mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising means configured to perform: - generating a smart contract with information of a number of targeted devices to perform a software and/or configuration update, - providing the smart contract for a distributed ledger, wherein the smart contract comprises timing information to control radio activation settings in a targeted device, the timing information being indicative at least one of time by or at which the update needs to be carried out, time by or at which the update is to be fetched, time by or at which the update is cancelled if not performed before that, time or time period at which check if the number of targeted devices have indicated readiness to perform the update, and time or time period at which to activate radio for listening to or checking smart contract updates, - detecting an indication to the distributed ledger on readiness to perform the update by the number of targeted devices, initiating based on the indication to cause performing the update by the number of targeted devices, and - detecting another indication to the distributed ledger on performance of the update by the number of targeted devices. - generating a smart contract with information of a number of targeted devices to perform a software and/or configuration update, - providing the smart contract for a distributed ledger, wherein the smart contract comprises timing information to control radio activation settings in a targeted device, the timing information being indicative at least one of time by or at which the update needs to be carried out, time by or at which the update is to be fetched, time by or at which the update is cancelled if not performed before that, time or time period at which check if the number of targeted devices have indicated readiness to perform the update, and time or time period at which to activate radio for listening to or checking smart contract updates, - detecting an indication to the distributed ledger on readiness to perform the update by the number of targeted devices, initiating based on the indication to cause performing the update by the number of targeted devices, and - detecting another indication to the distributed ledger on performance of the update by the number of targeted devices.
A catheter kit comprising a urinary catheter (7, 51), a urine collecting bag and a container, the urinary catheter (7, 51) having a hydrophilic coating and comprising a tubular element having a proximal end and a distal end, the proximal end being provided with eyelets for letting urine enter into the urinary catheter, the distal end being provided with a handle (6, 30, 50) for handling the catheter, the urine collecting bag being connected to the handle (6, 30, 50), the container being adapted for storing the catheter and for containing a liquid swelling medium for wetting the hydrophilic coating on the catheter, the catheter kit further comprises a cover detachably attached to the container during storage for covering the catheter handle and the urine collecting bag, characterised in that the catheter kit further comprises sealing means, wherein - in a sealing configuration, flow is prevented between the catheter and the urine collecting bag and - in a flow configuration, flow is possible between the catheter and the urine collecting bag and wherein the sealing means is provided in the handle (6, 30, 50) or between the cover and the handle (6, 30, 50). - in a sealing configuration, flow is prevented between the catheter and the urine collecting bag and - in a flow configuration, flow is possible between the catheter and the urine collecting bag
A tyre (T, 1T) for adaptively adjusting to the tyre's (T, 1T) rolling conditions, the tyre (T, 1T) comprising first and second side walls (1, 2, 11, 12) with a contact wall (3, 13) extending therebetween and intended, in use, to contact a surface against which the tyre is rolling, said tyre further comprising a heater for heating one or more of the first side wall (1, 11), second side wall (2, 12) and contact wall (3, 13), wherein plural chambers (4, 5, 6, 15, 16) are defined within the tyre (T, 1T), at least one of the plural chambers (4, 5, 6, 15, 16) being selectively inflatable for altering the external shape of the first side wall (1, 11), second side wall (2, 12) and/or contact wall (3, 13).
