mhurhangee/patent-ind-claim-en huggingface dataset:
Method for bioremediation of pollutants from a contaminated environment, CHARACTERIZED in that said method comprises: a. adding bacterium Pseudomonas aeruginosa CSMY-1, deposited in the Microbial Genetic Resources Bank of the Chilean Collection of Microbial Genetic Resources (CChRGM) under accession number RGM2262, dated August 7, 2015, under the Budapest Treaty, in biofilm form to said contaminated environment, wherein said Pseudomonas aeruginosa strain CSMY-1, RGM2262, is capable of removing pollutants; b. incubating said bacterium Pseudomonas aeruginosa CSMY-1 in biofilm form in said environment during a period of time from 5 to 10 days, from 20°C-40°C at a pH range from 4 to 11 to allow the removal of pollutants. a. adding bacterium Pseudomonas aeruginosa CSMY-1, deposited in the Microbial Genetic Resources Bank of the Chilean Collection of Microbial Genetic Resources (CChRGM) under accession number RGM2262, dated August 7, 2015, under the Budapest Treaty, in biofilm form to said contaminated environment, wherein said Pseudomonas aeruginosa strain CSMY-1, RGM2262, is capable of removing pollutants; b. incubating said bacterium Pseudomonas aeruginosa CSMY-1 in biofilm form in said environment during a period of time from 5 to 10 days, from 20°C-40°C at a pH range from 4 to 11 to allow the removal of pollutants.
A device for the manual transport of biological samples by an operator, comprising an insulated container equipped with at least one handle for the handling and transport of the device , wherein the insulated container comprises a storage cell , the storage cell being split into containers that are insulated and configured for containing the biological samples, a lid for said insulated container , at least one battery for the autonomous transport, a thermic machine configured for cooling and heating the inner temperature of the storage cell , and wheels arranged on the device base for easy transport and drag of the device , wherein the device further comprises temperature sensors arranged inside each of said containers and further temperature sensors arranged each on the outside of one of said containers for measuring the inner temperature of the storage cell of said insulated container and configured for the regulation of the thermic machine , and for monitoring the inner temperature with function of control of the heating and/or cooling in at least one or more areas of the storage cell of said insulated container , wherein said thermic machine comprises a cooling unit in the form of gas evaporators and a heating unit in the form of electric resistors; wherein the handle is a telescopic handle and wherein said lid of said insulated container comprises a lock for controlling the closing and opening of the insulated container of the device , said lock being programmable for the opening at certain authorized times or moments or positions and comprising a reading system for enabling opening of the lid . a lid for said insulated container , at least one battery for the autonomous transport, a thermic machine configured for cooling and heating the inner temperature of the storage cell , and wheels arranged on the device base for easy transport and drag of the device , wherein the device further comprises temperature sensors arranged inside each of said containers and further temperature sensors arranged each on the outside of one of said containers for measuring the inner temperature of the storage cell of said insulated container and configured for the regulation of the thermic machine , and for monitoring the inner temperature with function of control of the heating and/or cooling in at least one or more areas of the storage cell of said insulated container , wherein said thermic machine comprises a cooling unit in the form of gas evaporators and a heating unit in the form of electric resistors; wherein the handle is a telescopic handle and wherein said lid of said insulated container comprises a lock for controlling the closing and opening of the insulated container of the device , said lock being programmable for the opening at certain authorized times or moments or positions and comprising a reading system for enabling opening of the lid .
