mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting apparatus , comprising: a substrate having a lighting region (EA), an outer region (NA), and a contact region (CA); an organic light emitting device on the substrate in the lighting region, the organic light emitting device including a first electrode , an organic light emitting layer , and a second electrode ; wherein an organic light emitting material forming the organic light emitting layer is deposited on the entire surface of the substrate, and a step structure on the substrate in the outer region and comprising a tapered bank layer having side walls that slope outwardly from an upper surface to a lower surface of the bank layer, optionally wherein the organic light emitting layer is positioned on the step structure in the outer region, the organic light emitting layer being disconnected along the side walls of the step structure, wherein the step structure disconnects the organic light emitting layer between the outer region and the lighting region. a substrate having a lighting region (EA), an outer region (NA), and a contact region (CA); an organic light emitting device on the substrate in the lighting region, the organic light emitting device including a first electrode , an organic light emitting layer , and a second electrode ; wherein an organic light emitting material forming the organic light emitting layer is deposited on the entire surface of the substrate, and a step structure on the substrate in the outer region and comprising a tapered bank layer having side walls that slope outwardly from an upper surface to a lower surface of the bank layer, optionally wherein the organic light emitting layer is positioned on the step structure in the outer region, the organic light emitting layer being disconnected along the side walls of the step structure, wherein the step structure disconnects the organic light emitting layer between the outer region and the lighting region.
An antenna structure comprising : a substrate having a surface ; a grounding layer formed on the surface of the substrate ; a first antenna layer formed on the surface of the substrate , wherein the first antenna layer comprises a first radiating portion and a second radiating portion connected with the first radiating portion ; a second antenna layer formed on the surface of the substrate , wherein the second antenna layer comprises a third radiating portion and a fourth radiating portion connected with the third radiating portion , the third radiating portion and the first radiating portion are connected at a connection portion (S1), the connection portion (S1) and the grounding layer are separated from each other, and the fourth radiating portion and the second radiating portion are disposed oppositely and separated from each other; characterized in that the antenna structure further comprises : an inductance element bridging the grounding layer and the connection portion (S1); and a capacitance element bridging the fourth radiating portion and the second radiating portion . a substrate having a surface ; a grounding layer formed on the surface of the substrate ; a first antenna layer formed on the surface of the substrate , wherein the first antenna layer comprises a first radiating portion and a second radiating portion connected with the first radiating portion ; a second antenna layer formed on the surface of the substrate , wherein the second antenna layer comprises a third radiating portion and a fourth radiating portion connected with the third radiating portion , the third radiating portion and the first radiating portion are connected at a connection portion (S1), the connection portion (S1) and the grounding layer are separated from each other, and the fourth radiating portion and the second radiating portion are disposed oppositely and separated from each other; characterized in that the antenna structure further comprises : an inductance element bridging the grounding layer and the connection portion (S1); and a capacitance element bridging the fourth radiating portion and the second radiating portion . an inductance element bridging the grounding layer and the connection portion (S1); and a capacitance element bridging the fourth radiating portion and the second radiating portion .
A vehicle capable of travelling in an automatic driving mode and comprising a vehicle system and a vehicle illumination device configured to display information relating to automatic driving of the vehicle toward an outside of the vehicle, the vehicle illumination device comprising an illumination unit configured to irradiate light toward the outside of the vehicle and over an entire circumference of the vehicle in a horizontal direction, the vehicle characterized in that it is capable of travelling in four driving modes including: - a fully automatic driving mode in which the vehicle system automatically performs all of the travelling controls of the steering control, the brake control and the accelerator control and the driver is not in a state where it is possible to drive the vehicle; - an advanced driving support mode in which the vehicle system automatically performs all of the travelling controls of the steering control, the brake control and the accelerator control, and the driver does not drive the vehicle; - a driving support mode in which the vehicle system automatically performs a part of the travelling controls of the steering control, the brake control and the accelerator control, and the driver drives the vehicle under the driving support of the vehicle system; and - a manual driving mode in which the vehicle system does not automatically perform the travelling controls, and the driver drives the vehicle without the driving support of the vehicle system, in that the vehicle illumination unit is configured to adopt a different illumination state (S 1-S4) for each of the four driving modes, and in that the information relating to the automatic driving of the vehicle includes information indicating a transition state of a driving mode of the vehicle . - a fully automatic driving mode in which the vehicle system automatically performs all of the travelling controls of the steering control, the brake control and the accelerator control and the driver is not in a state where it is possible to drive the vehicle; - an advanced driving support mode in which the vehicle system automatically performs all of the travelling controls of the steering control, the brake control and the accelerator control, and the driver does not drive the vehicle; - a driving support mode in which the vehicle system automatically performs a part of the travelling controls of the steering control, the brake control and the accelerator control, and the driver drives the vehicle under the driving support of the vehicle system; and - a manual driving mode in which the vehicle system does not automatically perform the travelling controls, and the driver drives the vehicle without the driving support of the vehicle system, in that the vehicle illumination unit is configured to adopt a different illumination state (S 1-S4) for each of the four driving modes, and in that the information relating to the automatic driving of the vehicle includes information indicating a transition state of a driving mode of the vehicle .
