mhurhangee/ep-ind-claims huggingface dataset:
A method of ultrasonic impregnation of textiles with metal oxide nanoparticles comprising the steps of: a. preparing a water-ethanol solution; b. adding M(Ac) 2 to said solution, forming a mixture; c. immersing said textiles in said mixture; d. adjusting the pH of said mixture to basic pH by means of addition of aqueous ammonia; e. purging said mixture to remove traces of CO 2 /air; f. irradiating said mixture with a high intensity ultrasonic power; g. washing said textile with water to remove traces of ammonia; and h. further washing said textile with ethanol, and drying in air, said method characterized in that said M is selected from a group consisting of Zn, Mg or Cu and; further wherein said irradiating is performed at ultrasonic range of frequencies such that a bacteriostatic textile-metal oxide composite containing homogenously impregnated metal oxide nanoparticles is produced. a. preparing a water-ethanol solution; b. adding M(Ac) 2 to said solution, forming a mixture; c. immersing said textiles in said mixture; d. adjusting the pH of said mixture to basic pH by means of addition of aqueous ammonia; e. purging said mixture to remove traces of CO 2 /air; f. irradiating said mixture with a high intensity ultrasonic power; g. washing said textile with water to remove traces of ammonia; and h. further washing said textile with ethanol, and drying in air,
A liquid electrophotographic ink composition, comprising: a charge director; a non-polar carrier fluid comprising a polymer; and ink particles each comprising a polymeric resin and a pigment dispersed in the resin; and a tackifier, wherein the tackifier comprises a polymer having a molecular weight Mn of between 600 and 1000. a charge director; a non-polar carrier fluid comprising a polymer; and ink particles each comprising a polymeric resin and a pigment dispersed in the resin; and a tackifier, wherein the tackifier comprises a polymer having a molecular weight Mn of between 600 and 1000.
Obstacle detection and characterisation method, comprising the steps of: acquiring at least one pair of measurements, each pair of measurements being associated with a current position of a mobile terminal and comprising a first distance measurement and a second distance measurement between said mobile terminal and a reference equipment item, each first distance measurement being obtained from at least one inertial measurement produced by at least one inertial sensor of the mobile terminal, each second distance measurement being obtained from at least one time of flight measurement; for each pair of measurements: o evaluating a distance error representative of a difference between the second distance measurement and the first distance measurement of said pair of measurements; o from the distance error, detecting the presence of an obstacle between the mobile terminal and the reference equipment, and determining one or more characteristics of said obstacle. acquiring at least one pair of measurements, each pair of measurements being associated with a current position of a mobile terminal and comprising a first distance measurement and a second distance measurement between said mobile terminal and a reference equipment item, each first distance measurement being obtained from at least one inertial measurement produced by at least one inertial sensor of the mobile terminal, each second distance measurement being obtained from at least one time of flight measurement; for each pair of measurements: o evaluating a distance error representative of a difference between the second distance measurement and the first distance measurement of said pair of measurements; o from the distance error, detecting the presence of an obstacle between the mobile terminal and the reference equipment, and determining one or more characteristics of said obstacle. o evaluating a distance error representative of a difference between the second distance measurement and the first distance measurement of said pair of measurements; o from the distance error, detecting the presence of an obstacle between the mobile terminal and the reference equipment, and determining one or more characteristics of said obstacle.
A caller information displaying method, suitable for a mobile communication device comprising a touch screen, the caller information displaying method comprising: receiving an incoming call and transforming the mobile communication device into a communication mode; identifying a caller of the incoming call during the communication mode; displaying a user interface (200, 300, 400, 500, 600, 700) when the communication device is in the communication mode, wherein the user interface (200, 300, 400, 500, 600, 700) comprises at least one on-screen button (218, 220, 222, 224, 226) corresponding to a caller information displaying function; receiving a selecting operation performed on one of the at least one on-screen button (218, 220, 222, 224, 226) during the communication mode; in response to the selecting operation, retrieving caller information associated with the caller according to the at least one on-screen button (218, 220, 222, 224, 226) on which the selecting operation has been performed during the communication mode, wherein the caller information comprises one or a combination of a short message list (400, 402, 404) and an e-mail list and wherein the caller information further comprises one or a combination of personal information (300, 302, 304, 306, 308, 310, 312, 314), social information (600, 602, 604), and a call history of the caller, and wherein the social information (600, 602, 604) comprises one or a combination of Facebook update, Facebook event, website update, and album update; and displaying the caller information during the communication mode. receiving an incoming call and transforming the mobile communication device into a communication mode; identifying a caller of the incoming call during the communication mode; displaying a user interface (200, 300, 400, 500, 600, 700) when the communication device is in the communication mode, wherein the user interface (200, 300, 400, 500, 600, 700) comprises at least one on-screen button (218, 220, 222, 224, 226) corresponding to a caller information displaying function; receiving a selecting operation performed on one of the at least one on-screen button (218, 220, 222, 224, 226) during the communication mode; in response to the selecting operation, retrieving caller information associated with the caller according to the at least one on-screen button (218, 220, 222, 224, 226) on which the selecting operation has been performed during the communication mode, wherein the caller information comprises one or a combination of a short message list (400, 402, 404) and an e-mail list and wherein the caller information further comprises one or a combination of personal information (300, 302, 304, 306, 308, 310, 312, 314), social information (600, 602, 604), and a call history of the caller, and wherein the social information (600, 602, 604) comprises one or a combination of Facebook update, Facebook event, website update, and album update; and displaying the caller information during the communication mode.
