mhurhangee/ep-ind-claims huggingface dataset:
A cleansing composition comprising: 1) 0.5 to 35% by wt. of total composition of a surfactant system which contains: a) 0.5 to 25% by wt. of total composition anionic surfactant and b) 0 to 20% by wt. of a co-surfactant selected from the group consisting of non-ionic surfactant, cationic surfactant, amphoteric surfactant and mixtures thereof; where an N-acyl salt of polycarboxylic acid is present at a level of 50% or more of all surfactant (both (a) and (b)); or is present at a level of 50% or more of anionic surfactant (a); 2) 0 to 30% by wt. of a hair or skin benefit agent; 3) 0.05 to 4.0 wt. % of a primary cell wall material comprising microfibers wherein: a) the primary cell wall material is sourced from plant parenchymal tissue; b) 80% or more, preferably 80% to 100%, more preferably 85% to 100% of the microfibrils have a diameter of less than 50 nanometers (nm); and 4) balance of water, wherein the primary cell wall material is defibrillated, wherein the cleansing composition has a composition homogeneity parameter of 0.030 and greater, according to the protocol as defined herein. 1) 0.5 to 35% by wt. of total composition of a surfactant system which contains: a) 0.5 to 25% by wt. of total composition anionic surfactant and b) 0 to 20% by wt. of a co-surfactant selected from the group consisting of non-ionic surfactant, cationic surfactant, amphoteric surfactant and mixtures thereof; where an N-acyl salt of polycarboxylic acid is present at a level of 50% or more of all surfactant (both (a) and (b)); or is present at a level of 50% or more of anionic surfactant (a); a) 0.5 to 25% by wt. of total composition anionic surfactant and b) 0 to 20% by wt. of a co-surfactant selected from the group consisting of non-ionic surfactant, cationic surfactant, amphoteric surfactant and mixtures thereof; where an N-acyl salt of polycarboxylic acid is present at a level of 50% or more of all surfactant (both (a) and (b)); or is present at a level of 50% or more of anionic surfactant (a); 2) 0 to 30% by wt. of a hair or skin benefit agent; 3) 0.05 to 4.0 wt. % of a primary cell wall material comprising microfibers wherein: a) the primary cell wall material is sourced from plant parenchymal tissue; b) 80% or more, preferably 80% to 100%, more preferably 85% to 100% of the microfibrils have a diameter of less than 50 nanometers (nm); and a) the primary cell wall material is sourced from plant parenchymal tissue; b) 80% or more, preferably 80% to 100%, more preferably 85% to 100% of the microfibrils have a diameter of less than 50 nanometers (nm); and 4) balance of water,
A device for electrically contracting and mechanically holding the ends of a pull-off wire in a release device for pre-stressed retaining elements in spacecrafts, characterized in that the device comprises a disc stack in which at least two superimposed discs (28,29 and 30,31, respectively) are provided, between which one end of the pull-off wire can be clamped and at least one disc (28,30) of which is made of an electrically conductive material and electrically connectable to a voltage source.
A method of operating a cooking appliance, comprising: receiving a user-input signal corresponding to a user-desired quantity of heat to be delivered by a gas burner to a cooking surface, identifying a burner rating of the gas burner, setting a target pressure at which to supply gas to the gas burner based on the user-input signal and the burner rating, selecting an operation mode from a number of operation modes based on the target pressure, and operating a gas control system to supply gas to the gas burner in accordance with the selected operation mode, wherein operating the gas control system comprises: - supplying gas to the gas burner, - igniting gas in the gas burner to produce a controlled flame, - measuring the pressure of the gas supplied to the gas burner, - suspending the supply of gas after a predefined time interval, characterized in that operating the gas control system further comprises: - determining an average quantity of heat delivered to the cooking surface during the predefined time interval based on the measured pressure of the gas and the burner rating, and - calculating a duration for which the supply of gas is to be suspended. receiving a user-input signal corresponding to a user-desired quantity of heat to be delivered by a gas burner to a cooking surface, identifying a burner rating of the gas burner, setting a target pressure at which to supply gas to the gas burner based on the user-input signal and the burner rating, selecting an operation mode from a number of operation modes based on the target pressure, and operating a gas control system to supply gas to the gas burner in accordance with the selected operation mode, wherein operating the gas control system comprises: - supplying gas to the gas burner, - igniting gas in the gas burner to produce a controlled flame, - measuring the pressure of the gas supplied to the gas burner, - suspending the supply of gas after a predefined time interval, characterized in that operating the gas control system further comprises: - determining an average quantity of heat delivered to the cooking surface during the predefined time interval based on the measured pressure of the gas and the burner rating, and - calculating a duration for which the supply of gas is to be suspended. - supplying gas to the gas burner, - igniting gas in the gas burner to produce a controlled flame, - measuring the pressure of the gas supplied to the gas burner, - suspending the supply of gas after a predefined time interval, characterized in that operating the gas control system further comprises: - determining an average quantity of heat delivered to the cooking surface during the predefined time interval based on the measured pressure of the gas and the burner rating, and - determining an average quantity of heat delivered to the cooking surface during the predefined time interval based on the measured pressure of the gas and the burner rating, and - calculating a duration for which the supply of gas is to be suspended.
