mhurhangee/patent-ind-claim-en huggingface dataset:
A method for selecting assets corresponding to audiovisual content items for promotion, comprising: a. evaluating access and use of a plurality of assets corresponding to audiovisual content items, the evaluating including determining, for each one of the plurality of assets, values of parameters by evaluating viewing of the asset and viewing of ads provided by a video sharing site along with the viewed assets, the evaluation providing a value for each of the parameters for each asset, b. determining a standard deviation of the values of one of the parameters by using the value of a same parameter for each of the plurality of assets to calculate the standard deviation of the values for that parameter, c. determining, based on the value of the parameters, one or more coefficients for each of the plurality of assets, the determining including, for each asset, dividing the value of the same parameter for which the standard deviation was determined for the respective asset, by the determined standard deviation; and d. selecting from the plurality of assets, one or more assets for promotion based on a ranking of the determined coefficients. a. evaluating access and use of a plurality of assets corresponding to audiovisual content items, the evaluating including determining, for each one of the plurality of assets, values of parameters by evaluating viewing of the asset and viewing of ads provided by a video sharing site along with the viewed assets, the evaluation providing a value for each of the parameters for each asset, b. determining a standard deviation of the values of one of the parameters by using the value of a same parameter for each of the plurality of assets to calculate the standard deviation of the values for that parameter, c. determining, based on the value of the parameters, one or more coefficients for each of the plurality of assets, the determining including, for each asset, dividing the value of the same parameter for which the standard deviation was determined for the respective asset, by the determined standard deviation; and d. selecting from the plurality of assets, one or more assets for promotion based on a ranking of the determined coefficients.
An aerosol generating device comprising: a heater configured to heat an aerosol generating material to generate aerosol; a controller configured to: calculate a supply current (Ip) which is to be supplied to the heater based on a predefined resistance of the heater and power supplied to the heater , measure a current (If) flowing through the heater , and control power supplied to the heater based on a difference between the calculated supply current and the measured current. a heater configured to heat an aerosol generating material to generate aerosol; a controller configured to: calculate a supply current (Ip) which is to be supplied to the heater based on a predefined resistance of the heater and power supplied to the heater , measure a current (If) flowing through the heater , and control power supplied to the heater based on a difference between the calculated supply current and the measured current. calculate a supply current (Ip) which is to be supplied to the heater based on a predefined resistance of the heater and power supplied to the heater , measure a current (If) flowing through the heater , and control power supplied to the heater based on a difference between the calculated supply current and the measured current.
A heat transfer unit for use in a lamp, the lamp comprising a housing having a transparent portion and a light source disposed at least partially within the housing, wherein the light source is configured to emit light, in use, through the transparent portion of the housing, wherein the heat transfer unit is adapted to be disposable at least partially within the housing and the heat transfer unit comprises a heater and a fluid circulator, wherein the heat transfer unit is operable in a first mode and a second mode; wherein: in the first mode, the heater is turned on, thereby heating a thermal transfer fluid contained within the housing, and the fluid circulator is operated to circulate the thermal transfer fluid such that heat is transferred to the transparent portion of the housing; and in the second mode, the heater is turned off, and the fluid circulator is operated to circulate the thermal transfer fluid contained within the housing such that heat is transferred away from the light source to the transparent portion of the housing; wherein the fluid circulator is operable to circulate the thermal transfer fluid in two or more directions and wherein the fluid circulator is operable to circulate the thermal transfer fluid in different directions when operating in the first and second modes. in the first mode, the heater is turned on, thereby heating a thermal transfer fluid contained within the housing, and the fluid circulator is operated to circulate the thermal transfer fluid such that heat is transferred to the transparent portion of the housing; and in the second mode, the heater is turned off, and the fluid circulator is operated to circulate the thermal transfer fluid contained within the housing such that heat is transferred away from the light source to the transparent portion of the housing; wherein the fluid circulator is operable to circulate the thermal transfer fluid in two or more directions and wherein the fluid circulator is operable to circulate the thermal transfer fluid in different directions when operating in the first and second modes.
