mhurhangee/ep-ind-claims huggingface dataset:
An ultrahigh-pressure homogenizing integrated device, comprising a long oil cylinder, a main connecting sleeve, a high-pressure cylinder homogenizing main body, an auxiliary connecting sleeve and a short oil cylinder, wherein a feeding hole communicated with a high-pressure cavity is disposed at an upper part of the high-pressure cylinder homogenizing main body, an integrated feeding device is connected with the feeding hole, the long oil cylinder, the main connecting sleeve, the high-pressure cylinder homogenizing main body, the auxiliary connecting sleeve and the short oil cylinder are sequentially and coaxially arranged, and a pressurizing plunger rod in the high-pressure cavity of the high-pressure cylinder homogenizing main body is connected with a piston rod of the long oil cylinder, a homogenizing valve in an inner cavity, which is communicated with the high-pressure cavity, of the high-pressure cylinder homogenizing main body is connected with an ejector rod of the short oil cylinder, characterized in that a pressure gauge connection port is disposed at a left side of the high-pressure cylinder homogenizing main body and communicated with the high-pressure cavity, a first check valve is disposed in the pressure gauge connection port, a portion of a valve body of the first check valve is in the high-pressure cylinder homogenizing main body, and composes an integrated structure with the high-pressure cylinder homogenizing main body, a liquid outlet communicated with a sample outlet cavity of the high-pressure cylinder homogenizing main body is further disposed at the high-pressure cylinder homogenizing main body, the liquid outlet is located at a right side of the high-pressure cylinder homogenizing main body and communicated with a bottom part of the sample outlet cavity, and an angle between an axial line of the liquid outlet and a horizontal direction is 20°.
A method for producing a polymer-containing coating upon a cured inner liner for a tire comprising: a. providing a cured inner liner comprising rubber, a majority of which comprises butyl rubber (optionally halogenated), wherein the cured inner liner has an upper and a lower surface, b. treating the lower surface of the cured inner liner with a coating composition comprising: i. a silyl-terminated polymer, ii. optionally at least one plasticizer, iii. at least one tackifier iv. at least one adhesion promoter, v. optionally at least one moisture scavenger, vi. at least one catalyst, and vii. optionally at least one antioxidant, thereby creating a polymer-containing coating upon the treated surface of the cured inner liner. a. providing a cured inner liner comprising rubber, a majority of which comprises butyl rubber (optionally halogenated), wherein the cured inner liner has an upper and a lower surface, b. treating the lower surface of the cured inner liner with a coating composition comprising: i. a silyl-terminated polymer, ii. optionally at least one plasticizer, iii. at least one tackifier iv. at least one adhesion promoter, v. optionally at least one moisture scavenger, vi. at least one catalyst, and vii. optionally at least one antioxidant, thereby creating a polymer-containing coating upon the treated surface of the cured inner liner. i. a silyl-terminated polymer, ii. optionally at least one plasticizer, iii. at least one tackifier iv. at least one adhesion promoter, v. optionally at least one moisture scavenger, vi. at least one catalyst, and vii. optionally at least one antioxidant,
A thermosensitive recording label, comprising: a base; an under layer; a thermosensitive coloring layer which contains a leuco dye and a developing agent; a barrier layer; a release layer; and an adhesive layer, where the under layer, the thermosensitive coloring layer, the barrier layer, and the release layer are disposed on one surface of the base in this order, and the adhesive layer is disposed on the other surface of the base, characterized in that the release layer contains a cured product of a heat curing silicone resin, and the barrier layer contains a cured product of a water-soluble resin with a crosslinking agent, and inorganic filler, the water-soluble resin is a resin that can be dissolved in an amount of 3 g or greater in 100 g of water at 25 °C, the weight average molecular weight of the water-soluble resin is within the range of 5,000 to 300,000, and wherein the heat curing silicone resin contains organopolysiloxane containing a hexenyl group, and organohydrogen polysiloxane. a base; an under layer; a thermosensitive coloring layer which contains a leuco dye and a developing agent; a barrier layer; a release layer; and an adhesive layer, where the under layer, the thermosensitive coloring layer, the barrier layer, and the release layer are disposed on one surface of the base in this order, and the adhesive layer is disposed on the other surface of the base, characterized in that the release layer contains a cured product of a heat curing silicone resin, and the barrier layer contains a cured product of a water-soluble resin with a crosslinking agent, and inorganic filler, the water-soluble resin is a resin that can be dissolved in an amount of 3 g or greater in 100 g of water at 25 °C, the weight average molecular weight of the water-soluble resin is within the range of 5,000 to 300,000, and wherein the heat curing silicone resin contains organopolysiloxane containing a hexenyl group, and organohydrogen polysiloxane.
