US633031A - Process of making gas. - Google Patents

Process of making gas. Download PDF

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Publication number
US633031A
US633031A US67952998A US1898679529A US633031A US 633031 A US633031 A US 633031A US 67952998 A US67952998 A US 67952998A US 1898679529 A US1898679529 A US 1898679529A US 633031 A US633031 A US 633031A
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producer
gas
gases
coal
coke
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US67952998A
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Hans Neumann
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GAS-MOTOREN FABRIK DEUTZ
GAS MOTOREN FABRIK DEUTZ
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GAS MOTOREN FABRIK DEUTZ
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    • CCHEMISTRY; METALLURGY
    • C10PETROLEUM, GAS OR COKE INDUSTRIES; TECHNICAL GASES CONTAINING CARBON MONOXIDE; FUELS; LUBRICANTS; PEAT
    • C10JPRODUCTION OF PRODUCER GAS, WATER-GAS, SYNTHESIS GAS FROM SOLID CARBONACEOUS MATERIAL, OR MIXTURES CONTAINING THESE GASES; CARBURETTING AIR OR OTHER GASES
    • C10J3/00Production of combustible gases containing carbon monoxide from solid carbonaceous fuels
    • C10J3/46Gasification of granular or pulverulent flues in suspension

Definitions

  • Producer-gas generated from bituminous coal by the forcing in of air with or without the addition of steam cannot be used for gasmotor engines, as the tarry constituents contained in the gas in becoming deposited clog the supply-channels and working parts of the motor.
  • the present invention relates to the continuous production of a gas from bituminous coal that shall be practically free from tar and other condensable constituents by so arranging the process of manufacture that after the gases have been produced from bituminous coal in a gas-producer in the ordinary way they are subjected to a second operation in a second producer, whereby-the tarry constituents, dto., are converted into permanent combustible gases.
  • bituminous coal is first treatedin the ordinary wayin a gas-producer for the production of generatorgas by the introduction of air-blast with or without the addition of steam, which gas will consequently contain all the distillation products of the coal-namely, hydrocarbons, tars, and ammonia.
  • the end product is a gas consisting mainly of carbonio oXid, hydrogen, and nitrogen. lt may7 however, contain small quantities of unreduced tar, and other hydrocarbons, as also ammonia and carbon dioxid, are still contained therein.
  • the process is most advantageously carried out in two producers that are in connection with each other, but the invention is not limited to such an arrangement.
  • On the accompanying drawings are shown, by way of example, various arrangements of gas-producers for this purpose.
  • Figure l shows a vertical section of an arrangement in which the two producers are arranged side by side.
  • Fig. 3 shows a vertical section of a single producer dividedby a partition into two chambers, each containing a body of incandescent coke, the gases produced in the one chamberbeing made to pass through the second chamber.
  • G' and G2 are two gas-producers, of which Gl is charged with bituminous coal through hopper F', while G2 is charged with coke or anthracite through hopper F2.
  • the producer G' contains incandescent coke in its lower part,while the upper part is lilled with freshly-charged coal.
  • G2 on the other hand, is entirely filled with incandescent coke.
  • the cokeproducer G2 is arranged immediately over the coal-producer G', so that the gases pass directly from the latter into the former, thus avoiding the use of the pipe 'y of the first arrangement.
  • Ll and L2 are, as before, the air-supply pipes, and F F2 the feeding-hoppers.
  • the second producer G2 is again arranged at the side of G', and the gases after rising up through the charge of the latter are made to travel in a downward direction through G2.
  • the air-supply L2 is arranged at the upper part of the producer and the discharge-pipe for the gases A at the lower end thereof.
  • the producers can be constructed eitherseparate from each other and connected by a pipe or channel or they can be com'- bined to form a single producer, as shown.
  • the first producer G is again supplied with coal and the second G2 with coke, there being arranged a separate feed-hopper over each chamber, as indicated by the dotted lines at F' F2.
  • a single feed-hopper F is provided intermediately between the two chambers, in which chambers both chambers are charged with bituminous coal.
  • both chambers will contain incandescent cokein their lower part and fresh coal inthe upper part.
  • the producergas generated in producer G must be sufficiently hot to raise the coal in the upper parts of both producers to incandescence and to distil off their volatile constituents.
  • a fresh air-supply is admitted through L2 and the above-described action for the decomposition of the distillation products then takes place as they descend through the lower part of G2.
  • the coke is gradually consumed at the grate of each producer the column of fuel sinks down and a fresh supply of coal is introduced through the hopper F and is equally distributed in both chambers.
  • the air-supply introduced through L' and L2 can either be previously heated, or, on the other hand, steam can be iutrod uced into the producer at suitable points, whereby, as .is known, the temperature is reduced by the decomposition of the steam and formation of water-gas.

