mhurhangee/ep-ind-claims huggingface dataset:
Method for the production of a substrate structured with nanowires, comprising the steps: a) Providing a substrate which, on one surface, comprises at least one first region with first tribological properties and at least one second region with second tribological properties, the first and second tribological properties being different and the first region contacting the second region at least in regions, wherein the friction coefficient of the second region is different to the first region; b) Pressing a donor substrate comprising nanowires with a specific contact pressure on the first region of the substrate so that the nanowires contact the first region of the substrate at least in regions; and c) Moving the donor substrate relative to the substrate in the direction from the first region over at least the second region at a specific speed; characterised in that, in the method, no lubricant is used and, merely by moving the donor substrate in step c) and the different tribological properties of the two regions, a specific number of nanowires is deposited selectively at locally defined sites of the first and/or second region. a) Providing a substrate which, on one surface, comprises at least one first region with first tribological properties and at least one second region with second tribological properties, the first and second tribological properties being different and the first region contacting the second region at least in regions, wherein the friction coefficient of the second region is different to the first region; b) Pressing a donor substrate comprising nanowires with a specific contact pressure on the first region of the substrate so that the nanowires contact the first region of the substrate at least in regions; and c) Moving the donor substrate relative to the substrate in the direction from the first region over at least the second region at a specific speed; characterised in that, in the method, no lubricant is used and, merely by moving the donor substrate in step c) and the different tribological properties of the two regions, a specific number of nanowires is deposited selectively at locally defined sites of the first and/or second region.
A thermal transfer blanket, comprising: a flexible container comprising a thermally insulating material; and a thermal energy storage media disposed within the flexible container, wherein the thermal energy storage media comprises one or more layers of tiles (112, 113), the tiles (112, 113) in each layer being bonded together by an elastomeric polymer. a flexible container comprising a thermally insulating material; and a thermal energy storage media disposed within the flexible container, wherein the thermal energy storage media comprises one or more layers of tiles (112, 113), the tiles (112, 113) in each layer being bonded together by an elastomeric polymer.
A production method of a compound represented by the following formula, the method comprising reducing a compound represented by the following formula by using diisobutylaluminum hydride: wherein R is alkyl having 1 to 10 carbon atoms.
A work centre to process section bars made of aluminium, light alloys, PVC or the like comprising an elongated base extending in a first direction; a plurality of crosspieces, each mounted on the base parallel to a second direction transverse to the first direction, movable along the base in the first direction and supporting at least one holding unit designed to hold at least one section bar made of aluminium, light alloys, PVC or the like; an actuator device to move the crosspieces along the base in the first direction; and an overhead crane, which extends above the base in the second direction, is provided with an operating head to process the section bars and is movable along the base in the first direction; and characterized in that the actuator device comprises two feeding conveyors, each mounted along the base parallel to the first direction and comprising a driving member wound in a ring shape about at least one pair of pulleys; each crosspiece being provided with two fastening devices to fasten the crosspiece to the feeding conveyors.