A method of preparing 2-amino-1-(2,2-dimethyl-4H-1,3-benzodioxin-6-yl)ethanol (Compound 1) having the formula the method comprising: a) reacting 2-bromo-1-[4-hydroxy-3-(hydroxymethyl) phenylethan-1-one (Compound 2) having the formula with 2-methoxypropene in a first organic solvent to produce a reaction solution comprising 2-bromo-1-(2,2-dimethyl-4H-1,3-benzodioxin-6-yl)ethanone (Compound 3) having the formula b) reacting Compound 3 with a nitrogen source in the reaction solution to produce 1-(2,2-dimethyl-4H-1,3-benzodioxin-6-yl)-2-[1-phenylethylamino] ethanone (Compound 4) having the formula c) reacting Compound 4 with sodium borohydride in a second organic solvent to produce 1-(2,2-dimethyl-4H-1,3-benzodioxin-6-yl)-2-[1-phenylethylamino]ethanol (Compound 5) having the formula and d) debenzylating Compound 5 by ammonium formate / palladium-carbon catalytic transfer hydrogenation in a third organic solvent to produce Compound 1. a) reacting 2-bromo-1-[4-hydroxy-3-(hydroxymethyl) phenylethan-1-one (Compound 2) having the formula with 2-methoxypropene in a first organic solvent to produce a reaction solution comprising 2-bromo-1-(2,2-dimethyl-4H-1,3-benzodioxin-6-yl)ethanone (Compound 3) having the formula b) reacting Compound 3 with a nitrogen source in the reaction solution to produce 1-(2,2-dimethyl-4H-1,3-benzodioxin-6-yl)-2-[1-phenylethylamino] ethanone (Compound 4) having the formula c) reacting Compound 4 with sodium borohydride in a second organic solvent to produce 1-(2,2-dimethyl-4H-1,3-benzodioxin-6-yl)-2-[1-phenylethylamino]ethanol (Compound 5) having the formula and d) debenzylating Compound 5 by ammonium formate / palladium-carbon catalytic transfer hydrogenation in a third organic solvent to produce Compound 1.
A method for preparing a food product from oat flour comprising the following stages: a) mixing oat flour and water at a temperature between 65-75°C in order to obtain an aqueous suspension of oat flour with a dry matter content of between 5 and 15% by weight, b) hydrolysing the aqueous suspension obtained in stage a) by adding α-amylase, c) heating the hydrolysed suspension obtained in stage b) between 87 and 93°C to stop the hydrolysis reaction, d) adding thickeners to the heated suspension obtained in stage c) in a proportion by weight between 3 and 4% with respect to the resulting suspension of said addition, e) sanitising the suspension obtained in stage d) by heating to 90-92°C, for a period of time between 4.5 and 6 minutes, f) cooling the suspension obtained in stage e) to temperatures between 40 and 42°C followed by the addition of a starter culture comprising the following lactic acid bacteria: Lactobacillus casei CECT 9104 and Lactobacillus acidophilus DSM 32580, to ferment the hydrolysed suspension, g) incubating the suspension obtained in stage f) at a temperature between 41 and 43°C for a sufficient period of time for the suspension to ferment, and h) cooling the product obtained in the previous stage at a temperature between 1 and 4.5°C for the storage thereof. a) mixing oat flour and water at a temperature between 65-75°C in order to obtain an aqueous suspension of oat flour with a dry matter content of between 5 and 15% by weight, b) hydrolysing the aqueous suspension obtained in stage a) by adding α-amylase, c) heating the hydrolysed suspension obtained in stage b) between 87 and 93°C to stop the hydrolysis reaction, d) adding thickeners to the heated suspension obtained in stage c) in a proportion by weight between 3 and 4% with respect to the resulting suspension of said addition, e) sanitising the suspension obtained in stage d) by heating to 90-92°C, for a period of time between 4.5 and 6 minutes, f) cooling the suspension obtained in stage e) to temperatures between 40 and 42°C followed by the addition of a starter culture comprising the following lactic acid bacteria: Lactobacillus casei CECT 9104 and Lactobacillus acidophilus DSM 32580, to ferment the hydrolysed suspension, g) incubating the suspension obtained in stage f) at a temperature between 41 and 43°C for a sufficient period of time for the suspension to ferment, and h) cooling the product obtained in the previous stage at a temperature between 1 and 4.5°C for the storage thereof.
