mhurhangee/patent-ind-claim-en huggingface dataset:
A personal care composition comprising: a dispersed gel network comprising: 0.05% or more, by weight of the personal care composition, of one or more fatty alcohols, 0.01% or more, by weight of the personal care composition, of a gel network surfactant, the gel network surfactant selected from a first group consisting of anionic surfactants, cationic surfactants, amphoteric surfactants, zwitterionic surfactants, non-ionic surfactants, and mixtures thereof; and water; a detersive surfactant selected from a second group consisting of an anionic surfactants, cationic surfactants, amphoteric surfactants, zwitterionic surfactants, non-ionic surfactants, and mixtures thereof, wherein the detersive surfactant is a surfactant free of sulfates; and liquid carrier; and wherein the personal care composition is free of sulfated surfactants; wherein the gel network surfactant and the detersive surfactant each independently comprise an isethionate, a sarcosinate, a sulfonate, a sulfosuccinate, a sulfoacetate, a glycinate, a glutamate, an ester, a carboxylate, an amphoacetate, a taurate, an acyl amino acid, a betaine, a sultaine, or a mixture thereof; and wherein the gel network surfactant and the detersive surfactant are different. a dispersed gel network comprising: 0.05% or more, by weight of the personal care composition, of one or more fatty alcohols, 0.01% or more, by weight of the personal care composition, of a gel network surfactant, the gel network surfactant selected from a first group consisting of anionic surfactants, cationic surfactants, amphoteric surfactants, zwitterionic surfactants, non-ionic surfactants, and mixtures thereof; and water; 0.05% or more, by weight of the personal care composition, of one or more fatty alcohols, 0.01% or more, by weight of the personal care composition, of a gel network surfactant, the gel network surfactant selected from a first group consisting of anionic surfactants, cationic surfactants, amphoteric surfactants, zwitterionic surfactants, non-ionic surfactants, and mixtures thereof; and water; a detersive surfactant selected from a second group consisting of an anionic surfactants, cationic surfactants, amphoteric surfactants, zwitterionic surfactants, non-ionic surfactants, and mixtures thereof, wherein the detersive surfactant is a surfactant free of sulfates; and liquid carrier; and wherein the personal care composition is free of sulfated surfactants; wherein the gel network surfactant and the detersive surfactant each independently comprise an isethionate, a sarcosinate, a sulfonate, a sulfosuccinate, a sulfoacetate, a glycinate, a glutamate, an ester, a carboxylate, an amphoacetate, a taurate, an acyl amino acid, a betaine, a sultaine, or a mixture thereof; and wherein the gel network surfactant and the detersive surfactant are different.
A trim breaker for an appliance cabinet, the trim breaker comprising: a metallic liner portion that is configured to attach to an inner liner ; a metallic wrapper portion that is configured to attach to an outer wrapper ; characterized by inner and outer glazing members that extend between the liner and wrapper portions , wherein the outer glazing member is configured to define a contact surface that receives an operable panel in a closed position and the inner glazing member is configured to partially define an insulating cavity . a metallic liner portion that is configured to attach to an inner liner ; a metallic wrapper portion that is configured to attach to an outer wrapper ; characterized by inner and outer glazing members that extend between the liner and wrapper portions , wherein the outer glazing member is configured to define a contact surface that receives an operable panel in a closed position and the inner glazing member is configured to partially define an insulating cavity .
An expansion joint to bridge and expansion gap between two adjacent concrete floor slabs, the joint having, in use, an upper and lower portion, wherein the upper portion provides a first and a second dividing member , the dividing members consisting of two vertically oriented corrugated plates having undulations that fit in one another and wherein the lower portion comprises a first vertically oriented plate , the vertical orientation being perpendicular with respect to the floor surface when in use, the joint further comprising anchoring dowels and characterized in that the first vertically oriented plate of the lower portion is a corrugated plate , the first dividing member and the first lower corrugated plate are substantially in the same lateral plane and are secured to one another through a binding member consisting of a metal sheet; the corrugated plates of of the upper portion are out of phase to the corrugated plate of the lower portion; and wherein said anchoring dowels present on one side of both the upper and the lower corrugated plates are configured to anchor the expansion joint in the adjacent slabs.
