mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for executing a Load/Store Disjoint instruction in a processor of a multi-processor system, the method comprising: obtaining a Load/Store Disjoint instruction for execution, the Load/Store Disjoint instruction comprising an opcode and specifying two disjoint operands in memory, the execution comprising: performing an LSD specified operation based on the obtained opcode, the operation comprising accessing the two disjoint operands in memory; responsive to determining whether an intervening store event from another processor of the multi-processor system may have modified one of the operands during or between the accessing the two operands in memory, setting a first indicator value comprising any one of a first condition code value or a second condition code value, the method further comprising: responsive to determining that a store event may have modified one of the two disjoint operands during or between said accessing, setting the first condition code value, said first condition code value indicating that one of the disjoint operands may have been modified during said accessing; and responsive to determining that no intervening store event has modified one of the two disjoint operands in the memory during or between said accessing, setting the second condition code value, said second condition code value indicating neither of the two disjoint operands were modified during said accessing. performing an LSD specified operation based on the obtained opcode, the operation comprising accessing the two disjoint operands in memory; responsive to determining whether an intervening store event from another processor of the multi-processor system may have modified one of the operands during or between the accessing the two operands in memory, setting a first indicator value comprising any one of a first condition code value or a second condition code value, the method further comprising: responsive to determining that a store event may have modified one of the two disjoint operands during or between said accessing, setting the first condition code value, said first condition code value indicating that one of the disjoint operands may have been modified during said accessing; and responsive to determining that no intervening store event has modified one of the two disjoint operands in the memory during or between said accessing, setting the second condition code value, said second condition code value indicating neither of the two disjoint operands were modified during said accessing. responsive to determining that a store event may have modified one of the two disjoint operands during or between said accessing, setting the first condition code value, said first condition code value indicating that one of the disjoint operands may have been modified during said accessing; and responsive to determining that no intervening store event has modified one of the two disjoint operands in the memory during or between said accessing, setting the second condition code value, said second condition code value indicating neither of the two disjoint operands were modified during said accessing.
A method, comprising: identifying, by one or more processors of a registry service, from data maintained by the registry service, a plurality of second identifiers corresponding to a plurality of accounts (112a, 112b, 112c, 112d) of a user that are logged into an application at a client computing device and that are associated with a first identifier of the client computing device or an instance of the application installed on the client computing device; performing, by the one or more processors of the registry service, one or more hash functions on each of the plurality of second identifiers to obtain a hash value for a set of accounts (112a, 112b, 112c); reducing, by the one or more processors of the registry service, each of the hash values to a predefined length to obtain a truncated hash value for each account of the set (112a, 112b, 112c), wherein the predefined length is selected so as to provide a suitably small likelihood of collisions for the truncated hash values for the set of accounts (112a, 112b, 112c), while providing a suitably high likelihood of collisions for truncated hash values for accounts of all users of the application; and generating, by the one or more processors of the registry service, a data structure comprising an entry for each account that associates the truncated hash value for that account with application data associated with the account, and which does not include any of the plurality of second identifiers. identifying, by one or more processors of a registry service, from data maintained by the registry service, a plurality of second identifiers corresponding to a plurality of accounts (112a, 112b, 112c, 112d) of a user that are logged into an application at a client computing device and that are associated with a first identifier of the client computing device or an instance of the application installed on the client computing device; performing, by the one or more processors of the registry service, one or more hash functions on each of the plurality of second identifiers to obtain a hash value for a set of accounts (112a, 112b, 112c); reducing, by the one or more processors of the registry service, each of the hash values to a predefined length to obtain a truncated hash value for each account of the set (112a, 112b, 112c), wherein the predefined length is selected so as to provide a suitably small likelihood of collisions for the truncated hash values for the set of accounts (112a, 112b, 112c), while providing a suitably high likelihood of collisions for truncated hash values for accounts of all users of the application; and generating, by the one or more processors of the registry service, a data structure comprising an entry for each account that associates the truncated hash value for that account with application data associated with the account, and which does not include any of the plurality of second identifiers.
