mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing an alkaline aggregate , which method comprises the steps of: - providing a granular alkaline material which comprises a granular steel-making slag material , excluding blast furnace slags, and which contains free oxides of calcium and/or magnesium, and - ageing at least a portion of the granular alkaline material , which portion has a predetermined swelling percentage as determined according to standard NBN EN 1744-1 article 19.3, to reduce this swelling percentage to a value which is smaller than 1.5%, preferably smaller than 1.0%, during which ageing step said portion of said granular alkaline material is treated with water to hydrate at least part of said free oxides, characterised in that at least said portion of the granular alkaline material is treated with an aqueous medium which contains at least one antiscalant to accelerate said ageing of the granular alkaline material . - providing a granular alkaline material which comprises a granular steel-making slag material , excluding blast furnace slags, and which contains free oxides of calcium and/or magnesium, and - ageing at least a portion of the granular alkaline material , which portion has a predetermined swelling percentage as determined according to standard NBN EN 1744-1 article 19.3, to reduce this swelling percentage to a value which is smaller than 1.5%, preferably smaller than 1.0%, during which ageing step said portion of said granular alkaline material is treated with water to hydrate at least part of said free oxides,
A hinge connection comprising a male member applied on a base plate and a pair of female members applied on a further base plate , said male member having protrusions and provided to be hinged and resiliently fitted between a pair of female members applied on said further base plate , said male member being formed by two parallel male legs , wherein each leg comprises one of said protrusions , each of said female members formed by two parallel female legs and comprising a through hole for engaging one of said protrusions , wherein the two parallel female legs comprise an intermediary piece and wherein said through hole extends through said female legs and said intermediary piece , characterized in that - said protrusions on each leg of the male member comprise cogs or cut teeth, - said through hole of the female member comprises cogs or cut teeth to receive the cogs or cut teeth of said male protrusions , and - said intermediary piece of the female members is interrupted in the transverse direction perpendicular to the central axis of the through hole . - said protrusions on each leg of the male member comprise cogs or cut teeth, - said through hole of the female member comprises cogs or cut teeth to receive the cogs or cut teeth of said male protrusions , and - said intermediary piece of the female members is interrupted in the transverse direction perpendicular to the central axis of the through hole .
A motorcompressor comprising a drainage sump ; a plurality of stages each having a duct with an intake section and a discharge section for a process fluid; a drainage apparatus placed in fluid communication with said drainage sump and with a duct of one of said stages , the drainage apparatus comprising a first pipe being placed inside an external casing and having a first end inserted in a drainage sump of the motorcompressor and a second end in fluid communication with the intake section of a duct of a stage of said motorcompressor ; wherein the intake section is upstream of a rotating element inside the duct of the stage for a process fluid to be directed towards the rotating element , and said apparatus comprises a device for generating a pressure difference between said second end and said first end so that the process fluid is taken from said drainage sump and delivered into the intake section of said duct .
A method performed by a wireless device comprising: - receiving a Media Access Control, MAC, Control Element, CE, from a network node , the MAC CE comprising a plurality of octets and a plurality of fields, wherein a first field of the plurality of fields is used to indicate a number of sets of power control parameters in a last octet of the received MAC CE, the sets of power control parameters being associated with a reference signal used for path loss estimation; and - sending a transmission to a network node , based at least on a set of power control parameters associated with the reference signal. - receiving a Media Access Control, MAC, Control Element, CE, from a network node , the MAC CE comprising a plurality of octets and a plurality of fields, wherein a first field of the plurality of fields is used to indicate a number of sets of power control parameters in a last octet of the received MAC CE, the sets of power control parameters being associated with a reference signal used for path loss estimation; and - sending a transmission to a network node , based at least on a set of power control parameters associated with the reference signal.
