mhurhangee/patent-ind-claim-en huggingface dataset:
Container apparatus for arrangement in a dispensing system of a domestic appliance , the dispensing system comprising a pump device having at least one pump connection , the container apparatus having the following feature: at least one multi-chamber container having a chamber for accommodating a cleaning agent and at least one auxiliary chamber , which is fluidically separated from the chamber , for accommodating an auxiliary cleaning agent, the chamber having a chamber connection and the auxiliary chamber having an auxiliary chamber connection , the chamber connection and the auxiliary chamber connection being designed to be fluidically coupled to the pump connection when the multi-chamber container is arranged in the dispensing system ; characterised by at least one further multi-chamber container having a further chamber for receiving a further cleaning agent and at least one further auxiliary chamber , which is fluidically separated from the further chamber , for receiving a further auxiliary cleaning agent, the further chamber having a further chamber connection and the further auxiliary chamber having a further auxiliary chamber connection , the further chamber connection and the further auxiliary chamber connection being designed to be fluidically coupled to a further pump connection of the pump device when the further multi-chamber container is arranged in the dispensing system . at least one multi-chamber container having a chamber for accommodating a cleaning agent and at least one auxiliary chamber , which is fluidically separated from the chamber , for accommodating an auxiliary cleaning agent, the chamber having a chamber connection and the auxiliary chamber having an auxiliary chamber connection , the chamber connection and the auxiliary chamber connection being designed to be fluidically coupled to the pump connection when the multi-chamber container is arranged in the dispensing system ; characterised by at least one further multi-chamber container having a further chamber for receiving a further cleaning agent and at least one further auxiliary chamber , which is fluidically separated from the further chamber , for receiving a further auxiliary cleaning agent, the further chamber having a further chamber connection and the further auxiliary chamber having a further auxiliary chamber connection , the further chamber connection and the further auxiliary chamber connection being designed to be fluidically coupled to a further pump connection of the pump device when the further multi-chamber container is arranged in the dispensing system .
A method for identifying a target value in a data set, the method comprising: receiving a request from a spreadsheet application function for a first target value in a data array, the request including a reference value and a range of cells, the reference value having a first value type; determining whether a cached index with a range overlapping the range of cells already exists; if it is determined that a cached index with a range overlapping the range of cells already exists, performing a binary search for the first target value on the cached index over the overlapping range; only if a portion of the range of cells remains for which no overlapping cached index exists and the searched first target value has not been identified in the cached index, upon determining that the data array is sorted in a first order according to a second value type, generating an index comprising a plurality of row or column numbers from the data array corresponding to the remaining portion of the range of cells; sorting the plurality of row or column numbers in the index by the first value type in the data array; and performing a binary search on the generated index; and identifying , based at least in part on the binary search , the first target value. receiving a request from a spreadsheet application function for a first target value in a data array, the request including a reference value and a range of cells, the reference value having a first value type; determining whether a cached index with a range overlapping the range of cells already exists; if it is determined that a cached index with a range overlapping the range of cells already exists, performing a binary search for the first target value on the cached index over the overlapping range; only if a portion of the range of cells remains for which no overlapping cached index exists and the searched first target value has not been identified in the cached index, upon determining that the data array is sorted in a first order according to a second value type, generating an index comprising a plurality of row or column numbers from the data array corresponding to the remaining portion of the range of cells; sorting the plurality of row or column numbers in the index by the first value type in the data array; and performing a binary search on the generated index; and upon determining that the data array is sorted in a first order according to a second value type, generating an index comprising a plurality of row or column numbers from the data array corresponding to the remaining portion of the range of cells; sorting the plurality of row or column numbers in the index by the first value type in the data array; and performing a binary search on the generated index; and identifying , based at least in part on the binary search , the first target value.
