mhurhangee/patent-ind-claim-en huggingface dataset:
Storage apparatus, comprising: a memory ; an encryption processor , which is configured to receive and encrypt data transmitted from one or more computers for storage in the memory ; and a one-way link , coupling the encryption processor to the memory ; wherein the encryption processor is connected to the one or more computers via a computer network ; wherein the memory comprises an archive memory centrally archiving data for a plurality of computers ; and wherein the memory and the encryption processor are connected directly only by the one-way link , and the one-way link is physically configured to permit data transmission between the encryption processor and the memory only in the direction from the encryption processor to the memory ; characterized in that the apparatus further comprises a monitoring processor connected to the archive memory , having a connection allowing transmission to the network , wherein the monitoring processor is pre-programmed to monitor the status of the archive memory and to report on a data storage status of the archive memory to an appropriate computer without receiving explicit commands to do so from computers , and the said connection of the monitoring processor to the network is through a second one-way link and wherein the one or more computers are unable to send to the monitoring processor data or commands that could cause the monitoring processor to retrieve and transmit to the network confidential data from the archive memory . a memory ; an encryption processor , which is configured to receive and encrypt data transmitted from one or more computers for storage in the memory ; and a one-way link , coupling the encryption processor to the memory ; wherein the encryption processor is connected to the one or more computers via a computer network ; wherein the memory comprises an archive memory centrally archiving data for a plurality of computers ; and wherein the memory and the encryption processor are connected directly only by the one-way link , and the one-way link is physically configured to permit data transmission between the encryption processor and the memory only in the direction from the encryption processor to the memory ; characterized in that the apparatus further comprises a monitoring processor connected to the archive memory , having a connection allowing transmission to the network , wherein the monitoring processor is pre-programmed to monitor the status of the archive memory and to report on a data storage status of the archive memory to an appropriate computer without receiving explicit commands to do so from computers , and the said connection of the monitoring processor to the network is through a second one-way link and wherein the one or more computers are unable to send to the monitoring processor data or commands that could cause the monitoring processor to retrieve and transmit to the network confidential data from the archive memory .
A corrosion-resistant coated glass substrate suitable for use as a bath screen and/or a shower screen in a humid environment comprising: i) a substrate of soda lime silica glass; and ii) a silica layer deposited directly on both surfaces of the glass substrate, wherein: each silica layer is derived from a liquid polysilazane in the form of perhydropolysilazane; each silica layer comprises 95% or more silica in the form of SiO 2 ; each silica layer comprises a fully-densified continuous, non-porous film; and each silica layer has a thickness of 75 nm or higher and a thickness of 260 nm or lower. i) a substrate of soda lime silica glass; and ii) a silica layer deposited directly on both surfaces of the glass substrate, wherein: each silica layer is derived from a liquid polysilazane in the form of perhydropolysilazane; each silica layer comprises 95% or more silica in the form of SiO 2 ; each silica layer comprises a fully-densified continuous, non-porous film; and each silica layer has a thickness of 75 nm or higher and a thickness of 260 nm or lower. each silica layer is derived from a liquid polysilazane in the form of perhydropolysilazane; each silica layer comprises 95% or more silica in the form of SiO 2 ; each silica layer comprises a fully-densified continuous, non-porous film; and each silica layer has a thickness of 75 nm or higher and a thickness of 260 nm or lower.