A method of providing user-customized information, the method comprising: transmitting location information about a location, at which a terminal is located, and time information about a time, when the location information is obtained, to a server (operation 210); obtaining situation information of the user of the terminal, predicted based on the location information and the time information, from the server (operation 220); requesting situation-adaptive information corresponding to a situation of the user from the server, based on the obtained situation information of the user, pre-stored profile information of the user, and state information of the terminal at a time when the location information is obtained (operation 230); and obtaining the situation-adaptive information from the server (operation 240); wherein the state information of the terminal comprises at least one of mode information, activation information of a communication module of the terminal, network access state information and application information. transmitting location information about a location, at which a terminal is located, and time information about a time, when the location information is obtained, to a server (operation 210); obtaining situation information of the user of the terminal, predicted based on the location information and the time information, from the server (operation 220); requesting situation-adaptive information corresponding to a situation of the user from the server, based on the obtained situation information of the user, pre-stored profile information of the user, and state information of the terminal at a time when the location information is obtained (operation 230); and obtaining the situation-adaptive information from the server (operation 240); wherein the state information of the terminal comprises at least one of mode information, activation information of a communication module of the terminal, network access state information and application information.
A method, comprising: reading, by a first node (Node 1) of a plurality of nodes (Node 1, Node 2, Node 3), from a shared memory shared by the nodes (Node 1, Node 2, Node 3), a first data value; modifying, by the first node (Node 1), the first data value; storing, by the first node (Node 1), the modified first data value in a cache of the first node (Node 1); and initiating, by the first node (Node 1), a global synchronization command; and characterized by in response to the initiating, by the first node (Node 1), of the global synchronization command: indicating to the other nodes (Node 2, Node 3) of the plurality of nodes (Node 1, Node 2, Node 3), by the first node (Node 1), that the first node (Node 1) has completed a time step synchronization, wherein a time step is the interval between two consecutive global synchronization operations, and wherein the first node (Node 1) having completed a time step synchronization means that the first node is prepared to resume normal processing, and is waiting, if necessary, for each of the other nodes (Node 2, Node 3) to complete a time step synchronization. reading, by a first node (Node 1) of a plurality of nodes (Node 1, Node 2, Node 3), from a shared memory shared by the nodes (Node 1, Node 2, Node 3), a first data value; modifying, by the first node (Node 1), the first data value; storing, by the first node (Node 1), the modified first data value in a cache of the first node (Node 1); and initiating, by the first node (Node 1), a global synchronization command; and characterized by in response to the initiating, by the first node (Node 1), of the global synchronization command: indicating to the other nodes (Node 2, Node 3) of the plurality of nodes (Node 1, Node 2, Node 3), by the first node (Node 1), that the first node (Node 1) has completed a time step synchronization, wherein a time step is the interval between two consecutive global synchronization operations, and wherein the first node (Node 1) having completed a time step synchronization means that the first node is prepared to resume normal processing, and is waiting, if necessary, for each of the other nodes (Node 2, Node 3) to complete a time step synchronization.
A screw closure comprising a screw cap and a tamperproof band, wherein the screw cap has a top plate with a cylindrical cap peripheral wall portion provided with a female thread and wherein the tamperproof band has a flexband and is connected to the lower edge of the cap peripheral wall portion by way of one or more easily tearable elements, wherein the flexband is in the form of a continuously peripherally extending flexband which distributed over its periphery has a plurality of more easily stretchable portions and therebetween relatively less easily stretchable portions, and wherein the more easily stretchable portions are of a smaller wall cross-section, in particular in the folded-over condition, a smaller wall thickness as measured in the radial direction, than the less easily stretchable portions, wherein the portions with the larger wall cross-section are of an upwardly enlarging, wedge-shaped cross-section, wherein the upper edge of the folded-over flexband includes the furthest radially inwardly protruding projections, characterized in that the wall of the flexband, that is radially outwards in the folded-over condition, defines an approximately conically peripherally extending wall portion.
A cardiotocography girdle, characterised in that it is in the form of a spherical dome and includes at least nineteen ultrasound transducers, referred to as USTs, which are positioned on a first support layer made of an elastic material, each UST being positioned in a support cavity, said girdle comprises a second support layer, likewise made of an elastic material and which encapsulates said USTs housed in the support cavities with the first support layer, the assembly being performed by adhesively bonding the first support layer to the second support layer.
