mhurhangee/ep-ind-claims huggingface dataset:
A transition exit frame for supporting a transition duct in a gas turbine engine, comprising: at least one transition exit frame body having at least one transition duct body receiver for receiving a downstream end of at least one transition duct body; wherein the at least one transition exit frame body is formed from a first material having a first coefficient of thermal expansion; at least one transition exit frame insert forming at least a portion of the at least one transition exit frame body; and wherein the at least one transition exit frame insert is formed from a second material having a second coefficient of thermal expansion that is different than the first coefficient of thermal expansion of the first material to reduce distortion within the at least one transition exit frame body during operation of the gas turbine engine, characterized in that the at least one transition exit frame insert is formed from a circumferentially curved body to form at least a portion of a radially outer support beam of the at least one transition exit frame body, wherein the at least one transition exit frame insert forms at least one connection arm having at least one connection orifice therein. at least one transition exit frame body having at least one transition duct body receiver for receiving a downstream end of at least one transition duct body; wherein the at least one transition exit frame body is formed from a first material having a first coefficient of thermal expansion; at least one transition exit frame insert forming at least a portion of the at least one transition exit frame body; and wherein the at least one transition exit frame insert is formed from a second material having a second coefficient of thermal expansion that is different than the first coefficient of thermal expansion of the first material to reduce distortion within the at least one transition exit frame body during operation of the gas turbine engine, characterized in that the at least one transition exit frame insert is formed from a circumferentially curved body to form at least a portion of a radially outer support beam of the at least one transition exit frame body, wherein the at least one transition exit frame insert forms at least one connection arm having at least one connection orifice therein.
A method of predicting, determining and/or monitoring a risk of and/or progression towards Type 1 Diabetes (T1D) in an individual, the method comprising: a) determining a protein marker profile in a sample obtained from the individual, said profile comprising profilin-1 (PROF1) and filamin-A (FLNA), b) comparing the determined protein marker profile and a corresponding control profile, and c) responsive to the comparison, determining a prediction corresponding to a relative risk of the individual developing T1D or a stage of progression towards T1D. a) determining a protein marker profile in a sample obtained from the individual, said profile comprising profilin-1 (PROF1) and filamin-A (FLNA), b) comparing the determined protein marker profile and a corresponding control profile, and c) responsive to the comparison, determining a prediction corresponding to a relative risk of the individual developing T1D or a stage of progression towards T1D.
A porous ceramic body, comprising: an interconnected bead microstructure comprising: bead portions; bead connection portions, wherein adjacent bead portions are connected by the bead connection portions; a bead overlap of less than 0.2, bead overlap being fraction of radial interference between adjacent connected bead portions; and a porosity as a fraction in a range of 0.3 to 0.7; a permeability factor PQ > 0.025, wherein PQ is (K bulk)/(P·d 50 2), K bulk being bulk permeability in Darcy, and dso being the mean pore size in micrometers (μm); a tortuosity in a range of 1.8 to 3; and a median pore size diameter dso in a range of 10 μm to 25 μm. an interconnected bead microstructure comprising: bead portions; bead connection portions, wherein adjacent bead portions are connected by the bead connection portions; a bead overlap of less than 0.2, bead overlap being fraction of radial interference between adjacent connected bead portions; and bead portions; bead connection portions, wherein adjacent bead portions are connected by the bead connection portions; a bead overlap of less than 0.2, bead overlap being fraction of radial interference between adjacent connected bead portions; and a porosity as a fraction in a range of 0.3 to 0.7; a permeability factor PQ > 0.025, wherein PQ is (K bulk)/(P·d 50 2), K bulk being bulk permeability in Darcy, and dso being the mean pore size in micrometers (μm); a tortuosity in a range of 1.8 to 3; and a median pore size diameter dso in a range of 10 μm to 25 μm.
