mhurhangee/ep-ind-claims huggingface dataset:
A method for managing sleep states of one or more interrupt controllers of processors contained within a portable computing device comprising: defining wake-up settings for a plurality of interrupt controllers in a storage device contained within the portable computing device, wherein the storage device comprises memory elements which mirror registers contained within a power manager responsible for issuing signals to place interrupt controllers into a sleep state; generating an alert that wake-up settings in the storage device have been defined; reviewing the wake-up settings in the storage device for the plurality of interrupt controllers that correspond with a plurality of processors contained within the portable computing device; merging the wake-up settings in the storage device; and sending the merged wake-up settings to a plurality of registers within the power manager responsible for issuing signals to place interrupt controllers into a sleep state. defining wake-up settings for a plurality of interrupt controllers in a storage device contained within the portable computing device, wherein the storage device comprises memory elements which mirror registers contained within a power manager responsible for issuing signals to place interrupt controllers into a sleep state; generating an alert that wake-up settings in the storage device have been defined; reviewing the wake-up settings in the storage device for the plurality of interrupt controllers that correspond with a plurality of processors contained within the portable computing device; merging the wake-up settings in the storage device; and sending the merged wake-up settings to a plurality of registers within the power manager responsible for issuing signals to place interrupt controllers into a sleep state.
Method for determining a temperature of a cooking vessel base which is heated by means of an induction heating coil, comprising the steps of: - generating an intermediate circuit voltage at least temporarily as a function of an AC mains voltage, - generating a high-frequency drive voltage from the intermediate circuit voltage, and - applying the drive voltage to a resonant circuit (10, 11, 12) comprising the induction heating coil, characterized by the steps of: - generating the intermediate circuit voltage over predefined time periods at a constant level, - generating the drive voltage over the predefined time periods in such a way that the resonant circuit oscillates at its natural resonant frequency (1/TR) in a substantially deattenuated manner, - measuring at least one oscillation parameter of an oscillation of the resonant circuit (10, 11, 12) over the predefined time periods, and - evaluating the at least one measured oscillation parameter in order to determine the temperature. - generating an intermediate circuit voltage at least temporarily as a function of an AC mains voltage, - generating a high-frequency drive voltage from the intermediate circuit voltage, and - applying the drive voltage to a resonant circuit (10, 11, 12) comprising the induction heating coil, - generating the intermediate circuit voltage over predefined time periods at a constant level, - generating the drive voltage over the predefined time periods in such a way that the resonant circuit oscillates at its natural resonant frequency (1/TR) in a substantially deattenuated manner, - measuring at least one oscillation parameter of an oscillation of the resonant circuit (10, 11, 12) over the predefined time periods, and - evaluating the at least one measured oscillation parameter in order to determine the temperature.
Holding device for components, in particular for electronic components for the purpose of assembling component carriers with the electronic components, the holding device (120, 220b, 320) comprising a connection portion in which a hollow space is formed and which is attachable to an assembly head, a head portion which is connected to the connection portion and which comprises a suction channel which is formed along a longitudinal axis of the holding device (120, 220b, 320) and which is in fluid communication with the hollow space of the connection portion, and a contact face at the head portion, which contact face faces away from the connection portion, the contact face being operable to hold a component, wherein at an inner wall of the hollow space there is a marking which is configured to indicate the type of the holding device (120, 220b, 320).
A network node (11, 12, 50) associated with a Maintenance Entity, ME, (2, 3) which is operable in a Ethernet Connectivity and Fault Management, CFM, domain, the network node comprising: a connection comprising two or more ports, said two or more ports being configured to be connected to respective two or more physical network links as to cooperatively form a single logical link, wherein said single logical link is a Link Aggregation Group, LAG, and each of the two or more physical network links is a LAG member; and a port definer module configured to control the receiving and forwarding of CFM messages via the two or more LAG members, characterized in that a CFM message includes a LAG member field identifying a single LAG member out of the two or more LAG members, and the port definer module is further configured to forward a received CFM message, using the connection 52, via a designated LAG member identified by the LAG member field, and verify the functioning of the designated LAG member by analyzing the outcome of said CFM message forwarding and receiving. a connection comprising two or more ports, said two or more ports being configured to be connected to respective two or more physical network links as to cooperatively form a single logical link, wherein said single logical link is a Link Aggregation Group, LAG, and each of the two or more physical network links is a LAG member; and a port definer module configured to control the receiving and forwarding of CFM messages via the two or more LAG members, characterized in that a CFM message includes a LAG member field identifying a single LAG member out of the two or more LAG members, and the port definer module is further configured to forward a received CFM message, using the connection 52, via a designated LAG member identified by the LAG member field, and verify the functioning of the designated LAG member by analyzing the outcome of said CFM message forwarding and receiving.
