mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: obtaining, by a computing device , a plurality of paths through a network comprising one or more network nodes , each path of the plurality of paths representing a different sequence of links connecting pairs of the network nodes from a source to a destination, wherein each link represented in the plurality of paths has a metric; computing, by the computing device, one or more lists of segments identifiers (230A-230C), SIDs, that satisfy each path of the plurality of paths; wherein computing the one or more lists of SIDs comprises computing, based on the metrics for the links, an equidistant metric graph rooted at the source, the equidistant metric graph comprising metric graph nodes (302A-302I) and directed edges representing the links, each metric graph node of the metric graph nodes representing at least one network node, of the one or more network nodes, that are a same distance from the source along at least one path, of the plurality of paths, based on the metrics for the links represented in the plurality of paths; and programming the network to forward network traffic based at least on the one or more lists of SIDs. obtaining, by a computing device , a plurality of paths through a network comprising one or more network nodes , each path of the plurality of paths representing a different sequence of links connecting pairs of the network nodes from a source to a destination, wherein each link represented in the plurality of paths has a metric; computing, by the computing device, one or more lists of segments identifiers (230A-230C), SIDs, that satisfy each path of the plurality of paths; wherein computing the one or more lists of SIDs comprises computing, based on the metrics for the links, an equidistant metric graph rooted at the source, the equidistant metric graph comprising metric graph nodes (302A-302I) and directed edges representing the links, each metric graph node of the metric graph nodes representing at least one network node, of the one or more network nodes, that are a same distance from the source along at least one path, of the plurality of paths, based on the metrics for the links represented in the plurality of paths; and programming the network to forward network traffic based at least on the one or more lists of SIDs.
Food composition comprising a lipid-in-water emulsion wherein gas is dispersed in the lipid in the form of a foam, and wherein the foam comprises gas bubbles having triglyceride crystals at their gas-lipid interface.
A glass article, the glass article comprising an alkali aluminosilicate glass and having a thickness t and a compressive region having a compressive stress CS s in a range from 400 MPa to 1200 MPa at a surface of the glass article, wherein the compressive region extends from the surface to a depth of compression DOC, wherein 0.1· t ≤ DOC ≤ 0.25· t , and has a compressive stress profile, the compressive stress profile comprising: a. a first substantially linear portion b extending from the surface to a depth d b below the surface and having a slope m b , wherein -40 MPa/μm ≥ m b ≥ -200 MPa/μm; b. a second substantially linear portion c extending from d c to the depth of compression DOC and having a slope m c , wherein -0.4 MPa/μm ≥ m c ≥ -3.0 MPa/μm; and c. a transition region extending between d b and d c having a slope that transitions from slope m b to slope m c . a. a first substantially linear portion b extending from the surface to a depth d b below the surface and having a slope m b , wherein -40 MPa/μm ≥ m b ≥ -200 MPa/μm; b. a second substantially linear portion c extending from d c to the depth of compression DOC and having a slope m c , wherein -0.4 MPa/μm ≥ m c ≥ -3.0 MPa/μm; and c. a transition region extending between d b and d c having a slope that transitions from slope m b to slope m c .
A device for removing an electrically conductive workpiece part from an electrically conductive remaining workpiece , comprising: a holding apparatus which can be moved in a removal direction (Z) and which can be switched between a fixing state for fixing the workpiece part to the holding apparatus and a release state for releasing the workpiece part from the holding apparatus , wherein the holding apparatus has at least one first electrically conductive contact element for contacting the workpiece part at at least one first contact point (K1), and wherein the holding apparatus has at least one second electrically conductive contact element for contacting the workpiece part at at least one second contact point (K2), characterized in that the device comprises a sensor apparatus which is designed, making use of the at least one first and second contact element , to check in a first check state (P1) the complete separation of the workpiece part from the remaining workpiece and to check in a second check state (P2) the fixing of the workpiece part to the holding apparatus being in the fixing state. a holding apparatus which can be moved in a removal direction (Z) and which can be switched between a fixing state for fixing the workpiece part to the holding apparatus and a release state for releasing the workpiece part from the holding apparatus , wherein the holding apparatus has at least one first electrically conductive contact element for contacting the workpiece part at at least one first contact point (K1), and wherein the holding apparatus has at least one second electrically conductive contact element for contacting the workpiece part at at least one second contact point (K2), characterized in that the device comprises a sensor apparatus which is designed, making use of the at least one first and second contact element , to check in a first check state (P1) the complete separation of the workpiece part from the remaining workpiece and to check in a second check state (P2) the fixing of the workpiece part to the holding apparatus being in the fixing state.
