mhurhangee/ep-ind-claims huggingface dataset:
A charged particle beam mass filter (100, 700), comprising: a set of electrodes for providing an electric field within the mass filter; a set of magnets for providing a magnetic flux within the mass filter, the flux being perpendicular to the electric field; a yoke (108, 708) supporting the electrodes and magnets, the yoke providing a return path for the magnetic flux; an entrance end cap (122, 722) including an entrance aperture (124, 724) for the beam to enter the mass filter, the entrance end cap terminating electric and magnetic fields at the entrance to the mass filter; and an exit end cap (126, 726) including an exit aperture (128, 728) for the beam to exit the mass filter, the exit end cap terminating electric and magnetic fields at the exit to the mass filter, the filter further comprising: a mechanically adjustable reluctance between the entrance end cap and the yoke; and a mechanically adjustable reluctance between the exit end cap and the yoke. a set of electrodes for providing an electric field within the mass filter; a set of magnets for providing a magnetic flux within the mass filter, the flux being perpendicular to the electric field; a yoke (108, 708) supporting the electrodes and magnets, the yoke providing a return path for the magnetic flux; an entrance end cap (122, 722) including an entrance aperture (124, 724) for the beam to enter the mass filter, the entrance end cap terminating electric and magnetic fields at the entrance to the mass filter; and an exit end cap (126, 726) including an exit aperture (128, 728) for the beam to exit the mass filter, the exit end cap terminating electric and magnetic fields at the exit to the mass filter, a mechanically adjustable reluctance between the entrance end cap and the yoke; and a mechanically adjustable reluctance between the exit end cap and the yoke.
A poxviral vector encoding a Brachyury polypeptide, wherein the Brachyury polypeptide comprises an amino acid sequence at least 95% identical to the amino acid sequence set forth in SEQ ID NO: 1.
An inhaler device for facilitating the inhalation of a medicament from a pierceable medicament capsule, the inhaler device comprising a body having a chamber for receiving a pierceable medicament capsule; piercing means for piercing a medicament capsule received in said chamber; an actuator (4,4') rotatably mounted to the body; and an actuating member moveable relative to the body so as to rotate said actuator (4,4'); characterised by a cam track member (5,5') from which the piercing means extend and comprising a plurality of cam track parts (200,600,200',330') along which said actuator (4,4') slides; wherein a first movement (501,601) of the actuating member relative to the body slides said actuator (4,4') along and in abutment with a first one (200,200') of said cam track parts so as to press against said cam track member (5,5') and thereby drive the piercing means towards an extended position; and wherein a second movement (502,602) of the actuating member relative to the body slides said actuator (4,4') along and in abutment with a second one (600,330') of said cam track parts so as to press against said cam track member (5,5') and thereby drive the piercing means towards a retracted position.
A method for determining a multi-point transmission resource, comprising: obtaining backhaul statuses of multiple cells participating in multi-point transmission, and determining available backhaul rates of the multiple cells according to the backhaul statuses of the multiple cells, wherein the multiple cells comprise a primary cell and at least one secondary cell, a backhaul status of the primary cell comprises a backhaul status between a gateway and the primary cell, and a backhaul status of the secondary cell comprises a backhaul status between the gateway and the secondary cell or a backhaul status between the primary cell and the secondary cell; and obtaining available access resources of the multiple cells for multi-point transmission; characterized in that the method further comprises: determining access resources of the multiple cells for multi-point transmission according to a type and a service requirement of multi-point transmission, and the available backhaul rates and the available access resources of the multiple cells for multi-point transmission. obtaining backhaul statuses of multiple cells participating in multi-point transmission, and determining available backhaul rates of the multiple cells according to the backhaul statuses of the multiple cells, wherein the multiple cells comprise a primary cell and at least one secondary cell, a backhaul status of the primary cell comprises a backhaul status between a gateway and the primary cell, and a backhaul status of the secondary cell comprises a backhaul status between the gateway and the secondary cell or a backhaul status between the primary cell and the secondary cell; and obtaining available access resources of the multiple cells for multi-point transmission; characterized in that the method further comprises: determining access resources of the multiple cells for multi-point transmission according to a type and a service requirement of multi-point transmission, and the available backhaul rates and the available access resources of the multiple cells for multi-point transmission.
