mhurhangee/ep-ind-claims huggingface dataset:
An orthopaedic surgical instrument system for use during a surgical procedure to implant an orthopaedic knee prosthesis, comprising: a tibial base trial component adapted to be positioned on a surgically-prepared proximal end of a patient's tibia, the tibial base trial component having an opening defined therein; an insert component shaped to be received in the opening defined in the tibial base trial component, the insert component having a base plate and a central post extending upwardly from a superior surface of the base plate; and a tibial bearing trial component having an opening defined therein, the central post of the insert component being configured to be received in the opening of the tibial bearing trial assembly, characterised in that a superior surface of the central post has a ramp surface (102, 116, 124) defined therein, wherein the ramp surface inclines superiorly in the anterior-to-posterior direction. a tibial base trial component adapted to be positioned on a surgically-prepared proximal end of a patient's tibia, the tibial base trial component having an opening defined therein; an insert component shaped to be received in the opening defined in the tibial base trial component, the insert component having a base plate and a central post extending upwardly from a superior surface of the base plate; and a tibial bearing trial component having an opening defined therein, the central post of the insert component being configured to be received in the opening of the tibial bearing trial assembly, characterised in that a superior surface of the central post has a ramp surface (102, 116, 124) defined therein, wherein the ramp surface inclines superiorly in the anterior-to-posterior direction.
An engine starting system of a vehicle configured to switch between EV traveling and HV traveling, the engine starting system comprising: an engine starting unit configured to start an engine based on determining whether a starting operation has been performed by a driver of the vehicle during the EV traveling; a positioning unit configured to detect vehicle position information; and a starting operation switching unit configured to determine whether the vehicle has entered the inside of a geo-fence area based on the vehicle position information, and switch the starting operation to a first starting operation while the vehicle is traveling in an outside area of the geo-fence area and to switch the starting operation to a second starting operation different from the first starting operation while the vehicle is traveling in an inside area of the geo-fence area, wherein while the vehicle is performing the EV traveling in the inside area of the geo-fence area, the engine starting unit is configured to not start the engine when the first starting operation is performed by the driver and to start the engine when the second starting operation is performed by the driver. an engine starting unit configured to start an engine based on determining whether a starting operation has been performed by a driver of the vehicle during the EV traveling; a positioning unit configured to detect vehicle position information; and a starting operation switching unit configured to determine whether the vehicle has entered the inside of a geo-fence area based on the vehicle position information, and switch the starting operation to a first starting operation while the vehicle is traveling in an outside area of the geo-fence area and to switch the starting operation to a second starting operation different from the first starting operation while the vehicle is traveling in an inside area of the geo-fence area, wherein while the vehicle is performing the EV traveling in the inside area of the geo-fence area, the engine starting unit is configured to not start the engine when the first starting operation is performed by the driver and to start the engine when the second starting operation is performed by the driver.
Method of manufacturing a photovoltaic product with a plurality of serially interconnected photovoltaic cells (1A, 1B), comprising: - depositing a stack with a bottom electrode layer, a top electrode layer and a photovoltaic layer arranged between said first and said top electrode layer, the bottom electrode layer and the photovoltaic layer having an interface layer, the interface layer having a relatively high absorption for radiation of a predetermined wavelength as compared to that of the photovoltaic layer and that of the top electrode layer; and - partitioning said stack into respective lateral portions associated with respective photovoltaic cells (1A, 1B), with a boundary region between each photovoltaic cell and a subsequent photovoltaic cell; - serially interconnecting mutually subsequent photovoltaic cells (1A. 1B) in a boundary region; wherein said partitioning includes forming one or more trenches (20; 22; 23) extending through the top electrode layer and the photovoltaic layer to expose the bottom electrode layer, with at least an irradiation sub-step (S23A) and subsequent thereto a mechanical fragment removal sub-step (S23B), in which irradiation sub-step (S23A) an irradiation zone along a partitioning line is irradiated from a side facing the top electrode layer with a laser beam having the predetermined wavelength, the irradiation causing the material of the interface layer to vaporize, the resulting vapor pressure inducing a mechanical