mhurhangee/ep-ind-claims huggingface dataset:
Use of a retinoid X receptor agonist for the preparation of a pharmaceutical composition for treating cancer, wherein the RXR agonist is for administration at a level below the retinoic acid receptor activating threshold and at or above the RXR effective dose for treating cancer, wherein the RXR agonist is 3,7-dimethyl-6 -7 methano,7-[1,1,4,4-tetramethyl-1,2,3,4-tetrahydronaphth-7-yl]2,4 heptadienoic acid or a pharmaceutically acceptable salt thereof, and wherein the RXR agonist is administered in an amount from 0.1 to 10 mg/m 2 /day.
Method for controlling locking state transitions in a terminal in accordance to one or more state transition rules, wherein said terminal comprises three locking states (202, 204, 206), the method, to be performed in the terminal, comprising the steps of: providing at least one writable memory location comprising first state information associated with a first locking state (202, 204, 206) of said terminal in which the terminal is unlocked, said at least one writable memory being configured for an irreversible transition from said first locking state to a second locking state in which the terminal is locked or from said first locking state to a third locking state in which the terminal is unlockable; receiving a request for a transition to said second locking state (202, 204, 206), said request comprising second state information associated with said second locking state, or receiving a request for a transition to said third locking state (202, 204, 206), said request comprising third state information associated with said third locking state; on the basis of said first and second state information and said state transition rules or on the basis of said first and third state information and said state transition rules, checking whether said requested transition is allowable or not; and, storing said second or third state information in said writable memory if said requested transition is allowable according to said state transition rules. providing at least one writable memory location comprising first state information associated with a first locking state (202, 204, 206) of said terminal in which the terminal is unlocked, said at least one writable memory being configured for an irreversible transition from said first locking state to a second locking state in which the terminal is locked or from said first locking state to a third locking state in which the terminal is unlockable; receiving a request for a transition to said second locking state (202, 204, 206), said request comprising second state information associated with said second locking state, or receiving a request for a transition to said third locking state (202, 204, 206), said request comprising third state information associated with said third locking state; on the basis of said first and second state information and said state transition rules or on the basis of said first and third state information and said state transition rules, checking whether said requested transition is allowable or not; and, storing said second or third state information in said writable memory if said requested transition is allowable according to said state transition rules.
A sand grain corrosion testing device, comprising a substrate and universal wheels which are arranged at the bottom of the substrate and mounted through supporting legs, wherein hydraulic devices are arranged on one side of the top of the substrate; the output ends of the hydraulic devices are connected with first guiding rods through supporting blocks correspondingly; the same sides of the top ends of the first guiding rods are provided with a collecting hopper with a sealing cover plate, wherein the collecting hopper is fixed on the first guiding rods through support blocks, and locking bolts penetrate through the support blocks; the inner side wall of the collecting hopper is provided with three sets of buffer plates downwards inclined; a scale rod is arranged at the same sides of the hydraulic devices; an impact box body is supported and mounted on the part, on one side of the scale rod, of the substrate through supporting legs; one side of the impact box body is obliquely provided with a clamp through a supporting rod; a discharging tube at the bottom of the collecting hopper extends into the impact box body and is located at the top of the clamp; a discharging outlet at the bottom of the impact box body communicates with a collecting tank; one side of the collecting tank is connected with a sand pump through a guide tube; and one side of the sand pump penetrates through the sealing cover plate through a material conveying tube and communicates with the interior of the collecting hopper.
A semiconductor apparatus comprising: a field plate stack including; a plurality of field plate insulator regions (240, 250, 260, 270); a plurality of field plate regions (245, 255, 265, 275), wherein the plurality of field plate regions are interspersed between the plurality of field plate insulator regions and an uppermost field plate region is located on a uppermost field plate insulating region on two or more field plate regions (245, 255, 265); and a field ring, wherein each of the two or more field plate regions are coupled to the field ring; a gate structure including a gate region surrounded by a gate insulator region; a source region; a drift region; a body region disposed between the gate structure, the source region, the drift region and the field ring, the field ring being of the same conductivity type as the body region, characterized in that a thickness of the field plate insulator regions (240, 250, 260, 270) and a contact area between the two or more field plate regions (245, 255, 265) and the field ring are selected so that in an Off-state each field plate region floats to a different potential depending upon its position with respect to the source and drain regions when a drain voltage is greater than a pinch-off voltage. a field plate stack including; a plurality of field plate insulator regions (240, 250, 260, 270); a plurality of field plate regions (245, 255, 265, 275), wherein the plurality of field plate regions are interspersed between the plurality of field plate insulator regions and an uppermost field plate region is located on a uppermost field plate insulating region on two or more field plate regions (245, 255, 265); and a field ring, wherein each of the two or more field plate regions are coupled to the field ring; a plurality of field plate insulator regions (240, 250, 260, 270); a plurality of field plate regions (245, 255, 265, 275), wherein the plurality of field plate regions are interspersed between the plurality of field plate insulator regions and an uppermost field plate region is located on a uppermost field plate insulating region on two or more field plate regions (245, 255, 265); and a field ring, wherein each of the two or more field plate regions are coupled to the field ring; a gate structure including a gate region surrounded by a gate insulator region; a source region; a drift region; a body region disposed between the gate structure, the source region, the drift region and the field ring, the field ring being of the same conductivity type as the body region, characterized in that a thickness of the field plate insulator regions (240, 250, 260, 270) and a contact area between the two or more field plate regions (245, 255, 265) and the field ring are selected so that in an Off-state each field plate region floats to a different potential depending upon its position with respect to the source and drain regions when a drain voltage is greater than a pinch-off voltage.