A heat sink with distributed jet cooling, the heat sink comprising: a base for thermal connection to at least one heated object; an array of fins thermally coupled to the base, wherein the fins comprise pin fins or plate fins, the fins being arranged in a staggered configuration to provide a v-groove cooling configuration; and at least one multi-orifice synthetic jet or multiple single orifice jets disposed on a side (15, 16) of the array of fins, wherein at least a subset of the orfices are positioned to eject an ambient fluid directly on the fins, and wherein the ambient fluid is ejected perpendicular to a plane of the fins and a fan disposed on one of an inlet and an outlet side (21, 23) of the array of fins, the fan being configured to draw the ambient fluid through the fins, and wherein the ambient fluid drawn by the fan interacts with the ambient fluid ejected from the multi-orifice synthetic jets or multiple single orifice jets to further enhance the cooling at least ten percent (10%) relative to a jet-free condition. a base for thermal connection to at least one heated object; an array of fins thermally coupled to the base, wherein the fins comprise pin fins or plate fins, the fins being arranged in a staggered configuration to provide a v-groove cooling configuration; and at least one multi-orifice synthetic jet or multiple single orifice jets disposed on a side (15, 16) of the array of fins, wherein at least a subset of the orfices are positioned to eject an ambient fluid directly on the fins, and wherein the ambient fluid is ejected perpendicular to a plane of the fins and a fan disposed on one of an inlet and an outlet side (21, 23) of the array of fins, the fan being configured to draw the ambient fluid through the fins, and wherein the ambient fluid drawn by the fan interacts with the ambient fluid ejected from the multi-orifice synthetic jets or multiple single orifice jets to further enhance the cooling at least ten percent (10%) relative to a jet-free condition.
Surveillance equipment, comprising: - a surveillance tower comprising a telescopic post on the top of which surveillance devices are mounted, said surveillance devices comprising lighting devices, image acquisition devices (16, 18) and/or other sensors suitable for detecting the entrance or the presence of a person, object or animal within a predefined area; - electric and electronic power supply and control devices of the surveillance tower; - a cabin containing at least partially the lower segment of the telescopic post and said electric and electronic power supply and control devices, wherein said cabin comprises: - a support base for the surveillance tower and for the electric and electronic devices; - armoured side walls suitable to prevent access to the electric and electronic devices contained in the cabin; characterised in that the surveillance equipment is provided with lifting means suitable to cause a lifting of said armoured side walls from said support base so as to make the electric and electronic devices accessible, said lifting means being suitable for being controlled from outside the cabin. - a surveillance tower comprising a telescopic post on the top of which surveillance devices are mounted, said surveillance devices comprising lighting devices, image acquisition devices (16, 18) and/or other sensors suitable for detecting the entrance or the presence of a person, object or animal within a predefined area; - electric and electronic power supply and control devices of the surveillance tower; - a cabin containing at least partially the lower segment of the telescopic post and said electric and electronic power supply and control devices, wherein said cabin comprises: - a support base for the surveillance tower and for the electric and electronic devices; - armoured side walls suitable to prevent access to the electric and electronic devices contained in the cabin; characterised in that the surveillance equipment is provided with lifting means suitable to cause a lifting of said armoured side walls from said support base so as to make the electric and electronic devices accessible, said lifting means being suitable for being controlled from outside the cabin.