A control panel for a household appliance, including: - a support which includes an opening, - a front plate fixed on a front face of the support and covering at least the opening, and - at least one man-machine interface module (111, 112), called MMI module, fixed on a rear face of the support and positioned opposite the opening, the support including a longitudinal guide system disposed on the rear face of the support and on which the MMI module (111, 112) is positioned opposite the opening, the control panel being characterized in that the MMI module (111, 112) includes a sliding system, configured to cooperate with the longitudinal guide system and to form a slidable connection between the MMI module (111, 112) and the longitudinal guide system, the MMI module (111, 112) being configured to be able to be moved on the longitudinal guide system, and placed in different positions while being opposite the opening. - a support which includes an opening, - a front plate fixed on a front face of the support and covering at least the opening, and - at least one man-machine interface module (111, 112), called MMI module, fixed on a rear face of the support and positioned opposite the opening, the support including a longitudinal guide system disposed on the rear face of the support and on which the MMI module (111, 112) is positioned opposite the opening, the control panel being characterized in that the MMI module (111, 112) includes a sliding system, configured to cooperate with the longitudinal guide system and to form a slidable connection between the MMI module (111, 112) and the longitudinal guide system, the MMI module (111, 112) being configured to be able to be moved on the longitudinal guide system, and placed in different positions while being opposite the opening.
A manufacturing method for coated silver particles comprising a step A of thermally decomposing an aliphatic carboxylic acid silver complex in a medium, wherein step A comprises: a step A1 of preparing a reaction solution containing silver carboxylate, an aliphatic carboxylic acid, an amino alcohol as a complexing agent, and a medium; and a step A2 of thermally decomposing a complex compound formed in the reaction solution and thereby generating metallic silver. a step A1 of preparing a reaction solution containing silver carboxylate, an aliphatic carboxylic acid, an amino alcohol as a complexing agent, and a medium; and a step A2 of thermally decomposing a complex compound formed in the reaction solution and thereby generating metallic silver.
A system for enhancing a lip-synchronized performance of a performer utilizing a stage microphone, comprising: a proximity sensor secured in a fixed relationship with the stage microphone, the proximity sensor generating a dynamic distance data stream dynamically representing a distance between the proximity sensor and the performer; a non-transitory computer readable medium including instructions stored therein that when executed by a processor cause the processor to dynamically modify an audio data stream of a pre-recorded audio backing track in response to the dynamic distance data stream in such a way that said dynamically modifying simulates changes in microphone signal level, proximity effect, distortion effect, and/or feedback effect in relation to corresponding changes in the distance between the stage microphone and the performer. a non-transitory computer readable medium including instructions stored therein that when executed by a processor cause the processor to dynamically modify an audio data stream of a pre-recorded audio backing track in response to the dynamic distance data stream in such a way that said dynamically modifying simulates changes in microphone signal level, proximity effect, distortion effect, and/or feedback effect in relation to corresponding changes in the distance between the stage microphone and the performer.
A computer-implemented method (700, 800) comprising: receiving wind movement data comprising at least wind speed data and wind directionality data; the method characterized by: causing rendering of a user interface (400, 500) comprising an animated dynamic wind indicator (310, 402, 502, 602, 620), wherein the dynamic wind indicator visually indicates a direction of a 3D environment based at least in part on the wind directionality data, and wherein the animation speed of the dynamic wind indicator is configured based at least in part on the wind speed data. causing rendering of a user interface (400, 500) comprising an animated dynamic wind indicator (310, 402, 502, 602, 620), wherein the dynamic wind indicator visually indicates a direction of a 3D environment based at least in part on the wind directionality data, and wherein the animation speed of the dynamic wind indicator is configured based at least in part on the wind speed data.