A method in a Next Generation Core Control Function NG-CCF, node for communication with a Next Generation Policy Control Function,NG-PCF, node, comprising: receiving, from a Next Generation-Radio Access Network,NG-RAN, request for a mobility policy for a Next Generation-User Equipment, NG-UE; transmitting, using a Gx interface, to the NG-PCF node a request for the mobility policy associated with one or more of Location-Based Service,LBS, Next Generation User Plane,NG-UP, selection, Radio Access Technology,RAT, / Frequency Selection Priority RFSP, selection and mobility preference information handling; receiving the mobility policy from the NG-PCF node; and transmitting, using said Gx interface, information on deployment of the mobility policy, including UE level information, to the NG-RAN; wherein the method further comprises: receiving, from the NG-PCF node using the Gx interface, a request to modify said mobility policy, wherein said request comprises a radio frequency selection priority and/or a mobility policy data comprising quota limits and subscription information for said NG-UE; transmitting, to the NG-RAN, information on deployment of the modified mobility policy, including UE level information; receiving, from the NG-RAN, a report regarding the deployment of the mobility policy; and forwarding, using said Gx interface, the report to the NG-PCF. receiving, from a Next Generation-Radio Access Network,NG-RAN, request for a mobility policy for a Next Generation-User Equipment, NG-UE; transmitting, using a Gx interface, to the NG-PCF node a request for the mobility policy associated with one or more of Location-Based Service,LBS, Next Generation User Plane,NG-UP, selection, Radio Access Technology,RAT, / Frequency Selection Priority RFSP, selection and mobility preference information handling; receiving the mobility policy from the NG-PCF node; and transmitting, using said Gx interface, information on deployment of the mobility policy, including UE level information, to the NG-RAN; receiving, from the NG-PCF node using the Gx interface, a request to modify said mobility policy, wherein said request comprises a radio frequency selection priority and/or a mobility policy data comprising quota limits and subscription information for said NG-UE; transmitting, to the NG-RAN, information on deployment of the modified mobility policy, including UE level information; receiving, from the NG-RAN, a report regarding the deployment of the mobility policy; and forwarding, using said Gx interface, the report to the NG-PCF.
A mounting structure for mounting a superconducting circuit board in a metal case, wherein the mounting structure comprises: a box-shaped metal case having a base portion and wall portions and a recess defined by the wall portions; a superconducting circuit board; and an electrically conductive sheet having thermal conductivity and exhibiting restorability and having the same size as the superconducting circuit board, wherein said electrically conductive sheet is laid on the base portion of the box-shaped metal case within the recess, the superconducting circuit board is placed on the electrically conductive sheet, and said superconducting circuit board and electrically conductive sheet are fastened together and attached to the box-shaped metal case by two or more screws (75a-75e), characterized in that another electrically conductive sheet exhibiting restorability and provided with holes at portions through which screws are passed is placed on peripheral top portions of the box-shaped metal case, a cover of the case is placed thereon, and the cover and sheet are fastened together by screws. a box-shaped metal case having a base portion and wall portions and a recess defined by the wall portions; a superconducting circuit board; and an electrically conductive sheet having thermal conductivity and exhibiting restorability and having the same size as the superconducting circuit board, wherein said electrically conductive sheet is laid on the base portion of the box-shaped metal case within the recess, the superconducting circuit board is placed on the electrically conductive sheet, and said superconducting circuit board and electrically conductive sheet are fastened together and attached to the box-shaped metal case by two or more screws (75a-75e), characterized in that another electrically conductive sheet exhibiting restorability and provided with holes at portions through which screws are passed is placed on peripheral top portions of the box-shaped metal case, a cover of the case is placed thereon, and the cover and sheet are fastened together by screws.
A cooling element comprising a cooling body, the cooling body comprising a first surface and a second surface, the first surface and the second surface being on the opposing sides of the body and the distance between the first and second surfaces defining the height of the cooling body, multiple of channels (2, 3) for cooling liquid arranged inside the cooling body, the channels extending in a longitudinal direction of the cooling body, wherein the channels are arranged in two layers in the direction of the height of the cooling body inside the cooling body and the cooling element is adapted to hold electronic components on the first surface and on the second surface for cooling electronic components on both surfaces, wherein channels of the separate layers of the cooling body are formed as upper and lower channels, whereby at least one of the upper channels is arranged to be in liquid communication to a lower channel at least in one position inside the cooling body, and wherein the cooling body comprises at least one upper channel which is open to a lower channel within the whole length of the channels, and an opening extending through the cooling body in the longitudinal direction of the cooling body, the opening being arranged between the at least one upper channel which is open to a lower channel and the mentioned lower channel, wherein the cooling body of the cooling element is formed of a profile that is consistent throughout the whole length of the body, the cooling element comprises at least one insert piece (31, 32) adapted to be inserted to the opening of the cooling body, and the at least one insert piece comprises at least one hole (33, 34, 35, 36), whereby the insert piece is adapted to separate the at least one upper channel from the lower channel and to provide liquid communication between the at least one upper channel and the lower channel through the at least one hole of the insert piece.
