Storing hydrofluoric acid before the invention of plastics
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The first person to synthesize hydrofluoric acid in large quantities was Carl Wilhelm Scheele in 1771. This acid is known for its ability to corrode glass and metals.
What materials were the containers in which it was stored before the invention of plastics?
inorganic-chemistry experimental-chemistry halides reference-request history-of-chemistry
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The first person to synthesize hydrofluoric acid in large quantities was Carl Wilhelm Scheele in 1771. This acid is known for its ability to corrode glass and metals.
What materials were the containers in which it was stored before the invention of plastics?
inorganic-chemistry experimental-chemistry halides reference-request history-of-chemistry
New contributor
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1
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Iron is resistant do HF due to the formation of a dense flouride surface layer. Not sure if he used it.
$endgroup$
– Karl
5 hours ago
add a comment |
$begingroup$
The first person to synthesize hydrofluoric acid in large quantities was Carl Wilhelm Scheele in 1771. This acid is known for its ability to corrode glass and metals.
What materials were the containers in which it was stored before the invention of plastics?
inorganic-chemistry experimental-chemistry halides reference-request history-of-chemistry
New contributor
$endgroup$
The first person to synthesize hydrofluoric acid in large quantities was Carl Wilhelm Scheele in 1771. This acid is known for its ability to corrode glass and metals.
What materials were the containers in which it was stored before the invention of plastics?
inorganic-chemistry experimental-chemistry halides reference-request history-of-chemistry
inorganic-chemistry experimental-chemistry halides reference-request history-of-chemistry
New contributor
New contributor
edited 2 hours ago
andselisk
19.5k664126
19.5k664126
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asked 5 hours ago
GinasiusGinasius
1263
1263
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1
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Iron is resistant do HF due to the formation of a dense flouride surface layer. Not sure if he used it.
$endgroup$
– Karl
5 hours ago
add a comment |
1
$begingroup$
Iron is resistant do HF due to the formation of a dense flouride surface layer. Not sure if he used it.
$endgroup$
– Karl
5 hours ago
1
1
$begingroup$
Iron is resistant do HF due to the formation of a dense flouride surface layer. Not sure if he used it.
$endgroup$
– Karl
5 hours ago
$begingroup$
Iron is resistant do HF due to the formation of a dense flouride surface layer. Not sure if he used it.
$endgroup$
– Karl
5 hours ago
add a comment |
1 Answer
1
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oldest
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In the original 1771 experiment, Scheele used a very simple setup consisting of a glass retort with a glass receiver (round-bottom flask).
Yes, the glass was etched to some degree by the fumes, but it was not drastic enough to destroy the apparatus.
From Anders Lennartson's The Chemical Works of Carl Wilhelm Scheele [1, p. 22]:
3.1 Publication 1. Investigation of Fluorite and Hydrofluoric Acid
Original publication: Kongl. Vetenskaps Academiens Handlingar. 1771, 32,
120–138.
Original title translated to English: Investigation of fluorspar and its acid
…
The second paragraph of the paper deals with the action of acids on fluorite, and
this is where the important discovery is made. Scheele mixed powdered fluorite
with sulphuric acid (oil of vitriol) and heated it in a retort (Fig. 3.3) whereupon corrosive fumes were emitted. He repeated the experiment with some water in the receiver. He found that a white crust was formed on the water surface, and that the water contained a dissolved acid. The inner surface of the retort was etched by the fumes. Scheele identified the white crust as silicon dioxide (siliceous earth) and the residue in the retort as calcium sulphate (selenite or gypsum). This lead Scheele to the conclusion that “Fluor [fluorite], therefore, consists principally of calcareous earth [calcium oxide], saturated with a peculiar acid; the nature of which we shall investigate hereafter”.
Fig. 3.3 Schematic view of the apparatus Scheele used for preparing “acid of fluorspar”
In response to critics, to prove that the glassware itself was the source of the white silicon dioxide powder, Scheele improved the setup, protecting the inner walls with tin and wax.
Continuing from [1, p. 98]:
3.60 Publication 60. Experiments with Hydrofluoric Acid
Original publication: Chemische Annalen für die Freunde der Naturlehre.
1786, part 1, 3–17.
