mhurhangee/patent-ind-claim-en huggingface dataset:
A shampoo composition comprising: a) from 5 % to 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed solid crystalline gel network phase comprising: i) a first component comprising at least 0.05 % of one or more fatty acids by weight of said shampoo composition; ii) a second component comprising at least 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; iii) water; and c) at least 20 % of an aqueous carrier, by weight of said shampoo composition; wherein said first component is combined with said second component in the ratio of from 1:1 to 40:1, to form said solid crystalline gel network phase; wherein the one or more detersive surfactants comprise a detersive surfactant selected from anionic detersive surfactants, zwitterionic detersive surfactants and amphoteric detersive surfactants; wherein the one or more secondary surfactants comprise a cationic surfactant; and wherein the first component comprises a plurality of fatty acids selected from behenic acid, stearic acid, erucic acid, hydroxystearic acid, linoleic acid and oleic acid. a) from 5 % to 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed solid crystalline gel network phase comprising: i) a first component comprising at least 0.05 % of one or more fatty acids by weight of said shampoo composition; ii) a second component comprising at least 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; iii) water; and i) a first component comprising at least 0.05 % of one or more fatty acids by weight of said shampoo composition; ii) a second component comprising at least 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; iii) water; and c) at least 20 % of an aqueous carrier, by weight of said shampoo composition; wherein the one or more detersive surfactants comprise a detersive surfactant selected from anionic detersive surfactants, zwitterionic detersive surfactants and amphoteric detersive surfactants; wherein the one or more secondary surfactants comprise a cationic surfactant; and wherein the first component comprises a plurality of fatty acids selected from behenic acid, stearic acid, erucic acid, hydroxystearic acid, linoleic acid and oleic acid.
A catheter comprising: a flexible tube-shaped main catheter body ; a hub connected to a proximal portion of the main catheter body ; and a flexible strain relief (16, 40, or 44) supported by a distal portion of the hub , the strain relief (16, 40, or 44) surrounding a predetermined range of a proximal side of the main catheter body , wherein the strain relief (16, 40, or 44) includes a hard portion (32, 42, or 48) which is provided in each of regions opposite from each other with respect to an axis in at least a distal-side portion, and which is configured to be harder than another portion in a circumferential direction, characterized in that the hard portion contains a harder material than a material of the other portion. a flexible tube-shaped main catheter body ; a hub connected to a proximal portion of the main catheter body ; and a flexible strain relief (16, 40, or 44) supported by a distal portion of the hub , the strain relief (16, 40, or 44) surrounding a predetermined range of a proximal side of the main catheter body , wherein the strain relief (16, 40, or 44) includes a hard portion (32, 42, or 48) which is provided in each of regions opposite from each other with respect to an axis in at least a distal-side portion, and which is configured to be harder than another portion in a circumferential direction, characterized in that the hard portion contains a harder material than a material of the other portion.
An actuator for an aerosol inhalation device, comprising: (a) a housing adapted to receive an aerosol canister containing a pressurised medicament formulation, provided with a metering valve having a hollow valve stem , (b) a nozzle block defining a valve stem receptacle , an expansion chamber or sump , a nozzle channel , and an aperture to propel the aerosol formulation towards a mouthpiece opening , and (c) a mouthpiece portion , having a central longitudinal axis located at an angle greater or equal to 90° to the direction of the longitudinal axis of the hollow valve stem , terminating in the mouthpiece opening through which the user inhales, said mouthpiece opening being a central rounded mouthpiece opening of a surface corresponding to the surface of a circular shaped opening of a diameter (d) from 5 to 14 mm, at a distance (D) from 16 to 58 mm from the nozzle channel aperture and whose central axis is aligned with the central longitudinal axis of the actuator mouthpiece portion and coinciding with the central longitudinal axis of the nozzle channel characterized in that the central rounded mouthpiece opening has an edge facing towards the inside of the mouthpiece portion and wherein the internal extension of the edge forms a recess at an angle (A) of any value in the range from 30° to 150° with respect to the plane of the wall defining the said central opening . (a) a housing adapted to receive an aerosol canister containing a pressurised medicament formulation, provided with a metering valve having a hollow valve stem , (b) a nozzle block defining a valve stem receptacle , an expansion chamber or sump , a nozzle channel , and an aperture to propel the aerosol formulation towards a mouthpiece opening , and (c) a mouthpiece portion , having a central longitudinal axis located at an angle greater or equal to 90° to the direction of the longitudinal axis of the hollow valve stem , terminating in the mouthpiece opening through which the user inhales, said mouthpiece opening being a central rounded mouthpiece opening of a surface corresponding to the surface of a circular shaped opening of a diameter (d) from 5 to 14 mm, at a distance (D) from 16 to 58 mm from the nozzle channel aperture and whose central axis is aligned with the central longitudinal axis of the actuator mouthpiece portion and coinciding with the central longitudinal axis of the nozzle channel
