mhurhangee/patent-ind-claim-en huggingface dataset:
Pressure driven method of delivering a first liquid at a determined flow rate, the method comprising the steps, to be performed in sequential order, of: a) at least partly filling a container with an amount of the first liquid ; b) causing a second liquid to flow into the container via a first passage , thereby forcing at least some of the first liquid out of the container , in order to discharge said at least some of the first liquid through a second passage ; wherein the first passage has a first resistance to the flow of the first liquid , and the second passage has a second resistance to flow of the second liquid , wherein the first resistance is higher than the second resistance. a) at least partly filling a container with an amount of the first liquid ; b) causing a second liquid to flow into the container via a first passage , thereby forcing at least some of the first liquid out of the container , in order to discharge said at least some of the first liquid through a second passage ;
A rotary table configured to receive surface mount technology, SMT, components onto a circuit board associated therewith, comprising: a frame configured to be inserted into a pick and place machine ; wherein the frame comprises a receiving inset therein; a fixture configured to be removably inserted to the receiving inset ; a plurality of roller bearings interactively associated with the fixture , and which are configured to impart a low friction roll to at least a perimeter portion of the fixture ; and at least one guide on the frame configured to at least partially positional maintain the circuit board associated with the fixture ; wherein the fixture is configured to rotate across the plurality of roller bearings to thereby rotate the circuit board about the receiving inset , such that the rotation of the circuit board variably associates radial aspects of the circuit board to an operation range of at least one pick and place robot; characterized in that , the rotary table further comprises an upper bearing provided at either side of a circuit board guide and a lower bearing configured to support the fixture just inside an outer edge of the circuit board . a frame configured to be inserted into a pick and place machine ; wherein the frame comprises a receiving inset therein; a fixture configured to be removably inserted to the receiving inset ; a plurality of roller bearings interactively associated with the fixture , and which are configured to impart a low friction roll to at least a perimeter portion of the fixture ; and at least one guide on the frame configured to at least partially positional maintain the circuit board associated with the fixture ; wherein the fixture is configured to rotate across the plurality of roller bearings to thereby rotate the circuit board about the receiving inset , such that the rotation of the circuit board variably associates radial aspects of the circuit board to an operation range of at least one pick and place robot; characterized in that , the rotary table further comprises an upper bearing provided at either side of a circuit board guide and a lower bearing configured to support the fixture just inside an outer edge of the circuit board .
A method for producing and inspecting a package , in particular a heat-sealed plastic package, comprising at least one product cavity in a formed part sealed by a lidding film , wherein the method comprises the steps of: (a) sealing the lidding film to the formed part along a seam , which surrounds the at least one product cavity , by means of a sealing device comprising a sealing contour , which is divided into a plurality of segments ; and (b) detecting, by means of the sealing device , a parameter (P) characteristic of a sealing quality of the seam in each segment (28a-h) of the plurality of segments along the seam ; characterized in that the method further comprises the step of: (c) detecting a problem with the sealing, in particular with the seam or the sealing device , according to step (a) based on the parameter (P) detected according to step (b) in each segment (28a-h) of the plurality of segments . (a) sealing the lidding film to the formed part along a seam , which surrounds the at least one product cavity , by means of a sealing device comprising a sealing contour , which is divided into a plurality of segments ; and (b) detecting, by means of the sealing device , a parameter (P) characteristic of a sealing quality of the seam in each segment (28a-h) of the plurality of segments along the seam ;
A thrombolytic agent for use in the treatment of thromboembolism, wherein the treatment comprises administering the thrombolytic agent directly to the thromboembolism in the presence of ultrasound, wherein the total dose of thrombolytic agent administered is between 1 and 12 mg and the time over which the total dose is delivered is between 1 and 6 hours.
