mhurhangee/patent-ind-claim-en huggingface dataset:
A health care urinal for collecting and disposing of urine, comprising: a container made of a moulded pulp material, said container comprising a body and a neck , said body having a container bottom with a concave or planar outer surface defining a first plane for placing said health care urinal in a stable position on a horizontal surface, said body being hollow and defining a compartment for storing said urine, said compartment including a fluid absorbent powder enclosed in a water dissolvable sachet , said body extending continuously into said neck , said neck having an inner surface, and said neck defining a narrowing of said container with respect to said body , said neck ending in a lip defining an opening into said container , characterized in that said opening having a maximum diameter of 6 ± 3 cm, said health care urinal further comprising a lid made of a moulded pulp material for inserting into said opening and closing said container , said lid comprising a lid bottom , a tapered sidewall extending from said lid bottom for extending into said opening and contacting said inner surface, a collar extending from said sidewall opposite to said bottom, a single tongue extending from said collar , said single tongue extending beyond said lip when said lid being located in said opening, said tapered sidewall having a higher degree of flexibility than said lip for providing a press fit between said lid and said container when said lid being located in said opening for withstanding said sachet forcing said lid out of said opening if said container being turned upside down. a container made of a moulded pulp material, said container comprising a body and a neck , said body having a container bottom with a concave or planar outer surface defining a first plane for placing said health care urinal in a stable position on a horizontal surface, said body being hollow and defining a compartment for storing said urine, said compartment including a fluid absorbent powder enclosed in a water dissolvable sachet , said body extending continuously into said neck , said neck having an inner surface, and said neck defining a narrowing of said container with respect to said body , said neck ending in a lip defining an opening into said container , characterized in that said opening having a maximum diameter of 6 ± 3 cm, said health care urinal further comprising a lid made of a moulded pulp material for inserting into said opening and closing said container , said lid comprising a lid bottom , a tapered sidewall extending from said lid bottom for extending into said opening and contacting said inner surface, a collar extending from said sidewall opposite to said bottom, a single tongue extending from said collar , said single tongue extending beyond said lip when said lid being located in said opening, said tapered sidewall having a higher degree of flexibility than said lip for providing a press fit between said lid and said container when said lid being located in said opening for withstanding said sachet forcing said lid out of said opening if said container being turned upside down.
An alloy including a case portion and a core portion, wherein the alloy has a core hardness of greater than 360 HV and the alloy has a microstructure including a martensitic matrix including copper nanoprecipitates and nanoscale M 2 C carbides wherein the case portion includes 0.6-0.8 wt% carbon; wherein the case portion has a case hardness of greater than 700 HV; wherein the core portion has a core hardness of greater than 360 HV; and wherein the core portion includes 0.1-0.2 wt% carbon, the alloy obtainable by solution carburizing at 1000°C to 1100°C for 1 hour to 8 hours, and either aging at 450°C to 550°C for 2 hours to 48 hours or plasma nitriding at a temperature of 450°C to 550°C for 2 hours to 48 hours an alloy comprising, by weight percentage: 3.0% to 8.0% chromium; 0.02% to 5.0% molybdenum; 0.1% to 1.0% vanadium; 0.5% to 2.5% copper; 0.5% to 2% nickel; 0.2% to 0.4% manganese; 0.01% to 0.05% niobium; 0.1% to 1.0% aluminum; and the balance iron and incidental elements and impurities. wherein the alloy has a core hardness of greater than 360 HV and the alloy has a microstructure including a martensitic matrix including copper nanoprecipitates and nanoscale M 2 C carbides wherein the case portion includes 0.6-0.8 wt% carbon; wherein the case portion has a case hardness of greater than 700 HV; wherein the core portion has a core hardness of greater than 360 HV; and wherein the core portion includes 0.1-0.2 wt% carbon, 3.0% to 8.0% chromium; 0.02% to 5.0% molybdenum; 0.1% to 1.0% vanadium; 0.5% to 2.5% copper; 0.5% to 2% nickel; 0.2% to 0.4% manganese; 0.01% to 0.05% niobium; 0.1% to 1.0% aluminum; and the balance iron and incidental elements and impurities.