A method for a wireless device for handling timing advance groups, TAGs, the wireless device capable of aggregating carriers for uplink transmissions, the method comprising monitoring a time difference between uplink transmission timings for a pair of TAGs for the wireless device, each TAG comprising at least one serving cell; determining whether the wireless device is able to support the time difference; and, in response to determining that the wireless device is not able to support the time difference, excluding serving cells associated with one of the TAGs in the pair from uplink carrier aggregation, wherein excluding serving cells associated with one of the TAGs comprises determining at least one TAG of the pair of TAGs is a secondary TAG, sTAG, and in response to so determining, excluding a serving cell associated with one of the at least one sTAG; the method further comprising: determining that one or more of the serving cells to be excluded from uplink carrier aggregation are usable for downlink carrier aggregation; and reconfiguring those one or more of the serving cells for downlink-only carrier aggregation. monitoring a time difference between uplink transmission timings for a pair of TAGs for the wireless device, each TAG comprising at least one serving cell; determining whether the wireless device is able to support the time difference; and, in response to determining that the wireless device is not able to support the time difference, excluding serving cells associated with one of the TAGs in the pair from uplink carrier aggregation, wherein excluding serving cells associated with one of the TAGs comprises determining at least one TAG of the pair of TAGs is a secondary TAG, sTAG, and in response to so determining, excluding a serving cell associated with one of the at least one sTAG; determining that one or more of the serving cells to be excluded from uplink carrier aggregation are usable for downlink carrier aggregation; and reconfiguring those one or more of the serving cells for downlink-only carrier aggregation.
A power transmission device that is adapted to wirelessly supply electric power through electromagnetic waves, the power transmission device comprising: - a power transmitter that is adapted to transmit an electromagnetic wave to a plurality of power receivers disposed on a rotatable object rotatable around a rotation axis, characterised in that: the power transmitter includes: - transmitting direction information obtaining means that are adapted to obtain transmitting direction information for determining a transmitting direction of the electromagnetic wave toward, among the plurality of power receivers disposed such that at least one power receiver of the plurality of power receivers is located within a coverage area formed by the electromagnetic wave, the power receiver within the coverage area; and - direction controllable transmitting means that are adapted to transmit the electromagnetic wave in a direction calculated based on the transmitting direction information, - the transmitting direction information being calculated from driver control data to drive and control rotation of the rotatable object. - a power transmitter that is adapted to transmit an electromagnetic wave to a plurality of power receivers disposed on a rotatable object rotatable around a rotation axis, the power transmitter includes: - transmitting direction information obtaining means that are adapted to obtain transmitting direction information for determining a transmitting direction of the electromagnetic wave toward, among the plurality of power receivers disposed such that at least one power receiver of the plurality of power receivers is located within a coverage area formed by the electromagnetic wave, the power receiver within the coverage area; and - direction controllable transmitting means that are adapted to transmit the electromagnetic wave in a direction calculated based on the transmitting direction information, - the transmitting direction information being calculated from driver control data to drive and control rotation of the rotatable object. - transmitting direction information obtaining means that are adapted to obtain transmitting direction information for determining a transmitting direction of the electromagnetic wave toward, among the plurality of power receivers disposed such that at least one power receiver of the plurality of power receivers is located within a coverage area formed by the electromagnetic wave, the power receiver within the coverage area; and - direction controllable transmitting means that are adapted to transmit the electromagnetic wave in a direction calculated based on the transmitting direction information, - the transmitting direction information being calculated from driver control data to drive and control rotation of the rotatable object.
A method of wireless communication comprising: assigning, by an access point, an interval of time for transmission on an unlicensed communication spectrum to a long term evolution unlicensed, LTE-U device, characterised in that the interval of time falls outside a downlink monitoring transmission configuration, DMTC window (340; 342; 344; 348), and within a discontinuous reception, DRX cycle; and broadcasting, by the access point, a signal during the interval of time on the unlicensed communication spectrum, the signal comprising a paging indication for the LTE-U device. assigning, by an access point, an interval of time for transmission on an unlicensed communication spectrum to a long term evolution unlicensed, LTE-U device, characterised in that the interval of time falls outside a downlink monitoring transmission configuration, DMTC window (340; 342; 344; 348), and within a discontinuous reception, DRX cycle; and broadcasting, by the access point, a signal during the interval of time on the unlicensed communication spectrum, the signal comprising a paging indication for the LTE-U device.
