mhurhangee/ep-ind-claims huggingface dataset:
A service providing method of a user terminal device connected to a display apparatus, the display apparatus being mounted on a moving means, the service providing method comprising: displaying, on the user terminal device, a contact list stored in the user terminal device; and displaying a route guide screen with one or more routes guiding the user to a selected address information using the display apparatus in response to the address information being selected from among personal information of the displayed contact list on the user terminal device; wherein the method further comprises automatically searching for a current position of one or more acquaintances registered on the contact list, characterized by marking a position of the respective acquaintances on the route guide screen if acquaintances are located around the routes which are currently displayed on the route guide screen. displaying, on the user terminal device, a contact list stored in the user terminal device; and displaying a route guide screen with one or more routes guiding the user to a selected address information using the display apparatus in response to the address information being selected from among personal information of the displayed contact list on the user terminal device; wherein the method further comprises automatically searching for a current position of one or more acquaintances registered on the contact list,
An apparatus for recording or reproducing data on or from an optical disc, comprising: a pickup unit reading or writing data; and a controller controlling a recording in a manner of controlling the pickup unit to read disc control information recorded within a pre-recorded area of an optical disc, the disc control information including a recording speed information, the recording speed information including a maximum recording speed information, a minimum recording speed information, a basic recording speed information, and a predetermined speed information different from the maximum and minimum recording speed information, wherein the recording speed information further comprises a recordable speed information indicating whether the maximum, minimum, basic and predetermined speed information is applicable or not, and wherein the controller is configured to decide a recording speed from the recording speed information, and to control the recording based on the decided recording speed. a pickup unit reading or writing data; and a controller controlling a recording in a manner of controlling the pickup unit to read disc control information recorded within a pre-recorded area of an optical disc, the disc control information including a recording speed information, the recording speed information including a maximum recording speed information, a minimum recording speed information, a basic recording speed information, and a predetermined speed information different from the maximum and minimum recording speed information, wherein the recording speed information further comprises a recordable speed information indicating whether the maximum, minimum, basic and predetermined speed information is applicable or not, and wherein the controller is configured to decide a recording speed from the recording speed information, and to control the recording based on the decided recording speed.
A ball, in particular for practicing basketball, comprising an inflatable bladder at least partially covered by one or more flexible elongate elements wound around the surface of the inflatable bladder, said ball also comprising an outer covering including at least two outer panels separated by at least one strip of elastomeric material, characterized in that the outer panels and the strip(s) are placed directly onto the wound flexible elongate element(s), the outer panels comprising a first layer of a flexible plastic material and being glued to the wound flexible elongate elements adjacently to the strip(s).
A method of protecting maize, which is tolerant to cycloxydim and sethoxydim, from application of a damaging ACCase inhibiting herbicide selected from the group consisting of pinoxaden, clodinafop-P-propargyl, fenoxaprop-P-ethyl, fluazifop-P-butyl, butroxydim and tralkoxydim, the method comprising applying to said maize, parts thereof or locus thereof an antagonistically effective amount of the safener N-(2-methoxybenzoyl)-4-[(methylaminocarbonyl)amino]benzenesulfonamide.
