mhurhangee/ep-ind-claims huggingface dataset:
Method for protecting an electronic arrangement comprising organic constituents that is arranged on a substrate, where a liner is applied to the electronic arrangement in such a way that the electronic arrangement is at least partly covered by the liner, and where the liner is bonded at least to a partial area on the substrate and/or on the electronic arrangement, the bond being brought about by means of at least one layer of an adhesive in an adhesive tape, characterized in that an adhesive is used which, shaped to a layer having a thickness of 50 μm, has a water vapour permeation rate of less than 50 g/m 2 d, as measured at 38°C and 90% relative atmospheric humidity in accordance with ASTM F-1249, the adhesive comprises a permeate content of less than 1000 ppm as determined in accordance with DIN 53715 after storage over 24 hours at 23°C and 50% relative atmospheric humidity, based on the relation of the total weight of permeate present to the adhesive weight, the permeate being water, and the adhesive comprises a getter material capable of sorbing water, the getter material being selected from calcium oxide, calcium sulfate, calcium chloride, and zeolites, and also from mixtures of two or more of the above substances, and the getter material being present in the adhesive at a fraction of not more than 2 wt% and at least 0.5 wt%, based in each case on the adhesive with the getter material. where a liner is applied to the electronic arrangement in such a way that the electronic arrangement is at least partly covered by the liner, and where the liner is bonded at least to a partial area on the substrate and/or on the electronic arrangement, the bond being brought about by means of at least one layer of an adhesive in an adhesive tape, characterized in that an adhesive is used which, shaped to a layer having a thickness of 50 μm, has a water vapour permeation rate of less than 50 g/m 2 d, as measured at 38°C and 90% relative atmospheric humidity in accordance with ASTM F-1249, the adhesive comprises a permeate content of less than 1000 ppm as determined in accordance with DIN 53715 after storage over 24 hours at 23°C and 50% relative atmospheric humidity, based on the relation of the total weight of permeate present to the adhesive weight, the permeate being water, and the adhesive comprises a getter material capable of sorbing water, the getter material being selected from calcium oxide, calcium sulfate, calcium chloride, and zeolites, and also from mixtures of two or more of the above substances, and the getter material being present in the adhesive at a fraction of not more than 2 wt% and at least 0.5 wt%, based in each case on the adhesive with the getter material.
An identity document data protection tool comprising a mainly transparent sheet attached to a non-stick liner, wherein after the sheet is removed from the non-stick liner the sheet is configured to be attached to a specific type of identity document comprising at least one unique visible personal data element (102, 104, 106), and wherein portions (202, 204, 206) of the sheet are provided with one or more copy protection elements such that a main part of the at least one unique visible personal data element can be captured by an image capturing device and a remaining part of the at least one unique visible personal data element cannot be captured by the image capturing device when the sheet is attached to the specific type of identity document, characterised in that the sheet is configured to be repeatedly attached to and detached from the document and repeated detachment of the sheet does not damage the identity document.
A communication device, comprising: a long-range transceiver, configured to communicate wirelessly with a Base Station, BS, of a cellular network; a short-range transceiver, configured to communicate wirelessly with one or more peer communication devices over a short-range network; and a processor, configured to: communicate with the peer communication devices via the short-range transceiver and with the BS via the long-range transceiver, receive from a peer communication device, via the short-range transceiver, a signal that conveys data bits and that underwent partial baseband processing by the long-range transceiver of the peer communication device for transmission to the BS, complete the baseband processing of the signal, by the long-range transceiver, for producing a transmission signal that carries the data bits, and transmit the transmission signal to the BS on behalf of the peer communication device. a long-range transceiver, configured to communicate wirelessly with a Base Station, BS, of a cellular network; a short-range transceiver, configured to communicate wirelessly with one or more peer communication devices over a short-range network; and a processor, configured to: communicate with the peer communication devices via the short-range transceiver and with the BS via the long-range transceiver, receive from a peer communication device, via the short-range transceiver, a signal that conveys data bits and that underwent partial baseband processing by the long-range transceiver of the peer communication device for transmission to the BS, complete the baseband processing of the signal, by the long-range transceiver, for producing a transmission signal that carries the data bits, and transmit the transmission signal to the BS on behalf of the peer communication device. communicate with the peer communication devices via the short-range transceiver and with the BS via the long-range transceiver, receive from a peer communication device, via the short-range transceiver, a signal that conveys data bits and that underwent partial baseband processing by the long-range transceiver of the peer communication device for transmission to the BS, complete the baseband processing of the signal, by the long-range transceiver, for producing a transmission signal that carries the data bits, and transmit the transmission signal to the BS on behalf of the peer communication device.
