mhurhangee/ep-ind-claims huggingface dataset:
Emblem, in particular for a motor vehicle, with coloured and silver-lustre areas covered towards the external side by a clear, transparent plastics layer, where - the clear, transparent plastics layer consists of a resilient plastic which is capable of providing support and which, on a reverse side, bears the coloured and silver-lustre areas (2, 4), and - the clear, transparent plastics layer has, on a reverse side, a first colour layer, which leaves areas uncovered on the reverse side of the clear, transparent plastics layer, characterized in that - applied to the first colour layer there is a second colour layer, in particular a chrome lacquer, and this second colour layer/this chrome lacquer forms the silver-lustre areas on the uncovered locations. - the clear, transparent plastics layer consists of a resilient plastic which is capable of providing support and which, on a reverse side, bears the coloured and silver-lustre areas (2, 4), and - the clear, transparent plastics layer has, on a reverse side, a first colour layer, which leaves areas uncovered on the reverse side of the clear, transparent plastics layer, - applied to the first colour layer there is a second colour layer, in particular a chrome lacquer, and this second colour layer/this chrome lacquer forms the silver-lustre areas on the uncovered locations.
A surgical cutting instrument (100, 200, 300, 400), comprising: a first jaw member (108,208,308,408); a second jaw member (110, 210, 10, 410); wherein the first jaw member is movably supported relative to the second jaw member for selective movement between an open position and a closed position to clamp tissue therebetween upon application of a closing motion thereto; and a cutting member (122, 222, 322, 422) comprising a tissue cutting edge (134, 234, 334, 434) to cut the tissue clamped between the first jaw member (108, 208, 308, 408) and the second jaw member (110, 210, 310, 410) upon application of a proximal retraction motion to the cutting member (122, 222, 322, 422), wherein the cutting member (122, 222, 322, 422) is configured to be advanced distally in a stowed configuration from a first position to a second position along a length of the second jaw member (110, 210, 310, 410), and wherein the cutting member (122, 222, 322, 422) is configured to leave the stowed configuration and adopt a cutting configuration in which the cutting edge (134, 234, 334, 434) is adapted to cut the tissue between the second position and the first position upon application of the proximal retraction motion to the cutting member (122, 222, 322, 422). a first jaw member (108,208,308,408); a second jaw member (110, 210, 10, 410); wherein the first jaw member is movably supported relative to the second jaw member for selective movement between an open position and a closed position to clamp tissue therebetween upon application of a closing motion thereto; and a cutting member (122, 222, 322, 422) comprising a tissue cutting edge (134, 234, 334, 434) to cut the tissue clamped between the first jaw member (108, 208, 308, 408) and the second jaw member (110, 210, 310, 410) upon application of a proximal retraction motion to the cutting member (122, 222, 322, 422), wherein the cutting member (122, 222, 322, 422) is configured to be advanced distally in a stowed configuration from a first position to a second position along a length of the second jaw member (110, 210, 310, 410), and wherein the cutting member (122, 222, 322, 422) is configured to leave the stowed configuration and adopt a cutting configuration in which the cutting edge (134, 234, 334, 434) is adapted to cut the tissue between the second position and the first position upon application of the proximal retraction motion to the cutting member (122, 222, 322, 422).
