mhurhangee/patent-ind-claim-en huggingface dataset:
Elevator rescue system for moving an elevator car to a disembarkation position in a rescue operation, the elevator rescue system comprising: a rescue device coupled to a brake system of an elevator, the rescue device comprising a rescue power source , wherein the rescue device is disposed near the brake system of the elevator; an operation panel comprising a manual rescue operation switch , the operation panel being disposed remotely from the rescue device ; and a rescue operation signal transmission path between the rescue device and the operation panel , characterized in that the rescue operation signal transmission path is part of an elevator control communication network , which comprises a plurality of nodes, and the elevator rescue system is configured to supply power for low power applications via the elevator control communication network . a rescue device coupled to a brake system of an elevator, the rescue device comprising a rescue power source , wherein the rescue device is disposed near the brake system of the elevator; an operation panel comprising a manual rescue operation switch , the operation panel being disposed remotely from the rescue device ; and a rescue operation signal transmission path between the rescue device and the operation panel , characterized in that the rescue operation signal transmission path is part of an elevator control communication network , which comprises a plurality of nodes, and the elevator rescue system is configured to supply power for low power applications via the elevator control communication network .
A blade profile tube pre-swirl nozzle (101; 201; 301) for a gas turbine comprising: - an inlet section which is an annular passage; - a tapered section which comprises a plurality of airflow circulation passages separated by a plurality of blades (105; 205; 305); and - an outlet section , comprising circular tubes (104; 204; 304) respectively connected to the outlets of the airflow circulation passages correspondingly and with the diameter not changing along the axis; wherein the inlet section , the tapered section and the outlet section are sequentially connected in a flow direction of the airflow, and each of the airflow circulation passages is enclosed by an outer circumferential wall face, an inner circumferential wall face, a suction face of one of two adjacent blades (105; 205; 305) and a pressure face of the other one of the two adjacent blades (105; 205; 305), and the cross-section of an inlet (102; 202; 302) of the airflow circulation passage is fan-shaped, and from the flow direction of the airflow, with regard to each of the airflow circulation passages, the fan-shaped cross-section gradually and smoothly transitions to a circular cross-section (103; 203; 303) from the inlet to an outlet of the airflow circulation passage, wherein the two adjacent blades (105; 205; 305) are provided as a turning point of a dominant airflow in a circumferential direction of the nozzle, and the outer circumferential wall face and the inner circumferential wall face are provided as a turning point of the dominant airflow in a radial direction of the nozzle; characterized in that , each tube (104; 204; 304) is a spiral tube with a spiral line as an axis, the spiral line penetrates through the center of the circular cross-section , and a tangent line of the spiral line at the center of the circular cross-section is parallel to a normal vector of the circular cross-section . - an inlet section which is an annular passage; - a tapered section which comprises a plurality of airflow circulation passages separated by a plurality of blades (105; 205; 305); and - an outlet section , comprising circular tubes (104; 204; 304) respectively connected to the outlets of the airflow circulation passages correspondingly and with the diameter not changing along the axis;
Method for producing a plastic film from a total quantity of raw materials with a film extrusion machine, comprising the following steps: - detecting film parameters relating to desired properties of the plastic film - detecting raw material parameters relating to properties of the raw materials - grouping the raw material parameters into at least two raw material parameter groups - forming correlations between raw material parameter groups - forming correlations between the film parameters and the raw material parameter groups based on a film production model - detecting a selection of at least one raw material from at least one raw material parameter group - calculating at least one production parameter of the film extrusion machine based on the film production model - outputting the production parameter of the film extrusion machine. - detecting film parameters relating to desired properties of the plastic film - detecting raw material parameters relating to properties of the raw materials - grouping the raw material parameters into at least two raw material parameter groups - forming correlations between raw material parameter groups - forming correlations between the film parameters and the raw material parameter groups based on a film production model - detecting a selection of at least one raw material from at least one raw material parameter group - calculating at least one production parameter of the film extrusion machine based on the film production model - outputting the production parameter of the film extrusion machine.
