mhurhangee/patent-ind-claim-en huggingface dataset:
Method for an authorized issuing of an authentication token for a device , comprising - requesting the authentication token for the device by sending a request message (CSReq) and at least one authentication parameter to an authorization apparatus , wherein the at least one authentication parameter is generated depending on a private key related to a pre-installed digital certificate of the device , - verifying authenticity of the request message using the authentication parameter, - verifying authorization of the request message by comparing information on the device obtained with the request message in the authorization apparatus with context information for the device stored in a database , wherein the context information for the device is at least one of identification information, organizational information, application information or status information of the device, and - on success of the verification of the authenticity and the authorization of the request message, authorizing the issuing of the requested authentication token, wherein the requested authentication token is a new digital certificate. - requesting the authentication token for the device by sending a request message (CSReq) and at least one authentication parameter to an authorization apparatus , wherein the at least one authentication parameter is generated depending on a private key related to a pre-installed digital certificate of the device , - verifying authenticity of the request message using the authentication parameter, - verifying authorization of the request message by comparing information on the device obtained with the request message in the authorization apparatus with context information for the device stored in a database , wherein the context information for the device is at least one of identification information, organizational information, application information or status information of the device, and - on success of the verification of the authenticity and the authorization of the request message, authorizing the issuing of the requested authentication token, wherein the requested authentication token is a new digital certificate.
A system for monitoring blood distribution in a subject, the system comprising: an input for receiving Doppler ultrasound data representing arterial blood flow in at least two different locations of the subject; a processor adapted to: determine a predetermined function of the arterial blood flows (C, B1, B2, B3) at the locations; and monitor changes in the predetermined function; and an output for providing blood distribution information based on the monitored changes, wherein the two locations of the subject are at substantially different distances from the heart, preferably at the carotid artery and at a brachial, femoral or radial artery. an input for receiving Doppler ultrasound data representing arterial blood flow in at least two different locations of the subject; a processor adapted to: determine a predetermined function of the arterial blood flows (C, B1, B2, B3) at the locations; and monitor changes in the predetermined function; and determine a predetermined function of the arterial blood flows (C, B1, B2, B3) at the locations; and monitor changes in the predetermined function; and an output for providing blood distribution information based on the monitored changes, wherein the two locations of the subject are at substantially different distances from the heart, preferably at the carotid artery and at a brachial, femoral or radial artery.
A protective circuit to be used in a digital output module, the digital output module comprises a first voltage source (S1) and at least an output terminal (OUT), wherein the protective circuit comprising: a first sampling unit configured to sample a first voltage relevant to a output current from the first voltage source (S1); a first comparing unit configured to compare the sampled first voltage with a first reference voltage (Vref1); a control unit configured to generate a current regulating signal based on a result from the first comparing unit , and a current regulating unit configured to regulate the output current from the first voltage source (S1) based on the current regulating signal, characterized in that the current regulating unit comprises a first transistor (Q1) having a base junction, an emitter junction and a collector junction, the first transistor (Q1) is configured to be conductive under a low level on the base junction which is lower than a cut-off voltage, and wherein the collector junction of the first transistor (Q1) is configured to be connected to one of the at least an output terminal (OUT), the base junction of the first transistor (Q1) is connected to the control unit , and the emitter junction of the first transistor (Q1) is connected to the sampling unit . a first sampling unit configured to sample a first voltage relevant to a output current from the first voltage source (S1); a first comparing unit configured to compare the sampled first voltage with a first reference voltage (Vref1); a control unit configured to generate a current regulating signal based on a result from the first comparing unit , and a current regulating unit configured to regulate the output current from the first voltage source (S1) based on the current regulating signal, characterized in that the current regulating unit comprises a first transistor (Q1) having a base junction, an emitter junction and a collector junction, the first transistor (Q1) is configured to be conductive under a low level on the base junction which is lower than a cut-off voltage, and wherein the collector junction of the first transistor (Q1) is configured to be connected to one of the at least an output terminal (OUT), the base junction of the first transistor (Q1) is connected to the control unit , and the emitter junction of the first transistor (Q1) is connected to the sampling unit .
