mhurhangee/ep-ind-claims huggingface dataset:
A microporous battery separator comprising: three layers having a polypropylene / polyethylene/ polypropylene (PP/PE/PP) laminated configuration wherein the separator is produced by a dry stretch process; and wherein said separator having a thickness of from 12 μm to 30 μm as measured according to ASTM D374, a porosity in the range of 35% to 65% as measured according to ASTM D-2873, and an electrical resistance value of less than or equal to 1.5 ohm-cm 2 as measured according to "Electrical Resistance" in the description, and has a puncture strength of at least 280 gf (2.745862 N) as measured according to "Puncture Strength" in the description at a thickness of at least 12 μm as measured according to ASTM D374, wherein the polypropylene layers are produced from a polypropylene resin having a melt flow index of less than or equal to about 0.8 grams/10 minute as measured according to ASTM DS1238, and wherein the pores of the separator are rectangular shaped. wherein said separator having a thickness of from 12 μm to 30 μm as measured according to ASTM D374, a porosity in the range of 35% to 65% as measured according to ASTM D-2873, and an electrical resistance value of less than or equal to 1.5 ohm-cm 2 as measured according to "Electrical Resistance" in the description, and has a puncture strength of at least 280 gf (2.745862 N) as measured according to "Puncture Strength" in the description at a thickness of at least 12 μm as measured according to ASTM D374, wherein the polypropylene layers are produced from a polypropylene resin having a melt flow index of less than or equal to about 0.8 grams/10 minute as measured according to ASTM DS1238, and wherein the pores of the separator are rectangular shaped.
A method of sampling volatile malodorous materials from the human skin, said method comprising the topical application of a patch comprising an absorbent hydrogel layer and a backing sheet adhering to it, the volatile malodourous materials being absorbed into the hydrogel layer and subsequently being extracted from it, the hydrogel layer being in direct with the skin or wherein the absorbent hydrogel layer is separated from direct contact with the skin by a permeable membrane, during the use of the patch.
A method of making a medical device for placement in a body lumen comprising: braiding a plurality of strands defining proximal strand ends to form a tubular structure; and attaching a first end feature defining a proximal end and a distal end to the proximal strand ends via the proximal end of the first end feature, wherein the tubular structure comprises a disk shaped expanded volume portion proximate to the first end feature and a tapered transition portion extending between the expanded volume portion and the proximal end of the first end feature, wherein the proximal end of the first end feature substantially coincides with the proximal end of the medical device. braiding a plurality of strands defining proximal strand ends to form a tubular structure; and attaching a first end feature defining a proximal end and a distal end to the proximal strand ends via the proximal end of the first end feature, wherein the tubular structure comprises a disk shaped expanded volume portion proximate to the first end feature and a tapered transition portion extending between the expanded volume portion and the proximal end of the first end feature, wherein the proximal end of the first end feature substantially coincides with the proximal end of the medical device.
A method comprising: classifying each of a first plurality of endpoints in a network into a first endpoint group, based on an attribute associated with the first endpoint group, wherein the first plurality of endpoints have a first software-defined networking, SDN, solution 2.; defining, for the first endpoint group a first policy model comprising one or more rules for processing associated network traffic; identifying a second plurality of endpoints associated with a second SDN solution that is different than the first SDN solution; associating each of the second plurality of endpoints with a second endpoint group, wherein the second endpoint group corresponds to the first endpoint group, and wherein each of the second plurality of endpoints is associated with the second endpoint group based on the attribute; defining, for the second endpoint group, a second policy model comprising the one or more rules associated with the first policy model; generating a third endpoint group enumerating a network address of other endpoints in the network, which match the attribute and defining, for the third endpoint group, a third policy model, wherein the third policy model inherits the one or more rules from the first policy model. classifying each of a first plurality of endpoints in a network into a first endpoint group, based on an attribute associated with the first endpoint group, wherein the first plurality of endpoints have a first software-defined networking, SDN, solution 2.; defining, for the first endpoint group a first policy model comprising one or more rules for processing associated network traffic; identifying a second plurality of endpoints associated with a second SDN solution that is different than the first SDN solution; associating each of the second plurality of endpoints with a second endpoint group, wherein the second endpoint group corresponds to the first endpoint group, and wherein each of the second plurality of endpoints is associated with the second endpoint group based on the attribute; defining, for the second endpoint group, a second policy model comprising the one or more rules associated with the first policy model; generating a third endpoint group enumerating a network address of other endpoints in the network, which match the attribute and defining, for the third endpoint group, a third policy model, wherein the third policy model inherits the one or more rules from the first policy model.