A fiber-reinforced polypropylene-based resin composition comprising: a propylene-based polymer (A); and reinforcing fibers (B), wherein the propylene-based polymer (A) is a blend including a propylene-based polymer with high stereoregularity (A1) having a mesopentad fraction (M) that is equal to or more than 90% and equal to or less than 99.9% and a propylene-based polymer with low stereoregularity (A2) having a mesopentad fraction (M) that is equal to or more than 50% and less than 90%, and in a case in which a content of at least one olefin-derived structural unit selected from ethylene and an α-olefin having 4 to 8 carbon atoms in the propylene-based polymer (A) is designated as E (% by mass) (the sum of the propylene-based polymer (A) and the reinforcing fibers (B) is designated as 100% by mass), and a mesopentad fraction of the propylene-based polymer (A) measured by 13 C-NMR is designated as M (%), the following Expression and Expression are satisfied. 85 ≤ M ≤ 99 74 ≤ M − 12 E ≤ 90 a propylene-based polymer (A); and reinforcing fibers (B), wherein the propylene-based polymer (A) is a blend including a propylene-based polymer with high stereoregularity (A1) having a mesopentad fraction (M) that is equal to or more than 90% and equal to or less than 99.9% and a propylene-based polymer with low stereoregularity (A2) having a mesopentad fraction (M) that is equal to or more than 50% and less than 90%, and in a case in which a content of at least one olefin-derived structural unit selected from ethylene and an α-olefin having 4 to 8 carbon atoms in the propylene-based polymer (A) is designated as E (% by mass) (the sum of the propylene-based polymer (A) and the reinforcing fibers (B) is designated as 100% by mass), and a mesopentad fraction of the propylene-based polymer (A) measured by 13 C-NMR is designated as M (%), the following Expression and Expression are satisfied. 85 ≤ M ≤ 99 74 ≤ M − 12 E ≤ 90
A method for separating dispersed algae from an aqueous system, the method comprising: adding to the aqueous system from 50 ppm to 100 ppm of a polymer including tannin to form flocculated aggregates, wherein the polymer including tannin comprises a copolymer of tannin and a cationic monomer, wherein the weight percent of the tannin is from 30% to 50% and the weight percent of the cationic monomer is from 70% to 50%; mixing the aqueous system to promote complexing between the polymer including tannin and the dispersed algae within a plurality of dispersed algae cells to form flocculated aggregates larger in size than the dispersed algae cells; and separating the flocculated aggregates from the aqueous system. adding to the aqueous system from 50 ppm to 100 ppm of a polymer including tannin to form flocculated aggregates, wherein the polymer including tannin comprises a copolymer of tannin and a cationic monomer, wherein the weight percent of the tannin is from 30% to 50% and the weight percent of the cationic monomer is from 70% to 50%; mixing the aqueous system to promote complexing between the polymer including tannin and the dispersed algae within a plurality of dispersed algae cells to form flocculated aggregates larger in size than the dispersed algae cells; and separating the flocculated aggregates from the aqueous system.
A method for multi-dimensional online analytical processing in a relational database, the method comprising: loading incoming data into a plurality of data cubes; incrementally merging the plurality of data cubes in response to a first event; and merging a first data cube of the plurality of data cubes into a main data cube in response to a second event, wherein the main data cube comprises a primary collection of data for the relational database; wherein merging the first data cube into the main data cube comprises: selecting a page corresponding to the first data cube to merge into the main data cube; identifying a page corresponding to the main data cube that overlaps the page from the first data cube; creating a copy of the page corresponding to the first data cube and a copy of the page corresponding to the main data cube; merging the copy of the page corresponding to the main data cube with the copy of the page corresponding to the first data cube to create an updated copy of the page corresponding to the main data cube; replacing the page corresponding to the main data cube with the updated copy of the page corresponding to the main data cube; and deleting the copy of the page corresponding to the first data cube and the updated copy of the page corresponding to the main data cube. loading incoming data into a plurality of data cubes; incrementally merging the plurality of data cubes in response to a first event; and merging a first data cube of the plurality of data cubes into a main data cube in response to a second event, wherein the main data cube comprises a primary collection of data for the relational database; selecting a page corresponding to the first data cube to merge into the main data cube; identifying a page corresponding to the main data cube that overlaps the page from the first data cube; creating a copy of the page corresponding to the first data cube and a copy of the page corresponding to the main data cube; merging the copy of the page corresponding to the main data cube with the copy of the page corresponding to the first data cube to create an updated copy of the page corresponding to the main data cube; replacing the page corresponding to the main data cube with the updated copy of the page corresponding to the main data cube; and deleting the copy of the page corresponding to the first data cube and the updated copy of the page corresponding to the main data cube.
