mhurhangee/ep-ind-claims huggingface dataset:
A color conversion film comprising: a base film, wherein the base film is a PET film; a color conversion layer provided directly on the base film; an adhesive layer provided directly on the color conversion layer; and a protective layer provided directly on the adhesive layer, wherein the color conversion layer comprises a resin matrix and an organic fluorescent dye dispersed in the resin matrix, and a thickness t1 of the protective layer is larger than a thickness t2 of the base film wherein molecular absorption coefficient of the organic fluorescent dye is 50,000 to 150,000 M -1 cm -1; and a thickness ratio of the base film to the protective layer is 1:1.5 to 1:5 a base film, wherein the base film is a PET film; a color conversion layer provided directly on the base film; an adhesive layer provided directly on the color conversion layer; and a protective layer provided directly on the adhesive layer, wherein the color conversion layer comprises a resin matrix and an organic fluorescent dye dispersed in the resin matrix, and a thickness t1 of the protective layer is larger than a thickness t2 of the base film wherein molecular absorption coefficient of the organic fluorescent dye is 50,000 to 150,000 M -1 cm -1; and a thickness ratio of the base film to the protective layer is 1:1.5 to 1:5
A high pressure rotary shear valve assembly comprising: a stator device defining a substantially hard, substantially planar stator face and at least two or more stator channels in fluid communication with said stator face at corresponding stator ports, wherein the stator face terminates at an outer circumferential edge; a rotor device having a substantially hard, substantially planar rotor face defining one or more rotor channels, the rotor face extending radially beyond the outer circumferential edge of the stator face when said rotor device is rotatably mounted about a rotational axis to the stator device in a manner enabling fluid-tight, selective relative rotation between the rotor face and the stator face, at a rotor-stator interface, between two or more rotor positions; and a polymer insert device characterized in that the polymer insert device defines an exposed contact face having an insert inner diameter less than that of said outer circumferential edge and an insert outer diameter more than said outer circumferential edge, said insert device being formed and dimensioned for press-fit insertion in a receiving groove defined in the rotor face such that the outer circumferential edge of the stator face rotatably contacts the insert exposed face between the insert inner diameter and the insert outer diameter during said relative rotation between said two or more rotor positions. a stator device defining a substantially hard, substantially planar stator face and at least two or more stator channels in fluid communication with said stator face at corresponding stator ports, wherein the stator face terminates at an outer circumferential edge; a rotor device having a substantially hard, substantially planar rotor face defining one or more rotor channels, the rotor face extending radially beyond the outer circumferential edge of the stator face when said rotor device is rotatably mounted about a rotational axis to the stator device in a manner enabling fluid-tight, selective relative rotation between the rotor face and the stator face, at a rotor-stator interface, between two or more rotor positions; and a polymer insert device characterized in that the polymer insert device defines an exposed contact face having an insert inner diameter less than that of said outer circumferential edge and an insert outer diameter more than said outer circumferential edge, said insert device being formed and dimensioned for press-fit insertion in a receiving groove defined in the rotor face such that the outer circumferential edge of the stator face rotatably contacts the insert exposed face between the insert inner diameter and the insert outer diameter during said relative rotation between said two or more rotor positions.
A light emitting unit driving circuit (100, 100B, 100C, 100D, 100E) comprising: a first driving transistor having a first channel width and a first channel length and being configured to provide a first current (Ia); a second driving transistor having a second channel width and a second channel length and being configured to provide a second current (Ib); a light emitting unit electrically connected to the first driving transistor and the second driving transistor, and configured to receive at least one of the first current (Ia) and the second current (Ib) to emit light; wherein a first ratio of the first channel width to the first channel length is different from a second ratio of the second channel width to the second channel length; and characterized by: a first data line (D1[x]); a second data line (D2[x]); a first scan line (S1[y]); a second scan line (S2[y]); a first switching transistor electrically connected to the first data line (D1[x]), the first driving transistor, and the first scan line (S1[y]); and a second switching transistor electrically connected to the second data line (D2[x]), the second driving transistor, and the second scan line (S2[y]). a first driving transistor having a first channel width and a first channel length and being configured to provide a first current (Ia); a second driving transistor having a second channel width and a second channel length and being configured to provide a second current (Ib); a light emitting unit electrically connected to the first driving transistor and the second driving transistor, and configured to receive at least one of the first current (Ia) and the second current (Ib) to emit light; wherein a first ratio of the first channel width to the first channel length is different from a second ratio of the second channel width to the second channel length; and characterized by: a first data line (D1[x]); a second data line (D2[x]); a first scan line (S1[y]); a second scan line (S2[y]); a first switching transistor electrically connected to the first data line (D1[x]), the first driving transistor, and the first scan line (S1[y]); and a second switching transistor electrically connected to the second data line (D2[x]), the second driving transistor, and the second scan line (S2[y]). a first data line (D1[x]); a second data line (D2[x]); a first scan line (S1[y]); a second scan line (S2[y]); a first switching transistor electrically connected to the first data line (D1[x]), the first driving transistor, and the first scan line (S1[y]); and a second switching transistor electrically connected to the second data line (D2[x]), the second driving transistor, and the second scan line (S2[y]).
