Posts tagged with ‘gestural ux’
I managed to get invited to Orchestra’s Mailbox launch — if you try to sign up today there are 433,636 people waiting — and the app kills. It implement the email triage I have been doing with external task management tools like Asana and Todoist for years. And it’s so fast because of the gestural interface.
Here’s ‘swipe left to snooze email’ —
— which leads to a second screen where you can quickly assign a day when the snoozed email should be returned to your inbox from the Gmail archive. Yes, it only works on Gmail accounts, and only runs on iOS, at the present time.
My bottom line from the piece at GigaOM Research:
Inbox triage has long been a necessary chore, but Mailbox makes it simple and intuitive. My bet is that Mailbox will be an enormous hit, and will become one of the apps that define and confirm the new gestural UX that we are moving into so quickly. Also, I am sure that all other email clients will knock off the principles of email triage à la Mailbox. I envision a browser version of this working PCs in combination with Leap Motion, but it’s killer as is, and for people on iOS devices it will quickly become the default mail client of choice.
Go read the whole post, if you want.
PS Apple should buy them immediately.
There’s great deal of heat these days (and little light, I think) about intentional evolution, where humanity will tinker with its own DNA, or put gizmos in our brains, causing a step function in the way that humans think, act, or perceive the world.
Mark Changizi thinks the most obvious path to some significant change in human cognitive capabilities is neuronal recycling, where we take advantage of the plasticity of our minds to develop new cultural tools, like written language, or mathematics:
Mark Changizi, Humans, Version 3.0
If there is something next, some imminently arriving transformative development for human capabilities, then the key will not be improved genes or cortical plug-ins. But what other way forward could humans possibly have? With genetic and cyborg enhancement off the table for many years, it would seem we are presently stuck as-is, sans upgrades.
There is, however, another avenue for human evolution, one mostly unappreciated in both science and fiction. It is this unheralded mechanism that will usher in the next stage of human, giving future people exquisite powers we do not currently possess, powers worthy of natural selection itself. And, importantly, it doesn’t require us to transform into cyborgs or bio-engineered lab rats. It merely relies on our natural bodies and brains functioning as they have for millions of years.
This mystery mechanism of human transformation is neuronal recycling, coined by neuroscientist Stanislas Dehaene, wherein the brain’s innate capabilities are harnessed for altogether novel functions.
This view of the future of humankind is grounded in an appreciation of the biologically innate powers bestowed upon us by hundreds of millions of years of evolution. This deep respect for our powers is sometimes lacking in the sciences, where many are taught to believe that our brains and bodies are taped-together, far-from-optimal kluges. In this view, natural selection is so riddled by accidents and saddled with developmental constraints that the resultant biological hardware and software should be described as a “just good enough” solution rather than as a “fine-tuned machine.”
So it is no wonder that, when many envisage the future, they posit that human invention—whether via genetic engineering or cybernetic AI-related enhancement—will be able to out-do what evolution gave us, and so bootstrap our species to a new level. This rampant overoptimism about the power of human invention is also found among many of those expecting salvation through a technological singularity, and among those who fancy that the Web may some day become smart.
The root of these misconceptions is the radical underappreciation of the design engineered by natural selection into the powers implemented by our bodies and brains, something central to my 2009 book, The Vision Revolution. For example, optical illusions (such as the Hering) are not examples of the brain’s poor hardware design, but, rather, consequences of intricate evolutionary software for generating perceptions that correct for neural latencies in normal circumstances. And our peculiar variety of color vision, with two of our sensory cones having sensitivity to nearly the same part of the spectrum, is not an accidental mutation that merely stuck around, but, rather, appear to function with the signature of hemoglobin physiology in mind, so as to detect the color signals primates display on their faces and rumps.
These and other inborn capabilities we take for granted are not kluges, they’re not “good enough,” and they’re more than merely smart. They’re astronomically brilliant in comparison to anything humans are likely to invent for millennia.
Neuronal recycling exploits this wellspring of potent powers. If one wants to get a human brain to do task Y despite it not having evolved to efficiently carry out task Y, then a key point is not to forcefully twist the brain to do Y. Like all animal brains, human brains are not general-purpose universal learning machines, but, instead, are intricately structured suites of instincts optimized for the environments in which they evolved. To harness our brains, we want to let the brain’s brilliant mechanisms run as intended—i.e., not to be twisted. Rather, the strategy is to twist Y into a shape that the brain does know how to process.
But how do I know this is feasible? This tactic may use the immensely powerful gifts that natural selection gave us, but what if harnessing these powers is currently far beyond us? How do we find the right innate power for any given task? And how are we to know how to adapt that task so as to be just right for the human brain’s inflexible mechanisms?
I don’t want to pretend that answers to these questions are easy—they are not. Nevertheless, there is a very good reason to be optimistic that the next stage of human will come via the form of adaptive harnessing, rather than direct technological enhancement: It has already happened.
We have already been transformed via harnessing beyond what we once were. We’re already Human 2.0, not the Human 1.0, or Homo sapiens, that natural selection made us. We Human 2.0’s have, among many powers, three that are central to who we take ourselves to be today: writing, speech, and music (the latter perhaps being the pinnacle of the arts). Yet these three capabilities, despite having all the hallmarks of design, were not a result of natural selection, nor were they the result of genetic engineering or cybernetic enhancement to our brains. Instead, and as I argue in both The Vision Revolution and my forthcoming Harnessed, these are powers we acquired by virtue of harnessing, or neuronal recycling.
In this transition from Human 1.0 to 2.0, we didn’t directly do the harnessing. Rather, it was an emergent, evolutionary property of our behavior, our nascent culture, that bent and shaped writing to be right for our visual system, speech just so for our auditory system, and music a match for our auditory and evocative mechanisms.
And culture’s trick? It was to shape these artifacts to look and sound like things from our natural environment, just what our sensory systems evolved to expertly accommodate. There are characteristic sorts of contour conglomerations occurring among opaque objects strewn about in three dimensions (like our natural Earthly habitats), and writing systems have come to employ many of these naturally common conglomerations rather than the naturally uncommon ones. Sounds in nature, in particular among the solid objects that are most responsible for meaningful environmental auditory stimuli, follow signature patterns, and speech also follows these patterns, both in its fundamental phoneme building blocks and in how phonemes combine into morphemes and words. And we humans, when we move and behave, make sounds having a characteristic animalistic signature, something we surely have specialized auditory mechanisms for sensing and processing; music is replete with these characteristic sonic signatures of animal movements, harnessing our auditory mechanisms that evolved for recognizing the actions of other large mobile creatures like ourselves.
Culture’s trick, I have argued in my research, was to harness by mimicking nature. This “nature-harnessing” was the route by which these three kernels of Human 2.0 made their way into Human 1.0 brains never designed for them.
The road to Human 3.0 and beyond will, I believe, be largely due to ever more instances of this kind of harnessing. And although we cannot easily anticipate the new powers we will thereby gain, we should not underestimate the potential magnitude of the possible changes. After all, the change from Human 1.0 to 2.0 is nothing short of universe-rattling: It transformed a clever ape into a world-ruling technological philosopher.
The Web is a new form of knowledge tool, like writing and mathematics, but of astonishingly greater power, and one that potentially bends and shapes our cortex in novel ways. The rise of gestural user experience, messiness-at-scale social systems, and augmented reality are likely to usher in drastically different cultural norms and forms of interaction and perception based on a web-mediated experience of the world.