I.—f. H. Bradley

Taylor, A. E.

doi:10.1093/mind/xxxiv.133.1

Cited by 8 publications

(7 citation statements)

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“…Movement of silicon from an initially filled tetrahedron into an initially empty one, in the manner shown in Fig. 4, was suggested as a possible mechanism for the migration of silicon (Dent & Taylor, 1956;Taylor, 1960). This hypothesis affords a very elegant explanation, and was felt by Dent & Taylor to be the most likely one.…”

Section: Discussionmentioning

confidence: 96%

“…Migration of silicon from an initially filled to an initially empty tetrahedron. (Reproduced from Taylor, 1960).…”

Section: Discussionmentioning

confidence: 99%

“…Some of the reactions were performed hydrothermally, and in all cases water was present in the original structure, so that the theory of Donnay, Wyart & Sabatier might be applicable. Taylor (1960) has summarized these results.…”

Section: Introductionmentioning

confidence: 99%

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Silicate transformations: rhodonite–wollastonite

Glasser¹,

Glasser²

1961

Acta Cryst

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Section: Discussionmentioning

confidence: 96%

“…Migration of silicon from an initially filled to an initially empty tetrahedron. (Reproduced from Taylor, 1960).…”

Section: Discussionmentioning

confidence: 99%

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Silicate transformations: rhodonite–wollastonite

Glasser¹,

Glasser²

1961

Acta Cryst

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“…According to the TGA/DTG curves of uncarbonated samples (Figure ), the main steps in the mass loss process are as follows; the first step is related to water loss from evaporation and later dehydration of crystalline and amorphous components, such as ettringite (AFt) (up to 140 °C) , and calcium-silicate hydrate (CSH), or calcium aluminate hydrate (CAH), the second is the dehydration of Ca(OH) 2 (410–460 °C), and the third is CO 2 loss from the decomposition of CaCO 3 (600–800 °C). In UC OSFA, a slightly higher peak of ettringite decomposition is observed between 100 and 130 °C compared to C and NS-added samples.…”

Section: Results and Discussionmentioning

confidence: 99%

Carbonation and Leaching Behaviors of Cement-Free Monoliths Based on High-Sulfur Fly Ashes with the Incorporation of Amorphous Calcium Aluminate

Usta,

Yörük,

Uibu

et al. 2023

ACS Omega

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The high sulfate content in various alkaline wastes, including those from fossil fuel and biomass combustion, and other industrial processes, necessitates careful management when used in cementitious systems to prevent potential deterioration of construction materials and environmental safety concerns. This study explores the under-researched area of high-sulfur fly ash (HSFA) utilization in the production of cement-free monoliths through accelerated carbonation and further examines the effect of niobium slag (NS)a calcium aluminate-containing slagas an additive on the strength development and the mobility of SO4 2–. The methodology involves mineralogical and microstructural analyses of monoliths before and after carbonation, accounting for the effects of accelerated carbonation treatment and NS addition. The findings suggest that accelerated carbonation significantly improves the initial compressive strength of the HSFA monoliths and generally immobilizes heavy metals, while the effect on sulfate immobilization can vary depending on the ash composition. Moreover, the addition of NS further enhances strength without substantially hindering CO2 uptake, while reducing the leaching values, particularly of sulfates and heavy metals. These findings suggest that it is feasible to use calcium aluminate-containing NS in HSFA-based carbonated monoliths to immobilize sulfates without compromising the strength development derived from carbonation. This research contributes to the understanding of how accelerated carbonation and NS addition can enhance the performance of HSFA-based materials, providing valuable insights for the development of sustainable construction materials.

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“…In the widest sense of the term he was an extremely religious man. He believed that the underlying spiritual or divine significance of reality was one of its most important aspects, which humankind could only become the poorer for losing its appreciation of, and in the words of one who knew him well, 'His whole life and thought was permeated by a conviction of the reality of the unseen things and a supreme devotion to them' (Taylor, 1925;p. 9).…”

Section: Bradley's Attitude Towards Religion In Generalmentioning

confidence: 99%

Bradley's Philosophy of Religion

Mander

1995

Rel. Stud.

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F. H. Bradley (1846–1924) did not write extensively or systematically on the philosophy of religion, and much of what he did write has the character of either tentative speculation or the pre-emptive rebuttal of potential misinterpretations that might threaten his general philosophical position. ‘I admit that on this subject I never had much to say’ (ETR 428) he warns. But such a remark should not discourage us from considering his views on this topic, since the disclaimer is typically Bradleian, and more reflective of his high standards for what is required in order to claim to have something to say about some matter than of any genuine lack of opinion. On closer inspection we find that he has, scattered throughout his work, a great many important things to say about this subject.

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I.—f. H. Bradley

Cited by 8 publications

References 0 publications

Silicate transformations: rhodonite–wollastonite

Silicate transformations: rhodonite–wollastonite

Carbonation and Leaching Behaviors of Cement-Free Monoliths Based on High-Sulfur Fly Ashes with the Incorporation of Amorphous Calcium Aluminate

Bradley's Philosophy of Religion

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