mhurhangee/ep-ind-claims huggingface dataset:
A scanning imaging part, characterized in that the scanning imaging part comprises: a transparent body comprising a first face and a second face opposite to each other, wherein a closed liquid flow channel is defined in the transparent body adjacent to the first face, and an image sensor is arranged on the second face; a light blocking ink filled in the liquid flow channel and configured to block light incident from the first face; a charged liquid droplet arranged in the liquid flow channel, wherein the charged liquid droplet is transparent and insoluble with the light blocking ink, and is configured to transmit at least a part of the light incident from the first face through the charged liquid droplet and to the image sensor; and a microfluidic component arranged on the first face of the transparent body, and configured to drive the charged liquid droplet to move in the liquid flow channel, so that light incident from the first face is scanned via the charged liquid droplet and forms a scanning image by the image sensor. a transparent body comprising a first face and a second face opposite to each other, wherein a closed liquid flow channel is defined in the transparent body adjacent to the first face, and an image sensor is arranged on the second face; a light blocking ink filled in the liquid flow channel and configured to block light incident from the first face; a charged liquid droplet arranged in the liquid flow channel, wherein the charged liquid droplet is transparent and insoluble with the light blocking ink, and is configured to transmit at least a part of the light incident from the first face through the charged liquid droplet and to the image sensor; and a microfluidic component arranged on the first face of the transparent body, and configured to drive the charged liquid droplet to move in the liquid flow channel, so that light incident from the first face is scanned via the charged liquid droplet and forms a scanning image by the image sensor.
A method of assigning a spectrum and selecting a route for a connection between a source node and a destination node within an optical network, wherein a plurality of optical links connect the source node with the destination node, the method comprising: determining a spectrum demand for the connection; for each optical link, identifying, by a Path Computation Element, one or more potential spectrum allocations, for the connection, that satisfy the spectrum demand, wherein each of the one or more potential spectrum allocations has a width of the spectrum demand and starts with either a starting frequency (T START) or an end of a previously allocated spectrum; for each potential spectrum allocation, determining, by the Path Computation Element, a corresponding set of available optical links to obtain a residual graph that represents a residual capacity on each of the set of available optical links; generating, based on at least one residual graph, an auxiliary graph for identifying one or more feasible routes that connect the source node and the destination node, wherein the auxiliary graph comprises one or more layers, each layer corresponding to a respective residual graph; and selecting the route for the connection between the source node and the destination node, from the one or more feasible routes, based on the auxiliary graph. determining a spectrum demand for the connection; for each optical link, identifying, by a Path Computation Element, one or more potential spectrum allocations, for the connection, that satisfy the spectrum demand, wherein each of the one or more potential spectrum allocations has a width of the spectrum demand and starts with either a starting frequency (T START) or an end of a previously allocated spectrum; for each potential spectrum allocation, determining, by the Path Computation Element, a corresponding set of available optical links to obtain a residual graph that represents a residual capacity on each of the set of available optical links; generating, based on at least one residual graph, an auxiliary graph for identifying one or more feasible routes that connect the source node and the destination node, wherein the auxiliary graph comprises one or more layers, each layer corresponding to a respective residual graph; and selecting the route for the connection between the source node and the destination node, from the one or more feasible routes, based on the auxiliary graph.
An additive formulation for motor fuels comprising: from 10 to 30 vol% nitromethane, from 10 to 30 vol% nitroethane, from 40 to 60 vol% 1-nitropropane, from 2 to 8 vol% toluene, and from 1 to 3 vol% of an ester oil, wherein said ester oil does not contain tricresyl phosphate. from 10 to 30 vol% nitromethane, from 10 to 30 vol% nitroethane, from 40 to 60 vol% 1-nitropropane, from 2 to 8 vol% toluene, and from 1 to 3 vol% of an ester oil, wherein said ester oil does not contain tricresyl phosphate.
A method for producing a uranium nitride fuel comprising: a reaction represented by steps: exposing UF 6 gas to a nitrogen bearing salt at or near a cathode to produce U x N y, where x is an integer of 1 or 2 and y is an integer of 1 to 3; and converting U x N y to UN and nitrogen gas. exposing UF 6 gas to a nitrogen bearing salt at or near a cathode to produce U x N y, where x is an integer of 1 or 2 and y is an integer of 1 to 3; and converting U x N y to UN and nitrogen gas.
