@@ -57,9 +57,9 @@ performance and eventually cause the hardware buffer to overflow, terminating
5757acquisition. The goal of this tutorial is to tune StartAcquisition's ` ReadSize `
5858so that data flows from production to the software running on the host as
5959quickly as possible by minimizing the amount of time that it sits idly in both
60- the ONIX hardware buffer and the API-allocated buffer. This provides software
60+ the ONIX hardware buffer and the host computer's buffer. This provides software
6161access to the data as close to when the data was produced as possible which
62- helps achieve lower latencies closed-loop feedback.
62+ helps achieve lower latency closed-loop feedback.
6363
6464### Technical Details
6565
@@ -195,7 +195,7 @@ memory for the creation of output data frames. Data is written to hardware as
195195soon as an output frame has been created, so the effect on real-time performance
196196is typically not as large as that of the ` ReadSize ` property.
197197
198- To start,` ReadSize ` is also set to 16384. Later in this tutorial, we'll examine
198+ To start, ` ReadSize ` is also set to 16384. Later in this tutorial, we'll examine
199199the effect of this value on real-time performance.
200200
201201### Real-time Loop
@@ -390,7 +390,7 @@ diversity of experiments (in particular, the wide range at which they produce
390390data) requires a range of ` ReadSize ` values.
391391
392392Last, in this tutorial, there was minimal computational load imposed by
393- the workflow itself. In most applications, some processing is performed on the
393+ the data processing workflow itself. In most applications, some processing is performed on the
394394data to generate the feedback signal. It's important to take this into account
395395when tuning your system and potentially modifying the workflow to perform
396396computations on incoming data in order to account for the effect of
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