mhurhangee/ep-ind-claims huggingface dataset:
A method implemented on a communication device for managing data transfer from the communication device to a communication network over a wireless connection, the communication device comprising a cellular data services controller, CDSC, for establishing and controlling access to a protected connection over the communication network, the method comprising: determining that a requesting process on the communication device is authorized to transfer data to the communication network over the protected connection, wherein the determining comprises attempting to open (508, 510) communication with the CDSC via a persistent publish and subscribe, PPS, service, verifying that the requesting process is permitted to access the protected connection, confirming (512, 514), by the CDSC via the PPS service, the opening of the communication, and activating a packet data protocol, PDP, context to connect the requesting process to the protected connection; and configuring a network interface on the communication device to allow data packets to be transferred from the requesting process to the communication network over the protected connection, wherein the network interface is associated with the protected connection. determining that a requesting process on the communication device is authorized to transfer data to the communication network over the protected connection, wherein the determining comprises attempting to open (508, 510) communication with the CDSC via a persistent publish and subscribe, PPS, service, verifying that the requesting process is permitted to access the protected connection, confirming (512, 514), by the CDSC via the PPS service, the opening of the communication, and activating a packet data protocol, PDP, context to connect the requesting process to the protected connection; and attempting to open (508, 510) communication with the CDSC via a persistent publish and subscribe, PPS, service, verifying that the requesting process is permitted to access the protected connection, confirming (512, 514), by the CDSC via the PPS service, the opening of the communication, and activating a packet data protocol, PDP, context to connect the requesting process to the protected connection; and configuring a network interface on the communication device to allow data packets to be transferred from the requesting process to the communication network over the protected connection, wherein the network interface is associated with the protected connection.
An imprint material discharging device configured to discharge onto a substrate an imprint material on which a pattern is to be formed by bringing a mold into contact with the imprint material, the imprint material discharging device comprising: a container member that includes a container section configured to contain the imprint material; a channel that is connected to the container section; and a discharging member that includes a discharge port for discharging the imprint material, an energy generating element that is configured to generate energy for discharging the imprint material from the discharge port, and a region that is disposed between the energy generating element and the discharge port, wherein the channel has a first opening and a second opening, the first opening being configured to supply the imprint material contained in the container section into the channel and opening into the container section, characterized by the second opening being configured to supply the imprint material supplied from the first opening to the container section and opening into the container section, wherein a filter that is configured to filter the imprint material is disposed between the first opening and the second opening of the channel, and wherein the channel is provided at a portion that differs from the region. a container member that includes a container section configured to contain the imprint material; a channel that is connected to the container section; and a discharging member that includes a discharge port for discharging the imprint material, an energy generating element that is configured to generate energy for discharging the imprint material from the discharge port, and a region that is disposed between the energy generating element and the discharge port, wherein the channel has a first opening and a second opening, the first opening being configured to supply the imprint material contained in the container section into the channel and opening into the container section, characterized by the second opening being configured to supply the imprint material supplied from the first opening to the container section and opening into the container section, wherein a filter that is configured to filter the imprint material is disposed between the first opening and the second opening of the channel, and wherein the channel is provided at a portion that differs from the region.
An athletic performance monitoring system, comprising: a processor system; a first athletic performance monitor configured to generate data relating to at least one of a speed or a distance moved by an athlete during an athletic performance; a portable audio, video, or display device for use during the athletic performance; and a sensor configured to detect a physical movement of the athlete, wherein the sensor comprises an accelerometer which is designed to be hand or arm mounted, and wherein output from the sensor is processed, by the processor system, to provide control input to adjust an operational mode of the portable audio, video, or display device in accordance with one or more physical movements of the athlete during the athletic performance. a processor system; a first athletic performance monitor configured to generate data relating to at least one of a speed or a distance moved by an athlete during an athletic performance; a portable audio, video, or display device for use during the athletic performance; and a sensor configured to detect a physical movement of the athlete, wherein the sensor comprises an accelerometer which is designed to be hand or arm mounted, and wherein output from the sensor is processed, by the processor system, to provide control input to adjust an operational mode of the portable audio, video, or display device in accordance with one or more physical movements of the athlete during the athletic performance.
