Systems and methods for allocating electrical energy within a storage cell. Energy stored in an energy storage cell is allocated to multiple energy sub-partitions. Each energy sub-partition is associated with a user. A request to buy an amount of energy from an energy sub-partition assigned to another user is sent by a present user to at least one respective user in the plurality of users. Based on sending the request to sell an amount of energy, at least one response with an offer to sell energy to the present user is received. Acceptance of a selected offer within the at least one response is received, where the selected offer was sent by a winning user. The amount of energy is re-allocated from an energy sub-portion allocated to the winning user to an energy sub-portion associated with the present user based on receiving the acceptance.

A power supply unit, an electrically operated system and a method for operating an electrical system, wherein the power supply unit connects through a basic supply voltage or a buffer voltage, which is provided by an energy store unit, where to perform a controlled switch-on process of the electrical loads, a switch-on delay time is specified, after the expiration of which the basic supply voltage or the buffer voltage is connected through at the output of the power supply unit, and where to perform a controlled switch-on process of the electrical loads, a voltage is output only when a charge level of the energy store unit is greater than or equal to a threshold value of the energy store charge level such that switch-on management for power supplies that ensures absolutely safe interruption-free and thus trouble-free start-up of a plurality of electrical loads is achieved.

The invention relates to a method for energy management of a process automation field device having a first module and at least a second module, wherein the field device is supplied with energy by a two conductor bus, wherein the first module, at least temporarily, consumes more energy than the two conductor bus continuously delivers, and an energy storer supplied by the two conductor bus is associated with the first module, wherein the second module is supplied continuously with energy by the two conductor bus, wherein operation of the first and second modules is so controlled that the second module has precedence over the first module and the first module is, in given cases, at least temporarily, not functional.

An intelligent power distribution management system and method of use for intelligent control of power door locks and any other devices requiring managed power to enhance installation setup, increase functionality and versatility, include local diagnostic computation, extend communication capability for remote monitoring and control, monitor load conditions with the ability to signal and enact protective action as well as alert a user via alarms and LED indicators. The electrified power lock manager is remotely programmable and has a programmable controller, digitally controlled auto resetting solid-state circuit breakers, intelligent detection and measurement of power door lock voltage and current, and the ability to provide early detection of power door lock failure while sending a notification when detecting a failure.

Methods, apparatus, systems, and articles of manufacture are disclosed to generate an asset health quantifier of a turbine engine. An example apparatus includes a health quantifier generator to execute a computer-generated model to simulate an operating condition of a turbine engine using asset monitoring information and generate an asset health quantifier of the turbine engine based on the simulation, and compare the asset health quantifier to a threshold, and a removal scheduler to identify the turbine engine for removal from service based on the comparison to improve an operation of the turbine engine by performing a workscope on the removed turbine engine.

Load control interlocks are disclosed and described. The interlocks provide for coupling a power circuit to one or more load circuits once the one or more load circuits and the power circuit are both coupled to the interlock, and disconnects the power circuit from the one or more load circuits if the one or more load circuits or the power circuit are uncoupled form the interlock or an electrical connection between the power circuit and the one or more load circuits is broken.

The invention relates to a method for energy management of a process automation field device having a first module and at least a second module, wherein the field device is supplied with energy by a two conductor bus, wherein the first module, at least temporarily, consumes more energy than the two conductor bus continuously delivers, and an energy storer supplied by the two conductor bus is associated with the first module, wherein the second module is supplied continuously with energy by the two conductor bus, wherein operation of the first and second modules is so controlled that the second module has precedence over the first module and the first module is, in given cases, at least temporarily, not functional.

An online voltage control method for coordinating multi-type reactive power resources is provided. First, a linearized power flow equation of branch reactive power is established, and an online voltage control model of multi-type reactive power resources including an objective function and constraint conditions is constructed. The constraint conditions includes generator reactive power constraints, reactive power compensator constraints, transformer tap position constraints, a nodal reactive power balance constraint, and slack contained nodal voltage constraints. Then, an optimization result of voltage control is obtained by solving the model. The method makes full use of reactive voltage operation characteristics of a power grid, constructs a practical online solution model for reactive voltage control of large power grid of coordinating multiple reactive power resources, and under a condition of acceptable accuracy loss, takes in account safety of power grid operation, economy of reactive power resource actions and high reliability of online operation.