mhurhangee/patent-ind-claim-en huggingface dataset:
Disposable apparatus for sterile handling of an unsterile reusable apparatus , comprising a film with a sterile upper side and an underside ; and at least one adaptor with a sterile upper side and an underside , wherein the sterile upper side of the adaptor is suitable for receiving a sterile application device and wherein the underside of the adaptor has at least one anchoring point for establishing a reversible mechanical connection to an unsterile reusable apparatus ; wherein the underside of the adaptor forms an irreversible and air-tight connection with the upper side of the film , characterized in that the adaptor comprises a mounting for a sterile application device or consists thereof, wherein the mounting is a syringe mounting and/or spray solution container mounting.
A work vehicle comprising an installation and removal structure for a support shaft member of the work vehicle , the work vehicle comprising: work equipment including a rotation member whose proximal end portion is coupled to a rotatable support shaft member ; a cabin disposed on one side of the work equipment ; and a storage part disposed on the other side of the work equipment , wherein the work equipment and the cabin are provided as substantially separate members, and a side wall of the cabin on the work equipment side has a work hole opened therein, such that the support shaft member is installable and removable through the work hole by inserting and extracting the support shaft member from the cabin side into and out of a cylindrical body having the proximal end portion fixed thereto, characterized in that : a through hole is provided that radially penetrates through the support shaft member and a support body that rotatably supports the support shaft member on the storage part side, the through hole including a first through hole formed in the support shaft member and a second through hole formed in the support body , an anti-rotation member is provided that is insertable through a combination of the first through hole and the second through hole , and a visual check structure is provided that enables a reference rotation position to be visually checked from the cabin side through the work hole , the reference rotation position being a position that allows the anti-rotation member to be inserted. a through hole is provided that radially penetrates through the support shaft member and a support body that rotatably supports the support shaft member on the storage part side, the through hole including a first through hole formed in the support shaft member and a second through hole formed in the support body , an anti-rotation member is provided that is insertable through a combination of the first through hole and the second through hole , and a visual check structure is provided that enables a reference rotation position to be visually checked from the cabin side through the work hole , the reference rotation position being a position that allows the anti-rotation member to be inserted.
A method for assembling a protein having a plurality of subunits, the method comprising: (a) providing a plurality of first subunits; (b) providing a plurality of second subunits, wherein the second subunits are modified with respect to the first subunits; (c) contacting the first subunits with the second subunits in a first ratio to form a plurality of proteins having the first subunits and the second subunits, wherein the plurality of proteins have a plurality of ratios of the first subunits to the second subunits; and (d) fractionating the plurality of proteins to enrich proteins that have a second ratio of the first subunits to the second subunits, wherein the second ratio is one second subunit per (n-1) first subunits, wherein 'n' is the number of subunits comprising the protein; wherein the second subunits comprise a chemically reactive moiety, wherein the method further comprises (e) performing a reaction to attach an entity to the chemically reactive moiety using non-covalent interaction. (a) providing a plurality of first subunits; (b) providing a plurality of second subunits, wherein the second subunits are modified with respect to the first subunits; (c) contacting the first subunits with the second subunits in a first ratio to form a plurality of proteins having the first subunits and the second subunits, wherein the plurality of proteins have a plurality of ratios of the first subunits to the second subunits; and (d) fractionating the plurality of proteins to enrich proteins that have a second ratio of the first subunits to the second subunits, wherein the second ratio is one second subunit per (n-1) first subunits, wherein 'n' is the number of subunits comprising the protein; wherein the second subunits comprise a chemically reactive moiety, wherein the method further comprises (e) performing a reaction to attach an entity to the chemically reactive moiety using non-covalent interaction.
Pneumatic vehicle tyre , which is able to be fitted on a rim with an emergency running ring that is supported on the rim and projects into the tyre cavity , wherein the pneumatic vehicle tyre has a carcass , a tread and a belt having at least two belt plies , and wherein the pneumatic vehicle tyre has, on its inner face beneath the tread , an additional rubber profile which runs around the circumference of the pneumatic vehicle tyre and on which the emergency running ring is supported in an emergency, wherein the thickness of the additional rubber profile is in a range from 3.5 mm to 12 mm, measured at the point of greatest thickness of the additional rubber profile in a radial direction, characterized in that the width of the additional rubber profile corresponds approximately to the width of the widest belt ply +/- 20 to 30 mm.
