mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a persistent storage device, a first read command, for a first logical block of data; determining that a total number of read operations, for the first logical block of data, equals or exceeds a first threshold value; and in response to determining that the total number of read operations, for the first logical block of data, equals or exceeds the first threshold value, arranging for deletion of the first logical block of data from the persistent storage device, the method further comprising receiving a first write command, for the first logical block of data, the first write command including the first threshold value, wherein: the persistent storage device comprises flash memory and a logical to physical address mapping table; the method further comprises storing the first threshold value in a row of the logical to physical address mapping table; and the row in which the first threshold value is stored corresponds to the first logical block of data. receiving, by a persistent storage device, a first read command, for a first logical block of data; determining that a total number of read operations, for the first logical block of data, equals or exceeds a first threshold value; and in response to determining that the total number of read operations, for the first logical block of data, equals or exceeds the first threshold value, arranging for deletion of the first logical block of data from the persistent storage device, the method further comprising receiving a first write command, for the first logical block of data, the first write command including the first threshold value, wherein: the persistent storage device comprises flash memory and a logical to physical address mapping table; the method further comprises storing the first threshold value in a row of the logical to physical address mapping table; and the row in which the first threshold value is stored corresponds to the first logical block of data. the persistent storage device comprises flash memory and a logical to physical address mapping table; the method further comprises storing the first threshold value in a row of the logical to physical address mapping table; and the row in which the first threshold value is stored corresponds to the first logical block of data.
A method comprising: determining, at a serving radio access network, based on a packet filtering attribute, service flows between a user equipment and the serving radio access network in the user plane, wherein said determination comprises selecting a service flow for quality of service, QoS, differentiation; and the method being characterized by initiating, at the serving radio access network, based on the determination, a modification of the service flow directly with the user equipment by sending a message to the user equipment, to configure the user equipment to carry out the modification of the service flow in the serving radio access network without any impact on at least one of a core network service monitoring, controlling, and configuring. determining, at a serving radio access network, based on a packet filtering attribute, service flows between a user equipment and the serving radio access network in the user plane, wherein said determination comprises selecting a service flow for quality of service, QoS, differentiation; and the method being characterized by initiating, at the serving radio access network, based on the determination, a modification of the service flow directly with the user equipment by sending a message to the user equipment, to configure the user equipment to carry out the modification of the service flow in the serving radio access network without any impact on at least one of a core network service monitoring, controlling, and configuring.
A drainage catheter (100; 300; 400) for use in draining body fluids, the drainage catheter comprising: a tubular body including a first tube segment (105; 310) and a second tube segment (110; 315) connected at a curved end portion (115; 305; 405) to form a continuous structure, the curved end portion including an inner surface (160; 415, 440) and an outer surface (165; 425, 445); a lumen extending through the first tube segment, the second tube segment and the curved end portion of the tubular body; and one or more drainage openings (175; 320; 410, 435) formed on the inner surface of the curved end portion, the drainage openings in communication with the lumen to form a passageway for draining body fluids, wherein the outer surface of the curved end portion is free of any drainage openings, wherein the first and second tube segments each further include depth indicia (140, 145, 150, 155) marked thereon to indicate a depth of the drainage catheter during insertion, and wherein the depth indicia (140, 145, 150, 155) marked on the first tube segments mirrors the depth indicia (140, 145, 150, 155) marked on the second tube segment. a tubular body including a first tube segment (105; 310) and a second tube segment (110; 315) connected at a curved end portion (115; 305; 405) to form a continuous structure, the curved end portion including an inner surface (160; 415, 440) and an outer surface (165; 425, 445); a lumen extending through the first tube segment, the second tube segment and the curved end portion of the tubular body; and one or more drainage openings (175; 320; 410, 435) formed on the inner surface of the curved end portion, the drainage openings in communication with the lumen to form a passageway for draining body fluids, wherein the outer surface of the curved end portion is free of any drainage openings,