A pharmaceutical composition comprising (i) at least one ester of glycerin with a C 8 -C 10 saturated fatty acid, (ii) at least one ester of polyethylene glycol glycerides with a C 12 -C 14 saturated fatty acid, and (iii) at least one ester of polyethylene glycol with a C 16 -C 18 saturated fatty acid, and (iv) benzydamine in an amount equal to or lower than 0.5% w/w with respect to the total weight of the pharmaceutical composition, provided that, when benzydamine is present as benzydamine hydrochloride in an amount of 0.12% w/w, together with caprylic/ capric triglyceride (Miglyol® 812) in an amount of 3% w/w, PEG-6 and PEG-32 palmitostearate / glycol stearate (Tefose® 63) in an amount of 18% w/w, and lauroyl macrogol-6-glycerides (Labrafil® M2130CS) in an amount of 3% w/w, said composition does not comprise econazole nitrate.
Method of processing subsequent fluidic sample portions which are provided by a sample source, wherein the method comprises: subsequently intermediately filling more than two sample reception volumes with at least a respective one of the sample portions; and subsequently discharging the sample portions from the sample reception volumes, such that it is avoided that respectively two of the sample portions are brought into contact with each other when discharging, which did not leave the sample source in a directly neighboring manner, characterized in that discharging the sample portions from the sample reception volumes is performed in reversed order with respect to an order of filling the sample reception volumes with the sample portions. subsequently intermediately filling more than two sample reception volumes with at least a respective one of the sample portions; and subsequently discharging the sample portions from the sample reception volumes, such that it is avoided that respectively two of the sample portions are brought into contact with each other when discharging, which did not leave the sample source in a directly neighboring manner, characterized in that discharging the sample portions from the sample reception volumes is performed in reversed order with respect to an order of filling the sample reception volumes with the sample portions.
A printing system adapted to carry out a print job on the basis of print job data supplied to the printing system and to discharge resulting printed pages at a first job output, the printing system comprising shoot out means for printing out a selection of duplicates from the resulting printed pages and for discharging the duplicates as shoot outs at a second output, said shoot out means being programmable by a user in order to establish a mode of operation of the shoot out means by programming the selection of duplicates to be discharged at the second output, characterized in that the printing system is adapted to print a banner page for the duplicates and to discharge the banner page at the second output.
A hydrophilic thickener which is a polymer of a water-soluble ethylenically unsaturated monomer, crosslinked by a water-soluble crosslinking agent, wherein the water-soluble crosslinking agent is a water-soluble sucrose allyl ether having an etherification degree of 2.2 to 4.0, wherein an aqueous liquid with a pH of 6.8 to 7.0 consisting of water and 1.0% by mass of the crosslinked polymer has an equilibrium compliance, being the compliance when it reached an equilibrium having a distortion tolerance of 2% or less, measured with a rheometer (AR-2000ex, by TA Instruments) at 25°C with a 40 mm parallel plate, a gap distance of 500 or 1,000 μm and an applied stress of 0.01 to 10 Pa, of 5.2×10 -4 to 1.0×10 -1 (1/Pa), while an aqueous liquid with a pH of 6.8 to 7.0 consisting of water and 0.2% by mass of the crosslinked polymer has a viscosity at 25°C of 200 mPa·s or more, the viscosity measured at 25°C and 20 revolutions/min with a Rotor No.6 using a viscosimeter (Bisumetoron VS-1H, by Shibaura System Co., Ltd.), wherein the water-soluble ethylenically unsaturated monomer consists of at least one compound selected from the group consisting of acrylic acid and a salt thereof, methacrylic acid and a salt thereof, 2-acrylamide-2-methylpropane sulfonic acid and a salt thereof, acrylamide, methacrylamide, and N,N-dimethylacrylamide and wherein the amount of the water-soluble crosslinking agent is 0.01 to 2.0% by mass with respect to the water-soluble ethylenically unsaturated monomer.
