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A band spectrum attributed to the molecule SbCl, in the region λλ4200-5600, has been excited by introducing SbCl₃ into active nitrogen. No other bands appeared in the range λ2000 to λ7000. The spectrum consists of bands showing pronounced progressions and degraded towards the red. They can be placed in two sub-systems of bands, designated as A₁ and A₂. Vibrational analysis shows that within experimental error the wave numbers of the heads of forty-one bands of SbCl³⁵ are represented by the formulas: A₁:ν₁=22395+244.4u^'-2.28u^'2-368.0u^''+0.84u^''2,{A}₂:{{ν}}₂=25855+240.2{u}^{{'}}{-}2.19{u}^{{'}2}{-}370.0{u}^{{'}{'}}+1.00{u}^{{'}{'}2}.$ The chlorine isotope effect appears in 13 bands and is used to confirm the ${v}^{{'}}$, ${v}^{{'}{'}}$ designations. The analysis of the spectrum given here is somewhat different from that originally presented two years ago. Many more bands are here accounted for and identified. An attempt failed to produce a spectrum of AsCl by introducing AsCl₃ vapor into active nitrogen.
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Ferguson et al. (1940) studied this question.
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