|
Journal of the British Astronomical Association Select index, compiled by Bob Marriott |
|
An index of around
1,000 papers and other contributions relating to practical astronomy,
published in the Journal during the period 1941–2003 (Vols.
51–113). Most of the entries pertaining to redundant technology or
outdated methods (particularly from the earlier period) are not included,
although some have been retained as being of interest. Each author's entries
are in chronological order. (The complete index to the BAA Journal,
Vols.51–100 (1941–1990), compiled by R.A. Marriott, can be
purchased from the Association, price £4 (148 pp., hardback)). |
|
Abrams, B.C. |
Long exposures on Tri-X, 97,
11 Reciprocity failure, background light
and Tri-X, 97, 322 More on emulsions for
astrophotography, 98, 180 |
|
Ackroyd, E.E. et al. |
A slow-motion crosshair drive for
long-exposure photography of fast-moving objects, 97, 90 |
|
Airey, D. |
Construction of a small spectrograph
for stellar spectroscopy and its use on some brighter stars, 103, 11 High-resolution spectra and
monochromatic images of a flaring 1991 Perseid meteor, 109, 179 |
|
Anderson, S.J. |
The Barlow lens, 92, 135 Sub-diameter tools, 95, 172,
263 A spherometer, 95, 263 |
|
Appleton, A.K. |
A 9-inch portable Newtonian
reflector, 62, 100, 104 |
|
Arber, H. |
Solar photography, 69, 99 |
|
Arbour, R.W. |
Cooled emulsion photography for
amateurs, 89, 566 Amateur photography of globular
clusters within M31, 92, 45 Deep-sky photography, 92, 242 An amateur's computerised camera for
the automatic tracking of comets, 96, 12 Computerised tracking, 96, 264 Photographic emulsions,
1980–1987, 97, 305 Reciprocity failure, background light
and Tri-X, 97, 322 Deep-sky photography, 97, 334 Controlling a telescope, 99, 8 Emulsions for astrophotography, 102,
13 Software for CCD users, 103,
10 Testing telescope mirrors for
micro-ripple, 103, 284 An auto-focusing CCD camera mount, 104,
179 CCD photometry, 104, 202 |
|
Archer, S. |
A photoelectric stellar photometer, 68,
251, 264 Photoelectric observation of Earth
satellites, 69, 53 A simple photoelectric
microphotometer, 70, 183 |
|
Argyle, R.W. et al. |
Zeiss machine needs good home, 103,
62 |
|
Arnold H.J.P. |
Kodak developer D19b, 99, 163 |
|
Aucken, J.M. |
Video astronomy, 111, 356 |
|
Ayris, D. |
A home-made autoguider, 99, 83 |
|
Badger, R.E. |
An inexpensive mounting with 'poured'
bearings, 77, 333 |
|
Bailey, J. et al. |
Photoelectric and visual comparison
star sequences, 89, 265; 90, 265 |
|
Barber, D.R. |
Objective-prism spectrophotometry of
early-type stars, 84, 471 |
|
Barlow, B.V. |
A low-cost temperature-compensated
mirror cell, 86, 475; 87, 195 |
|
Barnes, M.G. |
An inexpensive observatory for small
telescopes, 78, 53 |
|
Barocas, V. |
Some aspects of astronomical
photography, 81, 295 Atmospheric seeing, 82, 254,
279 |
|
Baxter, W.M. |
Photography of sunspots, 70,
75; 71, 339 Sunspot photography, 72, 160 |
|
Bayley, D. |
Mirror making in the kitchen, 85,
171 |
|
Beech, E. |
Covers for telescope mirrors, 82,
385 Flat mirrors for Newtonian
reflectors, 82, 476 Camera for celestial photography, 83,
465 Portable driven mount for 35-mm
cameras, 85, 366 |
|
Beet, E.A. |
Possibilities with a 3-inch
telescope, 72, 366 |
|
Bembrick, C.S. |
Photoelectric photometry and the
amateur, 92, 44, 247 |
|
Berlanny, S.S. |
The Barlow lens, 78, 64 |
|
Betlem, H. et al. |
How to automate a 35-mm all-sky
camera for an automatic fireball network, 93, 11 |
|
Bond, J. et al. |
Results of the project for the
comparison of the performance of astronomical telescopes, 92, 265 |
|
Brazell, O. |
Telescopes for deep-sky observing, 100,
213 Nebular filters in deep-sky
astronomy, 104, 231 POSS – the ultimate deep-sky
resource?, 107, 88 |
|
Brelstaff, T. |
A challenge to CCD observers, 104,
89 V1500 Cygni: another challenge for
CCD observers, 104, 143 |
|
Brierley, D.M. |
A clear-sky detector, 78, 191;
85, 30 |
|
Brierley, K. |
Photography with an Aero-Ektar lens, 92,
276 |
|
Brinton, H. et al. |
On the use of colour filters, 72,
409 Uprating of film for
astrophotography, 75, 243 |
|
Bromley, G. |
Mounting of flat in a Newtonian
reflector, 81, 487 |
|
Brooks, R.C. |
An eyepiece off-set guiding device, 92,
73 |
|
Brown, D.S. |
The photographic observation of
variable stars, 73, 340 Some experiments in photographic
photometry using comparative prisms, 75, 78 Full-aperture solar photography for
reflectors, 91, 91 The design of large astronomical
telescopes, 91, 357 |
|
Brown, D.W. |
The modern reflecting telescope, 62,
86 |
|
Brown, J.N. |
Barnett Observatory, 106, 101 |
|
Brown, M. |
An inexpensive 11.75-inch Newtonian
reflector, 76, 116 A variable frequency electronic
control unit for synchronous motor driven telescopes, 76, 173 |
|
Bryan, J. |
Detection of nonlinear response in
CCD cameras, 111, 29 |
|
Buczynski, D.G. |
Astrometry, 96, 56 CCD astronomy with a very small
telescope, 104, 41 A new automated telescope, 109,
223 BAA instrument no.66, 112, 101 Conder Brow Observatory, 112,
364 |
|
– et al. |
Conder Brow Observatory, 96,
83, 111 An experiment in double-star
photography, 99, 237 |
|
Burch, C.R. |
Stainless steel mirrors, 55,
61 Testing mirrors and optical systems, 89,
507, 617; 90, 187 The knife-edge test for mirrors, 90,
382 |
|
Bush, G.B. |
A 6-inch short-focus reflector, 55,
80 The astrograph, 57, 79, 94 |
|
Campbell, D.A. |
Luminous paint dangers, 62,
124 Daylight observations, 63, 230 The evaporation of metallic films and
the deposition of anti-reflecting films on glass, 64, 197 Photography of lightning, 66,
50 Silver and aluminium coatings on
mirrors, 66, 233 Aluminium films, 73, 249 Mirrors with 100 per cent
reflectivity, 75, 213, 218 |
|
Candy, B. |
Dobsonian-type telescopes –
some simple modifications, 102, 37 A 'deep sky' viewing screen, 104,
214 |
|
Catchpole, R.M. et al. |
Zeiss machine needs good home, 103,
62 |
|
Catterall, A. |
CCDs versus astrophotography: a CCD
user's perspective, 109, 286 |
|
Champion, P. |
Astronomy and engineering, 103,
49 |
|
Chorley, J.W.A. |
Anti-corrosion mountings for
Newtonian mirrors and flats, 92, 237 |
|
Clark, B.A.J. |
Sunlight and night vision, 81,
208 |
|
Clarke, A.C. |
Electronic aids to astronomy, 55,
143 Infrared image tubes, 59, 106 A small catadioptric telescope, 69,
20 |
|
Clarke, D. |
Metrication and the telescope, 82,
188 |
|
