mhurhangee/ep-ind-claims huggingface dataset:
A merchandise display system comprising: a front rail configured to mount to a shelf; a first divider assembly configured to connect to the front rail, the first divider assembly defining a first divider assembly front and a first divider assembly rear, the first divider assembly comprising a first divider wall separating the first divider assembly to define a first track and a second track for supporting product; a second divider assembly defining a second divider assembly front and a second divider assembly rear, the second divider assembly configured to connect to the front rail, the second divider assembly comprising a second divider wall separating the second divider assembly to define a third track and a fourth track for supporting product; and a floor configured to connect to the front rail and configured to extend between the first divider wall and the second divider wall; wherein the floor engages the first divider assembly at the first divider assembly rear and the floor engages the second divider assembly at the second divider assembly rear to aid in preventing the first divider assembly and the second divider assembly from splaying in relation to one another; characterised in that: the floor further comprises a spring for raising the floor above a rear portion of the first divider assembly and a rear portion of the second divider assembly when the merchandise display system is in the unloaded position. a front rail configured to mount to a shelf; a first divider assembly configured to connect to the front rail, the first divider assembly defining a first divider assembly front and a first divider assembly rear, the first divider assembly comprising a first divider wall separating the first divider assembly to define a first track and a second track for supporting product; a second divider assembly defining a second divider assembly front and a second divider assembly rear, the second divider assembly configured to connect to the front rail, the second divider assembly comprising a second divider wall separating the second divider assembly to define a third track and a fourth track for supporting product; and a floor configured to connect to the front rail and configured to extend between the first divider wall and the second divider wall; wherein the floor engages the first divider assembly at the first divider assembly rear and the floor engages the second divider assembly at the second divider assembly rear to aid in preventing the first divider assembly and the second divider assembly from splaying in relation to one another; characterised in that: the floor further comprises a spring for raising the floor above a rear portion of the first divider assembly and a rear portion of the second divider assembly when the merchandise display system is in the unloaded position.
A display device comprising: a lower substrate; an upper substrate disposed opposite to the lower substrate; a liquid crystal layer between the lower substrate and the upper substrate; a plurality of gate lines disposed on the lower substrate and elongated in a first direction, a plurality of data lines disposed on the lower substrate insulated from the gate lines and elongated in a second direction which intersects the first direction, a plurality of thin film transistors each connected to a corresponding one of the plurality of the gate lines and a corresponding one of the plurality of the data lines; a plurality of pixel electrodes each connected to a corresponding one of the thin film transistors; and a reflection layer on the upper substrate, wherein the reflection layer has a plurality of apertures, each of which being located so as to correspond to at least a portion of a respective one of the pixel electrodes; characterized in that the reflection layer is divided into a first area which is a center portion of the reflection layer and a second area which surronds the first area, wherein the apertures (235 h) defined in the reflection layer in the first area have a size different from the apertures in the second area. a lower substrate; an upper substrate disposed opposite to the lower substrate; a liquid crystal layer between the lower substrate and the upper substrate; a plurality of gate lines disposed on the lower substrate and elongated in a first direction, a plurality of data lines disposed on the lower substrate insulated from the gate lines and elongated in a second direction which intersects the first direction, a plurality of thin film transistors each connected to a corresponding one of the plurality of the gate lines and a corresponding one of the plurality of the data lines; a plurality of pixel electrodes each connected to a corresponding one of the thin film transistors; and a reflection layer on the upper substrate, wherein the reflection layer has a plurality of apertures, each of which being located so as to correspond to at least a portion of a respective one of the pixel electrodes; characterized in that the reflection layer is divided into a first area which is a center portion of the reflection layer and a second area which surronds the first area, wherein the apertures (235 h) defined in the reflection layer in the first area have a size different from the apertures in the second area.
