mhurhangee/ep-ind-claims huggingface dataset:
An aerosol generating device, comprising: a main body, comprising a second conductive terminal; and a heat generating assembly, comprising a heat generating body and a first conductive terminal connected to the heat generating body; wherein when the first conductive terminal and the second conductive terminal are connected, the main body is configured to supply power to the heat generating body; the heat generating assembly comprises first identification information, and the first identification information is configured to be identified by a server; the main body is configured to obtain characteristic parameters provided by the server according to the first identification information and to heat the heat generating assembly according to the characteristic parameters, for further heating an aerosol generating substrate with the heat generating assembly to generate aerosol; the characteristic parameters correspond to a type of the heat generating assembly; characterized by, the characteristic parameters comprise heat generating body parameters and heating parameters in the heat generating assembly; the heat generating body parameters represent a corresponding relationship between a resistance value and a temperature of the heat generating body of the heat generating assembly; the main body is further configured to detect the resistance value of the heat generating body, determine the temperature of the heat generating body according to the heat generating body parameters, and heat the heat generating assembly according to the temperature of the heat generating body and the heating parameters. a main body, comprising a second conductive terminal; and a heat generating assembly, comprising a heat generating body and a first conductive terminal connected to the heat generating body; wherein when the first conductive terminal and the second conductive terminal are connected, the main body is configured to supply power to the heat generating body; the heat generating assembly comprises first identification information, and the first identification information is configured to be identified by a server; the main body is configured to obtain characteristic parameters provided by the server according to the first identification information and to heat the heat generating assembly according to the characteristic parameters, for further heating an aerosol generating substrate with the heat generating assembly to generate aerosol; the characteristic parameters correspond to a type of the heat generating assembly; characterized by, the characteristic parameters comprise heat generating body parameters and heating parameters in the heat generating assembly; the heat generating body parameters represent a corresponding relationship between a resistance value and a temperature of the heat generating body of the heat generating assembly; the main body is further configured to detect the resistance value of the heat generating body, determine the temperature of the heat generating body according to the heat generating body parameters, and heat the heat generating assembly according to the temperature of the heat generating body and the heating parameters.
An actively dampened centerless grinding process for a centerless grinding machine having wheels (1, 2), between which there is arranged a part to be ground, and heads (5, 6) carrying the wheels (1, 2), the grinding process comprising: • moving the wheels (1, 2) closer to one another, applying pressure on the part for the grinding thereof, such that vibrations will be generated in the grinding machine due to grinding, • measuring the vibrations due to grinding, and • introducing, depending on said measurement, an active damping force ( F act) by means of using an inertial actuator such that the vibrations due to grinding are attenuated, characterized by said active damping force ( F act) being parallel to the force flow of the grinding machine and said inertial actuator acting directly on one of the heads (5, 6). • moving the wheels (1, 2) closer to one another, applying pressure on the part for the grinding thereof, such that vibrations will be generated in the grinding machine due to grinding, • measuring the vibrations due to grinding, and • introducing, depending on said measurement, an active damping force ( F act) by means of using an inertial actuator such that the vibrations due to grinding are attenuated,
A probe for the detection of a fungus belonging to a fluconazole resistant Candida species, wherein the probe is complementary to a nucleic acid sequence of Candida glabrata, and wherein the probe consists of the nucleic acid sequence of SEQ ID NO:17.