Clements, P. |
A cordless remote control equatorial
drive system: the 'Infra Guide', 104, 125 |
|
Collinson, E.H. |
Meteor photography, 59, 64 Astronomical photography –
equipment and methods for the amateur, 65, 1 |
|
Conner, D.S. |
Simple lunar photography, 100,
60 |
|
Cook, A.C. |
Infrared photography, 96, 242 |
|
– & Cook, J.D. |
Experiments with solid-state imaging
devices and image processing, 96, 223 |
|
Cook, E.R. |
Double arm tangent drive for
telescope, 105, 65 Adjustable slits for spectroscopes, 107,
261 Coarse–fine focuser for
Schmidt–Cassegrain telescopes, 110, 206 An amateur's solar spectrograph, 111,
261 |
|
Cook, T. |
Infrared films, 92, 143 Electronic imaging machine, 93,
227 |
|
Cousins, F.W. |
The design of small reflecting
telescopes, 75, 363 Rotating filter holders, 77,
59, 215 |
|
Covington, M.A. |
Reciprocity failure of Tri-X, 97,
200 What's new in astrophotography, 108,
220 Alcor: a microcontroller-based
control circuit for conventional AC telescope drives, 111, 83 |
|
Cox, H.W. |
Schmidt camera tests, 51, 152,
174 The testing of wide-angle mirrors, 56,
101, 110 Photoelectric photometry, 58,
90, 101 |
|
Crabtree, P.B. |
A shelter for a telescope, 85,
368 |
|
Cross, C.A. |
A warmed observatory for a 12-inch
reflector, 78, 206 Astigmatism in reflecting telescopes,
81, 410 |
|
Currie, M.J. |
The electronographic camera, 88,
329 Where no pixel went before, 91,
217 |
|
Curtis, A.C. |
The observer, 78, 251 Subjectivity in observations, 80,
257, 343 The dynameter and eyepiece focal
lengths, 81, 24 The dynameter, 81, 489 |
|
Dall, H.E. |
A null test for paraboloids, 57,
194, 201 Design and use of amateur telescopes,
65, 102 A new photographic emulsion [FP3
Series II], 70, 157 [An instrument to compensate for]
atmospheric dispersion, 70, 347; 71, 75 Maksutov telescopes, 73, 246,
256 Photography of Jupiter, 74,
266 Visual astronomy in the ultraviolet, 75,
317 Filter-type solar prominence
telescope for amateurs, 77, 82, 94, 367 Telescope eyepieces, 79, 340,
349 Finding and guiding on dark skies, 82,
167, 202 Photoelectric methods in amateur
astronomy, 83, 304 Observatory of H.E. Dall, 84,
251 Myopia, 92, 195 Types of spectroscope, 96, 87 |
|
– et al. |
Filter-type solar prominence
telescope for amateurs, 89, 122 |
|
Daniels, D.G. |
A portable driven mount for 35-mm
cameras, 84, 189; 85, 69 Human visual acuity, 84, 383 |
|
Davidson, M. |
The ring micrometer, 52, 273 |
|
Davies, F.V. |
Star finding with an
altazimuth-mounted telescope, 79, 467 |
|
De Sa A. et al. |
A stepping motor drive for small
telescopes, 85, 324 |
|
Debarbat, S. |
Coudé... another twist of the
elbow, 103, 163 |
|
Dewhirst, D.W. |
Automatic guiding of solar
telescopes, 56, 144 Photography of nebulae in hydrogen
light, 62, 156 |
|
Dobbins, T.A. |
Recording the Moon and planets with a
video camera, 106, 309 |
|
Doherty, B.T. |
Building the observatory at
Newchapel, Staffordshire, 77, 427 |
|
Doherty, P. |
Pencil, eye and telescope, 105,
95 |
|
Dougherty, L.M. |
A portable driven mount for 35-mm
cameras, 84, 473 Adjustment of an equatorial mounting,
87, 518 Solar graticules, 87, 582 A note on the principle and
nomenclature of heliostats, coelostats, siderostats, 92, 182 Heliostats, siderostats and
coelostats, 95, 270 Diffraction patterns in telescopic
optics, 107, 48 |
|
Dowdell, A.P. |
Photography with an Aero-Ektar lens, 92,
191 |
|
Doylerush, E. |
The development of a total power radiometer,
79, 291 |
|
Dragesco, J. |
Reciprocity failure of photographic
emulsions before and after hypersensitisation by forming gas, 98, 249 Deep-sky photography in
light-polluted areas, 101, 330 Celestron Schmidt cameras: theory and
practice, 104, 77 |
|
Duckworth, M. |
A simple and inexpensive run-off
roof, 76, 328 |
|
Dunlop, S.R. |
Parabolising a 610-mm zero-expansion
mirror, 85, 126 The use of acrylic plastic for
optical components, 88, 517 Limiting magnitudes with fixed-camera
photography, 91, 403 |
|
Dymock, R. |
The 'Observapod': a GRP observatory, 111,
199 |
|
Dyson, F. |
A semi-kinematic focusing mechanism, 89,
279 |
|
Elliott, A.J. |
Video astronomy, 103, 99 A CCD video camera, 107, 47 |
|
Elliott, S.W.H. |
The adjustment of an equatorial, 62,
193, 284 |
|
Ells, J.W. |
The 'Hill–Poncet' heated
observatory: a 'rocking-type' equatorial, 89, 66 |
|
– & Ells, P.E. |
A simple automatic photoelectric
telescope, 99, 282; 100, 24 |
|
Ellis, P.E. |
Mounting a flat in a Newtonian
reflector, 93, 136, 234 A microcomputer-assisted
photoelectric photometry system, 96, 204 |
|
Enescott, J. |
Colour transparencies, 72, 409 |
|
Entwisle, L. |
All-sky camera for fireball
photography, 112, 94 |
|
Evans, N.S. |
Automation of solar eclipse
photography, 109, 73 |
|
Evans, R.W. |
A simple but accurate photoelectric
photometer, 81, 199 |
|
Evans, S.J. |
Meteor photography, 102, 336 Meteor photography and spectrography,
103, 151 Experiments in digital meteor
astrometry, 108, 204 |
|
– et al. |
A Perseid meteor spectrum, 101,
331 The spectrum of a Perseid meteor, 103,
27 The construction of large-format
cameras for meteor photography, 104, 287 |
|
Fahy, E.M. |
A lunar horizontal telescope, 66,
102 |
|
Farrant, M. |
A method of mounting a prism, 77,
365 An ironmonger's mounting for a small
telescope, 78, 236 A simple tripod – with
'something special', 78, 400 A weightlifter's mounting, 79,
232 A Foucault tester (and other
matters), 80, 470 |
|
Fawdon, P. et al. |
A lensless Schmidt camera, 99,
292 |
|
Fea, K. |
Design for remote operation of a
small reflector, 69, 189; 70, 90 |
|
Feist, M. |
Astronomy and the camera obscura, 110,
25 |
|
Fellgett, P.B. |
Astronomical observation systems, 82,
257 |
|
Ferris, G.A.J. et al. |
Aluminised filters for solar
photography, 79, 376 |
|
Firsoff, V.A. |
On the use of colour filters in
visual observation, 72, 289 Rotating filter holders, 76,
364; 77, 135, 370 |
|
– et al. |
Colour filter report, 74, 139 |
|
Fisher, N. |
A simplified method for designing an
18-point flotation system for primary mirror cells, 105, 309 |
|
Fitton, L.E. |
Atmospheric refraction and spurious
colour, 86, 421 A photoelectric lunar scanner, 89,
465 |
|
Fleet, R. |
A tale of two telescopes, 111,
218 |
|
Fletcher, D. |
Crayford eyepiece mounting, 88,
412 |
|
Fletcher, J.R. |
T-Max 3200 film, 98, 307 Where all the light goes, 102,
314 Testing telescope mirrors for
micro-ripple, 103, 184 On the relative merits of telescopes,
