mhurhangee/ep-ind-claims huggingface dataset:
A mutant dehalogenase having at least 85% amino acid sequence identity with SEQ ID NO: 82 comprising at least two amino acid substitutions relative to a corresponding wild-type dehalogenase having SEQ ID NO: 82, wherein the mutant dehalogenase is capable of forming a bond with a dehalogenase substrate for said mutant dehalogenase which comprises one or more functional groups, which bond is more stable than the bond formed between the corresponding wild-type dehalogenase and the substrate, wherein at least one amino acid substitution in the mutant dehalogenase is a substitution at an amino acid residue corresponding to residue 272 in the wild-type dehalogenase having SEQ ID NO: 82 or at an amino acid residue corresponding to residue 106 in the wild-type dehalogenase having SEQ ID NO: 82, and wherein a second substitution is at an amino acid residue corresponding to amino acid residue 175, 176 or 273 of a dehalogenase of SEQ ID NO: 82; wherein the functional group is selected from a group which binds a molecule of interest, a solid support or a group which binds to a solid support.
An electricity storage control device comprising: a setting unit that sets, for each time zone, a target state of charge SOC of electric energy to be stored in an electricity storage device in the time zone; and a control unit that controls at least charging or discharging of the electricity storage device based on the set target SOC for each time zone, a SOC detected from the electricity storage device, and a voltage of a supply destination of electric power from the electricity storage device, characterized in that: the setting unit sets, for a time zone having a larger power consumption amount than power consumption amounts in other time zones, a target SOC lower than target SOCs in the other time zones when setting the target SOC for each time zone. a setting unit that sets, for each time zone, a target state of charge SOC of electric energy to be stored in an electricity storage device in the time zone; and a control unit that controls at least charging or discharging of the electricity storage device based on the set target SOC for each time zone, a SOC detected from the electricity storage device, and a voltage of a supply destination of electric power from the electricity storage device, characterized in that: the setting unit sets, for a time zone having a larger power consumption amount than power consumption amounts in other time zones, a target SOC lower than target SOCs in the other time zones when setting the target SOC for each time zone.
An X-ray computed tomography apparatus comprising: an X-ray source adapted to generate X-rays; an X-ray detector adapted to detect X-rays transmitted through a subject to be examined to generate projection data; a storage unit adapted to store the projection data in association with electrocardiographic data of the subject; a setting unit adapted to set a specific cardiac phase in a cardiac cycle in accordance with an operator's instruction; an examination plan setting unit adapted to set a heart rate fluctuation range; a reconstruction unit adapted to reconstruct an image on the basis of a plurality of projection data sets acquired within a predetermined period centered on the specific cardiac phase and selected from continuous cardiac cycles; a determining unit adapted to determine a standard X-ray dose scanning period in which the subject is scanned by a high dose of X-rays; and a control unit adapted to control a tube current of the X-ray source to generate a relatively high dose of X-rays in the standard X-ray dose scanning period and generate a relatively low dose of X-rays or stop a generation of X-rays in a X-ray low dose scanning period, wherein the specific cardiac phase and a heart rate fluctuation range are converted into delay times with reference to an R wave, and the control unit is adapted to control the tube current of the X-ray source with the converted delay times; characterised in that the determination of the standard X-ray dose scanning period is based on the specific cardiac phase and the heart rate fluctuation range, so that the specific cardiac phase is included in the standard X-ray dose scanning period if a heart rate of the subject varies within the heart rate fluctuation range. an X-ray source adapted to generate X-rays; an X-ray detector adapted to detect X-rays transmitted through a subject to be examined to generate projection data; a storage unit adapted to store the projection data in association with electrocardiographic data of the subject; a setting unit adapted to set a specific cardiac phase in a cardiac cycle in accordance with an operator's instruction; an examination plan setting unit adapted to set a heart rate fluctuation range; a reconstruction unit adapted to reconstruct an image on the basis of a plurality of projection data sets acquired within a predetermined period centered on the specific cardiac phase and selected from continuous cardiac cycles; a determining unit adapted to determine a standard X-ray dose scanning period in which the subject is scanned by a high dose of X-rays; and a control unit adapted to control a tube current of the X-ray source to generate a relatively high dose of X-rays in the standard X-ray dose scanning period and generate a relatively low dose of X-rays or stop a generation of X-rays in a X-ray low dose scanning period, wherein the specific cardiac phase and a heart rate fluctuation range are converted into delay times with reference to an R wave, and the control unit is adapted to control the tube current of the X-ray source with the converted delay times;
A method for assigning, by a user equipment, UE, a power of a master cell group, MCG, and a secondary cell group, SCG, in dual connectivity in a wireless communication system, the method comprising: receiving, by the UE, a configuration for a minimum power per cell group, CG, from a network; and assigning, by the UE, the power per CG based on the received configuration, wherein each one of the MCG and the SCG is configured with multiple timing advances, TAs, and wherein the power of the MCG is assigned based on the power of SCG, except an overlapped portion of subframes within the SCG, and the power of the SCG is assigned based on the power of the MCG, except an overlapped portion of subframes within the MCG. receiving, by the UE, a configuration for a minimum power per cell group, CG, from a network; and assigning, by the UE, the power per CG based on the received configuration, wherein each one of the MCG and the SCG is configured with multiple timing advances, TAs, and