Preparation method of benzocaine loaded microemulsion based hydrogel a) Preparation of microemulsion formulations , • Mixing 0.5 - 5 %w/v benzocaine with 1 - 25% w/v liquid lipid which is isopropyl myristate , • Adding 5 - 30% w/v surfactant itself or combinations of surfactants which are Span TM 20, Polysorbate 80, Tween TM 20, Cremophor TM EL and Cremophor TM RH40 , • Adding 5 - 30% w/v ethanol as cosurfactant into this mixture and stirring. , • Stirring the mixture by adding 5 - 80% w/v distilled water , • Stirring the prepared microemulsions , b) Adding 0,1 - 15% w/v gelling agent Carbopol TM into prepared microemulsion formulations and stirring , a) Preparation of microemulsion formulations , • Mixing 0.5 - 5 %w/v benzocaine with 1 - 25% w/v liquid lipid which is isopropyl myristate , • Adding 5 - 30% w/v surfactant itself or combinations of surfactants which are Span TM 20, Polysorbate 80, Tween TM 20, Cremophor TM EL and Cremophor TM RH40 , • Adding 5 - 30% w/v ethanol as cosurfactant into this mixture and stirring. , • Stirring the mixture by adding 5 - 80% w/v distilled water , • Stirring the prepared microemulsions , • Mixing 0.5 - 5 %w/v benzocaine with 1 - 25% w/v liquid lipid which is isopropyl myristate , • Adding 5 - 30% w/v surfactant itself or combinations of surfactants which are Span TM 20, Polysorbate 80, Tween TM 20, Cremophor TM EL and Cremophor TM RH40 , • Adding 5 - 30% w/v ethanol as cosurfactant into this mixture and stirring. , • Stirring the mixture by adding 5 - 80% w/v distilled water , • Stirring the prepared microemulsions , b) Adding 0,1 - 15% w/v gelling agent Carbopol TM into prepared microemulsion formulations and stirring ,
A method of producing a retorted liquid dairy concentrate in a sealed beverage container, the method comprising: mixing cream and micro-filtered milk to form a liquid dairy ingredient consisting of the cream and the micro-filtered milk and having a total solids content of up to 55wt%, wherein the liquid dairy ingredient has a fat content of between 35 to 45wt% and a fat to protein ratio of from 5:1 to 15:1 by weight, concentrating the liquid dairy ingredient by ultrafiltration to obtain a concentrated liquid dairy ingredient as a retentate; adding sucrose and/or trisodium citrate to form a modified retentate; adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate; cooling the liquid dairy concentrate to at most 8°C, filling the cooled liquid dairy concentrate into a beverage container, and sealing and retorting the liquid dairy concentrate in the beverage container, wherein after adding sucrose and/or trisodium citrate to form a modified retentate and before adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate, the modified retentate is cooled to a temperature of at most 8°C, and wherein the modified retentate is stored at a temperature of at most 8°C for at least 2 minutes. mixing cream and micro-filtered milk to form a liquid dairy ingredient consisting of the cream and the micro-filtered milk and having a total solids content of up to 55wt%, wherein the liquid dairy ingredient has a fat content of between 35 to 45wt% and a fat to protein ratio of from 5:1 to 15:1 by weight, concentrating the liquid dairy ingredient by ultrafiltration to obtain a concentrated liquid dairy ingredient as a retentate; adding sucrose and/or trisodium citrate to form a modified retentate; adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate; cooling the liquid dairy concentrate to at most 8°C, filling the cooled liquid dairy concentrate into a beverage container, and sealing and retorting the liquid dairy concentrate in the beverage container, wherein after adding sucrose and/or trisodium citrate to form a modified retentate and before adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate, the modified retentate is cooled to a temperature of at most 8°C, and wherein the modified retentate is stored at a temperature of at most 8°C for at least 2 minutes.
A method for compensating for deviation for optical lens manufacturing in an optical prescription laboratory, comprising: receiving a prescription, calculating manufacturing parameters based on the received prescription, commanding a surfacing process equipment using the manufacturing parameters to create one or more optical lenses having the desired optics defined by the prescription, measuring design parameter of the one or more optical lenses upon completion of the surfacing process, computing manufacturing deviations in the or more optical lenses between nominal optical prescription values and the measured design parameter, computing compensation factors for one or more future optical lens manufacturing runs based upon the manufacturing deviations, providing the compensation factors to a Lab Management System (LMS, 101), and compensating for the computed manufacturing deviation by applying the compensation factors to adjust the prescriptions or to modify the lens surfacing equipment commands. receiving a prescription, calculating manufacturing parameters based on the received prescription, commanding a surfacing process equipment using the manufacturing parameters to create one or more optical lenses having the desired optics defined by the prescription, measuring design parameter of the one or more optical lenses upon completion of the surfacing process, computing manufacturing deviations in the or more optical lenses between nominal optical prescription values and the measured design parameter, computing compensation factors for one or more future optical lens manufacturing runs based upon the manufacturing deviations, providing the compensation factors to a Lab Management System (LMS, 101), and compensating for the computed manufacturing deviation by applying the compensation factors to adjust the prescriptions or to modify the lens surfacing equipment commands.