A hydraulic excavator comprising: a hydraulic cylinder driven by a hydraulic fluid delivered from a hydraulic pump; work implements including a bucket driven by the hydraulic cylinder; and a hydraulic excavator side controller calculating a loaded weight of an object to be worked loaded onto a transporting machine by the work implement, characterized in that the hydraulic excavator side controller , performs a first determination of determining whether or not the loading work of the object onto the transporting machine has been conducted by the hydraulic excavator , the first determination is performed based on posture of the work implement, calculates a first load of the object in the bucket based on a thrust force of the hydraulic cylinder and a determination result of the first determination, receives a second determination of determining whether or not the load to be added to the total load of the transporting machine has been conducted by the hydraulic excavator , the second determination is transmitted from a transporting machine side controller included in the transporting machine, and calculates the loaded weight on the transporting machine by integrating the first load on the basis of the second determination received from the transporting machine side controller and the first determination determined by the hydraulic excavator side controller . a hydraulic cylinder driven by a hydraulic fluid delivered from a hydraulic pump; work implements including a bucket driven by the hydraulic cylinder; and a hydraulic excavator side controller calculating a loaded weight of an object to be worked loaded onto a transporting machine by the work implement, characterized in that the hydraulic excavator side controller , performs a first determination of determining whether or not the loading work of the object onto the transporting machine has been conducted by the hydraulic excavator , the first determination is performed based on posture of the work implement, calculates a first load of the object in the bucket based on a thrust force of the hydraulic cylinder and a determination result of the first determination, receives a second determination of determining whether or not the load to be added to the total load of the transporting machine has been conducted by the hydraulic excavator , the second determination is transmitted from a transporting machine side controller included in the transporting machine, and calculates the loaded weight on the transporting machine by integrating the first load on the basis of the second determination received from the transporting machine side controller and the first determination determined by the hydraulic excavator side controller .
Support base for an ironing apparatus comprising a base body provided with an upper portion configured to support an iron both during the pauses in the ironing operations, and also during the execution of the cleaning and/or washing cycles, and with a housing compartment disposed below said upper portion , wherein said upper portion comprises at least one discharge aperture configured to drain water and/or steam and/or limescale residues emitted by the iron and said support base comprises, disposed in said housing compartment , a containment tank suitable to contain clean water, and a collection tank for collecting the water and/or limescale, separated from said containment tank and connected to said discharge aperture .
Palovarotene (4-[ -2-[5,6,7,8-Tetrahydro-5,5,8,8-tetramethyl-3-(1H-pyrazol-1-ylmethyl)-2-naphthalenyl]-ethenyl]-benzoic acid), or a pharmaceutically acceptable salt thereof, for use in a method for the treatment of a muscle damaging myopathy in a subject having damaged muscle tissue.
A compound represented by the following general formula (X) or a salt thereof: wherein the carboxyl group and the 1,1-diphenylsemicarbazide group are coordinated to cis or trans, or a compound represented by the following general formula (XI) or a salt thereof: wherein the carboxyl group and the 1,1-diphenylsemicarbazide group are coordinated to cis or trans.
