mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an internal combustion engine having an intake manifold fluidly coupled to a turbocharger , the turbocharger having an effect on a manifold air pressure (MAP) and a manifold air flow (MAF) in the intake manifold , the internal combustion engine also having one or more fuel injectors for injecting fuel into the intake manifold of the engine , the method comprising the steps of: injecting a fueling profile into the internal combustion engine using the one or more fuel injectors ; and providing one or more signals that are related to the fueling profile; wherein the method is further characterized by the step of: adjusting the manifold air pressure (MAP) and/or the manifold air flow (MAF) of the air in the intake manifold based, at least in part, on at least one fuel rate signal that is related to the change in fuel rate. injecting a fueling profile into the internal combustion engine using the one or more fuel injectors ; and providing one or more signals that are related to the fueling profile; wherein the method is further characterized by the step of: adjusting the manifold air pressure (MAP) and/or the manifold air flow (MAF) of the air in the intake manifold based, at least in part, on at least one fuel rate signal that is related to the change in fuel rate.
A marker delivery device comprising: (a) a handle assembly having a proximal push rod positioned within the handle assembly, wherein the proximal push rod is adapted to translate inside the handle assembly; and (b) a delivery catheter having an aperture and adapted to be inserted into a biopsy site, the delivery catheter containing a marker, the delivery catheter having a distal push rod positioned within the delivery catheter and configured to engage the proximal push rod , the distal push rod adapted to deploy the marker from the delivery catheter into the biopsy site through the aperture with the translation of the proximal push rod ; and (c) a connection interface ; characterised in that the connection interface is configured to removably attach the handle assembly with the delivery catheter and the proximal push rod with the distal push rod , wherein the connection interface includes a delivery catheter lock and a handle assembly lock , wherein the delivery catheter lock and the handle assembly lock are configured to interlock to each other, and wherein the aperture is a lateral aperture. (a) a handle assembly having a proximal push rod positioned within the handle assembly, wherein the proximal push rod is adapted to translate inside the handle assembly; and (b) a delivery catheter having an aperture and adapted to be inserted into a biopsy site, the delivery catheter containing a marker, the delivery catheter having a distal push rod positioned within the delivery catheter and configured to engage the proximal push rod , the distal push rod adapted to deploy the marker from the delivery catheter into the biopsy site through the aperture with the translation of the proximal push rod ; and (c) a connection interface ;
A solid colorant comprising a. 30-97 wt% of a pigment; b. less than 5 wt% of a solvent; c. 3-40 wt% surfactants; wherein the pigments are chosen from the oxides/hydroxides pigments, mixed metal oxides pigments, carbon black pigments, monoazos, naphtol AS, benzimidazolone, isoindolin(one)e and polycyclic pigments, wherein the surfactants are selected from the group of nonionic and/or anionic water-soluble surface active additives or nonionic surfactants based on polyethers, and wherein the ratio S/A of the [Standard dev of the particle size distribution/average particle size] of the solid colorant is <25%, preferably <22% and more preferably <20%, wherein wt% is relative to the total weight of the solid colorant and wherein the particle size distribution is determined with light scattering with fully automated image analysis according to ISO 13322-1 Static image analysis First edition 2004-12-01 by the use of the OCCHIO ZEPHYR ESR analyzer. a. 30-97 wt% of a pigment; b. less than 5 wt% of a solvent; c. 3-40 wt% surfactants;
A method for modeling a digital design of a denture for a patient (1764;2464), said denture comprising a gingival part (2366;2466) and a teeth part comprising a set of denture teeth (1330;1930;2430), where the method comprises: - obtaining a digital 3D representation of the patient's gum (925,928;1925,1928;2028); - obtaining a digital 3D representation of a lower wax rim (927;1527;1927) and/or obtaining a digital 3D representation of an upper wax rim (924;1524;1924); - obtaining virtual teeth models (930;1430;1930;2430) corresponding to the denture teeth; - virtually arranging the teeth models (930;1430;1930;2430) relative to the 3D representation of the patient's gum (1925; 1928) and the digital 3D representation of the lower wax rim and/or the digital 3D representation of the upper wax rim; and - generating a virtual outer gingival surface (2166; 2666) of the gingival part of the denture, the virtual outer gingival surface being shaped according to the shape of the root end of the teeth by adding one or more virtual root protrusions or virtual cervical protrusions (1345; 2345) at the corresponding sections. - obtaining a digital 3D representation of the patient's gum (925,928;1925,1928;2028); - obtaining a digital 3D representation of a lower wax rim (927;1527;1927) and/or obtaining a digital 3D representation of an upper wax rim (924;1524;1924); - obtaining virtual teeth models (930;1430;1930;2430) corresponding to the denture teeth; - virtually arranging the teeth models (930;1430;1930;2430) relative to the 3D representation of the patient's gum (1925; 1928) and the digital 3D representation of the lower wax rim and/or the digital 3D representation of the upper wax rim; and - generating a virtual outer gingival surface (2166; 2666) of the gingival part of the denture, the virtual outer gingival surface being shaped according to the shape of the root end of the teeth by adding one or more virtual root protrusions or virtual cervical protrusions (1345; 2345) at the corresponding sections.
