mhurhangee/patent-ind-claim-en huggingface dataset:
Method for transmitting data between at least two nodes of a network, each one of said nodes being attached to at least one IP environment, known as the source environment of said node, said method comprising: - a step of assigning, to at least one user agent included in one (NA) of said nodes, a fake address in an IP environment other than the source environment of this node (NA), and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node (NB), characterized in that said presenting step is executed by said user agent in at least one message of invitation to enter into communication with said remote node (NB). - a step of assigning, to at least one user agent included in one (NA) of said nodes, a fake address in an IP environment other than the source environment of this node (NA), and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node (NB), characterized in that said presenting step is executed by said user agent in at least one message of invitation to enter into communication with said remote node (NB).
A multilayer structure of the semiconductor-on-insulator type, comprising in succession from a rear face to a front face of the structure: - a semiconductor support substrate having an electrical resistivity of between 500 Ω.cm and 30 kΩ.cm, - a first electrically insulating layer , - an intermediate layer (I), - a second electrically insulating layer , which has a thickness less than that of the first electrically insulating layer , - a semiconductor active layer , - at least one FD-SOI type region, in which the interlayer (I) is a semiconductor layer , - at least one RF-SOI type region, adjacent to the FD-SOI type region, in which the interlayer (I) is a third electrically insulating layer , said RF-SOI type region comprising at least one radio frequency component plumb with the third electrically insulating layer . - a semiconductor support substrate having an electrical resistivity of between 500 Ω.cm and 30 kΩ.cm, - a first electrically insulating layer , - an intermediate layer (I), - a second electrically insulating layer , which has a thickness less than that of the first electrically insulating layer , - a semiconductor active layer , - at least one FD-SOI type region, in which the interlayer (I) is a semiconductor layer , - at least one RF-SOI type region, adjacent to the FD-SOI type region, in which the interlayer (I) is a third electrically insulating layer , said RF-SOI type region comprising at least one radio frequency component plumb with the third electrically insulating layer .
A method for non-invasively determining an instantaneous wave-free ratio metric by a data analyzer , comprising: receiving electronically formatted image data generated by an imaging system during a wave-free period of diastole, wherein the image data includes voxels with intensities representative of a vessel with a stenosis; computing peripheral resistances of outlets of the vessel from the image data; calculating a stenosis resistance of the stenosis between an inlet of the vessel and the outlets of the vessel based on a set of boundary conditions and a computational fluid dynamics algorithm and the peripheral resistances; and calculating the instantaneous wave-free ratio metric, wherein the metric is a numerical value, based on the stenosis resistance and generating a signal indicative of the calculated instantaneous wave-free ratio metric. receiving electronically formatted image data generated by an imaging system during a wave-free period of diastole, wherein the image data includes voxels with intensities representative of a vessel with a stenosis; computing peripheral resistances of outlets of the vessel from the image data; calculating a stenosis resistance of the stenosis between an inlet of the vessel and the outlets of the vessel based on a set of boundary conditions and a computational fluid dynamics algorithm and the peripheral resistances; and calculating the instantaneous wave-free ratio metric, wherein the metric is a numerical value, based on the stenosis resistance and generating a signal indicative of the calculated instantaneous wave-free ratio metric.
A fire protection system for an enclosure , comprising: an inert agent supply source configured to discharge an inert agent following a discharge of a primary agent in the enclosure; a gas detector configured to determine a gas concentration level in the enclosure; and a controller connected with the inert agent supply source and the gas detector and configured to regulate the discharge of the inert agent into the enclosure based at least partially upon the gas concentration level; wherein the primary agent is a fire suppression agent selected from the group consisting of HFC-227e, HFC-125, FK-5-1-12 and IG-541; and wherein the inert agent is any inert gas agent containing nitrogen, argon, carbon dioxide, and/or any mixture that includes one or more of those gases; characterized in that : the gas detector is an oxygen level detector configured to determine an oxygen concentration level in the enclosure ; and the controller is configured to initiate discharge of the inert agent when the oxygen concentration level exceeds a predetermined oxygen concentration level threshold. an inert agent supply source configured to discharge an inert agent following a discharge of a primary agent in the enclosure; a gas detector configured to determine a gas concentration level in the enclosure; and a controller connected with the inert agent supply source and the gas detector and configured to regulate the discharge of the inert agent into the enclosure based at least partially upon the gas concentration level; wherein the primary agent is a fire suppression agent selected from the group consisting of HFC-227e, HFC-125, FK-5-1-12 and IG-541; and wherein the inert agent is any inert gas agent containing nitrogen, argon, carbon dioxide, and/or any mixture that includes one or more of those gases; characterized in that : the gas detector is an oxygen level detector configured to determine an oxygen concentration level in the enclosure ; and the controller is configured to initiate discharge of the inert agent when the oxygen concentration level exceeds a predetermined oxygen concentration level threshold. the gas detector is an oxygen level detector configured to determine an oxygen concentration level in the enclosure ; and the controller is configured to initiate discharge of the inert agent when the oxygen concentration level exceeds a predetermined oxygen concentration level threshold.