An optical semiconductor device comprising: a semiconductor thin film (4; 53a, 53b; 66) arranged on a substrate and having photoconductivity; and a pair of electrodes (5, 7, 10; 52a, 52b, 54; 71, 72, 74) arranged on the substrate and adapted to apply an electric field to a region inside of the semiconductor thin film (4; 53a, 53b; 66) in a direction approximately vertical to a front surface of the semiconductor thin film (4; 53a, 53b; 66), an optical waveguide (3; 42a, 42b; 51a, 51b) arranged on the substrate and adapted to guide an externally-incoming beam of light from a side surface of the substrate to a side surface of the semiconductor thin film (4; 53a, 53b; 66) such that the light is coupled to the region of the semiconductor thin film (4; 53a, 53b; 66) to which the electric field is to be applied, a transmission path for propagating an electromagnetic wave generated from the semiconductor thin film (4; 53a, 53b; 66), wherein the transmission path is arranged on the substrate; and the semiconductor thin film (4; 53a, 53b; 66) is adapted to receive the light in the region thereof to which the electric field is to be applied to generate the electromagnetic wave, characterized in that the transmission path is electrically connected to one of the electrodes (5, 7, 10; 52a, 52b, 54; 71, 72, 74), and the optical waveguide (3; 42a, 42b; 51a, 51b) is composed of an insulator, and the transmission path includes an insulator layer between the electrodes, the materials of the insulators of the optical waveguide and the transmission path are the same. a semiconductor thin film (4; 53a, 53b; 66) arranged on a substrate and having photoconductivity; and a pair of electrodes (5, 7, 10; 52a, 52b, 54; 71, 72, 74) arranged on the substrate and adapted to apply an electric field to a region inside of the semiconductor thin film (4; 53a, 53b; 66) in a direction approximately vertical to a front surface of the semiconductor thin film (4; 53a, 53b; 66), an optical waveguide (3; 42a, 42b; 51a, 51b) arranged on the substrate and adapted to guide an externally-incoming beam of light from a side surface of the substrate to a side surface of the semiconductor thin film (4; 53a, 53b; 66) such that the light is coupled to the region of the semiconductor thin film (4; 53a, 53b; 66) to which the electric field is to be applied, a transmission path for propagating an electromagnetic wave generated from the semiconductor thin film (4; 53a, 53b; 66), wherein the transmission path is arranged on the substrate; and the semiconductor thin film (4; 53a, 53b; 66) is adapted to receive the light in the region thereof to which the electric field is to be applied to generate the electromagnetic wave, characterized in that the transmission path is electrically connected to one of the electrodes (5, 7, 10; 52a, 52b, 54; 71, 72, 74), and the optical waveguide (3; 42a, 42b; 51a, 51b) is composed of an insulator, and the transmission path includes an insulator layer between the electrodes, the materials of the insulators of the optical waveguide and the transmission path are the same.
A method in a relay access point, AP, (120, 130) for timing a random access of a user equipment, UE, (150, 160) to the relay AP (120, 130) in a time division duplex, TDD, radio communication network, the relay AP (120,130) performing a self-backhaul over a backhaul link to a donor AP, the backhaul link and an random access link between the relay AP (120, 130) and the UE (150,160) sharing a same frequency resource, comprising: obtaining (210, 410) a first propagation delay information from the donor AP to the relay AP over the backhaul link; determining (220, 420) a timing advance offset for the UE to perform the random access at least based on the first propagation delay information; when the determined timing advance offset is larger than a length of a guard period for the UE at a downlink-to-uplink switching point, assigning a time period scheduled for transmitting at least one downlink subframe and/or uplink subframe next to the downlink-to-uplink switching point as additional guard period for the UE; and informing the UE of the assignment; and transmitting (230, 430) the timing advance offset to the UE. obtaining (210, 410) a first propagation delay information from the donor AP to the relay AP over the backhaul link; determining (220, 420) a timing advance offset for the UE to perform the random access at least based on the first propagation delay information; when the determined timing advance offset is larger than a length of a guard period for the UE at a downlink-to-uplink switching point, assigning a time period scheduled for transmitting at least one downlink subframe and/or uplink subframe next to the downlink-to-uplink switching point as additional guard period for the UE; and informing the UE of the assignment; and transmitting (230, 430) the timing advance offset to the UE.
An anodized decorative rolled product made of an aluminum alloy consisting of, in weight %, Mg: 0 - 1.5, Mn: 0 - 1.5, with Mg + Mn: 0.5 - 3, and wherein either Mn: 0.8 - 1.5 or Mg: 0.5 - 1.1 and Mn ≤ 0.2, Si: ≤ 0.6, Fe: ≤ 0.8, Ti: ≤ 0.1, Cu: ≤ 0.3, Cr: ≤ 0.1, Zn: ≤ 0.25, Zr: ≤ 0.1, other elements ≤ 0.05 each and ≤ 0.15 in total, remainder aluminium, wherein the rolled product has a porous anodic oxide film which is colored electrochemically or chemically and wherein the color of the decorative sheet is different if viewed at an incidence angle 0° and at an incidence angle of 45° and characterized in that the porous anodic oxide film is covered by a sol-gel coating preferably comprising silicon.
