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Mars red

MARS RED (1309-37-1) Violent reactions with powdered aluminum (thermite reaction), hydrogen peroxide, calcium disilicide (thermite reaction), ethylene oxide (may cause explosive polymerization), calcium hypochlorite, hydrazine, hydrogen trisulfide, powdered magnesium. Incompatible with powdered calcium carbide, carbon monoxide, chlorides,... [Pg.729]

RED BURNT SIENNA BURNT UMBER CALCOTONERED COLCOTHAR COLLOIDAL FERRIC OXIDE FERRIC OXIDE INDIAN RED IRON(in) OXIDE IRON OXIDE RED IRON SESQUIOXIDE JEWELER S ROUGE MARS BROWN MARS RED NATURAL IRON OXIDES NATURAL RED OXIDE OCHRE PRUSSIAN BROWN RED IRON OXIDE RED OCHRE ROUGE RUBIGO SIENNA SYNTHETIC IRON OXIDE VENETIAN RED VITRIOL RED YELLOW OXIDE OF IRON... [Pg.174]

Iron group Iron oxides and hydroxides group Goethite Hematite Magnetite Ochre Burnt ochre-, Caput mortuum Colcothar Copperas English red Indian red Mars pigments Mars red Mars yellow Venetian red Yellow ochre... [Pg.202]

A group of synthetically produced iron oxide pigments with colours in the yellow-red-violet-black range, the term typically qualified by a colour descriptor (such as Mars red ). The mars colours emerged in the eighteenth century. [Pg.254]

Iron group Iron oxides and hydroxides group Goethite Hematite Iron(III) oxide, hematite type Caput mortuum Mars black Mars brown Mars orange Mars red Mars scarlet Mars violet Mars yellow Field (1835) 119 Hariey (1982) 91-92,120-122 Helwig(1998) Laar Burnstock (1997) Martel (1860) 23 MS Sloane 2052 (nd) Osborn (1845) 49 Riffault et al. (1874) 500-501 Salter (1869) 248-249 Townsend (1993) Weber(1923) 89... [Pg.254]

Mars red is one of the mars pigments (. v.), developed during the eighteenth century and manufactured by the aqueous precipitation of iron salts (sulfates, chlorides, nitrates and acetates) with an alkali (lime, caustic soda (NaOH), potash, etc.). Mars red was produced by roasting the precipitate produced by this process,... [Pg.254]

Helwig (1998) identified the presence of chrome orange, hematite and goethite in mars red supplied by the Belgian firm of Blockx et fils (1865 1913). [Pg.255]

Mars scarlet was apparently a form of mars red (q.v.), Carlyle (2001) notes that Winsor Newton began listing this pigment in 1846, while Roberson purchased it from the colour-men Lechertier Barbe in 1872. [Pg.255]

Iron oxide pigments Manufactured iron oxides Mars red Mars brown Natural red oxide Natural iron oxide Red oxide Red oxide of iron Supra... [Pg.228]

H. Staendeke, "Red Phosphoms - Recent Development for Safe and Efficient Flame Retardant AppHcations," paper presented at Fire Fetardant Chemicals Association National Meeting, Mar. 1988. [Pg.482]

Fig. 3.21 Example of temperature variation as measured by MIMOS II temperature sensors on MER (i) inside the rover body at MIMOS electronics board (black curve), (ii) outside the rover, at the MIMOS II SH (green and red curves), which is at ambient Martian temperature (a) inside the sensor-head, at the reference absorber position (green), (b) outside the SH at the sample s contact plate (red). Temperatures at the two SH positions are nearly identical (difference less than 2 K). During data transmission between the rover and the Earth (or the relay satellite in Mars orbit) the instrument is switched off resulting in immediate small but noticeable temperature changes (see figure above)... Fig. 3.21 Example of temperature variation as measured by MIMOS II temperature sensors on MER (i) inside the rover body at MIMOS electronics board (black curve), (ii) outside the rover, at the MIMOS II SH (green and red curves), which is at ambient Martian temperature (a) inside the sensor-head, at the reference absorber position (green), (b) outside the SH at the sample s contact plate (red). Temperatures at the two SH positions are nearly identical (difference less than 2 K). During data transmission between the rover and the Earth (or the relay satellite in Mars orbit) the instrument is switched off resulting in immediate small but noticeable temperature changes (see figure above)...
Fig. 8.36 Leyt Spectrum of the soil close to the crater rim where Opportunity entered and exited the crater. The basaltic soil is unusually high in hematite (but no indication of significant contribution Irom hematitic spherules). Middle rover tracks. Right 750 m diameter (. 75 m deep) eroded impact crater Victoria Crater, formed in sulfate-rich sedimentary rocks. Image acquired by the Mars Reconnaissance Orbiter High-Resolution Science Experiment camera (Hirise). The red line is the drive path of Opportunity exploring the crater. (Courtesy NASA, JPL, ASU, Cornell University)... Fig. 8.36 Leyt Spectrum of the soil close to the crater rim where Opportunity entered and exited the crater. The basaltic soil is unusually high in hematite (but no indication of significant contribution Irom hematitic spherules). Middle rover tracks. Right 750 m diameter (. 75 m deep) eroded impact crater Victoria Crater, formed in sulfate-rich sedimentary rocks. Image acquired by the Mars Reconnaissance Orbiter High-Resolution Science Experiment camera (Hirise). The red line is the drive path of Opportunity exploring the crater. (Courtesy NASA, JPL, ASU, Cornell University)...
In about 4 billion years our sun will also develop into a red giant. The diameter will then reach the orbit of Mars, and the inner planets will cease to exist. [Pg.21]

In spite of many new, and in some cases sensational, results concerning the Red Planet, we are still no nearer to answering the question of life on Mars. Four alternatives appear possible for Mars ... [Pg.287]

This makes it clear that a vast amount of work must still be done on Mars in order to obtain a final answer as to whether life exists, or ever existed, on the Red Planet. [Pg.288]

Ground red sandstone Meteorite material Simulated Mars soil... [Pg.305]

Hanna, R.G.M. 1989. Levels of heavy metals in some Red Sea fish before hot brine pools mining. Mar. Pollut. Bull. 20 631-635. [Pg.733]

Hunt, J.W. and B.S. Anderson. 1989. Sublethal effects of zinc and municipal effluents on larvae of the red abalone Haliotis rufescens. Mar. Biol. 101 545-552. [Pg.734]

Mars Center (Iron) t A Red triangle charged with a. second red triangle. [Pg.82]


See other pages where Mars red is mentioned: [Pg.28]    [Pg.36]    [Pg.36]    [Pg.778]    [Pg.1756]    [Pg.729]    [Pg.288]    [Pg.996]    [Pg.254]    [Pg.255]    [Pg.255]    [Pg.174]    [Pg.28]    [Pg.36]    [Pg.36]    [Pg.778]    [Pg.1756]    [Pg.729]    [Pg.288]    [Pg.996]    [Pg.254]    [Pg.255]    [Pg.255]    [Pg.174]    [Pg.53]    [Pg.447]    [Pg.21]    [Pg.46]    [Pg.23]    [Pg.23]    [Pg.24]    [Pg.24]    [Pg.45]    [Pg.215]    [Pg.281]    [Pg.346]    [Pg.23]    [Pg.51]    [Pg.51]    [Pg.56]    [Pg.82]   
See also in sourсe #XX -- [ Pg.174 ]

See also in sourсe #XX -- [ Pg.228 ]




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