US676245A - Apparatus for making water-gas. - Google Patents

Apparatus for making water-gas. Download PDF

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US676245A
US676245A US57995496A US1896579954A US676245A US 676245 A US676245 A US 676245A US 57995496 A US57995496 A US 57995496A US 1896579954 A US1896579954 A US 1896579954A US 676245 A US676245 A US 676245A
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gas
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oven
vessel
water
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Hugo Strache
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Int Du Gaz D Eau Brevets Strache SA Soc
Internationale Du Gaz D'eau Brevets Strache SA Ste
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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

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  • FIG. 1 is a vertical section, partly in elevation, of the apparatus for generating water-gas.
  • Fig. 2 is a diagram of the arrangementand connection of scrubbers used in connection with the gas-generating apparatus.
  • Fig. 3 is a horizontal view on line 3 3 indicated in Fig. 1
  • Fig. i is a vertical sectional view on. line 4 4 indicated in the same figure.
  • Fig. 5 is a sectional partly plan view showing steam-injectoi in position in the inlet-tube.
  • My invention relates to the manufacture of illuminating and fuel gas; and it consists of the herein-described apparatus for the man ufacture of water-gas of fresh anthracite or bituminous coal, coke, or other carbonaceous substances.
  • the apparatus for generating water-gas is illustrated in sectional view in Fig. 1.
  • Flues J are provided with projecting ribs 0' to increase their contact (heat ing) surfaces. These ribs absorb and accumulate the heat of the gases passing through the flue a and give up this heat to the draftair blown through them. Besides heating the air the heat accumulated in the walls of flue J helps also to maintain the required high temperature in the regenerator R during the period of producing gas.
  • Switchslide S (shown in Fig. 4 in sectional view) is housed in box S, into which pipes A, A and X open. The apertures of these pipes are in line and equidistantly from each other, and in slide S is provided a chamber 1 which is dimensioned to encompass two of the aper tures in any position of the slide.
  • pipe A is always open and by shifting slide S is brought in communication either with pipe A or with pipe X, the other pipe being at the same time closed.
  • Slides S and S (S closing air-blast A and S closing the main flue Z, leading to the chimney) shut 0d the circulation of air through the apparatus during the period of distillation.
  • Double acting valve V governs the flow of the gases through fines O, O, and During the period of hot-blowing it closes flue. O and during the period of gasmaking it closes fine 0.
  • Valve m closes passage 0 It is hinged to the outlet and held in closed position by the weight m, which is sufficient to press the valve tightly in the outlet, but does not prevent the opening of the valve and the escaping of the gases from the oven when exceeding a predetermined limit of pressure.
  • the purifying apparatus consists of a battery of closed vessels. The first of these is similar to those commonly used for washing coal-gas and known under the name scrubher. It is, however, filled with sulfuric acid in place of water. When the generated water-gas is passed through this vessel, all iron bonyl is a gas discovered by Mond and Scrud- (ler and so named by them. It is developed from the pyrites 01' other compounds of iron contained in the material from which the gas is produced. Connecting with the outletpipe of this scrubber and some distance therefrom is arranged the apparatus shown diagrammatically in Fig. 2 of the drawings. This apparatus comprises three closed vessels Sc, S0 and S0 arranged successively one above the other.
  • vessels S0 are made of acid-proof material and are provided with double bottoms, the inner raised bottom being perforated.
  • Vessel S0 is connected by pipe at to a tank containing concentrated nitric acid, and vessel S0 is connected by pipe 0 to a Water-tank.
  • Vessels Sc and 86 are connected by gasconduits Z and vessels S0 and S0 by gas-conduits Z in such manner'that always the upper end of the preceding connects with the lower endof the next following vessel.
  • Vessels S0 and S0 are connected by conduit-pipes m and m to the top of vessel Sc, in whose bottom is set the outlet-pipe g. Pipes m and m convey the liquids accum ulating on the bottoms of vessels S0 and S0 into vessel So, where they are utilized, as will be explained hereinafter.
  • All liquid-conduits are provided with drips d, traps and cooks on, c0, cm, and cg, respectively, for regulating the flow of the liquids into and out of the vessels.