A double-row self-aligning roller bearing comprising: an inner ring ; an outer ring having a spherical raceway surface ; rollers in two rows arranged in a bearing width direction, the rollers being interposed between the inner ring and the outer ring , the rollers in the two rows each having an outer peripheral surface whose cross-sectional shape corresponds to the raceway surface of the outer ring , and an intermediate flange provided between the two rows of the rollers on an outer peripheral surface of the inner ring and configured to guide the rollers in two rows, wherein each of the rollers in two rows is an asymmetrical roller having a maximum diameter (D1 max , D2 max ) at a position displaced from a center (A1, A2) of a roller length (L1, L2) thereof to a center side relative to a bearing axial direction, each roller in one row of the two rows has a length (L1, L2) different from that of each roller in the other row of the two rows, the length of the longer rollers is equal to or greater than 36% of a bearing width (B), a ratio of a contact angle (θ1) of the shorter rollers relative to a contact angle (θ2)of the longer rollers is within a range of 1:4 to 1:2, and the contact angle (θ1) of the shorter rollers has a range of 3° to 5°, and the contact angle (θ2) of the longer rollers has a range of 11° to 14°. an inner ring ; an outer ring having a spherical raceway surface ; rollers in two rows arranged in a bearing width direction, the rollers being interposed between the inner ring and the outer ring , the rollers in the two rows each having an outer peripheral surface whose cross-sectional shape corresponds to the raceway surface of the outer ring , and an intermediate flange provided between the two rows of the rollers on an outer peripheral surface of the inner ring and configured to guide the rollers in two rows, wherein each of the rollers in two rows is an asymmetrical roller having a maximum diameter (D1 max , D2 max ) at a position displaced from a center (A1, A2) of a roller length (L1, L2) thereof to a center side relative to a bearing axial direction, each roller in one row of the two rows has a length (L1, L2) different from that of each roller in the other row of the two rows, the length of the longer rollers is equal to or greater than 36% of a bearing width (B), a ratio of a contact angle (θ1) of the shorter rollers relative to a contact angle (θ2)of the longer rollers is within a range of 1:4 to 1:2, and the contact angle (θ1) of the shorter rollers has a range of 3° to 5°, and the contact angle (θ2) of the longer rollers has a range of 11° to 14°.
An optical wavelength conversion member comprising a polycrystalline ceramic sintered body containing, as main components, Al 2 O 3 crystal grains and crystal grains of a component represented by formula A 3 B 5 O 12 :Ce, wherein: each of A and B of the A 3 B 5 O 12 is at least one element selected from the following element groups: A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and characterized in that the following relations are satisfied: 0 % ≤ X ≤ 25 % , 9 % ≤ Y ≤ 45 % , and 48 % ≤ Z ≤ 90 % , wherein X represents a proportion corresponding to the ratio a/N, Y represents a proportion corresponding to the ratio b/N, and Z represents a proportion corresponding to the ratio c/N, wherein N represents the total number of A 3 B 5 O 12 :Ce crystal grains present in a 20 μm square region of a cross section of the ceramic sintered body; a represents the number of A 3 B 5 O 12 :Ce crystal grains present in Al 2 O 3 crystal grains; b represents the number of A 3 B 5 O 12 :Ce crystal grains each being present at an Al 2 O 3 crystal grain boundary and not in contact with another A 3 B 5 O 12 :Ce crystal grain; and c represents the number of A 3 B 5 O 12 :Ce crystal grains each being present at an Al 2 O 3 crystal grain boundary and in contact with one or more other A 3 B 5 O 12 :Ce crystal grains, wherein the ceramic sintered body contains A 3 B 5 O 12 :Ce crystal grains in an amount of up to 30 vol.%. A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and
A mill liner bolt for use within a mill liner defining a mill liner bore, the mill liner bolt comprising: a mill liner bolt shank ; an oblong mill liner bolt head extending from the mill liner bolt shank , the mill liner bolt head defining opposed lateral sides and tapered surfaces extending towards the mill liner bolt shank at opposite ends of the oblong mill liner bolt head , the tapered surfaces configured to be load-bearing during loading of the mill liner bolt and further defining respective undercut surfaces extending between the tapered surfaces and the mill liner bolt shank ; and a compressible sealing member abutting the undercut surface and extending along the opposed lateral sides of the mill liner bolt head such that compression causes the compressible sealing member to fill a clearance gap defined between the oblong mill liner bolt head and the mill liner bore. a mill liner bolt shank ; an oblong mill liner bolt head extending from the mill liner bolt shank , the mill liner bolt head defining opposed lateral sides and tapered surfaces extending towards the mill liner bolt shank at opposite ends of the oblong mill liner bolt head , the tapered surfaces configured to be load-bearing during loading of the mill liner bolt and further defining respective undercut surfaces extending between the tapered surfaces and the mill liner bolt shank ; and a compressible sealing member abutting the undercut surface and extending along the opposed lateral sides of the mill liner bolt head such that compression causes the compressible sealing member to fill a clearance gap defined between the oblong mill liner bolt head and the mill liner bore.
Actuating unit for a movable part of the vehicle, in particular for a tailgate , with an actuating part attached to a housing part , at least two conductor elements which are arranged on the housing part , an elastically deformable contact element which cooperates with the conductor elements , a plunger arranged on the actuating part for deforming the contact element , characterized in that the actuating part and the housing part define an interior space which is completely isolated from the environment , wherein the actuating part is mounted pivotably about an axis which extends axially symmetrically with respect to the interior space , wherein a holding element is fastened to the housing part in such a way that the contact element is reliably held in its position, and wherein the housing part comprises a contour body to which the holding element is fastened, wherein the holding element has an aperture so that contacting of the contact element can be achieved by the plunger .
