mhurhangee/ep-ind-claims huggingface dataset:
A method for a network node (20, 21, 22) of a content-centric network the method, comprising: receiving an interest packet over a link from a requesting network node requesting content be provided, said interest packet having a received charge value associated therewith, a magnitude of said charge value affecting how far the interest packet is able to propagate throughout the network; wherein said received charge value comprises a transmitted charge value of said interest packet reduced by a resistance associated with said link over which said interest packet is received; determining whether said content is available to said network node and, if not, identifying available onward links to other network nodes; splitting said received charge value between duplicated interest packets (62, 63, 64), each having a transmitted charge value; and transmitting one of said duplicated interest packets over each available onward link. receiving an interest packet over a link from a requesting network node requesting content be provided, said interest packet having a received charge value associated therewith, a magnitude of said charge value affecting how far the interest packet is able to propagate throughout the network; wherein said received charge value comprises a transmitted charge value of said interest packet reduced by a resistance associated with said link over which said interest packet is received; determining whether said content is available to said network node and, if not, identifying available onward links to other network nodes; splitting said received charge value between duplicated interest packets (62, 63, 64), each having a transmitted charge value; and transmitting one of said duplicated interest packets over each available onward link. identifying available onward links to other network nodes; splitting said received charge value between duplicated interest packets (62, 63, 64), each having a transmitted charge value; and transmitting one of said duplicated interest packets over each available onward link.
A method for packaging a semiconductor die assembly having a first die and a plurality of second dies arranged in a stack and attached to the first die, wherein the first die has a peripheral region extending laterally outward from the stack of second dies, the method comprising: positioning at least a portion of a thermal transfer structure on the peripheral region of the first die, wherein the thermal transfer structure comprises a thermally conductive material; characterised by flowing an underfill material between the second dies after positioning the thermal transfer structure on the peripheral region of the first die, wherein the underfill material has a fillet extending laterally from the stack of second dies, and wherein the lateral extension of the underfill material is limited by the thermal transfer structure. positioning at least a portion of a thermal transfer structure on the peripheral region of the first die, wherein the thermal transfer structure comprises a thermally conductive material; characterised by flowing an underfill material between the second dies after positioning the thermal transfer structure on the peripheral region of the first die, wherein the underfill material has a fillet extending laterally from the stack of second dies, and wherein the lateral extension of the underfill material is limited by the thermal transfer structure.
Device for controlling the movement of a motor vehicle on a road, comprising a management module for managing at least one driving assistance system, in particular of ESP type, an onboard device for detecting the ground markings for traffic lanes and capable of providing first information relating to the road layout according to the detected markings, a set of onboard measurement sensors capable of providing second information relating to the dynamic behaviour of the vehicle, a control device for controlling the longitudinal movement of the vehicle and a control device for controlling the lateral movement of the vehicle, which control devices are capable of generating, from the first and second information, control commands for the longitudinal movement and for the lateral movement, the commands being sent to actuators for longitudinal and lateral control of the steering system of the vehicle, comprising a prediction model for predicting the dynamic behaviour of the vehicle, supplied with the first and second information, and capable of determining a set of future states of the vehicle corresponding to future positions of the vehicle over a plurality of iterations defining an upcoming road portion, said prediction model being connected to a determination module for determining the violation of vehicle driving limit values, which is capable of determining, for each determined future state, whether at least one of the state variables defining said future state of the vehicle reaches or exceeds one of the vehicle driving limit values, and of inferring therefrom an upcoming risk situation for the vehicle for at least one of the future states of the vehicle, characterized in that the determination module for determining the violation of the vehicle driving limit values includes, among the parameters defining one of the vehicle driving limit values, physical parameters relating to said actuators and/or to the dynamics of the vehicle, said parameters comprising at least a maximum steering angle value (α_max), a maximum steering wheel angle speed value, a value representative of a maximum braking capability and a value representative of a maximum acceleration capability of the vehicle.
