Wind-powered energy saving system

Abstract

A wind-powered energy saving system has a power assembly, a temperature adjusting assembly and an increasing assembly. The power assembly has a fan device and an air compressor. The fan device has a rotating shaft. The air compressor is connected to the rotating shaft of the fan device. The temperature adjusting assembly is electrically connected to the power assembly and has a heat-eliminating device and a heating device. The heat-eliminating device is connected to the air compressor and has an inlet tube and multiple first tempering panels. The heating device is connected to the heat-eliminating device and has a linking tube and multiple second tempering panels. The increasing assembly is connected to the temperature adjusting assembly and has an air-feeding pipe, an exiting device and a spraying device.

1 . A wind-powered energy saving system having
 a power assembly having
 a fan device; and 
 an air compressor connected to the fan device and having an outlet pipe; and 
   a temperature adjusting assembly electrically connected to the power assembly and having
 a heat-eliminating device connected to the air compressor and having
 an inlet tube connected to the outlet pipe of the air compressor; and 
 multiple first tempering panels mounted on the inlet tube at intervals; and 
 
 a heating device connected to the heat-eliminating device and having
 a linking tube connected to the outlet pipe of the air compressor; and 
 multiple second tempering panels mounted on the linking tube at intervals. 
 
   
     
     
         2 . The wind-powered energy saving system as claimed in  claim 1  further having an increasing assembly connected to the temperature adjusting assembly and having
 an air-feeding pipe connected to the inlet tube of the heat-eliminating device and having a feeding end; 
 an exiting device connected to the feeding end of the air-feeding pipe and having an air turbine connected to the feeding end of the air-feeding pipe; and 
 a spraying device coaxially connected to the exiting device and having
 a water-pumping turbine coaxially connected to the air turbine and having an outfall; and 
 a spraying pipe connected to the outfall of the water-pumping turbine and having an external surface. 
 
 
     
     
         3 . The wind-powered energy saving system as claimed in  claim 2 , wherein the spraying device has a floating board movably mounted around the external surface of the spraying pipe. 
     
     
         4 . The wind-powered energy saving system as claimed in  claim 3 , wherein the power assembly has
 a motor connected to the air compressor;   a back-up power supply electrically and connected to the motor of the air compressor to provide electric power to the air compressor in a slight wind condition or a windless condition; and   an air tank connected to the air compressor to store the high pressure and high temperature air that produced by the air compressor and having an air pipe connected to and communicating with the outlet pipe of the air compressor.   
     
     
         5 . The wind-powered energy saving system as claimed in  claim 4 , wherein
 the air compressor has a water pump connected to the air compressor;   the back-up power supply is an electricity direct output device; and   the heat-eliminating device has at least one air-feeding hole defined in the inlet tube.   
     
     
         6 . The wind-powered energy saving system as claimed in  claim 5 , wherein the air compressor has
 a body being hollow and having
 an inlet; and 
 an outlet aligning with the inlet of the body; and 
   two vane wheels rotatably mounted in the body between the inlet and the outlet of the body.   
     
     
         7 . The wind-powered energy saving system as claimed in  claim 6 , wherein
 the outlet pipe has
 an inner end connected to the air compressor; and 
 two outer ends; 
   the air compressor has
 an overpressure valve is mounted on one of the outer ends of the outlet pipe; 
 a constant-pressure valve mounted on the other outer end of the outlet pipe; and 
 a check valve mounted on the outlet pipe between the constant-pressure valve and the inner end of the outlet pipe; and 
   the air pipe is connected to and communicates with the outlet pipe of the air compressor between the check valve and the constant-pressure valve.   
     
     
         8 . The wind-powered energy saving system as claimed in  claim 7 , wherein
 the inlet tube has
 a connecting end connected to the outer end of the outlet pipe on which the constant-pressure valve mounted; and 
 a feeding end; 
   the at least one air-feeding hole is defined in the feeding end of the inlet tube;   the heat-eliminating device has
 a first control valve mounted on the inlet tube near the at least one air-feeding hole; and 
 a second control valve mounted on the inlet tube between the first tempering panels and the first control valve; 
   the linking tube has
 a connecting end connected to the outer end of the outlet pipe on which the constant-pressure valve mounted; and 
 a linking end connected to the inlet tube near the first tempering panels; and 
   the heating device has
 a third control valve mounted on the linking tube between the constant-pressure valve and the first tempering panels; and 
 a fourth control valve mounted on the linking tube near the connecting end of the linking tube. 
   
     
     
         9 . The wind-powered energy saving system as claimed in  claim 8 , wherein the fan device is an upright type fan device. 
     
     
         10 . The wind-powered energy saving system as claimed in  claim 8 , wherein the fan device is a horizontal type fan device. 
     