  • About two-thirds of the space of each vessel above the perforated bottoms is filled with broken pieces of glass, burnt clay, pumice-stone, or some other acid-proof material to produce a very large contact-surface between the upwardly-flowing gas and the dripping liquids through the scrubbers.
  • the raw gas enters vessel Sc through pipe Z. and passes successively through this versel, conduit Z, vessel S0 and conduit l into Vessel S0 and from there (purified) through pipe e into the odorizin g apparatus.
  • Theodorizing apparatus comprises a chamber filled with some porous material, preferably animal charcoal, pumice-stone, wood fiber, and the like, and a closed vessel connected with the chamber by an outlet-pipe provided with a stop-cock or a reductionvalve.
  • the gas in passing through this apparatus is scented With a penetrating odor andthen conducted to a reservoir, from which it is distributed for use.
  • pipe B draws first the gases from the oven G and then the products of the distillation of the raw material filled into the upper part G of the oven through pipe B into the regenerator R and drives them through the combustion-chamber C and fines O and 0 into the top of the oven.
  • the raw material filled into the top of the oven is coked.
  • the products of the distillation are drawn through the glowing coke in the middle part of the oven, are thereby chemically separated, and, absorbing the hydrogen of the injected steam, are thus transformed into Water-gas,vvhich passes from the generator through pipes A and X into the purifying apparatus.
  • the period of generating gas is stopped when the charge of fresh material is fully coked.
  • the steam is then turned off, valve V moved upward to close flue O slide S shifted, a fresh material is filled in the oven, slides S -and S withdrawn, and the fire, inflamed afresh by air, driven through pipe A, as described above.
  • the generated ⁇ vater gas is not pure, it containing various impurities.
  • the most detractive of these is iron carbonyl, which is combustible and would render the gas unfit for illuminating purposes, because its residue (almost pure oXid of iron) would settle on the incandescent material used in the burner and quickly render it useless.
  • Iron carbonyl may be eliminated by conducting the raw gas through iron pipes heated to red heat, whereby the iron carbonyl is separated into its components and the iron thus liberated is deposited on the pipes. It may also be eliminated by driving the gas through a chamber wherein it is brought into contact with some acid, preferably sulfuric acid. This latter method is preferable.
  • the raw water-gas contains also carbonic oXid and carbonic dioxid, their relative quantity varying, according to the material used in distillation, from thirty to forty per cent. of carbonic oxid and from two to five per cent. of carbonic dioxid. These gases are not eliminated because the carbonic oxid increases the heating capacity of the gas, and the quantity of the carbonic dioxid (from two to five per cent.) is so insignificant that its efiect is not noticeable in the use of the gas.
  • Hydric sulfid is another impurity contained in the raw water-gas generated in my apparatus. This is eliminated in my improved apparatus illustrated diagrammatically in Fig. 2 by nitric acid in such manner that the nitric acid is more fully utilized and the necessity of using such large quantities of it as required in the processes heretofore known obviated. In my improved apparatus one quantity of nitric acid is used continuously until consumed, though the hydric sulfid is not as completely eliminated as it would be if the nitric acid were not used over again. The result, however, is fully adequate for practical use.
  • the constructionof the apparatus is based on the discovery that tetroxid of nitrogen (N 0 dissolves in water, forming nitric acid (HNO and nitrous acid (HNO and further upon the fact that the nitrous acid when in an aqueous solution separates easily into nitric acid and nitric oxid, and finally that nitric acid when indiluted solution precipitates sulfur from hydric sulfid, forming nitrous acid.
  • the raw gas containing hydric sulfid passes through pipe Z into vessel Sc, wherein it meets an aqueous solution composed of sulfuric, nitrous, and nitric acids, the sulfuric acid resulting from the oxidation of hydric sulfid contained in the gas and the nitrous acid from the reduction of nitric acid.
  • the nitrous acid separates here into nitric acid and nitric oxid, the latter'passing, with the gas, into vessels S 0 and S0
  • the main component of what is retained in vessel S0 is nitric acid and besides this sulfuric acid, and there may remain, also, a small percentage of nitrous acid.