A radiation imaging apparatus comprising: detection means configured for detecting emitted radiation and output radiation image data; clock control means that has an internal clock and is configured to control a timing at which the detection means is driven, based on time information of the internal clock; and communication means (103, 104, 116, 301) configured for transmitting and for receiving data through a network, wherein the communication means (103, 104, 116, 301), if a communication traffic of the radiation image data is at a threshold or less, is further configured to transmit the time information to a control apparatus that is connected through the network, and the clock control means is further configured to correct the time information of the internal clock using time information that is a reply from the control apparatus to the time information. detection means configured for detecting emitted radiation and output radiation image data; clock control means that has an internal clock and is configured to control a timing at which the detection means is driven, based on time information of the internal clock; and communication means (103, 104, 116, 301) configured for transmitting and for receiving data through a network, wherein the communication means (103, 104, 116, 301), if a communication traffic of the radiation image data is at a threshold or less, is further configured to transmit the time information to a control apparatus that is connected through the network, and the clock control means is further configured to correct the time information of the internal clock using time information that is a reply from the control apparatus to the time information.
Work stage comprising a work platform; at least one robot in the form of a wall-lining robot, which is arranged in at least one sector-like or segment-like robot work region, wherein the robot work region includes a first peripheral section of the work platform; and at least one worker work region, in which a worker can operate, wherein the worker work region is constructed in sector-like or segment-like form on the work platform and includes at least one second peripheral section of the work platform; characterised in that the work platform is constructed to be rotatable; the robot and the robot work region are arranged on the rotatable work platform; the robot work region and the worker work region are formed at the same height on the rotatable work platform; and a safety device in the form of a safety fence is arranged on the work platform for separating the robot work region from the worker work region so that the worker can remain in the worker work region during simultaneous operation of the robot in the robot work region without risk or is constructed in the form of electronic safety means, or in the form of a safety software module, for immediate switching-off of the robot in the case of approach of a worker.
A surface-emitting laser element comprising: an emission region configured to emit a laser beam; and a high reflectance region including a first dielectric film having a first refractive index and a second dielectric film having a second refractive index differing from the first refractive index, the first dielectric film and the second dielectric film being stacked within the emission region to provide a high reflectance, wherein the high reflectance region is formed in a region including a central portion of the emission region and is configured to have a dimension on a first direction in a plane in parallel with the emission region that is greater than its dimension in a second direction on the plane, the second direction being orthogonal to the first direction; characterized in that: the emission region is enclosed by an electrode and has a shape defined by the electrode; and by a current injection region in which the electrode and a contact layer are in contact with each other and having a width in the first direction that is less than its width in the second direction. an emission region configured to emit a laser beam; and a high reflectance region including a first dielectric film having a first refractive index and a second dielectric film having a second refractive index differing from the first refractive index, the first dielectric film and the second dielectric film being stacked within the emission region to provide a high reflectance, wherein the high reflectance region is formed in a region including a central portion of the emission region and is configured to have a dimension on a first direction in a plane in parallel with the emission region that is greater than its dimension in a second direction on the plane, the second direction being orthogonal to the first direction; characterized in that: the emission region is enclosed by an electrode and has a shape defined by the electrode; and by a current injection region in which the electrode and a contact layer are in contact with each other and having a width in the first direction that is less than its width in the second direction. the emission region is enclosed by an electrode and has a shape defined by the electrode; and by a current injection region in which the electrode and a contact layer are in contact with each other and having a width in the first direction that is less than its width in the second direction.
An energy conversion device for conversion of chemical energy into electricity, comprising: a first electrode; a substrate connected to said first electrode; a porous semiconductor layer disposed over said substrate, said porous semiconductor layer having a nano-engineered structure; a porous catalyst material on at least a portion of said porous semiconductor layer, wherein at least some of the porous catalyst material enters the nano-engineered structure of the porous semiconductor layer to form an intertwining region, the porous catalyst material and the porous semiconductor layer forming solid-state junctions; and a second electrode formed over part or all of said porous catalyst material, wherein electrons from the porous catalyst material are injected into the porous semiconductor layer, and wherein an electrical potential is formed between the first electrode and a second electrode during chemical reactions between a fuel, the porous catalyst material and the porous semiconductor network. a first electrode; a substrate connected to said first electrode; a porous semiconductor layer disposed over said substrate, said porous semiconductor layer having a nano-engineered structure; a porous catalyst material on at least a portion of said porous semiconductor layer, wherein at least some of the porous catalyst material enters the nano-engineered structure of the porous semiconductor layer to form an intertwining region, the porous catalyst material and the porous semiconductor layer forming solid-state junctions; and a second electrode formed over part or all of said porous catalyst material,
A portable lighting system comprising an electric power supply and a plurality of portable lights (301;901;1001;1101), each portable light (301;901;1001;1101) comprising a body (302;1005;1102), a plurality of electric light sources embedded in said body (302;1005;1102), and a first power supply cable extending from a first end of said body (302;1005;1102), in which said body (302;1005;1102) comprises a first translucent light emitting surface (305;1104), and in which said body (302;1005;1102) comprises multi-directional flexibility along a length thereof such that it is configurable into sinuous shapes, said first power supply cable comprising a connector at a first end thereof which is alternately usable for releasably electrically connecting said portable light (301,901;1001;1101) to a power supply, and for releasably electrically connecting said portable light (301;901;1001;1101) to another portable light (301;901;1001;1101) of the same construction as said portable light (301;901;1001;1101), characterized in that said system includes a connecting cable connected at one end thereof to said power supply and supporting two 24V circuits, and a plurality of sub-connecting cables connected in series with each other and to the other end of said connecting cable, each end of each sub-connecting cable having a spur connection, the spur connection at a first end of each sub-connecting cable carrying a first spur circuit and the spur connection at a second end of each sub-connecting cable carrying a second spur circuit, each of said spur circuits being made up of one or more of said portable lights (301;901;1001;1101).