Process for obtainment of amino acid chelates with essential micro-elements characterized in that include the following stages: - washing of the proteinaceous material with a solution of 5% Na 2 CO 3, followed by ultrasonication of mixture with 400 W for 20 min at 40°C, and hydrolysis with microbial lipase at a ratio of 20 Lipase Unit/g of proteic material - Hydrolysis of proteinaceous material with a mixture of microbial proteases, endo-proteases and aminopeptidase, at a neutral pH and a temperature of 55...60°C, the enzymatic hydrolysis process being carried out for 16...20 hours, followed by ultrafiltration of the resulting hydrolysate through one or more membranes that filter out particles having a molecular weight greater than 3 kDa; - Concentration by evaporation of the enzyme hydrolysate till 15% dry matter; - Addition of an insoluble salt of essential micro-element, at a ratio 1 mole of insoluble compound of Mn, Zn, Fe, B to 2 moles of total amino acids, theoretical resulted by total hydrolysis of proteinaceous material, 15 mM insoluble compound of molybdenum to 1 mole of amino acids, 1,75 mM insoluble selenium compound to 1 mole of amino acids, 5 mM insoluble chromium compound to 2 moles of amino acids; - Ultrasonication with 400 W of the mixture enzyme hydrolysate - insoluble micro element compound for 30 min at 45°C; - Centrifugation of the excess insoluble compound of micro-element and spray-drying at 140..145°C entrance temperature and 80...85°C exit temperature. - washing of the proteinaceous material with a solution of 5% Na 2 CO 3, followed by ultrasonication of mixture with 400 W for 20 min at 40°C, and hydrolysis with microbial lipase at a ratio of 20 Lipase Unit/g of proteic material - Hydrolysis of proteinaceous material with a mixture of microbial proteases, endo-proteases and aminopeptidase, at a neutral pH and a temperature of 55...60°C, the enzymatic hydrolysis process being carried out for 16...20 hours, followed by ultrafiltration of the resulting hydrolysate through one or more membranes that filter out particles having a molecular weight greater than 3 kDa; - Concentration by evaporation of the enzyme hydrolysate till 15% dry matter; - Addition of an insoluble salt of essential micro-element, at a ratio 1 mole of insoluble compound of Mn, Zn, Fe, B to 2 moles of total amino acids, theoretical resulted by total hydrolysis of proteinaceous material, 15 mM insoluble compound of molybdenum to 1 mole of amino acids, 1,75 mM insoluble selenium compound to 1 mole of amino acids, 5 mM insoluble chromium compound to 2 moles of amino acids; - Ultrasonication with 400 W of the mixture enzyme hydrolysate - insoluble micro element compound for 30 min at 45°C; - Centrifugation of the excess insoluble compound of micro-element and spray-drying at 140..145°C entrance temperature and 80...85°C exit temperature.
A process of conducting olefin epoxidation which comprises contacting an olefin and an oxidant in the presence of a catalyst to thereby prepare an epoxide, where the catalyst is prepared by delaminating a B-SSZ-70 precursor and substituting Ti atoms for the boron atoms on the external surface of the zeolite material lattice framework.
Weighing device to weigh at least one container suitable to contain one or more substances, said weighing device comprising weighing means and a body connected to said weighing means and defining a compartment configured to temporarily house said container and provided with an aperture defining a passage gap for the introduction of said container inside said compartment along an axis of introduction, characterized in that said body also comprises a plurality of holding levers disposed symmetrically around said axis of introduction, each of said holding levers being provided with a proximal holding end disposed in correspondence with said aperture and with a distal actuation portion disposed inside said compartment downstream of said proximal holding end along said axis of introduction, each of said holding levers being mobile, in rotation, away from and toward said axis of introduction between an inactive position and a holding position in which said proximal holding end and said distal actuation portion respectively have alternately two inverse positions radially distanced from and near to said axis of introduction and vice versa.
