mhurhangee/ep-ind-claims huggingface dataset:
Biodegradable composition characterized by comprising three phases: A. a continuous phase consisting of a matrix of at least one tough hydrophobic polymer incompatible with starch; B. a homogeneously dispersed nanoparticulate starch phase; C. a further dispersed phase of at least one polymer with Modulus greater than 1000 MPa, said polymer being a polyhydroxyalkanoate; and having: - a Modulus greater than 300 MPa; - a substantial isotropy in the two longitudinal and transverse directions in relation to tear propagation; - particles of the dispersed starch phase with mean dimensions of less than 0.3 μm, measured according the method disclosed in the description. A. a continuous phase consisting of a matrix of at least one tough hydrophobic polymer incompatible with starch; B. a homogeneously dispersed nanoparticulate starch phase; C. a further dispersed phase of at least one polymer with Modulus greater than 1000 MPa, said polymer being a polyhydroxyalkanoate; - a Modulus greater than 300 MPa; - a substantial isotropy in the two longitudinal and transverse directions in relation to tear propagation; - particles of the dispersed starch phase with mean dimensions of less than 0.3 μm, measured according the method disclosed in the description.
Device for dispensing a cosmetic and/or care product, comprising: - a container (1; 1') intended to contain the product comprising a free edge (15; 15') defining a product dispensing orifice (16; 16'), the said container having an axis of elongation orthogonal to the dispensing orifice, - a cap (2; 2') intended to be mounted on the container between a position in which the orifice is closed and a position in which the said orifice is open, - a sensorial stimulation member (3; 3') comprising lighting means and fixed relative to the container (1; 1') or the cap (2; 2') that houses it, - a power source (4; 4') supplying said sensorial stimulation member with power, - a switch (5; 5'), inaccessible in the closed position, capable of causing the said sensorial stimulation member to change state; - switch actuating means (13; 211') able selectively to cause the said power source to communicate with the said: sensorial stimulation member as the cap is moved from its closed position to its open position, characterized in that when the cap is in the closed position the said free edge and the said actuating means extend at distinct respective axial heights and in that the said actuating means are axially offset relative to the said dispensing orifice. - a container (1; 1') intended to contain the product comprising a free edge (15; 15') defining a product dispensing orifice (16; 16'), the said container having an axis of elongation orthogonal to the dispensing orifice, - a cap (2; 2') intended to be mounted on the container between a position in which the orifice is closed and a position in which the said orifice is open, - a sensorial stimulation member (3; 3') comprising lighting means and fixed relative to the container (1; 1') or the cap (2; 2') that houses it, - a power source (4; 4') supplying said sensorial stimulation member with power, - a switch (5; 5'), inaccessible in the closed position, capable of causing the said sensorial stimulation member to change state; - switch actuating means (13; 211') able selectively to cause the said power source to communicate with the said: sensorial stimulation member as the cap is moved from its closed position to its open position,
A tibial plateau leveling osteotomy plate, including: a proximal portion including at least one first attachment aperture (42,44, 46); a distal portion including at least one second attachment aperture (22, 24, 26); and an offset portion extending generally perpendicularly from the proximal portion and the distal portion thereby joining the proximal portion to the distal portion wherein the proximal portion is in a different plane from the distal portion. a proximal portion including at least one first attachment aperture (42,44, 46); a distal portion including at least one second attachment aperture (22, 24, 26); and an offset portion extending generally perpendicularly from the proximal portion and the distal portion thereby joining the proximal portion to the distal portion wherein the proximal portion is in a different plane from the distal portion.
