Abstract: A new combined SEOL cycle is represented by the recovery vapor Generator (GVR) which completely substitutes the Regenerator, of the prior art, being capable of recovering the energy differential (QR) between the temperature at the end of expansion and the temperature at nearly complete condensation of the thermal fluid and then, by using this great energy differential, it is capable of producing water vapor, entirely reusable in the preheating of the mixture, considerably contributing to the increase of the overall energy yield of the cycle and to the increase of the unit power of the heat engine.

Abstract: A manifold for the distribution of a fluid in a plumbing and heating system has a tubular shape and defines in its interior a distribution conduit for the fluid. The manifold extends between a first inlet/outlet end and a second inlet/outlet end, both of which are designed to put the distribution conduit in communication with the exterior of the manifold to receive incoming fluid or to send fluid exiting the manifold. The manifold comprises a plurality of branches arranged in series along a longitudinal extension and interposed between the first and second inlet/outlet ends, wherein each branch allows a quantity of fluid to enter into or exit from the distribution conduit.

Abstract: An apparatus configured to regulate the circulation of a fluid in a thermal plant includes a differential pressure regulator, a three-way selection valve, and a two-way zone valve.

Abstract: An apparatus for controlling the distribution of a fluid along a supply line configured to supply a user includes a first hydraulic valve located along the supply line and provided with an inlet, which receives fluid in transit in the supply line; an outlet, which transmits fluid through the first valve to make it continue along the supply line, or which receives fluid coming from a portion of the supply line downstream of the first valve; and a discharge, which discharges outside of the supply line, through the first valve, fluid present in the supply line and coming from a portion of the supply line downstream of the first valve.

Abstract: A fitting (1) for connecting pipes (T) comprises a first tubular element (3), defining at its interior a first duct (3b), and a second tubular element (4), defining at its interior a second duct (4b). The fitting includes a first bushing (11), externally surrounding the first tubular element and creating an annular housing (12). The fitting also includes a first bushing-holder (30), externally associated with the first tubular element and configured for mounting the first bushing, including a seal portion (31) externally wound around a seal sector (40) of the first tubular element. The seal portion is interposed between a portion of a pipe, inserted in the annular housing and the seal sector, and attains a fluid-tight gasket when the first bushing is in a clamping configuration.

Abstract: An apparatus for controlling the distribution of a fluid along a supply line configured to supply a user includes a first hydraulic valve located along the supply line and provided with an inlet, which receives fluid in transit in the supply line; an outlet, which transmits fluid through the first valve to make it continue along the supply line, or which receives fluid coming from a portion of the supply line downstream of the first valve; and a discharge, which discharges outside of the supply line, through the first valve, fluid present in the supply line and coming from a portion of the supply line downstream of the first valve.

Abstract: A manifold for the distribution of a fluid in a plumbing and heating system has a tubular shape and defines in its interior a distribution conduit for the fluid. The manifold extends between a first inlet/outlet end and a second inlet/outlet end, both of which are designed to put the distribution conduit in communication with the exterior of the manifold to receive incoming fluid or to send fluid exiting the manifold. The manifold comprises a plurality of branches arranged in series along a longitudinal extension and interposed between the first and second inlet/outlet ends, wherein each branch allows a quantity of fluid to enter into or exit from the distribution conduit.

Abstract: A new combined SEOL cycle is represented by the recovery vapor Generator (GVR) which completely substitutes the Regenerator, of the prior art, being capable of recovering the energy differential (QR) between the temperature at the end of expansion and the temperature at nearly complete condensation of the thermal fluid and then, by using this great energy differential, it is capable of producing water vapor, entirely reusable in the preheating of the mixture, considerably contributing to the increase of the overall energy yield of the cycle and to the increase of the unit power of the heat engine.

Abstract: A fitting for connecting pipes, in particular flexible pipes, includes a first tubular element provided with a first inlet/outlet opening and defining at its interior a first duct, and a second tubular element provided with a second inlet/outlet opening and defining at its interior a second duct. The two tubular elements are connected to each other in a manner such that the first and the second duct are in communication. The fitting includes a first bushing associated with the first tubular element in order to externally surround it and create an annular housing, which can operate in an insertion configuration, in which it allows the insertion of a pipe in the annular housing, and a clamping configuration, in which it presses and locks the pipe in a fluid-tight manner.

Abstract: A fitting for connecting pipes, in particular flexible pipes, includes a first tubular element, provided with a first inlet/outlet opening and at its interior defining a first duct, and a second tubular element, provided with a second inlet/outlet opening and at its interior defining a second duct. The two tubular elements are connected together in a manner such that the first and second ducts are in communication. The first tubular element is provided with at least one through opening, between an external surface thereof facing outwards and an internal surface directed towards the first duct. The through opening defines a respective empty space between the external surface and the internal surface of the first tubular element. The fitting operates in an insertion condition, in which it allows a pipe to be fitted around said first tubular element, and a clamping condition, in which the pipe is pressed and stably locked on the first tubular element.

Abstract: The present invention relates to a device (1) for the filtration of a fluid circulating in a plumbing and heating system, comprising a body (2) of the device defining therein a filtration chamber (3) and equipped with: filtration members (40), to perform a filtration of the fluid passing through the filtration chamber (3), comprising a filtering element (41) which divides the filtration chamber into a first (8) and a second half-chamber (9); an inlet/outlet interface (10) having a first inlet/outlet opening (11), in communication with the first half-chamber, and a second inlet/outlet opening (12), in communication with the second half-chamber.