Modular cooling duct housing for a stator of an electric machine, having: a metal cylinder; a first connection module; a second connection module; and a central module which is disposed between the first connection module and the second connection module, wherein the central module is connected in a sealing manner to the first connection module and the second connection module, wherein each one of the modules (12, 14, 16) is disposed on an external surface of the metal cylinder and configured so as to be concentric with the metal cylinder, wherein a volume that is configured between the external surface of the metal cylinder and an internal surface (12a, 14a, 16a) of a wall (12b, 14b, 16b) of the modules (12, 14, 16) is able to be filled with a coolant, wherein the modules (12, 14, 16) have a plurality of web elements (18a, 18b) that are configured on the internal surface (12a, 14a, 16a) of the wall (12b, 14b, 16b), wherein the web elements (18a, 18b) have in each case one first expansion portion (18a2, 18b2) and one second expansion portion (18a3, 18b3) which in a sealing manner bear on the external surface of the metal cylinder, wherein the web elements (18a, 18b) in a volumetric variation of the coolant caused by a temperature variation of the coolant are configured for adapting a radial spacing of the wall (12b, 14b, 16b) of the modules (12, 14, 16) from the external surface of the metal cylinder to the varied coolant volume by varying the expansion of the expansion portions (18a2, 18a3, 18b2, 18b3) of the respective web elements (18a, 18b) while the web elements (18a, 18b) in a sealing manner continuously bear on the external surface of the metal cylinder.
A communication method performed by a terminal, characterized by comprising: receiving, by using a system message or a radio resource control signaling message carried on the first carrier, first indication information from a first access network device, wherein the first indication information is used to indicate a timing offset of a first carrier and a second carrier, and the timing offset is an offset between timing of downlink communication of the first carrier and timing of uplink communication of the second carrier; and determining the timing of the second carrier based on the timing of the first carrier and the timing offset; wherein the timing offset indicates a time difference between a subframe or symbol boundary of the first carrier and a start location of a physical random access channel, PRACH, on the second carrier. receiving, by using a system message or a radio resource control signaling message carried on the first carrier, first indication information from a first access network device, wherein the first indication information is used to indicate a timing offset of a first carrier and a second carrier, and the timing offset is an offset between timing of downlink communication of the first carrier and timing of uplink communication of the second carrier; and determining the timing of the second carrier based on the timing of the first carrier and the timing offset; wherein the timing offset indicates a time difference between a subframe or symbol boundary of the first carrier and a start location of a physical random access channel, PRACH, on the second carrier.
A slide cushion device of a press machine, comprising: a plurality of hydraulic cylinders (110a to 110o) integrally formed in a board included in a slide of the press machine, or in a board provided immediately below the slide; a pressing member that is disposed in a recessed portion of an upper die that vertically moves together with the slide, in a vertically movable manner, and that presses a material with a projecting portion of a lower die facing the upper die; a plurality of cushion pins that is provided in the pressing member and penetrates the upper die to be brought into contact with a piston member of the hydraulic cylinder, characterized in that a number of the plurality of cushion pins is less than a number of hydraulic cylinders disposed in a plane of projection of the recessed portion of the upper die; and the slide cushion device further comprising a slide cushion hydraulic device that controls at least hydraulic pressure that is to be supplied to a compression chamber of the hydraulic cylinder with which the cushion pins are to be brought into contact. a plurality of hydraulic cylinders (110a to 110o) integrally formed in a board included in a slide of the press machine, or in a board provided immediately below the slide; a pressing member that is disposed in a recessed portion of an upper die that vertically moves together with the slide, in a vertically movable manner, and that presses a material with a projecting portion of a lower die facing the upper die; a plurality of cushion pins that is provided in the pressing member and penetrates the upper die to be brought into contact with a piston member of the hydraulic cylinder, characterized in that a number of the plurality of cushion pins is less than a number of hydraulic cylinders disposed in a plane of projection of the recessed portion of the upper die; and the slide cushion device further comprising a slide cushion hydraulic device that controls at least hydraulic pressure that is to be supplied to a compression chamber of the hydraulic cylinder with which the cushion pins are to be brought into contact.
