mhurhangee/ep-ind-claims huggingface dataset:
A method for a random access, RA, procedure for a user equipment, UE, the method comprising: receiving, by the UE, a RACH-ConfigDedicated information element, IE, from a base station, the RACH-ConfigDedicated IE configuring one or more contention-free RA, CFRA, preambles, wherein each of the one or more CFRA preambles corresponds to a high priority synchronization signal block, SSB, candidate; receiving, by the UE, a backoff indicator, BI; determining, by the UE, a backoff time based on the received BI; selecting, by the UE, without waiting for an expiration of the backoff time, a configured CFRA preamble corresponding to a high priority SSB candidate from the one or more RA preambles, the selected configured RA preamble corresponding to a detected high priority SSB candidate; and transmitting the selected configured CFRA preamble corresponding to the high priority SSB candidate to the base station. receiving, by the UE, a RACH-ConfigDedicated information element, IE, from a base station, the RACH-ConfigDedicated IE configuring one or more contention-free RA, CFRA, preambles, wherein each of the one or more CFRA preambles corresponds to a high priority synchronization signal block, SSB, candidate; receiving, by the UE, a backoff indicator, BI; determining, by the UE, a backoff time based on the received BI; selecting, by the UE, without waiting for an expiration of the backoff time, a configured CFRA preamble corresponding to a high priority SSB candidate from the one or more RA preambles, the selected configured RA preamble corresponding to a detected high priority SSB candidate; and transmitting the selected configured CFRA preamble corresponding to the high priority SSB candidate to the base station.
An ice protection system comprising a first set of contiguous deicing zones; wherein: each deicing zone comprises an envelope defining an ice-protection area; at least two of the envelopes (111-112/112-113) are adjacent and share a common interzone border (160/170); each of the adjacent envelopes (111-112/112-113) includes an edge region (161-162/172-173) flanking the interzone border (160/170); and the edge region (161-162/172-173) of at least one of the adjacent envelopes (111-112/112-113) is configured to enhance ice deicing at the interzone border (160/170) by providing a higher heating power density than the rest of the envelope; characterised in that: the higher heating power density is formed by having conductive tracks that are more tightly spaced in the edge region (161-162/172-173) than in the rest of the envelope. each deicing zone comprises an envelope defining an ice-protection area; at least two of the envelopes (111-112/112-113) are adjacent and share a common interzone border (160/170); each of the adjacent envelopes (111-112/112-113) includes an edge region (161-162/172-173) flanking the interzone border (160/170); and the edge region (161-162/172-173) of at least one of the adjacent envelopes (111-112/112-113) is configured to enhance ice deicing at the interzone border (160/170) by providing a higher heating power density than the rest of the envelope; characterised in that: the higher heating power density is formed by having conductive tracks that are more tightly spaced in the edge region (161-162/172-173) than in the rest of the envelope. the higher heating power density is formed by having conductive tracks that are more tightly spaced in the edge region (161-162/172-173) than in the rest of the envelope.
A service management system, comprising: a monitoring module, configured to monitor operating performance data of a virtual network function, VNF; a judging module, configured to determine, according to the operating performance data that is of the VNF and monitored by the monitoring module, whether network service performance is abnormal; an information requesting module, configured to: when the judging module determines that the network service performance is abnormal, send network service fault association request information to a system management module, wherein the network service fault association request information is used by the system management module to query a fault and feed back a network service fault association response to a fault diagnosis module; the fault diagnosis module, configured to perform fault diagnosis according to the network service fault association response and the operating performance data that is of the VNF and monitored by the monitoring module, so as to obtain a network service fault diagnosis report; and a report sending module, configured to send the network service fault diagnosis report obtained by the fault diagnosis module to the system management module, wherein the network service fault diagnosis report is used by the system management module to perform fault recovery. a monitoring module, configured to monitor operating performance data of a virtual network function, VNF; a judging module, configured to determine, according to the operating performance data that is of the VNF and monitored by the monitoring module, whether network service performance is abnormal; an information requesting module, configured to: when the judging module determines that the network service performance is abnormal, send network service fault association request information to a system management module, wherein the network service fault association request information is used by the system management module to query a fault and feed back a network service fault association response to a fault diagnosis module; the fault diagnosis module, configured to perform fault diagnosis according to the network service fault association response and the operating performance data that is of the VNF and monitored by the monitoring module, so as to obtain a network service fault diagnosis report; and a report sending module, configured to send the network service fault diagnosis report obtained by the fault diagnosis module to the system management module, wherein the network service fault diagnosis report is used by the system management module to perform fault recovery.
