mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method to increase security of a blockchain-implemented transaction, the transaction including participation from a plurality of participating nodes, each participating node having its own public key (P i D) and private key, each participating node participating as a message originator, selector, and propagator, the method comprising: receiving ciphertext from a prior node; determining whether a participating node is a selector node for said ciphertext received from the prior node; when the participating node is the selector node for said ciphertext: selecting a subset (366, 368) of said ciphertext; decrypting, using the private key of the participating node, the selected subset of said ciphertext to provide opted ciphertext for propagating to a next node; and transmitting said opted ciphertext to the next node; and when the participating node is other than the selector node for said ciphertext: decrypting, using the private key of the participating node, said ciphertext received from the prior node; and transmitting the decrypted ciphertext to the next node. receiving ciphertext from a prior node; determining whether a participating node is a selector node for said ciphertext received from the prior node; when the participating node is the selector node for said ciphertext: selecting a subset (366, 368) of said ciphertext; decrypting, using the private key of the participating node, the selected subset of said ciphertext to provide opted ciphertext for propagating to a next node; and transmitting said opted ciphertext to the next node; and selecting a subset (366, 368) of said ciphertext; decrypting, using the private key of the participating node, the selected subset of said ciphertext to provide opted ciphertext for propagating to a next node; and transmitting said opted ciphertext to the next node; and when the participating node is other than the selector node for said ciphertext: decrypting, using the private key of the participating node, said ciphertext received from the prior node; and transmitting the decrypted ciphertext to the next node. decrypting, using the private key of the participating node, said ciphertext received from the prior node; and transmitting the decrypted ciphertext to the next node.
A method associated with use of an industrial testing device, the method comprising the steps of: selecting a selected data center from a list of available data centers residing in a remote computer network external to the device, the selected data center corresponding to a geographical location of the network; and, configuring communication features for communication between the device and the selected data center; and, wherein the device and the remote computer network communicate in accordance with the geographical location and the communication features; the step of selecting the selected data center further includes the step of reading a regulation table, wherein the regulation table comprises recommended data center locations and wherein the selected data center is selected from the recommended data center locations; and wherein the regulation table is stored in a device memory located in the device. selecting a selected data center from a list of available data centers residing in a remote computer network external to the device, the selected data center corresponding to a geographical location of the network; and, configuring communication features for communication between the device and the selected data center; and,
Cooling jacket for an electric machine, with an inner shell and an outer shell and a cooling chamber which extends between the inner shell and the outer shell and through which a coolant can flow, wherein the inner shell and the outer shell are connected by at least one integrally bonded connection, and the cooling chamber is hermetically sealed by the integrally bonded connection, characterized in that the at least one integrally bonded connection between the inner shell and the outer shell is designed as an adhesive connection, wherein an adhesive surface of the inner shell and an adhesive surface of the outer shell form a conical connection, wherein the adhesive surface of the inner shell is designed at least in sections as an internal cone and an associated adhesive surface of the outer shell is designed at least in sections an external cone, wherein centring of the inner shell and the outer shell is also achieved by the conical connection.
An ultrasensitive ratio metric capacitance dilatometer cell, comprising: a first cell portion configured to nest with a second cell portion to define a cell volume, the first cell portion and second cell portion being separated by a gap extending therebetween; a first parallel plate capacitor comprising: a first conductive plate coupled to the first cell portion, and a second conductive plate coupled to the second cell portion, wherein the first conductive plate is configured to at least partially overlap with the second conductive plate; a second parallel plate capacitor, the second parallel plate capacitor being formed between the first and second cell portions; and a channel extending across the gap from the first cell portion to the second cell portion, the channel comprising: a first wall being coupled to the first cell portion; and a second wall being coupled to the second cell portion, the second wall configured to oppose the first wall; the first and second opposing walls (41; 42) being configured to receive a sample therebetween; wherein the dilatometer cell is configured to measure a ratio metric capacitance change between the first and second parallel plate capacitors (201; 202) as the sample varies in size between the first and second walls (41; 42). a first cell portion configured to nest with a second cell portion to define a cell volume, the first cell portion and second cell portion being separated by a gap extending therebetween; a first parallel plate capacitor comprising: a first conductive plate coupled to the first cell portion, and a second conductive plate coupled to the second cell portion, wherein the first conductive plate is configured to at least partially overlap with the second conductive plate; a first conductive plate coupled to the first cell portion, and a second conductive plate coupled to the second cell portion, wherein the first conductive plate is configured to at least partially overlap with the second conductive plate; a second parallel plate capacitor, the second parallel plate capacitor being formed between the first and second cell portions; and a channel extending across the gap from the first cell portion to the second cell portion, the channel comprising: a first wall being coupled to the first cell portion; and a second wall being coupled to the second cell portion, the second wall configured to oppose the first wall; the first and second opposing walls (41; 42) being configured to receive a sample therebetween; a first wall being coupled to the first cell portion; and a second wall being coupled to the second cell portion, the second wall configured to oppose the first wall; the first and second opposing walls (41; 42) being configured to receive a sample therebetween; wherein the dilatometer cell is configured to measure a ratio metric capacitance change between the first and second parallel plate capacitors (201; 202) as the sample varies in size between the first and second walls (41; 42).