Method for improving operation of at least one robot being operated on the basis of a set of predefined actions, the method comprising the steps of: - generating combined actions (S1, S3) by combining at least two actions out of a set of original actions stored in an action library,- storing the combined actions in the action library in addition to the original actions, - applying a reinforcement learning algorithm to the set of actions stored now in the action library to learn a control policy making use of the original actions and the combined actions, and - operating the robot (10, 15.1, 15.2) on the basis of the learned control policy and a resulting action library ; and characterized in that the combined actions combine the at least two actions so that the at least two actions are executed in parallel with regard to execution time of the at least two actions, and the at least two actions are starting at a same time or starting with a predetermined delay between the at least two actions executed in parallel or ending at the same time, that generating the combined actions (S1, S3) comprises combining any of the at least two original actions that appear sequentially in a control policy that is a result of the reinforcement learning algorithm applied to the set of original actions of the action library , and that combined actions that are determined not to be used after the reinforcement learning step are removed (S 5 ) from the action library to generate the resulting action library , wherein combined actions that are determined not to be used includes violation of robot constrains, such as joints limits or collisions. - generating combined actions (S1, S3) by combining at least two actions out of a set of original actions stored in an action library,- storing the combined actions in the action library in addition to the original actions, - applying a reinforcement learning algorithm to the set of actions stored now in the action library to learn a control policy making use of the original actions and the combined actions, and - operating the robot (10, 15.1, 15.2) on the basis of the learned control policy and a resulting action library ; and that the combined actions combine the at least two actions so that the at least two actions are executed in parallel with regard to execution time of the at least two actions, and the at least two actions are starting at a same time or starting with a predetermined delay between the at least two actions executed in parallel or ending at the same time, that generating the combined actions (S1, S3) comprises combining any of the at least two original actions that appear sequentially in a control policy that is a result of the reinforcement learning algorithm applied to the set of original actions of the action library , and that combined actions that are determined not to be used after the reinforcement learning step are removed (S 5 ) from the action library to generate the resulting action library , wherein combined actions that are determined not to be used includes violation of robot constrains, such as joints limits or collisions.
A method in a power inverter system , comprising: outputting, from a central unit , a command signal comprising switching commands; receiving the command signal at a plurality of switching units , each one comprising switching elements (Q1, Q2, Q3, Q4) and switch control circuitry controlling the switching elements (Q1, Q2, Q3, Q4), which are electrically connected in cascade configuration and adapted to receive a respective input DC power source voltage (V DC ); operating at least some of the switching units in an inverter mode in which the switching units are individually switched, by switching their respective switching elements (Q1), (Q2), (Q3), (Q4), to produce a combined output AC voltage (V OUT ); outputting the combined output AC voltage to a common line ; characterized in that the method further comprises: between two consecutive switching commands of the command signal, operating at least one of the switching units in a communication mode in which the switching unit is switched, by switching its respective switching elements (Q1), (Q2), (Q3), (Q4), to produce a communication signal; outputting the communication signal to the common line ; and receiving, at the central unit , the communication signal. outputting, from a central unit , a command signal comprising switching commands; receiving the command signal at a plurality of switching units , each one comprising switching elements (Q1, Q2, Q3, Q4) and switch control circuitry controlling the switching elements (Q1, Q2, Q3, Q4), which are electrically connected in cascade configuration and adapted to receive a respective input DC power source voltage (V DC ); operating at least some of the switching units in an inverter mode in which the switching units are individually switched, by switching their respective switching elements (Q1), (Q2), (Q3), (Q4), to produce a combined output AC voltage (V OUT ); outputting the combined output AC voltage to a common line ; characterized in that the method further comprises: between two consecutive switching commands of the command signal, operating at least one of the switching units in a communication mode in which the switching unit is switched, by switching its respective switching elements (Q1), (Q2), (Q3), (Q4), to produce a communication signal; outputting the communication signal to the common line ; and receiving, at the central unit , the communication signal. between two consecutive switching commands of the command signal, operating at least one of the switching units in a communication mode in which the switching unit is switched, by switching its respective switching elements (Q1), (Q2), (Q3), (Q4), to produce a communication signal; outputting the communication signal to the common line ; and receiving, at the central unit , the communication signal.
Apparatus for a wheeled vehicle comprising: a control system arranged to issue a signal in the event of determining that one or more wheels of the vehicle has lost, or is at risk of losing, frictional contact with a road surface ; a gas source arranged to supply a burst of gas upon said signal being issued; and at least one gas outlet connected to said gas source and arrangeable to direct said burst of gas so as to clear water and/or debris from the road surface in front of at least one of the wheels, characterised in that the gas source comprises exhaust gasses from a pyrotechnic explosion. a control system arranged to issue a signal in the event of determining that one or more wheels of the vehicle has lost, or is at risk of losing, frictional contact with a road surface ; a gas source arranged to supply a burst of gas upon said signal being issued; and at least one gas outlet connected to said gas source and arrangeable to direct said burst of gas so as to clear water and/or debris from the road surface in front of at least one of the wheels, characterised in that the gas source comprises exhaust gasses from a pyrotechnic explosion.
