mhurhangee/ep-ind-claims huggingface dataset:
An article, comprising: (a) a glass substrate having a modified surface comprising a glass surface and a layer of nanoscale inorganic oxide particles disposed in contact with and bound to at least a portion of the glass surface, wherein at least a portion of the nanoscale inorganic oxide particles are bound to the glass surface by adsorption of the nanoscale particles directly onto the glass surface, wherein the layer of the nanoscale inorganic oxide particles is a monolayer of the nanoscale inorganic oxide particles, and (b) a polymer layer disposed in contact with and adhesively bound to the modified glass surface, wherein the polymer layer is a layer of an organic coating of a polymeric pressure sensitive adhesive. (a) a glass substrate having a modified surface comprising a glass surface and a layer of nanoscale inorganic oxide particles disposed in contact with and bound to at least a portion of the glass surface, (b) a polymer layer disposed in contact with and adhesively bound to the modified glass surface, wherein the polymer layer is a layer of an organic coating of a polymeric pressure sensitive adhesive.
A mobile communication method comprising: transmitting (S1002a), by a first mobile station UE, a data signal to a radio base station eNB through a RADIO BASE STATION interface set between the first MOBILE STATION and the radio base station eNB; transmitting (S1002b), by the first mobile station UE, a data signal to a second MOBILE STATION through an inter-MOBILE STATION interface set between the first mobile station UE and the second mobile station UE; transmitting (S1003a) to the radio base station eNB, by the first mobile station UE, a first buffer status report indicating an amount of data retained in a transmission buffer corresponding to a logical channel in the RADIO BASE STATION interface; transmitting (S1003b) to the radio base station eNB, by the first mobile station UE, a second buffer status report indicating an amount of data retained in a transmission buffer corresponding to a logical channel in the inter-MOBILE STATION interface; characterized by determining, at the radio base station eNB, that a received buffer status report is the first buffer status report when identification information of a logical channel LCID included in the received buffer status report has a value within a first range, and determining, at the radio base station eNB, that a received buffer status report is the second buffer status report when identification information of a logical channel LCID included in the received buffer status report has a value within a second range. transmitting (S1002a), by a first mobile station UE, a data signal to a radio base station eNB through a RADIO BASE STATION interface set between the first MOBILE STATION and the radio base station eNB; transmitting (S1002b), by the first mobile station UE, a data signal to a second MOBILE STATION through an inter-MOBILE STATION interface set between the first mobile station UE and the second mobile station UE; transmitting (S1003a) to the radio base station eNB, by the first mobile station UE, a first buffer status report indicating an amount of data retained in a transmission buffer corresponding to a logical channel in the RADIO BASE STATION interface; transmitting (S1003b) to the radio base station eNB, by the first mobile station UE, a second buffer status report indicating an amount of data retained in a transmission buffer corresponding to a logical channel in the inter-MOBILE STATION interface; characterized by determining, at the radio base station eNB, that a received buffer status report is the first buffer status report when identification information of a logical channel LCID included in the received buffer status report has a value within a first range, and determining, at the radio base station eNB, that a received buffer status report is the second buffer status report when identification information of a logical channel LCID included in the received buffer status report has a value within a second range.
System for reducing the air resistance of a truck, in particular an articulated truck, the truck comprising a load space which is delimited at the bottom by a loading floor and in height by a roof wall which is spaced apart from the loading floor, the roof wall being height-adjustable relative to the loading floor, characterised in that there is provided a load height detection module which determines the actual loading height within the load space and automatically carries out the height adjustment of the roof wall.
