mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a textile machine , in particular a textile machine producing cross-wound bobbins, most particularly an open-end spinning machine, comprising a plurality of identical workstations , wherein, during a normal operation of the workstations , yarn is produced or rewound from a supply bobbin onto a receiving bobbin with the aid of the workstations , and wherein a plurality of workstations , after a stoppage of these workstations , is started and therefore, set into the normal operating mode, wherein the plurality of workstations is divided into groups of workstations and the groups of workstations are started at different times from each other; and wherein the textile machine comprises control means for carrying out the method, characterized in that the plurality of workstations is divided into groups of workstations , which are determined as a function of status data of the textile machine wherein the status data encompass resources of the textile machine , in particular, energy, compressed air and/or vacuum. wherein a plurality of workstations , after a stoppage of these workstations , is started and therefore, set into the normal operating mode, wherein the plurality of workstations is divided into groups of workstations and the groups of workstations are started at different times from each other; and wherein the textile machine comprises control means for carrying out the method, characterized in that the plurality of workstations is divided into groups of workstations , which are determined as a function of status data of the textile machine wherein the status data encompass resources of the textile machine , in particular, energy, compressed air and/or vacuum.
A shaft seal device mounted rotating electrical machine , comprising: - a rotating electrical machine which includes a rotating shaft equipped with a shaft seal device having an inlet portion and an outlet portion of seal oil , - a main oil tank in which the seal oil supplied to the shaft seal device of the rotating electrical machine is stored, - a seal oil cleanup tank which includes an inlet portion connected to an outlet portion of the main oil tank , and has an oil level regulating valve , characterized by - a degassing pump which includes a vacuum pump, an inlet portion connected to an outlet portion of the seal oil cleanup tank , and a degassing gas discharge portion , - a pressure regulating valve which is disposed between the outlet portion of the seal oil cleanup tank and an outlet portion of the degassing pump , and - a differential pressure control valve which is disposed between the outlet portion of the degassing pump and the inlet portion of the shaft seal device , wherein the degassing pump performs squeeze pumping of the seal oil and separation of the air in the seal oil at the same time and the drawn out gaseous matter is discharged from the degassing gas discharge portion . - a rotating electrical machine which includes a rotating shaft equipped with a shaft seal device having an inlet portion and an outlet portion of seal oil , - a main oil tank in which the seal oil supplied to the shaft seal device of the rotating electrical machine is stored, - a seal oil cleanup tank which includes an inlet portion connected to an outlet portion of the main oil tank , and has an oil level regulating valve , - a degassing pump which includes a vacuum pump, an inlet portion connected to an outlet portion of the seal oil cleanup tank , and a degassing gas discharge portion , - a pressure regulating valve which is disposed between the outlet portion of the seal oil cleanup tank and an outlet portion of the degassing pump , and - a differential pressure control valve which is disposed between the outlet portion of the degassing pump and the inlet portion of the shaft seal device ,
A method of fabricating a cover window , the method comprising the steps of: forming, on a glass article (GP) having a flat upper surface, a mask layer (GM) and a recess portion having a partially recessed upper surface on the mask layer (GM); and etching the mask layer (GM) and the glass article (GP) to form the cover window having a partially recessed upper surface on the mask layer (GM) characterized by the mask layer (GM) including water glass (RP), wherein the forming of the cover window is performed by a wet etching process, and wherein in the forming of the cover window , the mask layer (GM) is dissolved by an etchant and the upper surface of the glass article (GP) is partially etched. forming, on a glass article (GP) having a flat upper surface, a mask layer (GM) and a recess portion having a partially recessed upper surface on the mask layer (GM); and etching the mask layer (GM) and the glass article (GP) to form the cover window having a partially recessed upper surface on the mask layer (GM) characterized by the mask layer (GM) including water glass (RP), wherein the forming of the cover window is performed by a wet etching process, and wherein in the forming of the cover window , the mask layer (GM) is dissolved by an etchant and the upper surface of the glass article (GP) is partially etched.
One or more compositions for use in a method of treating a cardiac medical condition, wherein said method comprises in vivo reprogramming of cardiac cells, comprising the step of providing a therapeutically effective amount of one or more compositions to the heart of an individual, wherein said one or more compositions comprises an agent that partially or completely downregulates or inactivates p63, p53, and/or p21.