103, 216 A daylight test for small telescopes,
103, 218 |
|
Foley, P.W. |
Lunar photography, 92, 241 |
|
Ford, H. |
Spectroscopy with simple equipment, 86,
5 |
|
– et al. |
Photographic Ronchi gratings, 76,
125 |
|
Friends, J. |
Limits of magnitude penetration with
small instruments, 63, 279 |
|
Frydman, D.H. |
The danger of using photographic
lenses as telescope eyepieces, 97, 75 Radioactive lenses as eyepieces, 98,
309 Radioactive lenses, 99, 57 Experiences with telescopes, 102,
128 Telescopic limiting magnitudes, 109,
92 |
|
Fulford-Jones, R. et al. |
An investigation into the use of
colour filters in visual observation, 72, 163 |
|
Gabriël, A. |
A narrow-band H-alpha telescope for
visual and photographic solar observations, 86, 140 |
|
Gadsden, M. |
A cheap Maksutov camera, 64, 36 Some properties of a reflecting
eyepiece system, 64, 274, 296 Photography of aurorae, 67,
128 Narrow-band H-alpha filter for solar
work, 85, 169 A reflecting all-sky cameras, 88,
570 Films for auroral colour photography,
89, 394 Halation, not diffraction, 98,
340 |
|
Garstang, R.H. |
Composite photography of polarised
objects, 66, 343 |
|
Gavin, M.V. |
A novel 530-mm flux collector, 89,
214 A reflective spectroscopic slit and
its application, 91, 261 Spectroscopy, 92, 243 Spectroscopy for amateurs, 92,
271 Light pinching, 95, 38 A hardhat portable telescope, 97,
238 Amateur spectroscopy, 97, 300 Amateur spectroscopy – some
areas for experiment, 98, 214 The Crawford–Dobsonian mount, 98,
268 A blinkered view of large telescopes,
98, 273 Optical configurations and origami, 99,
162 CCD imaging, 101, 235 Emulsions for astrophotography, 101,
329 Deep-sky CCDs, 102, 235 A method of focusing a telescope, 102,
245 CCD photometry, 104, 143 Tri-colour image generation: a new
approach, 105, 316 Stellar spectroscopy with CCDs
– some preliminary results, 106, 11 Star colours with a CCD camera, 106,
287 Amateur observatories, 107,
177 Using a Barlow lens and focal
reducer, 107, 238 Amateur spectroscopy, 108, 137 Supernova 1996bu – an amateur
spectrum, 108, 225 Spectrum of a Wolf–Rayet star, 108,
330 Amateur quasar spectrum shows
expansion of the Universe, 109, 8 Tracking down targets by their
chemical signature, 109, 40 Permanent pier for a Meade LX200 SCT,
109, 155 Spectra of SN1999by, 109, 177 Spectra of Wolf–Rayet stars and
planetary nebulae, 109, 320 Spectra of Nova Aquilae 1999 no.2
(V1494 Aql), 110, 55 Recent results in spectroscopy, 110,
97 Changing spectrum of Nova Aquilae
1999 no.2 (V1494 Aql), 110, 217 Low-cost videoing at the telescope, 112,
12 |
|
– et al. |
A lensless Schmidt camera, 99,
292 |
|
Glasspool, D.R. |
An altazimuth stand for a 10.5-inch
reflector, 55, 18 |
|
Goldsmith, S. |
CCD images of the Sun and the deep
sky, 110, 286 |
|
Gould, J.A. |
Collimation of binoculars, 80,
500 The large German binoculars of World
War II, 85, 393 Video techniques applied to a
telescope, 92, 69 Photography with an image
intensifier, 92, 276 |
|
Gouldstone, T. |
A simple telescope cover, 97,
75 |
|
Graham, D. |
The visual/CCD debate, 111, 47 |
|
Granger, W.A. |
An observing ladder with easily
adjustable seats, 60, 72, 107 A sidereal time calculator, 63,
113 An observing lamp and desk, 63,
115 |
|
Grayer, G.H. |
A note on simplifying driven
telescopes, 80, 380 |
|
Greaney, M.P. |
True field of an eyepiece, 105,
242 |
|
Greenwood, J.D. et al. |
Conder Brow Observatory, 96,
83, 111 |
|
Griffin, R.F. |
Atmospheric refraction and spurious
colour, 86, 165 'Improvements' to photography, 94,
282 Identification of solar-spectrum
lines, 107, 225 |
|
Haig, G.Y. |
A stellar spectrograph, 85,
408 A new use for old mirrors, 86,
164 Camera equatorial table, 89,
398 Astronomical clocks, 98, 181 Some alternative spectrohelioscope
designs, 108, 330 Alternative spectrohelioscope
designs, 109, 41 |
|
Hanssen, J.S. |
A high-speed, flat-field photovisual
optical system for amateur telescope makers, 92, 267 |
|
– et al. |
Quick-look photo-astrometry with a
linear micrometer, 95, 62 |
|
Hargreaves, F.J. |
Protecting silver coatings on
mirrors, 51, 46 An improved cover for astronomical
mirrors, 51, 83 A note on the Hartmann criterion, 51,
121 A modified Newtonian telescope, 52,
226 Lacquering silvered mirrors, 54,
132, 141 Flat mounting for reflectors, 56,
115 A spurious aberration in reflecting
telescopes, 59, 180 Note on F.H. Thornton's paper on the
mounting of a Barlow lens, 60, 81 Convex backs for telescopic mirrors, 63,
41 |
|
Harlick, M. |
Some experiments on observing in the
ultraviolet, 76, 177 |
|
Harlow, M. |
Computerised tracking with a Schmidt,
96, 145 An interference test for Schmidt
cameras, 104, 90 |
|
Harris, D.J. |
An observatory dome, 88, 325 |
|
Harris, G. |
An economical telescope, 84,
467 |
|
Harris, N.O. |
A 6-inch reflector on polar disk
mounting, 78, 458 Transport of a telescope, 92,
42 Scheiner test diagrams for setting an
equatorial head, 95, 32 |
|
Harrison, K.M. |
Blink comparison, 87, 94 A method of radially supporting large
mirrors, 87, 154 |
|
Harvey, P. |
Simple and effective cross-wire
construction, 87, 90 |
|
Hatfield, H.R. |
Astrophotography with a 6-inch
Newtonian reflector, 75, 246 Lunar photography for beginners, 76,
90 Copying prints onto slides, 78,
174 Making slide from prints, 79,
36 An equatorial mount and drive, 82,
249 Photography of the Moon and Venus, 82,
252 Solar eclipse camera, 83, 169 Photography of Titan, 84, 254 On building a spectrohelioscope, 85,
206, 314 A spectroheliographascope, 86,
109 Solar photography, 87, 566 An encounter with spherical
aberration, 88, 224 Variable frequency drive, 91,
113 Magnification: how much is enough?, 92,
81 An introduction to transistors and
diodes, 92, 187 Mounting a flat in a Newtonian
reflector, 93, 234 The (new) Sevenoaks
spectrohelioscope, 97, 245 The Sevenoaks spectrohelioscope, 98,
342 Solar radio telescopes at Sevenoaks, 100,
157 A new slit mechanism for a
spectrohelioscope, 103, 203 Modifications to the Sevenoaks
spectrohelioscope, 104, 236 |
|
Hay, W.T. |
Comet positions by cross-bar
micrometer, 52, 29 |
|
Heath, A.W. |
Photography of the planet Venus, 72,
278 On the use of colour filters in
visual observation, 72, 292 A very simple observatory, 75,
63 Photoelectric photometry for amateur
astronomers, 94, 241 The visual/CCD debate, 111, 47 |
|
Hedley Robinson, J. |
On the use of colour filters in