A combined-branched-ferrite element comprising: at least two branched-ferrite elements (109-1, 109-2) the branched-ferrite elements having three branches (111-1, 111-2, 161), wherein at least one of the three branches in the at least two ferrite elements is connected to a branch of another one of the at least two ferrite elements to form at least one connected-branch, wherein unconnected branches are input/output (I/O) branches (111-1,111-2), wherein the I/O branches include input/output (I/O) apertures (112-1, 112-2) in respective I/O branch planes (150-1, 150-2) that divide the respective I/O branches into resonator sections (130-1, 130-2) and return-path sections for a bias field (140-1, 140-2), and characterized in that at least one connected-aperture in the at least one connected-branch that connects two ferrite elements is in a respective connected-branch plane that separates the at least one connected-branch so that: the resonator section of the at least one connected-branch for a first-branched-ferrite element is a return-path section of the at least one connected-branch for a second-branched-ferrite element; and the resonator section of the at least one connected-branch for the second-branched-ferrite element is a return-path section of the at least one connected-branch for the first-branched-ferrite element. at least two branched-ferrite elements (109-1, 109-2) the branched-ferrite elements having three branches (111-1, 111-2, 161), wherein at least one of the three branches in the at least two ferrite elements is connected to a branch of another one of the at least two ferrite elements to form at least one connected-branch, wherein unconnected branches are input/output (I/O) branches (111-1,111-2), wherein the I/O branches include input/output (I/O) apertures (112-1, 112-2) in respective I/O branch planes (150-1, 150-2) that divide the respective I/O branches into resonator sections (130-1, 130-2) and return-path sections for a bias field (140-1, 140-2), and
A method of servicing a gas turbine engine, the method comprising: removing a first rigid raft assembly from the gas turbine engine, the rigid raft assembly incorporating at least a part of at least one component or system (210, 300) of the gas turbine engine; and installing a second, pre-prepared, rigid raft assembly onto the gas turbine engine in place of the first raft assembly, wherein the first and second rigid raft assemblies are electrical harness raft assemblies having electrical conductors embedded in a rigid material, the electrical conductors being at least a part of an electrical system arranged to transfer electrical signals around the engine; and the embedded electrical conductors are surrounded by the rigid material so as to be fixed in position by the rigid material relative to the rest of the electrical harness raft. removing a first rigid raft assembly from the gas turbine engine, the rigid raft assembly incorporating at least a part of at least one component or system (210, 300) of the gas turbine engine; and installing a second, pre-prepared, rigid raft assembly onto the gas turbine engine in place of the first raft assembly, wherein the first and second rigid raft assemblies are electrical harness raft assemblies having electrical conductors embedded in a rigid material, the electrical conductors being at least a part of an electrical system arranged to transfer electrical signals around the engine; and the embedded electrical conductors are surrounded by the rigid material so as to be fixed in position by the rigid material relative to the rest of the electrical harness raft.