Line connector for connecting two or more electric lines non-detachably to one another, having at least one metallic receiving sleeve designed to partially receive the lines , which has at least one first passage opening and a second passage opening for the insertion of a friction welding tool and at least one pressing section which is arranged between the passage openings and in which the receiving sleeve can be pressed radially and which can be used to hold the line connector so as to be secure against rotation during the friction welding procedure by means of the friction welding tool , wherein, in addition, the line connector has two or more receiving sleeves , which are connected to one another via at least one electrically conductive connecting section , characterized in that the line connector has two substantially complementary shell elements , and in that the shell elements can be connected to each other via a coupling element arranged in the connecting section , wherein the individual shell element in each case forms a part of the receiving sleeves .
An electronic device, comprising a printed circuit board and a card holder , wherein the card holder is configured to hold a function card, the printed circuit board is provided with a groove, the card holder is disposed in the groove, the electronic device being characterized in that : a bottom surface of the groove is provided with n metal solder pads and n printed wires , the n metal solder pads are electrically connected to the n printed wires in a one-to-one correspondence, n terminals in a one-to-one correspondence to the n metal solder pads are disposed on the card holder, each terminal is provided with a first contact and a second contact , the first contact is connected to and in contact with one of the n metal solder pads, the second contact is configured to connect to and be in contact with a metal contact of the function card placed in the card holder, and n is an integer greater than 1.
A method for transmitting Device-to-Device, D2D, data by a User Equipment, UE, in a wireless communication system, the method comprising: determining a bitmap to be applied to a subframe pool for data transmission from a subframe indicator bitmap according to an Uplink/Downlink, UL/DL, configuration, wherein the subframe indicator bitmap is one of among a) 8 bits bitmap for UL/DL configuration 1, 2, 4, 5, b) 7 bits bitmap for UL/DL configuration 0, c) 6 bits bitmap for UL/DL configuration 3, 6 determining a set of subframes to transmit the D2D data by using the bitmap to the subframe pool for data transmission; and transmitting the D2D data in a subframe included in the determined subframe set. determining a bitmap to be applied to a subframe pool for data transmission from a subframe indicator bitmap according to an Uplink/Downlink, UL/DL, configuration, wherein the subframe indicator bitmap is one of among a) 8 bits bitmap for UL/DL configuration 1, 2, 4, 5, b) 7 bits bitmap for UL/DL configuration 0, c) 6 bits bitmap for UL/DL configuration 3, 6 a) 8 bits bitmap for UL/DL configuration 1, 2, 4, 5, b) 7 bits bitmap for UL/DL configuration 0, c) 6 bits bitmap for UL/DL configuration 3, 6 determining a set of subframes to transmit the D2D data by using the bitmap to the subframe pool for data transmission; and transmitting the D2D data in a subframe included in the determined subframe set.
An X-ray source (10; 100; 600; 601; 602; 602a; 602b; 602c; 605a; 605b; 605c; 606a; 606b; 607a; 607b; 607c) comprising: a cathode electrode (13; 130) provided with an electron emission source using a nanostructure ; a cathode electrode terminal (13T; 130T; 131T; 132T; 133T; 134T) connected to the cathode electrode (13; 130); an anode electrode (12; 120) having a target emitting X-rays by electron collision; an anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) connected to the anode electrode (12; 120); wherein the cathode electrode terminal (13T; 130T; 131T; 132T; 133T;134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) differ from each other in at least one of exposure direction, height, size, and shape; and a housing forming an external appearance, and exposing the cathode electrode terminal (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) to an outside thereof, wherein the X-ray source is mounted to an X-ray emission apparatus and is replaceable by configuring the X-ray source such that terminals of the cathode electrode (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode (12T; 120T; 121T; 122T; 123T; 124T) thereof are able to be electrically connected to connection terminals outside the X-ray source (10; 100; 600; 601; 602; 602a; 602b; 602c; 605a; 605b; 605c; 606a; 606b; 607a; 607b; 607c), characterized in that each of an outer surface of the housing and the X-ray emission apparatus is provided with at least one guide member corresponding to each other. a cathode electrode (13; 130) provided with an electron emission source using a nanostructure ; a cathode electrode terminal (13T; 130T; 131T; 132T; 133T; 134T) connected to the cathode electrode (13; 130); an anode electrode (12; 120) having a target emitting X-rays by electron collision; an anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) connected to the anode electrode (12; 120); wherein the cathode electrode terminal (13T; 130T; 131T; 132T; 133T;134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) differ from each other in at least one of exposure direction, height, size, and shape; and a housing forming an external appearance, and exposing the cathode electrode terminal (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) to an outside thereof, wherein the X-ray source is mounted to an X-ray emission apparatus and is replaceable by configuring the X-ray source such that terminals of the cathode electrode (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode (12T; 120T; 121T; 122T; 123T; 124T) thereof are able to be electrically connected to connection terminals outside the X-ray source (10; 100; 600; 601; 602; 602a; 602b; 602c; 605a; 605b; 605c; 606a; 606b; 607a; 607b; 607c), characterized in that each of an outer surface of the housing and the X-ray emission apparatus is provided with at least one guide member corresponding to each other.
