mhurhangee/patent-ind-claim-en huggingface dataset:
An activin receptor type II inhibitor for use in a method for treatment of anemia, beta thalassemia, or for increasing red blood cell levels or orthochromatic erythroblasts (Ery-C) in a subject in need thereof, wherein the method comprises: (a) assessing the level and/or activity of GDF11 in a tissue sample of the subject, and (b) if the level and/or activity of GDF11 is elevated over the normal level and/or activity of GDF11, administering an activin receptor type II inhibitor to the subject, wherein the activin receptor type II inhibitor is a polypeptide comprising an amino acid sequence selected from the group consisting of: a 90% identical to SEQ ID NO:2; b 95% identical to SEQ ID NO:2; c 98% identical to SEQ ID NO:2; d SEQ ID NO:2; e 90% identical to SEQ ID NO:3; f 95% identical to SEQ ID NO:3; g 98% identical to SEQ ID NO:3; h SEQ ID NO:3; i 90% identical to SEQ ID NO:6; j 95% identical to SEQ ID NO:6; k 98% identical to SEQ ID NO:6; l SEQ ID NO:6; m 90% identical to SEQ ID NO:7; n 95% identical to SEQ ID NO:7; o 98% identical to SEQ ID NO:7; p SEQ ID NO:7; q 90% identical to SEQ ID NO:12; r 95% identical to SEQ ID NO:12; s 98% identical to SEQ ID NO:12; t SEQ ID NO:12; u 90% identical to SEQ ID NO:17; v 95% identical to SEQ ID NO:17; w 98% identical to SEQ ID NO:17; x SEQ ID NO:17; y 90% identical to SEQ ID NO:20; z 95% identical to SEQ ID NO:20; aa 98% identical to SEQ ID NO:20; bb SEQ ID NO:20; cc 90% identical to SEQ ID NO:21; dd 95% identical to SEQ ID NO:21; ee 98% identical to SEQ ID NO:21; ff SEQ ID NO:21 gg 90% identical to SEQ ID NO:22; hh 95% identical to SEQ ID NO:22; ii 98% identical to SEQ ID NO:22; jj SEQ ID NO:22; kk 90% identical to SEQ ID NO:23; ll 95% identical to SEQ ID NO:23; mm 98% identical to SEQ ID NO:23; nn SEQ ID NO:23; oo 90% identical to SEQ ID NO:24; pp 95% identical to SEQ ID NO:24; qq 98% identical to SEQ ID NO:24; rr SEQ ID NO:24; ss 90% identical to SEQ ID NO:25; tt 95% identical to SEQ ID NO:25; uu 98% identical to SEQ ID NO:25; and vv SEQ ID NO:25; or wherein the activin receptor type II inhibitor is a polypeptide comprising the extracellular domain of activin receptor type IIA linked to the Fc portion of an antibody; or wherein the activin receptor type II inhibitor is a polypeptide comprising the extracellular domain of activin receptor type IIB linked to the Fc portion of an antibody. (a) assessing the level and/or activity of GDF11 in a tissue sample of the subject, and (b) if the level and/or activity of GDF11 is elevated over the normal level and/or activity of GDF11, administering an activin receptor type II inhibitor to the subject,
A process for producing tyres for vehicle wheels, comprising: - transferring a first forming drum (110; 25) in an initial attitude, horizontal or vertical, respectively, to an oblique rotation member arranged at a service station (S2; S2') and having a rotation axis (R) tilted by 45° with respect to a substantially horizontal direction; - driving said first forming drum (110; 25) in rotation about said rotation axis (R) by said oblique rotation member until said first forming drum (110; 25) takes a final attitude, vertical or horizontal, respectively; - picking up said first forming drum (110; 25) in said final attitude from said oblique rotation member ; - before transferring said first forming drum (110; 25) to said oblique rotation member or after having picked up said first forming drum (110; 25) from said oblique rotation member , carrying out on said first forming drum (110; 25) at least one building activity of at least part of a first structural component (3; 8') of tyre while said first forming drum (110; 25) is in horizontal attitude. - transferring a first forming drum (110; 25) in an initial attitude, horizontal or vertical, respectively, to an oblique rotation member arranged at a service station (S2; S2') and having a rotation axis (R) tilted by 45° with respect to a substantially horizontal direction; - driving said first forming drum (110; 25) in rotation about said rotation axis (R) by said oblique rotation member until said first forming drum (110; 25) takes a final attitude, vertical or horizontal, respectively; - picking up said first forming drum (110; 25) in said final attitude from said oblique rotation member ; - before transferring said first forming drum (110; 25) to said oblique rotation member or after having picked up said first forming drum (110; 25) from said oblique rotation member , carrying out on said first forming drum (110; 25) at least one building activity of at least part of a first structural component (3; 8') of tyre while said first forming drum (110; 25) is in horizontal attitude.
