SUMMARY
The discussion centers on proving that the orthogonal complement of the span of a set \( S \), denoted as \( \langle S \rangle^{\bot} \), is equal to the orthogonal complement of \( S \), denoted as \( S^{\bot} \). The user successfully demonstrated that \( S^{\bot} \subseteq \langle S \rangle^{\bot} \) and sought clarification on proving the reverse inclusion. The argument presented shows that if \( y \in \langle S \rangle^{\bot} \), then \( y \) is orthogonal to all vectors in \( S \), confirming \( \langle S \rangle^{\bot} \subseteq S^{\bot} \) is valid.
PREREQUISITES
- Understanding of vector spaces and their properties
- Knowledge of orthogonal complements in linear algebra
- Familiarity with the concept of spans in vector spaces
- Basic proficiency in inner product spaces
NEXT STEPS
- Study the properties of orthogonal complements in finite-dimensional vector spaces
- Learn about the relationship between bases and spans in linear algebra
- Explore the implications of the Riesz Representation Theorem
- Investigate applications of orthogonal complements in functional analysis
USEFUL FOR
Students and educators in linear algebra, mathematicians focusing on vector spaces, and anyone seeking to deepen their understanding of orthogonal complements and spans in mathematical contexts.