A method of preparing a fatty acid ethyl ester, comprising: (a) preparing a vegetable lipid; (b) performing transesterification by mixing the vegetable lipid, a first fatty acid ethyl ester, and lipase in a reactor to prepare a second fatty acid ethyl ester; (c) removing the triglycerides and diglycerides present in the reactor; and (d) separating the second fatty acid ethyl ester from the other various fatty acid ethyl ester via rectification from the reactor, wherein the method excludes adding an organic solvent. (a) preparing a vegetable lipid; (b) performing transesterification by mixing the vegetable lipid, a first fatty acid ethyl ester, and lipase in a reactor to prepare a second fatty acid ethyl ester; (c) removing the triglycerides and diglycerides present in the reactor; and (d) separating the second fatty acid ethyl ester from the other various fatty acid ethyl ester via rectification from the reactor,
Control unit intended to control an electrical machine , notably for a motor vehicle, the control unit comprising: - at least one power electronic unit , - a housing comprising a base receiving said at least one power electronic unit , said power electronic unit comprising at least one connector intended to be connected electrically to a corresponding connector of the electrical machine , - a primary cover closing the housing , characterized in that the control unit comprises at least one through passage between the base and the primary cover through which said connector of the power electronic unit passes, and intended to receive the corresponding connector of the electrical machine , said at least one through passage comprising a peripheral wall deriving from the primary cover or from the base or from both. - at least one power electronic unit , - a housing comprising a base receiving said at least one power electronic unit , said power electronic unit comprising at least one connector intended to be connected electrically to a corresponding connector of the electrical machine , - a primary cover closing the housing ,
A laser processing machine (LM), in particular a laser cutting machine with long-wave laser radiation, in particular CO2 laser radiation, comprising at least one laser processing head which has an interior and a nozzle (3; 3'; 3") having a nozzle opening for the passage of a primary beam in the form of a focused laser working beam on a workpiece to be processed, further comprising an alignment device having at least one sensor for centring the primary beam and the nozzle opening relative to each other for adjusting the focus position in the lateral direction, wherein at least one first beam processing unit is provided, in particular in the region of the nozzle opening of the nozzle or calibration nozzle (3; 3'; 3"), which is suitably designed for converting the primary, focused beam into a secondary electromagnetic beam, in particular a broadband heat beam and for emitting the secondary beam in a direction of propagation in the direction of the sensor or for reflecting/scattering at least part of the primary, focused beam in the direction of propagation as a secondary beam in the direction of the sensor , wherein the at least one sensor is arranged within the laser processing head for detecting the secondary beam , characterised in that the laser processing machine further comprises an optical focusing element (L) for adjusting the focus position of the primary beam in the axial direction; and a CNC controller for the prescribed positioning of the focus (F) of the primary electromagnetic beam , in particular CO 2 laser processing beam, in relation to the nozzle tip or nozzle opening by adjusting the primary beam and/or the nozzle (3; 3'; 3") in the lateral and axial directions, wherein, during the adjustment, an axial position of the focus (F) of the primary electromagnetic beam is determined by means of nozzle centring and adjusted to a pre-selectable value.
A printing apparatus comprising: a printhead to spit a printing fluid comprising a first mode and a second mode , wherein the first mode corresponds to using a first energy level to spit the printing fluid and a second mode corresponding to using a second energy level to spit the printing fluid, wherein the second energy level comprises a higher energy level than the first energy level; and a controller , characterised in that the controller is configured to: determine a decap risk zone associated with the printing fluid, determine in view of the decap risk zone a decap location, and instruct the printhead to spit using the second mode at the decap location. a printhead to spit a printing fluid comprising a first mode and a second mode , wherein the first mode corresponds to using a first energy level to spit the printing fluid and a second mode corresponding to using a second energy level to spit the printing fluid, wherein the second energy level comprises a higher energy level than the first energy level; and a controller , characterised in that the controller is configured to: determine a decap risk zone associated with the printing fluid, determine in view of the decap risk zone a decap location, and instruct the printhead to spit using the second mode at the decap location. determine a decap risk zone associated with the printing fluid, determine in view of the decap risk zone a decap location, and instruct the printhead to spit using the second mode at the decap location.
A computer-implemented method, comprising: obtaining, from a runtime system that executes code , a source value at a source point of the code and a sink value at a sink point of the code; identifying a potential taint flow from the source point to the sink point by performing a series of taint inferences that each infer a relationship between the source value and the sink value; and determining whether the potential taint flow is an actual taint flow by performing a series of taint checks that each analyze the execution of the code using the source value and the sink value, wherein one of the series of taint checks comprises: generating an execution trace for a portion of the code between the source point and the sink point; and determining, using the execution trace, whether there is a series of operations that transforms the source value into the sink value, wherein each of the series of operations is associated with a same connection request or data request. obtaining, from a runtime system that executes code , a source value at a source point of the code and a sink value at a sink point of the code; identifying a potential taint flow from the source point to the sink point by performing a series of taint inferences that each infer a relationship between the source value and the sink value; and determining whether the potential taint flow is an actual taint flow by performing a series of taint checks that each analyze the execution of the code using the source value and the sink value, wherein one of the series of taint checks comprises: generating an execution trace for a portion of the code between the source point and the sink point; and determining, using the execution trace, whether there is a series of operations that transforms the source value into the sink value, wherein each of the series of operations is associated with a same connection request or data request. generating an execution trace for a portion of the code between the source point and the sink point; and determining, using the execution trace, whether there is a series of operations that transforms the source value into the sink value, wherein each of the series of operations is associated with a same connection request or data request.