  • the nitric acid eliminates from the gas the greatest part at the hydric sulfid, separating it by precipitating the sulfur.
  • the gas passing through pipe m into vessel S0 is subjected therein to the action of concentrated nitric acid flowing constantly into this scrubber through the pipe n and dripping over the This gas contains material filled therein.
  • the purified gas contains some nitric oxid. This can be eliminated (absorbed) by water if a sufiicient quantity of air or oxygen is added to the gas.
  • the air or oxygen may be added to the gas before thesame enters scrubber Sc and it is preferable to do so, because then also the nitrous acid produced there will constantly be re-formed into nitric acid.
  • the sulfur precipitated in vessel Sc accumulates on the material, filling the scrubber, and can .be recovered by drying the sediment and melting it. That part of the sulfur that escapes through pipe g accumulates as a porous sediment on the bottom of a tank and can be gathered directly.
  • the purified gas is absolutely odorless, and carbylaminssuch as, for instance, methyl, aethyl, tolyl, and carbylamin itself-are the best substances for scenting. They possess an odor which cannot be confounded with others, are cheaply produced, and easily assimilated by the gas.
  • the odorizing solution is absorbed in porous material filled in a chamber connected by a pipe to the reservoir, and the gas passing through it absorbs the odor of the carbylamin solution, retaining it permanently.
  • the ab sorbed odorizer is replaced continuously by connecting the odorizingchamber with a hermetically-sealed can containing the odorizer and provided with a reduction-valve or a stop-cock.
  • Water-gas produced,purified, and odorized in the apparatus herein described can be used for all purposes for illuminating or heating.

Description

m No. 676,245. Patented lune H, M".
H. STBACHE.
APPABATUS'F'UR MAKING WATER GAS.
. (Application filed Feb. 19, 1896.) (No Hodql.) 3 Sheets-$heot l.
H. STBACHE.
APPARATUS FOR MAKING WATER GAS. (Applicatiun filed Feb. 19, 1896.)
(No Model.)
WWW/wow W1? W WML No. 676,245. Patented June :1, I91".
7 H.STRAC HE.
APPARATUS FUR MAKING WATER GAS. 7
(Application filed Feb. 19, 1896.) (N0 loqel.) 3 Sheets-Sheet 3.
NITED STATES PATENT FFICE.
HUGO S'ILRACHE, OF VIENNA, AUSTRIA-HUN GARY, ASSIGNOR TO THE SOCIETE INTERNATIONALE DU GAZ DEAU BREVETS STRACHE SOCIETE ANONYME, OF SAME PLACE.
APPARATUS FOR MAKING WATER-GAS.
SPECIFICATION forming part of Letters Patent No. 676,245, dated June 11, 1901.
Application filed February 19, 1896. Serial No. 579,954. (No model.)
To all whom it may concern:
Be itknown that I, HUGO STRAOHE, Ph. D., of Vienna, Province of Lower Austria, in the Empire of Austria-Hungary, have invented certain new and useful Improvements in Apparatus for the Manufacture of ater-Gas, of which the following is a full, clear, and exact description, reference being had to the accompanying drawings, wherein- Figure 1 is a vertical section, partly in elevation, of the apparatus for generating water-gas. Fig. 2 is a diagram of the arrangementand connection of scrubbers used in connection with the gas-generating apparatus. Fig. 3 is a horizontal view on line 3 3 indicated in Fig. 1, and Fig. i is a vertical sectional view on. line 4 4 indicated in the same figure. Fig. 5 is a sectional partly plan view showing steam-injectoi in position in the inlet-tube.
Similar letters of reference indicate corresponding parts in all views of the drawings.
My invention relates to the manufacture of illuminating and fuel gas; and it consists of the herein-described apparatus for the man ufacture of water-gas of fresh anthracite or bituminous coal, coke, or other carbonaceous substances.
The apparatus for generating water-gas is illustrated in sectional view in Fig. 1.