A sheet stacker (1; 200) comprising : • A sheet flipping device (2; 202) for flipping a received sheet (S) around a flipping axis with respect to an orientation wherein the sheet (S) was received; • A support device (20; 220) for supporting a surface of the sheet (S) facing the flipping axis during the flipping of the sheet (S), • characterized in that the support device (20; 220) comprises a plurality of flexible finger elements (21; 221, 222, 223) of different length, each configured to support a different inner area of the sheet (S) during its flipping motion. • A sheet flipping device (2; 202) for flipping a received sheet (S) around a flipping axis with respect to an orientation wherein the sheet (S) was received; • A support device (20; 220) for supporting a surface of the sheet (S) facing the flipping axis during the flipping of the sheet (S), • characterized in that the support device (20; 220) comprises a plurality of flexible finger elements (21; 221, 222, 223) of different length, each configured to support a different inner area of the sheet (S) during its flipping motion.
System comprising a submarine , a console , at least three fixing bolts and a transport container , wherein the console can be connected to the submarine , wherein the transport container can be connected to the console , wherein the console can be connected to the submarine via at least three fixing bolts , wherein the submarine has at least three bushes for receiving the fixing bolts , wherein the fixing bolts have a double eccentric, wherein the double eccentric enables a translational movement of the fixing bolt parallel to the surface of the submarine .
A method for managing a part , the method comprising: identifying, by a computer system , parameters for the part from a computer aided design model of the part, wherein the parameters include dimensions for the part and parameters relating to suitable machining techniques; identifying, by the computer system , a number of additional parameters used in manufacturing the part from a preform , wherein the number of additional parameters includes offsets, excesses, or combination thereof needed for machining the preform to form the part, wherein the number of additional parameters further includes a substrate location, a substrate thickness, a material density needed for generating a preform design to be processed to form the part; automatically generating, by the computer system , a preform design for the preform using the parameters for the part and the number of additional parameters ; determining whether the preform design meets a number of desired goals corresponding to a feasibility and cost for additive manufacturing of the preform and a feasibility and cost of machining the preform to form the part; changing values of the additional parameters and repeating identifying, by the computer system , the number of additional parameters for manufacturing the part from the preform until the preform design meets the number of desired goals and automatically generating, by the computer system , the preform design for the preform using the parameters for the part and the number of additional parameters for manufacturing the part from the preform . identifying, by a computer system , parameters for the part from a computer aided design model of the part, wherein the parameters include dimensions for the part and parameters relating to suitable machining techniques; identifying, by the computer system , a number of additional parameters used in manufacturing the part from a preform , wherein the number of additional parameters includes offsets, excesses, or combination thereof needed for machining the preform to form the part, wherein the number of additional parameters further includes a substrate location, a substrate thickness, a material density needed for generating a preform design to be processed to form the part; automatically generating, by the computer system , a preform design for the preform using the parameters for the part and the number of additional parameters ; determining whether the preform design meets a number of desired goals corresponding to a feasibility and cost for additive manufacturing of the preform and a feasibility and cost of machining the preform to form the part; changing values of the additional parameters and repeating identifying, by the computer system , the number of additional parameters for manufacturing the part from the preform until the preform design meets the number of desired goals and automatically generating, by the computer system , the preform design for the preform using the parameters for the part and the number of additional parameters for manufacturing the part from the preform .
A method, performed by a Framework for Live uplink Streaming, FLUS, source control entity, for controlling delivery of media from a FLUS media source to a FLUS media sink over a FLUS control plane, wherein the FLUS source control entity is part of a FLUS media source that is subdivided into a FLUS source media entity and the FLUS source control entity, the method comprising the FLUS source control entity sending an indication of availability for streaming a FLUS media session over a FLUS user plane; the FLUS source control entity establishing connections with plurality of controller nodes including a first controller node; the FLUS source control entity receiving a first command from the first controller node targeted to a camera associated with the FLUS media source; and the FLUS source control entity relaying the first command to the camera; the FLUS source control entity establishing connections with a second controller node from the plurality of controller nodes, the FLUS source control entity receiving a second command from the second controller node targeted to an encoding process used at the FLUS media source for the same FLUS media session, the FLUS source control entity relaying the second command to the FLUS media source. a FLUS media source to a FLUS media sink over a FLUS control plane, wherein the FLUS source control entity is part of a FLUS media source that is subdivided into a FLUS source media entity and the FLUS source control entity, the method comprising the FLUS source control entity sending an indication of availability for streaming a FLUS media session over a FLUS user plane; the FLUS source control entity establishing connections with plurality of controller nodes including a first controller node; the FLUS source control entity receiving a first command from the first controller node targeted to a camera associated with the FLUS media source; and the FLUS source control entity relaying the first command to the camera; the FLUS source control entity establishing connections with a second controller node from the plurality of controller nodes, the FLUS source control entity receiving a second command from the second controller node targeted to an encoding process used at the FLUS media source for the same FLUS media session, the FLUS source control entity relaying the second command to the FLUS media source.
