud of points and thereby measuring the CWB volume , wherein this obtaining a cloud of points involves the steps of: - mounting a secondary template with a hole pattern corresponding to a hole pattern of a primary template mounted on the wing root , on the CWB , - superposing the secondary template onto a nominal hole pattern position on the CWB , - installing targets on the secondary template , - scanning the targets . - mounting a secondary template with a hole pattern corresponding to a hole pattern of a primary template mounted on the wing root , on the CWB , - superposing the secondary template onto a nominal hole pattern position on the CWB , - installing targets on the secondary template , - scanning the targets .
A clamp for a tooth comprising: a body for adjustably supporting a band such that a looped section of the band projects from the clamp ; and, a removable implement configured to adjust a shape of the looped section of the band once the removable implement has been removed from the clamp , characterised in that the removable implement is a dental wedge. a body for adjustably supporting a band such that a looped section of the band projects from the clamp ; and, a removable implement configured to adjust a shape of the looped section of the band once the removable implement has been removed from the clamp , characterised in that the removable implement is a dental wedge.
A method for serializing products by using a barcode , wherein an authentication feature is introduced into the barcode by using a printing modification, the method comprising the following steps: i) providing print batch data by a central database , wherein the print batch data comprise a batch of serial codes and at least one individual security rationale for modifying the barcode , whereby the security rationale is assigned to the barcode and a range of sequential serial numbers is defined; ii) transmitting the print batch data to a printing device , wherein the printing device is designed for printing variable data; iii) printing a modified barcode by using a single serial code out of the range of the sequential serial numbers and the assigned individual security rationale as provided by the print batch data, whereby an authentication feature is introduced into the barcode , wherein the modified barcode is printed in a resolution which does not allow assigning an identical number of pixels to every module , wherein the modified barcode is printed by using at least two different kinds of modules , wherein a different number of pixels is assigned to each kind of modules , wherein a repartition of the different kind of modules is defined by a combination of the individual security rationale and the single serial code, wherein the combination of the individual security rationale and the single serial code covers position information for one or more of: at least one individually selected module , at least one entire column of modules, at least one entire row of modules. i) providing print batch data by a central database , wherein the print batch data comprise a batch of serial codes and at least one individual security rationale for modifying the barcode , whereby the security rationale is assigned to the barcode and a range of sequential serial numbers is defined; ii) transmitting the print batch data to a printing device , wherein the printing device is designed for printing variable data; iii) printing a modified barcode by using a single serial code out of the range of the sequential serial numbers and the assigned individual security rationale as provided by the print batch data, whereby an authentication feature is introduced into the barcode , wherein the modified barcode is printed in a resolution which does not allow assigning an identical number of pixels to every module , wherein the modified barcode is printed by using at least two different kinds of modules , wherein a different number of pixels is assigned to each kind of modules , wherein a repartition of the different kind of modules is defined by a combination of the individual security rationale and the single serial code, wherein the combination of the individual security rationale and the single serial code covers position information for one or more of: at least one individually selected module , at least one entire column of modules, at least one entire row of modules.
A vehicle drive device, comprising: a motor generator mechanically coupled to an output shaft of an engine via a belt ; a torque converter arranged between the engine and a transmission and including a lock-up clutch for connecting or disconnecting the engine and the transmission ; engaged state detecting means configured to detect an engaged state of the lock-up clutch ; motor generator control means configured to cause the motor generator to generate a predetermined assist torque to torque assist the engine ; and torque assist permitting/prohibiting means configured to prohibit a torque assist by the motor generator control means when the lock-up clutch is released and permit the torque assist by the motor generator control means if a condition for the execution of the torque assist is satisfied when the lock-up clutch is engaged. a motor generator mechanically coupled to an output shaft of an engine via a belt ; a torque converter arranged between the engine and a transmission and including a lock-up clutch for connecting or disconnecting the engine and the transmission ; engaged state detecting means configured to detect an engaged state of the lock-up clutch ; motor generator control means configured to cause the motor generator to generate a predetermined assist torque to torque assist the engine ; and torque assist permitting/prohibiting means configured to prohibit a torque assist by the motor generator control means when the lock-up clutch is released and permit the torque assist by the motor generator control means if a condition for the execution of the torque assist is satisfied when the lock-up clutch is engaged.
An orbital welding apparatus for welding two pipe pieces, wherein the orbital welding apparatus comprises a welding power source in a welding power source housing and an orbital welding head , which is separate from the welding power source housing and connected to the welding power source by means of a cable , wherein the orbital welding head comprises a chamber for using inert gas and/or the orbital welding apparatus comprises a shaping device for using inert gas, preferably backing gas or forming gas, characterized in that the orbital welding apparatus comprises an oxygen sensor , wherein the oxygen sensor is arranged in or on the welding power source housing wherein the orbital welding apparatus comprises a switching device , which is configured so as to switch between a first state and at least one further state, wherein, in the first state, the oxygen sensor is configured so as to measure the oxygen concentration in the inert gas before it has been introduced into the chamber or at least one of the pipe pieces to be welded to the junction of the pipe pieces, and wherein, in the at least one further state, the oxygen sensor is configured so as to measure the oxygen concentration in the chamber or inside at least one of the pipe pieces to be welded.
A method for manufacturing a synthetic resin preform comprising a colored layer forming a gradation region in which a layer thickness gradually decreases, wherein on an outer circumferential side of a base material layer made of a first colored resin (R1), the colored layer, which is made of a second colored resin (R2) having a color different from that of the first colored resin (R1) and which forms the gradation region in which the layer thickness gradually decreases upward, is formed, and, on the outer circumferential side of the second colored layer, a coating layer made of the first colored resin (R1) is formed, and wherein the preform is molded, from a state where the first colored resin (R1) is filled in a gate disposed in correspondence with a middle of a bottom of the preform , by injecting the first colored resin (R1) into a cavity of a mold through the gate for a first predetermined time period and by injecting the second colored resin material (R2) for a second predetermined time period, and by setting a starting time point of the first predetermined time period to be behind a starting time point of the second predetermined time period and ahead of the finishing time period of the second predetermined time period, setting a finishing time point of the first predetermined time period to be behind a finishing time period of the second predetermined time period, and setting an injection rate of the second colored resin (R2) to be faster than an injection rate of the first colored resin (R1), the second colored resin (R2) penetrates a center portion of the first colored resin (R1) with a region on an outer circumferential surface of the cavity that corresponds to the gradation region being coated with the first colored resin (R1), and then, the first colored resin (R1, R2) penetrates a center portion of the second colored resin (R2) located inside the cavity of the mold, such that the first colored resin (R1) is caused to flow while stretching the second color resin and the colored layer is formed on the outer circumferential side of the base material layer , and the coating layer is formed on the outer circumferential side of the second colored layer.