A process for purifying a fluid silicon compound comprising: 1) combining 99.5 weight % to 99.75 weight % of a mixture comprising i) a fluid silicon compound comprising a halosilane monomer, and ii) an impurity comprising a metal selected from the group consisting of aluminum, titanium, a compound of aluminum, a compound of titanium, or a combination of any two or more thereof, where the impurity is present in an amount sufficient to provide at least 500 ppm of the metal based on weight of the mixture, and 0.25 weight % to 0.5 weight % of a tertiary amine; thereby forming a product comprising i) the fluid silicon compound and iii) an amine-metal complex; and 2) combining 92 weight % to 98 weight % of the product formed in step 1), and 2 weight % to 8 weight % of an activated carbon; thereby adsorbing the amine-metal complex with the activated carbon and preparing the purified fluid silicon compound. 1) combining 99.5 weight % to 99.75 weight % of a mixture comprising i) a fluid silicon compound comprising a halosilane monomer, and ii) an impurity comprising a metal selected from the group consisting of aluminum, titanium, a compound of aluminum, a compound of titanium, or a combination of any two or more thereof, where the impurity is present in an amount sufficient to provide at least 500 ppm of the metal based on weight of the mixture, and 0.25 weight % to 0.5 weight % of a tertiary amine; thereby forming a product comprising i) the fluid silicon compound and iii) an amine-metal complex; and 99.5 weight % to 99.75 weight % of a mixture comprising i) a fluid silicon compound comprising a halosilane monomer, and ii) an impurity comprising a metal selected from the group consisting of aluminum, titanium, a compound of aluminum, a compound of titanium, or a combination of any two or more thereof, where the impurity is present in an amount sufficient to provide at least 500 ppm of the metal based on weight of the mixture, and i) a fluid silicon compound comprising a halosilane monomer, and ii) an impurity comprising a metal selected from the group consisting of aluminum, titanium, a compound of aluminum, a compound of titanium, or a combination of any two or more thereof, where the impurity is present in an amount sufficient to provide at least 500 ppm of the metal based on weight of the mixture, and 0.25 weight % to 0.5 weight % of a tertiary amine; thereby forming a product comprising i) the fluid silicon compound and iii) an amine-metal complex; and 2) combining 92 weight % to 98 weight % of the product formed in step 1), and 2 weight % to 8 weight % of an activated carbon; thereby adsorbing the amine-metal complex with the activated carbon and preparing the purified fluid silicon compound. 92 weight % to 98 weight % of the product formed in step 1), and 2 weight % to 8 weight % of an activated carbon; thereby adsorbing the amine-metal complex with the activated carbon and preparing the purified fluid silicon compound.
A method for initializing a first operation in a first module at a first start time value in a first time base, the method comprising: generating a clock signal (402, 116); generating a second time base in the first module based on the clock signal, wherein the second time base is different from the first time base; determining a second sync value in the second time base; determining a first sync value in the first time base corresponding to the second sync value in the second time base, so as to represent the same instant; determining a start trigger value in the second time base based on the first sync value and the start time value in the first time base; and initializing the first operation in the first module based on the start trigger value and a current value of the second time base in the first module. generating a clock signal (402, 116); generating a second time base in the first module based on the clock signal, wherein the second time base is different from the first time base; determining a second sync value in the second time base; determining a first sync value in the first time base corresponding to the second sync value in the second time base, so as to represent the same instant; determining a start trigger value in the second time base based on the first sync value and the start time value in the first time base; and initializing the first operation in the first module based on the start trigger value and a current value of the second time base in the first module.
Method for verifying measured values of an agricultural spreading machine, having the steps of: - picking up a measured value representative of a parameter of an agricultural spreading machine by means of a measuring device (20a, 20b) of the agricultural spreading machine, - calculating a calculation value representative of the parameter of the agricultural spreading machine by means of a calculation device, wherein, during the calculation of the calculation value representative of the parameter of the agricultural spreading machine, a spreading disc (18a, 18b), a spreading disc configuration and/or setting parameters of the agricultural spreading machine are taken into consideration; and - comparing the measured value representative of the parameter of the agricultural spreading machine and the calculation value representative of the parameter of the agricultural spreading machine using an evaluation device, wherein at least one of the following steps is carried out when the deviation between the measured value representative of the parameter of the agricultural spreading machine and the calculation value representative of the parameter of the agricultural spreading machine exceeds a tolerance threshold: - outputting a warning message to a user of the agricultural spreading machine, - interrupting the spreading operation by the agricultural spreading machine. - picking up a measured value representative of a parameter of an agricultural spreading machine by means of a measuring device (20a, 20b) of the agricultural spreading machine, - calculating a calculation value representative of the parameter of the agricultural spreading machine by means of a calculation device, wherein, during the calculation of the calculation value representative of the parameter of the agricultural spreading machine, a spreading disc (18a, 18b), a spreading disc configuration and/or setting parameters of the agricultural spreading machine are taken into consideration; and - comparing the measured value representative of the parameter of the agricultural spreading machine and the calculation value representative of the parameter of the agricultural spreading machine using an evaluation device, wherein at least one of the following steps is carried out when the deviation between the measured value representative of the parameter of the agricultural spreading machine and the calculation value representative of the parameter of the agricultural spreading machine exceeds a tolerance threshold: - outputting a warning message to a user of the agricultural spreading machine, - interrupting the spreading operation by the agricultural spreading machine.
