mhurhangee/patent-ind-claim-en huggingface dataset:
A safety valve assembly for dispensing a liquid potentially hazardous for a non-competent user, comprising i) a valve configured to have at least two positions, one of which disables outflow, which is the closed position, and one of which enables outflow, which is the open position, of said liquid from a faucet; ii) a knob having two degrees of movement freedom, one translational and one rotational, iii) an actuating member (2-6) configured to form actuating contact between said valve and said knob , wherein the valve , the member (2-6), and at least a part of the knob are encased in a cylindrical casing, and wherein said translational movement occurs along the axis of the casing cylinder, and said rotational movement occurs around the axis of the casing cylinder; and iv) mechanical shutting means configured to keep said valve in the closed position when the knob is left free, comprising at least two springs, a first spring being deformed during the translational movement of said knob and a second spring being deformed during the rotational movement of said knob ; wherein subsequently effecting said translational and said rotational movement results in switching said valve to said open position. i) a valve configured to have at least two positions, one of which disables outflow, which is the closed position, and one of which enables outflow, which is the open position, of said liquid from a faucet; ii) a knob having two degrees of movement freedom, one translational and one rotational, iii) an actuating member (2-6) configured to form actuating contact between said valve and said knob , wherein the valve , the member (2-6), and at least a part of the knob are encased in a cylindrical casing, and wherein said translational movement occurs along the axis of the casing cylinder, and said rotational movement occurs around the axis of the casing cylinder; and iv) mechanical shutting means configured to keep said valve in the closed position when the knob is left free, comprising at least two springs, a first spring being deformed during the translational movement of said knob and a second spring being deformed during the rotational movement of said knob ;
A method of wireless communication performed by a user equipment, UE, comprising: performing an initial radio resource control, RRC, configuration procedure with a base station ; transmitting a first RRC message to the base station , the first RRC message indicating that the UE supports a voice over Long Term Evolution, VoLTE, mode; receiving a second RRC message from the base station , the second RRC message configuring the UE to operate in VoLTE mode; monitoring a common search space, CSS, for a first uplink grant in first downlink control information, DCI, the first uplink grant not containing an uplink HARQ identification, ID, field, and the first uplink grant being associated with synchronous uplink HARQ; monitoring a UE-specific search space, USS, for a second uplink grant , associated with the VoLTE mode, in second DCI, the second uplink grant being associated with asynchronous uplink HARQ, and the second uplink grant including a HARQ ID field; and retransmitting a data packet using the first uplink grant based on the uplink HARQ ID received in the second uplink grant . performing an initial radio resource control, RRC, configuration procedure with a base station ; transmitting a first RRC message to the base station , the first RRC message indicating that the UE supports a voice over Long Term Evolution, VoLTE, mode; receiving a second RRC message from the base station , the second RRC message configuring the UE to operate in VoLTE mode; monitoring a common search space, CSS, for a first uplink grant in first downlink control information, DCI, the first uplink grant not containing an uplink HARQ identification, ID, field, and the first uplink grant being associated with synchronous uplink HARQ; monitoring a UE-specific search space, USS, for a second uplink grant , associated with the VoLTE mode, in second DCI, the second uplink grant being associated with asynchronous uplink HARQ, and the second uplink grant including a HARQ ID field; and retransmitting a data packet using the first uplink grant based on the uplink HARQ ID received in the second uplink grant .
Method of manufacturing a secondary battery, comprising the steps:bending and extending long side portions from a bottom portion of a metal plate , bending and extending a first short side portion from the bottom portion of the metal plate , bending and extending second short side portions from the long side portions , wherein protrusions are located at regions where the first short side portion and the second short side portions meet and are overlapped with each other in the bending, connect the first short side portion and the second short side portions to each other by welding to define a short side portion and to form a case , accommodating an electrode assembly in the case , couple a cap assembly to the case to seal the case . bending and extending a first short side portion from the bottom portion of the metal plate , bending and extending second short side portions from the long side portions , wherein protrusions are located at regions where the first short side portion and the second short side portions meet and are overlapped with each other in the bending, connect the first short side portion and the second short side portions to each other by welding to define a short side portion and to form a case , accommodating an electrode assembly in the case , couple a cap assembly to the case to seal the case .