AT2 receptor agonist or a pharmaceutically acceptable salt thereof for use in treatment of cachexia, wherein the selective AT2 receptor agonist is a compound of formula I: wherein X 2 represents N; X 1, X 3 and X 4 all represent -CH-; Y 1, Y 2, Y 3 and Y 4 all represent -CH-; Z 1 represents -S-; Z 2 represents -CH-; R 4 represents -S 2 N C R 6; R 5 represents iso-butyl; and R 6 represents n-butoxy. X 2 represents N; X 1, X 3 and X 4 all represent -CH-; Y 1, Y 2, Y 3 and Y 4 all represent -CH-; Z 1 represents -S-; Z 2 represents -CH-; R 4 represents -S 2 N C R 6; R 5 represents iso-butyl; and R 6 represents n-butoxy.
A porous medium comprising a porous support and a crosslinked polymer coating, wherein the polymer of the crosslinked polymer coating comprises at least one polymerized monomer, at least one polymerized monomer, and at least one polymerized monomer, wherein monomer has the formula: CH 2 =C(R 1)―C(=O)―NH―(CH 2) n ― NR 2 R 3, wherein n is 1-6, monomer has the formula: CH 2= C(R 4)―C(=O)―NR 5 R 6, and monomer has the formula: CH 2= C(R 8)―C(=O)―NH―C(R 7) 2 ―(CH 2) m -X, wherein m is 1-3 and X is SO 3 H or COOH; wherein R 1, R 4, and R 8 are independently selected from H and C 1 -C 6 alkyl, and R 2, R 3, R 5, R 6, and R 7 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl; wherein the crosslinked polymer coating is formed by in situ crosslinking of the polymer coating on the porous support, and the crosslinking agent is selected from the group consisting of diepoxide, dialdehyde, dihalide, and diester. wherein the polymer of the crosslinked polymer coating comprises at least one polymerized monomer, at least one polymerized monomer, and at least one polymerized monomer, wherein monomer has the formula: CH 2 =C(R 1)―C(=O)―NH―(CH 2) n ― NR 2 R 3, wherein n is 1-6, monomer has the formula: CH 2= C(R 4)―C(=O)―NR 5 R 6, and monomer has the formula: CH 2= C(R 8)―C(=O)―NH―C(R 7) 2 ―(CH 2) m -X, wherein m is 1-3 and X is SO 3 H or COOH; monomer has the formula: CH 2 =C(R 1)―C(=O)―NH―(CH 2) n ― NR 2 R 3, wherein n is 1-6, monomer has the formula: CH 2= C(R 4)―C(=O)―NR 5 R 6, and monomer has the formula: CH 2= C(R 8)―C(=O)―NH―C(R 7) 2 ―(CH 2) m -X, wherein m is 1-3 and X is SO 3 H or COOH; wherein R 1, R 4, and R 8 are independently selected from H and C 1 -C 6 alkyl, and R 2, R 3, R 5, R 6, and R 7 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl; wherein the crosslinked polymer coating is formed by in situ crosslinking of the polymer coating on the porous support, and the crosslinking agent is selected from the group consisting of diepoxide, dialdehyde, dihalide, and diester. R 1, R 4, and R 8 are independently selected from H and C 1 -C 6 alkyl, and R 2, R 3, R 5, R 6, and R 7 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl; wherein the crosslinked polymer coating is formed by in situ crosslinking of the polymer coating on the porous support, and the crosslinking agent is selected from the group consisting of diepoxide, dialdehyde, dihalide, and diester.
