mhurhangee/ep-ind-claims huggingface dataset:
Electrical machine assembly comprising a rotating electrical machine having a stator and a rotor rotating about an axis; a magnetic probe configured to measure a magnetic induction value of the electrical machine; a position sensor configured to detect the passage of the rotor in a given point of detection and define a reference signal; and a processing unit configured to define a value of the load angle of the electrical machine based on the magnetic induction value detected and on the reference signal; characterized in that the processing unit is configured to measure a time interval elapsed between the reference signal and reaching the magnetic induction value equal to zero or to a maximum value previously calculated by the processing unit among the magnetic induction values received; and is configured to calculate the value of the load angle based on said time interval; wherein the load angle of the electrical machine is determined by multiplying the measured time interval with a rotation frequency. the processing unit is configured to measure a time interval elapsed between the reference signal and reaching the magnetic induction value equal to zero or to a maximum value previously calculated by the processing unit among the magnetic induction values received; and is configured to calculate the value of the load angle based on said time interval; wherein the load angle of the electrical machine is determined by multiplying the measured time interval with a rotation frequency.
A method for producing a conductive mayenite compound, the method comprising: a step of forming a precursor powder of a mayenite compound by subjecting a mixture of a raw material powder of the mayenite compound and water to a hydrothermal treatment; a step of forming a mayenite compound powder by dehydrating said precursor powder by heating; a pretreatment step of heating said mayenite compound powder in an inert gas atmosphere or in a vacuum in a temperature range of 400°C to 1,000°C for three hours or more; and a step of injecting electrons into the mayenite compound by mixing said mayenite compound powder pretreated by step with a reducing agent which reacts with an oxygen ion in a cage in a temperature range of 400°C to 1,100°C and heating the resulting mixture in a temperature range of 400°C to 1,100°C to conduct a reduction treatment, wherein a conductive mayenite compound powder having a conduction electron concentration of 10 15 cm -3 or more and a specific surface area of 5 m 2 g -1 or more is obtained. a step of forming a precursor powder of a mayenite compound by subjecting a mixture of a raw material powder of the mayenite compound and water to a hydrothermal treatment; a step of forming a mayenite compound powder by dehydrating said precursor powder by heating; a pretreatment step of heating said mayenite compound powder in an inert gas atmosphere or in a vacuum in a temperature range of 400°C to 1,000°C for three hours or more; and a step of injecting electrons into the mayenite compound by mixing said mayenite compound powder pretreated by step with a reducing agent which reacts with an oxygen ion in a cage in a temperature range of 400°C to 1,100°C and heating the resulting mixture in a temperature range of 400°C to 1,100°C to conduct a reduction treatment,
An iterative decoding device having a predetermined maximum number of iterations, comprising: a first component decoder, for receiving information symbols and first parity symbols, and for decoding the information symbols using the first parity symbols; an interleaver coupled to the first component decoder, for interleaving the order of the first decoded information symbols from an original data order; a second component decoder, for receiving an output of the interleaver and second parity symbols, and for decoding the symbols output from the interleaver using the second parity symbols; a deinterleaver for deinterleaving the second decoded information symbols to recover the original data order of the information symbols, wherein an output of the deinterleaver is fed back to the first component decoder for iterative decoding; an error detector for performing error detection in a decoded frame, the decoded frame having the original data order of the information symbols, wherein the error detector is adapted to perform error detection in an output of the deinterleaver within the predetermined maximum number of iterations until the output is error-free; wherein decoding is stopped immediately in case there is no error on the decoded frame before the predetermined maximum number of iterations, and wherein the decoding is performed iteratively up to the predetermined maximum number of iterations, in case that there is an error on the decoded frame and an iteration count does not exceed the predetermined maximum number of iterations. a first component decoder, for receiving information symbols and first parity symbols, and for decoding the information symbols using the first parity symbols; an interleaver coupled to the first component decoder, for interleaving the order of the first decoded information symbols from an original data order; a second component decoder, for receiving an output of the interleaver and second parity symbols, and for decoding the symbols output from the interleaver using the second parity symbols; a deinterleaver for deinterleaving the second decoded information symbols to recover the original data order of the information symbols, wherein an output of the deinterleaver is fed back to the first component decoder for iterative decoding; an error detector for performing error detection in a decoded frame, the decoded frame having the original data order of the information symbols, wherein the error detector is adapted to perform error detection in an output of the deinterleaver within the predetermined maximum number of iterations until the output is error-free; wherein decoding is stopped immediately in case there is no error on the decoded frame before the predetermined maximum number of iterations, and wherein the decoding is performed iteratively up to the predetermined maximum number of iterations, in case that there is an error on the decoded frame and an iteration count does not exceed the predetermined maximum number of iterations.
