mhurhangee/ep-ind-claims huggingface dataset:
A program for causing an information processing apparatus performing wireless communication with a communication apparatus to execute a communication method for connecting the communication apparatus with an access point through wireless LAN, wherein the communication method comprises: receiving, from the communication apparatus, one or a plurality of pieces of specifying information each indicating an access point detected by the communication apparatus; displaying a selection screen for selecting an access point, based on the received one or a plurality of pieces of specifying information, selecting, in case of a plurality of pieces, one access point in the selection screen based on an instruction by a user, and allowing the user to input authentication information; acquiring the authentication information that is input to the information processing apparatus by the user; performing connection confirmation for a connection with the selected access point, based on the specifying information and the acquired authentication information; determining (S408, S409) whether to connect the communication apparatus to the selected access point, in accordance with whether or not the connection confirmation is successful; and in a case where the connection confirmation is successful and it is determined to connect the communication apparatus to the access point, transmitting the acquired authentication information and information for instructing the communication apparatus to connect to the selected access point, to the communication apparatus. receiving, from the communication apparatus, one or a plurality of pieces of specifying information each indicating an access point detected by the communication apparatus; displaying a selection screen for selecting an access point, based on the received one or a plurality of pieces of specifying information, selecting, in case of a plurality of pieces, one access point in the selection screen based on an instruction by a user, and allowing the user to input authentication information; acquiring the authentication information that is input to the information processing apparatus by the user; performing connection confirmation for a connection with the selected access point, based on the specifying information and the acquired authentication information; determining (S408, S409) whether to connect the communication apparatus to the selected access point, in accordance with whether or not the connection confirmation is successful; and in a case where the connection confirmation is successful and it is determined to connect the communication apparatus to the access point, transmitting the acquired authentication information and information for instructing the communication apparatus to connect to the selected access point, to the communication apparatus.
A method of creating an orthopaedic device, comprising: a) receiving information about a surgical site of a patient; b) using the information about the surgical site to determine a surgical procedure step for creating an anatomic structure attribute; c) using information about the anatomic structure attribute to determine a custom attribute for an orthopaedic device; and d) manufacturing the orthopaedic device to include the custom attribute; characterised in that using the information about the surgical site further comprises estimating a level of difficulty of the surgical procedure step. a) receiving information about a surgical site of a patient; b) using the information about the surgical site to determine a surgical procedure step for creating an anatomic structure attribute; c) using information about the anatomic structure attribute to determine a custom attribute for an orthopaedic device; and d) manufacturing the orthopaedic device to include the custom attribute; characterised in that using the information about the surgical site further comprises estimating a level of difficulty of the surgical procedure step.
A film cutting and storage box which cuts the roll shaped film in desired sizes and includes - first body that carries the roll shaped film, - a second body that is attached to the first body from one of its edges in a way that allow its rotation over this edge and as a result of this rotation movement, Second body compress the film on the cutting part of the first body for cutting the portion of the film that is separated from the roll, - a third body that hold the portion of the film that is separated from the roll and placed in the volume between the first body and second body, - a knife placed in the one of the cutting parts, - tension walls that are placed near the knife at the cutting parts and - a third body which includes a tension edge whose distance from roll axis is bigger than the maximum radius of the roll and a holding surface that lies along a convex curve between the tension edge and closed position tip of inner wall characterized with a knife placed upon first body; first tension walls that are placed near the knife when closed on the second body; second tension walls that are placed near the first tension walls and have the same size with the knife; and a third tension wall which has the same size with first tension walls and placed near the second tension walls when closed. - first body that carries the roll shaped film, - a second body that is attached to the first body from one of its edges in a way that allow its rotation over this edge and as a result of this rotation movement, Second body compress the film on the cutting part of the first body for cutting the portion of the film that is separated from the roll, - a third body that hold the portion of the film that is separated from the roll and placed in the volume between the first body and second body, - a knife placed in the one of the cutting parts, - tension walls that are placed near the knife at the cutting parts and - a third body which includes a tension edge whose distance from roll axis is bigger than the maximum radius of the roll and a holding surface that lies along a convex curve between the tension edge and closed position tip of inner wall
An entertainment device comprising: a light-weight toy (100A, 100B, 150B, 230A) and tether (209B, 120A) having a length and first and second ends, whereby the tether is a fixed-length tether having a thickness of less than 300 micron; wherein first and second ends are modified with a low tack adhesive (212A, 212B) having a tackiness sufficient to allow reversible adhesive coupling of the first end of the tether (209B, 120A) to a person and the second end of the tether (209B, 120A) is reversible adhesive coupled to the toy (100A, 100B, 150B, 230A); and wherein the light-weight toy (100A, 100B, 150B, 230A) comprises a pair of wings and a control circuit that controls movement of the pair of wings as a function of proximity of the toy to a surface selected from the group consisting of a floor of a room, a bottom surface of a storage container, and a body surface.