A method of recovering Pt or Ag or Pt and Ag from sulfate based process solution rich in sacrificial metal comprising: a) step 1: electrodeposition of sacrificial metal on an electrode by applying an external potential or current or pulse potential or pulse current to the electrode placed in a sulfate based process solution; b) step 2: a redox replacement of sacrificial metals by a replacement metal, selected from the group of Pt or Ag or Pt and Ag, by cutting off or reducing the applied external potential or current used in step 1, wherein Pt or Ag or Pt and Ag present in the solution spontaneously replaces sacrificial metals deposited in step 1, resulting in enrichment of Pt or Ag or Pt and Ag on the electrode; c) optionally repeating steps a) and b) subsequently or by a multistep pattern; and d) recovering Pt or Ag or Pt and Ag from the electrode or using the deposition containing electrode as such. a) step 1: electrodeposition of sacrificial metal on an electrode by applying an external potential or current or pulse potential or pulse current to the electrode placed in a sulfate based process solution; b) step 2: a redox replacement of sacrificial metals by a replacement metal, selected from the group of Pt or Ag or Pt and Ag, by cutting off or reducing the applied external potential or current used in step 1, wherein Pt or Ag or Pt and Ag present in the solution spontaneously replaces sacrificial metals deposited in step 1, resulting in enrichment of Pt or Ag or Pt and Ag on the electrode; c) optionally repeating steps a) and b) subsequently or by a multistep pattern; and d) recovering Pt or Ag or Pt and Ag from the electrode or using the deposition containing electrode as such.
A mobile charging unit , particularly for one or more electric vehicles , of the type including rechargeable batteries , comprising a mobile charging vehicle , and a charging apparatus , installed on said charging vehicle , having, in turn: an energy accumulation group , equipped with accumulators for storing energy for charging said electric vehicles ; an inverter unit , connected to said accumulators , comprising a DC-AC-DC converter , for converting the direct current from said accumulators into alternating current, wherein said inverter unit is connectable to an alternating-current network and is adapted to transform the alternating current of said alternating-current network into direct current for charging said accumulators ; and an internal control system , connected to said inverter unit , adapted to control the operation of said inverter unit ; said charging apparatus is characterised in that said inverter unit further comprises a direct current bus , connected to said DC-AC-DC converter , and a DC-DC converter , from direct current into direct current, connected to said direct current bus and connectable to the rechargeable batteries of said vehicle , wherein said DC-DC converter and said DC-AC-DC converter comprise a switch respectively, each switch being connectable to said alternating-current network , and to said vehicle , and wherein said accumulators are connected to said direct current bus . an energy accumulation group , equipped with accumulators for storing energy for charging said electric vehicles ; an inverter unit , connected to said accumulators , comprising a DC-AC-DC converter , for converting the direct current from said accumulators into alternating current, wherein said inverter unit is connectable to an alternating-current network and is adapted to transform the alternating current of said alternating-current network into direct current for charging said accumulators ; and an internal control system , connected to said inverter unit , adapted to control the operation of said inverter unit ;
A server for changing a mode, the server comprising: a receiver configured to receive , from a master device , first information related to whether a mode synchronization is activated between the master device and a slave device, and second information related to a rule for supporting a changed mode at the slave device; a transmitter configured to transmit , to the slave device , the second information; wherein the receiving unit is further configured to receive , from the master device , third information related to a changed mode of the master device after receiving the second information; a controller configured to, identify the slave device to perform the mode synchronization with the master device based on the first information and generate fourth information based on the second information and the third information; and wherein the transmitter is further configured to, transmit , to the slave device , the fourth information; wherein the fourth information comprises the information related to the rule for supporting the changed mode at the slave device and the information related to the changed mode of the master device, wherein, the changed mode of the master device is at least one of a Wi-Fi mode, an airplane mode, a sleep mode, a manner mode that indicates one of a ringer mode and a silent mode, and a roaming mode, and wherein the first information and the second information are device context profile, DCP information, and the third information and the fourth information are changed DCP information. a receiver configured to receive , from a master device , first information related to whether a mode synchronization is activated between the master device and a slave device, and second information related to a rule for supporting a changed mode at the slave device; a transmitter configured to transmit , to the slave device , the second information; wherein the receiving unit is further configured to receive , from the master device , third information related to a changed mode of the master device after receiving the second information; a controller configured to, identify the slave device to perform the mode synchronization with the master device based on the first information and generate fourth information based on the second information and the third information; and wherein the transmitter is further configured to, transmit , to the slave device , the fourth information; wherein the fourth information comprises the information related to the rule for supporting the changed mode at the slave device and the information related to the changed mode of the master device, wherein, the changed mode of the master device is at least one of a Wi-Fi mode, an airplane mode, a sleep mode, a manner mode that indicates one of a ringer mode and a silent mode, and a roaming mode, and wherein the first information and the second information are device context profile, DCP information, and the third information and the fourth information are changed DCP information.