A relay wireless transmit/receive unit, WTRU, comprising: a transceiver configured to at least: receive a temporary mobile group identity, TMGI, monitoring request message from a remote WTRU, wherein the TMGI monitoring request message is received via a PC5-S message, wherein the TMGI monitoring request message comprises a TMGI which the relay WTRU is requested to monitor and a ProSe per-packet priority level associated with the TMGI; receive, from a network, an evolved multimedia broadcast multicast service, eMBMS, data packet associated with the TMGI; a processor configured to at least: detect the TMGI that the relay WTRU was requested to monitor, determine the ProSe per-packet priority level associated with the detected TMGI, and apply the received ProSe per-packet priority level associated with the detected TMGI to the received eMBMS data packet; and relay the eMBMS data packet to the remote WTRU based on the ProSe per-packet priority level, wherein the eMBMS data packet is forwarded to the remote WTRU via a PC5 interface. a transceiver configured to at least: receive a temporary mobile group identity, TMGI, monitoring request message from a remote WTRU, wherein the TMGI monitoring request message is received via a PC5-S message, wherein the TMGI monitoring request message comprises a TMGI which the relay WTRU is requested to monitor and a ProSe per-packet priority level associated with the TMGI; receive, from a network, an evolved multimedia broadcast multicast service, eMBMS, data packet associated with the TMGI; receive a temporary mobile group identity, TMGI, monitoring request message from a remote WTRU, wherein the TMGI monitoring request message is received via a PC5-S message, wherein the TMGI monitoring request message comprises a TMGI which the relay WTRU is requested to monitor and a ProSe per-packet priority level associated with the TMGI; receive, from a network, an evolved multimedia broadcast multicast service, eMBMS, data packet associated with the TMGI; a processor configured to at least: detect the TMGI that the relay WTRU was requested to monitor, determine the ProSe per-packet priority level associated with the detected TMGI, and apply the received ProSe per-packet priority level associated with the detected TMGI to the received eMBMS data packet; and relay the eMBMS data packet to the remote WTRU based on the ProSe per-packet priority level, wherein the eMBMS data packet is forwarded to the remote WTRU via a PC5 interface. detect the TMGI that the relay WTRU was requested to monitor, determine the ProSe per-packet priority level associated with the detected TMGI, and apply the received ProSe per-packet priority level associated with the detected TMGI to the received eMBMS data packet; and relay the eMBMS data packet to the remote WTRU based on the ProSe per-packet priority level, wherein the eMBMS data packet is forwarded to the remote WTRU via a PC5 interface.
A method for protecting the power semiconductor components (V11-V16) used in the power stages of power electronics devices, such as frequency converters, which uses calculation modeling the degree of heating of the semiconductor junction of the power components (V11-V16) leading current in current conduction cycles (t C), wherein the degree of heating of the power components (V11-V16) between the measurable outer surface or cooler and the internal semiconductor junction is determined on the basis of a dissipation power and a thermal network model of the component, wherein the temperature of the outer surface of the power component or the temperature of the cooler is measured, wherein the modeled temperature of the semiconductor junction is the sum of the measured temperature of the outer surface or cooler and the calculated degree of heating, and wherein, based on the modeled junction temperature, an alarm is issued or some other protective action is taken, wherein the temperature of the semiconductor junction is calculated in real time, at least at time intervals equal to the shortest time constant in the thermal network model, on the basis of the heating caused by the dissipation power pulse produced during each current conduction cycle (tc), characterized in that during the calculation interval (t S), the dissipation power of the power semiconductor is assumed to remain constant (P EST), where the dissipation energy (P EST * t S) caused by the said dissipation power is the same as the actual dissipation energy (E COND) calculated on the basis of the response characteristics of the power component during the same calculation interval.