Positive displacement pump comprising a pump head, in which pump head at least one pump chamber is provided, comprising a pump diaphragm associated with the at least one pump chamber and separating the pump chamber from a reciprocating drive, and comprising a reciprocating drive which has a magnetic armature which is guided movably in the longitudinal direction and acts on the flat side of the pump diaphragm remote from the pump chamber, and the magnetic armature can be caused to perform an intake stroke electromagnetically counter to a restoring force by a coil, and the coil interacts with a magnetic return path element, and the magnetic armature is guided movably through the section of a guide sleeve formed by an insulator sleeve, which guide sleeve passes through through-openings (13, 14) provided on sides (11, 12) of the magnetic return path element which are remote from one another and a section of the guide sleeve which is formed by a stator passes through the through-opening remote from the pump chamber, characterised in that a section of the guide sleeve formed by a conducting sleeve passes through the through-opening closer to the pump chamber, and in that the conducting sleeve and the stator, which are produced from magnetically conductive material, are magnetically isolated by a section of the guide sleeve which is formed by the insulator sleeve made of magnetically nonconductive material.
Drilling machine comprising a guide antenna and a rotary head, slidably coupled on said guide antenna and provided for supporting and moving a drill stem, said drilling machine comprising a safety system for controlling a dangerous area that at least partially delimits the area around said guide antenna, said safety system comprising: - at least one sensitive platform, provided with connecting and regulating means (12, 13, 14, 16, 17) for connecting said at least one sensitive platform to the drilling machine at said guide antenna, said at least one sensitive platform extending along a plane oriented so as to at least partially cover said dangerous area; and - one or more sensitive devices operatively connected to said at least one sensitive platform, configured to detect the presence of one or more operators on said at least one sensitive platform and to generate, following said detection, a corresponding control signal adapted to immediately stop at least the rotation of the drill stem, so as to preserve the safety of the operators, said drilling machine being characterised in that said at least one sensitive platform, through said connecting and regulating means (12, 13, 14, 16, 17), is kept raised at a predefined height with respect to the ground. - at least one sensitive platform, provided with connecting and regulating means (12, 13, 14, 16, 17) for connecting said at least one sensitive platform to the drilling machine at said guide antenna, said at least one sensitive platform extending along a plane oriented so as to at least partially cover said dangerous area; and - one or more sensitive devices operatively connected to said at least one sensitive platform, configured to detect the presence of one or more operators on said at least one sensitive platform and to generate, following said detection, a corresponding control signal adapted to immediately stop at least the rotation of the drill stem, so as to preserve the safety of the operators,
Method for producing TDI-based flexible polyurethane foams having a foam density of ≥ 20 kg m -3, by reacting TDI with at least one hydroxyl group-containing compound in the presence of blowing agents and optionally auxiliaries and/or additives, at an isocyanate index of ≥ 70 to ≤ 85, characterized in that the reaction is carried out - in the presence of ≥ 0.20 to ≤ 1.25 mol% of at least one cyclic anhydride of a di- and/or polycarboxylic acid, based on the amount of TDI used, or - in the presence of ≥ 0.15 to ≤ 1.25 mol% of at least one carbonyl chloride, based on the amount of TDI used. - in the presence of ≥ 0.20 to ≤ 1.25 mol% of at least one cyclic anhydride of a di- and/or polycarboxylic acid, based on the amount of TDI used, or - in the presence of ≥ 0.15 to ≤ 1.25 mol% of at least one carbonyl chloride, based on the amount of TDI used.