Lithium-ion battery precursor comprising - one or more electrode modules each formed by (a) at least one textile negative electrode precursor, consisting of a metal textile structure, oxidised at the surface, containing one or more transition metals from groups 4 to 12 of the periodic table of elements, (b) a polymer separator, impregnated with a solution of a lithium salt in an aprotic organic solvent, said separator covering the entire surface of the textile negative electrode precursor, (c) a positive electrode forming a solid matrix, which is preferably continuous, in which is enclosed the structure formed by (a) and (b), and - at least one metal lithium electrode, formed by a metal lithium strip supported by an electrical conductor, separated from the electrode module or modules by a polymer separator impregnated with a solution of a lithium salt in an aprotic organic solvent, characterised by the fact that the ratio of the total geometric surface of the lithium strip or strips to the total geometric surface of all the textile negative electrode precursors is comprised between 0.05 and 0.33, preferably between 0.1 and 0.25. - one or more electrode modules each formed by (a) at least one textile negative electrode precursor, consisting of a metal textile structure, oxidised at the surface, containing one or more transition metals from groups 4 to 12 of the periodic table of elements, (b) a polymer separator, impregnated with a solution of a lithium salt in an aprotic organic solvent, said separator covering the entire surface of the textile negative electrode precursor, (c) a positive electrode forming a solid matrix, which is preferably continuous, in which is enclosed the structure formed by (a) and (b), and (a) at least one textile negative electrode precursor, consisting of a metal textile structure, oxidised at the surface, containing one or more transition metals from groups 4 to 12 of the periodic table of elements, (b) a polymer separator, impregnated with a solution of a lithium salt in an aprotic organic solvent, said separator covering the entire surface of the textile negative electrode precursor, (c) a positive electrode forming a solid matrix, which is preferably continuous, in which is enclosed the structure formed by (a) and (b), and - at least one metal lithium electrode, formed by a metal lithium strip supported by an electrical conductor, separated from the electrode module or modules by a polymer separator impregnated with a solution of a lithium salt in an aprotic organic solvent, characterised by the fact that the ratio of the total geometric surface of the lithium strip or strips to the total geometric surface of all the textile negative electrode precursors is comprised between 0.05 and 0.33, preferably between 0.1 and 0.25.
An electrophoresis apparatus, comprising: a transport passage; a plurality of separation passages (28, 30, 32), each of the separation passages overlapping and intersecting the transport passage at a different intersection; each of the intersections having a staggered configuration that includes a elongated passage portion (34, 140, 142, 144); an analyte concentrator (34, 36, 38) containing at least one affinity ligand (37, 140, 142, 144) positioned respectively in each of the elongated passage portions, each analyte concentrator to concentrate desired analyte(s) of interest from a sample introduced into the transport passage; the at least one affinity ligand being immobilized to an inner wall within the elongated passage portions or the at least one affinity ligand being immobilized to a matrix contained in the analyte concentrator; the separation passages forming a pathway for the desired analyte(s) of interest captured by and subsequently released from each concentrator and to an analyte detection zone; and a valve system that controls fluid flow in the transport passage and each of the separation passages. a transport passage; a plurality of separation passages (28, 30, 32), each of the separation passages overlapping and intersecting the transport passage at a different intersection; each of the intersections having a staggered configuration that includes a elongated passage portion (34, 140, 142, 144); an analyte concentrator (34, 36, 38) containing at least one affinity ligand (37, 140, 142, 144) positioned respectively in each of the elongated passage portions, each analyte concentrator to concentrate desired analyte(s) of interest from a sample introduced into the transport passage; the at least one affinity ligand being immobilized to an inner wall within the elongated passage portions or the at least one affinity ligand being immobilized to a matrix contained in the analyte concentrator; the separation passages forming a pathway for the desired analyte(s) of interest captured by and subsequently released from each concentrator and to an analyte detection zone; and a valve system that controls fluid flow in the transport passage and each of the separation passages.
Device for applying an electric field to a suspension of cells, cell derivatives, organelles, sub-cellular particles and/or vesicles, comprising at least one chamber which comprises at least two electrodes (4, 5) and at least one separating element which is movable within the chamber between two terminal points (14, 15) and which is a sealing member that, if it is in a position between the terminal points (14, 15), ensures liquidproof and/or gasproof separation of at least one first compartment of the chamber from at least one second compartment of the chamber, wherein the first compartment is designed to hold an aliquot of the suspension and comprises at least one port (7, 8) for charging or discharging the suspension into or out of the first compartment, characterized in that the separating element comprises a flexible and/or elastic material and the second compartment is designed to hold a further aliquot of the suspension and comprises at least one port (10, 11) for charging or discharging the suspension into or out of the second compartment.
A method for use in a communication node in an intelligent transport system, comprising composing a header of a Cooperative Awareness Message, CAM, to be distributed within the intelligent transport system by the communication node, the communication node being capable of communicating at least in accordance with a cellular network, and inserting into the header at least one identifier according to the cellular communication network of the communication node, characterized in that the at least one identifier is a cellular subscriber or device identifier identifying a specific subscriber device, for the cellular network to forward directly the message. composing a header of a Cooperative Awareness Message, CAM, to be distributed within the intelligent transport system by the communication node, the communication node being capable of communicating at least in accordance with a cellular network, and inserting into the header at least one identifier according to the cellular communication network of the communication node, characterized in that the at least one identifier is a cellular subscriber or device identifier identifying a specific subscriber device, for the cellular network to forward directly the message.
