mhurhangee/ep-ind-claims huggingface dataset:
A liquid cleaning composition for cleaning household hard surfaces; dish surfaces; surfaces like leather or synthetic leather; and automotive vehicles surfaces; comprising coated cleaning particles as abrasives having a coating material layer thickness from 1 μm to 40 μm, wherein said coated cleaning particles are selected from the group consisting of coated nut shell particles and coated particles derived from vegetable parts, and wherein coated abrasive cleaning particles are present at a level from 0.1% to 20% by weight of the total composition of said abrasive cleaning particles; and coated abrasive cleaning particles have a degree of whiteness (L*) of greater than 65, measured under D 65 illumination, wherein the particles have Shore D hardness scale below or equal to 90, measured with a durometer type D according to the procedure described in ATSM D2240, or MOHS hardness below or equal to 3 according to the scale for measuring the hardness of a compound versus a compound of known hardness, described in Encyclopedia of Chemical Technology, Kirk-Othmer, 4th Edition Vol 1, page 18 or Lide, D.R (ed) CRC Handbook of Chemistry and Physics, 73 rd edition, Boca Raton, Fla.: The Rubber Company, 1992-1993, and wherein said coating material layer contains whitening pigments, whereas pigments are selected from the group consisting of titanium dioxide, kaolin, metal carbonate and mixtures thereof, and wherein said whitening pigments are bound to the particle via polymeric or resin coating and wherein said abrasive particles have a mean particle size as expressed by the Equivalent Circle Diameter from 10 to 1000 μm, according to ISO 9276-6.
Collector composition containing (i) as a primary collector the compound of the formula wherein R is an alkyl group containing between 5 and 16 carbon atoms that may be branched or linear, k is a value of 1 to 3, m is an integer from 0 to 25, each A independently is -CH2-CH2- or -CH2CH - or -CH2-CH(CH2-CH3)-, n is an integer of at least 3 and at most 8, and wherein X is an anion derivable from deprotonating a Brønsted-Lowry acid. and (ii) a second compound selected from the group of other primary collectors, secondary collectors, depressants, frothers, and solvents, wherein the other primary collector is selected from the group of quaternary ammonium cationic surfactants different from the above formula, amine-functional surfactants such as alkylamines, alkylamidoamines and etheramines; the secondary collector is chosen from the group of nonionic, and anionic surfactants, wherein the nonionic surfactants are chosen from the group of unbranched and branched fatty alcohols, alkoxylated fatty alcohols, alkylamide ethoxylates, alkyl diethanol amide ethoxylates, the anionic surfactants from the group of fatty acids, sulphonated fatty acid, acylamidocarboxylates, acylestercarboxylates, alkylphosphates, alkylpyrophosphates, alkylsulphates, alkylsulphonates; the depressant is chosen from the group of polysaccharides and derivatives thereof, and polyacrylamide polymers; the frother is selected from MIBC and propoxylated and ethoxylated C6-C10 alcohols, and; wherein the solvent is chosen from the group of C1-C5 alcohols that may be optionally ethoxylated and/or propoxylated, such as preferably propylene glycol, triethylene glycol, ethylene glycol, 2-methoxyethanol, glycerol, or isopropanol, and acetic acid, provided that the second compound is not a compound of the formula ROH or R-(O-A)m-OH wherein R and m are the same as in the compound of formula.
A blow molding method for producing plastic hollowed bodies, i.e. for producing a hose, the method comprises the following stages; - Stage of production of connection elements, - Stage of heating the connection elements, - Stage of placing the connection elements and closing the mold, - Hose pouring stage, - Blowing stage, - Stage of holding in the mold to cool, - Stage of taking out the blow molded hose from the mold, wherein the stage of production of connection elements comprises the production of at least one connection element to be placed in the mold, wherein the stage of heating the connection elements comprises heating at least one connection elements prior to placing in the mold, wherein the hose pouring stage comprises pouring the molten hose from the feeding tube, characterized in that in order to enable the molten hose to flow by moving not only in a vertical manner along the Y axis but also forward and backward along the X axis and rightward and leftward at the Z axis; the stage of placing the connection elements and closing the mold comprises placing at least one connection element in the mold such that it corresponds to the curve of the hose, and closing the mold. a hose, the method comprises the following stages; - Stage of production of connection elements, - Stage of heating the connection elements, - Stage of placing the connection elements and closing the mold, - Hose pouring stage, - Blowing stage, - Stage of holding in the mold to cool, - Stage of taking out the blow molded hose from the mold, - Stage of production of connection elements, - Stage of heating the connection elements, - Stage of placing the connection elements and closing the mold, - Hose pouring stage, - Blowing stage, - Stage of holding in the mold to cool, - Stage of taking out the blow molded hose from the mold, wherein the stage of production of connection elements comprises the production of at least one connection element to be placed in the mold, wherein the stage of heating the connection elements comprises heating at least one connection elements prior to placing in the mold, wherein the hose pouring stage comprises pouring the molten hose from the feeding tube, characterized in that in order to enable the molten hose to flow by moving not only in a vertical manner along the Y axis but also forward and backward along the X axis and rightward and leftward at the Z axis; the stage of placing the connection elements and closing the mold comprises placing at least one connection element in the mold such that it corresponds to the curve of the hose, and closing the mold.
