mhurhangee/ep-ind-claims huggingface dataset:
A particulate material comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework comprising micropores and/or mesopores, wherein the micropores and mesopores have a total pore volume as measured by gas adsorption of P 1 cm 3 /g, wherein P 1 represents a natural number having a value of at least 0.6, wherein the PD 50 pore diameter as measured by gas adsorption is no more than 2 nm, wherein the term PD 50 pore diameter refers to the volume-based median pore diameter, based on the total volume of micropores and mesopores; and (b) an electroactive material selected from silicon, tin, germanium and aluminium and mixtures thereof located within the micropores and/or mesopores of the porous carbon framework; wherein the composite particles have a D 90 particle diameter of no more than 10 μm and a D 50 particle diameter of at least 1.5 to 7 μm, wherein D 90 refers to the volume-based 90th percentile particle diameter and D 50 refers to the volume-based median particle diameter, both as measured by laser diffraction in accordance with ISO 13320:2009. (a) a porous carbon framework comprising micropores and/or mesopores, wherein the micropores and mesopores have a total pore volume as measured by gas adsorption of P 1 cm 3 /g, wherein P 1 represents a natural number having a value of at least 0.6, wherein the PD 50 pore diameter as measured by gas adsorption is no more than 2 nm, wherein the term PD 50 pore diameter refers to the volume-based median pore diameter, based on the total volume of micropores and mesopores; and wherein the micropores and mesopores have a total pore volume as measured by gas adsorption of P 1 cm 3 /g, wherein P 1 represents a natural number having a value of at least 0.6, wherein the PD 50 pore diameter as measured by gas adsorption is no more than 2 nm, wherein the term PD 50 pore diameter refers to the volume-based median pore diameter, based on the total volume of micropores and mesopores; and (b) an electroactive material selected from silicon, tin, germanium and aluminium and mixtures thereof located within the micropores and/or mesopores of the porous carbon framework;
A detergent composition comprising: from 0.5 to 50 wt.% of a C12-C14 alkyl ethoxylated sulfate surfactant; wherein the alkyl ethoxylated sulfate surfactant comprises a C14 alkyl group at a level of at least 70 wt.% of the alkyl ethoxylated sulfate surfactant; wherein the average degree of ethoxylation is from 2.5 to 3.5; wherein with reference to the wt.% of the total ethoxylated portion of said alkyl ethoxylated sulfate surfactant, the level of 1EO is from 12 to 23 wt.%, the level of 2EO is from 15 to 24 wt.%, the level of 3EO is from 20 to 35 wt.%, and the level of 4EO is from 12 to 25 wt.%; and, wherein the C12-C14 alkyl ethoxylated sulfate surfactant includes at most 10 wt.% alkyl chains of C15 and higher. from 0.5 to 50 wt.% of a C12-C14 alkyl ethoxylated sulfate surfactant; wherein the alkyl ethoxylated sulfate surfactant comprises a C14 alkyl group at a level of at least 70 wt.% of the alkyl ethoxylated sulfate surfactant; wherein the average degree of ethoxylation is from 2.5 to 3.5; wherein with reference to the wt.% of the total ethoxylated portion of said alkyl ethoxylated sulfate surfactant, the level of 1EO is from 12 to 23 wt.%, the level of 2EO is from 15 to 24 wt.%, the level of 3EO is from 20 to 35 wt.%, and the level of 4EO is from 12 to 25 wt.%; and, wherein the C12-C14 alkyl ethoxylated sulfate surfactant includes at most 10 wt.% alkyl chains of C15 and higher.
A system for producing edible residues, the system comprising: (a) one or more operating units for receiving and physically treating a feedstock, wherein at least one of the one or more operating units is a recalcitrance reducing operating unit comprising a first irradiating unit for irradiating the feedstock to reduce recalcitrance; (b) one or more cooking devices for processing the feedstock prior to fermentation; (c) a bio-processing unit for fermentation, wherein the bio-processing unit utilizes one or more antibiotics; (d) an evaporator/dryer operating unit; and (e) a second irradiating unit for irradiating an edible residue. (a) one or more operating units for receiving and physically treating a feedstock, wherein at least one of the one or more operating units is a recalcitrance reducing operating unit comprising a first irradiating unit for irradiating the feedstock to reduce recalcitrance; (b) one or more cooking devices for processing the feedstock prior to fermentation; (c) a bio-processing unit for fermentation, wherein the bio-processing unit utilizes one or more antibiotics; (d) an evaporator/dryer operating unit; and (e) a second irradiating unit for irradiating an edible residue.