A sensor comprising: an inductive coil that generates a second sensing field about a second sensing field axis at a second frequency and that detects advancement of a locking bolt ; and characterized in comprising at least two radio frequency identifier, RFID, coils that generate a first sensing field at a first frequency that detects an RFID tag , wherein a second RFID coil of the at least two RFID coils has a second polarity reversed from a first polarity of a first RFID coil of the at least two RFID coils and reduces the first sensing field at the second sensing field axis , wherein a first sensing field axis of at least one first RFID coil of the at least two RFID coils is tilted in a lateral direction relative to the second sensing field axis , extending the first sensing field in the lateral direction. an inductive coil that generates a second sensing field about a second sensing field axis at a second frequency and that detects advancement of a locking bolt ; and characterized in comprising at least two radio frequency identifier, RFID, coils that generate a first sensing field at a first frequency that detects an RFID tag , wherein a second RFID coil of the at least two RFID coils has a second polarity reversed from a first polarity of a first RFID coil of the at least two RFID coils and reduces the first sensing field at the second sensing field axis , wherein a first sensing field axis of at least one first RFID coil of the at least two RFID coils is tilted in a lateral direction relative to the second sensing field axis , extending the first sensing field in the lateral direction.
A head for an aerosol container including a valve assembly , the valve assembly comprising a container exit and a valve body for selectively opening a passage from an interior of the aerosol container to the container exit , the head comprising: - a handle body having a base configured to be coupled to the aerosol container , and an outlet ; - a flexible tube housed within the handle body , the flexible tube being configured to provide fluid communication between the container exit and the outlet , and - an elastically deformable actuator comprising o a lever arm , and o a coupling portion integrally formed with the lever arm and configured to be mounted around the flexible tube , the container exit and a portion of the valve body , the coupling portion being further configured such that when the lever arm is deformed by a user, the coupling portion actuates on the valve body of the aerosol container . - a handle body having a base configured to be coupled to the aerosol container , and an outlet ; - a flexible tube housed within the handle body , the flexible tube being configured to provide fluid communication between the container exit and the outlet , and - an elastically deformable actuator comprising o a lever arm , and o a coupling portion integrally formed with the lever arm and configured to be mounted around the flexible tube , the container exit and a portion of the valve body , o a lever arm , and o a coupling portion integrally formed with the lever arm and configured to be mounted around the flexible tube , the container exit and a portion of the valve body ,
An additive manufacturing apparatus comprising: a stage configured to hold a component ; a radiant energy device operable to generate and project radiant energy in a patterned image; an actuator configured to change a position of the stage relative to the radiant energy device ; and a deposition assembly upstream of the stage and configured to deposit a resin (R) on a resin support , the deposition assembly comprising: a reservoir housing configured to retain a volume of the resin (R) between an upstream wall and a downstream wall ; an actuatable application device operably coupled with the reservoir housing ; and a computing system operably coupled with the actuatable application device , the computing system configured to initiate a flush operation, wherein the actuatable application device is moved from a first position to a second position during the flush operation, wherein one or more agglomerates are translated from a position upstream of the actuatable application device to a position downstream of the actuatable application device when the actuatable application device is in the second position and the resin support is translated by a drive system. a stage configured to hold a component ; a radiant energy device operable to generate and project radiant energy in a patterned image; an actuator configured to change a position of the stage relative to the radiant energy device ; and a deposition assembly upstream of the stage and configured to deposit a resin (R) on a resin support , the deposition assembly comprising: a reservoir housing configured to retain a volume of the resin (R) between an upstream wall and a downstream wall ; an actuatable application device operably coupled with the reservoir housing ; and a computing system operably coupled with the actuatable application device , the computing system configured to initiate a flush operation, wherein the actuatable application device is moved from a first position to a second position during the flush operation, wherein one or more agglomerates are translated from a position upstream of the actuatable application device to a position downstream of the actuatable application device when the actuatable application device is in the second position and the resin support is translated by a drive system. a reservoir housing configured to retain a volume of the resin (R) between an upstream wall and a downstream wall ; an actuatable application device operably coupled with the reservoir housing ; and a computing system operably coupled with the actuatable application device , the computing system configured to initiate a flush operation, wherein the actuatable application device is moved from a first position to a second position during the flush operation, wherein one or more agglomerates are translated from a position upstream of the actuatable application device to a position downstream of the actuatable application device when the actuatable application device is in the second position and the resin support is translated by a drive system.
