mhurhangee/ep-ind-claims huggingface dataset:
A method for asset transfer, applied to a blockchain node, comprising the following: receiving an asset transfer request sent by a first client device, wherein the asset transfer request is sent based on an asset transfer operation of a first user, and the asset transfer request comprises asset transfer information; invoking a first smart contract in a blockchain, and locking a to-be-transferred asset based on the first smart contract and the asset transfer information; sending asset information of the to-be-transferred asset to a designated trading platform, so that the trading platform determines, based on the asset information, a second user who trades with the first user; and obtaining asset transfer confirmation information from the first client device, and performing transfer processing on the locked to-be-transferred asset based on the asset transfer confirmation information, so as to transfer the locked to-be-transferred asset to the second user, wherein the asset transfer confirmation information comprises information about the second user. receiving an asset transfer request sent by a first client device, wherein the asset transfer request is sent based on an asset transfer operation of a first user, and the asset transfer request comprises asset transfer information; invoking a first smart contract in a blockchain, and locking a to-be-transferred asset based on the first smart contract and the asset transfer information; sending asset information of the to-be-transferred asset to a designated trading platform, so that the trading platform determines, based on the asset information, a second user who trades with the first user; and obtaining asset transfer confirmation information from the first client device, and performing transfer processing on the locked to-be-transferred asset based on the asset transfer confirmation information, so as to transfer the locked to-be-transferred asset to the second user, wherein the asset transfer confirmation information comprises information about the second user.
A method of determining the presence of a target nucleic acid in a sample comprising a cervical cell and a fixative agent which is a liquid-based cytology medium comprising: (a) immobilizing the cervical cell to a carboxylated surface by contacting the carboxylated surface with the sample comprising the cell and a fixative agent which is a liquid-based cytology medium, for a sufficient time to permit the cell to bind to the carboxylated surface, wherein the liquid-based cytology medium has a pH of not more than 9, and wherein the pH of the liquid-based cytology medium is lowered to improve immobilization of the cell to the carboxylated surface prior to or during immobilization of the cervical cell to the carboxylated surface; (b) separating the carboxylated surface from at least a portion of the sample, thereby isolating the cell; (c) releasing the target nucleic acid from the cell by a method comprising contacting the isolated cell with a liquid composition suitable for releasing the nucleic acid from the cell; and (d) optionally, denaturing the released target nucleic acid; and (e) detecting the target nucleic acid by a method comprising: contacting the released and optionally denatured target nucleic acid with one or more probes specific for the target nucleic acid under conditions that allow the probes and target nucleic acid to hybridize forming double-stranded nucleic acid hybrids; and detecting the presence or absence of double-stranded nucleic acid hybrids. (a) immobilizing the cervical cell to a carboxylated surface by contacting the carboxylated surface with the sample comprising the cell and a fixative agent which is a liquid-based cytology medium, for a sufficient time to permit the cell to bind to the carboxylated surface, wherein the liquid-based cytology medium has a pH of not more than 9, and wherein the pH of the liquid-based cytology medium is lowered to improve immobilization of the cell to the carboxylated surface prior to or during immobilization of the cervical cell to the carboxylated surface; (b) separating the carboxylated surface from at least a portion of the sample, thereby isolating the cell; (c) releasing the target nucleic acid from the cell by a method comprising contacting the isolated cell with a liquid composition suitable for releasing the nucleic acid from the cell; and (d) optionally, denaturing the released target nucleic acid; and (e) detecting the target nucleic acid by a method comprising: contacting the released and optionally denatured target nucleic acid with one or more probes specific for the target nucleic acid under conditions that allow the probes and target nucleic acid to hybridize forming double-stranded nucleic acid hybrids; and detecting the presence or absence of double-stranded nucleic acid hybrids. contacting the released and optionally denatured target nucleic acid with one or more probes specific for the target nucleic acid under conditions that allow the probes and target nucleic acid to hybridize forming double-stranded nucleic acid hybrids; and detecting the presence or absence of double-stranded nucleic acid hybrids.
An assembly comprising: a shower; a speaker received in the shower including a speaker housing, and speaker components supported in the speaker housing and operable to produce an audio output; characterised by a sensor (520,520') operable to sense an orientation of the speaker housing relative to the shower; and control components operable to determine an orientation of the speaker housing relative to the shower, and control the speaker components based on the orientation of the speaker housing relative to the shower. a shower; a speaker received in the shower including a speaker housing, and speaker components supported in the speaker housing and operable to produce an audio output; characterised by a speaker housing, and speaker components supported in the speaker housing and operable to produce an audio output; characterised by a sensor (520,520') operable to sense an orientation of the speaker housing relative to the shower; and control components operable to determine an orientation of the speaker housing relative to the shower, and control the speaker components based on the orientation of the speaker housing relative to the shower. determine an orientation of the speaker housing relative to the shower, and control the speaker components based on the orientation of the speaker housing relative to the shower.
