mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising a camera for capturing an image, at least one processor and at least one memory, the at least one memory storing instructions configured to cause the processor to: obtain an image of a scene captured using the camera, the scene comprising a footprint of a user of the system; identify the footprint in the image; identify a first plurality of reference points each having a fixed position relative to the footprint in the image; identify a second plurality of reference points each having a fixed position relative to a three-dimensional model of the user's foot constructed based on at least one known dimension of the user's foot; determine a transformation matrix by mapping the second plurality of reference points of the three-dimensional model to the first plurality of reference points; and determine, based on the transformation matrix, a three-dimensional position of the camera relative to the footprint in the scene at the time of capturing the image. a camera for capturing an image, at least one processor and at least one memory, the at least one memory storing instructions configured to cause the processor to: obtain an image of a scene captured using the camera, the scene comprising a footprint of a user of the system; identify the footprint in the image; identify a first plurality of reference points each having a fixed position relative to the footprint in the image; identify a second plurality of reference points each having a fixed position relative to a three-dimensional model of the user's foot constructed based on at least one known dimension of the user's foot; determine a transformation matrix by mapping the second plurality of reference points of the three-dimensional model to the first plurality of reference points; and determine, based on the transformation matrix, a three-dimensional position of the camera relative to the footprint in the scene at the time of capturing the image. obtain an image of a scene captured using the camera, the scene comprising a footprint of a user of the system; identify the footprint in the image; identify a first plurality of reference points each having a fixed position relative to the footprint in the image; identify a second plurality of reference points each having a fixed position relative to a three-dimensional model of the user's foot constructed based on at least one known dimension of the user's foot; determine a transformation matrix by mapping the second plurality of reference points of the three-dimensional model to the first plurality of reference points; and determine, based on the transformation matrix, a three-dimensional position of the camera relative to the footprint in the scene at the time of capturing the image.
A vehicle lid device, comprising: a housing disposing a fueling port or an electrical charging port inside an opening; and a lid turnably connected to a housing side, and opening and closing the opening of the housing, wherein a connection portion between the housing side and a lid side includes a fitting portion for a shaft and a hole, and in a fully open position of the lid, when an external force at a predetermined value or above is applied in an opening direction to further open the lid, fitting of the fitting portion is released, wherein the lid is connected and supported relative to the housing through a first link member and a second link member including a shaft, said vehicle lid device being characterized by comprising a groove portion including a retaining portion, an inclined portion and an insertion portion provided on the lid side and in that when the link members (5, 6) come close to each other and hit each other, the shaft of an upper portion is adapted to be disengaged from the hole, and to move to said groove portion a housing disposing a fueling port or an electrical charging port inside an opening; and a lid turnably connected to a housing side, and opening and closing the opening of the housing, wherein a connection portion between the housing side and a lid side includes a fitting portion for a shaft and a hole, and in a fully open position of the lid, when an external force at a predetermined value or above is applied in an opening direction to further open the lid, fitting of the fitting portion is released, wherein the lid is connected and supported relative to the housing through a first link member and a second link member including a shaft, said vehicle lid device being characterized by comprising a groove portion including a retaining portion, an inclined portion and an insertion portion provided on the lid side and in that when the link members (5, 6) come close to each other and hit each other, the shaft of an upper portion is adapted to be disengaged from the hole, and to move to said groove portion
A method for subliminal frame insertion, the method comprising: receiving content; and analyzing a subliminal frame insertion setting; characterised in that: the content is received by a content receiver and the analyzing of the subliminal frame insertion setting is performed utilizing the content receiver; and characterised in that the method further comprises: modifying the content, utilizing the content receiver, by periodically inserting at least one subliminal frame based on the subliminal frame insertion setting, wherein the at least one subliminal frame is subliminally perceptible but consciously imperceptible to a human viewer when the modified content is played. receiving content; and analyzing a subliminal frame insertion setting; characterised in that: the content is received by a content receiver and the analyzing of the subliminal frame insertion setting is performed utilizing the content receiver; and characterised in that the method further comprises: modifying the content, utilizing the content receiver, by periodically inserting at least one subliminal frame based on the subliminal frame insertion setting, wherein the at least one subliminal frame is subliminally perceptible but consciously imperceptible to a human viewer when the modified content is played. the content is received by a content receiver and the analyzing of the subliminal frame insertion setting is performed utilizing the content receiver; and characterised in that the method further comprises: modifying the content, utilizing the content receiver, by periodically inserting at least one subliminal frame based on the subliminal frame insertion setting, wherein the at least one subliminal frame is subliminally perceptible but consciously imperceptible to a human viewer when the modified content is played. modifying the content, utilizing the content receiver, by periodically inserting at least one subliminal frame based on the subliminal frame insertion setting, wherein the at least one subliminal frame is subliminally perceptible but consciously imperceptible to a human viewer when the modified content is played.