An implantable lens device, comprising a diffractive surface defining an optical axis, said diffractive surface comprising a relief pattern extending concentrically on said surface and having a sequence of annular concentric steps having alternating heights, wherein an innermost step of said relief pattern has a largest height among all other steps; wherein each annular concentric step has a primary surface, and a secondary surface, wherein said secondary surface is steeper than said primary surface, characterized in that said sequence of annular concentric steps is having varying widths of said secondary surfaces, such that no two steps have secondary surfaces with the same widths. wherein each annular concentric step has a primary surface, and a secondary surface, wherein said secondary surface is steeper than said primary surface, characterized in that said sequence of annular concentric steps is having varying widths of said secondary surfaces, such that no two steps have secondary surfaces with the same widths.
A method for controlling a flexible display of an electronic device, the method characterised by comprising: determining (302, 304), when a user input is made to data displayed on the flexible display, whether the data is displayed on a bent area included in the flexible display; calculating, when the data is displayed on the bent area, coordinates from the bent area and an angle of bending; reconfiguring the data displayed on the bent area with preset compensation, based on the angle of bending; and displaying the reconfigured data. determining (302, 304), when a user input is made to data displayed on the flexible display, whether the data is displayed on a bent area included in the flexible display; calculating, when the data is displayed on the bent area, coordinates from the bent area and an angle of bending; reconfiguring the data displayed on the bent area with preset compensation, based on the angle of bending; and displaying the reconfigured data.
A loop heat pipe comprising: an evaporator configured to evaporate working fluid; a condenser configured to condense the working fluid; a liquid pipe which connects the evaporator and the condenser and has a first pipe wall and a second pipe wall which is opposed to the first pipe wall; a porous body which is provided in the liquid pipe and is configured to guide the working fluid condensed by the condenser to the evaporator; a flow channel which is a space that is formed in the liquid pipe and guides the working fluid condensed by the condenser to the evaporator; and a vapor pipe which connects the evaporator and the condenser and forms a loop together with the liquid pipe, wherein the porous body is disposed to be in contact with the first pipe wall 142), characterized in that the liquid pipe has an injection inlet which is connected to the second pipe wall and through which the working fluid is injected. an evaporator configured to evaporate working fluid; a condenser configured to condense the working fluid; a liquid pipe which connects the evaporator and the condenser and has a first pipe wall and a second pipe wall which is opposed to the first pipe wall; a porous body which is provided in the liquid pipe and is configured to guide the working fluid condensed by the condenser to the evaporator; a flow channel which is a space that is formed in the liquid pipe and guides the working fluid condensed by the condenser to the evaporator; and a vapor pipe which connects the evaporator and the condenser and forms a loop together with the liquid pipe, wherein the porous body is disposed to be in contact with the first pipe wall 142), characterized in that the liquid pipe has an injection inlet which is connected to the second pipe wall and through which the working fluid is injected.
A pharmaceutical composition comprising: a compound of the formula: or a pharmaceutically acceptable salt thereof; a NS5B polymerase inhibitor; and a NS3 protease inhibitor. a compound of the formula: or a pharmaceutically acceptable salt thereof; a NS5B polymerase inhibitor; and a NS3 protease inhibitor.
