mhurhangee/ep-ind-claims huggingface dataset:
A liquid hard surface cleaner composition, comprising a surfactant blend comprising or consisting of (a) a first non-ionic surfactant of formula R 1 O n1 P n2 in which R 1 stands for a linear alkyl radical having 9 or 11 carbon atoms; n1 stands for 0 or an integer of from 6 to 10; n2 stands for 0 or an integer of from 6 to 10; p stands for an integer of from 4 to 6; and (b) a second non-ionic surfactant of formula R 2 O m1 P q m2 in which R 2 stands for a linear alkyl radical having 10 carbon atoms; m1 stands for 0 or an integer of from 6 to 10; m2 stands for 0 or an integer of from 6 to 10; q stands for 0 or an integer of from 4 to 6; on condition that both sums (n1+p+n2) and (m1+q+m2) is different from 0. (a) a first non-ionic surfactant of formula R 1 O n1 P n2 in which R 1 stands for a linear alkyl radical having 9 or 11 carbon atoms; n1 stands for 0 or an integer of from 6 to 10; n2 stands for 0 or an integer of from 6 to 10; p stands for an integer of from 4 to 6; and R 1 stands for a linear alkyl radical having 9 or 11 carbon atoms; n1 stands for 0 or an integer of from 6 to 10; n2 stands for 0 or an integer of from 6 to 10; p stands for an integer of from 4 to 6; (b) a second non-ionic surfactant of formula R 2 O m1 P q m2 in which R 2 stands for a linear alkyl radical having 10 carbon atoms; m1 stands for 0 or an integer of from 6 to 10; m2 stands for 0 or an integer of from 6 to 10; q stands for 0 or an integer of from 4 to 6; on condition that both sums (n1+p+n2) and (m1+q+m2) is different from 0. R 2 stands for a linear alkyl radical having 10 carbon atoms; m1 stands for 0 or an integer of from 6 to 10; m2 stands for 0 or an integer of from 6 to 10; q stands for 0 or an integer of from 4 to 6;
Compounds of general formula I: wherein R 1 and R 2 simultaneously or independently represent one or several groups chosen from: halogen such as F, Br, Cl, linear or branched C 1 -C 4 alkyl, hydroxy, linear or branched C 1 -C 4 alkoxy, nitrile or arylsulfonamido the aryl of which is optionally substituted by a linear or branched C 1 -C 4 alkyl group, as well as the different enantiomers and their mixtures in all proportions, and their pharmaceutically acceptable salts. R 1 and R 2 simultaneously or independently represent one or several groups chosen from: halogen such as F, Br, Cl, linear or branched C 1 -C 4 alkyl, hydroxy, linear or branched C 1 -C 4 alkoxy, nitrile or arylsulfonamido the aryl of which is optionally substituted by a linear or branched C 1 -C 4 alkyl group, as well as the different enantiomers and their mixtures in all proportions, and their pharmaceutically acceptable salts.
Method for controlling a boiler of a waste incineration plant by means of a trained neural network, comprising: - inputting input data into the trained neural network, wherein the input data is based on parameters that comprise at least a boiler drum pressure, a furnace temperature, a parameter of a waste delivery system, a parameter of a combustion air duct system, a parameter of a flue gas discharge duct system, and a parameter of a main steam line system; and - calculating and outputting output data by means of the trained neural network, wherein the output data comprise at least control data for at least one control element that contains at least one air valve of the combustion air duct system. - inputting input data into the trained neural network, wherein the input data is based on parameters that comprise at least a boiler drum pressure, a furnace temperature, a parameter of a waste delivery system, a parameter of a combustion air duct system, a parameter of a flue gas discharge duct system, and a parameter of a main steam line system; and - calculating and outputting output data by means of the trained neural network, wherein the output data comprise at least control data for at least one control element that contains at least one air valve of the combustion air duct system.
