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Jeffrey Mine

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Journal Article
Published: 01 April 2011
The Canadian Mineralogist (2011) 49 (2): 651–656.
...Ralph Rowe; Joel D. Grice; Glenn Poirier; Chris J. Stanley; László Horváth Abstract Nisnite, ideally Ni 3 Sn, was found during a re-examination of heazlewoodite crystals in rodingite samples from the Jeffrey mine, Asbestos, Quebec. It occurs as bronze-colored metallic, striated, blocky...
FIGURES
First thumbnail for: NISNITE, Ni 3 Sn, A NEW NICKEL MINERAL SPECIES FRO...
Second thumbnail for: NISNITE, Ni 3 Sn, A NEW NICKEL MINERAL SPECIES FRO...
Third thumbnail for: NISNITE, Ni 3 Sn, A NEW NICKEL MINERAL SPECIES FRO...
Journal Article
Published: 01 August 2009
The Canadian Mineralogist (2009) 47 (4): 933–945.
...Yuanming Pan; Mao Mao; Jinru Lin Abstract Prehnite from the Jeffrey mine, in Asbestos, Quebec, has been investigated by optical microscopy, electron-microprobe analysis, single-crystal X-ray-diffraction (XRD) analysis, and electron paramagnetic resonance (EPR) spectroscopy. Electron-microprobe...
FIGURES
First thumbnail for: SINGLE-CRYSTAL EPR STUDY OF Fe 3+ AND VO 2+ IN PRE...
Second thumbnail for: SINGLE-CRYSTAL EPR STUDY OF Fe 3+ AND VO 2+ IN PRE...
Third thumbnail for: SINGLE-CRYSTAL EPR STUDY OF Fe 3+ AND VO 2+ IN PRE...
Journal Article
Published: 01 August 1989
American Mineralogist (1989) 74 (7-8): 859–864.
...Mizuhiko Akizuki Abstract Birefringent, orange grossular garnets from the Jeffrey mine, Asbestos, Quebec, Canada, have noncubic ordered arrangements of the Al 3+ , Fe 3+ , and/or OH − ions and rhombic growth hillock with four vicinal faces on the (110) face. The surface features correspond...
Journal Article
Published: 01 May 1981
The Canadian Mineralogist (1981) 19 (2): 337–340.
Journal Article
Published: 01 May 1980
The Canadian Mineralogist (1980) 18 (2): 231–240.
Image
Published: 01 August 2009
TABLE 1. COMPOSITIONS OF PREHNITE FROM THE JEFFREY MINE, ASBESTOS, QUEBEC
Image
Powder EPR spectrum of prehnite from the Jeffrey mine, measured at 290 K and a microwave frequency of 9.3835 GHz. Also shown for comparison is a simulated spectrum of the dominant Fe3+ center (I). Additional peaks at ~4.4 and 4.2 (marked) belong to the weak Fe3+ centers (Table 5).
Published: 01 August 2009
F ig . 6. Powder EPR spectrum of prehnite from the Jeffrey mine, measured at 290 K and a microwave frequency of 9.3835 GHz. Also shown for comparison is a simulated spectrum of the dominant Fe 3+ center (I). Additional peaks at ~4.4 and 4.2 (marked) belong to the weak Fe 3+ centers ( Table 5 ).
Book Chapter

Author(s)
J.M. Duke
Series: DNAG, Geology of North America
Published: 01 January 1995
DOI: 10.1130/DNAG-GNA-P1.263
EISBN: 9780813754680
... either mass fibre deposits in serpentinitesor from serpentinized dolomites. This section deals only with deposits of chrysotile asbestos in serpentinized ultramafic rocks. The most important deposits in Canada include the Jeffrey mine at Asbestos, Quebec; the Bell-King-Beaver deposit at Thetford Mines...
Journal Article
Published: 01 June 2010
European Journal of Mineralogy (2010) 22 (3): 381–392.