Method of approximating a patient's pulse wave based on non-invasive blood pressure measurement, comprising the following steps: (a) non-invasively measuring a sequence n=1...N of pulse signals pulse n_measured (t) of a patient, thereby applying a not-constant clamp pressure clamp n (t); (b) weighting the measured pulse signals pulse n_measured (t) using a weighting function to obtain weighted pulse signals pulse n_weighted (t); (c) adding up the weighted pulse signals pulse n_weighted (t) to obtain an approximation of the patient's pulse wave pulse approx (t). (a) non-invasively measuring a sequence n=1...N of pulse signals pulse n_measured (t) of a patient, thereby applying a not-constant clamp pressure clamp n (t); (b) weighting the measured pulse signals pulse n_measured (t) using a weighting function to obtain weighted pulse signals pulse n_weighted (t); (c) adding up the weighted pulse signals pulse n_weighted (t) to obtain an approximation of the patient's pulse wave pulse approx (t).
A ferritic stainless steel, consisting of: C: 0.002 to 0.015 mass%, Si: 1.0 mass% or lower, Mn: 0.05 mass% to 1.0 mass%, P: 0.04 mass% or lower, S: 0.010 mass% or lower, Cr: 16 to 23 mass%, N: 0.015 mass% or lower, Nb: 0.3 to 0.65 mass%, Ti: 0.15 mass% or lower, Mo: 0.1 mass% or lower, W: 0.1 mass% or lower, Cu: 1.0 to 2.5 mass%, Al: 0.2 to 1.5 mass%, and a balance of Fe and inevitable impurities, as well as optionally one or two or more elements selected from B: 0.003 mass% or lower, REM: 0.08 mass% or lower, Zr: 0.5 mass% or lower, V: 0.5 mass% or lower, Co: 0.5 mass% or lower, and Ni: 0.5 mass% or lower. C: 0.002 to 0.015 mass%, Si: 1.0 mass% or lower, Mn: 0.05 mass% to 1.0 mass%, P: 0.04 mass% or lower, S: 0.010 mass% or lower, Cr: 16 to 23 mass%, N: 0.015 mass% or lower, Nb: 0.3 to 0.65 mass%, Ti: 0.15 mass% or lower, Mo: 0.1 mass% or lower, W: 0.1 mass% or lower, Cu: 1.0 to 2.5 mass%, Al: 0.2 to 1.5 mass%, and a balance of Fe and inevitable impurities, B: 0.003 mass% or lower, REM: 0.08 mass% or lower, Zr: 0.5 mass% or lower, V: 0.5 mass% or lower, Co: 0.5 mass% or lower, and Ni: 0.5 mass% or lower.
An annotating device for annotating a medical image, comprising: - a processing unit; - a display unit: and - an interface unit; wherein the display unit is configured to display a medical image of a tubular structure; and to display a graphical representation of at least one segmented portion of the tubular structure, wherein the graphical representation comprises at least one indicator line representing the portion's shape and/or extension, and wherein the graphical representation is displayed in combination with the medical image of the tubular structure; and to display at least one marker overlaid to the medical image of the tubular structure; wherein the processing unit is configured to generate at least one marker overlaid to the medical image of the tubular structure; wherein the interface unit is configured to position the marker at a location along the graphical representation to indicate a predetermined feature of the tubular structure, and being characterized in that the movement possibilities of the marker in relation to the displayed image are restricted at least in one dimension, wherein the restriction is related to the graphical representation; wherein the marker is movable along the graphical representation; and wherein the marker is: i) a 2D-marker with an orientation in relation to the at least one segmented portion; wherein the 2D-marker is slideable along the portion; or ii) a 3D-marker arrow with a spatial orientation in relation to the at least one segmented portion; wherein the 3D arrow is slideable along the portion and rotatable around the portion. - a processing unit; - a display unit: and - an interface unit; i) a 2D-marker with an orientation in relation to the at least one segmented portion; wherein the 2D-marker is slideable along the portion; or ii) a 3D-marker arrow with a spatial orientation in relation to the at least one segmented portion; wherein the 3D arrow is slideable along the portion and rotatable around the portion.
