mhurhangee/ep-ind-claims huggingface dataset:
A method of distributing utility applications to a plurality of devices, the method implemented by a utility application store implemented on a first computing device comprising computing resources (500, 502, 524, 104) capable of storing and/or providing access to a plurality of applications for smart sensors and other computing devices, the method comprising: receiving, at the utility application store, a request to install a first application (506) on a second computing device, wherein the second computing device is mobile device or personal computer of a user; identifying, by the first computing device, a complementary application (506) associated with the first application based on an application index that includes a listing of applications by topic, category, feature, or product or metadata associated with the first or complementary applications, the complementary application configured for execution by a third computing device, wherein the third computing device is a utility network computing device associated with a user or a user account, wherein the complementary application is configured to receive, provide, or both receive and provide, additional functionality and/or data to the first application or includes a feature similar or supplemental to a feature included in the first application; and sending, by the first computing device, a notification of availability of the complementary application to a utility supplier of the user, wherein the notification includes a graphical user interface "GUI" control usable to cause installation of the complementary application on the third computing device. receiving, at the utility application store, a request to install a first application (506) on a second computing device, wherein the second computing device is mobile device or personal computer of a user; identifying, by the first computing device, a complementary application (506) associated with the first application based on an application index that includes a listing of applications by topic, category, feature, or product or metadata associated with the first or complementary applications, the complementary application configured for execution by a third computing device, wherein the third computing device is a utility network computing device associated with a user or a user account, wherein the complementary application is configured to receive, provide, or both receive and provide, additional functionality and/or data to the first application or includes a feature similar or supplemental to a feature included in the first application; and sending, by the first computing device, a notification of availability of the complementary application to a utility supplier of the user, wherein the notification includes a graphical user interface "GUI" control usable to cause installation of the complementary application on the third computing device.
A polypeptide comprising an amino acid sequence variant of the mature alpha-2-macroglobulin/low density lipoprotein receptor-related protein-associated protein 1, said RAP set out in SEQ ID NO: 2, wherein: (i) the RAP variant comprises a continuous portion of said mature RAP that is at least 71 amino acids in length; (ii) the RAP variant comprises amino acids 256-270 of said mature RAP wherein one or more of the following positions: 251, 256, 257, 266 and 270, and optionally one or more of positions 175, 205, 213, 217, 226, 230, 232, 239, 246, 249, 261, 267, 268, 271, 273, 279, 283, 287, 290, 294, 296, 297, 298, 305, 306, 312 or 313 of said mature RAP are mutated, and (iii) said RAP variant binds selectively to a pair of complement-type repeats within a CR-containing protein, with an affinity that is at least 3-fold greater than the affinity of wild-type RAP for the same pair of complement-type repeats, wherein said CR-containing protein is selected from the group consisting of LDLR, LRP1, LRP1B (Q9NZR2), LRP2, LRP3, LRP4, LRP5, LRP6, LRP8, Sortilin, LRP10 (Q7Z4F1), LRP11 (Q86VZ4), LRP12 (Q9Y561), FDC-086, VLDLR, TADG-15 (Matriptase, ST14, Q8WVC1 TMPS3, TMPS4 (Q9NRS4), TMPS6 (Q81U80), Q61CC2, Q6PJ72, 076861, Q7RTY8, Q7Z7K9, Q86YD5, Q8NAN7, Q8NBJO, Q8WW88, Q96NT6, Q9BYE1, Q9BYE2, Q9NPFO and corin (Q81ZR7). (i) the RAP variant comprises a continuous portion of said mature RAP that is at least 71 amino acids in length; (ii) the RAP variant comprises amino acids 256-270 of said mature RAP wherein one or more of the following positions: 251, 256, 257, 266 and 270, and optionally one or more of positions 175, 205, 213, 217, 226, 230, 232, 239, 246, 249, 261, 267, 268, 271, 273, 279, 283, 287, 290, 294, 296, 297, 298, 305, 306, 312 or 313 of said mature RAP are mutated, and (iii) said RAP variant binds selectively to a pair of complement-type repeats within a CR-containing protein, with an affinity that is at least 3-fold greater than the affinity of wild-type RAP for the same pair of complement-type repeats, wherein said CR-containing protein is selected from the group consisting of LDLR, LRP1, LRP1B (Q9NZR2), LRP2, LRP3, LRP4, LRP5, LRP6, LRP8, Sortilin, LRP10 (Q7Z4F1), LRP11 (Q86VZ4), LRP12 (Q9Y561), FDC-086, VLDLR, TADG-15 (Matriptase, ST14, Q8WVC1 TMPS3, TMPS4 (Q9NRS4), TMPS6 (Q81U80), Q61CC2, Q6PJ72, 076861, Q7RTY8, Q7Z7K9, Q86YD5, Q8NAN7, Q8NBJO, Q8WW88, Q96NT6, Q9BYE1, Q9BYE2, Q9NPFO and corin (Q81ZR7).