A process for preparing a VPO catalyst containing molybdenum and a vanadyl pyrophosphate phase comprising the steps of: a) Providing a reaction mixture comprising V 2 O 5 as a V compound, phosphoric acid having a concentration between 98 and 100% as a P compound, a Mo compound, an aromatic alcohol as a reducing agent, and an aliphatic alcohol as a solvent, and comprising between 50 and 80 wt.% solvent, between 5 and 15 wt.% reducing agent, between 5 and 15 wt.% V compound, between 5 and 15 wt.% P compound, and between 0.05 to 0.3 wt.% Mo compound, each based on the total weight of the mixture, b) Reducing the V compound with the reducing agent at least in part to vanadyl hydrogen phosphate to obtain an intermediate product suspension, c) Filtering the intermediate product suspension from step b) to obtain an intermediate product, d) Drying the intermediate product at a maximum temperature of 350 °C to obtain a dried intermediate product and e) Activation of the dried intermediate product at a temperature above 200 °C, characterized in that a maximum of 0.2 wt. % of water, based on the weight of the reaction mixture, is present in step a) and no water is removed during the reduction in step b). a) Providing a reaction mixture comprising V 2 O 5 as a V compound, phosphoric acid having a concentration between 98 and 100% as a P compound, a Mo compound, an aromatic alcohol as a reducing agent, and an aliphatic alcohol as a solvent, and comprising between 50 and 80 wt.% solvent, between 5 and 15 wt.% reducing agent, between 5 and 15 wt.% V compound, between 5 and 15 wt.% P compound, and between 0.05 to 0.3 wt.% Mo compound, each based on the total weight of the mixture, b) Reducing the V compound with the reducing agent at least in part to vanadyl hydrogen phosphate to obtain an intermediate product suspension, c) Filtering the intermediate product suspension from step b) to obtain an intermediate product, d) Drying the intermediate product at a maximum temperature of 350 °C to obtain a dried intermediate product and e) Activation of the dried intermediate product at a temperature above 200 °C,
A method for providing data related to the operating condition of a machine part (106, 109) of a dairy processing system, comprising the steps of: selecting at least one machine part (106, 109) of said dairy processing system; calculating an expected remaining usable time based on a predictive life time of said machine part (106, 109); determining at least one real-time operating condition of said at least one machine part (106, 109); and providing said expected remaining usable time and said at least one operating condition as data for enabling a decision whether to perform maintenance of said machine part (106, 109) or not, characterized in that said expected remaining usable time is a function of parameters representing a liquid product being processed during the actual operation time for said machine part. selecting at least one machine part (106, 109) of said dairy processing system; calculating an expected remaining usable time based on a predictive life time of said machine part (106, 109); determining at least one real-time operating condition of said at least one machine part (106, 109); and providing said expected remaining usable time and said at least one operating condition as data for enabling a decision whether to perform maintenance of said machine part (106, 109) or not, characterized in that said expected remaining usable time is a function of parameters representing a liquid product being processed during the actual operation time for said machine part.
