mhurhangee/patent-ind-claim-en huggingface dataset:
A garment care device adapted to take different angular orientations during use, the device comprising: - a sensor connected to a control unit for determining an angular orientation (A) of the device during use, - a user actuator for generating a trigger signal to said control unit for each actuation of the user actuator , - an interface for displaying at least one operating mode of a plurality of operating modes of said device , wherein the control unit is adapted to: - detect, based on the determined angular orientation (A), that the device is in a predetermined angular orientation (A1), - trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal, and - apply to said device , the latest operating mode displayed on said interface , - and characterized in that the control unit is adapted to trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal generated only when the device is in said predetermined angular orientation (A1). - a sensor connected to a control unit for determining an angular orientation (A) of the device during use, - a user actuator for generating a trigger signal to said control unit for each actuation of the user actuator , - an interface for displaying at least one operating mode of a plurality of operating modes of said device , - detect, based on the determined angular orientation (A), that the device is in a predetermined angular orientation (A1), - trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal, and - apply to said device , the latest operating mode displayed on said interface , - and characterized in that the control unit is adapted to trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal generated only when the device is in said predetermined angular orientation (A1).
A therapeutic drug, comprising a CBP/catenin inhibitor and an immune checkpoint inhibitor in combination for use in treating cancer, wherein the CBP/catenin inhibitor is one or more kinds selected from the following compounds: -N-benzyl-6-[(4-hydroxyphenyl)methyl]-8-(naphthalen-1-ylmethyl)-4,7-dioxo-3,6,9,9a-tetrahydro-2H-pyrazino[1,2-a]pyrimidine-1-carboxamide (ICG-001), 4-(( -1-(benzylcarbamoyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c] triazin-6-yl)methyl)phenyl dihydrogen phosphate, -N-benzyl-6-(4-hydroxybenzyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c] triazine-1-carboxamide, and -N-benzyl-8-((6-(3-(4-ethylpiperazin-1-yl)azetidin-1-yl)pyridin-2-yl)methyl)-6-((2-fluoro-4-hydroxyphenyl)methyl)-4,7-dioxo-2-(prop-2-en-1-yl)-octahydro-1H-pyrazino[2,1-c] triazine-1-carboxamide and the immune checkpoint inhibitor is one or more kinds selected from anti-PD-1 antibody, anti-PD-L1 antibody and anti CTLA-4 antibody.
A terminal comprising: a receiving section configured to receive a downlink control information and a downlink shared channel that is scheduled by the downlink control information; and a control section configured to determine an allocation of the downlink shared channel in a time domain based on a first timing indicated by a first time unit and a second timing indicated by a second time unit that are obtained from information notified by the downlink control information, wherein the first time unit is a slot and the second time unit is a symbol. a receiving section configured to receive a downlink control information and a downlink shared channel that is scheduled by the downlink control information; and a control section configured to determine an allocation of the downlink shared channel in a time domain based on a first timing indicated by a first time unit and a second timing indicated by a second time unit that are obtained from information notified by the downlink control information, wherein the first time unit is a slot and the second time unit is a symbol.
A flat tube assembly 1 for a heat exchanger, comprising a flat tube 10 and a fin 20 placed inside the tube 10, the flat tube 10 being formed by a sheet material and being defined by a bottom wall 11, a top wall 12 and two side walls 13, the distance between the bottom wall 11 and the top wall 12 defining the height direction H with tube height Ht, and the distance between the side walls 13 defining the width direction W, wherein at least one of the side walls 13 and a corner section 14 between the bottom wall 11 and this side wall 13 are formed by layers of the sheet material, and wherein the fin 20 is a corrugated sheet with plurality of adjacent walls joined at top and bottom bent portions 22 which are in contact with the top and bottom walls 11, 12 of the tube 10 respectively, the adjacent bent portions 22 being distanced from each other by substantially constant distance T1, wherein a terminal adjacent wall 21 of the fin 10 has a bottom side edge 23 which is distanced from the adjacent bottom bent portion 22, along the width direction W, by a distance T2 which is bigger than distance T1, and is distanced from the top wall 12, along the height direction H, by a distance Hf which is smaller than Ht, characterized in that the terminal adjacent wall 21 has a bent portion 24 so that the terminal adjacent wall 21 runs substantially in parallel to the side wall 13, in a distanced manner, between said bent portion 24 and the bottom side edge 23.
