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1 an isotopic signature indistinguishable from mid-ocean ridge basalt.
2  the highest values previously measured in a mid-ocean-ridge basalt.
3 ction of melt and recycling of the resulting mid-ocean-ridge basalt.
4 sulphur and chlorine in the source of normal mid-ocean-ridge basalt.
5 rc magmas are indistinguishable from that of mid-ocean ridge basalts.
6 riking chemical and isotopic similarities to mid-ocean-ridge basalts.
7 ve helium concentrations of ocean island and mid-ocean-ridge basalts.
8 es to rise to become the source material for mid-ocean-ridge basalts.
9 peridotite can indeed be the sole source for mid-ocean-ridge basalts.
10 nents as sampled by ocean island basalts and mid-ocean-ridge basalts.
11 ts are very similar to primitive terrestrial mid-ocean ridge basalts and indicate that some parts of
12 r mantle, produce the isotopic signatures of mid-ocean ridge basalts and oceanic island basalts, and
13 he differences in (3)He/(4)He ratios between mid-ocean-ridge basalts and ocean island basalts, as wel
14        Many arc lavas are more oxidized than mid-ocean-ridge basalts and subduction introduces oxidiz
15  mantle, beneath the upper mantle sampled by mid-ocean-ridge basalts, and that buoyantly upwelling pl
16 stinct chemical signatures, ocean-island and mid-ocean-ridge basalts are traditionally inferred to ar
17 th the dominant 4He/3He peak found in modern mid-ocean-ridge basalts, as well as estimates of the ini
18 d basalts (OIBs) have lower Re contents than mid-ocean ridge basalt, because garnet-bearing residues
19 , ocean ridge depths, and the composition of mid-ocean ridge basalts can all be used to determine var
20 odels of melt extraction from the mantle and mid-ocean-ridge basalt differentiation.
21 s (NMORBs) and incompatible element-enriched mid-ocean ridge basalts (EMORBs) as far as 20 kilometers
22                            Here we show that mid-ocean ridge basalts from 2,000 km along the southeas
23 pre-eruptive volatile content for a suite of mid-ocean-ridge basalts from the Siqueiros intra-transfo
24                   Through a global survey of mid-ocean ridge basalt glasses, we show that mantle oxid
25 e origin of the isotopic signature of Indian mid-ocean ridge basalts has remained enigmatic, because
26                              Primary arc and mid-ocean ridge basalts have identical Cu contents, indi
27 , presumably because the volatile content of mid-ocean-ridge basalts is generally too low to produce
28 In contrast, the upper mantle, as sampled by mid-ocean ridge basalts, is highly depleted in incompati
29  made for degassed and chlorine-contaminated mid-ocean-ridge basalt magmas, and hence constrain degas
30             Radiogenic isotope variations in mid-ocean ridge basalts (MORB) are commonly attributed t
31  in incompatible elements than the source of mid-ocean ridge basalts (MORB).
32                 Chemical differences between mid-ocean ridge basalts (MORBs) and ocean island basalts
33      Linear arrays in lead isotope space for mid-ocean ridge basalts (MORBs) converge on a single end
34 Iceland, can be up to sixfold higher than in mid-ocean ridge basalts (MORBs).
35                                              Mid-ocean-ridge basalts (MORBs) are the most abundant te
36                            We also find that mid-ocean-ridge basalts (MORBs) have (238)U/(235)U ratio
37 in ocean island basalts (OIBs) compared with mid-ocean-ridge basalts (MORBs) have been used as eviden
38  with lower and relatively uniform values in mid-ocean-ridge basalts (MORBs), are thought to result f
39 e assumed to represent the mantle residue of mid-ocean-ridge basalts (MORBs).
40 ndicate near-symmetrical eruptions of normal mid-ocean ridge basalts (NMORBs) and incompatible elemen
41  the incompatible element-depleted source of mid-ocean ridge basalts, possibly as a result of a globa
42  We report 230Th-238U disequilibrium data on mid-ocean ridge basalts recovered 5 to 40 kilometers off
43 nough to affect major portions of the Indian mid-ocean ridge basalt source region has been a long-sta
44 ved heat flux and the heat production of the mid-ocean ridge basalt source region.
45  higher in nickel content than in the modern mid-ocean-ridge basalt source.
46 tion of compositional similarity between all mid-ocean-ridge basalt sources.
47 mitive arc magmas have identical Zn/Fe(T) to mid-ocean-ridge basalts, suggesting that primary mantle
48 o the lower (3)He/(4)He ratios identified in mid-ocean-ridge basalts that form by melting the upper m
49  per mil ( per thousand), than the canonical mid-ocean ridge basalt value of -6.0 per thousand.
50 and) basalts seem to contain more water than mid-ocean-ridge basalts, we demonstrate that basalts ass
51 5 per cent relative to 226Ra occur in normal mid-ocean ridge basalts, with the largest deficits in th

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