Abstract: A method for regulating electrical and thermal power generated by an energy system in a multi-source energy plant that comprises one or more loads. The energy system comprises an electronic unit implementing a multi-objective function (Fmo) that comprises: first computation parameters (PTi, Oi) comprising values of the electrical and thermal powers exchanged within the multi-source plant between a cogeneration module, loads, auxiliary sources and an electric network; and a set of second (Ci, Ai) and third computation parameters (Ni) correlated to the costs of management and exchange of the electrical and thermal powers within the energy plant. The method comprises the step of determining optimal values (PUi) of the electrical and thermal powers that the energy system must supply to minimize the multi-objective function (Fmo), and the step of varying the electrical and thermal powers generated by the cogeneration module as a function of the optimal values calculated (PUi).

Abstract: An assembly for generating electrical and thermal energy has a structure that supports a cogeneration device provided with a combustion engine supplied with fuel, an electric generator driven by the combustion engine, and at least one heat exchanger to heat a fluid for a thermal appliance using the heat produced by the combustion engine; the assembly also has a plurality of storage batteries, which guarantee the continuity of the flow of electrical energy during start-up of the electric generator and during load transients and are housed in a base of the structure.

Abstract: An assembly for generating electrical and thermal energy has a structure that supports a cogeneration device provided with a combustion engine supplied with fuel, an electric generator driven by the combustion engine, and at least one heat exchanger to heat a fluid for a thermal appliance using the heat produced by the combustion engine; the assembly also has a plurality of storage batteries, which guarantee the continuity of the flow of electrical energy during start-up of the electric generator and during load transients and are housed in a base of the structure.

Abstract: A method for multi-objective management of the electrical and thermal power generated by a co/trigeneration energy system in a multi-source energy plant. The co/trigeneration energy system comprises an electronic unit implementing a multi-objective function comprising: first computation parameters containing the values of the electrical and thermal powers exchanged within the multi-source plant between a cogeneration module, loads, auxiliary sources, and an electric network; and a set of second and third computation parameters correlated to the costs of management and, respectively, of efficiency of the generation and exchange of the electrical and thermal powers within the multi-source energy plan.

Abstract: The system comprises a main cogeneration module which can be supplied with a flow of fuel for a combustion process and is able to generate electrical energy and thermal energy in the form of a flow of at least one first hot fluid, preferably water. The main module has an electrical output terminal or node which can be directly connected to electrical user appliances and can be connected in parallel to an external electric power generating and supply network via a controlled switching device.

Abstract: The system comprises a main cogeneration module which can be supplied with a flow of fuel for a combustion process and is able to generate electrical energy and thermal energy in the form of a flow of at least one first hot fluid, preferably water. The main module has an electrical output terminal or node which can be directly connected to electrical user appliances and can be connected in parallel to an external electric power generating and supply network via a controlled switching device.

Abstract: The system comprises a main combined generating module which can be supplied with a flow of a fuel and which can generate electrical energy and thermal energy in the form of a flow of at least a first hot fluid, preferably water. The main module has an electrical output terminal or node which can be connected directly to electrical user appliances and which can also be connected in parallel with an external electrical generating and distribution network by means of a controlled switching device.

Abstract: The system comprises a main combined generating module which can be supplied with a flow of a fuel and which can generate electrical energy and thermal energy in the form of a flow of at least a first hot fluid, preferably water. The main module has an electrical output terminal or node which can be connected directly to electrical user appliances and which can also be connected in parallel with an external electrical generating and distribution network by means of a controlled switching device. The system further comprises: an auxiliary generating module which can be supplied with thermal energy produced by the main module and which can supply thermal energy at a lower temperature in the form of a flow of at least one second, cooled fluid, and supervision and control means which are arranged to control the operation of the main module and of the auxiliary module in accordance with predetermined procedures.