mhurhangee/ep-ind-claims huggingface dataset:
An Ni-based casting superalloy comprising: 0.03 to 0.15 mass % of C; 0.005 to 0.04 mass % of B; 0.01 to 1 mass % of Hf; 0.05 mass % or less of Zr; 3.5 to 4.9 mass % of Al; 4.4 to 8 mass % of Ta; 2.6 to 3.9 mass % of Ti; 0.05 to 1 mass % of Nb; 8 to 12 mass % of Cr; 1 to 6.9 mass % of Co; 4 to 10 mass % of W; 0.1 to 0.95 mass % of Mo; at least one of 0.02 to 1.1 mass % of Si and 0.1 to 3 mass % of Fe; and the balance including Ni and inevitable impurities.
A method of managing access to a physical memory (100, 200, 304, 320, 324, 326) formed of n memory page frames using a set of virtual address spaces, said set comprising n virtual address spaces each formed of a plurality p of contiguous memory pages, the method comprising: receiving a write request to write a block of data to a virtual address within a virtual address space i of the n virtual address spaces, the virtual address defined by the virtual address space i, a memory page j within that virtual address space i and an offset from the start of that memory page j; translating the virtual address to an address of the physical memory using a virtual memory table having n by p entries specifying mappings between memory pages of the virtual address spaces and memory page frames of the physical memory, wherein the physical memory address is defined by: (i) the memory page frame mapped to the memory page j as specified by the virtual memory table, and (ii) the offset of the virtual address; and writing the block of data to the physical memory address. receiving a write request to write a block of data to a virtual address within a virtual address space i of the n virtual address spaces, the virtual address defined by the virtual address space i, a memory page j within that virtual address space i and an offset from the start of that memory page j; translating the virtual address to an address of the physical memory using a virtual memory table having n by p entries specifying mappings between memory pages of the virtual address spaces and memory page frames of the physical memory, wherein the physical memory address is defined by: (i) the memory page frame mapped to the memory page j as specified by the virtual memory table, and (ii) the offset of the virtual address; and writing the block of data to the physical memory address.
Block storage arrangement having a plurality of container receiving spaces, at least one container, a loading space arranged in the direction of gravity beneath the container receiving spaces, a through-opening between each container receiving space and the loading space, and a holding device at the through-opening, which has at least one holding latch that can be pivoted between a holding position and a release position, wherein the holding latch has a cutout which, in the holding position, is directed into the through-opening, characterized in that the cutout is adapted to the shape of a corner geometry of the container.
A process to prepare a second propylene-based polymer from a first propylene-based polymer, each propylene-based polymer having a melt flow rate (MFR; 2.16kg/230°C) with the MFR of the second propylene-based polymer greater than the MFR of the first propylene-based polymer, the process comprising the step of contacting under visbreaking conditions in the absence of oxygen the first propylene-based polymer with at least one carbon-carbon (C-C) free-radical initiator of Structure I: wherein R 1, R 2, R 3, R 4, R 5 and R 6 are each, independently, a hydrocarbyl group or a substituted hydrocarbyl group, and wherein, optionally, two or more R groups (R 1, R 2, R 3, R 4, R 5 and R 6) form a ring structure, wherein the term "propylene-based polymer" refers to a polymer that comprises at least a majority weight percent polymerized propylene (based on the weight of polymer), wherein the term "substituted hydrocarbyl group" refers to a hydrocarbyl radical in which one or more hydrogen atoms bound to any carbon of the hydrocarbyl radical, and/or one or more carbon atoms of the hydrocarbyl radical, is/are, independently, replaced by one of the following: (i) a heteroatom, or (ii) a group, comprising at least one heteroatom, and other than a peroxy group (-OOH); wherein the visbreaking conditions include a temperature of from 210°C to 270°C.
Use of a bag for storing, preserving, soaking and softening of a food product, especially clipfish, where the bag is divided into at least a first (2, 7) and a second section (3; 8), wherein a partition (5; 6) is separating the first and the second sections (2, 7; 3, 8), the partition (5; 6) comprising a number of holes arranged to let through salt or other chemicals, and the bag comprising a closing mechanism, characterized in that the volume of the bag is adapted to the food product and its amount, where a water volume of the bag is matched to the food product and its amount in order to achieve correct steeping and softening, where the water volume, temperature, and minimum time for steeping and softening are specified on the bag or other packaging, and that; - the food product is passed into the first section (2, 7), - the closing mechanism is closed, - the bag 1 is bent, folded or rolled up, - the closing mechanism is opened, - the bag is filled up with water, - the closing mechanism is closed, - the bag is stored with the food product at the specified temperature - the bag is stored until the specified minimum time has been reached. - the food product is passed into the first section (2, 7), - the closing mechanism is closed, - the bag 1 is bent, folded or rolled up, - the closing mechanism is opened, - the bag is filled up with water, - the closing mechanism is closed, - the bag is stored with the food product at the specified temperature - the bag is stored until the specified minimum time has been reached.