A method comprising: changing a power state of a first sensor from a sleep-mode state to an operational state in response to an electrical digital signal received from a second sensor in a low-observability state, wherein the first and second sensors are integrated or at least supported by the mobile device and the mobile device comprises a memory ; processing one or more electrical digital signals received from each of the first and second sensors by correlating said electrical digital signals with a pre-defined signal pattern or signature representing a gesture of a user; inferring, in response to said processing said electrical digital signals, a likelihood of a user executing one or more applications and/or functions on said mobile device ; and electronically pre-fetching information in connection with said executing said one or more applications and/or functions on said mobile device based, at least in part, on said likelihood. changing a power state of a first sensor from a sleep-mode state to an operational state in response to an electrical digital signal received from a second sensor in a low-observability state, wherein the first and second sensors are integrated or at least supported by the mobile device and the mobile device comprises a memory ; processing one or more electrical digital signals received from each of the first and second sensors by correlating said electrical digital signals with a pre-defined signal pattern or signature representing a gesture of a user; inferring, in response to said processing said electrical digital signals, a likelihood of a user executing one or more applications and/or functions on said mobile device ; and electronically pre-fetching information in connection with said executing said one or more applications and/or functions on said mobile device based, at least in part, on said likelihood.
Method of producing a chocolate moulded body as a filling layer for a combined long-life baked product , comprising the steps: provision of a chocolate portion on a carrier device , shaping the chocolate portion into the chocolate moulded body forming an outer contour of the filling layer by means of a first moulding tool and a second moulding tool , wherein a shape of a circumference of the chocolate moulded body is defined by the first moulding tool and a shape of a cavity of the chocolate moulded body is defined by the second moulding tool , wherein an inner space of the cavity is filled in at least one following work step. provision of a chocolate portion on a carrier device , shaping the chocolate portion into the chocolate moulded body forming an outer contour of the filling layer by means of a first moulding tool and a second moulding tool , wherein a shape of a circumference of the chocolate moulded body is defined by the first moulding tool and a shape of a cavity of the chocolate moulded body is defined by the second moulding tool , wherein an inner space of the cavity is filled in at least one following work step.
Flow rate detector for determining the amount of a liquid flowing through a line, comprising: a connecting piece with an inlet connector and an outlet connector which can be connected to the line; a measuring capsule with a round measuring capsule housing made from metal and a measuring channel , wherein the inlet of the measuring channel is connected to the inlet connector and the outlet of the measuring channel is connected to the outlet connector, so that the liquid volume to be measured flows through the measuring channel; an ultrasonic measuring section which extends through the measuring channel and has two ultrasonic transducers that are arranged at the beginning and the end of the measuring channel and send and/or receive ultrasonic signals into the ultrasonic measuring section; deflecting mirrors arranged along the measuring channel that are inclined at an angle to each other in such manner that the ultrasonic signals emitted by the first ultrasonic transducer are reflected towards the second ultrasonic transducer via the deflecting mirrors and/or in the opposite direction back towards the first ultrasonic transducer; characterized in that a measuring chamber insert made from a plastic that absorbs ultrasound is arranged coaxially inside the measuring capsule housing ; the measuring channel is conformed inside the measuring chamber insert ; the outer wall of the measuring chamber insert has radial openings ; flat reflecting surfaces are conformed on the inner wall of the measuring capsule housing , wherein the flat reflecting surfaces close the radial openings of the measuring chamber insert. a connecting piece with an inlet connector and an outlet connector which can be connected to the line; a measuring capsule with a round measuring capsule housing made from metal and a measuring channel , wherein the inlet of the measuring channel is connected to the inlet connector and the outlet of the measuring channel is connected to the outlet connector, so that the liquid volume to be measured flows through the measuring channel; an ultrasonic measuring section which extends through the measuring channel and has two ultrasonic transducers that are arranged at the beginning and the end of the measuring channel and send and/or receive ultrasonic signals into the ultrasonic measuring section; deflecting mirrors arranged along the measuring channel that are inclined at an angle to each other in such manner that the ultrasonic signals emitted by the first ultrasonic transducer are reflected towards the second ultrasonic transducer via the deflecting mirrors and/or in the opposite direction back towards the first ultrasonic transducer; characterized in that a measuring chamber insert made from a plastic that absorbs ultrasound is arranged coaxially inside the measuring capsule housing ; the measuring channel is conformed inside the measuring chamber insert ; the outer wall of the measuring chamber insert has radial openings ; flat reflecting surfaces are conformed on the inner wall of the measuring capsule housing , wherein the flat reflecting surfaces close the radial openings of the measuring chamber insert.
