mhurhangee/patent-ind-claim-en huggingface dataset:
A method of receiving and checking individualized compound of medicines, comprising a repetition of the steps of - receiving a plurality of dispensed medicines that form an individualized compound dose of medicines, - assessing the composition of the individualized compound dose of medicines trough automated recognition of the received medicines, - checking the assessed composition of the received individualized compound dose of medicines against a record for the composition of that individualized compound dose of medicines, and - if the outcome of the check is positive, discharging the received individualized compound dose of medicines to be packaged in a dose compartment of a multi dose compartment package , and - if the outcome of the check is negative, discharging the received individualized compound dose of medicines other than to be packaged in a dose compartment of the multi dose compartment package , - wherein for each received individualized compound dose of medicines, the multi dose compartment package is virtually and/or physically indexed to another free dose compartment , characterized in that - if the outcome of the check is negative, the dose compartment is skipped and remains open to receive an individualized compound dose of medicines, and in that if a plurality of medicines to form an individualized compound dose of medicines according to that record is received a second time, the multi dose compartment package is indexed to the skipped dose compartment to package the individualized compound dose of medicines. - receiving a plurality of dispensed medicines that form an individualized compound dose of medicines, - assessing the composition of the individualized compound dose of medicines trough automated recognition of the received medicines, - checking the assessed composition of the received individualized compound dose of medicines against a record for the composition of that individualized compound dose of medicines, and - if the outcome of the check is positive, discharging the received individualized compound dose of medicines to be packaged in a dose compartment of a multi dose compartment package , and - if the outcome of the check is negative, discharging the received individualized compound dose of medicines other than to be packaged in a dose compartment of the multi dose compartment package , - wherein for each received individualized compound dose of medicines, the multi dose compartment package is virtually and/or physically indexed to another free dose compartment , characterized in that - if the outcome of the check is negative, the dose compartment is skipped and remains open to receive an individualized compound dose of medicines, and in that if a plurality of medicines to form an individualized compound dose of medicines according to that record is received a second time, the multi dose compartment package is indexed to the skipped dose compartment to package the individualized compound dose of medicines.
A method for handling beam blockage in a wireless communication system , comprising: detecting , by a user equipment , UE, presence of a blockage of at least one beam; determining , by the UE, a duration of the blockage of the at least one beam, wherein the duration of the blockage is determined at a time at which the blockage is present, based on stored historic blockage durations; storing the duration of the blockage as a historic blockage duration; and indicating , by the UE, the blockage, to perform a predetermined process that is selected based on: stored historic blockage durations, whether the UE is in a connected mode or an idle mode, and whether a beam failure instance counter reaches a beam failure instance maximum count. detecting , by a user equipment , UE, presence of a blockage of at least one beam; determining , by the UE, a duration of the blockage of the at least one beam, wherein the duration of the blockage is determined at a time at which the blockage is present, based on stored historic blockage durations; storing the duration of the blockage as a historic blockage duration; and indicating , by the UE, the blockage, to perform a predetermined process that is selected based on: stored historic blockage durations, whether the UE is in a connected mode or an idle mode, and whether a beam failure instance counter reaches a beam failure instance maximum count.
A method for manufacturing an optical fiber comprising: heating an optical fiber preform to draw glass fiber ; measuring an outer diameter of the glass fiber to obtain a function of time; transforming the function of time into a function of frequency; identifying a first peak (P1) caused by a first drawing condition and a second peak (P2) caused by a second drawing condition in the function of frequency; adjusting the second drawing condition so as to satisfy fn < fm - wm / 2 or fn > fm + wm / 2, where fm is a frequency of the first peak (P1), wm is a full width at half maximum of the first peak (P1), and fn is a frequency of the second peak (P2); forming a coating layer on the glass fiber to form an optical fiber ; and twisting the optical fiber using a swing guide roller ; wherein the second drawing condition is a swing frequency of the swing guide roller ; wherein the first drawing condition is a characteristic vibration frequency of a manufacturing device . heating an optical fiber preform to draw glass fiber ; measuring an outer diameter of the glass fiber to obtain a function of time; transforming the function of time into a function of frequency; identifying a first peak (P1) caused by a first drawing condition and a second peak (P2) caused by a second drawing condition in the function of frequency; adjusting the second drawing condition so as to satisfy fn < fm - wm / 2 or fn > fm + wm / 2, where fm is a frequency of the first peak (P1), wm is a full width at half maximum of the first peak (P1), and fn is a frequency of the second peak (P2); forming a coating layer on the glass fiber to form an optical fiber ; and twisting the optical fiber using a swing guide roller ; wherein the second drawing condition is a swing frequency of the swing guide roller ; wherein the first drawing condition is a characteristic vibration frequency of a manufacturing device .