A vehicle surrounding monitor device comprising: a plurality of monitoring sensors which monitor different areas (A1-A8) around a host vehicle; a state detection unit which detects one of the traveling state of the host vehicle and the state of a driver of the host vehicle; and a control unit which controls one of the operation of the monitoring sensors and processing of information output from the monitoring sensors, wherein the control unit sets priority on a plurality of monitoring sensors on the basis of one of the traveling state of the host vehicle and the state of the driver of the host vehicle detected by the state detection unit, distributes the bits per unit time to be allocated to the processing of information output from each of the monitoring sensors from the bits per unit time allocated to the whole of the processing of information output from the monitoring sensors on the basis of the set priority, and controls the detection precision of each of the monitoring sensors in accordance with the distributed bits per unit time to be allocated to the processing of information output from each of the monitoring sensors; characterized in that: for a monitoring sensor having high priority, the control unit shortens the period of processing information output from the monitoring sensor. a plurality of monitoring sensors which monitor different areas (A1-A8) around a host vehicle; a state detection unit which detects one of the traveling state of the host vehicle and the state of a driver of the host vehicle; and a control unit which controls one of the operation of the monitoring sensors and processing of information output from the monitoring sensors, wherein the control unit sets priority on a plurality of monitoring sensors on the basis of one of the traveling state of the host vehicle and the state of the driver of the host vehicle detected by the state detection unit, distributes the bits per unit time to be allocated to the processing of information output from each of the monitoring sensors from the bits per unit time allocated to the whole of the processing of information output from the monitoring sensors on the basis of the set priority, and controls the detection precision of each of the monitoring sensors in accordance with the distributed bits per unit time to be allocated to the processing of information output from each of the monitoring sensors; characterized in that: for a monitoring sensor having high priority, the control unit shortens the period of processing information output from the monitoring sensor.
Abutment attachment which can be fixed to a jaw implant, comprising: an adhesive base of L-shaped cross section, one limb of which is formed by an adhesive base portion and the other limb of which is formed by a collar; an opening for inserting a fixing screw; and wherein, for forming an adhesive base for an adhesive body, the adhesive base portion is tongue-shaped, post-shaped or pin-shaped, is arranged laterally alongside the opening, and protrudes beyond the opening. an adhesive base of L-shaped cross section, one limb of which is formed by an adhesive base portion and the other limb of which is formed by a collar; an opening for inserting a fixing screw; and wherein, for forming an adhesive base for an adhesive body, the adhesive base portion is tongue-shaped, post-shaped or pin-shaped, is arranged laterally alongside the opening, and protrudes beyond the opening.
A method comprising: transmitting, by a master node MN (230) to a target-secondary node T-SN, a request for the target-secondary node T-SN to prepare a set of one or more candidate target primary cells of a secondary cell group, candidate target PSCells (220), for a conditional PSCell change for a user device; and transmitting, by the master node MN to a source-secondary node S-SN that provides dual connectivity for the user device, for one or more of a plurality of target-secondary nodes T-SNs, information indicating or relating to an arrival probability of a cell change for the user device to a candidate target PSCell controlled by the respective target-secondary node T-SN. transmitting, by a master node MN (230) to a target-secondary node T-SN, a request for the target-secondary node T-SN to prepare a set of one or more candidate target primary cells of a secondary cell group, candidate target PSCells (220), for a conditional PSCell change for a user device; and transmitting, by the master node MN to a source-secondary node S-SN that provides dual connectivity for the user device, for one or more of a plurality of target-secondary nodes T-SNs, information indicating or relating to an arrival probability of a cell change for the user device to a candidate target PSCell controlled by the respective target-secondary node T-SN.
Escapement mechanism for a timepiece movement or timepiece, said escapement mechanism including at least one balance and at least one escape wheel, wherein the transmission of impulses between said at least one balance and said at least one escape wheel is performed by a single-piece, flexible mechanism, comprised in said escapement mechanism and including at least one feeler-spindle cooperating with said at least one escape wheel or respectively said at least one balance, and wherein said single-piece, flexible mechanism is connected by at least one flexible blade comprised therein to a fixed structure of said timepiece, or respectively to said at least one escape wheel, wherein said single-piece, flexible mechanism is a locking lever which includes at least one movable frame carrying locking beaks arranged to cooperate with teeth comprised in said escape wheel, a plurality of said flexible blades which are flexible, prestressed buckled blades, and a fork carrying horns for cooperating with an impulse pin of said balance, and wherein said movable frame completely surrounds said escape wheel, characterized in that said flexible blades are extended by springs which are integral with weights which are either rigidly fixed to said fixed structure, or which have a small degree of freedom with respect to said structure limited by oblong portions cooperating with pins comprised in said rigid structure, in an orthogonal direction to a direction of translation, called the abscissa direction, of said movable frame.