     
         11 . The wind-powered energy saving system as claimed in  claim 8 , wherein the fan device is a jet-type fan device. 
     
     
         12 . The wind-powered energy saving system as claimed in  claim 11 , wherein the jet-type fan device is a vane type windmill and the vane type windmill has
 an outer casing being hollow and having
 an internal surface; 
 a front side; 
 a rear side; 
 multiple first stator plates mounted on the internal surface of the outer casing at intervals between the sides of the outer casing; 
 a holding mount securely mounted on the rear side of the outer casing and having
 an outer surface; and 
 multiple second stator plates mounted on the outer surface of the holding mount at intervals; 
 
 an air channel connected to the holding mount, communicating with the outer casing and having an end extending out of the outer casing; 
 a filtrating net mounted on the front side of the outer casing; and 
 an impurity tank connected to the end of the air channel that extends out of the outer casing; and 
   a rotating tube being hollow, rotatably mounted on the holding mount around the second stator plates and having
 an internal surface; 
 an external surface; and 
 multiple active plates mounted on the surfaces of the rotating tube at intervals and respectively spaced with the stator plates of the outer casing. 
   
     
     
         13 . The wind-powered energy saving system as claimed in  claim 11 , wherein the jet-type fan device is a centrifugal type windmill and the centrifugal type windmill has
 an outer casing being hollow and having
 an internal surface; 
 a front side; 
 a rear side; 
 multiple first stator plates mounted on the internal surface of the outer casing at intervals between the sides of the outer casing; 
 a holding mount securely mounted on the rear side of the outer casing and having
 an outer surface; and 
 multiple second stator plates mounted on the outer surface of the holding mount at intervals; 
 
 at least one spiral air channel connected to the holding mount, communicating with the outer casing and having an end extending out of the outer casing; 
 a filtrating net mounted on the front side of the outer casing; and 
 an impurity tank connected to the end of the at least one spiral air channel that extends out of the outer casing; and 
   a rotating tube being hollow, rotatably mounted on the holding mount around the second stator plates and having
 an internal surface; 
 an external surface; and 
 multiple active plates mounted on the surfaces of the rotating tube at intervals and respectively spaced with the stator plates of the outer casing. 
   
     
     
         14 . The wind-powered energy saving system as claimed in  claim 11 , wherein the jet-type fan device is a modified type windmill and the modified type windmill has
 an outer casing being hollow and having
 an internal surface; 
 a front side; 
 a rear side; 
 multiple stator plates mounted on the internal surface of the outer casing at intervals between the sides of the outer casing; and 
 an outer filtrating net mounted on the front side of the outer casing; 
   a rotating tube being convergent, rotatably mounted in the outer casing and having
 a front end rotatably connected to the front side of the outer casing; 
 a rear end; 
 an external surface; 
 multiple active plates mounted on the external surface of the rotating tube at intervals and respectively spaced with the stator plates of the outer casing; 
 a direct blower mounted around the rear end of the rotating tube and having an air channel connected to the direct blower, communicating with the rotating tube and having an end extending out of the outer casing; and 
 an inner filtrating net mounted in the front end of the rotating tube; and 
   an impurity tank connected to the end of the air channel that extends out of the outer casing.   
     
     
         15 . The wind-powered energy saving system as claimed in  claim 1 , wherein the power assembly has
 a motor connected to the air compressor;   a back-up power supply electrically and connected to the motor of the air compressor to provide electric power to the air compressor in a slight wind condition or a windless condition; and   an air tank connected to the air compressor to store the high pressure and high temperature air that produced by the air compressor and having an air pipe connected to and communicating with the outlet pipe of the air compressor.   
     
     
         16 . The wind-powered energy saving system as claimed in  claim 2 , wherein the power assembly has
 a motor connected to the air compressor;   a back-up power supply electrically and connected to the motor of the air compressor to provide electric power to the air compressor in a slight wind condition or a windless condition; and   an air tank connected to the air compressor to store the high pressure and high temperature air that produced by the air compressor and having an air pipe connected to and communicating with the outlet pipe of the air compressor.   
     
     
         17 . The wind-powered energy saving system as claimed in  claim 1 , wherein the air compressor has
 a body being hollow and having
 an inlet; and 
 an outlet aligning with the inlet of the body; and 
   two vane wheels rotatably mounted in the body between the inlet and the outlet of the body.   
     
     
         18 . The wind-powered energy saving system as claimed in  claim 1 , wherein
 the outlet pipe has
 an inner end connected to the air compressor; and 
 two outer ends; 
   the air compressor has
 an overpressure valve is mounted on one of the outer ends of the outlet pipe; 
 a constant-pressure valve mounted on the other outer end of the outlet pipe; and 
 a check valve mounted on the outlet pipe between the constant-pressure valve and the inner end of the outlet pipe; and 
   the air pipe is connected to and communicates with the outlet pipe of the air compressor between the check valve and the constant-pressure valve.   
     