A method for wireless communications, comprising: receiving (215, 225, 325, 420, 520, 1105), by a wireless communication device (115, 210, 310, 410, 510, 701, 915), an expected air time parameter (610, 630, 635, 640) for an access point (105, 205, 305, 405, 505, 801, 1005) wherein the expected air time parameter is an estimated air time fraction for an access class for communication between the wireless communication device and the access point; and determining (235, 335, 430, 530, 1110) whether to use the access point for communications based at least in part on the estimated air time fraction. receiving (215, 225, 325, 420, 520, 1105), by a wireless communication device (115, 210, 310, 410, 510, 701, 915), an expected air time parameter (610, 630, 635, 640) for an access point (105, 205, 305, 405, 505, 801, 1005) wherein the expected air time parameter is an estimated air time fraction for an access class for communication between the wireless communication device and the access point; and determining (235, 335, 430, 530, 1110) whether to use the access point for communications based at least in part on the estimated air time fraction.
A compressor, comprising: a casing; a crank shaft configured to transmit the rotational force of a motor drive provided within the casing; a plurality of bearing plates (110,120) configured to support the crank shaft; a cylinder fixed and coupled between the bearing plates (110, 120) to form a compression space, the cylinder comprising an outer portion formed in a ring shape, an inner portion formed in a ring shape and disposed inside the outer portion, and a vane portion connecting the outer portion and the inner portion to each other in a radial direction; and a rolling piston slidably coupled to the vane portion between the outer portion and the inner portion to divide the compression space into an outer compression space and an inner compression space while making a turning movement by the crank shaft, wherein a back pressure groove having a predetermined area and depth is formed on either one surface of the rolling piston or one surface of one of the plurality of bearing plates (110, 120) with which the rolling piston is brought into contact, characterized in that the back pressure groove is formed in an oval shape, such that a radius of the back pressure groove is different along a rotation angle of the crank shaft, the radius being the largest when the rotation angle of the crank shaft is in compression section where gas power is the highest. a casing; a crank shaft configured to transmit the rotational force of a motor drive provided within the casing; a plurality of bearing plates (110,120) configured to support the crank shaft; a cylinder fixed and coupled between the bearing plates (110, 120) to form a compression space, the cylinder comprising an outer portion formed in a ring shape, an inner portion formed in a ring shape and disposed inside the outer portion, and a vane portion connecting the outer portion and the inner portion to each other in a radial direction; and a rolling piston slidably coupled to the vane portion between the outer portion and the inner portion to divide the compression space into an outer compression space and an inner compression space while making a turning movement by the crank shaft,
A telescoping boom comprising: a boom actuator having a fixed part and a movable part; a rotary actuator operably connected to the movable part and rotatable relative thereto; a coupling pin connected to and configured to rotate with the rotary actuator; a plurality of boom sections (120, 122, 124, 126, 128) including a base section and one or more telescoping sections (122, 124, 126, 128) configured for telescoping movement along a longitudinal boom axis relative to the base section; characterized by a rotary extension and locking system mounted to at least one telescoping section (122, 124, 126, 128), the rotary extension and locking system comprising a coupling ring rotatably mounted on the telescoping section (122, 124, 126, 128); a section pin operably connected to the coupling ring; and a latch configured to selectively engage the section pin, the rotary extension and locking system being configured for selective coupling to the boom actuator as the rotary actuator rotates the coupling pin into engagement with the coupling ring, and for selective locking with a nearest outwardly adjacent boom section (120, 122, 124, 126, 128) as the rotary actuator rotates the coupling ring to move the section pin from a a second position to a first position. a boom actuator having a fixed part and a movable part; a rotary actuator operably connected to the movable part and rotatable relative thereto; a coupling pin connected to and configured to rotate with the rotary actuator; a plurality of boom sections (120, 122, 124, 126, 128) including a base section and one or more telescoping sections (122, 124, 126, 128) configured for telescoping movement along a longitudinal boom axis relative to the base section; characterized by a rotary extension and locking system mounted to at least one telescoping section (122, 124, 126, 128), the rotary extension and locking system comprising a coupling ring rotatably mounted on the telescoping section (122, 124, 126, 128); a section pin operably connected to the coupling ring; and a latch configured to selectively engage the section pin, the rotary extension and locking system being configured for selective coupling to the boom actuator as the rotary actuator rotates the coupling pin into engagement with the coupling ring, and for selective locking with a nearest outwardly adjacent boom section (120, 122, 124, 126, 128) as the rotary actuator rotates the coupling ring to move the section pin from a a second position to a first position.