There are two complete circuits provided through the entire generating apparatus, one from the inlet of the air-blast pipe A through inner flue J, pipes A, switch-slide S, pipe A oven G, fines O and O, combustion-chamber G, regenerat-or R, and from there through flue a into main flue Z, leading into chimney, and the other from the steam-inlet of pipe B through generator R, combustion-chamber C, flues O and O oven G, pipe Aflswitch-slide S, and discharge-pipe X into the purifying apparatus. OhannelKisa branch of the first circuit conveying during the period of hotblowing heated blast-air into the combustionchamber 0, whereas pipe B is a branch of the second circuit connecting with pipe B, conveying the gases. generated in the oven into the regenerator R during the period of gas-making. Flues J are provided with projecting ribs 0' to increase their contact (heat ing) surfaces. These ribs absorb and accumulate the heat of the gases passing through the flue a and give up this heat to the draftair blown through them. Besides heating the air the heat accumulated in the walls of flue J helps also to maintain the required high temperature in the regenerator R during the period of producing gas.
Slides or dampers L and L divide the blastair and regulate its flow within the apparatus. Damper L governs its flow into the oven, and damper L governs its flow into the combustion-chamber 0 through channel K. Switchslide S (shown in Fig. 4 in sectional view) is housed in box S, into which pipes A, A and X open. The apertures of these pipes are in line and equidistantly from each other, and in slide S is provided a chamber 1 which is dimensioned to encompass two of the aper tures in any position of the slide. Thus pipe A is always open and by shifting slide S is brought in communication either with pipe A or with pipe X, the other pipe being at the same time closed.
Slides S and S (S closing air-blast A and S closing the main flue Z, leading to the chimney) shut 0d the circulation of air through the apparatus during the period of distillation. Double acting valve V governs the flow of the gases through fines O, O, and During the period of hot-blowing it closes flue. O and during the period of gasmaking it closes fine 0. By manipulating slides S, S and S and double-acting valve V correspondingly the operation in the apparatus is changed. Valve m closes passage 0 It is hinged to the outlet and held in closed position by the weight m, which is sufficient to press the valve tightly in the outlet, but does not prevent the opening of the valve and the escaping of the gases from the oven when exceeding a predetermined limit of pressure.
The purifying apparatus consists of a battery of closed vessels. The first of these is similar to those commonly used for washing coal-gas and known under the name scrubher. It is, however, filled with sulfuric acid in place of water. When the generated water-gas is passed through this vessel, all iron bonyl is a gas discovered by Mond and Scrud- (ler and so named by them. It is developed from the pyrites 01' other compounds of iron contained in the material from which the gas is produced. Connecting with the outletpipe of this scrubber and some distance therefrom is arranged the apparatus shown diagrammatically in Fig. 2 of the drawings. This apparatus comprises three closed vessels Sc, S0 and S0 arranged successively one above the other. These vessels are made of acid-proof material and are provided with double bottoms, the inner raised bottom being perforated. Vessel S0 is connected by pipe at to a tank containing concentrated nitric acid, and vessel S0 is connected by pipe 0 to a Water-tank. Vessels Sc and 86 are connected by gasconduits Z and vessels S0 and S0 by gas-conduits Z in such manner'that always the upper end of the preceding connects with the lower endof the next following vessel. Vessels S0 and S0 are connected by conduit-pipes m and m to the top of vessel Sc, in whose bottom is set the outlet-pipe g. Pipes m and m convey the liquids accum ulating on the bottoms of vessels S0 and S0 into vessel So, where they are utilized, as will be explained hereinafter.
All liquid-conduits are provided with drips d, traps and cooks on, c0, cm, and cg, respectively, for regulating the flow of the liquids into and out of the vessels. About two-thirds of the space of each vessel above the perforated bottoms is filled with broken pieces of glass, burnt clay, pumice-stone, or some other acid-proof material to produce a very large contact-surface between the upwardly-flowing gas and the dripping liquids through the scrubbers.
The raw gas enters vessel Sc through pipe Z. and passes successively through this versel, conduit Z, vessel S0 and conduit l into Vessel S0 and from there (purified) through pipe e into the odorizin g apparatus.
Theodorizing apparatus comprises a chamber filled with some porous material, preferably animal charcoal, pumice-stone, wood fiber, and the like, and a closed vessel connected with the chamber by an outlet-pipe provided with a stop-cock or a reductionvalve. The gas in passing through this apparatus is scented With a penetrating odor andthen conducted to a reservoir, from which it is distributed for use.
