mhurhangee/ep-ind-claims huggingface dataset:
A process for making a pollen-based fermentable composition comprising the steps of: (a) soaking dry pollen grains in coconut water at ambient temperature to provide soaked pollen; (b) treating the soaked pollen with glycerol and honeydew at ambient temperature to provide a germinated pollen mixture; (c) melting beeswax and maintaining liquid beeswax at about 65 °C; (d) treating the melted beeswax with an equal weight of coconut oil to provide a beeswax mixture; (e) adding the germinated pollen mixture to the beeswax mixture; (f) stirring the combined mixtures to form a jelly; and (g) incubating the jelly in a sealed vessel for about 72 hours at 37 °C to produce the fermented pollen-based composition. (a) soaking dry pollen grains in coconut water at ambient temperature to provide soaked pollen; (b) treating the soaked pollen with glycerol and honeydew at ambient temperature to provide a germinated pollen mixture; (c) melting beeswax and maintaining liquid beeswax at about 65 °C; (d) treating the melted beeswax with an equal weight of coconut oil to provide a beeswax mixture; (e) adding the germinated pollen mixture to the beeswax mixture; (f) stirring the combined mixtures to form a jelly; and (g) incubating the jelly in a sealed vessel for about 72 hours at 37 °C to produce the fermented pollen-based composition.
A GLP-1/GLP-2 dual agonist represented by the formula: R 1 -X*-U-R 2 wherein: R 1 is hydrogen (Hy), C 1-4 alkyl (e.g. methyl), acetyl, formyl, benzoyl or trifluoroacetyl; R 2 is NH 2 or OH; X* is a peptide of formula I: H-X2-EG-X5-F-X7-X8-E-X10-X11-TIL-X15-X16-X17-A-X19-X20-X21-FI-X24-WL-X27-X28-X29-KIT-X33 wherein X2 is Aib; X5 is S or T; X7 is S or T; X8 is S or D; X10 is L; X11 is A or S; X15 is D or E X16 is E or G; X17 is Q or K; X19 is A or S; X20 is R; X21 is D or E; X24 is A, N or S; X27 is I, Y, Q or K; X28 is A, E, H, Y or L; X29 is H, Y or Q; and X33 is D: U is absent or a sequence of 1-15 residues, each independently selected from K and k; and wherein at least one of X5 and X7 is T; or a pharmaceutically acceptable salt or solvate thereof. R 1 is hydrogen (Hy), C 1-4 alkyl (e.g. methyl), acetyl, formyl, benzoyl or trifluoroacetyl; R 2 is NH 2 or OH; X* is a peptide of formula I: H-X2-EG-X5-F-X7-X8-E-X10-X11-TIL-X15-X16-X17-A-X19-X20-X21-FI-X24-WL-X27-X28-X29-KIT-X33 wherein X2 is Aib; X5 is S or T; X7 is S or T; X8 is S or D; X10 is L; X11 is A or S; X15 is D or E X16 is E or G; X17 is Q or K; X19 is A or S; X20 is R; X21 is D or E; X24 is A, N or S; X27 is I, Y, Q or K; X28 is A, E, H, Y or L; X29 is H, Y or Q; and X33 is D: X2 is Aib; X5 is S or T; X7 is S or T; X8 is S or D; X10 is L; X11 is A or S; X15 is D or E X16 is E or G; X17 is Q or K; X19 is A or S; X20 is R; X21 is D or E; X24 is A, N or S; X27 is I, Y, Q or K; X28 is A, E, H, Y or L; X29 is H, Y or Q; and X33 is D: U is absent or a sequence of 1-15 residues, each independently selected from K and k; and wherein at least one of X5 and X7 is T; or a pharmaceutically acceptable salt or solvate thereof.
A pharmaceutical composition for use in preventing or treating a degenerative brain disease, comprising a Sceptridium ternatum extract as an active ingredient wherein the degenerative brain disease is selected from the group consisting of dementia, Alzheimer's disease, Parkinson's disease, Huntington's disease, Pick's disease and Creutzfeldt-Jakob disease.