A raw water channel spacer having a two-layer structure in which a first yarn row (M1, M2, M3, M4) and a second yarn row (N1, N2, N3, N4) are superimposed with each other, wherein the two-layer structure of the spacer is formed by fixing each of the yarn rows in a laminated state, wherein each of the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4) is formed of a resin material, wherein the raw water channel spacer is configured to be sandwiched between a first separation membrane and a second separation membrane wound around a water collecting pipe of a spiral wound membrane element, and wherein the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4) are configured such that, when the raw water channel spacer is wound around the water collecting pipe, the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4) are inclined in opposite directions from each other with respect to a X direction, wherein the X direction is a direction parallel to an axial direction of the water collecting pipe, characterized in that the raw water channel spacer comprises alternately arranged: a first mesh structure (51, 52, 53) formed continuously in an extending direction of the second yarn row (N1, N2, N3, N4), wherein the first mesh structure (51, 52, 53) is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4); and a second mesh structure (61, 62, 63) formed continuously in the extending direction of the second yarn row (N1, N2, N3, N4), wherein the second mesh structure (61, 62, 63) is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4), wherein an interval of the second yarn row (N1, N2, N3, N4) forming the second mesh structure (61, 62, 63) is smaller than an interval (52a-1) of the second yarn row (N1, N2, N3, N4) forming the first mesh structure (51, 52, 53). a first mesh structure (51, 52, 53) formed continuously in an extending direction of the second yarn row (N1, N2, N3, N4), wherein the first mesh structure (51, 52, 53) is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4); and a second mesh structure (61, 62, 63) formed continuously in the extending direction of the second yarn row (N1, N2, N3, N4), wherein the second mesh structure (61, 62, 63) is formed by the first yarn row (M1, M2, M3, M4) and the second yarn row (N1, N2, N3, N4), wherein an interval of the second yarn row (N1, N2, N3, N4) forming the second mesh structure (61, 62, 63) is smaller than an interval (52a-1) of the second yarn row (N1, N2, N3, N4) forming the first mesh structure (51, 52, 53).
A computer-implemented method comprising: receiving, by a computing device that uses voice-based speaker identification, data identifying a user; prompting the user to confirm whether a previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected using voice-based speaker identification, wherein the previously received utterance includes a predefined hotword; receiving, from the user, data indicating that the previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected; characterized in that in response to receiving the data indicating that the previously received utterance was falsely rejected, using audio data corresponding to the previously received utterance to modify a voice template for performing voice-based speaker identification on subsequently received utterances, wherein the subsequently received utterances include the predefined hotword. receiving, by a computing device that uses voice-based speaker identification, data identifying a user; prompting the user to confirm whether a previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected using voice-based speaker identification, wherein the previously received utterance includes a predefined hotword; receiving, from the user, data indicating that the previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected; characterized in that in response to receiving the data indicating that the previously received utterance was falsely rejected, using audio data corresponding to the previously received utterance to modify a voice template for performing voice-based speaker identification on subsequently received utterances, wherein the subsequently received utterances include the predefined hotword.
A method for accessing a switch external memory of a switch, wherein a control module represents a control plane and the switch external memory represents a data plane, and wherein the accessing is from the control module in the control plane to the switch external memory in the data plane, the method comprising: step 1), issuing, by the control module, information about an authorized protocol and an authorized file I/O operation, the authorized file I/O operation being an operation for accessing the switch external memory, receiving the information by the switch, and storing authorized information by the switch; wherein the authorized information includes the authorized protocol and the authorized file I/O operation; step 2), receiving, by the switch, a file I/O operation instruction, and determining whether an operating entity has an authority to perform the authorized file I/O operation according to the file I/O operation instruction and the authorized information obtained in the step 1); wherein the authorized file I/O operation is one of reading, writing and deleting operations for a file in a directory of the switch external memory, and step 3), upon determining that the operating entity has the authority to perform the authorized file I/O operation, extracting, by the switch, an instruction index and parameters from the file I/O operation instruction, and executing the authorized file I/O operation. step 1), issuing, by the control module, information about an authorized protocol and an authorized file I/O operation, the authorized file I/O operation being an operation for accessing the switch external memory, receiving the information by the switch, and storing authorized information by the switch; wherein the authorized information includes the authorized protocol and the authorized file I/O operation; step 2), receiving, by the switch, a file I/O operation instruction, and determining whether an operating entity has an authority to perform the authorized file I/O operation according to the file I/O operation instruction and the authorized information obtained in the step 1); wherein the authorized file I/O operation is one of reading, writing and deleting operations for a file in a directory of the switch external memory, and step 3), upon determining that the operating entity has the authority to perform the authorized file I/O operation, extracting, by the switch, an instruction index and parameters from the file I/O operation instruction, and executing the authorized file I/O operation.