A process for preparing a lipid and protein component-containing composition, which is an infant or follow-on formula or a growing up milk and comprises lipid globules, comprising the steps of: a) providing an aqueous phase with a dry matter content of 10 to 60 wt.% (based on total weight of the aqueous phase), which comprises at least one protein component, b) providing a liquid lipid phase, which comprises at least one lipid and c) mixing the lipid phase with the aqueous phase in a ratio of 5 to 50 % (w/w) using an inline mixer with at least one mixing head so as to obtain a lipid and protein component-containing composition comprising lipid globules. a) providing an aqueous phase with a dry matter content of 10 to 60 wt.% (based on total weight of the aqueous phase), which comprises at least one protein component, b) providing a liquid lipid phase, which comprises at least one lipid and c) mixing the lipid phase with the aqueous phase in a ratio of 5 to 50 % (w/w) using an inline mixer with at least one mixing head so as to obtain a lipid and protein component-containing composition comprising lipid globules.
A network monitoring system, comprising: a processor; and a memory coupled to the processor, the memory configured to store program instructions executable by the processor to cause the network monitoring system to: identify a first monitoring rule, the first monitoring rule configured to associate a first type of monitored network traffic with a first monitoring sampling ratio, the first monitoring rule having a first priority level; identify a second monitoring rule, the second monitoring rule configured to associate a second, different type of monitored network traffic with a second monitoring sampling ratio, the second monitoring rule having a second priority level; detect a reduction in monitoring capacity; compare the first and second priority levels; and in response to the first priority level being greater than the second priority level, reduce the second monitoring sampling ratio based, at least in part, upon the reduction in monitoring capacity. a processor; and a memory coupled to the processor, the memory configured to store program instructions executable by the processor to cause the network monitoring system to: identify a first monitoring rule, the first monitoring rule configured to associate a first type of monitored network traffic with a first monitoring sampling ratio, the first monitoring rule having a first priority level; identify a second monitoring rule, the second monitoring rule configured to associate a second, different type of monitored network traffic with a second monitoring sampling ratio, the second monitoring rule having a second priority level; detect a reduction in monitoring capacity; compare the first and second priority levels; and in response to the first priority level being greater than the second priority level, reduce the second monitoring sampling ratio based, at least in part, upon the reduction in monitoring capacity. identify a first monitoring rule, the first monitoring rule configured to associate a first type of monitored network traffic with a first monitoring sampling ratio, the first monitoring rule having a first priority level; identify a second monitoring rule, the second monitoring rule configured to associate a second, different type of monitored network traffic with a second monitoring sampling ratio, the second monitoring rule having a second priority level; detect a reduction in monitoring capacity; compare the first and second priority levels; and in response to the first priority level being greater than the second priority level, reduce the second monitoring sampling ratio based, at least in part, upon the reduction in monitoring capacity.
Compounds of formula: wherein the group denotes one of the following groups: X denotes -CH- or -N-, Y denotes Het or Ar, R a is, A, Hal, CF 3, OR 3, OCF 3,(CH 2) n OH, (CH 2) n OA, (CH 2) n OR 3, CN, NO 2, N(R 3) 2, CH 2 N 2-p p, (CH 2) n SO 2 N(R 3) 2, SO 2 N(R 3) 2, (CH 2) n NR 3 SO 2 A, (CH 2) n SO 2 A, (CH 2) n N(SO 2 A) 2, NR 3 CON(R 3) 2, NR 3 COA or NR 3 SO 2 N(R 3) 2, A is a branched or linear alkyl having 1 to 12 C-atoms, wherein one or more, preferably 1 to 7 H-atoms may be replaced by Hal, OR 3, CN, COOR 3, or N(R 3) 2 and wherein one or more, preferably 1 to 7 non-adjacent CH 2 -groups may be replaced by O, NR 3 or S and/or by -CH=CH- or -C=C- groups, Ar is selected from the following groups: wherein R b and R e are independently from one another selected from A, OA, OR 3, CF 3, OCF 3. Het denotes one of the following groups: wherein R b and R e independently from one another denote A, OA, OR 3, CF 3, OCF 3, Hal is F, CI, Br or I, R 3 is H or A, p is 0, 1 or 2 n is o, 1, 2, 3 or 4, and solvates, tautomers, salts