A weir quench for quenching a gaseous product stream from a chemical process, the weir quench comprising: an upper chamber for containing quench liquid, a gas inlet into the upper chamber, a lower chamber, and at least one downcomer tube leading from a height in the upper chamber to the lower chamber such that, when a volume of quench liquid in the upper chamber establishes a depth exceeding the height of the downcomer tube in the upper chamber, quench liquid flows through the downcomer tube into the lower chamber, wherein the inlet has an inner diameter, the upper chamber has an inner diameter and the at least one downcomer tube has an inner diameter, the inlet inner diameter is at least 90% of the upper chamber inner diameter, and the ratio of the inlet inner diameter to the downcomer tube inner diameter is equal to or greater than 3. an upper chamber for containing quench liquid, a gas inlet into the upper chamber, a lower chamber, and at least one downcomer tube leading from a height in the upper chamber to the lower chamber such that, when a volume of quench liquid in the upper chamber establishes a depth exceeding the height of the downcomer tube in the upper chamber, quench liquid flows through the downcomer tube into the lower chamber,
A package, comprising: (a) a support structure having a first surface; (b) an electronic component having a mounting portion and a heat dissipation surface, said mounting portion being coupled to said first surface of said support structure; and (c) a conformable thermal interface member (10, 30), comprising: (i) a bulk layer having first and second generally opposed surfaces, a modulus of less than 10 6 Pa and a thermal conductivity of at least 0.5 W/m.K; and (ii) a surface layer on at least a portion of at least one of said first and second surfaces of said bulk layer, said surface layer having: a maximum cross-sectional thickness of less than 10μm; a thermal conductivity along at least a thickness dimension of said surface layer of at least 50 W/m.K; and a melting point exceeding a solder reflow temperature, wherein said bulk layer of said thermal interface member (10, 30) is in contact with said heat dissipation surface of said electronic component. (a) a support structure having a first surface; (b) an electronic component having a mounting portion and a heat dissipation surface, said mounting portion being coupled to said first surface of said support structure; and (c) a conformable thermal interface member (10, 30), comprising: (i) a bulk layer having first and second generally opposed surfaces, a modulus of less than 10 6 Pa and a thermal conductivity of at least 0.5 W/m.K; and (ii) a surface layer on at least a portion of at least one of said first and second surfaces of said bulk layer, said surface layer having: a maximum cross-sectional thickness of less than 10μm; a thermal conductivity along at least a thickness dimension of said surface layer of at least 50 W/m.K; and a melting point exceeding a solder reflow temperature, wherein said bulk layer of said thermal interface member (10, 30) is in contact with said heat dissipation surface of said electronic component. (i) a bulk layer having first and second generally opposed surfaces, a modulus of less than 10 6 Pa and a thermal conductivity of at least 0.5 W/m.K; and (ii) a surface layer on at least a portion of at least one of said first and second surfaces of said bulk layer, said surface layer having: a maximum cross-sectional thickness of less than 10μm; a thermal conductivity along at least a thickness dimension of said surface layer of at least 50 W/m.K; and a melting point exceeding a solder reflow temperature, wherein said bulk layer of said thermal interface member (10, 30) is in contact with said heat dissipation surface of said electronic component. a maximum cross-sectional thickness of less than 10μm; a thermal conductivity along at least a thickness dimension of said surface layer of at least 50 W/m.K; and a melting point exceeding a solder reflow temperature,
Use of a copolymer in a concentration of between 0.01 mass% to 5.0 mass % in a lubricity-imparting agent, wherein: (i) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 99 mol% of a constitutional unit based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula and 1 mol% to 40 mol% of a constitutional unit based on a photoreactive functional group-containing monomer represented by any one of the following formulae,, and: in the formula, R 1 represents a hydrogen atom or a hydroxyl group; in the formula, R 2 represents the following formula or the following formula or (ii) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 98 mol% of a constitutional unit based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula, 1 mol% to 39 mol% of a constitutional unit based on a photoreactive functional group-containing monomer represented by any one of the following formulae,, and, and 1 mol% to 30 mol% of a constitutional unit based on a hydrophobic group-containing monomer represented by the following formula: in the formula, R 1 represents a hydrogen atom or a hydroxyl group; in the formula, R 2 represents the following formula or the following formula; in the formula, n represents from 3 to 17. (i) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 99 mol% of a constitutional unit based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula and 1 mol% to 40 mol% of a constitutional unit based on a photoreactive functional group-containing monomer represented by any one of the following formulae,, and: in the formula, R 1 represents a hydrogen atom or a hydroxyl group; in the formula, R 2 represents the following formula or the following formula or (ii) the copolymer has a weight-average molecular weight of from 10,000 to 1,000,000, and wherein the copolymer contains 60 mol% to 98 mol% of a constitutional unit based on 2-methacryloyloxyethyl phosphorylcholine represented by the following formula, 1 mol% to 39 mol% of a constitutional unit based on a photoreactive functional group-containing monomer represented by any one of the following formulae,, and, and 1 mol% to 30 mol% of a constitutional unit based on a hydrophobic group-containing monomer represented by the following formula: in the formula, R 1 represents a hydrogen atom or a hydroxyl group; in the formula, R 2 represents the following formula or the following formula; in the formula, n represents from 3 to 17.