Installation device for mounting at least one busbar with mounting devices (9A, 9B) that are mountable on a ceiling of a building, with two lifting devices (5A, 5B), each having a traction means (53A, 53B) and a deflection pulley (54A; 54B) connected to the associated mounting device (9A; 9B), characterised in that at least one work stage with a working platform and possibly a railing is provided, to which in the region of the working platform for each of the lifting devices (5A, 5B) a traction device (52A; 52B) is fastened by connecting means (523, 524), by which the associated traction means (53A; 53B), which is guided over the associated deflection pulley (54A; 54B) and which is connectable by means of an end piece (531A; 531B) to the at least one busbar, can be pulled in order to pull the at least one busbar up into the mounting devices (9A, 9B) in which it can be fixed.
Multilayer item comprising at least one textile sheet, characterized in that the textile sheet is composed of at least one multifilament yarn which comprises filaments with core/sheath structure, and that the said item comprises at least one further layer made of at least one polymeric material, where the polymeric material of the further layer is an elastomeric material based on a vulcanized rubber mixture, and the said mixture comprises an unblended rubber component or a rubber component blend and conventional mixture ingredients.
A method of pressurizing a container usable for an aerosol dispenser, said method comprising the steps of: providing a pressurizeable outer container which is polymeric, said outer container having a neck with a neck periphery and a hole therethrough, said outer container further comprising a product delivery device therein; providing a valve cup which is polymeric, said valve cup being sealable to said hole of said outer container, said valve cup having a valve cup periphery complementary to said neck periphery, at least one of said outer container and said valve cup having at least one channel therethrough, said at least one channel forming a flow path from the outside of said outer container to the inside of said outer container; disposing said valve cup onto said neck of said outer container; applying a manifold over said at least one channel, said manifold being in fluid communication with said at least one channel and with a supply of propellant; dispensing propellant from said supply, through said manifold, through said at least one channel and into said outer container to internally pressurize said container; sealing said channel, to keep said propellant therein at a pressure greater than atmospheric pressure; and sealing said valve cup to said outer container; and removing said manifold from said at least one channel, wherein said step of sealing said valve cup to said outer container comprises the step of ultrasonically welding, spin welding or sonically welding said valve cup to said outer container. providing a pressurizeable outer container which is polymeric, said outer container having a neck with a neck periphery and a hole therethrough, said outer container further comprising a product delivery device therein; providing a valve cup which is polymeric, said valve cup being sealable to said hole of said outer container, said valve cup having a valve cup periphery complementary to said neck periphery, at least one of said outer container and said valve cup having at least one channel therethrough, said at least one channel forming a flow path from the outside of said outer container to the inside of said outer container; disposing said valve cup onto said neck of said outer container; applying a manifold over said at least one channel, said manifold being in fluid communication with said at least one channel and with a supply of propellant; dispensing propellant from said supply, through said manifold, through said at least one channel and into said outer container to internally pressurize said container; sealing said channel, to keep said propellant therein at a pressure greater than atmospheric pressure; and sealing said valve cup to said outer container; and removing said manifold from said at least one channel, wherein said step of sealing said valve cup to said outer container comprises the step of ultrasonically welding, spin welding or sonically welding said valve cup to said outer container.
Method for the synchronized acquisition of measurement data required for the control of differential protection devices of electrical power lines, which measurement data is transmitted in packets via packet-switching networks between two network elements (2, 3) whose clocks are synchronized on the basis of measured transmission and reception times (T s, T e) of a predetermined number of synchronization messages, which are transmitted between the network elements (2, 3) via the packet-switching network at cyclically repeating time intervals (T N), whereby the transit times of the individual synchronization messages are calculated from the transmission and reception times (T s, T e) and are ordered in accordance with a predetermined, for the transmission part characteristic statistical distribution of the transit times, and whereby the parameter values required for clock synchronization are calculated from the transit time distribution derived from the ordered transit times, characterized in that the synchronization messages are transmitted only from the network element with the time-determining clock to the network element with the clock to be synchronized, and in that the transit times of the individual synchronization messages are calculated from the transmission and reception times (T s, T e) of the synchronization messages received by the network element with the clock to be synchronized.