Drug delivery device for the delivery of a drug fluid comprising drug molecules tending to spontaneously form nucleation seeds leading to fibrils or aggregates, said drug delivery device comprising a drug reservoir having a reservoir outlet ; a fluid flow controlling system ; a device outlet; and a fluid pathway including the fluid flow controlling system ; wherein the reservoir outlet is connected to the device outlet through the fluid pathway, wherein the fluid pathway includes a filtration module comprising a porous membrane adapted to retain said nucleation seeds by adsorption, characterised by the fact that said filtration module has hydrophobic surface properties to promote nucleation seed adsorption and hydrophilic surface properties to prevent air bubbles from traveling in the fluid pathway; the fact that said porous membrane exhibits the hydrophilic properties at an external surface on a side facing the drug reservoir and the fact that the membrane exhibits the hydrophobic properties within said porous membrane.
A composition that comprises methyl jasmonate (MeJA), a polysiloxane polyether, water and a C2-C4 alcohol characterised in that : - methyl jasmonate represents between 0.0015% and 0.0028% of the total volume thereof; - polysiloxane polyether represents between 0.068% and 0.1272% of the total volume thereof; - C2-C4 alcohol represents between 0.15% and 0.28% of the total volume thereof; and - water represents the rest of the volume of the composition. - methyl jasmonate represents between 0.0015% and 0.0028% of the total volume thereof; - polysiloxane polyether represents between 0.068% and 0.1272% of the total volume thereof; - C2-C4 alcohol represents between 0.15% and 0.28% of the total volume thereof; and - water represents the rest of the volume of the composition.
A compound of Formula (I) or its pharmaceutically acceptable salts thereof, for use in treatment, regression or slowing the progression of fibrotic lung disease wherein the compound is administered through at least one route selected from inhalation or pulmonary oscillation.
Method for generating a tissue, the method comprising the steps of providing a physical model of a patient's joint ; identify a damaged element which is intended to be replaced by a generated tissue; replacing the damaged element of the physical model with a scaffold ; introducing the physical model with the scaffold in a bioreactor and start cell culture around the scaffold ; make the physical model simulate standard joint movements while the cell culture is taking place, so that the tissue is generated around the scaffold . providing a physical model of a patient's joint ; identify a damaged element which is intended to be replaced by a generated tissue; replacing the damaged element of the physical model with a scaffold ; introducing the physical model with the scaffold in a bioreactor and start cell culture around the scaffold ; make the physical model simulate standard joint movements while the cell culture is taking place, so that the tissue is generated around the scaffold .
A method comprising: receiving, at a processor , a second vector signal from a circuit in response to the circuit receiving a first vector signal; transforming, at the processor , the second vector signal from a time domain to a transform domain; and rotating, at the processor , the transformed second vector signal by a phase that is proportional to a time delay between the first and second vector signals to time-align the second vector signal to the first vector signal, wherein the time delay is introduced between the first and second vector signals by the circuit, wherein transforming the second vector signal from the time domain to the transform domain comprises calculating an offset based on a sum of components of the second vector signal and subtracting the offset from the components of the second vector signal prior to transforming the offset-corrected second vector signal from the time domain to the transform domain, wherein transforming the offset-corrected second vector signal from the time domain to the transform domain comprises calculating a first vector power based on the first vector signal and a second vector power based on the offset-corrected second vector signal, calculating a gain based on a ratio of the first vector power to the second vector power, and scaling the offset-corrected second vector signal based on the gain prior to transforming the scaled second vector signal from the time domain to the transform domain. receiving, at a processor , a second vector signal from a circuit in response to the circuit receiving a first vector signal; transforming, at the processor , the second vector signal from a time domain to a transform domain; and rotating, at the processor , the transformed second vector signal by a phase that is proportional to a time delay between the first and second vector signals to time-align the second vector signal to the first vector signal, wherein the time delay is introduced between the first and second vector signals by the circuit, wherein transforming the second vector signal from the time domain to the transform domain comprises calculating an offset based on a sum of components of the second vector signal and subtracting the offset from the components of the second vector signal prior to transforming the offset-corrected second vector signal from the time domain to the transform domain,