The manufacture of water-gas is carried on in this improved apparatus as follows: At the beginning of the operation the oven is charged in its middle part G with coke and in the upper part with the material (coal, coke, peat,
&c.) of which the gas is to be prod uced,whereas its lowest part is filled with some readilyburning material, like wood, &c.
fire is started from underneath, valve V set in the position shown in the drawings, slides S and S open, and slide S set to connect pipe A with pipe A Then draft-air is driven in Then the 7 through pipe A, flue J, and pipes A and A into the oven ,part of it'being diverted through channel K into combustion-chamber O. The air is forced through the burning coke filled in the middle part G of the oven. 'lhe combustion-gases are driven through flue 0 into the combustionchamber C, where they are met by a current of fresh heated air driven into the chamber through channel K. There all combustible substances contained in the combustion gases are entirely consumed. During this period the raw material filled in the upper part of the oven, the regenerator R, and also the air-flue J are heated to a very high degree and the gases escape finally (through fine a and main flue Z) into the chimney. This (the period of operation called hot-blowing is continued until nearly all of the coke filled in the oven is burned up. Then the air-blast is shut off by slide S slide S is closed, valveV is pushed down to close communication between flues O and O, and overheated steam is driven through the in: jector E into the pipe 13. The suction created by the forcible injection of steam into the: pipe B draws first the gases from the oven G and then the products of the distillation of the raw material filled into the upper part G of the oven through pipe B into the regenerator R and drives them through the combustion-chamber C and fines O and 0 into the top of the oven.- The raw material filled into the top of the oven is coked. The products of the distillation are drawn through the glowing coke in the middle part of the oven, are thereby chemically separated, and, absorbing the hydrogen of the injected steam, are thus transformed into Water-gas,vvhich passes from the generator through pipes A and X into the purifying apparatus. The period of generating gas is stopped when the charge of fresh material is fully coked. The steam is then turned off, valve V moved upward to close flue O slide S shifted, a fresh material is filled in the oven, slides S -and S withdrawn, and the fire, inflamed afresh by air, driven through pipe A, as described above.
When first charging the oven, a charge of coke is required; but every subsequent charge consists only of fresh carbonaceous material, because this material is coked during the period of generating gas, and when the coke is consumed this fresh charge drops into the middle part of the oven and serves in the next turn the same pu rpose'as the first charge of coke. The slag, ash, and other residue of the combustion process are withdrawn from the bottom part of the oven after each period of gas-making and before the fresh material is charged. I
The generated \vater gas is not pure, it containing various impurities. The most detractive of these is iron carbonyl, which is combustible and would render the gas unfit for illuminating purposes, because its residue (almost pure oXid of iron) would settle on the incandescent material used in the burner and quickly render it useless. Iron carbonyl may be eliminated by conducting the raw gas through iron pipes heated to red heat, whereby the iron carbonyl is separated into its components and the iron thus liberated is deposited on the pipes. It may also be eliminated by driving the gas through a chamber wherein it is brought into contact with some acid, preferably sulfuric acid. This latter method is preferable.
The raw water-gas contains also carbonic oXid and carbonic dioxid, their relative quantity varying, according to the material used in distillation, from thirty to forty per cent. of carbonic oxid and from two to five per cent. of carbonic dioxid. These gases are not eliminated because the carbonic oxid increases the heating capacity of the gas, and the quantity of the carbonic dioxid (from two to five per cent.) is so insignificant that its efiect is not noticeable in the use of the gas.
Hydric sulfid is another impurity contained in the raw water-gas generated in my apparatus. This is eliminated in my improved apparatus illustrated diagrammatically in Fig. 2 by nitric acid in such manner that the nitric acid is more fully utilized and the necessity of using such large quantities of it as required in the processes heretofore known obviated. In my improved apparatus one quantity of nitric acid is used continuously until consumed, though the hydric sulfid is not as completely eliminated as it would be if the nitric acid were not used over again. The result, however, is fully adequate for practical use. The constructionof the apparatus is based on the discovery that tetroxid of nitrogen (N 0 dissolves in water, forming nitric acid (HNO and nitrous acid (HNO and further upon the fact that the nitrous acid when in an aqueous solution separates easily into nitric acid and nitric oxid, and finally that nitric acid when indiluted solution precipitates sulfur from hydric sulfid, forming nitrous acid.
