In the last decades, the necessity to process massive amounts of textual data fueled the development of compressed text indexes: data structures efficiently answering queries on a given text while occupying space proportional to the compressed representation of the text. A widespread phenomenon in compressed indexing is that more powerful queries require larger indexes. For example, random access, the most basic query, can be supported in $O(δ\log\frac{n\logσ}{δ\log n})$ space (where $n$ is the text length, $σ$ is the alphabet size, and $δ$ is text's substring complexity), which is the asymptotically smallest space to represent a string, for all $n$, $σ$, and $δ$ (Kociumaka, Navarro, Prezza; IEEE Trans. Inf. Theory 2023). The other end of the hierarchy is occupied by indexes supporting the powerful suffix array (SA) queries. The currently smallest one takes $O(r\log\frac{n}{r})$ space, where $r\geqδ$ is the number of runs in the BWT of the text (Gagie, Navarro, Prezza; J. ACM 2020). We present a new compressed index that needs only $O(δ\log\frac{n\logσ}{δ\log n})$ space to support SA functionality in $O(\log^{4+ε} n)$ time. This collapses the hierarchy of compressed data structures into a single point: The space required to represent the text is simultaneously sufficient for efficient SA queries. Our result immediately improves the space complexity of dozens of algorithms, which can now be executed in optimal compressed space. In addition, we show how to construct our index in $O(δ\text{ polylog } n)$ time from the LZ77 parsing of the text. For highly repetitive texts, this is up to exponentially faster than the previously best algorithm. To obtain our results, we develop numerous techniques of independent interest, including the first $O(δ\log\frac{n\logσ}{δ\log n})$-size index for LCE queries.