A wireless sensor network of devices including a sensor and a coordinator: the sensor comprising sensing means operable to detect values of a parameter; transmission and reception means for wireless communication with other devices in the network; and sensor control means operable to control a sleep pattern of the sensor; and the coordinator comprising transmission and reception means for wireless communication with other devices in the network; wherein a plurality of predefined sleep patterns is provided, the choice of a suitable sleep pattern being determined according to parameter value thresholds, each threshold defining a boundary between a lower wake-up and a higher wake-up sleep pattern; and wherein the sensor transmission means is operable to transmit value information as to the parameter values and the coordinator transmission means is operable to transmit an indication of a suitable sensor sleep pattern determined centrally by comparing the transmitted value information with the thresholds for the parameter.
An airfoil for a turbine engine comprising: an airfoil having pressure and suction sides (72, 74) and extending in a radial direction from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip, wherein the airfoil has a curve corresponding to a relationship between a trailing edge sweep angle and a span position, characterised in that: the trailing edge sweep angle is in a range of 10° to 20° in a range of 40-70% span position, and the trailing edge sweep angle is positive from 0% span to at least 95% span, wherein the trailing edge sweep angle (σ TE) is an acute angle between a line tangent to a trailing edge of the airfoil and a first plane perpendicular to a relative velocity vector (Vr TE), the trailing edge sweep angle (σ TE) is measured in a second plane which contains both the relative velocity vector (Vr TE) and the line and is perpendicular to the first plane, and a negative trailing edge sweep angle (σ TE) indicates that the trailing edge is locally oriented in a direction opposite the relative velocity vector (Vr TE) and a positive trailing edge sweep angle (σ TE) indicates that the trailing edge is locally oriented in the same direction as the relative velocity vector (Vr TE). an airfoil having pressure and suction sides (72, 74) and extending in a radial direction from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip, wherein the airfoil has a curve corresponding to a relationship between a trailing edge sweep angle and a span position, characterised in that: the trailing edge sweep angle is in a range of 10° to 20° in a range of 40-70% span position, and the trailing edge sweep angle is positive from 0% span to at least 95% span, wherein the trailing edge sweep angle (σ TE) is an acute angle between a line tangent to a trailing edge of the airfoil and a first plane perpendicular to a relative velocity vector (Vr TE), the trailing edge sweep angle (σ TE) is measured in a second plane which contains both the relative velocity vector (Vr TE) and the line and is perpendicular to the first plane, and a negative trailing edge sweep angle (σ TE) indicates that the trailing edge is locally oriented in a direction opposite the relative velocity vector (Vr TE) and a positive trailing edge sweep angle (σ TE) indicates that the trailing edge is locally oriented in the same direction as the relative velocity vector (Vr TE).
A method of dispensing a volatile material, the method comprising the steps of: providing power to a volatile material diffuser having a diffusion element; and operating the diffusion element for a randomly determined period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a randomly determined duty cycle; wherein the method further includes the step of operating the diffusion element for a second randomly determined period of time after the first-named randomly determined period of time has elapsed, wherein the diffusion element is continuously activated and deactivated during the second period of time at a second randomly determined duty cycle. providing power to a volatile material diffuser having a diffusion element; and operating the diffusion element for a randomly determined period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a randomly determined duty cycle; wherein the method further includes the step of operating the diffusion element for a second randomly determined period of time after the first-named randomly determined period of time has elapsed, wherein the diffusion element is continuously activated and deactivated during the second period of time at a second randomly determined duty cycle.
