diff --git a/docs/proposals-accepted/202205-vertical-query-sharding.md b/docs/proposals-accepted/202205-vertical-query-sharding.md
index 58a694f158b..cf38d2a26d0 100644
--- a/docs/proposals-accepted/202205-vertical-query-sharding.md
+++ b/docs/proposals-accepted/202205-vertical-query-sharding.md
@@ -120,7 +120,7 @@ In the future, additional improvements can be made to Thanos so that TSDB blocks
 
 *Query Pushdown* Query pushdown involves pushing down the entire query to leaves for evaluation. This avoids the primary contributor to query latency (Store API Select over the network) but can only work on a limited set of queries, as there are no guarantees that duplicate series will not be double counted in disparate leaves. Vertical query sharding is a natural evolution of this idea that handles deduplication by guaranteeing that each unique series in a query will always end up on the same Querier. A version of this has already been implemented (https://github.com/thanos-io/thanos/pull/4917)
 
-*Extended horizontal sharding* Thanos Query Frontend already does horizontal (based on time-range) sharding by splitting up queries into smaller time-ranges. As an alternative to vertical sharding, more granular horizontal sharding could be implemented to split a query up between Queriers at smaller increments. This does not have the same deduplication correctness problem as query pushdown, as overlapping time-ranges can be effectively deduplicated. This implementation, however, presents other challenges around aligning queries in such a way that guarantees a sample on the threshold is not double counted in distinct shards. Generally, time-ranges are also more complex to handle compared to a simple hashmod of label value pairs as the scrape interval can be different for each metric. Horizontal sharding also does not address cardinality, instead sharding based on number of samples over a time range, which already highly compressible.
+*Extended horizontal sharding* Thanos Query Frontend already does horizontal (based on time-range) sharding by splitting up queries into smaller time-ranges. As an alternative to vertical sharding, more granular horizontal sharding could be implemented to split a query up between Queriers at smaller increments. This does not have the same deduplication correctness problem as query pushdown, as overlapping time-ranges can be effectively deduplicated. This implementation, however, presents other challenges around aligning queries in such a way that guarantees a sample on the threshold is not double counted in distinct shards. Generally, time-ranges are also more complex to handle compared to a simple hashmod of label value pairs as the scrape interval can be different for each metric. Horizontal sharding also does not address cardinality, instead, sharding is based on number of samples over a time range, which are already highly compressible.
 
 *Implement a streaming PromQL engine* Vertical query sharding allows to breakdown large queries into disjoint datasets that can be queried and processed in parallel, minimising the need for large single-node Queriers and allowing us to pursue more effective scheduling of work on the read path. This is needed as PromQL is mostly single-threaded and requires the entire set of expanded series pre-evaluation. A similar effect to vertical sharding can be achieved if PromQL itself supported streaming query evaluation, allowing us to limit and parallelise retrieval and execution in a single-node. This was discussed in upstream Prometheus (https://github.com/prometheus/prometheus/issues/7326).