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US1407588A - Method of manufacturing cylinders for dissolved acetylene - Google Patents

Method of manufacturing cylinders for dissolved acetylene Download PDF

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Publication number
US1407588A
US1407588A US107624A US10762416A US1407588A US 1407588 A US1407588 A US 1407588A US 107624 A US107624 A US 107624A US 10762416 A US10762416 A US 10762416A US 1407588 A US1407588 A US 1407588A
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United States
Prior art keywords
cylinder
cylinders
filling
porous
dissolved acetylene
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Legal status (The legal status 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 status listed.)
Expired - Lifetime
Application number
US107624A
Inventor
Oramel H Skinner
Smith Henry Sidney
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
PREST O LITE CO Inc
PREST-O-LITE COMPANY Inc
Original Assignee
PREST O LITE CO Inc
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Publication date
Application filed by PREST O LITE CO Inc filed Critical PREST O LITE CO Inc
Priority to US107624A priority Critical patent/US1407588A/en
Application granted granted Critical
Publication of US1407588A publication Critical patent/US1407588A/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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    • CCHEMISTRY; METALLURGY
    • C10PETROLEUM, GAS OR COKE INDUSTRIES; TECHNICAL GASES CONTAINING CARBON MONOXIDE; FUELS; LUBRICANTS; PEAT
    • C10LFUELS NOT OTHERWISE PROVIDED FOR; NATURAL GAS; SYNTHETIC NATURAL GAS OBTAINED BY PROCESSES NOT COVERED BY SUBCLASSES C10G OR C10K; LIQUIFIED PETROLEUM GAS; USE OF ADDITIVES TO FUELS OR FIRES; FIRE-LIGHTERS
    • C10L3/00Gaseous fuels; Natural gas; Synthetic natural gas obtained by processes not covered by subclass C10G, C10K; Liquefied petroleum gas
    • C10L3/02Compositions containing acetylene
    • C10L3/04Absorbing compositions, e.g. solvents

Definitions

  • the purpose of our said invention is to provide a method of placing a porous pasty ceramic lling material in a cylinder through a large opening and permit of hydraulic testing of the cylinder after the large opening Specication of )Letters Patent.
  • Figure l represents the steel shell S after it has been inished and is ready for filling, the heads of the shell being f shown alongside vthereof.
  • Said packer consists oit ⁇ a shell-10, with a hopper-like top containing spiral or auger packing blades ll mounted on a sha-ft l2 journalled in appropriate bearings and adapted to be operated by a crank 13.
  • the material with which the shell is to be filled is first prepared and consists of approximately 20% inert material and approximately 80% water. This plastic or semiliquid mass is Acarefully prepared, freed from air, and placed in the hopper of the packing device.
  • This material may of course be composed of the ingredients heretofore. suggested or any that may be found appropriate and the term ceramic, as used in lthe claims, is intended to have such interpretation.
  • rlhe lowereiid of the packing device is inserted within' the open end of the shell, being provided with a flange 14C around its lower end, which' ills the cross-area oi' the shell, as shown. :By turning the crank 13, the mass in the hopper is forced into the shell, and as the mass is forced through the lower end of. the packing device, said paching device raises until the shell is filled the point desired adjacent to the top.
  • the head s is tlien placed in position, as indicated in Figure 3, after which the top oi the shell is swaged inward to impinge against the taperededge of the head,- as indicated in l vention, what we claim as new and desire to Figure 4.
  • the joint between the head and the shell is then welded, when the device is having each cylinder tested hydrostatically.
  • FIG. 5 is shown the hydrostatic testing outfit 16, attached to a small cylinder 17 secured in the valve opening in the head and containing a small additional quantity of the plastic material. rlhe hydrostatic test is then applied, and if, because of any imperfection in the filling operation there should be any voids or spaces in-the mass of material, this additional quantity in the small cylinder 17 will be forced into the large cylinder and such spaces or voids filled up, thus insuring a uniform porosity and packing of the material throughout the cylinder.
  • the cylinder may be weighed and its weight recorded. It is then ready lfor the baking process to which all plastic materials of thisnature and for this purpose are subjected. When the baking is completed, the cylinder is again weighed and the difference between the original weight and the weight after bakin will define the amount of water driven o and, from this, the porosity of the cylinder can be readily calculated.
  • the maximum porosity desired for actylene cylinders of this character is 80%, and by this method we are able to gauge this porosity to exactly the degree desired to secure the best results.