A method for identifying a substance useful for inhibiting the replication capacity of chikungunya virus (CHIKV) comprising the steps of (a) contacting a polypeptide containing an amino acid sequence of the human FHL1 protein with a polypeptide having an amino acid sequence of the CHIKV NSP3 protein, under conditions and for a time sufficient to permit binding and the formation of a complex between the two polypeptides and, in the presence of a test substance, and (b) detecting the formation of the complex, in which the ability of the test substance to inhibit the interaction between the two polypeptides and is indicated by a decrease in complex formation as compared to the amount of complex formed in the absence of the test substance and (c) selecting the substance that inhibits the interaction.
A method for receiving an Enhanced Physical Downlink Control Channel, EPDCCH, from a base station by a User Equipment, UE, in a wireless communication system, the method comprising: defining a first number of Enhanced Resource Element Groups, EREGs, in each of resource blocks for monitoring EPDCCH candidates for the EPDCCH; and receiving the EPDCCH comprising one or more Enhanced Control Channel Elements, ECCEs, by monitoring the EPDCCH candidates in the resource blocks, wherein each of the one or more ECCEs consists of a second number of EREGs included in specific resource blocks that are different from each other, the specific resource blocks are included in the resource blocks, said method being characterized in that: indexes of the specific resource blocks including the second number of EREGs are determined based on a specific value obtained by dividing a number of the resource blocks configured for monitoring the EPDCCH candidates by the second number and an interval defining the spacing between the indexes of the specific resource blocks is determined based on the specific value. defining a first number of Enhanced Resource Element Groups, EREGs, in each of resource blocks for monitoring EPDCCH candidates for the EPDCCH; and receiving the EPDCCH comprising one or more Enhanced Control Channel Elements, ECCEs, by monitoring the EPDCCH candidates in the resource blocks, wherein each of the one or more ECCEs consists of a second number of EREGs included in specific resource blocks that are different from each other, the specific resource blocks are included in the resource blocks, said method being characterized in that: indexes of the specific resource blocks including the second number of EREGs are determined based on a specific value obtained by dividing a number of the resource blocks configured for monitoring the EPDCCH candidates by the second number and an interval defining the spacing between the indexes of the specific resource blocks is determined based on the specific value.
A parking assistance apparatus for assisting parallel parking of a driver's own vehicle, the parking assistance apparatus comprising: an escapable position calculation unit configured to calculate an escapable position where the driver's own vehicle can escape from a parking area to a passage area by moving the driver's own vehicle on the basis of a target parking position; a parking-space leaving route calculation unit configured to calculate a parking-space leaving route where the driver's own vehicle can be moved from the escapable position to an initial position in the passage area; and a parking route setting unit configured to set a parking route for moving the driver's own vehicle from the initial position to the target parking position according to the parking-space leaving route, wherein the parking-space leaving route calculation unit calculates the parking-space leaving route by using a first turning circle when turning from the escapable position to a passage side, a second turning circle when turning in a direction of the target parking position at the initial position of the driver's own vehicle, and characterized in that the parking-space leaving route calculation unit calculates the parking-space leaving route by using a third turning circle which is a locus of a turning center when the vehicle has moved along the first turning circle and turns in a direction different from the first turning circle. an escapable position calculation unit configured to calculate an escapable position where the driver's own vehicle can escape from a parking area to a passage area by moving the driver's own vehicle on the basis of a target parking position; a parking-space leaving route calculation unit configured to calculate a parking-space leaving route where the driver's own vehicle can be moved from the escapable position to an initial position in the passage area; and a parking route setting unit configured to set a parking route for moving the driver's own vehicle from the initial position to the target parking position according to the parking-space leaving route, wherein the parking-space leaving route calculation unit calculates the parking-space leaving route by using a first turning circle when turning from the escapable position to a passage side, a second turning circle when turning in a direction of the target parking position at the initial position of the driver's own vehicle, and characterized in that the parking-space leaving route calculation unit calculates the parking-space leaving route by using a third turning circle which is a locus of a turning center when the vehicle has moved along the first turning circle and turns in a direction different from the first turning circle.