A dishwasher comprising: a cabinet that forms an outer shape; a tub that is disposed inside the cabinet , forms a washing chamber accommodating a washing target, and has an open front; a door that opens and closes the opened front of the tub ; a control panel that is disposed in one side of the door , and has an operation button ; a printed circuit board that is disposed inside the control panel , and detects an input for the operation button ; a supporter that has a mounting space , which is formed inside, in which the printed circuit board is mounted, and is disposed inside the control panel ; a waterproof film that is adhered to one side of the supporter facing the control panel and blocks water inflow into the printed circuit board disposed in the mounting space ; and a coating layer filled with a waterproof material, in the mounting space of the supporter on which the printed circuit board is mounted, wherein the printed circuit board comprises a first surface mounted on the supporter and a second surface exposed to the mounting space of the supporter , and in the supporter , the waterproof film is adhered to an outer surface of the supporter disposed in a direction in which the first surface faces, and the coating layer is formed in the mounting space of the supporter in a direction in which the second surface faces. a cabinet that forms an outer shape; a tub that is disposed inside the cabinet , forms a washing chamber accommodating a washing target, and has an open front; a door that opens and closes the opened front of the tub ; a control panel that is disposed in one side of the door , and has an operation button ; a printed circuit board that is disposed inside the control panel , and detects an input for the operation button ; a supporter that has a mounting space , which is formed inside, in which the printed circuit board is mounted, and is disposed inside the control panel ; a waterproof film that is adhered to one side of the supporter facing the control panel and blocks water inflow into the printed circuit board disposed in the mounting space ; and a coating layer filled with a waterproof material, in the mounting space of the supporter on which the printed circuit board is mounted, wherein the printed circuit board comprises a first surface mounted on the supporter and a second surface exposed to the mounting space of the supporter , and in the supporter , the waterproof film is adhered to an outer surface of the supporter disposed in a direction in which the first surface faces, and the coating layer is formed in the mounting space of the supporter in a direction in which the second surface faces.
A vinyl chloride resin composition comprising: (a) a vinyl chloride resin; (b) a dodecanedioic acid diester; and (c) a trimellitic acid ester, wherein a total amount of (b) the dodecanedioic acid diester and (c) the trimellitic acid ester relative to 100 parts by mass of (a) the vinyl chloride resin is from 5 parts by mass to 200 parts by mass, a blending ratio of (b) the dodecanedioic acid diester relative to (c) the trimellitic acid ester, expressed as a mass ratio, is from 1/99 to 99/1, and (a) the vinyl chloride resin includes (x) a base vinyl chloride resin in an amount of from 70 mass% to 100 mass% and (y) vinyl chloride resin fine particles in an amount of from 0 mass% to 30 mass%. (a) a vinyl chloride resin; (b) a dodecanedioic acid diester; and (c) a trimellitic acid ester, wherein
Patchboard with multiple honeycomb components , whereby the individual honeycomb components in each case have a box-shaped housing with two front surfaces and four side surfaces , which extend between the front surfaces and whereby the two front surfaces of the honeycomb components in each case have at least one connecting area , wherein at least two side surfaces of the honeycomb components in each case have at least one latching element for connecting to another honeycomb component , and wherein at least one terminal element is arranged on at least one side of the patchboard , whereby the terminal element has a mating latching element on at least one side surface , by means of which the terminal element is connected to an adjacent honeycomb component characterized in that , in each case, a terminal element is arranged on two opposite sides of the patchboard , that the two terminal elements each have a connecting area , a holding area and a fastening area , wherein the holding area and the fastening area are arranged perpendicular to one another, so that together they form a mounting bracket, and that the at least one mating latching element is made on the connecting area and the connecting area is connected via a swivel axis to the holding area .
A display device comprising: a roller and a display module configured to be rolled around the roller , wherein the display module comprises: a display panel ; and a plurality of supporters disposed at a rear of the display panel and configured to support the display panel , wherein the plurality of supporters extend in a horizontal direction (y), characterized in that a ratio of a height (H) of each supporter to a radius (r) of the roller is in a range of 0.1:1 to 0.6:1. a roller and a display module configured to be rolled around the roller , wherein the display module comprises: a display panel ; and a plurality of supporters disposed at a rear of the display panel and configured to support the display panel , wherein the plurality of supporters extend in a horizontal direction (y), characterized in that a ratio of a height (H) of each supporter to a radius (r) of the roller is in a range of 0.1:1 to 0.6:1. a display panel ; and a plurality of supporters disposed at a rear of the display panel and configured to support the display panel , wherein the plurality of supporters extend in a horizontal direction (y), characterized in that a ratio of a height (H) of each supporter to a radius (r) of the roller is in a range of 0.1:1 to 0.6:1.
