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Fig. 3: Arrangement for map surface, map frame and
marginal elements for a sheet, based on Sinusoidal
Projection. Latitude range: 81 ?- 83? north.
HERE T pi! UL "HALE EA
Fig. 4: Arrangement for map surface, map frame and
marginal elements for a sheet, based on Lambert
Azimuthal Projection. Latitude range: 85 °- 87° north.
A professional folding concept is also part of this map
layout. The map sheet will be divided in seven parts in
width and three parts in height, resulting in a handy size
of 11.86 x 23.33 cm for the folded map. This allows
optimal handling and storage characteristics.
Fig. 5: Folding concept for the new map series
501
This concept incorporates the advantage of further space
for a an efficient design for a separate front page. Further-
more this concept offers additional space on the backside
of the folded map for necessary informations with regard
to a »quick look« to editors, publishers, copyright, general
technical notes and the maps purpose.
As a compromise concerning the costs for reproduction it
is accepted to allow additional printing forms and impres-
sions (1 - 4 colors) for the backside of a sheet in favour of
the above mentioned advantages.
6. REALIZATION AND PRODUCTION
The complete production line for this map series is layed
out as an entirely digital process. It comprises all carto-
graphic processing steps such as compilation and nomen-
clature of the map content, the determination and place-
ment of graphical elements (all names and symbols)
within the mapped area, and the reproduction of the
whole map frame and all the marginal elements, with its
individual features, for every map sheet. The major part of
the cartographic software has already been developed
and successfully tested.
The »Topographic Image Map MARS 1: 200 000« was
presented for the first time at the 7th meeting of the Pho-
togrammetry and Cartography Working Group (PCWG) in
Munich, as part of the HRSC/WAOSS Co-Investigator
Team Meeting, on October 2 and 3, 1995. Mock-ups of
selected sheets from different latitude ranges were dis-
played. The disign principles of this map series were
generally accepted by the Working Group. Thus this lay-
out will be the guideline for future mapping activities on
planet Mars.
7. REFERENCES
Albertz, Jórg; Lehmann, Hartmut; Mehlbreuer, Alfred; Schol-
ten, Frank; Tauch, Rüdiger, 1988: Herstellung hochauf-
lósender Satelliten-Bildkarten durch Kombination multisen-
soraler Datensátze. Internationales Jahrbuch für Karto-
graphie, Band 28, 1988, pp. 11-27.
Albertz, Jórg; Ebner, H.; Heipke, C.; Neukum, G.; Scholten,
F., 1992a: The Camera Experiments HRSC and WAOSS on
the Mars '94 Mission. Internat. Archives of Photogrammetry
and Remote Sensing, Washington D.C., USA, Vol. XXIX,
Part B1, pp. 130-137.
Albertz, Jórg; Lehmann, Hartmut; Tauch, Rüdiger, 1992b:
Herstellung und Gestaltung hochauflósender Satelliten-Bild-
karten. Kartographische Nachrichten 42, pp. 205-213.
Albertz, Jórg; Lehmann, Hartmut; Scholten, Frank; Tauch
Rüdiger, 1992: Satellite Image Maps - Experience, Pro-
blems, Chances. Internat. Archives of Photogrammetry and
Remote Sensing, Washington D.C., USA, Vol. XXIX, Part
B4, pp. 309-314.
Albertz, Jórg, 1993: Merging Graphical Elements and Image
Data in Satellite Image Maps. Proceedings Workshop and
Conference: International Mapping from Space, Hannover,
pp. 265-271.
Albertz, Jórg; Ebner, Heinrich; Neukum, Gerhard, 1996: The
HRSC/WAOSS Camera Experiment on the Mars96 Mission
International Archives of Photogrammetry and Remote Sensing. Vol. XXXI, Part B4. Vienna 1996