mhurhangee/patent-ind-claim-en huggingface dataset:
An oscillating device, comprising: a vibrating table ; a Y-axis actuator configured to drive the vibrating table in a Y-axis direction being a horizontal direction; a Z-axis actuator configured to drive the vibrating table in a Z-axis direction being a vertical direction; a first slider configured to couple the vibrating table with the Z-axis actuator slidably in the Y-axis direction; and a second slider configured to couple the vibrating table with the Y-axis actuator slidably in the Z-axis direction, wherein the first slider comprises Y-axis linear guideways each having: a Y-axis rail extending in the Y-axis direction; and a Y-axis carriage configured to engage with the Y-axis rail slidably in the Y-axis direction, and wherein the second slider comprises Z-axis linear guideways each having: a Z-axis rail extending in the Z-axis direction; and a Z-axis carriage configured to engage with the Z-axis rail slidably in the Z-axis direction, the oscillating device characterised in that : the Y-axis rails of the first slider and the Z-axis rails of the second slider are fixed to the vibrating table, and one of the Y-axis rails (2367a1) of the first slider and one of the Z-axis rails (2267a1) of the second slider are arranged substantially on a same plane. a vibrating table ; a Y-axis actuator configured to drive the vibrating table in a Y-axis direction being a horizontal direction; a Z-axis actuator configured to drive the vibrating table in a Z-axis direction being a vertical direction; a first slider configured to couple the vibrating table with the Z-axis actuator slidably in the Y-axis direction; and a second slider configured to couple the vibrating table with the Y-axis actuator slidably in the Z-axis direction, wherein the first slider comprises Y-axis linear guideways each having: a Y-axis rail extending in the Y-axis direction; and a Y-axis carriage configured to engage with the Y-axis rail slidably in the Y-axis direction, and a Y-axis rail extending in the Y-axis direction; and a Y-axis carriage configured to engage with the Y-axis rail slidably in the Y-axis direction, and wherein the second slider comprises Z-axis linear guideways each having: a Z-axis rail extending in the Z-axis direction; and a Z-axis carriage configured to engage with the Z-axis rail slidably in the Z-axis direction, a Z-axis rail extending in the Z-axis direction; and a Z-axis carriage configured to engage with the Z-axis rail slidably in the Z-axis direction, the oscillating device characterised in that : the Y-axis rails of the first slider and the Z-axis rails of the second slider are fixed to the vibrating table, and one of the Y-axis rails (2367a1) of the first slider and one of the Z-axis rails (2267a1) of the second slider are arranged substantially on a same plane.
A modified polypeptide having an isopropylmalate synthase activity, wherein arginine at position 558 from a N-terminus of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 is substituted with histidine, alanine or glutamine, and/or glycine at position 561 from a N-terminus of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 is substituted with arginine or tyrosine.
Metal-containing trimanganese tetraoxide combined particles obtained by a process comprising a crystallization step of crystallizing trimanganese tetraoxide not by means of manganese hydroxide or under conditions where the crystal growth of manganese hydroxide is suppressed, from a manganese salt aqueous solution containing manganese ions and a metal element other than manganese and lithium being Mg, wherein in the crystallization step metal-substituted trimanganese tetraoxide is crystallized under conditions which satisfy a pH of at least 6 and at most 9 and an oxidation-reduction potential of at least 0 mV and at most 300 mV, wherein the metal-containing trimanganese tetraoxide combined particles are particles in which manganese in the crystal structure of trimanganese tetraoxide is substituted by Mg, which are represented by the following formula : A x Mn 3-x O 4 wherein A is Mg, and x is at most 1 and at least 0.01, which have a tap density of at least 1.1 g/cm 3 , and wherein the coefficient of variation of the standard deviation of the particle size is at most 50%. a crystallization step of crystallizing trimanganese tetraoxide not by means of manganese hydroxide or under conditions where the crystal growth of manganese hydroxide is suppressed, from a manganese salt aqueous solution containing manganese ions and a metal element other than manganese and lithium being Mg, wherein in the crystallization step metal-substituted trimanganese tetraoxide is crystallized under conditions which satisfy a pH of at least 6 and at most 9 and an oxidation-reduction potential of at least 0 mV and at most 300 mV, wherein the metal-containing trimanganese tetraoxide combined particles are particles in which manganese in the crystal structure of trimanganese tetraoxide is substituted by Mg, which are represented by the following formula : A x Mn 3-x O 4 wherein A is Mg, and x is at most 1 and at least 0.01, which have a tap density of at least 1.1 g/cm 3 , and wherein the coefficient of variation of the standard deviation of the particle size is at most 50%.
