mhurhangee/ep-ind-claims huggingface dataset:
Method for computer-aided user assistance during the activation of a movement planner for a machine, in which: - a user interface is provided and can be used by a user to specify parameterization data for the movement planner, wherein the parameterization data comprise a machine model and an environment model, wherein the machine model contains the geometric dimensions of the machine and the environment model contains the geometric dimensions of the environment in which the machine is intended to be operated; - the collision-free movement space and the collision-prone movement space of the machine in the configuration space are determined on the basis of parameterization data specified via the user interface, wherein the configuration space is a space of position vectors each representing a spatial position of the machine; - one or more features with respect to the collision-free and/or collision-prone movement space (KF, KB) are determined; - a predefined plausibility criterion is checked for a respective feature of at least some of the features, characterized in that, if the plausibility criterion has not been satisfied, an output in the form of a warning message is produced via the user interface, which warning message comprises the notification that the machine model and/or the environment model possibly has/have errors. - a user interface is provided and can be used by a user to specify parameterization data for the movement planner, wherein the parameterization data comprise a machine model and an environment model, wherein the machine model contains the geometric dimensions of the machine and the environment model contains the geometric dimensions of the environment in which the machine is intended to be operated; - the collision-free movement space and the collision-prone movement space of the machine in the configuration space are determined on the basis of parameterization data specified via the user interface, wherein the configuration space is a space of position vectors each representing a spatial position of the machine; - one or more features with respect to the collision-free and/or collision-prone movement space (KF, KB) are determined; - a predefined plausibility criterion is checked for a respective feature of at least some of the features,
An amplifier system, comprising: a first differential transconductance amplifier having a pair of inputs coupled to input terminals of the amplifier system and coupled to a common mode voltage source via a pair of first switches (SW2.1, SW2.2), a second differential transconductance amplifier, having a pair of inputs coupled via a pair of second switches (SW1.1, SW1.2) to outputs of the first differential transconductance amplifier and having outputs also coupled to outputs of the first differential transconductance amplifier, a pair of auto-zero capacitors (C1.2, C1.1), each coupled to a respective input of the second differential transconductance amplifier at first terminals thereof and connected to a common voltage at second terminals thereof, and a pair of auxiliary capacitors (C2.2, C2.1), each provided in parallel with a corresponding auto-zero capacitor of the pair of auto-zero capacitors (C1.2, C1.1) via a respective third switch of a pair of third switches (SW3.1, SW3.2), and wherein the third switches (SW3.1, SW3.2) are configured to couple the auxiliary capacitors to the respective auto-zero capacitors during a hold phase of the amplifier system and are configured to decouple the auxiliary capacitors from the respective auto-zero capacitors during an acquisition phase of the amplifier system, such that the auto-zero capacitors are configured to capture a voltage of the amplifier system during the acquisition phase and are configured to induce an offset-cancelling voltage within the amplifier system during the hold phase. a first differential transconductance amplifier having a pair of inputs coupled to input terminals of the amplifier system and coupled to a common mode voltage source via a pair of first switches (SW2.1, SW2.2), a second differential transconductance amplifier, having a pair of inputs coupled via a pair of second switches (SW1.1, SW1.2) to outputs of the first differential transconductance amplifier and having outputs also coupled to outputs of the first differential transconductance amplifier, a pair of auto-zero capacitors (C1.2, C1.1), each coupled to a respective input of the second differential transconductance amplifier at first terminals thereof and connected to a common voltage at second terminals thereof, and a pair of auxiliary capacitors (C2.2, C2.1), each provided in parallel with a corresponding auto-zero capacitor of the pair of auto-zero capacitors (C1.2, C1.1) via a respective third switch of a pair of third switches (SW3.1, SW3.2), and wherein the third switches (SW3.1, SW3.2) are configured to couple the auxiliary capacitors to the respective auto-zero capacitors during a hold phase of the amplifier system and are configured to decouple the auxiliary capacitors from the respective auto-zero capacitors during an acquisition phase of the amplifier system, such that the auto-zero capacitors are configured to capture a voltage of the amplifier system during the acquisition phase and are configured to induce an offset-cancelling voltage within the amplifier system during the hold phase.