A method for transferring data between a docking station and a user device via LiFi, wherein said docking station comprises at least two LiFi transceivers (110, 120), and wherein the user device comprises at least one LiFi transceiver, said method comprising the steps of acquiring (step S1a) a first communication channel transfer property, said first communication channel being between a first LiFi transceiver of said docking station and a first LiFi transceiver of said user device, acquiring (step S1a) a second communication channel transfer property, said second communication channel being between a second LiFi transceiver of said docking station and said first LiFi transceiver of said user device, selecting (step S2a) one communication channel out of said first and second communication channels based on a comparison between the acquired transfer properties for the first communication channel and the second communication channel, and transmitting (step S3a) data over said selected communication channel; wherein a channel transfer property is a channel performance indicator related to at least one of a SNR of the channel, the channel capacity, a maximum data rate, and a power consumption per megabyte of transferred data. wherein said docking station comprises at least two LiFi transceivers (110, 120), and wherein the user device comprises at least one LiFi transceiver, said method comprising the steps of acquiring (step S1a) a first communication channel transfer property, said first communication channel being between a first LiFi transceiver of said docking station and a first LiFi transceiver of said user device, acquiring (step S1a) a second communication channel transfer property, said second communication channel being between a second LiFi transceiver of said docking station and said first LiFi transceiver of said user device, selecting (step S2a) one communication channel out of said first and second communication channels based on a comparison between the acquired transfer properties for the first communication channel and the second communication channel, and transmitting (step S3a) data over said selected communication channel;
A laminated body comprising: a surface protection panel; a touch panel including a plurality of transparent conductive films; a polarizing film; and an interlayer filling material for a touch panel filling at least one interlayer space selected from interlayer spaces between the plurality of transparent conductive films included in the touch panel, the interlayer filling material containing a plasticized polyvinyl acetal, the interlayer filling material having a storage elastic modulus G' at 20°C of 1 × 10 7 Pa or higher, a storage elastic modulus G' at 85°C of 1 × 10 6 Pa or lower, and a temperature Tg at which tan δ reaches the maximum, within a range of -20°C to 100°C, of 5°C to 85°C, wherein the storage elastic modulus G' at 20°C, the storage elastic modulus G' at 85°C and the temperature Tg at which tan δ reaches the maximum within a range of -20°C to 100°C are values measured with a dynamic viscoelasticity measuring device under the conditions of a temperature decreasing rate of 3°C/min from 100°C to -20°C, a frequency of 1 Hz, and a strain of 1%. a surface protection panel; a touch panel including a plurality of transparent conductive films; a polarizing film; and an interlayer filling material for a touch panel filling at least one interlayer space selected from interlayer spaces between the plurality of transparent conductive films included in the touch panel, the interlayer filling material containing a plasticized polyvinyl acetal, the interlayer filling material having a storage elastic modulus G' at 20°C of 1 × 10 7 Pa or higher, a storage elastic modulus G' at 85°C of 1 × 10 6 Pa or lower, and a temperature Tg at which tan δ reaches the maximum, within a range of -20°C to 100°C, of 5°C to 85°C, wherein the storage elastic modulus G' at 20°C, the storage elastic modulus G' at 85°C and the temperature Tg at which tan δ reaches the maximum within a range of -20°C to 100°C are values measured with a dynamic viscoelasticity measuring device under the conditions of a temperature decreasing rate of 3°C/min from 100°C to -20°C, a frequency of 1 Hz, and a strain of 1%.
A near field communication device, comprising the following components contained in a housing: a plurality of elements each configured to perform an independent process, including at least one removable element (62-1, 62-2) and at least one fixed element; a controller configured to control said plurality of elements; and a front end configured to perform near field communication with an external device, the front end being connected to said plurality of elements and configured to perform near field communication of signals from each of said plurality of elements to said external device, wherein said controller allocates, to said plurality of elements, different time slots for communication, and said at least one fixed element stores the allocated time slot in a nonvolatile manner, whereas said at least one removable element (62-1, 62-2) stores the time slot in a volatile manner; and wherein said controller allocates, to said at least one fixed element, a first time slot, and allocates, to said at least one removable element (62-1, 62-2), a time slot of a later timing than that of said at least one fixed element. a plurality of elements each configured to perform an independent process, including at least one removable element (62-1, 62-2) and at least one fixed element; a controller configured to control said plurality of elements; and a front end configured to perform near field communication with an external device, the front end being connected to said plurality of elements and configured to perform near field communication of signals from each of said plurality of elements to said external device, wherein said controller allocates, to said plurality of elements, different time slots for communication, and said at least one fixed element stores the allocated time slot in a nonvolatile manner, whereas said at least one removable element (62-1, 62-2) stores the time slot in a volatile manner; and wherein said controller allocates, to said at least one fixed element, a first time slot, and allocates, to said at least one removable element (62-1, 62-2), a time slot of a later timing than that of said at least one fixed element.