visual observation, 72, 291 Invasion by washing water, 87,
435 The use of colour filters in
planetary observation, 90, 434 The apodising screen, 99, 45 |
|
Hemphill, P.M.R. |
Mounting a flat in a Newtonian
reflector, 93, 37 Adjustment of the polar axis of an
equatorial mounting, 107, 46 |
|
Hendrie, M.J. |
Observatories for the amateur, 74,
212 Establishing the reality of objects
on astronomical photographs, 75, 351 The blink comparator, 76, 276 A large telescope for positional
work, 76, 338 The reversed pinhole camera for
partial solar eclipse, 94, 244 A run-off roof observatory, 104,
300 |
|
Herbert, M.K. |
Design and construction of 'Astraea'
roll-off roof observatory, 109, 25 |
|
Hers, J. |
Controlled frequency supply for a
telescope drive, 88, 149 |
|
Hewick, G. |
Ellipsoidal primary mirror[s] for low
powers, 83, 61 |
|
– et al. |
A two-mirror zero-power aplanat, 92,
95 |
|
Hewitt, E.S. |
Sunspot projection screen, 86,
93 |
|
Hewitt, N.D. |
Filters and the deep-sky observer, 103,
148 |
|
Higgins, L.J. |
Printed circuit board etching, 90,
479 |
|
Higgs, J.R. |
A mirror cell for a Newtonian, 93,
265 |
|
Hill, E.G. |
A home-made 24-inch reflector and
warmed observatory, 73, 318, 328 |
|
Hill, H. |
An amateur's spectrohelioscope, 78,
342 |
|
Hilton, J. |
The resolving power of telescopes: an
exercise in public research, 91, 167 Comparison of the performance of
telescopes, 93, 95 |
|
– et al. |
Results of the project for the
comparison of the performance of astronomical telescopes, 92, 265 |
|
Hindley, K.B. |
Fireball photography, 87, 120 |
|
Hinds, D.G. |
Steel-faced grinding tools made of
cement, 66, 217 The size of the Newtonian flat, 67,
169 The care of aluminised surfaces, 71,
159 A sturdy equatorial head, 74,
37, 39 Comments on mirror figuring, 77,
77, 84 Aluminising, 80, 257; 81,
96 Mirror covers, 82, 176 Mirror coatings of silicon oxide, 84,
143 Personal equation, 87, 522 Sub-diameter tools, 95, 263 |
|
Hiscott, J. |
Polar axis clutch elimination, 82,
436 |
|
Hodgins, P.A. |
Focusing Schmidt–Cassegrain
telescopes, 100, 61 |
|
Hodgkinson, G.J. |
An inexpensive 76-mm aperture
telephoto lens suitable for astrophotography, 90, 283 |
|
Holborn, F.M. |
Setting an equatorial's polar axis, 53,
222 The beginner's telescope, 58,
2 Design and use of amateur telescopes,
65, 100 Observational techniques: visual
sensitivity and acuity, 65, 182 |
|
Hole, G.A. |
The construction of a cell for a
l4-inch telescope mirror, 51, 95 Some notes on optical work for the
help of beginners, 65, 352 |
|
Hollis, A.J. |
Crayford eyepiece mounting, 87,
517; 89, 191 Photoelectric photometry and the
amateur, 92, 44 Retiming a variable drive, 93,
265 Semi-automated photometry using a
microcomputer, 94, 136 Photoelectric photometers, 94,
269 Photometry of planets and satellites,
96, 263 Distortion of photographic lenses, 97,
11 Filters for photoelectric photometry,
97, 57 Electronics and safety in the winter,
97, 58 Photoelectric photometry: pulse
counting or direct current?, 97, 121 Filters for photoelectric photometry,
98, 38 Reporting astronomical observations, 100,
119 Photometry with CCD cameras needs
filters, 103, 285 Photoelectric photometry, 104,
40 Photoelectric photometry at Marton
Green – a retrospective of a decade's work, 105, 17 |
|
– et al. |
Photographic astrometry with short
focal length objectives, 96, 152 |
|
Honkanen, N.N. et al. |
A slow-motion crosshair drive for
long-exposure photography of fast-moving objects, 97, 90 |
|
Hook, R.N. |
Polar axis alignment requirements for
astronomical photography, 99, 19 |
|
Horn d'Arturo, G. |
The tessellated mirror, 63,
64, 71 |
|
Hornby, P.W. |
Light grasp in telescopes, 84,
220 |
|
Houghton, J.L. |
On increasing the field coverage of a
paraboloid mirror, 82, 475 |
|
Howarth, I.D. |
Light grasp in telescopes, 84,
220 |
|
Howarth, J.J. |
The Hewitt Camera Archive at
Crayford, 102, 343 |
|
Howse, H.D. |
Robert Brettell Bate, 103, 10 |
|
Hughes, D.W. |
Cassegrain and Coudé, 102,
314 |
|
Hughes, F.P. |
An elegant chronograph, 64,
173 |
|
Hunt, H.C. |
A home-made driving clock, 76,
224, 244 Photography of minor planets, 78,
175 Photography of eclipses, 79,
89 |
|
Hurst, G.M. |
Discovery and detection procedures, 108,
177 Vetting of possible astronomical
discoveries, 110, 160, 216 |
|
Hutchings, A.R. |
Mounting colour filters in a
draw-tube, 91, 188 |
|
Hyde, F.W. et al. |
An investigation into the use of
colour filters in visual observation, 72, 163 Colour filter report, 74, 139 |
|
Hysom, E.J. |
The long-term stability of telescope
disks, 75, 332 Metrication – a plea, 81,
152 A simple Cassegrain–Newtonian
telescope, 82, 170, 204 Air currents above mirrors, 82,
250, 274 Optical tolerance, 83, 246 Astrophotographic methods, 83,
325 Telescope drives, 84, 325 A low-cost temperature-compensated
mirror cell, 86, 504 |
|
Isles, J.E. |
Photoelectric photometry, 84,
65 |
|
Jackson, F.L. |
Lunar photography with an undriven
telescope, 70, 160 |
|
James, N.D. |
Solar photography with a small
telescope, 100, 251 Eyepiece projection, 103, 95 Some applications for amateur CCD
cameras, 104, 157 High-speed CCD photometry, 106,
171 |
|
James, S. |
The eye and the astronomer, 103,
147 Spotting visual defects, 104,
8 |
|
Jarman, J.H. |
Photography with a simple camera
mount, 86, 90 |
|
Jenkins, A. |
A 280-mm Cassegrain–Newtonian, 84,
172 |
|
Jenkins, F.C. |
A home-made Maksutov, 87, 197 |
|
Jewell, P.S. et al. |
Uprating of film for astrophotography,
75, 243 |
|
Johnstone, G.F. |
A simple aid to focusing for
prime-focus photography, 93, 128 Comparison of two films, 93,
274 Hypersensitisation of film for
astrophotography using pure hydrogen, 94, 224 |
|
Jones, H.D. |
Simulating stereoscopic vision, 102,
316 |
|
Keedy, D.R. |
Observations through closed windows, 98,
111 |
|
Keitch, G.S. |
Visual comet photometry, 93,
200 |
|
Kelly, H.L. |
Note on W.L. Shepherd's paper on a
polar fork mounting, 60, 202 |
|
Kent, F. |
The Barlow lens, 92, 247 Sidereal clocks, 98, 113 |
|
King, H.C. |
The principles underlying fields of
view, 65, 293 |
|
Kirby, G.J. |
A simplified cross-bar micrometer, 79,
162 The telescopic resolution of disk
light sources, 80, 130 Digital stopwatches, 90, 283 |
|
Knight, B. |
An efficient gearless telescope
drive, 90, 45 |
|
Knox, R.A. |
Invertor circuits and motors for
clock drives, 82, 182 |
|
Kucinskas, A. |