A method for preparing an oxazolidinone derivative of formula or a pharmaceutically acceptable salt thereof, comprising the steps of: introducing an amino protecting group to a cyclic amidrazone of formula to obtain a compound of formula; reducing the nitro group of the compound of formula to obtain a compound of formula; subjecting the compound of formula to a reaction with 5-chloro-N-(( -oxiran-2-yl)methyl)thiophene-2-carboxamide to obtain a compound of formula (VIII) having a chlorothiophene group; conducting a carbonylation reaction of the compound of formula (VIII) using a phosgene equivalent to obtain an oxazolidinone of formula; and removing the amino protecting group from the amidrazone ring of the oxazolidinone of formula, wherein, R' is hydrogen, C 1 -C 7 alkyl, C 3 -C 7 cycloalkyl, C 6 -C 12 aryl, or C 4 -C 12 heteroaryl comprising 1 to 4 hetero atoms selected from the group consisting of oxygen, sulfur, and nitrogen; in which R' may be optionally substituted with one or more substitutents selected from the group consisting of C 1 -C 7 alkyl, C 1 -C 7 haloalkyl, C 1 -C 7 alkoxy, and halogen; and PG is formyl, (C 1 -C 7 alkyl)carbonyl, (C 1 -C 7 haloalkyl)carbonyl, (C 6 -C 12 aryl)carbonyl, (C 1 -C 7 alkoxy)carbonyl, (C 6 -C 12 aryl)(C 1 -C 7 alkoxy)carbonyl, or trityl. introducing an amino protecting group to a cyclic amidrazone of formula to obtain a compound of formula; reducing the nitro group of the compound of formula to obtain a compound of formula; subjecting the compound of formula to a reaction with 5-chloro-N-(( -oxiran-2-yl)methyl)thiophene-2-carboxamide to obtain a compound of formula (VIII) having a chlorothiophene group; conducting a carbonylation reaction of the compound of formula (VIII) using a phosgene equivalent to obtain an oxazolidinone of formula; and removing the amino protecting group from the amidrazone ring of the oxazolidinone of formula, wherein, R' is hydrogen, C 1 -C 7 alkyl, C 3 -C 7 cycloalkyl, C 6 -C 12 aryl, or C 4 -C 12 heteroaryl comprising 1 to 4 hetero atoms selected from the group consisting of oxygen, sulfur, and nitrogen; in which R' may be optionally substituted with one or more substitutents selected from the group consisting of C 1 -C 7 alkyl, C 1 -C 7 haloalkyl, C 1 -C 7 alkoxy, and halogen; and PG is formyl, (C 1 -C 7 alkyl)carbonyl, (C 1 -C 7 haloalkyl)carbonyl, (C 6 -C 12 aryl)carbonyl, (C 1 -C 7 alkoxy)carbonyl, (C 6 -C 12 aryl)(C 1 -C 7 alkoxy)carbonyl, or trityl. R' is hydrogen, C 1 -C 7 alkyl, C 3 -C 7 cycloalkyl, C 6 -C 12 aryl, or C 4 -C 12 heteroaryl comprising 1 to 4 hetero atoms selected from the group consisting of oxygen, sulfur, and nitrogen; in which R' may be optionally substituted with one or more substitutents selected from the group consisting of C 1 -C 7 alkyl, C 1 -C 7 haloalkyl, C 1 -C 7 alkoxy, and halogen; and PG is formyl, (C 1 -C 7 alkyl)carbonyl, (C 1 -C 7 haloalkyl)carbonyl, (C 6 -C 12 aryl)carbonyl, (C 1 -C 7 alkoxy)carbonyl, (C 6 -C 12 aryl)(C 1 -C 7 alkoxy)carbonyl, or trityl.
A method, comprising: determining a channel loading factor indicative of a channel loading by a wireless device adopting a load based equipment, LBE, listen-before-talk, LBT, mechanism in a wireless communication network, wherein the channel loading factor is based on carrier sensing obtained by the wireless device; determining a contention window size based on the channel loading factor; performing a second backoff procedure to access the channel and generating a random backoff counter from the contention window size; and transmitting radio signals if the wireless device detects a channel idle condition for a period defined by the random backoff counter, characterized in that determining the channel loading factor is based on an average of one or more channel loading factors determined based on performing at least one first backoff procedure, referred to as historical backoff procedure, prior to performing the second backoff procedure. determining a channel loading factor indicative of a channel loading by a wireless device adopting a load based equipment, LBE, listen-before-talk, LBT, mechanism in a wireless communication network, wherein the channel loading factor is based on carrier sensing obtained by the wireless device; determining a contention window size based on the channel loading factor; performing a second backoff procedure to access the channel and generating a random backoff counter from the contention window size; and transmitting radio signals if the wireless device detects a channel idle condition for a period defined by the random backoff counter, characterized in that determining the channel loading factor is based on an average of one or more channel loading factors determined based on performing at least one first backoff procedure, referred to as historical backoff procedure, prior to performing the second backoff procedure.