A method for wireless communication, comprising: determining, by a terminal device, a transmission period of a first system information according to a time interval at which the first system information is successfully received on a broadcast channel from a base station, wherein the first system information indicates a frequency-domain subcarrier spacing used for transmitting a second system information; receiving, by the terminal device, the second system information according to the frequency-domain subcarrier spacing indicated by the first system information; and accessing the base station according to the second system information. determining, by a terminal device, a transmission period of a first system information according to a time interval at which the first system information is successfully received on a broadcast channel from a base station, wherein the first system information indicates a frequency-domain subcarrier spacing used for transmitting a second system information; receiving, by the terminal device, the second system information according to the frequency-domain subcarrier spacing indicated by the first system information; and accessing the base station according to the second system information.
A check valve for reception in a fluid passage , comprising a valve seat element , a valve body , and a sleeve wherein the valve body is moveable in such a manner in the sleeve , that it rests in a first position on the valve seat element and it is arranged a distance with respect to the valve seat element in a second position, wherein the valve seat element contains an opening which can be closed by the valve body in the first position, wherein a spring element is arranged between the valve body and the sleeve , wherein the spring element comprises a first end and a second end , wherein the valve body is retained by the spring element in the first position as long as the fluid pressure present in the opening is smaller than the closing force of the spring element , wherein the first end of the spring element is connected to the valve body , wherein the sleeve comprises a first jacket element which is configured to be retained in the passage , wherein the sleeve comprises a second jacket element which is configured to retain the second end of the spring element , wherein the spring element is retained in an opening of the second jacket element , characterized in that the sleeve comprises a connection element , which connects the first jacket element to the second jacket element , wherein the connection element comprises a first cylindrical portion and a second cylindrical portion and wherein the second jacket element comprises a first cylindrical portion and a second cylindrical portion , wherein the first cylindrical portion comprises a central opening for the reception of the valve body , wherein the inner diameter of the second cylindrical portion is smaller than the inner diameter of the first cylindrical portion , wherein a conical adapter is arranged between the first cylindrical portion and the second cylindrical portion , wherein the inner surface of the conical adapter is used as a support surface for the valve body , if the valve body is in the open position.
Method for operating an acoustic transmission system, comprising the following steps: i/ installing the system with at least one emitter and at least one acoustic receiver on a support, the system being an electric quadrupole whose impedance matrix, linking the emitter voltage (U 1 ) and the receiver voltage (U 2 ) to the emitter current (I 1 ) and the receiver current (I 2 ), is written using the equation: U 1 U 2 = Z 11 f Z 12 f Z 21 f Z 22 f I 1 I 2 the quadrupole being reciprocal, with Z 12 being equal to Z 21 ; characterized in that the method comprises the steps of: ii/ performing frequency scanning three times in a row, each time with an electrical load connected to the receiver Z load distinct from the previous one, so as to determine the values of Z 11 , Z 12 and Z 22 for each frequency; iii/ based on the determination of the values of Z 11 , Z 12 and Z 22 , determining a characteristic frequency (f opt ) so as to maximize the transmitted power, the receiver voltage (U 2 ) or the efficiency of the system. i/ installing the system with at least one emitter and at least one acoustic receiver on a support, the system being an electric quadrupole whose impedance matrix, linking the emitter voltage (U 1 ) and the receiver voltage (U 2 ) to the emitter current (I 1 ) and the receiver current (I 2 ), is written using the equation: U 1 U 2 = Z 11 f Z 12 f Z 21 f Z 22 f I 1 I 2 the quadrupole being reciprocal, with Z 12 being equal to Z 21 ; characterized in that the method comprises the steps of: ii/ performing frequency scanning three times in a row, each time with an electrical load connected to the receiver Z load distinct from the previous one, so as to determine the values of Z 11 , Z 12 and Z 22 for each frequency; iii/ based on the determination of the values of Z 11 , Z 12 and Z 22 , determining a characteristic frequency (f opt ) so as to maximize the transmitted power, the receiver voltage (U 2 ) or the efficiency of the system. ii/ performing frequency scanning three times in a row, each time with an electrical load connected to the receiver Z load distinct from the previous one, so as to determine the values of Z 11 , Z 12 and Z 22 for each frequency; iii/ based on the determination of the values of Z 11 , Z 12 and Z 22 , determining a characteristic frequency (f opt ) so as to maximize the transmitted power, the receiver voltage (U 2 ) or the efficiency of the system.