A process for the preparation of hyaluronic acid or a salt thereof, of pharmaceutical, injectable or ophthalmic grade, comprising the following steps: a) dissolving hyaluronic acid or a salt thereof at a temperature ranging between 50°C and 100°C in a solvent selected from dimethylformamide, dimethylacetamide, N-methylpyrrolidone and formamide, and keeping the solution under stirring at said temperature for a period of 1 hour to 48 hours; b) decreasing the temperature to room temperature and keeping the solution under stirring for 1 hour to 48 hours; c) precipitating hyaluronic acid or a salt thereof by adding a solvent selected from a (C1-C4) alkyl alcohol, such as methanol or isopropanol, or acetone; d) removing impurities and any by-products by a series of washes in a mixture of water and a solvent selected from a (C1-C4) alkyl alcohol, such as methanol or isopropanol, or acetone. a) dissolving hyaluronic acid or a salt thereof at a temperature ranging between 50°C and 100°C in a solvent selected from dimethylformamide, dimethylacetamide, N-methylpyrrolidone and formamide, and keeping the solution under stirring at said temperature for a period of 1 hour to 48 hours; b) decreasing the temperature to room temperature and keeping the solution under stirring for 1 hour to 48 hours; c) precipitating hyaluronic acid or a salt thereof by adding a solvent selected from a (C1-C4) alkyl alcohol, such as methanol or isopropanol, or acetone; d) removing impurities and any by-products by a series of washes in a mixture of water and a solvent selected from a (C1-C4) alkyl alcohol, such as methanol or isopropanol, or acetone.
A method for transmission by a time division duplexing (TDD) device, comprising: receiving a communication on a frequency at a first antenna having a first receive condition and a second antenna having a second receive condition; determining a first transmit condition for the first antenna based on the first receive condition and a second transmit condition for the second antenna based on the second receive condition; comparing the first transmit condition and the second transmit condition; selecting one of the first antenna and the second antenna based on the comparing; the method being characterized by further comprising calculating a difference between a first antenna receive power and a second antenna receive power; adjusting a transmission power of the selected one of the first antenna and the second antenna based on the calculated difference, and sending a transmission on the frequency from the selected one of the first antenna and the second antenna, wherein the sending comprises sending the transmission using the adjusted transmission power, wherein the sending comprises sending the transmission using the adjusted transmission power if the selected one of the first antenna and the second antenna is different than the selected antenna for a previous transmission. receiving a communication on a frequency at a first antenna having a first receive condition and a second antenna having a second receive condition; determining a first transmit condition for the first antenna based on the first receive condition and a second transmit condition for the second antenna based on the second receive condition; comparing the first transmit condition and the second transmit condition; selecting one of the first antenna and the second antenna based on the comparing; the method being characterized by further comprising calculating a difference between a first antenna receive power and a second antenna receive power; adjusting a transmission power of the selected one of the first antenna and the second antenna based on the calculated difference, and sending a transmission on the frequency from the selected one of the first antenna and the second antenna, wherein the sending comprises sending the transmission using the adjusted transmission power, wherein the sending comprises sending the transmission using the adjusted transmission power if the selected one of the first antenna and the second antenna is different than the selected antenna for a previous transmission.
An electronic device comprising: a printed circuit board having wire securing slots along an edge of the printed circuit board and electrical connectors on a first side of the printed circuit board adjacent to the edge; and electronic components having wires extending therefrom, the wires each passing through and being secured in a respective one of the wire securing slots cutout in a plane of the printed circuit board and connected to one of the electrical connectors, the wire securing slots being single hook or double hook cutouts that curve from the edge of the printed circuit board, wherein the wires are routed into the wire securing slots such that the wires enter through a second side of the printed circuit board, exit the first side and directly extend on said first side from the wire securing slots to the electrical connectors. a printed circuit board having wire securing slots along an edge of the printed circuit board and electrical connectors on a first side of the printed circuit board adjacent to the edge; and electronic components having wires extending therefrom, the wires each passing through and being secured in a respective one of the wire securing slots cutout in a plane of the printed circuit board and connected to one of the electrical connectors, the wire securing slots being single hook or double hook cutouts that curve from the edge of the printed circuit board, wherein the wires are routed into the wire securing slots such that the wires enter through a second side of the printed circuit board, exit the first side and directly extend on said first side from the wire securing slots to the electrical connectors.