Floor wiping device with a plate-shaped support part and at least one holding device placed on the support part for the removable arrangement of a wiping textile on the support part , characterized in that the holding device includes a sliding part that is movable in a plane of the support part from a first closed position to a second open position and conversely, wherein in the closed position an appendix of the wiping textile can be locked on the support part and in the open position there is a gap between the sliding part and the support part for introducing or removing the wiping textile appendix. a plate-shaped support part and at least one holding device placed on the support part for the removable arrangement of a wiping textile on the support part , characterized in that the holding device includes a sliding part that is movable in a plane of the support part from a first closed position to a second open position and conversely, wherein in the closed position an appendix of the wiping textile can be locked on the support part and in the open position there is a gap between the sliding part and the support part for introducing or removing the wiping textile appendix.
A foundation for a wind mill, comprising a circular or polygonal pedestal for supporting a wind mill tower and a plurality of ribs radiating radially outwardly from the pedestal , wherein the pedestal is divided into a plurality of circumferential sections , wherein a circumferential section and a rib are each integrally formed with one another, or are each formed, as a precast concrete element , wherein the precast concrete elements are made from reinforced concrete comprising a first reinforcement structure, in particular reinforcement bars , embedded into the precast concrete elements , characterized in that neighbouring precast concrete elements , in their sections radiating outwardly from the pedestal , are spaced from each other in a circumferential direction and that the clearance between two neighbouring precast concrete elements is each bridged by a bridging plate .
An exhaust gas treating method comprising the steps of: preheating a combustion air of a combustion apparatus by an exhaust gas discharged from the combustion apparatus ; recovering heat from the exhaust gas by a heat recovery unit after the air preheating; and recovering soot/dust in the exhaust gas at an exit of the heat recovery unit by a dry precipitator ; characterized in that after adjusting an exhaust gas temperature at the exit of the heat recovery unit to not more than a dew point temperature of sulfur trioxide, a heavy metal adsorbent is supplied into the exhaust gas at an entrance of the dry precipitator or into an intermediate position within the dry precipitator , and wherein the heat of the exhaust gas is recovered in a heating medium in the heat recovery unit , the heating medium is circulatingly supplied to a reheater , disposed for heating the desulfurized exhaust gas by the heating medium supplied from the heat recovery unit , or to a cooler , disposed for cooling the heating medium supplied from the heat recovery unit , and after adjusting the exhaust gas temperature at the exit of the heat recovery unit to not more than the dew point temperature of sulfur trioxide by at least one among a circulation amount of the circulating heating medium, between the heat recovery unit and the reheater , a heating amount of the heating medium, and a cooling amount of the heating medium, the heavy metal adsorbent is supplied into the exhaust gas at the entrance of the dry precipitator or into the intermediate position within the dry precipitator . preheating a combustion air of a combustion apparatus by an exhaust gas discharged from the combustion apparatus ; recovering heat from the exhaust gas by a heat recovery unit after the air preheating; and recovering soot/dust in the exhaust gas at an exit of the heat recovery unit by a dry precipitator ; characterized in that after adjusting an exhaust gas temperature at the exit of the heat recovery unit to not more than a dew point temperature of sulfur trioxide, a heavy metal adsorbent is supplied into the exhaust gas at an entrance of the dry precipitator or into an intermediate position within the dry precipitator , and wherein the heat of the exhaust gas is recovered in a heating medium in the heat recovery unit , the heating medium is circulatingly supplied to a reheater , disposed for heating the desulfurized exhaust gas by the heating medium supplied from the heat recovery unit , or to a cooler , disposed for cooling the heating medium supplied from the heat recovery unit , and after adjusting the exhaust gas temperature at the exit of the heat recovery unit to not more than the dew point temperature of sulfur trioxide by at least one among a circulation amount of the circulating heating medium, between the heat recovery unit and the reheater , a heating amount of the heating medium, and a cooling amount of the heating medium, the heavy metal adsorbent is supplied into the exhaust gas at the entrance of the dry precipitator or into the intermediate position within the dry precipitator .