A modular deck system comprising: a base ; a plurality of vertical posts coupled to the base; a plurality of engagement members , wherein at least one engagement member is coupled to at least four vertical posts of the plurality of vertical posts; and at least one modular deck comprising: a plurality of receiving structures coupled to each corner of the at least one modular deck, the receiving structures configured to releasably mate with the engagement members on the at least four vertical posts, wherein each engagement member comprises: a hanging member ; a face plate ; and a receiving cup comprising: an angled receiving surface ; and a central receiving hole in a bottom of the angled receiving surface, wherein the central receiving hole is configured to receive a portion of the receiving structure. a base ; a plurality of vertical posts coupled to the base; a plurality of engagement members , wherein at least one engagement member is coupled to at least four vertical posts of the plurality of vertical posts; and at least one modular deck comprising: a plurality of receiving structures coupled to each corner of the at least one modular deck, the receiving structures configured to releasably mate with the engagement members on the at least four vertical posts, wherein each engagement member comprises: a hanging member ; a face plate ; and a receiving cup comprising: an angled receiving surface ; and a central receiving hole in a bottom of the angled receiving surface, wherein the central receiving hole is configured to receive a portion of the receiving structure. a hanging member ; a face plate ; and a receiving cup comprising: an angled receiving surface ; and a central receiving hole in a bottom of the angled receiving surface, wherein the central receiving hole is configured to receive a portion of the receiving structure. an angled receiving surface ; and a central receiving hole in a bottom of the angled receiving surface, wherein the central receiving hole is configured to receive a portion of the receiving structure.
A method for a centralized unit, CU, of a wireless communication network, wherein the CU is associated with each of one or more remote units, RU, of the wireless communication network via a respective communication interface, characterized by : the CU being adapted to operate in one of a plurality of modes including at least a normal operation mode and a power saving operation mode, wherein the normal operation mode defines a plurality of functions to be performed by the CU, and the method comprising, when the CU is in the normal operation mode : determining that a traffic load associated with the one or more RU fulfills a power saving operation criterion; configuring , via the respective communication interface, each of the RU for autonomous operation, whereby each of the RU is configured to execute at least one of the plurality of functions; and transferring from the normal operation mode to the power saving operation mode . the CU being adapted to operate in one of a plurality of modes including at least a normal operation mode and a power saving operation mode, wherein the normal operation mode defines a plurality of functions to be performed by the CU, and the method comprising, when the CU is in the normal operation mode : determining that a traffic load associated with the one or more RU fulfills a power saving operation criterion; configuring , via the respective communication interface, each of the RU for autonomous operation, whereby each of the RU is configured to execute at least one of the plurality of functions; and transferring from the normal operation mode to the power saving operation mode . determining that a traffic load associated with the one or more RU fulfills a power saving operation criterion; configuring , via the respective communication interface, each of the RU for autonomous operation, whereby each of the RU is configured to execute at least one of the plurality of functions; and transferring from the normal operation mode to the power saving operation mode .
A method of wireless communication at a receiving device, comprising: receiving, from a transmitting device, at least a portion of a message for a service group, wherein the message comprises a device-to-device, D2D, message ; measuring a signal strength for the received message ; determining whether the receiving device is within a range of the transmitting device based on the measured signal strength for the received message ; and determining to send HARQ feedback to the transmitting device when the receiving device is within the range of the transmitting device . receiving, from a transmitting device, at least a portion of a message for a service group, wherein the message comprises a device-to-device, D2D, message ; measuring a signal strength for the received message ; determining whether the receiving device is within a range of the transmitting device based on the measured signal strength for the received message ; and determining to send HARQ feedback to the transmitting device when the receiving device is within the range of the transmitting device .
