US917483A - Automatic fan system of heating. - Google Patents
Automatic fan system of heating. Download PDFInfo
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- US917483A US917483A US41899308A US1908418993A US917483A US 917483 A US917483 A US 917483A US 41899308 A US41899308 A US 41899308A US 1908418993 A US1908418993 A US 1908418993A US 917483 A US917483 A US 917483A
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- air
- fan
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- heating
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24D—DOMESTIC- OR SPACE-HEATING SYSTEMS, e.g. CENTRAL HEATING SYSTEMS; DOMESTIC HOT-WATER SUPPLY SYSTEMS; ELEMENTS OR COMPONENTS THEREFOR
- F24D1/00—Steam central heating systems
Definitions
- My invention relates to the class of heating apparatus in which a fan blower, or exhauster,'is employed to circulate air in contact with heaters, andthence to the place of use.
- Fan systems of heating by forced circulation of air are now extensively used for heating, and at the same time ventilating, public buildings, factories, dryin rooms, etc., where an engineer is availab e for attending to the driving mechanism of the fan, the steam supply, and other operative details, but on account of requirement for an engineer such systems could not be used for ordinary residences and other similar situations.
- the special object of my invention is to adapt a fan system to house heating, and this end is attained by first applying, in the form of steam, the heat required for warming purposes to driving the fan engine, and then using the exhaust of said engine for heating air supply of the fan, and returning Water of condensation to the source of steam supply. Also in automatically supplying needful amount of steam and air, arranging the air heating surfaces so that practically all exhaust steam entering the air heater shall be condensed, and returning automatically resulting water of condensation to the source of steam supply, usually a steam boiler; the several steps and details being shown on the accompanying drawing and described in the following specification.
- FIG. 1 avertical front elevation of the mechanical elements of my invention combined with a vertical cross section of a portion of a building served thereby.
- Fig. 2 is a vertical elevation similar to Fig. 1, but showing certain modifications in construction and arrangement of apparatus to suit varying conditions.
- the source of steam sup ly for% steam boi er which is illustrated in the drawing by the numeral 1, having water line 2, except that in district systems of heating steam supply will be derived from a street eating will usually be a main as shown at 36 in Fig. 2.
- the steam supply pi e 3, having stop valve 4, and automatical y controlled throttling valve 5, derives the steam required for the. heating system from typical engine 6, preferably of t e turbine class, the exhaust in 111 which passes through ipe 7 to indirect radiating sections 8, which are intended to represent any preferred type of air heating surface.
- valve 5 here shown as connected by tube 18 with a diaphragm 19, which ao'tuates valve 5 through changes of atmospheric temperature in the room acting on the thermostat. ails of the containing building are indicated by 20, the inlet passage for fresh air by 21, the hot air rising flue by 23, the fanengine room by 35, and heating, or plenum, chamber by 25.
- Steam turbine 6 is here shown as connect-Q ed with the fan blower 35 by a belt 26 running over pulle 27- on the turbine and ulley 28 on thefan, ut under suitable con itions the engine and fan may be direct-connected as shown in Fig. 2.
- Ordinary house heating boilers are available, as the fan-driven engine is preferably proportioned so as notto e entrance end-to re aries over 15 lbs. steam pressure, and such bo il ers usually have steam'pressure automatically controlled by a diaphragm acted on by said pressure, or by some equivalent mechanism for automatically operating the dampers and drafts according to steammegg.
- thermostat acts to open throttle valve 5 in proportion to the amount of heat needed to maintain the room temperature at the .predetermined point.
- Engine 22 and fan 35 will consequently be run at speed corresponding to the volume and pressure of steam entering the engine, and delivery of heat and air to apartments will therefore be in corresponding proportion, thus maintainsaid throttle, or
- Engine 6 thus fills the double office of circulating air which conveys heat to the point where required, and of a reducing pressure valve for changing relatively high steam pressure to the ower pressures usually emloyed in heating systems.
- l/Vhile thermostatic control of the engine throttle is not indispensable, as the heating system can be 0 eratcd by hand control of y dispensing with the said throttle and regu ating by stop valve 4, it constitutes a desirable means of rendering the s stem automatic in operation to maintain eating effect uniform.
- Heating surface'in air heater 8 is intended to be proportioned so as to condense all steam admitted into said heater during maximum requirements for heat.
- the admission end it is provided-witii a vent pipe to atmosphere having an outwardly opening check valve 9 which can be loaded so as to carry any 'desired amount of back pressure on the engine to make up for small allowance of heating surface and maintain higher temperature in the heater to meet extreme requirements for heat.