...Mao Mao; Mark J. Nilges; Yuanming Pan Abstract Single-crystal electron paramagnetic resonance (EPR) spectra of gamma-ray-irradiated prehnite (Jeffrey mine, Quebec, Canada) measured at 298 and 160 K reveal an aluminum-associated oxygen hole center (Al—O − ). Spin Hamiltonian parameters g and A ( 27...
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First thumbnail for: Single-crystal EPR and ENDOR study of an Al—O − ce...
Second thumbnail for: Single-crystal EPR and ENDOR study of an Al—O − ce...
Third thumbnail for: Single-crystal EPR and ENDOR study of an Al—O − ce...
Image
[001] zone-axis HRTEM image of the mosaic microstructure of enstatite (en) in a bastite. Incipient and diffuse alteration to talc (0.9 nm thick layers – tc) and serpentine (0.7 nm thick layers – serp) occurs via isolated phyllosilicate layers (arrows). Jeffrey Mine, Asbestos, Québec, Canada.
Published: 01 October 2002
F ig . 6. [001] zone-axis HRTEM image of the mosaic microstructure of enstatite (en) in a bastite. Incipient and diffuse alteration to talc (0.9 nm thick layers – tc) and serpentine (0.7 nm thick layers – serp) occurs via isolated phyllosilicate layers (arrows). Jeffrey Mine, Asbestos, Québec
Image
TEM image of the cross-section of a grossly fibrous picrolite. Black arrows mark pillars of an admixture of chrysotile and 15-sectored polygonal serpentine fibres parallel to the fibre axis. The white arrow points to one of the overlong PS fibrils cross-linking those pillars. Jeffrey Mine, Asbestos, Québec, Canada.
Published: 01 October 2002
F ig . 14. TEM image of the cross-section of a grossly fibrous picrolite. Black arrows mark pillars of an admixture of chrysotile and 15-sectored polygonal serpentine fibres parallel to the fibre axis. The white arrow points to one of the overlong PS fibrils cross-linking those pillars. Jeffrey
Image
[001] zone-axis TEM image of a more bastitized enstatite compared to Fig. 7. Easy serpentinization occurs along both {110} cleavage planes of the orthopyroxene. Flat, lizardite-like, serpentine forms in narrow spaces whereas rolled chrysotile curls nucleate into more open voids. Jeffrey Mine, Asbestos, Québec, Canada.
Published: 01 October 2002
. Jeffrey Mine, Asbestos, Québec, Canada.
Image
TEM image of the cross-section of a composite fibre made of intergrown chrysotile + polygonal serpentine (chr + PS) and calcite (ca) - ‘fibrous ophicalcite’. [100]chr//<110>ca//fibre axis. Note that ‘external overgrowths’ on chrysotile tubules are systematically orientated towards calcite. The rounded edges of the calcite single crystal adds some further support for the conclusion that chrysotile developed at the expense of calcite. Jeffrey Mine, Asbestos, Québec, Canada.
Published: 01 October 2002
towards calcite. The rounded edges of the calcite single crystal adds some further support for the conclusion that chrysotile developed at the expense of calcite. Jeffrey Mine, Asbestos, Québec, Canada.
Journal Article
Published: 01 May 2005
Seismological Research Letters (2005) 76 (3): 331–343.
...Jeffrey Park; Rhett Butler; Kent Anderson; Jonathan Berger; Peter Davis; Harley Benz; Charles R. Hutt; Charles S. McCreery; Tim Ahern; Goran Ekström; Kent Anderson; Richard Aster The earthquake itself posed practical impediments to a rapid and accurate assessment of its true size. Its primary...
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First thumbnail for: Performance Review of the Global Seismographic Net...
Second thumbnail for: Performance Review of the Global Seismographic Net...
Third thumbnail for: Performance Review of the Global Seismographic Net...
Image
Low-magnification HRTEM bright-field image of cross-sections of two regular 15-sector fibrils of polygonal serpentine (15-PS) seen along the [100] axis, and surrounded by chrysotile fibers. The bottom-right PS is built up of a two-layer polytype, whereas the one in the upper left mixes two-layer and one-layer stackings. Arrowheads mark stacking faults. “Picrolite” from the Jeffrey mine, Québec (JEOL 3010).