A process for the regeneration of a coked catalyst moving in moving bed mode, comprising at least one zone for the combustion of coke deposited on the catalyst, said combustion zone having an annular shape and being divided into at least two combustion stages, each stage being divided into a number N of radial sectors, which are substantially equal, N being in the range 2 to 4, said process being characterized in that the catalyst flowing under gravity from one sector of the first combustion stage to the sector in vertical alignment of the second combustion stage by means of drop legs, and the movement of combustion gas being substantially perpendicular to that of the catalyst, and such that the combustion gas passes in succession through all of the sectors of the first combustion stage in the order1, 2, 3, 4, then through all of the sectors of the second combustion stage in the order 4', 3', 2', 1', when the number of radial sectors is 4 and in the following order 1, 2 then 2',1' when the number of radial sectors is 2, said process being such that the molar flow rate of fuel having the same first value for all of the sectors of the first stage, said first value allowing the combustion of a quantity of coke in the range 60% to 80% of the total coke deposited on the catalyst and a second value, distinct from the preceding value, for all of the sectors of the second combustion stage, said second value allowing complete combustion of residual coke with an excess of oxygen in the fuel gas in the range 0.2% to 0.4%, the inlet temperature for all of the sectors of the first stage of the combustion zone being in the range 460°C to 480°C and the inlet temperature for all of the sectors of the second stage of the combustion zone being in the range 470°C to 490°C, regeneration process in which some make ups of gas for cooling are achieved at the entrance of each sector of each stage, in order to maintain the entry temperature inside the previous limits, this cooling gas being the fuel gas at the exit of the compressor of the so called recycle loop, and these make ups of cooling gas being achieved by means of specific lines that open on lines allowing to link the exit of one sector to the entry of the neighbouring sector.
An apparatus for dispensing one or more products, the apparatus comprising: a housing comprising a dispensing port; a shaft disposed within the housing; and a tray rotatably attached to the shaft, wherein the tray is tilted towards the dispensing port relative to the shaft, wherein the tray rotates the one or more products disposed thereon to the dispensing port via gravity after one of the one or more products disposed on the tray is dispensed. a housing comprising a dispensing port; a shaft disposed within the housing; and a tray rotatably attached to the shaft, wherein the tray is tilted towards the dispensing port relative to the shaft, wherein the tray rotates the one or more products disposed thereon to the dispensing port via gravity after one of the one or more products disposed on the tray is dispensed.
A rigid-flex printed circuit board, comprising: a flexible region, including: a first copper layer, a first dielectric layer, a second copper layer, a first adhesive layer, and a first metal layer, in this order, wherein the first metal layer is a metal film made of stainless steel having a tensile strength greater than each of the first and second copper layers (14, 18) and greater than the first dielectric layer; a rigid region including a rigid substrate, wherein the first metal layer extends through the flexible region and the rigid region; and wherein components are mounted in the rigid region. a first copper layer, a first dielectric layer, a second copper layer, a first adhesive layer, and a first metal layer, in this order, wherein the first metal layer is a metal film made of stainless steel having a tensile strength greater than each of the first and second copper layers (14, 18) and greater than the first dielectric layer; a rigid region including a rigid substrate, wherein the first metal layer extends through the flexible region and the rigid region; and wherein components are mounted in the rigid region.
