mhurhangee/patent-ind-claim-en huggingface dataset:
A surface treatment method for a semiconductor substrate, which comprises bringing the semiconductor substrate into contact with a liquid composition to impart isopropyl alcohol repellency to the semiconductor substrate, wherein the liquid composition comprises: 0.01 to 15% by mass of each of at least two compounds selected from surfactants respectively represented by below to and salts thereof; and water, wherein said alcohol repellency is isopropyl alcohol repellency and a contact angle between isopropyl alcohol and the substrate material after the surface treatment is 30° or more, wherein the surfactants represented by are CF 3 (CF 2 ) 6 CH 2 OH, (CF 3 ) 2 CH 2 OH, CF 3 (CF 2 ) 7 SO 3 H and CF 3 (CF 2 ) 5 COOH, the surfactant represented by is [CF 3 (CF2) 5 (CH 2 ) 2 OCH 2 CH(OH)CH 2 O] 2 PO(OH), the surfactants represented by are CF 3 (CF 2 ) 4 CH 2 NH 2 and (CF 3 (CF 2 ) 5 CH 2 CH(OH)CH 2 ) 2 N(CH 2 ) 3 N + (CH 3 )(CH 2 CH 3 ) 2 I - , the surfactant represented by is CF 3 (CF 2 ) 5 CH 2 CH(OH)CH 2 NH(CH 2 ) 3 N + (CH 2 CH 3 ) 2 O - , the surfactant represented by is CF 3 (CF 2 ) 5 CH 2 CH(OH)CH 2 N + H(CH 2 COO - )(CH 2 ) 3 N(CH 2 CH 3 ) 2 and the surfactant represented by is ((CF 3 ) 2 CF) 2 C=C(CF 3 )(OCH 2 CH 2 ) a OCH 3 , wherein a represents an integer of 3 to 20. wherein said alcohol repellency is isopropyl alcohol repellency and a contact angle between isopropyl alcohol and the substrate material after the surface treatment is 30° or more, wherein the surfactants represented by are CF 3 (CF 2 ) 6 CH 2 OH, (CF 3 ) 2 CH 2 OH, CF 3 (CF 2 ) 7 SO 3 H and CF 3 (CF 2 ) 5 COOH, the surfactant represented by is [CF 3 (CF2) 5 (CH 2 ) 2 OCH 2 CH(OH)CH 2 O] 2 PO(OH), the surfactants represented by are CF 3 (CF 2 ) 4 CH 2 NH 2 and (CF 3 (CF 2 ) 5 CH 2 CH(OH)CH 2 ) 2 N(CH 2 ) 3 N + (CH 3 )(CH 2 CH 3 ) 2 I - , the surfactant represented by is CF 3 (CF 2 ) 5 CH 2 CH(OH)CH 2 NH(CH 2 ) 3 N + (CH 2 CH 3 ) 2 O - , the surfactant represented by is CF 3 (CF 2 ) 5 CH 2 CH(OH)CH 2 N + H(CH 2 COO - )(CH 2 ) 3 N(CH 2 CH 3 ) 2 and the surfactant represented by is ((CF 3 ) 2 CF) 2 C=C(CF 3 )(OCH 2 CH 2 ) a OCH 3 , wherein a represents an integer of 3 to 20.
Outflow apparatus for a basin , in particular in the form of a sink, consisting of at least one fluid passage part and one fluid blockage part , of which at least one part, by means of an actuating device , can be moved by hand from a position (OS) allowing passage of fluid between the basin and an outflow pipe of the apparatus into a position blocking the fluid passage, and vice versa, wherein the actuating device has a clamping device by means of which the outflow pipe can be fixed in a fluid-tight manner to the basin , wherein the outflow pipe can be arranged spaced apart from a base of the basin via a pot-shaped compensating piece which is provided with a central opening in its base , characterized in that , between the compensating piece and the outflow pipe , there is arranged a sealing ring with an n-shaped cross section, which has on its bottom side, which faces towards the outflow pipe , an encircling groove into which the edge of the outflow pipe engages.
A method for cleaving a modified target DNA, the method comprising: converting 5caC and/or 5fC in a target DNA to dihydrouracil (DHU) to provide a modified target DNA comprising one or more DHU; and contacting the modified target DNA comprising one or more DHU with one or more endonucleases that cleave the modified target DNA at, or adjacent to, the one or more DHU. converting 5caC and/or 5fC in a target DNA to dihydrouracil (DHU) to provide a modified target DNA comprising one or more DHU; and contacting the modified target DNA comprising one or more DHU with one or more endonucleases that cleave the modified target DNA at, or adjacent to, the one or more DHU.