A system for controlling activation of analyte sensor electronics circuitry , the system comprising: an analyte sensor that is electrically and mechanically coupled to analyte sensor electronics circuitry prior to transitioning the system into an operational state; wherein the analyte sensor electronics circuitry is adapted to: trigger an indication for the system to exit a lower power state and transition into the operational state, wherein the indication is triggered based on a threshold value associated with deployment of the system; responsive to the indication, generate a control signal operable to cause the analyte sensor to gather information related to a level of an analyte in a host; and generate a comparison between the information related to the level of the analyte in the host and a condition; wherein the system exits the lower power state and transitions into the operational mode based on the indication being triggered and the comparison indicating that the level of the analyte in the host satisfies the condition. an analyte sensor that is electrically and mechanically coupled to analyte sensor electronics circuitry prior to transitioning the system into an operational state; wherein the analyte sensor electronics circuitry is adapted to: trigger an indication for the system to exit a lower power state and transition into the operational state, wherein the indication is triggered based on a threshold value associated with deployment of the system; responsive to the indication, generate a control signal operable to cause the analyte sensor to gather information related to a level of an analyte in a host; and generate a comparison between the information related to the level of the analyte in the host and a condition; trigger an indication for the system to exit a lower power state and transition into the operational state, wherein the indication is triggered based on a threshold value associated with deployment of the system; responsive to the indication, generate a control signal operable to cause the analyte sensor to gather information related to a level of an analyte in a host; and generate a comparison between the information related to the level of the analyte in the host and a condition; wherein the system exits the lower power state and transitions into the operational mode based on the indication being triggered and the comparison indicating that the level of the analyte in the host satisfies the condition.
A computer-implemented method of linking first and second objects (9 1 , 9 2 ) stored in first and second respective databases (4 1 , 4 2 ) in a group of linked databases storing data objects, wherein the first object is created by a first user (6 1 ) having read and write access to the first database and read-only access to the second database, and the second object is created by a second user (6 2 ) having read-only access to the first database and read-and-write access to the second database, the first object comprising a plurality of attributes including a reference identifying the first object (9 1 ), the method comprising: receiving from the second user a selection linking the first and second objects; creating an entry (21 1 ) for the first object (9 1 ), in a look up table in the second database (4 2 ) using the reference, the entry including, as a first reference (22 1 ) identifying the first object (9 1 ), the reference, and a second reference (23 1 ) identifying the second object (9 2 ), wherein the look up table is not a centralised look up table, and wherein the the first object in the first database is not modified to link to the second object in the second database. receiving from the second user a selection linking the first and second objects; creating an entry (21 1 ) for the first object (9 1 ), in a look up table in the second database (4 2 ) using the reference, the entry including, as a first reference (22 1 ) identifying the first object (9 1 ), the reference, and a second reference (23 1 ) identifying the second object (9 2 ), wherein the look up table is not a centralised look up table, and wherein the the first object in the first database is not modified to link to the second object in the second database.
An inkjet head manufacturing method for an inkjet head that includes a head chip including: a nozzle configured to eject ink; and a flow path substrate including an ink flow path which communicates with the nozzle and through which the ink can flow, the method comprising: composite substrate manufacturing (S104) that is manufacturing a composite substrate including a plurality of regions which forms flow path substrates by being split, each of the flow path substrates being the flow path substrate ; first protective film forming (S105) that is forming a first protective film on a surface of the composite substrate and an inner wall surface of the ink flow path ; splitting (S106) that is splitting the composite substrate into the flow path substrates ; and second protective film forming (S112, S112a) that is forming a second protective film on at least an exposed face in a split face of the flow path substrate generated in the splitting, the exposed face being exposed in a surface of the head chip . composite substrate manufacturing (S104) that is manufacturing a composite substrate including a plurality of regions which forms flow path substrates by being split, each of the flow path substrates being the flow path substrate ; first protective film forming (S105) that is forming a first protective film on a surface of the composite substrate and an inner wall surface of the ink flow path ; splitting (S106) that is splitting the composite substrate into the flow path substrates ; and second protective film forming (S112, S112a) that is forming a second protective film on at least an exposed face in a split face of the flow path substrate generated in the splitting, the exposed face being exposed in a surface of the head chip .