A wound therapy system comprising: a fluid canister having a canister volume; a housing including a canister receiving attachment to which the canister is releasably secured; a pump fluidly coupled to the canister and configured to draw a negative pressure within an interior of the canister; and characterized by a controller configured to: operate the pump to apply a vacuum to the interior of the canister; obtain one or more measurements representative of at least one of a flow of air exhausted from the canister interior and a pressure within the canister interior following the initiation of the operation of the pump ; estimate the canister volume based on the measurement; and prevent operation of the wound therapy system in response to estimating that the canister volume exceeds a predetermined volume corresponding to an upper limit of a quantity of fluid that may be safely evacuated from a patient. a fluid canister having a canister volume; a housing including a canister receiving attachment to which the canister is releasably secured; a pump fluidly coupled to the canister and configured to draw a negative pressure within an interior of the canister; and characterized by a controller configured to: operate the pump to apply a vacuum to the interior of the canister; obtain one or more measurements representative of at least one of a flow of air exhausted from the canister interior and a pressure within the canister interior following the initiation of the operation of the pump ; estimate the canister volume based on the measurement; and prevent operation of the wound therapy system in response to estimating that the canister volume exceeds a predetermined volume corresponding to an upper limit of a quantity of fluid that may be safely evacuated from a patient. operate the pump to apply a vacuum to the interior of the canister; obtain one or more measurements representative of at least one of a flow of air exhausted from the canister interior and a pressure within the canister interior following the initiation of the operation of the pump ; estimate the canister volume based on the measurement; and prevent operation of the wound therapy system in response to estimating that the canister volume exceeds a predetermined volume corresponding to an upper limit of a quantity of fluid that may be safely evacuated from a patient.
Process for the preparation of a glazed ceramic body, in which (a) a glazing material is applied to a non-densely sintered substrate material having a relative density in the range of from 30 to 90%, based on the true density of the substrate material, and (b) the substrate material and the glazing material are subjected to a heat treatment in a temperature range which extends from a first temperature T 1 , at which the substrate material begins to sinter, to a second temperature T 2 , which is higher than the first temperature and at which the substrate material has a relative density of at least 97%, based on the true density of the substrate material, in order to obtain the glazed body, wherein, at the temperature T 1 , the glazing material has a viscosity of more than 10 2.5 Pa.s, in particular more than 10 4.0 Pa.s, preferably more than 10 5.6 Pa·s and particularly preferably more than 10 7.0 Pa·s and, at the temperature T 2 , a viscosity of less than 10 9 Pa.s, in particular less than 10 7 Pa·s and preferably less than 10 5.6 Pa.s. (a) a glazing material is applied to a non-densely sintered substrate material having a relative density in the range of from 30 to 90%, based on the true density of the substrate material, and (b) the substrate material and the glazing material are subjected to a heat treatment in a temperature range which extends from a first temperature T 1 , at which the substrate material begins to sinter, to a second temperature T 2 , which is higher than the first temperature and at which the substrate material has a relative density of at least 97%, based on the true density of the substrate material, in order to obtain the glazed body,
A system comprising: a phantom , comprising a target comprising a first gel with a first concentration of gadolinium (Gd); a target container containing a second gel with a second concentration of Gd that is lower than the first concentration of Gd; and a water container containing water with a Gd concentration of 5x10 -6 Mol/mL - 5x10 -5 Mol/mL; wherein the target is embedded within the target container and stabilized with the second gel, and the target container is contained within the water container ; a collapsible air container operably connected to the phantom , such that inflation of the collapsible air container causes the phantom to move; an air pump in fluid communication with the collapsible air container ; and an electronic controller , wherein the electronic controller is configured to modulate an air pressure generated by the air pump which in turn modulates the position of the phantom . a phantom , comprising a target comprising a first gel with a first concentration of gadolinium (Gd); a target container containing a second gel with a second concentration of Gd that is lower than the first concentration of Gd; and a water container containing water with a Gd concentration of 5x10 -6 Mol/mL - 5x10 -5 Mol/mL; wherein the target is embedded within the target container and stabilized with the second gel, and the target container is contained within the water container ; a target comprising a first gel with a first concentration of gadolinium (Gd); a target container containing a second gel with a second concentration of Gd that is lower than the first concentration of Gd; and a water container containing water with a Gd concentration of 5x10 -6 Mol/mL - 5x10 -5 Mol/mL; wherein the target is embedded within the target container and stabilized with the second gel, and the target container is contained within the water container ; a collapsible air container operably connected to the phantom , such that inflation of the collapsible air container causes the phantom to move; an air pump in fluid communication with the collapsible air container ; and an electronic controller , wherein the electronic controller is configured to modulate an air pressure generated by the air pump which in turn modulates the position of the phantom .
