mhurhangee/ep-ind-claims huggingface dataset:
A beverage dispensing system comprising: a container; an attachment mechanism coupled to the container; and a cartridge adapted to engage the attachment mechanism,wherein the cartridge holds one or more beverage ingredients, wherein when the cartridge is engaged with the attachment mechanism, the attachment mechanism opens the cartridge to the container, characterized in that the cartridge includes a unique identifier (153A, 153B) to track a set of beverage characteristics associated with the one or more beverage ingredients of the cartridge, and further wherein the container is configured to capture the unique identifier (153A,153B) and the set of beverage characteristics, preferably wherein the container is configured to store the set of beverage characteristics, wherein the container is configured to transfer the set of beverage characteristics over a wireless network to a computing device or a network, and wherein the set of beverage characteristics and the unique identifier (153A, 153B) are useable with a software application on the computing device or the network, and the software application is configured to perform at least one of the following functions: tracking liquid consumed over a period of time or tracking nutrients consumed over a period of time based on the unique identifier. a container; an attachment mechanism coupled to the container; and a cartridge adapted to engage the attachment mechanism,wherein the cartridge holds one or more beverage ingredients, wherein when the cartridge is engaged with the attachment mechanism, the attachment mechanism opens the cartridge to the container, characterized in that the cartridge includes a unique identifier (153A, 153B) to track a set of beverage characteristics associated with the one or more beverage ingredients of the cartridge, and further wherein the container is configured to capture the unique identifier (153A,153B) and the set of beverage characteristics, preferably wherein the container is configured to store the set of beverage characteristics, wherein the container is configured to transfer the set of beverage characteristics over a wireless network to a computing device or a network, and wherein the set of beverage characteristics and the unique identifier (153A, 153B) are useable with a software application on the computing device or the network, and the software application is configured to perform at least one of the following functions: tracking liquid consumed over a period of time or tracking nutrients consumed over a period of time based on the unique identifier.
A method of preparing a hydrophobic metal oxide-silica composite aerogel, the method comprising steps of: adding a metal ion solution and an acid catalyst to a water glass solution and mixing together to prepare a metal oxide-silica composite gel; surface-modifying the metal oxide-silica composite gel to prepare a hydrophobic metal oxide-silica composite wet gel; and drying the hydrophobic metal oxide-silica composite wet gel, wherein the method further comprises treating the metal oxide-silica composite gel with alcohol before the surface modification of step 2, wherein the metal ion solution is a binary metal ion solution including calcium ions, Ca 2+, and magnesium ions, Mg 2+, wherein a molar ratio of the calcium ion, Ca 2+, to the magnesium ion, Mg 2+, in the metal ion solution is in a range of 1:0.3 to 1:3, and wherein the metal ion solution is added in an amount such that a molar ratio of metal ions to water glass is in a range of 0.5 to 1. adding a metal ion solution and an acid catalyst to a water glass solution and mixing together to prepare a metal oxide-silica composite gel; surface-modifying the metal oxide-silica composite gel to prepare a hydrophobic metal oxide-silica composite wet gel; and drying the hydrophobic metal oxide-silica composite wet gel, wherein the method further comprises treating the metal oxide-silica composite gel with alcohol before the surface modification of step 2, wherein the metal ion solution is a binary metal ion solution including calcium ions, Ca 2+, and magnesium ions, Mg 2+, wherein a molar ratio of the calcium ion, Ca 2+, to the magnesium ion, Mg 2+, in the metal ion solution is in a range of 1:0.3 to 1:3, and wherein the metal ion solution is added in an amount such that a molar ratio of metal ions to water glass is in a range of 0.5 to 1.