A ceramic face mill for machining an Inconel work piece, the face mill configured for rotating about a central rotation axis A R defining opposite axially forward and rearward directions D F, D R, and opposite rotational cutting and succeeding directions D P, D S, the face mill comprising: a shank portion; and a cutting portion extending forward from the shank portion to a cutting end face; the cutting portion comprising: an effective cutting length L E;a diameter D E located at the cutting end face; a plurality of teeth; and a gash located between each pair of adjacent teeth of the plurality of teeth; a tooth of the plurality of teeth comprising: a rake surface;a relief surface; and a cutting edge formed at an intersection of the rake and relief surfaces (28, 30); the cutting edge comprising: an axial sub-edge located at the cutting end face; a radial sub-edge located along a periphery of the cutting portion; and a corner sub-edge extending from the axial sub-edge to the radial sub-edge and defining a corner radius R C; wherein the entire face mill is made of a ceramic material and has a unitary monolithic construction, wherein the entire axial sub-edge has a positive axial rake angle α; characterised in that at least one entire cutting edge is curved in an end view of the cutting end face. the cutting portion comprising: an effective cutting length L E;a diameter D E located at the cutting end face; a plurality of teeth; and a gash located between each pair of adjacent teeth of the plurality of teeth; a tooth of the plurality of teeth comprising: a rake surface;a relief surface; and a cutting edge formed at an intersection of the rake and relief surfaces (28, 30); the cutting edge comprising: an axial sub-edge located at the cutting end face; a radial sub-edge located along a periphery of the cutting portion; and a corner sub-edge extending from the axial sub-edge to the radial sub-edge and defining a corner radius R C; wherein the entire face mill is made of a ceramic material and has a unitary monolithic construction, wherein the entire axial sub-edge has a positive axial rake angle α; characterised in that at least one entire cutting edge is curved in an end view of the cutting end face. an axial sub-edge located at the cutting end face; a radial sub-edge located along a periphery of the cutting portion; and a corner sub-edge extending from the axial sub-edge to the radial sub-edge and defining a corner radius R C; wherein the entire face mill is made of a ceramic material and has a unitary monolithic construction, wherein the entire axial sub-edge has a positive axial rake angle α; characterised in that at least one entire cutting edge is curved in an end view of the cutting end face.
A method of manufacturing a surface-modified material, comprising the following steps: a) providing a substrate, wherein the substrate comprises on at least one side a coating layer comprising a salifiable alkaline or alkaline earth compound, and b) applying a liquid treatment composition comprising an acid onto at least one region of the coating layer to form at least one surface-modified region on and/or within the coating layer. a) providing a substrate, wherein the substrate comprises on at least one side a coating layer comprising a salifiable alkaline or alkaline earth compound, and b) applying a liquid treatment composition comprising an acid onto at least one region of the coating layer to form at least one surface-modified region on and/or within the coating layer.
Vacuum insulation transport container for temperature-controlled transport of temperature-sensitive goods, such as foodstuffs, beverages, pharmaceutical products or medical products, which vacuum insulation transport container comprises a receptacle and a lid, wherein the receptacle, visible in a plan view onto the upper side thereof in the opened state, has an outer upper rim portion, an inner upper rim portion and a middle upper rim portion disposed between the outer and inner upper rim portions (21, 23), and wherein the outer upper rim portion at at least one corner comprises an access portion.