Method for monitoring a device equipped with a microprocessor, comprising the following steps: - performing at least one calculation within the microprocessor using input data received as input to the microprocessor; - performing at least one logic operation by means of logic gates within an external monitoring device using the same input data; - comparing the results of the at least one calculation performed within the microprocessor and of the at least one logic operation performed within the monitoring device in order to deduce therefrom a diagnosis of the microprocessor; and - sending as output from the monitoring device a signal representative of the diagnosis of the microprocessor on the basis of this comparison. - performing at least one calculation within the microprocessor using input data received as input to the microprocessor; - performing at least one logic operation by means of logic gates within an external monitoring device using the same input data; - comparing the results of the at least one calculation performed within the microprocessor and of the at least one logic operation performed within the monitoring device in order to deduce therefrom a diagnosis of the microprocessor; and - sending as output from the monitoring device a signal representative of the diagnosis of the microprocessor on the basis of this comparison. - sending as output from the monitoring device a signal representative of the diagnosis of the microprocessor on the basis of this comparison.
A welding flux formulated for pipe welding or one side welding applications including - about 0.05-25 weight percent gas releasing agent, a high melting compound and a low melting compound, - said weight percent ratio of said high melting compound to said low melting compound is about 1-5:1, - said low melting compound including a compound selected from the group consisting of silicon dioxide, sodium silicate glass, lithium silicate glass, potassium silicate glass, or combinations thereof, - said high melting compound including a compound selected from the group consisting of aluminium oxide, calcium oxide, chromium oxide, iron oxide, lithium oxide, magnesium oxide, niobium oxide, silicon dioxide, titanium dioxide, vanadium oxide, zirconium oxide, or combinations thereof, - said gas releasing agent including a compound selected from the group consisting of carbonate compound, fluoride releasing compounds, gas containing beads, or combinations thereof, - a weight percent ratio of said gas releasing agent to non-gas releasing agent is said welding flux is about 1:4-100. - about 0.05-25 weight percent gas releasing agent, a high melting compound and a low melting compound, - said weight percent ratio of said high melting compound to said low melting compound is about 1-5:1, - said low melting compound including a compound selected from the group consisting of silicon dioxide, sodium silicate glass, lithium silicate glass, potassium silicate glass, or combinations thereof, - said high melting compound including a compound selected from the group consisting of aluminium oxide, calcium oxide, chromium oxide, iron oxide, lithium oxide, magnesium oxide, niobium oxide, silicon dioxide, titanium dioxide, vanadium oxide, zirconium oxide, or combinations thereof, - said gas releasing agent including a compound selected from the group consisting of carbonate compound, fluoride releasing compounds, gas containing beads, or combinations thereof, - a weight percent ratio of said gas releasing agent to non-gas releasing agent is said welding flux is about 1:4-100.
Process for preparing a gasoline composition, which comprises (a) admixing with a fossil alkylate base gasoline comprising: 90 vol-% or more C 5 -C 12 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, RON of at least 87, the alkylate base fuel in an amount in the range from 40 to 80 vol% based on the total gasoline composition; (b) a renewable naphtha distillate comprising: 90 vol-% or more C 5 -C 12 paraffins, 30 vol-% or more C 5 -C 6 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, the renewable naphtha distillate in an amount of 3 vol-% or more based on the total gasoline composition; and (c) one or more C 6 -C 12 iso-paraffins having a RON of at least 95, the one or more iso-paraffins in an amount in the range from 10 to 30 vol% based on the total gasoline composition, wherein the renewable naphtha distillate is in an amount of 3 vol-% or more based on the total gasoline composition, and wherein the renewable content is determined by isotopic distribution involving 14C, 13C and/or 12C as described in ASTM D6866. (a) admixing with a fossil alkylate base gasoline comprising: 90 vol-% or more C 5 -C 12 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, RON of at least 87, the alkylate base fuel in an amount in the range from 40 to 80 vol% based on the total gasoline composition; 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, RON of at least 87, (b) a renewable naphtha distillate comprising: 90 vol-% or more C 5 -C 12 paraffins, 30 vol-% or more C 5 -C 6 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, the renewable naphtha distillate in an amount of 3 vol-% or more based on the total gasoline composition; and 90 vol-% or more C 5 -C 12 paraffins, 30 vol-% or more C 5 -C 6 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, (c) one or more C 6 -C 12 iso-paraffins having a RON of at least 95, the one or more iso-paraffins in an amount in the range from 10 to 30 vol% based on the total gasoline composition,
A method of controlling a network system, the method comprising: recognizing power information comprising a peak time period and an operation time period of an energy consumption component; and changing the operation time period when the peak time period is included in at least a portion of the operation time period of the energy consumption component, characterized in that the changing the operation time period comprises dividing the operation time period into a plurality of time periods, and the plurality of periods comprises a first time period existing before start of a peak time and a second time period existing after end of the peak time. recognizing power information comprising a peak time period and an operation time period of an energy consumption component; and changing the operation time period when the peak time period is included in at least a portion of the operation time period of the energy consumption component, characterized in that the changing the operation time period comprises dividing the operation time period into a plurality of time periods, and the plurality of periods comprises a first time period existing before start of a peak time and a second time period existing after end of the peak time.
