mhurhangee/ep-ind-claims huggingface dataset:
Method for predicting the expected travel path of a moving vehicle by numerical integration of a dynamic vehicle model using at least one rotational travel state (φ Pre), which is affected by the angular motion of the vehicle, and at least one longitudinal travel state (ν Pre), which is affected by the linear motion of the vehicle, characterized in that time-related function rules (φ Pre (t), ν Pre (t)) for a predicted rotational travel state (φ Pre) and/or for a predicted longitudinal travel state (ν Pre) are determined, and values for the travel state concerned (φ Pre, ν Pre) are predicted at specific points in time by numerical integration of said function rules (φ Pre (t), ν Pre (t)), wherein the time-related function rule (φ Pre (t), ν Pre (t)) of a predicted travel state is determined by obtaining respective rotational or longitudinal input variables (ω 0, ώ 0, α 0, ι 0) for at least two time-derivatives of the travel state concerned (φ Pre, ν Pre) from measured values, and relating the input variables (ω 0, ώ 0, α 0, ι 0) in linear dynamic models of order equal to the number of input variables (ω 0, ώ 0, α 0, ι 0) of the travel state concerned (φ Pre, ν Pre) using specified time constants (τ ω,1, τ ω,2, τ α,1, τ α,2) and by determining from the linear model a time-related function rule (ω Pre (t), α Pre (t)) for prediction values, i.e. expected values, for the input variable concerned, and by analytically integrating the function rule (ω Pre (t), α Pre (t)) for the prediction values of the input variable.
Optical cable comprising a buffer tube housing at least one optical fiber, a sheath surrounding such buffer tube and two diametrically opposed strength members arranged in an axial plane (f) and embedded in the sheath, in which at least one non-bonding separation element is provided between a portion of the outer surface of the buffer tube and the inner surface of the sheath, laying in an axial plane (e) not containing the strength members, wherein the axial plane (e) of the at least one separation element forms an angle of substantially 90° with the axial plane (f) of the strength members, the at least one non-bonding separation element extending around the circumference of the buffer tube for an extension angle of from 30° to 120°.
Rappelling device having a casing that is movable along a rope and in which a pulley and a guide roller are supported rotatably, such that the rope, during rappelling, is held in frictional contact with the periphery of the pulley, the device having a braking device for the pulley and a coupling device for suspending a load to be rappelled, characterized in that the casing forms a rope channel that extends between the guide roller and the pulley and into which the rope can be placed in extended state, and in that the coupling device is arranged at the casing in a position that is offset from the rope passage towards the side of the pulley.
Apparatus for managing hot water in a hot water storage tank heating system having an energy source and a hot water tank with an inlet pipe and an outlet pipe, the apparatus comprising: a mounting bracket for attaching to the outlet pipe of the hot water tank, the bracket being arranged to hold one or more temperature sensors (312, 315), the sensors being arranged to provide temperature sensor signals from the hot tank outlet, a computer implemented processing arrangement configured to receive the temperature sensor signals, wherein the processing arrangement is arranged to run one or more processing means to establish the temperature distribution within the tank and an interface configured to communicate with a user or additional processors either locally or remotely, characterised in that a second temperature sensor is spaced from a first sensor along the outlet pipe and cooling features are provided around the second sensor thereby promoting a larger temperature delta across the mounting bracket, thereby increasing accuracy. a mounting bracket for attaching to the outlet pipe of the hot water tank, the bracket being arranged to hold one or more temperature sensors (312, 315), the sensors being arranged to provide temperature sensor signals from the hot tank outlet, a computer implemented processing arrangement configured to receive the temperature sensor signals, wherein the processing arrangement is arranged to run one or more processing means to establish the temperature distribution within the tank and an interface configured to communicate with a user or additional processors either locally or remotely,
An adaptive deployable restraint element for a vehicle safety system for protecting a vehicle occupant in a vehicle composing at least two leg elements (11, 12) at least in portions arranged substantially in V-shape relative to each other each with a base end and a point opposed to the base end between which at least one cross brace (13, 14, 15) is arranged for connecting the leg elements (11, 12), wherein the leg elements and/or the cross brace (13, 14, 15) are/is inflatable, characterized in that the base ends can be or are fixed within the vehicle in a stationary manner and the leg elements (11, 12) are arranged such that they form a front-side leg element and a rear-side leg element, of which the front-side leg element faces the vehicle occupant and the rear-side leg element is turned away from the vehicle occupant.