Household device having at least one door unit, which has at least one door handle which is rotatably mounted about an axis, at least one torque transmission means (94, 95), which, in at least one operating state in interaction with the door handle, transmits at least one torque, a first elastic means, which is at least fastened to a fastening area of a fastening means of the door unit, which is immobile relative to the axis in at least one operating procedure, and at least one second elastic means, which is at least fastened to a fastening area of a fastening means of the door unit, wherein an operating procedure is a procedure and/or a process, in which the torque transmission means (94, 95) moves relative to the axis, characterised in that the fastening area, to which the second elastic means is fastened, is immobile relative to the axis in at least one operating procedure.
A process to obtain tetraxetan that comprises the following steps: (a) obtention of tetraxetan by the following reaction: where X is a halogen, Y is selected from hydrogen or an alkaline element, the base is selected from potassium, sodium or lithium hydroxide, the pH is maintained between 7 and 8.5 and the reaction temperature is maintained between 70 and 100°C, and crystallization of the obtained tetraxetan by lowering the pH below 3 to obtain a tetraxetan crude; (b) purification of the crystallized tetraxetan crude obtained in the previous step, involving at least one electrodialysis; (c) isolation of the product obtained in the previous step by spray drying. (a) obtention of tetraxetan by the following reaction: where X is a halogen, Y is selected from hydrogen or an alkaline element, the base is selected from potassium, sodium or lithium hydroxide, the pH is maintained between 7 and 8.5 and the reaction temperature is maintained between 70 and 100°C, and crystallization of the obtained tetraxetan by lowering the pH below 3 to obtain a tetraxetan crude; (b) purification of the crystallized tetraxetan crude obtained in the previous step, involving at least one electrodialysis; (c) isolation of the product obtained in the previous step by spray drying.
A polypeptide having hydroxylase activity of microbial hydroxylation of isoprenoids, wherein said polypeptide comprises the sequence of SEQ ID NO:2, and wherein the polypeptide has an enzymatic activity for converting canthaxanthin into adonirubin and/or astaxanthin, wherein the percentage of astaxanthin is at least 12% based on the total amount of carotenoids.
A coated pigment, comprising: a substrate, the substrate being non-metal; a template layer that is an organic layer, the substrate being coated by the template layer such that the template layer is in direct contact with the substrate; and a metal layer, the template layer being coated by the metal layer such that the metal layer is in direct contact with the template layer, wherein the organic layer includes an amino group that allows the metal layer to be formed as a substantially continuous layer such that an Auger electron microscopy map for a metal within the metal layer does not reveal discontinuity in the coverage of the metal layer at a magnification of x7500 and a scanned area of 15μm x 15μm using 256 pixel x 256 pixel density. a substrate, the substrate being non-metal; a template layer that is an organic layer, the substrate being coated by the template layer such that the template layer is in direct contact with the substrate; and a metal layer, the template layer being coated by the metal layer such that the metal layer is in direct contact with the template layer, wherein the organic layer includes an amino group that allows the metal layer to be formed as a substantially continuous layer such that an Auger electron microscopy map for a metal within the metal layer does not reveal discontinuity in the coverage of the metal layer at a magnification of x7500 and a scanned area of 15μm x 15μm using 256 pixel x 256 pixel density.
System which has at least two electric machines (2a, 2b), wherein each electric machine (2a, 2b) comprises a rotor rotatable about a shaft (6a, 6b) and a stator, wherein the stator has an original stator plate (14a, 14b), the outer wall of which is locally limited and flattened in at least one location (15a, 15b) and otherwise is designed to be round, wherein the electric machines (2a, 2b) are arranged next to one another, wherein for each two directly adjacent electric machines (2a, 2b) locally limited and flattened locations (15a, 15b) of the outer walls of the stator plates (14a, 14b) of the respective electric machines (2a, 2b) face one another, wherein for the two directly adjacent electric machines (2a, 2b) the located limited and flattened locations (15a, 15b) of the outer walls of the stator plates (14a, 14b) of the stators are connected to one another at least partly to form a common stator metal plate, characterised in that an original stator plate (14a, 14b) has a completely round outer wall, which is flattened and locally limited in at least one location (15a, 15b), wherein for each electric machine (2a, 2b) an originally round coolant circuit (16a, 16b), which coaxially encloses the respective electric machine (2a, 2b), is flattened in one location, and thereby a flattened coolant circuit (16a', 16b') is produced, wherein the flattened coolant circuits (16a', 16b') are unified into a common coolant circuit.