A method for producing a polymer polyol (Ia), the method comprising: a first step of polymerizing a monomer-containing mixture liquid (Al) comprising a polyol (a), an ethylenically unsaturated monomer (d), a radical polymerization initiator (k), and a dispersant (e), thereby obtaining a polymer polyol intermediate (B1); and an (i+1)th step of polymerizing a monomer-containing mixture liquid (Ai+1) comprising a polyol (a), an ethylenically unsaturated monomer (d), a radical polymerization initiator (k), a dispersant (e), and a base polymer polyol (hi) that is an intermediate (Bi), thereby obtaining a polymer polyol intermediate (Bi+1), where i is an integer incremented from 1 to n-1 whereby this step is repeated n-1 times, wherein the polymer polyol intermediate (Bi+1) is to be used as a base polymer polyol (hi+1) in a next step whereby the ethylenically unsaturated monomer (d) is polymerized likewise, wherein the total number n of repetition times is 3 to 7, each concentration of the ethylenically unsaturated monomer (d) in the monomer-containing mixture liquids (A1) and (Ai+1) before the initiation of polymerization in each step is 7 mass% to 25 mass%, a polymer content in the base polymer polyol (hi) is 7 mass% to 50 mass%, and a polymer content in a polymer polyol (Ia) obtained finally is 30 mass% to 65 mass%, wherein each step is a batch polymerization method in which a mixture of (a), (d) and (e), and optionally a diluent (c), is heated to the polymerization temperature, and thereafter the radical polymerization initiator (k) is added to the mixture so that polymerization occurs. a first step of polymerizing a monomer-containing mixture liquid (Al) comprising a polyol (a), an ethylenically unsaturated monomer (d), a radical polymerization initiator (k), and a dispersant (e), thereby obtaining a polymer polyol intermediate (B1); and an (i+1)th step of polymerizing a monomer-containing mixture liquid (Ai+1) comprising a polyol (a), an ethylenically unsaturated monomer (d), a radical polymerization initiator (k), a dispersant (e), and a base polymer polyol (hi) that is an intermediate (Bi), thereby obtaining a polymer polyol intermediate (Bi+1), where i is an integer incremented from 1 to n-1 whereby this step is repeated n-1 times, wherein the polymer polyol intermediate (Bi+1) is to be used as a base polymer polyol (hi+1) in a next step whereby the ethylenically unsaturated monomer (d) is polymerized likewise, wherein the total number n of repetition times is 3 to 7, each concentration of the ethylenically unsaturated monomer (d) in the monomer-containing mixture liquids (A1) and (Ai+1) before the initiation of polymerization in each step is 7 mass% to 25 mass%, a polymer content in the base polymer polyol (hi) is 7 mass% to 50 mass%, and a polymer content in a polymer polyol (Ia) obtained finally is 30 mass% to 65 mass%, wherein each step is a batch polymerization method in which a mixture of (a), (d) and (e), and optionally a diluent (c), is heated to the polymerization temperature, and thereafter the radical polymerization initiator (k) is added to the mixture so that polymerization occurs.
