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"markdownEngineProperties": {
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],
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"TODO": "alert alert-secondary"
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---
uid: index
title: OpenEphys.Onix1
-_disableBreadcrumb: true
---
-> [!Warning]
-> These docs are under active development, feel free to contribute by either [raising an issue](https://github.com/bonsai-rx/docs/issues) or following the links saying **Edit this page**.
+`OpenEphys.Onix1` is a [Bonsai](https://bonsai-rx.org/) library that can be used to control the [ONIX PCIe Acquisition System](https://open-ephys.org/onix/oeps-9006), which provides:
-`OpenEphys.Onix1` is a library that can be used in [Bonsai](https://bonsai-rx.org/) to acquire data from ONIX devices, such as the [ONIX PCIe Acquisition System](https://open-ephys.org/onix/oeps-9006). For more details on the ONI specification, check out [this link](https://open-ephys.github.io/ONI/), and to learn more about ONIX devices and their implementation of ONI, click [here](https://open-ephys.github.io/onix-docs/).
+* Support for a variety of tools such as [Neuropixels (all
+ variants)](https://www.neuropixels.org/),
+ [Miniscopes](https://open-ephys.org/miniscope-v4/miniscope-v4), [Intan-based
+ headstages](https://open-ephys.org/onix/oeps-7741), and more
+* Automatic hardware synchronization of all data streams.
+* Torque-free commutation of ultra-thin (down to ~0.2mm diameter) tethers
+* High performance closed-loop control (100 usec feedback loop times)
-## Advantages
-
-While data can be acquired using programs other than Bonsai, there are a number of advantages that come from building `OpenEphys.Onix1` as a Bonsai library. A major advantage is that it maintains maximal compatibility with open source programs, including [OpenCV](https://opencv.org/), [DeepLabCut](https://www.mackenziemathislab.org/deeplabcut), and many more.
+
+
-Other major advantages include:
-* Visual interface provided by building on top of Bonsai's foundation
-* Time-stamped synchronization across multiple devices
-* Combine data streams for real-time processing
+| | [Operator Reference](xref:OpenEphys.Onix1) | | [Hardware Guide](https://open-ephys.github.io/onix-docs/) |
+|:----:|:----:|:----:|:----:|
+| [![User Guide](images/running.svg){width=150}](xref:getting-started) | [![Operator Reference](images/books.svg){width=150}](xref:OpenEphys.Onix1) | [![Tutorials](images/beaker.svg){width=150}](xref:tutorials) |[![Tutorials](images/screwdriver.svg){width=150}](https://open-ephys.github.io/onix-docs/)|
+
-### Quick Links
-
+### Why Bonsai?
+
+ONIX is built on the [ONI standard](https://open-ephys.github.io/ONI/), which is software
+agnostic. Bonsai is the first software target pursued by the Open Ephys team for
+ONIX hardware. There are three major reasons for this:
+
+1. **Performance.** ONIX is a universal interface for neural recording instruments. It can
+ capture data produced by neural probes, cameras, high-speed ADCs, etc. In
+ general terms, ONIX can capture data from arbitrary mixtures of
+ asynchronous[^1] data sources. Bonsai provides an extremely powerful,
+ open-source software platform for elegantly collecting, combining, and
+ processing data from essentially any data source regardless of its sample
+ rate, sample regularity, packet size, and bandwidth. Bonsai accomplishes this
+ task in a fundamental manner: it explicitly models each data source as an
+ ordered temporal sequence with a start and end called an
+ [Observable](https://reactivex.io/documentation/observable.html). This is
+ analogous to how, for instance,
+ [Numpy](https://numpy.org/doc/stable/index.html) explicitly models fixed-size
+ multi-dimensional arrays as
+ [ndarrays](https://numpy.org/doc/stable/reference/generated/numpy.ndarray.html#numpy.ndarray).
+ And, just like Numpy offers an extensive linear algebra toolkit
+ to operate on these arrays, Bonsai offers an analogous
+ [toolkit](https://reactivex.io/documentation/operators.html)
+ for operating on temporal sequences of data. Because Bonsai was created around this core
+ data model and operator library, it makes capturing, processing, and combining data
+ sequences from different hardware sources natural in Bonsai, whereas it is
+ bug prone and difficult in other software options.
+1. **Code quality.** Open Ephys has been developing open source hardware and
+ software for the Neuroscience community for over a decade. In terms of code
+ quality, Bonsai is excellent. Bonsai uses a modern language and build system,
+ has integrated package management, and an extremely clean, featureful, and well
+ maintained API. Given that Bonsai's development model perfectly aligns with our
+ values, we are very proud to be able to contribute to its growth in the
+ Neuroscience community.
+1. **Third party integration.** Bonsai provides support for
+ hundreds of pieces of open- and closed-source hardware and software that are
+ used extensively in neuroscience research. For instance:
+
+ - The classic Open Ephys [acquisition system](https://open-ephys.org/acquisition-system)
+ - [Ucla Miniscope ecosystem](https://open-ephys.github.io/miniscope-docs/index.html)
+ - [National Instruments](https://bonsai-rx.org/daqmx/articles/intro.html) acquisition boards
+ - Virtually every machine-vision and sCMOS camera[^2]
+ - [Sanworks Bpod](https://sanworks.github.io/Bpod_Wiki/)
+ - [Harp](https://harp-tech.org/index.html)
+ - [Deeplabcut](https://github.com/bonsai-rx/deeplabcut) & [Sleap](https://github.com/bonsai-rx/sleap)
+ - And much more
+
+ By targeting Bonsai, ONIX can be used seamlessly with these third party tools.
+
+> [!NOTE]
+> We put a lot of effort into
+> making these docs useful for everyone. If you have suggestions for making
+> them even better, please contribute by either [raising an
+> issue](https://github.com/bonsai-rx/docs/issues) or following the links saying
+> **Edit this page**. We welcome all constructive feedback. As always, our goals
+> are better performing tools, less redundant development, and more reproducible
+> science.
+>
+> In addition to this library, we are currently developing ONIX support for the
+[Open Ephys GUI](https://open-ephys.org/gui/).
-
-| | | |
-|:--------------:|:-------------------:|:---------:|
-| [![User Guide](images/macbook.svg){width=200}](xref:getting-started) | [![Operator Guide](images/books.svg){width=200}](xref:OpenEphys.Onix1) | [![Tutorials](images/running.svg){width=200}](xref:tutorials) |
-| [New to Bonsai or OpenEphys.Onix? Start here!](xref:getting-started) | [Operator references here](xref:OpenEphys.Onix1) | [Check out our tutorials for useful workflows](xref:tutorials) |
+[^1]: Although physical data sources are asynchronous (e.g. a Neuropixels probe
+runs on a distinct clock and produces data at a distinct rate compared to the
+camera sensor on a Miniscope), all data is hardware-timestamped on a common
+clock. No post-hoc data alignment is required.
-
\ No newline at end of file
+[^2]: [Flir](https://github.com/bonsai-rx/spinnaker), [Allied
+Vision](https://github.com/bonsai-rx/vimba),
+[Ximea](https://github.com/bonsai-rx/ximea),
+[Basler](https://github.com/bonsai-rx/pylon),
+[Excelitas](https://github.com/bonsai-rx/pco), etc.
\ No newline at end of file