A computer-implemented method comprising: obtaining (802; 902; 1002) a panoramic video image which is a planar image obtained from a 360-degree panoramic video, wherein the panoramic video image is determined based on a perspective mapping which is a mapping of the 360-degree panoramic video to a planar image corresponding to a view from a perspective of a particular user, and the panoramic video image comprises a primary perspective region and at least one secondary perspective region away from the primary perspective region; dividing (804; 906; 1006) the secondary perspective region into at least two sub-regions based on distribution information of high-frequency components in the secondary perspective region; and determining (806; 908; 1008) a respective filter template for each sub-region and filtering (806; 910; 1010) the sub-regions using the respective filter templates, whereas a filter template consists of a mask of coefficients. obtaining (802; 902; 1002) a panoramic video image which is a planar image obtained from a 360-degree panoramic video, wherein the panoramic video image is determined based on a perspective mapping which is a mapping of the 360-degree panoramic video to a planar image corresponding to a view from a perspective of a particular user, and the panoramic video image comprises a primary perspective region and at least one secondary perspective region away from the primary perspective region; dividing (804; 906; 1006) the secondary perspective region into at least two sub-regions based on distribution information of high-frequency components in the secondary perspective region; and determining (806; 908; 1008) a respective filter template for each sub-region and filtering (806; 910; 1010) the sub-regions using the respective filter templates, whereas a filter template consists of a mask of coefficients.
A mould for receiving liquid chocolate and consisting of two elements, a front element representing a three-dimensional shape with variations in height that are associated with a predefined pattern with a flat base and a rear element comprising a mesh whose surface exactly covers the flat surface of the front element, said mesh, preferably a grid, delineating cells , the meshes being bevelled , the surface of the rear element being delineated for its arrangement with the flat base of the front element, the mesh being for printing grooves in moulded chocolate, the base of the meshes of the rear element forming a plane .
A three dimensional, 3D, reconstruction method used in a 3D reconstruction apparatus comprising: receiving a plurality of positioning signals by a signal receiver disposed at a head mounted device, HMD, at a first time spot and a second time spot to determine a HMD displacement vector and a HMD rotation amount according to the positioning signals; retrieving a first image at the first time spot and a second image at the second time spot by a first camera disposed at the HMD to determine a first camera rotation amount according to the first image and the second image; calculating a relative rotation amount and a relative displacement vector between the HMD and the first camera ; calculating a first camera displacement vector of the first camera according to the HMD displacement vector, the HMD rotation amount, the relative rotation amount and the relative displacement vector; obtaining depth information of the first image and the second image based on the first camera displacement vector and the first camera rotation amount; and performing 3D reconstruction according to images retrieved by the first camera and the depth information. receiving a plurality of positioning signals by a signal receiver disposed at a head mounted device, HMD, at a first time spot and a second time spot to determine a HMD displacement vector and a HMD rotation amount according to the positioning signals; retrieving a first image at the first time spot and a second image at the second time spot by a first camera disposed at the HMD to determine a first camera rotation amount according to the first image and the second image; calculating a relative rotation amount and a relative displacement vector between the HMD and the first camera ; calculating a first camera displacement vector of the first camera according to the HMD displacement vector, the HMD rotation amount, the relative rotation amount and the relative displacement vector; obtaining depth information of the first image and the second image based on the first camera displacement vector and the first camera rotation amount; and performing 3D reconstruction according to images retrieved by the first camera and the depth information.
A method of beamforming between a first station having a plurality of antenna sectors and a second station, the method comprising: the first station performing a sector level sweep, SLS, process including transmitting, in sequence, a first plurality of short sector sweep, SSW, frames to the second station using corresponding ones of the antenna sectors, and receiving, in sequence, a second plurality of short SSW frames from the second station, the second plurality of short SSW frames having an addressing field format specifying a receiver address association ID, RA AID, and a transmitter address association ID, TAAID; wherein the RA AID and the TA AID each have 8 bits and are adjacent to one another in the short SSW format, wherein the first station is an access point, AP, the method further comprising, prior to performing the SLS process, the AP assigning a distinctive address association ID, AP AID, to itself, and using the AP AID as the RA AID or the TA AID depending on whether the AP is receiving or transmitting, respectively, during a given step of the SLS process; wherein the AP assigning the AP AID to itself comprises: the AP randomly generating the AP AID, and further determining that the second station is enabled with short SSW frame capability and selecting short SSW frame format instead of non-short SSW frame format for the SLS process with another station, wherein the first station is an enhanced directional multi gigabit, EDMG, station, and enablement of short SSW frame capability in the second station is contingent on whether the second station is an EDMG station. the first station performing a sector level sweep, SLS, process including transmitting, in sequence, a first plurality of short sector sweep, SSW, frames to the second station using corresponding ones of the antenna sectors, and receiving, in sequence, a second plurality of short SSW frames from the second station, the second plurality of short SSW frames having an addressing field format specifying a receiver address association ID, RA AID, and a transmitter address association ID, TAAID; wherein the RA AID and the TA AID each have 8 bits and are adjacent to one another in the short SSW format, wherein the first station is an access point, AP, the method further comprising, prior to performing the SLS process, the AP assigning a distinctive address association ID, AP AID, to itself, and using the AP AID as the RA AID or the TA AID depending on whether the AP is receiving or transmitting, respectively, during a given step of the SLS process; wherein the AP assigning the AP AID to itself comprises: the AP randomly generating the AP AID, and further determining that the second station is enabled with short SSW frame capability and selecting short SSW frame format instead of non-short SSW frame format for the SLS process with another station, wherein the first station is an enhanced directional multi gigabit, EDMG, station, and enablement of short SSW frame capability in the second station is contingent on whether the second station is an EDMG station.