A polymer electrolyte membrane comprising: (a) a polyelectrolyte having an ion exchange capacity of from 0.5 to 3.0 meq/g; and (b) at least one scandium compound selected from the group consisting of scandium oxide, scandium acetate, scandium sulfate, scandium nitrate, and scandium carbonate, wherein a polyethylene glycol (PEG)-derived compound in the polymer electrolyte membrane has a total content of 10 ppm or less. (a) a polyelectrolyte having an ion exchange capacity of from 0.5 to 3.0 meq/g; and (b) at least one scandium compound selected from the group consisting of scandium oxide, scandium acetate, scandium sulfate, scandium nitrate, and scandium carbonate, wherein
A sheet-fed printing machine , wherein the sheet-fed printing machine has at least two sheet-fed printing units (03; 200; 500; 600; 700), wherein a first sheet-fed printing unit is formed as a simultaneous sheet printing unit and has a first cylinder of the first type formed as a collecting cylinder and a second cylinder of the first type formed as a collecting cylinder , which have direct contact with one another and/or are arranged to interact directly with one another and each of which have an axis of rotation (216; 217), and wherein an axial plane (E1) is a plane (E1) containing both the axis of rotation of the first cylinder of the first type as well as the axis of rotation of the second cylinder of the first type, and wherein a reference plane (E2) is a plane (E2) containing at least one axis of rotation (216; 217) of such a cylinder (201; 202) of the first type and having a horizontal surface normal, and wherein these two cylinders (201; 202) of the first type are arranged, at least during a processing operation, such that the intersection angle between the axial plane (E1), on the one hand, and the reference plane (E2), on the other hand, is no more than 45°, and wherein a second sheet-fed printing unit (03; 500; 600; 700) has at least one cylinder (501; 502; 601; 602; 701; 702) of the first type formed as an impression cylinder (501; 502; 601; 602; 701; 702), and wherein the two collecting cylinders (201; 202) of the first printing unit and the at least one impression cylinder (501; 502; 601; 602; 701; 702) of the second printing unit (03; 500; 600; 700) have a same outer circumference, characterized in that the simultaneous sheet printing unit has precisely four form cylinders (203; 204; 206; 207), of which precisely two cylinders have direct contact with and/or are arranged to interact directly with the first collecting cylinder and of which the two other cylinders have direct contact with and/or are arranged to interact directly with the second collecting cylinder , and in that the second sheet-fed printing unit (03; 500; 600; 700) has at least one form cylinder (503; 504; 506; 507; 603; 604; 606; 607; 703; 704; 706; 707), which has direct contact with and/or is arranged to interact directly with the impression cylinder (501; 502; 601; 602; 701; 702) of the second sheet-fed printing unit (03; 500; 600; 700) and which is formed as a screen printing form cylinder (703; 704; 706; 707) or as a flexo form cylinder (603; 604; 606; 607) or as a numbering form cylinder (503; 504; 506; 507).
A closure comprising: - a top wall portion , - a thread support member extending from said top wall portion disposec with a thread , and either: - at least one discrete recess provided on said thread support member , wherein: - said discrete recess extends below a surface of said thread support member , and - said discrete recess is formed as a three dimensional marking, wherein the three-dimensional marking is an alphanumeric, or a pictorial, or a portrayal of communication, or a graphic, or - at least two discrete recesses provided on said thread support member , wherein: - said discrete recesses extend below a surface of said thread support member , and - said discrete recesses are each disposed at a different axial position on the thread support member relative to the top wall portion . - a top wall portion , - a thread support member extending from said top wall portion disposec with a thread , and either: - at least one discrete recess provided on said thread support member , wherein: - said discrete recess extends below a surface of said thread support member , and - said discrete recess is formed as a three dimensional marking, wherein the three-dimensional marking is an alphanumeric, or a pictorial, or a portrayal of communication, or a graphic, or - said discrete recess extends below a surface of said thread support member , and - said discrete recess is formed as a three dimensional marking, wherein the three-dimensional marking is an alphanumeric, or a pictorial, or a portrayal of communication, or a graphic, - at least two discrete recesses provided on said thread support member , wherein: - said discrete recesses extend below a surface of said thread support member , and - said discrete recesses are each disposed at a different axial position on the thread support member relative to the top wall portion . - said discrete recesses extend below a surface of said thread support member , and - said discrete recesses are each disposed at a different axial position on the thread support member relative to the top wall portion .