A resin composition comprising: a maleimide compound (A) represented by the following formula ; and a cyanate compound (B), wherein R each independently represents an unsubstituted or substituted monovalent hydrocarbon group having 1 to 12 carbon atoms, a proportion of R representing a methyl group, among all R, is 50 mol% or more, and n represents an integer of 0 to 2. a maleimide compound (A) represented by the following formula ; and a cyanate compound (B), wherein R each independently represents an unsubstituted or substituted monovalent hydrocarbon group having 1 to 12 carbon atoms, a proportion of R representing a methyl group, among all R, is 50 mol% or more, and n represents an integer of 0 to 2.
A ramp positioning system for a ship with at least one ramp for transporting cargo onto the ship wherein the ramp is arranged to be set in a closed position and a deployed position, wherein the ramp positioning system comprises: - at least one sensor adapted to be mounted so as to have a view of a safety zone of an actual landing area of the ramp and at least one reference position on the ship and that the sensor is adapted to provide data for building a representation of the safety zone , wherein the size of the safety zone is set to be the ramp dimensions plus a distance D; - a processing circuitry comprising at least one processor , at least one memory arranged to store instructions sets executable by the processor, and at least one sensor interface , wherein the at least one processor is arranged to execute the instructions sets to: • acquire sensor data via the sensor interface from the at least one sensor ; • build a representation of the safety zone using the sensor data; and • provide a model of the ramp for predicting the position of the ramp when deployed by comparing the position of the model of the ramp with the representation of the safety zone . - at least one sensor adapted to be mounted so as to have a view of a safety zone of an actual landing area of the ramp and at least one reference position on the ship and that the sensor is adapted to provide data for building a representation of the safety zone , wherein the size of the safety zone is set to be the ramp dimensions plus a distance D; - a processing circuitry comprising at least one processor , at least one memory arranged to store instructions sets executable by the processor, and at least one sensor interface , wherein the at least one processor is arranged to execute the instructions sets to: • acquire sensor data via the sensor interface from the at least one sensor ; • build a representation of the safety zone using the sensor data; and • provide a model of the ramp for predicting the position of the ramp when deployed by comparing the position of the model of the ramp with the representation of the safety zone . • acquire sensor data via the sensor interface from the at least one sensor ; • build a representation of the safety zone using the sensor data; and • provide a model of the ramp for predicting the position of the ramp when deployed by comparing the position of the model of the ramp with the representation of the safety zone .
Use of a particulate inhibiting additive composition to inhibit particulate formation above the cloud point in a fuel oil composition comprising bio-diesel or a blend of bio-diesel and a petroleum based component; wherein the particulate inhibiting additive composition comprises one or more of Agglomeration Retarders and Particulate Dispersants; wherein said Agglomeration Retarders are prepared from monomers selected from the group consisting of monomers represented by general formulas I and II: wherein: R = a hydrogen atom, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms; R 1 = H, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms; R 2 = a hydrogen atom, or an optionally substituted C 1-8 alkyl group; and R 3 = a hydrogen atom, or an optionally substituted C 1-8 alkyl group; or R 2 and R 3 together with the connected carbon atom represent an optionally substituted cycloalkyl or cycloalkylene ring having 5-20 carbon ring atoms; wherein: R = a hydrogen atom, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms R', R" = a hydrogen atom or an optionally substituted, C 1-8 alkyl group R 1 = H, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms x = between 0 - 5 n = between 1 and 100; and wherein said Particulate Dispersant is selected from the group consisting of: (i) substituted amines (ii) acylated nitrogen compounds, and (iii) nitrogen-containing condensates of phenol and an aldehyde. R = a hydrogen atom, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms; R 1 = H, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms; R 2 = a hydrogen atom, or an optionally substituted C 1-8 alkyl group; and R 3 = a hydrogen atom, or an optionally substituted C 1-8 alkyl group; or R = a hydrogen atom, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms R', R" = a hydrogen atom or an optionally substituted, C 1-8 alkyl group R 1 = H, or an optionally substituted hydrocarbon group having from 1 to 30 carbon atoms x = between 0 - 5 n = between 1 and 100; and wherein said Particulate Dispersant is selected from the group consisting of: (i) substituted amines (ii) acylated nitrogen compounds, and (iii) nitrogen-containing condensates of phenol and an aldehyde. (i) substituted amines (ii) acylated nitrogen compounds, and (iii) nitrogen-containing condensates of phenol and an aldehyde.