A method for forming a glass-containing item (51; 63; 91,92,93,94,95), the method comprising: providing a first structure (1; 61; 80) having a first surface; providing a second porous structure (3; 62; 82) having a second surface, said second surface being patterned; disposing between said first surface and said second surface a first amount of a composition (2; 60; 81) comprising a glass; heating together the first (1; 61; 80) and second (3; 62; 82) structures and the first amount of the composition (2; 60; 81) sufficiently to soften the first amount of the composition (2; 60; 81) such that the first (1; 61; 80) and second (3; 62; 82) structures, under gravity or an otherwise applied force, move toward each other, such that the pattern of the second surface is formed into the first amount of the composition (2; 60; 81); cooling together the first (1; 61; 80) and second (3; 62; 82) structures and the first amount of the composition (2; 60; 81) sufficiently to stabilize the first amount of the composition (2; 60; 81) and the pattern formed into the first amount of the composition (2; 60; 81); and being characterized in that it further comprises: removing the first amount of the composition (2; 60; 81) from the second surface, then obtaining a first formed article (51; 63; 91) and the second surface in condition for re-use; said second structure (3; 62; 82) comprising porous carbon having an open porosity of at least 5%. providing a first structure (1; 61; 80) having a first surface; providing a second porous structure (3; 62; 82) having a second surface, said second surface being patterned; disposing between said first surface and said second surface a first amount of a composition (2; 60; 81) comprising a glass; heating together the first (1; 61; 80) and second (3; 62; 82) structures and the first amount of the composition (2; 60; 81) sufficiently to soften the first amount of the composition (2; 60; 81) such that the first (1; 61; 80) and second (3; 62; 82) structures, under gravity or an otherwise applied force, move toward each other, such that the pattern of the second surface is formed into the first amount of the composition (2; 60; 81); cooling together the first (1; 61; 80) and second (3; 62; 82) structures and the first amount of the composition (2; 60; 81) sufficiently to stabilize the first amount of the composition (2; 60; 81) and the pattern formed into the first amount of the composition (2; 60; 81); and removing the first amount of the composition (2; 60; 81) from the second surface, then obtaining a first formed article (51; 63; 91) and the second surface in condition for re-use; said second structure (3; 62; 82) comprising porous carbon having an open porosity of at least 5%.
A method comprising: a) cleaning plugged or dirty porous metallic filter elements to regain filter activity comprising: i. steaming a filter element for a first period of time; ii. submerging the filter element in a first solution; and iii. exposing the filter element to ultrasonic waves for a second period of time; wherein the filter element is steam blasted for 20 minutes, soaked in 10wt% citric acid in water solution for 1 hour, rinsed with water, steam blasted for 15 minutes, and sonicated in water for 15 minutes. a) cleaning plugged or dirty porous metallic filter elements to regain filter activity comprising: i. steaming a filter element for a first period of time; ii. submerging the filter element in a first solution; and iii. exposing the filter element to ultrasonic waves for a second period of time i. steaming a filter element for a first period of time; ii. submerging the filter element in a first solution; and iii. exposing the filter element to ultrasonic waves for a second period of time
A method for query based on layout information, comprising: setting up a query condition which is a visible attribute of an object specified by a user, wherein the visible attribute is one of character font, character size, character color, character filling style, character outline style, special effect of character, graphic shape, graphic size, graphic filling style and graphic outline style, image shape, image size, image color and image format, object position and object coordinate conversion; and obtaining layout information of an electronic document, wherein the layout information of the electronic document includes description of visible attributes of one or more objects in the electronic document, wherein each of the objects is one of a text, a graphics, and an image; and querying the electronic document for the object having the visible attribute that matches the description in the query condition specified by the user based on the layout information, wherein obtaining layout information of the electronic document and querying in the electronic document for an object which is one of a text or a graphic or an image having the visible attribute comprise: enumerating each object in the electronic document; determining whether the layout information of the object has the visible attribute. setting up a query condition which is a visible attribute of an object specified by a user, wherein the visible attribute is one of character font, character size, character color, character filling style, character outline style, special effect of character, graphic shape, graphic size, graphic filling style and graphic outline style, image shape, image size, image color and image format, object position and object coordinate conversion; and obtaining layout information of an electronic document, wherein the layout information of the electronic document includes description of visible attributes of one or more objects in the electronic document, wherein each of the objects is one of a text, a graphics, and an image; and querying the electronic document for the object having the visible attribute that matches the description in the query condition specified by the user based on the layout information, wherein obtaining layout information of the electronic document and querying in the electronic document for an object which is one of a text or a graphic or an image having the visible attribute comprise: enumerating each object in the electronic document; determining whether the layout information of the object has the visible attribute. enumerating each object in the electronic document; determining whether the layout information of the object has the visible attribute.
