The Future of Ergonomic Work
A comprehensive analysis of how AR, VR, voice, gesture, and AI technologies are transforming the way we work, moving us away from desk-bound productivity toward healthier, more mobile work environments.
The Future of Ergonomic Work & Improving Health
What if you could get work done without being chained to your desk?
This ambitious question consumed us as we walked along New York City's East River six years ago, discussing the concept that would turn into Kahana.
The negative health impacts of sedentary work are well-documented: cardiovascular deterioration, musculoskeletal issues, metabolic dysfunction, and psychological health decline. The solution requires a fundamental shift in how we approach productivity.
The scary truth is that the more time you spend at a desk, whether seated or standing, your cardiovascular, musculoskeletal, metabolic, and psychological health are all deteriorating - and at an alarming pace. Just a year into our corporate jobs, we were already feeling the toll of the more sedentary lifestyle that our jobs imposed.
But we also recognized that empowering humans to perform any significant amount of job-related tasks away from a desk would require a herculean effort and major advancements in AR & VR, voice, gesture, and AI technologies. In short, it would require the ability to access and use the necessary materials we need to be productive away from a computer and monitors, just as easily and as quickly.
While we're not quite there yet, massive strides have been made across each of these areas over the last six years, bringing this vision from a science fiction pipe dream to a tangible goal that is within reach.
What This White Paper Covers
In this comprehensive analysis, we will examine the progress that has been made, the obstacles that still remain, the players that are best positioned to overcome these obstacles, and what the next few years will bring.
The health crisis caused by sedentary work environments
Technological solutions that could free us from desk-bound work
Key players leading the AR glasses revolution
Three critical development paths to desk-free productivity
Implementation roadmap and future outlook
Kahana's role in bringing this vision to life
How Desk-Bound Work Is Literally Killing Us
Human bodies were designed to be active.
The Historical Context
Then: Active Lifestyle
For nearly all of humanity's existence, from the era of hunter-gatherers through the mid-20th century, humans had a naturally active lifestyle.
Now: Sedentary Crisis
From about 1950 onward, that lifestyle became steadily less active, with technological advancements enabling a more sedentary, indoor lifestyle.
The Dramatic Decline
The Life Expectancy Paradox
Despite exponential medical progress, life expectancy in the United States has hit a plateau and is actually decreasing.3
The Workplace Connection
The shift to a more sedentary lifestyle, driven in large part by time spent in the workplace, is a primary culprit behind the health crisis.4,5
The Hidden Tax of Being Chained to a Desk
This significant increase has introduced a new host of health problems that were far less prevalent for most of human history: sedentary behavior is well-documented to increase the risk of premature death, due to the higher likelihood of contracting cardiovascular diseases, metabolic disorders, musculoskeletal disorders, cancer, depression, and even cognitive impairment.
And while depression, anxiety, and burnout were not as well-documented in the workplace in the 1950s, sedentary behavior is linked to poorer mood, higher stress, increased fatigue, and increased risk of depression and anxiety.10,11
Why Current Solutions Fall Short
Standing Desks
Barely meets minimum activity threshold (1.5 METs)
- No significant cardiovascular benefit
- Introduces new health problems (varicose veins, DVT)
- Musculoskeletal issues persist (carpal tunnel)
- Blood pooling in lower extremities
Desk Treadmills
Impractical for most work tasks
- Difficult to type while moving
- Limited to specific activities (calls)
- Not comprehensive solution
- Still requires desk-bound work
Walking Breaks
Work culture pressure limits effectiveness
- Pressure to minimize time away from desk
- Most work requires desk access
- Not a fundamental solution
- Productivity vs. health trade-off
Over the past 10-15 years, the public has become increasingly aware of the dangers that come with being chained to a desk to work. This has sparked the development of new technologies such as standing desks and mini treadmills to accompany desks, as well as workplace movements to encourage taking more breaks to go on walks. Sadly, these efforts are not nearly enough to make a tangible impact.12,13,14
Simply put, humans were not meant to be sedentary beings. And the way that we work in the 21st century - tied to our desks - is quite literally killing us, deteriorating our bodies and exposing us to a myriad of health risks.