Compound corresponding to general formula in which - R 1 and R 2 represent independently of one another a (C 1 -C 10)alkyl group, a (C 2 -C 6)cycloalkyl group, an aryl group, an aryl(C 1 -C 10)alkyl group, or a heterocyclic group, - R 3 and R 4 represent independently of one another a hydrogen atom, a (C 1 -C 10)alkyl group, an aryl group or an aryl(C 1 -C 10)alkyl group, and - Y represents: (i) an N 3 group, or (ii) a (C 1 -C 10)alkyl-N 3 group, or (iii) an aryl-N 3 group, or (iv) an aryl(C 1 -C 10)alkyl-N 3 group, or (v) a (C 1 -C 10)alkyl-C≡C-R 5 group, or (vi) an aryl-C≡C-R 5 group, or (vii) an aryl(C 1 -C 10)alkyl-C≡C-R 5 group, or (viii) an -O-C -(CH 2) n -C≡CR 5 group, with n an integer comprised between 1 and 10, in particular a -O-C -(CH 2) n -C≡CH group, with n comprised between 1 and 5, with R 5 representing (a) either a hydrogen atom, (b) or a (C 1 -C 10)alkyl group, (c) or an aryl group, (d) or an aryl(C 1 -C 10)alkyl group, all these groups being able to contain two conjugated double bonds, optionally in a ring, (e) or a protective group of the triple bond - R 1 and R 2 represent independently of one another a (C 1 -C 10)alkyl group, a (C 2 -C 6)cycloalkyl group, an aryl group, an aryl(C 1 -C 10)alkyl group, or a heterocyclic group, - R 3 and R 4 represent independently of one another a hydrogen atom, a (C 1 -C 10)alkyl group, an aryl group or an aryl(C 1 -C 10)alkyl group, and - Y represents: (i) an N 3 group, or (ii) a (C 1 -C 10)alkyl-N 3 group, or (iii) an aryl-N 3 group, or (iv) an aryl(C 1 -C 10)alkyl-N 3 group, or (v) a (C 1 -C 10)alkyl-C≡C-R 5 group, or (vi) an aryl-C≡C-R 5 group, or (vii) an aryl(C 1 -C 10)alkyl-C≡C-R 5 group, or (viii) an -O-C -(CH 2) n -C≡CR 5 group, with n an integer comprised between 1 and 10, in particular a -O-C -(CH 2) n -C≡CH group, with n comprised between 1 and 5, with R 5 representing (a) either a hydrogen atom, (b) or a (C 1 -C 10)alkyl group, (c) or an aryl group, (d) or an aryl(C 1 -C 10)alkyl group, all these groups being able to contain two conjugated double bonds, optionally in a ring, (e) or a protective group of the triple bond (i) an N 3 group, or (ii) a (C 1 -C 10)alkyl-N 3 group, or (iii) an aryl-N 3 group, or (iv) an aryl(C 1 -C 10)alkyl-N 3 group, or (v) a (C 1 -C 10)alkyl-C≡C-R 5 group, or (vi) an aryl-C≡C-R 5 group, or (vii) an aryl(C 1 -C 10)alkyl-C≡C-R 5 group, or (viii) an -O-C -(CH 2) n -C≡CR 5 group, with n an integer comprised between 1 and 10, in particular a -O-C -(CH 2) n -C≡CH group, with n comprised between 1 and 5, (a) either a hydrogen atom, (b) or a (C 1 -C 10)alkyl group, (c) or an aryl group, (d) or an aryl(C 1 -C 10)alkyl group, all these groups being able to contain two conjugated double bonds, optionally in a ring, (e) or a protective group of the triple bond
A clutch apparatus comprising: a first race, a second race differing in diameter from said first race and arranged coaxial with and rotatable relative to said first race, an engagement mechanism provided between said first race and said second race for engagement of said first race and said second race, said engagement mechanism comprising a first clutch that includes a one way clutch allowing rotation of said first race in only one direction, and a second clutch that includes a cam type clutch arranged axially adjacent to said first clutch, characterized in that said second clutch comprises a rotary member that is provided on the second race in a rotatable and axially immovable manner and a movable member that is movable in the axial direction, and a cam mechanism (69, 71, 73) disposed between said rotary member and said movable member, said movable member is engaged with said first race by being moved in the axial direction by said cam mechanism, and said second clutch restricts rotation of said first race in one and the other directions by engagement of said movable member with said first race. a first race, a second race differing in diameter from said first race and arranged coaxial with and rotatable relative to said first race, an engagement mechanism provided between said first race and said second race for engagement of said first race and said second race, said engagement mechanism comprising a first clutch that includes a one way clutch allowing rotation of said first race in only one direction, and a second clutch that includes a cam type clutch arranged axially adjacent to said first clutch, characterized in that said second clutch comprises a rotary member that is provided on the second race in a rotatable and axially immovable manner and a movable member that is movable in the axial direction, and a cam mechanism (69, 71, 73) disposed between said rotary member and said movable member, said movable member is engaged with said first race by being moved in the axial direction by said cam mechanism, and said second clutch restricts rotation of said first race in one and the other directions by engagement of said movable member with said first race.