A method for supplying additional hydrogen to a hydrogen pipeline from a salt cavern to assist in meeting customer demand for hydrogen, said method comprising: removing a crude hydrogen stream from the salt cavern at a first flow rate that will assist in meeting the customer demand, the crude hydrogen stream containing contaminants imparted by the salt cavern such that the crude hydrogen stream contains at least one of the contaminants at a level higher than that allowed by a product purity specification of the hydrogen in the pipeline; characterised in that the method further comprises withdrawing a portion of hydrogen from the hydrogen contained in the pipeline to form a hydrogen dilution stream when supply is less than demand, the hydrogen dilution stream containing each of the contaminants at a concentration less than that of the product purity specification; mixing the hydrogen dilution stream with the crude hydrogen stream to dilute the crude hydrogen stream and thereby form a hydrogen product stream having lower levels of the contaminants than the crude hydrogen stream; controlling a second flow rate of the hydrogen dilution stream such that the contaminants are present in the hydrogen product stream at or below the product purity specification; and introducing at least part of the hydrogen product stream into the pipeline to supply the additional hydrogen to the pipeline. removing a crude hydrogen stream from the salt cavern at a first flow rate that will assist in meeting the customer demand, the crude hydrogen stream containing contaminants imparted by the salt cavern such that the crude hydrogen stream contains at least one of the contaminants at a level higher than that allowed by a product purity specification of the hydrogen in the pipeline; characterised in that the method further comprises withdrawing a portion of hydrogen from the hydrogen contained in the pipeline to form a hydrogen dilution stream when supply is less than demand, the hydrogen dilution stream containing each of the contaminants at a concentration less than that of the product purity specification; mixing the hydrogen dilution stream with the crude hydrogen stream to dilute the crude hydrogen stream and thereby form a hydrogen product stream having lower levels of the contaminants than the crude hydrogen stream; controlling a second flow rate of the hydrogen dilution stream such that the contaminants are present in the hydrogen product stream at or below the product purity specification; and introducing at least part of the hydrogen product stream into the pipeline to supply the additional hydrogen to the pipeline.
Regulating device for regulating a cooling circuit for the temperature control of a battery system with more than one heating and/or cooling element, wherein the regulating device comprises two regulating stages disposed one after the other, wherein the second regulating stage is implemented such that the controlled variable of the first regulating stage can be fed to the second regulating stage as a control input, a control deviation thereof can be determined and an abstract signal (S arb) can be output as a controlled variable of the second regulating stage depending on the control deviation, characterized in that the first regulating stage is implemented such that a defined cooling/heating power (P nom) of the cooling circuit or a variable proportional thereto can be determined depending on one or more input variables, a control deviation thereof can be determined and a desired temperature (t nom) of the coolant or a variable proportional thereto derived from the control deviation can be output as a controlled variable of the first regulating stage.
A computing system comprising a plurality of storage devices, wherein the computing system is configured to: for each storage device of the plurality of storage devices, encrypt data on the storage device with a unique device key, wherein the unique device key is different from any other unique key that encrypts data on any other of the plurality of storage devices; use a single master secret to encrypt all of the device keys; generate a plurality of shares from the master secret, wherein recovery of the master secret is enabled based on possession of a number of the plurality of shares above a threshold number of shares; and store a separate share of the plurality of shares on each storage device of the plurality of storage devices. for each storage device of the plurality of storage devices, encrypt data on the storage device with a unique device key, wherein the unique device key is different from any other unique key that encrypts data on any other of the plurality of storage devices; use a single master secret to encrypt all of the device keys; generate a plurality of shares from the master secret, wherein recovery of the master secret is enabled based on possession of a number of the plurality of shares above a threshold number of shares; and store a separate share of the plurality of shares on each storage device of the plurality of storage devices.