Diene elastomer which bears pendent imidazole rings of formula distributed randomly along the chain of the diene elastomer, in which: three of the four symbols Z, Y, R and R', which are identical or different, represent a hydrogen atom or a carbon chain that may contain at least one heteroatom, it being possible for Z and Y to form, together with the carbon atoms to which they are attached, a ring when neither Z nor Y denotes the 4 th symbol, and solely the fourth symbol denotes an attachment to the diene elastomer, characterized in that the imidazole rings represent between 4 and 15 mol per 100 mol of monomer units constituting the diene elastomer. three of the four symbols Z, Y, R and R', which are identical or different, represent a hydrogen atom or a carbon chain that may contain at least one heteroatom, it being possible for Z and Y to form, together with the carbon atoms to which they are attached, a ring when neither Z nor Y denotes the 4 th symbol, and solely the fourth symbol denotes an attachment to the diene elastomer, characterized in that the imidazole rings represent between 4 and 15 mol per 100 mol of monomer units constituting the diene elastomer.
A method for rerouting a communication intended for a first communication device to a second communication device , the first communication device being configured as a cluster to automatically communicate events between each other via a short range wireless connection, the method comprising: upon receiving , from the first communication device, a notification of the communication intended for the first communication device, the second communication device requesting to a rerouting circuit of the first communication device that the communication intended for the first communication device be rerouted to the second communication device ; and based on said request, rerouting the communication intended for the first communication device to the second communication device , said rerouting including establishing a direct communication link between the first and second communication devices via the short range wireless connection, and using the direct communication link to reroute the communication intended for the first communication device to the second communication device, the method being characterized by : the first communication device automatically providing said notification of the communication to the second communication device as an alert on the second communication device , wherein, if the first communication device and the second communication device are not within range, the notification is provided as a missed call event at a later time when the first communication device and the second communication are again within range. upon receiving , from the first communication device, a notification of the communication intended for the first communication device, the second communication device requesting to a rerouting circuit of the first communication device that the communication intended for the first communication device be rerouted to the second communication device ; and based on said request, rerouting the communication intended for the first communication device to the second communication device , said rerouting including establishing a direct communication link between the first and second communication devices via the short range wireless connection, and using the direct communication link to reroute the communication intended for the first communication device to the second communication device, the method being characterized by : the first communication device automatically providing said notification of the communication to the second communication device as an alert on the second communication device , wherein, if the first communication device and the second communication device are not within range, the notification is provided as a missed call event at a later time when the first communication device and the second communication are again within range.
Radar based fill level measurement device for measuring the fill level of a material in a container , comprising an electronics unit , wherein said electronics unit serves to generate a transmission signal, wherein said electronics unit comprises a signal generator to generate a frequency modulated transmission signal, wherein said electronics unit serves to process a received signal, said received signal containing a reflected portion of the transmission signal, said reflected portion being reflected from a surface of the material whose distance is to be measured, and comprising a coaxial waveguide probe , wherein said coaxial waveguide probe serves for guiding the transmission signal (TX) and the received signal (RX), characterized in that the electronics unit comprises a processor to process the received signal using phase information comprised in the received signal, in that the processor calculates an expected phase response of the received signal (RX) as a function of the distance of the surface of the material , in that the processor determines the phase of the received signal (RX) at a frequency peak (X) of the received signal (RX), wherein said frequency peak (X) corresponds to said distance, and in that the processor compares said determined phase with the expected phase response at said distance.