A method of operating an alert device of a vehicle (12; 112), the method comprising: I) capturing , by a camera , an image including a lane marking on the left-side and on the right-side of the travel lane of a roadway of the host vehicle , and an object proximate to the vehicle ; II) determining , with a controller in communication with the camera , a vehicle offset between the vehicle and the lane marking based on the image , the vehicle offset being a measure of a distance from the left-side and the right-side of the host vehicle to the lane-marking ; III) determining , based further on the image , an object offset between the object and the lane marking ; IV) determining occurrences of lane departures by the vehicle when the vehicle offset is less than a deviation threshold , V) incrementing a count for each of the occurrences of lane departures ; VI) refraining from incrementing the count in response to determining that the object offset is less than an offset threshold and a greater clearance between the vehicle and the object is provided by the lane departure ; and responsive to VII) determining that the count of the occurrences of lane departures exceeds a crossing threshold indicative of driver fatique, VIII) activating an alert device to alert an operator of the host vehicle of driver fatigue. I) capturing , by a camera , an image including a lane marking on the left-side and on the right-side of the travel lane of a roadway of the host vehicle , and an object proximate to the vehicle ; II) determining , with a controller in communication with the camera , a vehicle offset between the vehicle and the lane marking based on the image , the vehicle offset being a measure of a distance from the left-side and the right-side of the host vehicle to the lane-marking ; III) determining , based further on the image , an object offset between the object and the lane marking ; IV) determining occurrences of lane departures by the vehicle when the vehicle offset is less than a deviation threshold , V) incrementing a count for each of the occurrences of lane departures ; VI) refraining from incrementing the count in response to determining that the object offset is less than an offset threshold and a greater clearance between the vehicle and the object is provided by the lane departure ; and responsive to VII) determining that the count of the occurrences of lane departures exceeds a crossing threshold indicative of driver fatique, VIII) activating an alert device to alert an operator of the host vehicle of driver fatigue.
Clamping device , in particular for tool machines , which are provided, for example with a heavy-duty chuck for holding a workpiece and the clamping jaws of which are adjustable by means of the clamping device via an axially adjustable connecting rod of the clamping device as actuating element, wherein the clamping device has a reversible electric drive motor to trigger clamping movements, a movement converter to convert the adjusting movements of the rotor shaft of the drive motor into the axial adjusting movements of the connecting rod required to actuate the clamping jaws and an energy accumulator to maintain the clamping force which is formed from pretensioned spring assemblies which are supported on an adjusting element of the movement converter designed as a hollow shaft and provided with a radially outwardly projecting shoulder , characterised in that the clamping device is designed as a play-free and slippage-free functional unit, and in that to determine the axial adjusting movements of the connecting rod when clamping and unclamping a workpiece , an electronic shaft encoder of the clamping device arranged to be stationary is assigned to one of the components of the clamping device participating in the transmission of force, wherein to design the clamping device as a slippage-free functional unit, the adjusting element of the movement converter is connected to the actuating element to be directly drivable via a pretensioned ball screw of the clamping device .
A ship comprising a tank , for storing liquid hydrogen as a cargo, characterised in that the ship comprises: a cargo pump installed in the tank; and piping for transferring the liquid hydrogen sucked up by the cargo pump to a point over the ocean and disposing of the liquid hydrogen over the ocean, wherein the piping includes an outer peripheral part that contacts external air, and either i) the piping comprises an area of contact between a distal-end-side portion of the outer peripheral part and the external air which is greater than an area of contact between a remaining portion of the outer peripheral part and the external air, or ii) the piping comprises an annular ejecting portion formed between an inner pipe and an outer pipe , the inner space of the inner pipe is the disposal passage through which liquid hydrogen flows, and the annular ejecting portion is configured to eject hydrogen gas at a distal end of the outer peripheral part of the piping. a cargo pump installed in the tank; and piping for transferring the liquid hydrogen sucked up by the cargo pump to a point over the ocean and disposing of the liquid hydrogen over the ocean, wherein the piping includes an outer peripheral part that contacts external air, and either i) the piping comprises an area of contact between a distal-end-side portion of the outer peripheral part and the external air which is greater than an area of contact between a remaining portion of the outer peripheral part and the external air, or ii) the piping comprises an annular ejecting portion formed between an inner pipe and an outer pipe , the inner space of the inner pipe is the disposal passage through which liquid hydrogen flows, and the annular ejecting portion is configured to eject hydrogen gas at a distal end of the outer peripheral part of the piping. i) the piping comprises an area of contact between a distal-end-side portion of the outer peripheral part and the external air which is greater than an area of contact between a remaining portion of the outer peripheral part and the external air, or ii) the piping comprises an annular ejecting portion formed between an inner pipe and an outer pipe , the inner space of the inner pipe is the disposal passage through which liquid hydrogen flows, and the annular ejecting portion is configured to eject hydrogen gas at a distal end of the outer peripheral part of the piping.