Device for controlling fluid media in the form of a 3/2-way valve with three connections , comprising a molded part made from an elastomeric material, two line sections which connect the three connections to one another, between which two flow paths extend, and a control unit comprising an electromagnetic actuator that is coupled to two blocking elements , wherein the two blocking elements are arranged to be displaced by the actuator between a blocking position and a release position, wherein the actuator is coupled to the two blocking elements to selectively block or enable a respective flow path (46; 48) of the two flow paths , wherein a coupling mechanism is provided, which is arranged to be driven by the actuator , wherein the coupling mechanism mechanically couples the first blocking element and the second blocking element to each other, wherein the first blocking element is in the blocking position when the second blocking element is in the release position, and wherein the first blocking element is in the release position when the second blocking element is in the blocking position, characterized in that the first blocking element in the blocking position deforms a first line section to block the first flow path , in that the second blocking element in the blocking position deforms a second line section , in order to block the second flow path , in that the two line sections are formed in the molded part , in that the molded part has three connections between which the two flow paths extend, in that the molded part is arranged as an exchangeable insert on which grommets are integrally formed, which are adjacent to the connections , and which ensure the alignment of the molded part on the device, and in that the first blocking element and the second blocking element are coupled to each other in such a way that the first blocking element and the second blocking element simultaneously block the flow paths assigned thereto, at least in an intermediate position between the blocking position of the first blocking element and the blocking position of the second blocking element .
A method of operating a service robot of a ring spinning machine, • wherein the service robot is displaceable along a row of spinning units (A) of a spinning machine, each spinning unit (A) comprising a spindle , wherein the service robot can be stopped at a specific spinning unit (A) in order to perform a service operation at the spinning unit (A); wherein it comprises the following steps: • displacing the service robot initially along the row of spinning units (A) in order to detect a reference position; and • during the displacement of the service robot detecting by means of an eddy current sensor (A1) at least one reference element (H) located between both ends of the row of spinning units (A), wherein the at least one detected reference element (H) indicates a respective reference position; and • using the at least one reference position during the operation of the service robot to position the service robot before a specific spinning unit (A) of the row of the spinning units (A) in case of need of a service operation at the particular spinning unit (A), and wherein • the at least one reference element (H) is by its outer geometrical configuration identical or close to the outer geometrical configuration of a detected part of the spinning spindles . • wherein the service robot is displaceable along a row of spinning units (A) of a spinning machine, each spinning unit (A) comprising a spindle , wherein the service robot can be stopped at a specific spinning unit (A) in order to perform a service operation at the spinning unit (A); • displacing the service robot initially along the row of spinning units (A) in order to detect a reference position; and • during the displacement of the service robot detecting by means of an eddy current sensor (A1) at least one reference element (H) located between both ends of the row of spinning units (A), wherein the at least one detected reference element (H) indicates a respective reference position; and • using the at least one reference position during the operation of the service robot to position the service robot before a specific spinning unit (A) of the row of the spinning units (A) in case of need of a service operation at the particular spinning unit (A), and wherein • the at least one reference element (H) is by its outer geometrical configuration identical or close to the outer geometrical configuration of a detected part of the spinning spindles .
A method for sealing at least one opening of a wellbore equipment arranged in a wellbore of a subterranean formation in order to improve the recovery of formation fluids and/or gases, said method comprising the steps of: - positioning (S2) a metal patch between said wellbore equipment and a shock wave generation device , said metal patch facing the at least one opening to be sealed; - generating (S3), in a transmitting liquid at least partially delimited by an elastic membrane , using said shock wave generation device , at least one electrical discharge propagating at least one shock wave through said membrane into said wellbore toward said metal patch in order to deform and fix the metal patch onto the wellbore equipment , sealing therefore the at least one opening . - positioning (S2) a metal patch between said wellbore equipment and a shock wave generation device , said metal patch facing the at least one opening to be sealed; - generating (S3), in a transmitting liquid at least partially delimited by an elastic membrane , using said shock wave generation device , at least one electrical discharge propagating at least one shock wave through said membrane into said wellbore toward said metal patch in order to deform and fix the metal patch onto the wellbore equipment , sealing therefore the at least one opening .