A de-bagging system, comprising: a robot system with a robotic arm; a cutting nest assembly comprising a compartment, the compartment configured to receive a item encased in a bag; a bag gripper movable relative to the compartment; and a cutting assembly comprising a cutting blade, the cutting assembly slidably mounted in vicinity of the compartment; wherein the robot system is configured to pick up the item encased in the bag, to deposit the item encased in the bag into the compartment, and to pick up the item from the compartment. a robot system with a robotic arm; a cutting nest assembly comprising a compartment, the compartment configured to receive a item encased in a bag; a bag gripper movable relative to the compartment; and a cutting assembly comprising a cutting blade, the cutting assembly slidably mounted in vicinity of the compartment; wherein the robot system is configured to pick up the item encased in the bag, to deposit the item encased in the bag into the compartment, and to pick up the item from the compartment.
A precursor composition for a curable adhesive, said precursor comprising: a) a part comprising: i. a first epoxy curing agent comprising at least one polyether amine and having an amine equivalent weight of at least 45 grams per mole of amine equivalents; ii. a second epoxy curing agent distinct from the first epoxy curing agent; iii. a metal nitrate catalyst; iv. optionally, a metal triflate catalyst; and b) a part comprising: i. an epoxy resin; ii. a filler material; iii. an epoxy-based reactive diluent; and iv. optionally, a core-shell polymer toughening agent; and wherein the amount of filler material is selected such as to provide said part with a hysteresis area of at least 30 Pa x 1/s, when measured at 23°C according to the test method described in the experimental section. a) a part comprising: i. a first epoxy curing agent comprising at least one polyether amine and having an amine equivalent weight of at least 45 grams per mole of amine equivalents; ii. a second epoxy curing agent distinct from the first epoxy curing agent; iii. a metal nitrate catalyst; iv. optionally, a metal triflate catalyst; and i. a first epoxy curing agent comprising at least one polyether amine and having an amine equivalent weight of at least 45 grams per mole of amine equivalents; ii. a second epoxy curing agent distinct from the first epoxy curing agent; iii. a metal nitrate catalyst; iv. optionally, a metal triflate catalyst; and b) a part comprising: i. an epoxy resin; ii. a filler material; iii. an epoxy-based reactive diluent; and iv. optionally, a core-shell polymer toughening agent; i. an epoxy resin; ii. a filler material; iii. an epoxy-based reactive diluent; and iv. optionally, a core-shell polymer toughening agent;
A process of forward deposition of a material onto a target substrate, comprising the steps of: producing a burst of ultrafast laser pulses of a laser beam wherein the pulse width of the ultrafast laser pulses is between 10 fs and 1 ns; focusing said laser beam below the diffraction limit of said laser beam; passing said focused burst of ultrafast laser pulses through a carrier substrate transparent to said laser beam, said carrier substrate includes a bottom surface coated with said material to be transferred; exciting electrons on the bottom side of said transparent carrier substrate coated with said material with first laser pulses of said burst of ultrafast laser pulses; lifting said material from said carrier substrate; continuing to pass subsequent laser pulses of said burst of ultrafast laser pulses through said carrier substrate which do not encounter any material to lift and now pass through said carrier substrate with a divergence angle sending said now-lifted material into space by a shock wave that drives said material with forward momentum across a gap between said carrier substrate and said target substrate and onto said target substrate at hypersonic speed; wherein the total amount of pulse energy or fluence, applied at a spot on said material to be deposited is greater than the critical energy level required to initiate and propagate forward deposition by way of filament formation within said carrier substrate, yet is lower than the threshold critical energy level required to initiate ablative machining of said carrier substrate; and, fusing said material onto and into a surface of said target substrate. producing a burst of ultrafast laser pulses of a laser beam wherein the pulse width of the ultrafast laser pulses is between 10 fs and 1 ns; focusing said laser beam below the diffraction limit of said laser beam; passing said focused burst of ultrafast laser pulses through a carrier substrate transparent to said laser beam, said carrier substrate includes a bottom surface coated with said material to be transferred; exciting electrons on the bottom side of said transparent carrier substrate coated with said material with first laser pulses of said burst of ultrafast laser pulses; lifting said material from said carrier substrate; continuing to pass subsequent laser pulses of said burst of ultrafast laser pulses through said carrier substrate which do not encounter any material to lift and now pass through said carrier substrate with a divergence angle sending said now-lifted material into space by a shock wave that drives said material with forward momentum across a gap between said carrier substrate and said target substrate and onto said target substrate at hypersonic speed; wherein the total amount of pulse energy or fluence, applied at a spot on said material to be deposited is greater than the critical energy level required to initiate and propagate forward deposition by way of filament formation within said carrier substrate, yet is lower than the threshold critical energy level required to initiate ablative machining of said carrier substrate; and, fusing said material onto and into a surface of said target substrate.