A method for allocating, by a base station, BS, a safety channel to a handover subscriber station, SS, for data communication in an Orthogonal Frequency Division Multiple Access, OFDMA, system, the method comprising the steps of: determining a bin offset for indicating the safety channel to be allocated to the handover SS and a number of subchannels, wherein the bin offset indicates a position of a bin used as the safety channel, and wherein a bin refers to an allocation unit in a band Adaptive Modulation and Coding, AMC, channel; generating a Mobile Application Part, MAP, information element, IE, with a set indicator indicating allocation of the safety channel, the MAP IE including SS identifier information indicating the handover SS, information on the determined bin offset, and information on the determined number of subchannels; and transmitting the generated MAP IE at a MAP IE transmission time in a frame. determining a bin offset for indicating the safety channel to be allocated to the handover SS and a number of subchannels, wherein the bin offset indicates a position of a bin used as the safety channel, and wherein a bin refers to an allocation unit in a band Adaptive Modulation and Coding, AMC, channel; generating a Mobile Application Part, MAP, information element, IE, with a set indicator indicating allocation of the safety channel, the MAP IE including SS identifier information indicating the handover SS, information on the determined bin offset, and information on the determined number of subchannels; and transmitting the generated MAP IE at a MAP IE transmission time in a frame.
A power metering device comprising: a tap unit including a clamp (35, 35A) for engaging onto a coaxial cable and a probe, wherein said probe includes a conductive element configured to electrically engage a center conductor of the cable and an electrode configured to establish electrical contact with one or more shielding layers of the coaxial cable; a power consumption meter electrically connected to said probe; an outer housing surrounding said power consumption meter; and a power port electrically connected to said probe, said power port for supplying power taken from the center conductor of the coaxial cable to a customer device connected to said power port, wherein said power consumption meter is configured to measure an amount of power passing through said probe or passing through said power port. a tap unit including a clamp (35, 35A) for engaging onto a coaxial cable and a probe, wherein said probe includes a conductive element configured to electrically engage a center conductor of the cable and an electrode configured to establish electrical contact with one or more shielding layers of the coaxial cable; a power consumption meter electrically connected to said probe; an outer housing surrounding said power consumption meter; and a power port electrically connected to said probe, said power port for supplying power taken from the center conductor of the coaxial cable to a customer device connected to said power port, wherein said power consumption meter is configured to measure an amount of power passing through said probe or passing through said power port.
Control device for a sensor system of an occupant protection system, the control device at least having: a connection device for connecting a data link having at least two lines (4a, 4b) as a current interface to at least one sensor, the connection device receiving, via the data link, signals generated by the sensor by subjecting an interface current to current modulation, the control device having a current limitation circuit which limits a short-circuit current (I_2, I_3) in the event of a short circuit on at least one line (4a, 4b) of the data link, the current limitation circuit limiting the short-circuit current (I_2, I_3) in a temporally variable manner, characterized in that, in the event of a short circuit, the current limitation circuit limits the interface current to an upper short-circuit current value (I_2) in a first period (t1-t0) and limits the interface current to a lower short-circuit current value (I_3) after the first period (t1-t0). a connection device for connecting a data link having at least two lines (4a, 4b) as a current interface to at least one sensor, the connection device receiving, via the data link, signals generated by the sensor by subjecting an interface current to current modulation, the control device having a current limitation circuit which limits a short-circuit current (I_2, I_3) in the event of a short circuit on at least one line (4a, 4b) of the data link, the current limitation circuit limiting the short-circuit current (I_2, I_3) in a temporally variable manner, characterized in that, in the event of a short circuit, the current limitation circuit limits the interface current to an upper short-circuit current value (I_2) in a first period (t1-t0) and limits the interface current to a lower short-circuit current value (I_3) after the first period (t1-t0).