A heat transfer device (100, 300a, 300b, 400, 500a, 500b) configured to be thermally coupled to an object to be cooled, comprising: - a body; - a lid assembly positioned on the body and defining an internal volume of the body; - an internal container (108, 408) located within the body, the internal container (108, 408) including a bowl having an internal volume therein, wherein the internal volume of the bowl: - is separated from the internal volume of the body by a sealing member that is positioned over an opening formed through a sidewall of the bowl, the opening including a venturi; and - the internal volume of the bowl is a fluid-tight compartment that is configured to contain a fluid therein; and - a puncturing device positioned to rupture the sealing member, characterised by the device being configured so that thermal energy may be transferred from the object to be cooled to the fluid stored in the bowl therewith increasing pressure and/or temperature of the fluid stored in the bowl, and wherein the puncturing device is configured to rupture the sealing member when the fluid stored in the bowl reaches a predetermined pressure and/or temperature to allow fluid to flow from the internal volume of bowl into internal volume of the body. - a body; - a lid assembly positioned on the body and defining an internal volume of the body; - an internal container (108, 408) located within the body, the internal container (108, 408) including a bowl having an internal volume therein, wherein the internal volume of the bowl: - is separated from the internal volume of the body by a sealing member that is positioned over an opening formed through a sidewall of the bowl, the opening including a venturi; and - the internal volume of the bowl is a fluid-tight compartment that is configured to contain a fluid therein; and - is separated from the internal volume of the body by a sealing member that is positioned over an opening formed through a sidewall of the bowl, the opening including a venturi; and - the internal volume of the bowl is a fluid-tight compartment that is configured to contain a fluid therein; and - a puncturing device positioned to rupture the sealing member, characterised by the device being configured so that thermal energy may be transferred from the object to be cooled to the fluid stored in the bowl therewith increasing pressure and/or temperature of the fluid stored in the bowl, and wherein the puncturing device is configured to rupture the sealing member when the fluid stored in the bowl reaches a predetermined pressure and/or temperature to allow fluid to flow from the internal volume of bowl into internal volume of the body.
A computing apparatus comprising: one or more computer readable storage media; one or more processors operatively coupled with the one or more computer readable storage media; and program instructions stored on the one or more computer readable storage media that, when executed by the one or more processors, direct the computing apparatus, when in a multi-input mode, to at least: display, on a display screen of the computing apparatus, a content object in a user interface of an application; monitor for occurrences of combined modality inputs; detect an occurrence of a combined modality input (320, 323), wherein the combined modality input comprises an utterance captured via a microphone of the computing apparatus and a touch gesture sustained on the display screen of the computing apparatus, wherein the touch gesture occurs at least partially coincident with the utterance; in response to detecting the occurrence of the combined modality input, identify the content object associated with the touch gesture; and generate a combined object comprising a transcription of a captured version of the utterance and an icon for opening the content object with the content object in the application. one or more computer readable storage media; one or more processors operatively coupled with the one or more computer readable storage media; and program instructions stored on the one or more computer readable storage media that, when executed by the one or more processors, direct the computing apparatus, when in a multi-input mode, to at least: display, on a display screen of the computing apparatus, a content object in a user interface of an application; monitor for occurrences of combined modality inputs; detect an occurrence of a combined modality input (320, 323), wherein the combined modality input comprises an utterance captured via a microphone of the computing apparatus and a touch gesture sustained on the display screen of the computing apparatus, wherein the touch gesture occurs at least partially coincident with the utterance; in response to detecting the occurrence of the combined modality input, identify the content object associated with the touch gesture; and generate a combined object comprising a transcription of a captured version of the utterance and an icon for opening the content object with the content object in the application. display, on a display screen of the computing apparatus, a content object in a user interface of an application; monitor for occurrences of combined modality inputs; detect an occurrence of a combined modality input (320, 323), wherein the combined modality input comprises an utterance captured via a microphone of the computing apparatus and a touch gesture sustained on the display screen of the computing apparatus, wherein the touch gesture occurs at least partially coincident with the utterance; in response to detecting the occurrence of the combined modality input, identify the content object associated with the touch gesture; and generate a combined object comprising a transcription of a captured version of the utterance and an icon for opening the content object with the content object in the application.