A forward edge slat including a noise-abatement system configured to provide noise abatement to a wing assembly provided with a forward edge slat when the edge slat is moved from a retracted condition to a deployed condition thereof, the forward edge slat comprising a cove region having an inner surface, a lower trailing edge and an upper trailing edge, the noise-abatement system comprising: an elongate shield element adjacent to the lower trailing edge of the edge slat along a lengthwise extent thereof, and a support tab having a distal end fixed to the shield element and a proximal end fixed to the interior surface of the cove region of the edge slat adjacent the upper trailing edge thereof, wherein in response to movement of the edge slat between the deployed and retracted conditions thereof the support tab is configured to allow movement of the shield element towards and away from the lower trailing edge of the edge slat between an operative position where the shield element is positioned adjacent to the lower trailing edge of the edge slat along the lengthwise extent thereof and an inoperative position where the edge slat is spaced from the lower trailing edge of the edge slat and positioned in the cove region thereof, respectively; wherein the forward edge slat further comprises: an S-shaped spring leaf element having one end fixed to the proximal end of the support tab and a distal end attached to the interior surface of the cove region of the edge slat operatively associated with the support tab to exert a bias spring force onto the support tab to move the shield element into the operative position thereof. an elongate shield element adjacent to the lower trailing edge of the edge slat along a lengthwise extent thereof, and a support tab having a distal end fixed to the shield element and a proximal end fixed to the interior surface of the cove region of the edge slat adjacent the upper trailing edge thereof, wherein in response to movement of the edge slat between the deployed and retracted conditions thereof the support tab is configured to allow movement of the shield element towards and away from the lower trailing edge of the edge slat between an operative position where the shield element is positioned adjacent to the lower trailing edge of the edge slat along the lengthwise extent thereof and an inoperative position where the edge slat is spaced from the lower trailing edge of the edge slat and positioned in the cove region thereof, respectively; wherein the forward edge slat further comprises: an S-shaped spring leaf element having one end fixed to the proximal end of the support tab and a distal end attached to the interior surface of the cove region of the edge slat operatively associated with the support tab to exert a bias spring force onto the support tab to move the shield element into the operative position thereof.
A computer-implemented method for monitoring communication, comprising: intercepting two or more communication links, which are part of a communication system that includes a plurality of the communication links, wherein intercepting the two or more communication links comprises monitoring first and second resources of the communication system used by respective first and second communication links during respective first and second different time intervals; decoding data content carried by the two or more communication links; computing first and second mathematical fingerprints related to the two or more intercepted communication links by evaluating statistical characteristics of the data content decoded from the two or more communication links, wherein computing the first and second fingerprints comprises evaluating first statistical characteristics of a first data content decoded from the first communication link during the first time interval and evaluating second statistical characteristics of second data content decoded from the second communication links during the second time interval; comparing the first and second fingerprints to quantify a similarity between the first and second fingerprints, wherein comparing the first and second fingerprints comprises detecting that the first communication link switched from the first resource to the second resource between the first time interval and the second time interval to form the second communication link; and performing a predefined action with respect to the two or more communication links responsively to the similarity. intercepting two or more communication links, which are part of a communication system that includes a plurality of the communication links, wherein intercepting the two or more communication links comprises monitoring first and second resources of the communication system used by respective first and second communication links during respective first and second different time intervals; decoding data content carried by the two or more communication links; computing first and second mathematical fingerprints related to the two or more intercepted communication links by evaluating statistical characteristics of the data content decoded from the two or more communication links, wherein computing the first and second fingerprints comprises evaluating first statistical characteristics of a first data content decoded from the first communication link during the first time interval and evaluating second statistical characteristics of second data content decoded from the second communication links during the second time interval; comparing the first and second fingerprints to quantify a similarity between the first and second fingerprints, wherein comparing the first and second fingerprints comprises detecting that the first communication link switched from the first resource to the second resource between the first time interval and the second time interval to form the second communication link; and performing a predefined action with respect to the two or more communication links responsively to the similarity.
A method for path computation in a network, comprising: if an Internet Protocol, IP, path computation element, PCE, fails to perform path computation in an IP network, triggering an optical PCE to perform path computation in an optical network; if the optical PCE fails to perform path computation in the optical network, returning, by the optical PCE, optical network collision resource group information to the IP PCE; and recomputing, by the IP PCE, a path from a source node to a destination node according to the optical network collision resource group information. if an Internet Protocol, IP, path computation element, PCE, fails to perform path computation in an IP network, triggering an optical PCE to perform path computation in an optical network; if the optical PCE fails to perform path computation in the optical network, returning, by the optical PCE, optical network collision resource group information to the IP PCE; and recomputing, by the IP PCE, a path from a source node to a destination node according to the optical network collision resource group information.