A manufacturing method for manufacturing at least one three-dimensional object by means of an additive manufacturing apparatus , wherein in the additive manufacturing apparatus the at least one object is manufactured layer by layer by solidifying a construction material at the locations corresponding to the cross section of an object in a layer, wherein for the manufacturing process the manufacturing apparatus is controlled by a control command set, the manufacturing method comprising the steps: - Providing a parameter set consisting of a number of parameters and a design specification that is able to specify geometrically by means of the parameter set at least one portion of the object as a number of line-shaped or planar elements in space, wherein at least within one layer the geometrically specified portion of the object is composed solely of line-shaped elements, - Generating a computer-based layer model of the portion of the object by determining for each layer the location and shape of a cross-section of the portion of the object in this layer, - Generating the control command set for the additive manufacturing apparatus , by which control command set the manufacturing of the portion of the object based on the layer model is implemented. - Solidifying the construction material by supplying heat energy to the construction material by means of an electromagnetic beam or particle beam, wherein the line-shaped element(s) is/are scanned with the electromagnetic beam or particle beam one or more times along the course of the line. - Providing a parameter set consisting of a number of parameters and a design specification that is able to specify geometrically by means of the parameter set at least one portion of the object as a number of line-shaped or planar elements in space, wherein at least within one layer the geometrically specified portion of the object is composed solely of line-shaped elements, - Generating a computer-based layer model of the portion of the object by determining for each layer the location and shape of a cross-section of the portion of the object in this layer, - Generating the control command set for the additive manufacturing apparatus , by which control command set the manufacturing of the portion of the object based on the layer model is implemented. - Solidifying the construction material by supplying heat energy to the construction material by means of an electromagnetic beam or particle beam, wherein the line-shaped element(s) is/are scanned with the electromagnetic beam or particle beam one or more times along the course of the line.
A system, comprising: an annular wellhead housing , comprising: a shoulder ; and a first passage extending radially through the wellhead housing from an exterior surface of the wellhead housing to an interior surface of the wellhead housing ; an annular indicator ring disposed axially adjacent to a hanger , wherein the hanger and the indicator ring are configured to couple to a hanger running tool , and wherein the hanger running tool comprises an annular recess and an indicator assembly configured to extend through the first passage , wherein the indicator assembly , when actuated radially inward, is configured to extend into the annular recess of the hanger running tool to indicate that the hanger disposed within the wellhead housing has landed on the shoulder . an annular wellhead housing , comprising: a shoulder ; and a first passage extending radially through the wellhead housing from an exterior surface of the wellhead housing to an interior surface of the wellhead housing ; a shoulder ; and a first passage extending radially through the wellhead housing from an exterior surface of the wellhead housing to an interior surface of the wellhead housing ; an annular indicator ring disposed axially adjacent to a hanger , wherein the hanger and the indicator ring are configured to couple to a hanger running tool , and wherein the hanger running tool comprises an annular recess and an indicator assembly configured to extend through the first passage , wherein the indicator assembly , when actuated radially inward, is configured to extend into the annular recess of the hanger running tool to indicate that the hanger disposed within the wellhead housing has landed on the shoulder .
A method of wireless communication using carrier aggregation performed by an apparatus, the method comprising: receiving a first downlink control information, DCI, comprising first sounding reference signal, SRS, control information for controlling SRS transmission on at least one component carrier, CC, of a plurality of component carriers, CCs; receiving a second DCI comprising second SRS control information that is in conflict with the first SRS control information in terms of at least one of power control and triggering information, for controlling SRS transmission on the at least one CC; resolving the conflict between the first SRS control information and the second SRS control information in terms of power control, wherein if a first power control command of the first control information is different from a second power control command of the second control information, considering the differing power control commands as an error and discarding both the first power control command and the second power control command, and resolving the conflict in terms of triggers comprising determining a sequence of SRS transmissions in an order according to a CC order specified in the first downlink control information, DCI, in the second DCI, or in a radio resource control, RRC, configuration; and transmitting an SRS on the at least one CC based on at least one of the first SRS control information or the second SRS control information in accordance with the resolution, if the first power control command and the second power control command are not discarded. receiving a first downlink control information, DCI, comprising first sounding reference signal, SRS, control information for controlling SRS transmission on at least one component carrier, CC, of a plurality of component carriers, CCs; receiving a second DCI comprising second SRS control information that is in conflict with the first SRS control information in terms of at least one of power control and triggering information, for controlling SRS transmission on the at least one CC; resolving the conflict between the first SRS control information and the second SRS control information in terms of power control, wherein if a first power control command of the first control information is different from a second power control command of the second control information, considering the differing power control commands as an error and discarding both the first power control command and the second power control command, and resolving the conflict in terms of triggers comprising determining a sequence of SRS transmissions in an order according to a CC order specified in the first downlink control information, DCI, in the second DCI, or in a radio resource control, RRC, configuration; and transmitting an SRS on the at least one CC based on at least one of the first SRS control information or the second SRS control information in accordance with the resolution, if the first power control command and the second power control command are not discarded.