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  • Chemical & Material Sciences (AREA)
  • Oil, Petroleum & Natural Gas (AREA)
  • Engineering & Computer Science (AREA)
  • Chemical Kinetics & Catalysis (AREA)
  • General Chemical & Material Sciences (AREA)
  • Organic Chemistry (AREA)
  • Investigating Strength Of Materials By Application Of Mechanical Stress (AREA)

Description

@HAMEL E. SKINNER AND reir A CRIIPORATION 0F NEW YQEK.'
METHOD 0F MANUFACTURING CYLINDE EUR DISSQLWED ACETYLENE.
To all whom it may concern Be it' known that we, @HAMEL H. SKINNER, a citizen of the United States, residing at Indianapolis, Marion County, and State of indiana, and HENRY SIDNEY SMITH, a citizen of Great Britain, residing at indianapolis, Marion County, and State of llndiana, have invented and discovered .certain new and useful improvements in Method of Manufacturing Cylinders for Dissolved Acetylene, of which the following is a specification. i
ln the manufacture of tanks or c linders for containing dissolved acetylene it is necessary to completely fill the cylinders with a porous material of known porosity. llt has been customary heretofore to fill the cylinders with porous material in the form of porous blocks made from appropriate material such as fibres of asbestos cemented together by silicate of soda or other appropriate ceramic adhesive or with a porous ceramic filling mixed with charcoal or a like substance and asbestos which is filled into the tank or cylinders in a pasty condition,
would be injurious to the porous blocks, hy-
draulic testing is impractical. Pneumatic testing is objectionable. When the pasty ceramic porous filling is employed, it has been the practice to employ cylinders with af small opening in the end (which hole later receives the valve) similar to those employed for carbon dioxide or oxygen. These cylinders can be tested hydraulically before the filling in of the porous substance, but 'the filling in of the porous substance through the small opening inthe end has been found to be a tedious and expensive process.
The purpose of our said invention is to provide a method of placing a porous pasty ceramic lling material in a cylinder through a large opening and permit of hydraulic testing of the cylinder after the large opening Specication of )Letters Patent.
Application med. July 5,
Patenten ret., ai, ieee.
1916. Serial lie. ltid.
tion to be better understood, the accompanying drawing is made a part hereot and will be referred vto herein.
lin said drawing, Figure l represents the steel shell S after it has been inished and is ready for filling, the heads of the shell being f shown alongside vthereof.
ln filling said shellV in accordance with our process, a. suitable packer is employed,
such asiilliistratefd in Figure 2. Said packer consists oit` a shell-10, with a hopper-like top containing spiral or auger packing blades ll mounted on a sha-ft l2 journalled in appropriate bearings and adapted to be operated by a crank 13.
The material with which the shell is to be filled is first prepared and consists of approximately 20% inert material and approximately 80% water. This plastic or semiliquid mass is Acarefully prepared, freed from air, and placed in the hopper of the packing device. This material may of course be composed of the ingredients heretofore. suggested or any that may be found appropriate and the term ceramic, as used in lthe claims, is intended to have such interpretation. rlhe lowereiid of the packing device is inserted within' the open end of the shell, being provided with a flange 14C around its lower end, which' ills the cross-area oi' the shell, as shown. :By turning the crank 13, the mass in the hopper is forced into the shell, and as the mass is forced through the lower end of. the packing device, said paching device raises until the shell is filled the point desired adjacent to the top.
The head s is tlien placed in position, as indicated in Figure 3, after which the top oi the shell is swaged inward to impinge against the taperededge of the head,- as indicated in l vention, what we claim as new and desire to Figure 4. The joint between the head and the shell is then welded, when the device is having each cylinder tested hydrostatically.