The Solution Awaits
The health crisis we've outlined above demands a fundamental shift in how we work. In the next section, we'll explore how AR, VR, voice, gesture, and AI technologies are converging to create the tools that could finally free us from desk-bound productivity. Continue to the Solution →
Breaking Free from Desk-Bound Productivity
The future of work isn't about better desks—it's about breaking free from desks altogether.
Sitting at a desk is bad. Standing at a desk is bad. Walking at a desk is not a practical enough solution, and it is not possible to be productive without being at a desk.
In order to reverse the sedentary spiral, humans need to break free from desks altogether - at least for significant chunks of time. Doing so is an immensely complex, multi-faceted endeavor, as humans are tied to their desks due to a lack of suitable technological options beyond a computer hooked up to one or more monitors.
A phone is suitable for certain tasks, such as taking calls or sending light emails, but lack of screen space is a severe limitation - the majority of tasks require workers to have access to their important apps, files, and information, and the screen space that their computer and monitors provide to practically do their jobs.
But a complementary piece of technology is missing from the equation. One that:
- Provides humans with a suitable way to accomplish a significant subset of tasks on the go
- Combines the convenience and portability of the smartphone with the screen space to have the ability to easily pull up and view necessary materials
- Enables awareness of one's surroundings (e.g., not staring down at a phone)
- Creates an ergonomic, pleasant environment for productivity (e.g., not hunched over a small screen)
The solution? Lightweight wearable technology that gracefully blends computing power, practicality, safety, and communication technology to enable people to perform a significant portion of the work they would do at a desk while on the move, enabling them to work while on the previously aforementioned treadmill or on a walk outside.
The Technology Solution
There is a select set of companies that are best positioned to bring this technology to market. Here is a high-level overview of the technology that will need to be involved:
AR/VR/MR Devices
Lightweight, wearable computing platforms
Voice & Gesture
Natural interaction methods
AI Technology
Intelligent task automation
Why AR Glasses Are the Clear Winner
VR & MR Limitations
- Heavy and clunky design
- Safety concerns for outdoor use
- Confined to indoor spaces
- Still recreates sedentary work
AR Glasses Advantages
- 2-5x lighter than VR/MR
- Like wearing large sunglasses
- Comfortable for extended wear
- Safe for outdoor use
The Computing Challenge
The Impossible Triangle
AR glasses face a fundamental engineering paradox: optimizing any two of these factors inevitably compromises the third. It's the classic "pick two" dilemma of wearable computing.
Voice and Gesture Technology
The Vision
Voice-first browsers and operating systems that replace keyboard navigation with natural speech commands like "pull up the article I bookmarked last week" or "pull up Microsoft Excel on the left and Chrome on the right."
The Reality
While existing devices show sophisticated voice and gesture technology, significant improvements are still needed in accuracy, functionality beyond basic navigation, and gesture precision. The technology is promising but not yet ready for full productivity replacement.
Personalized, Agentic AI Technology
The Current State
AI is already ubiquitous and the most advanced of the three technologies. From ChatGPT and Anthropic to coding agents like Replit and Cursor, AI is heavily leveraged for desk-based work across platforms like Google Drive and Notion.
The AR Challenge
While integrating AI into AR glasses would be transformative, AI workloads are compute-intensive and require heavy real-time processing. Even with external computing devices, challenges include overheating, reduced battery life, and higher latency—especially with cloud processing.
Additional Technical Considerations
Connectivity & Battery
Must work without WiFi and last all day for mobile productivity
Light Sensitivity
Adapt to indoor/outdoor environments for safety and visibility
Style & Comfort
Must look and feel like normal glasses for mainstream adoption
Market Readiness
Need Ray-Ban Meta Glasses level of subtlety for mass adoption
Who's Leading the AR Glasses Revolution
The future of AR glasses isn't just about technology—it's about which companies can bring it to market effectively.
