mhurhangee/ep-ind-claims huggingface dataset:
A method for use with a touch sensitive device comprising a touch plate (10, 102) to which a plurality of sensors are coupled, the method comprising: generating, in response to a touch to the touch sensitive device, sensor signals exhibiting dispersion; correcting for the dispersion in the sensor signals to produce dispersion corrected signals; determining a location of the touch using the dispersion corrected signals; reconstructing an impulse for each of the sensor signals; and confirming the location of the touch by comparing one or more features of the reconstructed impulses, including arrival time, shape, amplitude or other morphological features, by computing an average of the reconstructed impulses to emphasize a particular feature of the reconstructed impulses, and by assessing similarity of the particular feature of the reconstructed impulses, wherein the particular feature of the reconstructed impulses includes at least one of: rise time and shape, ability to detect the strength of the touch, impulse synchronicity, first arrival, similarity or need for correction of impulse phases, and similarity of shapes of impulses. generating, in response to a touch to the touch sensitive device, sensor signals exhibiting dispersion; correcting for the dispersion in the sensor signals to produce dispersion corrected signals; determining a location of the touch using the dispersion corrected signals; reconstructing an impulse for each of the sensor signals; and confirming the location of the touch by comparing one or more features of the reconstructed impulses, including arrival time, shape, amplitude or other morphological features, by computing an average of the reconstructed impulses to emphasize a particular feature of the reconstructed impulses, and by assessing similarity of the particular feature of the reconstructed impulses, wherein the particular feature of the reconstructed impulses includes at least one of: rise time and shape, ability to detect the strength of the touch, impulse synchronicity, first arrival, similarity or need for correction of impulse phases, and similarity of shapes of impulses.
Method for producing a moulded part having at least two structure zones with different ductilities from a semi-finished product, in particular a sheet or plate, made of hardened steel, with heating in a continuous furnace and a hardening process, wherein the semi-finished product is heated in the continuous furnace to austenitizing temperature, followed by a first part region of the semi-finished product being cooled to a temperature at which the microstructure of the part region is converted into a ferritic-pearlitic microstructure, while a second part region of the semi-finished product is retained at austenitizing temperature, followed by the semi-finished product being moulded and quenched and tempered in a press hardening mould to form the moulded part, characterised in that the semi-finished product, after passing through the continuous furnace is laid with the second part region into a chamber of an intermediate storage location, in particular a buffer furnace, and stored there, wherein the intermediate storage location retains the second part region at austenitizing temperature, while the first part region projects out of the intermediate storage location, in particular the buffer furnace, and this projecting region is cooled in the air or with air to the temperature at which the ferritic-pearlitic microstructure is formed, followed by the semi-finished product being taken out of the intermediate storage location, in particular the buffer furnace, and transferred to the press hardening mould for the purpose of moulding and quenching.
A user terminal apparatus, comprising: at least one processor and at least one memory including a computer program code, and means (1006, 1008) for connecting to a core network of a cellular network via another wireless network; means for emulating operation of a cellular network node by being adapted to create a self-serving cell, wherein the means for emulating are adapted to request the core network to establish the cell, establish required interfaces between the apparatus and the core network utilising Internet Protocol Security Architecture, IPSec, and exchange signalling with Mobile Management Entity of the cellular network over IPSec tunnel; means (1006, 1008) for establishing a voice over cellular network call via said another wireless network and for transmitting voice traffic to Serving Gateway of the cellular network. at least one processor and at least one memory including a computer program code, and means (1006, 1008) for connecting to a core network of a cellular network via another wireless network; means for emulating operation of a cellular network node by being adapted to create a self-serving cell, wherein the means for emulating are adapted to request the core network to establish the cell, establish required interfaces between the apparatus and the core network utilising Internet Protocol Security Architecture, IPSec, and exchange signalling with Mobile Management Entity of the cellular network over IPSec tunnel; means (1006, 1008) for establishing a voice over cellular network call via said another wireless network and for transmitting voice traffic to Serving Gateway of the cellular network.