A turbomachine, comprising: a compressor section; a combustor section; a turbine section; a compressor shaft at least partially disposed in the compressor section, the compressor shaft having a first rabbet annularly defined therein, the first rabbet including a first axially extending face (55, 66) and a first radially extending face; a turbine shaft at least partially disposed in the turbine section and coupled to the compressor shaft, the turbine shaft having a second rabbet annularly defined therein and positioned opposite the first rabbet, the second rabbet including a second axially extending face (57, 70) and a second radially extending face; and a patch ring mounted between the first rabbet and the second rabbet, wherein the patch ring includes a main body, a first arm extending radially outward from the main body, and a second arm extending radially inward from the main body, wherein the main body of the patch ring contacts the first axially extending face of the compressor shaft and the second axially extending face of the turbine shaft. a compressor section; a combustor section; a turbine section; a compressor shaft at least partially disposed in the compressor section, the compressor shaft having a first rabbet annularly defined therein, the first rabbet including a first axially extending face (55, 66) and a first radially extending face; a turbine shaft at least partially disposed in the turbine section and coupled to the compressor shaft, the turbine shaft having a second rabbet annularly defined therein and positioned opposite the first rabbet, the second rabbet including a second axially extending face (57, 70) and a second radially extending face; and a patch ring mounted between the first rabbet and the second rabbet, wherein the patch ring includes a main body, a first arm extending radially outward from the main body, and a second arm extending radially inward from the main body, wherein the main body of the patch ring contacts the first axially extending face of the compressor shaft and the second axially extending face of the turbine shaft.
An inkjet recording method using an actinic radiation-curable inkjet ink containing a coloring material, a photopolymerization initiator, and a photopolymerizable compound having a molecular weight within a range of 250 to 1,500, the method comprising: introducing the inkjet ink into a depressurized space inside an inkjet recording apparatus to degas the inkjet ink at an ink temperature of 50°C or higher to lower than 120°C; discharging ink droplets of the degassed inkjet ink from a recording head to land the ink droplets onto a recording medium; and irradiating the ink droplets landed on the recording medium with actinic radiation to cure the ink droplets, wherein the total amount of all photopolymerizable compounds having a molecular weight of less than 250 is less than 30 mass% based on a total mass of the inkjet ink. introducing the inkjet ink into a depressurized space inside an inkjet recording apparatus to degas the inkjet ink at an ink temperature of 50°C or higher to lower than 120°C; discharging ink droplets of the degassed inkjet ink from a recording head to land the ink droplets onto a recording medium; and irradiating the ink droplets landed on the recording medium with actinic radiation to cure the ink droplets, wherein the total amount of all photopolymerizable compounds having a molecular weight of less than 250 is less than 30 mass% based on a total mass of the inkjet ink.
A method for detecting frame types, comprising: obtaining a coding type of a bitstream comprising received frames, wherein the coding type comprises open-loop coding and closed-loop coding; wherein the received frames are encoded video frames; if a data amount of a current frame is larger than a first threshold, determining the current frame as an obvious intra coded frame, I-frame, wherein the first threshold is obtained by calculation according to an average data amount of a specified number of consecutive frames and the data amount of a previous I-frame of the specified number of consecutive frames; if the current frame is not an obvious I-frame and, if a frame received immediately previous to the current frame is an I-frame and the coding type is closed-loop coding or if the frame received immediately previous to the current frame is an I-frame and the coding type is open-loop coding and the data amount of the current frame is larger than a fourth threshold, determining the current frame as a unidirectional predicted frame, P-frame, wherein the fourth threshold is an average of an average data amount of P-frames and an average data amount of B-frames in a group of pictures; and if the current frame is neither an I-frame nor a P-frame, determining the current frame as a B-frame obtaining a coding type of a bitstream comprising received frames, wherein the coding type comprises open-loop coding and closed-loop coding; wherein the received frames are encoded video frames; if a data amount of a current frame is larger than a first threshold, determining the current frame as an obvious intra coded frame, I-frame, wherein the first threshold is obtained by calculation according to an average data amount of a specified number of consecutive frames and the data amount of a previous I-frame of the specified number of consecutive frames; if the current frame is not an obvious I-frame and, if a frame received immediately previous to the current frame is an I-frame and the coding type is closed-loop coding or if the frame received immediately previous to the current frame is an I-frame and the coding type is open-loop coding and the data amount of the current frame is larger than a fourth threshold, determining the current frame as a unidirectional predicted frame, P-frame, wherein the fourth threshold is an average of an average data amount of P-frames and an average data amount of B-frames in a group of pictures; and if the current frame is neither an I-frame nor a P-frame, determining the current frame as a B-frame