Ignition circuit arrangement for igniting a gas discharge lamp, particularly a high-pressure gas discharge lamp, associated with a supply circuit for providing an alternating current supply voltage (U N) for said lamp, comprising - an ignition transformer connected on its primary side to a trigger circuit and on its secondary side to said lamp, for transmitting an ignition pulse; - an input energy source (30, 31) for said ignition trigger circuit; - a first switch means in said trigger circuit; and - a control means that controls said first switch means, characterized in that for providing for an additional electrical supply of said gas discharge lamp during the ignition process and for aiding said ignition process, there is arranged in series with the gas discharge lamp an energy storage controllable by said control means, particularly a voltage source controllable by said control means, wherein a current path for charging the energy storage is provided which shunts out said gas discharge lamp and which comprises a second switch means controlled by said control means. - an ignition transformer connected on its primary side to a trigger circuit and on its secondary side to said lamp, for transmitting an ignition pulse; - an input energy source (30, 31) for said ignition trigger circuit; - a first switch means in said trigger circuit; and - a control means that controls said first switch means,
A method for reinforcing a rotational-molded tank, the method comprising the steps of: providing the rotational-molded tank, the tank comprising a bottom, a circumference side wall and preferably a top, the circumference side wall having an outer periphery (P outer), providing a reinforcing envelope, the envelope comprising at least one open end and at least an enveloping wall, the enveloping wall having an inner periphery (P inner) corresponding substantially to the outer periphery (P outer) of the side wall of the rotational-molded tank, wrapping the reinforcing envelope around the rotational-molded tank such that the reinforcing envelope covering at least half of a height of the side wall of the rotational-molded tank, to reinforce the rotational-molded tank, wherein the rotational-molded tank is made of plastic, characterized by that Z the reinforcing envelope is made of fabric-reinforced rubber. providing the rotational-molded tank, the tank comprising a bottom, a circumference side wall and preferably a top, the circumference side wall having an outer periphery (P outer), providing a reinforcing envelope, the envelope comprising at least one open end and at least an enveloping wall, the enveloping wall having an inner periphery (P inner) corresponding substantially to the outer periphery (P outer) of the side wall of the rotational-molded tank, wrapping the reinforcing envelope around the rotational-molded tank such that the reinforcing envelope covering at least half of a height of the side wall of the rotational-molded tank, to reinforce the rotational-molded tank, wherein the rotational-molded tank is made of plastic, characterized by that Z the reinforcing envelope is made of fabric-reinforced rubber.
A crash-protected memory unit for a flight recorder, the crash-protected memory unit comprising: an electronic memory (no), configured to store data; an active casing, configured to encase the electronic memory, and comprising a heat absorption material, adapted to absorb heat by undergoing an endothermic chemical process, thereby providing an active thermal insulation of the electronic memory (no); and a passive casing, configured to encase the active casing, and comprising a heat resistant material for providing a passive thermal insulation for the electronic memory, wherein the heat absorption material comprises an inorganic hydrate, adapted to undergo, as the endothermic chemical process, a dehydration, and characterised in that the passive casing and/or the active casing comprise a plurality of openings (141, 142,...), adapted to admit a passage of gaseous water, and wherein at least one opening of the plurality of openings (141, 142,...) is filled with a sealing material, and wherein a melting or sublimation point of the sealing material is related to a dehydration temperature of the inorganic hydrate. an electronic memory (no), configured to store data; an active casing, configured to encase the electronic memory, and comprising a heat absorption material, adapted to absorb heat by undergoing an endothermic chemical process, thereby providing an active thermal insulation of the electronic memory (no); and a passive casing, configured to encase the active casing, and comprising a heat resistant material for providing a passive thermal insulation for the electronic memory, wherein the heat absorption material comprises an inorganic hydrate, adapted to undergo, as the endothermic chemical process, a dehydration, and characterised in that the passive casing and/or the active casing comprise a plurality of openings (141, 142,...), adapted to admit a passage of gaseous water, and wherein at least one opening of the plurality of openings (141, 142,...) is filled with a sealing material, and wherein a melting or sublimation point of the sealing material is related to a dehydration temperature of the inorganic hydrate.