Method for manufacturing a material of olivine crystallographic structure of formula: A a Z z MmSiO 4 in which: - A is chosen from lithium (Li), sodium (Na), potassium, and mixtures thereof, - Z is chosen from beryllium (Be), magnesium (Mg), calcium (Ca), strontium (Sr), barium (Ba), and mixtures thereof, - M is chosen from iron (Fe), nickel (Ni), cobalt (Co), manganese (Mn), chromium (Cr), and mixtures thereof, - a, z and m are the stoichiometric coefficients, respectively, of A, Z and M, and which satisfy the following conditions: ∘ z > 0, m > 0, a > 0, ∘ a + z + m ≤ 2, and ∘ 2 ≤ 4 − a − 2 z / m < 4 said method comprising at least the steps consisting in: i. having a material of olivine crystallographic structure of formula: Z z M m SiO 4, obtained by oxidation of a material of olivine crystallographic structure of formula: Z z' M m SiO 4, in which Z, M, z and m are as defined above and the stoichiometric index z' is such that z' > z, and ii. electrochemically reducing said material of formula in the presence of a source electrode made of element A under conditions that are suitable for forming the material of formula. - A is chosen from lithium (Li), sodium (Na), potassium, and mixtures thereof, - Z is chosen from beryllium (Be), magnesium (Mg), calcium (Ca), strontium (Sr), barium (Ba), and mixtures thereof, - M is chosen from iron (Fe), nickel (Ni), cobalt (Co), manganese (Mn), chromium (Cr), and mixtures thereof, - a, z and m are the stoichiometric coefficients, respectively, of A, Z and M, and which satisfy the following conditions: ∘ z > 0, m > 0, a > 0, ∘ a + z + m ≤ 2, and ∘ 2 ≤ 4 − a − 2 z / m < 4 ∘ z > 0, m > 0, a > 0, ∘ a + z + m ≤ 2, and ∘ 2 ≤ 4 − a − 2 z / m < 4 i. having a material of olivine crystallographic structure of formula: Z z M m SiO 4, obtained by oxidation of a material of olivine crystallographic structure of formula: Z z' M m SiO 4, in which Z, M, z and m are as defined above and the stoichiometric index z' is such that z' > z, and ii. electrochemically reducing said material of formula in the presence of a source electrode made of element A under conditions that are suitable for forming the material of formula.
An electronic device unit comprising: a box-shaped case; an opening (22, 26) formed in the case; and an electronic component (50, 80) disposed in the opening (22, 26), wherein a case groove (35, 46) is formed in the case, a component groove (53a, 86) is formed in the electronic component (50, 80), characterised in that, a waterproofing member (P1, P2) is disposed on an inner periphery of the opening (22, 26), furthermore the case groove (35, 46) and the component groove (53a, 86) are connected to form a connected space (110, 120), and a fixing member (70, 90) which is disposed all through the case groove (35, 46) and the component groove (53a, 86) which form the connected space (110, 120), to thereby fix the electronic component (50, 80) to the case is inserted in the connected space (110, 120).
A health care bed frame, comprising: a first bed section having a wide central frame portion with a first width and having left and right wing sections (27, 28) with both retracted and extended positions relative to its wide central frame portion; a second bed section hingedly connected to said first bed section, having a narrow central frame portion with a second width less than the first width, and having left and right wing sections (27, 28) with both retracted and extended positions relative to its narrow central frame portion; and wherein at least one of first and second bed sections (12, 13) is mountable to a floor engaging base frame. a first bed section having a wide central frame portion with a first width and having left and right wing sections (27, 28) with both retracted and extended positions relative to its wide central frame portion; a second bed section hingedly connected to said first bed section, having a narrow central frame portion with a second width less than the first width, and having left and right wing sections (27, 28) with both retracted and extended positions relative to its narrow central frame portion; and wherein at least one of first and second bed sections (12, 13) is mountable to a floor engaging base frame.