Visible part having a visible face for a motor vehicle, comprising: a substrate ; which defines a surface ; a transparent or translucent film , which is applied to the surface over all of its surface area but such that it only partially covers the surface , resulting in the formation of a peripheral edge ; wherein the film comprises a printed pattern , which extends along its edge and is arranged adjacent to the edge , wherein the substrate and the film together form the visible face and the edge of the film does not coincide with a border of the surface of the substrate at any point; wherein the printed pattern has a region which is arranged adjacent to the edge and in which the density of the printed pattern decreases from the inside to the outside, and wherein the printed pattern has a colour tone which corresponds to that of the substrate . a substrate ; which defines a surface ; a transparent or translucent film , which is applied to the surface over all of its surface area but such that it only partially covers the surface , resulting in the formation of a peripheral edge ; wherein the film comprises a printed pattern , which extends along its edge and is arranged adjacent to the edge , wherein the substrate and the film together form the visible face and the edge of the film does not coincide with a border of the surface of the substrate at any point; wherein the printed pattern has a region which is arranged adjacent to the edge and in which the density of the printed pattern decreases from the inside to the outside, and wherein the printed pattern has a colour tone which corresponds to that of the substrate .
A rolled sheet metal mill controller for controlling thickness of sheet metal produced by rolls of the mill , the controller comprising one or more processors and code stored on media readable by the one or more processors to control the thickness of the produced sheet metal , the controller comprising: an input coupled to receive multiple measured mill parameters including produced sheet metal thickness that is time delayed from the production of the sheet metal ; multiple models of the sheet metal mill including a rolling model with a corresponding input of roll torque, a gap control model with a corresponding input of rolling force, and a main drive model with a corresponding input of roll speed, wherein the sheet metal thickness is modeled as an input varying delay, and at least one internal disturbance model based on one or more of the multiple measured parameters coupled to the input ; a Kalman filter based on the multiple models; and an output coupled to control a gap between the rolls that produce the rolled sheet metal. an input coupled to receive multiple measured mill parameters including produced sheet metal thickness that is time delayed from the production of the sheet metal ; multiple models of the sheet metal mill including a rolling model with a corresponding input of roll torque, a gap control model with a corresponding input of rolling force, and a main drive model with a corresponding input of roll speed, wherein the sheet metal thickness is modeled as an input varying delay, and at least one internal disturbance model based on one or more of the multiple measured parameters coupled to the input ; a Kalman filter based on the multiple models; and an output coupled to control a gap between the rolls that produce the rolled sheet metal.
A correspondence determination method, comprising: determining a correspondence between P control channel resources and Q pieces of configuration information for one transmission parameter set; wherein P is a positive integer greater than or equal to 1, and Q is a positive integer less than or equal to P; characterized in that the P control channel resources belong to a same frequency domain bandwidth, Q channels or Q signals corresponding to the Q pieces of configuration information belong to the same frequency domain bandwidth, the one transmission parameter set is a set about transmission parameters of channels or signals, and the frequency domain bandwidth is one bandwidth part, BWP. determining a correspondence between P control channel resources and Q pieces of configuration information for one transmission parameter set; wherein P is a positive integer greater than or equal to 1, and Q is a positive integer less than or equal to P; characterized in that the P control channel resources belong to a same frequency domain bandwidth, Q channels or Q signals corresponding to the Q pieces of configuration information belong to the same frequency domain bandwidth, the one transmission parameter set is a set about transmission parameters of channels or signals, and the frequency domain bandwidth is one bandwidth part, BWP.
A compound of Formula I, or a pharmaceutically acceptable salt, a hydrate or a solvate thereof, wherein: X=P, " " represents a single bond, R 1 and R 2 each are independently hydroxyl or C 1-6 alkoxy, said C 1-6 alkoxy is optionally substituted by 1-2 substituents independently selected from the group consisting of: aryl, amino, hydroxyl, cyano, nitro, C 1-4 alkyl and halogen (e.g., F, Cl, Br or I), said aryl is optionally substituted by 1-2 substituents independently selected from the group consisting of: aryl, amino, hydroxyl, cyano, nitro, C 1-4 alkyl and halogen (e.g., F, Cl, Br or I).