A method for dephosphorizing hot metal, wherein, when performing dephosphorization treatment of the hot metal by adding (a) a refining agent as a lime source and (b) an oxygen source to the hot metal accommodated in a hot metal holding container, a refining agent having an Ig-loss value of from 4.0% by mass to 35.0% by mass and including 60% by mass or more of quick lime is used as the refining agent, wherein the Ig-loss value is measured by heating a 0.1 mg sample of the reining agent for 1 hour in a platinum crucible or a magnetic crucible in an electric furnace controlled at 1050 ± 50°C, allowing the sample to cool and measuring the mass of the sample, the Ig-loss value being calculated according to Formula below: Ig. loss = m 1 m 0 × 100 in which Ig. loss represents the Ig-loss value in % by mass, m 0 represents the mass of the sample of refining agent in g before heating, and m 1 represents the sample weight loss in g, wherein when adding the refining agent, the refining agent is injected together with a carrier gas through an injection lance immersed under a bath surface of the hot metal under conditions satisfying Formulas to: [Math. 1] 300 ≤ ε g + ε P ≤ 1000 ε g = 6.183 × Q × T 1 W × ln 1 + h 1.02 × 10 − 4 × P + 1 − T g T l ε P = 2.25 × 10 − 5 × m × Q 2 d 0 4 × W in which ε g represents a carrier gas stirring power [W/t]; ε p represents a lime source energy; Q represents a carrier gas flow rate [N m 3 /min]; W represents a hot metal amount [t]; T l represents a hot metal temperature [°C]; T g represents a carrier gas temperature [°C]; h represents an injection lance immersion depth [m]; P represents an atmospheric pressure [Pa]; m represents a lime source injecting rate [g/s]; and d 0 represents an injection lance nozzle diameter [cm]. wherein the Ig-loss value is measured by heating a 0.1 mg sample of the reining agent for 1 hour in a platinum crucible or a magnetic crucible in an electric furnace controlled at 1050 ± 50°C, allowing the sample to cool and measuring the mass of the sample, the Ig-loss value being calculated according to Formula below: Ig. loss = m 1 m 0 × 100 in which Ig. loss represents the Ig-loss value in % by mass, m 0 represents the mass of the sample of refining agent in g before heating, and m 1 represents the sample weight loss in g, wherein when adding the refining agent, the refining agent is injected together with a carrier gas through an injection lance immersed under a bath surface of the hot metal under conditions satisfying Formulas to: [Math. 1] 300 ≤ ε g + ε P ≤ 1000 ε g = 6.183 × Q × T 1 W × ln 1 + h 1.02 × 10 − 4 × P + 1 − T g T l ε P = 2.25 × 10 − 5 × m × Q 2 d 0 4 × W in which ε g represents a carrier gas stirring power [W/t]; ε p represents a lime source energy; Q represents a carrier gas flow rate [N m 3 /min]; W represents a hot metal amount [t]; T l represents a hot metal temperature [°C]; T g represents a carrier gas temperature [°C]; h represents an injection lance immersion depth [m]; P represents an atmospheric pressure [Pa]; m represents a lime source injecting rate [g/s]; and d 0 represents an injection lance nozzle diameter [cm].
Bed cover system comprising a bed cover, having, in the specified order, - a textile layer, - a sensor layer that has at least one sensor selected from the group comprising temperature, humidity, attitude, position and acceleration sensors, - a layer of textile, inflatable air chambers, - a further sensor layer that has at least one sensor selected from the group comprising temperature, humidity, attitude, position and acceleration sensors, wherein a temperature sensor is arranged at least in the sensor layer or in the further sensor layer and - a further textile layer, and having a unit external to the bed cover, which unit has at least one air pump and a release valve and is connected to the layer in such a way that air can be pumped into the air chambers by means of the at least one air pump and air can be released from the air chambers by means of the release valve. - a textile layer, - a sensor layer that has at least one sensor selected from the group comprising temperature, humidity, attitude, position and acceleration sensors, - a layer of textile, inflatable air chambers, - a further sensor layer that has at least one sensor selected from the group comprising temperature, humidity, attitude, position and acceleration sensors, wherein a temperature sensor is arranged at least in the sensor layer or in the further sensor layer and - a further textile layer, and
A power output generation control system configured to control a power amplifier that applies output power to a load, comprising: a repeating setpoint generator module configured to selectively vary a setpoint for an output parameter according to a predetermined pattern that repeats during successive time intervals; an adjusting module configured to generate, during a first one of the time intervals, N adjustment values based on N differences between (i) N values of the setpoint at N times during a second one of the time intervals and (ii) N measurements of the output parameter at the N times during the second one of the time intervals, respectively, wherein the second one of the time intervals is the time interval preceding the first one of the time intervals; and a mixer module configured to generate N output values based on N closed-loop values and the N adjustment values, respectively, and configured to control power input to the power amplifier based on the N output values. a repeating setpoint generator module configured to selectively vary a setpoint for an output parameter according to a predetermined pattern that repeats during successive time intervals; an adjusting module configured to generate, during a first one of the time intervals, N adjustment values based on N differences between (i) N values of the setpoint at N times during a second one of the time intervals and (ii) N measurements of the output parameter at the N times during the second one of the time intervals, respectively, wherein the second one of the time intervals is the time interval preceding the first one of the time intervals; and a mixer module configured to generate N output values based on N closed-loop values and the N adjustment values, respectively, and configured to control power input to the power amplifier based on the N output values.