A polycarbonate diol composition comprising a polyoxyethylene structure represented by (formula 1) and a polycarbonate structure represented by (formula 2), the polycarbonate diol composition having hydroxy groups at both ends and having a number-average molecular weight, determined from a hydroxy value as described in "(Measurement of hydroxy value)" in the description, of 300 or larger and 10000 or smaller, wherein the polycarbonate diol composition comprises 5% by mass or more and 50% by mass or less of the polyoxyethylene structure and 50% by mass or more and 95% by mass or less of the polycarbonate structure based on a total mass of the polyoxyethylene structure and the polycarbonate structure, and among dihydroxy compounds obtained by a hydrolysis of the polycarbonate diol composition, a dihydroxy compound except for a dihydroxy compound having a polyoxyethylene structure comprises at least one kind of compound selected from the group consisting of dihydroxy compounds represented by (formula 3): wherein m is a number of 3 or larger and 70 or smaller, wherein R is a divalent linear, branched or cyclic aliphatic, or aromatic hydrocarbon group having 2 or more and 15 or less carbon atoms, and a plurality of R moieties are the same as or different from each other; and n is a number of 1 or larger and 50 or smaller, and wherein Ra is a hydrogen group, or an aliphatic hydrocarbon group having 1 to 5 carbon atoms, and Ra moieties are the same or different; and a is a number of 2 or larger and 4 or smaller.
A first server comprising: a first storage comprising a first storage synchronous area in which a first disk image of a first virtual system constructed by using a server virtualization mechanism is stored, the first storage synchronous area being an area which is replicated to a second storage synchronous area in a second storage of a second server ; and a first application configured to run on the first virtual system , wherein the first server is configured to use a virtual address being set to the first storage synchronous area in the first storage to mount the first storage synchronous area in the first storage by NFS, Network File System, operate the first virtual system as an active system by using the first disk image in the first storage synchronous area thus mounted, execute the first application on the first virtual system thus operated, obtain a snapshot of memory content of the first virtual system , transmit the obtained snapshot to the second server configured to mount the first storage synchronous area in the first storage by using the virtual address, operate a second virtual system as a standby system by using the first disk image in the first storage synchronous area thus mounted, and stand by for execution of a second application on the virtual system thus operated, and replicate the first storage synchronous area in the first storage to the second storage synchronous area in the second storage of the second server . a first storage comprising a first storage synchronous area in which a first disk image of a first virtual system constructed by using a server virtualization mechanism is stored, the first storage synchronous area being an area which is replicated to a second storage synchronous area in a second storage of a second server ; and a first application configured to run on the first virtual system , wherein the first server is configured to use a virtual address being set to the first storage synchronous area in the first storage to mount the first storage synchronous area in the first storage by NFS, Network File System, operate the first virtual system as an active system by using the first disk image in the first storage synchronous area thus mounted, execute the first application on the first virtual system thus operated, obtain a snapshot of memory content of the first virtual system , transmit the obtained snapshot to the second server configured to mount the first storage synchronous area in the first storage by using the virtual address, operate a second virtual system as a standby system by using the first disk image in the first storage synchronous area thus mounted, and stand by for execution of a second application on the virtual system thus operated, and replicate the first storage synchronous area in the first storage to the second storage synchronous area in the second storage of the second server .
A communications device, wherein the communications device comprises a sending unit and a processing unit , wherein the sending unit is configured to transmit a data packet to a receiving node by using an unlicensed spectrum resource and by using a hybrid automatic repeat request, HARQ, process; and the processing unit is configured to: determine that the unlicensed spectrum resource used by the sending unit is unavailable, determine that an unsuccessfully-sent data packet exists in the HARQ process, and actively trigger automatic repeat request, ARQ, retransmission for the unsuccessfully-sent data packet without passively waiting for an acknowledgment message or a status report sent by the receiving node.
A light-emitting device comprising a light-emitting element having an emission peak wavelength of 430 nm or longer, and a molded part on which the light-emitting element is disposed, the molded part being formed from a cured product of a thermosetting epoxy resin composition comprising an epoxy resin including a triazine derived epoxy resin, wherein the thermosetting epoxy resin composition comprises a solid reaction product obtained by reacting the triazine derived epoxy resin as the epoxy resin of component (A) with an acid anhydride as component (B) in such a proportion as to provide an epoxy group equivalent/acid anhydride group equivalent ratio from 0.6 to 2.0 in the presence of triphenyl phosphite and/or 2,6-di-t-butyl-p-cresol as an antioxidant of component (C), and the solid reaction product contains a high molecular weight fraction having a molecular weight of more than 1500, a moderate molecular weight fraction having a molecular weight of 300 to 1500, and a monomeric fraction, as analyzed by gel permeation chromatography (GPC), wherein 20 to 70% by weight of the high molecular weight fraction, 10 to 60% by weight of the moderate molecular weight fraction, and 10 to 40% by weight of the monomeric fraction are present, and wherein the conditions for gel permeation chromatography (GPC) are as set out in the description, and wherein the light-emitting element is a gallium nitride compound semiconductor.