An amusement park transportation system comprising: a plurality of separated park areas; an autonomous vehicle configured to drive along ground surfaces within the plurality of separated park areas, wherein the autonomous vehicle comprises a gondola attachment integrally coupled to a roof of the autonomous vehicle; a gondola system configured to transport the autonomous vehicle between the separated park areas; and a control system configured to operate the autonomous vehicle to engage with the gondola system to facilitate transport of the autonomous vehicle between the separated park areas by the gondola system, wherein the gondola attachment integrally coupled to the roof is configured to engage with a gondola arm of the gondola system to engage with the gondola system, and the control system being configured to operate the autonomous vehicle to disengage from the gondola system to allow the autonomous vehicle to drive along ground surfaces within one of the separated park areas. a plurality of separated park areas; an autonomous vehicle configured to drive along ground surfaces within the plurality of separated park areas, wherein the autonomous vehicle comprises a gondola attachment integrally coupled to a roof of the autonomous vehicle; a gondola system configured to transport the autonomous vehicle between the separated park areas; and a control system configured to operate the autonomous vehicle to engage with the gondola system to facilitate transport of the autonomous vehicle between the separated park areas by the gondola system, wherein the gondola attachment integrally coupled to the roof is configured to engage with a gondola arm of the gondola system to engage with the gondola system, and the control system being configured to operate the autonomous vehicle to disengage from the gondola system to allow the autonomous vehicle to drive along ground surfaces within one of the separated park areas.
An electric induction machine, comprising: a housing having an inner space; a stator assembly arranged annularly within the inner space of the housing; a shaft rotatably supported so as to concentrically extend through the stator assembly, and a rotor assembly fixed to and surrounding the shaft within the inner space, the rotor assembly being disposed concentrically with and inside the stator assembly, wherein the rotor assembly further comprises: - a cylindrical rotor frame; - a plurality of axially extending longitudinal rotor grooves spaced circumferentially along the rotor frame, and - a plurality of longitudinal rotor bars accommodated within the rotor grooves, wherein the rotor groove comprises a slit open towards an outer circumference of the rotor frame, a gap region is formed between each respective rotor groove and rotor bar at a position corresponding to a radially outer internal corner region of the rotor groove, so as to reduce induction of eddy currents at the radially outer internal corner region, characterized in that the rotor grooves and rotor bars have a corresponding, generally rectangular cross-sectional shape, the gap region is defined as a gap formed by a chamfer surface of the rotor bar, and a wall forming the groove, and wherein the gap region extends up to a corresponding edge of the slit in the tangential direction of the rotor frame. a housing having an inner space; a stator assembly arranged annularly within the inner space of the housing; a shaft rotatably supported so as to concentrically extend through the stator assembly, and a rotor assembly fixed to and surrounding the shaft within the inner space, the rotor assembly being disposed concentrically with and inside the stator assembly, wherein the rotor assembly further comprises: - a cylindrical rotor frame; - a plurality of axially extending longitudinal rotor grooves spaced circumferentially along the rotor frame, and - a plurality of longitudinal rotor bars accommodated within the rotor grooves, - a cylindrical rotor frame; - a plurality of axially extending longitudinal rotor grooves spaced circumferentially along the rotor frame, and - a plurality of longitudinal rotor bars accommodated within the rotor grooves, wherein the rotor groove comprises a slit open towards an outer circumference of the rotor frame, a gap region is formed between each respective rotor groove and rotor bar at a position corresponding to a radially outer internal corner region of the rotor groove, so as to reduce induction of eddy currents at the radially outer internal corner region, characterized in that the rotor grooves and rotor bars have a corresponding, generally rectangular cross-sectional shape, the gap region is defined as a gap formed by a chamfer surface of the rotor bar, and a wall forming the groove, and wherein the gap region extends up to a corresponding edge of the slit in the tangential direction of the rotor frame.