A method for processing biological material for flow cytometry evaluation for virus particles, the method comprising: centrifuging a mixture comprising biological material for evaluation and purification particles to prepare a centrifuged composition including a more-dense phase concentrated in the purification particles and a less-dense supernatant: wherein: the biological material comprises larger-size components and smaller-size components; and the purification particles comprise: a porous core functionalized with ligands having a positive charge, to capture at least some non-virus impurities of the smaller-size components; and a porous size-exclusion shell surrounding the core and having a pore structure with a size exclusion cutoff of not larger than 1,000,000 Daltons, to exclude the larger-size components from entering into the core through the pore structure of the shell while permitting the smaller-size components to enter into the core through the pore structure of shell. the biological material comprises larger-size components and smaller-size components; and the purification particles comprise: a porous core functionalized with ligands having a positive charge, to capture at least some non-virus impurities of the smaller-size components; and a porous size-exclusion shell surrounding the core and having a pore structure with a size exclusion cutoff of not larger than 1,000,000 Daltons, to exclude the larger-size components from entering into the core through the pore structure of the shell while permitting the smaller-size components to enter into the core through the pore structure of shell. a porous core functionalized with ligands having a positive charge, to capture at least some non-virus impurities of the smaller-size components; and a porous size-exclusion shell surrounding the core and having a pore structure with a size exclusion cutoff of not larger than 1,000,000 Daltons, to exclude the larger-size components from entering into the core through the pore structure of the shell while permitting the smaller-size components to enter into the core through the pore structure of shell.
Installation for producing a multilayer web, comprising at least one device for producing and/or depositing a first web on a circulating belt, wherein, in material transport direction, a device is arranged downstream, which is configured to apply a layer of wet-laid fibres onto the first web, said device being configured as a cylinder mould former, from which the wet-laid fibres are transported with their upper side from the circulating belt towards the circulating belt, wherein, in material transport direction, a device for entangling and/or bonding the first web with the layer of wet-laid fibres is arranged, wherein the distance I between the deposition points of the first web on the circulating belt and the deposition point of the layer of wet-laid fibres on the first web is a maximum of 10 m.
Dryer for a web of textile material having at least one dryer chamber in which there is rotatably arranged at least one air-permeable cylinder which is configured so that the web of material is wrapped partially around it, having a heating element for heating the fresh air which has been drawn in, so that heated drying air flows through the web of material, wherein there is provided at least one fan which is configured to draw moist drying air from the inside of the cylinder out of an opening on an end face of the at least one cylinder and to discharge that air as exhaust air by means of a channel, characterised in that the dryer has means for determining the temperature and moisture content of the fresh air flowing into the dryer, and means for determining the mass throughput and the moisture content of the web of material entering the dryer, and in that the dryer has at least one sensor (18, 19, 20) for determining the moisture content of the exhaust air stream and thereby determines the temperature, the volume and the moisture content of the exhaust air, wherein the dryer has a controller which is configured to process the data of the sensor (18, 19, 20) for determining the moisture content of the exhaust air stream with the initial moisture content of the web of material and the moisture content of the fresh air stream and thus control the evaporation capacity of the dryer, wherein a determination of the residual moisture content in the web of material is carried out by consideration of the mass balance of the moisture contents in the controller.