A single-stranded nucleic acid molecule for inhibiting expression of a target gene, which consists of a region (X), a linker region (Lx) and a region (Xc), wherein said region (X) is complementary to said region (Xc), at least one of said region (X) and said region (Xc) comprises an expression inhibitory sequence that inhibits expression of the target gene, said linker region (Lx) comprises the following formula (I-4) : (wherein n is an integer in the range from 0 to 30 and m is an integer in the range from 0 to 30), a bio-related substance having a delivery function is bonded to said linker region (Lx) of the single-stranded nucleic acid molecule for inhibiting expression of a target gene, and said bio-related substance is stearic acid. said region (X) is complementary to said region (Xc), at least one of said region (X) and said region (Xc) comprises an expression inhibitory sequence that inhibits expression of the target gene, said linker region (Lx) comprises the following formula (I-4) : (wherein n is an integer in the range from 0 to 30 and m is an integer in the range from 0 to 30), a bio-related substance having a delivery function is bonded to said linker region (Lx) of the single-stranded nucleic acid molecule for inhibiting expression of a target gene, and said bio-related substance is stearic acid.
A ram circuit for an aircraft, the ram circuit comprising: a ram inlet housing with a chamber and an inlet configured to receive air into the ram inlet housing; a ram outlet housing fluidly connected to the ram inlet housing; a heat exchanger disposed between and fluidly connected to the inlet housing and the outlet housing; a ram air fan disposed in the ram outlet housing, wherein the ram air fan comprises a motor with a cooling inlet; and a particle separator with an outer inlet configured to receive ram air from the chamber of the ram inlet housing and a clean air outlet through which clean air is discharged, wherein the outer inlet faces into a flow of air passing through the chamber of the ram inlet housing, and wherein the clean air outlet is fluidly connected to the cooling inlet of the motor of the ram air fan; and characterized in that the outer inlet of the particle separator comprises a face with a center-point, wherein the center-point of the face is located at a point within the ram inlet housing where a velocity of a flow of the air through the ram inlet housing is at a maximum. a ram inlet housing with a chamber and an inlet configured to receive air into the ram inlet housing; a ram outlet housing fluidly connected to the ram inlet housing; a heat exchanger disposed between and fluidly connected to the inlet housing and the outlet housing; a ram air fan disposed in the ram outlet housing, wherein the ram air fan comprises a motor with a cooling inlet; and a particle separator with an outer inlet configured to receive ram air from the chamber of the ram inlet housing and a clean air outlet through which clean air is discharged, wherein the outer inlet faces into a flow of air passing through the chamber of the ram inlet housing, and wherein the clean air outlet is fluidly connected to the cooling inlet of the motor of the ram air fan; and characterized in that
A communication system, comprising a provider equipment configured to communicate with a plurality of customer premises equipment (14-16) via lines (17-19) using discontinuous operation for transmitting data, wherein the provider equipment is configured to: determine a set of bit loading tables for combinations of the lines (17-19) being in a transmit or quiet mode; set a different bit loading table from the set of bit loading tables based on which lines (17-19) are transmitting and which are quiet; and transmit the data based on the different bit loading table. determine a set of bit loading tables for combinations of the lines (17-19) being in a transmit or quiet mode; set a different bit loading table from the set of bit loading tables based on which lines (17-19) are transmitting and which are quiet; and transmit the data based on the different bit loading table.
Apparatus for determining a sensor signal, having: a recording device that is designed to record a measurement signal at a predetermined sampling rate wherein the measurement signal comprises two measurement signals phase-shifted relative to one another; a memory that is designed to store a plurality of successive sampled measurement signals; a weighting device that is designed to multiply a measured value vector having the plurality of stored measurement signals by a predetermined weighting vector and to output the result as a weighted measured value vector, wherein the weighting device multiplies the two measurement signals by the weighting vector; and a computation device that is designed to compute a sensor signal based on the weighted measured value vector, wherein the computation device carries out the computation of the sensor signal using the two weighted measurement signals. a recording device that is designed to record a measurement signal at a predetermined sampling rate wherein the measurement signal comprises two measurement signals phase-shifted relative to one another; a memory that is designed to store a plurality of successive sampled measurement signals; a weighting device that is designed to multiply a measured value vector having the plurality of stored measurement signals by a predetermined weighting vector and to output the result as a weighted measured value vector, wherein the weighting device multiplies the two measurement signals by the weighting vector; and a computation device that is designed to compute a sensor signal based on the weighted measured value vector, wherein the computation device carries out the computation of the sensor signal using the two weighted measurement signals.