A display apparatus comprising: a display means configured to provide a first image; a transflective optical member configured to transfer the first image by using light that propagates along a first path and to transfer a second image by using light that propagates along a second path to an ocular organ of a user; wherein the second image includes an outside image that is viewable by the user through the display apparatus; and an anisotropic optical member that includes at least one characteristic that varies based on a polarization direction of incident light, wherein the anisotropic optical member is configured to function as a lens with respect to the light that propagates along the first path and to function as a flat plate with respect to the light that propagates along the second path; wherein the light that propagates along the first path is polarized in a first direction and incident on the anisotropic optical member, and the light that propagates along the second path is polarized in a second direction that is orthogonal to the first direction and incident on the anisotropic optical member; characterized in that the transflective optical member is a beam splitter and the anisotropic optical member is an anisotropic lens portion included in the beam splitter. a display means configured to provide a first image; a transflective optical member configured to transfer the first image by using light that propagates along a first path and to transfer a second image by using light that propagates along a second path to an ocular organ of a user; wherein the second image includes an outside image that is viewable by the user through the display apparatus; and an anisotropic optical member that includes at least one characteristic that varies based on a polarization direction of incident light, wherein the anisotropic optical member is configured to function as a lens with respect to the light that propagates along the first path and to function as a flat plate with respect to the light that propagates along the second path; wherein the light that propagates along the first path is polarized in a first direction and incident on the anisotropic optical member, and the light that propagates along the second path is polarized in a second direction that is orthogonal to the first direction and incident on the anisotropic optical member; characterized in that the transflective optical member is a beam splitter and the anisotropic optical member is an anisotropic lens portion included in the beam splitter.
A dynamic routing method of a network device in an ad-hoc network, comprising: (a) collecting a factor comprising at least one of the number of neighboring network devices, a moving speed and an amount of data traffic; (b) setting a routing information transmission mode based on a value of the collected factor; and (c) processing at least one of transmission and non-transmission of routing information according to the set routing information transmission mode, wherein in the step (b),when setting the routing information transmission mode, if the value of the factor is less than a preset threshold value, the routing information transmission mode is set to an active mode, and if the value of the factor exceeds the threshold, the routing information transmission mode is set to an inactive mode depending on a probability, and the probability is generated by the formula p r N i = n NE N i − th n NE N i n(NE(Ni)) = an average number of neighboring network devices of the network device th = a preset threshold value. (a) collecting a factor comprising at least one of the number of neighboring network devices, a moving speed and an amount of data traffic; (b) setting a routing information transmission mode based on a value of the collected factor; and (c) processing at least one of transmission and non-transmission of routing information according to the set routing information transmission mode, n(NE(Ni)) = an average number of neighboring network devices of the network device th = a preset threshold value.