A biasing apparatus for use with a piston actuator, comprising: a first sleeve at least partially surrounded by and movably coupled to a second sleeve; a stop to limit an amount of movement of the first sleeve relative to the second sleeve; a biasing element positioned between first and second ends (226, 228) of the respective first and second sleeves (220, 222) to urge the first sleeve away from the second sleeve, characterised in that, the biasing apparatus is configured to be a self-contained unit, the second sleeve is coupled to a second end member such that the biasing element is preloaded and completely contained within a chamber defined by the first and second sleeves (220, 222); and the biasing apparatus further comprises a second stop to limit an amount of movement of the first sleeve towards the second sleeve. a first sleeve at least partially surrounded by and movably coupled to a second sleeve; a stop to limit an amount of movement of the first sleeve relative to the second sleeve; a biasing element positioned between first and second ends (226, 228) of the respective first and second sleeves (220, 222) to urge the first sleeve away from the second sleeve, characterised in that, the biasing apparatus is configured to be a self-contained unit, the second sleeve is coupled to a second end member such that the biasing element is preloaded and completely contained within a chamber defined by the first and second sleeves (220, 222); and the biasing apparatus further comprises a second stop to limit an amount of movement of the first sleeve towards the second sleeve.
A reagent preparation apparatus, comprising: a reagent preparation unit configured to prepare a reagent for processing a sample; a measuring unit configured to measure a property of the reagent prepared by the reagent preparation unit; a waste section configured to discard the prepared reagent when a measurement result by the measuring unit does not meet a predetermined condition; a controller configured to control a reagent preparation operation of the reagent preparation unit; and a display unit, characterized in that the controller controls the display unit to display a message of an error and the reagent preparation unit to stop the reagent preparation operation when the reagent prepared by the reagent preparation unit is consecutively discarded for a predetermined number of times, and in that the controller controls the reagent preparation unit to execute an automatic washing operation of the reagent preparation unit as a recovery operation of the error to restart the reagent preparation operation when the controller receives a manually inputted instruction after stopping the reagent preparation operation of the reagent preparation unit. a reagent preparation unit configured to prepare a reagent for processing a sample; a measuring unit configured to measure a property of the reagent prepared by the reagent preparation unit; a waste section configured to discard the prepared reagent when a measurement result by the measuring unit does not meet a predetermined condition; a controller configured to control a reagent preparation operation of the reagent preparation unit; and a display unit,
Compressor assembly for supplying pressure medium to a tyre cavity of a tyre of a vehicle wheel which can be mounted on a wheel hub, wherein the wheel hub can be mounted on a wheel carrier so as to be rotatable about an axis of rotation, wherein the compressor assembly comprises at least one hub-side compression chamber (40, 42), the volume of which can be changed by a translational movement of a compressor component (36, 38), wherein a pressure medium to be conducted into the tyre cavity can be placed under pressure by a reduction in the volume of the compression chamber (40, 42), and wherein the compressor assembly comprises a transmission, preferably a cam mechanism, which is configured, by interaction of a wheel-carrier-side transmission part with a hub-side transmission part, to convert a rotational movement between the wheel-carrier side and the wheel-hub side into an oscillating translational movement of the compressor component (36, 38), wherein the wheel-carrier-side transmission part comprises a cylindrical cam, in particular a beaded cylindrical cam, or the hub-side transmission part comprises a beaded cylindrical cam, characterized in that the hub-side transmission part comprises a contact device (46, 48), wherein, upstream and downstream of the beaded cylindrical cam of the wheel-carrier-side transmission part, as seen in the direction of the axis of rotation, the contact device (46, 48) has a contact element (46, 48) for making contact with the beaded cylindrical cam of the wheel-carrier-side transmission part.