Electric motor comprising a rotor shaft , in particular a rotatably mounted rotor shaft , and an angle sensor , the angle sensor comprising a sensor shaft and a housing, the sensor shaft being connected to the rotor shaft for conjoint rotation by means of a coupling, the coupling comprising a first coupling part , a second coupling part and a damping part arranged between the first and the second coupling part , the first coupling part being connected to the rotor shaft for conjoint rotation and the sensor shaft being connected to the second coupling part for conjoint rotation, the first coupling part comprising an axially oriented blind-hole-like cut-out in which the damping part is received, characterised in that the first coupling part comprises an external-cone-like region and an external thread for connecting to the rotor shaft , the external thread being screwed into an internal thread of the rotor shaft , and the external-cone-like region of the first coupling part abutting an internal-cone-like region of the rotor shaft, and in that the second coupling part comprises an internal-cone-like region and an internal thread , in particular an axially oriented threaded hole, an external thread of the sensor shaft being screwed into the internal thread , and an external-cone-like region of the sensor shaft abutting the internal-cone-like region of the second coupling part . comprising a rotor shaft , in particular a rotatably mounted rotor shaft , and an angle sensor , the angle sensor comprising a sensor shaft and a housing, the sensor shaft being connected to the rotor shaft for conjoint rotation by means of a coupling, the coupling comprising a first coupling part , a second coupling part and a damping part arranged between the first and the second coupling part , the first coupling part being connected to the rotor shaft for conjoint rotation and the sensor shaft being connected to the second coupling part for conjoint rotation, the first coupling part comprising an axially oriented blind-hole-like cut-out in which the damping part is received, characterised in that the first coupling part comprises an external-cone-like region and an external thread for connecting to the rotor shaft , the external thread being screwed into an internal thread of the rotor shaft , and the external-cone-like region of the first coupling part abutting an internal-cone-like region of the rotor shaft, and in that the second coupling part comprises an internal-cone-like region and an internal thread , in particular an axially oriented threaded hole, an external thread of the sensor shaft being screwed into the internal thread , and an external-cone-like region of the sensor shaft abutting the internal-cone-like region of the second coupling part .
Disc filter for separating fibrous materials from a fibrous suspension, having a container for receiving the suspension , having a rotatably mounted hollow shaft which extends horizontally in the container and is coupled to a drive , having multiple liquid-permeable filter discs which are fastened vertically on the hollow shaft and are spaced apart axially from one another and whose interior space is connected to the hollow shaft , having at least one feed for the suspension , and having a detachment device which is assigned to each filter disc and serves for transporting into one of the material discharges arranged between the filter discs the non-woven layer which has formed on the outer side of the filter plates, wherein the quantity of the suspension supplied to the container is controlled in a manner dependent on the torque of the drive so as to ensure the formation of a non-woven layer.
An apparatus comprising: a weight system associated with an air platform , wherein the air platform is a fixed-wing vehicle having a fuselage ; and a movement mechanism associated with the air platform and configured to move the weight system during a flight of the air platform such that a center of mass of the air platform changes in a manner that causes a flight path of the air platform to change, characterized in that the weight system is connected to the fuselage by a first line at a first location and a second location, the first location being opposite and diagonal to the second location, and wherein the weight system is connected to the fuselage by a second line at a third location and a fourth location, the third location being opposite and diagonal to the fourth location; wherein the movement mechanism comprises a plurality of motors connected to the weight system, and wherein the plurality of motors are configured to turn gears to move the weight system relative to the first and second lines . a weight system associated with an air platform , wherein the air platform is a fixed-wing vehicle having a fuselage ; and a movement mechanism associated with the air platform and configured to move the weight system during a flight of the air platform such that a center of mass of the air platform changes in a manner that causes a flight path of the air platform to change, characterized in that the weight system is connected to the fuselage by a first line at a first location and a second location, the first location being opposite and diagonal to the second location, and wherein the weight system is connected to the fuselage by a second line at a third location and a fourth location, the third location being opposite and diagonal to the fourth location; wherein the movement mechanism comprises a plurality of motors connected to the weight system, and wherein the plurality of motors are configured to turn gears to move the weight system relative to the first and second lines .