A method of wireless communication at a user equipment, UE, comprising: receiving a handover message from a serving cell (404-a), the handover message associated with a handover procedure to a target cell (404-b); and determining whether to perform a hypothesis test to determine if a physical broadcast channel, PBCH, repetition is enabled in the target cell (404-b) based on the handover message. receiving a handover message from a serving cell (404-a), the handover message associated with a handover procedure to a target cell (404-b); and determining whether to perform a hypothesis test to determine if a physical broadcast channel, PBCH, repetition is enabled in the target cell (404-b) based on the handover message.
A pump assembly comprising - a pump unit comprising an impeller for pumping fluid, - an electric motor for driving the impeller, - a control module for controlling the speed of the electric motor in a control mode, and - an interface for receiving a pulse width modulated control signal with a duty cycle indicative of the speed of the electric motor, wherein the control module is configured to interpret the PWM control signal at start-up of the electric motor per default in a configuration mode as a configuration bit sequence based on the duty cycle of the PWM control signal during a pre-determined configuration window. - a pump unit comprising an impeller for pumping fluid, - an electric motor for driving the impeller, - a control module for controlling the speed of the electric motor in a control mode, and - an interface for receiving a pulse width modulated control signal with a duty cycle indicative of the speed of the electric motor,
A turbine engine assembly for a generator, comprising: a turbine engine having a compressor section, a combustor section and a turbine section, the combustor section having a primary zone temperature (T_PZ) and the turbine engine having a design load; at least one air bleed line in communication with the compressor section; at least one valve for controlling air flow through the at least one air bleed line; and a controller arranged to open the at least one valve to allow bleed air to flow through the at least one air bleed line when an operating load is less than the design load, wherein the controller is arranged to increase a flow rate through the at least one air bleed line as the operating load decreases to thereby reduce power delivered to the generator while maintaining the primary zone temperature (T_PZ) above a primary zone temperature (T_PZ) lower limit, wherein the controller is arranged first to close inlet guide vanes of the compressor section to a limiting position for an initial decrease in operating load, wherein the controller is arranged to open the at least one air bleed line as the operating load then decreases further, wherein the controller is arranged to open the inlet guide vanes as the flow rate through the at least one air bleed line increases. a turbine engine having a compressor section, a combustor section and a turbine section, the combustor section having a primary zone temperature (T_PZ) and the turbine engine having a design load; at least one air bleed line in communication with the compressor section; at least one valve for controlling air flow through the at least one air bleed line; and a controller arranged to open the at least one valve to allow bleed air to flow through the at least one air bleed line when an operating load is less than the design load, wherein the controller is arranged to increase a flow rate through the at least one air bleed line as the operating load decreases to thereby reduce power delivered to the generator while maintaining the primary zone temperature (T_PZ) above a primary zone temperature (T_PZ) lower limit, wherein the controller is arranged first to close inlet guide vanes of the compressor section to a limiting position for an initial decrease in operating load, wherein the controller is arranged to open the at least one air bleed line as the operating load then decreases further, wherein the controller is arranged to open the inlet guide vanes as the flow rate through the at least one air bleed line increases.
A method for producing documents, wherein a paper web is removed from a paper reel, said paper web is conveyed continuously, is printed using a rotary printing machine and is subsequently separated into at least two partial webs, wherein at least one first partial web (4.1) is displaced in the transverse direction and is assigned to a second partial web (4.2) lying thereabove or therebelow in such a manner that in each case a section of the first partial web together with a section of the second partial web form at least two sheets of the document that are subsequently cut to size, are folded longitudinally or transversely approximately centrally, are connected to one another and can be folded to form a document having at least eight pages, wherein at least one page of the document of the first partial web (4.1) is coated at least selectively with adhesive within the region of the fold of the document and is additionally coated in at least one region outside the fold and is adhesively bonded to at least one facing page of the document of the second partial web (4.2) to form a thickened page of the document, wherein the thickened page of the document has a thickness which is at least twice the size of the thickness of a non-adhesively-bonded page, wherein the adhesive is applied distributed over the entire surface of the page of the document of the first partial web (4.1), or wherein the page of the document of the first partial web (4.1) and the facing page of the document of the second partial web (4.2) are adhesively bonded to each other in the region of the outer edge in such a manner that the two facing pages form a pocket therebetween, or wherein individual surface regions of a page to be adhesively bonded are not coated with adhesive, and the opposite page is designed in the manner of an advent calendar with perforated window sections which can be opened manually.