A multi-stage amplitude modulation-based method for coding a visible light signal, comprising the following steps: dividing to-be-transmitted information into multiple information units, each information unit comprises multiple bits; converting the multiple information units into multiple electrical signal units indicated by at least three levels, an interval indicated by a first level in the at least three levels exists between adjacent electrical signal units, and each electrical signal unit uses a combination of other levels in the at least three levels to represent the multiple bits of a corresponding information unit; combining the electrical signal units to obtain a coded electrical signal; and transmitting the coded electrical signal in a visible light signal form, wherein the step of converting the multiple information units into multiple electrical signal units indicated by at least three levels comprises: determining level combinations of the electrical signal units corresponding to the information units according to a preset correspondence table, further comprising setting a signal end mark of the visible light signal to be that a duration of the first level reaches a first threshold, wherein the first level is an average value of the at least three levels; or the first level is not an average value of the at least three levels, and a beginning of the coded electrical signal is the first level. dividing to-be-transmitted information into multiple information units, each information unit comprises multiple bits; converting the multiple information units into multiple electrical signal units indicated by at least three levels, an interval indicated by a first level in the at least three levels exists between adjacent electrical signal units, and each electrical signal unit uses a combination of other levels in the at least three levels to represent the multiple bits of a corresponding information unit; combining the electrical signal units to obtain a coded electrical signal; and transmitting the coded electrical signal in a visible light signal form, wherein the step of converting the multiple information units into multiple electrical signal units indicated by at least three levels comprises: determining level combinations of the electrical signal units corresponding to the information units according to a preset correspondence table, further comprising setting a signal end mark of the visible light signal to be that a duration of the first level reaches a first threshold, wherein the first level is an average value of the at least three levels; or the first level is not an average value of the at least three levels, and a beginning of the coded electrical signal is the first level.
A control circuit configured to control a switching circuit of a resonant converter, the switching circuit including a first power switch and a second power switch coupled to a resonant circuit and the control circuit configured to control a first on time (T ONHS) of the first power switch and a second on time (T ONLS) of the second power switch to generate a square wave signal to drive the resonant circuit, the control circuit configured to control the first on time based on a zero current detection time (T ZCD) indicating detection of a zero current crossing of a resonant current (I TANK) generated in the resonant circuit in response to the square wave signal and on a time shift delay time (T D) that is based on an output voltage (Vout) of the resonant converter, characterised in that the control circuit is further configured to control the second on time of the second power switch based on the zero current detection time detected for the first power switch and the time shift delay time. characterised in that the control circuit is further configured to control the second on time of the second power switch based on the zero current detection time detected for the first power switch and the time shift delay time.
A method for producing rod lenses with a thickness D and a height H wherein the thickness and the height form cathetus of a rectangular triangle and the resultant hypotenuse is designated as an enveloping diameter wherein an enveloping diameter of rod lens face is up to 200 mm and has an edge length of at least 800 mm, characterized in that a rod lens base element is fabricated from a synthetic quartz glass material configured as a fused silica ingot using a flame hydrolysis method with a direct single stage precipitation process of SiO x particles from a flame stream onto a rotating plunger that is movable with respect to the flame stream using a direct melting method with the process steps: - retracting the plunger with a continuous velocity, wherein a quartz glass cylinder is formed on the plunger as a rod lens base element with increasing length, - wherein the precipitation process is performed at an oven cavity temperature in a range of 1100 to 1300° C and a distance (b) between an interior muffle wall and a melting surface of the precipitated FS-ingot is maintained constant in a range of 10 to 25 mm, - wherein a preselection and adjustment of a reproducible reaction space volume between the forming FS-ingot and the inside of the muffle is performed by a muffle geometry where a distance (a) between the enveloping surface of the FS-ingot and the interior muffle wall is maintained in a range of 40 to 75 mm, - immediately after the precipitation process removing, cooling and checking of the rod lens base element, - wherein the rod lens base element is used as a semi finishing product for fabricating one or plural rod lenses. - retracting the plunger with a continuous velocity, wherein a quartz glass cylinder is formed on the plunger as a rod lens base element with increasing length, - wherein the precipitation process is performed at an oven cavity temperature in a range of 1100 to 1300° C and a distance (b) between an interior muffle wall and a melting surface of the precipitated FS-ingot is maintained constant in a range of 10 to 25 mm, - wherein a preselection and adjustment of a reproducible reaction space volume between the forming FS-ingot and the inside of the muffle is performed by a muffle geometry where a distance (a) between the enveloping surface of the FS-ingot and the interior muffle wall is maintained in a range of 40 to 75 mm, - immediately after the precipitation process removing, cooling and checking of the rod lens base element, - wherein the rod lens base element is used as a semi finishing product for fabricating one or plural rod lenses.