A method of constructing a tire, in particular a self-inflating tire, the method comprising: building a green tire carcass having a tire cavity defined by a tire inner liner, first and second sidewalls extending respectively from first and second tire bead regions to a tire tread region; molding a groove for receiving an air tube within a green tire carcass wall at a prescribed radial location, the groove having an access opening, a primary internal groove chamber and a secondary groove chamber adjacent to and communicating with the internal groove chamber for operationally receiving an air-pump tube extended portion; and the groove having a partial passageway located at a prescribed groove outlet location along the groove for receiving the air tube, the partial passageway extending from the groove partially through the tire carcass wall toward the tire cavity and having an axially inward terminal end separated from the tire inner liner by a tire carcass barrier of reduced sectional thickness relative to the tire carcass wall, wherein the tire carcass barrier layer is configured for being removed in a tire post-cure operation to create a through-bore from the groove to the tire cavity; curing the green tire carcass to form a cured tire carcass; and removing the tire carcass barrier in a post-cure operation to create a through-bore from the groove to the tire cavity. building a green tire carcass having a tire cavity defined by a tire inner liner, first and second sidewalls extending respectively from first and second tire bead regions to a tire tread region; molding a groove for receiving an air tube within a green tire carcass wall at a prescribed radial location, the groove having an access opening, a primary internal groove chamber and a secondary groove chamber adjacent to and communicating with the internal groove chamber for operationally receiving an air-pump tube extended portion; and the groove having a partial passageway located at a prescribed groove outlet location along the groove for receiving the air tube, the partial passageway extending from the groove partially through the tire carcass wall toward the tire cavity and having an axially inward terminal end separated from the tire inner liner by a tire carcass barrier of reduced sectional thickness relative to the tire carcass wall, wherein the tire carcass barrier layer is configured for being removed in a tire post-cure operation to create a through-bore from the groove to the tire cavity; curing the green tire carcass to form a cured tire carcass; and removing the tire carcass barrier in a post-cure operation to create a through-bore from the groove to the tire cavity.
Truck mixer with safety device, comprising a vehicle and a drum mounted on said vehicle and rotatable around an axis of rotation, and also comprising a first main drive member connected to said drum by means of a transmission member to make it rotate, during normal use of said truck mixer to keep the cement mix present inside the drum mixed, a first entrance shaft which connects said first main drive member to said transmission member and an exit shaft which connects said transmission member to said drum, characterized in that said first main drive member is of the electric type and in that it comprises a second auxiliary drive member (17, 117) configured to function only as a safety device and able to be selectively actuated in a condition of non-usability, even temporary, of said first drive member, said second auxiliary drive member (17, 117) being of the electric or pneumatic type and provided with respective electric or pneumatic feeding devices (30, 150, 151) and being connected to said transmission member by means of a second entrance shaft, selective connection means being interposed between said transmission member and said second auxiliary drive member.
Method of increasing the energy efficiency of an air compressor, comprising operating an air compressor with a compressor oil, characterized in that the compressor oil comprises: (i) 1 wt.% to 30 wt.% of a polyalkyl methacrylate-based viscosity index improver comprising: (a) 0 wt.% to 25 wt.% of methyl methacrylate; (b) 75 wt.% to 100 wt.% of straight-chained or branched C10-18 alkyl (meth)acrylates; and (c) 0 wt.% to 2 wt.% of straight-chained or branched C5-9 alkyl (meth)acrylates or straight-chained or branched C20-24 alkyl (meth)acrylates, wherein the weight average molecular weight (M w) of the polyalkyl (meth)acrylate-based viscosity index improver is in the range of 5,000 g/mol to 400,000 g/mol; (ii) 70 wt.% to 99 wt.% of a base oil selected from API group II, III, IV and V and mixtures thereof; and (iii) optionally, up to 2.5 wt.