A polyether polyol comprising: (a) an alkoxylate of 4,4'-isopropylidenediphenol; (b) an alkoxylate of 2,4'-isopropylidenediphenol, 2,2'-isopropylidenediphenol, or a mixture thereof, and (c) an alkoxylate of components comprising structural elements which are derived from phenol, acetone, isopropylidenediphenol, or a mixture of any two or more thereof, but which are not isomers of isopropylidenediphenol, wherein the polyether polyol comprises an internal block comprising polymerized ethylene oxide moieties and an external cap comprising polymerized propylene oxide moieties, and wherein polymerized propylene oxide moieties of the external cap are present in an amount of at least 20% by weight, based on the total weight of polymerized alkylene oxide moieties in the polyether polyol. (a) an alkoxylate of 4,4'-isopropylidenediphenol; (b) an alkoxylate of 2,4'-isopropylidenediphenol, 2,2'-isopropylidenediphenol, or a mixture thereof, and (c) an alkoxylate of components comprising structural elements which are derived from phenol, acetone, isopropylidenediphenol, or a mixture of any two or more thereof, but which are not isomers of isopropylidenediphenol, wherein the polyether polyol comprises an internal block comprising polymerized ethylene oxide moieties and an external cap comprising polymerized propylene oxide moieties, and wherein polymerized propylene oxide moieties of the external cap are present in an amount of at least 20% by weight, based on the total weight of polymerized alkylene oxide moieties in the polyether polyol.
Method of restoring a ball track milling cutter comprising the steps of: a) providing a ball track milling cutter having a carrier body and at least one cutting element disposed thereon; b) separating the at least one cutting element from the carrier body; c) grinding the cutting element; d) providing a new carrier body; and e) attaching the reground cutting element to the new carrier body, characterized in that in step d) of providing a new carrier body, a new carrier body is provided which has a different geometry compared to the carrier body. a) providing a ball track milling cutter having a carrier body and at least one cutting element disposed thereon; b) separating the at least one cutting element from the carrier body; c) grinding the cutting element; d) providing a new carrier body; and e) attaching the reground cutting element to the new carrier body,
A device for an electronic aerosol provision system comprising: a battery for providing electrical power to an aerosol generating component in the system; an indicator light configured to emit a light signal for a signal period that indicates a level of electrical power available from the battery; and a controller configured to activate the indicator light to emit the light signal after detecting that a puff period on the system has been completed, in which the controller is configured to activate the indicator light to emit the light signal at the end of a pause period that commences when the puff period is detected as having been completed. a battery for providing electrical power to an aerosol generating component in the system; an indicator light configured to emit a light signal for a signal period that indicates a level of electrical power available from the battery; and a controller configured to activate the indicator light to emit the light signal after detecting that a puff period on the system has been completed, in which the controller is configured to activate the indicator light to emit the light signal at the end of a pause period that commences when the puff period is detected as having been completed.
An FGFR3 antagonist, a TP53 antagonist, or an EGFR antagonist for use in treating a patient suffering from a non-muscle invasive bladder cancer (NMIBC), wherein the expression level of at least two of the following genes: FGFR3, TP53, and EGFR, in a sample obtained from the patient has been determined to be increased relative to a reference level of the at least two genes, optionally wherein the NMIBC is a recurrent NMIBC.
A method for preparing a tobacco-derived nanocellulose material, the method comprising: receiving a tobacco pulp derived from tobacco root in a dilute form such that the tobacco pulp is a tobacco pulp suspension with a consistency from about 1% to about 5%; and mechanically fibrillating the tobacco pulp suspension to generate a tobacco derived nanocellulose material in the form of particles having at least one average particle size dimension in the range of about 1 nm to about 100 nm, wherein mechanically fibrillating comprises passing the tobacco pulp suspension through a high-pressure homogenizer or high-pressure microfluidizer at an elevated pressure of at least 100 bar to generate a tobacco derived nanocellulose material; wherein, prior to or following the receiving, the tobacco pulp is subjected to depithing, Kraft cooking, chemical bleaching, and grinding. receiving a tobacco pulp derived from tobacco root in a dilute form such that the tobacco pulp is a tobacco pulp suspension with a consistency from about 1% to about 5%; and mechanically fibrillating the tobacco pulp suspension to generate a tobacco derived nanocellulose material in the form of particles having at least one average particle size dimension in the range of about 1 nm to about 100 nm, wherein mechanically fibrillating comprises passing the tobacco pulp suspension through a high-pressure homogenizer or high-pressure microfluidizer at an elevated pressure of at least 100 bar to generate a tobacco derived nanocellulose material; wherein, prior to or following the receiving, the tobacco pulp is subjected to depithing, Kraft cooking, chemical bleaching, and grinding.