A substrate wherein at least a portion of the substrate is coated with a continuous layer of a coating composition, wherein the coating composition comprises A) water insoluble α-(1,3→glucan) polymer having 90% or greater α-1,3-glycosidic linkages, less than 10% linkages that are not α-1,3-glycosidic linkages, less than 1 % by weight of alpha-1,3,6 glycosidic branch points, and a number average degree of polymerization in the range of from 55 to 10,000 and optionally B) dextran comprising: (i) 87-93% α-1,6 glycosidic linkages; (ii) 0.1-1.2% α-1,3-glycosidic linkages; (iii) 0.1-0.7% α-1,4-glycosidic linkages; (iv) 7.7-8.6% α-1,3,6-glycosidic linkages; and (v) 0.4-1.7% α-1,2,6-glycosidic or α-1,4,6-glycosidic linkages; wherein the weight-average molecular weight (Mw) of the dextran is about 50-200 million Daltons, the z-average radius of gyration of the dextran is about 200-280 nm. (i) 87-93% α-1,6 glycosidic linkages; (ii) 0.1-1.2% α-1,3-glycosidic linkages; (iii) 0.1-0.7% α-1,4-glycosidic linkages; (iv) 7.7-8.6% α-1,3,6-glycosidic linkages; and (v) 0.4-1.7% α-1,2,6-glycosidic or α-1,4,6-glycosidic linkages;
A glenoid implant, comprising a circular body with: a medial surface; a concave articulating surface; a circular peripheral edge; a central axis (C L); a post on the medial surface, disposed concentrically on the central axis (C L); and a point where the central axis (C L) intersects the articulating surface, characterized in that the circular body further comprises at least one axially extending flange extending from the medial surface at the peripheral edge of the circular body; wherein the concave articulating surface is defined as a surface of revolution created by sweeping an arc of constant radius about an axis of rotation to produce a non spherical articulating surface of constant radius, the axis of rotation being offset from the central axis (C L) by an angle and intersecting with the central axis (C L) at said point, and the concave articulating surface is configured such that a sphere having a diameter brought into apposition with the concave articulating surface such that the central axis (C L) of the glenoid implant intersects a center point of the sphere defines a circle of contact between the sphere and the concave articulating surface, wherein a diameter of the circle of contact is smaller than both a diameter of the circular peripheral edge of the implant and the diameter of the sphere, wherein the sphere does not contact the concave articulating surface inside of the circle of contact. a medial surface; a concave articulating surface; a circular peripheral edge; a central axis (C L); a post on the medial surface, disposed concentrically on the central axis (C L); and a point where the central axis (C L) intersects the articulating surface, characterized in that the circular body further comprises at least one axially extending flange extending from the medial surface at the peripheral edge of the circular body; wherein the concave articulating surface is defined as a surface of revolution created by sweeping an arc of constant radius about an axis of rotation to produce a non spherical articulating surface of constant radius, the axis of rotation being offset from the central axis (C L) by an angle and intersecting with the central axis (C L) at said point, and the concave articulating surface is configured such that a sphere having a diameter brought into apposition with the concave articulating surface such that the central axis (C L) of the glenoid implant intersects a center point of the sphere defines a circle of contact between the sphere and the concave articulating surface, wherein a diameter of the circle of contact is smaller than both a diameter of the circular peripheral edge of the implant and the diameter of the sphere, wherein the sphere does not contact the concave articulating surface inside of the circle of contact.
A knob for a leveling spacer for laying wall tiles, floor tiles and the like, the spacer being of the type comprising a base with spacing raised portions for the abutment of the edges of corresponding tiles and a stem, said knob having a frustum-like side wall which is interposed between a first end and a second end, said knob comprising a central female thread section connected to an internal face of said side wall by means of a plurality of ribs, said ribs having a radial extension from said central female thread section to said side wall, characterized in that said knob is provided with circumferential openings on the side wall, in that said knob has a substantially frustum-like shape with the first end having a smaller diameter, the second end having a larger diameter, and in that said ribs are fixed to said side wall substantially at an internal face of said second end.