Description

Patented'Sept. I2, i899.
H. NEUMANN. PROCESS oF MAKING GAS.
(Application led May 2, 1898.)
nNo Model.)
Wfl-7.115525 'ma mams Psvzns co. Grauwe wAsmNuTora, u, cv
VNITED STATES PATENT (Drunen.
HANS NFUMANN, OF COLCGNE-DEUTZ, GERMANY, ASSIGNOR T() THE GAS- MOTOREN FABRIK DEUTZ, OF SAME PLAGE.
MAKING eAs.
SPECFICATION forming part of Letters Patent No. 683,031, dated September 12, 1899'.
Application filed May 2, 1898. Serial No. 679,529. (No specimens.) v
To @ZZ whom, it may concern.-
Be it known that I, HANS NnUMANN, a citizen of Germany, residing at 3l Neuhoerstrasse, Cologne-Deutz, in the Empire of Germany, have invented a certain new and useful Process for the Continuous Production of Gas, l(for which I have applied for a patent in Germany, dated October 10, 1897,) of which the following is a specication.
Producer-gas generated from bituminous coal by the forcing in of air with or without the addition of steam cannot be used for gasmotor engines, as the tarry constituents contained in the gas in becoming deposited clog the supply-channels and working parts of the motor.
The present invention relates to the continuous production of a gas from bituminous coal that shall be practically free from tar and other condensable constituents by so arranging the process of manufacture that after the gases have been produced from bituminous coal in a gas-producer in the ordinary way they are subjected to a second operation in a second producer, whereby-the tarry constituents, dto., are converted into permanent combustible gases. For this purpose the bituminous coal is first treatedin the ordinary wayin a gas-producer for the production of generatorgas by the introduction of air-blast with or without the addition of steam, which gas will consequently contain all the distillation products of the coal-namely, hydrocarbons, tars, and ammonia. These mixed gases are then forced through an incandescent body oi coke into which air is at the same time forced. The tarry constituents are by this means decomposed, the hydrogen being set free and the carbon converted into carbonio onid. Also the other hydrocarbons are partially decomposed in a similar manner and the ammoniais decomposed into hydrogen and nitrogen. The heat absorbed by these chemical operations is replaced by the combustion of the excess of the entering air, which forms producer-gas with the incandescent coke.
The end product is a gas consisting mainly of carbonio oXid, hydrogen, and nitrogen. lt may7 however, contain small quantities of unreduced tar, and other hydrocarbons, as also ammonia and carbon dioxid, are still contained therein. The process is most advantageously carried out in two producers that are in connection with each other, but the invention is not limited to such an arrangement. On the accompanying drawings are shown, by way of example, various arrangements of gas-producers for this purpose.
Figure l shows a vertical section of an arrangement in which the two producers are arranged side by side. cal section of an arrangement in which the two producers are arranged one above the other; and Fig. 3 shows a vertical section of a single producer dividedby a partition into two chambers, each containing a body of incandescent coke, the gases produced in the one chamberbeing made to pass through the second chamber.
In the arrangement shown in Fig. l G' and G2 are two gas-producers, of which Gl is charged with bituminous coal through hopper F', while G2 is charged with coke or anthracite through hopper F2. lVhen in normal working condition, the producer G' contains incandescent coke in its lower part,while the upper part is lilled with freshly-charged coal. G2, on the other hand, is entirely filled with incandescent coke. It' now air be forced through the pipe L into the bottom of G with or without the addition of steam producer-gas will be generated, composed of carv bonic oxid, nitrogenpaud possibly some hydrogen, which gases, heated to a red heat, drive off the distillation products from the upper layers of coal and convert the coal into coke. As the coke lying on the grate becomes consumed by this process fresh coal is introduced'through the feeding-hopper F', which is in its turn converted into coke. The distillation products pass, together with the ordinary producer-gas, through the opening X at top into the pipe y, connecting the producer G' with the bottom of producer G2, which the gases enter at Z below the grate, whence they pass up through the mass of incandescent coke. At the same time airrenters the lower part of producer G2 at any desired point through the nozzles L2. By this means the above-described decomposition of the gases is made to take place in producer G2, the distillation products being made to combine with Fig. 2 shows a verti- TOO the coke, forming carbonic acidand water, whicl are again converted in the upper part of the producer into carbonio oXid and hydrogen, in which form they pass od through the discharge-pipe A to wherever required.