A method of forming small-width rolls of film of a stretch plastics material, from a large-width roll from which said film is unrolled continuously, wherein: - the stretch film is cut as it is unrolled from the large-width roll to form strips of widths and in number corresponding to the desired rolls; said method being characterized in that: - the strips are stretched, thereby causing the cutting lines to be spaced apart due to the reduction in the widths of said strips resulting from the stretching; - the stretch tension on each of the strips is relaxed; - the strips are rolled up in the relaxed state onto mandrels for forming the small-width rolls. - the stretch film is cut as it is unrolled from the large-width roll to form strips of widths and in number corresponding to the desired rolls; - the strips are stretched, thereby causing the cutting lines to be spaced apart due to the reduction in the widths of said strips resulting from the stretching; - the stretch tension on each of the strips is relaxed; - the strips are rolled up in the relaxed state onto mandrels for forming the small-width rolls.
A communication control method for a control device, the control device comprising a plurality of device driver means (DD1, DD2) and a plurality of virtual port driver means (VPD1, VPD2), and a first communication port as a physical communication port using a first communication protocol, and each of the plurality of device driver means (DD1, DD2) communicating with a respective one of the plurality of virtual port driver means (VPD1, VPD2) using a respective communication protocol, and the control device being configured to communicate with a controlled device being connected to the first communication port through the virtual port driver means (VPD1, VPD2) and the first communication port, the communication control method comprises a step of executing a communication process in which a first virtual port driver means emulates a second communication port by using a second communication protocol in communication with a respective first device driver means; and, the method further comprises, when at least a second virtual port driver means, which emulates a third communication port using a third communication protocol in communication with a respective second device driver means, and converts from the third communication protocol to the first communication protocol in communication with the first communication port, occupies the first communication port, a step of executing a communication process in which the first virtual port driver means emulates in communication with the second virtual port driver means the second device driver means by converting from the second communication protocol to the third communication protocol in communication with the second virtual port driver means.
Water based spraying liquid suitable for spraying plants, wherein the liquid comprises water and a suitable amount of the growth regulator prohexadione-calcium, and the fungicide prothioconazole; - wherein the amount of growth regulator is between 20 and 400 g per hectare - and wherein the amount of fungicide is between 20 and 500 g/ha. - wherein the amount of growth regulator is between 20 and 400 g per hectare - and wherein the amount of fungicide is between 20 and 500 g/ha.
Rotor for a reluctance motor, wherein the rotor has a laminated core comprising a number of layers electrically insulated from one another, extending radially away from an axis of rotation of the rotor, wherein each layer has at least one magnetically-conductive rotor sheet (18, 18') and in each layer overall a number of flux guidance sections are formed by the at least one rotor sheet (18, 18'), which are separated from one another by a non-magnetic area (22, 22'), wherein an insert disk is disposed between at least two of the layers, which is linked in each case to at least two flux guidance sections of one of the layers or of both layers, between which it is disposed and through this connects these flux guidance sections to each other across the non-magnetic area (22, 22') located between them characterised in that the insert disc is a weave with fibres which is aligned in relation to a specified q-axis of the laminated core at an angle ranging between 40° an 50°, and/or the insert disc, in the non-magnetic area (22, 22') between two flux guidance sections which it connects, is thicker than at the flux guidance sections and through this makes a form fit with the flux guidance sections in the radial direction.
An infiltration apparatus comprising: an infiltrant source adapted to receive an infiltrant material having a first melting point; a barrier having a second melting point; a component; and a wick in fluid communication with the infiltrant source and the component;wherein - the second melting point is higher than the first melting point; - the infiltrant material is an alloy; - the barrier is a high purity metal and - the barrier is disposed between the infiltrant source and the component. an infiltrant source adapted to receive an infiltrant material having a first melting point; a barrier having a second melting point; a component; and a wick in fluid communication with the infiltrant source and the component;wherein - the second melting point is higher than the first melting point; - the infiltrant material is an alloy; - the barrier is a high purity metal and - the barrier is disposed between the infiltrant source and the component. - the second melting point is higher than the first melting point; - the infiltrant material is an alloy; - the barrier is a high purity metal and - the barrier is disposed between the infiltrant source and the component.
