mhurhangee/patent-ind-claim-en huggingface dataset:
A cation exchange chromatography media for purifying an antibody, formed by bonding a base media involving porous particles with a polymer composed of (i) in the range of 30 to less than 100 mol% based on the total monomer, 2-acrylamide-2-methylpropanesulfonic acid, and (ii) either N,N-dimethylacrylamide or acrylic acid, wherein ion exchange capacity thereof is from 60 to 300 μmol/mL; and wherein the porous particles are crosslinked cellulose particles and have a gel partition coefficient Kav of 0.15 to 0.6 as determined when pure water is used as a mobile phase in standard polyethylene oxide having average molecular weight of 1.5 x 10 5 Da.
- Tyre for an agricultural vehicle, comprising: - a tread comprising two rows of lugs that are separated from one another by grooves , - two consecutive lugs in one and the same row being spaced apart, in a circumferential direction (XX'), by a circumferential distance P, - each lug extending over a radial height H in a radial direction (ZZ') from a bottom surface to a contact face , extending over an axial width L in an axial direction (YY') from an axially inner end face to an axially outer end face , and extending over a mean thickness E in the circumferential direction (XX') from a trailing face to a leading face , - each lug having a mean direction (D) that passes through an axially inner end point (I) of the trailing face and through an axially outer end point (J) of the trailing face and forms a mean angle A with the circumferential direction (XX'), - the leading face of each lug comprising a discontinuity that extends circumferentially in the direction of the trailing face , axially inwards from the axially outer end face and radially inwards from the contact face , characterized in that the discontinuity on the leading face of each lug is continued by a recess formed in the bottom surface . - a tread comprising two rows of lugs that are separated from one another by grooves , - two consecutive lugs in one and the same row being spaced apart, in a circumferential direction (XX'), by a circumferential distance P, - each lug extending over a radial height H in a radial direction (ZZ') from a bottom surface to a contact face , extending over an axial width L in an axial direction (YY') from an axially inner end face to an axially outer end face , and extending over a mean thickness E in the circumferential direction (XX') from a trailing face to a leading face , - each lug having a mean direction (D) that passes through an axially inner end point (I) of the trailing face and through an axially outer end point (J) of the trailing face and forms a mean angle A with the circumferential direction (XX'), - the leading face of each lug comprising a discontinuity that extends circumferentially in the direction of the trailing face , axially inwards from the axially outer end face and radially inwards from the contact face , characterized in that the discontinuity on the leading face of each lug is continued by a recess formed in the bottom surface .
Method for operating a mobile cellular Centralized Self-Organizing Network, C-SON, or Distributed Self-Organizing Network", D-SON, , comprising, for at least one cell of a plurality of cells ( 105 C i ) of the mobile cellular network : determining , by a determiner module , a radio interference affecting the cell in at least one between uplink and downlink transmissions, characterized by further comprising if the radio interference affecting the cell is identified by a comparator module as higher than a threshold radio interference, setting , by an instructor module , the cell in a barred condition for preventing any user equipment using the mobile cellular network from camping on it for said least one between uplink and downlink transmissions, or if the radio interference affecting the cell is identified by the comparator module as lower than said threshold radio interference, setting , by the instructor module , the cell in an unbarred condition for allowing any user equipment using the mobile cellular network to camp on it for said at least one between uplink and downlink transmissions. determining , by a determiner module , a radio interference affecting the cell in at least one between uplink and downlink transmissions, characterized by further comprising if the radio interference affecting the cell is identified by a comparator module as higher than a threshold radio interference, setting , by an instructor module , the cell in a barred condition for preventing any user equipment using the mobile cellular network from camping on it for said least one between uplink and downlink transmissions, or if the radio interference affecting the cell is identified by the comparator module as lower than said threshold radio interference, setting , by the instructor module , the cell in an unbarred condition for allowing any user equipment using the mobile cellular network to camp on it for said at least one between uplink and downlink transmissions.
A nucleic acid molecule comprising a polynucleotide encoding an RNA-guided nuclease (RGN) polypeptide, wherein said polynucleotide comprises a nucleotide sequence encoding an RGN polypeptide comprising an amino acid sequence having at least 90% sequence identity to SEQ ID NO: 83; wherein said RGN polypeptide is capable of binding a target DNA sequence in an RNA-guided sequence specific manner when bound to a guide RNA (gRNA) capable of hybridizing to said target DNA sequence, and wherein said RGN polypeptide recognizes a protospacer adjacent motif (PAM) sequence comprising the consensus sequence of SEQ ID NO: 82. wherein said RGN polypeptide is capable of binding a target DNA sequence in an RNA-guided sequence specific manner when bound to a guide RNA (gRNA) capable of hybridizing to said target DNA sequence, and wherein said RGN polypeptide recognizes a protospacer adjacent motif (PAM) sequence comprising the consensus sequence of SEQ ID NO: 82.