and stereoisomers thereof, including mixtures thereof in all ratios. X denotes -CH- or -N-, Y denotes Het or Ar, R a is, A, Hal, CF 3, OR 3, OCF 3,(CH 2) n OH, (CH 2) n OA, (CH 2) n OR 3, CN, NO 2, N(R 3) 2, CH 2 N 2-p p, (CH 2) n SO 2 N(R 3) 2, SO 2 N(R 3) 2, (CH 2) n NR 3 SO 2 A, (CH 2) n SO 2 A, (CH 2) n N(SO 2 A) 2, NR 3 CON(R 3) 2, NR 3 COA or NR 3 SO 2 N(R 3) 2, A is a branched or linear alkyl having 1 to 12 C-atoms, wherein one or more, preferably 1 to 7 H-atoms may be replaced by Hal, OR 3, CN, COOR 3, or N(R 3) 2 and wherein one or more, preferably 1 to 7 non-adjacent CH 2 -groups may be replaced by O, NR 3 or S and/or by -CH=CH- or -C=C- groups, Ar is selected from the following groups: wherein R b and R e are independently from one another selected from A, OA, OR 3, CF 3, OCF 3. Het denotes one of the following groups: wherein R b and R e independently from one another denote A, OA, OR 3, CF 3, OCF 3, Hal is F, CI, Br or I, R 3 is H or A, p is 0, 1 or 2 n is o, 1, 2, 3 or 4,
A passenger service vehicle having an upper deck and a lower deck, and a passenger staircase extending between the upper deck and the lower deck, the staircase positioned, at the lower deck, between a driver's area and a passenger area, and positioned, at the upper deck, between a forward passenger area and a rearward passenger area, the staircase having an upper stair portion and a secondary stair portion, the upper stair portion being connected to the upper deck and comprising at least one tread, and being further connected to the secondary stair portion via an intermediate landing, wherein the upper deck extends for a length of the vehicle, and the secondary stair portion extends parallel with respect to the length of the upper deck, and the upper stair portion extends transversely with respect to the secondary stair portion, and wherein the staircase further comprises a lower stair portion connected to the lower deck, the lower stair portion comprising at least one tread and being connected to the secondary stair portion via a further intermediate landing, the lower stair portion extending transversely with respect to the secondary stair portion, such that the upper, secondary and lower stair portions (450, 430, 410) are configured together in a U-shape.
A method for measuring a mechanical property of an object using an ultrasound system having an ultrasound transducer that includes a plurality of transducer elements, the steps of the method comprising: a) inducing multiple different shear waves with each shear wave generated at one of a plurality of different spatial locations in the object by using a plurality of subgroups of transducer elements to transmit a corresponding plurality of focused ultrasound beams with each focused ultrasound beam being focused at one of the plurality of different spatial locations; b) obtaining elastography data representative of the multiple different shear waves by transmitting at least one detection ultrasound beam into the object and receiving echo signals in response thereto in each of a plurality of different transmit-detection events; c) applying a directional filter to the obtained elastography data to separate the multiple different shear waves into multiple different directional components to reduce effects of interference between the multiple different shear waves; and d) calculating a mechanical property of the object using the obtained elastography data, wherein step a) includes transmitting one focused ultrasound beam at a time, and in which at least some successively transmitted focused ultrasound beams are generated by (i) spatially adjacent subgroups of transducer elements, or (ii) spatially overlapping subgroups of transducer elements. a) inducing multiple different shear waves with each shear wave generated at one of a plurality of different spatial locations in the object by using a plurality of subgroups of transducer elements to transmit a corresponding plurality of focused ultrasound beams with each focused ultrasound beam being focused at one of the plurality of different spatial locations; b) obtaining elastography data representative of the multiple different shear waves by transmitting at least one detection ultrasound beam into the object and receiving echo signals in response thereto in each of a plurality of different transmit-detection events; c) applying a directional filter to the obtained elastography data to separate the multiple different shear waves into multiple different directional components to reduce effects of interference between the multiple different shear waves; and d) calculating a mechanical property of the object using the obtained elastography data, (i) spatially adjacent subgroups of transducer elements, or (ii) spatially overlapping subgroups of transducer elements.
