mhurhangee/ep-ind-claims huggingface dataset:
A self-emulsifying pharmaceutical composition in the liquid form, comprising a delivery system for increasing chemical stability of a water soluble active substance, a dissolution of said substance requires a delivery of <1 to 30 weight parts of water per 1 weight part of the dissolved substance, said composition contains the active substance in a quantity of 0.5-10 wt%, an oil in a quantity of 84-99 wt% and a surfactant in a quantity of 0.5-6 wt%, wherein the active substance is dispersed in a mixture of an oil and a surfactant; wherein said drug substance unstable in an aqueous environment is selected from a group consisting of antibiotics, antimicrobial drugs, vitamins, non-steroidal anti-inflammatory agents, cytostatics, peptides, proteins, nucleic acids, said surfactant forms stable emulsions and is selected from the group consisting of polysorbates, fatty acid esters with sorbitan, monoglycerides, polyoxyethylated glycerides of castor oil, poloxamers or their mixtures; said oil is selected from fatty acid esters with glycerol, fatty acids esters with aliphatic alcohols, unsaturated fatty acids and their mixtures and wherein said composition is administered orally, into the eye, on the mucosa, or parenterally.
A rechargeable battery comprising: an electrode assembly including a first electrode plate, a second electrode plate, and a separator between the first and second electrode plates; a first collector plate and a second collector plate electrically coupled to the first electrode plate and the second electrode plate, respectively; a first electrode terminal and a second electrode terminal; a case accommodating the electrode assembly and the first and second collector plates; and a cap assembly coupled to the case, wherein the cap assembly comprises a cap plate sealing the case, and wherein a first reinforcing protrusion part is provided on the cap plate, and is formed by stamping the bottom surface of the cap plate characterised in that the first reinforcing protrusion part has a plurality of steps (613a, 613b) extending from a peripheral surface portion of the cap plate in a direction away from the electrode assembly, wherein the first reinforcing protrusion part extends along a length of the cap plate and the first electrode terminal passes through one side of the first reinforcing protrusion part and the second electrode terminal passes through the other side of the first reinforcing protrusion part. an electrode assembly including a first electrode plate, a second electrode plate, and a separator between the first and second electrode plates; a first collector plate and a second collector plate electrically coupled to the first electrode plate and the second electrode plate, respectively; a first electrode terminal and a second electrode terminal; a case accommodating the electrode assembly and the first and second collector plates; and a cap assembly coupled to the case, wherein the cap assembly comprises a cap plate sealing the case, and wherein a first reinforcing protrusion part is provided on the cap plate, and is formed by stamping the bottom surface of the cap plate characterised in that the first reinforcing protrusion part has a plurality of steps (613a, 613b) extending from a peripheral surface portion of the cap plate in a direction away from the electrode assembly, wherein the first reinforcing protrusion part extends along a length of the cap plate and the first electrode terminal passes through one side of the first reinforcing protrusion part and the second electrode terminal passes through the other side of the first reinforcing protrusion part.
A method in a user equipment, UE, for wireless communications, comprising: receiving Q control signaling groups respectively in Q time windows, any of the Q control signaling groups comprising a positive integer number of control signaling(s); receiving a first control signaling, the first control signaling indicating Q1 time window(s) out of the Q time windows; and performing energy detection so as to determine whether a transmission can be performed on a first time-frequency resource; if yes, a first radio signal is transmitted in the first time-frequency resource, otherwise a transmission of the first radio signal is dropped in the first time-frequency resource; wherein any two time windows of the Q time windows are orthogonal in time domain; any control signaling comprised by the Q control signaling groups comprises a first field; for every of the Q control signaling groups, first fields comprised in all the control signalings within every signaling group are of a same value; among any Q2 adjacent control signaling groups of the Q control signaling groups, any two control signaling groups comprise first fields of different values; the first radio signal comprises first feedback information, the first feedback information is used for determining whether bit blocks transmitted in the Q1 time window(s) are correctly decoded, the Q is a positive integer greater than 1, and the Q1 and the Q2 are respectively positive integers no greater than the Q; any control signaling in any control signaling group among the Q control signaling groups is a piece of DCI, Download Control Information. receiving Q control signaling groups respectively in Q time windows, any of the Q control signaling groups comprising a positive integer number of control signaling(s); receiving a first control signaling, the first control signaling indicating Q1 time window(s) out of the Q time windows; and performing energy detection so as to determine whether a transmission can be performed on a first time-frequency resource; if yes, a first radio signal is transmitted in the first time-frequency resource, otherwise a transmission of the first radio signal is dropped in the first time-frequency resource; wherein any two time windows of the Q time windows are orthogonal in time domain; any control signaling comprised by the Q control signaling groups comprises a first field; for every of the Q control signaling groups, first fields comprised in all the control signalings within every signaling group are of a same value; among any Q2 adjacent control signaling groups of the Q control signaling groups, any two control signaling groups comprise first fields of different values; the first radio signal comprises first feedback information, the first feedback information is used for determining whether bit blocks transmitted in the Q1 time window(s) are correctly decoded, the Q is a positive integer greater than 1, and the Q1 and the Q2 are respectively positive integers no greater than the Q; any control signaling in any control signaling group among the Q control signaling groups is a piece of DCI, Download Control Information.