A power supply device (100, 200, 300) configured to be disposed on an aircraft to provide a power to the aircraft, wherein the aircraft has an average required power value (Pav), and the power supply device (100, 200, 300) comprises: a secondary battery; a first transformer configured to be coupled between the secondary battery and the aircraft; a fuel cell configured to be coupled to the aircraft and adapted to provide a first output current to the aircraft; and a switch (R1, R2) coupled between the output end of the secondary battery and the output end of the fuel cell; wherein the first transformer has an output voltage set value, if the first output end voltage (Va) of the fuel cell is lower than the output voltage set value, then the first transformer is configured to provide a second output current of the secondary battery to the aircraft, and if the first output end voltage (Va) provided by the fuel cell is not lower than the output voltage set value, then the secondary battery does not provide the current to the aircraft; wherein the output voltage set value is in a voltage range with a fuel cell output power between the maximum power value (Pmax) of characteristic curve of the fuel cell and the average required power value (Pav) of the aircraft; wherein the first transformer is DC/DC converter; wherein when the first output end voltage (Va) is equivalent to or higher than a second output end voltage (Vb) at an output end of the secondary battery, the switch (R1, R2) is conductive and causes the fuel cell charges the secondary battery. a secondary battery; a first transformer configured to be coupled between the secondary battery and the aircraft; a fuel cell configured to be coupled to the aircraft and adapted to provide a first output current to the aircraft; and a switch (R1, R2) coupled between the output end of the secondary battery and the output end of the fuel cell; wherein the first transformer has an output voltage set value, if the first output end voltage (Va) of the fuel cell is lower than the output voltage set value, then the first transformer is configured to provide a second output current of the secondary battery to the aircraft, and if the first output end voltage (Va) provided by the fuel cell is not lower than the output voltage set value, then the secondary battery does not provide the current to the aircraft; wherein the output voltage set value is in a voltage range with a fuel cell output power between the maximum power value (Pmax) of characteristic curve of the fuel cell and the average required power value (Pav) of the aircraft; wherein the first transformer is DC/DC converter; wherein when the first output end voltage (Va) is equivalent to or higher than a second output end voltage (Vb) at an output end of the secondary battery, the switch (R1, R2) is conductive and causes the fuel cell charges the secondary battery.
An electric vehicle comprising: a board including first and second deck portions (116, 120) each configured to receive a left or right foot of a rider oriented generally perpendicular to a longitudinal axis of the board; a wheel assembly including a ground-contacting element disposed between and extending above the first and second deck portions; a motor assembly mounted to the board and configured to rotate the ground-contacting element around an axle to propel the electric vehicle; at least one orientation sensor configured to measure orientation information of the board; a first sensing region disposed in the first deck portion, the first sensing region including two pressure-sensing transducers (2422, 2426) spaced apart from each other, such that a first of the two pressure-sensing transducers registers with a first portion of a foot of the rider and a second of the two pressure-sensing transducers registers with a second portion of the same foot of the rider; and a motor controller configured to receive board orientation information measured by the orientation sensor and rider presence information based on outputs of the two pressure-sensing transducers, and to cause the motor assembly to propel the electric vehicle based on the board orientation information and the rider presence information; wherein the motor controller is further configured to halt the motor assembly in response to activation of exactly zero or exactly one of the two pressure-sensing transducers when a speed of the electric vehicle is below a threshold value. a board including first and second deck portions (116, 120) each configured to receive a left or right foot of a rider oriented generally perpendicular to a longitudinal axis of the board; a wheel assembly including a ground-contacting element disposed between and extending above the first and second deck portions; a motor assembly mounted to the board and configured to rotate the ground-contacting element around an axle to propel the electric vehicle; at least one orientation sensor configured to measure orientation information of the board; a first sensing region disposed in the first deck portion, the first sensing region including two pressure-sensing transducers (2422, 2426) spaced apart from each other, such that a first of the two pressure-sensing transducers registers with a first portion of a foot of the rider and a second of the two pressure-sensing transducers registers with a second portion of the same foot of the rider; and a motor controller configured to receive board orientation information measured by the orientation sensor and rider presence information based on outputs of the two pressure-sensing transducers, and to cause the motor assembly to propel the electric vehicle based on the board orientation information and the rider presence information; wherein the motor controller is further configured to halt the motor assembly in response to activation of exactly zero or exactly one of the two pressure-sensing transducers when a speed of the electric vehicle is below a threshold value.