Use of a mixture of a granular phase and a binder phase as a ramming mass for producing hot joints when block lining refractory elements of a refractory lining of a metallurgical vessel such as a blast furnace, wherein the granular phase essentially comprises carbon or carbon-based granules having a microporous structure and the binder comprises at least one component based on tar or polymerising resin, and an additive composed of metallic silicon powder, capable of developing a microporous structure having an average pore size of 2 μm or less on firing at high temperature, by the formation of whiskers which develop across the pores of the hardened tarry or polymerised material.
An auxiliary bearing (100, 200, 300, 400, 500) to be positioned in use at a location along a shaft, the auxiliary bearing comprising: a support structure extending around a circumference of the shaft; a first pedestal extending radially-inward from the support structure; first and second beams (110a, 110b) extending from opposite sides of the first pedestal in a plane perpendicular to the longitudinal axis of the shaft; a first roller operatively coupled to the first beam; and a second roller operatively coupled to the second beam, wherein the first and second rollers are adapted to engage the shaft when the shaft drops onto the auxiliary bearing. a support structure extending around a circumference of the shaft; a first pedestal extending radially-inward from the support structure; first and second beams (110a, 110b) extending from opposite sides of the first pedestal in a plane perpendicular to the longitudinal axis of the shaft; a first roller operatively coupled to the first beam; and a second roller operatively coupled to the second beam, wherein the first and second rollers are adapted to engage the shaft when the shaft drops onto the auxiliary bearing.
A wide-angle lens having a viewing angle of more than 130°, the wide angle lens having arranged therein a front group (L1 - L3), an aperture (s), and a rear group (L4, L5) in this order from an object side to an image side, the front group having arranged therein a first lens as a negative lens, a second lens as a negative lens, and a third lens as a positive lens from the object side to the image side, the rear group being a cemented lens (L4, L5) having a positive power when two lenses (L4, L5) are bonded to each other, wherein the first lens and the second lens of the front group are aspherical lenses, and the third lens is a spherical lens, characterized in that the rear group (L4, L5) is composed of a positive lens and a negative meniscus lens, and an Abbe's number udL of a material of the negative meniscus lens meets a condition υdL < 21, the wide-angle lens has an F-number of 2.0 or a value close to 2.0 and the wide-angle lens constitutes an image forming system with five lenses (L1 - L5) as a whole.
A tire mounted on a transportation means, the tire comprising: a tire body including a tread region that faces a surface of a road during at least the driving of the transportation means; and an electromagnetic tag module disposed in the tire body and configured to transmit or receive one or more signals, wherein, the electromagnetic tag module includes an electromagnetic tag, a cover layer that is disposed on an inner side surface of the electromagnetic tag and separate from the tire body, and a radio wave guide layer disposed on an outer side surface of the electromagnetic tag, wherein the cover layer includes a base rubber, a reinforcing filler, and an insulating filler, and has a specific resistance of 10 7 Q m or more, and characterized in that the radio wave guide layer includes a rubber composition having a specific resistance less than 10 7 Ω·m. a tire body including a tread region that faces a surface of a road during at least the driving of the transportation means; and an electromagnetic tag module disposed in the tire body and configured to transmit or receive one or more signals, wherein, the electromagnetic tag module includes an electromagnetic tag, a cover layer that is disposed on an inner side surface of the electromagnetic tag and separate from the tire body, and a radio wave guide layer disposed on an outer side surface of the electromagnetic tag, wherein the cover layer includes a base rubber, a reinforcing filler, and an insulating filler, and has a specific resistance of 10 7 Q m or more, and characterized in that the radio wave guide layer includes a rubber composition having a specific resistance less than 10 7 Ω·m.