Apparatus for assistance in the implantation of a corneal prosthesis in a human eye, comprising a laser device for providing focussed, pulsed laser radiation, and a control program for the laser device, the control program being designed, when executed, to cause an incision figure to be produced in the tissue of the eye by means of the laser radiation, the incision figure allowing the corneal prosthesis to be inserted, the control program being designed such that the incision figure produced by execution of the control program comprises: a bed incision located entirely in the depth of the corneal material, and an annular incision , which extends from the bed incision at a location within the circumferential line of the latter, along its entire annular circumference, as far as the corneal anterior surface , wherein the bed incision and the annular incision define a corneal tissue region which is separated on all sides from surrounding corneal tissue, and wherein the control program is designed such that the annular incision is produced by the laser device proceeding, from the bed incision to the corneal anterior surface , with a plurality of superimposed laser radiation ring scans or a laser radiation spiral scan. a bed incision located entirely in the depth of the corneal material, and an annular incision , which extends from the bed incision at a location within the circumferential line of the latter, along its entire annular circumference, as far as the corneal anterior surface , wherein the bed incision and the annular incision define a corneal tissue region which is separated on all sides from surrounding corneal tissue, and wherein the control program is designed such that the annular incision is produced by the laser device proceeding, from the bed incision to the corneal anterior surface , with a plurality of superimposed laser radiation ring scans or a laser radiation spiral scan.
A method of predicting, for a subject, a cell count of at least one white blood cell component within a chemotherapy treatment cycle, the method comprising: taking, within said cycle, at least one measurement of a cell count of said white blood cell component of the subject; identifying at least one modeled trajectory of white blood cell count that matches said at least one measurement for said subject; and based on said at least one modeled trajectory identifying a likely cell count at a later date in the cycle and/or start of the next cycle, wherein the step of identifying at least one modeled trajectory comprises taking a reference set of trajectories suitable for the subject and identifying, from said reference set, a selection set of trajectories that matches said at least one measurement for said subject, wherein said reference set of trajectories are modeled for the subject by identifying a set of model parameters and parameter variances that correspond to the subject and modeling a trajectory for each instance of identified parameter values. taking, within said cycle, at least one measurement of a cell count of said white blood cell component of the subject; identifying at least one modeled trajectory of white blood cell count that matches said at least one measurement for said subject; and based on said at least one modeled trajectory identifying a likely cell count at a later date in the cycle and/or start of the next cycle, wherein the step of identifying at least one modeled trajectory comprises taking a reference set of trajectories suitable for the subject and identifying, from said reference set, a selection set of trajectories that matches said at least one measurement for said subject, wherein said reference set of trajectories are modeled for the subject by identifying a set of model parameters and parameter variances that correspond to the subject and modeling a trajectory for each instance of identified parameter values.
A service processing method, performed by a content delivery network node and comprising: receiving (S101, S201, S301) a customized service logic issued by a content delivery network (CDN) user; receiving (S102, S202, S302) a user request corresponding to the customized service logic; loading (S103, S203, S304) the customized service logic and the user request to at least one execution process of a restricted namespace, wherein restricted content of the restricted namespace comprises at least one of accessing to CDN system files, calling of key system interfaces, and system resources that can be used; and processing and responding to (S104, S204, S305) the user request according to the customized service logic in the at least one execution process, characterized in that , the service processing method further comprises: creating a new execution process in response to receiving an updated customized service logic and the customized service logic before updating being in a running state; wherein the newly created execution process is configured to execute the updated customized service logic; the execution process which the customized service logic before updating resides in is cancelled after the customized service logic before updating finishes running. receiving (S101, S201, S301) a customized service logic issued by a content delivery network (CDN) user; receiving (S102, S202, S302) a user request corresponding to the customized service logic; loading (S103, S203, S304) the customized service logic and the user request to at least one execution process of a restricted namespace, wherein restricted content of the restricted namespace comprises at least one of accessing to CDN system files, calling of key system interfaces, and system resources that can be used; and processing and responding to (S104, S204, S305) the user request according to the customized service logic in the at least one execution process, characterized in that , the service processing method further comprises: creating a new execution process in response to receiving an updated customized service logic and the customized service logic before updating being in a running state; wherein the newly created execution process is configured to execute the updated customized service logic; the execution process which the customized service logic before updating resides in is cancelled after the customized service logic before updating finishes running. creating a new execution process in response to receiving an updated customized service logic and the customized service logic before updating being in a running state; wherein the newly created execution process is configured to execute the updated customized service logic; the execution process which the customized service logic before updating resides in is cancelled after the customized service logic before updating finishes running.
