Why Hands-free Mice?
A hands-free mouse allows you to perform computer mouse functions without using your hands. If you have a physical limitation that makes it difficult or impossible to use a traditional mouse with your hands, a hands-free mouse can be critical to accessing a computer comfortably and efficiently. The key is to make an informed choice to make sure your hands-free mouse truly meets your needs. In our last post, we described 13 considerations to think about when choosing a hands-free mouse. Here, we examine 24 specific hands-free mice that are available and see how they stack up on those considerations.
Before we begin
This guide was updated in November 2019, based on the original posted on Nov. 28, 2018. In addition to general updates to all links and information, we’ve removed 3 devices that have been discontinued (Enabling Devices Air Mouse, SmartNav 4, and AccuPoint), and added 2 new devices (Sesame Enable for Windows, IrisBond Duo).
We’ve structured this guide by grouping the available hands-free mice into 6 main categories, or families, based on their basic approach to controlling the mouse cursor. We’ll first review the main features for each family, then delve into specific products within each family.
These include products that can replace a traditional mouse for computing platforms such as Windows, Mac OS X, and Linux. Those that are USB Plug and Play or Bluetooth-enabled will also work with platforms like Android, Chrome OS, and iOS. (Note that for iOS support, you’ll need to be running iOS 13 or later — see this article on using a mouse with your iPad for some good info on the setup and caveats.)
With so many features and products to sift through, it’s been a challenge to decide how to best present the information. We’ve tried to include the key points directly in this post, while giving links to more detailed tables and handouts that you can download for future reference. You might want to open up the comparison tables for reference while you read through this post. These tables are also available as shared Google sheets.
The focus is on objective features; this is not a subjective review of how well each product works (perhaps that could be a future post, and if you want to share your experiences with any of these devices, please post a comment below). Please note that this listing is meant to be thorough, but there’s no guarantee that it is exhaustive. And the goal is not to recommend one family or device over another. The purpose is to provide useful information to help you narrow down the choices to determine products that may meet your specific needs.
6 Families of Hands-free Mice
OK, enough preliminaries — let’s get started! We focus on the following 6 families of hands-free mice that can be used to directly control all mouse functions:
- Lip/chin joysticks: this is a hardware device that allows you to move the mouse cursor and control mouse buttons with your chin or lips. This means the joystick must be positioned near your face, but there is nothing to wear and no wired connections between you and the device.
- Wearable sensors: with this approach, you wear a sensor (usually on your head), and as you move, the motion of that sensor controls the mouse cursor. Beyond this basic commonality, products in this group are pretty varied, differing on their form factor, connectivity, platform compatibility, mounting requirements, and other aspects.
- Wearable target trackers: with these devices, you wear a small reflective dot (often placed as a sticker on the forehead), and a special sensor unit tracks the motion of the dot to control the mouse cursor as you move. There is no wired connection between you and the device.
- Face trackers: these use a standard webcam to track motion of your face or a facial feature. So there is no hardware gizmo to mount or control.
- Eye trackers: these allow the direction of your eyegaze to control the mouse cursor, using a sensor unit that tracks light reflected off your eyes. You “click” by dwelling for a set amount of time (i.e., holding your gaze on a particular spot). These are currently available for Windows only.
- Speech recognition systems: with this approach, you control the mouse using voice commands.
The table below presents some of the key features of each family. The features listed are those that are common to all devices within the family. (We’ll describe features that differ within each family later in the post.) The table also lists specific products available within each family, and a representative photo. (There is nothing “special” or recommended about the pictured device; it just provides a good image to represent its family.)
|Family||Key Shared Features||Available Products|
|Wearable Target Trackers|
Windows Speech Recognition
Mac OS X Voice Control
(Note that some hands-free mouse options are outside the scope of this post, such as foot mice, mouthstick-tapping on a touchscreen, switch-based cursor control, or using MouseKeys with a mouthstick.)
So, what’s the “best” family?
It’s difficult to make general statements about the relative suitability of each family, since that strongly depends on the specific context of the user, task, and environment. For example, if you need or want the ability to make very fine, high-resolution movements of the mouse cursor, similar to what is possible with a traditional mouse, then the chin joystick or either of the wearable families should be high on your list. If you sometimes need to use a public Windows computer (one that you don’t own or control), knowing how to use the built-in Windows Speech Recognition as a mouse might be useful in a pinch, or you might consider one of the more portable hands-free mice within the wearable sensors family. If controlled head movements are difficult for you, but eye movements are not, the eye tracking options would become more appealing.