A three-dimensional gift box comprising: a box body and a box lid; a first partition board fixed fitted to the inner edge of the box body; a circuit layer, formed in a space between the first partition board and the bottom plate of the box body; a storage layer; a foldable pop-up card having an upper part connected with an inner side of the box lid; an electronic assembly module for producing an acousto-optic effect, which is arranged in the circuit layer, characterised in that a second partition board is provided in the box body, the second partition board being detachably fitted to the inner edge of the box body, the storage layer being is formed in a space between the first partition board and the second partition board, the foldable pop-up card being is arranged between the second partition board and the inner side of the box lid, the lower part of the pop-up card is connected with the second partition board, an upper supporting board arranged between the upper part of the pop-up card and the inner side of the box lid, and a lower supporting board is arranged between the lower part of the pop-up card and the second partition board. a box body and a box lid; a first partition board fixed fitted to the inner edge of the box body; a circuit layer, formed in a space between the first partition board and the bottom plate of the box body; a storage layer; a foldable pop-up card having an upper part connected with an inner side of the box lid; an electronic assembly module for producing an acousto-optic effect, which is arranged in the circuit layer, characterised in that a second partition board is provided in the box body, the second partition board being detachably fitted to the inner edge of the box body, the storage layer being is formed in a space between the first partition board and the second partition board, the foldable pop-up card being is arranged between the second partition board and the inner side of the box lid, the lower part of the pop-up card is connected with the second partition board, an upper supporting board arranged between the upper part of the pop-up card and the inner side of the box lid, and a lower supporting board is arranged between the lower part of the pop-up card and the second partition board.
Microfluidic device configured to deliver a controlled amount of a liquid to an analysis tool, wherein the microfluidic device comprises: - a buffer tank configured to contain a liquid and/or a gas; - at least one level sensor configured to measure a liquid level in the buffer tank; - a pneumatic system configured to create selectively a positive or a negative pressure in the buffer tank; - at least one intake port to let a liquid in the buffer tank; - at least one delivery port to inject a controlled amount of liquid from the buffer tank onto the analysis tool; characterized in that the microfluidic device further comprises: - at least one drain port with a controlled drain valve, located on the lower part of the buffer tank to discharge the liquid from the buffer tank; - a first check valve located upstream of the intake port and a second check valve between the buffer tank and the analysis tool. - a buffer tank configured to contain a liquid and/or a gas; - at least one level sensor configured to measure a liquid level in the buffer tank; - a pneumatic system configured to create selectively a positive or a negative pressure in the buffer tank; - at least one intake port to let a liquid in the buffer tank; - at least one delivery port to inject a controlled amount of liquid from the buffer tank onto the analysis tool; - at least one drain port with a controlled drain valve, located on the lower part of the buffer tank to discharge the liquid from the buffer tank; - a first check valve located upstream of the intake port and a second check valve between the buffer tank and the analysis tool.
A solvent-based adhesive composition, comprising: a polyester-urethane resin; an epoxy-terminated polyester compound; a phosphoric acid; and an aliphatic isocyanate curing agent. a polyester-urethane resin; an epoxy-terminated polyester compound; a phosphoric acid; and an aliphatic isocyanate curing agent.
A reduced-pressure therapeutic brassiere for providing a support force to breast tissue, comprising: a brassiere dressing assembly having a dressing bolster for placing on a torso with at least a portion proximate the breast tissue, wherein the dressing bolster is sized and configured to be placed on at least a portion of a breast area, the dressing bolster having a first surface and a second surface, at least one breast cup (682, 684) formed as part of the dressing bolster and formed with a first pocket, the first pocket being sized and configured to receive breast tissue; and an over-drape configured to cover the dressing bolster and provide a fluid seal around the dressing bolster, when under a reduced pressure from a reduced-pressure subsystem; and a sealing apparatus is applied to the over-drape to form the fluid seal with the epidermis. a brassiere dressing assembly having a dressing bolster for placing on a torso with at least a portion proximate the breast tissue, wherein the dressing bolster is sized and configured to be placed on at least a portion of a breast area, the dressing bolster having a first surface and a second surface, at least one breast cup (682, 684) formed as part of the dressing bolster and formed with a first pocket, the first pocket being sized and configured to receive breast tissue; and an over-drape configured to cover the dressing bolster and provide a fluid seal around the dressing bolster, when under a reduced pressure from a reduced-pressure subsystem; and a sealing apparatus is applied to the over-drape to form the fluid seal with the epidermis.