A method of separating carbon dioxide from a process stream comprising: providing a process stream comprising carbon dioxide and a primary component; wherein the process stream is gaseous carbon dioxide; wherein the process stream is at a first temperature and a first pressure; and cooling the process stream to at or below the condensation temperature of the primary component in the process stream; separating any gases from the process stream that did not condense during cooling the process stream to at or below the condensation temperature of the primary component to form a first separated gaseous stream; cooling the process stream further to at or below the frost point of carbon dioxide in the process stream, thereby forming solid carbon dioxide; and separating physically solid carbon dioxide from the process stream to form a separated solid carbon dioxide slurry stream and a liquid primary component stream; characterized in that cooling the process stream to at or below the frost point of carbon dioxide in the process stream comprises: directly contacting the process stream with a colder contact gas stream, and separating a warmed contact gas stream from a slurry of the condensed primary component and the solid carbon dioxide, and wherein the contact gas comprises nitrogen, air, a noble gas, carbon monoxide or a combination thereof. providing a process stream comprising carbon dioxide and a primary component; wherein the process stream is gaseous carbon dioxide; wherein the process stream is at a first temperature and a first pressure; and cooling the process stream to at or below the condensation temperature of the primary component in the process stream; separating any gases from the process stream that did not condense during cooling the process stream to at or below the condensation temperature of the primary component to form a first separated gaseous stream; cooling the process stream further to at or below the frost point of carbon dioxide in the process stream, thereby forming solid carbon dioxide; and separating physically solid carbon dioxide from the process stream to form a separated solid carbon dioxide slurry stream and a liquid primary component stream; characterized in that cooling the process stream to at or below the frost point of carbon dioxide in the process stream comprises: directly contacting the process stream with a colder contact gas stream, and separating a warmed contact gas stream from a slurry of the condensed primary component and the solid carbon dioxide, and wherein the contact gas comprises nitrogen, air, a noble gas, carbon monoxide or a combination thereof. directly contacting the process stream with a colder contact gas stream, and separating a warmed contact gas stream from a slurry of the condensed primary component and the solid carbon dioxide, and wherein the contact gas comprises nitrogen, air, a noble gas, carbon monoxide or a combination thereof.
A twist-off smart cap for a container, the twist-off smart cap comprising a product interaction monitor installed internally within said twist-off smart cap, wherein said product interaction monitor includes a controller, a power source, and a sensor system including an accelerometer and a gyroscope, wherein said controller is configured to collect product interaction monitor compliance data based, at least in part, on output from said sensor system and configured to determine a plurality of different smart cap events based on different combinations of thresholds, samples, and timing sequences from said accelerometer and said gyroscope of said sensor system, wherein said controller is configured to: monitor the accelerometer to detect a change in force above a predetermined threshold; wake up said gyroscope in response to detecting said change and monitor said gyroscope for a threshold angular velocity within a wakeup timeout period; and in response to detecting said threshold angular velocity within said wakeup timeout period, detect a twist-off smart cap event by detecting with the gyroscope a threshold number of angular velocity samples above a threshold within an allotted twist-off duration. wherein said controller is configured to collect product interaction monitor compliance data based, at least in part, on output from said sensor system and configured to determine a plurality of different smart cap events based on different combinations of thresholds, samples, and timing sequences from said accelerometer and said gyroscope of said sensor system, wherein said controller is configured to: monitor the accelerometer to detect a change in force above a predetermined threshold; wake up said gyroscope in response to detecting said change and monitor said gyroscope for a threshold angular velocity within a wakeup timeout period; and in response to detecting said threshold angular velocity within said wakeup timeout period, detect a twist-off smart cap event by detecting with the gyroscope a threshold number of angular velocity samples above a threshold within an allotted twist-off duration.