Tool holder (10, 50) comprising a receptacle for a tool, and also a data module and a power supply, wherein the data module has at least one sensor for capturing operating and/or status data, and a transmitter for transmitting the data to a receiver, wherein the tool holder (10, 50) has a switching unit which electrically connects or disconnects the data module to or from the power supply, and wherein the switching unit is designed in such a manner that it is actuated without contact, and wherein the switching unit is designed such that it is actuated contactlessly, wherein the switching unit is a reed switch, characterized in that the reed switch is designed to be actuated by a magnet located outside of the tool holder.
An optical fiber characteristic measurement device, comprising: a detector configured to detect Brillouin scattered light obtained by causing light to be incident on an optical fiber under test; a spectrum acquisition unit configured to obtain a Brillouin gain spectrum from the Brillouin scattered light using a preset frequency range; and a spectrum analyzing controller configured to: measure a characteristic of the optical fiber under test by analyzing the Brillouin gain spectrum to obtain a peak frequency of the Brillouin gain spectrum; predict a possible peak frequency likely to be obtained during a subsequent measurement based on the peak frequency; and change the frequency range used by the spectrum acquisition unit to obtain the Brillouin gain spectrum to a new frequency range, based on the possible peak frequency; wherein the spectrum acquisition unit is configured to reobtain the Brillouin gain spectrum in the newly set frequency range. a detector configured to detect Brillouin scattered light obtained by causing light to be incident on an optical fiber under test; a spectrum acquisition unit configured to obtain a Brillouin gain spectrum from the Brillouin scattered light using a preset frequency range; and a spectrum analyzing controller configured to: measure a characteristic of the optical fiber under test by analyzing the Brillouin gain spectrum to obtain a peak frequency of the Brillouin gain spectrum; predict a possible peak frequency likely to be obtained during a subsequent measurement based on the peak frequency; and change the frequency range used by the spectrum acquisition unit to obtain the Brillouin gain spectrum to a new frequency range, based on the possible peak frequency; measure a characteristic of the optical fiber under test by analyzing the Brillouin gain spectrum to obtain a peak frequency of the Brillouin gain spectrum; predict a possible peak frequency likely to be obtained during a subsequent measurement based on the peak frequency; and change the frequency range used by the spectrum acquisition unit to obtain the Brillouin gain spectrum to a new frequency range, based on the possible peak frequency; wherein the spectrum acquisition unit is configured to reobtain the Brillouin gain spectrum in the newly set frequency range.
Top-piece device for a plastic pipe for the transportation of a fluid, comprising a saddle which can be fitted to the plastic pipe and a top piece which cooperates with the saddle, which top piece has a chamber with an outlet on the side thereof which is to be turned towards the plastic pipe, an introduction non-return valve via which a tool (21, 22) can be introduced into the chamber, a gasket for sealing said tool with respect to the chamber, a closing means on that end of the chamber which is situated opposite the outlet, a pressure-relief valve which is sealed with respect to the chamber and which is in an open position in the rest position and which can be brought to the closed position when a predetermined current force and/or pressure difference across the pressure-relief valve is exceeded, a piece of pipe from which the pressure-relief valve is suspended and which piece of pipe has at least a lateral opening in its wall, as well as a branch which is connected to the chamber, wherein a sign is provided indicating the orientation of said lateral opening in the wall of the piece of pipe, the piece of pipe has an end which extends through the closing means, and the sign is situated on said end.