A microfluidic device comprising: a substrate transparent for imaging and having a plurality of spatially defined and separated cell channels having a dimension to accommodate cells in monolayer; a respective first end of said plurality of spatially defined and separated cell channels is in fluid connection with a flow input channel; and a respective second end of said plurality of spatially defined and separated cell channels is in fluid connection with a first end of a respective first wash channel having a second end in fluid connection with a flow output channel, wherein said flow output channel is in fluid connection with a third fluid port, characterized in that said flow input channel has a first end in fluid connection with a first fluid port and a second end in fluid connection with a second fluid port; and said first wash channels have a dimension too small to accommodate said cells. a substrate transparent for imaging and having a plurality of spatially defined and separated cell channels having a dimension to accommodate cells in monolayer; a respective first end of said plurality of spatially defined and separated cell channels is in fluid connection with a flow input channel; and a respective second end of said plurality of spatially defined and separated cell channels is in fluid connection with a first end of a respective first wash channel having a second end in fluid connection with a flow output channel, wherein said flow output channel is in fluid connection with a third fluid port, characterized in that said flow input channel has a first end in fluid connection with a first fluid port and a second end in fluid connection with a second fluid port; and said first wash channels have a dimension too small to accommodate said cells.
A current sensor comprising: a Rogowski coil disposed on a flexible printed circuit board with at least one active lead passing through the Rogowski coil; the Rogowski coil configured to output a differentiated signal corresponding to a current passing through at least one active lead; and a conditioning circuit coupled to the Rogowski coil, the conditioning circuit configured to integrate the differentiated signal to output a processed current signal indicative of the current, wherein the conditioning circuit includes a first portion and a second portion interconnected by the flexible printed circuit board, characterised in that the at least one active lead is disposed between the first and second portions of the conditioning circuit. a Rogowski coil disposed on a flexible printed circuit board with at least one active lead passing through the Rogowski coil; the Rogowski coil configured to output a differentiated signal corresponding to a current passing through at least one active lead; and a conditioning circuit coupled to the Rogowski coil, the conditioning circuit configured to integrate the differentiated signal to output a processed current signal indicative of the current, wherein the conditioning circuit includes a first portion and a second portion interconnected by the flexible printed circuit board, characterised in that the at least one active lead is disposed between the first and second portions of the conditioning circuit.
Stabiliser system of natural ingredients for use in frozen confectionery characterised in that it comprises native rice starch, egg yolk as a natural emulsifier and citrus fibres.
A method comprising: receiving, at an entity in a network of connected entities, a request to create a load balancing group, the request being generated by a device among a number of eligible load balancing group devices; creating, at the entity, the load balancing group, wherein the load balancing group comprises at least one load balancing group resource; selecting, at the entity, a device from among the eligible load balancing group devices; adding, at the entity, the selected device to the load balancing group; and balancing, at the entity, traffic associated with the eligible load balancing group devices based on a load balancing group resource hosted on the selected device. receiving, at an entity in a network of connected entities, a request to create a load balancing group, the request being generated by a device among a number of eligible load balancing group devices; creating, at the entity, the load balancing group, wherein the load balancing group comprises at least one load balancing group resource; selecting, at the entity, a device from among the eligible load balancing group devices; adding, at the entity, the selected device to the load balancing group; and balancing, at the entity, traffic associated with the eligible load balancing group devices based on a load balancing group resource hosted on the selected device.
An air deflection component, comprising: a deflector; and an air deflection bar assembly connected on a first, inner, side of the deflector and comprising two air deflection bars spaced apart from each other in a first, width direction of the deflector, wherein: each of the two air deflection bars is configured to deflect an airflow flowing from the first, inner, side to a second, outer, side of the deflector in a direction facing away from the other one of the two air deflection bars; and an airflow channel is formed between the two air deflection bars.
Soil compactor, comprising at least one compactor roller carried rotatably about an axis of rotation at a compactor frame, the compactor frame comprising in the direction of the axis of rotation on both sides of the compactor roller longitudinal frame areas (30, 32) and a first transverse frame area connecting the longitudinal frame areas (30, 32) and extending substantially in the direction of the axis of rotation, characterized by a working step-ladder, which can be moved between a stowing position and a working position, being provided at the first transverse frame area.