Original title translated to English: New evidence for the characteristic nature of the acid of fluor spar
…
Scheele powdered fluorite in a brass mortar, mixed the powder with sulphuric
acid (oil of vitriol) and transferred it to a retort lined with tin. The receiver was lined with wax, and partly filled with water. This time Scheele obtained a distillate free from precipitated silicon dioxide (siliceous earth), and addition of potassium hydroxide gave no precipitate (i.e. no $ce{K2SiF6}$). Thus, this was pure hydrofluoric acid, $ce{ HF_{(aq)} }$; similar results had been reported by Scheele’s friend, J.C.F. Meyer in Stettin.
References
- Lennartson, A. The Chemical Works of Carl Wilhelm Scheele; Springer Berlin Heidelberg: New York, NY, 2017. ISBN 978-3-319-58180-4.
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@CodyGray Thank you for the edit and corrections, I appreciate it!
$endgroup$
– andselisk
1 hour ago
add a comment |
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$begingroup$
In the original 1771 experiment, Scheele used a very simple setup consisting of a glass retort with a glass receiver (round-bottom flask).
Yes, the glass was etched to some degree by the fumes, but it was not drastic enough to destroy the apparatus.
From Anders Lennartson's The Chemical Works of Carl Wilhelm Scheele [1, p. 22]:
3.1 Publication 1. Investigation of Fluorite and Hydrofluoric Acid
Original publication: Kongl. Vetenskaps Academiens Handlingar. 1771, 32,
120–138.
Original title translated to English: Investigation of fluorspar and its acid
…
The second paragraph of the paper deals with the action of acids on fluorite, and
this is where the important discovery is made. Scheele mixed powdered fluorite
with sulphuric acid (oil of vitriol) and heated it in a retort (Fig. 3.3) whereupon corrosive fumes were emitted. He repeated the experiment with some water in the receiver. He found that a white crust was formed on the water surface, and that the water contained a dissolved acid. The inner surface of the retort was etched by the fumes. Scheele identified the white crust as silicon dioxide (siliceous earth) and the residue in the retort as calcium sulphate (selenite or gypsum). This lead Scheele to the conclusion that “Fluor [fluorite], therefore, consists principally of calcareous earth [calcium oxide], saturated with a peculiar acid; the nature of which we shall investigate hereafter”.
Fig. 3.3 Schematic view of the apparatus Scheele used for preparing “acid of fluorspar”
In response to critics, to prove that the glassware itself was the source of the white silicon dioxide powder, Scheele improved the setup, protecting the inner walls with tin and wax.
Continuing from [1, p. 98]:
3.60 Publication 60. Experiments with Hydrofluoric Acid
Original publication: Chemische Annalen für die Freunde der Naturlehre.
1786, part 1, 3–17.
Original title translated to English: New evidence for the characteristic nature of the acid of fluor spar
…
Scheele powdered fluorite in a brass mortar, mixed the powder with sulphuric
acid (oil of vitriol) and transferred it to a retort lined with tin. The receiver was lined with wax, and partly filled with water. This time Scheele obtained a distillate free from precipitated silicon dioxide (siliceous earth), and addition of potassium hydroxide gave no precipitate (i.e. no $ce{K2SiF6}$). Thus, this was pure hydrofluoric acid, $ce{ HF_{(aq)} }$; similar results had been reported by Scheele’s friend, J.C.F. Meyer in Stettin.
References
- Lennartson, A. The Chemical Works of Carl Wilhelm Scheele; Springer Berlin Heidelberg: New York, NY, 2017. ISBN 978-3-319-58180-4.
$endgroup$
$begingroup$
@CodyGray Thank you for the edit and corrections, I appreciate it!
$endgroup$
– andselisk
1 hour ago
add a comment |
$begingroup$
In the original 1771 experiment, Scheele used a very simple setup consisting of a glass retort with a glass receiver (round-bottom flask).
Yes, the glass was etched to some degree by the fumes, but it was not drastic enough to destroy the apparatus.
From Anders Lennartson's The Chemical Works of Carl Wilhelm Scheele [1, p. 22]:
3.1 Publication 1. Investigation of Fluorite and Hydrofluoric Acid
Original publication: Kongl. Vetenskaps Academiens Handlingar. 1771, 32,
120–138.
