mhurhangee/ep-ind-claims huggingface dataset:
A process for production of acrolein, which comprises gas-phase dehydrating glycerin in a presence of a catalyst containing a metal phosphate, wherein the metal phosphate is one, or two or more, metal phosphates selected from aluminum salts, zirconium salts, manganese salts, alkali metal salts provided that the alkali metal is sodium, potassium, or cesium, and a ratio between a mole number of the alkali metal and a mole number of phosphoric acid, i.e. M/P, ratio, in the metal phosphate is 2.0 or lower, alkali earth metal salts provided that a ratio between a mole number of the alkali earth metal and a mole number of phosphoric acid, i.e. M/P ratio, in the metal phosphate is 1.0 or lower, yttrium salts, titanium salts, vanadium salts, niobium salts, chromium salts, cobalt salts, nickel salts, silver salts, boron salts, tin salts, bismuth salts, lanthanum salts, cerium salts, and samarium salts, and wherein the phosphate ion is PO 4 3-; HPO 4 2-, H 2 PO 4 -, P 2 O 7 4-, HP 2 O 7 3-, H 2 P 2 O 7 2- or H 3 P 2 O 7 -.
An exhaust muffler comprising: a body; a partition wall partitioning an interior of the body into a plurality of expansion chambers (31, 32); and a communicating tube passing through the partition wall, wherein the communicating tube is in the form of a double communicating tube formed of an outer communicating tube and an inner communicating tube, and an inside passage within the inner communicating tube and an annular passage between the inner communicating tube and the outer communicating tube function as exhaust passages through which exhaust gases flow in opposite directions to each other; wherein on one end side of the double communicating tube facing into one of the expansion chambers (31, 32), a distal end opening of the inner communicating tube functions as an intake or exhaust port of the inside passage; characterized in that a closing portion which closes an axial end of the annular passage is provided in or in the vicinity of a distal end opening of the outer communicating tube, and an outer circumferential intake or exhaust port which opens the annular passage radially outwardly is provided between the closing portion of the outer communicating tube and the partition wall. a body; a partition wall partitioning an interior of the body into a plurality of expansion chambers (31, 32); and a communicating tube passing through the partition wall, wherein the communicating tube is in the form of a double communicating tube formed of an outer communicating tube and an inner communicating tube, and an inside passage within the inner communicating tube and an annular passage between the inner communicating tube and the outer communicating tube function as exhaust passages through which exhaust gases flow in opposite directions to each other; wherein on one end side of the double communicating tube facing into one of the expansion chambers (31, 32), a distal end opening of the inner communicating tube functions as an intake or exhaust port of the inside passage; characterized in that a closing portion which closes an axial end of the annular passage is provided in or in the vicinity of a distal end opening of the outer communicating tube, and an outer circumferential intake or exhaust port which opens the annular passage radially outwardly is provided between the closing portion of the outer communicating tube and the partition wall.
An audible end cap, comprising: a waterproof loudspeaker, for generating multiple alarm sound combinations, wherein the diameter of the waterproof loudspeaker is greater than 2cm; a back cover provided with a first connecting portion whereby the back cover is configured for being fixedly installed on a metal detector, wherein the waterproof loudspeaker is installed in the back cover; an audio connector electrically connected to the waterproof loudspeaker, wherein the waterproof loudspeaker is capable of receiving and emitting the sound signal output by the metal detector through the electrical connection between the metal detector and the audio connector; wherein the audible end cap further comprises a protective collar, a first protective bracket, and a second protective bracket, wherein the waterproof loudspeaker is fixedly clamped between the first protective bracket and the second protective bracket, wherein the protective collar is fixedly installed in the back cover and is sleeved and fixed on the outer periphery of the first protective bracket and the second protective bracket, and wherein the first protective bracket, the second protective bracket and the waterproof loudspeaker are all contained in the back cover; and wherein the protective collar is provided with a snapping groove, the first protective bracket comprising a first snapping ring plate, and the second protective bracket comprising a second snapping ring plate, wherein the first snapping ring plate and the second snapping ring plate abut against each other and are fixedly engaged in the snapping groove. a waterproof loudspeaker, for generating multiple alarm sound combinations, wherein the diameter of the waterproof loudspeaker is greater than 2cm; a back cover provided with a first connecting portion whereby the back cover is configured for being fixedly installed on a metal detector, wherein the waterproof loudspeaker is installed in the back cover; an audio connector electrically connected to the waterproof loudspeaker, wherein the waterproof loudspeaker is capable of receiving and emitting the sound signal output by the metal detector through the electrical connection between the metal detector and the audio connector; wherein the audible end cap further comprises a protective collar, a first protective bracket, and a second protective bracket, wherein the waterproof loudspeaker is fixedly clamped between the first protective bracket and the second protective bracket, wherein the protective collar is fixedly installed in the back cover and is sleeved and fixed on the outer periphery of the first protective bracket and the second protective bracket, and wherein the first protective bracket, the second protective bracket and the waterproof loudspeaker are all contained in the back cover; and wherein the protective collar is provided with a snapping groove, the first protective bracket comprising a first snapping ring plate, and the second protective bracket comprising a second snapping ring plate, wherein the first snapping ring plate and the second snapping ring plate abut against each other and are fixedly engaged in the snapping groove.