A wireless apparatus configured for high-efficiency, HE, operation, the apparatus comprising: memory; and processing circuitry configured to: decode a trigger frame, the trigger frame including a parameter to indicate resource units allocated for random access, the resource units allocated for uplink data transmission to one or more HE stations, STAs, including the wireless apparatus; and initiate an uplink orthogonal frequency division multiple access, OFDMA-based random access procedure, in response to receipt of the trigger frame that includes the parameter; wherein the uplink OFDMA-based random access procedure configures the processing circuitry to: initialize an OFDMA Back-off, OBO, counter to a random value in the range of zero to an OFDM contention window minimum value, OCWmin; decrement the OBO counter for each of the resource units allocated for random access in the trigger frame; and responsive to OBO counter reaching zero, cause transmission of the uplink data unit using one of the resource units allocated for random access, the one of the resource units allocated for random access is associated with the OBO counter reaching zero. memory; and processing circuitry configured to: decode a trigger frame, the trigger frame including a parameter to indicate resource units allocated for random access, the resource units allocated for uplink data transmission to one or more HE stations, STAs, including the wireless apparatus; and initiate an uplink orthogonal frequency division multiple access, OFDMA-based random access procedure, in response to receipt of the trigger frame that includes the parameter; wherein the uplink OFDMA-based random access procedure configures the processing circuitry to: decode a trigger frame, the trigger frame including a parameter to indicate resource units allocated for random access, the resource units allocated for uplink data transmission to one or more HE stations, STAs, including the wireless apparatus; and initiate an uplink orthogonal frequency division multiple access, OFDMA-based random access procedure, in response to receipt of the trigger frame that includes the parameter; wherein the uplink OFDMA-based random access procedure configures the processing circuitry to: initialize an OFDMA Back-off, OBO, counter to a random value in the range of zero to an OFDM contention window minimum value, OCWmin; decrement the OBO counter for each of the resource units allocated for random access in the trigger frame; and responsive to OBO counter reaching zero, cause transmission of the uplink data unit using one of the resource units allocated for random access, the one of the resource units allocated for random access is associated with the OBO counter reaching zero.
A one-piece hinge assembly (1, 1') with a resilient torsion bar, comprising a first hinge element, a second hinge element, and a torsion bar that extends axially between said first hinge element and said second hinge element, said torsion bar having two ends connected to said first hinge element, and said second hinge element presenting two load arms that are spaced apart from each other in said axial direction and that are constrained to pivot with said torsion bar, the hinge assembly being characterized in that said first hinge element comprises a bearing body (9, 9') that extends between said two load arms and through which a middle portion of said torsion bar passes.
Seat device for a scooter, in particular for a kick scooter, with a seat base body (12a; 12b; 12c; 12d), with at least one first fastening unit (14a; 14b; 14c; 14d) for fastening to a scooter (16a; 16b; 16c; 16d), wherein the at least one first fastening unit (14a; 14b; 14c; 14d) comprises at least one support surface (18a; 18b; 18c; 18d), which is in a mounted state configured to support the seat base body (12a; 12b; 12c; 12d) at least against a footboard (20a; 20b; 20c; 20d) of the scooter (16a; 16b; 16c; 16d), and with at least one second fastening unit (24a; 24b; 24c; 24d), which is releasably connectable to a steering rod (26a; 26b; 26c; 26d) of the scooter (16a; 16b; 16c; 16d), wherein the seat base body (12a; 12b; 12c; 12d) is at least partially embodied by a gas-filled hollow body, characterised in that the at least one second fastening unit (24a; 24b; 24d) is at least partially embodied by a gas-filled hollow body, and the gas-filled hollow bodies comprise a rigid and/or elastic external shell which completely delimits an inner space enclosed therein.