Air vent device for a vehicle comprising: - an air duct extending along a longitudinal axis, - an air outlet device extending at a downstream extreme part of the air duct and defining an outlet through which air circulating in the air duct exits the air vent device, said air outlet device extending according to a main axis and being movable relative to said air duct such that the direction of the air flow passing through the outlet can be controlled depending on the position of the air outlet device in the air duct, - an actuator fixedly attached to the air outlet device and arranged to move the air outlet device relative to the air duct, and - a closing element movable between an opened position, wherein air is allowed to circulate through the outlet, and a closed position, wherein the closing element prevents fluidic communication between the air duct and the outlet, the actuator being attached to the closing element and being movable in translation along the main axis relative to the air outlet device, said movement in translation causing the closing element to move between the opened and closed position, said closing element comprising at least one flexible membrane, characterized in that said flexible membrane is movable between a folded position, wherein the flexible membrane is folded around the main axis in the opened position of the closing element, and a deployed position, wherein the membrane extends radially in the air outlet device and seals the air outlet device in the closed position of the closing element. - an air duct extending along a longitudinal axis, - an air outlet device extending at a downstream extreme part of the air duct and defining an outlet through which air circulating in the air duct exits the air vent device, said air outlet device extending according to a main axis and being movable relative to said air duct such that the direction of the air flow passing through the outlet can be controlled depending on the position of the air outlet device in the air duct, - an actuator fixedly attached to the air outlet device and arranged to move the air outlet device relative to the air duct, and - a closing element movable between an opened position, wherein air is allowed to circulate through the outlet, and a closed position, wherein the closing element prevents fluidic communication between the air duct and the outlet, the actuator being attached to the closing element and being movable in translation along the main axis relative to the air outlet device, said movement in translation causing the closing element to move between the opened and closed position,
A personal care composition comprising a silicone fluid having pituitous rheological properties, wherein said silicone fluid comprises a highly branched organopolysiloxane prepared by reacting; a') an organohydrogencyclosiloxane having the formula [(CH 3)HSiO] g where g is 3 to 8, and, b') a vinyl terminated polydimethylsiloxane in a carrier fluid and in the presence of a hydrosilylation catalyst where the amount of a') and b') in the reaction is such to provide a molar ratio of vinyl to SiH of 0.9/1 to 1.2/1, and a solids content of at least 5 wt%. a') an organohydrogencyclosiloxane having the formula [(CH 3)HSiO] g where g is 3 to 8, and, b') a vinyl terminated polydimethylsiloxane
A method of placing skin-attached features on a computer generated character, the method comprising: defining a set of placement points on at least a portion of a skin surface of the computer generated character; characterised in that, for each placement point, defining a radius for the placement point; for each placement point, determining a density value for the placement point, wherein the density value is a sum of weighted overlaps with neighboring placement points within the radius of the placement point, wherein the weighted overlaps are functions of the radius of the placement point; and reducing the number of placement points in the set of placement points based on the density values. defining a set of placement points on at least a portion of a skin surface of the computer generated character; characterised in that, for each placement point, defining a radius for the placement point; for each placement point, determining a density value for the placement point, wherein the density value is a sum of weighted overlaps with neighboring placement points within the radius of the placement point, wherein the weighted overlaps are functions of the radius of the placement point; and reducing the number of placement points in the set of placement points based on the density values.
A medical device comprising: a first port configured to receive pulse-oximetry measurements (SpO 2) of a patient's peripheral arterial blood oxygen saturation during a first time period; a second port configured to receive breathing samples of the patient during a steady-state breathing of the patient during the first time period; and a control unit configured to: determine oxygen partial pressure measurements (P A O 2) using the breathing samples of the patient and an oxygen sensor; determine carbon dioxide partial pressure measurements (P A CO 2) using the breathing samples of the patient and a CO2 sensor; determine at least one of (a) an arterial oxygen partial pressure (P a O 2) and (b) an oxygen deficit (P A O 2 - P a O 2) of the patient using the pulse-oximetry measurements (SpO 2), the oxygen partial pressure measurements (P A O 2) and the carbon dioxide partial pressure measurements (P A CO 2) 356); generate one or more signals based on the determining of the at least one of the arterial oxygen partial pressure (P a O 2) and the oxygen deficit (P A O 2 - P a O 2) of the patient; and notify the patient or a caregiver of the patient of the one or more signals. a first port configured to receive pulse-oximetry measurements (SpO 2) of a patient's peripheral arterial blood oxygen saturation during a first time period; a second port configured to receive breathing samples of the patient during a steady-state breathing of the patient during the first time period; and a control unit configured to: determine oxygen partial pressure measurements (P A O 2) using the breathing samples of the patient and an oxygen sensor; determine carbon dioxide partial pressure measurements (P A CO 2) using the breathing samples of the patient and a CO2 sensor; determine at least one of (a) an arterial oxygen partial pressure (P a O 2) and (b) an oxygen deficit (P A O 2 - P a O 2) of the patient using the pulse-oximetry measurements (SpO 2), the oxygen partial pressure measurements (P A O 2) and the carbon dioxide partial pressure measurements (P A CO 2) 356); generate one or more signals based on the determining of the at least one of the arterial oxygen partial pressure (P a O 2) and the oxygen deficit (P A O 2 - P a O 2) of the patient; and notify the patient or a caregiver of the patient of the one or more signals. determine oxygen partial pressure measurements (P A O 2) using the breathing samples of the patient and an oxygen sensor; determine carbon dioxide partial pressure measurements (P A CO 2) using the breathing samples of the patient and a CO2 sensor; determine at least one of (a) an arterial oxygen partial pressure (P a O 2) and (b) an oxygen deficit (P A O 2 - P a O 2) of the patient using the pulse-oximetry measurements (SpO 2), the oxygen partial pressure measurements (P A O 2) and the carbon dioxide partial pressure measurements (P A CO 2) 356); generate one or more signals based on the determining of the at least one of the arterial oxygen partial pressure (P a O 2) and the oxygen deficit (P A O 2 - P a O 2) of the patient; and notify the patient or a caregiver of the patient of the one or more signals.