A solenoid valve comprising a solenoid operated according to application of electric power, the solenoid comprising: a bobbin outer that is hollow and has a circumferential surface around which a coil is wound; a fixed iron core coupled to at least one of both ends of the bobbin and inducing a magnetic force generated from the coil; a movable iron core movably provided in the bobbin and moved by a magnetic force induced by the fixed iron core; a case enclosing the bobbin, the fixed iron core, and the movable iron core; and a lead wire connector for supplying electric power to the solenoid, the lead wire connector comprising: an insulation block protruding to the outside of the case; a power terminal provided in the insulation block and electrically connected to the coil; a lead wire connected to the power terminal and extending to the outside of the insulation block; a wire tube encompassing at least part of the lead wire; and a connector provided at an end portion of the lead wire, wherein the lead wire is bent in a U shape outside the insulation block and is attached and fixed to an outer wall of the insulation block; and, wherein an insertion groove in which the lead wire is inserted is formed on the outer wall of the insulation block. a bobbin outer that is hollow and has a circumferential surface around which a coil is wound; a fixed iron core coupled to at least one of both ends of the bobbin and inducing a magnetic force generated from the coil; a movable iron core movably provided in the bobbin and moved by a magnetic force induced by the fixed iron core; a case enclosing the bobbin, the fixed iron core, and the movable iron core; and a lead wire connector for supplying electric power to the solenoid, the lead wire connector comprising: an insulation block protruding to the outside of the case; a power terminal provided in the insulation block and electrically connected to the coil; a lead wire connected to the power terminal and extending to the outside of the insulation block; a wire tube encompassing at least part of the lead wire; and a connector provided at an end portion of the lead wire, an insulation block protruding to the outside of the case; a power terminal provided in the insulation block and electrically connected to the coil; a lead wire connected to the power terminal and extending to the outside of the insulation block; a wire tube encompassing at least part of the lead wire; and a connector provided at an end portion of the lead wire, wherein the lead wire is bent in a U shape outside the insulation block and is attached and fixed to an outer wall of the insulation block; and, wherein an insertion groove in which the lead wire is inserted is formed on the outer wall of the insulation block.
A method performed by a transmitting device for transmitting information bits to a receiving device in a wireless communication network ; the method comprising: encoding information bits of a first type of information and a second type of information into a codeword; interleaving the encoded information bits of the first type of information according to a first interleaving pattern and the encoded information bits of the second type of information according to a second interleaving pattern, thereby changing an order of at least one of the encoded information bits of the first type of information and the second type of information in the codeword and generating an interleaved encoded information bit sequence, , wherein the second interleaving pattern comprises a first subpattern that applies to one or more systematic bits and a second subpattern that applies to one or more redundant bits; and transmitting the interleaved encoded information bit sequence to the receiving device , wherein the first type of information comprises information in a Protocol Data Unit, PDU, Header of a packet, which PDU header carries information about a PDU Payload length, and wherein the second type of information comprises information in a Protocol Data Unit, PDU, Payload field of a packet. encoding information bits of a first type of information and a second type of information into a codeword; interleaving the encoded information bits of the first type of information according to a first interleaving pattern and the encoded information bits of the second type of information according to a second interleaving pattern, thereby changing an order of at least one of the encoded information bits of the first type of information and the second type of information in the codeword and generating an interleaved encoded information bit sequence, , wherein the second interleaving pattern comprises a first subpattern that applies to one or more systematic bits and a second subpattern that applies to one or more redundant bits; and transmitting the interleaved encoded information bit sequence to the receiving device , wherein the first type of information comprises information in a Protocol Data Unit, PDU, Header of a packet, which PDU header carries information about a PDU Payload length, and wherein the second type of information comprises information in a Protocol Data Unit, PDU, Payload field of a packet.
