Chlorine-36 isproduced in rocks exposed to cosmic rays at the earth surface through thermal neutron activation of 35C1, spallation of 39K and 't°Ca, and slow negative muon capture by 4°Ca. We have measured the 36C1 content of 14C-dated glacial boulders from the White Mountains in eastern California nd in a 14C-dated basalt flow from Utah. Effective, time-integrated production parameters were calculated by simultaneous solution of the 36Cl production equations. The production rates due to spallation are 4160 + 310 and 3050 + 210 atoms 36C1 yr 1 tool 1 39 K and 4°Ca, respectively. The thermal neutron capture rate was calculated to be (3.07 + 0.24) × 105 neutrons (kg of rock) 1 yr ~. The reported values are normalized to sea level and hi...
International audienceThe abundant production of in situ cosmogenic Cl-36 from potassium renders Cl-...
The abundant production of in situ cosmogenic 36Cl from potassium renders 36Cl measurements in K-ric...
The existence of the long-lived radionuclide chlorine-36 in iron meteorites, where it is produced by...
Argon analysis on samples of sodalite from Dungannon, Ontario reveals an excess of 36Ar from neutron...
Age determination based on cosmogenic nuclides is an important tool to investigate landscape develop...
Chlorine-36 production rates obtained from different geological calibration studies (e.g. Evans et a...
From the Proceedings of the 1983 Meetings of the Arizona Section - American Water Resources Assn. an...
Accurate determination of chlorine concentrations in terrestrial rocks is of importance for the inte...
Published cosmogenic 36Cl SLHL production rates from Ca and K spallation differ by almost 50% (Gosse...
International audienceIn situ cosmogenic chlorine-36 (36Cl) is so far the only nuclide applicab...
Applications of in situ cosmogenic nuclides to problems in Quaternary geology require increasingly a...
Chlorine-36 (36Cl) is currently the only in situ cosmogenic nuclide applicable in carbonates, Ca- an...
Cosmogenic radionuclide analysis for determining exposure ages and erosion rates is becoming more ex...
The CRONUS-Earth Project is an NSF funded, national collaboration of geoscientists, whose goal is to...
Well-dated bedrock surfaces associated with the highstand and subsequent catastrophic draining of Pl...
International audienceThe abundant production of in situ cosmogenic Cl-36 from potassium renders Cl-...
The abundant production of in situ cosmogenic 36Cl from potassium renders 36Cl measurements in K-ric...
The existence of the long-lived radionuclide chlorine-36 in iron meteorites, where it is produced by...
Argon analysis on samples of sodalite from Dungannon, Ontario reveals an excess of 36Ar from neutron...
Age determination based on cosmogenic nuclides is an important tool to investigate landscape develop...
Chlorine-36 production rates obtained from different geological calibration studies (e.g. Evans et a...
From the Proceedings of the 1983 Meetings of the Arizona Section - American Water Resources Assn. an...
Accurate determination of chlorine concentrations in terrestrial rocks is of importance for the inte...
Published cosmogenic 36Cl SLHL production rates from Ca and K spallation differ by almost 50% (Gosse...
International audienceIn situ cosmogenic chlorine-36 (36Cl) is so far the only nuclide applicab...
Applications of in situ cosmogenic nuclides to problems in Quaternary geology require increasingly a...
Chlorine-36 (36Cl) is currently the only in situ cosmogenic nuclide applicable in carbonates, Ca- an...
Cosmogenic radionuclide analysis for determining exposure ages and erosion rates is becoming more ex...
The CRONUS-Earth Project is an NSF funded, national collaboration of geoscientists, whose goal is to...
Well-dated bedrock surfaces associated with the highstand and subsequent catastrophic draining of Pl...
International audienceThe abundant production of in situ cosmogenic Cl-36 from potassium renders Cl-...
The abundant production of in situ cosmogenic 36Cl from potassium renders 36Cl measurements in K-ric...
The existence of the long-lived radionuclide chlorine-36 in iron meteorites, where it is produced by...