A wastegate exhaust gas line for a V-type internal combustion engine comprising a first cylinder bank associated with a first exhaust manifold, a second cylinder bank associated with a second exhaust manifold, an inner portion arranged between the first cylinder bank and the second cylinder bank, the first exhaust manifold and the second exhaust manifold being arranged within the inner portion, a first turbine connection fluidly connected to the first exhaust manifold, and a second turbine connection fluidly connected to the second exhaust manifold, the wastegate exhaust gas line comprising: a first wastegate duct including a first port configured to fluidly connect to the first turbine connection via a first bypass pipe, and a second port opposite to the first port, the first port being substantially perpendicular to the second port; and a second wastegate duct including a first port configured to fluidly connect to the second turbine connection via a second bypass pipe, and a second port opposite to the first port, the first port being substantially perpendicular to the second port, wherein, in the mounted state, the first port of the first wastegate duct is disposed above or below the first port of the second wastegate duct, and the second port of the first wastegate duct is disposed besides the second port of the second wastegate duct. a first wastegate duct including a first port configured to fluidly connect to the first turbine connection via a first bypass pipe, and a second port opposite to the first port, the first port being substantially perpendicular to the second port; and a second wastegate duct including a first port configured to fluidly connect to the second turbine connection via a second bypass pipe, and a second port opposite to the first port, the first port being substantially perpendicular to the second port, wherein, in the mounted state, the first port of the first wastegate duct is disposed above or below the first port of the second wastegate duct, and the second port of the first wastegate duct is disposed besides the second port of the second wastegate duct.
A method of operating a Modular Multilevel Converter MMC usable with a power grid, the MMC having a converter branch with a plurality of converter cells with a nominal cell voltage, the method comprising - applying a branch voltage to the converter branch, the branch voltage being inferior to a nominal branch voltage cumulative of the nominal cell voltages of the cells of the branch; characterized in that the method further comprises: - selecting a first subset of the plurality of converter cells of the branch, and selecting a second subset of the plurality of converter cells which is distinct from and larger than the first subset; and - operating successively, at a cell operating mode alternation frequency below a line frequency of the power grid, the first and second subset in a pulse blocked cell operation mode with cell voltage increase, and operating a respective complementary subset of the plurality of converter cells of the branch in a bypass cell operation mode without cell voltage increase. - applying a branch voltage to the converter branch, the branch voltage being inferior to a nominal branch voltage cumulative of the nominal cell voltages of the cells of the branch; characterized in that the method further comprises: - selecting a first subset of the plurality of converter cells of the branch, and selecting a second subset of the plurality of converter cells which is distinct from and larger than the first subset; and - operating successively, at a cell operating mode alternation frequency below a line frequency of the power grid, the first and second subset in a pulse blocked cell operation mode with cell voltage increase, and operating a respective complementary subset of the plurality of converter cells of the branch in a bypass cell operation mode without cell voltage increase. - selecting a first subset of the plurality of converter cells of the branch, and selecting a second subset of the plurality of converter cells which is distinct from and larger than the first subset; and - operating successively, at a cell operating mode alternation frequency below a line frequency of the power grid, the first and second subset in a pulse blocked cell operation mode with cell voltage increase, and operating a respective complementary subset of the plurality of converter cells of the branch in a bypass cell operation mode without cell voltage increase.
A mallet for comminuting devices, comprising a rotor and/or at least one shaft, on and/or to which the mallet can be attached, consisting of a lower body provided with a through-bore, wherein the through-bore is provided to connect the mallet to the rotor and/or the shaft, and at least one cutting body, wherein the at least one cutting body can be detachably/rigidly connected to the lower body, wherein the cutting body is formed of at least two parts, characterised in that the cutting body is formed of at least one blade and at least one support element, in that the cutting body comprises at least one intermediate piece as a support element, which braces the blade towards a support region, and in that a bore is provided in each of the blade, the intermediate piece and the support region, which are provided corresponding to each other in the installed state and which are used to accommodate a connection means, such as a screw for example, in order to connect the mentioned mallet elements to one another.
A method for de-oiling and/or cleaning parts from mass production, preferably machine components such as in particular screws, bolts, nuts, cold extruded parts, punched steel sheet parts, bent parts or the like, in which the parts from mass production are in a first step introduced into a centrifuge and de-oiled in the centrifuge, then washed in a second step and finally rinsed in a third step, characterized in that the steps of de-oiling and/or cleaning the parts from mass production are carried out by means of a centrifuge which can be displaced in a bearer frame between three or more positions that are essentially placed in a horizontal plane, wherein in the first position the parts from mass production will be de-oiled and/or dephosphatised, in the second position they will be washed and submitted to spinning and in the third position they will be rinsed, submitted to spinning and preferably also be dried.