Aeroponics/hydroponics-based plant production installation comprising at least one table, mobile trays on the table designed to support the plants and transfer the plants to different stations on the installation, the roots of the plants being left to hang under the trays, the installation comprising a soaking station that has an elevator for lowering and lifting at least one tray between a high position and a low position in order to soak the roots in a soaking tank containing a liquid for a predetermined time in the low position, characterised by the fact the table comprises a cutting station, the cutting station comprising a cutting bar extending transversely and being longitudinally mobile with respect to the tray, or longitudinally and being transversely mobile, to shorten one of the parts (PR, PA) of the plants without their survival being compromised.
A method for accessing blocks of a solid state drive, the method comprising: receiving a starting position that identifies a first block of a contiguous block region within a namespace of the solid state drive to be accessed according to a single input/output operation, wherein the namespace comprises two dimensions of logical address space with respective indices for indexing blocks within a corresponding dimension of the logical address space; receiving a first dimensional identifier that identifies a size of the contiguous block region in a first dimension of the namespace and a second dimensional identifier that identifies a size of the contiguous block region in a second dimension of the namespace; and accessing blocks of the contiguous block region in response to the single input/output operation according to the starting position, the first dimensional identifier, and the second dimensional identifier; and characterised in that the method further comprises receiving an access order that prioritizes one of the first dimension or the second dimension; and accessing each of the blocks of the contiguous block region in the prioritized dimension from the first block before accessing remaining blocks of the contiguous block region. receiving a starting position that identifies a first block of a contiguous block region within a namespace of the solid state drive to be accessed according to a single input/output operation, wherein the namespace comprises two dimensions of logical address space with respective indices for indexing blocks within a corresponding dimension of the logical address space; receiving a first dimensional identifier that identifies a size of the contiguous block region in a first dimension of the namespace and a second dimensional identifier that identifies a size of the contiguous block region in a second dimension of the namespace; and accessing blocks of the contiguous block region in response to the single input/output operation according to the starting position, the first dimensional identifier, and the second dimensional identifier; and characterised in that the method further comprises receiving an access order that prioritizes one of the first dimension or the second dimension; and accessing each of the blocks of the contiguous block region in the prioritized dimension from the first block before accessing remaining blocks of the contiguous block region.
A lighting device for a vehicle, comprising: a lens; a rod-shaped prism which is disposed on a rear side of the lens and totally reflects an incident light and then emits the light; a light source device which emits light toward the rod-shaped prism and a reflective fluorescent body which is disposed on the rear side of the lens and wavelength-converts light emitted by the rod-shaped prism and then reflects the light to the lens, wherein the rod-shaped prism includes an emitting surface which is spaced apart from an optical axis of the lens, wherein a distance between the reflective fluorescent body and a rear surface of the lens is greater than a distance between the emitting surface and the rear surface of the lens, wherein the rod-shaped prism further includes an incident surface on which light is incident and a perimeter surface, wherein a distance between the optical axis of the lens and the emitting surface is less than a radius of the rear surface of the lens, and wherein the perimeter surface of the rod-shaped prism is in contact with the rear surface of the lens. a lens; a rod-shaped prism which is disposed on a rear side of the lens and totally reflects an incident light and then emits the light; a light source device which emits light toward the rod-shaped prism and a reflective fluorescent body which is disposed on the rear side of the lens and wavelength-converts light emitted by the rod-shaped prism and then reflects the light to the lens, wherein the rod-shaped prism includes an emitting surface which is spaced apart from an optical axis of the lens, wherein a distance between the reflective fluorescent body and a rear surface of the lens is greater than a distance between the emitting surface and the rear surface of the lens, wherein the rod-shaped prism further includes an incident surface on which light is incident and a perimeter surface, wherein a distance between the optical axis of the lens and the emitting surface is less than a radius of the rear surface of the lens, and wherein the perimeter surface of the rod-shaped prism is in contact with the rear surface of the lens.