A fuel cell system comprising: a reformer that generates a hydrogen-containing gas by using a raw material; a raw-material supplier that supplies the raw material to the reformer; a desulfurizer that desulfurizes, by using hydrodesulfurization, a sulfur compound contained in the raw material supplied to the reformer; a recycle gas passage for supplying the desulfurizer with part of gas exhausted from the reformer; a flow controller that controls flow of the gas in the recycle gas passage; a vapor supplier that supplies vapor to the reformer; a fuel cell that causes a reaction of the hydrogen-containing gas generated by the reformer; a combustor that ignites and combusts off-gas exhausted from the fuel cell; and a controller, wherein after causing the raw-material supplier to supply the raw material at a startup of the fuel cell system, the controller performs control such that the raw material exhausted as the off-gas via the fuel cell is combusted in the combustor, the flow controller subsequently causes the part of the gas exhausted from the reformer to flow through the recycle gas passage, and the vapor supplier thereafter supplies the vapor to the reformer, or such that the flow controller causes the part of the gas exhausted from the reformer to flow through the recycle gas passage, the raw material exhausted as the off-gas via the fuel cell is subsequently combusted in the combustor, and the vapor supplier thereafter supplies the vapor to the reformer. a reformer that generates a hydrogen-containing gas by using a raw material; a raw-material supplier that supplies the raw material to the reformer; a desulfurizer that desulfurizes, by using hydrodesulfurization, a sulfur compound contained in the raw material supplied to the reformer; a recycle gas passage for supplying the desulfurizer with part of gas exhausted from the reformer; a flow controller that controls flow of the gas in the recycle gas passage; a vapor supplier that supplies vapor to the reformer; a fuel cell that causes a reaction of the hydrogen-containing gas generated by the reformer; a combustor that ignites and combusts off-gas exhausted from the fuel cell; and a controller, wherein after causing the raw-material supplier to supply the raw material at a startup of the fuel cell system, the controller performs control such that the raw material exhausted as the off-gas via the fuel cell is combusted in the combustor, the flow controller subsequently causes the part of the gas exhausted from the reformer to flow through the recycle gas passage, and the vapor supplier thereafter supplies the vapor to the reformer, or such that the flow controller causes the part of the gas exhausted from the reformer to flow through the recycle gas passage, the raw material exhausted as the off-gas via the fuel cell is subsequently combusted in the combustor, and the vapor supplier thereafter supplies the vapor to the reformer.
A cleaning cart, comprising: a base having a first side wall, a second side wall, and a front wall, the base having at least one portion configured to receive a bucket thereon; a plurality of wheels (20, 22) depending from the base; a storage region depending from the base; and a bucket restraining device having a lateral restraining wall and a rear restraining wall that cooperate to define a first restraining region and a second restraining region, the first restraining region being defined by the front wall and a portion of the rear restraining wall and the second restraining region being defined by the second side wall, the front wall, the lateral restraining wall, and a different portion of rear restraining wall, characterized in that the first restraining region being sized and positioned to receive front wheels of the bucket. a base having a first side wall, a second side wall, and a front wall, the base having at least one portion configured to receive a bucket thereon; a plurality of wheels (20, 22) depending from the base; a storage region depending from the base; and a bucket restraining device having a lateral restraining wall and a rear restraining wall that cooperate to define a first restraining region and a second restraining region, the first restraining region being defined by the front wall and a portion of the rear restraining wall and the second restraining region being defined by the second side wall, the front wall, the lateral restraining wall, and a different portion of rear restraining wall, characterized in that the first restraining region being sized and positioned to receive front wheels of the bucket.
A method of forming a cavity in a work piece wherein a pulsed laser beam with a pulse frequency fL is guided over the surface of the work piece by means of a beam guidance device, wherein the laser beam has a diameter of at most 50 μm on the surface of the work piece and is guided such that its track speed vB on the surface of the work piece meets the following condition: vB > n ⋅ dS ⋅ fL, wherein n is a proportion factor which may be 0.2 or 0.4 or 0.6 or 0.8 or 1 or larger, dS is the beam diameter on the work piece level, and wherein the pulse frequency is higher than 100 kHz, wherein the laser beam guidance device comprises a first guidance device located in the beam path of the laser beam and per se causing a laser beam guidance with a first track speed, characterised in that the laser beam guidance device comprises a second guidance device located in the beam path of the laser beam and concurrently operating with the first guidance device and per se causing a laser beam guidance with a second track speed which is higher than the first track speed. n is a proportion factor which may be 0.2 or 0.4 or 0.6 or 0.8 or 1 or larger, dS is the beam diameter on the work piece level, and wherein the pulse frequency is higher than 100 kHz,