The Vilnius multicolour photometric
system for amateurs, 100, 191 |
|
Kunesch, A.M. |
Carborundum, 53, 214 |
|
Lander, A. |
A binocular microscope as a telescope
eyepiece, 52, 127 |
|
Langley, A. |
Recording the Moon with a video
camera, 107, 106 |
|
Large, F. |
Meteor photography, 80, 62 |
|
Lawlor, F. et al. |
Norwich Astronomical Society's observatory:
rebuild of telescope and upgrade to drive control, 108, 331 |
|
Laycock, P.A. |
Narrow-band H-alpha filter for solar
work, 85, 169 |
|
Lee, S. |
Glasses for photometric filters, 97,
199 |
|
Lewis, M. |
The building of Fossil Light: a 46-cm
lightweight Dobsonian reflector, 109, 247 |
|
Linfoot, E.H. |
Coma and the Abbe sine condition, 51,
279 |
|
Livesey, R.J. |
A solar projection screen, 78,
282 The distribution of cloud and its
effect on observing, 81, 292 A jamjar magnetometer, 92,
278; 93, 17 Visual spectroscopy, 96, 84 Moon through the looking-glass, 106,
214 'Optical Lever', 106, 294 The jamjar magnetometer, sixteen
years on, 109, 144 |
|
Lloyd Evans, T. et al. |
Observations of meteor spectra, 76,
213, 229 |
|
Lord, C.J.R. |
Constructing a beginner's telescope, 82,
116 Polar axis alignment of equatorial
instruments, 88, 513 Astrophotography exposure time
nomogram, 89, 273 A compensating low-power ocular for
Maksutov telescopes, 91, 404 A two-mirror zero power aplanat, 91,
593 The Greenwod observing chair, 92,
198 The Barlow lens, 92, 280 Comparison at coincident beats for
rating a sidereal clock, 95, 185 Coincident beats and the rating of
chronometers, 96, 145 Microfiche film as a filter, 98,
181 Accuracy of sidereal clocks, 98,
273 Brayebrook Observatory, 100,
47; 101, 42 The relative merits of telescopes, 102,
196 On the relative merits of telescopes,
103, 216; 104, 90 |
|
Macdonald, L. |
Simple lunar photography, 100,
60 Nebular filters for small telescopes,
105, 47 |
|
Macvey, J.W. |
A practical astronomical observatory,
77, 331 |
|
Malin, D. |
A masking technique for astronomical
photography, 88, 362 |
|
Manning, B.G.W. |
Binoculars, 81, 154 Aluminising, 81, 327 Astigmatism in reflecting telescopes,
82, 309 Ellipsoidal primary mirror for low
powers, 83, 144 A ruling engine, 85, 5 A glass-fibre dome for a 265-mm f/8
reflecting telescope, 85, 245 Effective focal ratio, 85, 283 A glass-fibre dome for a 265-mm f/8
reflecting telescope, 86, 93 A new design of spectrohelioscope, 90,
81 Effective focal ratio, 91, 188 Photographs with a cooled camera, 92,
81 A new spectrohelioscope, 92,
112 Distortion of photographic objective
lenses, 96, 263 A ratchet drive for comet tracking, 96,
325 Reciprocity failure, background light
and Tri-X, 97, 322 Distortion by lenses, 98, 40 More on emulsions for
astrophotography, 98, 180 Reciprocity failure and hypering, 99,
56 Photographic emulsions and
temperature effects, 101, 142 Tips for mirror polishers, 103,
10 A 203-mm diameter Wright camera, 103,
294 CCD astrometry, 104, 142 Solar Fraunhofer lines with a
diffraction grating, 108, 292 |
|
Marcus, J.N. |
Photometry of close-approach comets, 92,
193 |
|
Maris, G. |
The 'marigoround' – a new
binocular observing seat, 94, 174 |
|
Marlow, A. & Marlow, P. |
The construction of a 250-mm
telescope, 83, 19 |
|
Marriott, R.A. |
Carl Zeiss of Jena, 102, 177 Coudé, couder, Cassegrain and
Bate, 103, 62 Meeting of the Instruments and Imaging
Section, Northampton, 1995 May 13, 105, 320 Meeting of the Instruments and
Imaging Section – CCD Symposium II, Winchester, 1995 May 27, 106,
46 BAA Instrument No.3, 106, 105 The BAA instrument collection, 108,
117 Nineteenth-century eclipses and early
photography, 109, 163 Observing with a Browning prominence
spectroscope, 109, 218 |
|
– et al. |
The construction of large-format
cameras for meteor photography, 104, 287 |
|
Marsh, J.C.D. |
Observing the Sun in safety, 92,
257 Some aspects of lunar photography
with an 8-inch Schmidt–Cassegrain telescope, 102, 81 |
|
Martin, J. |
Mathematical method for identifying
lines in stellar spectra, 109, 22 Cassiopeia: a set of observations with
a Rainbow Optics star spectrocope, 111, 156 |
|
– et al. |
Photographic and mathematical method
for recording and identifying lines in a solar spectrogram, 107, 141 |
|
Martin-Smith, M. |
Importing direct from the USA, 101,
211 |
|
Martys, C.R. |
A method of blink comparison using
standard 35-mm photographic equipment, 86, 277 A home-made Schmidt telescope, 90,
112 Making films more efficient for
astronomical photography, 92, 7 Some aspects of Schmidt photography, 93,
83 Emulsions for astrophotography, 98,
113 Deep-sky photography: T-Max or
Technical Pan?, 101, 223 Emulsions for astrophotography, 102,
14 |
|
Mason, J.W. |
Comparison of the performance of
telescopes, 93, 179 Solar eclipse filters, 109,
287 |
|
Mathers, S.W. et al. |
Aluminised filters for solar
photography, 79, 376 |
|
Maunder, M.J. de F. |
Photographic emulsions and
development, 87, 438 An audio-metronome, 88, 219 An electronic metronome for
astrophotography, 90, 48 An even simpler electronic metronome,
90, 282 Anti-corrosion mountings for
Newtonian mirrors and flats, 93, 81 Hypersensitisation of films, 94,
233 Ideas for novel telescope systems for
amateur use, 95, 175 Radioactive lenses, 99, 57 D19b developer – the last
word?, 100, 57 A new approach to photography, 100,
154 Proposal to test film/telescope
combinations, 102, 130 Photography is not yet dead!, 103,
270 Photographing conjunctions and
appulses, 106, 234 Cold climate photography, 106,
335 Equipment for the eclipse, 109,
160 A cautionary tale, 110, 93 |
|
Maxwell, J. et al. |
A two-mirror zero-power aplanat, 92,
95 |
|
Maycock, P.J. |
In appreciation of the Barlow lens, 54,
143 |
|
McAdam, D. et al. |
Photographic astrometry with short focal
length objectives, 96, 152 |
|
McCartan, D.G. et al. |
A stepping motor drive for small
telescopes, 85, 324 |
|
McKim, R.J. |
Lunar photography made simple, 99,
305 The BAA and CCD photometry, 105,
155 Building a 40-cm telescope and an
observatory, 110, 214 |
|
Meares, O.M. |
Safety and electric telescope drives,
81, 71 |
|
Medway, K.J. |
Narrow-band H-alpha filter for solar
work, 84, 468; 85, 452 |
|
Melotte, P.J. |
Photography with short-focus lenses, 56,
3 |
|
Merton, G. |
Blooming of lenses, 64, 279 |
|
– et al. |
A case of differential refraction, 60,
113 |
|
Middleton, R.W. |
A cheap observatory, 78, 105 |
|
Mikuz, H. |
Astrophotographic experiences with