A coating composition for paper or paperboard comprising: a binder and clay particles having an average shape factor below 60, a sediment void volume greater than 48%, and less than 30% by mass of particles less than 1 μm in size as measured by a Sedigraph particle size analyzer, wherein the sediment void volume is measured using the following steps: dispersing the clay in water to form a slurry at 50% by weight solids; centrifuging a 70g sample of the slurry at 8000g for 90 minutes; pouring the supernatant water off the settled clay and weighing the supernatant water X (g); determining the weight of remaining water in the settled clay as Y(g) = 35 - X (g); determining the volume of the remaining water as Vw = Y / 1 g / cc ; determining the volume of the clay Vc as Vc = 35 Z , where Z is a known density of the clay in g/cc; and determining the void volume percent as Vw(Vw + Vc) * 100%. dispersing the clay in water to form a slurry at 50% by weight solids; centrifuging a 70g sample of the slurry at 8000g for 90 minutes; pouring the supernatant water off the settled clay and weighing the supernatant water X (g); determining the weight of remaining water in the settled clay as Y(g) = 35 - X (g); determining the volume of the remaining water as Vw = Y / 1 g / cc ; determining the volume of the clay Vc as Vc = 35 Z , where Z is a known density of the clay in g/cc; and determining the void volume percent as Vw(Vw + Vc) * 100%.
An apparatus comprising a processor configured to: acquire correlation signals by correlating a photodetected signal with respective phase-shifted reference signals, the correlation signals comprising quadrature correlation signals and in-phase correlation signals, wherein the processor is configured in such a way that the mean time of acquisition of the quadrature correlation signals and the mean time of acquisition of the in-phase correlation signals are equal or substantially equal, characterized in that the processor is configured to first acquire subsequently a first set of correlation signals based on 0° and then on 90° phase-shifted reference signals, and then acquire subsequently a second set of correlation signals based on 210° and then on 120° phase-shifted reference signals. acquire correlation signals by correlating a photodetected signal with respective phase-shifted reference signals, the correlation signals comprising quadrature correlation signals and in-phase correlation signals, wherein the processor is configured in such a way that the mean time of acquisition of the quadrature correlation signals and the mean time of acquisition of the in-phase correlation signals are equal or substantially equal, characterized in that the processor is configured to first acquire subsequently a first set of correlation signals based on 0° and then on 90° phase-shifted reference signals, and then acquire subsequently a second set of correlation signals based on 210° and then on 120° phase-shifted reference signals.
An amplifier circuit for compensating an output signal provided at an output of the amplifier circuit, the amplifier circuit comprising: a chain of n sub-amplifiers (202 1 to 202 n ), comprising an end sub-amplifier (202 n ) and a plurality of n-1 preliminary sub-amplifiers (202 1 to 202 n-1 ), wherein n is greater than two, wherein respectively inputs of the n sub-amplifiers (202 1 to 202 n ) are coupled to an input transmission line for receiving an input signal, wherein respectively outputs of the n sub-amplifiers are distributed at different places along an output transmission line to provide the output signal , the n sub-amplifiers provide amplification for respective amplitude ranges of the input signal to the output signal, and each sub-amplifier contributes to a respective part of the output signal; characterised by at least one separate error correction block being coupled in between first and second respective outputs of first (202 1 ) and second (202 2 ) respective preliminary sub-amplifiers (202 1 , 202 2 ) which are next to each other within the plurality o n-1 preliminary sub-amplifiers (202 1 to 202 n-1 ), wherein the first respective output is distributed before the second respective output along the output transmission line , to apply feedforward error correction to the first respective output of the first respective preliminary sub-amplifier (202 1 to 202 n-1 ) . a chain of n sub-amplifiers (202 1 to 202 n ), comprising an end sub-amplifier (202 n ) and a plurality of n-1 preliminary sub-amplifiers (202 1 to 202 n-1 ), wherein n is greater than two, wherein respectively inputs of the n sub-amplifiers (202 1 to 202 n ) are coupled to an input transmission line for receiving an input signal, wherein respectively outputs of the n sub-amplifiers are distributed at different places along an output transmission line to provide the output signal , the n sub-amplifiers provide amplification for respective amplitude ranges of the input signal to the output signal, and each sub-amplifier contributes to a respective part of the output signal; characterised by at least one separate error correction block being coupled in between first and second respective outputs of first (202 1 ) and second (202 2 ) respective preliminary sub-amplifiers (202 1 , 202 2 ) which are next to each other within the plurality o n-1 preliminary sub-amplifiers (202 1 to 202 n-1 ), wherein the first respective output is distributed before the second respective output along the output transmission line , to apply feedforward error correction to the first respective output of the first respective preliminary sub-amplifier (202 1 to 202 n-1 ) .
