AT25733B - Operating procedures for steam power plants. - Google Patents

Operating procedures for steam power plants.

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Publication number
AT25733B
AT25733B AT25733DA AT25733B AT 25733 B AT25733 B AT 25733B AT 25733D A AT25733D A AT 25733DA AT 25733 B AT25733 B AT 25733B
Authority
AT
Austria
Prior art keywords
steam
power plants
steam power
operating procedures
heat
Prior art date
Application number
Other languages
German (de)
Inventor
Josef Fitz
Original Assignee
Josef Fitz
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Josef Fitz filed Critical Josef Fitz
Application granted granted Critical
Publication of AT25733B publication Critical patent/AT25733B/en

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Description

  

   <Desc/Clms Page number 1> 
 
 EMI1.1 
 



   Es ist bekannt, den Wirkungsgrad von   Dampfkraftanlageb   dadurch zu   erhöhen,   dass man die Warme der abziehenden Rauchgase zur Mantelheizung der Dampfmaschine benutzt. 



  Ferner ist es auch   bekannt, die Wärme des Abdampfes   durch Einwirkung auf geeignete Medien zu motorischer Arbeitsleistung zu verwenden. 



   Das vorliegende Betriebsverfahren erzielt demgegenüber die   Erhöhung   des Wirkungsgrades von Dampfkraftanlagen dadurch, dass die Heizgase und der Dampf von gleicher oder verschieden hoher Spannung derart in Wechselwirkung treten, dass zuerst die Heizgase bei konstantem Drucke ihre Wlirme an den in einer Maschine beliebiger Art expandierenden Dampf abgeben und dass dann umgekehrt der expandierte Dampf seine   Wiirme an   die in einer zweiten Maschine arbeitenden Heizgase unter Kondensation abgibt. 



   Die schematische Zeichnung stellt eine beispielsweise Anordnung einer stationären 
 EMI1.2 
 Heizgase erhitzt werden. Es strömen also Dampf und Heizgase durch die Dampfzylinder nnd Überhitzer, durch die   Zylinder-bczw. Rohrwandungen   getrennt, hindurch, wobei der 
 EMI1.3 
 z. ylinders in den Mantel dos Zylinders k gelangt und seine Wärme an die durch die Expansion abgekühlten Heizgase abgibt. Aus dem Zylinder k bezw. dessen Mantel strömen Heizgase und Dampf in einen   Röbrenkühler   l, aus dem das Kondenswasser durch eine   Plnnpe m,   die gleichfalls durch den Zylinder k angetrieben werden kann, in den Mantel des Kompressors a gedrückt und von hier aus vorgewärmt in den Dampferzeuger f befördert wird.

   Das in den abgekühlten Heizgasen enthaltene Kondenswasser kann durch das Rohr   11   abgelassen werden. In das Verbindungsrohr zwischen dem   Röhrepkühler   l und der Pumpe m kann eine Luftpumpe eingeschaltet werden, um die   überschüssige   Luft von dem Kondensat zu trennen. 



   Statt des Generatorgasbetriebes können auch andere Feuerungsarten verwendet und die heizgasmaschine k kann auch zu anderer Arbeitsleistung als zum Antriebe eines Luftkompressors herangezogen werden. 



   PATENT-ANSPRÜCHE : 
1. Botriobsvcrfahren für Dampfkraftanlagen, dadurch gekennzeichnet, dass die vom heizraum des Dampferzeugers (f) unter Druck abströmenden Rauchgase zuerst bei konstantem Drucke und entsprechender Volums- und Temperaturabnahme zur Mantelheizung einer   Dampfmaschine (g),   bei mehrstufiger Expansion allenfalls auch zur Zwischenüberhitzung dos Dampfes ausgenutzt und dann selbst in Maschinen   (k)   zu motorischer Kraftleistung unter gleichzeitiger Heranziehung des von der Dampfmaschine abströmenden Dampfes zur Mantelheizung verwendet worden, wodurch die in den Abgasen enthaltene Wärme in Arbeit umgesetzt und der Abdampf kondensiert wird. 

**WARNUNG** Ende DESC Feld kannt Anfang CLMS uberlappen**.



   <Desc / Clms Page number 1>
 
 EMI1.1
 



   It is known to increase the efficiency of steam power plants by using the heat of the exhausting flue gases to heat the jacket of the steam engine.



  It is also known to use the heat of the exhaust steam by acting on suitable media for motorized work.



   In contrast, the present operating method increases the efficiency of steam power plants in that the heating gases and the steam of the same or different voltage interact in such a way that the heating gases first give off their heat to the steam expanding in a machine of any type at constant pressure and that then, conversely, the expanded steam gives off its heat to the hot gases working in a second machine with condensation.



   The schematic drawing represents an example arrangement of a stationary
 EMI1.2
 Heating gases are heated. So steam and heating gases flow through the steam cylinder and superheater, through the cylinder or Pipe walls separated, through, the
 EMI1.3
 z. ylinders enters the jacket of the cylinder k and gives off its heat to the heating gases cooled by the expansion. From the cylinder k respectively. the jacket of which flows heating gases and steam into a tube cooler l, from which the condensed water is pressed through a Plnnpe m, which can also be driven by the cylinder k, into the jacket of the compressor a and from here, preheated, is conveyed to the steam generator f.

   The condensed water contained in the cooled heating gases can be drained through the pipe 11. An air pump can be switched on in the connecting pipe between the tubular cooler 1 and the pump m in order to separate the excess air from the condensate.



   Instead of the generator gas operation, other types of firing can also be used and the heating gas machine k can also be used for other work than for driving an air compressor.



   PATENT CLAIMS:
1. Botriobsvcrfahren for steam power plants, characterized in that the flue gases flowing off under pressure from the heating chamber of the steam generator (f) are first used at constant pressure and a corresponding decrease in volume and temperature to heat the jacket of a steam engine (g), in the case of multi-stage expansion, if necessary, also for intermediate superheating of the steam and then even in machines (k) for motor power output with simultaneous use of the steam flowing out of the steam engine for jacket heating, whereby the heat contained in the exhaust gases is converted into work and the exhaust steam is condensed.

** WARNING ** End of DESC field may overlap beginning of CLMS **.

 

Claims (1)

2. Ausführungsform des Verfahrens nach Anspruch 1, dadurch gekennzeichnet, dass das durch die letzte Abkühlung erzielte Kondenswasser zur Kühlung des Kompressor xyHnders ) benützt und so vorgewärmt in den Dampferzeuger zurückgeführt wird. **WARNUNG** Ende CLMS Feld Kannt Anfang DESC uberlappen**. 2. Embodiment of the method according to claim 1, characterized in that the condensation water obtained by the last cooling is used to cool the compressor xyHnders) and is thus preheated and returned to the steam generator. ** WARNING ** End of CLMS field may overlap beginning of DESC **.
AT25733D 1905-09-01 1905-09-01 Operating procedures for steam power plants. AT25733B (en)

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
AT25733T 1905-09-01

Publications (1)

Publication Number Publication Date
AT25733B true AT25733B (en) 1906-09-25

Family

ID=3536700

Family Applications (1)

Application Number Title Priority Date Filing Date
AT25733D AT25733B (en) 1905-09-01 1905-09-01 Operating procedures for steam power plants.

Country Status (1)

Country Link
AT (1) AT25733B (en)

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