A potassium chloride composition comprising an iron complex of tartaric acid, characterized in that at least 5% of the tartaric acid is mesotartaric acid.
A seal ring mountable in a shaft groove formed in an outer circumferential surface of a shaft, comprising: a plurality of concave portions which is formed in an inner circumferential side of a side surface, which in use comes into contact with at least the shaft groove, to be spaced apart from each other in a circumferential direction; a pillar portion disposed between the concave portions; and said concave portions include a deepest portion having the largest width in an axial direction, and two inclined portions (22, 23) positioned at both sides in a circumferential direction of the deepest portion, the inclined portion positioned at an opposite side in a rotational direction, characterized in that the adjacent pillar portion is connected by a curved surface having a shape convex toward the pillar portion, and the width in the circumferential direction of the inclined portion of the rotational direction side is smaller than the width in the circumferential direction of the inclined portion of the opposite side in the rotational direction. a plurality of concave portions which is formed in an inner circumferential side of a side surface, which in use comes into contact with at least the shaft groove, to be spaced apart from each other in a circumferential direction; a pillar portion disposed between the concave portions; and said concave portions include a deepest portion having the largest width in an axial direction, and two inclined portions (22, 23) positioned at both sides in a circumferential direction of the deepest portion, the inclined portion positioned at an opposite side in a rotational direction, characterized in that the adjacent pillar portion is connected by a curved surface having a shape convex toward the pillar portion, and the width in the circumferential direction of the inclined portion of the rotational direction side is smaller than the width in the circumferential direction of the inclined portion of the opposite side in the rotational direction.
Conductor terminal having a busbar, wherein the conductor terminal is designed as a spring-force connection or as a screw connection and wherein the busbar serves for making electrical contact with an electrical conductor, having two mutually opposite side walls, and having a bearing wall for the electrical conductor which extends between the side walls and transversely or essentially transversely thereto, wherein the side walls and the contact wall extend in an insertion direction and define a receiving space for receiving the electrical conductor, wherein at least one or more electrically conductive elevations is/are arranged on the bearing wall, wherein the width of the one or more elevations is smaller than the width of the bearing wall, wherein the edge of the at least one or more elevations provided on the bearing wall is spaced apart individually or the edges of the elevations as a whole are spaced apart from the edges of the bearing wall, and that the elevation is roughly oval, elliptical, round or drop-shaped and tapers away from the bearing wall starting from a correspondingly shaped base surface, characterized in the extension of the elevation in the insertion direction is greater than the extension perpendicular thereto.