The raw gas containing hydric sulfid passes through pipe Z into vessel Sc, wherein it meets an aqueous solution composed of sulfuric, nitrous, and nitric acids, the sulfuric acid resulting from the oxidation of hydric sulfid contained in the gas and the nitrous acid from the reduction of nitric acid. The nitrous acid separates here into nitric acid and nitric oxid, the latter'passing, with the gas, into vessels S 0 and S0 Thus the main component of what is retained in vessel S0 is nitric acid and besides this sulfuric acid, and there may remain, also, a small percentage of nitrous acid.
The nitric acid eliminates from the gas the greatest part at the hydric sulfid, separating it by precipitating the sulfur. The gas passing through pipe m into vessel S0 is subjected therein to the action of concentrated nitric acid flowing constantly into this scrubber through the pipe n and dripping over the This gas contains material filled therein.
only a very little hydric sulfid, which is split by the action of the nitric acid, and thereby a small quantity of sulfuric acid is produced. From vessel S0 the gas passes through pipe Z into vessel S0 where it comes -into contact with water. This eliminates from it all tetroxid of nitrogen by transforming it into nitric and nitrous acids and discharges in aqueous solution through pipe m into vessel Sc,together with the nitrous acid flowing from vessel S0 through pipe m. WVhen this aqueous solution reaches vessel So, the nitrous acid splits instantly into nitrous acid and nitric oxid, the latter escaping again into vessel Sc (and with the inflowing water-gas. The reactions are repeated until the nitric acid is consumed, being successsively and almost fully transformed into nitric oxid (gas) Only a very small quantity of nitric and sulfuric acids escape through pipe g from the first vessel So of the apparatus.
The purified gas contains some nitric oxid. This can be eliminated (absorbed) by water if a sufiicient quantity of air or oxygen is added to the gas. The air or oxygen may be added to the gas before thesame enters scrubber Sc and it is preferable to do so, because then also the nitrous acid produced there will constantly be re-formed into nitric acid. The sulfur precipitated in vessel Sc accumulates on the material, filling the scrubber, and can .be recovered by drying the sediment and melting it. That part of the sulfur that escapes through pipe g accumulates as a porous sediment on the bottom of a tank and can be gathered directly.
The purified gas is absolutely odorless, and carbylaminssuch as, for instance, methyl, aethyl, tolyl, and carbylamin itself-are the best substances for scenting. They possess an odor which cannot be confounded with others, are cheaply produced, and easily assimilated by the gas.
The odorizing solution is absorbed in porous material filled in a chamber connected by a pipe to the reservoir, and the gas passing through it absorbs the odor of the carbylamin solution, retaining it permanently. The ab sorbed odorizer is replaced continuously by connecting the odorizingchamber with a hermetically-sealed can containing the odorizer and provided with a reduction-valve or a stop-cock.
Water-gas produced,purified, and odorized in the apparatus herein described can be used for all purposes for illuminating or heating.
I claim as my invention- An apparatus for the manufacture of water gas from coal, coke, and other carbonaceous material consisting of an oven, a combustion-chamber, a regenerator, a two-way flue connecting the upper and. middle parts of the oven with the comb ustion-chamber, a doubleacting valve set in the two-way line, a pipe connecting the lower part of the oven with the regenerator, a damper set in the pipe, a flue and esteem-injector set in the pipe connecting the regenerator with the lower part of the In Witness that I claim the improvements described in the foregoing specification I have signed my name in the presence of two subscribing witnesses.
HUGO sTRAonE.
Witnesses:
DEAN MASON, HARRY BELMONT.
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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2691573A (en) * 1950-12-15 1954-10-12 Phillips Petroleum Co Desulfurization in the gasification of coal

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2691573A (en) * 1950-12-15 1954-10-12 Phillips Petroleum Co Desulfurization in the gasification of coal

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