A computer-implemented method for determining a degree of fullness of a wearable absorbent article, the method comprising: obtaining a first measurement of ambient light received from a photodetector while a light source is off; obtaining a second measurement from the photodetector while the light source is transmitting light, the second measurement comprising a measurement of the ambient light and the transmitted light reflected from an absorbent article; determining a normalized measurement of light reflected from an absorbent article by removing an ambient light signal from the second measurement based on the first measurement of ambient light; determining, from the normalized measurement of light, a presence of bodily exudate in the absorbent article; determining, from a time series of data including an inertial measurement for each of a set of time periods, an activity state, wherein determining the activity state comprises calculating statistical data derived from the inertial measurements, providing the inertial measurements and statistical data to a predictive model, and receiving from the predictive model a determined activity state; and determining a degree of fullness of the absorbent article, wherein determining the degree of fullness comprises using one or more of a regression model or a machine learning model to solve a function that has inputs indicative of (i) an elapsed time since the determination of the presence of bodily exudate determined from the normalized measurement of light and (ii) the activity state. obtaining a first measurement of ambient light received from a photodetector while a light source is off; obtaining a second measurement from the photodetector while the light source is transmitting light, the second measurement comprising a measurement of the ambient light and the transmitted light reflected from an absorbent article; determining a normalized measurement of light reflected from an absorbent article by removing an ambient light signal from the second measurement based on the first measurement of ambient light; determining, from the normalized measurement of light, a presence of bodily exudate in the absorbent article; determining, from a time series of data including an inertial measurement for each of a set of time periods, an activity state, wherein determining the activity state comprises calculating statistical data derived from the inertial measurements, providing the inertial measurements and statistical data to a predictive model, and receiving from the predictive model a determined activity state; and determining a degree of fullness of the absorbent article, wherein determining the degree of fullness comprises using one or more of a regression model or a machine learning model to solve a function that has inputs indicative of (i) an elapsed time since the determination of the presence of bodily exudate determined from the normalized measurement of light and (ii) the activity state.
Method for manufacturing a finished part, characterized in that it comprises: - a step of producing a finishing shell of an internal or external face of the finished part, said finishing shell being made of plastic material, - a step of trimming the finishing shell, - a step of placing the trimmed finishing shell into a heated mold chosen from among a first mold (17.1), so-called female mold, and a second mold (17.2), so-called male mold, in the shape of a punch, said female mold (17.1) having a shape complementary to that of the male mold (17.2), - a step of heating a structural part made of a composite material up to its melting temperature, - a step of depositing the structural part onto the finishing shell, - a step of shaping the structural part against the finishing shell by means of the male mold (17.2) in the shape of a punch cooperating with the female mold (17.1), so that the finishing shell joins with the shaped structural part to obtain the finished part. - a step of producing a finishing shell of an internal or external face of the finished part, said finishing shell being made of plastic material, - a step of trimming the finishing shell, - a step of placing the trimmed finishing shell into a heated mold chosen from among a first mold (17.1), so-called female mold, and a second mold (17.2), so-called male mold, in the shape of a punch, said female mold (17.1) having a shape complementary to that of the male mold (17.2), - a step of heating a structural part made of a composite material up to its melting temperature, - a step of depositing the structural part onto the finishing shell, - a step of shaping the structural part against the finishing shell by means of the male mold (17.2) in the shape of a punch cooperating with the female mold (17.1), so that the finishing shell joins with the shaped structural part to obtain the finished part.
A pH tuneable amido-gellant having a formula selected from the group consisting of: wherein R 1 and R 2 are aminofunctional end-groups such that R 1 is R 2 is wherein each AA is independently selected from the group consisting of: and R 3 and R 4 independently have the formula: (L') o -(L") q -R, wherein: (o + q) is from 1 to 10; L' and L" are linking groups, independently selected from the linking groups consisting of: *the arrow indicates up to 4 substitutions in the positions indicated, and X- an anion; and R, R' and R" are independently selected either from the pH-sensitive-groups consisting of: or from the pH-sensitive-groups consisting of: *the arrow indicates up to 4 substitutions in the positions indicated, n and m are integers from 1 to 20 or from the non-pH-sensitive groups consisting of: such that at least one of R, R' and R" comprises a pH-sensitive group; L 1 is a backbone moiety having molecular weight from 14 to 500 g/mol; and at least one of L 1, R 1 or R 2 comprises a pH-sensitive group; wherein R 5 is an aminofunctional moiety; L 2 is a backbone moiety having molecular weight from 14 to 500 g/mol; wherein L 2 has the formula: L 2 = A a − B b − C c − D d − R ′ ′ ′, wherein: (a+b+c+d) is from 1 to 20; and R'" is either a pH-sensitive group or a non-pH-sensitive groups (selected from the same groups as R, R' and R" for structure), and A, B, C, and D are independently from the linking groups consisting of: *the arrow indicates up to 4 substitutions in the positions indicated, and X - an anion R 5 has the formula: wherein: AA is independently selected from the same group of AA as for structure; (e+f+g) is from 1 to 3, and at least one of AA, R comprises a pH sensitive group; and mixtures thereof; wherein the pH tuneable amido-gellant has a pKa of from 1 to 30, and with the exclusion that the di-amido gellant is not a protein. wherein: AA is independently selected from the same group of AA as for structure; (e+f+g) is from 1 to 3, and at least one of AA, R comprises a pH sensitive group;