A process for the epoxidation of propene by continuously reacting propene with hydrogen peroxide in a methanol solvent and in the presence of a shaped titanium silicalite catalyst in a tube bundle reactor comprising a multitude of parallel reaction tubes and a cooling jacket enclosing the reaction tubes with the catalyst arranged as a fixed bed in the reaction tubes, the molar ratio of propene to hydrogen peroxide being in the range of from 2.5:1 to 6:1 at full load of the reactor, wherein during start-up of the reaction with a fresh or a regenerated catalyst until full load of the reactor is reached: cooling medium is fed to the cooling jacket at a constant rate for full load of the reactor, the entry temperature of the cooling medium being kept essentially constant at a value in the range of from 20 °C to 50 °C; methanol solvent is fed to the reaction tubes at a feeding rate of from 50 to 100 % of a feeding rate for full load of the reactor; hydrogen peroxide is fed to the reaction tubes at a feeding rate that starts with no more than 10 % of a feeding rate for full load of the reactor and is increased continuously or stepwise to the rate for full load of the reactor, increasing the feeding rate for hydrogen peroxide to maintain a maximum temperature in the fixed bed of no more than 60 °C and a temperature difference between the maximum temperature in the fixed bed and the cooling medium entry temperature of no more than 20 °C; and propene is fed to the reaction tubes at a feeding rate of from 20 to 100 % of a feeding rate for full load of the reactor, increasing the feeding rate for propene when the molar ratio of propene to hydrogen peroxide reaches the molar ratio for full load of the reactor. cooling medium is fed to the cooling jacket at a constant rate for full load of the reactor, the entry temperature of the cooling medium being kept essentially constant at a value in the range of from 20 °C to 50 °C; methanol solvent is fed to the reaction tubes at a feeding rate of from 50 to 100 % of a feeding rate for full load of the reactor; hydrogen peroxide is fed to the reaction tubes at a feeding rate that starts with no more than 10 % of a feeding rate for full load of the reactor and is increased continuously or stepwise to the rate for full load of the reactor, increasing the feeding rate for hydrogen peroxide to maintain a maximum temperature in the fixed bed of no more than 60 °C and a temperature difference between the maximum temperature in the fixed bed and the cooling medium entry temperature of no more than 20 °C; and propene is fed to the reaction tubes at a feeding rate of from 20 to 100 % of a feeding rate for full load of the reactor, increasing the feeding rate for propene when the molar ratio of propene to hydrogen peroxide reaches the molar ratio for full load of the reactor.
A lighting control system comprising: a lighting controller configured to control at least one lighting element (1-N); a processor ; a lighting environment determination module executable by the processor and configured to determine a target light setting, for the control of the at least one lighting element (1-N) by the lighting controller , based on data received from at least one of an activity sensor and a schedule input ; a light transition setting module executable by the processor and configured to compare the target light setting with an initial light setting of the at least one lighting element (1-N) and determine at least one light transition setting, the at least one light transition setting having at least one of an appropriated number of transition settings, a transitional color for each transition setting, a transitional display time and/or a fade time being calculated based on the difference in light intensity, color and color temperature between the initial light setting and the target light setting and based on the amount of time an observer has been immersed in the current light setting used to control the at least one lighting element (1-N); and a lighting control module executable by the processor and for issuing light setting commands to the lighting controller , the lighting control module configured to command the at least one light transition setting prior to commanding the target light setting to the lighting controller . a lighting controller configured to control at least one lighting element (1-N); a processor ; a lighting environment determination module executable by the processor and configured to determine a target light setting, for the control of the at least one lighting element (1-N) by the lighting controller , based on data received from at least one of an activity sensor and a schedule input ; a light transition setting module executable by the processor and configured to compare the target light setting with an initial light setting of the at least one lighting element (1-N) and determine at least one light transition setting, the at least one light transition setting having at least one of an appropriated number of transition settings, a transitional color for each transition setting, a transitional display time and/or a fade time being calculated based on the difference in light intensity, color and color temperature between the initial light setting and the target light setting and based on the amount of time an observer has been immersed in the current light setting used to control the at least one lighting element (1-N); and a lighting control module executable by the processor and for issuing light setting commands to the lighting controller , the lighting control module configured to command the at least one light transition setting prior to commanding the target light setting to the lighting controller .