A method to extract out of an aqueous solution, concentrate and/or reformulate fluorides without any evaporation step, in particular without any azeotropic evaporation step, said extraction, concentration and/or reformulation process comprising the following steps of: - providing a solid phase extraction column containing a non-ionic solid support which has been modified prior to the fluoride extraction process by causing the adsorption on the SS of a trapping agent which is a cationic species, to form a TA- species remaining adsorbed on the SS, the couple SS-TA being selected in such a way that most of the TA is able to remain on the SS during the transit of an aqueous fluoride solution through the column, and to be eluted in a polar aprotic organic solvent or in a mixture of polar aprotic organic solvents, - passing said aqueous fluoride solution through the solid phase extraction column containing the modified non-ionic solid support on which fluorides are trapped, - purging the SS with a neutral solvent or flushing the SS with a gas, to remove residual water, until the remaining water falls down lower than 20000 ppm, - eluting the fluorides in a tertiary alcohol or a polar aprotic organic solvent suitable for radiolabelling or in a mixture of tertiary alcohols or polar aprotic organic solvents suitable for radiolabelling, - optionally performing an aliphatic or aromatic labelling reaction in said tertiary alcohol or polar aprotic organic solvent or in said mixture of tertiary alcohols or polar aprotic organic solvents without any further evaporation step. - providing a solid phase extraction column containing a non-ionic solid support which has been modified prior to the fluoride extraction process by causing the adsorption on the SS of a trapping agent which is a cationic species, to form a TA- species remaining adsorbed on the SS, the couple SS-TA being selected in such a way that most of the TA is able to remain on the SS during the transit of an aqueous fluoride solution through the column, and to be eluted in a polar aprotic organic solvent or in a mixture of polar aprotic organic solvents, - passing said aqueous fluoride solution through the solid phase extraction column containing the modified non-ionic solid support on which fluorides are trapped, - purging the SS with a neutral solvent or flushing the SS with a gas, to remove residual water, until the remaining water falls down lower than 20000 ppm, - eluting the fluorides in a tertiary alcohol or a polar aprotic organic solvent suitable for radiolabelling or in a mixture of tertiary alcohols or polar aprotic organic solvents suitable for radiolabelling, - optionally performing an aliphatic or aromatic labelling reaction in said tertiary alcohol or polar aprotic organic solvent or in said mixture of tertiary alcohols or polar aprotic organic solvents without any further evaporation step.
Plant for storing energy by means of compressed air, in which: - a storage volume accommodates air at elevated pressure p H, - for energy storage, ambient air is compressed and introduced into the storage volume, - for removal from storage, compressed air is extracted from the storage volume and discharged into the environment, performing work, - a low-pressure turbomachine for alternate compression and expansion - or multiple such machines - respectively compress ambient air to a medium pressure p M and expand said ambient air from said pressure, - a high-pressure machine for alternate compression and expansion respectively compresses air from the medium pressure p M to the store pressure p H and expands said air from the latter pressure, or multiple such machines connected in parallel in terms of flow perform said task, - said at least one low-pressure turbomachine and at least one high-pressure machine are connected in series in terms of flow and are mechanically coupled to in each case one, or to one common, generator/motor - that is to say an electric machine that operates selectively as a motor and generator, characterized in that the medium pressure p M can be kept equal in each case independently of the store pressure p H during expansion and compression by the control of the at least one high-pressure machine. - a storage volume accommodates air at elevated pressure p H, - for energy storage, ambient air is compressed and introduced into the storage volume, - for removal from storage, compressed air is extracted from the storage volume and discharged into the environment, performing work, - a low-pressure turbomachine for alternate compression and expansion - or multiple such machines - respectively compress ambient air to a medium pressure p M and expand said ambient air from said pressure, - a high-pressure machine for alternate compression and expansion respectively compresses air from the medium pressure p M to the store pressure p H and expands said air from the latter pressure, or multiple such machines connected in parallel in terms of flow perform said task, - said at least one low-pressure turbomachine and at least one high-pressure machine are connected in series in terms of flow and are mechanically coupled to in each case one, or to one common, generator/motor - that is to say an electric machine that operates selectively as a motor and generator,