A computer-implemented method for facilitating a compound application across multiple devices, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: Identifying, on a class level, dependencies authorizing joining between a first transformation chain class and a second transformation chain class, wherein the dependencies are class-based authorizations created by a class author that generated the respective class in order to allow instances of different transformation chain classes to interoperate, and wherein each transformation chain class defines dependency elements and a transformation chain class definition library is used to identify the dependencies between different transformation chain classes ; and Authorizing, at runtime by users on an instance level, a first instance of the first transformation chain class and a second instance of the second transformation chain class to be joined, wherein joining allows data to flow between the first and second instances in accordance with the identified dependencies between the first transformation chain class and the second transformation chain class and in accordance with dependency state between the first and second instances. Identifying, on a class level, dependencies authorizing joining between a first transformation chain class and a second transformation chain class, wherein the dependencies are class-based authorizations created by a class author that generated the respective class in order to allow instances of different transformation chain classes to interoperate, and wherein each transformation chain class defines dependency elements and a transformation chain class definition library is used to identify the dependencies between different transformation chain classes ; and Authorizing, at runtime by users on an instance level, a first instance of the first transformation chain class and a second instance of the second transformation chain class to be joined, wherein joining allows data to flow between the first and second instances in accordance with the identified dependencies between the first transformation chain class and the second transformation chain class and in accordance with dependency state between the first and second instances.
A liquid ejecting apparatus comprising: a transport belt configured to transport a recording medium ; and a cleaning unit configured to clean the transport belt , wherein the cleaning unit can move between a cleaning position and an evacuation position, and is positioned at the cleaning position using positioning pins which are provided in a housing of the liquid ejecting apparatus , and a groove portion which is provided in the cleaning unit , and a pressing unit for moving the cleaning unit between the cleaning position and the evacuation position and characterized in that in the cleaning position the groove portion and a positioning pin are engaged with each other, and in the evacuation position the groove portion and the positioning pin are not engaged with each other. a transport belt configured to transport a recording medium ; and a cleaning unit configured to clean the transport belt , wherein the cleaning unit can move between a cleaning position and an evacuation position, and is positioned at the cleaning position using positioning pins which are provided in a housing of the liquid ejecting apparatus , and a groove portion which is provided in the cleaning unit , and a pressing unit for moving the cleaning unit between the cleaning position and the evacuation position and characterized in that in the cleaning position the groove portion and a positioning pin are engaged with each other, and in the evacuation position the groove portion and the positioning pin are not engaged with each other. in the cleaning position the groove portion and a positioning pin are engaged with each other, and in the evacuation position the groove portion and the positioning pin are not engaged with each other.
A pyrolysis system comprising a double-tube reactor having: an inner tube ; an outer tube disposed to concentrically surround the inner tube; and a heater member that is disposed at an outer side of the outer tube along a length of the outer tube and supplies heat through the outer tube , wherein the inner tube is configured to operate for a supply source of inert gas, while a space defined between the inner tube and the outer tube is configured to operate for a supply source of methane-containing gas, the heater member has an arrangement relationship represented by Formula with each of the outer tube and the inner tube , characterized in that the reactor is designed such that flowing of the inert gas through the inner tube has a relationship represented by Formula with flowing of the methane-containing gas through the space defined between the inner tube and the outer tube , d l / d 0 < 0.5 wherein d 0 represents a length of the outer tube tc which heat supplied from the heater member is directly radiated, and d l represents a distance from an end of the outer tube to which heat supplied from the heater member is directly radiated to an end of the inner tube . v l / v 0 ≥ 0.5 wherein v l represents a volumetric flow rate of the inert gas flowing in the inner tube , and v 0 represents a volumetric flow rate of the methane-containing gas flowing in the outer tube . an inner tube ; an outer tube disposed to concentrically surround the inner tube; and a heater member that is disposed at an outer side of the outer tube along a length of the outer tube and supplies heat through the outer tube , wherein the inner tube is configured to operate for a supply source of inert gas, while a space defined between the inner tube and the outer tube is configured to operate for a supply source of methane-containing gas, the heater member has an arrangement relationship represented by Formula with each of the outer tube and the inner tube , characterized in that the reactor is designed such that flowing of the inert gas through the inner tube has a relationship represented by Formula with flowing of the methane-containing gas through the space defined between the inner tube and the outer tube , d l / d 0 < 0.5 wherein d 0 represents a length of the outer tube tc which heat supplied from the heater member is directly radiated, and d l represents a distance from an end of the outer tube to which heat supplied from the heater member is directly radiated to an end of the inner tube . v l / v 0 ≥ 0.5 wherein v l represents a volumetric flow rate of the inert gas flowing in the inner tube , and v 0 represents a volumetric flow rate of the methane-containing gas flowing in the outer tube .