Today, several companies have developed AR glasses and technology, ranging from products still in R&D or limited supply to those that are commercially available. The goal of this section is to provide an overview of the most impactful players in the market, highlighting their primary focus in the space and their existing capabilities.
Key Players in AR Glasses
AR Glasses Market Overview
Key Market Drivers
- Remote work acceleration post-COVID
- 5G network infrastructure deployment
- AI and voice interface maturation
Growth Factors
- Healthcare and industrial applications
- Declining hardware costs
- Improved performance capabilities
AR Glasses Technical Comparison
Detailed specifications and capabilities of major AR glasses products
| Product | Company | Available | Weight | Compute | AI Voice | Gesture |
|---|---|---|---|---|---|---|
| Meta Orion AR Glasses | Meta | No | 98g | External | Yes | Yes |
| Apple Vision Pro | Apple | Yes | 625g | Standalone | Yes | No |
| Xreal One Pro | Xreal | Yes | 87g | Standalone | No | No |
| Magic Leap 2 | Magic Leap | Yes | 260g | External | Yes | Yes |
| Viture Luma Ultra XR | Viture | Yes | 80g | Standalone | Yes | Yes |
Software-Focused Strategy
Strategy
Android XR platform with hardware partnerships (Samsung, Qualcomm)
Upcoming Devices
- Smart Glasses (AI assistant)
- Project Moohan headset
Status
Active development, launching devices this year
Microsoft
Transitioning Strategy
Legacy
Early pioneer with HoloLens 1 & 2 headsets
Current Status
Discontinued HoloLens 2, focusing on software & cloud
Transition
Winding down Mesh Platform, retiring Azure Remote Rendering
Google vs Microsoft: AR Strategy Comparison
Microsoft
AR-Focused Hardware Companies
Specialized companies dedicated entirely to AR glasses development, focusing on lightweight, portable solutions
Xreal and Viture
Two AR glasses companies that have taken similar approaches to the market. Both have:
- Multiple AR glasses available for purchase today (detailed in Appendix)
- USB-C connected displays for external devices (phones, computers, gaming consoles)
- External computing devices for computationally-heavy activities
Market Position
Strengths
More ergonomic entertainment experience, removing device restrictions like limited screen size and poor posture
Limitations
Lack sophisticated built-in operating systems, limiting their potential for desk-free productivity22,23,30,31
Xreal
Viture
Component and Platform Providers
Diversified tech giants providing critical components and platforms that enable AR glasses development across the industry
Market Approach
Unlike specialized AR companies, these are diversified tech giants with multiple market interests:
- Larger companies with broader technology portfolios
- AR is one of many technology verticals they serve
- Provide foundational technologies for other AR companies
Strategic Partnerships
Samsung + Google
Collaborating to bring smart glasses and XR headset to market in 2024
Component Ecosystem
Sony and Qualcomm provide critical hardware components used across the industry
Samsung
Role
Hardware manufacturer & Google partner
2024 Plans
Smart glasses & XR headset launch
Market Position
Consumer electronics leader
Sony
Key Component
Micro-OLED display panels
Technology
High-resolution microdisplays
Market Position
Display technology supplier
Qualcomm
Key Component
Snapdragon processors
Technology
XR-optimized chipsets
Market Position
Mobile processor leader
Industry Impact
These companies form the foundational ecosystem that enables AR glasses development across the industry. Their components and platforms are essential building blocks that specialized AR companies like Xreal and Viture rely on to create their products. Samsung's partnership with Google represents a significant strategic move toward consumer AR adoption, while Sony and Qualcomm continue to drive the underlying technology that makes lightweight, powerful AR glasses possible.
Major Tech Giants
Established technology leaders with comprehensive ecosystems and significant resources for AR development
Apple
Apple is among the most intriguing players in the AR space with the potential to enable desk-free work. Its Vision Pro headset runs on VisionOS and integrates seamlessly into the existing Apple ecosystem.