A method of running a program comprising a plurality of concurrent threads on a computer, wherein: at any given time the program is in a current one of a sequence of global execution phases; each of the threads is divided into a respective sequence of local execution phases each corresponding to a different corresponding one in the sequence of global execution phases, wherein at any given time the thread is in a current one of the respective sequence of local execution phases, and the current local execution phase is not allowed to progress beyond the local execution phase in the respective sequence that corresponds to the current global execution phase; any of the threads is able to advance the global execution phase to the next in the sequence of global execution phases on condition that the current local execution phase of all of the threads has reached the local execution phase in the respective sequence that corresponds to the current global execution phase; one of the threads comprises code to perform an internal acquire to acquire a lock on its respective local execution phase; the method being characterized in that at least one other of the threads comprises code to perform an external release to force advancement of the current local execution phase of said one of the threads, but wherein the external release will be blocked if said one of the threads has performed the internal acquire. at any given time the program is in a current one of a sequence of global execution phases; each of the threads is divided into a respective sequence of local execution phases each corresponding to a different corresponding one in the sequence of global execution phases, wherein at any given time the thread is in a current one of the respective sequence of local execution phases, and the current local execution phase is not allowed to progress beyond the local execution phase in the respective sequence that corresponds to the current global execution phase; any of the threads is able to advance the global execution phase to the next in the sequence of global execution phases on condition that the current local execution phase of all of the threads has reached the local execution phase in the respective sequence that corresponds to the current global execution phase; one of the threads comprises code to perform an internal acquire to acquire a lock on its respective local execution phase; the method being characterized in that at least one other of the threads comprises code to perform an external release to force advancement of the current local execution phase of said one of the threads, but wherein the external release will be blocked if said one of the threads has performed the internal acquire.
A fusing subsystem for a printing apparatus comprising: a fuser member, the fuser member comprising: a substrate; and a top coat layer comprising a hydrophobic composite disposed over the substrate, wherein the hydrophobic composite comprises a plurality of carbon nanotubes dispersed in a hydrophobic polymer, and wherein the hydrophobic composite has a water contact angle in the range of 140° to 150°; and the hydrophobic composite coating comprises: (a) a plurality of carbon nanotubes present in an amount ranging from 10 to 90 weight percent of total weight of the hydrophobic composite coating; and (b) a hydrophobic polymer present in an amount ranging from 10 to 90 weight percent of total weight of the hydrophobic composite coating, the hydrophobic polymer selected from a group consisting of polytetrafluoroethylene (PTFE); perfluoroalkoxy polymer resin; copolymer of tetrafluoroethylene and hexafluoropropylene; copolymers of hexafluoropropylene and vinylidene fluoride (VDF or VF2); terpolymers of tetrafluoroethylene, vinylidene fluoride, and hexafluoropropylene; and tetrapolymers of tetrafluoroethylene, vinylidene fluoride, and hexafluoropropylene. a substrate; and a top coat layer comprising a hydrophobic composite disposed over the substrate, wherein the hydrophobic composite comprises a plurality of carbon nanotubes dispersed in a hydrophobic polymer, and wherein the hydrophobic composite has a water contact angle in the range of 140° to 150°; and the hydrophobic composite coating comprises: (a) a plurality of carbon nanotubes present in an amount ranging from 10 to 90 weight percent of total weight of the hydrophobic composite coating; and (b) a hydrophobic polymer present in an amount ranging from 10 to 90 weight percent of total weight of the hydrophobic composite coating, the hydrophobic polymer selected from a group consisting of polytetrafluoroethylene (PTFE); perfluoroalkoxy polymer resin; copolymer of tetrafluoroethylene and hexafluoropropylene; copolymers of hexafluoropropylene and vinylidene fluoride (VDF or VF2); terpolymers of tetrafluoroethylene, vinylidene fluoride, and hexafluoropropylene; and tetrapolymers of tetrafluoroethylene, vinylidene fluoride, and hexafluoropropylene. (a) a plurality of carbon nanotubes present in an amount ranging from 10 to 90 weight percent of total weight of the hydrophobic composite coating; and (b) a hydrophobic polymer present in an amount ranging from 10 to 90 weight percent of total weight of the hydrophobic composite coating, the hydrophobic polymer selected from a group consisting of polytetrafluoroethylene (PTFE); perfluoroalkoxy polymer resin; copolymer of tetrafluoroethylene and hexafluoropropylene; copolymers of hexafluoropropylene and vinylidene fluoride (VDF or VF2); terpolymers of tetrafluoroethylene, vinylidene fluoride, and hexafluoropropylene; and tetrapolymers of tetrafluoroethylene, vinylidene fluoride, and hexafluoropropylene.