A force sensor comprising: a cylindrical main body ; a cylindrical movable body capable of moving with respect to the main body ; a strain body fixed to the main body and the movable body , and capable of deformation in accordance with the movement of the movable body ; strain sensors provided on the strain body ; at least three circular openings provided in the circumferential surface of the movable body at equal intervals; stoppers being arranged inside the openings , each of the stoppers including a first side surface and a second side surface , the first side surface having a first outer diameter (R14a) smaller than an inner diameter of the opening and capable of contacting the inner surface of the opening , the second side surface including a second outer diameter (R14b) smaller than the first outer diameter (R14a) and configured in such a manner that a jig for adjustment can be inserted between the second side surface and an inner surface of the opening , and the first side surface being positioned on the inner side of the second side surface in the movable body ; fixing members configured to fix the stoppers to the main body; and a gap having a predetermined distance between an inner surface of the stopper parallel to the first side surface or the second side surface and the fixing member , wherein the stopper is configured in such a manner that when the jig is inserted between the inner surface of the opening and the second side surface , the stopper can be moved by a distance corresponding to the distance of the gap. a cylindrical main body ; a cylindrical movable body capable of moving with respect to the main body ; a strain body fixed to the main body and the movable body , and capable of deformation in accordance with the movement of the movable body ; strain sensors provided on the strain body ; at least three circular openings provided in the circumferential surface of the movable body at equal intervals; stoppers being arranged inside the openings , each of the stoppers including a first side surface and a second side surface , the first side surface having a first outer diameter (R14a) smaller than an inner diameter of the opening and capable of contacting the inner surface of the opening , the second side surface including a second outer diameter (R14b) smaller than the first outer diameter (R14a) and configured in such a manner that a jig for adjustment can be inserted between the second side surface and an inner surface of the opening , and the first side surface being positioned on the inner side of the second side surface in the movable body ; fixing members configured to fix the stoppers to the main body; and a gap having a predetermined distance between an inner surface of the stopper parallel to the first side surface or the second side surface and the fixing member , wherein the stopper is configured in such a manner that when the jig is inserted between the inner surface of the opening and the second side surface , the stopper can be moved by a distance corresponding to the distance of the gap.
A method of making an alloy strip comprising: forming a powder charge comprising nickel and chromium; roll compacting the powder charge to form a green strip; sintering the green strip to form a sintered strip; and cold rolling and annealing the sintered strip to form the alloy strip, wherein the alloy strip consists of 33 to 50 wt. % of chromium, optionally up to 3 wt. % of either Mn or Si, with the balance being nickel and incidental trace alloying elements, and wherein the alloy strip has a tensile elongation of at least 30%. forming a powder charge comprising nickel and chromium; roll compacting the powder charge to form a green strip; sintering the green strip to form a sintered strip; and cold rolling and annealing the sintered strip to form the alloy strip, wherein the alloy strip consists of 33 to 50 wt. % of chromium, optionally up to 3 wt. % of either Mn or Si, with the balance being nickel and incidental trace alloying elements, and wherein the alloy strip has a tensile elongation of at least 30%.
A method performed by a device (602/604/606) implementing a router network element , wherein the router network element operates within a network including a Segment Routing, SR, network portion and a Multiprotocol Label Switching, MPLS, network portion , wherein the router network element operates within both the SR network portion and the MPLS network portion, and wherein the network also utilizes an Intermediate System to Intermediate System, IS-IS, protocol for exchanging routing information, the method comprising: receiving, at the router network element, an IS-IS advertisement message originated by a mapping server , wherein the IS-IS advertisement message includes a sub-Type-length-value sub-TLV, element that identifies a preferred type of path across the MPLS network portion for an identifiable set of traffic that is to be received from the SR network portion, wherein the type of path defines a protocol used to provision the path; identifying, by the router network element based at least in part upon the sub-TLV element, one path of a plurality of available paths (108B/110) across the MPLS network portion for the identifiable set of traffic; and configuring, by the router network element, a forwarding plane of the router network element to utilize the identified one path to forward any received traffic from the SR network portion that can be determined to belong to the identifiable set of traffic. receiving, at the router network element, an IS-IS advertisement message originated by a mapping server , wherein the IS-IS advertisement message includes a sub-Type-length-value sub-TLV, element that identifies a preferred type of path across the MPLS network portion for an identifiable set of traffic that is to be received from the SR network portion, wherein the type of path defines a protocol used to provision the path; identifying, by the router network element based at least in part upon the sub-TLV element, one path of a plurality of available paths (108B/110) across the MPLS network portion for the identifiable set of traffic; and configuring, by the router network element, a forwarding plane of the router network element to utilize the identified one path to forward any received traffic from the SR network portion that can be determined to belong to the identifiable set of traffic.