An assembly made up of - a support comprising a mesoporous coating whereof the pores have an average diameter of 1-100 nm as to enable molecules from the family of cyanines to diffuse into the mesoporous coating, - molecules from the family of cyanines organized into J-aggregates at least within the pores of the mesoporous coating, characterized in that said assembly moreover comprises Quantum Dots located within the same pores as those containing the J-aggregates, said Quantum Dots maintaining J-aggregates structure. - a support comprising a mesoporous coating whereof the pores have an average diameter of 1-100 nm as to enable molecules from the family of cyanines to diffuse into the mesoporous coating, - molecules from the family of cyanines organized into J-aggregates at least within the pores of the mesoporous coating,
A method for cardiac imaging, comprising: acquiring functional imaging data of a subject, the functional imaging data including at least a myocardium; determining the pose and geometry of the myocardium by - segmenting a left ventricle; - generating a left ventricle myocardial mask; - computing a center of mass of the left ventricle; - skeletonizing the left ventricle myocardial mask to generate a myocardial skeleton; - pruning the myocardial skeleton; and - estimating diagnostic parameters of the myocardium based on the determined pose and geometry; wherein pruning the myocardial skeleton includes: calculating a distance from each non-zero skeletal pixel to the center of mass of the left ventricle; binning the calculated distances into distance bins; generating a histogram from a number of pixels in each of the distance bins; determining from the histogram a lower bin threshold, an upper bin threshold, a low bin frequency threshold, and an upper bin frequency threshold; and removing from the skeleton pixels outside of the lower and upper bin thresholds and the lower and upper bin frequency thresholds. acquiring functional imaging data of a subject, the functional imaging data including at least a myocardium; determining the pose and geometry of the myocardium by - segmenting a left ventricle; - generating a left ventricle myocardial mask; - computing a center of mass of the left ventricle; - skeletonizing the left ventricle myocardial mask to generate a myocardial skeleton; - pruning the myocardial skeleton; and - estimating diagnostic parameters of the myocardium based on the determined pose and geometry; - segmenting a left ventricle; - generating a left ventricle myocardial mask; - computing a center of mass of the left ventricle; - skeletonizing the left ventricle myocardial mask to generate a myocardial skeleton; - pruning the myocardial skeleton; and - estimating diagnostic parameters of the myocardium based on the determined pose and geometry; wherein pruning the myocardial skeleton includes: calculating a distance from each non-zero skeletal pixel to the center of mass of the left ventricle; binning the calculated distances into distance bins; generating a histogram from a number of pixels in each of the distance bins; determining from the histogram a lower bin threshold, an upper bin threshold, a low bin frequency threshold, and an upper bin frequency threshold; and removing from the skeleton pixels outside of the lower and upper bin thresholds and the lower and upper bin frequency thresholds. calculating a distance from each non-zero skeletal pixel to the center of mass of the left ventricle; binning the calculated distances into distance bins; generating a histogram from a number of pixels in each of the distance bins; determining from the histogram a lower bin threshold, an upper bin threshold, a low bin frequency threshold, and an upper bin frequency threshold; and removing from the skeleton pixels outside of the lower and upper bin thresholds and the lower and upper bin frequency thresholds.
A method, in a network controller of a control plane in a software defined network, SDN, coupled to a network element, NE, of a data plane in the SDN, of resynchronizing forwarding table entries of the NE according to forwarding table entries of the network controller, the method comprising: causing the NE to update a first subset of forwarding table entries from a set of one or more of forwarding table entries to include a post-synchronization indicator; and causing the NE to delete, following the update of the first subset of forwarding table entries, a second subset of zero or more forwarding table entries from the set of forwarding table entries, wherein each forwarding table entry from the second subset includes a pre-synchronization indicator. causing the NE to update a first subset of forwarding table entries from a set of one or more of forwarding table entries to include a post-synchronization indicator; and causing the NE to delete, following the update of the first subset of forwarding table entries, a second subset of zero or more forwarding table entries from the set of forwarding table entries, wherein each forwarding table entry from the second subset includes a pre-synchronization indicator.
A recombinant nucleic acid molecule comprising a nucleotide sequence encoding an amino acid sequence having pesticidal activity against a lepidopteran pest, wherein said nucleotide sequence is selected from the group consisting of: a) the nucleotide sequence set forth in SEQ ID NO: 12; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO:58; c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 95% sequence identity to the amino acid sequence of SEQ ID NO:58. a) the nucleotide sequence set forth in SEQ ID NO: 12; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO:58; c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 95% sequence identity to the amino acid sequence of SEQ ID NO:58.