A thermostat device, comprising: a housing; a thermal-operating unit, wherein the thermal-operating unit is accommodated in the thermostat and is arranged to be disposed in a circulation passage that circulates a coolant between an internal combustion engine and a radiator and controls temperature of the coolant to be supplied to the internal combustion engine; the thermal-operating unit comprising: a thermo-sensitive element containing a thermal expansion body therein that expands or contracts in response to the temperature change of the coolant; a control valve opening or closing the flow passage in the housing based on the expansion or contraction of the thermal expansion body; a spring biasing so as to close the control valve; a spring receiving frame receiving one end of the spring; a locking portion formed on the spring receiving frame; and the housing further comprising a frame support, wherein the thermal-operating unit is incorporated by locking the spring receiving frame to the frame support formed in the flow passage of the housing, and wherein the rectifier is disposed at an upstream side of the coolant flow at the frame support to prevent a collision of coolant flow against the frame support and the spring receiving frame by causing the coolant flow forwarding to the frame support and the spring receiving frame to detour, characterized in that the rectifier is disposed projecting along the flow passage of the housing, the central portion of the rectifier is located on the upstream side of the flow of the coolant, and both legs thereof are located on the downstream side relative to the central portion. a housing; a thermal-operating unit, wherein the thermal-operating unit is accommodated in the thermostat and is arranged to be disposed in a circulation passage that circulates a coolant between an internal combustion engine and a radiator and controls temperature of the coolant to be supplied to the internal combustion engine; the thermal-operating unit comprising: a thermo-sensitive element containing a thermal expansion body therein that expands or contracts in response to the temperature change of the coolant; a control valve opening or closing the flow passage in the housing based on the expansion or contraction of the thermal expansion body; a spring biasing so as to close the control valve; a spring receiving frame receiving one end of the spring; a locking portion formed on the spring receiving frame; and the housing further comprising a frame support, a thermo-sensitive element containing a thermal expansion body therein that expands or contracts in response to the temperature change of the coolant; a control valve opening or closing the flow passage in the housing based on the expansion or contraction of the thermal expansion body; a spring biasing so as to close the control valve; a spring receiving frame receiving one end of the spring; a locking portion formed on the spring receiving frame; and the housing further comprising a frame support, wherein the thermal-operating unit is incorporated by locking the spring receiving frame to the frame support formed in the flow passage of the housing, and
A computer-readable medium having computer-executable instructions for causing a computer to perform steps comprising: allocating, by a transactional memory application, transaction data structures for a plurality of transactions; when detecting, by a first one of the plurality of transactions, that a contention has occurred with a second one of the plurality of transactions, following, by the first transaction, locking information by reading the locking information in a contended object to obtain a pointer to the transaction data structure associated with the second transaction, the contended object being locked and the second transaction being the transaction owning the lock of the contended object; incrementing, by the first transaction, a reference count in the data structure associated with the second transaction; following, by the first transaction, the locking information by checking the locking information in the contended object again, and determining that the reference count of the correct transaction data structure was incremented if the locking information still leads to the same transaction data structure; and if the reference count of the correct transaction data structure was incremented making, by the first transaction, a contention management decision on how to handle the conflict. allocating, by a transactional memory application, transaction data structures for a plurality of transactions; when detecting, by a first one of the plurality of transactions, that a contention has occurred with a second one of the plurality of transactions, following, by the first transaction, locking information by reading the locking information in a contended object to obtain a pointer to the transaction data structure associated with the second transaction, the contended object being locked and the second transaction being the transaction owning the lock of the contended object; incrementing, by the first transaction, a reference count in the data structure associated with the second transaction; following, by the first transaction, the locking information by checking the locking information in the contended object again, and determining that the reference count of the correct transaction data structure was incremented if the locking information still leads to the same transaction data structure; and if the reference count of the correct transaction data structure was incremented making, by the first transaction, a contention management decision on how to handle the conflict.