the flat-field Schmidt–Cassegrain optical system, 100, 224 |
|
Miles, P. |
Clear sky detection with a
compensation pyrgeometer, 110, 143 |
|
Miles, R. |
The eye and the observer, 98,
380 The autoguiding of telescopes, 104,
271 UBVRI photometry using CCD cameras, 108,
65 Liverpool Telescope, 110, 61 What could you do with a 2-metre
telescope, 110, 155 |
|
– et al. |
Photographic astrometry with short
focal length objectives, 96, 152 |
|
Millar, D.W. |
An 8.5-inch reflector, 56, 30 |
|
Mills, A.A. |
A quartz sidereal clock, 92,
97 Heliostats, siderostats and
coelostats, 95, 89, 270 Instruments for solar observation, 97,
304 |
|
Mills, H.R. |
Effective focal ratio, 90, 584 A simple mounting for binoculars or a
small refractor, 92, 144 Universal Barlow diagram, 93,
81 |
|
Missira, A. |
An inexpensive focusing mount, 108,
283 |
|
Mitchell, B. |
An inexpensive equatorial head
bearing, 77, 201 Rayleigh's water test for optical
flats, 83, 303 A Sun projector, 84, 46 The Norwich Observatory, 84,
469 The Norwich Observatory dome, 90,
164 |
|
– et al. |
Norwich Astronomical Society's observatory:
rebuild of telescope and upgrade to drive control, 108, 331 |
|
Mitton, J. |
The stronger absorption lines in the
solar sepctrum – an identification list, 85, 238 Telescopic limiting magnitudes, 109,
42 |
|
Mobberley, M.P. |
A run-off shed observatory, 93,
156 Lunar photography, 94, 237 CCD cameras, 98, 178 Put more life into your lunar
photographs, 98, 233 Importing direct from the USA, 101,
80 Comparing T-Max 400 and hypered
TP2415, 102, 79 CCD photometry, 104, 202 Interfacing a Canon lens to a
Starlight Xpress MX5-C CCD camera, 111, 167 LX200 telescope failures, 112,
186 |
|
Montgomery, P. et al. |
A 380-mm telescope, 87, 441 |
|
Moore, E.G. |
Safety and electric telescope drives,
80, 405 Glass filaments for eyepiece
cross-wires, 82, 42 A compact run-off roof observatory, 84,
275 Condensation on mirror surfaces, 84,
302 The determination of personal
equation, 88, 377 |
|
Moore, G.K. |
A Calver mirror remounted, 87,
478 |
|
Moore, P.A. |
Colour filters in planetary
observation, 73, 212 Movable observatories – a
warning, 79, 78 |
|
– et al. |
On the use of colour filters, 72,
409 Colour filter report, 74, 139 |
|
Moseley, R.C. |
Double stars: a photographic
approach, 99, 112 |
|
– et al. |
An experiment in double-star
photography, 99, 237 |
|
Moseley, T. |
Adjustment of the polar axis of an
equatorial mounting, 107, 107 |
|
Mostert, H.E. |
A clear-sky detector using reflected
artificial light, 93, 205 |
|
– et al. |
How to automate a 35-mm all-sky camera
for an automatic fireball network, 93, 11 |
|
Muirden, J. |
Ellipsoidal primary mirror for low
powers, 82, 386; 83, 61 |
|
Nartowicz, I.P. |
Myopia, 92, 195 |
|
Naylor, T. |
CCD photometry and the professional
community, 104, 312 |
|
Neville, R.J. |
Red-filter prints of the North
America Nebula, 99, 304 A simple sky photometer, 100,
9 A cheap but accurate densitometer, 100,
79 Sensitometry and densitometry, 100,
252 A comparison of the detective
efficiency of some films used in astrophotography, 100, 287 Temperature and reciprocity failure, 101,
262 CCD Astronomy Symposium, Winchester,
1993 October 16, 104, 44 The Instruments and Imaging Section, 104,
189 Colour coding of intensity levels in
CCD images, 105, 138 Faint-image detectivity: CCD versus
film, 107, 199 Meeting of the Instruments and
Imaging Section, Northampton, 1998 May 30, 108, 287 Telescopic limiting magnitudes, 109,
42 Meeting of the Instruments and
Imaging Section, Northampton, 1999 May 15, 109, 292 Meeting of the Instruments and
Imaging Section, Northampton, 2000 May 6, 110, 292 Meeting of the Instruments and
Imaging Section, Northampton, 2001 May 26, 111, 292 |
|
– et al. |
Meeting of the Instruments and
Imaging Section: CCD Symposium, RAL, 1999 September 11, 110, 52 |
|
Newman, C. |
Telescopic limiting magnitudes, 109,
42 |
|
Newman, W.H. |
A new silvering process, 64,
137 The Tolles eyepiece, 65, 108 Testing mirrors, 66, 72 |
|
Newsam, A. |
Liverpool Telescope, 110, 153 |
|
Nichol, J.R. |
Controlling a telescope with a microcomputer
and stepper motors, 98, 276 |
|
– et al. |
Constructing grinding and polishing
machines, 102, 198 |
|
Nightingale, H.C. |
Light grasp in telescopes, 84,
220 |
|
North, G.S. |
An even simpler electronic metronome,
90, 282 Better formula for telescopic
limiting magnitudes?, 107, 82 Amateur spectroscopy, 108, 293 .Telescopic limiting magnitudes, 109,
92 |
|
Page, A. & Page, B. |
Multiple exposure techniques in
flare-star photography, 79, 26, 242 |
|
Paterson, R.A.H. |
Light grasp in telescopes, 83,
306 An observing hood, 84, 141 Light grasp in telescopes, 84,
220, 471 |
|
Payne, R.W. |
Visual photometry of Titan, 81,
123 Photometry of Iapetus, 81, 193
|
|
Pearce, G.S. et al. |
Astrophotography for beginners, 90,
148, 369; 91, 26 |
|
Pearce, T. |
Drawing and the amateur astronomer, 74,
206 |
|
Peek, B.M. |
Note on F.J. Hargreaves' paper
'Protecting silver coatings on mirrors', 51, 47 Design and use of amateur telescopes,
65, 102 A 10-inch short-focus reflector, 68,
134 |
|
Peel, M. |
A photoelectric photometer, 94,
152 |
|
Peel, R. |
A home-made electric drive for a
3-inch equatorially mounted telescope, 78, 99 |
|
Pennell, W.E. |
Use of modern 35-mm panchromatic
films for magnitude determination, 80, 371 Visual magnitude photographs on
35-mm, 80, 500 Optical adjustments of a Newtonian
reflector, 81, 149 PStellar and nebular amateur
photography, 81, 258 Latent sub-images, 81, 485 Light grasp in telescopes, 83,
463; 84, 468 Photography of galaxies and nebulae, 85,
388 Photographic observations of the
spectrum of Nova Cygni 1975 with an objective prism, 86, 246 Stellar photography simplified using
a frequency interval timer, 87, 95 |
|
Perkins, P. |
Astronomical photography, 112,
218 |
|
Perry, F. |
Predictor telescopes, 59, 184 |
|
Peston, M. et al. |
Photographic and mathematical method
for recording and identifying lines in a solar spectrogram, 107, 141 |
|
Pettitt, D.O. |
A fluxgate magnetometer, 94,
55 |
|
Pickard, R.D. |
Getting started in photoelectric
photometry, 97, 14 The Jack Ells Automatic Photoelectric
Telescope, 100, 278, 246; 104, 123 Photoelectric photometry of variable
stars, 108, 179 |
|
Pigott, C.K. |
How I made a Tolles eyepiece, 98,
49 |
|
Pinnock, H. |
Notes on the construction of a 6-inch
