Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective power output to match a scaled power output value equal to a fraction of a difference between the respective power output and a nominal power output value, and modeling an emissions value for the GT during the adjusting of the respective power output; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective modelled emissions value, a nominal emissions value at the ambient condition and a nominal emissions value at the ambient condition.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: modelling each GT in the set of GTs at a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective power output to match a scaled power output value equal to a fraction of a difference between the respective power output and a nominal power output value, and measuring an actual emissions value for each GT during the adjusting of the respective power output; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual emissions value, a nominal emissions value at the ambient condition and a nominal emissions value at the ambient condition.

Abstract: Commanding GTs to base load level based upon measured ambient condition for each GT; commanding each GT to adjust a power output to match scaled power output value equal to a fraction of a difference between the respective power output and a nominal power output value, and measuring actual emissions value for each GT during the adjusting of the respective power output; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual emissions value, a nominal emissions value at the ambient condition and an emissions scale factor, wherein the nominal emissions value at the ambient condition and the emissions scale factor are stored in a pre-existing emissions model for the GT.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective power output to match a nominal power output value, and subsequently measuring an actual emissions value for each GT; adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual emissions value and a nominal emissions value at the ambient condition; and setting a target operating condition for each GT to match the adjusted operating condition after the adjusting of the operating condition.

Abstract: The present invention relates to a novel mutant allele of sunflower (Helianthus annuus L.) designated NSMA, which confers white seed color to sunflower plants. The present invention also relates to plants and seeds of the family or line carrying the NSMA allele. In addition, the present invention is also directed to transferring the NSMA allele to plants in the same species lacking the allele, and is useful for producing novel types and varieties of white-seeded sunflowers.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective power output to match a scaled power output value equal to a fraction of a difference between the respective power output and a nominal power output value, and subsequently measuring an actual emissions value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual emissions value, a nominal emissions value at the ambient condition and a nominal emissions value at the ambient condition.

Abstract: In a general aspect, a computer-implemented method can include receiving, at a computing device, a beacon signal including a vending device identifier and sending, to a cloud-based vending service, the vending device identifier. The method can further include receiving, from the cloud-based vending service, an indication of at least one product available for purchase from the vending device and receiving, at the computing device, an indication of a selected product of the at least one product available for purchase. The method can also include sending, to the cloud based service, a request to purchase the selected product and receiving, from the cloud-based vending service, a purchase token for the selected product. The method can still further include sending, to the vending device, the purchase token and receiving, from the vending device, an acknowledgment that the purchase token has been used to purchase the selected product.

Abstract: A hybrid sunflower, designated NHW11915, is disclosed. The invention relates to the seeds of hybrid sunflower NHW11915, to the plants of hybrid sunflower NHW11915 and to methods for producing a sunflower plant by crossing the cultivar NHW11915 with itself or another sunflower. The invention further relates to methods for producing a sunflower plant containing in its genetic material one or more transgenes and to the transgenic sunflower plants and plant parts produced by those methods and to methods for producing other hybrid sunflower derived from hybrid sunflower NHW11915.

Abstract: The present invention relates to an inbred sunflower, designated SA425A. The invention relates to the seeds of inbred sunflower SA425A, to the plants of inbred sunflower SA425A and to methods for producing a sunflower plant by crossing cultivar SA425A with itself or another sunflower. The invention further relates to methods for producing a sunflower plant containing in its genetic material one or more transgenes and to the transgenic sunflower plants and plant parts produced by those methods and to methods for producing other hybrid sunflower derived from inbred sunflower SA425A.

Abstract: A system and method for managing media advertising enterprise data including a process for learning enterprise data matching. An EDM (Enterprise Data Management) application module can be configured to include a set of rules at an enterprise level to manage disparate and disconnected records associated with an entity. A number of unmatched and enterprise entities that matches with respect to an active entity can be returned based on a fuzzy logic associated with various matching options stored in an EDM database. A matching process can then be performed to accurately match similar records regardless of manual input, location, and format of the records in a distributed system. Each unmatched record can then be assigned with a parent enterprise entity. Such an optimization mechanism can interactively manage and report records at the enterprise level in a simple and efficient manner.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective fuel flow to match a nominal fuel flow value, and subsequently measuring an actual power output value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual power output value and a nominal power output value at the ambient condition.

Abstract: A latch assembly is provided that includes a housing, a release mechanism and a latch mechanism. The release mechanism includes a handle. Movement of the handle from a retracted position towards an extended position relative to the housing is operable to cause the latch mechanism to change from a latched condition to an unlatched condition. When the latch mechanism changes from an unlatched condition to the latched condition, the latch mechanism is operable to cause the release mechanism to cause the handle to move to the retracted position. When the latch mechanism is in the unlatched condition, the latch mechanism maintains the release mechanism in a configuration that maintains the handle away from the retracted position and provides a visual indication that the latch mechanism is in the unlatched condition.

Abstract: In a general aspect, a computer-implemented method can include receiving, at a computing device, a beacon signal including a vending device identifier and sending, to a cloud-based vending service, the vending device identifier. The method can further include receiving, from the cloud-based vending service, an indication of at least one product available for purchase from the vending device and receiving, at the computing device, an indication of a selected product of the at least one product available for purchase. The method can also include sending, to the cloud based service, a request to purchase the selected product and receiving, from the cloud-based vending service, a purchase token for the selected product. The method can still further include sending, to the vending device, the purchase token and receiving, from the vending device, an acknowledgment that the purchase token has been used to purchase the selected product.

Abstract: A system for operating a gas turbine includes a controller configured to execute logic stored in a memory that causes the controller to determine two or more of a frequency, a coherence, a phase, and an amplitude, of a combustion instability; to compare two of more of the frequency, the coherence, the phase, and the amplitude of the combustion instability to a respective predetermined limit; and to adjust at least one parameter of the gas turbine if two or more of the frequency, the coherence, the phase, and the amplitude of the combustion instability are actionable relative to their respective predetermined limits. A related method of operating the gas turbine is also disclosed.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective power output to match a nominal power output value, and subsequently measuring an actual emissions value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual emissions value and a nominal emissions value at the ambient condition.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective exhaust energy to match a nominal exhaust energy value, and subsequently measuring an actual emissions value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual emissions value and a nominal emissions value at the ambient condition.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective emissions value to match a nominal emissions value, and subsequently measuring an actual exhaust energy value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual exhaust energy value and a nominal exhaust energy value at the ambient condition.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective exhaust energy to match a nominal exhaust energy value, and subsequently measuring an actual fuel flow value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual fuel flow value and a nominal fuel flow value at the ambient condition.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective fuel flow to match a nominal fuel flow value, and subsequently measuring an actual emissions value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual emissions value and a nominal emissions value at the ambient condition.

Abstract: Various embodiments include a system having: at least one computing device configured to tune a set of gas turbines (GTs) by performing actions including: commanding each GT in the set of GTs to a base load level, based upon a measured ambient condition for each GT; commanding each GT in the set of GTs to adjust a respective exhaust energy to match a nominal exhaust energy value, and subsequently measuring an actual power output value for each GT; and adjusting an operating condition of each GT in the set of GTs based upon a difference between the respective measured actual power output value and a nominal power output value at the ambient condition.