Strengths
Ecosystem integration, iCloud sync, established user base
Challenges
Heavy weight, virtual keyboard limitations76
Meta
Meta has invested billions into Reality Labs and believes AR glasses are the computing device of the future. Their Orion prototype provides an impressive foundation for commercial AR glasses.
Innovation
Neural EMG wristband, holographic calls, multi-window displays15,16,17,18
Status
Orion prototype announced, working toward commercial release
AR-Focused Everything Players
Companies that build both hardware and operating systems, with AR as a primary focus area
Snap
Snap has been dedicated to AR for over a decade, with Snapchat filters laying the foundation for their Spectacles series running on proprietary Snap OS.
Focus
Social interactions and creativity, sophisticated AR technology26,27,28,29
Development
Considering raising outside funds for further AR glasses development
Magic Leap
Magic Leap has been at the forefront of AR technology with enterprise-focused headsets, but has recently shifted toward licensing its technology.
Specialty
Enterprise usage, medical training, optics expertise77,78,79,80
Partnerships
Strategic partner with Google, interest from Meta
Emerging Everything Players
Companies developing both hardware and software solutions, though with less sophisticated operating systems
RayNeo
A subsidiary of TCL Electronics, RayNeo has glasses that function as external displays (similar to Xreal and Viture) but also offers the X2 with its own operating system.
Product Range
External display glasses + X2 with proprietary OS81
Position
Less sophisticated OS compared to Apple, Snap, and Magic Leap
Up and Coming Players
Emerging companies with significant potential to impact the AR glasses market through innovative approaches and substantial resources
Amazon
Amazon is actively developing AR glasses, though details about their specific approach and timeline remain limited. Given their expertise in cloud computing, AI, and consumer electronics, they could bring significant resources and infrastructure to the AR glasses market.
Key Strengths
- Cloud computing infrastructure (AWS)
- AI and machine learning capabilities
- Consumer electronics experience
- Massive financial resources
Market Potential
Could leverage existing Alexa ecosystem and AWS infrastructure for AR glasses development
Status
Active development, limited public details available
OpenAI
OpenAI has a plan for rolling out unique devices designed to increase the speed and context with which humans can interact with AI. While they're not building AR glasses directly, they have the capacity and funds to impact the space significantly.
AI Leadership
- Advanced AI and language models
- Human-AI interaction expertise
- Substantial funding and resources
- Innovation in device interfaces
Market Impact
Could influence AR glasses development through AI integration and human-computer interaction innovations
Approach
Different device strategy, but potential to shape AR glasses AI capabilities
Market Impact Potential
These emerging players represent significant potential for disruption in the AR glasses market. Amazon's cloud infrastructure and consumer electronics expertise could enable new approaches to AR computing, while OpenAI's AI leadership could fundamentally reshape how humans interact with AR devices through more natural, intelligent interfaces.
Infrastructure Advantage
Amazon's AWS could provide the cloud computing backbone for lightweight AR glasses with powerful remote processing capabilities
AI Integration
OpenAI's innovations in human-AI interaction could set new standards for voice and gesture interfaces in AR glasses
Current Industry Adoption
AR glasses are gaining traction across key industries, with healthcare leading adoption and manufacturing showing strong enterprise uptake
Healthcare
Primary Use Cases
- Surgical guidance and visualization
- Medical training and education
- Diagnostic imaging overlay
- Patient data visualization
Leading Devices
Magic Leap 2 and HoloLens 2
Manufacturing
Primary Use Cases
- Assembly line guidance
- Equipment maintenance
- Quality control inspection
- Worker training and safety
Market Leader
Microsoft HoloLens 2 dominant
Education
Primary Use Cases
- Interactive training modules
- 3D visualization and modeling
- Remote learning experiences
- Virtual laboratory simulations
Device Ecosystem
Mixed device ecosystem across vendors
Adoption Trends & Insights
Healthcare Leads
Highest adoption due to clear ROI in surgical precision and training effectiveness
Enterprise Focus
Manufacturing shows strong enterprise adoption with Microsoft HoloLens 2 dominance
Growth Potential
Education sector shows early adoption with mixed device ecosystem indicating market maturity
Summary
Each of these players has helped AR technology achieve remarkable advancements, whether through unique display technologies (micro-LED, micro-OLED, SiC, waveguides), novel heat dissipation (magnesium, titanium, passive or externalized cooling), cutting-edge gesture/voice input, or multimodal AI capabilities. However, the pathway to truly desk-free, mainstream productivity still faces some clear barriers, including high production costs, the need to combine the advanced computational power that headsets can hold into lightweight wearables, and the need to ensure that any accompanying wearable technology (e.g., Orion's EMG wristband for gesture tracking) are comfortable enough to wear outside (e.g., how does it respond to heat and sweat?).