A nasal mask system , comprising: a cushion assembly including a sealing region having a nose ridge region , sides of nose region , corners of nose region , and a top lip region adapted to seal around both nares of a patient's nose, the sealing region including a membrane seal that extends around an entire perimeter of the sealing region, the sides of nose region including a portion adapted to be positioned and seal along a region adjacent the junction between the nasal greater alar cartilage and the lateral nasal cartilage of the patient's nose, the portion including a wing or sealing flap that protrudes from an edge of the membrane seal along its inner perimeter, wherein the wing or sealing flap is at least partially angled or pre-biased outwardly away from a breathing chamber provided by the cushion assembly; and wherein the nasal mask system is constructed and arranged to seal at its upper extent at locations that are generally below or inferior to the nasal bones. a cushion assembly including a sealing region having a nose ridge region , sides of nose region , corners of nose region , and a top lip region adapted to seal around both nares of a patient's nose, the sealing region including a membrane seal that extends around an entire perimeter of the sealing region, the sides of nose region including a portion adapted to be positioned and seal along a region adjacent the junction between the nasal greater alar cartilage and the lateral nasal cartilage of the patient's nose, the portion including a wing or sealing flap that protrudes from an edge of the membrane seal along its inner perimeter, wherein the wing or sealing flap is at least partially angled or pre-biased outwardly away from a breathing chamber provided by the cushion assembly; and wherein the nasal mask system is constructed and arranged to seal at its upper extent at locations that are generally below or inferior to the nasal bones.
Turbomachinery portion with double flow extending around a longitudinal axis (A), comprising: - an outer wall (Pe) and an inner wall (Pi), defining a secondary flow portion (Vs), - a grid of straightener vanes (OGV), each straightener extending within the secondary vein portion (Vs) between the outer wall (Pe) and the inner wall (Pi), wherein, at the grid of straightener vanes (OGV) and in a plane orthogonal to the longitudinal axis (A), the distance of the outer wall (Pe) from the longitudinal axis (A) along a first axis (X1) orthogonal to the longitudinal axis (A) is greater than the distance of the outer wall (Pe) from the longitudinal axis (A) along a second axis (X2) orthogonal to the longitudinal axis (A) and to the first axis (X1), wherein the outer wall (Pe) defines in the plane orthogonal to the longitudinal axis (A) a concave-like shape when viewed from inside the secondary vein, and in which the inner wall (Pi) defines in said plane orthogonal to the longitudinal axis (A) a shape identical to that of the outer wall (Pe), so that the height of the vein is generally constant. - an outer wall (Pe) and an inner wall (Pi), defining a secondary flow portion (Vs), - a grid of straightener vanes (OGV), each straightener extending within the secondary vein portion (Vs) between the outer wall (Pe) and the inner wall (Pi), wherein, at the grid of straightener vanes (OGV) and in a plane orthogonal to the longitudinal axis (A), the distance of the outer wall (Pe) from the longitudinal axis (A) along a first axis (X1) orthogonal to the longitudinal axis (A) is greater than the distance of the outer wall (Pe) from the longitudinal axis (A) along a second axis (X2) orthogonal to the longitudinal axis (A) and to the first axis (X1), wherein the outer wall (Pe) defines in the plane orthogonal to the longitudinal axis (A) a concave-like shape when viewed from inside the secondary vein, and in which the inner wall (Pi) defines in said plane orthogonal to the longitudinal axis (A) a shape identical to that of the outer wall (Pe), so that the height of the vein is generally constant.
A turbine engine control system, comprising: a first control lever configured for rotational movement between a first control position and a second control position, the first control lever configured for operational control of an engine in a first control mode; a second control lever configured for rotational movement between a third control position and a fourth control position, the second control lever configured for operational control of the engine in a second control mode; and a mechanical link ; characterised in that the mechanical link is arranged to couple the first control lever to the second control lever with at least one angular offset such that for at least a subset of control positions of the first control lever, a distance between the first control lever and the first control position is greater than a distance between the second control lever and the third control position. a first control lever configured for rotational movement between a first control position and a second control position, the first control lever configured for operational control of an engine in a first control mode; a second control lever configured for rotational movement between a third control position and a fourth control position, the second control lever configured for operational control of the engine in a second control mode; and a mechanical link ; characterised in that the mechanical link is arranged to couple the first control lever to the second control lever with at least one angular offset such that for at least a subset of control positions of the first control lever, a distance between the first control lever and the first control position is greater than a distance between the second control lever and the third control position.