A heat exchanger comprising: a first manifold assembly comprising a stack of plates (60, 62, 64, 66, 68, 70); a second manifold assembly comprising a stack of plates (80, 82, 86, 88); and a plurality of tubes extending from the first manifold assembly to the second manifold assembly, wherein: the plurality of tubes comprises a plurality of groups of tubes; and for each of the groups of tubes: the tubes of the group have first ends mounted between plates (60, 62, 64, 66, 68, 70) of the first manifold assembly; and the tubes of the group have second ends mounted between plates (80, 82, 86, 88) of the second manifold assembly, characterized in that: the plurality of groups form a respective plurality of stages of tubes, with the tubes of each group being fluidically in parallel with each other and the tubes of the different groups being fluidically in series. a first manifold assembly comprising a stack of plates (60, 62, 64, 66, 68, 70); a second manifold assembly comprising a stack of plates (80, 82, 86, 88); and a plurality of tubes extending from the first manifold assembly to the second manifold assembly, wherein: the plurality of tubes comprises a plurality of groups of tubes; and for each of the groups of tubes: the tubes of the group have first ends mounted between plates (60, 62, 64, 66, 68, 70) of the first manifold assembly; and the tubes of the group have second ends mounted between plates (80, 82, 86, 88) of the second manifold assembly, the plurality of tubes comprises a plurality of groups of tubes; and for each of the groups of tubes: the tubes of the group have first ends mounted between plates (60, 62, 64, 66, 68, 70) of the first manifold assembly; and the tubes of the group have second ends mounted between plates (80, 82, 86, 88) of the second manifold assembly, the tubes of the group have first ends mounted between plates (60, 62, 64, 66, 68, 70) of the first manifold assembly; and the tubes of the group have second ends mounted between plates (80, 82, 86, 88) of the second manifold assembly, characterized in that: the plurality of groups form a respective plurality of stages of tubes, with the tubes of each group being fluidically in parallel with each other and the tubes of the different groups being fluidically in series.
An aqueous composition comprising chemical microgel particles, chemically cross-linked, water-soluble, or water-dispersible, associated with at least one water-soluble, or water-dispersible bridging polymer, with a different chemical composition from that of the aforementioned particles; - the amount of chemical microgel particles being comprised between 0.05 and 40% by dry weight of the composition; - the chemical microgel particles and the bridging polymer being associated: • by electrostatic interactions: the global charge of the chemical microgel particles being opposed to the global charge of bridging polymer; or • by interactions of the hydrophobic-hydrophobic type: the chemical microgel particles and the bridging polymer comprising units which may be associated in an aqueous phase by means of such links; or • by interactions of the hydrogen bond type: the chemical microgel particles and the bridging polymer comprising units which may be associated in an aqueous phase by means of such links; and - the amount of bridging polymer being such that the viscosity of the composition is at least three times greater, preferably ten times greater than that of an aqueous solution of chemical microgel particles and than that of an aqueous solution of bridging polymer, under the same conditions. - the amount of chemical microgel particles being comprised between 0.05 and 40% by dry weight of the composition; - the chemical microgel particles and the bridging polymer being associated: • by electrostatic interactions: the global charge of the chemical microgel particles being opposed to the global charge of bridging polymer; or • by interactions of the hydrophobic-hydrophobic type: the chemical microgel particles and the bridging polymer comprising units which may be associated in an aqueous phase by means of such links; or • by interactions of the hydrogen bond type: the chemical microgel particles and the bridging polymer comprising units which may be associated in an aqueous phase by means of such links; and • by electrostatic interactions: the global charge of the chemical microgel particles being opposed to the global charge of bridging polymer; or • by interactions of the hydrophobic-hydrophobic type: the chemical microgel particles and the bridging polymer comprising units which may be associated in an aqueous phase by means of such links; or • by interactions of the hydrogen bond type: the chemical microgel particles and the bridging polymer comprising units which may be associated in an aqueous phase by means of such links; and - the amount of bridging polymer being such that the viscosity of the composition is at least three times greater, preferably ten times greater than that of an aqueous solution of chemical microgel particles and than that of an aqueous solution of bridging polymer, under the same conditions.
A method for detecting a low-virulence infection with Propionibacterium acnes in a patient, comprising: testing for the presence or level of Propionibacterium acnes in a patient's intervertebral disc sample by one or more of PCR, culture, immunohistochemistry, spectroscopy, in situ hybridization, or metagenomics analysis, Propionibacterium acnes being causative of low-virulence infections, determining a host cell diagnostic microRNA score from said sample; evaluating the microRNA profile for a microRNA signature indicative of a low-virulence infection to discriminate false positives and/or false negatives from true low-virulence infections; wherein the microRNA signature is trained with microRNA signatures from infected clinical samples or samples that test positive for the presence or abundance of Propionibacterium acnes, and uninfected clinical samples or samples that test negative for the presence or abundance of Propionibacterium acnes. testing for the presence or level of Propionibacterium acnes in a patient's intervertebral disc sample by one or more of PCR, culture, immunohistochemistry, spectroscopy, in situ hybridization, or metagenomics analysis, Propionibacterium acnes being causative of low-virulence infections, determining a host cell diagnostic microRNA score from said sample; evaluating the microRNA profile for a microRNA signature indicative of a low-virulence infection to discriminate false positives and/or false negatives from true low-virulence infections; wherein the microRNA signature is trained with microRNA signatures from infected clinical samples or samples that test positive for the presence or abundance of Propionibacterium acnes, and uninfected clinical samples or samples that test negative for the presence or abundance of Propionibacterium acnes.