Storage heater with at least one device for the generation of heat radiation, which is enclosed by mainly closed hollow chamber, of which the walls contain, at least in parts, a storage medium, which receives and stores the heat energy generated by the device, and which releases the stored energy over a long period of time over the walls in the form of heat radiation to the surrounding space, whereby at least of the storage mediums is formed at least in parts or sections by transparent and/or at least partially transparent and mineral rock salt blocks, which are arranged next to and on top of each other and thus form the outer wall of the storage heater, characterized in that the device is an electrically powered infrared radiator, which is controlled in its power by means of a dimmer, whereby the infrared radiator is a halogen radiator, which heat the rock salt blocks to a temperature of approximately 105°C.
A contactless power supply device, comprising: a contactless power supply section configured to supply AC power in a contactless manner; a contactless power receiving section disposed so as to face the contactless power supply section and configured to receive the AC power in a contactless manner; a first DC transformer circuit configured to transform, to a DC load voltage, a DC reception-power voltage obtained by converting an AC voltage of the AC power received by the contactless power receiving section and supply the DC load voltage to a first electric load, and to have a reverse transfer function of transferring regenerative power generated by the first electric load in a reverse direction; and a second DC transformer circuit configured to transform the DC reception-power voltage to a DC load voltage and supply the DC load voltage to a second electric load, characterised in that the contactless power supply device is configured such that regenerative power generated by the first electric load is allocated and made available to the second electric load without storing the regenerative power in a battery or charge capacitor as a power storage section. a contactless power supply section configured to supply AC power in a contactless manner; a contactless power receiving section disposed so as to face the contactless power supply section and configured to receive the AC power in a contactless manner; a first DC transformer circuit configured to transform, to a DC load voltage, a DC reception-power voltage obtained by converting an AC voltage of the AC power received by the contactless power receiving section and supply the DC load voltage to a first electric load, and to have a reverse transfer function of transferring regenerative power generated by the first electric load in a reverse direction; and a second DC transformer circuit configured to transform the DC reception-power voltage to a DC load voltage and supply the DC load voltage to a second electric load, characterised in that the contactless power supply device is configured such that regenerative power generated by the first electric load is allocated and made available to the second electric load without storing the regenerative power in a battery or charge capacitor as a power storage section.
Composition comprising a tri-block copolymer according to formula 1 B-A-B wherein A stands for a linear poly-(ethylene glycol) block and wherein B stands for a poly(lactide-co-ε-caprolactone) block, wherein the hydroxyl end-groups of the tri-block copolymer are at least partially acylated with an acyl group; a water soluble pharmaceutically active ingredient and a solvent, wherein the block ratio of the tri-block copolymer, which ratio is defined as the ratio between the sum of the number average molecular weight of the B-blocks and the number average molecular weight of the A-block ranges from 1.4 to 2.6, wherein the number average molecular weight (Mn) of the linear poly-(ethylene glycol) block is at least 1250Da and wherein the acyl group is an acetyl group, a propionyl group, a butyl group, and wherein the active ingredient has a solubility of at least 20μg/ml in water measured at 20°C and at 1 bar pressure.
An insulin agonist/incretin conjugate wherein the conjugate has agonist activity at both the insulin receptor and an incretin receptor, said conjugate comprising a glucagon related peptide; and an insulin peptide, wherein the carboxy terminus of the glucagon related peptide is covalently linked to the amino terminus of the B chain of the insulin peptide, said glucagon related peptide comprises the sequence of HAEGTFTSDVSSYLEEQAAREFIAWLVRGRG (SEQ ID NO: 700), HSQGTFTSDYSKYLDSRRAQDFVQWLMNT (SEQ ID NO: 701) or HSQGTFTSDYSKYLDERRAQDFVQWLMNT (SEQ ID NO: 699), and said insulin peptide is a single chain insulin analog comprising the sequence GPEHLCGAHLVDALYLVCGDRGFYFNDRGAGSSSRRGIVDECCHRSCDLRRLENYCN (SEQ ID NO: 145). a glucagon related peptide; and an insulin peptide, wherein the carboxy terminus of the glucagon related peptide is covalently linked to the amino terminus of the B chain of the insulin peptide,
Process for the non-electrolytic deposition of a compound, comprising the following successive steps: (a) deposition of an electrically conductive layer onto a nonconductive solid substrate, (b) deposition of a reducing agent or an oxidizing agent (redox agent) onto an area of said conductive layer, said area covering only part of the surface of said conductive layer, (c) placing a solution of a precursor of the compound to be deposited in contact both the redox agent and with at least part of the surface of the conductive layer not covered by the redox agent, said precursor being chosen from those with a redox potential higher or lower than that of the redox agent and forming, after a redox reaction, an insoluble compound in the solution of the precursor of the compound to be deposited. (a) deposition of an electrically conductive layer onto a nonconductive solid substrate, (b) deposition of a reducing agent or an oxidizing agent (redox agent) onto an area of said conductive layer, said area covering only part of the surface of said conductive layer, (c) placing a solution of a precursor of the compound to be deposited in contact both the redox agent and with at least part of the surface of the conductive layer not covered by the redox agent, said precursor being chosen from those with a redox potential higher or lower than that of the redox agent and forming, after a redox reaction, an insoluble compound in the solution of the precursor of the compound to be deposited.