A negative electrode for a lithium secondary battery, comprising: a negative electrode current collector; a negative electrode active material layer; a lithium layer positioned between the negative electrode current collector and the negative electrode active material layer; and a primer layer positioned between the negative electrode current collector and the lithium layer. a negative electrode current collector; a negative electrode active material layer; a lithium layer positioned between the negative electrode current collector and the negative electrode active material layer; and a primer layer positioned between the negative electrode current collector and the lithium layer.
A method for producing phosphonic acid metal salt fine particles, comprising: a) causing a reaction of a phosphonic acid compound of Formula: (where R 1 and R 2 are each independently a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, or an alkoxycarbonyl group having 1 to 10 carbon atoms) with a base in an aqueous medium to adjust a pH range of the reaction system to be neutral to basic; b) causing a reaction of the product obtained in a) with a metal salt to precipitate a phosphonic acid metal salt from the aqueous medium; c) removing water from the phosphonic acid metal salt precipitated in b); and d) heating and drying the phosphonic acid metal salt from which water is removed in c), wherein the phosphonic acid metal salt is at least one metal salt selected from a group consisting of calcium salts and zinc salts, and the temperature at which the product obtained in step a) is reacted with the metal salt is maintained at 30°C or less, the temperature during heating in step d) is 100 to 300°C and the average particle diameter of the phosphonic acid metal salt fine particles is 0.05 to 0.5 μm. a) causing a reaction of a phosphonic acid compound of Formula: (where R 1 and R 2 are each independently a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, or an alkoxycarbonyl group having 1 to 10 carbon atoms) with a base in an aqueous medium to adjust a pH range of the reaction system to be neutral to basic; b) causing a reaction of the product obtained in a) with a metal salt to precipitate a phosphonic acid metal salt from the aqueous medium; c) removing water from the phosphonic acid metal salt precipitated in b); and d) heating and drying the phosphonic acid metal salt from which water is removed in c),
An opening implement for a ring-shaped clasp of an accessory, the clasp including: a cutout part; a closing member configured to close the cutout part; a movable part connected to the closing member to open and close the closing member; and a fixed part through which a part of a linear accessory is passed, the opening implement (100; 300; 500) comprising: a first holding part (2a; 32a; 52a) configured to hold the fixed part; a second holding part (3a; 33a; 53a) configured to hold the movable part; and a connection part connecting the first holding part (2a; 32a; 52a) and the second holding part (3a; 33a; 53a) so that the second holding part (3a; 33a; 53a) is movable relative to the first holding part (2a; 32a; 52a) to approach or be separated from the first holding part (2a; 32a; 52a); and a biasing member (12; 34; 54) configured to bias the second holding part (3a; 33a; 53a) in a predetermined direction relative to the first holding part (2a; 32a; 52a), wherein the second holding part (3a; 33a; 53a) and the first holding part (2a; 32a; 52a) are allowed to come close to each other for opening the ring-shaped clasp of the accessory by allowing the movable part held by the second holding part (3a; 33a; 53a) and the fixed part held by the first holding part (2a; 32a; 52a) to come close to each other, the ring-shaped clasp of the accessory is a spring clasp or a lobster clasp, characterized in that the first holding part (2a; 32a; 52a) includes a housing part configured to house any of a part of the spring clasp and a part of the lobster clasp, and in a state that the first holding part (2a; 32a; 52a) and the second holding part (3a; 33a; 53a) are separated from each other, any of the spring clasp and the lobster clasp is held by only the first holding part (2a; 32a; 52a) via the housing part, so that the ring-shaped clasp of the accessory has a standing posture with respect to the opening implement (100; 300; 500). a first holding part (2a; 32a; 52a) configured to hold the fixed part; a second holding part (3a; 33a; 53a) configured to hold the movable part; and a connection part connecting the first holding part (2a; 32a; 52a) and the second holding part (3a; 33a; 53a) so that the second holding