An isolated Family 61 glycoside hydrolase polypeptide having cellulolytic enhancing activity that catalyzes the enhancement of hydrolysis of a cellulosic material by enzyme having cellulolytic activity, selected from the group consisting of: (a) a polypeptide having at least 80% sequence identity to the mature polypeptide of SEQ ID NO: 12; (b) a polypeptide encoded by a polynucleotide that hybridizes under at least high stringency conditions with (i) the mature polypeptide coding sequence of SEQ ID NO: 11, or (ii) the full-length complement of (i); (c) a polypeptide encoded by a polynucleotide having at least 80% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 11; and (d) a fragment of the polypeptide of (a), (b), or (c) that has cellulolytic enhancing activity. (a) a polypeptide having at least 80% sequence identity to the mature polypeptide of SEQ ID NO: 12; (b) a polypeptide encoded by a polynucleotide that hybridizes under at least high stringency conditions with (i) the mature polypeptide coding sequence of SEQ ID NO: 11, or (ii) the full-length complement of (i); (c) a polypeptide encoded by a polynucleotide having at least 80% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 11; and (d) a fragment of the polypeptide of (a), (b), or (c) that has cellulolytic enhancing activity.
A headphone that may be operated in either a wireless mode or a wired mode, comprising: a housing; an acoustic driver within the housing; a jack for receiving a complementary jack at an end of an audio cable; and at least one control input, wherein the at least one control input is configured to control operation of the headphone when the headphone is operated in the wireless mode, the at least one control input is configured to control an operation of an associated media device into which the other jack of the audio cable is plugged, when the headphone is operated in the wired mode, wherein the headphone is configured such that operation of the at least one control input is altered upon insertion of the jack of the audio cable into the jack of the headphone and wherein an electrical circuit is employed in the headphone that provides control logic configured to operate the headphone in either the wired mode or the wireless mode responsive to receiving the indication of the presence or absence of the audio cable by the at least one control input. a housing; an acoustic driver within the housing; a jack for receiving a complementary jack at an end of an audio cable; and at least one control input, wherein the at least one control input is configured to control operation of the headphone when the headphone is operated in the wireless mode, the at least one control input is configured to control an operation of an associated media device into which the other jack of the audio cable is plugged, when the headphone is operated in the wired mode, wherein the headphone is configured such that operation of the at least one control input is altered upon insertion of the jack of the audio cable into the jack of the headphone and wherein an electrical circuit is employed in the headphone that provides control logic configured to operate the headphone in either the wired mode or the wireless mode responsive to receiving the indication of the presence or absence of the audio cable by the at least one control input.
A method comprising: sending an indication that a request is being sent, the indication being sent to a non-volatile memory via a wired bus between a memory interface and the non-volatile memory; sending a preamble to the non-volatile memory via the bus, the preamble for use by the non-volatile memory to prepare to acquire the request from the bus; sending the request to the non-volatile memory via the bus, the request including an address for identifying a location in storage containing data to be read; acquiring an indication at the memory interface via the bus that the non-volatile memory is ready to send information; sending an indication via the bus that access to the bus has been granted to the non-volatile memory; and acquiring the information from the non-volatile memory via the bus, the information including the data. sending an indication that a request is being sent, the indication being sent to a non-volatile memory via a wired bus between a memory interface and the non-volatile memory; sending a preamble to the non-volatile memory via the bus, the preamble for use by the non-volatile memory to prepare to acquire the request from the bus; sending the request to the non-volatile memory via the bus, the request including an address for identifying a location in storage containing data to be read; acquiring an indication at the memory interface via the bus that the non-volatile memory is ready to send information; sending an indication via the bus that access to the bus has been granted to the non-volatile memory; and acquiring the information from the non-volatile memory via the bus, the information including the data.