An aqueous pigment preparation comprising 1.0 to 75.0 wt% of at least one organic or inorganic white or chromatic pigment, or a mixture of different organic and inorganic white or chromatic pigments, 0.01 to 8.0 wt% of at least one fatty acid condensation product of the formula, in which R is a linear or branched alkyl or alkenyl radical having 7 to 21 carbon atoms, A is an oxygen atom, a -NH group, a -N(CH 3) group, or a group of the formula, B is a carboxylic acid group of the formula -COOH, a sulfonic acid group of the formula -SO 3 H, the sodium, potassium, ammonium or monoalkanolammonium or trialkanolammonium salts thereof, and the deprotonated form -COO - and -SO 3 - thereof, and x and y independently of one another are an integer from 1 to 8, 0.01 to 12.0 wt% of a fatty acid ethanolamide ethoxylate of the formula, in which m is an integer from 3 to 50 and R 1 is C 7 to C 21 alkyl or alkenyl, and water. 1.0 to 75.0 wt% of at least one organic or inorganic white or chromatic pigment, or a mixture of different organic and inorganic white or chromatic pigments, 0.01 to 8.0 wt% of at least one fatty acid condensation product of the formula, in which R is a linear or branched alkyl or alkenyl radical having 7 to 21 carbon atoms, A is an oxygen atom, a -NH group, a -N(CH 3) group, or a group of the formula, B is a carboxylic acid group of the formula -COOH, a sulfonic acid group of the formula -SO 3 H, the sodium, potassium, ammonium or monoalkanolammonium or trialkanolammonium salts thereof, and the deprotonated form -COO - and -SO 3 - thereof, and x and y independently of one another are an integer from 1 to 8, R is a linear or branched alkyl or alkenyl radical having 7 to 21 carbon atoms, A is an oxygen atom, a -NH group, a -N(CH 3) group, or a group of the formula, B is a carboxylic acid group of the formula -COOH, a sulfonic acid group of the formula -SO 3 H, the sodium, potassium, ammonium or monoalkanolammonium or trialkanolammonium salts thereof, and the deprotonated form -COO - and -SO 3 - thereof, and x and y independently of one another are an integer from 1 to 8, 0.01 to 12.0 wt% of a fatty acid ethanolamide ethoxylate of the formula, in which m is an integer from 3 to 50 and R 1 is C 7 to C 21 alkyl or alkenyl, and water.
A palletizer for stacking items on a pallet, comprising; a strapping unit, arranged to wrap at least a strapping loop around at least two of said items (4a, 4b) arranged on said station, characterized in that it further comprises; at least one gripping head, whose movement is controlled in the Cartesian space for picking a plurality of items (4a,4b) from a production line and for placing them on a loading station with vertical attitude, and also at least a movable pressing member (10, 10'), integral in motion with a strapping guiding track of said strapping unit which defines the launch and recall path of the strap, provided with a pressing end movable between a home position, outside the footprint of said items, and an operative position, in which it exerts a pressure in the direction of a vertical side of said items (4a, 4b).
Separator disc for a centrifuge, in particular for a separator, wherein the separator disc is provided to be arranged in a separator disc stack in a drum interior of a drum of the centrifuge for separating a mixture of substances, wherein the separator disc comprises a frustoconical shell-like base body created from a blank in a forming process and having an inner surface and an outer surface and at least one functional element applied thereto, characterized in that the at least one functional element is produced by an additive manufacturing process.
A lithium secondary battery, comprising a cathode, an anode, a non-aqueous solution containing a lithium salt and an organic solvent, and a safety vent for removing increased internal pressure, characterized in that the safety vent has a vent hole whose opening pressure is in the range of 343.2 to 1471 kPa (3.5 to 15 kgf/cm 2); and the non-aqueous solution further contains a mixture of toluene and xylene in a weight ratio of 1:0.1 to 1:0.5 as an additive.
A method for generating a moiré-producing pattern comprising the steps of: generating a first pattern based on an input image and moiré information specifying a condition of the moiré-producing pattern; generating a second pattern that determines a phase shift amount relative to the first pattern, the phase shift amount being determined for each region in the input image according to a feature value of the region based on the input image and the moiré information; the method characterized in that it comprises the steps of: identifying a plurality of layers included in the input image based on the input image and the moiré information; determining a pitch for generating a moiré image using the layers at a depth level which defines a range of a specific depth distance, the pitch being determined for each of the plurality of identified layers based on the input image and the moiré information; and obtaining a moiré-producing pattern composed of the first pattern and the second pattern based on the determined pitch. generating a first pattern based on an input image and moiré information specifying a condition of the moiré-producing pattern; generating a second pattern that determines a phase shift amount relative to the first pattern, the phase shift amount being determined for each region in the input image according to a feature value of the region based on the input image and the moiré information; the method characterized in that it comprises the steps of: identifying a plurality of layers included in the input image based on the input image and the moiré information; determining a pitch for generating a moiré image using the layers at a depth level which defines a range of a specific depth distance, the pitch being determined for each of the plurality of identified layers based on the input image and the moiré information; and obtaining a moiré-producing pattern composed of the first pattern and the second pattern based on the determined pitch. identifying a plurality of layers included in the input image based on the input image and the moiré information; determining a pitch for generating a moiré image using the layers at a depth level which defines a range of a specific depth distance, the pitch being determined for each of the plurality of identified layers based on the input image and the moiré information; and obtaining a moiré-producing pattern composed of the first pattern and the second pattern based on the determined pitch.