% of a performance package comprising one or more further additives, wherein the compressor oil has a viscosity index of at least 140, preferably at least 160, more preferably at least 180. (i) 1 wt.% to 30 wt.% of a polyalkyl methacrylate-based viscosity index improver comprising: (a) 0 wt.% to 25 wt.% of methyl methacrylate; (b) 75 wt.% to 100 wt.% of straight-chained or branched C10-18 alkyl (meth)acrylates; and (c) 0 wt.% to 2 wt.% of straight-chained or branched C5-9 alkyl (meth)acrylates or straight-chained or branched C20-24 alkyl (meth)acrylates, wherein the weight average molecular weight (M w) of the polyalkyl (meth)acrylate-based viscosity index improver is in the range of 5,000 g/mol to 400,000 g/mol; (a) 0 wt.% to 25 wt.% of methyl methacrylate; (b) 75 wt.% to 100 wt.% of straight-chained or branched C10-18 alkyl (meth)acrylates; and (c) 0 wt.% to 2 wt.% of straight-chained or branched C5-9 alkyl (meth)acrylates or straight-chained or branched C20-24 alkyl (meth)acrylates, wherein (ii) 70 wt.% to 99 wt.% of a base oil selected from API group II, III, IV and V and mixtures thereof; and (iii) optionally, up to 2.5 wt.% of a performance package comprising one or more further additives,
An isolated peptide of at most 100 amino-acid, which has the capacity of inhibiting the viral replication of Paramyxovirinae, comprising an amino acid sequence of formula: Valine-Xaa1-Xaa2-Glycine-Leucine-Xaa3-Xaa4-Xaa5-Xaa6-Xaa7-Xaa8, wherein: Xaa1 is glutamine, serine, asparagine, lysine or an equivalent polar amino acid; Xaa2 is glutamic acid, aspartic acid asparagine, lysine, or an equivalent negatively charged (or acid) amino acid; Xaa3 is glutamic acid, aspartic acid, lysine or glutamine, serine or asparagine; Xaa4 is cysteine, isoleucine; Xaa5 is isoleucine, leucine or valine or an equivalent apolar aliphatic amino acid; Xaa6 is glutamine, lysine, arginine or aspartic acid; Xaa7 is alanine, or phenylalanine or an equivalent apolar amino acid; Xaa8 is isoleucine, leucine or valine or an equivalent apolar aliphatic amino acid. Xaa1 is glutamine, serine, asparagine, lysine or an equivalent polar amino acid; Xaa2 is glutamic acid, aspartic acid asparagine, lysine, or an equivalent negatively charged (or acid) amino acid; Xaa3 is glutamic acid, aspartic acid, lysine or glutamine, serine or asparagine; Xaa4 is cysteine, isoleucine; Xaa5 is isoleucine, leucine or valine or an equivalent apolar aliphatic amino acid; Xaa6 is glutamine, lysine, arginine or aspartic acid; Xaa7 is alanine, or phenylalanine or an equivalent apolar amino acid; Xaa8 is isoleucine, leucine or valine or an equivalent apolar aliphatic amino acid.
A measurement system for performing measurement by Brillouin scattering analysis, the system comprising a laser emitter device configured to emit an incident wave and a reference wave (v0-vB), the incident wave presenting an incident frequency and the reference wave presenting a reference frequency (v0-vB), the reference frequency (v0-vB) being shifted from the incident frequency by a predetermined value (vB), the system being configured, when it is connected to at least a first end of an optical fiber: - to project the incident wave into said first end of the fiber; - to receive in return a backscattered wave (ν0-νS) at the first end of the fiber; - to generate a composite wave (ν0-S, 0-B) combining at least the backscattered wave (ν0-νS) and the reference wave (ν0-νB); - to determine at least one property relating to the fiber by analyzing a Brillouin spectrum of the composite wave (ν0-S, 0-B); the system being characterized in that the incident wave and the reference wave come from a dual-frequency vertical-cavity surface-emitting laser source forming part of the laser emitter device. - to project the incident wave into said first end of the fiber; - to receive in return a backscattered wave (ν0-νS) at the first end of the fiber; - to generate a composite wave (ν0-S, 0-B) combining at least the backscattered wave (ν0-νS) and the reference wave (ν0-νB); - to determine at least one property relating to the fiber by analyzing a Brillouin spectrum of the composite wave (ν0-S, 0-B);
A pharmacological chaperone which is a melanocortin 4 receptor (MC4R) polypeptide antagonist having the following structure: wherein the pharmacological chaperone binds to a mutant MC4R polypeptide, for use in the treatment of obesity or binge eating, wherein the chaperone is to be administered to an individual who has a mutation in the MC4R gene associated with obesity, and wherein the mutation is selected from the group consisting of T11A, S58C, P78L, N97D, G98R, I102S, I106P, Y157S, R165Q, R165W, A175T, L250Q, C271R, Y287X, I316L, I316S and I317T relative to the wild-type MC4R polypeptide sequence set forth in SEQ ID NO:2.