- the fan engine is preferably proportioned to commence running on very low steam pressures, say two or three pounds, which also provides for increasing speed as steam pressure is increased.-
- very low steam pressures say two or three pounds
- steam pressure completely fail's' during the night, causing the engine and fan to stop, they will start automatically when light steam pressure has again been established; and the pressure to be maintained during hours of use will be determined by weat 161 conditions, or other conditions governing requirement for heat; thatis steam pressure will be increased in proportion as requirement for heat increases.
- Fan speed, and consequent volume of air circulated being dependent on volume-and pressure of steamentering the fan engine, there will always be a correct and corresponding balance between air and heat capacity applicable to the heating system.
- the method jot first using the amount of steam re uired for heating to drive the fan engine an connected fan by connecting the engine With a source of steam for driving it; delivering the engine exhaust into air heaters; connecting the fan with said heaters and delivering heated air forced by the fan to the lace of use; governing speedof the combine engine and tan so as to sup ly the amount of heat and air required in t 1e heating system; and
- said heaters by guiding it in a continuously progressive course through successive portions constituting one or more passages of suflicient length to condense the steam before reaching the vented end; delivering air from the fan to said heaters and to the place of use; automatically draining water 01 condensation from said heaters; and governing speed of the combined engine and fan so as to supply heat and air in amount required by the heating system.
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- Engineering & Computer Science (AREA)
- Physics & Mathematics (AREA)
- Thermal Sciences (AREA)
- Chemical & Material Sciences (AREA)
- Combustion & Propulsion (AREA)
- Mechanical Engineering (AREA)
- General Engineering & Computer Science (AREA)
- Control Of Steam Boilers And Waste-Gas Boilers (AREA)
Description
U. C. PEGK.
AUTOMATIC FAN SYSTEM OF HEATING.
APPLICATION FILED MAR. 3, 1908.
917,488. Patented Apr. 6, 1909.
2 SHEETS-SHEET l.
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War/110M126 M 0. 0. PECK.
AUTOMATIC FAN SYSTEM OF HEATING.
APPLICATION FILED MAR. 3, 1908.
Patented. Apr. 6, 1909.
2 SHEETS-SHEET 2.
1 J 24 ,a 1 W z i U 36 WE s: ENVENTQR:
m'wwfl 6 Kb 12 I CASSIUS o. PE'OK, or RooHEs'rER, NEW YORK.
AUTOMATIC FAN SYSTEM OF IEEEATING.
Specification of Lqtters'Patent.
Patented April 6,150.9.
Application filed March 3, 1908. Serial No. 418,893.
To all whom it may concern:
Be it known that I, CASSIUS O. PEOK, a citizen of the United States, residing at Rochester, in the county of Monroe and State of New York, have invented a certain new and useful Automatic Fan System of Heating, of which the following is a specification.
My invention relates to the class of heating apparatus in which a fan blower, or exhauster,'is employed to circulate air in contact with heaters, andthence to the place of use.
Fan systems of heating by forced circulation of air are now extensively used for heating, and at the same time ventilating, public buildings, factories, dryin rooms, etc., where an engineer is availab e for attending to the driving mechanism of the fan, the steam supply, and other operative details, but on account of requirement for an engineer such systems could not be used for ordinary residences and other similar situations.
The special object of my invention is to adapt a fan system to house heating, and this end is attained by first applying, in the form of steam, the heat required for warming purposes to driving the fan engine, and then using the exhaust of said engine for heating air supply of the fan, and returning Water of condensation to the source of steam supply. Also in automatically supplying needful amount of steam and air, arranging the air heating surfaces so that practically all exhaust steam entering the air heater shall be condensed, and returning automatically resulting water of condensation to the source of steam supply, usually a steam boiler; the several steps and details being shown on the accompanying drawing and described in the following specification.
The drawings show in Figure 1 avertical front elevation of the mechanical elements of my invention combined with a vertical cross section of a portion of a building served thereby. Fig. 2 is a vertical elevation similar to Fig. 1, but showing certain modifications in construction and arrangement of apparatus to suit varying conditions.
Referring mostl to Fig. 1, the source of steam sup ly for% steam boi er, which is illustrated in the drawing by the numeral 1, having water line 2, except that in district systems of heating steam supply will be derived from a street eating will usually be a main as shown at 36 in Fig. 2. The steam supply pi e 3, having stop valve 4, and automatical y controlled throttling valve 5, derives the steam required for the. heating system from typical engine 6, preferably of t e turbine class, the exhaust in 111 which passes through ipe 7 to indirect radiating sections 8, which are intended to represent any preferred type of air heating surface. it is essential, however, that in flowing through the heater the steam sup ly should follow a continuous course from tli the air discharge end, which has thecheck valve 9 usually discharging to atmosphere, the steam progressing in such-way as to successively heat all the surfaces which-it passes in 'regular succession from the entering point. In the heater as shown provision is made by branch pi cs 10 connectlng into the heater sections an into main drain pipe 11 for well draining the several sections, and for delivering water of condensation into'return trap 12, having check valves 13 and 14, whichsymbolizes any form of return'trap which provides for automatically returning the water through pipe 15 to boiler 1. Steam supply for equalizing pressure in the trap with that in the boiler, to allow water to fiow by gravity from the former to'the latter in accordance with the well known method, isprovided through pipe 16. A thermostat 17, of any preferred design, is
here shown as connected by tube 18 with a diaphragm 19, which ao'tuates valve 5 through changes of atmospheric temperature in the room acting on the thermostat. ails of the containing building are indicated by 20, the inlet passage for fresh air by 21, the hot air rising flue by 23, the fanengine room by 35, and heating, or plenum, chamber by 25.