Method for the adjustment of an optical measurement system, comprising: - providing an optical measurement system, which comprises, as optical elements: - a beam splitter; - a first photo sensor, exposed by a first partial beam from the beam splitter; - an optical filter; - a second photo sensor, arranged downstream of the optical filter, exposed by a second partial beam from the beam splitter, wherein the angularity and relative position between multiple of said optical elements (120, 122, 123, 124) is arranged to be adjustable; - providing a device for generating a difference signal from the signals of both photo sensors (122, 124); - providing a light source with a polarization varying over time; - irradiating the light into the beam splitter, so that both photo sensors (122, 124) are exposed by each respective partial beam (204, 206); - generating a difference signal of the output signals of the photo sensors (122, 124); - varying the position and/or angularity of at least one of the optical elements (120, 122, 123, 124), and observation of the difference signal; and - determining the combination of angularity/position of the elements (120, 122, 123, 124) which achieves a minimum difference signal. - providing an optical measurement system, which comprises, as optical elements: - a beam splitter; - a first photo sensor, exposed by a first partial beam from the beam splitter; - an optical filter; - a beam splitter; - a first photo sensor, exposed by a first partial beam from the beam splitter; - an optical filter; - a second photo sensor, arranged downstream of the optical filter, exposed by a second partial beam from the beam splitter, - providing a device for generating a difference signal from the signals of both photo sensors (122, 124); - providing a light source with a polarization varying over time; - irradiating the light into the beam splitter, so that both photo sensors (122, 124) are exposed by each respective partial beam (204, 206); - generating a difference signal of the output signals of the photo sensors (122, 124); - varying the position and/or angularity of at least one of the optical elements (120, 122, 123, 124), and observation of the difference signal; and - determining the combination of angularity/position of the elements (120, 122, 123, 124) which achieves a minimum difference signal.
A multi-epitope fusion protein comprising two to six different non-overlapping linear peptides present in the amino acid sequence of hepatitis C virus core protein wherein each of said peptides is present one to five-fold in said multi-epitope fusion protein and each of said different peptides is separated from the other said peptides by a spacer consisting of a non-HCV amino acid sequence comprising a chaperone amino acid sequence and wherein no further HCV specific amino acid sequences are present in said multi-epitope fusion protein, wherein each of said two to six linear peptides has a length of 5 to 50 amino acids, and wherein said chaperone is selected from the group consisting of SlyD, SlpA and FkpA.
A cylindrical tank for the thermal treatment of a food product, of the type comprising heating and/or cooling means of said food product, in addition to a mixer housed so as to be axially revolving in its interior, the mentioned tank consisting of a cylindrical mantle closed by a rear bottom and a front flange, there also being means (15, 16) for feeding the mentioned product inside the tank, the cylindrical tank comprising: - at least one front sensor of the temperature of the mentioned food product, said front sensor being arranged in correspondence with an area situated in the front part of the mentioned mantle, corresponding to the discharge area of the same food product from the tank - a rear temperature sensor situated in the rear part of the same tank characterized in that it comprises, in correspondence with the mentioned area of said cylindrical mantle, a radial hole suitable for receiving the mentioned front sensor and putting it in contact with the food product said front sensor being positioned on the mentioned mantle in a non-protruding position inside the same tank said front sensor being equipped with a hood made of a thermo-insulating material. - at least one front sensor of the temperature of the mentioned food product, said front sensor being arranged in correspondence with an area situated in the front part of the mentioned mantle, corresponding to the discharge area of the same food product from the tank - a rear temperature sensor situated in the rear part of the same tank
Covering assembly for a motor vehicle having a cover and a cover compartment lid (3, 4, 5) for closing a cover compartment, wherein the cover has a tensioning hoop which is pretensioned in the direction of the cover compartment lid (3, 4, 5) in the closed state of the cover, wherein a tensioning hoop seal is arranged on the cover in the region of the tensioning hoop in order to seal a gap between the cover and the cover compartment lid (3, 4, 5), and wherein a sealing surface is formed directly by the surface of the cover compartment lid (3, 4, 5), wherein the surface of the cover compartment lid (3, 4, 5) is a plastic surface, characterized in that the plastic surface has a surface texture and wherein the surface texture in the region of the sealing surface has a smaller depth, or the region of the sealing surface is formed without surface texture.
Water barrier comprising a trough-shaped foundation body having mutually spaced side walls (2, 3), the foundation body being connected to a flap via a bearing, which flap can, due to the buoyancy of the water, be pivoted from an initial state, in which the flap extends between the side walls (2, 3), into a blocking state, in which a top end extends over the foundation body, and the bearing being designed as a ridge extending between the side walls (2, 3), the bearing being spaced from a bottom end of the flap such that a two-armed lever is formed, the lever arm of which that is associated with the bottom end being shorter than the lever arm that is associated with the top end, characterized in that a ridge head of the ridge is rounded, the ridge head being mounted in a groove of the flap that has a radius and the groove being in contact with the ridge head.
An electronic device comprising at least one secure element capable of implementing at least two operating systems (107-1, 107-2), and at least one near field communication module coupled to said one secure element by a single bus and by a routing circuit (120, 121) routing data between the operating systems (107-1, 107-2), and wherein: the routing circuit is a routing table which forms part of the near field communication module; and each output of the routing circuit is coupled to a conversion circuit (131, 132) so that each operating system receives only data and commands that are directly aimed to it. the routing circuit is a routing table which forms part of the near field communication module; and each output of the routing circuit is coupled to a conversion circuit (131, 132) so that each operating system receives only data and commands that are directly aimed to it.