A method for controlling an ice cream making apparatus of a refrigeration appliance , in particular a domestic refrigerator, wherein the ice cream making apparatus comprising a container for holding the ice cream to be agitated, a stirrer for agitating the ice cream inside the container and a motor for driving the stirrer , and wherein the refrigeration appliance further comprising a freezer compartment which accommodates the ice cream making apparatus , a door for accessing the container , a control unit for controlling the motor and a user-interface for receiving a user input, wherein the control unit has a yoghurt ice cream mode and/or a fruit ice cream mode, wherein each mode is selectable by the user via the user-interface, said method being characterized by comprising: - a step (S1) of initiating the yoghurt ice cream mode or the fruit ice cream mode in accordance with the user selection which is input via the user interface, - a step (S2) of controlling the motor in accordance with an ON/OFF regime which is prescribed by the mode initiated in the initiating step (S1), wherein in the ON/OFF regime the motor is successively switched ON and OFF for a prescribed plural number N of cycles to complete the process of yoghurt/fruit ice cream production. - a step (S1) of initiating the yoghurt ice cream mode or the fruit ice cream mode in accordance with the user selection which is input via the user interface, - a step (S2) of controlling the motor in accordance with an ON/OFF regime which is prescribed by the mode initiated in the initiating step (S1), wherein in the ON/OFF regime the motor is successively switched ON and OFF for a prescribed plural number N of cycles to complete the process of yoghurt/fruit ice cream production.
A shallow water seabed terminal for storing and loading or unloading hydrocarbons, such as LNG, oil or gas, comprising a floatable, removable module , and a removable seabed substructure intended to be supported by a seabed by means of piles , the floatable module being releasably fixed to the seabed substructure so that a harbour terminal is formed, the seabed substructure comprises a base structure provided with buoyancy devices, a wall structure extending upwards from the base structure and arranged along at least a part of the periphery of the base structure , the base structure being provided with an opening in the wall structure for allowing the floatable module , to be berthed in and supported by the seabed substructure characterized in that the wall structure forms an integrated part with the base structure and the wall structure is provided with a submerged beam structure and extending more or less along the circumference of the base structure , extending laterally out from the vertical wall structure , configured to support the floatable, removable module , and that the submerged beam structure isprovided with sleeves or ducts extending through the submerged beam structure configured to receive the piles to be driven down into the seabed soil for support of the base structure and the floatable module .
A quartz glass pharmaceutical container defining an interior volume and having an upper end, a base end, at least one wall defining an inner surface and an outer surface, wherein the inner surface of the container has a surface feature density of 50 or fewer surface features per square centimeter within a 1 cm band centered 1 cm from the base end of the pharmaceutical container, the surface features having a size of 1 to 200 μm.
Apparatus for separating materials of varying flowability that are mixed together, comprising a framework , a hollow drum which can be driven in rotation and which is mounted on the framework with perforated lateral surface M, a continuous press belt which can be pressed from outside onto this with looping of a part of the circumference of the hollow drum , which press belt can be driven in circulation, a product intake wedge for the supply of a product flow, as well as a support apparatus for the press belt with at least one support element which is arranged on the side of the press belt opposite the hollow drum , wherein the apparatus comprises at least two separate drives , of which one drive is assigned to the hollow drum and one drive is assigned to the press belt , characterised in that the apparatus comprises a control and/or regulating device , by means of which the drives can be actuated separately such that the hollow drum can be driven with a speed V 1 and the press belt with a speed V 2 , wherein the differential speed V Δ between V 1 and V 2 during operation of the apparatus can be controlled and/or regulated, wherein V Δ = 0 or ≠ 0 can apply, and that the apparatus comprises a detection element which is configured and adapted to detect the spacing between the hollow drum and the press belt , wherein the detection element is connected to the control and/or regulating device .