A computer-implemented method for analyzing a bipartite graph data structure to condense reaction pathways of a metabolic network, comprising: Receiving a metabolic network in a bipartite graph data structure, comprising: a plurality of molecule nodes (102, 128, 140), wherein each molecule node comprises a molecule in a metabolic reaction; a plurality of edges (112, 126) connecting at least two of the plurality of molecule nodes, wherein each edge leading out of a first molecule node and into a second molecule node represents a metabolic reaction in which the first molecule is a reactant and the second molecule is a product; determining for each molecule node in the bipartite graph data structure a first number of metabolic reactions for which each molecule is a product based on a first number of edges leading into each molecule node; determining for each molecule node in the bipartite graph data structure a second number of metabolic reactions for which each molecule is a reactant based on a second number of edges leading out of each molecule node; and responsive to determining that none of the first number of edges leads into a third molecule node, or none of the second number of edges leads out of the third molecule node, blocking a first reaction pathway of all molecule nodes and edges connected to the third molecule node in the bipartite graph data structure. Receiving a metabolic network in a bipartite graph data structure, comprising: a plurality of molecule nodes (102, 128, 140), wherein each molecule node comprises a molecule in a metabolic reaction; a plurality of edges (112, 126) connecting at least two of the plurality of molecule nodes, wherein each edge leading out of a first molecule node and into a second molecule node represents a metabolic reaction in which the first molecule is a reactant and the second molecule is a product; a plurality of molecule nodes (102, 128, 140), wherein each molecule node comprises a molecule in a metabolic reaction; a plurality of edges (112, 126) connecting at least two of the plurality of molecule nodes, wherein each edge leading out of a first molecule node and into a second molecule node represents a metabolic reaction in which the first molecule is a reactant and the second molecule is a product; determining for each molecule node in the bipartite graph data structure a first number of metabolic reactions for which each molecule is a product based on a first number of edges leading into each molecule node; determining for each molecule node in the bipartite graph data structure a second number of metabolic reactions for which each molecule is a reactant based on a second number of edges leading out of each molecule node; and responsive to determining that none of the first number of edges leads into a third molecule node, or none of the second number of edges leads out of the third molecule node, blocking a first reaction pathway of all molecule nodes and edges connected to the third molecule node in the bipartite graph data structure.
A light guide formed from a resin composition which comprises 100 parts by weight of a polycarbonate resin having a structural viscosity index of 1.5 to 2.5 (component A), 0.001 to 0.08 part by weight of a metal salt-based compound (component B) and no light diffusing agent, wherein the light guide has a brightness of 50% or more of that of a light source, the brightness is measured on a light guide plate having a length of 150 mm, a width of 150 mm, a thickness of 5.0 mm and having an Ra of 0.03 μm and having an illuminated side which is the end face side of one side, and the brightness is a brightness of the end face opposite to the illuminated side when the light source is placed on the illuminated side.
A container closure comprising: a generally planar container closure body having a product side and a customer side; said container closure body defines a limited container opening and an actuation location; said actuation location is defined by a raised button; and said container closure body includes a force concentrating construction disposed adjacent said limited container opening characterized in that said force concentrating construction includes a plurality of circular trapezoids disposed about said button; said plurality of circular trapezoids spaced from each other along adjacent radial sides; and said force concentrating construction includes a number of force focusing scores. a generally planar container closure body having a product side and a customer side; said container closure body defines a limited container opening and an actuation location; said actuation location is defined by a raised button; and said container closure body includes a force concentrating construction disposed adjacent said limited container opening characterized in that said force concentrating construction includes a plurality of circular trapezoids disposed about said button; said plurality of circular trapezoids spaced from each other along adjacent radial sides; and said force concentrating construction includes a number of force focusing scores.
A method for determining speech level of an audio signal, said method including steps of: (a) performing voice detection on the audio signal to identify at least one voice segment of the audio signal; (b) for each said voice segment, determining a parametric spectral model of speech level distributions of each frequency band of a set of perceptual frequency bands of the voice segment; and (c) for said each frequency band of each said voice segment, generating data indicative of a corrected estimated speech level, including by correcting an estimated speech level determined by the model for the frequency band using a predetermined speech level distribution of reference speech. (a) performing voice detection on the audio signal to identify at least one voice segment of the audio signal; (b) for each said voice segment, determining a parametric spectral model of speech level distributions of each frequency band of a set of perceptual frequency bands of the voice segment; and (c) for said each frequency band of each said voice segment, generating data indicative of a corrected estimated speech level, including by correcting an estimated speech level determined by the model for the frequency band using a predetermined speech level distribution of reference speech.
A method of initializing and controlling a robotic installation comprising a first robot having a minimum of four degrees of freedom and a second robot that is of Cartesian type, the method comprising the following steps: • using the first robot to collect location information relating to at least one element situated in a workspace common to the first and second robots; and • using the collected location information to move the second robot in or around the element. • using the first robot to collect location information relating to at least one element situated in a workspace common to the first and second robots; and • using the collected location information to move the second robot in or around the element.