Process for the production of shaped parts having increased scratch resistance of the surface, improved dimensional accuracy and improved gloss of the surface, comprising the steps of: a) compounding of the compositions comprising components A) to E) for the production of granules of the thermoplastic composition consisting of A) 30.0 to 90.0 parts by wt. of at least one aromatic polycarbonate, B) 0.0 part by wt. to 50.0 parts by wt. of rubber-modified graft polymer and/or vinyl copolymer, C) 0.00 to 50.00 parts by wt. of polyester, D) 5.0 to 50.0 parts by wt. of at least one inorganic filler having a spherical grain shape, where the filler is quartz, E) 0.00 to 5.00 parts by wt. of further conventional additives, selected from the group of the flame retardants, the antidripping agents, the lubricants and mould-release agents, the nucleating agents, the dyes, pigments, UV stabilizers, heat stabilizers, hydrolysis stabilizers and antioxidants, where the sum of the parts by weight of components A) to E) gives a total of 100 parts by weight, b) injection moulding of the shaped parts from the granules produced in this way with dynamic mould temperature control. a) compounding of the compositions comprising components A) to E) for the production of granules of the thermoplastic composition consisting of A) 30.0 to 90.0 parts by wt. of at least one aromatic polycarbonate, B) 0.0 part by wt. to 50.0 parts by wt. of rubber-modified graft polymer and/or vinyl copolymer, C) 0.00 to 50.00 parts by wt. of polyester, D) 5.0 to 50.0 parts by wt. of at least one inorganic filler having a spherical grain shape, where the filler is quartz, E) 0.00 to 5.00 parts by wt. of further conventional additives, selected from the group of the flame retardants, the antidripping agents, the lubricants and mould-release agents, the nucleating agents, the dyes, pigments, UV stabilizers, heat stabilizers, hydrolysis stabilizers and antioxidants, where the sum of the parts by weight of components A) to E) gives a total of 100 parts by weight, A) 30.0 to 90.0 parts by wt. of at least one aromatic polycarbonate, B) 0.0 part by wt. to 50.0 parts by wt. of rubber-modified graft polymer and/or vinyl copolymer, C) 0.00 to 50.00 parts by wt. of polyester, D) 5.0 to 50.0 parts by wt. of at least one inorganic filler having a spherical grain shape, where the filler is quartz, E) 0.00 to 5.00 parts by wt. of further conventional additives, selected from the group of the flame retardants, the antidripping agents, the lubricants and mould-release agents, the nucleating agents, the dyes, pigments, UV stabilizers, heat stabilizers, hydrolysis stabilizers and antioxidants, b) injection moulding of the shaped parts from the granules produced in this way with dynamic mould temperature control.