Modular steam distillation device for the extraction of volatile substances contained in raw materials of organic or inorganic nature, the upper module of said device disposes a double-walled condenser cover (B1) that allows the circulation of cold water inside of it, the lower module of said device is installed over a stove and is CHARACTERIZED in that it includes three cylindrical vessels arranged successively one inside the other, in such a way that the space between the external vessel and the intermediate vessel forms the boiler (A1), in the center of the bottom of said boiler (A1) there is a solid heat conducting disk (A2) that conducts heat from said conducting disk (A2) to the base of said chamber (A3) across the boiler (A1), the space comprised between the intermediate vessel and the internal vessel forms a chamber (A3) of steam over-heating, and the space of the internal vessel forms an oven (A4) for installation of solid raw material to distill, the device has an open valve (A5) for dosing and direction of the steam flow from said chamber (A3) towards the inside of said still (A4), said valve (A5) is located crossing the center of the bottom of the still (A4), between the lower edge of the lid (B1) and the upper edge of the still (A4) a flat elastic ring (B2) for hermetical closure of both modules of the distiller is disposed, said ring (B2) also serves for the internal collection of the liquid distillate that is evacuated from the device by means of an evacuation tube (B3) located at the lower edge of the lid (B1), additionally along the entire upper internal edge of the boiler (A1) it has a slot that allows the passage of steam from the boiler (A1) to the steam chamber (A3) and on the outside of the lid (B1) it has the threaded terminal fittings necessary for the installation of cold water inlet and outlet hoses (D1) and mixed gas thermometer (D2).
A squib driver circuit for deployment of an active safety restraint in a vehicle, the vehicle having an electrical ground and a battery with a battery voltage, the squib driver circuit being an integrated circuit formed on a single chip comprising: an input terminal for receiving an input voltage used to fire the active safety restraint; a high side feed terminal connected to the active safety restraint ; a low side return terminal connected to the active safety restraint ; a high side driver configured to supply current from the input terminal to the high side feed terminal ; a low side driver configured to supply current from the low side return terminal to the electrical ground; and a high side short to ground protection circuit comprising a comparator circuit configured to compare a voltage at the high side feed terminal to a reference voltage to determine if the high side feed terminal is shorted to the ground voltage , wherein the high side short to ground protection circuit is configured to allow an all fire signal from the high side feed terminal until a short is detected between the high side feed terminal and the electrical ground for a predetermined period of time, and wherein the squib driver circuit further comprises a timer configured to generate a high side disable signal to disable the high side driver after the short is detected for the predetermined period of time. an input terminal for receiving an input voltage used to fire the active safety restraint; a high side feed terminal connected to the active safety restraint ; a low side return terminal connected to the active safety restraint ; a high side driver configured to supply current from the input terminal to the high side feed terminal ; a low side driver configured to supply current from the low side return terminal to the electrical ground; and a high side short to ground protection circuit comprising a comparator circuit configured to compare a voltage at the high side feed terminal to a reference voltage to determine if the high side feed terminal is shorted to the ground voltage , wherein the high side short to ground protection circuit is configured to allow an all fire signal from the high side feed terminal until a short is detected between the high side feed terminal and the electrical ground for a predetermined period of time, and wherein the squib driver circuit further comprises a timer configured to generate a high side disable signal to disable the high side driver after the short is detected for the predetermined period of time.