A gamma-ray attenuator comprising: a sleeve having a wall , a distal end , and a proximal end , wherein the distal end is closed and the proximal end forms an opening ; a copper insert substantially abutting the distal end of the sleeve and extending to the wall of the sleeve, wherein the copper insert has a substantially uniform thickness, measured along an axial direction of the sleeve; a tin insert substantially abutting the copper insert on a side of the copper insert opposite the sleeve and extending to the wall of the sleeve, wherein the tin insert has a substantially uniform thickness, measured along an axial direction of the sleeve; a tungsten insert substantially abutting the tin insert and extending to the wall of the sleeve, wherein the tungsten insert has a substantially uniform thickness or a thickness that is thinner at an edge than at a midpoint, measured along an axial direction of the cylindrical sleeve; wherein the copper insert, the tin insert, and the tungsten insert each have at least one through hole formed therethrough and are aligned with each other. a sleeve having a wall , a distal end , and a proximal end , wherein the distal end is closed and the proximal end forms an opening ; a copper insert substantially abutting the distal end of the sleeve and extending to the wall of the sleeve, wherein the copper insert has a substantially uniform thickness, measured along an axial direction of the sleeve; a tin insert substantially abutting the copper insert on a side of the copper insert opposite the sleeve and extending to the wall of the sleeve, wherein the tin insert has a substantially uniform thickness, measured along an axial direction of the sleeve; a tungsten insert substantially abutting the tin insert and extending to the wall of the sleeve, wherein the tungsten insert has a substantially uniform thickness or a thickness that is thinner at an edge than at a midpoint, measured along an axial direction of the cylindrical sleeve; wherein the copper insert, the tin insert, and the tungsten insert each have at least one through hole formed therethrough and are aligned with each other.
Turbomachine , in particular for a fuel cell system , with a compressor , a drive device , and a shaft , wherein the compressor has an impeller arranged on the shaft , a compressor inlet , and a compressor outlet , wherein a working fluid can be delivered from the compressor inlet to the compressor outlet , wherein a drive cooling path branches off at the compressor outlet in order to cool the drive device , wherein a cooling valve is arranged in the drive cooling path , wherein a regulation unit is provided which controls the degree of opening of the cooling valve in order to adjust an actual value of the temperature of the medium in the drive cooling path , preferably in the region of the downstream end of the drive cooling path , to a target value of the temperature, characterized in that the drive cooling path forms a bypass duct which branches off at the compressor outlet and which serves in particular for pressure limitation, and in that the cooling valve forms a bypass valve arranged in the bypass duct , and in that the regulation unit controls the degree of opening of the cooling valve depending on the target value for the temperature of the medium in the drive cooling path and depending on a desired bypass mass flow.
Combustion chamber device or thrust chamber device, comprising a first wall means (28; 88), which with an inner side (30; 92) delimits a combustion space (14; 90) or a thrust space, and a second wall means , which faces with an inner side toward an outer side (32; 94) of the first wall means (28; 88), wherein the first wall means (28; 88) is made of a ceramic composite material, and a cooling channel means for cooling the first wall means (28; 88) with a cooling fluid, which comprises at least one cooling channel (56; 96) that is arranged or formed on the first wall means and/or the second wall means and/or between the first wall means and the second wall means, wherein arranged in the first wall means are fibers with a high heat conductivity, which are arranged away from the inner side (30; 92) in the direction of heat transport and which have a heat conductivity of at least 100 W/mK, wherein fiber ends of the fibers with a high heat conductivity end at or near the inner side (30; 92) of the first wall means (28; 88), wherein the fibers with a high heat conductivity are guided from the inner side (30; 92) of the first wall means to the at least one channel (56; 96), characterized in that fiber ends of the fibers with a high heat conductivity end at a flow space or near a flow space of the at least one channel (56; 96).
A method of wireless communication by a user equipment, UE, comprising: receiving a random access response, RAR, message for a random access channel, RACH, procedure with a base station, wherein the RAR message is received on a first beam with a first beam index; receiving , from the base station, a contention resolution message, the contention resolution message indicating at least a second beam index corresponding to a second beam that is different from the first beam; determining whether the second beam index is applicable to the UE; and communicating with the base station through the second beam corresponding to the second beam index when the second beam index is applicable to the UE. receiving a random access response, RAR, message for a random access channel, RACH, procedure with a base station, wherein the RAR message is received on a first beam with a first beam index; receiving , from the base station, a contention resolution message, the contention resolution message indicating at least a second beam index corresponding to a second beam that is different from the first beam; determining whether the second beam index is applicable to the UE; and communicating with the base station through the second beam corresponding to the second beam index when the second beam index is applicable to the UE.