A method for deploying a task in a computer cluster forming a supercomputer that comprises: - computers (102, 104), each having at least one network interface forming a node (1...16); and - a network interconnecting the nodes (1...16), comprising: • switches (1.1...4.8), each having network interfaces; and • links, each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), the method comprising: - allocating nodes (1...16) to the task, the method being characterized in that it further comprises: - determining, in the network, a subnetwork interconnecting the allocated nodes, said subnetwork satisfying a plurality of predefined determination criteria comprising a first criterion according to which the subnetwork determined is the one, from at least two subnetworks satisfying the criterion or criteria other than the first criterion, using the most switches already allocated, each to at least one already deployed task; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork. - computers (102, 104), each having at least one network interface forming a node (1...16); and - a network interconnecting the nodes (1...16), comprising: • switches (1.1...4.8), each having network interfaces; and • links, each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), • switches (1.1...4.8), each having network interfaces; and • links, each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), the method comprising: - allocating nodes (1...16) to the task, - allocating nodes (1...16) to the task, the method being characterized in that it further comprises: - determining, in the network, a subnetwork interconnecting the allocated nodes, said subnetwork satisfying a plurality of predefined determination criteria comprising a first criterion according to which the subnetwork determined is the one, from at least two subnetworks satisfying the criterion or criteria other than the first criterion, using the most switches already allocated, each to at least one already deployed task; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork. - determining, in the network, a subnetwork interconnecting the allocated nodes, said subnetwork satisfying a plurality of predefined determination criteria comprising a first criterion according to which the subnetwork determined is the one, from at least two subnetworks satisfying the criterion or criteria other than the first criterion, using the most switches already allocated, each to at least one already deployed task; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork.
Actuating apparatus for an electrical energy storage device, comprising: - a control device; - a first connection for a DC voltage generator; - a second connection for AC voltage; - at least two connections (17, 18) for the energy storage device; - a voltage converter device interconnected between the first connection and the second connection; - a charge regulating device interconnected with a link circuit of the voltage converter device; - a changeover device interconnected with the charge regulating device, said changeover device being useable to change over an output of the charge regulating device between the at least two connections (17, 18) for the energy storage device; and - a master management device, via which a charging method for the energy storage device is presettable to the charge regulating device depending on operating data from the energy storage device, wherein the changeover device is actuatable accordingly. - a control device; - a first connection for a DC voltage generator; - a second connection for AC voltage; - at least two connections (17, 18) for the energy storage device; - a voltage converter device interconnected between the first connection and the second connection; - a charge regulating device interconnected with a link circuit of the voltage converter device; - a changeover device interconnected with the charge regulating device, said changeover device being useable to change over an output of the charge regulating device between the at least two connections (17, 18) for the energy storage device; and - a master management device, via which a charging method for the energy storage device is presettable to the charge regulating device depending on operating data from the energy storage device, wherein the changeover device is actuatable accordingly.
An armor element configured for being employed within an armor, said armor element being formed with a base portion and a claw portion, said armor element having a longitudinal axis oriented perpendicular to said base portion, said claw portion comprising two or more claw members extending from said base portion generally along a longitudinal direction defined by said longitudinal axis, each claw member having a rear end associated with said base portion and a front end spaced from said base portion, wherein the claw members are tapered with respect to the longitudinal axis so that the distance between the corresponding front ends of the two or more claw members is greater than the distance between the rear ends of the two or more claw members.
A computer-implemented method comprising: obtaining individual patient data (102, 202) of a brain of a patient, wherein the individual patient data indicates brain regions affected by a neural event; obtaining a therapeutic brain network response map (104, 204) of a treatment, wherein the therapeutic brain network response map indicates brain responses to the treatment; and predicting an efficacy of the treatment for the patient based on a comparison of the individual patient data and the therapeutic brain network response map, wherein predicting the efficacy of the treatment comprises: extracting, with a statistical prediction model (200, 300), features from the individual patient data and the therapeutic brain network response map, comparing, with the statistical prediction model, the features extracted from the individual patient data to the features extracted from the therapeutic brain network response map, and predicting the efficacy of the treatment using the statistical prediction model. obtaining individual patient data (102, 202) of a brain of a patient, wherein the individual patient data indicates brain regions affected by a neural event; obtaining a therapeutic brain network response map (104, 204) of a treatment, wherein the therapeutic brain network response map indicates brain responses to the treatment; and predicting an efficacy of the treatment for the patient based on a comparison of the individual patient data and the therapeutic brain network response map, wherein predicting the efficacy of the treatment comprises: extracting, with a statistical prediction model (200, 300), features from the individual patient data and the therapeutic brain network response map, comparing, with the statistical prediction model, the features extracted from the individual patient data to the features extracted from the therapeutic brain network response map, and predicting the efficacy of the treatment using the statistical prediction model. extracting, with a statistical prediction model (200, 300), features from the individual patient data and the therapeutic brain network response map, comparing, with the statistical prediction model, the features extracted from the individual patient data to the features extracted from the therapeutic brain network response map, and predicting the efficacy of the treatment using the statistical prediction model.