Hydraulic directional valve, with mixed series and parallel hydraulic circuit made of two or more sections each comprising a spool (I, II, II) and which can be mutually connected by both series and parallel connections, said valve comprising series channel and parallel channel for series and parallel connection, respectively, said parallel channel corresponding to a pressure channel of the valve, characterized in that said valve comprises a logic switching element (E, E1, E2) comprising a distributor, wherein said logic switching element (E, E1, E2) in a neutral position connects the series channel of said mixed series and parallel hydraulic circuit with a downstream pressure branch positioned downstream the logic switching element (E, E1, E2) and connecting to a spool downstream of the logic switching element (E, E1, E2), and at the same time isolates a pressure branch of the parallel channel of a parallel connection and of a discharge branch; wherein, when switching the distributor of the logic switching element (E, E1, E2), the latter reaches a second position, in which the series channel is closed and simultaneously the parallel channel is opened towards the downstream pressure branch, and in said second position said series channel is set to discharge by connection with the discharge branch, wherein the logic switching element comprises a control channel bringing the signal from the pressure channel on one side of the logic switching element (E, E1, E2) and a spring (2; 2a) located on a side opposite to the one in which the pressure channel is brought, wherein the logic switching element is retained in said neutral position by the spring, a calibration value of said spring determining the pressure value in the control channel for switching of the logic switching element from the neutral position to said second position.
A biological specimen collection swab or surface wipe for recovering and facilitating extraction of DNA by silica column or functionalized magnetic bead-based DNA isolation techniques, which comprises a biological specimen recovery material, wherein the biological specimen recovery material comprises between 1 mg to about 50 mg of nonwoven cellulose acetate nanofibers having an average diameter from about 100 nm to about 500 nm which are electrospun from a spinning solution comprising 5 to 50% wtlvol of cellulose acetate having a weight average molecular weight of from about 30,000 to about 300,000 g/mol, which nonwoven cellulose acetate nanofibers are capable of dissolution upon contact with a liquid comprising of between 1 to 10M guanidinium isothiocyanate (GITC).
A method for wireless communications by a user equipment, UE, comprising: receiving, from one or more nodes participating in coordinated multipoint, CoMP, operations with the UE, signaling indicating whether or not a shortened physical uplink control channel, PUCCH, format is to be used, wherein the signaling further indicates at least two cell-specific sounding reference signal, SRS, configurations; determining, based at least in part upon the signaling, whether at least one last symbol of a subframe is available for transmitting one or more of the uplink channels from the UE, wherein the determining comprises determining the last symbol of the subframe is not available for transmitting the one or more of the uplink channels if the one or more of the uplink channels are shortened and wherein, if the at least two SRS configurations overlap in time, the determining is based at least on the configuration with a larger cell-specific SRS bandwidth; determining the last symbol of the subframe is available for transmitting a SRS; and transmitting the SRS in the last symbol of the subframe. receiving, from one or more nodes participating in coordinated multipoint, CoMP, operations with the UE, signaling indicating whether or not a shortened physical uplink control channel, PUCCH, format is to be used, wherein the signaling further indicates at least two cell-specific sounding reference signal, SRS, configurations; determining, based at least in part upon the signaling, whether at least one last symbol of a subframe is available for transmitting one or more of the uplink channels from the UE, wherein the determining comprises determining the last symbol of the subframe is not available for transmitting the one or more of the uplink channels if the one or more of the uplink channels are shortened and wherein, if the at least two SRS configurations overlap in time, the determining is based at least on the configuration with a larger cell-specific SRS bandwidth; determining the last symbol of the subframe is available for transmitting a SRS; and transmitting the SRS in the last symbol of the subframe.