Three Critical Paths to Desk-Free Productivity
The future of AR glasses isn't just about what's possible—it's about what we need to build next.
The Path Forward
We have identified three potential next steps and opportunities to prioritize, as well as how to potentially accomplish them, in order for AR glasses to be useful enough to enable people to perform tasks away from their desks.
AR-Native Browsing
Spatial web experiences designed for AR
AI-Powered Planning
Intelligent task distribution and battery management
AR-to-Computer Communication
Seamless remote computing integration
AR-Native Browsing: The Vision38-45
"Imagine browsing the web in 3D space, with content that understands your environment and responds to your movements."
The Vision
95% of work tasks happen in browsers
Current AR devices just display 2D content
We need AR-native browsers built for spatial computing
The Challenge
Current AR devices simply display content from traditional 2D browsers, missing the opportunity to leverage AR's unique spatial and contextual capabilities for enhanced productivity.
The Opportunity
This represents a fundamental shift from traditional web browsing to spatial, contextual, and multimodal interaction paradigms that leverage the unique capabilities of AR technology.
Hardware Architecture & Thermal Management38-45
External Compute Architecture
The foundation for true AR-native browsing likely requires external compute architecture, which some devices already have.
Glasses Power Consumption
0.5-1.5W (vs 1-3W standalone) - thermally comfortable for all-day wear
External Device Performance
15-50W power budgets, dedicated graphics, 8-16GB RAM, active cooling
Thermal Management Solution
This architecture solves the fundamental physics barriers around heat dissipation and computational power that have prevented sophisticated spatial web experiences in lightweight wearable form factors.
Glasses Focus
Display driving, head tracking, wireless data streaming
Result
Desktop-class performance with lightweight, comfortable wearables
Multimodal Input & AI Integration38-45
Voice-First Navigation
Voice input emerges as a cornerstone technology for AR-native browsing, enabling natural navigation when traditional keyboard/mouse interaction becomes impractical in spatial environments.
Example Commands
"Show me the 3D model"
"Pin this article to the wall"
"Translate this page"
AI-Powered Intelligence
The external compute architecture allows for sophisticated on-device language models, real-time voice processing, and context-aware AI assistants that understand both spoken commands and spatial context.
Advanced Capabilities
Neural EMG interfaces
Computer vision for hand/eye tracking
Environmental understanding
Predictive interfaces
AR-Native Browsing: Technical Implementation38-45
Spatial Web Standards
Building AR-native browsing demands entirely new web standards beyond traditional HTML/CSS designed for flat screens.
WebXR APIs
Enhanced APIs for true spatial content rendering
3D DOM Extensions
Spatial objects with depth and physics properties
Spatial CSS
Environmental interaction and 3D typography
Connectivity Architecture
Critical connectivity requirements for seamless AR-native browsing experience.