stress in the photovoltaic layer and of the top electrode layer causing their fragmentation within the irradiation zone, the irradiation being performed such that edges of the photovoltaic layer at the one or more trenches to be formed are free from re-solidified and phase-changed photovoltaic material, and in which mechanical fragment removal sub-step (S23B), the fragments formed in the irradiation sub-step are removed. - depositing a stack with a bottom electrode layer, a top electrode layer and a photovoltaic layer arranged between said first and said top electrode layer, the bottom electrode layer and the photovoltaic layer having an interface layer, the interface layer having a relatively high absorption for radiation of a predetermined wavelength as compared to that of the photovoltaic layer and that of the top electrode layer; and - partitioning said stack into respective lateral portions associated with respective photovoltaic cells (1A, 1B), with a boundary region between each photovoltaic cell and a subsequent photovoltaic cell; - serially interconnecting mutually subsequent photovoltaic cells (1A. 1B) in a boundary region;
An aqueous paint composition capable of being formed into a self-supporting, dimensionally stable paint body comprising by weight of the total composition i) from 1 to 6% chelating thickener ii) from 2 to 8% clay thickener and iii) from 0 to 30% clay extender wherein the body has a hardness, following overnight hardening in a 250cm 3 container, of from 50 to 750g when measured at 23°C +/- 2°C using a Leatherhead Food research Association texture analyser, obtainable from Brookfield Viscometers, equipped with a 4mm diameter stainless steel probe travelling at 1mm s -1 for a total travel of 10mm. i) from 1 to 6% chelating thickener ii) from 2 to 8% clay thickener and iii) from 0 to 30% clay extender
Method for producing 4-isopropyl-3-methylphenol from reaction mixtures obtainable by reacting meta-cresol with propene in the presence of a catalyst, characterized in that at least a) thymol and unreacted meta-cresol are largely removed from the reaction mixture by distillation, wherein a distillation residue is obtained, and b) from the distillation residue remaining according to step a), a suspension comprising crystalline 4-isopropyl-3-methylphenol and a liquid phase is obtained by crystallization, and c) from the suspension obtained according to step b), crystalline 4-isopropyl-3-methylphenol is separated from the liquid phase by the effect of centrifugal forces. a) thymol and unreacted meta-cresol are largely removed from the reaction mixture by distillation, wherein a distillation residue is obtained, and b) from the distillation residue remaining according to step a), a suspension comprising crystalline 4-isopropyl-3-methylphenol and a liquid phase is obtained by crystallization, and c) from the suspension obtained according to step b), crystalline 4-isopropyl-3-methylphenol is separated from the liquid phase by the effect of centrifugal forces.
Video server comprising a video descriptor generation module and a video descriptor combination module, wherein the video descriptor combination module is configured for: - receiving working data from another video server, said working data comprising selection criteria and a first video descriptor (V M), - transferring said selection criteria to said video descriptor generation module, wherein the video descriptor generation module is configured for selecting video segments stored in a local video database associated with the video server, in function of the selection criteria and for generating (T0a, T0b, T0c) a local video descriptor (V L), in function of the selected video segments, when it receives the selection criteria, - obtaining the local video descriptor (V L) from the video descriptor generation module, - determining a new version of the first video descriptor (V M) in function of the previous version of said first video descriptor (V M) and said local video descriptor (V L), - storing the new version of the first video descriptor (V M) in the working data, and - generating a video in function of the new version of the first video descriptor (V M), if a completion criterion is met, or - transferring said working data to another video server, if said completion criterion is not met. - receiving working data from another video server, said working data comprising selection criteria and a first video descriptor (V M), - transferring said selection criteria to said video descriptor generation module, wherein the video descriptor generation module is configured for selecting video segments stored in a local video database associated with the video server, in function of the selection criteria and for generating (T0a, T0b, T0c) a local video descriptor (V L), in function of the selected video segments, when it receives the selection criteria, - obtaining the local video descriptor (V L) from the video descriptor generation module, - determining a new version of the first video descriptor (V M) in function of the previous version of said first video descriptor (V M) and said local video descriptor (V L), - storing the new version of the first video descriptor (V M) in the working data, and - generating a video in function of the new version of the first video descriptor (V M), if a completion criterion is met, or - transferring said working data to another video server, if said completion criterion is not met.