Process for attaching a first substrate to a second substrate by direct bonding including the successive steps of: a) providing the first and second substrates , each comprising; - a first surface and an opposite, second surface ; - lateral edges connecting the first and second surfaces ; b) bonding the first substrate to the second substrate by direct bonding with the first surfaces of the first and second substrates so as to form a bonding interface (IC); step b) being an operation of hydrophobic bonding between the first and second substrates ; what is meant by hydrophobic bonding is that the first surfaces of the first and second substrates are characterized by a contact angle with a drop of water that is smaller than or equal to 40°; c) making the lateral edges of the first and second substrates hydrophobic on either side of the bonding interface (IC); what is meant by hydrophobic is a surface characterized by a contact angle with a drop of water of between 50° and 180°. a) providing the first and second substrates , each comprising; - a first surface and an opposite, second surface ; - lateral edges connecting the first and second surfaces ; - a first surface and an opposite, second surface ; - lateral edges connecting the first and second surfaces ; b) bonding the first substrate to the second substrate by direct bonding with the first surfaces of the first and second substrates so as to form a bonding interface (IC); step b) being an operation of hydrophobic bonding between the first and second substrates ; what is meant by hydrophobic bonding is that the first surfaces of the first and second substrates are characterized by a contact angle with a drop of water that is smaller than or equal to 40°; c) making the lateral edges of the first and second substrates hydrophobic on either side of the bonding interface (IC); what is meant by hydrophobic is a surface characterized by a contact angle with a drop of water of between 50° and 180°.
A modified conjugated diene-based polymer represented by Chemical Formula 1 below: in Chemical Formula 1, R 1 , R 2 , R 3 and R 4 are each independently a C1-C10 alkyl group, P is a conjugated diene-based polymer chain, n and m are each independently from 1 to 10, a and b are each independently 0, 1 or 2, c and d are each independently 0, 1, 2 or 3, both c and d are not 0, and a+c and b+d are each independently 1, 2 or 3.
An exhaust gas processing apparatus that processes exhaust gas, comprising: a reaction tower in which the exhaust gas introduced by an exhaust gas introducing pipe moves upward while being circulated; a trunk tube that is provided in a height direction inside the reaction tower and is supplied with a liquid for processing the exhaust gas by a cleaning liquid supply pump ; and a plurality of ejecting sections that are configured to eject, along with a circulating direction of the exhaust gas, the liquid supplied from the trunk tube , wherein the plurality of ejecting sections are provided at different positions in the height direction of the reaction tower from a bottom portion side where the exhaust gas is introduced to a top portion side where the exhaust gas is emitted, and a volume flow rate of the liquid ejected from the ejecting sections on the top portion side is less than a volume (or volumetric) flow rate of the liquid ejected from the ejecting sections on the bottom portion side , wherein the volume flow rate of the liquid ejected by the plurality of ejecting sections becomes smaller in order from the bottom portion side to the top portion side ; and a particle diameter of the liquid ejected by the ejecting sections becomes small in order from the bottom portion side to the top portion side . a reaction tower in which the exhaust gas introduced by an exhaust gas introducing pipe moves upward while being circulated; a trunk tube that is provided in a height direction inside the reaction tower and is supplied with a liquid for processing the exhaust gas by a cleaning liquid supply pump ; and a plurality of ejecting sections that are configured to eject, along with a circulating direction of the exhaust gas, the liquid supplied from the trunk tube , wherein the plurality of ejecting sections are provided at different positions in the height direction of the reaction tower from a bottom portion side where the exhaust gas is introduced to a top portion side where the exhaust gas is emitted, and a volume flow rate of the liquid ejected from the ejecting sections on the top portion side is less than a volume (or volumetric) flow rate of the liquid ejected from the ejecting sections on the bottom portion side , wherein the volume flow rate of the liquid ejected by the plurality of ejecting sections becomes smaller in order from the bottom portion side to the top portion side ; and a particle diameter of the liquid ejected by the ejecting sections becomes small in order from the bottom portion side to the top portion side .