Original title translated to English: Investigation of fluorspar and its acid
…
The second paragraph of the paper deals with the action of acids on fluorite, and
this is where the important discovery is made. Scheele mixed powdered fluorite
with sulphuric acid (oil of vitriol) and heated it in a retort (Fig. 3.3) whereupon corrosive fumes were emitted. He repeated the experiment with some water in the receiver. He found that a white crust was formed on the water surface, and that the water contained a dissolved acid. The inner surface of the retort was etched by the fumes. Scheele identified the white crust as silicon dioxide (siliceous earth) and the residue in the retort as calcium sulphate (selenite or gypsum). This lead Scheele to the conclusion that “Fluor [fluorite], therefore, consists principally of calcareous earth [calcium oxide], saturated with a peculiar acid; the nature of which we shall investigate hereafter”.
Fig. 3.3 Schematic view of the apparatus Scheele used for preparing “acid of fluorspar”
In response to critics, to prove that the glassware itself was the source of the white silicon dioxide powder, Scheele improved the setup, protecting the inner walls with tin and wax.
Continuing from [1, p. 98]:
3.60 Publication 60. Experiments with Hydrofluoric Acid
Original publication: Chemische Annalen für die Freunde der Naturlehre.
1786, part 1, 3–17.
Original title translated to English: New evidence for the characteristic nature of the acid of fluor spar
…
Scheele powdered fluorite in a brass mortar, mixed the powder with sulphuric
acid (oil of vitriol) and transferred it to a retort lined with tin. The receiver was lined with wax, and partly filled with water. This time Scheele obtained a distillate free from precipitated silicon dioxide (siliceous earth), and addition of potassium hydroxide gave no precipitate (i.e. no $ce{K2SiF6}$). Thus, this was pure hydrofluoric acid, $ce{ HF_{(aq)} }$; similar results had been reported by Scheele’s friend, J.C.F. Meyer in Stettin.
References
- Lennartson, A. The Chemical Works of Carl Wilhelm Scheele; Springer Berlin Heidelberg: New York, NY, 2017. ISBN 978-3-319-58180-4.
$endgroup$
$begingroup$
@CodyGray Thank you for the edit and corrections, I appreciate it!
$endgroup$
– andselisk
1 hour ago
add a comment |
$begingroup$
In the original 1771 experiment, Scheele used a very simple setup consisting of a glass retort with a glass receiver (round-bottom flask).
Yes, the glass was etched to some degree by the fumes, but it was not drastic enough to destroy the apparatus.
From Anders Lennartson's The Chemical Works of Carl Wilhelm Scheele [1, p. 22]:
3.1 Publication 1. Investigation of Fluorite and Hydrofluoric Acid
Original publication: Kongl. Vetenskaps Academiens Handlingar. 1771, 32,
120–138.
Original title translated to English: Investigation of fluorspar and its acid
…
The second paragraph of the paper deals with the action of acids on fluorite, and
this is where the important discovery is made. Scheele mixed powdered fluorite
with sulphuric acid (oil of vitriol) and heated it in a retort (Fig. 3.3) whereupon corrosive fumes were emitted. He repeated the experiment with some water in the receiver. He found that a white crust was formed on the water surface, and that the water contained a dissolved acid. The inner surface of the retort was etched by the fumes. Scheele identified the white crust as silicon dioxide (siliceous earth) and the residue in the retort as calcium sulphate (selenite or gypsum). This lead Scheele to the conclusion that “Fluor [fluorite], therefore, consists principally of calcareous earth [calcium oxide], saturated with a peculiar acid; the nature of which we shall investigate hereafter”.
Fig. 3.3 Schematic view of the apparatus Scheele used for preparing “acid of fluorspar”
In response to critics, to prove that the glassware itself was the source of the white silicon dioxide powder, Scheele improved the setup, protecting the inner walls with tin and wax.
Continuing from [1, p. 98]:
3.60 Publication 60. Experiments with Hydrofluoric Acid
Original publication: Chemische Annalen für die Freunde der Naturlehre.
1786, part 1, 3–17.