Ceiling convector for delivering cooled or heated air, comprising: a. a heat exchanger for treating said air related to the cooling or heating thereof, b. a mixing chamber comprising at least two outflow openings, c. at least two opposite orifices directed towards each other, each for generating a primary air flow towards the outflow openings, characterised in that said primary air flows generated by the opposite orifices, directed towards each other, cross each other in said mixing chamber. a. a heat exchanger for treating said air related to the cooling or heating thereof, b. a mixing chamber comprising at least two outflow openings, c. at least two opposite orifices directed towards each other, each for generating a primary air flow towards the outflow openings,
Active ingredient combination from at least one analgesic Compound A and at least one COX-II inhibitor, characterised in that the COX-II inhibitor is selected from celecoxib or rofecoxib, with Compound A selected from: (1R,2R)-3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol; hydrochloride and (1S,2S)-3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol; hydrochloride, in the illustrated form or in the form of its acids or its bases or in the form of its salts, in particular the physiologically compatible salts, or in the form of its solvates, in particular the hydrates. (1R,2R)-3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol; hydrochloride and (1S,2S)-3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol; hydrochloride, in the illustrated form or in the form of its acids or its bases or in the form of its salts, in particular the physiologically compatible salts, or in the form of its solvates, in particular the hydrates.
A molding jig comprising: a mold used for molding a surface of a laminate when curing the laminate obtained by laminating prepreg, the mold having a planar plate shape, and elastically deforming from the planar plate shape into a shape corresponding to a shape of the laminate so as to come into tight contact with the laminate; and a retaining mechanism that brings the mold into tight contact with the laminate, wherein the prepreg is laminated on a core die serving as a magnetic body, the retaining mechanism includes a plurality of retaining magnets that generates magnetism and is absorbable to the core die via the mold and the laminate, and the molding jig is characterized in that the retaining magnets are configured to generate strong magnetism only from one surface by having a magnet body entirely, except for said one surface constituting a magnetic pole, covered by a material which is not likely to allow transmission of magnetism. a mold used for molding a surface of a laminate when curing the laminate obtained by laminating prepreg, the mold having a planar plate shape, and elastically deforming from the planar plate shape into a shape corresponding to a shape of the laminate so as to come into tight contact with the laminate; and a retaining mechanism that brings the mold into tight contact with the laminate, wherein the prepreg is laminated on a core die serving as a magnetic body, the retaining mechanism includes a plurality of retaining magnets that generates magnetism and is absorbable to the core die via the mold and the laminate, and the molding jig is characterized in that the retaining magnets are configured to generate strong magnetism only from one surface by having a magnet body entirely, except for said one surface constituting a magnetic pole, covered by a material which is not likely to allow transmission of magnetism.
A computer-implemented method for an image processing system to analyze a bundle of boards and determine a number of boards in the bundle, the bundle of boards having a front face that is perpendicular to a long axis of boards in the bundle, the method comprising the following steps: receiving an image, a portion of the image depicting the bundle of boards, the image captured at an angle relative to the long axis of boards in the bundle; applying a homographic transformation to the image to estimate a frontal view of the front face, the frontal view being an appearance of the front face if viewed from a perspective parallel to the long axis of boards in the bundle; identifying a plurality of divisions between rows of boards in the estimate of the frontal view; identifying, for each adjacent pair of the plurality of divisions between rows, a plurality of vertical divisions; identifying a set of bounding boxes, each bounding box defined by a pair of adjacent divisions between rows and a pair of adjacent vertical divisions disposed between the pair of adjacent divisions between rows; and determining a number of boards in the bundle based on the set of bounding boxes; wherein the step of identifying the plurality of vertical divisions for a row comprises the steps: - generating a vertical projection from the row, the vertical projection comprising a plurality of peaks; and - identifying a peak of the plurality of peaks as a vertical division responsive to a size of the peak exceeding a vertical division threshold. receiving an image, a portion of the image depicting the bundle of boards, the image captured at an angle relative to the long axis of boards in the bundle; applying a homographic transformation to the image to estimate a frontal view of the front face, the frontal view being an appearance of the front face if viewed from a perspective parallel to the long axis of boards in the bundle; identifying a plurality of divisions between rows of boards in the estimate of the frontal view; identifying, for each adjacent pair of the plurality of divisions between rows, a plurality of vertical divisions; identifying a set of bounding boxes, each bounding box defined by a pair of adjacent divisions between rows and a pair of adjacent vertical divisions disposed between the pair of adjacent divisions between rows; and determining a number of boards in the bundle based on the set of bounding boxes; wherein the step of identifying the plurality of vertical divisions for a row comprises the steps: - generating a vertical projection from the row, the vertical projection comprising a plurality of peaks; and - identifying a peak of the plurality of peaks as a vertical division responsive to a size of the peak exceeding a vertical division threshold. - generating a vertical projection from the row, the vertical projection comprising a plurality of peaks; and - identifying a peak of the plurality of peaks as a vertical division responsive to a size of the peak exceeding a vertical division threshold.