A metal-organic framework (MOF) body, wherein the MOF body is a monolith, and wherein the body: (i) comprises MOF crystallites adhered to each other via a MOF binder; or (ii) consists of: MOF crystallites, a MOF binder which binds the crystallites together in the body, optionally, residual solvent, and optionally, one or more additives, wherein the additives are present at a level of not more than 10% by mass; and wherein: the MOF binder has substantially the same composition as the MOF crystallites and has a lower degree of crystallization than the MOF crystallites or is substantially amorphous; or the MOF binder is a MOF material having a different composition to the MOF crystallites; and characterised in that the MOF body is produced by a process including steps of: allowing the reaction of MOF precursors in a solvent to form a MOF composition; concentrating particles of the MOF composition into a concentrate of the particles and solvent; and forming a body of the MOF composition including a drying stage to remove at least some of the solvent with a maximum temperature during the drying stage of not more than 50°C; wherein the material of the MOF body has an in-line transmission of light at 645 nm through a material thickness of 0.8 mm of at least 10%, and wherein the body has a volume of at least 10 mm 3 . (i) comprises MOF crystallites adhered to each other via a MOF binder; or (ii) consists of: MOF crystallites, a MOF binder which binds the crystallites together in the body, optionally, residual solvent, and optionally, one or more additives, wherein the additives are present at a level of not more than 10% by mass; the MOF binder has substantially the same composition as the MOF crystallites and has a lower degree of crystallization than the MOF crystallites or is substantially amorphous; or the MOF binder is a MOF material having a different composition to the MOF crystallites; and characterised in that the MOF body is produced by a process including steps of: allowing the reaction of MOF precursors in a solvent to form a MOF composition; concentrating particles of the MOF composition into a concentrate of the particles and solvent; and allowing the reaction of MOF precursors in a solvent to form a MOF composition; concentrating particles of the MOF composition into a concentrate of the particles and solvent; and forming a body of the MOF composition including a drying stage to remove at least some of the solvent with a maximum temperature during the drying stage of not more than 50°C; wherein the material of the MOF body has an in-line transmission of light at 645 nm through a material thickness of 0.8 mm of at least 10%, and wherein the body has a volume of at least 10 mm 3 .
A method , in a network node for dynamic resource allocation for control channels, comprising: - monitoring (S310) a control channel load on the network node; - adjusting (S320) resource allocation for control channels based on the control channel load; and - assigning at least one of the control channels to a user device, wherein said adjusting (S320) comprises: - determining a current load status of the network node based on the control channel load; - increasing a number of control channels on the network node if the current load status is determined to be overloaded with respect to the control channel load; and - decreasing a number of control channels on the network node if the current load status is determined to be underloaded with respect to the control channel load, and wherein said assigning is based on one of: - one or more bands supported by the user device, or - a traffic requirement of the user device, wherein the traffic requirement comprises at least one of: a delay requirement, a throughput requirement and a quality of service requirement. - monitoring (S310) a control channel load on the network node; - adjusting (S320) resource allocation for control channels based on the control channel load; and - assigning at least one of the control channels to a user device, - determining a current load status of the network node based on the control channel load; - increasing a number of control channels on the network node if the current load status is determined to be overloaded with respect to the control channel load; and - decreasing a number of control channels on the network node if the current load status is determined to be underloaded with respect to the control channel load, and - one or more bands supported by the user device, or - a traffic requirement of the user device, wherein the traffic requirement comprises at least one of: a delay requirement, a throughput requirement and a quality of service requirement.
An uplink power control method, comprising: acquiring (S102), by a User Equipment, UE side, a power control parameter, when an uplink channel is transmitted with one of multiple Transmission Time Interval, TTI lengths; and determining (S104) a transmission power of the uplink channel according to the power control parameter, wherein the uplink channel is a Physical Uplink Shared Channel, PUSCH or a Physical Uplink Control Channel, PUCCH, characterized in that , when only a Demodulation Reference Signal, DMRS corresponding to the uplink channel is transmitted on a TTI, and the data corresponding to the uplink channel is transmitted on another TTI, at least one of the following establishes: a power accumulation amount on the another TTI is equal to a power accumulation amount on the TTI only transmitting the DMRS corresponding to the uplink channel; the power accumulation amount on the another TTI is equal to a power accumulation amount corresponding to the DMRS; and the transmission power of the data is equal to the transmission power of the DMRS. acquiring (S102), by a User Equipment, UE side, a power control parameter, when an uplink channel is transmitted with one of multiple Transmission Time Interval, TTI lengths; and determining (S104) a transmission power of the uplink channel according to the power control parameter, wherein the uplink channel is a Physical Uplink Shared Channel, PUSCH or a Physical Uplink Control Channel, PUCCH, characterized in that , when only a Demodulation Reference Signal, DMRS corresponding to the uplink channel is transmitted on a TTI, and the data corresponding to the uplink channel is transmitted on another TTI, at least one of the following establishes: a power accumulation amount on the another TTI is equal to a power accumulation amount on the TTI only transmitting the DMRS corresponding to the uplink channel; the power accumulation amount on the another TTI is equal to a power accumulation amount corresponding to the DMRS; and the transmission power of the data is equal to the transmission power of the DMRS. a power accumulation amount on the another TTI is equal to a power accumulation amount on the TTI only transmitting the DMRS corresponding to the uplink channel; the power accumulation amount on the another TTI is equal to a power accumulation amount corresponding to the DMRS; and the transmission power of the data is equal to the transmission power of the DMRS.