A method to produce a device of the micro-system and/or nano-system type, comprising: - forming a first substrate including at least one lower electrode, and a first dielectric layer, - then assembling, by molecular bonding, an intermediate substrate, with the first substrate, - then defining a moving portion in the intermediate substrate, - then forming a cavity in the first dielectric layer, thus making the moving portion free, such that it is facing at least a portion of the lower electrode, - then assembling an upper substrate with the intermediate substrate, such that the said moving portion can be made to move between the lower electrode and the upper substrate. - forming a first substrate including at least one lower electrode, and a first dielectric layer, - then assembling, by molecular bonding, an intermediate substrate, with the first substrate, - then defining a moving portion in the intermediate substrate, - then forming a cavity in the first dielectric layer, thus making the moving portion free, such that it is facing at least a portion of the lower electrode, - then assembling an upper substrate with the intermediate substrate, such that the said moving portion can be made to move between the lower electrode and the upper substrate.
An electrical storage device temperature-measuring method comprising: measuring a real part of internal impedance of an electrical storage device by using an alternating-current signal having a frequency band in which the real part of the internal impedance of the electrical storage device does not change according to a remaining capacity, i.e. SOC: state of charge, of the electrical storage device; and calculating internal temperature of the electrical storage device from a measured value of the real part of the internal impedance. measuring a real part of internal impedance of an electrical storage device by using an alternating-current signal having a frequency band in which the real part of the internal impedance of the electrical storage device does not change according to a remaining capacity, i.e. SOC: state of charge, of the electrical storage device; and calculating internal temperature of the electrical storage device from a measured value of the real part of the internal impedance.
An agricultural toolbar comprising: a frame; a furrow opening assembly supported on the frame; two gauge wheels pivotally mounted to either side of the frame and disposed to roll along the surface of the soil; a fluid injector disposed to dispense fluid adjacent a trench created by the furrow opening assembly; characterized in that at least one gauge wheel of the two gauge wheels has a channel disposed from the outer circumference and radially inward toward the center of the at least one gauge wheel and disposed to at least partially accept the fluid injector at least partially within the channel. a frame; a furrow opening assembly supported on the frame; two gauge wheels pivotally mounted to either side of the frame and disposed to roll along the surface of the soil; a fluid injector disposed to dispense fluid adjacent a trench created by the furrow opening assembly; characterized in that at least one gauge wheel of the two gauge wheels has a channel disposed from the outer circumference and radially inward toward the center of the at least one gauge wheel and disposed to at least partially accept the fluid injector at least partially within the channel.
A honeycomb structure comprising: porous partition walls with which a plurality of cells are formed to become through channels of a fluid and which are provided with a plurality of pores, wherein a porosity of the partition walls is from 45 to 70%, and wherein large pores are defined as pores having a maximum width in excess of 10 μm in a cross section of each of the partition walls wherein the cross-section is parallel to a thickness direction of the partition wall, characterized in that the partition wall is equally divided into three regions comprising a center region and two surface layer regions, wherein the surface layer regions are arranged to be present on both sides of the center region along the thickness direction, in cross sections of the surface layer regions of the partition wall which are parallel to the thickness direction, a total area of cross sections of the large pores which appear in the cross sections of the surface layer regions is from 60 to 100% of a total area of cross sections of all the pores which appear in the cross sections of the surface layer regions, and in a cross section of the center region of the partition wall which is parallel to the thickness direction, a total area of cross sections of the large pores which appear in the cross section of the center region is from 0 to 40% of the total area of cross sections of all the pores which appear in the cross section of the center region. porous partition walls with which a plurality of cells are formed to become through channels of a fluid and which are provided with a plurality of pores, wherein a porosity of the partition walls is from 45 to 70%, and wherein large pores are defined as pores having a maximum width in excess of 10 μm in a cross section of each of the partition walls wherein the cross-section is parallel to a thickness direction of the partition wall, characterized in that the partition wall is equally divided into three regions comprising a center region and two surface layer regions, wherein the surface layer regions are arranged to be present on both sides of the center region along the thickness direction, in cross sections of the surface layer regions of the partition wall which are parallel to the thickness direction, a total area of cross sections of the large pores which appear in the cross sections of the surface layer regions is from 60 to 100% of a total area of cross sections of all the pores which appear in the cross sections of the surface layer regions, and in a cross section of the center region of the partition wall which is parallel to the thickness direction, a total area of cross sections of the large pores which appear in the cross section of the center region is from 0 to 40% of the total area of cross sections of all the pores which appear in the cross section of the center region.