Steam turbine 6 is here shown as connect-Q ed with the fan blower 35 by a belt 26 running over pulle 27- on the turbine and ulley 28 on thefan, ut under suitable con itions the engine and fan may be direct-connected as shown in Fig. 2. Ordinary house heating boilers are available, as the fan-driven engine is preferably proportioned so as notto e entrance end-to re uire over 15 lbs. steam pressure, and such bo il ers usually have steam'pressure automatically controlled by a diaphragm acted on by said pressure, or by some equivalent mechanism for automatically operating the dampers and drafts according to steammegg.
quirements. As I such provision for auto.-
is no part of matically maintaining steam supply atthe desired pressure to suit Weather conditions my invention, it is not shown.
Operation of the system is as follows 5 Steam pressure from the source of steam supply being admitted to engine 6 by opening sto valve 4, the engine is thereby put in operation and drives fan 35 which clrculates air in direction shown by arrows, that is first in contact with air heater 8, which is intended to be roportioned so as to suitably heat the air, t en through rising air flue 22, and registers 32, into and through rooms 29 and 30, from whence more or less of the air can be returned through registers 33 by flue 23 to the fan engine room 24 for recirculation. The proportion of fresh air used in the system is regulated by damper 31 in the fresh air inlet 21; and the supply of heated air to individual rooms "can be controlled by said registers, which are provided with the usual shutter dampers. 1* or regulating flow of air through heater 8 to suit varying conditions of weather, gates,,or dampers, 34 are provided to direct the current of air through such portion of the heater as is needful to condense the amount of steam which is being used. Water of condensation drains through pipes 10 into pipe 11, which is formed with a U trap to preserve a water seal between the several sectlons of the heater, and which con ducts it to trap 12, which intermittently returns it to boiler 1. The office of thermostat 17 is to open and close the engine throttle valve 5 in accordance with heat requirements of the heating system by acting through diaphragm 19, the lever 19 of which is attached to said valve. Thus when temperature of the room where the thermostat is located falls below the desired point, said thermostat acts to open throttle valve 5 in proportion to the amount of heat needed to maintain the room temperature at the .predetermined point. Engine 22 and fan 35 will consequently be run at speed corresponding to the volume and pressure of steam entering the engine, and delivery of heat and air to apartments will therefore be in corresponding proportion, thus maintainsaid throttle, or
ing temperature of air practically uniform whatever the volume handled by the fan. Engine 6 thus fills the double office of circulating air which conveys heat to the point where required, and of a reducing pressure valve for changing relatively high steam pressure to the ower pressures usually emloyed in heating systems.
l/Vhile thermostatic control of the engine throttle is not indispensable, as the heating system can be 0 eratcd by hand control of y dispensing with the said throttle and regu ating by stop valve 4, it constitutes a desirable means of rendering the s stem automatic in operation to maintain eating effect uniform.
Heating surface'in air heater 8 is intended to be proportioned so as to condense all steam admitted into said heater during maximum requirements for heat. At.end of the heater 0 posite the admission end it is provided-witii a vent pipe to atmosphere having an outwardly opening check valve 9 which can be loaded so as to carry any 'desired amount of back pressure on the engine to make up for small allowance of heating surface and maintain higher temperature in the heater to meet extreme requirements for heat. When starting the system, steam entering one end of the heater forces air in the heater before it to the opposite end where it finds egress under suflicient ,back pressuie to open the check valve.
Because in case of turbine engines no oil niingles with exhaust steam, I much prefer to use this type of engine in'some one of the forms in which it is, or may be, manufactured.
Special advantages of this system are that (a) it combines well controlled heating with any desired amount of ventilation; (b) that by proper arrangement of inlet and outlet registers, rooms can be evenly warmed from floor to ceiling, or more nearly so than in any system unprovided with mechanically forced circulation; (c) and that all heating apparatus can be avoided in occupied rooms.