A power assembly for an electronic cigarette, comprising: a main body , a waterproof and breathable membrane , and a pneumatic sensor , wherein the main body is provided with an internal cavity in which the pneumatic sensor is mounted and a mounting portion in which an external load is mounted, the mounting portion is provided with an airflow passage , the internal cavity is in communication with external environment through the airflow passage , the waterproof and breathable membrane is mounted on the main body and covers the airflow passage ; when the external load is mounted on the mounting portion , the air channel inside the external load is communicated with the airflow passage , and when the pneumatic sensor senses that the airflow movement in the airflow passage reaches a preset threshold, the main body is triggered to control the external load; characterized in that the main body is provided with a mounting groove in which the waterproof and breathable membrane is mounted, and the waterproof and breathable membrane has a thickness value H greater than or equal to the depth value h of the mounting groove such that when the waterproof and breathable membrane is mounted to the mounting groove , the waterproof and breathable membrane is exposed to an external surface, which is level with the notch plane of the mounting groove or higher than the notch plane of the mounting groove . a main body , a waterproof and breathable membrane , and a pneumatic sensor , wherein the main body is provided with an internal cavity in which the pneumatic sensor is mounted and a mounting portion in which an external load is mounted, the mounting portion is provided with an airflow passage , the internal cavity is in communication with external environment through the airflow passage , the waterproof and breathable membrane is mounted on the main body and covers the airflow passage ; when the external load is mounted on the mounting portion , the air channel inside the external load is communicated with the airflow passage , and when the pneumatic sensor senses that the airflow movement in the airflow passage reaches a preset threshold, the main body is triggered to control the external load; characterized in that the main body is provided with a mounting groove in which the waterproof and breathable membrane is mounted, and the waterproof and breathable membrane has a thickness value H greater than or equal to the depth value h of the mounting groove such that when the waterproof and breathable membrane is mounted to the mounting groove , the waterproof and breathable membrane is exposed to an external surface, which is level with the notch plane of the mounting groove or higher than the notch plane of the mounting groove .
A temperature estimation method, comprising the step of measuring a content of a tetragonal-prime (T') phase included in a coating layer formed on a surface of a high temperature member by X-ray diffraction or Raman spectroscopy; and characterized in that the method further comprises the step of estimating a surface temperature of the high temperature member based on a temporal reduction of the estimated content of the tetragonal-prime (T') phase.
A method comprising: providing cellulosic biomass solids and a molecular hydrogen activating slurry catalyst in a hydrothermal digestion unit, wherein the term slurry catalyst refers to a catalyst comprising fluidly mobile catalyst particles that can be at least partially suspended in a fluid phase via gas flow, liquid flow, mechanical agitation, or any combination thereof; distributing the slurry catalyst within the cellulosic biomass solids using upwardly directed fluid flow in the hydrothermal digestion unit; heating the cellulosic biomass solids in the hydrothermal digestion unit in the presence of the slurry catalyst, a digestion solvent, and molecular hydrogen, thereby obtaining a liquor phase comprising soluble carbohydrates; and allowing a first in situ catalytic reduction reaction to take place on the soluble carbohydrates within the hydrothermal digestion unit, thereby at least partially forming a reaction product comprising a triol, a diol, a monohydric alcohol, or any combination thereof in the hydrothermal digestion unit. providing cellulosic biomass solids and a molecular hydrogen activating slurry catalyst in a hydrothermal digestion unit, wherein the term slurry catalyst refers to a catalyst comprising fluidly mobile catalyst particles that can be at least partially suspended in a fluid phase via gas flow, liquid flow, mechanical agitation, or any combination thereof; distributing the slurry catalyst within the cellulosic biomass solids using upwardly directed fluid flow in the hydrothermal digestion unit; heating the cellulosic biomass solids in the hydrothermal digestion unit in the presence of the slurry catalyst, a digestion solvent, and molecular hydrogen, thereby obtaining a liquor phase comprising soluble carbohydrates; and allowing a first in situ catalytic reduction reaction to take place on the soluble carbohydrates within the hydrothermal digestion unit, thereby at least partially forming a reaction product comprising a triol, a diol, a monohydric alcohol, or any combination thereof in the hydrothermal digestion unit.