Multi-stage process for processing agricultural manure to produce biomass fertilizer, characterized by the following process steps: a) Separation of the agricultural manure mixture by mechanical separation such as sieves (grids) or centrifugation of coarse foreign bodies such as straw from the essentially liquid phase or homogenization of the manure mixture by crushing straw and hay fibers b) Addition of C-containing substances such as mono - di-, oligo-. Polysaccharides, pyruvic acids and glucono delta lactone and the like to the liquid phase or the homogenized liquid manure mixture, c) Biogenic semi-aerobic fermentation without adding air or O2 for acidification by adding bacteria up to a pH of about 6.0-5.8 d) aerobic dissimilation and/or fermentation and further acidification down to a pH of about 4.8 with the addition of mould fungus and/or yeasts and/or bacteria with air or oxygen supply wherein the inorganic ions present in the essentially liquid phase of the liquid manure or in the homogenized liquid manure mixture, more particularly ammonium ions, potassium ions and phosphate ions, are metabolized by the mould fungus and/or yeasts and/or bacteria in a microbiological reaction and converted into the resulting organic nitrogen compounds, such as amino acids, Oligopeptides, peptides, proteins, chitins, urea and phytin or other organic compounds are organically bound or stored. a) Separation of the agricultural manure mixture by mechanical separation such as sieves (grids) or centrifugation of coarse foreign bodies such as straw from the essentially liquid phase or homogenization of the manure mixture by crushing straw and hay fibers b) Addition of C-containing substances such as mono - di-, oligo-. Polysaccharides, pyruvic acids and glucono delta lactone and the like to the liquid phase or the homogenized liquid manure mixture, c) Biogenic semi-aerobic fermentation without adding air or O2 for acidification by adding bacteria up to a pH of about 6.0-5.8 d) aerobic dissimilation and/or fermentation and further acidification down to a pH of about 4.8 with the addition of mould fungus and/or yeasts and/or bacteria with air or oxygen supply
An electrolyte solution for a non-aqueous electrolyte solution battery, comprising at least: a non-aqueous solvent; a solute; at least one first compound selected from the group consisting of bis(oxalato)boric acid salts, difluoro(oxalato)boric acid salts, tris(oxalato)phosphoric acid salts, difluorobis(oxalato)phosphoric acid salts, tetrafluoro(oxalato)phosphoric acid salts, and tetrafluoro(malonato)phosphoric acid salts, wherein a counter cation in the first compound is an alkali metal cation, alkaline earth metal cation, or an onium cation; and at least one second compound represented by the following general formula : Si(R 3 ) x (R 4 ) 4-x wherein, in general formula , R 3 s each independently represent a group selected from the group consisting of a vinyl group, an allyl group, an ethynyl group, and a 2-propynyl group; R 4 s each independently represent a group selected from the group consisting of a fluorine atom, a methyl group, an ethyl group, a propyl group, a 2,2,2-trifluoroethyl group, a 2,2,3,3-tetrafluoropropyl group, a 1,1,1-trifluoroisopropyl group, a 1,1,1,3,3,3-hexafluoroisopropyl group, a 2,2,2-trifluoroethoxy group, a 2,2,3,3-tetrafluoropropoxy group, a 2,2,3,3,3-pentafluoropropoxy group, a 1,1,1-trifluoroisopropoxy group, and a 1,1,1,3,3,3-hexafluoroisopropoxy group; and x is 2 to 4. a non-aqueous solvent; a solute; at least one first compound selected from the group consisting of bis(oxalato)boric acid salts, difluoro(oxalato)boric acid salts, tris(oxalato)phosphoric acid salts, difluorobis(oxalato)phosphoric acid salts, tetrafluoro(oxalato)phosphoric acid salts, and tetrafluoro(malonato)phosphoric acid salts, wherein a counter cation in the first compound is an alkali metal cation, alkaline earth metal cation, or an onium cation; and at least one second compound represented by the following general formula : Si(R 3 ) x (R 4 ) 4-x wherein, in general formula , R 3 s each independently represent a group selected from the group consisting of a vinyl group, an allyl group, an ethynyl group, and a 2-propynyl group; R 4 s each independently represent a group selected from the group consisting of a fluorine atom, a methyl group, an ethyl group, a propyl group, a 2,2,2-trifluoroethyl group, a 2,2,3,3-tetrafluoropropyl group, a 1,1,1-trifluoroisopropyl group, a 1,1,1,3,3,3-hexafluoroisopropyl group, a 2,2,2-trifluoroethoxy group, a 2,2,3,3-tetrafluoropropoxy group, a 2,2,3,3,3-pentafluoropropoxy group, a 1,1,1-trifluoroisopropoxy group, and a 1,1,1,3,3,3-hexafluoroisopropoxy group; and x is 2 to 4.