A method for wireless communication by a network entity, comprising: identifying for reallocation a subset of resources originally allocated for transmissions in a frequency division duplex, FDD, mode of operation associated with a first base station; and reallocating the identified subset of resources for transmissions in a time division duplex, TDD, mode of operation associated with a second base station; wherein the identified subset of resources comprises a center portion of an FDD mode uplink, UL, bandwidth where there are no physical uplink shared channel, PUSCH, sounding reference signal, SRS, physical random access channel, PRACH, transmissions at the first base station; wherein the transmissions in the TDD mode of operation associated with the second base station are TDD mode downlink, DL, transmissions. identifying for reallocation a subset of resources originally allocated for transmissions in a frequency division duplex, FDD, mode of operation associated with a first base station; and reallocating the identified subset of resources for transmissions in a time division duplex, TDD, mode of operation associated with a second base station; wherein the identified subset of resources comprises a center portion of an FDD mode uplink, UL, bandwidth where there are no physical uplink shared channel, PUSCH, sounding reference signal, SRS, physical random access channel, PRACH, transmissions at the first base station; wherein the transmissions in the TDD mode of operation associated with the second base station are TDD mode downlink, DL, transmissions.
Glass unit for an indirect vision system for a vehicle, with a first glass component ; a second component of a material having a self-adhesive property as a first support element ; and a third component as a second support element ; wherein the first and the second component and the second and the third component are bonded together securely into single unit by the self-adhesive property of the second component ; characterized in that the modulus of elasticity of the third component is greater than the modulus of elasticity of the second component , and that the second component encloses the first component in a closed annular manner or in an annular manner with interruptions.
A retainer for a rotating blade , which is configured to inhibit deviation of the rotating blade mounted on a rotor of a gas turbine , the retainer comprising: a retainer frame configured to be disposed at one side of the rotating blade and configured to form an inside chamber for introducing cooled air between the retainer frame and the rotating blade ; a barrier wall formed on the retainer frame and configured to be disposed towards said side of the rotating blade and configured to divide the inside chamber into a plurality of cooling chambers (148a; 148b; 148c) with respect to a radial direction, wherein the barrier wall comprises a plurality of barrier wall members spaced apart from one another in the radial direction, and wherein communication holes (147a; 147b) are formed in the plurality of barrier wall members so that the plurality of cooling chambers (148a; 148b; 148c) communicate with one another through the communication holes (147a; 147b); and a fixing unit disposed at one side of the retainer frame with respect to the radial direction and configured to fix the retainer frame to the rotor . a retainer frame configured to be disposed at one side of the rotating blade and configured to form an inside chamber for introducing cooled air between the retainer frame and the rotating blade ; a barrier wall formed on the retainer frame and configured to be disposed towards said side of the rotating blade and configured to divide the inside chamber into a plurality of cooling chambers (148a; 148b; 148c) with respect to a radial direction, wherein the barrier wall comprises a plurality of barrier wall members spaced apart from one another in the radial direction, and wherein communication holes (147a; 147b) are formed in the plurality of barrier wall members so that the plurality of cooling chambers (148a; 148b; 148c) communicate with one another through the communication holes (147a; 147b); and a fixing unit disposed at one side of the retainer frame with respect to the radial direction and configured to fix the retainer frame to the rotor .