A measuring unit for measuring forces generated by an unbalance of a rotor mounted on a measuring shaft, particularly of a vehicle wheel mounted on a measuring shaft of a wheel balancing machine, the measuring unit comprising: - a stationary frame, - a first bearing for receiving the measuring shaft rotatably about its shaft axis, - a second bearing pivotally supporting the first bearing about a pivot axis which intersects the shaft axis, the second bearing being supported within the stationary frame, - at least one first spring pivotally supporting the first bearing within the second bearing about the pivot axis, - a first force sensor for measuring forces generated by an unbalance of the rotating rotor and acting on the measuring shaft about the pivot axis, and - a second force sensor for measuring forces generated by the unbalance of the rotating rotor and acting on the measuring shaft and on the second bearing in a direction intersecting the shaft axis, wherein the second bearing and the stationary frame are integrally formed of a single element as a support plate, the support plate further comprising a through hole and a ring-shaped member arranged in the through hole for supporting the first bearing, wherein the ring-shaped member is coupled to the second bearing by the at least one first spring. - a stationary frame, - a first bearing for receiving the measuring shaft rotatably about its shaft axis, - a second bearing pivotally supporting the first bearing about a pivot axis which intersects the shaft axis, the second bearing being supported within the stationary frame, - at least one first spring pivotally supporting the first bearing within the second bearing about the pivot axis, - a first force sensor for measuring forces generated by an unbalance of the rotating rotor and acting on the measuring shaft about the pivot axis, and - a second force sensor for measuring forces generated by the unbalance of the rotating rotor and acting on the measuring shaft and on the second bearing in a direction intersecting the shaft axis, wherein the second bearing and the stationary frame are integrally formed of a single element as a support plate, the support plate further comprising a through hole and a ring-shaped member arranged in the through hole for supporting the first bearing, wherein the ring-shaped member is coupled to the second bearing by the at least one first spring.
Load carrier foot for supporting a load bar on a vehicle, said load carrier foot comprising a holder adapted to receive a load carrier bracket for coupling said load carrier foot to said vehicle, characterized in that said holder comprises a sleeve portion defining an accommodating space which is configured to partially accommodate said load carrier bracket.
A toner container (100Y, 100M, 100C, 100K) detachably mountable to a main body of an image forming apparatus, the toner container (100Y, 100M, 100C, 100K) comprising: a cylindrical container which accommodates a toner; a cap portion which holds the cylindrical container such that the cylindrical container can rotate in a circular direction, with an end of the cylindrical container inserted in the cap portion; and a sealing member which lies between the end and an inner surface of the cap portion with the end inserted therein, wherein the toner in the cylindrical container is discharged to an inside of the cap portion through an opening provided in the end and the toner in the cap portion is discharged to an outside through a toner discharge port provided in the cap portion, as the cylindrical container rotates, and wherein the cylindrical container is provided with a seal receiving surface for fixing the sealing member, and the sealing member is fixed to the seal receiving surface, characterised in that, the toner container (100Y, 100M, 100C, 100K) further comprises an outer wall which rises from the seal receiving surface and which is provided on an outer circumferential edge of the seal receiving surface, wherein the outer wall has a height (h 1) which is greater than a thickness (t 1) of the sealing member. a cylindrical container which accommodates a toner; a cap portion which holds the cylindrical container such that the cylindrical container can rotate in a circular direction, with an end of the cylindrical container inserted in the cap portion; and a sealing member which lies between the end and an inner surface of the cap portion with the end inserted therein, wherein the toner in the cylindrical container is discharged to an inside of the cap portion through an opening provided in the end and the toner in the cap portion is discharged to an outside through a toner discharge port provided in the cap portion, as the cylindrical container rotates, and wherein the cylindrical container is provided with a seal receiving surface for fixing the sealing member, and the sealing member is fixed to the seal receiving surface, characterised in that, the toner container (100Y, 100M, 100C, 100K) further comprises an outer wall which rises from the seal receiving surface and which is provided on an outer circumferential edge of the seal receiving surface, wherein the outer wall has a height (h 1) which is greater than a thickness (t 1) of the sealing member.
Mount for a spring, in particular a leaf spring, comprising a spring fastening region for fastening the spring to the mount, a wheel support fastening region for fastening a wheel support to the spring, the mount having a deformation region for the transmission of force from the spring fastening region to the wheel support fastening region, characterized in that the mount is formed in one piece from metal and/or fibre composite materials.