A reinforcement ring for capsules for obtaining beverages, for instance coffee, comprising: - A side wall having a first extremity, a second extremity and a thickness; and - A flat surface, preferably having a uniform thickness, protruding from said side wall in correspondence of said first extremity, wherein said side wall and said protruding flat surface are preferably made as a single body, characterized in that: said side wall comprises a groove in correspondence of said second extremity, so as to reduce said thickness of said side wall in correspondence of said second extremity, and wherein said side wall, in correspondence of said second extremity, is configured so as to include a first portion, facing the outer side of said ring, and a second portion, facing the inner side of said ring, said first portion and said second portion being divided by said groove. - A side wall having a first extremity, a second extremity and a thickness; and - A flat surface, preferably having a uniform thickness, protruding from said side wall in correspondence of said first extremity, said side wall comprises a groove in correspondence of said second extremity, so as to reduce said thickness of said side wall in correspondence of said second extremity, and wherein said side wall, in correspondence of said second extremity, is configured so as to include a first portion, facing the outer side of said ring, and a second portion, facing the inner side of said ring, said first portion and said second portion being divided by said groove.
Tactile wall-mounted reading lamp comprising: - a lighting head, - a gooseneck bearing at one end the lighting head, - a gooseneck base placed at the other end of the gooseneck, said lighting head comprising: - light-emitting diodes, - an electronic circuit placed entirely within the lighting head and equipped with a microcontroller unit for controlling the light-emitting diodes, - a touch control plate associated with capacitive sensors (10, 11, 12) connected to the electronic circuit, and - power supply connectors placed on the electronic circuit and connected to power cables passing through the inside of the gooseneck, characterized in that said tactile wall-mounted reading lamp comprises: a fastening device for fastening the gooseneck base to a cover plate, this fastening device also comprising a hollow bolt suitable for being firmly fastened to said cover plate and for engaging by threading in the gooseneck base; the cover plate comprising a hole at the location of the hollow. - a lighting head, - a gooseneck bearing at one end the lighting head, - a gooseneck base placed at the other end of the gooseneck, said lighting head comprising: - light-emitting diodes, - an electronic circuit placed entirely within the lighting head and equipped with a microcontroller unit for controlling the light-emitting diodes, - a touch control plate associated with capacitive sensors (10, 11, 12) connected to the electronic circuit, and - power supply connectors placed on the electronic circuit and connected to power cables passing through the inside of the gooseneck, - light-emitting diodes, - an electronic circuit placed entirely within the lighting head and equipped with a microcontroller unit for controlling the light-emitting diodes, - a touch control plate associated with capacitive sensors (10, 11, 12) connected to the electronic circuit, and - power supply connectors placed on the electronic circuit and connected to power cables passing through the inside of the gooseneck,
Separator-decanter device for treating rainwater and/or run-off water loaded with sludge particles to be removed from said water, said device comprising a tank to which is connected at least one supply pipe through which said loaded water arrives and at least one discharge pipe through which water is discharged free of at least part of said particles, said tank comprising at least one separating and settling compartment, which contains at least one lamellar settling cell configured to permit the passing of said sludge particles through said at least one lamellar settling cell, towards a storage area for the sludge, said storage area being located under said at least one lamellar settling cell, said device being characterized in that it includes at least one means for accessing said storage area from the outside of said device, said access means passing through said entire at least one lamellar settling cell, for a measurement of the sludge blanket in said storage area and an effective elimination of said sludge, said access means having a through opening inside which is inscribed a circle having a diameter d between 100 and 300 millimeters, capable of permitting a passing through and a removal of a sludge blanket detection sensor and/or a sludge removal pipe.
A combination of an osteotomy device with an in-vitro alignment component, the osteotomy device including a first body component having an upper guide edge and a second body component having a lower guide edge disposed below said upper guide edge, a guide slot being formed between said upper guide edge and said lower guide edge for guiding a saw blade to perform a cutting procedure, and a connecting member disposed in said guide slot for connecting said upper guide edge and said lower guide edge; the in-vitro alignment component having an engaging member and at least one aiming hole for passing through at least one aiming bone pin, said engaging member being engaged with said connecting member, wherein the in-vitro alignment component is placed laterally on the osteotomy device so that the aiming hole and the at least one aiming bone pin lie in the plane of the guide slot and are located, in use, outside the human body, such that a direction of cutting of said saw blade guided by said guide slot is confirmed by said aiming hole and said at least one aiming bone pin to predict whether an angle of placement of said osteotomy device is correct. the osteotomy device including a first body component having an upper guide edge and a second body component having a lower guide edge disposed below said upper guide edge, a guide slot being formed between said upper guide edge and said lower guide edge for guiding a saw blade to perform a cutting procedure, and a connecting member disposed in said guide slot for connecting said upper guide edge and said lower guide edge; the in-vitro alignment component having an engaging member and at least one aiming hole for passing through at least one aiming bone pin, said engaging member being engaged with said connecting member, wherein the in-vitro alignment component is placed laterally on the osteotomy device so that the aiming hole and the at least one aiming bone pin lie in the plane of the guide slot and are located, in use, outside the human body, such that a direction of cutting of said saw blade guided by said guide slot is confirmed by said aiming hole and said at least one aiming bone pin to predict whether an angle of placement of said osteotomy device is correct.