Ultra-Low Latency
<5ms for display data, <1ms for sensor data
High-Bandwidth
60GHz, WiFi 7 for complex spatial data streams
Foveated Streaming
High-quality data only in user's focal area
Edge Computing
Reduces dependency on constant internet connectivity
Current State & Challenges
While some AR devices allow web browsing, the experience is neither deeply spatial, immersive, nor uniquely optimized for AR.
Current Limitations
- More a port of flat desktop/mobile web
- Typing and navigation feel unnatural
- UI lacks spatial optimization
- Not fundamentally AR-native
Future Potential
- Contextual and persistent experiences
- Multimodal and deeply interactive
- Engineering optimization barriers
- Within reach of current technology
AI-Powered Planning: Core Intelligence46-53
"Imagine AI that knows your calendar, analyzes your tasks, and intelligently distributes work across AR glasses and computers based on battery life, computational needs, and your daily context."
Predictive Battery Intelligence
AI-powered daily planning requires sophisticated predictive battery analysis engines that learn individual usage patterns and deliver 95%+ accuracy in battery life predictions.
Usage Pattern Learning
Analyzes power consumption across browsing, AI queries, video calls, and navigation
Advanced Modeling
Dynamic Z-Track algorithms accounting for workloads, environment, and connectivity
95%+ Accuracy
High-precision battery life predictions for optimal task planning
Intelligent Task Classification
Automatically categorizes daily activities based on computational requirements, user context, and current battery status.
AR-Native
Optimal for glasses - lightweight, spatial tasks
AR-Assisted
Beneficial but power-intensive - use with caution
Traditional Computing
Better suited for external devices - complex tasks
Voice-Centric Planning & Predictive Intervention
Voice interaction becomes the primary interface, enabling natural queries and providing predictive intervention for optimal task distribution.
Natural Queries
"How's my battery looking for today?" or "Can I handle another hour of AR browsing?"
Productivity Integration
Connects with Google Calendar, Microsoft Teams for automatic task routing
Predictive Intervention
Identifies when meetings might exceed battery capacity and suggests strategies
Power Impact Estimates
Meeting invitations include battery impact and optimal device recommendations
AI-Powered Planning: Advanced Optimization46-53
Morning Briefings & Energy Budgets
AI provides personalized morning briefings analyzing calendar events, task lists, and usage patterns to create daily energy budgets.
Calendar Analysis
Reviews upcoming meetings and events to predict power needs
Personalized Budgets
Creates daily energy allocation plans based on individual patterns
Real-Time Task Routing
Intelligent routing system that automatically directs tasks to the most appropriate device based on power consumption and efficiency.
AR Glasses Tasks
"Email review: 15min, 3% battery" - lightweight, mobile-friendly
Computer Tasks
"Excel analysis: 25% battery" - power-intensive, better on external device
Adaptive Distribution
Automatically adjusts based on remaining capacity and scheduled activities
Environmental Adaptation
Factors in temperature, connectivity, and other environmental conditions
Long-Term Battery Health & Optimization
Advanced system monitoring that extends beyond daily planning to optimize long-term battery health and lifespan.
Health Monitoring
Tracks long-term battery health patterns and degradation
Optimal Charging
Suggests charging routines to extend battery lifespan
Team Coordination
Collaborative battery management for continuous team coverage
Intelligent Daily Companion
The AI evolves from reactive monitoring to proactive workflow optimization, transforming AR glasses into intelligent daily companions.
Learning & Prediction
- Learns individual work patterns
- Predicts power needs with high accuracy
- Adapts to changing usage habits
Seamless Coordination
- Coordinates task distribution between devices
- Prevents unexpected battery depletion
- Maximizes AR hardware utility
AR-to-Computer Communication: Foundation & Architecture54-61
"Transform AR glasses into intelligent remote interfaces that provide desktop-class computational power while maintaining mobility and hands-free advantages."
The Instructional Tool Concept
While AR glasses aren't designed for heavy computation, they can serve as intelligent instructional tools that leverage more powerful external devices.