An ethylene-based polymer comprising the following properties: a) a melt index ≥ 2.0 dg/min; b) a G' (at G" = 500 Pa, 170°C) versus I2 relationship: G' ≥ C + D, where C = 127.5 Pa, and D = -1.25 Pa/(dg/min); c) a chloroform extractable (Clext) versus G' relationship: Clext. ≤ E + FG', where E = 0.20 wt%, and F = 0.060 wt% / Pa; and d) a "weight fraction (w) of molecular weight greater than 10 6 g/mole, based on the total weight of polymer, and as determined by GPC(abs)," that meets the following relationship: w < I + J, where I = 0.080, and J = -4.00 x 10 -3 min/dg. a) a melt index ≥ 2.0 dg/min; b) a G' (at G" = 500 Pa, 170°C) versus I2 relationship: G' ≥ C + D, where C = 127.5 Pa, and D = -1.25 Pa/(dg/min); c) a chloroform extractable (Clext) versus G' relationship: Clext. ≤ E + FG', where E = 0.20 wt%, and F = 0.060 wt% / Pa; and d) a "weight fraction (w) of molecular weight greater than 10 6 g/mole, based on the total weight of polymer, and as determined by GPC(abs)," that meets the following relationship: w < I + J, where I = 0.080, and J = -4.00 x 10 -3 min/dg.
An image forming apparatus comprising: a main body comprising a printing unit for printing an image on a recording medium and a pickup roller for picking up the recording medium; a paper feeding device, which comprises an elevatable plate on which recording media are stackable and a pressure member for elastically pressing the plate towards the pickup roller, wherein the paper feeding device is removably inserted into the main body; and a variable guide unit, which is supported by the main body, is fixed in a slope state so as to lower the plate in a direction away from the pickup roller when the paper feeding device is being withdrawn from the main body, and moves to maintain a contact state with the plate when the paper feeding device is inserted into the main body, wherein the variable guide unit comprises a variable guide member, which has a slope unit downwardly sloped in a withdrawal direction to lower the plate in a direction away from the pickup roller by contacting a contact unit of the plate when the paper feeding device is withdrawn from the main body, and is supported by the main body for the slope unit to maintain a contact state with the contact unit due to a rising state of the plate wherein the variable guide unit further comprises: a fixing member, which is supported by the main body, characterised in that the fixing member is arranged to move to a fixing position for fixing the variable guide member by coupling with the variable guide member when the paper feeding device is withdrawn from the main body and is arranged to move to a release position for releasing the variable guide member by decoupling from the variable guide member when the paper feeding device is inserted into the main body. a main body comprising a printing unit for printing an image on a recording medium and a pickup roller for picking up the recording medium; a paper feeding device, which comprises an elevatable plate on which recording media are stackable and a pressure member for elastically pressing the plate towards the pickup roller, wherein the paper feeding device is removably inserted into the main body; and a variable guide unit, which is supported by the main body, is fixed in a slope state so as to lower the plate in a direction away from the pickup roller when the paper feeding device is being withdrawn from the main body, and moves to maintain a contact state with the plate when the paper feeding device is inserted into the main body, a fixing member, which is supported by the main body, characterised in that the fixing member is arranged to move to a fixing position for fixing the variable guide member by coupling with the variable guide member when the paper feeding device is withdrawn from the main body and is arranged to move to a release position for releasing the variable guide member by decoupling from the variable guide member when the paper feeding device is inserted into the main body.
A repair device for a lighting device intended to equip a vehicle and including a casing comprising at least one attaching lug including a first part comprising at least a first hole, characterized in that it includes a piece including a main part suitable to be secured to said vehicle and extended on a side by first and second walls which are distant and are intended to be placed respectively facing a first face and a second face, opposite one another, of said first part, said first wall including in the vicinity of said main part a weakened zone suitable to break in the event of an impact undergone by said lighting device, and at least a second hole suitable to be placed in front of said at least one associated first hole to permit the passage of a screw suitable to secure said piece to said first part, and said second wall being intended to mask said second face of the first part and an end of the screw.