A method of detecting the presence or absence of tumor in a subject comprising: (i) obtaining a polynucleotide sample from the subject; (ii) adding a set of carrier nucleic acid molecules to the polynucleotide sample to generate a first sample; wherein the set of carrier nucleic acid molecules comprises: (a) at least one subset of unmethylated carrier nucleic acid molecules; and (b) at least one subset of methylated carrier nucleic acid molecules wherein at least one end of the carrier nucleic acid molecules is modified to prevent ligation, wherein the unmethylated carrier nucleic acid molecule does not comprise methylated nucleotides, and the methylated carrier nucleic acid molecule comprises one or more methylated nucleotides; (iii) partitioning the first sample into at least two partitioned sets using capturing agent that binds selectively to methylated polynucleotides, thereby generating a partitioned sample; (iv) processing at least a portion of the partitioned sample to generate processed sample, wherein the processing comprises at least one of the following: (a) tagging, (b) amplifying and (c) enriching molecules for specific regions of interest; (v) sequencing at least a portion of the processed sample to generate a set of sequencing reads; and (vi) analyzing at least a portion of the set of sequencing reads to detect the presence or absence of tumor. (i) obtaining a polynucleotide sample from the subject; (ii) adding a set of carrier nucleic acid molecules to the polynucleotide sample to generate a first sample; wherein the set of carrier nucleic acid molecules comprises: (a) at least one subset of unmethylated carrier nucleic acid molecules; and (b) at least one subset of methylated carrier nucleic acid molecules wherein at least one end of the carrier nucleic acid molecules is modified to prevent ligation, wherein the unmethylated carrier nucleic acid molecule does not comprise methylated nucleotides, and the methylated carrier nucleic acid molecule comprises one or more methylated nucleotides; (a) at least one subset of unmethylated carrier nucleic acid molecules; and (b) at least one subset of methylated carrier nucleic acid molecules (iii) partitioning the first sample into at least two partitioned sets using capturing agent that binds selectively to methylated polynucleotides, thereby generating a partitioned sample; (iv) processing at least a portion of the partitioned sample to generate processed sample, wherein the processing comprises at least one of the following: (a) tagging, (b) amplifying and (c) enriching molecules for specific regions of interest; (v) sequencing at least a portion of the processed sample to generate a set of sequencing reads; and (vi) analyzing at least a portion of the set of sequencing reads to detect the presence or absence of tumor.
A combination dual pump and dual motor device comprising: a single housing; a microcontroller including electronic control circuitry; two pumps and two independently controlled motors operably supported by the single housing, the motors including a first electric motor and a second electric motor operably connected to different ones of the pumps and supported within the housing on a single shaft for operation within the housing, the first motor being positioned at least partially within the second motor; the microcontroller being arranged to control the two motors for independent operation of the two pumps, wherein each motor includes: a stator and a rotor (202,207), each rotor including an impeller (204A,205A) in a respective pump cavity, each cavity having an inlet (220,223) and an outlet (221,224); and wherein the rotors (202,207) are rotatably supported on the single shaft. a single housing; a microcontroller including electronic control circuitry; two pumps and two independently controlled motors operably supported by the single housing, the motors including a first electric motor and a second electric motor operably connected to different ones of the pumps and supported within the housing on a single shaft for operation within the housing, the first motor being positioned at least partially within the second motor; the microcontroller being arranged to control the two motors for independent operation of the two pumps, wherein each motor includes: a stator and a rotor (202,207), each rotor including an impeller (204A,205A) in a respective pump cavity, each cavity having an inlet (220,223) and an outlet (221,224); and wherein the rotors (202,207) are rotatably supported on the single shaft.