catalysts. Therefore, this transformation has several drawbacks, including, for example, its long reaction times. Herein we present a simple, general, fast, and high-yielding protocol for the one-pot synthesis of Morita–Baylis–Hillman derivatives. Our approach is driven by a lithium selenolate Michael/aldol operation with concomitant O-functionalization/selenoxide elimination cascade sequences.
Morita-Baylis-Hillman 衍
生物已被广泛研究作为制备重要类别化合物的
中间体。然而,迈克尔亲电子受体、
醛类和
催化剂的结构存在固有的局限性。因此,这种转化有几个缺点,例如反应时间长。在此,我们提出了一种简单、通用、快速和高产的方案,用于 Morita-Baylis-Hillman 衍
生物的一锅法合成。我们的方法是由
硒酸锂迈克尔/醛醇操作与伴随的 O-官能化/
硒氧化物消除级联序列驱动的。