A translucent substrate comprising: a glass substrate containing at least one element selected from a group consisting of Bi, Ti and Sn; a coating layer formed on the glass substrate; and a transparent conductive film formed on the coating layer, characterised in that the coating layer is deposited by a dry depositing method, and in that the degree of oxidation of the transparent conductive film is higher at a side near to the glass substrate than at a side far from the glass substrate. a glass substrate containing at least one element selected from a group consisting of Bi, Ti and Sn; a coating layer formed on the glass substrate; and a transparent conductive film formed on the coating layer, characterised in that the coating layer is deposited by a dry depositing method, and in that the degree of oxidation of the transparent conductive film is higher at a side near to the glass substrate than at a side far from the glass substrate.
A handle for a razor cartridge , the handle comprising: a head having a cartridge engaging end and an attachment end ; a body formed of a first material and having a front end and a rear end , wherein the body defines a hollow interior and the front end is coupled with the attachment end ; a rod formed of a second material and disposed in the hollow interior of the body , the rod defining a centerline (C2); and a cover layer at least partially surrounding the body , wherein the rod is spaced from the attachment end of the head along the centerline (C2), characterized in that the body comprises a first shell and a second shell that are releasably coupled together and the first shell and the second shell cooperate to form a seam that is substantially parallel with the centerline (C2) of the rod . a head having a cartridge engaging end and an attachment end ; a body formed of a first material and having a front end and a rear end , wherein the body defines a hollow interior and the front end is coupled with the attachment end ; a rod formed of a second material and disposed in the hollow interior of the body , the rod defining a centerline (C2); and a cover layer at least partially surrounding the body , wherein the rod is spaced from the attachment end of the head along the centerline (C2), characterized in that the body comprises a first shell and a second shell that are releasably coupled together and the first shell and the second shell cooperate to form a seam that is substantially parallel with the centerline (C2) of the rod .
Fire extinguishing drill , comprising: - a tool holder configured for receiving a tool or for connecting to a tool, - a fluid connection configured for supplying a fluid; - a turbine having an impeller comprising at least one stage of a plurality of impeller blades and connected to or connectable to the tool holder , to rotatingly and/or impactingly drive the same in a driving mode using the fluid supplied via the fluid connection as drive fluid; - at least one discharge opening formed in a stationary wall of the fire extinguishing drill and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine , and forming a first flow path sized to deliver the fluid used as the working fluid for operating the turbine in the drive mode to a vicinity of the fire extinguishing drill , and/or a nozzle assembly having one or more nozzles formed in a stationary wall of the fire extinguishing drill for delivering the fluid, and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine to form a preferably second flow path in a fire extinguishing mode, to deliver the fluid into a space surrounding the fire extinguishing drill as a fire extinguishing fluid after it has passed through the turbine , - wherein the turbine is an axial turbine or a pipe turbine and the fluid connection provides an axial inflow of the fluid into the fire extinguishing drill . - a tool holder configured for receiving a tool or for connecting to a tool, - a fluid connection configured for supplying a fluid; - a turbine having an impeller comprising at least one stage of a plurality of impeller blades and connected to or connectable to the tool holder , to rotatingly and/or impactingly drive the same in a driving mode using the fluid supplied via the fluid connection as drive fluid; - at least one discharge opening formed in a stationary wall of the fire extinguishing drill and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine , and forming a first flow path sized to deliver the fluid used as the working fluid for operating the turbine in the drive mode to a vicinity of the fire extinguishing drill , and/or a nozzle assembly having one or more nozzles formed in a stationary wall of the fire extinguishing drill for delivering the fluid, and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine to form a preferably second flow path in a fire extinguishing mode, to deliver the fluid into a space surrounding the fire extinguishing drill as a fire extinguishing fluid after it has passed through the turbine , - wherein the turbine is an axial turbine or a pipe turbine and the fluid connection provides an axial inflow of the fluid into the fire extinguishing drill .