A pharmaceutical composition comprising a heptapeptide having general formula (I): Thr-Lys-Pro-Arg-Pro-Gly-Pro for use in treating sexual dysfunctions not caused by organic disorders or diseases in a mammal.
Method for evacuating a chamber (11-13) in a sealing station , wherein the sealing station has an upper tool with an upper chamber and a lower tool with a lower chamber , and a product chamber is formed by a space between an upper film and a packaging hollow, characterized in that first of all a rough vacuum is applied to a first set of valves, which comprises at least two valves , wherein a valve of the first set of valves is arranged on the upper tool and a valve of the first set of valves is arranged on the lower tool , and then a fine vacuum is applied to another set of valves, which comprises at least two valves , wherein a valve of the second set of valves is arranged on the upper tool and a valve of the second set of valves is arranged on the lower tool .
A sorting device that sorts a specific material and materials other than the specific material from a target in which the specific material and the materials other than the specific materials are mixed, the sorting device comprising: a transport unit that transports the target in a first direction and causes the target to fly at a tip end of the transport unit ; an identification unit that identifies a composition of the target ; and a plurality of nozzles that are arranged along a flying route above the flying route of the target and eject pulse air to the specific material that is flying from the transport unit ; characterized in that each of the plurality of nozzles has a valve that adjusts a flow amount of the pulse air, a pulse air flow path that is connected to the valve , and a pulse air blowing port that is arranged at a tip end of the pulse air flow path , the pulse air flow path has at least one bent portion , an adjustment flow path is connected to the bent portion of the pulse air flow path , and an adjustment member capable of increasing and decreasing a volume of the adjustment flow path is provided in the adjustment flow path . a transport unit that transports the target in a first direction and causes the target to fly at a tip end of the transport unit ; an identification unit that identifies a composition of the target ; and a plurality of nozzles that are arranged along a flying route above the flying route of the target and eject pulse air to the specific material that is flying from the transport unit ; characterized in that each of the plurality of nozzles has a valve that adjusts a flow amount of the pulse air, a pulse air flow path that is connected to the valve , and a pulse air blowing port that is arranged at a tip end of the pulse air flow path , the pulse air flow path has at least one bent portion , an adjustment flow path is connected to the bent portion of the pulse air flow path , and an adjustment member capable of increasing and decreasing a volume of the adjustment flow path is provided in the adjustment flow path .
Computer-implemented graphical user interface of a production plant control system for a display , comprising: an information area for representing a section (A') of a work surface (A) on which one or more widgets (W1 to W10) are arranged, and a much smaller navigation area in comparison with the information area , arranged outside the information area , with a miniaturized representation of the entire work surface (A) and the widgets (W1 to W10) arranged thereon, wherein the navigation area and the information area are coupled by means of a selection indicator (L), which is movable in the navigation area , such that a partial area of the work surface (A*) represented in a miniaturized manner, said partial area being determined in the navigation area by the selection indicator (L), corresponds to the section (A') of the work surface (A) that is represented in the information area , characterized in that a copying mode can be set by the user, and in that the navigation area and the widgets (W1 to W10) are coupled such that in the copying mode upon the movement of a widget (W5*) represented in a miniaturized manner from the navigation area into the information area , a copy of the relevant widget (W5+) is created and arranged on the work surface (A). an information area for representing a section (A') of a work surface (A) on which one or more widgets (W1 to W10) are arranged, and a much smaller navigation area in comparison with the information area , arranged outside the information area , with a miniaturized representation of the entire work surface (A) and the widgets (W1 to W10) arranged thereon, wherein the navigation area and the information area are coupled by means of a selection indicator (L), which is movable in the navigation area , such that a partial area of the work surface (A*) represented in a miniaturized manner, said partial area being determined in the navigation area by the selection indicator (L), corresponds to the section (A') of the work surface (A) that is represented in the information area , characterized in that a copying mode can be set by the user, and in that the navigation area and the widgets (W1 to W10) are coupled such that in the copying mode upon the movement of a widget (W5*) represented in a miniaturized manner from the navigation area into the information area , a copy of the relevant widget (W5+) is created and arranged on the work surface (A).