A non-oriented electrical steel sheet having a chemical composition comprising C: not more than 0.0050 mass%, Si: 1.5-5.0 mass%, Mn: 0.20-3.0 mass%, sol. Al: not more than 0.0050 mass%, P: not more than 0.2 mass%, S: not more than 0.0050 mass%, N: not more than 0.0040 mass%, and optionally at least one element group of the following groups A-D: Group A: Ca: 0.0005-0.0100 mass%, Group B: one or two selected from Sn: 0.01-0.1 mass% and Sb: 0.01-0.1 mass%, Group C: one or two selected from Mg: 0.001-0.05 mass% and REM: 0.001-0.05 mass%, and Group D: one or more selected from Cu: 0.01-0.5 mass%, Ni: 0.01-0.5 mass% and Cr: 0.01-0.5 mass%; the remainder being Fe and inevitable impurities, wherein a compositional ratio of CaO in oxide-based inclusions existing in a steel sheet defined by the following equation : CaO/ (SiO 2 + Al 2 O 3 + CaO) ..... is not less than 0.4 and optionally a compositional ratio of Al 2 O 3 defined by the following equation : Al 2 O 3 / (SiO 2 + Al 2 O 3 + CaO) ..... is not less than 0.3; wherein each of the compositional ratio of CaO and the compositional ratio of Al 2 O 3 in the oxide-based inclusions existing in the steel sheet is an average value calculated from values obtained when 200 or more oxide-based inclusions existing in a section parallel to the rolling direction, L section, of the steel sheet are observed with SEM, scanning type electron microscope, to analyze chemical compositions thereof. Group A: Ca: 0.0005-0.0100 mass%, Group B: one or two selected from Sn: 0.01-0.1 mass% and Sb: 0.01-0.1 mass%, Group C: one or two selected from Mg: 0.001-0.05 mass% and REM: 0.001-0.05 mass%, and Group D: one or more selected from Cu: 0.01-0.5 mass%, Ni: 0.01-0.5 mass% and Cr: 0.01-0.5 mass%; the remainder being Fe and inevitable impurities, wherein a compositional ratio of CaO in oxide-based inclusions existing in a steel sheet defined by the following equation : CaO/ (SiO 2 + Al 2 O 3 + CaO) ..... is not less than 0.4 and optionally a compositional ratio of Al 2 O 3 defined by the following equation : Al 2 O 3 / (SiO 2 + Al 2 O 3 + CaO) ..... is not less than 0.3; wherein each of the compositional ratio of CaO and the compositional ratio of Al 2 O 3 in the oxide-based inclusions existing in the steel sheet is an average value calculated from values obtained when 200 or more oxide-based inclusions existing in a section parallel to the rolling direction, L section, of the steel sheet are observed with SEM, scanning type electron microscope, to analyze chemical compositions thereof.
A dip formable composition comprising a styrenic block copolymer disposed in a cyclic terpene, wherein the dip formable composition further comprises a polyolefin and an oil, wherein the dip formable composition comprises the styrenic block copolymer in an amount of from 5% to 75% by weight, the polyolefin in an amount of from 0.1% to 25% by weight, and the oil in an amount of from 25% to 75% by weight, wherein the % by weight refers to the % by weight of a dry film formed from the dip formable composition.
A user equipment comprising: at least one processor ; and at least one memory including computer program code, the at least one memory and computer program code configured to, with the at least one processor , cause the user equipment to perform: determining at least one condition, wherein the at least one condition is a data packet size threshold; and based on the at least one condition, transmitting a data packet to a first access node (eNB, gNB) using one of a first early data transmission type in a first mode of operation of the user equipment and a second early data transmission type in a second mode of operation of the user equipment , characterized in that the first mode of operation comprises one of a long term evolution mode and a new radio mode, and the second mode of operation comprises the other of the long term evolution mode and the new radio mode, wherein the at least one memory includes computer program code, the at least one memory and computer program code configured to, with the at least one processor , cause the user equipment to perform: receiving from a network element (eNB, gNB) information indicating a first PRACH resource set to be used for the long term evolution mode and information indicating a second PRACH resource set to be used in the new radio mode. determining at least one condition, wherein the at least one condition is a data packet size threshold; and based on the at least one condition, transmitting a data packet to a first access node (eNB, gNB) using one of a first early data transmission type in a first mode of operation of the user equipment and a second early data transmission type in a second mode of operation of the user equipment , characterized in that the first mode of operation comprises one of a long term evolution mode and a new radio mode, and the second mode of operation comprises the other of the long term evolution mode and the new radio mode, wherein the at least one memory includes computer program code, the at least one memory and computer program code configured to, with the at least one processor , cause the user equipment to perform: receiving from a network element (eNB, gNB) information indicating a first PRACH resource set to be used for the long term evolution mode and information indicating a second PRACH resource set to be used in the new radio mode.