A material handling system for handling and placing packages onto pallets, the system comprising: a storage array with storage space for holding packages therein; an automated package transport system communicably connected to the storage array for storing packages in and retrieving packages from the storage spaces of the storage array; an automated palletizer for placing packages onto a pallet to form a pallet load, the palletizer is communicably connected to the transport system which provides individual packages from the storage array to the palletizer for forming the pallet load; and a controller operably connected to the palletizer and programmed with a pallet load generator configured so that the pallet load formed by the palletizer has more than one layer of stacked packages, wherein at least one layer of which includes packages of different heights, the at least one layer having a substantially flat upper surface between a top surface of the pallet load and a base surface upon which the at least one layer is seated, and comprises more than one stacks extending from the base surface to the upper surface substantially independent of each other, at least one of the stacks being formed of packages having different heights. a storage array with storage space for holding packages therein; an automated package transport system communicably connected to the storage array for storing packages in and retrieving packages from the storage spaces of the storage array; an automated palletizer for placing packages onto a pallet to form a pallet load, the palletizer is communicably connected to the transport system which provides individual packages from the storage array to the palletizer for forming the pallet load; and a controller operably connected to the palletizer and programmed with a pallet load generator configured so that the pallet load formed by the palletizer has more than one layer of stacked packages, wherein at least one layer of which includes packages of different heights, the at least one layer having a substantially flat upper surface between a top surface of the pallet load and a base surface upon which the at least one layer is seated, and comprises more than one stacks extending from the base surface to the upper surface substantially independent of each other, at least one of the stacks being formed of packages having different heights.
A method for constructing a module of a modular cooling unit, the method comprising: acquiring a plurality of tubes, each tube having a first end and a second end, an interior surface, an exterior surface, and a support member operatively connected to the interior surface; and overmolding a first header onto at least a portion of the first ends of the plurality of tubes, the first header configured to have a plurality of parallel first slots, each slot of the plurality of parallel first slots configured to have an extended surface configured to receive and retain the first end of each tube of the plurality of tubes, wherein overmolding allows the extended surfaces of the plurality of parallel first slots to form over the first ends of the plurality of tubes to create a watertight connection between the first header and the first ends of the plurality of tubes. acquiring a plurality of tubes, each tube having a first end and a second end, an interior surface, an exterior surface, and a support member operatively connected to the interior surface; and overmolding a first header onto at least a portion of the first ends of the plurality of tubes, the first header configured to have a plurality of parallel first slots, each slot of the plurality of parallel first slots configured to have an extended surface configured to receive and retain the first end of each tube of the plurality of tubes, wherein overmolding allows the extended surfaces of the plurality of parallel first slots to form over the first ends of the plurality of tubes to create a watertight connection between the first header and the first ends of the plurality of tubes.
A method of transmitting a physical random access channel, PRACH from a user equipment, UE (no), comprising: transmitting, from the UE to a network entity, a first PRACH transmission with a first subcarrier spacing; determining, by the UE, that the first PRACH transmission to the network entity is not successful; and transmitting, from the UE to the network entity, a second PRACH transmission (312, 314, 316) with a second subcarrier spacing in response to determining that the first PRACH transmission is not successful, wherein the first subcarrier spacing is different from the second subcarrier spacing. transmitting, from the UE to a network entity, a first PRACH transmission with a first subcarrier spacing; determining, by the UE, that the first PRACH transmission to the network entity is not successful; and transmitting, from the UE to the network entity, a second PRACH transmission (312, 314, 316) with a second subcarrier spacing in response to determining that the first PRACH transmission is not successful, wherein the first subcarrier spacing is different from the second subcarrier spacing.
A method of manufacturing an animal litter composition comprising: (i) feeding perlite particles having a bulk density in the range of 25-200 kg/m 3 into a coater; (ii) adding a liquid to the coater to create wet perlite particles; and (iii) feeding bentonite having a size range of 149 μm(100 mesh) to 44 μm (300 mesh) into the coater to coat the wet perlite particles; characterized in that the method further comprises: (iv) contacting the coated perlite particles with water; and (v) drying the coated particles to a moisture content in the range of 5% to 25%. (i) feeding perlite particles having a bulk density in the range of 25-200 kg/m 3 into a coater; (ii) adding a liquid to the coater to create wet perlite particles; and (iii) feeding bentonite having a size range of 149 μm(100 mesh) to 44 μm (300 mesh) into the coater to coat the wet perlite particles; (iv) contacting the coated perlite particles with water; and (v) drying the coated particles to a moisture content in the range of 5% to 25%.