One suggestion is to review the considerations post and see which ones are important for your situation. Note that it may be fruitful to combine approaches: for example, if you are already using speech recognition for text entry, you might use the more efficient mouse commands to click by voice (e.g., “Close window”), in combination with a more direct cursor control method (like a head tracker) for functions like dragging.
Keep in mind that devices within each family can differ substantially, so read on to learn more about the features of specific products. For each family, we summarize some main points, and provide you with a comparison table that contains more details.
5 Lip/chin Joysticks
All 5 lip/chin joysticks in our listing are fairly mature products designed specifically for users with physical disabilities. All are USB Plug and Play, which means they will work with any computer platform that supports USB mice, including Windows, Mac OS X, iOS, Linux, and Android. All can be customized using the built-in mouse settings in the operating system, and the BJOY Chin and QuadJoy also include setup software for further customization.
One important distinction between lip/chin joysticks is the built-in method for activating the mouse buttons. The IntegraMouse+, Jouse3, and QuadJoy incorporate a sip/puff switch into their joystick, so that a sip action clicks one mouse button, and a puff action clicks the other. In contrast, the BJOY Chin has two circular switch pads, one on either side of the joystick, which can be pressed using the chin or cheek. And the TetraMouse has a second joystick that is devoted to button actions, right next to the joystick for cursor control. Note, too, a large retail price range in this family, from $2,496 for the IntegraMouse+ to $449 for the TetraMouse XA2.
To see a more detailed comparison between the five lip/chin joysticks, click on the image below. You can also view the table as a spreadsheet, or in this PDF handout.
4 Wearable Sensors
These 4 systems have a wide range of features and design refinements, and a wide range of price tags to match. All provide mouse control by controlling a sensor that is typically worn on the head (but can be worn elsewhere if that works better for you). There is no camera or other optical unit involved, so you do not have to maintain a direct line-of-sight to the computer, and the performance is independent of lighting conditions.
The Quha Zono and GlassOuse have perhaps the most thorough and refined designs in this family. GlassOuse is designed to be worn on the head, and comes packaged to be worn like eyeglasses (but without anything in front of the eye). The Zono has more of a headphone-style mount for its sensor, and also has several alternative ways to wear the sensor, such as an eyeglass clip, a neckband, and a universal kit for sensor locations off the head such as the foot. The Zono can be used with what appears to be a unique breath switch (the Sento), so you can click by blowing lightly on the switch sensor — no lip contact needed. Mounting for the other systems in this family is less refined and does not integrate switches for the buttons.
The GlassOuse and the Zono are wireless, requiring no physical connection between the sensor unit that you wear and the computer that you are controlling. This means that both the GlassOuse and the Zono lend themselves to fully independent use, if you do not mind wearing the sensor unit around. If that won’t work for you, consider the Quha Nemo model, which includes a docking station designed to let you put on and remove the sensor headband independently.
One last note for wearable sensors. The sensors used for enPathia and the eeZee Switch must be tilted, not rotated, to move the cursor. So the motion used will be quite different in the head-controlled case; to move right, you would tilt your right ear toward your right shoulder, instead of rotating your head to the right. This is a less intuitive and more difficult movement for many people, but for some it may be just right.
To see a more detailed comparison between the four wearable sensor systems, click on the image below. You can also view the table as a spreadsheet, or in this PDF handout.
2 Wearable Target Trackers
With this approach, there is a wearable, but it is small, usually just a reflective dot that you can stick on your forehead. The sensing is done by a separate unit mounted on or near your computer that tracks light reflected off the dot. So this does require a line-of-sight to the computer, and can be sensitive to lighting conditions. The wearable is smaller and less conspicuous than those in the wearable sensor family, so this family may be a bit more amenable to fully independent use, if you are OK with wearing the reflective dot around.
To see a more detailed comparison between the two wearable target trackers, click on the image below. You can also view the table as a spreadsheet, or in this PDF handout.
