a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not

a fetch might be required to move r to the process doing the addition. In this case, @spawnat is smart enough to perform the computation on the process that owns r, so the fetch will be a no-op (no work as well as we could for the same semantics. The people working on those projects are incredibly smart and have accomplished amazing things, but retrofitting a compiler onto a language that was designed Then, this pass looks for a chain of floating point operations that form a reduce and adds the contract and reassoc fast math flags to allow reassociation (and thus vectorization). This pass does not