A print bar for organic vapor jet OVJP deposition, the print bar comprising: a plurality of print head segments, each of the plurality of print head segments comprising an OVJP print head; a plurality of fly height distance sensors (552, 562), each of the plurality of fly height distance sensors (552, 562) configured to measure a distance between a substrate disposed below the print bar and a portion of at least one of the print head segments; and a plurality of actuators configured to adjust a position and/or orientation of one or more of the plurality of print head segments based upon one or more distances between the substrate and the print bar measured by one or more of the plurality of fly height distance sensors (552, 562); wherein the plurality of print head segments are arranged in two rows (553, 554) in a direction essentially perpendicular to a direction of motion of the print bar relative to the substrate when the print bar is operated to deposit material on the substrate; wherein the plurality of print head segments are disposed within the rows (553, 554) such that print areas of each row (553, 554) of corresponding OVJP print heads form a single printed column on the substrate when the print bar is operated to deposit material on the substrate. a plurality of print head segments, each of the plurality of print head segments comprising an OVJP print head; a plurality of fly height distance sensors (552, 562), each of the plurality of fly height distance sensors (552, 562) configured to measure a distance between a substrate disposed below the print bar and a portion of at least one of the print head segments; and a plurality of actuators configured to adjust a position and/or orientation of one or more of the plurality of print head segments based upon one or more distances between the substrate and the print bar measured by one or more of the plurality of fly height distance sensors (552, 562); wherein the plurality of print head segments are arranged in two rows (553, 554) in a direction essentially perpendicular to a direction of motion of the print bar relative to the substrate when the print bar is operated to deposit material on the substrate; wherein the plurality of print head segments are disposed within the rows (553, 554) such that print areas of each row (553, 554) of corresponding OVJP print heads form a single printed column on the substrate when the print bar is operated to deposit material on the substrate.
A fluid connector comprising: an insert portion including: a first housing defining a first channel; an insert valve disposed in and configured to move relative to the first channel; and a first filter configured to prevent the flow of contaminants into the first channel of the first housing, wherein the first filter includes a porous surface and an outer rim formed of a non-porous surface; a first connection end coupled to the first housing and defining a first connection passage, wherein the first filter is positioned between the first channel and the first connection passage; a biasing mechanism engaged with the insert valve, wherein the first filter is positioned between the biasing mechanism and a shoulder of the first connection end and the outer rim of the first filter abuts against the shoulder of the first connection end and the biasing mechanism; and a holding portion including a second housing defining a second channel, wherein the insert portion is configured to be inserted into the second channel and secured to the holding portion. an insert portion including: a first housing defining a first channel; an insert valve disposed in and configured to move relative to the first channel; and a first filter configured to prevent the flow of contaminants into the first channel of the first housing, wherein the first filter includes a porous surface and an outer rim formed of a non-porous surface; a first connection end coupled to the first housing and defining a first connection passage, wherein the first filter is positioned between the first channel and the first connection passage; a biasing mechanism engaged with the insert valve, wherein the first filter is positioned between the biasing mechanism and a shoulder of the first connection end and the outer rim of the first filter abuts against the shoulder of the first connection end and the biasing mechanism; and a first housing defining a first channel; an insert valve disposed in and configured to move relative to the first channel; and a first filter configured to prevent the flow of contaminants into the first channel of the first housing, wherein the first filter includes a porous surface and an outer rim formed of a non-porous surface; a first connection end coupled to the first housing and defining a first connection passage, wherein the first filter is positioned between the first channel and the first connection passage; a biasing mechanism engaged with the insert valve, wherein the first filter is positioned between the biasing mechanism and a shoulder of the first connection end and the outer rim of the first filter abuts against the shoulder of the first connection end and the biasing mechanism; and a holding portion including a second housing defining a second channel, wherein the insert portion is configured to be inserted into the second channel and secured to the holding portion.