A method for wireless communications by a user equipment, UE, comprising: receiving, from a base station, BS, a timing advance, TA, command; rounding the TA command to a TA granularity for a timing advance group, TAG; wherein the TA granularity of the TA command is associated with an indicated subcarrier spacing, SCS, and the members of the TAG associated with different numerologies comprise one or more members associated with different SCSs; and wherein rounding the TA command to a TA granularity comprises rounding the TA command based on an SCS associated with each member of the TAG; and applying a timing adjustment when transmitting an uplink transmission to the BS based, at least in part, on the TA granularity. receiving, from a base station, BS, a timing advance, TA, command; rounding the TA command to a TA granularity for a timing advance group, TAG; wherein the TA granularity of the TA command is associated with an indicated subcarrier spacing, SCS, and the members of the TAG associated with different numerologies comprise one or more members associated with different SCSs; and wherein rounding the TA command to a TA granularity comprises rounding the TA command based on an SCS associated with each member of the TAG; and applying a timing adjustment when transmitting an uplink transmission to the BS based, at least in part, on the TA granularity.
A method of preparing a dry powder inhalation composition comprising a first and a second active ingredient in micronized form comprising the steps of: (a) mixing the first active ingredient and a portion of the second active ingredient with a first particulate excipient to provide a first preblend; (b) mixing the remaining portion of the second active ingredient with a second particulate excipient to provide a second preblend; and (c) mixing the first and the second preblends together; wherein the first particulate excipient and the second particulate excipient differ in their median particle size, such that VMD (volume median diameter) of the finer particulate excipient is less than 90 % of the VMD of the coarser particulate excipient. (a) mixing the first active ingredient and a portion of the second active ingredient with a first particulate excipient to provide a first preblend; (b) mixing the remaining portion of the second active ingredient with a second particulate excipient to provide a second preblend; and (c) mixing the first and the second preblends together;
A system to cool the air inside a nacelle of a wind turbine, comprising an upper cooling circuit, having a reservoir disposed below the nacelle, the reservoir having at least one pair of annular chambers (28, 28a, 30, 30a), and a lid that freely rotates about its axis and about the nacelle yaw axis, wherein coolant flows from a first annular chamber (28, 28a) to a second annular chamber (30, 30a) through a heat exchanger in the nacelle, thereby carrying heat from the nacelle to the second annular chamber (30, 30a) and a lower cooling circuit, characterized in that the lower cooling circuit comprises a cooling coil (48, 48a) that connects the first annular chamber (28, 28a) to the second annular chamber (30, 30a) and is exposed to an outside of the wind turbine, wherein the coolant flows from the second annular chamber to the first annular chamber through the coil (48, 48a), thereby dissipating the heat to ambient air.
A method of detecting human or humanized antibodies comprising the steps of: (a) treating a biological sample comprising a human or humanized antibody with a digestive enzyme to form a digested antibody sample, wherein the biological sample is serum, plasma, tissue, or cells from an animal that has been treated with a human or humanized antibody; and (b) analyzing the digested antibody sample by mass spectrometry to detect one or more peptides present in human antibodies and not present in animal antibodies, wherein the peptides comprise one or more sequences selected from SEQ ID NOS. 1-8: GPSVFPLAPSSK SEQ ID NO:1 STSGGTAALGCLVK SEQ ID NO:2 TPEVTCVVVDVSHEDPEVK SEQ ID NO:3 FNWYVDGVEVHNAK SEQ ID NO:4 VVSVLTVLHQDWLNGK SEQ ID NO:5 ALPAPIEK SEQ ID NO:6 GFYPSDIAVEWESNGQPENNYK SEQ ID NO:7 TTPPVLDSDGSFFLYSK SEQ ID NO:8 wherein the digestive enzyme is trypsin. (a) treating a biological sample comprising a human or humanized antibody with a digestive enzyme to form a digested antibody sample, wherein the biological sample is serum, plasma, tissue, or cells from an animal that has been treated with a human or humanized antibody; and (b) analyzing the digested antibody sample by mass spectrometry to detect one or more peptides present in human antibodies and not present in animal antibodies, wherein the peptides comprise one or more sequences selected from SEQ ID NOS. 1-8: GPSVFPLAPSSK SEQ ID NO:1 STSGGTAALGCLVK SEQ ID NO:2 TPEVTCVVVDVSHEDPEVK SEQ ID NO:3 FNWYVDGVEVHNAK SEQ ID NO:4 VVSVLTVLHQDWLNGK SEQ ID NO:5 ALPAPIEK SEQ ID NO:6 GFYPSDIAVEWESNGQPENNYK SEQ ID NO:7 TTPPVLDSDGSFFLYSK SEQ ID NO:8 wherein the digestive enzyme is trypsin.