A method in a user equipment, UE, device of managing connections of the UE device to a core network, the UE device being capable of establishing a connection to the core network via a base station using a 3GPP mobile communication system network and of establishing a connection to the core network via a non-3GPP network using wireless local area transmission and reception technology, the method comprising: establishing a non-3GPP connection to the core network via the non-3GPP network using wireless local area transmission and reception technology and an interworking function; establishing a 3GPP connection to the core network via the base station using a 3GPP radio access technology; the method being characterised in that it further comprises: in response to receiving via the 3GPP connection a request from the base station to establish a second connection to the core network via the base station using wireless local area transmission and reception technology, informing the core network of a temporary suspension of the non-3GPP connection and storing context information of the non-3GPP connection for a future resumption of the non-3GPP connection. establishing a non-3GPP connection to the core network via the non-3GPP network using wireless local area transmission and reception technology and an interworking function; establishing a 3GPP connection to the core network via the base station using a 3GPP radio access technology; the method being characterised in that it further comprises: in response to receiving via the 3GPP connection a request from the base station to establish a second connection to the core network via the base station using wireless local area transmission and reception technology, informing the core network of a temporary suspension of the non-3GPP connection and storing context information of the non-3GPP connection for a future resumption of the non-3GPP connection.
A blood pack donation kit configured for use in whole blood donation and simultaneous use with a lab-on-a-chip device for separation and collection of biomarkers, wherein the kit comprises a) a blood collection container having a volume and at least one opening ; b) a biomarker collection container having a volume and at least one opening ; c) a first flow path having a first end connected to the opening in the blood collection container and a second end configured to be connected to a first outlet opening of a lab-on-a-chip device ; d) a second flow path having a first end connected to the opening in the biomarker collection container and a second end configured to be connected to a second outlet opening of the lab-on-a-chip device ; and e) a third flow path having a first end connected to a needle and a second end configured to be connected to an inlet opening of the lab-on-a-chip device . a) a blood collection container having a volume and at least one opening ; b) a biomarker collection container having a volume and at least one opening ; c) a first flow path having a first end connected to the opening in the blood collection container and a second end configured to be connected to a first outlet opening of a lab-on-a-chip device ; d) a second flow path having a first end connected to the opening in the biomarker collection container and a second end configured to be connected to a second outlet opening of the lab-on-a-chip device ; and e) a third flow path having a first end connected to a needle and a second end configured to be connected to an inlet opening of the lab-on-a-chip device .
A microelectromechanical systems, MEMS, device comprising: a substrate ; a proof mass positioned in space above a surface of the substrate, wherein the proof mass is configured to move relative to the substrate; a flexible travel stop structure formed within the proof mass, wherein the flexible travel stop structure comprises a contact lever connected to the proof mass via flexible elements ; and a bumper formed on the surface of the substrate, wherein the contact lever is aligned to make contact with the bumper when the proof mass moves toward the substrate; wherein a lower surface of the contact lever is co-planar with a lower surface of the proof mass , prior to contact with the bumper . a substrate ; a proof mass positioned in space above a surface of the substrate, wherein the proof mass is configured to move relative to the substrate; a flexible travel stop structure formed within the proof mass, wherein the flexible travel stop structure comprises a contact lever connected to the proof mass via flexible elements ; and a bumper formed on the surface of the substrate, wherein the contact lever is aligned to make contact with the bumper when the proof mass moves toward the substrate; wherein a lower surface of the contact lever is co-planar with a lower surface of the proof mass , prior to contact with the bumper .