A system for three-dimensional printing, comprising: a rotary tray configured to rotate about a vertical axis; a printing head, having a plurality of nozzles, and being configured to reciprocally move relative to said tray along a radial direction; and a controller configured for: (i) controlling said printing head to dispense, during said rotation, droplets of building material in layers, such as to print a three-dimensional object on said tray, and characterized by (ii) ceasing said dispensing whenever said printing head moves radially a rotary tray configured to rotate about a vertical axis; a printing head, having a plurality of nozzles, and being configured to reciprocally move relative to said tray along a radial direction; and a controller configured for: (i) controlling said printing head to dispense, during said rotation, droplets of building material in layers, such as to print a three-dimensional object on said tray, and characterized by (ii) ceasing said dispensing whenever said printing head moves radially
A method for operating an arrangement comprising a rotating drive machine, wherein a load change value (ΔP) characteristic of a change of a power output of the arrangement is provided by measuring at least one parameter and/or calculation and - the rotating drive machine is controlled and/or regulated as a function of the load change value (ΔP) and/or - a load of the rotating drive machine is changed as a function of the load change value (ΔP), such that the change of the power output of the arrangement is substantially compensated, characterised in that within the controlling or regulating as a function of the load change value (ΔP) - a regulating element for the load pressure regulation in the form of a bypass for bypassing a compressor of a turbocharger is controlled or regulated and/or - a fuel valve is closed and/or - the load of the rotating drive machine is changed by a brake resistor which is arranged downstream of an electric generator, wherein the generator is driven by the rotating drive machine. - the rotating drive machine is controlled and/or regulated as a function of the load change value (ΔP) and/or - a load of the rotating drive machine is changed as a function of the load change value (ΔP), such that the change of the power output of the arrangement is substantially compensated, characterised in that within the controlling or regulating as a function of the load change value (ΔP) - a regulating element for the load pressure regulation in the form of a bypass for bypassing a compressor of a turbocharger is controlled or regulated and/or - a fuel valve is closed and/or - the load of the rotating drive machine is changed by a brake resistor which is arranged downstream of an electric generator, wherein the generator is driven by the rotating drive machine.
A method of producing a compound represented by the formula: wherein PG is a protecting group, or a salt thereof, which comprises Step: a step of reacting a compound represented by the formula: wherein R 1 is an iodine atom or a bromine atom, with a compound represented by the formula: R 2 -MgX wherein R 2 is a C 1-6 alkyl group or a C 6-12 aryl group; and X is a chlorine atom, a bromine atom or an iodine atom, or a compound represented by the formula: R 2 R 2' -Mg wherein R 2' is a C 1-6 alkyl group or a C 6-12 aryl group; and R 2 is as defined above, and a compound represented by the formula: R 3 -Li wherein R 3 is a C 1-6 alkyl group or a C 6-12 aryl group, and then reacting the resulting compound with a compound represented by the formula: wherein PG is as defined above, or a salt thereof.