An axle assembly comprising: an axle housing that has a center portion that receives a differential , the differential having a ring gear ; and a ballast insert disposed in the center portion below the differential , wherein the ballast insert includes: a lower surface that is disposed on the center portion ; first and second end surfaces that extend from opposite ends of the lower surface ; first and second upper surfaces that extend from the first and second end surfaces , respectively; a trench that is disposed between the first and second upper surfaces , wherein the ring gear is received in the trench ; and characterized in that a lubricant trough is disposed in the first end surface and the first upper surface , wherein the lubricant trough routes lubricant toward the trench . an axle housing that has a center portion that receives a differential , the differential having a ring gear ; and a ballast insert disposed in the center portion below the differential , wherein the ballast insert includes: a lower surface that is disposed on the center portion ; first and second end surfaces that extend from opposite ends of the lower surface ; first and second upper surfaces that extend from the first and second end surfaces , respectively; a trench that is disposed between the first and second upper surfaces , wherein the ring gear is received in the trench ; and characterized in that a lubricant trough is disposed in the first end surface and the first upper surface , wherein the lubricant trough routes lubricant toward the trench . a lower surface that is disposed on the center portion ; first and second end surfaces that extend from opposite ends of the lower surface ; first and second upper surfaces that extend from the first and second end surfaces , respectively; a trench that is disposed between the first and second upper surfaces , wherein the ring gear is received in the trench ; and characterized in that a lubricant trough is disposed in the first end surface and the first upper surface , wherein the lubricant trough routes lubricant toward the trench .
A cleaning method for cleaning a surface , in which the surface is cleaned with a process gas, wherein a supply gas containing the process gas is guided to the surface and, during the cleaning of the surface , an exhaust gas containing reaction products of the cleaning is produced, the proportion of the process gas in the supply gas is measured , the proportion of the process gas and/or the proportion of the reaction products in the exhaust gas is measured , and the current cleaning progress of the surface is determined based on a comparison of the proportion of the process gas in the supply gas with the proportion of the process gas and/or the proportion of the reaction products in the exhaust gas . a supply gas containing the process gas is guided to the surface and, during the cleaning of the surface , an exhaust gas containing reaction products of the cleaning is produced, the proportion of the process gas in the supply gas is measured , the proportion of the process gas and/or the proportion of the reaction products in the exhaust gas is measured , and the current cleaning progress of the surface is determined based on a comparison of the proportion of the process gas in the supply gas with the proportion of the process gas and/or the proportion of the reaction products in the exhaust gas .
A device for altering a person's circadian rhythm comprising: a light source assembly ; and a control system configured to cause the light source assembly to perform functions comprising: emitting a first light having a first luminous flux and a peak intensity at a first wavelength that is greater than or equal to 400 nanometers, i.e. nm, and less than or equal to 440 nm, wherein the first luminous flux is variable; and emitting a second light having a second luminous flux and a peak intensity at a second wavelength that is greater than or equal to 440 nm, wherein the second luminous flux is variable, characterized in that : the first luminous flux and the second luminous flux are periodic with respective frequencies that are less than or equal to 100 Hz, wherein the first luminous flux is out of phase with the second luminous flux , and wherein the first luminous flux is at a maximum at least during a time at which the second luminous flux is not at a maximum. a light source assembly ; and a control system configured to cause the light source assembly to perform functions comprising: emitting a first light having a first luminous flux and a peak intensity at a first wavelength that is greater than or equal to 400 nanometers, i.e. nm, and less than or equal to 440 nm, wherein the first luminous flux is variable; and emitting a second light having a second luminous flux and a peak intensity at a second wavelength that is greater than or equal to 440 nm, wherein the second luminous flux is variable, characterized in that : the first luminous flux and the second luminous flux are periodic with respective frequencies that are less than or equal to 100 Hz, wherein the first luminous flux is out of phase with the second luminous flux , and wherein the first luminous flux is at a maximum at least during a time at which the second luminous flux is not at a maximum. emitting a first light having a first luminous flux and a peak intensity at a first wavelength that is greater than or equal to 400 nanometers, i.e. nm, and less than or equal to 440 nm, wherein the first luminous flux is variable; and emitting a second light having a second luminous flux and a peak intensity at a second wavelength that is greater than or equal to 440 nm, wherein the second luminous flux is variable, characterized in that : the first luminous flux and the second luminous flux are periodic with respective frequencies that are less than or equal to 100 Hz, wherein the first luminous flux is out of phase with the second luminous flux , and wherein the first luminous flux is at a maximum at least during a time at which the second luminous flux is not at a maximum.
Floating device for producing a standing wave comprising a wave pool which is defined by two side walls , at least one obstacle , at least one pump and at least two buoyancy means , the obstacle being arranged in the wave pool , the device being possible to generate a water flow over the obstacle by means of the pump in order to generate a standing wave in the wave pool , wherein the device is designed as a pontoon by means of the at least two buoyancy means , and wherein the two side walls of the wave basin are formed by the buoyancy means , which define the wave pool with their surfaces facing the wave pool .