A method for data transmission, comprising: transmitting, by User Equipment, UE, data by a physical uplink shared channel, PUSCH, to a network device by using a first uplink transmission waveform; receiving, by the UE, a first indication message transmitted by the network device, wherein the first indication message is used for indicating an uplink transmission waveform; and transmitting, by the UE, data by the PUSCH to the network device by using a second uplink transmission waveform, wherein the second uplink transmission waveform is the uplink transmission waveform indicated in the first indication message, wherein uplink transmission waveforms of different uplink channels are configured independently, the uplink channels comprise the PUSCH and physical uplink control channels, PUCCHs, the uplink transmission waveform of the PUSCH is configured to be a waveform based on a Cyclic Prefix-Orthogonal Frequency Division Multiplexing, CP-OFDM, technology, the PUCCHs are divided into N PUCCH groups according to formats of the PUCCHs, and the N PUCCH groups comprise at least one PUCCH group of which the uplink transmission waveform is configured to be a waveform based on the Discrete Fourier Transform-Spread-Orthogonal Frequency Division Multiplexing DFT-S-OFDM technology. transmitting, by User Equipment, UE, data by a physical uplink shared channel, PUSCH, to a network device by using a first uplink transmission waveform; receiving, by the UE, a first indication message transmitted by the network device, wherein the first indication message is used for indicating an uplink transmission waveform; and transmitting, by the UE, data by the PUSCH to the network device by using a second uplink transmission waveform, wherein the second uplink transmission waveform is the uplink transmission waveform indicated in the first indication message, wherein uplink transmission waveforms of different uplink channels are configured independently, the uplink channels comprise the PUSCH and physical uplink control channels, PUCCHs, the uplink transmission waveform of the PUSCH is configured to be a waveform based on a Cyclic Prefix-Orthogonal Frequency Division Multiplexing, CP-OFDM, technology, the PUCCHs are divided into N PUCCH groups according to formats of the PUCCHs, and the N PUCCH groups comprise at least one PUCCH group of which the uplink transmission waveform is configured to be a waveform based on the Discrete Fourier Transform-Spread-Orthogonal Frequency Division Multiplexing DFT-S-OFDM technology.
A method for producing an elastomeric nanocomposite, the nanocomposite comprising an isobutylene-based polymer and a layered nanofiller, the process comprising the steps of: a) polymerizing isobutylene monomers and multiolefin monomers to produce an isobutylene-based polymer; b) completing at least one mass transfer dependent stage in the process wherein, after completion of the at least one stage and prior to any recovery of the polymer, the polymer is dissolved in a solvent; c) mixing a layered nanofiller in a solvent to create a nanofiller slurry, d) contacting the layered nanofiller slurry and the polymer solution to obtain a nanocomposite; and e) recovering the nanocomposite. a) polymerizing isobutylene monomers and multiolefin monomers to produce an isobutylene-based polymer; b) completing at least one mass transfer dependent stage in the process wherein, after completion of the at least one stage and prior to any recovery of the polymer, the polymer is dissolved in a solvent; c) mixing a layered nanofiller in a solvent to create a nanofiller slurry, d) contacting the layered nanofiller slurry and the polymer solution to obtain a nanocomposite; and e) recovering the nanocomposite.
A control method of a treatment plant for elements to be recycled or disposed of comprising: - at least one crushing roll for a reduction in size of the elements to be recycled or disposed of; - at least one screen provided with one or more rotary shafts for the generation of its vibrations and operatively arranged upstream to said crushing roll to allow passage to said crushing roll only to elements to be recycled or disposed of having a larger size than predetermined sizes, said method comprising: - a measuring step of the vibration intensity of said screen; - a comparing step of said measured vibration intensity with a desired value; - an increasing step of the rotation speed of said shafts of said screen to increase said vibration intensity if the difference between said measured vibration intensity and said desired vibration intensity is greater than a predetermined threshold value. - at least one crushing roll for a reduction in size of the elements to be recycled or disposed of; - at least one screen provided with one or more rotary shafts for the generation of its vibrations and operatively arranged upstream to said crushing roll to allow passage to said crushing roll only to elements to be recycled or disposed of having a larger size than predetermined sizes, - a measuring step of the vibration intensity of said screen; - a comparing step of said measured vibration intensity with a desired value; - an increasing step of the rotation speed of said shafts of said screen to increase said vibration intensity if the difference between said measured vibration intensity and said desired vibration intensity is greater than a predetermined threshold value.