A method for generating a light distribution on a roadway with the aid of a motor vehicle headlight, in which at least one laser beam of which the intensity can be modulated is directed with the aid of at least one actuated beam deflection means onto a light conversion means in a manner scanning in at least one coordinate direction so as to generate at said light conversion means a light image which has any light distributions, even those that can be changed quickly, and which is projected with the aid of a projection optics onto the roadway, characterised in that in order to correct the illumination falloff in the image periphery, the intensity of the at least one laser beam is changed according to a specified function in the sense of increasing the intensity in the direction of the edges of the light image generated on the light conversion means.
A knit sleeve for providing protection to an elongate member, comprising: a tubular knit wall having opposite end regions extending to opposite free ends and an intermediate region extending between said end regions, said intermediate region being formed as a knit single layer and each of said end regions being formed having knit inner and outer layers (22, 24) characterized in that each end region has a pair of dual layer sections (38, 40) diametrically opposite one another, said pair of dual layer sections (38, 40) being circumferentially spaced from one another by a pair of diametrically opposed gaps.
A method of preparing a nanocomposite for an energy storage electrochemical cell comprising at least 50% molar content of a metal fluoride and a phosphate, the method comprising the steps of: (a) mixing a metal fluoride compound and 5 to 50 weight % of a conductive matrix, wherein the metal fluoride is selected from the group consisting of CuF 2, BiF 3 and FeF 3, and the conductive matrix is selected from the group consisting of MoO 3, MoS 2 and Bi 2 Te 3; (b) milling the metal fluoride and conductive matrix mixture by high energy milling to form a first product; (c) combining the first product with 2-50 weight percent of a phosphate selected from the group consisting of lithium metaphosphate, lithium dihydrogen phosphate and hydrogen phosphate; and (d) milling the first product and the phosphate by high energy milling to form a second product, wherein the second product is the nanocomposite for the electrochemical cell comprising the metal fluoride, the conductive matrix and a phosphate, such that at least one dimension of each of the metal fluoride and the phosphate of the nanocomposite is less than 100 nm. (a) mixing a metal fluoride compound and 5 to 50 weight % of a conductive matrix, wherein the metal fluoride is selected from the group consisting of CuF 2, BiF 3 and FeF 3, and the conductive matrix is selected from the group consisting of MoO 3, MoS 2 and Bi 2 Te 3; (b) milling the metal fluoride and conductive matrix mixture by high energy milling to form a first product; (c) combining the first product with 2-50 weight percent of a phosphate selected from the group consisting of lithium metaphosphate, lithium dihydrogen phosphate and hydrogen phosphate; and (d) milling the first product and the phosphate by high energy milling to form a second product, wherein the second product is the nanocomposite for the electrochemical cell comprising the metal fluoride, the conductive matrix and a phosphate, such that at least one dimension of each of the metal fluoride and the phosphate of the nanocomposite is less than 100 nm.
A method for manufacturing a layered sheet comprising a base material and at least a foaming agent-containing resin layer, a non-foamed resin layer, and a surface protective layer formed in this order on the base material, wherein the surface protective layer has a monolayer or multilayer structure and comprises at least one layer comprising polyethylene and/or an ethylene copolymer, the method comprising: step 1 comprising forming the foaming agent-containing resin layer and the non-foamed resin layer on the base material; step 2 comprising forming the surface protective layer on the non-foamed resin layer by extrusion film forming; and step 3 comprising applying an electron beam from the surface protective layer side to crosslink the polyethylene and/or the ethylene copolymer. step 1 comprising forming the foaming agent-containing resin layer and the non-foamed resin layer on the base material; step 2 comprising forming the surface protective layer on the non-foamed resin layer by extrusion film forming; and step 3 comprising applying an electron beam from the surface protective layer side to crosslink the polyethylene and/or the ethylene copolymer.