Vibration sensing module for mounting on a vibrating machine or structure, including a pump, comprising: a base comprising three mounting points (121, 122, 123) configured to mount the vibration sensing module to the vibrating machine or structure, wherein the three mounting points (121, 122, 123) comprise: a first mounting projection providing a first mounting point; a second mounting projection providing a second mounting point; and a third mounting projection providing a third mounting point, wherein the third mounting projection protrudes out from the base and the third mounting projection comprises a rim surrounding an opening, wherein the opening is formed through a body of the vibration sensing module and the opening is configured to receive a fastener configured to secure the vibration sensing module to the vibrating machine or structure, characterized in that the base of the vibration sensing module is rectangular in shape, and the first and second mounting projections (121, 122) are positioned in separate corners of the base along a same edge of the base, wherein the third mounting projection is positioned in a location on the base of the vibration sensing module so as to form a triangular set of mounting projections on the base of the vibration sensing module. a base comprising three mounting points (121, 122, 123) configured to mount the vibration sensing module to the vibrating machine or structure, wherein the three mounting points (121, 122, 123) comprise: a first mounting projection providing a first mounting point; a second mounting projection providing a second mounting point; and a third mounting projection providing a third mounting point, a first mounting projection providing a first mounting point; a second mounting projection providing a second mounting point; and a third mounting projection providing a third mounting point, wherein the third mounting projection protrudes out from the base and the third mounting projection comprises a rim surrounding an opening, wherein the opening is formed through a body of the vibration sensing module and the opening is configured to receive a fastener configured to secure the vibration sensing module to the vibrating machine or structure, characterized in that the base of the vibration sensing module is rectangular in shape, and the first and second mounting projections (121, 122) are positioned in separate corners of the base along a same edge of the base, wherein the third mounting projection is positioned in a location on the base of the vibration sensing module so as to form a triangular set of mounting projections on the base of the vibration sensing module.
A marker generation apparatus comprising: code acquisition means for acquiring N-bit code information (N is a natural number no less than two) for superimposing the code information on a marker defined in a plurality of areas; multiplication means for multiplying each bit value of the code information acquired by the code acquisition means by an M-sequence matrix respectively; color information calculation means for calculating color information by adding up multiplication results obtained by the multiplication means, the color information being used for performing a color arrangement for each area of the marker; and color arrangement means for performing a color arrangement for each area of the marker based on the color information calculated by the color information calculation means. code acquisition means for acquiring N-bit code information (N is a natural number no less than two) for superimposing the code information on a marker defined in a plurality of areas; multiplication means for multiplying each bit value of the code information acquired by the code acquisition means by an M-sequence matrix respectively; color information calculation means for calculating color information by adding up multiplication results obtained by the multiplication means, the color information being used for performing a color arrangement for each area of the marker; and color arrangement means for performing a color arrangement for each area of the marker based on the color information calculated by the color information calculation means.
A headphone, comprising: a housing, comprising a first layer structure, a first receiving space, a first output path, a first trench, a second layer structure, a cover structure and a sound output side; and a speaker, placed in the first receiving space, wherein the speaker comprises a first speaker orientation, and the first speaker orientation corresponds to the first output path, wherein the first output path comprises the first trench wherein the first trench is located at the first layer structure, extends around the speaker, and is connected to the sound output side, wherein the housing further comprises a second output path, the speaker further comprises a second speaker orientation, and the second speaker orientation corresponds to the second output path, wherein a crossfeed output path travels between the second layer structure and the cover structure, passing through the second layer structure and the first layer structure to the sound output side, wherein the speaker is in contact with a first inclined surface included in the first receiving space. a housing, comprising a first layer structure, a first receiving space, a first output path, a first trench, a second layer structure, a cover structure and a sound output side; and a speaker, placed in the first receiving space, wherein the speaker comprises a first speaker orientation, and the first speaker orientation corresponds to the first output path, wherein the first output path comprises the first trench wherein the first trench is located at the first layer structure, extends around the speaker, and is connected to the sound output side, wherein the housing further comprises a second output path, the speaker further comprises a second speaker orientation, and the second speaker orientation corresponds to the second output path, wherein a crossfeed output path travels between the second layer structure and the cover structure, passing through the second layer structure and the first layer structure to the sound output side, wherein the speaker is in contact with a first inclined surface included in the first receiving space.