A method for determining loads on a tower of a wind turbine, comprising: - identifying bending moments in at least one rotor blade of the wind turbine for providing a first quantity indicating a first force acting upon a nacelle of the tower of the wind turbine; - identifying a nacelle deflection for providing a second quantity indicating a second force acting upon the nacelle of the tower of the wind turbine; - inputting the first quantity and the second quantity into a calculation model mapping the tower behavior; and - identifying loads on the tower of the wind turbine using the calculation model, wherein in identifying the bending moments in the at least one rotor blade, an elongation of the at least one rotor blade is measured by means of at least one strain sensor, wherein the at least one strain sensor is a fiber optic strain sensor, wherein in identifying the nacelle deflection, a position determination of the nacelle is performed by means of a position sensor device which is adapted to perform an RTK-GPS (Real Time Kinematic-GPS) position determination method, and wherein in identifying the nacelle deflection, a stationary reference point is used. - identifying bending moments in at least one rotor blade of the wind turbine for providing a first quantity indicating a first force acting upon a nacelle of the tower of the wind turbine; - identifying a nacelle deflection for providing a second quantity indicating a second force acting upon the nacelle of the tower of the wind turbine; - inputting the first quantity and the second quantity into a calculation model mapping the tower behavior; and - identifying loads on the tower of the wind turbine using the calculation model, wherein in identifying the bending moments in the at least one rotor blade, an elongation of the at least one rotor blade is measured by means of at least one strain sensor, wherein the at least one strain sensor is a fiber optic strain sensor, wherein in identifying the nacelle deflection, a position determination of the nacelle is performed by means of a position sensor device which is adapted to perform an RTK-GPS (Real Time Kinematic-GPS) position determination method, and wherein in identifying the nacelle deflection, a stationary reference point is used. wherein in identifying the bending moments in the at least one rotor blade, an elongation of the at least one rotor blade is measured by means of at least one strain sensor, wherein the at least one strain sensor is a fiber optic strain sensor, wherein in identifying the nacelle deflection, a position determination of the nacelle is performed by means of a position sensor device which is adapted to perform an RTK-GPS (Real Time Kinematic-GPS) position determination method, and wherein in identifying the nacelle deflection, a stationary reference point is used.
Built-in module for an aircraft , having a module housing , wherein the module housing has a sleeping space with a sleeping space surface area (A1), wherein the sleeping space can be accessed via an access opening , having a module door , wherein the module door is pivotably arranged on the module housing , wherein the module door closes the access opening when in a closed position (S), and opens the access opening when in an open position , having at least one couch , wherein the couch provides, in the sleeping space and when in a basic position (G), a basic surface area (A2), wherein the basic surface area (A2) is smaller than or equal to the sleeping space surface area (A1) of the sleeping space , characterized in that when the module door is in the open position , the couch can be moved from the basic position (G) to a lying position (L), wherein in the lying position (L) a lying surface area (A3) for at least one person is provided over the sleeping space , wherein the lying surface area (A3) is larger than the sleeping space surface area (A1) of the sleeping space . having a module housing , wherein the module housing has a sleeping space with a sleeping space surface area (A1), wherein the sleeping space can be accessed via an access opening , having a module door , wherein the module door is pivotably arranged on the module housing , wherein the module door closes the access opening when in a closed position (S), and opens the access opening when in an open position , having at least one couch , wherein the couch provides, in the sleeping space and when in a basic position (G), a basic surface area (A2), wherein the basic surface area (A2) is smaller than or equal to the sleeping space surface area (A1) of the sleeping space , characterized in that when the module door is in the open position , the couch can be moved from the basic position (G) to a lying position (L), wherein in the lying position (L) a lying surface area (A3) for at least one person is provided over the sleeping space , wherein the lying surface area (A3) is larger than the sleeping space surface area (A1) of the sleeping space .
A height-adjustable supple member for lying and/or sitting furniture , comprising: one or more adjustable springs , each configured to change in height along a central axis (Z) under the effect of a radial stress relative to the central axis (Z), and a rotary part including one or more rails each extending over an angular sector about the central axis (Z), in a plane perpendicular to the central axis (Z), from a first end to a second end more distant from the central axis (Z) than the first end , each rail cooperating, in the radial direction relative to the central axis (Z), with a corresponding adjustable spring among the one or more adjustable springs , and the rotary part being able to rotate, about the central axis (Z), so as to exert, through each rail , said radial stress on the corresponding adjustable spring , to vary the height of the adjustable springs . one or more adjustable springs , each configured to change in height along a central axis (Z) under the effect of a radial stress relative to the central axis (Z), and a rotary part including one or more rails each extending over an angular sector about the central axis (Z), in a plane perpendicular to the central axis (Z), from a first end to a second end more distant from the central axis (Z) than the first end , each rail cooperating, in the radial direction relative to the central axis (Z), with a corresponding adjustable spring among the one or more adjustable springs , and the rotary part being able to rotate, about the central axis (Z), so as to exert, through each rail , said radial stress on the corresponding adjustable spring , to vary the height of the adjustable springs .