Backfeed stage (BFS) of a radial turbo fluid energy machine (RTFEM), in particular of a radial turbo compressor (RTC), for deflecting a flow direction (FD) of a process fluid (PF) flowing out of an impeller (IMP) rotating about an axis (X) from radially outward to radially inward, comprising a backfeed channel (BFC) which extends annularly about the axis (X) and which has four portions (S1, S2, S3, S4) adjacent in the flow direction, through which the process fluid (PF) can flow, wherein a first portion (S1) is designed to conduct the process fluid (PF) radially outward, wherein a second portion (S2) is designed to deflect the process fluid (PF) from radially outward to radially inward, wherein a third portion (S3) is designed to conduct the process fluid (PF) radially inward, wherein a fourth portion (S4) is designed to divert the process fluid (PF) in the axial direction, wherein the third portion (S3) has first guide vanes (L1) which define flow channels (FC) of the backfeed channel (BFC) relative to each other in the circumferential direction, wherein the backfeed stage (BFS) has second guide vanes (L2) which are arranged downstream of the first guide vanes (L1) and define flow channels (FC) of the backfeed channel (BFC) relative to each other in the circumferential direction, wherein the first guide vanes (L1) are arranged exclusively in the third portion (S3), wherein the second guide vanes (L2) are arranged exclusively in the third portion (S3), wherein the first guide vanes (L1) and the second guide vanes (L2) are connected fixedly and immovably to a stator, characterized in that an outlet edge diameter (D3) of the first guide vanes (L1) lies in a ratio to an inlet edge diameter (D2) of the first guide vanes (L1) between 0.5 * D 2 < D 3 < 0.68 * D 2 , with: D2: inlet edge diameter of the first guide vanes (L1) D3: outlet edge diameter of the first guide vanes (L1). D2: inlet edge diameter of the first guide vanes (L1) D3: outlet edge diameter of the first guide vanes (L1).
A method for use in a user equipment, 'UE', comprising first and second radio components on a single platform, comprising: detecting that a handover is required as a result of a triggering event which is due to in-device coexistence interference; responsive thereto, sending a measurement report (5.2) to a source to request handover for the first radio component from the source to a target for a keeping time, said measurement report identifying the triggering event; receiving a handover command message (5.5) from the source to handover the first radio component from the source to the target for a specified keeping time to establish a coexistence mode for the first and second radio components; enabling the first radio component to handover the first radio component to the target for the specified keeping time so that the first radio component is not handed back to the source during the specified keeping time, thereby enabling radio resources on the UE to be used by the second radio component without interference from/to the first radio component; and subsequent to said handover of the first radio component to the target, sending a measurement or indication message to the target comprising an updated indication of keeping time. detecting that a handover is required as a result of a triggering event which is due to in-device coexistence interference; responsive thereto, sending a measurement report (5.2) to a source to request handover for the first radio component from the source to a target for a keeping time, said measurement report identifying the triggering event; receiving a handover command message (5.5) from the source to handover the first radio component from the source to the target for a specified keeping time to establish a coexistence mode for the first and second radio components; enabling the first radio component to handover the first radio component to the target for the specified keeping time so that the first radio component is not handed back to the source during the specified keeping time, thereby enabling radio resources on the UE to be used by the second radio component without interference from/to the first radio component; and subsequent to said handover of the first radio component to the target, sending a measurement or indication message to the target comprising an updated indication of keeping time.
Switching device having: - a first separable switching point which is to be actuated manually by means of an operating device , wherein a change in the rotation angle of the operating device is to be determined by a rotation angle position sensing element , whereby at a particular rotation angle a signal is generated which is passed on to an evaluation and control unit, and - a second switching point which acts in a circuit-disconnecting manner temporally ahead of the first switching point, wherein galvanic isolation is brought about in a contact arrangement in the first switching point temporally subsequently by means of a switching state transformer, characterized in that - the operating device comprises an operating element which is mounted on a cylindrical body and wherein the operating element is flanged to one end region of the cylindrical body and a projecting collar is flanged to the other end region on the cylindrical body and wherein the projecting collar acts upon the rotation angle position sensing element in the case of a corresponding rotation movement of the operating device . - a first separable switching point which is to be actuated manually by means of an operating device , wherein a change in the rotation angle of the operating device is to be determined by a rotation angle position sensing element , whereby at a particular rotation angle a signal is generated which is passed on to an evaluation and control unit, and - a second switching point which acts in a circuit-disconnecting manner temporally ahead of the first switching point, wherein galvanic isolation is brought about in a contact arrangement in the first switching point temporally subsequently by means of a switching state transformer, characterized in that - the operating device comprises an operating element which is mounted on a cylindrical body and wherein the operating element is flanged to one end region of the cylindrical body and a projecting collar is flanged to the other end region on the cylindrical body and wherein the projecting collar acts upon the rotation angle position sensing element in the case of a corresponding rotation movement of the operating device .