A method of preparing a multilayer article from a semiconductor substrate, the semiconductor substrate comprising two major, generally parallel surfaces, one of which is the front surface of the semiconductor substrate and the other of which is a back surface of the semiconductor substrate, and a circumferential edge joining the front and back semiconductor substrate surfaces, the method comprising: (a) forming a metal film on the front surface of the semiconductor substrate, the metal film comprising a front metal film surface, a back metal film surface, and a bulk metal region between the front and back metal film surfaces, wherein the back metal film surface is in contact with the front semiconductor substrate surface; (b) forming a layer of boron nitride between the front surface of the semiconductor substrate and the back metal film surface wherein the layer of boron nitride is formed by contacting the metal film surface with a boron-containing gas and a nitrogen-containing gas at a temperature sufficient to in-diffuse boron atoms and nitrogen atoms into the bulk metal region of the metal film; and cooling the semiconductor substrate comprising the metal film such that boron and nitrogen precipitate out of the bulk metal region of the metal film and form a layer of boron nitride between the back metal film surface of the metal film and the front surface of the semiconductor substrate; and (c) forming a layer of graphene between the front surface of the semiconductor substrate and the back metal film surface, wherein steps (b) and (c) are either carried out in that order or are repeated. (a) forming a metal film on the front surface of the semiconductor substrate, the metal film comprising a front metal film surface, a back metal film surface, and a bulk metal region between the front and back metal film surfaces, wherein the back metal film surface is in contact with the front semiconductor substrate surface; (b) forming a layer of boron nitride between the front surface of the semiconductor substrate and the back metal film surface wherein the layer of boron nitride is formed by contacting the metal film surface with a boron-containing gas and a nitrogen-containing gas at a temperature sufficient to in-diffuse boron atoms and nitrogen atoms into the bulk metal region of the metal film; and cooling the semiconductor substrate comprising the metal film such that boron and nitrogen precipitate out of the bulk metal region of the metal film and form a layer of boron nitride between the back metal film surface of the metal film and the front surface of the semiconductor substrate; and (c) forming a layer of graphene between the front surface of the semiconductor substrate and the back metal film surface, wherein steps (b) and (c) are either carried out in that order or are repeated.
A resin composition for a dense fuel cell separator, comprising graphite powder and an epoxy resin component that includes a base resin, a curing agent and a curing accelerator, wherein the graphite powder has a springback of between 20 and 70%, determined as described in the description, and an average particle size d50 of from 30 to 100 μm when measured as set out in the description, and the curing accelerator is an imidazole compound having an aryl group at the 2 position. wherein the graphite powder has a springback of between 20 and 70%, determined as described in the description, and an average particle size d50 of from 30 to 100 μm when measured as set out in the description, and the curing accelerator is an imidazole compound having an aryl group at the 2 position.
A gaming, betting and/or entertainment machine, in particular a coin- and/or cash-operable gaming or betting machine, comprising a machine housing , a data processing unit accommodated in the machine housing , at least one display device for displaying game and/or entertainment signals, and an operating means for machine operation, which is disposed on the machine housing , wherein the machine housing has a modular structure and consists of a plurality of machine housing modules to be attached to each other, which each are preassembled with the electronic components attached thereto, wherein a first machine housing module , which carries the data processing unit and the operating means, includes a first connection interface, by means of which a second machine housing module , which carries the display device , can be attached to the first machine housing module , wherein data transmission lines with releasable junction points are provided between the machine housing modules , wherein the data processing unit in the first machine housing module includes a detection means for self-detection of the respectively connected electronic components of the respectively mounted machine housing modules , wherein in addition to said first connection interface for the second machine housing module carrying the display device, the first machine housing module includes a further connection interface for attaching a third machine housing module , which carries a payout unit , wherein a fourth machine housing module , which forms a machine housing pedestal, has a connection interface , by means of which it can selectively be attached to the first machine housing module when the third machine housing module is not provided, or to the third machine housing module mounted thereon when the third machine housing module is provided, and wherein the connection interfaces of the machine housing modules are arranged on the upper and lower surfaces of the machine housing modules , so that the machine housing modules can be stacked one on top of the other in a tower-like fashion.
A method for synthesizing N-3-R 2 -4-R 1 substituted phenyl-5-hydroxymethyl-2-oxazolidinone, wherein the method comprises: reacting from raw materials, 3-R 2 -4-R 1 -aniline and epichlorohydrin, and allowing the resulting product to react under alkaline conditions in a CO 2 atmosphere to obtain N-substituted phenyl-5-hydroxymethyl-2-oxazolidinone, wherein R 1 is a morpholine group, a morpholin-3-one group or a piperazine group, and R 2 is halogen, hydrogen or lower alkyl; wherein the method is a one-pot process comprising: preparing 1-chloro-3-(3-R 2 -4-R 1 -phenylamino)-2-propanol from 3-R 2 -4-R 1 -aniline and epichlorohydrin as raw materials, wherein R 1 is a morpholine group, a morpholin-3-one group or a piperazine group and R 2 is halogen, hydrogen or lower alkyl; adding an inorganic or organic base and introducing CO 2 to allow 1-chloro-3-(3-R 2 -4-R 1 -phenylamino)-2-propanol and CO 2 to undergo cyclization to obtain N-substituted phenyl-5-hydroxymethyl-2-oxazolidinone.