A method of forming a macrocomposite comprising: dispersing or immersing a stone in a glass, wherein the stone has a volume of greater than 0.1 mm 3; and annealing the macrocomposite, wherein the stone comprises at least one of an igneous rock, a sedimentary rock, a metamorphic rock, petrified wood, a fossil, a meteorite, and a semi-precious stone, wherein the glass comprises a phosphate glass, wherein the glass does not comprise a silicate glass, wherein the difference in the coefficients of thermal expansion between the stone and the glass is less than 35 x 10 -7 K 1, wherein the coefficient of thermal expansion for the stone is a linear expansion coefficient and is calculated from a dilatometric curve using a temperature range from 10°C to 40°C and the coefficient of thermal expansion for the glass is a linear expansion coefficient and is calculated from a dilatometric curve using a temperature range from 20°C to 300°C, and wherein the macrocomposite does not comprise an organic resin, an adhesive, or a polymer. dispersing or immersing a stone in a glass, wherein the stone has a volume of greater than 0.1 mm 3; and annealing the macrocomposite, wherein the stone comprises at least one of an igneous rock, a sedimentary rock, a metamorphic rock, petrified wood, a fossil, a meteorite, and a semi-precious stone, wherein the glass comprises a phosphate glass, wherein the glass does not comprise a silicate glass, wherein the difference in the coefficients of thermal expansion between the stone and the glass is less than 35 x 10 -7 K 1, wherein the coefficient of thermal expansion for the stone is a linear expansion coefficient and is calculated from a dilatometric curve using a temperature range from 10°C to 40°C and the coefficient of thermal expansion for the glass is a linear expansion coefficient and is calculated from a dilatometric curve using a temperature range from 20°C to 300°C, and wherein the macrocomposite does not comprise an organic resin, an adhesive, or a polymer.
A modular bobbin, comprising: a first bobbin, including a first shaft, and a first pivoting portion and a first snapping portion disposed at an end of the first shaft, and the first pivoting portion and the first snapping portion being arranged on opposite sides of the end of the first shaft respectively; and a second bobbin, including a second shaft coaxially installed with the first shaft, and a second pivoting portion and a second snapping portion disposed at an ends of the second shaft and arranged at two opposite sides of the end of the second shaft respectively, and the second pivoting portion being pivotally coupled to the first pivoting portion, and the second snapping portion being detachably latched to the first snapping portion, so that the first bobbin and the second bobbin may be pivoted and rotated by the first pivoting portion and the second pivoting portion to separate the second snapping portion from the first snapping portion. a first bobbin, including a first shaft, and a first pivoting portion and a first snapping portion disposed at an end of the first shaft, and the first pivoting portion and the first snapping portion being arranged on opposite sides of the end of the first shaft respectively; and a second bobbin, including a second shaft coaxially installed with the first shaft, and a second pivoting portion and a second snapping portion disposed at an ends of the second shaft and arranged at two opposite sides of the end of the second shaft respectively, and the second pivoting portion being pivotally coupled to the first pivoting portion, and the second snapping portion being detachably latched to the first snapping portion, so that the first bobbin and the second bobbin may be pivoted and rotated by the first pivoting portion and the second pivoting portion to separate the second snapping portion from the first snapping portion.
A nonreturn valve for a screw of a plasticising unit of an injection-moulding machine, comprising two half-shells (24a, 24b), which can be arranged in a portion of the screw with reduced screw diameter, wherein in each of the half-shells (24a, 24b) one or more channels are provided for melt to flow through from the screw into the space in front of the screw, wherein the channels lie substantially parallel to the longitudinal axis of the nonreturn valve or respectively to the longitudinal axis of the screw, wherein in each of the channels there are provided a ball and, following the ball as seen in the direction of flow of the melt, a pin, wherein the pin is arranged substantially transversely to the direction of flow of the melt, wherein the channels, as seen in the direction of flow of the melt have respectively a first channel portion with a channel diameter smaller than the ball diameter, and a second channel portion with a channel diameter greater than the ball diameter, and wherein ball and pin are arranged in the second channel portion.