A self folding box with a carrier for packing of pizzas, comprising a carrier (4, 8) for two slices of pizza quarter or slices of pizza sixth, placed on the bottom (1.1, 5.1) of the lower part (1, 5) of a box (A, A1) with a cover (2, 6), characterised in that the carrier consists of at least two pads, each for one slice, having two sides (3.2) and a bottom (3.1) forming an arcuate part, wherein the at least two pads are superposed one on another, so that tongues (3.3, 3.4) and a next-to-arc tongue (3.6) of the sides (3.2) of the upper pad enclose the sides (3.2) of the lower pad from outside, while trapezoidal tongues (3.5) of the sides (3.2) of the lower pad are placed in openings (3.7) of the bottom (3.1) of the upper pad, whilst an auxiliary tongue (3.9) of an auxiliary carrier (3.8) at the arcuate part of the lower pad encloses the auxiliary carrier (3.8) of the upper pad from outside.
A robotically controlled medical instrument system, comprising: a controller; an instrument drivers operatively coupled to the controller; a sheath instrument operatively coupled to the instrument driver; and a catheter instrument operatively coupled to the instrument driver, wherein the catheter instrument is positioned in a working lumen of the sheath instrument, the catheter instrument having a control element extending there through for controllably articulating a distal end portion of the catheter instrument, wherein placing the control element in tension places a torsional force on the sheath instrument that urges the sheath instrument to twist in a first direction, characterized in that the controller is configured to automatically compensate for the torsional force exerted on the sheath instrument by urging the sheath instrument to twist in a second direction opposite of the first direction through selected operation of the instrument driver. a controller; an instrument drivers operatively coupled to the controller; a sheath instrument operatively coupled to the instrument driver; and a catheter instrument operatively coupled to the instrument driver, wherein the catheter instrument is positioned in a working lumen of the sheath instrument, the catheter instrument having a control element extending there through for controllably articulating a distal end portion of the catheter instrument, wherein placing the control element in tension places a torsional force on the sheath instrument that urges the sheath instrument to twist in a first direction, characterized in that the controller is configured to automatically compensate for the torsional force exerted on the sheath instrument by urging the sheath instrument to twist in a second direction opposite of the first direction through selected operation of the instrument driver.
An apparatus comprising means (1004, 1006, 1008) for receiving, by a user device from a base station in a wireless network, downlink control information that indicates a first set of resources allocated for a priority downlink data transmission that preempts an ongoing downlink data transmission; means (1004, 1006, 1008) for determining, by the user device based on the downlink control information, a set of resources allocated for a priority uplink transmission, wherein the set of resources allocated for the priority uplink transmission were previously indicated by the base station as allocated for other use; characterized by means (1004, 1006, 1008) for sending, by the user device, hybrid automatic repeat request feedback as uplink transmission via the set of resources allocated for the priority uplink transmission. means (1004, 1006, 1008) for receiving, by a user device from a base station in a wireless network, downlink control information that indicates a first set of resources allocated for a priority downlink data transmission that preempts an ongoing downlink data transmission; means (1004, 1006, 1008) for determining, by the user device based on the downlink control information, a set of resources allocated for a priority uplink transmission, wherein the set of resources allocated for the priority uplink transmission were previously indicated by the base station as allocated for other use; characterized by means (1004, 1006, 1008) for sending, by the user device, hybrid automatic repeat request feedback as uplink transmission via the set of resources allocated for the priority uplink transmission.
A pizza dough for deferred used comprising, by weight percentage of the end product: - flour: 50 - 65; - water: 20 - 35; - fats: 0 - 8; - salt: 0.7 - 2; - sugar: 0 - 2; - deactivated yeast: 0.05 - 0.15; characterized in that, by weight percentage of the end product, it comprises: - fermented flour: 0.1 - 2; - vinegar: 0.1 - 2; - raising agents: 0.5 - 2; - gums: 0.1 - 3. - flour: 50 - 65; - water: 20 - 35; - fats: 0 - 8; - salt: 0.7 - 2; - sugar: 0 - 2; - deactivated yeast: 0.05 - 0.15; - fermented flour: 0.1 - 2; - vinegar: 0.1 - 2; - raising agents: 0.5 - 2; - gums: 0.1 - 3.
A cultured human functional corneal endothelial cell capable of eliciting a human corneal endothelial functional property when infused into an anterior chamber of human eyes, wherein the cell expresses cell surface antigens comprising CD166 positive, CD133 negative, CD44 negative to CD44 weakly positive, CD105 negative to weakly positive, CD24 negative, and CD26 negative phenotypes.