A whole blood measurement method associated to hematocrit (HCT) comprising: counting a first charging time for charging a fixed capacitor (Cr) to a predetermined potential (S310); converting the first charging time to a first digital signal by using a time to digital converting circuit (TDC) (S320); counting a second charging time for charging a to-be-tested sample to the predetermined potential (S330); converting the second charging time to a second digital signal by using the TDC (S340); and generating a capacitance difference according to the first digital signal, the second digital signal, and a capacitance of the fixed capacitor (Cr) (S350). counting a first charging time for charging a fixed capacitor (Cr) to a predetermined potential (S310); converting the first charging time to a first digital signal by using a time to digital converting circuit (TDC) (S320); counting a second charging time for charging a to-be-tested sample to the predetermined potential (S330); converting the second charging time to a second digital signal by using the TDC (S340); and generating a capacitance difference according to the first digital signal, the second digital signal, and a capacitance of the fixed capacitor (Cr) (S350).
An outdoor unit of an air-conditioning apparatus, comprising a casing , wherein the casing includes: a side face panel ; a front face panel ; and a top face panel constituting a top face portion of the casing , wherein an upper end portion of the front face panel includes a temporary fixing stop portion projecting toward a back side of the casing , an upper end portion of a front face side of the side face panel includes a temporary fixing hole into which the temporary fixing stop portion is inserted, the temporary fixing stop portion and the temporary fixing hole are covered by the top face panel , the front face panel includes a final fixing stop portion that projects toward the back side of the casing , and the side face panel includes a final fixing hole configured to receive insertion of the final fixing stop portion when the front face panel is turned in a state where the temporary stop fixing portion has been inserted into the temporary fixing hole characterized in that the side face panel constitutes one side face portion of the casing and a part of a front face portion of the casing adjacent to the side face portion, the front face panel constitutes the front face portion of the casing together with the side face panel , the side face panel and the front face panel are fixed on the front face side of the casing , the final fixing stop portion includes a first inclined portion (2b1), a second inclined portion (2b2) and a groove portion (2b3), the first inclined portion (2b1) is formed at the upper end portion of the final fixing stop portion and inclines downward from a base end of the final fixing stop portion toward a distal end, the second inclined portion (2b2) is formed at the lower end portion of the final fixing stop portion and is inclined from the base end of the final fixing stop portion toward the distal end, and the groove portion (2b3) is formed at the lower end portion of the final fixing stop portion , is formed from the base end portion of the final fixing stop portion toward the portion at the most base end side of the second inclined portion (2b2) and has a shape hollowed from the lower end of the final fixing stop portion toward the upper side. a side face panel ; a front face panel ; and a top face panel constituting a top face portion of the casing ,
A magnetoresistance element deposited upon a substrate, comprising: a first stack portion having opposing first and second surfaces and comprising a first plurality of layers, the first stack portion having a first substantially linear response corresponding to an applied magnetic field over a first magnetic field strength range, wherein the first plurality of layers comprises; a first pinned layer ; a first spacer layer , disposed over the first pinned layer , comprised of a first material having a first thickness, wherein the first material and the first thickness are selected to result in the first stack portion having the first substantially linear response; and a first free layer structure disposed over a spacer layer ; and a second stack portion having opposing first and second surfaces and comprising a second plurality of layers, wherein the first surface of the second stack portion is disposed over the second surface of the first stack portion and the second stack portion has a second substantially linear response that is different than the first substantially linear response, the second substantially linear response corresponding to the applied magnetic field over a second magnetic field strength range. a first stack portion having opposing first and second surfaces and comprising a first plurality of layers, the first stack portion having a first substantially linear response corresponding to an applied magnetic field over a first magnetic field strength range, wherein the first plurality of layers comprises; a first pinned layer ; a first spacer layer , disposed over the first pinned layer , comprised of a first material having a first thickness, wherein the first material and the first thickness are selected to result in the first stack portion having the first substantially linear response; and a first free layer structure disposed over a spacer layer ; and a first pinned layer ; a first spacer layer , disposed over the first pinned layer , comprised of a first material having a first thickness, wherein the first material and the first thickness are selected to result in the first stack portion having the first substantially linear response; and a first free layer structure disposed over a spacer layer ; and a second stack portion having opposing first and second surfaces and comprising a second plurality of layers, wherein the first surface of the second stack portion is disposed over the second surface of the first stack portion and the second stack portion has a second substantially linear response that is different than the first substantially linear response, the second substantially linear response corresponding to the applied magnetic field over a second magnetic field strength range.