An oil-in-water nanoemulsion comprising: 1) an internal oil phase comprising 3.5 to 40% by wt. nanoemulsion composition of a lauric oil, wherein said lauric oil is an oil or oils where saturated C 12 length fatty acid (12:0) comprises 30% to 85% of the fatty acid compositions of the oil or oils; wherein there is a minimum 5% total of lauric and non-lauric triglyceride oil and 2) an external aqueous phase comprising: i. 55 to 90% by wt. nanoemulsion of water and glycerol, wherein the ratio of said glycerol to said water is 2.5:1 and higher, preferably 2.8:1 to 10:1 or 3.0:1 to 5:1; and ii. 3 to 12% of a surfactant system comprising water soluble surfactants selected from the group consisting of anionic surfactants, amphoteric surfactants and mixtures thereof, wherein said anionic surfactant comprises 15% or more, preferably 40% or more (up to 100%, preferably 95%, although preferably it is 40% to 85%, or 50% to 85%) of the total surfactant system; wherein said composition has a turbidity of less than 100 NTU, preferably less than 80 NTU, more preferably 60 to 1 or 50 to 5, wherein said nanoemulsion is prepared by mixing ingredients forming said nanoemulsion and passing through a homogenizer with 1 pass or more at pressure of 7000 psi or less (482.6 bar or less), preferably 1500 to 5500 psi (103.4 to 379.2 bar). 1) an internal oil phase comprising 3.5 to 40% by wt. nanoemulsion composition of a lauric oil, wherein said lauric oil is an oil or oils where saturated C 12 length fatty acid (12:0) comprises 30% to 85% of the fatty acid compositions of the oil or oils; wherein there is a minimum 5% total of lauric and non-lauric triglyceride oil and 2) an external aqueous phase comprising: i. 55 to 90% by wt. nanoemulsion of water and glycerol, wherein the ratio of said glycerol to said water is 2.5:1 and higher, preferably 2.8:1 to 10:1 or 3.0:1 to 5:1; and ii. 3 to 12% of a surfactant system comprising water soluble surfactants selected from the group consisting of anionic surfactants, amphoteric surfactants and mixtures thereof, wherein said anionic surfactant comprises 15% or more, preferably 40% or more (up to 100%, preferably 95%, although preferably it is 40% to 85%, or 50% to 85%) of the total surfactant system; i. 55 to 90% by wt. nanoemulsion of water and glycerol, wherein the ratio of said glycerol to said water is 2.5:1 and higher, preferably 2.8:1 to 10:1 or 3.0:1 to 5:1; and ii. 3 to 12% of a surfactant system comprising water soluble surfactants selected from the group consisting of anionic surfactants, amphoteric surfactants and mixtures thereof, wherein said anionic surfactant comprises 15% or more, preferably 40% or more (up to 100%, preferably 95%, although preferably it is 40% to 85%, or 50% to 85%) of the total surfactant system;
A system comprising: one or more components configured to be located within an internal cabin of a vehicle; an imaging device configured to obtain an image of the one or more components; and a state determination control unit comprising a processor, wherein the state determination control unit is in communication with the imaging device, wherein the state determination control unit receives image data including the image from the imaging device, wherein the state determination control unit determines a region of interest within the image data by determining a vanishing point within the image, wherein the state determination control unit determines a bisecting line that passes through the vanishing point, wherein the region of interest is determined by the bisecting line, and wherein the state determination control unit determines a state of the one or more components based on the image data. one or more components configured to be located within an internal cabin of a vehicle; an imaging device configured to obtain an image of the one or more components; and a state determination control unit comprising a processor, wherein the state determination control unit is in communication with the imaging device, wherein the state determination control unit receives image data including the image from the imaging device, wherein the state determination control unit determines a region of interest within the image data by determining a vanishing point within the image, wherein the state determination control unit determines a bisecting line that passes through the vanishing point, wherein the region of interest is determined by the bisecting line, and wherein the state determination control unit determines a state of the one or more components based on the image data.
An information management device for injection molding, which is adapted to manage information on a part of an injection molding machine including a movable portion, a drive unit which is adapted to move the movable portion in a movement direction, and a drive force detector which is adapted to detect a drive force of the drive unit, characterized in that deterioration of the part of the injection molding machine is detected based on a detection value of the drive force detector during stop of the movable portion.
Module for use in a vehicle system with vapour control characterized in that said module comprises: - a housing having a first port, a second port, a third port and a fourth port; a closure body being moveably arranged in said housing; wherein said closure body is configured - for closing the third and the fourth port in a first position of the closure body; - for creating a barrier in said housing between a first volume and a second volume in a second position of the closure body; said first volume creating a passage between the first and the second port and said second volume creating a passage between the third and fourth port; and - for closing the first and the second port in a third position of the closure body. - a housing having a first port, a second port, a third port and a fourth port; a closure body being moveably arranged in said housing; wherein said closure body is configured - for closing the third and the fourth port in a first position of the closure body; - for creating a barrier in said housing between a first volume and a second volume in a second position of the closure body; said first volume creating a passage between the first and the second port and said second volume creating a passage between the third and fourth port; and - for closing the first and the second port in a third position of the closure body. - for closing the third and the fourth port in a first position of the closure body; - for creating a barrier in said housing between a first volume and a second volume in a second position of the closure body; said first volume creating a passage between the first and the second port and said second volume creating a passage between the third and fourth port; and - for closing the first and the second port in a third position of the closure body.