Sliding bearing composite material with a metallic support layer, in particular of steel or of a copper alloy, with a porous backing layer, in particular of bronze, preferably of lead-free bronze, and with a polymer-based sliding layer material, optionally with fillers influencing the tribological properties, which is impregnated in the porous backing layer and forms a projection above the porous backing layer, wherein the backing layer is a sinter layer which is formed of particles which are sintered together and with the support layer, wherein the particles are round or bulbous, wherein a layer thickness of the porous backing layer is 130 - 200 μm and wherein at least 90 mass% of the sintered particles have a particle size of between 45 and 125 μm and wherein at most 4 mass% of the sintered particles have a particle size of more than 125 μm and at most 8 mass% have a particle size below 45 μm, and wherein the particle size of the sintered particles forming the backing layer follows a particle size distribution according to the relationship R = e − t η β, where R is a cumulative sieve residue from a sieve residue examination and t is a respective mesh width used in the sieve residue examination, and that the characteristic particle size η lies between 75 and 100 μm, and wherein the form parameter β is at least 5.0, and wherein the porosity of the backing layer is at least 35 % and at most 55 %.
A bathtub comprising: - a main body configured to contain a floating fluid and to accommodate a user's body, which main body extends according to a longitudinal direction and to a transversal direction, said main body comprising a bottom wall and side walls (22a, 22b); - guide means located at one or more of said bottom or side walls (22, 22a, 22b); and - supporting means, engaged or adapted to engage with said guide means and configured for supporting the user's body at one or more discrete locations so as to allow simulating, in use, a floating condition of such body, characterised in that said supporting means comprises a plurality of supporting elements each having an elongated cylindrical or tubular shape, wherein said supporting means is made of material with a specific weight lower than the specific weight of water, and wherein: said guide means comprises a linear groove extending from a first upper terminal portion to a second upper terminal portion of said side wall (22a, 22b), and said linear groove has a first oblique development direction, descending from said first upper terminal portion, and a second development direction, rising towards said second upper terminal portion. - a main body configured to contain a floating fluid and to accommodate a user's body, which main body extends according to a longitudinal direction and to a transversal direction, said main body comprising a bottom wall and side walls (22a, 22b); - guide means located at one or more of said bottom or side walls (22, 22a, 22b); and - supporting means, engaged or adapted to engage with said guide means and configured for supporting the user's body at one or more discrete locations so as to allow simulating, in use, a floating condition of such body, said supporting means comprises a plurality of supporting elements each having an elongated cylindrical or tubular shape, wherein said supporting means is made of material with a specific weight lower than the specific weight of water, and wherein: said guide means comprises a linear groove extending from a first upper terminal portion to a second upper terminal portion of said side wall (22a, 22b), and said linear groove has a first oblique development direction, descending from said first upper terminal portion, and a second development direction, rising towards said second upper terminal portion. said guide means comprises a linear groove extending from a first upper terminal portion to a second upper terminal portion of said side wall (22a, 22b), and said linear groove has a first oblique development direction, descending from said first upper terminal portion, and a second development direction, rising towards said second upper terminal portion.
An acoustophoretic device for clarifying a discrete volume of fluid, comprising: a substantially acoustically transparent container for containing the discrete volume of fluid; and a separation unit surrounding the container and defined by at least one wall and a first opening into which the container can be inserted, the separation unit including at least one ultrasonic transducer configured to create an acoustic standing wave in the separation unit through the container, wherein said substantially acoustically transparent container is a non-self supporting bag, said at least one ultrasonic transducer has a piezoelectric material driven by a voltage signal to create a multi-dimensional acoustic standing wave, characterized in that the separation unit comprises a support structure configured to move the at least one ultrasonic transducer vertically relative to the container, wherein the at least one ultrasonic transducer is fixed on at least one wall within the separation unit. a substantially acoustically transparent container for containing the discrete volume of fluid; and a separation unit surrounding the container and defined by at least one wall and a first opening into which the container can be inserted, the separation unit including at least one ultrasonic transducer configured to create an acoustic standing wave in the separation unit through the container, wherein said substantially acoustically transparent container is a non-self supporting bag, said at least one ultrasonic transducer has a piezoelectric material driven by a voltage signal to create a multi-dimensional acoustic standing wave, characterized in that the separation unit comprises a support structure configured to move the at least one ultrasonic transducer vertically relative to the container, wherein the at least one ultrasonic transducer is fixed on at least one wall within the separation unit.