Light applicator for examining and/or treating an organic body, wherein the light applicator comprises an insertion section on the distal side with an LED at the distal end for piercing into tissue of the organic body, wherein the insertion section comprises a flexible conductor element for supplying the LED with power and a rigid insertion sleeve at least partially surrounding the conductor element , wherein the conductor element is axially moveable relative to the rigid insertion sleeve , wherein a radial projection with an axial stop for a distal end of the insertion sleeve is arranged on the distal end of the conductor element , wherein the radial projection is designed as an applicator tip pointedly tapering in the distal direction with a light-transparent scatter body for scattering the light of the LED .
A method comprising: receiving an encoded message that includes an array of words; processing a set of m words of the array of words using a respective expected word value and a respective share associated with each word of the set of m words, the shares being m-1 shares of random values and one share, which is other than said m-1 shares, computed as the bitwise exclusive or, XOR, of an expected verification value for the encoded message and the m-1 shares; calculating a verification value based on the processed set of m words of the array of words in the encoded message, the expected word values, and the share associated with each word of the set of the words; determining whether the verification value is correct; and unlocking a hardware device responsive to determining that the verification value is correct. receiving an encoded message that includes an array of words; processing a set of m words of the array of words using a respective expected word value and a respective share associated with each word of the set of m words, the shares being m-1 shares of random values and one share, which is other than said m-1 shares, computed as the bitwise exclusive or, XOR, of an expected verification value for the encoded message and the m-1 shares; calculating a verification value based on the processed set of m words of the array of words in the encoded message, the expected word values, and the share associated with each word of the set of the words; determining whether the verification value is correct; and unlocking a hardware device responsive to determining that the verification value is correct.
A method of encoding a sequence of digital speech samples into a bit stream , the method comprising: dividing the digital speech samples into frames including N subframes, wherein N is an integer greater than 1; computing model parameters for the subframes, the model parameters including spectral parameters; and generating a representation of the frame, the representation including information representing the spectral parameters of P subframes and information identifying the P subframes, and the representation excluding information representing the spectral parameters of the N-P subframes not included in the P subframes, wherein P is an integer and P < N; wherein generating the representation includes selecting the P subframes by: for multiple combinations of P subframes, determining an error induced by representing the frame using the spectral parameters for the P subframes and using interpolated spectral parameter values for the N-P subframes, the interpolated spectral parameter values being generated by interpolating using the spectral parameters for the P subframes, and selecting a combination of P subframes as the selected P subframes based on the determined error for the combination of P subframes. dividing the digital speech samples into frames including N subframes, wherein N is an integer greater than 1; computing model parameters for the subframes, the model parameters including spectral parameters; and generating a representation of the frame, the representation including information representing the spectral parameters of P subframes and information identifying the P subframes, and the representation excluding information representing the spectral parameters of the N-P subframes not included in the P subframes, wherein P is an integer and P < N; wherein generating the representation includes selecting the P subframes by: for multiple combinations of P subframes, determining an error induced by representing the frame using the spectral parameters for the P subframes and using interpolated spectral parameter values for the N-P subframes, the interpolated spectral parameter values being generated by interpolating using the spectral parameters for the P subframes, and selecting a combination of P subframes as the selected P subframes based on the determined error for the combination of P subframes. for multiple combinations of P subframes, determining an error induced by representing the frame using the spectral parameters for the P subframes and using interpolated spectral parameter values for the N-P subframes, the interpolated spectral parameter values being generated by interpolating using the spectral parameters for the P subframes, and selecting a combination of P subframes as the selected P subframes based on the determined error for the combination of P subframes.
A combination (10; 110; 210) of an edible foodstuff product piece (12; 112; 212) enclosed in a wrapper (14; 114; 214) of flexible material, wherein the wrapper is generally opaque but comprises a see-through window (40; 140; 240), the window being in registration with a region of the product piece, characterised in the product piece having at least one raised formation located outside said region and which engages with the inner surface of an opaque portion of the wrapper outside of the window so that the interior surface of the window is held in a spaced relationship with said region of the product piece.