Differential pressure sensor for measuring a pressure difference, which differential pressure sensor is designed as an eddy current sensor, having the following features: an electrically conductive sensor coil for providing an electromagnetic alternating field; a sensor surface for influencing the electromagnetic alternating field, wherein the sensor coil and the sensor surface are arranged such that they can move in relation to one another; and a spring element which is coupled to the sensor coil and to the sensor surface and is designed to counteract a relative movement between the sensor surface and the sensor coil with a spring force, characterized in that the sensor surface is of stationary design and the sensor coil is designed to execute the relative movement depending on the pressure difference. an electrically conductive sensor coil for providing an electromagnetic alternating field; a sensor surface for influencing the electromagnetic alternating field, wherein the sensor coil and the sensor surface are arranged such that they can move in relation to one another; and a spring element which is coupled to the sensor coil and to the sensor surface and is designed to counteract a relative movement between the sensor surface and the sensor coil with a spring force, characterized in that the sensor surface is of stationary design and the sensor coil is designed to execute the relative movement depending on the pressure difference.
Electromechanical locking device, comprising a bistable magnet, a displaceably mounted locking controller coupled to the bistable magnet, a force transmission unit coupled mechanically to the locking controller, and a locking pin which is displaceable by way of the force transmission unit, wherein, by axial displacement of the locking controller, the locking pin is displaceable axially in a direction which is substantially perpendicular to the direction of displacement of the locking controller, characterized in that the mechanical force transmission unit comprises a toothed wheel and a locking closure piece, wherein the toothed wheel converts the axial displacement of the locking controller, by way of a rotational movement, into a parallel, translational displacement of the locking closure piece counter to the axial direction of displacement of the locking controller, and the locking closure piece transfers the translational displacement onto the locking pin in a direction which is substantially perpendicular to the axial displacement.
A gypsum slurry comprising calcined gypsum, hard water having a minimum of about 80 mg/L calcium and foam generated from an alkyl ethoxy sulfate including a hydrophilic portion including about 0.2 to about 3.0 ethoxy groups and a hydrophobic portion including a distribution of alkyl chain lengths including about 20% to about 60% C8 chains; about 20% to about 60% C10 chains; about 14% to about 36% C12 chains and about 2% to about 20% C14 chains.
A method comprising: determining a magnitude of a signal provided by a capacitive sensor of a touch pad; determining that the surface of the touch pad has not been touched if the magnitude of the signal is below a first level; determining that an object has touched the surface of the touch pad if the magnitude of the signal is above a second level; determining fluctuations in the signal provided by the capacitive sensor of the touch pad if the magnitude of the signal is above the first level but below the second level, wherein the fluctuations comprise rapid changes in the signal provided by the capacitive sensor; determining that an object is hovering above the surface of the touch pad if the magnitude of the signal is above the first level but below the second level and the fluctuations in the signal are above a threshold; and determining that the object is touching the surface of the touch pad if the magnitude of the signal is above the first level but below the second level and the fluctuations in the signal are below the threshold. determining a magnitude of a signal provided by a capacitive sensor of a touch pad; determining that the surface of the touch pad has not been touched if the magnitude of the signal is below a first level; determining that an object has touched the surface of the touch pad if the magnitude of the signal is above a second level; determining fluctuations in the signal provided by the capacitive sensor of the touch pad if the magnitude of the signal is above the first level but below the second level, wherein the fluctuations comprise rapid changes in the signal provided by the capacitive sensor; determining that an object is hovering above the surface of the touch pad if the magnitude of the signal is above the first level but below the second level and the fluctuations in the signal are above a threshold; and determining that the object is touching the surface of the touch pad if the magnitude of the signal is above the first level but below the second level and the fluctuations in the signal are below the threshold.