A computer implemented method of spectral matching comprising receiving spectral information for each reference sample of multiple reference samples, the spectral information of each reference sample comprising data specifying a set of peak wavelengths; producing peak and bin information that comprises partitioning a spectrum of the sets of peak wavelengths from the spectral information of the multiple reference samples into multiple different sized range bins, wherein widths of each of the multiple different sized range bins are defined such that an equal number of the peak wavelengths in the reference samples falls into each of the multiple different sized range bins and such that more than one peak wavelength may fall in the same range bin, wherein each of the peak wavelengths in the multiple reference samples resides in one of the multiple different sized range bins ; receiving spectral information for an unknown sample, said spectral information comprising data specifying a set of peak wavelengths; based on comparing locations of said peak wavelengths of the unknown sample to the multiple different sized range bins in the partitioned spectrum, for each reference sample identifying a number of occurrences that a peak wavelength of the unknown sample falls into a respective bin of the multiple range bins in which said reference sample also includes a peak wavelength; for each reference sample generating probability information that indicates a degree to which the spectral information of said reference sample matches the spectral information of the unknown sample based on the number of occurrences; and notifying a user about a subset of all the reference samples that are best matches to the unknown sample. 10421947;VXB;VXB
A robot power system comprising: a controller configured to: receive a request for power for a group of wireless motors associated with a robot ; identify an amount of power available from a power source for wireless transmission to the group of wireless motors ; and control operation of the robot based on the amount of power available wherein controlling operation of the robot comprises one or more of: sending a power schedule to the robot ; changing a task performed by the robot . a controller configured to: receive a request for power for a group of wireless motors associated with a robot ; identify an amount of power available from a power source for wireless transmission to the group of wireless motors ; and control operation of the robot based on the amount of power available receive a request for power for a group of wireless motors associated with a robot ; identify an amount of power available from a power source for wireless transmission to the group of wireless motors ; and control operation of the robot based on the amount of power available wherein controlling operation of the robot comprises one or more of: sending a power schedule to the robot ; changing a task performed by the robot . sending a power schedule to the robot ; changing a task performed by the robot .
A control device comprising: a recognizing unit that recognizes external environment based on sensing information; a recognized-information managing unit that calculates a difficulty level of recognition for the recognizing unit based on at least one or more of count or types of sensors used in obtaining the sensing information, complexity of the external environment, recognition algorithm implemented by the recognizing unit, and reliability or required accuracy of recognition result obtained by the recognizing unit; an action decision managing unit that, based on the recognized external environment, decides on an action to be taken, and that calculates a difficulty level of the action decision based on at least one of complexity of the action decision or limiting conditions, number of options for the actions taken into account at the time of the action decision, and a presence or absence of relative merits or history; a behavior managing unit that, based on at least either difficulty level of recognition for the recognizing unit or difficulty level of the action decision for the action decision managing unit, determines about whether or not to exhibit emotional expression; and a drive control unit that, based on determination performed by the behavior managing unit, controls execution of action corresponding to the emotional expression. a recognizing unit that recognizes external environment based on sensing information; a recognized-information managing unit that calculates a difficulty level of recognition for the recognizing unit based on at least one or more of count or types of sensors used in obtaining the sensing information, complexity of the external environment, recognition algorithm implemented by the recognizing unit, and reliability or required accuracy of recognition result obtained by the recognizing unit; an action decision managing unit that, based on the recognized external environment, decides on an action to be taken, and that calculates a difficulty level of the action decision based on at least one of complexity of the action decision or limiting conditions, number of options for the actions taken into account at the time of the action decision, and a presence or absence of relative merits or history; a behavior managing unit that, based on at least either difficulty level of recognition for the recognizing unit or difficulty level of the action decision for the action decision managing unit, determines about whether or not to exhibit emotional expression; and a drive control unit that, based on determination performed by the behavior managing unit, controls execution of action corresponding to the emotional expression.