A mobile computing device with telephonic functionality comprising: an accelerometer for capturing data describing movement of the mobile computing device along one or more axes of motion; a proximity sensor configured to determine a distance between the mobile computing device and a surface in an environment external to the mobile computing device and generate a control signal responsive to the distance equaling a threshold value; a processor coupled to the accelerometer and to the proximity sensor ; a memory including instructions configured to be executed by the processor , wherein the instructions when executed by the processor cause the processor to: execute an application for exchanging audio data with a remote device; receive a destination identifier identifying the remote device; and responsive to receiving data from the accelerometer describing movement of the mobile computing device in an upward direction along a first axis of the one or more axes of motion and to receiving the control signal from the proximity sensor , initiate a communication channel with the remote device; and a transceiver coupled to the processor for transmitting audio data to the remote device via the communication channel and receiving audio data from the remote device via the communication channel. an accelerometer for capturing data describing movement of the mobile computing device along one or more axes of motion; a proximity sensor configured to determine a distance between the mobile computing device and a surface in an environment external to the mobile computing device and generate a control signal responsive to the distance equaling a threshold value; a processor coupled to the accelerometer and to the proximity sensor ; a memory including instructions configured to be executed by the processor , execute an application for exchanging audio data with a remote device; receive a destination identifier identifying the remote device; and responsive to receiving data from the accelerometer describing movement of the mobile computing device in an upward direction along a first axis of the one or more axes of motion and to receiving the control signal from the proximity sensor , initiate a communication channel with the remote device; and a transceiver coupled to the processor for transmitting audio data to the remote device via the communication channel and receiving audio data from the remote device via the communication channel.
An insulated wire comprising a thermosetting resin layer on the outer periphery of a conductor, and a thermoplastic resin layer on the outer periphery of the thermosetting resin layer, wherein a total thickness of the thermosetting resin layer and the thermoplastic resin layer is 100μm or more and 250μm or less, and a degree of orientation of a thermoplastic resin in the thermoplastic resin layer, that is calculated by the following Formula 1, is 20% or more and 90% or less; Degree of orientation H % = 360 − ΣW n / 360 × 100 W n : A half width of orientation peak in the azimuth angle intensity distribution curve by X-ray diffraction n: the number of orientation peak at a β angle of 0° or more and 360° or less; wherein the method of producing the insulated wire has a process of setting the conductor on which a thermosetting resin layer has been formed to a temperature lower by 120 to 280°C than the extrusion temperature of a thermoplastic resin, and extruding the thermoplastic resin together with said enamel wire. wherein a total thickness of the thermosetting resin layer and the thermoplastic resin layer is 100μm or more and 250μm or less, and a degree of orientation of a thermoplastic resin in the thermoplastic resin layer, that is calculated by the following Formula 1, is 20% or more and 90% or less; Degree of orientation H % = 360 − ΣW n / 360 × 100 W n : A half width of orientation peak in the azimuth angle intensity distribution curve by X-ray diffraction n: the number of orientation peak at a β angle of 0° or more and 360° or less; wherein the method of producing the insulated wire has a process of setting the conductor on which a thermosetting resin layer has been formed to a temperature lower by 120 to 280°C than the extrusion temperature of a thermoplastic resin, and extruding the thermoplastic resin together with said enamel wire.
A control method for a heat pump system with a plurality of heat pumps, characterized by comprising: obtaining a system requirement value of a current period and a historical level of a previous period, and performing level prediction for the current period based on the system requirement value to obtain a candidate level; wherein the historical level is used to represent the quantity of heat pumps that were in operation in the previous period of the current period, and the candidate level is used to represent the quantity of heat pumps that are to be in operation in the current period; comparing the candidate level with the historical level to obtain a target level; wherein the target level is used to represent the total quantity of heat pumps to be in operation in the heat pump system; and controlling one or more heat pumps in the heat pump system to be turned on or off based on the target level. obtaining a system requirement value of a current period and a historical level of a previous period, and performing level prediction for the current period based on the system requirement value to obtain a candidate level; wherein the historical level is used to represent the quantity of heat pumps that were in operation in the previous period of the current period, and the candidate level is used to represent the quantity of heat pumps that are to be in operation in the current period; comparing the candidate level with the historical level to obtain a target level; wherein the target level is used to represent the total quantity of heat pumps to be in operation in the heat pump system; and controlling one or more heat pumps in the heat pump system to be turned on or off based on the target level.