An article comprising a biocompatible cell attachment coating comprising: (a) an intermediate coated layer comprising a first component, wherein the first component comprises one of the following formulas I, II, or III: wherein, in Formula I and II, Photo 1 and Photo 2 independently, represent one or more photoreactive groups, wherein the covalent linkage between at least one photoreactive group and P is interrupted by at least one heteroatom and R is alkyl or aryl, a photoreactive group, hydroxyl or salt thereof, or a combination thereof; wherein, in Formula III, Photo 1 and Photo 2 independently, represent one or more photoreactive groups, wherein the covalent linkage between at least one photoreactive group and P is interrupted by at least one heteroatom and Y represents a covalent bond, N, O, linear or branched C 1 -C 10 alkyl and R 1 and R 2 are independently alkyl, aryl, a photoreactive group, hydroxyl or salt thereof, or a combination thereof; wherein the first component is immobilized in the coating via the photoreactive group; and (b) a second coated layer comprising a cell attachment molecule comprising an extracellular matrix protein, or a peptide that includes an active portion of an ECM protein that is immobilized in the coating; wherein the intermediate coated layer is positioned between the second coated layer and a surface of the article. (a) an intermediate coated layer comprising a first component, wherein the first component comprises one of the following formulas I, II, or III: wherein, in Formula I and II, Photo 1 and Photo 2 independently, represent one or more photoreactive groups, wherein the covalent linkage between at least one photoreactive group and P is interrupted by at least one heteroatom and R is alkyl or aryl, a photoreactive group, hydroxyl or salt thereof, or a combination thereof; wherein, in Formula III, Photo 1 and Photo 2 independently, represent one or more photoreactive groups, wherein the covalent linkage between at least one photoreactive group and P is interrupted by at least one heteroatom and Y represents a covalent bond, N, O, linear or branched C 1 -C 10 alkyl and R 1 and R 2 are independently alkyl, aryl, a photoreactive group, hydroxyl or salt thereof, or a combination thereof; wherein the first component is immobilized in the coating via the photoreactive group; and (b) a second coated layer comprising a cell attachment molecule comprising an extracellular matrix protein, or a peptide that includes an active portion of an ECM protein that is immobilized in the coating;
A carbon fiber bundle formed of the single carbon fiber: each single carbon fiber having no uneven surface structure that has a length of 0.6 μm or more and that extends in the longitudinal direction of the single fiber, each single carbon fiber having an uneven structure in which the difference in height (Rp-v) between a highest portion and a lowest portion of the surface of the single fiber is 5 to 25 nm, and in which an average roughness Ra is 2 to 6 nm, and each of which has a ratio of 1.00 to 1.01 of a major axis to a minor axis (major axis / minor axis) of a cross-section of the single fiber; wherein a mass of the single fiber per unit length falls within the range of 0.030 to 0.042 mg/m; a strand strength measured in accordance with JIS R7601 is 5900 MPa or more; a strand elastic modulus measured by the ASTM method is 250 to 380 GPa; and a knot tenacity is 900 N/mm 2 or more.
Panel for covering an area of a room, wherein the panel has an upper side, an underside and at least four side edges, wherein the panel has a multilayer structure with an elastic base layer, wherein the base layer consists entirely or predominantly of an elastically set polyurethane, and with a cover layer above the base layer that is less elastic than the base layer, wherein the cover layer is pressed with the base layer via an adhesive layer to form the multilayer structure, characterised in that the adhesive layer consists of a thermoplastic polyurethane, a polyamide or of a polyester and is arranged as film or powder between the cover layer and the base layer before the cover layer is pressed with the base layer, wherein the adhesive layer behaves in a yielding manner, wherein the panel as a whole has elastomeric properties.
A solid state electrolyte-comprising Li or Li-ion battery cell, comprising: an anode electrode; a cathode electrode with an areal capacity loading that exceeds 3.5 mAh/cm 2; an ionically conductive separator layer that electrically separates the anode and cathode electrodes; and one or more solid electrolytes ionically coupling the anode and the cathode, characterized in that at least one of the one or more solid electrolytes or at least one solid electrolyte precursor of the one or more solid electrolytes is infiltrated into the solid state Li or Li-ion battery cell as a liquid. an anode electrode; a cathode electrode with an areal capacity loading that exceeds 3.5 mAh/cm 2; an ionically conductive separator layer that electrically separates the anode and cathode electrodes; and one or more solid electrolytes ionically coupling the anode and the cathode, characterized in that at least one of the one or more solid electrolytes or at least one solid electrolyte precursor of the one or more solid electrolytes is infiltrated into the solid state Li or Li-ion battery cell as a liquid.
A product conveying apparatus for supplying food products to a slicing unit of a food slicing machine, comprising: a first conveying track, a second conveying track, and a third conveying track, wherein the first, second and third conveying tracks (10, 20, 30) are each configured to independently supply a respective food product to the slicing unit, characterized in that one of the first, second and third conveying tracks (10, 20, 30) comprises a traction roll (49, 91, 95), wherein the traction roll (49, 91, 95) is configured to come into conveying contact with a food product and to supply the same to the slicing unit. a first conveying track, a second conveying track, and a third conveying track, wherein the first, second and third conveying tracks (10, 20, 30) are each configured to independently supply a respective food product to the slicing unit, characterized in that one of the first, second and third conveying tracks (10, 20, 30) comprises a traction roll (49, 91, 95), wherein the traction roll (49, 91, 95) is configured to come into conveying contact with a food product and to supply the same to the slicing unit.