A multimode Reed-Solomon forward error correction, RS FEC encoder , wherein the multimode RS FEC encoder has a total of (L+1) RS (N i , K) operating modes, i=0, 1, ..., and L, L is an integer greater than 0, and N i represents a length of an RS FEC code word in a corresponding operating mode; and N i =N 0 +i × P, N 0 represents a shortest length of an RS FEC code word in the multimode RS FEC encoder, P is a positive integer, and K represents a quantity of information symbols in the RS FEC code word, wherein the multimode RS FEC encoder comprises a control unit , an initial encoding unit , and L incremental encoding units; the control unit is configured to control a unit and a module that need to be enabled when the multimode RS FEC encoder performs encoding, and is specifically configured to enable only the initial encoding unit in an RS (N 0 , K) operating mode to perform encoding or enable only the initial encoding unit and first j incremental encoding units in the L incremental encoding units in an RS (N j , K) operating mode to perform encoding, wherein j is an integer, and 1≤j≤L; the initial encoding unit is configured to perform RS FEC encoding on an information polynomial m(x) corresponding to an information symbol of the multimode RS FEC encoder, to obtain a quotient D 0 (x) and a remainder R 0 (x) of a polynomial x N 0 -K m(x) relative to g 0 (x), wherein g 0 (x) is a generator polynomial in the RS (N 0 , K) operating mode; and an (h+1) th incremental encoding unit in the L incremental encoding units is configured to obtain, according to a quotient D h (x) and a remainder R h (x), a quotient D h+1 (x) and a remainder R h+1 (x) of a polynomial x N h+1 -K m(x) relative to g h+1 (x), wherein g h+1 (x) is a generator polynomial in an RS (N h+1 , K) operating mode, h is an integer, and 0≤h≤L-1. the control unit is configured to control a unit and a module that need to be enabled when the multimode RS FEC encoder performs encoding, and is specifically configured to enable only the initial encoding unit in an RS (N 0 , K) operating mode to perform encoding or enable only the initial encoding unit and first j incremental encoding units in the L incremental encoding units in an RS (N j , K) operating mode to perform encoding, wherein j is an integer, and 1≤j≤L; the initial encoding unit is configured to perform RS FEC encoding on an information polynomial m(x) corresponding to an information symbol of the multimode RS FEC encoder, to obtain a quotient D 0 (x) and a remainder R 0 (x) of a polynomial x N 0 -K m(x) relative to g 0 (x), wherein g 0 (x) is a generator polynomial in the RS (N 0 , K) operating mode; and an (h+1) th incremental encoding unit in the L incremental encoding units is configured to obtain, according to a quotient D h (x) and a remainder R h (x), a quotient D h+1 (x) and a remainder R h+1 (x) of a polynomial x N h+1 -K m(x) relative to g h+1 (x), wherein g h+1 (x) is a generator polynomial in an RS (N h+1 , K) operating mode, h is an integer, and 0≤h≤L-1.
Wall cladding comprising two walls which adjoin each other at an angle (α) in a common rib , each wall comprising: - bearing sections , one end of which ends at the location of the rib ; - wall cladding elements which are attached to the bearing sections thereby cladding these bearing sections ; and - a protective corner profile in order to form the rib ; characterized in that the wall cladding furthermore comprises: - corner attachment elements which are attached to bearing sections , displaceable with respect to these bearing sections along the length direction of these bearing sections as far as outside the front side of these bearing sections on said end and wherein each corner attachment element and the protective corner profile are provided with corresponding attachment elements which are mutually coupleable in order to attach the corner attachment element and the protective corner profile to each other; whereby each corner attachment element is attached to a bearing section of only one of the walls. - bearing sections , one end of which ends at the location of the rib ; - wall cladding elements which are attached to the bearing sections thereby cladding these bearing sections ; and - a protective corner profile in order to form the rib ; characterized in that the wall cladding furthermore comprises: - corner attachment elements which are attached to bearing sections , displaceable with respect to these bearing sections along the length direction of these bearing sections as far as outside the front side of these bearing sections on said end and wherein each corner attachment element and the protective corner profile are provided with corresponding attachment elements which are mutually coupleable in order to attach the corner attachment element and the protective corner profile to each other; whereby each corner attachment element is attached to a bearing section of only one of the walls.