A halyard lock for maintaining tension on a halyard, comprising: the halyard lock configured to receive a ball that moves along a path through the halyard lock, the ball being operably connected to the halyard; a latch rotatably disposed in the halyard lock, the latch configured to rotate between at least an engaged position in which the latch allows movement of the ball, and a locked position in which at least a surface of the latch receives the ball and impedes the ball from further movement, such that the halyard is tensioned in the locked position; and characterized in comprising, a trigger having a first surface and a second surface arranged on different sides of the trigger, the second surface configured to contact the latch in the engaged position and the first surface configured to contact the latch and position the latch for receiving the ball in the locked position. the halyard lock configured to receive a ball that moves along a path through the halyard lock, the ball being operably connected to the halyard; a latch rotatably disposed in the halyard lock, the latch configured to rotate between at least an engaged position in which the latch allows movement of the ball, and a locked position in which at least a surface of the latch receives the ball and impedes the ball from further movement, such that the halyard is tensioned in the locked position; and characterized in comprising, a trigger having a first surface and a second surface arranged on different sides of the trigger, the second surface configured to contact the latch in the engaged position and the first surface configured to contact the latch and position the latch for receiving the ball in the locked position.
A transvaginal stimulation device, comprising: a probe body sized to fit entirely within a vaginal cavity of a female patient, the probe body having a length extending in a longitudinal direction, a width extending in a lateral direction, and a depth extending perpendicular to the length and width, the probe body having a stimulating side defined by the length and the width of the probe body, the probe body having a pair of convex regions longitudinally extending along the stimulating side of the probe body, and a concave region longitudinally extending along the stimulating side of the probe body between the pair of convex regions; and a pair of electrodes (30a, 30b) respectively disposed on peaks of the pair of convex regions of the probe body and laterally spaced from each other, such that the concave region is disposed between the pair of electrodes (30a, 30b). a probe body sized to fit entirely within a vaginal cavity of a female patient, the probe body having a length extending in a longitudinal direction, a width extending in a lateral direction, and a depth extending perpendicular to the length and width, the probe body having a stimulating side defined by the length and the width of the probe body, the probe body having a pair of convex regions longitudinally extending along the stimulating side of the probe body, and a concave region longitudinally extending along the stimulating side of the probe body between the pair of convex regions; and a pair of electrodes (30a, 30b) respectively disposed on peaks of the pair of convex regions of the probe body and laterally spaced from each other, such that the concave region is disposed between the pair of electrodes (30a, 30b).
An antigen-binding format consisting of: - a first fusion protein wherein the CH1 constant domain of an antibody is fused i) by its N-terminal end to the C-terminal end of a single domain antibody and ii) by its C-terminal end to the N-terminal end of a single domain antibody, wherein the CH1 constant domain of the first fusion protein is fused by its C-terminal end to the N-terminal end of a single domain antibody via the spacer DKT and, - a second fusion protein wherein the CL constant domain of an antibody is fused by its N-terminal end to the C-terminal end of a single domain antibody. - a first fusion protein wherein the CH1 constant domain of an antibody is fused i) by its N-terminal end to the C-terminal end of a single domain antibody and ii) by its C-terminal end to the N-terminal end of a single domain antibody, wherein the CH1 constant domain of the first fusion protein is fused by its C-terminal end to the N-terminal end of a single domain antibody via the spacer DKT and, - a second fusion protein wherein the CL constant domain of an antibody is fused by its N-terminal end to the C-terminal end of a single domain antibody.
A rotor for a turbine engine comprising: a pair of spaced rails (30, 34), said spaced rails (30, 34) extending around a cylindrical surface to define a rotor hub, and said rails (30, 34) defining a space for receiving blades and locks; and a plurality of single slots (32, 36) formed in one of said rails (30, 34), with an opposed surface on an opposed rail not being formed with a slot (32, 36), and said single slots being utilized to move at least one of said locks and said blades into said space; wherein said rotor has a hot side rail when mounted in the turbine engine, and a cold side rail, and characterised in that said single slots (32, 36) are formed in said cold side rail. a pair of spaced rails (30, 34), said spaced rails (30, 34) extending around a cylindrical surface to define a rotor hub, and said rails (30, 34) defining a space for receiving blades and locks; and a plurality of single slots (32, 36) formed in one of said rails (30, 34), with an opposed surface on an opposed rail not being formed with a slot (32, 36), and said single slots being utilized to move at least one of said locks and said blades into said space; wherein said rotor has a hot side rail when mounted in the turbine engine, and a cold side rail, and characterised in that said single slots (32, 36) are formed in said cold side rail.
An agent for use in treating a subject to reduce the risk of, or progression of cancer, said cancer being characterised by the aberrant expression of MUC1, said agent forming preventative clustering of portions of cell surface receptors that interact with an activating ligand such as a growth factor to promote cell proliferation, wherein the cell surface receptor is MUC1, and wherein the agent for preventative clustering is a monoclonal or polyclonal IgM antibody raised against GTINVHDVETQFNQYKTEAASRYNLTISDVSVSDVPFPFSAQSGA peptide.