Process for the preparation of 1,4-substituted cyclohexane compounds having an all-trans configuration of the general formula I R 1 -[A 1 -(CH 2) n -] m -A 2 -R 2 I in which R 1 and R 2, independently of one another, denote an unsubstituted, straight-chain alkyl radical having up to 9 C atoms or -CH(CH 3) 2, m denotes 1 or 2, n in each case, independently of one another, denotes 0, 1, 2, 3 or 4, and A 1, A 2 denote trans-1,4-cyclohexyl, which comprises the reaction of 1,4-cis-cyclohexane compounds corresponding to compounds of the formula I in the presence of a carbocation-forming compound and in the presence of a protonic acid having an H 0 value < -11 which generates carbocations from, where compound is selected from a tertiary or secondary alkyl halide or sulfonate, a secondary or tertiary alcohol, an alkyl ether or alkyl acid ester of a tertiary or secondary alcohol, or a primary halide, sulfonate, alcohol or ether having a neopentyl structure. R 1 and R 2, independently of one another, denote an unsubstituted, straight-chain alkyl radical having up to 9 C atoms or -CH(CH 3) 2, m denotes 1 or 2, n in each case, independently of one another, denotes 0, 1, 2, 3 or 4, and A 1, A 2 denote trans-1,4-cyclohexyl,
A solid oxide fuel cell system comprising: a fuel cell stack including a fuel electrode and an oxidant electrode; a combustion unit provided to start the system and configured to supply a combustion gas to the fuel electrode of the fuel cell stack, the combustion gas containing an inert gas as a component; a start flow passage configured to supply the combustion gas discharged from the combustion unit to the fuel electrode of the fuel cell stack at the time of starting the system; a stop flow passage configured to supply the combustion gas discharged from the combustion unit to the fuel electrode of the fuel cell stack at the time of stopping the system; a heat exchanger disposed in the middle of the stop flow passage; and a control unit configured to select the start flow passage at the time of starting the system, and select the stop flow passage and operate the combustion unit to fill the combustion gas into the fuel electrode of the fuel cell stack at the time of stopping the system, wherein the control unit is further configured to: determine whether or not the combustion gas is filled into the fuel electrode of the fuel cell stack at the time of stopping the system, and close an inlet and an outlet of the fuel electrode of the fuel cell stack when the control unit determines that the combustion gas is filled into the fuel electrode of the fuel cell stack. a fuel cell stack including a fuel electrode and an oxidant electrode; a combustion unit provided to start the system and configured to supply a combustion gas to the fuel electrode of the fuel cell stack, the combustion gas containing an inert gas as a component; a start flow passage configured to supply the combustion gas discharged from the combustion unit to the fuel electrode of the fuel cell stack at the time of starting the system; a stop flow passage configured to supply the combustion gas discharged from the combustion unit to the fuel electrode of the fuel cell stack at the time of stopping the system; a heat exchanger disposed in the middle of the stop flow passage; and a control unit configured to select the start flow passage at the time of starting the system, and select the stop flow passage and operate the combustion unit to fill the combustion gas into the fuel electrode of the fuel cell stack at the time of stopping the system, wherein the control unit is further configured to: determine whether or not the combustion gas is filled into the fuel electrode of the fuel cell stack at the time of stopping the system, and close an inlet and an outlet of the fuel electrode of the fuel cell stack when the control unit determines that the combustion gas is filled into the fuel electrode of the fuel cell stack. determine whether or not the combustion gas is filled into the fuel electrode of the fuel cell stack at the time of stopping the system, and close an inlet and an outlet of the fuel electrode of the fuel cell stack when the control unit determines that the combustion gas is filled into the fuel electrode of the fuel cell stack.
Encoder arrangement with a measuring device for determining a rotational position of a rotating body, such as a shaft of a motor, with at least one magnetic dimensional scale that can be attached to the body and at least one sensor device for scanning the dimensional scale, whereby the sensor device is located at least partially within a space surrounded by the dimensional scale and the dimensional scale is surrounded by an all-round magnetic shield and is non-rotatably attached to this.