A computer-implemented method for distributing content, the method comprising: receiving, by a computing device, from a content creator, message content that does not specify any recipients; determining, by the computing device, an authorized recipient to receive the message content based at least in part on applying one or more business rules to the message content, the business rules configured to identify one or more authorized recipients based on content contained in received messages and one or more security authorizations of the one or more authorized recipients; modifying, by the computing device, based at least in part on identity or credentials of the authorized recipient, the message content to create modified message content; and facilitating, by the computing device, delivery of the modified message content to a computing device of the authorized recipient for provision to the authorized recipient. receiving, by a computing device, from a content creator, message content that does not specify any recipients; determining, by the computing device, an authorized recipient to receive the message content based at least in part on applying one or more business rules to the message content, the business rules configured to identify one or more authorized recipients based on content contained in received messages and one or more security authorizations of the one or more authorized recipients; modifying, by the computing device, based at least in part on identity or credentials of the authorized recipient, the message content to create modified message content; and facilitating, by the computing device, delivery of the modified message content to a computing device of the authorized recipient for provision to the authorized recipient.
Sealing arrangement for sealing the transition between facade elements (1, 2) of an element facade, the sealing arrangement comprising a saddle seal for sealing the horizontal transition between the facade elements (1, 2) and a coupling seal which can be connected to the saddle seal for sealing the vertical transition between the facade elements (1, 2), wherein the coupling seal is formed with a softer outer shell and a harder core which can be inserted into an opening of the saddle seal and can be bonded to the saddle seal, the coupling seal having at its upper and lower end a projection of the core, which projects with respect to the outer shell, for engagement in the opening of the saddle seal, characterized in that the coupling seal is designed as a coextruded seal.
A method of manufacturing a thermoelectric converter, comprising the steps of; mixing first thermoelectric conversion material particles having an average particle size of 1 to 100 nm, second thermoelectric conversion material particles having an average particle size of 1 to 100 nm, and a pH controlling agent to prepare a dispersion liquid of the first thermoelectric conversion material particles and the second thermoelectric conversion material particles; and aggregating the first thermoelectric conversion material particles and the second thermoelectric conversion material particles by changing the pH of the dispersion liquid; and sintering the aggregate.
A method for producing a compound represented by Formula or a salt thereof: wherein PG represents a protecting group for a nitrogen atom, the method comprising reacting a compound represented by Formula or a salt thereof: with a compound represented by Formula or a salt thereof: wherein each symbol is as defined above, in a solvent in the presence of a palladium catalyst and a base. wherein PG represents a protecting group for a nitrogen atom, the method comprising reacting a compound represented by Formula or a salt thereof: with a compound represented by Formula or a salt thereof: wherein each symbol is as defined above,
A driving control method of tire testing machine, the tire testing machine, including: a tire driving electric motor for rotating a tire via a tire shaft; a simulated road surface driving electric motor for moving a simulated road surface; and controller for giving a rotation command to the tire driving electric motor so that a slippage ratio of the tire with respect to the movement of the simulated road surface is a preliminarily fixed value, and changing rotation speed of the tire, the method comprising: estimating longitudinal force imposed on the tire in accordance with the slippage ratio of the tire in a case where the rotation command is given; characterized in that the method comprises the step of: determining a torque limitation value for the tire driving electric motor based on an estimated longitudinal force estimate value; and applying the torque limitation value to torque limitation of the tire driving electric motor when the rotation command is given so as to change the rotation speed of the tire. a tire driving electric motor for rotating a tire via a tire shaft; a simulated road surface driving electric motor for moving a simulated road surface; and controller for giving a rotation command to the tire driving electric motor so that a slippage ratio of the tire with respect to the movement of the simulated road surface is a preliminarily fixed value, and changing rotation speed of the tire, estimating longitudinal force imposed on the tire in accordance with the slippage ratio of the tire in a case where the rotation command is given; characterized in that the method comprises the step of: determining a torque limitation value for the tire driving electric motor based on an estimated longitudinal force estimate value; and applying the torque limitation value to torque limitation of the tire driving electric motor when the rotation command is given so as to change the rotation speed of the tire.