In Figure 5 is shown the hydrostatic testing outfit 16, attached to a small cylinder 17 secured in the valve opening in the head and containing a small additional quantity of the plastic material. rlhe hydrostatic test is then applied, and if, because of any imperfection in the filling operation there should be any voids or spaces in-the mass of material, this additional quantity in the small cylinder 17 will be forced into the large cylinder and such spaces or voids filled up, thus insuring a uniform porosity and packing of the material throughout the cylinder.
After the test is completed, the cylinder may be weighed and its weight recorded. It is then ready lfor the baking process to which all plastic materials of thisnature and for this purpose are subjected. When the baking is completed, the cylinder is again weighed and the difference between the original weight and the weight after bakin will define the amount of water driven o and, from this, the porosity of the cylinder can be readily calculated.
By this method, we are able to know definitely concerning the porous space, or porosity, of` such dissolved acetylene cylinders, whereas, by the process in present use, this information cannot be obtained of a definite and reliable characterbecause of the reasons v heretofore given. j
The maximum porosity desired for actylene cylinders of this character is 80%, and by this method we are able to gauge this porosity to exactly the degree desired to secure the best results.
Having thus fully described our said insecure' by Letters Patent, is:
1. The method of filling containers' with porous substance which consists in packing sald contalner wlth a ceramic mass of predetermlned conslstency, closing the open end of the container, applying the hydrostatic liquidl ceramic material, closing the open end of said cylinder, placing in communication therewith a small cylinder containing an additional supply of said semi-liquid material, applying hydrostatic pressure to said small cylinder, and then subjecting the cylinder to a baking process, substantially asv set forth.
4. T he process of filling cylinders for containing dissolved acetylene with porousv material which consists in filling the cylinder with a prepared ceramic mass in semi-liquid form, closing the cylinder, attaching a smaller cylinder containing a portion of the filling mass, applying hydrostatic pressure thereto, and baking, substantially as set forth.
5. The process of filling dissolved acetylene cylinders with porous material which consists in first filling the cylinder with a prepared semi-liquid ceramic mass, closing the cylinder, forcing a further supply. of
said material thereinto under approprlate pressure, and then baking, substantially as set forth.
In witness whereof, we have hereunto set our hands-and seals at Indianapolis, Indiana, this 22nd day of June, A. D. nineteen 100 hundred and sixteen.
ORAMEL H. SKINNER. [L s] HENRY SIDNEY SMITH. [L s] Witnesses j JACOB HARDING, MORRIS Mosiiowrrz.
US107624A 1916-07-05 1916-07-05 Method of manufacturing cylinders for dissolved acetylene Expired - Lifetime US1407588A (en)

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2422251A (en) * 1941-09-13 1947-06-17 Linde Air Prod Co Storage of acetylene
US2431675A (en) * 1944-11-23 1947-12-02 Nat Cylinder Gas Co Dispensing container for acetylene and method for storing acetylene
US2431676A (en) * 1944-11-23 1947-12-02 Nat Cylinder Gas Co Dispensing container for acetylene and method for storing acetylene
US20090194433A1 (en) * 2008-01-31 2009-08-06 Peng Chen-Chien Solid-State Hydrogen Storage Device

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2422251A (en) * 1941-09-13 1947-06-17 Linde Air Prod Co Storage of acetylene
US2431675A (en) * 1944-11-23 1947-12-02 Nat Cylinder Gas Co Dispensing container for acetylene and method for storing acetylene
US2431676A (en) * 1944-11-23 1947-12-02 Nat Cylinder Gas Co Dispensing container for acetylene and method for storing acetylene
US20090194433A1 (en) * 2008-01-31 2009-08-06 Peng Chen-Chien Solid-State Hydrogen Storage Device

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