A power storage device comprising: a charge/discharge cell unit in which a positive electrode collector and a negative electrode collector are separated by a partition wall; a storage tank for a positive electrode storing an electrolyte containing a positive electrode active material; a storage tank for a negative electrode storing an electrolyte containing a negative electrode active material; and a circulation pump and a liquid delivery pipeline for supplying under a circulation the electrolytes (7, 11) stored in the storage tank for the positive electrode and the storage tank for the negative electrode to the positive electrode and the negative electrode respectively, wherein micro carrier particles are contained in the electrolyte stored in the storage tank for the negative electrode, the active material for the negative electrode is precipitated to a surface of the micro carrier particles during a charging, and the active material for the negative electrode is dissolved from the micro carrier particles during a discharging, thereby performing a charge/discharge, and characterized in that the negative electrode active material in a solid state is formed on an inner wall of the storage tank for the negative electrode, the negative electrode active material is zinc, lead or tin, and the electrolyte is an aqueous solution. a charge/discharge cell unit in which a positive electrode collector and a negative electrode collector are separated by a partition wall; a storage tank for a positive electrode storing an electrolyte containing a positive electrode active material; a storage tank for a negative electrode storing an electrolyte containing a negative electrode active material; and a circulation pump and a liquid delivery pipeline for supplying under a circulation the electrolytes (7, 11) stored in the storage tank for the positive electrode and the storage tank for the negative electrode to the positive electrode and the negative electrode respectively, wherein micro carrier particles are contained in the electrolyte stored in the storage tank for the negative electrode, the active material for the negative electrode is precipitated to a surface of the micro carrier particles during a charging, and the active material for the negative electrode is dissolved from the micro carrier particles during a discharging, thereby performing a charge/discharge, and characterized in that the negative electrode active material in a solid state is formed on an inner wall of the storage tank for the negative electrode, the negative electrode active material is zinc, lead or tin, and the electrolyte is an aqueous solution.
A method for rendering and displaying a 3D tubular structure's curved planar reformat view, wherein the viewing direction of the curved planar reformat view is coupled to the viewing angle on a segmented or raw representation of the 3D tubular structure's rendered voxel volume to be visualized or, alternatively, to the C-arm geometry of a 3D rotational angiography device's C-arm system; wherein a 2D projection image showing a two-dimensional projection of said 3D tubular structure is re-projected into the coordinate space of the curved planar reformat view by being submitted to a spatial deformation algorithm yielding transformed image data matching with the spatial course of the 3D tubular structure in the curved planar reformat view's coordinate space.
A battery pack comprising: first and second heater modules (22L, 23L) which warm inside of the battery pack and comprise lead wires (44L, 45L) connected thereto; a power supply cable to which the lead wires (44L, 45L) of the first and second heater modules (22L, 23L) are crimped and connected; and a temperature sensor which is placed inside of the battery pack and which is capable of detecting a temperature increase or decrease of the first heater module, characterized in that the lead wire of the first heater module, a temperature of which is detectable by the temperature sensor, and the lead wire of the second heater module, a temperature of which is not detectable by the temperature sensor, are simultaneously crimped and connected to a same position on the power supply cable. first and second heater modules (22L, 23L) which warm inside of the battery pack and comprise lead wires (44L, 45L) connected thereto; a power supply cable to which the lead wires (44L, 45L) of the first and second heater modules (22L, 23L) are crimped and connected; and a temperature sensor which is placed inside of the battery pack and which is capable of detecting a temperature increase or decrease of the first heater module, characterized in that the lead wire of the first heater module, a temperature of which is detectable by the temperature sensor, and the lead wire of the second heater module, a temperature of which is not detectable by the temperature sensor, are simultaneously crimped and connected to a same position on the power supply cable.
A process for the preparation of a compound of Formula I, or a pharmaceutically acceptable salt thereof: the process comprising: coupling a meso anhydride of Formula III with an ester compound of Formula IV in the presence of a chiral ligand, to provide a compound of Formula V: coupling the compound of Formula V with a compound of Formula VI to form a thiol, hydrolyzing the thiol with a hydrolyzing agent to form a compound of Formula VIII; deprotecting the compound of Formula VIII to form the compound of Formula II: and coupling the compound of Formula II with a PEG-maleimide compound to form the compound of Formula I; wherein X is O or CH 2; Z is O or CH 2; L is p=0 or 1; r=1-8; t=1, 2 or 3; w=1, 2, or 3; PEG is a polyethylene glycol moiety; R 1 represents an acid protective group; and R 4 represents a thiol protecting group. coupling a meso anhydride of Formula III with an ester compound of Formula IV in the presence of a chiral ligand, to provide a compound of Formula V: coupling the compound of Formula V with a compound of Formula VI to form a thiol, hydrolyzing the thiol with a hydrolyzing agent to form a compound of Formula VIII; deprotecting the compound of Formula VIII to form the compound of Formula II: and coupling the compound of Formula II with a PEG-maleimide compound to form the compound of Formula I; X is O or CH 2; Z is O or CH 2; L is p=0 or 1; r=1-8; t=1, 2 or 3; w=1, 2, or 3; PEG is a polyethylene glycol moiety; R 1 represents an acid protective group; and R 4 represents a thiol protecting group.