     
         19 . The wind-powered energy saving system as claimed in  claim 2 , wherein
 the outlet pipe has
 an inner end connected to the air compressor; and 
 two outer ends; 
   the air compressor has
 an overpressure valve is mounted on one of the outer ends of the outlet pipe; 
 a constant-pressure valve mounted on the other outer end of the outlet pipe; and 
 a check valve mounted on the outlet pipe between the constant-pressure valve and the inner end of the outlet pipe; and 
   the air pipe is connected to and communicates with the outlet pipe of the air compressor between the check valve and the constant-pressure valve.   
     
     
         20 . The wind-powered energy saving system as claimed in  claim 2 , wherein
 the inlet tube has
 a connecting end connected to the outer end of the outlet pipe on which the constant-pressure valve mounted; and 
 a feeding end; 
   the at least one air-feeding hole is defined in the feeding end of the inlet tube;   the heat-eliminating device has
 a first control valve mounted on the inlet tube near the at least one air-feeding hole; and 
 a second control valve mounted on the inlet tube between the first tempering panels and the first control valve; 
   the linking tube has
 a connecting end connected to the outer end of the outlet pipe on which the constant-pressure valve mounted; and 
 a linking end connected to the inlet tube near the first tempering panels; and 
   the heating device has
 a third control valve mounted on the linking tube between the constant-pressure valve and the first tempering panels; and 
 a fourth control valve mounted on the linking tube near the connecting end of the linking tube. 
   
     
     
         21 . The wind-powered energy saving system as claimed in  claim 1 , wherein the fan device is a jet-type fan device. 
     
     
         22 . The wind-powered energy saving system as claimed in  claim 21 , wherein the jet-type fan device is a vane type windmill and the vane type windmill has
 an outer casing being hollow and having
 an internal surface; 
 a front side; 
 a rear side; 
 multiple first stator plates mounted on the internal surface of the outer casing at intervals between the sides of the outer casing; 
 a holding mount securely mounted on the rear side of the outer casing and having
 an outer surface; and 
 multiple second stator plates mounted on the outer surface of the holding mount at intervals; 
 
 an air channel connected to the holding mount, communicating with the outer casing and having an end extending out of the outer casing; 
 a filtrating net mounted on the front side of the outer casing; and 
 an impurity tank connected to the end of the air channel that extends out of the outer casing; and 
   a rotating tube being hollow, rotatably mounted on the holding mount around the second stator plates and having
 an internal surface; 
 an external surface; and 
 multiple active plates mounted on the surfaces of the rotating tube at intervals and respectively spaced with the stator plates of the outer casing. 
   
     
     
         23 . The wind-powered energy saving system as claimed in  claim 21 , wherein the jet-type fan device is a centrifugal type windmill and the centrifugal type windmill has
 an outer casing being hollow and having
 an internal surface; 
 a front side; 
 a rear side; 
 multiple first stator plates mounted on the internal surface of the outer casing at intervals between the sides of the outer casing; 
 a holding mount securely mounted on the rear side of the outer casing and having
 an outer surface; and 
 multiple second stator plates mounted on the outer surface of the holding mount at intervals; 
 
 at least one spiral air channel connected to the holding mount, communicating with the outer casing and having an end extending out of the outer casing; 
 a filtrating net mounted on the front side of the outer casing; and 
 an impurity tank connected to the end of the at least one spiral air channel that extends out of the outer casing; and 
   a rotating tube being hollow, rotatably mounted on the holding mount around the second stator plates and having
 an internal surface; 
 an external surface; and 
 multiple active plates mounted on the surfaces of the rotating tube at intervals and respectively spaced with the stator plates of the outer casing. 
   
     
     
         24 . The wind-powered energy saving system as claimed in  claim 21 , wherein the jet-type fan device is a modified type windmill and the modified type windmill has
 an outer casing being hollow and having
 an internal surface; 
 a front side; 
 a rear side; 
 multiple stator plates mounted on the internal surface of the outer casing at intervals between the sides of the outer casing; and 
 an outer filtrating net mounted on the front side of the outer casing; 
   a rotating tube being convergent, rotatably mounted in the outer casing and having
 a front end rotatably connected to the front side of the outer casing; 
 a rear end; 
 an external surface; 
 multiple active plates mounted on the external surface of the rotating tube at intervals and respectively spaced with the stator plates of the outer casing; 
 a direct blower mounted around the rear end of the rotating tube and having an air channel connected to the direct blower, communicating with the rotating tube and having an end extending out of the outer casing; and 
 an inner filtrating net mounted in the front end of the rotating tube; and 
   an impurity tank connected to the end of the air channel that extends out of the outer casing.