A method performed by a radio base station of a wireless network, for supporting uplink transmission power control when performing Multiple User, MU, Multiple-Input-Multiple-Output, MIMO, scheduling, the method being characterized by a procedure for the MU MIMO power control when scheduling a first User Equipment, UE, in pair with a second UE, or when scheduling the first UE de-paired from the second UE, the method comprising: - transmitting a power adaptation parameter for uplink transmission power control to the first UE before transmitting an indication to the first UE to use the power adaptation parameter for uplink transmission power control, which power adaptation parameter enables the first UE to adapt an uplink transmission power to an interference change due to pairing or de-pairing with the second UE; - transmitting the indication to the first UE when the radio base station schedules the first UE in pair with the second UE, or schedules the first UE de-paired from the second UE; and - estimating a throughput gain of a paired scheduling relative to an unpaired scheduling for a UE pair comprising the first UE and the second UE, and for each of the first and the second UEs individually, - scheduling the first UE in pair with the second UE when the estimated throughput gain for the UE pair is above a first threshold, and when the estimated throughput gain is positive for each of the first and second UEs, and - scheduling the first UE de-paired from the second UE when the estimated throughput gain for the UE pair is lower than a second threshold, and when the estimated throughput gain is negative for either the first or the second UE. - transmitting a power adaptation parameter for uplink transmission power control to the first UE before transmitting an indication to the first UE to use the power adaptation parameter for uplink transmission power control, which power adaptation parameter enables the first UE to adapt an uplink transmission power to an interference change due to pairing or de-pairing with the second UE; - transmitting the indication to the first UE when the radio base station schedules the first UE in pair with the second UE, or schedules the first UE de-paired from the second UE; and - estimating a throughput gain of a paired scheduling relative to an unpaired scheduling for a UE pair comprising the first UE and the second UE, and for each of the first and the second UEs individually, - scheduling the first UE in pair with the second UE when the estimated throughput gain for the UE pair is above a first threshold, and when the estimated throughput gain is positive for each of the first and second UEs, and - scheduling the first UE de-paired from the second UE when the estimated throughput gain for the UE pair is lower than a second threshold, and when the estimated throughput gain is negative for either the first or the second UE.
A method comprising: obtaining, by a device through signaling between the device and a wireless network, a specified time-domain wireless-resource allocation, TWRA, pattern configured by the wireless network for wireless communications of the device for a given transmit time interval, TTI; and conducting, by the device, the wireless communications during the given TTI, using resources allocated according to the obtained specified TWRA pattern without first having to decode a physical downlink control channel, PDCCH, for the given TTI to identify the specified TWRA pattern, pursuant to obtaining the specified TWRA pattern through the signaling between the device and the wireless network. obtaining, by a device through signaling between the device and a wireless network, a specified time-domain wireless-resource allocation, TWRA, pattern configured by the wireless network for wireless communications of the device for a given transmit time interval, TTI; and conducting, by the device, the wireless communications during the given TTI, using resources allocated according to the obtained specified TWRA pattern without first having to decode a physical downlink control channel, PDCCH, for the given TTI to identify the specified TWRA pattern, pursuant to obtaining the specified TWRA pattern through the signaling between the device and the wireless network.