A processor-readable medium storing code representing instructions that when executed by a processor cause the processor to: access a list of print jobs for printing; determine a healthy area (212, 300) of an image transfer media; for each job in the list, calculate an image risk area (214, 304) based on the healthy area (212, 300); and rank each job in a print order according to its IRA (214, 304), characterized in that calculating an IRA (214, 304) comprises determining an amount of a job image area that falls outside of the healthy area (212, 300), and ranking each job comprises ranking the job in the print order from lowest IRA to highest IRA, where a job with the lowest IRA is ranked first in the print order and a job with the highest IRA is ranked last in the print order. access a list of print jobs for printing; determine a healthy area (212, 300) of an image transfer media; for each job in the list, calculate an image risk area (214, 304) based on the healthy area (212, 300); and rank each job in a print order according to its IRA (214, 304), characterized in that calculating an IRA (214, 304) comprises determining an amount of a job image area that falls outside of the healthy area (212, 300), and ranking each job comprises ranking the job in the print order from lowest IRA to highest IRA, where a job with the lowest IRA is ranked first in the print order and a job with the highest IRA is ranked last in the print order.
A controlled release pharmaceutical composition for oral use which consists of dimethylfumarate as the active substance, wherein the pharmaceutical composition is an enteric coated controlled release dosage form, wherein the release of the dimethylfumarate - when subjected to an in vitro dissolution test employing 0.1 N hydrochloric acid as dissolution medium during the first 2 hours of the test and then 0.05 M phosphate buffer pH 6.5 as dissolution medium, wherein the dissolution profile is determined as described in the United States Pharmacopoeia at 37°C and a rotation speed of 100 rpm using a rotating basket for a capsule and a paddle dissolution apparatus for a tablet - is as follows: within the first 3 hours after start of the test at the most 70% w/w of the total amount of the dimethylfumarate contained in the composition is released, and within the first 4 hours after start of the test at the most 92% w/w of the total amount of the dimethylfumarate is released. within the first 3 hours after start of the test at the most 70% w/w of the total amount of the dimethylfumarate contained in the composition is released, and within the first 4 hours after start of the test at the most 92% w/w of the total amount of the dimethylfumarate is released.
An acrylate-styrene-acrylonitrile polymer comprising an acrylic rubber core and a SAN based shell, wherein the acrylate-styrene-acrylonitrile polymer comprises an outer enveloping amine-based monomer layer, and the SAN based shell is an activating-solution-free graft shell.
A solar tracking method using a single horizontal axis solar tracker associated to at least one bifacial photovoltaic module, the single horizontal axis solar tracker comprising an arrangement of bifacial photovoltaic modules fixed to the torque tube, being the torque tube supported by several posts by articulated joints and those posts fixed to the ground, the bifacial photovoltaic module being associated to the torque tube by means of a joint fixture along one of the sides of the bifacial solar module in such way that the solar module jointly moves when the torque tube rotates; the method comprising operating the torque tube for gradually positioning the bifacial photovoltaic module in such a way that either a front face or a back face of the bifacial photovoltaic module, faces the sun from dawn to noon; wherein the front face faces the sun from dawn to noon and the back face faces the sun from noon to sunset. the single horizontal axis solar tracker comprising an arrangement of bifacial photovoltaic modules fixed to the torque tube, being the torque tube supported by several posts by articulated joints and those posts fixed to the ground, the bifacial photovoltaic module being associated to the torque tube by means of a joint fixture along one of the sides of the bifacial solar module in such way that the solar module jointly moves when the torque tube rotates; the method comprising operating the torque tube for gradually positioning the bifacial photovoltaic module in such a way that either a front face or a back face of the bifacial photovoltaic module, faces the sun from dawn to noon; wherein the front face faces the sun from dawn to noon and the back face faces the sun from noon to sunset.
Method for operating a self-igniting reciprocating internal combustion engine, wherein the fuel is injected directly into a combustion chamber in several fuel jets of a specified reach by means of an injector comprising a jet needle and injection bores, wherein, from an injection cycle, a part of the fuel is injected in the compression stroke as timed pilot injection in part-quantities and the remaining fuel is injected into the combustion chamber as main injection at a later point in time with a higher injection pressure than during pilot injection, characterised by a timing of the pilot injection which is designed such that in each part-quantity the reach of the fuel jet in the combustion chamber is limited in such a way that the reach is somewhat less than a distance to a combustion chamber boundary, wherein at the same time a disintegration of the injected fuel jets is intensified and the stroke of the jet needle of the injector is varied in such a way that an unstable cavitating flow is generated in the injection bores of the injector, whereby an increased atomisation of the fuel in the combustion chamber is achieved.