A filling apparatus comprising: a storage tank for storing hydrogen fuel; a filling nozzle for filling hydrogen from the storage tank through a fuel filling system to an in-vehicle hydrogen filling tank mounted on a vehicle; a rod-shaped member and a main body portion mounted on the filling nozzle , in the rod-shaped member flowing a hydrogen, the main body portion covering the rod-shaped member ; a sealing member arranged between the main body portion and the rod-shaped member ; and characterised in a sealing member holding member (4-1) mounted on an end side of the rod-shaped member , the sealing member holding member (4-1) sandwiched by two holding members , the sealing member holding member (4-1) sliding an outer peripheral surface of the rod-shaped member while protecting the outer peripheral surface, and each of the two holding members screwed with the main body portion under a condition that an inner peripheral surface thereof separated from the outer peripheral surface of the rod-shaped member . a storage tank for storing hydrogen fuel; a filling nozzle for filling hydrogen from the storage tank through a fuel filling system to an in-vehicle hydrogen filling tank mounted on a vehicle; a rod-shaped member and a main body portion mounted on the filling nozzle , in the rod-shaped member flowing a hydrogen, the main body portion covering the rod-shaped member ; a sealing member arranged between the main body portion and the rod-shaped member ; and characterised in a sealing member holding member (4-1) mounted on an end side of the rod-shaped member , the sealing member holding member (4-1) sandwiched by two holding members , the sealing member holding member (4-1) sliding an outer peripheral surface of the rod-shaped member while protecting the outer peripheral surface, and each of the two holding members screwed with the main body portion under a condition that an inner peripheral surface thereof separated from the outer peripheral surface of the rod-shaped member .
Disc brake for a utility vehicle, with a brake caliper engaging over a brake disc and configured as a sliding caliper, two brake pads which are arranged therein and can move in opposite directions in the direction of the brake disc , the brake pads each having a pad support plate and a friction pad attached thereto, which are each under preloading by means of a pad retaining spring , on which a pad retaining bracket held on the brake caliper and spanning a mounting opening of the brake caliper is supported, are arranged in a pad shaft of a brake carrier on the vehicle side, which shaft is delimited in the direction of rotation of the brake disc by brake carrier horns , and with a resetting device with which the brake pads can be returned after a brake-related displacement and release of the brake, wherein the resetting device has resilient spreading elements which act on the opposing brake pads and act in the same way against the respective clamping direction, characterised in that two V-shaped spreading elements are provided which are supported in the connecting region of their respective spring legs on the pad retaining bracket or are secured thereto, wherein the spring legs of each spreading element are held at their ends on the opposing brake pads .
High-voltage feedthrough , comprising - an insulating body arranged concentrically around a cylindrical winding support of an electrically conductive material, - conductive control inserts for the capacitive control of the high-voltage feedthrough , which are mutually spaced by means of insulation layers and arranged concentrically to the winding support , and - a connection device for the formation of an electrical connection between a first control insert closest to the winding support, and the winding support , characterized in that the connection device incorporates a sliding electrical contact, wherein the sliding electrical contact comprises a first contact piece which is electrically connected to the first control insert , and a second contact piece which is electrically connected to the winding support , wherein the second contact piece is a contact spring arrangement, which is arranged in a circumferential groove in the winding support . - an insulating body arranged concentrically around a cylindrical winding support of an electrically conductive material, - conductive control inserts for the capacitive control of the high-voltage feedthrough , which are mutually spaced by means of insulation layers and arranged concentrically to the winding support , and - a connection device for the formation of an electrical connection between a first control insert closest to the winding support, and the winding support ,
A method of controlling operating voltages for a processing device, the method comprising: initializing a security portion of the processing device after application of input voltages to the processing device as supplied by voltage regulation circuitry according to voltage identifiers, VIDs, established for the processing device; in the security portion, generating adjusted input voltages based on at least the VIDs and authenticated voltage offset information stored according to a secure storage process, wherein the adjusted input voltages comprise voltages below manufacturer specified operating voltages for the processing device; in the security portion, instructing the voltage regulation circuitry to supply the adjusted input voltages to the processing device; the method further comprising implementing a failsafe mechanism to ensure that when the device is operating below manufacturer specified voltages, subsequently increasing the voltage if operation becomes erratic, unstable, or experiences failures. initializing a security portion of the processing device after application of input voltages to the processing device as supplied by voltage regulation circuitry according to voltage identifiers, VIDs, established for the processing device; in the security portion, generating adjusted input voltages based on at least the VIDs and authenticated voltage offset information stored according to a secure storage process, wherein the adjusted input voltages comprise voltages below manufacturer specified operating voltages for the processing device; in the security portion, instructing the voltage regulation circuitry to supply the adjusted input voltages to the processing device; the method further comprising implementing a failsafe mechanism to ensure that when the device is operating below manufacturer specified voltages, subsequently increasing the voltage if operation becomes erratic, unstable, or experiences failures.