Maksutov telescope, 56, 124, 130 |
|
Pither, C.M. |
Some remarks on the use of filters, 72,
355 |
|
Plasencia, R. |
Telescopic limiting magnitudes and
the exit pupil, 109, 220 |
|
Platt, T.C. |
Two economical transistor inverter
circuits for speed control of synchronous motor clock drives, 80, 270 CCD cameras, 98, 178 Practical CCD astronomy, 102,
114 Astronomical colour imaging –
notes on a new technique, 105, 113 Saturn, silicon and sheep sprinklers:
experiments in planetary imaging, 109, 157 |
|
Plummer, D. |
A telescope driving machanism, 74,
16 |
|
Poitevin, P. |
Photography in cold conditions, 106,
111 |
|
Potts, R.W. |
The fate of old telescopes, 80,
234 |
|
Poyner, G. |
Telescopic limiting magnitudes, 109,
93 |
|
Pratt, A.R. |
Recording meteors with low-light
video cameras, 112, 317 |
|
Pressman, R.E. |
An experimental compound reflecting
telescope, 57, 223 |
|
Pugh, H.L. |
Simple linear drives for polar and declination
axes, 78, 268 The Polaroid system for astronomical
photography, 79, 94 |
|
Putner, T.I. et al. |
The design of telescope mirror
aluminisers, 83, 341 Mirror coatings of silicon oxide, 84,
143 |
|
Pye, D. |
Rayleigh's water test: an easy test for
optical flats, 83, 10 |
|
Rackham, T.W. |
A lunar camera, 66, 46, 61 |
|
Radley, C.F. |
A Suffolk observatory, 83, 225 |
|
Ralphs, F. |
The dynameter, 81, 488 |
|
Ransom, I. |
How to send instruments safely, 96,
142 The relative merits of telescopes, 102,
15 |
|
Rathbone, P. |
An acclimatisation fan for Newtonian
reflectors, 103, 131 |
|
Ray, S. |
The contribution of telescope design
to nineteenth-century camera lenses, 101, 198 |
|
Reed, K.W. |
Observing in towns, 97, 325 |
|
Reid, C.D. |
Cleaning silver mirrors, 65,
119 |
|
Richmond, M.W. |
CCD photometry and the professional
community, 104, 312 |
|
Rickwood, T. |
Gillingham magnetometer, 108,
147 |
|
Ridley, H.B. |
Spectrogram of a meteor, 65,
70 Meteor spectra, 76, 229 Comet photography, 92, 244 The photography of comets, 95,
8 Photography of Halley's comet, 95,
81 Comparison at coincident beats, 96,
11 Photographing the occultation of 28
Sgr by Titan, 1989 July 3, 99, 214 Kodak developer D19b, 100, 7 The spectrum of a sporadic fireball, 104,
32 |
|
– et al. |
A Perseid meteor spectrum, 101,
331 The spectrum of a Perseid meteor, 103,
27 |
|
Ridpath, I. |
Starting your own photographic
processing, 84, 58 |
|
Ringwood, S.D. |
Full-aperture solar photography for
reflectors, 90, 429; 91, 91 |
|
Robertson, R.A. |
Simple photography using a knife-edge
focusing technique, 78, 51 |
|
Robson, D. |
Kodak developer D19b, 99, 273;
100, 56 |
|
Rogers, J.H. |
The visual/CCD debate, 111, 47 |
|
Ronan, C.A. |
Markowitz Moon camera, 67, 154 Colour photography, 72, 113 The origins of the reflecting
telescope, 101, 335 |
|
– et al. |
A 'Digges Telescope', 103, 9 |
|
Ropelewski, M.J. |
The design and construction of a
run-off roof observatory, 102, 132 |
|
Royle, G. |
A 150-mm Newtonian telescope, 83,
439 |
|
Ryves, P.M. |
Long photographic exposures, 52,
114 An inexpensive home-made telescope, 52,
125 Design and use of amateur telescopes,
63, 146 |
|
Salmon, G. |
Making a clear-sky detector to
Patrick Miles' design, 112, 44 |
|
Salter, D.C. |
To determine the focal length of
specialised mirrors, 85, 124 |
|
Samson, W. et al. |
Photographic Ronchi gratings, 76,
125 |
|
Sanford, J.R. |
Testing a chromogenic film for
astrophotography, 92, 196 |
|
Sartory, P.K. |
A method of rendering obvious small
differences of colour or contrast observations, 75, 77, 98 Rotating filter holders, 77,
59 |
|
Satterthwaite, G.E. |
Effective focal ratio, 85, 283 |
|
– et al. |
A 'Digges Telescope', 103, 9 |
|
Saw, D.R.B. |
Anti-corrosion mountings for
Newtonian mirrors and flats, 93, 81 |
|
Scagell, R.S. |
Small telescope standards, 84,
224 Colour emulsions, 88, 4 Limiting magnitudes with fixed-camera
photography, 91, 403 Beginners' telescopes, 95, 233 Some opinions on telescopes, 101,
318 The relative merits of telescopes, 102,
15 |
|
– et al. |
Astrophotography for beginners, 90,
148, 369; 91, 26 |
|
Scott, N.W. |
Inexpensive finder for solar
observing, 93, 38 |
|
Seiden, P. et al. |
Meeting of the Instruments and
Imaging Section: CCD Symposium, RAL, 1999 September 11, 110, 52 |
|
Sellers, F.J. |
Colour, 51, 322 A hydrogen monochromator or H-alpha
filter, 52, 242 The spectroscope, 53, 3 Solar projection with a diagonal, 58,
218 SA portable and rigid altazimuth
mounting for Newtonian reflectors, 62, 204 An efficient and easily constructed
observing chair, 63, 36 |
|
Sheldrake, F. |
Coated lenses in optical instruments,
58, 191 |
|
Shepherd, J. |
A simple calculator for variable star
reductions, 72, 224 Meteor photography with small
cameras, 87, 606 |
|
Shepherd, W.L. |
A polar fork mounting, 60,
200; 61, 26 |
|
Simmons, D.A.R. |
A study of auroral emissions by
interference filter photography, 95, 252 Auroral photography at high latitudes,
98, 93 |
|
Sinden, D. |
Coating astronomical mirrors, 97,
256 Massive optics at Grubb Parsons, 109,
339 |
|
Smart, K.C.E. |
Mirror-testing interferometry with
simple equipment, 93, 35 |
|
Smith, J.W. |
A remotely controlled CCD camera for telescope
guidance and imaging, 102, 276 |
|
Smith, L.J. |
A home-built observatory, 97,
300 |
|
Smith, T.J. |
Looking into Tolles, 98, 166 |
|
Snook, A. |
A rotating roof observatory, 88,
481 |
|
Soper, H.R. |
Automatic photography of bright meteors
and spectra, 104, 27 |
|
Spry, F.R. |
A 150-mm from scrap, 86, 188,
285 |
|
Steavenson, W.H. |
Low powers and wide fields, 51,
119, 134 Colour, 51, 324 The capabilities and limitations of
small instruments, 56, 139 Solar projection with a diagonal, 58,
280 Colour correction of object glasses, 61,
37 Actinic focus of refractors, 63,
48 Odd sizes of reflecting telescopes, 63,
48 Finders, 63, 136 A note on J. Friends' paper on limits
of magnitude penetration with small instruments, 63, 280 A note on H. Welsh's note on ring
sights, 63, 281 Dawes' formula, 63, 351 Design and use of amateur telescopes,
65, 97 Conversion of a terrestrial
telescope, 66, 49 Focometry, 68, 245 Seeing, 70,
204 |
|
– et al. |
A case of differential refraction, 60,
113 |
|
Stebbings, J. |
More observing through closed
windows, 98, 182 |
|
Steele, R.M. |
Swing-back hut for a telescope, 108,
210 |
|
Steigmann, G.A. |
Computer drawing of planetary
outlines, 112, 35 |
|
Stephenson, G.E.B. |