Original title translated to English: New evidence for the characteristic nature of the acid of fluor spar
…
Scheele powdered fluorite in a brass mortar, mixed the powder with sulphuric
acid (oil of vitriol) and transferred it to a retort lined with tin. The receiver was lined with wax, and partly filled with water. This time Scheele obtained a distillate free from precipitated silicon dioxide (siliceous earth), and addition of potassium hydroxide gave no precipitate (i.e. no $ce{K2SiF6}$). Thus, this was pure hydrofluoric acid, $ce{ HF_{(aq)} }$; similar results had been reported by Scheele’s friend, J.C.F. Meyer in Stettin.
References
- Lennartson, A. The Chemical Works of Carl Wilhelm Scheele; Springer Berlin Heidelberg: New York, NY, 2017. ISBN 978-3-319-58180-4.
$endgroup$
In the original 1771 experiment, Scheele used a very simple setup consisting of a glass retort with a glass receiver (round-bottom flask).
Yes, the glass was etched to some degree by the fumes, but it was not drastic enough to destroy the apparatus.
From Anders Lennartson's The Chemical Works of Carl Wilhelm Scheele [1, p. 22]:
3.1 Publication 1. Investigation of Fluorite and Hydrofluoric Acid
Original publication: Kongl. Vetenskaps Academiens Handlingar. 1771, 32,
120–138.
Original title translated to English: Investigation of fluorspar and its acid
…
The second paragraph of the paper deals with the action of acids on fluorite, and
this is where the important discovery is made. Scheele mixed powdered fluorite
with sulphuric acid (oil of vitriol) and heated it in a retort (Fig. 3.3) whereupon corrosive fumes were emitted. He repeated the experiment with some water in the receiver. He found that a white crust was formed on the water surface, and that the water contained a dissolved acid. The inner surface of the retort was etched by the fumes. Scheele identified the white crust as silicon dioxide (siliceous earth) and the residue in the retort as calcium sulphate (selenite or gypsum). This lead Scheele to the conclusion that “Fluor [fluorite], therefore, consists principally of calcareous earth [calcium oxide], saturated with a peculiar acid; the nature of which we shall investigate hereafter”.
Fig. 3.3 Schematic view of the apparatus Scheele used for preparing “acid of fluorspar”
In response to critics, to prove that the glassware itself was the source of the white silicon dioxide powder, Scheele improved the setup, protecting the inner walls with tin and wax.
Continuing from [1, p. 98]:
3.60 Publication 60. Experiments with Hydrofluoric Acid
Original publication: Chemische Annalen für die Freunde der Naturlehre.
1786, part 1, 3–17.
Original title translated to English: New evidence for the characteristic nature of the acid of fluor spar
…
Scheele powdered fluorite in a brass mortar, mixed the powder with sulphuric
acid (oil of vitriol) and transferred it to a retort lined with tin. The receiver was lined with wax, and partly filled with water. This time Scheele obtained a distillate free from precipitated silicon dioxide (siliceous earth), and addition of potassium hydroxide gave no precipitate (i.e. no $ce{K2SiF6}$). Thus, this was pure hydrofluoric acid, $ce{ HF_{(aq)} }$; similar results had been reported by Scheele’s friend, J.C.F. Meyer in Stettin.
References
- Lennartson, A. The Chemical Works of Carl Wilhelm Scheele; Springer Berlin Heidelberg: New York, NY, 2017. ISBN 978-3-319-58180-4.
edited 1 hour ago
Cody Gray
1178
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answered 4 hours ago
andseliskandselisk
19.5k664126
19.5k664126
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@CodyGray Thank you for the edit and corrections, I appreciate it!
$endgroup$
– andselisk
1 hour ago
add a comment |
$begingroup$
@CodyGray Thank you for the edit and corrections, I appreciate it!
$endgroup$
– andselisk
1 hour ago
$begingroup$
@CodyGray Thank you for the edit and corrections, I appreciate it!
$endgroup$
– andselisk
1 hour ago
$begingroup$
@CodyGray Thank you for the edit and corrections, I appreciate it!
$endgroup$
– andselisk
1 hour ago
add a comment |
Ginasius is a new contributor. Be nice, and check out our Code of Conduct.
Ginasius is a new contributor. Be nice, and check out our Code of Conduct.
Ginasius is a new contributor. Be nice, and check out our Code of Conduct.
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$begingroup$
Iron is resistant do HF due to the formation of a dense flouride surface layer. Not sure if he used it.
$endgroup$
– Karl
5 hours ago