A computational storage device for receiving an external execution command (CMD) from a host , the computational storage device comprising: a nonvolatile memory (NVM) configured to store data; and a storage controller (CTRL) configured to perform a storage function and to control a plurality of applications to be executed based on the data, wherein the storage function comprises writing data, reading data, and managing storage space of the nonvolatile memory (NVM), wherein the storage controller (CTRL) comprises: a processor ; and a memory comprising a program slot configured to store a user program (Pgm), wherein the computational storage device is configured to store a said user program (Pgm) in a said program slot (PS) based on a said external execution command (CMD) that identifies a said program slot (PS) and includes an operation time and parameter data (para_D), wherein the computational storage device is configured to generate an event signal (event_s) at the operation time, the event signal (event_s) based on the identified program slot (PS) and the parameter data (para_D), wherein the processor is configured to drive an internal operating system to execute the user program (Pgm) stored in the identified program slot (PS) based on the event signal (event_s), the user program (Pgm) to control an application (APP_i) among the plurality of applications in response to the nonvoltatile memory (NVM) performing a first operation on the stored data, wherein each said application (APP_i) is different from programs that perform the storage function of the storage controller (CTRL). a nonvolatile memory (NVM) configured to store data; and a storage controller (CTRL) configured to perform a storage function and to control a plurality of applications to be executed based on the data, wherein the storage function comprises writing data, reading data, and managing storage space of the nonvolatile memory (NVM), wherein the storage controller (CTRL) comprises: a processor ; and a memory comprising a program slot configured to store a user program (Pgm), a processor ; and a memory comprising a program slot configured to store a user program (Pgm), wherein the computational storage device is configured to store a said user program (Pgm) in a said program slot (PS) based on a said external execution command (CMD) that identifies a said program slot (PS) and includes an operation time and parameter data (para_D), wherein the computational storage device is configured to generate an event signal (event_s) at the operation time, the event signal (event_s) based on the identified program slot (PS) and the parameter data (para_D), wherein the processor is configured to drive an internal operating system to execute the user program (Pgm) stored in the identified program slot (PS) based on the event signal (event_s), the user program (Pgm) to control an application (APP_i) among the plurality of applications in response to the nonvoltatile memory (NVM) performing a first operation on the stored data, wherein each said application (APP_i) is different from programs that perform the storage function of the storage controller (CTRL).
A stacker for stockpiling bulk material, the stacker comprising: a chassis provided with wheels and tracks or wheels or tracks; a conveyor ; and a powered, telescoping cylinder leg for moving the conveyor with respect to the chassis , wherein the conveyor is at least 21.3 m (70 ft) long; and characterised in that the telescoping cylinder leg is mounted at one end to the conveyor and at the other end is removably mountable to the chassis from a first mounting position (A) for transport in a shipping container (SC) to a second mounting position (B) for transport by road and when mounted in the first mounting position (A), the telescoping cylinder leg can be retracted to slide the conveyor backwards with respect to the chassis for transport in the shipping container (SC) and when mounted in the first mounting position (A), the telescoping cylinder leg can be extended to slide the conveyor forwards with respect to the chassis and mounted to the chassis at the second mounting position (B) for transport by road. a chassis provided with wheels and tracks or wheels or tracks; a conveyor ; and a powered, telescoping cylinder leg for moving the conveyor with respect to the chassis ,
Positive temperature coefficient electric heater for a vehicle, comprising a support part and a control circuitry housed within the support part , and a first and a second radiating layer superimposed to each other and configured to be passed through by an air flow, each radiating layer comprising a plurality of heating rods (115, 115'; 125, 125'), extending from the support part and connected in parallel to the control circuitry , each of said heating rods having a first section (115a, 115a'; 125a, 125a') adjacent to the support part and a second section (115b, 115b'; 125b, 125b') far from the support part , wherein each radiating layer comprises a first layer sector (A1, C1; A2, C2) and a second layer sector (B1, D1; B2, D2) controllable independently from each other through the control circuitry and wherein the radiating layers are connected in parallel to the control circuitry and are controllable independently from each other through the control circuitry , the heater being characterised in that the heating rods (115, 115'; 125, 125') are configured in such a way that, in the first radiating layer , the second section of the respective heating rods is capable of generating a greater thermal power than the first section of the respective heating rods , and, in the second radiating layer , the first section of the respective heating rods is capable of generating a greater thermal power than the second section of the respective heating rods . a support part and a control circuitry housed within the support part , and a first and a second radiating layer superimposed to each other and configured to be passed through by an air flow, each radiating layer comprising a plurality of heating rods (115, 115'; 125, 125'), extending from the support part and connected in parallel to the control circuitry , each of said heating rods having a first section (115a, 115a'; 125a, 125a') adjacent to the support part and a second section (115b, 115b'; 125b, 125b') far from the support part , wherein each radiating layer comprises a first layer sector (A1, C1; A2, C2) and a second layer sector (B1, D1; B2, D2) controllable independently from each other through the control circuitry and wherein the radiating layers are connected in parallel to the control circuitry and are controllable independently from each other through the control circuitry , the heater being characterised in that the heating rods (115, 115'; 125, 125') are configured in such a way that, in the first radiating layer , the second section of the respective heating rods is capable of generating a greater thermal power than the first section of the respective heating rods , and, in the second radiating layer , the first section of the respective heating rods is capable of generating a greater thermal power than the second section of the respective heating rods .