Connection adapter for connecting a treatment device to a connecting head of a treatment apparatus for in particular liquid fluids, in particular of an internal combustion engine, in particular of a motor vehicle, wherein the connection adapter features a connecting section for connection to the connecting head and a screw neck section coaxial in relation to an imaginary connecting axis for screwing on the treatment device , wherein the screw neck section comprises at least one fluid passage duct for connecting a fluid-guiding space of the treatment device to a fluid-guiding space of the connecting head , wherein the at least one connecting section features at least two screw holes for screws or threaded bolts or a central thread for connection to a connecting head-side central thread, characterized in that the treatment device features a spin-on filter and the connection adapter features a sealing collar facing the spin-on filter to be connected for abutment of an external annular seal of the spin-on filter to be connected, which sealing collar is preferably disposed at a free edge of the peripheral wall , wherein the sealing collar is disposed radially outside the connecting section .
Leak detection device for measuring the differential pressure between a test chamber and a reference chamber which can be separated from the test chamber in a gas-tight manner by a first check valve , wherein a differential pressure sensor is connected to the reference chamber and to the test chamber in order to measure the differential pressure between the internal pressure of the reference chamber and the internal pressure of the test chamber , characterized in that the test chamber and the reference chamber are each formed as a film chamber, wherein the reference chamber volume is smaller than the test chamber volume and the ratio of the test chamber volume to the surface area of the flexible wall region of the test chamber adjacent to the test chamber volume and the ratio of the reference chamber volume to the surface area of the flexible wall region of the reference chamber adjacent to the reference chamber volume are substantially equal in that they differ by a maximum of 20 percent.
Aircraft system comprising: - an aircraft (A, A.1, A.2) comprising at least one bay (1, 1.1, 1.2) for receiving different types of standardized modules, characterized in that - the bay (1, 1.1, 1.2) is configured to receive at least two different types of energy modules as standardized modules, wherein the bay (1, 1.1, 1.2) comprises connection means for connecting one or more interface(s) of the energy modules to an aircraft energy supply system, wherein the bay (1, 1.1, 1.2) is configured to receive all of the different types of energy modules in an interchangeable manner, and - the aircraft system comprises at least two energy modules configured to be charged into the bay (1, 1.1, 1.2) of the aircraft (A, A.1, A.2), wherein a first energy module of the at least two energy modules comprises a conventional fuel tank and wherein a second energy module of the at least two energy modules comprises a battery. - an aircraft (A, A.1, A.2) comprising at least one bay (1, 1.1, 1.2) for receiving different types of standardized modules, - the bay (1, 1.1, 1.2) is configured to receive at least two different types of energy modules as standardized modules, wherein the bay (1, 1.1, 1.2) comprises connection means for connecting one or more interface(s) of the energy modules to an aircraft energy supply system, wherein the bay (1, 1.1, 1.2) is configured to receive all of the different types of energy modules in an interchangeable manner, and - the aircraft system comprises at least two energy modules configured to be charged into the bay (1, 1.1, 1.2) of the aircraft (A, A.1, A.2), wherein a first energy module of the at least two energy modules comprises a conventional fuel tank and wherein a second energy module of the at least two energy modules comprises a battery.
A single screw compressor comprising a main rotor and at least one gate rotor, a casing for the main rotor having a discharge port at a discharge end of the casing, and a slide slidable within a bore in the casing adjacent the main rotor, the slide having a cut-out between first and second sealing parts of the slide, characterised in that the slide is slidable between a high volume ratio position where the cut-out is within the casing and provides a path to the discharge port , and a low volume ratio position where the slide is beyond the discharge end of the casing to provide a fixed discharge path in the bore of the casing.
A magnesium hydroxide-based solid solution represented by the following formula and having an average secondary particle size of 300 nm or less: Mg(OH) 2-x R x (Formula 1) wherein R represents a monovalent organic acid, and x represents 0 < x < 1, wherein the monovalent organic acid is at least one of formic acid, glycolic acid, and lactic acid.