SINGLE-TRANSPORT MOBILE ELECTRIC POWER GENERATION
A power generation transport includes a gas turbine, an inlet plenum coupled to an intake of the gas turbine, a generator driven by the gas turbine, and an air intake and exhaust module including an air inlet filter housing, an intake air duct coupled to the housing at a first end and to the inlet plenum at a second end, and an exhaust collector coupled to an exhaust of the gas turbine. The transport further includes at least one base frame. The frame mounts and aligns the gas turbine, the inlet plenum, the generator, and the air intake and exhaust module. The intake air duct is mounted on the base frame so as to be disposed underneath the gas turbine, and extend along the base frame from an exhaust end side of the gas turbine to an intake end side, in a longitudinal direction of the power generation transport.
1 . A method for providing mobile electric power, the method comprising:
setting a power generation transport in an operational mode;
supplying air to an intake of a gas turbine disposed on the power generation transport via an intake air flow path, the intake air flow path being defined by an air inlet filter housing and an intake air duct, the air inlet filter housing being mounted on an exhaust end side of the gas turbine;
generating electricity by operating a generator disposed on the power generation transport with mechanical energy generated by operation of the gas turbine; and
expelling exhaust air from the gas turbine via an exhaust air flow path, the exhaust air flow path being defined by an exhaust collector disposed on the exhaust end side of the gas turbine.
2 . The method of claim 1 , wherein the air inlet filter housing, the intake air duct, and the exhaust collector are integrally formed as an air intake and exhaust module, the air intake and exhaust module being mounted at a rear end of the power generation transport.
3 . The method of claim 1 , wherein the intake air flow path passes underneath the exhaust collector and the gas turbine from the exhaust end side to an intake end side of the gas turbine, and wherein the intake air flow path is substantially U-shaped at the intake end side of the gas turbine.
4 . The method of claim 1 , wherein the exhaust collector has an upward curved portion, wherein the exhaust air flow path extends from an air exhaust of the gas turbine, passes through a flow path defined by the exhaust collector, extends upward at the upward curved portion of the exhaust collector, and ends at an exhaust air outlet disposed at a roof of the power generation transport.
5 . The method of claim 4 , wherein the exhaust air flow path is disposed between the air exhaust of the gas turbine and the air inlet filter housing disposed at a rear end of the power generation transport.
6 . The method of claim 1 , further comprising recovering heat energy from hot exhaust air expelled from the gas turbine with a heat exchanger component disposed in the exhaust air flow path.
7 . A hydraulic fracturing system comprising:
a power generation transport; and
a plurality of fracturing pump transports that are powered by the power generation transport to pump fracturing fluid downhole at a wellsite to perform hydraulic fracturing operations, the power generation transport comprising:
a power source;
a generator driven by the power source; and
an air intake and exhaust module including:
an air inlet filter housing;
an intake air duct coupled to the air inlet filter housing at a first end and to an air intake of the power source at a second end; and
an exhaust collector coupled to an air exhaust of the power source;
wherein the air intake and exhaust module is mounted at an end side of the power generation transport such that the air inlet filter housing and the exhaust collector are both disposed on an exhaust end side of the power source.
8 . The hydraulic fracturing system of claim 7 , wherein the air intake and exhaust module is integrally formed as a modular unit and disposed at a rear end of the power generation transport.
9 . The hydraulic fracturing system of claim 7 , wherein the air inlet filter housing, the intake air duct, and the air intake define an intake air flow path for the power source, and wherein the intake air flow path extends underneath the power source and the exhaust collector along a length of the power source and the exhaust collector.
10 . The hydraulic fracturing system of claim 9 , wherein the intake air flow path is substantially U-shaped at an intake end of the power source.
11 . The hydraulic fracturing system of claim 7 , wherein the power source, the generator, and the air intake and exhaust module define a first power generation apparatus, wherein the end side of the power generation transport is a first end side where the air intake and exhaust module of the first power generation apparatus is mounted, and wherein the power generation transport further comprises a second power generation apparatus, the second power generation apparatus including:
a second power source;
a second generator driven by the second power source; and
a second air intake and exhaust module, wherein the second air intake and exhaust module is mounted at a second end side of the power generation transport, the second end side being opposite to the first end side.
12 . An air intake and exhaust module, comprising:
an air inlet filter housing;
an intake air duct coupled to the air inlet filter housing at a first end and to an air intake of a power source at a second end; and
an exhaust collector coupled to an air exhaust of the power source;
wherein the air intake and exhaust module is mounted on a transport such that the air inlet filter housing and the exhaust collector are both disposed on an exhaust end side of the power source, wherein, in a longitudinal direction of the air intake and exhaust module, the exhaust collector disposed on the exhaust end side of the power source in between the air exhaust of the power source and the air inlet filter housing.
13 . The air intake and exhaust module of claim 12 , wherein the air intake and exhaust module is integrally formed as a modular unit and disposed at a rear end of a power generation transport.
14 . The air intake and exhaust module of claim 13 , wherein the exhaust collector has an upward curved portion and defines an exhaust air flow path for exhaust air expelled from the power source, and wherein the exhaust air flow path extends from the air exhaust of the power source, passes through a flow passage defined by the exhaust collector, extends upward at the upward curved portion of the exhaust collector, and ends at an exhaust air outlet disposed at a roof of the power generation transport.
15 . The air intake and exhaust module of claim 14 , wherein the exhaust air flow path is disposed between the air exhaust of the power source and the air inlet filter housing.
16 . The air intake and exhaust module of claim 12 , wherein the air inlet filter housing, the intake air duct, and the air intake of the power source define an intake air flow path for the power source, and wherein the intake air flow path extends underneath the power source and the exhaust collector along a length of the power source and the exhaust collector.
17 . The air intake and exhaust module of claim 16 , wherein the intake air flow path is substantially U-shaped at an intake end of the power source.
18 . The air intake and exhaust module of claim 12 , wherein the intake air duct passes underneath the power source from the exhaust end side of the power source to an intake end side of the power source.
19 . The air intake and exhaust module of claim 12 , wherein the intake air duct passes underneath the exhaust collector such that the intake air duct is in between the exhaust collector and a base frame of the transport.
20 . The air intake and exhaust module of claim 12 , wherein the exhaust collector exhausts combustion air exhaust from the power source and further exhausts ventilation and cooling air from a gas turbine compartment.