A downlink data transmission method in a system comprising a serving gateway, S-GW, and a base station, on a long term evolution, LTE, network, comprising: learning, by the base station, that a user equipment, UE, needs to be paged, when an S1 bearer is retained and a radio bearer is released; wherein, the learning that a UE needs to be paged comprises: receiving a paging instruction sent by an MME, wherein the paging instruction is sent by the MME after the MME receives a downlink data notification sent by the S-GW, wherein the downlink data notification is sent by the S-GW when the S-GW receives the downlink data and learns that a radio bearer corresponding to the S1 bearer does not exist; paging (12, 207, 312), by the base station, the UE and re-establishing a radio bearer between the base station and the UE; and sending (13, 209), by the base station, downlink data, which is received from the S-GW to the UE through the re-established radio bearer the method further comprises: sending an S1 bearer sleep request to the S-GW through an MME when the base station determines that the radio bearer needs to be released, so that the S-GW sets the S1 bearer to a sleep state, and when the S-GW receives the downlink data, the S-GW learns that the radio bearer corresponding to the S 1 bearer does not exist, if determining that the S1 bearer is in the sleep state, wherein the sleep state refers to that after the downlink data reaches the S-GW, the S1 bearer exists but the downlink data fails to be sent to the base station, and the sleep state is activated by the MME or is activated after uplink data sent by the base station is received. learning, by the base station, that a user equipment, UE, needs to be paged, when an S1 bearer is retained and a radio bearer is released; wherein, the learning that a UE needs to be paged comprises: receiving a paging instruction sent by an MME, wherein the paging instruction is sent by the MME after the MME receives a downlink data notification sent by the S-GW, wherein the downlink data notification is sent by the S-GW when the S-GW receives the downlink data and learns that a radio bearer corresponding to the S1 bearer does not exist; paging (12, 207, 312), by the base station, the UE and re-establishing a radio bearer between the base station and the UE; and sending (13, 209), by the base station, downlink data, which is received from the S-GW to the UE through the re-established radio bearer the method further comprises: sending an S1 bearer sleep request to the S-GW through an MME when the base station determines that the radio bearer needs to be released, so that the S-GW sets the S1 bearer to a sleep state, and when the S-GW receives the downlink data, the S-GW learns that the radio bearer corresponding to the S 1 bearer does not exist, if determining that the S1 bearer is in the sleep state, wherein the sleep state refers to that after the downlink data reaches the S-GW, the S1 bearer exists but the downlink data fails to be sent to the base station, and the sleep state is activated by the MME or is activated after uplink data sent by the base station is received.
Network node for a wireless communication system using non-orthogonal multiple access the network node comprising: a processor configured to select a group of user devices (300a, 300b,..., 300n) for superposed reception or superposed transmission of data, determine control information, CI, for the user devices (300a, 300b,..., 300n) of the selected group, the control information, CI, comprising group control information, GCI, common to the user devices (300a, 300b,..., 300n) of the selected group and at least one user device control information, UDCI, specific to at least one user device of the user devices (300a, 300b,..., 300n) of the selected group, said control information, CI, being comprised in a single downlink control information, DCI, format; and a transceiver configured to transmit a first signal which is addressed to the user devices (300a, 300b,..., 300n) of the selected group in a first set of time and frequency resources, the first signal comprising the group control information, GCI, and the user device control information, UDCI; or transmit a first signal which is addressed to the user devices (300a, 300b,..., 300n) of the selected group in a first set of time and frequency resources, the first signal comprising the group control information, GCI, and transmit a second signal which is addressed to at least one user device of the user devices (300a, 300b,..., 300n) of the selected group in a second set of time and frequency resources, the second signal comprising the user device control information, UDCI. select a group of user devices (300a, 300b,..., 300n) for superposed reception or superposed transmission of data, determine control information, CI, for the user devices (300a, 300b,..., 300n) of the selected group, the control information, CI, comprising group control information, GCI, common to the user devices (300a, 300b,..., 300n) of the selected group and at least one user device control information, UDCI, specific to at least one user device of the user devices (300a, 300b,..., 300n) of the selected group, said control information, CI, being comprised in a single downlink control information, DCI, format; and a transceiver configured to transmit a first signal which is addressed to the user devices (300a, 300b,..., 300n) of the selected group in a first set of time and frequency resources, the first signal comprising the group control information, GCI, and the user device control information, UDCI; or transmit a first signal which is addressed to the user devices (300a, 300b,..., 300n) of the selected group in a first set of time and frequency resources, the first signal comprising the group control information, GCI, and transmit a second signal which is addressed to at least one user device of the user devices (300a, 300b,..., 300n) of the selected group in a second set of time and frequency resources, the second signal comprising the user device control information, UDCI.