The fan engine is preferably proportioned to commence running on very low steam pressures, say two or three pounds, which also provides for increasing speed as steam pressure is increased.- Thus if steam pressure completely fail's' during the night, causing the engine and fan to stop, they will start automatically when light steam pressure has again been established; and the pressure to be maintained during hours of use will be determined by weat 161 conditions, or other conditions governing requirement for heat; thatis steam pressure will be increased in proportion as requirement for heat increases. Fan speed, and consequent volume of air circulated, being dependent on volume-and pressure of steamentering the fan engine, there will always be a correct and corresponding balance between air and heat capacity applicable to the heating system.
do not confine myself to the exact co nstruction and arrangement of apparatus shown and described, as the essentlal features of the invention can be embodied in many different ways, and indeed re uire various modifications to suit varying ocal conditions of use. Thus in Fig. 2, an exhausting fan 35 a is substituted for the forcing fan shown in Fig. 1, 35 being arranged for drawing air by induction through the air heater 8 and then forcing-it to the point of use :ffand air heaters 37 and 38 areilocatedIat the 'points:where air is to be usediforgheating,
37 being of the direct type, and 38 of the 'for use, or to waste.
direct-indirect type of heater, air being delivered from the fan through pipe 39 to the heaters, and exhaust steam from fan engine 6 being similarly conducted through pipe 40 to said heaters, the'water of condensation therefrom returningthrough ipe- 41 to meter 42, whence it goes to any p ace the air-moving mechanism is made to run, substantlally as set forth,
2. In a fan system of heating, the method jot first using the amount of steam re uired for heating to drive the fan engine an connected fan by connecting the engine With a source of steam for driving it; delivering the engine exhaust into air heaters; connecting the fan with said heaters and delivering heated air forced by the fan to the lace of use; governing speedof the combine engine and tan so as to sup ly the amount of heat and air required in t 1e heating system; and
automatically regulating said speed by thermostatic control. 4
3. In a fan system of heating, the method of first using the amount of steam required in sup lying heat for the heating system to drive t 1e fan engine with the attached fan by connecting the engine with a steam supply;
conveying the exhaust steam from the engine into air heaters; delivering air from the fan to said heaters and to the place of use; automatically draining water of condensation from said air' heaters and discharging it into the source of steam supply to the engine; and governing speed of the combined en ine and fan to supply heat and air as required by the heating system.
4. The method ofoperating automatically a fan-system of heating, consisting in connecting a fan engine, having an attached fan, to a source of steam supply; using the engine as a reducing valve to deliver into air heaters the reduced pressure steam needed to furnish the amount of heat required by the heating system; delivering air from the fan to said heaters and to the lace of use; venting said heaters to atmosp ere and automatically closing the vents against entrance of air; automatically draining Water of condensation from said air heaters back into the source of steam supply to the fan engine; condensing in the heating system the pressure steam required in operating the drainage mechanism; and governing thern1ostathaust steam into air heaters; venting said heaters to atmosphere at the end opposite the steam inlet; condensing the steam in. said heaters by guiding it in a continuously progressive course through successive portions constituting one or more passages of suflicient length to condense the steam before reaching the vented end; delivering air from the fan to said heaters and to the place of use; automatically draining water 01 condensation from said heaters; and governing speed of the combined engine and fan so as to supply heat and air in amount required by the heating system.
,CASSIUS C. PECK. Witnesses:-
CHARLES L. WHrrMonE, JNO. H. MoANARNEY.
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US41899308A US917483A (en) | 1908-03-03 | 1908-03-03 | Automatic fan system of heating. |
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US41899308A US917483A (en) | 1908-03-03 | 1908-03-03 | Automatic fan system of heating. |
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US917483A true US917483A (en) | 1909-04-06 |
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US41899308A Expired - Lifetime US917483A (en) | 1908-03-03 | 1908-03-03 | Automatic fan system of heating. |
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Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
US2446593A (en) * | 1943-12-16 | 1948-08-10 | Sam C Jimopoulos | Air conditioning system |
US2521491A (en) * | 1947-03-21 | 1950-09-05 | Louis C Stukenborg | Head for cotton pickers |
US4295606A (en) * | 1978-08-14 | 1981-10-20 | Swenson Paul F | Heating system |
US8955764B1 (en) * | 2013-10-24 | 2015-02-17 | Ahmd Abdallah Al-Jassem Qanaei | Building heat exchange system |
-
1908
- 1908-03-03 US US41899308A patent/US917483A/en not_active Expired - Lifetime
Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
US2446593A (en) * | 1943-12-16 | 1948-08-10 | Sam C Jimopoulos | Air conditioning system |
US2521491A (en) * | 1947-03-21 | 1950-09-05 | Louis C Stukenborg | Head for cotton pickers |
US4295606A (en) * | 1978-08-14 | 1981-10-20 | Swenson Paul F | Heating system |
US8955764B1 (en) * | 2013-10-24 | 2015-02-17 | Ahmd Abdallah Al-Jassem Qanaei | Building heat exchange system |
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