6 Face Trackers
This family reflects an appealing idea: just use the webcam that many people already have, and let it track your face in order to control the mouse cursor. Yes, it does work, and it’s amazing that it works at all.
However, a webcam really isn’t designed for this application, so don’t expect the mouse control to be as precise as it is with the more direct sensor methods described above. For example, with the Camera Mouse, I found that I needed a medium-high sensitivity setting in order to reach all the corners of my laptop screen, but then I had trouble keeping the mouse cursor steady once I got near my target. Note that this experience was with one of the free options; while the free offering really lowers the barrier to trying it (all you do is install the software and you’re all set), it’s possible that performance would be different with one of the paid options. The paid options (at least Sesame Enable, SmyleMouse, and VivoMouse for sure) also provide prompt support via email, at least in my experience.
For this family (and for all of these hands-free mice, actually), the best suggestion is to find out whether a product meets your needs on paper, then try it out yourself to really get a feel for it. This post can help you with the former, but not the latter, unfortunately.
To see a more detailed comparison between the six webcam face trackers, click on the image below. You can also view the table as a spreadsheet, or in this PDF handout.
4 Eye Trackers
Three of the four eye trackers in this family are made by Tobii. The main difference between those is that the 4C is made for mainstream gaming applications, while the PCEye offerings are specifically designed as assistive technology for people with physical impairments. Thus the PCEye trackers come with Tobii’s Windows Control software, which provides some enhanced precision via adjustable zoom as well as a palette of desktop shortcuts. These let you perform various repetitive tasks via eyegaze, with a goal of increasing efficiency. Having said that, the inexpensive 4C combined with the Eye Control now built in to Windows 10, may be a viable option for some people. I haven’t been able to find out if there’s a major difference in the precision of control using the PCEye vs the 4C.
Here are a couple of videos that illustrate the difference between the PCEye trackers and the 4C:
1. PCEye (under the Videos section)
2. 4C with Windows 10 Eye Control
The IrisBond Duo eyetracker is a fairly new offering. The Pro version of its EasyClick software is designed to allow full independent access to Windows and Windows applications using only eyegaze. It allows the user to use a blink (of specified duration) as a mouse click.
To see a more detailed comparison between the four eye trackers, click on the image below. You can also view the table as a spreadsheet, or in this PDF handout.
3 Speech Recognition Systems
First off, we should note that speech recognition systems are mainly designed to use speech for text entry, rather than mouse functions. However, each speech recognition system listed here does have some ability to perform mouse functions. (Note, too, that mobile platforms iOS (Voice Control) and Android (Voice Access) provide similar voice features.)
In particular, the two Windows solutions have long included the ability to move the mouse cursor to any location, using the Mouse Grid approach. The “Mouse Grid” command divides the screen into 9 numbered sections. You say the number for the desired section, which in turn is divided into 9 numbered square sections. You keep honing in on the location by saying numbers, and once the cursor is in the square where you want it (e.g., square 2), say “Click 2” to click at that spot. A small target may require 4 or 5 number commands to get to the desired spot, but at least this method gives a way to put the cursor exactly where you want it. With the introduction of MacOS Catalina in 2019, this mouse grid feature is now available for the Mac as well.
For clickable targets, it is usually more efficient to use one of two approaches, as compared to using Mouse Grid. First, you can use a built-in command, like “Close window” or “Click Save” (when a button labeled Save is on the screen). You need to learn which ones are available in your speech system, but once you do, you can substitute voice commands for a lot of things that are typically done via mouse.
The second method is more general, using a “Show numbers” command. This labels all clickable items currently on the screen with a small number. Then to click a particular item, just say its number. The speech recognition systems built into Windows as well as Mac OS X both include this “Show numbers” feature. For Dragon NaturallySpeaking, you need to buy and install an add-on to get it, such as Voice Computer or SpeechStart+.
Depending on the tasks you do, you may need another mouse system as a complement to voice control, but the combination can be quite powerful. And it can be handy to have some speech-to-mouse functions available on any Windows or Mac computer that you use, in case you are stuck without your usual equipment.
To see a more detailed comparison between the three speech recognition systems, click on the image below. You can also view the table as a spreadsheet, or in this PDF handout.