A thrombectomy apparatus for breaking up thrombus or other obstructive material in a lumen of a vascular graft or vessel, the apparatus comprising a wire having a first configuration and a second deployed configuration when exposed from a sheath , the wire having a straighter configuration in the first configuration, the wire being operatively connected to a motor for rotation of the wire such that a distal region of the wire contacts and break up the thrombus or other obstructive material, and a blocking device is provided distal of the distal region of the wire, the blocking device movable between a collapsed configuration and an expanded configuration, the blocking device in the expanded configuration configured to block thrombus dislodged by rotation of the wire, characterized in that the blocking device includes a tubular portion connected to a distal end of the wire , the wire being rotatable independent of the tubular portion.
An optical receiver comprising: a first calculation unit configured to obtain a log likelihood ratio for each M-dimensional symbol in a received signal, wherein M represents a natural number; a second calculation unit configured to obtain a log likelihood ratio of an N-dimensional symbol, based on the log likelihood ratio for each M-dimensional symbol, wherein N represents a natural number and M is less than N; a soft determination error correction code decoding circuit configured to perform soft determination error correction based on the log likelihood ratio of the N-dimensional symbol; and a feedback unit configured to feedback, to the second calculation unit , an output from the soft determination error correction code decoding circuit , wherein the second calculation unit is configured to obtain a log likelihood ratio of the N-dimensional symbol, based on the log likelihood ratio of each M-dimensional symbol that is updated based on the fed-back output result, the first calculation unit is configured to calculate a log likelihood ratio for each of L M-dimensional symbols, wherein L is a quotient of N divided by M, and the second calculation unit is configured to calculate a log likelihood ratio of an N-dimensional symbol based on the log likelihood ratio for each of the L M-dimensional symbols and a log likelihood ratio of one R-dimensional symbol when N divided by M is L with a remainder R, wherein R is integer greater than or equal to one. a first calculation unit configured to obtain a log likelihood ratio for each M-dimensional symbol in a received signal, wherein M represents a natural number; a second calculation unit configured to obtain a log likelihood ratio of an N-dimensional symbol, based on the log likelihood ratio for each M-dimensional symbol, wherein N represents a natural number and M is less than N; a soft determination error correction code decoding circuit configured to perform soft determination error correction based on the log likelihood ratio of the N-dimensional symbol; and a feedback unit configured to feedback, to the second calculation unit , an output from the soft determination error correction code decoding circuit , wherein the second calculation unit is configured to obtain a log likelihood ratio of the N-dimensional symbol, based on the log likelihood ratio of each M-dimensional symbol that is updated based on the fed-back output result, the first calculation unit is configured to calculate a log likelihood ratio for each of L M-dimensional symbols, wherein L is a quotient of N divided by M, and the second calculation unit is configured to calculate a log likelihood ratio of an N-dimensional symbol based on the log likelihood ratio for each of the L M-dimensional symbols and a log likelihood ratio of one R-dimensional symbol when N divided by M is L with a remainder R, wherein R is integer greater than or equal to one.
A flexible membrane mechanism for use in a valve mechanism , the flexible membrane mechanism comprising: a lid member ; and a flexible membrane that forms a space (R 3 ) between the lid member and the flexible membrane, wherein the flexible membrane is deformable such that a valve of the valve mechanism can be opened and closed and includes a protrusion portion that forms a projection toward the lid member and a recess facing the opposite side to the projection, characterized by a fluid flow path that communicates with the space, wherein the protrusion portion and the recess are annular and surround a contact portion to form a bellows, such that the flexible membrane is deformable between (i) a first state in which the flexible membrane bends toward the lid member, and (ii) a second state in which the flexible membrane bends toward the valve mechanism. a lid member ; and a flexible membrane that forms a space (R 3 ) between the lid member and the flexible membrane, wherein the flexible membrane is deformable such that a valve of the valve mechanism can be opened and closed and includes a protrusion portion that forms a projection toward the lid member and a recess facing the opposite side to the projection, characterized by a fluid flow path that communicates with the space, wherein the protrusion portion and the recess are annular and surround a contact portion to form a bellows, such that the flexible membrane is deformable between (i) a first state in which the flexible membrane bends toward the lid member, and (ii) a second state in which the flexible membrane bends toward the valve mechanism.