part (3a; 33a; 53a) is movable relative to the first holding part (2a; 32a; 52a) to approach or be separated from the first holding part (2a; 32a; 52a); and a biasing member (12; 34; 54) configured to bias the second holding part (3a; 33a; 53a) in a predetermined direction relative to the first holding part (2a; 32a; 52a), wherein the second holding part (3a; 33a; 53a) and the first holding part (2a; 32a; 52a) are allowed to come close to each other for opening the ring-shaped clasp of the accessory by allowing the movable part held by the second holding part (3a; 33a; 53a) and the fixed part held by the first holding part (2a; 32a; 52a) to come close to each other, the ring-shaped clasp of the accessory is a spring clasp or a lobster clasp,
A circuit (600; 800) comprising: a first capacitor (603a1; 803a1) formed of two or more sub-capacitors for sampling an analog input signal (V in) at a first time during a sampling time interval; a second capacitor (603a2; 803a2) for sampling the analog input signal (V in) at a second time during the sampling time interval, wherein the second time is distinct from the first time; circuitry (601, 605; 801, 805) operative to combine samples stored on the sub-capacitors of the first capacitor (603a1; 803a1) and on the second capacitor (603a2; 803a2), and to generate a digital output signal (V out) using the combined samples during a conversion time interval distinct from the sampling time interval, wherein the circuitry (601, 605; 801, 805) is operative to sequentially connect the sub-capacitors and second capacitor (603a2; 803a2) to a reference voltage node (V ref) during sequential conversion operations performed during the conversion time interval, and wherein the circuitry (601, 605; 801, 805) is operative to adjust the connectivity of the sub-capacitors from a first configuration during the sampling time interval to a second configuration during the conversion time interval so as to generate a first bit of the digital output signal (V out) using a combined sample stored on a first sub-capacitor of the first capacitor (603a1; 803a1) and generate a second bit of the digital output signal (V out) using a combined sample stored on a second sub-capacitor of the first capacitor (603a1; 803a1). a first capacitor (603a1; 803a1) formed of two or more sub-capacitors for sampling an analog input signal (V in) at a first time during a sampling time interval; a second capacitor (603a2; 803a2) for sampling the analog input signal (V in) at a second time during the sampling time interval, wherein the second time is distinct from the first time; circuitry (601, 605; 801, 805) operative to combine samples stored on the sub-capacitors of the first capacitor (603a1; 803a1) and on the second capacitor (603a2; 803a2), and to generate a digital output signal (V out) using the combined samples during a conversion time interval distinct from the sampling time interval, wherein the circuitry (601, 605; 801, 805) is operative to sequentially connect the sub-capacitors and second capacitor (603a2; 803a2) to a reference voltage node (V ref) during sequential conversion operations performed during the conversion time interval, and wherein the circuitry (601, 605; 801, 805) is operative to adjust the connectivity of the sub-capacitors from a first configuration during the sampling time interval to a second configuration during the conversion time interval so as to generate a first bit of the digital output signal (V out) using a combined sample stored on a first sub-capacitor of the first capacitor (603a1; 803a1) and generate a second bit of the digital output signal (V out) using a combined sample stored on a second sub-capacitor of the first capacitor (603a1; 803a1).
A contact pin for a container, in particular for a cooling water container, wherein the contact pin has a main body with a longitudinal axis, a first end and a second end, wherein the first end is configured for taking measurement signals and the second end is configured as a measuring electrode, wherein the main body of the contact pin has a retaining region between the first end and the second end, which has at least one element for fastening, positioning and / or securing (221, 222) the contact pin at a container, wherein the container has an opening with an outer collar, and wherein the element for fastening, positioning and / or securing (221, 222) is formed for hooking or clawing the contact pin on an inner wall of the outer collar, and has at least one barb, and wherein the element for fastening, positioning and / or securing (221, 222) and the main body of the contact pin are formed in one piece.