Send Instructions
Leverage AI coding agents and powerful external devices for complex tasks
Review & Iterate
Review results and iterate on tasks away from a computer
Ultra-Low Latency Communication
The foundation requires ultra-low latency protocols for real-time task offloading and result streaming.
<50ms Latency
End-to-end latencies using optimized wireless protocols
JPEG Compression
Optimized compression and dedicated network channels
Custom Protocols
Specialized protocols designed for AR workload distribution
Advanced Communication Protocols
Multiple communication technologies work together to enable seamless AR-to-computer communication.
5G/WiFi 6E
High-bandwidth connections for complex data transfer
WebRTC
Real-time data streaming for immediate results
Custom AR Protocols
Specialized protocols for AR workload distribution
Voice-Driven Workflow Integration
Voice becomes the primary interface for initiating complex tasks and managing sophisticated computational processes.
Example Commands
- "Hey computer, run a Cursor analysis on this code"
- "Analyze this spreadsheet for trends"
- "Generate three design variations of this 3D model"
- "Run security analysis on the current codebase"
Productivity Integration
Integrates with Cursor, IDEs, data analysis software, and development environments
Spatial Results
Results streamed back in spatial formats optimized for user's context and visual field
AR-to-Computer Communication: Advanced Optimization54-61
"Transform AR glasses into sophisticated remote interfaces that provide desktop-class computing power while maintaining mobility and hands-free advantages."
Intelligent Edge Client
The AR device functions as an intelligent edge client that dynamically assesses computational requirements and routes tasks appropriately.
Dynamic Assessment
Evaluates computational requirements in real-time
Smart Routing
Routes tasks between local and remote processing
Real-Time Performance
Maintains performance while offloading demanding algorithms
Adaptive Reverse Task Offloading
The computer automatically splits complex operations into optimized subtasks and executes them using desktop-class hardware.
Code Analysis
Running Cursor for code analysis and optimization
Data Processing
Processing large datasets and complex calculations
3D Rendering
Rendering complex 3D models and visualizations
Spatial Display
Results optimized for spatial display in AR
Network Optimization Techniques
Sophisticated network optimization techniques minimize latency while maximizing reliability for mobile users.
Smart Routing
Intelligent routing protocols for optimal data paths
Adaptive Compression
Dynamic compression algorithms based on bandwidth
Predictive Caching
Pre-loading likely results for faster access
Advanced Processing Techniques
Edge computing principles process latency-critical functions locally while offloading intensive tasks to remote computers.
Foveated Streaming
High-quality data only where the user is looking
Predictive Pre-loading
Pre-loading likely results for faster response times
Failover Strategies
Maintaining productivity during connectivity disruptions
Network Intelligence
Automatic optimization of connection protocols and compression
The Path Forward
These three development paths represent the most critical opportunities for transforming AR glasses from entertainment devices into powerful productivity tools. Each path addresses fundamental limitations that currently prevent AR glasses from serving as viable replacements for desk-bound work, while building on existing technological foundations and market momentum. The convergence of these three approaches—AR-native browsing, AI-powered planning, and robust computer communication—could finally deliver the desk-free productivity future that has been promised but not yet realized.
We hope this comprehensive analysis has provided you with a clear understanding of the dire need to break free from our desks to get work done and the progress we have made as a society to get there - hopefully sooner rather than later.
At Kahana, we are obsessed with solving this problem and bringing this vision to life. We are Biomedical Engineering graduates who left our full-time corporate jobs to dedicate years of our lives to serve this goal. We built Oasis, our voice-first browser, to make information access and organization more ergonomic, and hopefully pave the way for what AR-native browsing can be.
Kahana's Commitment
Our Mission
We are hungry to contribute to the ongoing R&D and progress being made in AR technology, and we hope to have the opportunity to be at the forefront of ushering this vision into the world.
Our Solution
Oasis, our voice-first browser, represents our first step toward creating more ergonomic, efficient work environments that free people from the constraints of traditional desk-bound productivity.
The future of work is not about better desks—it's about breaking free from desks altogether. 🦥
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