Sheet collating device for accumulating sheets from at least one hopper, comprising: - a lower transport path and an upper transport path ; - a switchable guide for directing the sheets from the at least one hopper to the lower or the upper transport path; - left and right upper drive shafts connected to a right and a left upper drive pulleys supporting a pair of upper belts ; characterized in that it further comprises: - first and second lower drive shaft connected to a right and a left lower drive pulleys supporting first and second pairs of lower belts (210a, 210b; 212a, 212b); - a first series of left paddles mounted on the first pair of lower belts and a first series of right paddles mounted on the second pair of lower belts for registering a collated set of sheets; and in that a drive direction of the pair of upper belts is changed dependent on what transport path of the upper and lower transport paths is selected. - a lower transport path and an upper transport path ; - a switchable guide for directing the sheets from the at least one hopper to the lower or the upper transport path; - left and right upper drive shafts connected to a right and a left upper drive pulleys supporting a pair of upper belts ; - first and second lower drive shaft connected to a right and a left lower drive pulleys supporting first and second pairs of lower belts (210a, 210b; 212a, 212b); - a first series of left paddles mounted on the first pair of lower belts and a first series of right paddles mounted on the second pair of lower belts for registering a collated set of sheets; and in that a drive direction of the pair of upper belts is changed dependent on what transport path of the upper and lower transport paths is selected.
A method for a remote unit, the method comprising: receiving a plurality of synchronization signal blocks on a first wideband carrier, wherein each synchronization signal block of the plurality of synchronization signal blocks comprises at least one synchronization signal and a physical broadcast channel; detecting at least one synchronization signal block of the plurality of synchronization signal blocks; determining at least one synchronization signal frequency associated with the at least one detected synchronization signal block; selecting a first synchronization signal block of the at least one detected synchronization signal block and a first synchronization signal frequency of the at least one synchronization signal frequency, wherein the first synchronization signal block is associated with the first synchronization signal frequency; decoding a first physical broadcast channel of the first synchronization signal block; and determining to select a second synchronization signal block and a second synchronization signal frequency, wherein the second synchronization signal block is associated with the second synchronization block, the determining based on a physical downlink control channel configuration for remaining minimum system information indicated in the first physical broadcast channel. receiving a plurality of synchronization signal blocks on a first wideband carrier, wherein each synchronization signal block of the plurality of synchronization signal blocks comprises at least one synchronization signal and a physical broadcast channel; detecting at least one synchronization signal block of the plurality of synchronization signal blocks; determining at least one synchronization signal frequency associated with the at least one detected synchronization signal block; selecting a first synchronization signal block of the at least one detected synchronization signal block and a first synchronization signal frequency of the at least one synchronization signal frequency, wherein the first synchronization signal block is associated with the first synchronization signal frequency; decoding a first physical broadcast channel of the first synchronization signal block; and determining to select a second synchronization signal block and a second synchronization signal frequency, wherein the second synchronization signal block is associated with the second synchronization block, the determining based on a physical downlink control channel configuration for remaining minimum system information indicated in the first physical broadcast channel.
- A cutting machine to cut panels made of wood or the like, the machine comprising a cutting station ; a main pusher to move at least one first panel through the cutting station in a first direction ; a secondary pusher to move at least one second panel through the cutting station in the first direction ; a cutting assembly , which is mounted in the cutting station and is movable in a second direction and along a cutting surface (T), which are substantially perpendicular to the first direction , so as to cut the panels ; and a support frame , which defines a support surface (P) for said first and second panel and is provided with a discharge trapdoor , which is mounted downstream of the cutting surface (T) so as to discharge swarf under the support surface (P) and extends parallel to the cutting surface (T) in the second direction ; and being characterized in that the discharge trapdoor comprises at least two support plates , which are aligned with one another in the second direction and are movable independently of one another between respective closing positions, in which the support plates are coplanar to the support surface (P), and respective opening positions, in which the swarf is discharged under the support surface (P) ; wherein a first support plate faces the main pusher in the first direction and a second support plate faces the secondary pusher in the first direction ; the first support plate having a length, measured parallel to the second direction , which is greater than a length of the second support plate , which is also measured parallel to the second direction .
Shielding structure for shielding an object against heat and/or sound, wherein the shielding structure comprises a metal sheet with an inner surface (IS) facing the object and an outer surface (AS) facing away from the object, characterized in that the inner surface (IS) of the sheet metal of the shielding structure is equipped with elements which are designed to deform themselves or also the sheet metal from a soft and thus acoustically more damping structure to a rigid structure when at least one predetermined temperature (θ h ) is reached.