A computerized system for mapping an orchard, comprising: a) one or more anchor units comprising a marker; b) a flying unit equipped with a camera adapted for taking a plurality of photographs of a predetermined zone; and c) a mapping unit comprising a processor and memory adapted for receiving said plurality of photographs and: i) adapted for visually identifying one or more markers of anchor units in said photographs and their geographic location; and ii) adapted for mapping trees identified in said photographs in relation to the location of identified one or more anchor units; wherein one or more anchor units are positioned at a specific target point within said predetermined zone, characterized in that each one of said one or more anchor units further comprises a positioning unit. a) one or more anchor units comprising a marker; b) a flying unit equipped with a camera adapted for taking a plurality of photographs of a predetermined zone; and c) a mapping unit comprising a processor and memory adapted for receiving said plurality of photographs and: i) adapted for visually identifying one or more markers of anchor units in said photographs and their geographic location; and ii) adapted for mapping trees identified in said photographs in relation to the location of identified one or more anchor units; i) adapted for visually identifying one or more markers of anchor units in said photographs and their geographic location; and ii) adapted for mapping trees identified in said photographs in relation to the location of identified one or more anchor units;
Fastening device for fastening a WC seat to a toilet bowl , which fastening device has at least one joint support connectable via a pivot joint to the WC seat and having a connecting pin which can be inserted into an insertion opening of a counterpart of the fastening device and can be displaced therein, which counterpart can be inserted in a fastening hole of the toilet bowl , wherein the counterpart is in the form of a plug-in dowel which expands when the connecting pin is pushed forwards in the insertion opening , characterized in that the connecting pin has a first pin sub-region , which is at the front in a plugging-in direction, and a second pin sub-region , which is arranged therebehind in the plugging-in direction and has a pin cross section which is enlarged in comparison with the first pin sub-region , in that the plug-in dowel begins to expand when, during the plugging-in or pushing process, the connecting pin penetrates in the insertion opening by way of its second pin sub-region , in that the free pin end region is in the form of a plug-in cone which narrows in the plugging-in direction, and in that the connecting pin engages behind the adjacent face end of the plug-in dowel by way of its plug-in cone .
An array of space-filling polyhedral-shaped sorbent microliths, wherein at least one of the microliths comprises one or more aplanarities on one or more polygonal faces, wherein the array comprises an interpenetrating, interstitial manifold of free space.
A method for manufacturing 1,4-bis(4-phenoxybenzoyl)benzene, comprising: - reacting terephthaloyl chloride with diphenyl ether in a reaction solvent and in the presence of a Lewis acid, so as to obtain a product mixture comprising a 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex; - putting the product mixture in contact with a protic solvent, so as to obtain a first phase containing the Lewis acid and a second phase containing 1,4-bis(4-phenoxybenzoyl)benzene; - heating at least the second phase up to a maximum temperature, followed by cooling the second phase down to a separation temperature; wherein the maximum temperature is from 90 to 150°C and wherein the separation temperature is from -20°C to 45°C; - subjecting at least the second phase to a solid / liquid separation step at the separation temperature, so as to recover solid 1,4-bis(4-phenoxybenzoyl)benzene. - reacting terephthaloyl chloride with diphenyl ether in a reaction solvent and in the presence of a Lewis acid, so as to obtain a product mixture comprising a 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex; - putting the product mixture in contact with a protic solvent, so as to obtain a first phase containing the Lewis acid and a second phase containing 1,4-bis(4-phenoxybenzoyl)benzene; - heating at least the second phase up to a maximum temperature, followed by cooling the second phase down to a separation temperature; wherein the maximum temperature is from 90 to 150°C and wherein the separation temperature is from -20°C to 45°C; - subjecting at least the second phase to a solid / liquid separation step at the separation temperature, so as to recover solid 1,4-bis(4-phenoxybenzoyl)benzene.