A process for making a pumpable composition having at least 50% solids, said process comprising: (a) heating a starting broth derived from an animal source to a temperature of between 50°C and 70°C; (b) adding to the starting broth at least one anti-gelling enzyme to form a mixture comprising the starting broth and the at least one enzyme wherein fat is removed from said broth prior to step (b); (c) incubating said mixture from step (b) while maintaining said mixture at a temperature of between 50°C and 70°C; and (d) concentrating the mixture from step (c) after the incubation to obtain said pumpable composition, wherein said composition has at least 50% solids. (a) heating a starting broth derived from an animal source to a temperature of between 50°C and 70°C; (b) adding to the starting broth at least one anti-gelling enzyme to form a mixture comprising the starting broth and the at least one enzyme wherein fat is removed from said broth prior to step (b); (c) incubating said mixture from step (b) while maintaining said mixture at a temperature of between 50°C and 70°C; and (d) concentrating the mixture from step (c) after the incubation to obtain said pumpable composition, wherein said composition has at least 50% solids.
A ligand compound, represented by the following Chemical Formula 1: in Chemical Formula 1, n is an integer of 1 to 2; R 1 to R 10 are equal to or different from each other, and are independently hydrogen, a C 1 -C 20 alkyl, a C 1 -C 20 alkoxy, a C 2 -C 20 alkenyl, a C 6 -C 20 aryl, a C 7 -C 20 alkylaryl, a C 7 -C 20 arylalkyl, or silyl, and 2 or more adjacent groups among R 1 to R 10 may be connected together via an alkylidine group including a C 1 -C 20 alkyl group or a C 6 -C 20 aryl group to form a ring; R 11 is hydrogen, a halogen, a C 1 -C 20 alkyl, a C 1 -C 20 alkoxy, or a C 6 -C 20 aryl; and Q is carbon or silicon. n is an integer of 1 to 2; R 1 to R 10 are equal to or different from each other, and are independently hydrogen, a C 1 -C 20 alkyl, a C 1 -C 20 alkoxy, a C 2 -C 20 alkenyl, a C 6 -C 20 aryl, a C 7 -C 20 alkylaryl, a C 7 -C 20 arylalkyl, or silyl, and 2 or more adjacent groups among R 1 to R 10 may be connected together via an alkylidine group including a C 1 -C 20 alkyl group or a C 6 -C 20 aryl group to form a ring; R 11 is hydrogen, a halogen, a C 1 -C 20 alkyl, a C 1 -C 20 alkoxy, or a C 6 -C 20 aryl; and Q is carbon or silicon.
A ground injection agent concentration management method, comprising: injecting an injection liquid, to which an injection agent comprising at least one purification agent to decompose a contaminant, at least one activator to activate bio decomposition by the purification agent and markers comprising a first marker and a second different type of marker wherein the first marker is exhibiting similar behavior to the purification agent and the second different type of marker is exhibiting similar behavior to the activator have been added, into the ground through a water injection well; measuring a concentration of the markers in groundwater at a location spaced apart from the water injection well; estimating a concentration of the injection agent in the groundwater from the concentration of the markers; receiving, as electric signals, information regarding the concentration of the at least one purification agent and the at least one activator in the groundwater, and controlling driving of an addition tank according to the received information, so as to produce the injection liquid for injecting into the ground through the water injection well, by adding the at least one purification agent, the at least one activator and the markers to the groundwater inside the addition tank. injecting an injection liquid, to which an injection agent comprising at least one purification agent to decompose a contaminant, at least one activator to activate bio decomposition by the purification agent and markers comprising a first marker and a second different type of marker wherein the first marker is exhibiting similar behavior to the purification agent and the second different type of marker is exhibiting similar behavior to the activator have been added, into the ground through a water injection well; measuring a concentration of the markers in groundwater at a location spaced apart from the water injection well; estimating a concentration of the injection agent in the groundwater from the concentration of the markers; receiving, as electric signals, information regarding the concentration of the at least one purification agent and the at least one activator in the groundwater, and controlling driving of an addition tank according to the received information, so as to produce the injection liquid for injecting into the ground through the water injection well, by adding the at least one purification agent, the at least one activator and the markers to the groundwater inside the addition tank.