A Julian Date calendar [made with
cotton reels], 64, 175 |
|
Stevens, R.W. |
Home-built mirror cell for a 210-mm
Newtonian, 86, 47 |
|
Stevenson, P.R.F. |
A simple astronomical camera bracket,
85, 170 |
|
Stiff, C.G. |
A worm gear for a telescope drive, 90,
480 |
|
– et al. |
A 380-mm telescope, 87, 441 |
|
Stonebridge, K.F. et al. |
The construction of a richest-field
telescope, 58, 173, 206 |
|
Stuart, R.J. |
Photographing the Moon with XP1 400, 92,
275 |
|
Szymanek, N. |
Amateur astronomical imaging from La
Palma, 106, 349 |
|
Tatum, J.B. |
The discovery of novae by
photographers of artificial satellites, 71, 35 Some methods for aligning the polar
axis of a telescope, 89, 21 |
|
– et al. |
A slow-motion crosshair drive for
long-exposure photography of fast-moving objects, 97, 90 |
|
Taylor, G.E. |
The use of cross-wires in obtaining
positions, 69, 33, 64 Eypiece data for the observer, 88,
352 Telescopic limiting magnitudes, 109,
42 |
|
Taylor, M.M. |
A celestial pole locator for portable
telescopes, 91, 576 |
|
Teague, E.T.H. |
Better focusing for simple
photography, 100, 163 Visual stellar spectroscopy, 111,
102 |
|
Thom, A. |
Testing a hyperboloidal mirror for a
Cassegrainian telescope, 75, 322 |
|
Thompson, F.W. |
Accurate polar alignment of a
telescope, 108, 111 |
|
Thomson, J.V. |
A compact knife-edge apparatus for
the Foucault test, 54, 87 Optical work for the amateur, 70,
281 |
|
Thornton, F.H. |
A simple, governed electric drive, 58,
175, 204 Mounting the Barlow lens, 60,
50, 77 |
|
Towers, M.K.P. |
Flat mirrors for Newtonian
reflectors, 83, 304 |
|
Townsend, C. et al. |
Quick-look photo-astrometry with a
linear micrometer, 95, 62 |
|
Trafford, S.M. |
Focusing an SLR camera using the
knife-edge method, 105, 177 |
|
Trayner, C. |
Astronomy-friendly security lighting,
107, 91 |
|
Turk, C. |
A fine focuser for SCTs, 111,
114 |
|
Turley, J.E. |
Experiences with telescopes, 102,
128 |
|
Vand, V. |
The cleaning of mirrors before
aluminising, 53, 209 |
|
Veale, G. |
Halation rings again, 99, 58 |
|
Veio, F.N. |
A miniaturised spectrohelioscope, 85,
242 |
|
Verseau, R. |
A smooth sector lead-screw drive
system, 104, 222 |
|
Vezin, W.R. |
Polar axis alignment of equatorial
instruments, 88, 267, 513 Wavefront errors in the small lens
(Dall) null-test, 91, 510; 92, 145 |
|
Vincent, F. |
More observing through closed
windows, 98, 182 |
|
Wade, P. |
Lancaster's lost observatory, 102,
160 |
|
Walker, D. |
Modern methods for large optics, 108,
179 |
|
Walker, E.N. |
Photoelectric photometry for amateur
astronomers, 94, 124, 133, 241 The Joint European Amateur
Photometer, 96, 303; 97, 30 |
|
Walker, W.C. |
The dome shutter mechanism of the
Kingston High Scool Observatory, 64, 243 |
|
Wall, J. |
The Crayford
eyepiece mounting, 81, 118 Perspex lenses and mirrors, 88,
28 The Crayford eyepiece mounting, 88,
619 A non-skiaterical heliochronometer, 91,
491 The 'Bow Stave' eyepiece mount, 91,
508 Mirror polishing problems, 103,
109 Spotting visual defects, 103,
218 Active secondary mirror for star
field motion, 105, 82 Building a thirty-two inch (0.81m)
telescope, 106, 207 Practical application of transfer and
Fabry lenses, 108, 326 Building a 30-inch refractor, 112,
260 |
|
– et al. |
Constructing grinding and polishing
machines, 102, 198 |
|
Warner, B. |
The measurement of stellar
scintillation, 72, 177 The measurement of stellar magnitudes
using a recording microphotometer, 74, 99 |
|
Waterfield, R.L. |
Adjusting the orientation of a polar
axis, 90, 529 |
|
Watkis, C.J. |
A miniature spectrograph – its
construction and application, 86, 109, 280 Printed circuits, 90, 210 Printed circuit board etching, 90,
479 An observing seat, 92, 82 Light pinching, 94, 234 A dome of your own, 85, 389 |
|
Watkiss-Thomas, L.R. |
Maintaining an interest with
photography, 94, 37 |
|
Watson, F.G. |
An unusual spectroscope, 89,
396 Multi-object spectroscopy with
optical fibres, 93, 193 |
|
Watson, J. |
A tandem motor drive system in right
ascension, 95, 69 Making a sidereal clock, 97,
327 Accuracy of sidereal clocks, 99,
9 Photoelectric photometry and the
JEAP, 102, 269 |
|
Welsh, A. |
Some instructive work for small
refractors, 51, 242 An observing chair, 54, 126 A note on ring sights, 63, 280 Why drawings differ from photographs,
64, 51 |
|
West, E.J.M. |
Comparison of the performance of
telescopes, 93, 179 |
|
Westland, G.I. |
Another coordinate converter, 63,
340 |
|
Whippey, M.R. |
Narrow band filter telescopes, 86,
422 Narrow-band solar filters, 89,
91 |
|
– et al. |
Filter type solar prominence
telescope for amateurs, 89, 122 |
|
Whitaker, E.A. |
The Digges–Bourne telescope
– an alternative possibility, 103, 310 |
|
White, A.S. |
Eyepiece mounting, 91, 289 Astro-cameras, 91, 405 Unit-power 'finders', 97, 291 |
|
White, J.L. |
Daylight observations, 62,
232, 278 |
|
Whyte-Venables, J.G. |
The fate of old telescopes, 81,
154 Astigmatism in reflecting telescopes,
82, 139 |
|
Wildey, H. |
Predictor telescopes, 59, 126 Aluminising, 72, 94 Astro colour photography, 72,
288 |
|
– et al. |
The construction of a richest-field
telescope, 58, 173, 206 |
|
Wilkins, H.P. |
A thermal eyepiece, 54, 38 |
|
Wilkinson, A. |
Optical resolution, 76, 167 Metallic mirrors, 76, 409 An improved mirror-lens, 98,
312 |
|
Williams, B.J. et al. |
The design of telescope mirror
aluminisers, 83, 341 Mirror coatings of silicon oxide, 84,
143 |
|
Williamson, W.J.W. |
D. Verschoyle's 'anti-gravity'
device, 109, 41 |
|
Wither, P.B. |
Full-aperture solar photography for
reflectors, 91, 187 |
|
Witkowski, J. |
Distortion effects in visual
observation, 80, 152 |
|
Wood, R.C. |
A 12-inch Newtonian reflector, 57,
221, 231 |
|
Woodall, D.R. |
Spectrum analysis at Marlborough
College, 72, 273 |
|
Woodcock, V.H. |
The 'second' pulse generator, 72,
287 |
|
Wright, H.N.D. |
Solar photography, 71, 290 |
|
Wright, W.R. |
A modified Sellers observatory chair,
51, 238 Two spectroscopes for prominence
observations, 52, 130 Concerning eyepieces, 56, 129 |
|
Wroath, P.D. |
Methods in astrophotography for the
amateur, 77, 408 A roll-off roof observatory, 85,
129 |
|
Young, A. |
Astrophotography with a 570-mm
telescope, 95, 231 |
|
Young, G. |
Photographing penumbral lunar
eclipses, 97, 120 |
|
Young, J.M.H. |
Split-image focusing, 97, 56 Focusing a Schmidt–Cassegrain
telescope, 99, 297 |
|
Young, K.J. |
Transistor telescope drives, 81,
232 |