Flexible bag comprising an inner compartment for receiving a hot and/or burning object , where the bag can be rolled up and/or folded and where the bag has an opening for the insertion of the object into the inner compartment of said bag, where the extent of the bag from its upper end to its opposite lower end defines its longitudinal direction, where the opening is located in the upper third of the bag and an outer compartment that is accessible from outside, in which a fire extinguisher to hold and discharge a fire-extinguishing agent is housed, is provided in the lower third of the bag, characterized in that the outer compartment is designed in such a way that, following the insertion into the outer compartment, the fire extinguisher is arranged essentially perpendicular to the longitudinal direction of the bag.
A work machine having a fuel cell drive comprising a fuel cell and determination means for determining the load demand of the fuel cell, wherein the work machine has a plurality of electrical consumers that are directly or indirectly connected to the fuel cell for the purpose of obtaining electrical energy, wherein the determination means are configured such that the power requirements of at least two of the electrical consumers enter into the determination of the load demand of the fuel cell, characterized in that that filter means are present that are configured to filter the power requirements of the at least two electrical consumers over time; and in that in that second detection means are provided that are configured to detect historical data of the work machine with the determination means being configured to allow the historical data to enter into the load demand of the fuel cell, and with historical data comprising the past power requirement of the work machine or the past power requirement of one or more consumers of the work machine.
A plasma generating apparatus for a secondary battery, comprising: a transfer roller configured to transfer a separator ; a metal member built in the transfer roller ; a plasma generating member configured to interact with the metal member to generate plasma and irradiate the generated plasma onto a surface of the separator ; and a protrusion member configured to realize an adhesion area from which a portion of the separator closely attached to the transfer roller protrudes and onto which the plasma is irradiated to provide adhesion and a non-adhesion area onto which the plasma is not irradiated or is weakly irradiated when compared with the adhesion area so that there is no adhesion or the resulting adhesion is weaker than that of the adhesion area, wherein the separator has a bottom surface closely attached to the transfer roller , a top surface protruding by the protrusion member , and a connection surface connecting the bottom surface to the top surface , the plasma is irradiated onto the bottom surface and the top surface to provide the adhesion area having the adhesion, and the non-adhesion area having no adhesion or adhesion weaker than that of the adhesion area is provided on the connection surface while the irradiated plasma is concentrated onto the top surface , and characterised in that the protrusion member has a ring shape along a circumferential surface of the transfer roller , and at least one or more protrusion members are provided in a longitudinal direction of the transfer roller . a transfer roller configured to transfer a separator ; a metal member built in the transfer roller ; a plasma generating member configured to interact with the metal member to generate plasma and irradiate the generated plasma onto a surface of the separator ; and a protrusion member configured to realize an adhesion area from which a portion of the separator closely attached to the transfer roller protrudes and onto which the plasma is irradiated to provide adhesion and a non-adhesion area onto which the plasma is not irradiated or is weakly irradiated when compared with the adhesion area so that there is no adhesion or the resulting adhesion is weaker than that of the adhesion area, wherein the separator has a bottom surface closely attached to the transfer roller , a top surface protruding by the protrusion member , and a connection surface connecting the bottom surface to the top surface , the plasma is irradiated onto the bottom surface and the top surface to provide the adhesion area having the adhesion, and the non-adhesion area having no adhesion or adhesion weaker than that of the adhesion area is provided on the connection surface while the irradiated plasma is concentrated onto the top surface , and characterised in that the protrusion member has a ring shape along a circumferential surface of the transfer roller , and at least one or more protrusion members are provided in a longitudinal direction of the transfer roller .