A sampling cartridge comprising a sampling cartridge body that includes a storage container holding region at where a sample storage container is able to be located and a sample collector holding region at where a sample collector is able to be located, wherein the sampling cartridge body in use holds the sample collector and the sample storage container in alignment with each other in a pre-sampling condition spaced apart with a sufficient gap to allow part of an item to be sampled to locate at said gap, characterised in that the sample collector holding region includes a bore in which the sample collector is located when in the pre-sampling condition.
A method of producing a component of a wind turbine, in particular a wind turbine rotor blade, comprising the steps: providing a winding core on a rotatable shaft, placing a vacuum film on the winding core, winding a component to be produced on the vacuum film by means of a winding scrim, placing an external mould around the wound component, carrying out a vacuum infusion method, and curing the infused resin, removing the winding core before the vacuum infusion method is carried out, wherein a vacuum is created between the vacuum film on the winding core and an inside of the external mould so that the wound-on scrim is pressed against the inside of the external mould. providing a winding core on a rotatable shaft, placing a vacuum film on the winding core, winding a component to be produced on the vacuum film by means of a winding scrim, placing an external mould around the wound component, carrying out a vacuum infusion method, and curing the infused resin, removing the winding core before the vacuum infusion method is carried out, wherein a vacuum is created between the vacuum film on the winding core and an inside of the external mould so that the wound-on scrim is pressed against the inside of the external mould.
Method for removing reactive, metallic aluminium and other base metallic phases in ash or waste material from combustion processes or other thermal, chemical, mechanical processes, where combustion or, in particular, the thermal, chemical, mechanical process is followed preferably by continuous or quasi-continuous, wet chemical treatment to hydrate the metallic phases, where wet chemical treatment takes place under alkaline conditions with pH-values of more than 11 and the necessary alkalinity at a pH of more than 11 is set by means of precise addition of reaction chemicals with an alkaline effect, such as base or lye, in a mixer/kneader, characterised in that nitrate is added and, as a result, ammonia is formed instead of the highly explosive hydrogen.
A portion container consisting of a receptacle for receiving a luxury product (G, G') and a cover for sealing the receptacle in order to produce a sealed volume within the portion container, wherein the receptacle and the cover are produced from environmentally degradable fibrous material with a fibre moulding system by means of a fibre moulding process from a pulp (7, 7a, 7b) as liquid solution with the environmentally degradable fibrous material, wherein the receptacle and the cover are provided with a barrier layer system having a barrier effect at least against penetration by moisture, water, aromatic substances, flavouring substances, odorous substances and/or substances not suitable for use in foodstuffs, characterized in that the barrier layer system comprises a lacquer layer or a ceramic layer.
A communication method for a near field communication NFC device, comprising: determining, by a Device Host DH, a radio frequency RF protocol supported by at least one discovered target NFC device; and selecting, according to the RF protocol priority, an RF protocol for performing NFC communication from the RF protocol supported by the at least one target NFC device so as to perform communication with a target NFC device corresponding to the RF protocol determined by selection; before the selecting, by the DH according to the RF protocol priority, the RF protocol for performing NFC communication from the RF protocol supported by the at least one target NFC device so as to perform communication with the target NFC device corresponding to the RF protocol determined by selection, further comprising: receiving, by the DH, a setup instruction input by a user, wherein the setup instruction comprises information about the RF protocol priority. determining, by a Device Host DH, a radio frequency RF protocol supported by at least one discovered target NFC device; and selecting, according to the RF protocol priority, an RF protocol for performing NFC communication from the RF protocol supported by the at least one target NFC device so as to perform communication with a target NFC device corresponding to the RF protocol determined by selection; before the selecting, by the DH according to the RF protocol priority, the RF protocol for performing NFC communication from the RF protocol supported by the at least one target NFC device so as to perform communication with the target NFC device corresponding to the RF protocol determined by selection, further comprising: receiving, by the DH, a setup instruction input by a user, wherein the setup instruction comprises information about the RF protocol priority. receiving, by the DH, a setup instruction input by a user, wherein the setup instruction comprises information about the RF protocol priority.