Abstract: The present invention relates to a device (1) for filtering a fluid circulating in a plumbing and heating system, comprising a body (2) defining therewithin a filtration chamber (3) that is destined to have a fluid to be subjected to filtration pass through it. The body is provided with a first inlet/outlet opening (10), a second inlet/outlet opening (20) and a third inlet/outlet opening (30): each of which sets the filtration chamber (3) in communication with the outside of the device and can be associated with a line of the system to receive therefrom, or send thereto a fluid entering or exiting said body of the device. The device operates a passage of fluid through the filtration chamber (3), in a selective manner according to a plurality of operative configurations, from an opening between said first (10), second (20) and third inlet/outlet opening (30) to a further opening between said first, second and third inlet/outlet opening.

Abstract: A heat machine for realizing a heat cycle, operating with a thermal fluid includes a drive unit. A first rotor and a second rotor, each having three pistons slidable in an annular chamber, wherein the pistons delimit six variable-volume chambers. The drive unit includes a transmission to convert the rotary motion with first and second periodically variable angular velocities of said first and second rotor, offset from each other, into a rotary motion at a constant angular velocity. The heat machine further includes a compensation tank, to accumulate the compressed fluid from the drive unit, a regenerator to preheat the fluid, a heater to superheat the fluid circulating in the serpentine coil, a burner, to supply the thermal energy to the heater; wherein the regenerator, in fluid communication with the drive unit, is configured to acquire energy-heat from the exhausted fluid and to preheat the fluid sent to the heater.

Abstract: The present invention relates to a device (1) for filtering a fluid circulating in a plumbing and heating system, said device comprising a body (2) which defines therewithin a filtration chamber (3) that is destined to have a fluid to be subjected to filtration pass through it. The body is provided with a first inlet/outlet opening (10), a second inlet/outlet opening (20) and a third inlet/outlet opening (30): each one of them sets the filtration chamber (3) in communication with the outside of the device and is associable with a line of the system so as to receive therefrom, or to send thereto, fluid entering, or exiting from, said body of the device. The device brings about a passage of fluid through the filtration chamber (3), in a selective manner according to a plurality of operative configurations, from one opening among said first (10), second (20) and third (30) inlet/outlet openings to another opening among said first, second and third inlet/outlet openings.

Abstract: The present invention relates to a device (1) for filtering a fluid circulating in a plumbing and heating system, said device comprising a body (2) which defines therewithin a filtration chamber (3) that is intended to have a fluid to be subjected to filtration pass through it. The body is provided with a first inlet/outlet opening (10), a second inlet/outlet opening (20) and a third inlet/outlet opening (30): each one of them sets the filtration chamber (3) in communication with the outside of the device and is associable with a line of the system so as to receive therefrom, or to send thereto, fluid entering, or exiting from, said body of the device.

Abstract: A heat machine for realizing a heat cycle, operating with a thermal fluid includes a drive unit. A first rotor and a second rotor, each having three pistons slidable in an annular chamber, wherein the pistons delimit six variable-volume chambers. The drive unit includes a transmission to convert the rotary motion with first and second periodically variable angular velocities of said first and second rotor, offset from each other, into a rotary motion at a constant angular velocity. The heat machine further includes a compensation tank, to accumulate the compressed fluid from the drive unit, a regenerator to preheat the fluid, a heater to superheat the fluid circulating in the serpentine coil, a burner, to supply the thermal energy to the heater; wherein the regenerator, in fluid communication with the drive unit, is configured to acquire energy-heat from the exhausted fluid and to preheat the fluid sent to the heater.

Abstract: The invention relates to a heat engine (29), including a drive unit (1) provided with: a casing (2) delimiting therein an annular chamber (12), two triads of pistons (7a-7b-7c; 9a-9b-9c) rotatably housed in the casing of the annular cylinder (or toroidal cylinder), a three-shaft movement system (18) configured to transmit motion from and/or to the two triads of pistons; wherein the heat engine is configured so as to carry out a Rankine or Rankine-Hirn thermodynamic cycle, capable of producing electrical energy and heat; the same invention further relates to a pneumatic motor (61) including the aforesaid drive unit (1), configured so as to transform the compressed air at high pressure, contained in a tank, into mechanical energy.

Abstract: The present invention relates to a drive unit (1), usable, in particular, for the construction of heat engines designed to use thermodynamic cycles of the Rankine, Rankine-Hirn, Brayton and Stirling type, comprising a casing (2) delimiting therein an annular chamber (12), two triads of pistons (7a-7b-7c; 9a-9b-9c) rotatably housed in the casing of the annular cylinder (or toroidal cylinder), a three-shaft movement system (18) configured to transmit motion from and/or to the two triads of pistons; wherein said system comprises a primary shaft (17), a first secondary shaft (19) and a second secondary shaft (20), and each secondary shaft is connected to a respective triad of pistons (7a-7b-7c; 9a-9b-9c); the rotation of the primary shaft having a constant angular velocity determines a periodic cyclic variation in the angular velocity of rotation of the two secondary shafts.

Abstract: A method for regulating a temperature in a plurality of rooms (3) of a building, comprising steps of detecting a first ambient temperature measurement (TaI) in a first room (3a) with use of a thermostat (5) destined to command functioning of a first heat-regulating device (8a) mounted on a first radiator (4a) arranged in the first room (3 a), in a correlated way with the first ambient temperature measurement (TaI) and with a first set value (Tset1) of a desired temperature in the first room (3 a), detecting a first proximal temperature (Tpr1) by means of a first sensor (9a) arranged in proximity of the first radiator (4a), detecting a second ambient proximal temperature measurement (Tpr2) in a second room (3b) by means of a second sensor (9b) arranged in proximity of a second radiator (4b), correlating the measurement of the second proximal temperature (Tpr2) with a second set value (Ofs2) for a second heat-regulating device (8b) and also at least with the first proximal temperature measurement (Tpr1) in orde