In the modification shown at Fig. 2 the cokeproducer G2 is arranged immediately over the coal-producer G', so that the gases pass directly from the latter into the former, thus avoiding the use of the pipe 'y of the first arrangement. The ashes of the coke-producer G2 in this case fall directly into 'the coal-producer. Ll and L2 are, as before, the air-supply pipes, and F F2 the feeding-hoppers.
In the arrangement at Fig. 3 the second producer G2 is again arranged at the side of G', and the gases after rising up through the charge of the latter are made to travel in a downward direction through G2. In consequence hereof the air-supply L2 is arranged at the upper part of the producer and the discharge-pipe for the gases A at the lower end thereof. The producers can be constructed eitherseparate from each other and connected by a pipe or channel or they can be com'- bined to form a single producer, as shown. The first producer G is again supplied with coal and the second G2 with coke, there being arranged a separate feed-hopper over each chamber, as indicated by the dotted lines at F' F2. In the arrangement shown in full lines a single feed-hopper F is provided intermediately between the two chambers, in which chambers both chambers are charged with bituminous coal. With this arrangement when in working condition both chambers will contain incandescent cokein their lower part and fresh coal inthe upper part. The producergas generated in producer G must be sufficiently hot to raise the coal in the upper parts of both producers to incandescence and to distil off their volatile constituents. At a suitable point of the producer G2, below which the coal is already deprived of such constituents, a fresh air-supply is admitted through L2 and the above-described action for the decomposition of the distillation products then takes place as they descend through the lower part of G2. As the coke is gradually consumed at the grate of each producer the column of fuel sinks down and a fresh supply of coal is introduced through the hopper F and is equally distributed in both chambers.
For maintaining the working condition and for producing the requisite degree of heating in the two chambers the air-supply introduced through L' and L2 can either be previously heated, or, on the other hand, steam can be iutrod uced into the producer at suitable points, whereby, as .is known, the temperature is reduced by the decomposition of the steam and formation of water-gas.
I am aware that it has already been proposed to cause the volatile constituents distilled off from the upper layers of fuel of a gas-'prod ucer to be brought into intimate contact with the layers of incandescent fuel in the lower part of the same producer for their conversion into permanent gases, but with- .out the introduction of a special body of air through incandescent coke, together with an additional quantity of air and converting the volatile constituents into permanent gases, substantially as described.
2. The method described for the continuous productionV of combustible gas from bituminous coal, which consists in causing the volatile constituents carried along by the other gases to enter immediately into combination with an additional ai r-supply while passing through a body of incandescent fuel and thereby converted into permanent gases, all of said steps taking place consecutively in one continuous operation in the same gas-current, as set forth.
3. The method described for the continuous production of combustible gas, which consists in producing bituminous volatile gases mixing the same with volatile and carbonaceous gases, mixing the same with a second supply of air and converting the volatileconstituents into permanent gases all in one continuous operation in the same gas-current, substantially as specified.
In testimony whereof I have hereunto set my hand in presence of two subscribing witnesses.
HANS NEUMANN.
Witnesses:
WILLIAM H. MADDEN, GERDRUT STENZ.
US67952998A 1898-05-02 1898-05-02 Process of making gas. Expired - Lifetime US633031A (en)

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20070098698A1 (en) * 2005-09-27 2007-05-03 Stem Cell Therapeutics Corp. Pregnancy-induced Oligodendrocyte Precursor Cell Proliferation Regulated by Prolactin
US20090005292A1 (en) * 2004-11-11 2009-01-01 Affymax, Inc. Novel Peptides that Bind to the Erythropoietin Receptor

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20090005292A1 (en) * 2004-11-11 2009-01-01 Affymax, Inc. Novel Peptides that Bind to the Erythropoietin Receptor
US20070098698A1 (en) * 2005-09-27 2007-05-03 Stem Cell Therapeutics Corp. Pregnancy-induced Oligodendrocyte Precursor Cell Proliferation Regulated by Prolactin

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