A device for heating a room having a modular structure also assemblable by user, comprising at least one upright member, a plurality of cross members, modules assemblable to one another for the connection of said cross members to said upright member, and a heating circuit which extends along said upright member and said cross members and through said modules, characterised in that positioned along a longitudinal cavity of said at least one upright member there is stack of said modules connected to one another in cascade fashion.
A method implemented in a wireless transmit receive unit, WTRU, for handling a radio link, RL, failure, characterized in that the method comprising: determining that a criterion for RL failure is met when operating in cell forward access channel, CELL_FACH, state; upon the determining, stopping a transmission procedure associated with an enhanced dedicated channel, E-DCH, in CELL_FACH state; waiting a predefined amount of time prior to starting a timer; and checking whether a cell reselection criterion is met while the timer is running, wherein upon determining that the cell reselection criterion is met, cell reselection is performed and the timer is stopped, and wherein upon expiry of the timer the cell reselection criterion is not met, a random access is attempted. determining that a criterion for RL failure is met when operating in cell forward access channel, CELL_FACH, state; upon the determining, stopping a transmission procedure associated with an enhanced dedicated channel, E-DCH, in CELL_FACH state; waiting a predefined amount of time prior to starting a timer; and checking whether a cell reselection criterion is met while the timer is running, wherein upon determining that the cell reselection criterion is met, cell reselection is performed and the timer is stopped, and wherein upon expiry of the timer the cell reselection criterion is not met, a random access is attempted.
A windshield washer fluid supply system, comprising: - a washer fluid reservoir for holding a washer fluid, - a washer fluid pump connected to the washer fluid reservoir and configured for pumping washer fluid from the reservoir into a first supply duct, - the first supply duct being connected to the washer fluid pump, characterised in that the system further comprises: - a first multi-channel duct comprising at least one liquid channel for conducting washer fluid and at least one air channel for conducting heated air, the liquid channel and the air channel being separate from each other but in thermal contact with each other; - a first adapter having a first input port for receiving washer fluid from the first supply duct, and having a second input port for receiving heated air from a second supply duct, and having an output port connected to said first multi-channel duct, the first adapter being configured for fluidly connecting the first input port to the at least one liquid channel for providing washer fluid to the first multi-channel duct, and being configured for fluidly connecting the second input port to the at least one air channel for providing heated air to the first multi-channel duct; the second supply duct having a downstream end connected to the second input port of the first adapter, and having an upstream end connectable to a HVAC system for receiving heated air from the HVAC system and for guiding said heated air to the first adapter. - a washer fluid reservoir for holding a washer fluid, - a washer fluid pump connected to the washer fluid reservoir and configured for pumping washer fluid from the reservoir into a first supply duct, - the first supply duct being connected to the washer fluid pump, characterised in that the system further comprises: - a first multi-channel duct comprising at least one liquid channel for conducting washer fluid and at least one air channel for conducting heated air, the liquid channel and the air channel being separate from each other but in thermal contact with each other; - a first adapter having a first input port for receiving washer fluid from the first supply duct, and having a second input port for receiving heated air from a second supply duct, and having an output port connected to said first multi-channel duct, - a first multi-channel duct comprising at least one liquid channel for conducting washer fluid and at least one air channel for conducting heated air, the liquid channel and the air channel being separate from each other but in thermal contact with each other; - a first adapter having a first input port for receiving washer fluid from the first supply duct, and having a second input port for receiving heated air from a second supply duct, and having an output port connected to said first multi-channel duct,
A device, comprising: a complementary metal-oxide semiconductor (CMOS) substrate layer; a dielectric layer deposited on the CMOS substrate layer, the dielectric layer comprising a temperature sensor and a heating element (110a-b) thermally coupled to a heat transfer layer comprising a plurality of metal layers that are electrically coupled via a set of metal interconnections; and a gas sensing layer deposited on the dielectric layer, wherein the temperature sensor, the heating element (110a-b), and the heat transfer layer are surrounded by a dielectric material of the dielectric layer. a complementary metal-oxide semiconductor (CMOS) substrate layer; a dielectric layer deposited on the CMOS substrate layer, the dielectric layer comprising a temperature sensor and a heating element (110a-b) thermally coupled to a heat transfer layer comprising a plurality of metal layers that are electrically coupled via a set of metal interconnections; and a gas sensing layer deposited on the dielectric layer, wherein the temperature sensor, the heating element (110a-b), and the heat transfer layer are surrounded by a dielectric material of the dielectric layer.