An integrated circuit "IC" device comprising: an SRAM module; wrapper logic coupled to the SRAM module; a context source; and an Error Correction Code profile controller coupled to the context source and to the wrapper logic, the ECC profile controller configured to select an ECC profile in response to context information received from the context source for use by the wrapper logic, wherein the context source is configured to determine a level of error sensitivity based on the level of error sensitivity of an application running on the IC device, and the ECC profile controller is configured to select an ECC profile in response to the determined level of error sensitivity; the IC device being characterized in that: the SRAM module is coupled to the wrapper logic such that the SRAM module can selectively bypass the wrapper logic from a dataflow in response to context information output from the context source. an SRAM module; wrapper logic coupled to the SRAM module; a context source; and an Error Correction Code profile controller coupled to the context source and to the wrapper logic, the ECC profile controller configured to select an ECC profile in response to context information received from the context source for use by the wrapper logic, wherein the context source is configured to determine a level of error sensitivity based on the level of error sensitivity of an application running on the IC device, and the ECC profile controller is configured to select an ECC profile in response to the determined level of error sensitivity;
Escalator comprising a step belt or moving walkway comprising a plate belt, further comprising a first deflecting region (13, 53) and a second deflecting region (14, 54), wherein the plate belt or the step belt is arranged to circulate between the first deflecting region (13, 53) and the second deflecting region (14, 54) and in addition the escalator or the moving walkway includes at least one guide rail (16, 56, 56A, 56B), which is arranged between the deflecting regions (13, 14, 53, 54), for guidance of the step belt or plate belt and the guide rail (56A, 56B) has at least one base surface with a guide surface for rollers of the step belt or plate belt, wherein the escalator or the moving walkway includes at least one guide strip (90, 90') with a guide flank for lateral guidance of these rollers, wherein the rollers during guidance are in lateral contact with the guide flank, and wherein the guide strip (90, 90') is a separate component and during installation the position of the guide strip (90, 90') relative to the guide rail (56A, 56B) is selectable, characterised in that at least one guide strip (90, 90') is arranged on the guide rail (56A, 56B) only in sections.
A transistor output stage device is subject to back voltage from an output node of the device, the device comprising: a transistor having a gate, a source, a drain and a body; an electrical connection between a supply voltage node (VDD_IN) and the source; an electrical connection between the output node (Output) of the device and the drain; a comparison circuit configured and arranged to generate a selection signal in response to a comparison of a voltage on the supply voltage node and a voltage on the output node; a voltage selection circuit configured and arranged to, in response to the selection signal, provide a selected voltage (Selected Vdd) that is the higher of the voltage on the supply voltage node and the voltage on the output node; an electrical connection between the body and a node providing the selected voltage; and a gate controller configured and arranged to, connect, in response to the selection signal indicating that the voltage on the supply voltage node is higher than the voltage on the output node, the gate to an input (Input) of the device, and connect, in response to the selection signal indicating that the supply voltage is lower than the voltage on the output node, the gate to the node providing the selected voltage, wherein the voltage selection circuit includes a first level shifter circuit that is configured and arranged to level shift the selection signal to a voltage level of the voltage on the supply voltage node, and a second level shifter circuit that is configured and arranged to level shift the selection signal to a voltage level of the voltage on the output node. a transistor having a gate, a source, a drain and a body; an electrical connection between a supply voltage node (VDD_IN) and the source; an electrical connection between the output node (Output) of the device and the drain; a comparison circuit configured and arranged to generate a selection signal in response to a comparison of a voltage on the supply voltage node and a voltage on the output node; a voltage selection circuit configured and arranged to, in response to the selection signal, provide a selected voltage (Selected Vdd) that is the higher of the voltage on the supply voltage node and the voltage on the output node; an electrical connection between the body and a node providing the selected voltage; and a gate controller configured and arranged to, connect, in response to the selection signal indicating that the voltage on the supply voltage node is higher than the voltage on the output node, the gate to an input (Input) of the device, and connect, in response to the selection signal indicating that the supply voltage is lower than the voltage on the output node, the gate to the node providing the selected voltage, wherein the voltage selection circuit includes a first level shifter circuit that is configured and arranged to level shift the selection signal to a voltage level of the voltage on the supply voltage node, and a second level shifter circuit that is configured and arranged to level shift the selection signal to a voltage level of the voltage on the output node.
A method of securing a cable to a wind turbine blade, the method comprising: providing a pre-assembled cable assembly comprising a cable and a plurality of mounts (40a-e) pre-attached to the cable at intervals along the length of the cable; and attaching the plurality of mounts (40a-e) to a surface of a wind turbine blade such that the mounts (40a-e) are spaced apart along the surface of the blade; wherein the spacing between adjacent mounts (40a-e) when the mounts (40a-e) are attached to the blade is less than the length of the cable between said adjacent mounts (40a-e) such that a predetermined amount of slack is provided in the cable between said adjacent mounts (40a-e). providing a pre-assembled cable assembly comprising a cable and a plurality of mounts (40a-e) pre-attached to the cable at intervals along the length of the cable; and attaching the plurality of mounts (40a-e) to a surface of a wind turbine blade such that the mounts (40a-e) are spaced apart along the surface of the blade; wherein the spacing between adjacent mounts (40a-e) when the mounts (40a-e) are attached to the blade is less than the length of the cable between said adjacent mounts (40a-e) such that a predetermined amount of slack is provided in the cable between said adjacent mounts (40a-e).