A method for obtaining a residual electric quantity of a battery in an electronic device, comprising: obtaining a present electric quantity variation of the battery within a present detection period; obtaining a maximum discharge electric quantity of the battery corresponding to a number of times of charging and discharging within the present detection period; and obtaining a present residual electric quantity of the battery based on the maximum discharge electric quantity and the present electric quantity variation; when a coulombmeter is not included in the electronic device, obtaining the present electric quantity variation comprises: obtaining a present current of a specified resistor in the electronic device and a present voltage of the battery within the present detection period; obtaining a present open circuit voltage of the battery within the present detection period based on the present current of the specified resistor and the present voltage of the battery; and obtaining the present electric quantity variation of the battery within the present detection period corresponding to the present open circuit voltage based on a preset battery aging model. obtaining a present electric quantity variation of the battery within a present detection period; obtaining a maximum discharge electric quantity of the battery corresponding to a number of times of charging and discharging within the present detection period; and obtaining a present residual electric quantity of the battery based on the maximum discharge electric quantity and the present electric quantity variation; when a coulombmeter is not included in the electronic device, obtaining the present electric quantity variation comprises: obtaining a present current of a specified resistor in the electronic device and a present voltage of the battery within the present detection period; obtaining a present open circuit voltage of the battery within the present detection period based on the present current of the specified resistor and the present voltage of the battery; and obtaining the present electric quantity variation of the battery within the present detection period corresponding to the present open circuit voltage based on a preset battery aging model. obtaining a present current of a specified resistor in the electronic device and a present voltage of the battery within the present detection period; obtaining a present open circuit voltage of the battery within the present detection period based on the present current of the specified resistor and the present voltage of the battery; and obtaining the present electric quantity variation of the battery within the present detection period corresponding to the present open circuit voltage based on a preset battery aging model.
An apparatus for transmission of video data via a wireless network, comprising: at least one processor configured to transmit first multi-view video data to a destination device via the wireless network; and characterised in that the apparatus further comprises an input/output (I/O) controller configured to receive, from the destination device and in response to transmission of the first MV video data to the destination device, a binocular disparity error estimate indicative of a rendering of the first MV video data at the destination device; wherein the at least one processor is further configured to determine whether to continue to at least one of capture, encode, or transmit the first MV video data based on a comparison of the binocular disparity error estimate to a disparity error threshold; and wherein the at least one processor is further configured to instruct the apparatus to transition to at least one of capture, encode, or transmit monoscopic video data in response to the binocular disparity error estimate meeting or exceeding the disparity error threshold. at least one processor configured to transmit first multi-view video data to a destination device via the wireless network; and characterised in that the apparatus further comprises an input/output (I/O) controller configured to receive, from the destination device and in response to transmission of the first MV video data to the destination device, a binocular disparity error estimate indicative of a rendering of the first MV video data at the destination device; wherein the at least one processor is further configured to determine whether to continue to at least one of capture, encode, or transmit the first MV video data based on a comparison of the binocular disparity error estimate to a disparity error threshold; and wherein the at least one processor is further configured to instruct the apparatus to transition to at least one of capture, encode, or transmit monoscopic video data in response to the binocular disparity error estimate meeting or exceeding the disparity error threshold.
A process for producing zinc bromide and lithium bromide containing aprotic solutions, characterized in that a) zinc oxide or zinc carbonate and lithium carbonate or lithium hydroxide, as starting materials, are dispersed in an ether and reacted with aqueous hydrobromic acid, wherein the reaction of the starting materials to the product is carried out as a one-pot reaction, the resulting water is azeotropically removed and the product solution is separated from the unreacted starting materials, and a product solution with a residual water content of < 2500 ppm is obtained or b) a mixture of metallic zinc and metallic lithium, as starting materials, is dispersed in an ether and reacted with elemental bromine or with hydrogen bromide and the product solution is separated from the unreacted starting materials, and a product solution with a residual water content of < 2500 ppm is obtained,or c) aqueous solutions of zinc bromide and lithium bromide in the stoichiometric ratio are mixed and an amount of an ether is added such that the water present is azeotropically removed and a product solution with a residual water content of < 2500 ppm is obtained, wherein, as the ether according to the variants a) to c), an aliphatic ether of the general formula R 1 -O-R 2 is used, wherein R 1 and R 2 are an alkyl group having 1 to 10 carbon atoms. a) zinc oxide or zinc carbonate and lithium carbonate or lithium hydroxide, as starting materials, are dispersed in an ether and reacted with aqueous hydrobromic acid, wherein the reaction of the starting materials to the product is carried out as a one-pot reaction, the resulting water is azeotropically removed and the product solution is separated from the unreacted starting materials, and a product solution with a residual water content of < 2500 ppm is obtained or b) a mixture of metallic zinc and metallic lithium, as starting materials, is dispersed in an ether and reacted with elemental bromine or with hydrogen bromide and the product solution is separated from the unreacted starting materials, and a product solution with a residual water content of < 2500 ppm is obtained,or c) aqueous solutions of zinc bromide and lithium bromide in the stoichiometric ratio are mixed and an amount of an ether is added such that the water present is azeotropically removed and a product solution with a residual water content of < 2500 ppm is obtained,
A high-voltage connector, having a plug with a rubber cone (131; 132, 133) for insertion in a mating connector-half, the rubber cone having a first portion and at least two second cone portions (132, 133) characterised in that said at least two second cone portions having respective female contacts (16, 17) for making contact with respective contact pins (23, 24) on the mating connector-half, the second cone portions (132, 133) being separated from one another by a slotted recess in the rubber cone into which a in it's lengthwise direction tapered and substantially conical ridge arranged on the mating connector extends to form a tight-fitting joint insulated against high voltage, wherein the ridge and the walls of the slotted recess are adapted in such a way that each the second cone portions (132, 133) are enclosed by a tight-fitting joint because of a high pressure.