A nicotinamide mononucleotide derivative, or salt thereof, which is a compound represented by general formula: wherein, R 1 and R 2 respectively and independently represent an acyl group having 6 to 16 carbon atoms, the hydrocarbon group bound to the carbonyl carbon of the acyl group is a linear or branched, saturated or unsaturated hydrocarbon group.
A communication network (300, 400) with a plurality of sub-networks, wherein at least one sub-network comprises the following: a capsulated sub-sub-network which is arranged communication-technologically capsulated in the sub-network; a first network entity which is designed to perform a first network function of the sub-network, wherein the first network entity is arranged within the sub-sub-network; and a function manager which is designed to manage the performing of the first network function by the first network entity in the capsulated sub-sub-network, characterised in that the capsulated sub-sub-network comprises at least one interface (325, 326) which is designed to couple the capsulated sub-sub-network to the sub-network, wherein the communication-technological capsulation provides a communication from the sub-sub-network via the at least one interface (325, 326) of the sub-sub-network to the sub-network, but no communication with circumvention of the at least one interface (325, 326) of the sub-sub-network from the sub-sub-network to the sub-network. a capsulated sub-sub-network which is arranged communication-technologically capsulated in the sub-network; a first network entity which is designed to perform a first network function of the sub-network, wherein the first network entity is arranged within the sub-sub-network; and a function manager which is designed to manage the performing of the first network function by the first network entity in the capsulated sub-sub-network, characterised in that the capsulated sub-sub-network comprises at least one interface (325, 326) which is designed to couple the capsulated sub-sub-network to the sub-network, wherein the communication-technological capsulation provides a communication from the sub-sub-network via the at least one interface (325, 326) of the sub-sub-network to the sub-network, but no communication with circumvention of the at least one interface (325, 326) of the sub-sub-network from the sub-sub-network to the sub-network.
A method for testing solar cells or solar modules during or after their manufacture, in which - the solar cells or solar modules are subjected to an accelerated aging process by external influences in one or more consecutively conducted aging phases in a test chamber, and - a measurement of at least one parameter of the solar cells or solar modules is carried out in the test chamber in one or more measurement phases which lie between and/or at the end of the aging phases, which parameter may be used to quantify an aging of the solar cells or solar modules or of a component of the solar cells or solar modules, - wherein during the one or more measurement phases the solar cells or solar modules are irradiated exclusively with optical radiation of one or more first wavelength ranges having a spectral width of ≤ 200 nm, which are restricted with respect to a sensitive wavelength range of the solar cells or solar modules and in which an aging effect of interest of the solar cells or solar modules or of the component of the solar cells or solar modules can be demonstrated with extreme sensitivity using the measured parameter. - the solar cells or solar modules are subjected to an accelerated aging process by external influences in one or more consecutively conducted aging phases in a test chamber, and - a measurement of at least one parameter of the solar cells or solar modules is carried out in the test chamber in one or more measurement phases which lie between and/or at the end of the aging phases, which parameter may be used to quantify an aging of the solar cells or solar modules or of a component of the solar cells or solar modules, - wherein during the one or more measurement phases the solar cells or solar modules are irradiated exclusively with optical radiation of one or more first wavelength ranges having a spectral width of ≤ 200 nm, which are restricted with respect to a sensitive wavelength range of the solar cells or solar modules and in which an aging effect of interest of the solar cells or solar modules or of the component of the solar cells or solar modules can be demonstrated with extreme sensitivity using the measured parameter.