Apparatus for conducting at least one glass fiber cable through a hole leading through a building wall with an outer clamping body, which overlaps the hole on the outer side of the building and engages the building wall and has an opening for conducting the glass fiber cable, and an inner clamping body, which overlaps the hole on the inner side of the building and engages the building wall, for conducting the glass fiber cable, wherein the clamping bodies (3, 8) may be pressed tightly against the building wall with the hole extending horizontally and also at an angle thereto through the building wall, wherein the inner clamping body has a tubular section, which is inserted into the hole and a frame-like section, which extends at right angles thereto, in the unloaded state, and may be pressed against the building wall, wherein the two sections (9, 14) are flexibly connected together, characterized in that pivotally inserted into the opening in the outer clamping body there is an apertured tube, which surrounds the glass fiber cable passed though in the bore at least over a proportion of its length at a radial spacing, that the tubular section of the inner clamping body has an outwardly open recess (25, 26) for receiving and guiding the glass fiber cable whilst the remainder of the inner cross section of the tubular section is closed and that the apertured tube is foldable about its longitudinal axis so that the inner clamping body, the apertured tube and the outer clamping body may be placed onto a glass fibre cable previously passed through the hole in the wall.
A microwave heating device comprising: a heating chamber for accommodating a heating-target object; a microwave generating unit for generating microwaves; and a waveguide structure antenna having a ceiling surface and side wall surfaces (10a, 10b, 10c) defining a waveguide structure section having a rectangular cross section, and a front opening, the waveguide structure antenna emitting the microwaves from the front opening into the heating chamber, wherein the waveguide structure antenna further includes a coupling part joined to the ceiling surface to couple the microwaves into an internal space of the waveguide structure section, the waveguide structure section includes at least one microwave extraction opening formed on the ceiling surface to emit circularly polarized waves from the microwave extraction opening into the heating chamber, the at least one microwave extraction opening includes at least a pair of microwave extraction openings that is symmetrical with respect to the pipe axis of the waveguide structure section, wherein the pipe axis is the center line of the waveguide structure section which passes through the center of a cross section of the waveguide structure section and extends in microwave transmission direction, and the waveguide structure section has a flat area between the pair of microwave extraction openings, characterized in that the shortest distance between the pair of microwave extraction openings falls within a range from 1/8 to 1/4 of the width of the waveguide structure section. a heating chamber for accommodating a heating-target object; a microwave generating unit for generating microwaves; and a waveguide structure antenna having a ceiling surface and side wall surfaces (10a, 10b, 10c) defining a waveguide structure section having a rectangular cross section, and a front opening, the waveguide structure antenna emitting the microwaves from the front opening into the heating chamber, wherein the waveguide structure antenna further includes a coupling part joined to the ceiling surface to couple the microwaves into an internal space of the waveguide structure section, the waveguide structure section includes at least one microwave extraction opening formed on the ceiling surface to emit circularly polarized waves from the microwave extraction opening into the heating chamber, the at least one microwave extraction opening includes at least a pair of microwave extraction openings that is symmetrical with respect to the pipe axis of the waveguide structure section, wherein the pipe axis is the center line of the waveguide structure section which passes through the center of a cross section of the waveguide structure section and extends in microwave transmission direction, and the waveguide structure section has a flat area between the pair of microwave extraction openings, characterized in that the shortest distance between the pair of microwave extraction openings falls within a range from 1/8 to 1/4 of the width of the waveguide structure section.
Method for implementing a performance monitoring function in a telecommunication network according to data obtained through a Forward Error Correction function carried out on blocks of received data, said blocks being classified either as corrected blocks or uncorrected blocks through said Forward Error Correction function, said uncorrected blocks showing a number of errors exceeding correction capacity of said Forward Error Correction function, wherein in that said performance monitoring function is calculated by using together information regarding said corrected blocks and information regarding said uncorrected blocks, said method being characterised in that said information regarding said uncorrected blocks comprises: - a number of severely corrected base reference time periods, SCS, wherein a loss of signal defect has occurred, or a loss of FEC frame alignment has occurred, or at least one, UB, of said uncorrected blocks has been detected, in that said information regarding said corrected blocks comprises: - a number of corrected errors, BCE, in a base reference time period other than said severely corrected base reference time periods, SCS. and in that said performance monitoring, PM, function is calculated according to the following relation, applied in an iterative way on a determined total time intervals, NSEC, consisting in a number of base reference time periods: BER IN = ΣBCE / NSEC - ΣSCS wherein: Σ BCE is a summation of said number of corrected errors, BCE, and ΣSCS is a summation of said number of severely corrected base reference time periods, SCS, in said determined total time intervals, NSEC; BER IN is the bit error rate which constitutes a measure of said performance monitoring, PM, function in said total time intervals, NSEC. - a number of severely corrected base reference time periods, SCS, wherein a loss of signal defect has occurred, or a loss of FEC frame alignment has occurred, or at least one, UB, of said uncorrected blocks has been detected, - a number of corrected errors, BCE, in a base reference time period other than said severely corrected base reference time periods, SCS.