A deadbolt sensor assembly, comprising: a sensor (28a; 28b) capable to be disposed in a cavity formed in a frame of a door for sensing a deadbolt position to generate an output signal that is indicative when said deadbolt position is in said cavity in a lock position and when said deadbolt position is outside said cavity in an unlock position; a wireless transmitter responsive to said sensor output signal and capable of being disposed in said cavity for transmitting a wireless signal containing information derived from said output signal; and a battery for energizing said wireless transmitter and said sensor, characterised in that said battery, said transmitter and said sensor are mechanically coupled together for simple insertion of the deadbolt sensor into the cavity and are capable of being displaced together in said cavity in accordance with said deadbolt position. a sensor (28a; 28b) capable to be disposed in a cavity formed in a frame of a door for sensing a deadbolt position to generate an output signal that is indicative when said deadbolt position is in said cavity in a lock position and when said deadbolt position is outside said cavity in an unlock position; a wireless transmitter responsive to said sensor output signal and capable of being disposed in said cavity for transmitting a wireless signal containing information derived from said output signal; and a battery for energizing said wireless transmitter and said sensor, characterised in that said battery, said transmitter and said sensor are mechanically coupled together for simple insertion of the deadbolt sensor into the cavity and are capable of being displaced together in said cavity in accordance with said deadbolt position.
Spatula, in particular for kitchen appliances, comprising a handle part and a working part having two working part sides that are opposed with respect to a longitudinal axis of the spatula, wherein a working indentation is arranged on each of the two working part sides, wherein the handle part has at least one handle indentation, the opening edges of which span a plane of which the surface normal, with respect to the longitudinal extension of the spatula, points substantially in the same radial direction as a surface normal of a plane spanned by opening edges of the working indentation, characterized in that one working indentation comprises a groove-like tapered portion on the side facing to the handle part, the width of which, transverse to the longitudinal axis of the spatula, in an inlet region in the remaining region of the working indentation corresponds to half or less of the greatest width of the working indentation.
A computer implemented method for indoor localization, said method comprising the following: storing, in a repository, the floor plan of an indoor area including zone details, zone boundaries, building materials and location of different access points with respect to the zones on the floor plan; collecting a threshold number of data points from at least one user device located in said area, wherein each of the data points includes a plurality of Received Signal Strength Indicators (RSSI) captured from the access points positioned in said area; performing a k-means clustering technique on the data points for grouping the data points into 'k' number of clusters; building at least one decision tree using the RSSIs contained by the cluster of data points, wherein the decision tree is built by following a condition based approach, and wherein the conditions are related to the values of the RSSIs related to each of the access points; calculating distance values pertaining to the RSSIs stored at the decision tree and plotting zone circles, wherein the zone circles are plotted using the distance values as radii of the zone circles, the access points as centers of the respective zone circles; and determining the zone of user presence by correlating the plotted zone circles upon the floor plan using maximum overlap property. storing, in a repository, the floor plan of an indoor area including zone details, zone boundaries, building materials and location of different access points with respect to the zones on the floor plan; collecting a threshold number of data points from at least one user device located in said area, wherein each of the data points includes a plurality of Received Signal Strength Indicators (RSSI) captured from the access points positioned in said area; performing a k-means clustering technique on the data points for grouping the data points into 'k' number of clusters; building at least one decision tree using the RSSIs contained by the cluster of data points, wherein the decision tree is built by following a condition based approach, and wherein the conditions are related to the values of the RSSIs related to each of the access points; calculating distance values pertaining to the RSSIs stored at the decision tree and plotting zone circles, wherein the zone circles are plotted using the distance values as radii of the zone circles, the access points as centers of the respective zone circles; and determining the zone of user presence by correlating the plotted zone circles upon the floor plan using maximum overlap property.