A sliding component comprising: a pair of sliding parts (3, 5), a plurality of dimples (10; 11) disposed on at least one of sliding surfaces (S, IS) of the pair of sliding parts (3, 5) configured to relatively slide on each other, the plurality of dimples (10; 11) being provided mutually independently of the other dimples (10; 11), an inner peripheral side of the sliding surface being configured to be disposed on a low-pressure fluid side, an outer peripheral side of the sliding surface being configured to be disposed on a high-pressure fluid side, the plurality of dimples (10; 11) having an area ratio set lower on the inner peripheral side of the sliding surface than on the outer peripheral side, characterized in that the plurality of dimples (10; 11) has different opening diameters, is disposed in a randomly distributed manner, and has a disposition density set lower on the inner peripheral side of the sliding surface than on the outer peripheral side. a pair of sliding parts (3, 5), a plurality of dimples (10; 11) disposed on at least one of sliding surfaces (S, IS) of the pair of sliding parts (3, 5) configured to relatively slide on each other, the plurality of dimples (10; 11) being provided mutually independently of the other dimples (10; 11), an inner peripheral side of the sliding surface being configured to be disposed on a low-pressure fluid side, an outer peripheral side of the sliding surface being configured to be disposed on a high-pressure fluid side, the plurality of dimples (10; 11) having an area ratio set lower on the inner peripheral side of the sliding surface than on the outer peripheral side, characterized in that the plurality of dimples (10; 11) has different opening diameters, is disposed in a randomly distributed manner, and has a disposition density set lower on the inner peripheral side of the sliding surface than on the outer peripheral side.
A system comprising: a wall-cupboard (50A, 50B, 50C) and a shelf (53A, 53B, 53C) rigidly fixed to said wall-cupboard (50A, 50B, 50C) forming in combination a furniture module to be hung on a wall, a first plurality of brackets for hanging and regulating the height and depth of the wall cupboard (52A, 52B, 52C), so called hidden shoulder-centre hanging brackets, characterized in that it further comprises: a second plurality of brackets (RMA, RMB, 77C) for hanging and regulating the height and depth of said shelf, so called shelf-brackets,, said first plurality of brackets (52A, 52B, 52C), and said second plurality of brackets (RMA, RMB, 77C) both being equipped with respective regulation mechanisms, in vertical (height) and in depth of the position of the module with respect to the wall, the regulation mechanisms of the second plurality of brackets being accessible through holes (48A, 47A;48B,47B;93C,92C) situated in the shelf (53A, 53B, 53C) itself.
A filter assembly comprising: a casing bounding a compartment, the casing having an inlet opening communicating with the compartment and a first outlet opening communicating with the compartment; and a first filter comprising a porous filter body through which gas can pass and which has a pore size smaller than 1 μm, the first filter being coupled with the casing so that the filter body is at least partially disposed within compartment of the casing and so that gas passing through the compartment of the casing from the inlet opening to the first outlet opening must pass through the filter body, characterized by the casing being comprised of one or more water impermeable, flexible sheets of polymeric film, and the filter system being supported by a rack assembly, which includes a pole that enables the filter assembly to be expanded to its desired height upon raising of the pole a casing bounding a compartment, the casing having an inlet opening communicating with the compartment and a first outlet opening communicating with the compartment; and a first filter comprising a porous filter body through which gas can pass and which has a pore size smaller than 1 μm, the first filter being coupled with the casing so that the filter body is at least partially disposed within compartment of the casing and so that gas passing through the compartment of the casing from the inlet opening to the first outlet opening must pass through the filter body, characterized by the casing being comprised of one or more water impermeable, flexible sheets of polymeric film, and the filter system being supported by a rack assembly, which includes a pole that enables the filter assembly to be expanded to its desired height upon raising of the pole