Esters of 2-propylheptanol with benzoic acid derivatives with the exception of di[2-propylheptyl]-1,2-benzenedicarboxylic acid diester, selected from the group consisting of di[2-propylheptyl]-1,4-benzenedicarboxylic acid diester, 2-propylheptyl-1,4-benzene-dicarboxylic acid ester, 2-propylheptyl-2-hydroxybenzoic acid ester, 2-propylheptyl-2-methylbenzoic acid ester, 2-propylheptyl-3-methylbenzoic acid ester, 2-propylheptyl-4-methylbenzoic acid ester, 2-propylheptyl-2-acetoxylbenzoic acid ester (=2-propylheptyl-acetylsalicylic acid ester).
A flow channel structure comprising: a substrate (7, 107) having a first surface having a flow channel formed therein, the flow channel having an inner wall made of silicon; and a plurality of fibrous bristles made of silicon dioxide extending from the inner wall of the flow channel, wherein the flow channel is configured to allow a solution to flow through the flow channel, characterized in that the plurality of fibrous bristles are made of amorphous silicon dioxide. a substrate (7, 107) having a first surface having a flow channel formed therein, the flow channel having an inner wall made of silicon; and a plurality of fibrous bristles made of silicon dioxide extending from the inner wall of the flow channel, wherein the flow channel is configured to allow a solution to flow through the flow channel,
A channel system for drainage of water, comprising: a channel; a plurality of grating components for fitting to the channel to form an enclosed channel system; the grating components comprising two first gratings and a second grating; wherein the first gratings are moveable between an unlocked position in which they are removable from the channel and a lockable position in which they are at least partially retained by the channel; wherein positioning of the second grating on the channel between the first gratings retains the first gratings in the lockable position, wherein the second grating has a locking means, characterised by the locking means configured to lock the second grating to the first gratings to fix the second grating in position on the channel, the second grating not being locked to the channel itself. a channel; a plurality of grating components for fitting to the channel to form an enclosed channel system; the grating components comprising two first gratings and a second grating; wherein the first gratings are moveable between an unlocked position in which they are removable from the channel and a lockable position in which they are at least partially retained by the channel; wherein positioning of the second grating on the channel between the first gratings retains the first gratings in the lockable position, wherein the second grating has a locking means, characterised by the locking means configured to lock the second grating to the first gratings to fix the second grating in position on the channel, the second grating not being locked to the channel itself.
Arrangement for regulating the temperature of, in particular cooling, heat-generating components, comprising at least one cooling body (5, 7) having prominent cooling sections in the form of cooling fingers and/or cooling ribs, and a printed circuit board populated with the heat-generating components, wherein the printed circuit board is populated with the components on at least one side, wherein the printed circuit board has cutouts through which the cooling sections of the cooling body project into respective spatial regions between the components, wherein the components form a regular plane arrangement, wherein the components and cooling sections are arranged respectively as a regular two-dimensional, finite grid, wherein the grid constants of the grids of the components and of the cooling sections are equal, wherein an insulating material is arranged between cooling body and printed circuit board, which material has cutouts, corresponding to the cutouts of the printed circuit board, for leading the cooling sections through, wherein the insulating material has a lower thermal conductivity than air, i.e. is used as a thermal barrier, wherein printed circuit board and cooling body are screw-connected (20, 30).
Process for managing and curtailing power demand of a plurality of appliances, each appliance having an user interface for setting working parameters of the appliance, characterised in that it comprises the steps of assessing for each appliance an energy consumption profile corresponding to its setting, comparing the energy consumption profiles in order to check if their sum leads to one or more peaks in power demand, and providing one or more new energy consumption profiles in order to level and/or reduce the total power absorbed by said appliances.