A method for wireless communication, comprising: identifying a reserved set of wireless resources within a system bandwidth for a first type of communication with a first type of user equipment, UE, and remaining wireless resources outside of the reserved set and within the system bandwidth; and allocating a subset of the remaining wireless resources for a second type of communication with a second type of UE, wherein the first type of communication and the second type of communication differ based on at least one of: round trip time, RTT, or duty cycle timing, wherein the first type of communication has a first subframe type with a first transmit time interval, TTI, and the second type of communication has a second subframe type with a second TTI that is less than the first TTI, characterized by , the second type of communication is configured to provide acknowledgement of receipt of transmissions on a shorter time scale than such acknowledgements in the first type of communications, in that the first type of communication provides acknowledgement of receipt starting with n+4 subframes after a transmission in a n-th subframe ; whereas the second type of communication provides acknowledgement of receipt starting in a first available symbol that is n+4 symbols after a transmission in a n-th symbol. identifying a reserved set of wireless resources within a system bandwidth for a first type of communication with a first type of user equipment, UE, and remaining wireless resources outside of the reserved set and within the system bandwidth; and allocating a subset of the remaining wireless resources for a second type of communication with a second type of UE, wherein the first type of communication and the second type of communication differ based on at least one of: round trip time, RTT, or duty cycle timing, wherein the first type of communication has a first subframe type with a first transmit time interval, TTI, and the second type of communication has a second subframe type with a second TTI that is less than the first TTI, characterized by , the second type of communication is configured to provide acknowledgement of receipt of transmissions on a shorter time scale than such acknowledgements in the first type of communications, in that the first type of communication provides acknowledgement of receipt starting with n+4 subframes after a transmission in a n-th subframe ; whereas the second type of communication provides acknowledgement of receipt starting in a first available symbol that is n+4 symbols after a transmission in a n-th symbol.
A device for off-center detector X-ray tomography reconstruction of an image of an object on the basis of projection data, wherein the projection data has been acquired by means of the off-center detector during a rotation of an X-ray source and the off-center detector around the object in two rotational passes of less than 360°, the X-ray source generating a diverging X-ray beam having a focus point and the focus point travelling along largely overlapping arcs in the two rotational passes, the off-center detector being positioned asymmetrically with respect to a central ray of the X-ray beam and a direction of a detector offset being reversed between the passes, and wherein the device is configured for redundancy weighting of the projection data with respect to the redundant acquisition of the projection values during each of the rotational passes using a redundancy weighting function, the redundancy weighting functions being determined on the basis of a union of the arcs .
A power adjustment method for a common public radio interface, CPRI, system, comprising: obtaining a to-be-output signal; performing first automatic gain control, AGC, processing on the to-be-output signal to obtain the to-be-output signal on which the first AGC processing is performed, and to obtain a gain value of the to-be-output signal; performing digital pre-distortion, DPD, processing on the to-be-output signal on which the first AGC processing is performed, to obtain the to-be-output signal on which the DPD processing is performed; calculating an output power back-off, OBO, value based on the gain value; adjusting , based on the OBO value, output power of the to-be-output signal on which the DPD processing is performed; and sending , to a signal receive end, the power adjusted signal, wherein after the performing digital pre-distortion DPD processing on the to-be-output signal on which the first AGC processing is performed, the method further comprises: performing second AGC processing on the to-be-output signal on which the DPD processing is performed. obtaining a to-be-output signal; performing first automatic gain control, AGC, processing on the to-be-output signal to obtain the to-be-output signal on which the first AGC processing is performed, and to obtain a gain value of the to-be-output signal; performing digital pre-distortion, DPD, processing on the to-be-output signal on which the first AGC processing is performed, to obtain the to-be-output signal on which the DPD processing is performed; calculating an output power back-off, OBO, value based on the gain value; adjusting , based on the OBO value, output power of the to-be-output signal on which the DPD processing is performed; and sending , to a signal receive end, the power adjusted signal, wherein after the performing digital pre-distortion DPD processing on the to-be-output signal on which the first AGC processing is performed, the method further comprises: performing second AGC processing on the to-be-output signal on which the DPD processing is performed.
A process for preparing a compound of the formula: or salt thereof, comprising the steps of: i. combining dibenzylamine and a compound of the formula: then adding a base to produce a compound of the formula: ii. taking trimethylsulfuxonium halide in the presence of a base and combining with a solution of the compound resulting from step (i) and heating to above 40°C to produce a compound of the formula: and iii. deprotecting the compound resulting from step (ii). i. combining dibenzylamine and a compound of the formula: then adding a base to produce a compound of the formula: ii. taking trimethylsulfuxonium halide in the presence of a base and combining with a solution of the compound resulting from step (i) and heating to above 40°C to produce a compound of the formula: and iii. deprotecting the compound resulting from step (ii).