A cotter having a diamond-like carbon layer on an inner side of the cotter , wherein the cotter is designed as a multigroove cotter , and wherein the diamond-like carbon layer is applied solely to one or more surface (s) of the inner side of the cotter pointing toward a base of the cotter .
A method for the automated detection of phishing attacks comprising monitoring network traffic events in a machine-readable log said events comprising network addresses of the requested and responding sites, said method comprising the steps of: -- detecting within the logged network traffic events a sequence of network traffic events wherein such sequence includes: an initial request from a network address to a first requested network address; a first response to said initial request from said first requested network address at a time t0; and a second request from said network address to a second requested network address at time t1>t0 or within a limited number of network events; and classifying said first requested network address as a potential phishing website when said second requested network address is not related to said first requested network address and time d=t1-t0 is smaller than a defined time D or if the limited number of network events is smaller than a defined limit N. -- detecting within the logged network traffic events a sequence of network traffic events wherein such sequence includes: an initial request from a network address to a first requested network address; a first response to said initial request from said first requested network address at a time t0; and a second request from said network address to a second requested network address at time t1>t0 or within a limited number of network events; and an initial request from a network address to a first requested network address; a first response to said initial request from said first requested network address at a time t0; and a second request from said network address to a second requested network address at time t1>t0 or within a limited number of network events; and classifying said first requested network address as a potential phishing website when said second requested network address is not related to said first requested network address and time d=t1-t0 is smaller than a defined time D or if the limited number of network events is smaller than a defined limit N.
A method for processing charging information, comprising: acquiring , by a mobility management device, a public land mobile network, PLMN, identifier corresponding to a network name displayed by a user equipment, UE; transmitting , in a request message related to a service node of a current serving network, the PLMN identifier corresponding to the network name displayed by the user equipment to a call detail record information generating device, wherein the PLMN identifier corresponding to the network name displayed by the UE is different from a PLMN identifier of the current serving network, so that user call detail record information generated by the call detail record information generating device comprises the PLMN identifier corresponding to the network name displayed by the user equipment. acquiring , by a mobility management device, a public land mobile network, PLMN, identifier corresponding to a network name displayed by a user equipment, UE; transmitting , in a request message related to a service node of a current serving network, the PLMN identifier corresponding to the network name displayed by the user equipment to a call detail record information generating device, wherein the PLMN identifier corresponding to the network name displayed by the UE is different from a PLMN identifier of the current serving network, so that user call detail record information generated by the call detail record information generating device comprises the PLMN identifier corresponding to the network name displayed by the user equipment.
A method comprising: a path computation device receiving device information from member network devices , each member network device belonging to a directed acyclic graph to a destination in a low power lossy network ; and the path computation device classifying , based on the device information, each member network device belonging to a directed acyclic graph as belonging to a dominating set , regardless of whether the member network devices belong to distinct directed acyclic graphs , for generation of optimized routes as time-slotted channel mapped routes distinct from any directed acyclic graph , for reaching any one of the member network devices of the dominating set . a path computation device receiving device information from member network devices , each member network device belonging to a directed acyclic graph to a destination in a low power lossy network ; and the path computation device classifying , based on the device information, each member network device belonging to a directed acyclic graph as belonging to a dominating set , regardless of whether the member network devices belong to distinct directed acyclic graphs , for generation of optimized routes as time-slotted channel mapped routes distinct from any directed acyclic graph , for reaching any one of the member network devices of the dominating set .
A thermal transfer sheet , comprising in this order: a substrate ; a fluorescent layer ; and a thermofusible ink layer ; wherein the fluorescent layer contains a fluorescent material, and a vinyl acetate-vinylpyrrolidone copolymer, and wherein the thermofusible ink layer contains a colorant and a binder. a substrate ; a fluorescent layer ; and a thermofusible ink layer ; wherein the fluorescent layer contains a fluorescent material, and a vinyl acetate-vinylpyrrolidone copolymer, and wherein the thermofusible ink layer contains a colorant and a binder.