A process for treating an H 2 S- and CO 2 -comprising hydrocarbonaceous fluid stream, in which a) the fluid stream is treated in a first absorber at a pressure of 10 to 150 bar with a first substream of a regenerated H 2 S-selective absorbent to obtain a treated fluid stream and an H 2 S-laden absorbent; b) the H 2 S-laden absorbent is heated by indirect heat exchange with regenerated H 2 S-selective absorbent; c) the heated H 2 S-laden absorbent is decompressed to a pressure of 1.2 to 10 bar in a low-pressure decompression vessel to obtain a first CO 2 -rich offgas and a partly regenerated absorbent; d) the partly regenerated absorbent is regenerated in a desorption column to obtain an H 2 S-rich offgas and regenerated absorbent; e) the H 2 S-rich offgas is fed to a Claus unit and the offgas from the Claus unit is fed to a hydrogenation unit to obtain hydrogenated Claus tail gas; f) the hydrogenated Claus tail gas and the first CO 2 -rich offgas are treated in a second absorber at a pressure of 1 to 4 bar with a second substream of the regenerated H 2 S-selective absorbent to obtain a second CO 2 -rich offgas and a second H 2 S-laden absorbent; and g) the second H 2 S-laden absorbent is guided into the first absorber. a) the fluid stream is treated in a first absorber at a pressure of 10 to 150 bar with a first substream of a regenerated H 2 S-selective absorbent to obtain a treated fluid stream and an H 2 S-laden absorbent; b) the H 2 S-laden absorbent is heated by indirect heat exchange with regenerated H 2 S-selective absorbent; c) the heated H 2 S-laden absorbent is decompressed to a pressure of 1.2 to 10 bar in a low-pressure decompression vessel to obtain a first CO 2 -rich offgas and a partly regenerated absorbent; d) the partly regenerated absorbent is regenerated in a desorption column to obtain an H 2 S-rich offgas and regenerated absorbent; e) the H 2 S-rich offgas is fed to a Claus unit and the offgas from the Claus unit is fed to a hydrogenation unit to obtain hydrogenated Claus tail gas; f) the hydrogenated Claus tail gas and the first CO 2 -rich offgas are treated in a second absorber at a pressure of 1 to 4 bar with a second substream of the regenerated H 2 S-selective absorbent to obtain a second CO 2 -rich offgas and a second H 2 S-laden absorbent; and g) the second H 2 S-laden absorbent is guided into the first absorber.
Method for controlling a motor vehicle which is equipped with driven wheels, brakes (60, 70), a means for recovering the energy generated by braking, and a torque transmission mechanism transmitting torque from the driven wheels to the energy recovery means, comprising the steps of: a) acquiring a braking instruction (Cs) and at least one dynamic characteristic of the motor vehicle, b) controlling said recovery means according to a control setpoint (Cm) calculated as a function of the braking instruction (Cs) and of the dynamic characteristic acquired in step a), and c) controlling the brakes (60, 70) according to a control setpoint (Cf) calculated as a function of the braking instruction (Cs) and of the dynamic characteristic acquired in step a), characterized in that, in step b), the control setpoint (Cm) of said recovery means is calculated by means of a preventive filter which filters said braking instruction (Cs) in such a way as to attenuate the amplitude thereof around the resonant frequency of the torque transmission mechanism. a) acquiring a braking instruction (Cs) and at least one dynamic characteristic of the motor vehicle, b) controlling said recovery means according to a control setpoint (Cm) calculated as a function of the braking instruction (Cs) and of the dynamic characteristic acquired in step a), and c) controlling the brakes (60, 70) according to a control setpoint (Cf) calculated as a function of the braking instruction (Cs) and of the dynamic characteristic acquired in step a),