A temperature-control unit for a furnace device for heat treating a plate , in particular a metal plate , the temperature-control unit comprising a temperature-control body , which is arrangeable in a furnace chamber of the furnace device , wherein the temperature-control body has a plurality of receiving bores , and a plurality of temperature-control pins , wherein the temperature-control pins are mounted in the receiving bores so as to be movable relative to the temperature-control body and are movable between a first position, in which the temperature-control pins are present spaced apart from the plate, and a second position, in which the temperature-control pins are in thermal contact with the plate, wherein the temperature control body is in thermal contact with the temperature-control pins , so that they can be adjusted to a temperature by means of the temperature-control body , characterized in that the temperature-control pins are controllable in such a way that a temperature-control group of the temperature-control pins is extendable out of the temperature-control body in the direction towards the plate into the second position, so that a thermal contact is generatable between the temperature-control group of temperature-control pins with a predetermined temperature-control zone of the plate , and that the temperature-control pins , which do not belong to the temperature-control group , remain in the first position. a temperature-control body , which is arrangeable in a furnace chamber of the furnace device , wherein the temperature-control body has a plurality of receiving bores , and a plurality of temperature-control pins , wherein the temperature-control pins are mounted in the receiving bores so as to be movable relative to the temperature-control body and are movable between a first position, in which the temperature-control pins are present spaced apart from the plate, and a second position, in which the temperature-control pins are in thermal contact with the plate, wherein the temperature control body is in thermal contact with the temperature-control pins , so that they can be adjusted to a temperature by means of the temperature-control body , characterized in that the temperature-control pins are controllable in such a way that a temperature-control group of the temperature-control pins is extendable out of the temperature-control body in the direction towards the plate into the second position, so that a thermal contact is generatable between the temperature-control group of temperature-control pins with a predetermined temperature-control zone of the plate , and that the temperature-control pins , which do not belong to the temperature-control group , remain in the first position.
A video decoding method, comprising: obtaining , from a bitstream, an index of predicted motion information of a current image block in a candidate predicted motion information list, wherein the predicted motion information comprises reference image information and a motion vector prediction value, and candidate predicted motion information in the candidate predicted motion information list is motion information of an adjacent block of the current image block in time domain or space domain; querying the candidate predicted motion information list based on the index, and using the found candidate predicted motion information as the predicted motion information; determining a correspondence between a motion vector difference value and a motion vector prediction value, and obtaining the motion vector difference value from the bitstream; and correcting the motion vector prediction value by adding the motion vector difference value to obtain a motion vector of the current image block, wherein when the prediction mode is a bidirectional prediction, the predicted motion information comprises two motion vector prediction values: a first motion vector prediction value and a second motion vector prediction value, wherein the method is characterized in that there is only one motion vector difference value obtained from the bitstream and the motion vector difference value is reused for correcting the motion vector prediction values by adding the same motion vector difference value to the first motion vector prediction value and the second motion vector prediction value. obtaining , from a bitstream, an index of predicted motion information of a current image block in a candidate predicted motion information list, wherein the predicted motion information comprises reference image information and a motion vector prediction value, and candidate predicted motion information in the candidate predicted motion information list is motion information of an adjacent block of the current image block in time domain or space domain; querying the candidate predicted motion information list based on the index, and using the found candidate predicted motion information as the predicted motion information; determining a correspondence between a motion vector difference value and a motion vector prediction value, and obtaining the motion vector difference value from the bitstream; and correcting the motion vector prediction value by adding the motion vector difference value to obtain a motion vector of the current image block, wherein when the prediction mode is a bidirectional prediction, the predicted motion information comprises two motion vector prediction values: a first motion vector prediction value and a second motion vector prediction value, wherein the method is characterized in that there is only one motion vector difference value obtained from the bitstream and the motion vector difference value is reused for correcting the motion vector prediction values by adding the same motion vector difference value to the first motion vector prediction value and the second motion vector prediction value.
A method for laser machining a workpiece , in particular for laser cutting a workpiece , with a laser machining system , comprising: piercing a piercing hole into the workpiece with a laser beam ; measuring a current piercing depth of the piercing hole by at least one optical measuring beam during the piercing operation; and adjusting at least one process parameter of the laser machining system during the piercing operation based on the current piercing depth to control and/or regulate the piercing operation, characterised in that a rate of change of the piercing depth is determined and the at least one process parameter is adjusted based on the rate of change. piercing a piercing hole into the workpiece with a laser beam ; measuring a current piercing depth of the piercing hole by at least one optical measuring beam during the piercing operation; and adjusting at least one process parameter of the laser machining system during the piercing operation based on the current piercing depth to control and/or regulate the piercing operation, characterised in that a rate of change of the piercing depth is determined and the at least one process parameter is adjusted based on the rate of change.