A method for estimating a fraction of fetal nucleic acid in a test sample from a pregnant female, comprising: (a) obtaining counts of sequence reads mapped to portions of a reference genome, which sequence reads are reads of circulating cell-free nucleic acid from a test sample from a pregnant female; (b) selecting a subset of the portions, thereby providing a subset of counts, wherein (i) the selecting is according to portions to which an increased amount of reads from fetal nucleic acid are mapped, and (ii) the portions to which an increased amount of reads from fetal nucleic acid are mapped are determined according to a ratio of X to Y, wherein X is the amount of reads derived from circulating cell-free fragments having a length less than a first selected fragment length, wherein the first selected fragment length is 140 to 160 bases, and Y is the amount of reads derived from CCF fragments having a length less than a second selected fragment length, wherein the second selected fragment length is 500 to 700 bases; and (c) estimating a fraction of fetal nucleic acid for the test sample based on the subset of counts. (a) obtaining counts of sequence reads mapped to portions of a reference genome, which sequence reads are reads of circulating cell-free nucleic acid from a test sample from a pregnant female; (b) selecting a subset of the portions, thereby providing a subset of counts, wherein (i) the selecting is according to portions to which an increased amount of reads from fetal nucleic acid are mapped, and (ii) the portions to which an increased amount of reads from fetal nucleic acid are mapped are determined according to a ratio of X to Y, wherein X is the amount of reads derived from circulating cell-free fragments having a length less than a first selected fragment length, wherein the first selected fragment length is 140 to 160 bases, and Y is the amount of reads derived from CCF fragments having a length less than a second selected fragment length, wherein the second selected fragment length is 500 to 700 bases; and (i) the selecting is according to portions to which an increased amount of reads from fetal nucleic acid are mapped, and (ii) the portions to which an increased amount of reads from fetal nucleic acid are mapped are determined according to a ratio of X to Y, wherein X is the amount of reads derived from circulating cell-free fragments having a length less than a first selected fragment length, wherein the first selected fragment length is 140 to 160 bases, and Y is the amount of reads derived from CCF fragments having a length less than a second selected fragment length, wherein the second selected fragment length is 500 to 700 bases; and (c) estimating a fraction of fetal nucleic acid for the test sample based on the subset of counts.
A processing method for a processing apparatus, the processing method causing a computer of the processing apparatus to execute steps comprising: detecting (S1001 - S1006) a position and a state of a passenger inside a vehicle on the basis of information indicating a state of space including seats of the vehicle, the information being obtained from a sensor provided inside the vehicle; characterized in that the method further comprises notifying (S1004a, S1004b) an operator of the vehicle of the detected position and state of the passenger; and transmitting, upon detecting an operation after the notifying, which is performed by the operator of the vehicle, for controlling a device near the detected position of the passenger, a control command corresponding to the operation to the device; wherein the information obtained from the sensor is information indicating a temperature distribution in the space including the seats of the vehicle; wherein whether the passenger is wearing a seatbelt is detected on the basis of the temperature distribution in the vehicle, and, if it has been determined that the passenger is not wearing the seatbelt, the operator of the vehicle is notified that the passenger is not wearing the seatbelt; and wherein the seatbelt includes two materials having different values of emissivity, and whether the seatbelt is used is detected by detecting a pattern of temperature distribution corresponding to the two materials. detecting (S1001 - S1006) a position and a state of a passenger inside a vehicle on the basis of information indicating a state of space including seats of the vehicle, the information being obtained from a sensor provided inside the vehicle; characterized in that the method further comprises notifying (S1004a, S1004b) an operator of the vehicle of the detected position and state of the passenger; and transmitting, upon detecting an operation after the notifying, which is performed by the operator of the vehicle, for controlling a device near the detected position of the passenger, a control command corresponding to the operation to the device; wherein the information obtained from the sensor is information indicating a temperature distribution in the space including the seats of the vehicle; wherein whether the passenger is wearing a seatbelt is detected on the basis of the temperature distribution in the vehicle, and, if it has been determined that the passenger is not wearing the seatbelt, the operator of the vehicle is notified that the passenger is not wearing the seatbelt; and wherein the seatbelt includes two materials having different values of emissivity, and whether the seatbelt is used is detected by detecting a pattern of temperature distribution corresponding to the two materials.
A printing ink system comprising unmodified polyglycosides and polyolefin waxes and/or Fischer-Tropsch waxes and/or amide waxes and/or biobased waxes and optionally pigments, binders and/or solvents, whereas the unmodified polyglycosides having a BET specific surface area of at least 0,45 m 2 /g and a particle size distribution with a non-uniformity number (D60/D10) of up to a maximum of 3.5, characterized in that the polyolefin or Fischer-Tropsch or amide waxes or biobased waxes are used in micronized form with a d99 value of at most 100 μm, preferably at most 30 μm, particularly preferably at most 20 μm.