Published: 01 April 2005
two-layer and one-layer stackings. Arrowheads mark stacking faults. “Picrolite” from the Jeffrey mine, Québec (JEOL 3010).
Journal Article
Published: 01 June 1970
American Mineralogist (1970) 55 (5-6): 735–741.
Image
HRTEM structure image of the waves of an m = 14 antigorite from Jeffrey Mine (Québec, Canada), seen down the [010] axis. Mg row positions decorate a smooth wave. The disrupted wave of Si row positions includes a “normal” jump of Si atoms (black arrow) at the first reversal, and a “gradual transition” (elliptical enclosure) at the second reversal. Note also the abnormally equal number of Si rows and Mg rows along the modulation repeat. Fourier Transform processed image.
Published: 01 May 2010
F igure 8. HRTEM structure image of the waves of an m = 14 antigorite from Jeffrey Mine (Québec, Canada), seen down the [010] axis. Mg row positions decorate a smooth wave. The disrupted wave of Si row positions includes a “normal” jump of Si atoms (black arrow) at the first reversal
Image
Photomicrographs of serpentine minerals. (A) Lizardite pseudomorphing olivine with hourglass and mesh textures in plane-polarized light. The sample was collected in the Northern Serpentinite Belt in the Dominican Republic. Courtesy of Benoit Saumur (B) The same as (A) under crossed polarizers. (C) Cross section of a chrysotile “crack-seal” vein with parallel growth banding (crossed polarizers). Serpentinite from the Jeffrey Mine, Québec, Canada. (D) Tabular, interlocking texture of antigorite (crossed polarizers). Serpentinite from the Piémont zone, Western Alps, Italy.
Published: 01 April 2013
crossed polarizers. ( C ) Cross section of a chrysotile “crack-seal” vein with parallel growth banding (crossed polarizers). Serpentinite from the Jeffrey Mine, Québec, Canada. ( D ) Tabular, interlocking texture of antigorite (crossed polarizers). Serpentinite from the Piémont zone, Western Alps, Italy.
Image
HRTEM two-dimensional images of three consecutive sectors of polygonal serpentines with two-layer polytypes. The stacking sequences of each sector are drawn; their power spectrum derived from FFT of portions of the HR image are shown as insets underneath. Arrowheads point to the same stacking fault crossing consecutive sectors. Note the changes of direct and reciprocal unit-cells when going from one sector to the next one (see text for detailed discussion). a) A 15-sector PS. “Picrolite” from the Jeffrey mine, Québec. Raw image. JEOL 3010. b) A 30-sector PS. La Carrade quarry, Var, France. Raw image. JEOL 4000ex.
Published: 01 April 2005
stacking fault crossing consecutive sectors. Note the changes of direct and reciprocal unit-cells when going from one sector to the next one (see text for detailed discussion). a) A 15-sector PS. “Picrolite” from the Jeffrey mine, Québec. Raw image. JEOL 3010. b) A 30-sector PS. La Carrade quarry, Var
Image
Diopside (di) exsolution lamellae in enstatite (en) viewed by HRTEM along [001]di,en. (a) The semi-coherent interface is occupied by combined ‘dry’ dislocations. (b) Mixed-chain-width nano-domains of biopyribole material have nucleated onto the dislocations. The combination of dislocation and interface steps (disinclinations) occurs at tapered lamellae. The alternate curvature of the interface between successive dislocations might be attributed to the interplay between the elastic strain and the interface energy. Note that some double-chain material connects ‘wetted’ dislocation pairs across the lamella. Such polysome defects are expected to relieve part of the interface lattice misfit. (a and b) from Jeffrey Mine, Asbestos, Québec, Canada.
Published: 01 October 2002
pairs across the lamella. Such polysome defects are expected to relieve part of the interface lattice misfit. ( a and b ) from Jeffrey Mine, Asbestos, Québec, Canada.