An auxiliary wheel apparatus configured for tractors with: at least one first auxiliary wheel (102, 104) and a wheel suspension, wherein the wheel suspension has a first rotating axis about which the first auxiliary wheel (102, 104) is mounted for rotation, and wherein the wheel suspension has a second rotating axis about which the first auxiliary wheel (102, 104) is mounted in a steerable manner; and a fastening apparatus arranged for removable fastening to the tractor, characterized in that the wheel suspension comprises an actuator (128, 130) configured to move the first auxiliary wheel (102, 104) with respect to a ground in the mounted state of the auxiliary wheel apparatus. at least one first auxiliary wheel (102, 104) and a wheel suspension, wherein the wheel suspension has a first rotating axis about which the first auxiliary wheel (102, 104) is mounted for rotation, and wherein the wheel suspension has a second rotating axis about which the first auxiliary wheel (102, 104) is mounted in a steerable manner; and a fastening apparatus arranged for removable fastening to the tractor, characterized in that the wheel suspension comprises an actuator (128, 130) configured to move the first auxiliary wheel (102, 104) with respect to a ground in the mounted state of the auxiliary wheel apparatus.
A coated cutting tool comprising: a hard coating film on a surface of the tool, wherein the hard coating film is a nitride containing aluminum (Al) within a range of 70 at% to 80 at% and containing titanium (Ti) within a range of 20 at% to 30 at% with respect to a total amount of metallic including metalloid elements, and containing argon (Ar) of 0.10 at% or more and 0.50 at% or less with respect to a total amount of the metallic including metalloid elements and nonmetallic elements, wherein in X-ray diffraction, the hard coating film has a diffraction peak due to each of a TiN plane, a TiN plane, and a TiN plane of a face-centered cubic lattice structure and an AlN plane and an AlN plane of a hexagonal closest packing structure, in which the diffraction peak due to the TiN plane of the face-centered cubic lattice structure indicates a maximum intensity and an intensity of the diffraction peak due to the TiN plane of the face-centered cubic lattice structure is next thereafter, wherein an average crystal grain size is within a range of 3 nm to 50 nm, and wherein in a cross-sectional observation of the hard coating film, there are five or fewer droplets having an equivalent circle diameter of 1.0 μm or larger per 100 μm 2, wherein the amount of metallic elements, diffraction peaks, the average crystal grain size and the number of droplets are determined in accordance with the specifics given in the description. a hard coating film on a surface of the tool, wherein the hard coating film is a nitride containing aluminum (Al) within a range of 70 at% to 80 at% and containing titanium (Ti) within a range of 20 at% to 30 at% with respect to a total amount of metallic including metalloid elements, and containing argon (Ar) of 0.10 at% or more and 0.50 at% or less with respect to a total amount of the metallic including metalloid elements and nonmetallic elements, wherein in X-ray diffraction, the hard coating film has a diffraction peak due to each of a TiN plane, a TiN plane, and a TiN plane of a face-centered cubic lattice structure and an AlN plane and an AlN plane of a hexagonal closest packing structure, in which the diffraction peak due to the TiN plane of the face-centered cubic lattice structure indicates a maximum intensity and an intensity of the diffraction peak due to the TiN plane of the face-centered cubic lattice structure is next thereafter, wherein an average crystal grain size is within a range of 3 nm to 50 nm, and wherein in a cross-sectional observation of the hard coating film, there are five or fewer droplets having an equivalent circle diameter of 1.0 μm or larger per 100 μm 2, wherein the amount of metallic elements, diffraction peaks, the average crystal grain size and the number of droplets are determined in accordance with the specifics given in the description.
A handheld device to identify sensitive areas, comprising: a module (113, 350) configured to electronically receive sensitive area information, the sensitive area information related to one or more sensitive areas proximate to a first specified location; a module configured to electronically receive an identity of a first substance to be sprayed at the first specified location; and a display mechanism (1000, 1101, 1201) configured to provide a visual indication of a first sensitive area proximate to the first specified location which is sensitive to the first substance. a module (113, 350) configured to electronically receive sensitive area information, the sensitive area information related to one or more sensitive areas proximate to a first specified location; a module configured to electronically receive an identity of a first substance to be sprayed at the first specified location; and a display mechanism (1000, 1101, 1201) configured to provide a visual indication of a first sensitive area proximate to the first specified location which is sensitive to the first substance.
Flow control valve, having a control piston which has a throttle point for the control piston and also an adjusting pin, characterised in that a portion of the control piston has grooves, wherein a grooved bush and also inserts in said grooves are arranged axially displaceably in this region.