A communication device configured for handover from a long-term evolution, LTE, network to a new radio, NR, network, comprising: at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: transmitting a protocol data unit, PDU, Session identity, ID, to the LTE network; receiving a EPS bearer ID identifying a EPS bearer, from the LTE network, wherein the EPS bearer ID is associated with the PDU Session ID; configuring a first data radio bearer, DRB, associated to the EPS bearer ID, with the LTE network; communicating data via the first DRB with the LTE network; receiving a handover command from the LTE network, wherein the handover command indicates the communication device to hand over to the NR network; keeping the EPS bearer ID and the PDU Session ID, when the handover command comprises a DRB configuration associated to the PDU Session ID, wherein the DRB configuration includes the PDU Session ID; and releasing the EPS bearer ID, when the handover command does not comprise the DRB configuration. at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: transmitting a protocol data unit, PDU, Session identity, ID, to the LTE network; receiving a EPS bearer ID identifying a EPS bearer, from the LTE network, wherein the EPS bearer ID is associated with the PDU Session ID; configuring a first data radio bearer, DRB, associated to the EPS bearer ID, with the LTE network; communicating data via the first DRB with the LTE network; receiving a handover command from the LTE network, wherein the handover command indicates the communication device to hand over to the NR network; keeping the EPS bearer ID and the PDU Session ID, when the handover command comprises a DRB configuration associated to the PDU Session ID, wherein the DRB configuration includes the PDU Session ID; and releasing the EPS bearer ID, when the handover command does not comprise the DRB configuration. transmitting a protocol data unit, PDU, Session identity, ID, to the LTE network; receiving a EPS bearer ID identifying a EPS bearer, from the LTE network, wherein the EPS bearer ID is associated with the PDU Session ID; configuring a first data radio bearer, DRB, associated to the EPS bearer ID, with the LTE network; communicating data via the first DRB with the LTE network; receiving a handover command from the LTE network, wherein the handover command indicates the communication device to hand over to the NR network; keeping the EPS bearer ID and the PDU Session ID, when the handover command comprises a DRB configuration associated to the PDU Session ID, wherein the DRB configuration includes the PDU Session ID; and releasing the EPS bearer ID, when the handover command does not comprise the DRB configuration.
A method in a user equipment comprising: receiving zero power channel state information reference signal configuration information for an aperiodic zero power channel state information reference signal of a serving cell; receiving downlink control information on a physical control channel in a subframe of the serving cell, the downlink control information indicating whether a physical downlink shared channel of the user equipment in the subframe of the serving cell is rate-matched around resource elements indicated by the zero power channel state information reference signal configuration information; and decoding the physical downlink shared channel in the subframe of the serving cell based on rate-matching around the resource elements indicated by the zero power channel state information reference signal configuration information when the downlink control information indicates the physical downlink shared channel of the user equipment is rate-matched around the resource elements indicated by the zero power channel state information reference signal configuration information, wherein the subframe comprises a first subframe, and wherein the method further comprises: determining channel state information based on a set of resource elements that is a subset of resource elements indicated by the zero power channel state information reference signal configuration information; and sending the determined channel state information in a second subframe. receiving zero power channel state information reference signal configuration information for an aperiodic zero power channel state information reference signal of a serving cell; receiving downlink control information on a physical control channel in a subframe of the serving cell, the downlink control information indicating whether a physical downlink shared channel of the user equipment in the subframe of the serving cell is rate-matched around resource elements indicated by the zero power channel state information reference signal configuration information; and decoding the physical downlink shared channel in the subframe of the serving cell based on rate-matching around the resource elements indicated by the zero power channel state information reference signal configuration information when the downlink control information indicates the physical downlink shared channel of the user equipment is rate-matched around the resource elements indicated by the zero power channel state information reference signal configuration information, wherein the subframe comprises a first subframe, and wherein the method further comprises: determining channel state information based on a set of resource elements that is a subset of resource elements indicated by the zero power channel state information reference signal configuration information; and sending the determined channel state information in a second subframe. determining channel state information based on a set of resource elements that is a subset of resource elements indicated by the zero power channel state information reference signal configuration information; and sending the determined channel state information in a second subframe.
A system for managing quality of service (QoS) in data transmission, the system comprising: a plurality of arriving transactions; a writer; a queue, wherein the queue includes a plurality of epochs; and a data pipeline, wherein the data pipeline includes a plurality of departing transactions in accordance with an epoch order, wherein the writer sorts each of the plurality of arriving transactions into one of the plurality of epochs of the queue based on a transactional differentiator and inserts each of the plurality of arriving transactions into one of the plurality of epochs and each of the departing transactions are formed of one of the plurality of epochs and the assigned plurality of arriving transactions therein. a plurality of arriving transactions; a writer; a queue, wherein the queue includes a plurality of epochs; and a data pipeline, wherein the data pipeline includes a plurality of departing transactions in accordance with an epoch order, wherein the writer sorts each of the plurality of arriving transactions into one of the plurality of epochs of the queue based on a transactional differentiator and inserts each of the plurality of arriving transactions into one of the plurality of epochs and each of the departing transactions are formed of one of the plurality of epochs and the assigned plurality of arriving transactions therein.