This post has outlined many of the key features for these 24 hands-free mouse options. You can get all the tables in one PDF file by clicking the button below:
Download all the hands-free mice tables
I hope these descriptions and tables are useful as you sift through the options to find options that may fit your specific needs. That’s an important first step, but only a first step.
A common next step when making a purchase decision is to comb through reviews and other public info to learn how well the various options succeed in implementing their stated features. Unfortunately, there just isn’t a lot of that info available for hands-free mice. There are a few consumer reviews out there, but not many, and not much formal research, either. Hopefully over time, we as a field can build some understanding of these issues. Please post in the comments if you know of info like this, and/or if you think it would be valuable to try to collect this systematically.
Another key step, once you’ve narrowed the set of options to a few possibilities, is to try each of the candidates before making a final decision. I’m a big advocate of using evidence as a major part of this decision-making process, and our next post looks at how to gather useful evidence to choose a hands-free mouse.
4 thoughts on “Your Guide to
2524 Hands-free Mice”
thank you for this post, it was incredibly helpful. I have pain and numbness in my wrists forearms and into the fingers that the doctors have not been able to diagnose yet, but it has severely limited my ability to use a mouse over the past eight months. I can type fairly easily and use voice recognition where possible, but prolonged mouse use, particularly in Microsoft Excel or PowerPoint causes me pain. I have tried many different types of trackpads and trackballs, as well as ergonomic mice. None have worked.
I am now considering wearable alternatives. Do you have any recommendations about which might be easiest to start with, or has a trial period? I am also looking for one that has easy clicking mechanisms built in.
Thanks for your help, this information and blog post was by far the best reference I could find on the Internet.
Thanks for your comment! There’s a lot to say in reply, but let me see if I can avoid giving too many useless details or making too many guesses to start with.
The first suggestion I have is to review the considerations for hands-free mice (cursor control, mouse buttons, components, etc.), if you haven’t already. See if you can define your specific needs for each consideration, to help you match your needs to the specific features of each device. You also might want check out this Powerpoint presentation, item #1 on the KPR publications page (slide 49 gives an example of feature-matching for an example individual named Adam).
Regarding wearable alternatives, some options that might be a good fit based on your description are: Glassouse, Quha Zono, or Headmouse Nano. The first 2 are wearable sensors, and the Headmouse is a wearable target tracker (dot on forehead). From a cursor control standpoint, they all work quite well. They vary on some features, which should be listed in the guide, but let me know if you have specific questions.
Another thought is that you might be able to use speech recognition to handle at least some of the pointing/clicking tasks. Not sure what OS platform or speech recognition system you are using, but if you have the Show Numbers feature available, that can be a nice option for clicking on links and buttons. (Slide 10 in the Powerpoint I mentioned above shows how this works on a Mac.) You may already be doing this, but just thought I’d mention it.
Here are some ideas for getting help and trial devices, some of which depend on where you live. The easiest thing would be to find a center near you where you can demo different options. These centers may also have a resident expert who can help you narrow down your choices and give you nitty gritty details about how they work in practice. RESNA’s provider directory may give you some ideas. You may also have access to a lending library (in the U.S., search “assistive technology lending library” for your state). Some universities and school districts have hands-free mice in their offices for students/staff with disabilities; they might let you try one or two. If you let me know in general where you live, I might have some more specific ideas of places that could help.
Or ask the manufacturers or a reseller directly if they will loan you one. For example, Glassouse offers a 15 day trial period, in the sense that you can return it after you buy it. You will be responsible for shipping charges to China if you return it. Quha USA/Grasp Assistive Technologies offers a loan device for 2 weeks at no cost other than return shipping (so no need to pay for it first, then wait for a refund).
I can email you some direct contact info for these manufacturers if that would be helpful — just let me know.
I hope this helps. Happy to keep the discussion going, so let me know what else would help or what other questions you have.
I have Als and have been using the free software Eviacam for controlling my PC. It’s absolutely fantastic. You have to practice for a few days and tune all the parameters. Once accomplished, it’s very good. I have a write up with all the home automation products, computer software and hardware that has worked for me. No extra professional help and very modest cost. All the best , Jim
Thanks for sharing your experience with eViacam, Jim. Glad to know that you’ve found it to be a good solution! If you’d like to share a link to the write-up you mentioned, please do. Best wishes!