A system for heating a medical fluid, the system comprising: a fluid injector, and at least one first fluid container for storing the fluid, the fluid injector having at least one second fluid container for receiving the fluid from the at least one first fluid container through a fluid path set; at least one fluid path element being positioned in-line with at least a segment of the fluid path set between the at least one first fluid container and the at least one second fluid container of the fluid injector, wherein the at least one fluid path element heats the fluid to a pre-determined temperature as the fluid flows through the at least one fluid path element; a controller for controlling an output of the at least one fluid path element based on at least one of a property of the at least one fluid path element and a property of the fluid flowing through the at least one fluid path element; at least one temperature sensor for measuring a temperature of the fluid flowing through at least a portion of the at least one fluid path element; characterized in that the controller receives temperature data from the at least one temperature sensor and transmits the temperature data to the fluid injector via a wired or wireless connection; and and in that the fluid injector adjusts an injection pressure limit based in part on the temperature of the fluid. a fluid injector, and at least one first fluid container for storing the fluid, the fluid injector having at least one second fluid container for receiving the fluid from the at least one first fluid container through a fluid path set; at least one fluid path element being positioned in-line with at least a segment of the fluid path set between the at least one first fluid container and the at least one second fluid container of the fluid injector, wherein the at least one fluid path element heats the fluid to a pre-determined temperature as the fluid flows through the at least one fluid path element; a controller for controlling an output of the at least one fluid path element based on at least one of a property of the at least one fluid path element and a property of the fluid flowing through the at least one fluid path element; at least one temperature sensor for measuring a temperature of the fluid flowing through at least a portion of the at least one fluid path element; characterized in that the controller receives temperature data from the at least one temperature sensor and transmits the temperature data to the fluid injector via a wired or wireless connection; and and in that the fluid injector adjusts an injection pressure limit based in part on the temperature of the fluid.
A flow path structure which forms a flow path of liquid, comprising: a light absorbing member having absorbing properties with respect to laser light; a light transmitting member which is joined to the light absorbing member and has transmitting properties with respect to the laser light; a first flow path which is surrounded by a welding surface, in plan view from a direction orthogonal to the welding surface, on which the light absorbing member and the light transmitting member are welded together; and a second flow path which is formed in a first flow path pipe which protrudes from a front surface of the light transmitting member on the opposite side of the light transmitting member to the welding surface, and communicates with the first flow path, characterized in that the first flow path pipe is included within an area of the first flow path in plan view from the direction orthogonal to the welding surface such that the welding surface does not overlap the first flow path pipe in plan view from the direction orthogonal to the welding surface. a light absorbing member having absorbing properties with respect to laser light; a light transmitting member which is joined to the light absorbing member and has transmitting properties with respect to the laser light; a first flow path which is surrounded by a welding surface, in plan view from a direction orthogonal to the welding surface, on which the light absorbing member and the light transmitting member are welded together; and a second flow path which is formed in a first flow path pipe which protrudes from a front surface of the light transmitting member on the opposite side of the light transmitting member to the welding surface, and communicates with the first flow path, characterized in that the first flow path pipe is included within an area of the first flow path in plan view from the direction orthogonal to the welding surface such that the welding surface does not overlap the first flow path pipe in plan view from the direction orthogonal to the welding surface.
A semiconductor device, comprising: a layered structure forming multiple carrier channels extending in parallel at different depths of a depth direction of the semiconductor device; a gate electrode having multiple gate fingers of different lengths in the depth direction penetrating the layered structure to reach and control corresponding carrier channels at the different depths; and a carrier electrode having multiple carrier fingers of different lengths in the depth direction penetrating the layered structure to access the corresponding carrier channels, wherein the carrier fingers are interdigitated with the gate fingers. a layered structure forming multiple carrier channels extending in parallel at different depths of a depth direction of the semiconductor device; a gate electrode having multiple gate fingers of different lengths in the depth direction penetrating the layered structure to reach and control corresponding carrier channels at the different depths; and a carrier electrode having multiple carrier fingers of different lengths in the depth direction penetrating the layered structure to access the corresponding carrier channels, wherein the carrier fingers are interdigitated with the gate fingers.