A personal heating ventilation and air conditioning system (HVAC) for an aircraft seat, comprising: a plurality of aircraft seats (10A, 10B, 10C); a heating/cooling device disposed on the plurality of aircraft seats (10A, 10B, 10C); a plurality of branches (101A, 101B, 101C) configured to provide a plurality of flow paths from the heating/cooling device; a plurality of sub-branches (102A, 102B, 103A, 103B, 104A, 104B) provided within the plurality of aircraft seats (10A, 10B, 10C), wherein the plurality of sub-branches (102A, 102B, 103A, 103B, 104A, 104B) are configured to provide flow from the plurality of branches (101A, 101B, 101C) through the plurality of aircraft seats (10A, 10B, 10C); and means for expelling air from the plurality of sub-branches(102A, 102B, 103A, 103B, 104A, 104B) to an interior surface of the plurality of aircraft seats (10A, 10B, 10C). a plurality of aircraft seats (10A, 10B, 10C); a heating/cooling device disposed on the plurality of aircraft seats (10A, 10B, 10C); a plurality of branches (101A, 101B, 101C) configured to provide a plurality of flow paths from the heating/cooling device; a plurality of sub-branches (102A, 102B, 103A, 103B, 104A, 104B) provided within the plurality of aircraft seats (10A, 10B, 10C), wherein the plurality of sub-branches (102A, 102B, 103A, 103B, 104A, 104B) are configured to provide flow from the plurality of branches (101A, 101B, 101C) through the plurality of aircraft seats (10A, 10B, 10C); and means for expelling air from the plurality of sub-branches(102A, 102B, 103A, 103B, 104A, 104B) to an interior surface of the plurality of aircraft seats (10A, 10B, 10C).
A mill blank for dental use comprising a mill blank portion having a multilayer structure with two or more layers, Wherein the multilayer structure comprises a body layer inside an enamel layer, and the body layer is shaped to comprise a bottom face and a side face, the side face having a portion perpendicular to the bottom face, wherein the mill blank portion comprises at least one intermediate layer between the enamel layer and the body layer, and wherein the mill blank has L* values that satisfy the following relationship: L* value of enamel layer < L* value of body layer < L* value of intermediate layer in the L*a*b* color system. Wherein the multilayer structure comprises a body layer inside an enamel layer, and the body layer is shaped to comprise a bottom face and a side face, the side face having a portion perpendicular to the bottom face, wherein the mill blank portion comprises at least one intermediate layer between the enamel layer and the body layer, and wherein the mill blank has L* values that satisfy the following relationship: L* value of enamel layer < L* value of body layer < L* value of intermediate layer in the L*a*b* color system.
A cleaning device having a variable width cleaning (head) surface, the device including a handle assembly provided in the vertical axis, an adaptor assembly and a cleaning head assembly provided in the horizontal axis, said handle assembly is functionally associated with said adaptor assembly which in turn is functionally associated with said cleaning head assembly, wherein said adaptor assembly provides for translating vertical movement (up or down) along the vertical axis of said handle assembly to horizontal movement (left or right) along the horizontal axis of said cleaning head assembly, said cleaning head assembly including at least two portions (112,114) a first portion and second portion wherein each of said at least two portion having an upper surface, lower surface, outer side surface and inner side surface, wherein said lower surface provides a surface from which a cleaning surface extends, and wherein said first portion and said second portion form said head assembly, are associated with one another along said inner side surface therein allowing said at least two portion (112,114) to slide relative to one another along the length of said inner side surfaces to provide said variable width characterized in that said cleaning surface extends from the bottom side of said lower surface at any of said variable widths.
A communication control method comprising: determining whether or not reception quality of a second reception device satisfies a predetermined reference in a communication system including a first transmission device, a first reception device, a second transmission device secondarily using a frequency having been assigned to the first transmission device, and the second reception device; and characterized in that when it is determined that the reception quality of the second reception device does not satisfy the predetermined reference, additionally performing reception beam steering by the first reception device, transmission beam steering by the first transmission device, reception beam steering by the second reception device, and transmission beam steering by the second transmission device in a predetermined order. determining whether or not reception quality of a second reception device satisfies a predetermined reference in a communication system including a first transmission device, a first reception device, a second transmission device secondarily using a frequency having been assigned to the first transmission device, and the second reception device; and characterized in that when it is determined that the reception quality of the second reception device does not satisfy the predetermined reference, additionally performing reception beam steering by the first reception device, transmission beam steering by the first transmission device, reception beam steering by the second reception device, and transmission beam steering by the second transmission device in a predetermined order.