A connection element of a windshield wiper, the windshield wiper having a fixing stage and a wiper arm having a through opening and a penetrating portion; the connection element comprising: a combining stage having: a fastening portion; a containing chamber, one end of the wiper arm is contained in the containing chamber, the containing chamber forms an end wall extended along a direction opposite to the fastening portion and two side walls which are vertical to the end wall, each side wall forms an engaging portion; and a block; wherein the end wall has a groove, the fastening portion fastens the fixing stage, the penetrating portion penetrates in the end wall via the groove, the block embeds the corresponding through opening, the engaging portion engages two sides of the wiper arm; characterized in that a through groove is defmed on the side wall and corresponding to the engaging portion; a direction of opening of the through groove is vertical to that of protruding the engaging portion. a combining stage having: a fastening portion; a containing chamber, one end of the wiper arm is contained in the containing chamber, the containing chamber forms an end wall extended along a direction opposite to the fastening portion and two side walls which are vertical to the end wall, each side wall forms an engaging portion; and a block; wherein the end wall has a groove, the fastening portion fastens the fixing stage, the penetrating portion penetrates in the end wall via the groove, the block embeds the corresponding through opening, the engaging portion engages two sides of the wiper arm; characterized in that a through groove is defmed on the side wall and corresponding to the engaging portion; a direction of opening of the through groove is vertical to that of protruding the engaging portion. a fastening portion; a containing chamber, one end of the wiper arm is contained in the containing chamber, the containing chamber forms an end wall extended along a direction opposite to the fastening portion and two side walls which are vertical to the end wall, each side wall forms an engaging portion; and a block; wherein the end wall has a groove, the fastening portion fastens the fixing stage, the penetrating portion penetrates in the end wall via the groove, the block embeds the corresponding through opening, the engaging portion engages two sides of the wiper arm; characterized in that a through groove is defmed on the side wall and corresponding to the engaging portion; a direction of opening of the through groove is vertical to that of protruding the engaging portion.
A monoclonal antibody, or antigen-binding fragment thereof, that specifically binds galectin1 (Gall) comprising six CDRs: CDR-H1, CDR-H2, CDR-H3, CDR-L1, CDR-L2, and CDR-L3, wherein CDR-H1 consists of residues 31-35 of SEQ ID NO: 7, CDR-H2 consists of residues 50-66 of SEQ ID NO: 7, CDR-H3 consists of residues 99-107 of SEQ ID NO: 7, CDR-L1 consists of residues 23-36 of SEQ ID NO: 9, CDR-L2 consists of residues 52-58 of SEQ ID NO: 9, and CDR-L3 consists of residues 91-99 of SEQ ID NO: 9.
An apparatus comprising: a clothes washing machine; a first antenna that is attached to an interior of the washing machine in a location to receive radio frequency signals that emanate from an interior of the washing machine; a detector that is operably coupled to the antenna to detect the radio frequency signals; and a warning device that is operably coupled to the detector to receive a signal from the detector and provide an alert when the detector has detected a radio frequency signal from the interior of the washing machine, characterized in that the apparatus further comprises a second antenna that is attached to an exterior of the washing machine in a location to receive radio frequency signals from outside the washing machine, wherein the radio frequency signals have a frequency in a band designated for mobile phone signals, and wherein the detector compares the radio frequency signals received by the first antenna and those received by the second antenna to determine whether to send the signal receivable by the warning device. a clothes washing machine; a first antenna that is attached to an interior of the washing machine in a location to receive radio frequency signals that emanate from an interior of the washing machine; a detector that is operably coupled to the antenna to detect the radio frequency signals; and a warning device that is operably coupled to the detector to receive a signal from the detector and provide an alert when the detector has detected a radio frequency signal from the interior of the washing machine, characterized in that the apparatus further comprises a second antenna that is attached to an exterior of the washing machine in a location to receive radio frequency signals from outside the washing machine, wherein the radio frequency signals have a frequency in a band designated for mobile phone signals, and wherein the detector compares the radio frequency signals received by the first antenna and those received by the second antenna to determine whether to send the signal receivable by the warning device.