A method of controlling a process of at least one device, the method comprising: receiving real time process data generated from the process; processing the real time process data, and comparing the processed data against at least one reference of a process model of the process for establishing any deviation from normal operation; characterised by further performing in real time: classifying, at a status agent, a source of the deviation and one or more likely causes of the deviation; prioritizing actuation of one or more diagnostic agents related to the causality of the deviation at a supervisory manager; actuating the one or more diagnostic agents; communicating the results of the diagnostic agents to the supervisory manager; modifying, under the instruction of the supervisory manager, the process model based on the results of the one or more diagnostic agents, if the source of the deviation is the process model; and applying, under the instruction of the supervisory manager, the modified process model at a control agent for evaluating risk and recommending and initiating at least one control action to control the process of the at least one device. receiving real time process data generated from the process; processing the real time process data, and comparing the processed data against at least one reference of a process model of the process for establishing any deviation from normal operation; characterised by further performing in real time: classifying, at a status agent, a source of the deviation and one or more likely causes of the deviation; prioritizing actuation of one or more diagnostic agents related to the causality of the deviation at a supervisory manager; actuating the one or more diagnostic agents; communicating the results of the diagnostic agents to the supervisory manager; modifying, under the instruction of the supervisory manager, the process model based on the results of the one or more diagnostic agents, if the source of the deviation is the process model; and applying, under the instruction of the supervisory manager, the modified process model at a control agent for evaluating risk and recommending and initiating at least one control action to control the process of the at least one device. classifying, at a status agent, a source of the deviation and one or more likely causes of the deviation; prioritizing actuation of one or more diagnostic agents related to the causality of the deviation at a supervisory manager; actuating the one or more diagnostic agents; communicating the results of the diagnostic agents to the supervisory manager; modifying, under the instruction of the supervisory manager, the process model based on the results of the one or more diagnostic agents, if the source of the deviation is the process model; and applying, under the instruction of the supervisory manager, the modified process model at a control agent for evaluating risk and recommending and initiating at least one control action to control the process of the at least one device.
An apparatus comprising: a connector port configured to selectably connect with and disconnect from a peripheral device, the connector port including a power supply pin (209.5) and a communication pin; a detector including an input pin operatively coupled with the connector port and an output pin, the detector configured to provide an output at the output pin in response to connection of the peripheral device with the connector port with a time delay between connection of the peripheral device with the connector port and providing the output; a data switch operatively coupled with the detector output pin and the communication pin and configured to selectably enable and disable data communication between the communication pin and a computer board in response to the output at the output pin; and a power switch operatively coupled with the detector, the power supply pin (209.5), and a DC power supply and configured to selectably connect and disconnect the power supply and the power supply pin (209.5) in response to the output at the output pin. a connector port configured to selectably connect with and disconnect from a peripheral device, the connector port including a power supply pin (209.5) and a communication pin; a detector including an input pin operatively coupled with the connector port and an output pin, the detector configured to provide an output at the output pin in response to connection of the peripheral device with the connector port with a time delay between connection of the peripheral device with the connector port and providing the output; a data switch operatively coupled with the detector output pin and the communication pin and configured to selectably enable and disable data communication between the communication pin and a computer board in response to the output at the output pin; and a power switch operatively coupled with the detector, the power supply pin (209.5), and a DC power supply and configured to selectably connect and disconnect the power supply and the power supply pin (209.5) in response to the output at the output pin.
A milling insert for mounting in a shoulder milling tool, the milling insert having a positive basic shape and comprising: - an upper side comprising a rake surface, - a lower side opposite to the upper side comprising a planar or essentially planar bottom surface, - a side surface extending between the upper side and the lower side around the periphery of the milling insert, - a cutting edge formed between the side surface and the rake surface, the cutting edge comprising at least a major cutting edge portion (107a, 107b), a corner radius cutting edge portion (108a, 108b), a ramping cutting edge portion (110a, 110b), and a surface wiping cutting edge portion (109a, 109b) positioned between the corner radius cutting edge portion (108a, 108b) and the ramping cutting edge portion (110a, 110b) and forming an angle with the ramping cutting edge portion (110a, 110b), wherein the side surface comprises: - an upper set of primary clearance surfaces (111a, 111 b, 112a, 112b, 113a, 113b, 114a, 114b), and - a lower set of secondary clearance surfaces (115a, 115b, 116a, 116b, 117a, 117b, 118a, 118b) including a plurality of planar support surfaces (115a, 115b, 117a, 117b, 118a, 118b), wherein the upper set of primary clearance surfaces (111a-114b) forms an overhang protruding with respect to the secondary clearance surfaces (115a - 118b), characterised in that the overhang extends around the entire upper periphery of the milling insert. - an upper side comprising a rake surface, - a lower side opposite to the upper side comprising a planar or essentially planar bottom surface, - a side surface extending between the upper side and the lower side around the periphery of the milling insert, - a cutting edge formed between the side surface and the rake surface, the cutting edge comprising at least a major cutting edge portion (107a, 107b), a corner radius cutting edge portion (108a, 108b), a ramping cutting edge portion (110a, 110b), and a surface wiping cutting edge portion (109a, 109b) positioned between the corner radius cutting edge portion (108a, 108b) and the ramping cutting edge portion (110a, 110b) and forming an angle with the ramping cutting edge portion (110a, 110b), - an upper set of primary clearance surfaces (111a, 111 b, 112a, 112b, 113a, 113b, 114a, 114b), and - a lower set of secondary clearance surfaces (115a, 115b, 116a, 116b, 117a, 117b, 118a, 118b) including a plurality of planar support surfaces (115a, 115b, 117a, 117b, 118a, 118b),