A method of transmitting flight data from an aircraft to a ground station server using an airborne data processing unit comprising data tables and instruction sets, the method comprising: (a) during operation in a normal state, obtaining, analyzing, and storing flight data from the aircraft and periodically generating and transmitting a summary file containing a summary of flight data to the ground station server; and (b) in response to a pre-defined triggering event, entering a demand state and collecting as much flight data from the aircraft as possible without analysis and transmitting the collected flight data to the ground station server, at a rate greater than in the normal state; and (c) if all data collected in the demand state cannot be transmitted through a satellite network because of bandwidth limitations, then selecting of the collected data a subset that can be transmitted through the satellite network, the selected data of the subset are most representative for the purposes of post flight analysis and transmitting the subset of data to the ground station server. (a) during operation in a normal state, obtaining, analyzing, and storing flight data from the aircraft and periodically generating and transmitting a summary file containing a summary of flight data to the ground station server; and (b) in response to a pre-defined triggering event, entering a demand state and collecting as much flight data from the aircraft as possible without analysis and transmitting the collected flight data to the ground station server, at a rate greater than in the normal state; and (c) if all data collected in the demand state cannot be transmitted through a satellite network because of bandwidth limitations, then selecting of the collected data a subset that can be transmitted through the satellite network, the selected data of the subset are most representative for the purposes of post flight analysis and transmitting the subset of data to the ground station server.
A compound having a structure of formula (I), a tautomer thereof or a pharmaceutically acceptable salt thereof, wherein, L 11 is selected from absence, or C(R)(R'); each of R and R' is independently selected from H, a halogen, OH, NH 2 , CN, or, an optionally substituted 1- to 6- membered alkyl or heteroalkyl; A is selected from cyclopropyl, cyclopentyl, cyclohexyl, epoxypentyl, phenyl, pyridyl, pyrazinyl, oxazolyl, isoxazolyl, thiazolyl, or bicyclo[1.1.1]pentane, or a bicyclic group, a spiro group or a fused cyclic group consisting of any two of the above groups, each of which is optionally substituted; L 12 is selected from methylene, R 1 is selected from an optionally substituted 1- to 6- membered alkyl; the substituents in the R, R', A, and R 1 are independently selected from a halogen, OH, NH 2 , CN, or, an optionally substituted 1- to 6- membered alkyl and heteroalkyl, the number of the substituent on each group is independently selected from 1, 2 or 3; "hetero" represents N, O, S, C(=O), S(=O), or S(=O) 2 , the number of the heteroatom on each group is selected from 1, 2, 3 or 4. L 11 is selected from absence, or C(R)(R'); each of R and R' is independently selected from H, a halogen, OH, NH 2 , CN, or, an optionally substituted 1- to 6- membered alkyl or heteroalkyl; A is selected from cyclopropyl, cyclopentyl, cyclohexyl, epoxypentyl, phenyl, pyridyl, pyrazinyl, oxazolyl, isoxazolyl, thiazolyl, or bicyclo[1.1.1]pentane, or a bicyclic group, a spiro group or a fused cyclic group consisting of any two of the above groups, each of which is optionally substituted; L 12 is selected from methylene, R 1 is selected from an optionally substituted 1- to 6- membered alkyl; the substituents in the R, R', A, and R 1 are independently selected from a halogen, OH, NH 2 , CN, or, an optionally substituted 1- to 6- membered alkyl and heteroalkyl, the number of the substituent on each group is independently selected from 1, 2 or 3; "hetero" represents N, O, S, C(=O), S(=O), or S(=O) 2 , the number of the heteroatom on each group is selected from 1, 2, 3 or 4.
Method for regenerating a path between a real initial position (qA) and a desired end position (qB) in an automatic parking manoeuvre performed by a motor vehicle, the method including steps of: ∘ evaluating an error between the real initial position (qA) and a desired initial position, ∘ if the previously evaluated error is greater than or equal to a predetermined threshold value, calculating a path between the real initial position (qA) and the desired end position (qB) by determining at least one clothoid sequence (CAC), characterized in that , when calculating the path between the real initial position (qA) and the desired end position (qB): ∘ if the real initial position (qA) and the desired end position (qB) are symmetrical, a single clothoid sequence is determined. ∘ evaluating an error between the real initial position (qA) and a desired initial position, ∘ if the previously evaluated error is greater than or equal to a predetermined threshold value, calculating a path between the real initial position (qA) and the desired end position (qB) by determining at least one clothoid sequence (CAC),