Method for producing an iodine radioisotopes fraction, in particular of 1-131, comprising the following steps: (i) Alkaline dissolution of enriched uranium targets by obtaining an alkaline slurry containing aluminium salts, uranium and isotopes generated by the fission of enriched uranium and a gaseous phase of Xe-133, (ii) Filtration of said alkaline slurry in order to isolate, on the one hand, a solid phase containing the uranium and, on the other hand, an alkaline solution of molybdate and salts of iodine radioisotopes (iii) Adsorption of said salts of iodine radioisotopes on an alumina resin doped with silver and recovery of said alkaline solution of molybdate depleted of iodine radioisotopes, in particular of 1-131, passing through said alumina resin doped with silver, and (iv) Recovery of said iodine radioisotopes fraction, in particular of 1-131, characterised in that said recovery of said iodine radioisotopes fraction, in particular of 1-131, comprises a washing of the alumina resin doped with silver with a solution of NaOH at a concentration of between 0.2 and 1.5mol/l, preferably between 0.3 and 1mol/l and more preferably of about 0.5mol/l, and an elution of the iodine radioisotopes, in particular of 1-131 by a thiourea solution presenting a thiourea concentration of between 0.5mol/l and 1.5mol/l, preferably of between 0.8 and 1.2mol/l, more preferably of about 1mol/l, with a collection of an eluate containing said iodine radioisotopes, in particular 1-131, in a thiourea solution. (i) Alkaline dissolution of enriched uranium targets by obtaining an alkaline slurry containing aluminium salts, uranium and isotopes generated by the fission of enriched uranium and a gaseous phase of Xe-133, (ii) Filtration of said alkaline slurry in order to isolate, on the one hand, a solid phase containing the uranium and, on the other hand, an alkaline solution of molybdate and salts of iodine radioisotopes (iii) Adsorption of said salts of iodine radioisotopes on an alumina resin doped with silver and recovery of said alkaline solution of molybdate depleted of iodine radioisotopes, in particular of 1-131, passing through said alumina resin doped with silver, and (iv) Recovery of said iodine radioisotopes fraction, in particular of 1-131,
A method for securing a software program, the method comprising: transforming an original software program into a transformed software program during build time, wherein said transforming comprises: transforming an original function-call layout of the original software program to a new function-call layout during build time, wherein the new function-call layout is different than the original function-call layout and includes one or more modification instructions; and transforming an original function-call structure of the original software program to a new function-call structure during build time wherein the new function-call structure includes functionality for dynamically modifying itself during execution of the transformed software program, said modifying being based, at least in part, on the one or more modification instructions; wherein the transformed software program is semantically equivalent to the original software program and wherein the transformed software program has a control flow structure that is different than a control flow structure of the original software program. transforming an original software program into a transformed software program during build time, wherein said transforming comprises: transforming an original function-call layout of the original software program to a new function-call layout during build time, wherein the new function-call layout is different than the original function-call layout and includes one or more modification instructions; and transforming an original function-call structure of the original software program to a new function-call structure during build time wherein the new function-call structure includes functionality for dynamically modifying itself during execution of the transformed software program, said modifying being based, at least in part, on the one or more modification instructions; transforming an original function-call layout of the original software program to a new function-call layout during build time, wherein the new function-call layout is different than the original function-call layout and includes one or more modification instructions; and transforming an original function-call structure of the original software program to a new function-call structure during build time wherein the new function-call structure includes functionality for dynamically modifying itself during execution of the transformed software program, said modifying being based, at least in part, on the one or more modification instructions; wherein the transformed software program is semantically equivalent to the original software program and wherein the transformed software program has a control flow structure that is different than a control flow structure of the original software program.
An imaging system comprising: a physiological parameter monitor which monitors a cyclic physiological parameter and generates a cyclic parameter phase indicative signal; a radiation system disposed adjacent an examination region (18, 28) to generate transmission radiation data and emission radiation data obtained over several cycles of the cyclic physiological parameter; the transmission data being obtained using a radiation source and a radiation detector disposed on a rotatable gantry; wherein the transmission data are acquired by setting the rotatable gantry at a slow motion, so that the data processor can reconstruct an attenuation map for each cyclic parameter phase from data collected over a single rotation of the rotatable gantry; first and second sorting devices (48, 74) which sort corresponding transmission and emission radiation data into transmission radiation data sets and emission radiation data sets corresponding to each of a plurality of the cyclic parameter phases; a data processor which reconstructs attenuation maps from the transmission data for each of the plurality of cyclic parameter phases; and an image processor which corrects the emission radiation data of each cyclic parameter phase with the attenuation map of the same cyclic parameter phase and reconstructs the attenuation corrected emission data sets into an image representation for each cyclic parameter phase. a physiological parameter monitor which monitors a cyclic physiological parameter and generates a cyclic parameter phase indicative signal; a radiation system disposed adjacent an examination region (18, 28) to generate transmission radiation data and emission radiation data obtained over several cycles of the cyclic physiological parameter;