An underwater body having - a shell , - a movable component , - an expansion means and - a hollow space, wherein the movable component is movable - relative to the shell from a retracted into an extended position and - is operatively connected to the hollow space, wherein the volume of the underwater body with the movable component in the extended position is greater compared to the volume which the underwater body comprises with the movable component in the retracted position, and wherein the expansion means is designed for the purpose of - conducting a fluid into the hollow space and, - as a result, of moving the movable component into the extended position, wherein the underwater body is designed such that - the fluid in the hollow space hardens and - the hardened fluid holds the movable component in the hollow space in the extended position;. characterized in that the hollow space is connected to the movable component via a piston cylinder unit and the hollow space is formed in a chamber of the piston cylinder unit such that the expansion means conducts the liquid fluid into the chamber as to displace a piston of the piston-cylinder unit. - a shell , - a movable component , - an expansion means and - a hollow space, wherein the movable component is movable - relative to the shell from a retracted into an extended position and - is operatively connected to the hollow space, - relative to the shell from a retracted into an extended position and - is operatively connected to the hollow space, wherein the volume of the underwater body with the movable component in the extended position is greater compared to the volume which the underwater body comprises with the movable component in the retracted position, and wherein the expansion means is designed for the purpose of - conducting a fluid into the hollow space and, - as a result, of moving the movable component into the extended position, - conducting a fluid into the hollow space and, - as a result, of moving the movable component into the extended position, wherein the underwater body is designed such that - the fluid in the hollow space hardens and - the hardened fluid holds the movable component in the hollow space in the extended position;. - the fluid in the hollow space hardens and - the hardened fluid holds the movable component in the hollow space in the extended position;. characterized in that the hollow space is connected to the movable component via a piston cylinder unit and the hollow space is formed in a chamber of the piston cylinder unit such that the expansion means conducts the liquid fluid into the chamber as to displace a piston of the piston-cylinder unit.
A method of heating an inner pipe of a set of undersea coaxial steel pipes of the PIP type comprising an inner steel pipe and an outer steel pipe coaxial to the inner pipe, an annular space between the inner and outer pipes comprising an annular thermally insulation , characterized in that the inner pipe is heated by induction using an electromagnetic induction coil surrounding the outer pipe coaxially, a current flowing through the coil having a frequency lower than 100 Hz optimized for maximum energy efficiency of Joule effect heating of the inner pipe, preferably at a frequency in the range 0.1 Hz to 10 Hz.
A method of controlling a fluid working machine , the fluid working machine comprising a rotatable shaft , at least one working chamber having a volume which varies cyclically with rotation of the rotatable shaft , a low pressure manifold and a high pressure manifold , a low pressure valve for regulating communication between the low pressure manifold and the working chamber, a high pressure valve for regulating communication between the high pressure manifold and the working chamber, the method comprising actively controlling one or more said valves in phased relationships with cycles of working chamber volume , to determine the net displacement of fluid by the working chamber on a cycle by cycle basis, wherein for a given cycle type, a control signal to cause the opening or closing of the low or high pressure valve is transmitted to the valve at a default phase of a cycle of working chamber volume and, responsive to a measurement or prediction of an event associated with a temporary acceleration of the rotatable shaft or an event associated with a temporary change in the pressure in the high pressure manifold , the corresponding control signal to cause the opening or closing of the low or high pressure valve is transmitted at an alternative phase of a cycle of working chamber volume , which alternative phase is advanced or retarded relative to the default phase to thereby avoid or reduce the risk of cycle failure which would otherwise occur.
A wire ammunition belt link comprising: a sprung wire , said sprung wire arranged to form a first receiving portion suitable for retaining a first ammunition cartridge; a second receiving portion suitable for retaining a second ammunition cartridge; a spacer between said first receiving and second receiving portions; the wire ammunition belt link further characterised in that it comprises an ammunition cartridge locator aid , said locator aid locates in an ejector groove of a received cartridge; and, the wire ammunition belt link further comprising a support surface suitable for retaining the first and/or second ammunition cartridge, wherein the support surface extends from the first and/or second receiving portion and the support surface is made from a polymer, metal, polymer composites or fabric. a first receiving portion suitable for retaining a first ammunition cartridge; a second receiving portion suitable for retaining a second ammunition cartridge; a spacer between said first receiving and second receiving portions; the wire ammunition belt link further characterised in that it comprises an ammunition cartridge locator aid , said locator aid locates in an ejector groove of a received cartridge; and, the wire ammunition belt link further comprising a support surface suitable for retaining the first and/or second ammunition cartridge, wherein the support surface extends from the first and/or second receiving portion and the support surface is made from a polymer, metal, polymer composites or fabric.