A method of generating a composite video for display in a vehicle, the method comprising: generating a plurality of video streams from a plurality of video cameras configured to be positioned on the vehicle; transforming one or more of the plurality of video streams to create a virtual camera viewpoint; combining the plurality of transformed video streams to generate a composite video including a portion of a first image that is generated from a first one of the plurality of video cameras; detecting, with an electronic processor, an object external to the vehicle; determining whether the object at least partially obscures the portion of the first image; and supplementing the portion of the first image with a portion of a second image that is generated by a second one of the plurality of video cameras when the object at least partially obscures the portion of the first image, wherein generating the plurality of video streams from the plurality of video cameras includes generating a plurality of wide-angle images with the plurality of video cameras, wherein transforming the one or more of the plurality of video streams includes transforming the plurality of wide-angle images to a plurality of rectilinear images, and wherein combining the plurality of transformed video streams to generate the composite video includes stitching together the plurality of transformed video streams such that a composite image is formed from the virtual camera viewpoint. generating a plurality of video streams from a plurality of video cameras configured to be positioned on the vehicle; transforming one or more of the plurality of video streams to create a virtual camera viewpoint; combining the plurality of transformed video streams to generate a composite video including a portion of a first image that is generated from a first one of the plurality of video cameras; detecting, with an electronic processor, an object external to the vehicle; determining whether the object at least partially obscures the portion of the first image; and
A stocker (100/100A/100B) comprising: a wall that separates an inside and an outside of the stocker; a storage area which is arranged on an inner side of the wall and in which articles are stored; a duct which is arranged on a wall side of the storage area and extends in a vertical direction; an inlet which is provided at an upper end of the duct and introduces air flowing downward into the duct; a flow regulator which regulates an airflow between an upper side and a lower side of the duct; blowout openings (13c, 13d) which are provided on a storage area side of the duct and blow out air to the storage area; and a fan which is provided on a lower side of the flow regulator of the duct, and which draws in outside air and introduces the outside air into the duct. a wall that separates an inside and an outside of the stocker; a storage area which is arranged on an inner side of the wall and in which articles are stored; a duct which is arranged on a wall side of the storage area and extends in a vertical direction; an inlet which is provided at an upper end of the duct and introduces air flowing downward into the duct; a flow regulator which regulates an airflow between an upper side and a lower side of the duct; blowout openings (13c, 13d) which are provided on a storage area side of the duct and blow out air to the storage area; and a fan which is provided on a lower side of the flow regulator of the duct, and which draws in outside air and introduces the outside air into the duct.
A system for performing an automatic sequence of multiple operational functions of a work vehicle, the system comprising: - a databus; - a primary control unit coupled to the databus, the primary control unit being configured to control the performance of the automatic sequence of the operational functions by generating commands to be provided onto the databus; - a plurality of input devices, the input devices being coupled to the primary control unit; - a plurality of output devices, the system further comprises a plurality of secondary control units coupled between the databus and the respective output device, each secondary control unit being capable of providing status signals to the databus, the status signals being representative of the operational status of the secondary control unit or of the respective output device connected to them, and wherein the primary control unit, after receiving the status signals via databus from the secondary control units, prevents the performance of the next function in the automatic sequence of multiple operational functions if the status signal provided by one of the secondary control units is indicative of a system malfunction. - a databus; - a primary control unit coupled to the databus, the primary control unit being configured to control the performance of the automatic sequence of the operational functions by generating commands to be provided onto the databus; - a plurality of input devices, the input devices being coupled to the primary control unit; - a plurality of output devices, the system further comprises a plurality of secondary control units coupled between the databus and the respective output device, each secondary control unit being capable of providing status signals to the databus, the status signals being representative of the operational status of the secondary control unit or of the respective output device connected to them, and wherein the primary control unit, after receiving the status signals via databus from the secondary control units, prevents the performance of the next function in the automatic sequence of multiple operational functions if the status signal provided by one of the secondary control units is indicative of a system malfunction.
A sight mount for firearms, comprising an elongate base module (101;201) adapted to be mounted on a firearm and an elongate trajectory module (104;204) in the form of a frame pivotally connected to the base module (101;201), wherein the trajectory module (104;204) is adapted to support at least one sight and to be pivoted between different biased positions upwardly and downwardly relative to the base module (101;201), corresponding to different shooting distances, characterised in that the base module has two longitudinal sides and at least one sight mount plate (102,103;202,203) with through holes (102',103';202',203') for screws or pins for affixing the sight mount to a side of the firearm, wherein the trajectory module (104; 204) is configured to be pivotally and releasably mounted on either one of the two longitudinal sides of the base module (101;201) by means of a nut and a shaft or a screw, and wherein the trajectory module comprises a graduated trajectory portion (109, 209) provided with a scale (110, 110', 210, 201") on its right side and on its left side and/or on its rear side.
An insulin analogue containing a modification of the A chain at position A1 by a monomeric glucose-binding moiety which comprises a phenylboronic acid or a halogen-modified phenylboronic acid derivative, and a variant B chain containing a monosaccharide modification at position B27 or position B30.