A method of producing a cell-mass capable of serving as a primitive organ-like structure comprised of combinations of outer root sheath cells and hair papilla cells, comprising: preparing cultures containing the outer root sheath cells and hair papilla cells; mixing the outer root sheath and hair papilla cell cultures followed by adding a Wnt signal activator demonstrating an inhibitory activity on GSK-3 to the mixed cell culture; subjecting the culture containing the said Wnt signal activator to culture by a hanging drop method or a spheroid formation method over a predetermined time period; and replacing the medium of the culture cultured by a hanging drop method or spheroid formation method with medium not containing Wnt signal activator and further culturing for a predetermined time period; wherein, at least one type of the ORS cells and hair papilla cells is maintained in an undifferentiated state. preparing cultures containing the outer root sheath cells and hair papilla cells; mixing the outer root sheath and hair papilla cell cultures followed by adding a Wnt signal activator demonstrating an inhibitory activity on GSK-3 to the mixed cell culture; subjecting the culture containing the said Wnt signal activator to culture by a hanging drop method or a spheroid formation method over a predetermined time period; and replacing the medium of the culture cultured by a hanging drop method or spheroid formation method with medium not containing Wnt signal activator and further culturing for a predetermined time period; wherein, at least one type of the ORS cells and hair papilla cells is maintained in an undifferentiated state.
A metal coated steel sheet comprising a coating layer including nickel (Ni) and Ni oxide, wherein the Ni oxide is included in an amount ranging from 0.5 wt% to 5 wt% based on an amount of oxygen in the Ni oxide, and wherein the Ni and the Ni oxide are included in an amount ranging from 0.1 g/m 2 to 3 g/m 2 based on a coating weight of Ni.
Traffic monitoring device with a device housing, wherein the device housing comprises an outer housing trough, a drawer which is vertically displaceable in the housing trough, and a housing roof, characterized in that several device modules each having a beam axis are arranged in the drawer by means of adjustable fastenings so that their beam axes can be adjusted relative to one another and relative to environmental features after the traffic monitoring device is mounted at the site of installation.
A refrigeration cycle apparatus comprising: a refrigerant circuit configured by annularly connecting, to one another through a refrigerant pipe, a compressor, a radiator, a supercooling heat exchanger, a main expansion apparatus and an evaporator in this order; a bypass passage which branches off from the refrigerant circuit between the radiator and the main expansion apparatus and which is connected to a compression chamber of the compressor or to the refrigerant circuit between the evaporator and the compressor through the supercooling heat exchanger; a bypass expansion apparatus connected to the bypass passage located on an upstream side from the supercooling heat exchanger; and a control device, wherein the control device executes a heating operation for heating a utilization heat medium in the radiator, and a defrosting operation for removing frost formed on the evaporator by heat of the refrigerant, characterized in that the control device executes a heat accumulating operation by controlling the bypass expansion apparatus for reducing a flow rate of refrigerant flowing through the bypass passage such that the flow rate becomes smaller than that when the heating operation is carried out before the defrosting operation is started. a refrigerant circuit configured by annularly connecting, to one another through a refrigerant pipe, a compressor, a radiator, a supercooling heat exchanger, a main expansion apparatus and an evaporator in this order; a bypass passage which branches off from the refrigerant circuit between the radiator and the main expansion apparatus and which is connected to a compression chamber of the compressor or to the refrigerant circuit between the evaporator and the compressor through the supercooling heat exchanger; a bypass expansion apparatus connected to the bypass passage located on an upstream side from the supercooling heat exchanger; and a control device, wherein the control device executes a heating operation for heating a utilization heat medium in the radiator, and a defrosting operation for removing frost formed on the evaporator by heat of the refrigerant, characterized in that the control device executes a heat accumulating operation by controlling the bypass expansion apparatus for reducing a flow rate of refrigerant flowing through the bypass passage such that the flow rate becomes smaller than that when the heating operation is carried out before the defrosting operation is started.