A system for transporting an Short Message Service ,SMS, message from a sending Mobile Network Operator party, MNO A, to a receiving Mobile Network Operator party, MNO B, wherein the MNO B uses a sponsor Mobile Network Operator party, MNO S, within the context of SMS interworking services and wherein the system comprises a component, WB, in a routing path between MNO B and MNO A, the component, WB, being arranged for: - receiving a Request to send Routing Info for Short Message ,SRI for SM response, sent by MNO B, the SRI for SM response comprising an International Mobile Subscriber Identity ,IMSI; - reading a SMS, routing information in the SRI for SM response; - accessing data relating to an SMS interworking arrangement between the MNO A, and the MNO B, - establishing, dependent on the data relating to the SMS interworking arrangement between the MNO A, and the MNO B, whether use of the MNO S, is required or preferred and - if use of the MNO S, is required or preferred, amending the SMS routing information data in the SRI for SM response, wherein the component introduces itself as the receiving MNO to the sending MNO using a Global Title, GT, address from the MNO S and replaces the IMSI in the SRI for SM response with a Sponsored B-IMSI; - if the use of the MNO S is not required, passing on the SRI for SM response sent by the MNO B ; - receiving a subsequent SMS Mobile Terminating ,SMS MT, request by the component and a SMS MT response message, wherein the component maps in the SMS MT request and SMS MT response the sponsored GT addresses to/from the corresponding sending MNO or receiving MNO GT addresses, and replaces in the SMS MT request the Sponsored B-IMSI with the IMSI comprised in the SRI for SM response. - receiving a Request to send Routing Info for Short Message ,SRI for SM response, sent by MNO B, the SRI for SM response comprising an International Mobile Subscriber Identity ,IMSI; - reading a SMS, routing information in the SRI for SM response; - accessing data relating to an SMS interworking arrangement between the MNO A, and the MNO B, - establishing, dependent on the data relating to the SMS interworking arrangement between the MNO A, and the MNO B, whether use of the MNO S, is required or preferred and - if use of the MNO S, is required or preferred, amending the SMS routing information data in the SRI for SM response, wherein the component introduces itself as the receiving MNO to the sending MNO using a Global Title, GT, address from the MNO S and replaces the IMSI in the SRI for SM response with a Sponsored B-IMSI; - if the use of the MNO S is not required, passing on the SRI for SM response sent by the MNO B ; - receiving a subsequent SMS Mobile Terminating ,SMS MT, request by the component and a SMS MT response message, wherein the component maps in the SMS MT request and SMS MT response the sponsored GT addresses to/from the corresponding sending MNO or receiving MNO GT addresses, and replaces in the SMS MT request the Sponsored B-IMSI with the IMSI comprised in the SRI for SM response.
An alternating-current electric vehicle that receives an alternating-current power from an overhead wire , comprising: a plurality of main transformers (TR1, TR2) electrically connected to the overhead wire and in parallel; a plurality of circuit breakers (CB1, CB2) each connected between the overhead wire and corresponding one of the plurality of main transformers (TR1, TR2); and a control device configured to close and open the plurality of circuit breakers (CB1, CB2), characterised in that the control device is configured to sequentially close, when power feeding from the overhead wire to the alternating-current electric vehicle is started, the plurality of circuit breakers (CB1, CB2) within one cycle of a overhead wire voltage in accordance with a time difference, wherein the time difference is set based on a difference in closing phases, each closing phase being a phase of the overhead wire voltage at the time of closing a respective one of the plurality of circuit breakers (CB1, CB2), wherein the difference in the closing phases is set to a value obtained by dividing 360 degrees by a number of the plurality of main transformers (TR1, TR2), wherein the number of the plurality of main transformers (TR1, TR2) is two or four. a plurality of main transformers (TR1, TR2) electrically connected to the overhead wire and in parallel; a plurality of circuit breakers (CB1, CB2) each connected between the overhead wire and corresponding one of the plurality of main transformers (TR1, TR2); and a control device configured to close and open the plurality of circuit breakers (CB1, CB2), characterised in that the control device is configured to sequentially close, when power feeding from the overhead wire to the alternating-current electric vehicle is started, the plurality of circuit breakers (CB1, CB2) within one cycle of a overhead wire voltage in accordance with a time difference, wherein the time difference is set based on a difference in closing phases, each closing phase being a phase of the overhead wire voltage at the time of closing a respective one of the plurality of circuit breakers (CB1, CB2), wherein the difference in the closing phases is set to a value obtained by dividing 360 degrees by a number of the plurality of main transformers (TR1, TR2), wherein the number of the plurality of main transformers (TR1, TR2) is two or four.
A smoking article component including a curved sheet wrapper that includes a plurality of lines of strength discontinuity whereat the wrapper presents a visually discernable non-uniformity in its curvature, and includes lap seams along opposite side edges that include lines of weakness that permit intimate overlying abutment of side edges of the wrapper.