A foldable electronic apparatus comprising first and second parts (10, 20) being arranged to be foldable with respect to each other about a folding axis to define first and second apparatus folding configurations, the first and second parts comprising respective first and second displays (11, 21) arranged to switch between respective first and second display operating modes according to whether the apparatus is in the first folding configuration or the second folding configuration according to a critical folding angle defined in a folding configuration of the apparatus, and wherein, in the first display operating mode, the first display is arranged to allow for user input, and in the second display operating mode, wherein the first and second displays (11, 21) are substantially in the same plane, the first and second displays (11, 21) are arranged to switch to act together as a continuous single display.
A heat pipe (1, 5) comprising: an evaporator (10, 95) configured to vaporize a working fluid; a condenser (20, 95) configured to condense the vaporized working fluid; a liquid pipe (40, 96) connecting the evaporator (10, 95) and the condenser (20, 95); a vapor pipe (30, 97) connecting the evaporator (10, 95) and the condenser (20, 95), the vapor pipe (30, 97) forming a loop with the liquid pipe (40, 96); and an inlet port (90, 91) for injecting the working fluid into the liquid pipe (40, 96), the condenser (20, 95) or the vapor pipe (30, 97) before the inlet port (90, 91) is hermetically sealed, characterized in that the inlet port (90, 91) includes an unsealed part (90a, 91a) and a sealed part (90b, 91b) that connect to each other, the unsealed part (90a, 91a) and the sealed part (90b, 91b) respectively including a plurality of metal layers, the plurality of metal layers being a first outermost layer, a plurality of intermediate layers stacked on the first outermost layer, and a second outermost layer stacked on the plurality of intermediate layers, wherein each of the plurality of metal layers of the sealed part (90b, 91b) contacts one or more of other metal layers among the plurality of metal layers to hermetically seal the inlet port (90, 91, 92), and wherein the sealed part (90b, 91b) includes at least three regions (R1-R5) that are different in a number of interfaces of metal layers in a stacking direction of the plurality of metal layers, the at least three regions (R1-R5) being arranged in a direction perpendicular to the stacking direction. an evaporator (10, 95) configured to vaporize a working fluid; a condenser (20, 95) configured to condense the vaporized working fluid; a liquid pipe (40, 96) connecting the evaporator (10, 95) and the condenser (20, 95); a vapor pipe (30, 97) connecting the evaporator (10, 95) and the condenser (20, 95), the vapor pipe (30, 97) forming a loop with the liquid pipe (40, 96); and an inlet port (90, 91) for injecting the working fluid into the liquid pipe (40, 96), the condenser (20, 95) or the vapor pipe (30, 97) before the inlet port (90, 91) is hermetically sealed, characterized in that the inlet port (90, 91) includes an unsealed part (90a, 91a) and a sealed part (90b, 91b) that connect to each other, the unsealed part (90a, 91a) and the sealed part (90b, 91b) respectively including a plurality of metal layers, the plurality of metal layers being a first outermost layer, a plurality of intermediate layers stacked on the first outermost layer, and a second outermost layer stacked on the plurality of intermediate layers, wherein each of the plurality of metal layers of the sealed part (90b, 91b) contacts one or more of other metal layers among the plurality of metal layers to hermetically seal the inlet port (90, 91, 92), and wherein the sealed part (90b, 91b) includes at least three regions (R1-R5) that are different in a number of interfaces of metal layers in a stacking direction of the plurality of metal layers, the at least three regions (R1-R5) being arranged in a direction perpendicular to the stacking direction.