A method for reducing power consumption in a communication device (101, 800), the method comprising: receiving, by the communication device (101, 800), at least a portion of a packet; characterized that the method further comprises: determining a subset of components (106, 108, 110, 116) of the communication device (101, 800) for which to reduce power based, at least in part, on a length of the packet; and reducing the power to the subset of the components (106, 108, 110, 116) for a time period based, at least in part, on the length of the packet, wherein reducing the power to the subset of the components (106, 108, 110, 116) is based, at least in part, on a determination by the communication device (101, 800) that at least one condition selected from the group consisting of a mismatch between the Group ID or Partial AID in the packet and the identification of the communication device (101, 800), a mismatch between the destination address of the packet and the identification of the communication device (101, 800), the packet data cannot be verified, early termination of the packet, and early beacon termination, is fulfilled. receiving, by the communication device (101, 800), at least a portion of a packet; characterized that the method further comprises: determining a subset of components (106, 108, 110, 116) of the communication device (101, 800) for which to reduce power based, at least in part, on a length of the packet; and reducing the power to the subset of the components (106, 108, 110, 116) for a time period based, at least in part, on the length of the packet, wherein reducing the power to the subset of the components (106, 108, 110, 116) is based, at least in part, on a determination by the communication device (101, 800) that at least one condition selected from the group consisting of a mismatch between the Group ID or Partial AID in the packet and the identification of the communication device (101, 800), a mismatch between the destination address of the packet and the identification of the communication device (101, 800), the packet data cannot be verified, early termination of the packet, and early beacon termination, is fulfilled. determining a subset of components (106, 108, 110, 116) of the communication device (101, 800) for which to reduce power based, at least in part, on a length of the packet; and reducing the power to the subset of the components (106, 108, 110, 116) for a time period based, at least in part, on the length of the packet, wherein reducing the power to the subset of the components (106, 108, 110, 116) is based, at least in part, on a determination by the communication device (101, 800) that at least one condition selected from the group consisting of a mismatch between the Group ID or Partial AID in the packet and the identification of the communication device (101, 800), a mismatch between the destination address of the packet and the identification of the communication device (101, 800), the packet data cannot be verified, early termination of the packet, and early beacon termination, is fulfilled.
Flashlight with an optic and a light source consisting of at least one converter area with a luminescent substance, which is irradiated in the operating state by a laser in such a way that the luminescent substance emits incoherent light that is emitted by the optics as a light cone, characterized in that a selectable positioning of the converter area relative to the optics allows focusing or defocusing of the light cone.
A method performed by an apparatus within a first access node allocating user equipment processing capability, comprising: determining the user equipment processing capability; determining a first allocation of the user equipment processing capability for the first access node or a second allocation of the user equipment processing capability for a second access node when the user equipment is in communication with at least the first access node and the second access node, wherein the first allocation of the user equipment processing capability and the second allocation of the user equipment processing capability sum to equal a value that does not exceed the user equipment processing capability; and assigning resources for the user equipment based at least in part on the first allocation or the second allocation, wherein determining the first allocation of the user equipment processing capability comprises: determining that the user equipment is in communication with the first access node and the second access node; and negotiating with the second access node to determine the first allocation for the first access node and the second allocation for the second access node such that a total of the first allocation and the second allocation does not exceed the total user equipment processing capability. determining the user equipment processing capability; determining a first allocation of the user equipment processing capability for the first access node or a second allocation of the user equipment processing capability for a second access node when the user equipment is in communication with at least the first access node and the second access node, wherein the first allocation of the user equipment processing capability and the second allocation of the user equipment processing capability sum to equal a value that does not exceed the user equipment processing capability; and assigning resources for the user equipment based at least in part on the first allocation or the second allocation, wherein determining the first allocation of the user equipment processing capability comprises: determining that the user equipment is in communication with the first access node and the second access node; and negotiating with the second access node to determine the first allocation for the first access node and the second allocation for the second access node such that a total of the first allocation and the second allocation does not exceed the total user equipment processing capability. determining that the user equipment is in communication with the first access node and the second access node; and negotiating with the second access node to determine the first allocation for the first access node and the second allocation for the second access node such that a total of the first allocation and the second allocation does not exceed the total user equipment processing capability.