A method, comprising: operating a telematics device coupled to an asset communications bus of an asset in a first mode in which the telematics device obtains asset data by sending request frames to the asset; determining, by a telematics server, that the telematics device must operate in a non-interfering mode in which the telematics device does not send request frames to the asset; sending, by the telematics server, to the telematics device, a command to cause the telematics device to operate in the non-interfering mode; and enabling the non-interfering mode, by the telematics device in response to receiving the command from the telematics server; wherein determining that the telematics device must operate in the non-interfering mode comprises: receiving, at the telematics server, a user input from an operator terminal, the user input comprising an indication that the telematics device must operate in the non-interfering mode; or determining, at the telematics server, that a location of the telematics device is within a zone defining a service center. operating a telematics device coupled to an asset communications bus of an asset in a first mode in which the telematics device obtains asset data by sending request frames to the asset; determining, by a telematics server, that the telematics device must operate in a non-interfering mode in which the telematics device does not send request frames to the asset; sending, by the telematics server, to the telematics device, a command to cause the telematics device to operate in the non-interfering mode; and enabling the non-interfering mode, by the telematics device in response to receiving the command from the telematics server; wherein determining that the telematics device must operate in the non-interfering mode comprises: receiving, at the telematics server, a user input from an operator terminal, the user input comprising an indication that the telematics device must operate in the non-interfering mode; or determining, at the telematics server, that a location of the telematics device is within a zone defining a service center. receiving, at the telematics server, a user input from an operator terminal, the user input comprising an indication that the telematics device must operate in the non-interfering mode; or determining, at the telematics server, that a location of the telematics device is within a zone defining a service center.
A nozzle for laser machining comprising a main body provided with a flange portion and formed in an annular shape, the main body comprising: a first communication hole extending through an upper end portion as a first end portion and a lower end portion as a second end portion around an axis of the nozzle along an up-down direction; a circumferential groove portion provided between the flange portion and the second end portion; and a plurality of second communication holes communicating between a surface of the flange portion on a first end portion side of the flange portion and a side surface (7a2) of the circumferential groove portion on the first end portion side of the circumferential groove portion, characterized in that an outer diameter of a side surface (7b1,7b2) of the circumferential groove portion on a second end portion side is larger than a diameter of a circumscribed circle of the plurality of second communication holes so that the plurality of second communication holes are invisible from the second end portion side, and the side surface of the circumferential groove portion on the second end portion side includes an inclined surface (7b2) tilted to the second end portion side toward outside in a radial direction. a first communication hole extending through an upper end portion as a first end portion and a lower end portion as a second end portion around an axis of the nozzle along an up-down direction; a circumferential groove portion provided between the flange portion and the second end portion; and a plurality of second communication holes communicating between a surface of the flange portion on a first end portion side of the flange portion and a side surface (7a2) of the circumferential groove portion on the first end portion side of the circumferential groove portion, characterized in that an outer diameter of a side surface (7b1,7b2) of the circumferential groove portion on a second end portion side is larger than a diameter of a circumscribed circle of the plurality of second communication holes so that the plurality of second communication holes are invisible from the second end portion side, and the side surface of the circumferential groove portion on the second end portion side includes an inclined surface (7b2) tilted to the second end portion side toward outside in a radial direction.
A method for operating a digital processor that includes a memory, a program sequencer and an execution unit, comprising: storing instructions of a code sequence in the memory; generating instruction addresses of the code sequence; determining if a virtual address associated with a current instruction belongs to first virtual address space or to a second virtual address space, wherein a first operating mode is associated with the first virtual address space and a second operating mode is associated with the second virtual address space; automatically switching between a first operating mode and a second operating mode in response to a transition in instruction addresses between the first virtual address space and the second virtual address space; accessing instructions from the memory and executing the accessed instructions of the code sequence, characterised in that the first virtual address space and the second virtual address space relate to first and second virtual pages, respectively, that alias to the same page of the physical memory. storing instructions of a code sequence in the memory; generating instruction addresses of the code sequence; determining if a virtual address associated with a current instruction belongs to first virtual address space or to a second virtual address space, wherein a first operating mode is associated with the first virtual address space and a second operating mode is associated with the second virtual address space; automatically switching between a first operating mode and a second operating mode in response to a transition in instruction addresses between the first virtual address space and the second virtual address space; accessing instructions from the memory and executing the accessed instructions of the code sequence, characterised in that the first virtual address space and the second virtual address space relate to first and second virtual pages, respectively, that alias to the same page of the physical memory.
Luminous device comprising: - at least two light sources (3a, 3b, 3c) of different colour, - a light guide comprising an entrance face and an exit face and configured to transmit the light rays generated by at least two light sources (3a, 3b, 3c) from its entrance face to its exit face, the, at least two, light sources (3a, 3b, 3c) being placed beside one another, the luminous device being characterized in that the light guide has a plurality of dog-legs (51, 52, 53) between its entrance face and its exit face and wherein the light guide comprises at least a first dog-leg making a first angle and having a first radius of curvature with respect to a first axis of curvature and a second dog-leg making a second angle and having a second radius of curvature with respect to a second axis of curvature, the first and second axes of curvature (Al, A2) being non-parallel. - at least two light sources (3a, 3b, 3c) of different colour, - a light guide comprising an entrance face and an exit face and configured to transmit the light rays generated by at least two light sources (3a, 3b, 3c) from its entrance face to its exit face,