Showing posts sorted by date for query near zero pricing. Sort by relevance Show all posts
Showing posts sorted by date for query near zero pricing. Sort by relevance Show all posts

Saturday, July 18, 2026

For Every Public Policy There are Corresponding Private Interests

I learned a long time ago, as a student of public policy and then as a journalist, that “for every public policy there are corresponding private interests.”


So arguments about whether and how to regulate artificial intelligence in the context of content businesses always will be a combination of abstract public values, impact on culture, fairness, content quality or art and perceived personal economic interest.


Every major technological shift affecting content industries has altered

  • who creates value

  • who captures income

  • whose social status changes. 


Indeed, much of the economic value in content industries rests on scarcity, and AI threatens to create abundance. That might be a favorable outcome for content consumers, but might harm professional content producers. 


Traditional source of scarcity

Effect of AI

Skilled illustration

AI greatly expands supply

Copywriting

Near-zero marginal production cost

Translation

Instant multilingual capability

Stock photography

Synthetic images substitute for many uses

Voice acting

Synthetic voices compete in many applications

Video production

Increasing automation reduces labor inputs

Software documentation

AI drafts much routine material

Marketing content

Mass personalization becomes inexpensive


Whenever scarcity declines, prices usually follow. So the content industry advocates concern about AI "ethics” also are about protecting existing economic rents. 


That isn’t unusual. All professional associations, licensing requirements and unions, whatever their stated purpose (“safety,” often), are also about protecting economic rents.


Public policy concern

Corresponding private interest

Copyright protection

Licensing revenues

Artist consent

Control over monetization

Transparency

Ability to distinguish human work in the market

Watermarking

Preserve premium pricing for human-created work

Fair compensation

Maintain existing wage levels

Quality concerns

Preserve professional gatekeeping

Educational concerns

Preserve demand for traditional instruction

Safety regulation

Increase barriers to entry favoring incumbents

Cultural preservation

Preserve existing creative institutions


We can cite many content industry examples.


Technology

Incumbents defending existing value

Public argument

Private interest

Printing press

Scribes

Accuracy, religious authority

Preserve copying profession

Photography

Portrait painters

Artistic standards

Maintain commissions

Recorded music

Live performers

Artistic integrity

Preserve performance income

Radio

Newspapers

Media concentration

Advertising revenues

Television

Movie theaters

Cultural effects

Box office

Digital photography

Film manufacturers

Image quality

Film sales

MP3 files

Record labels

Copyright

Music distribution revenues

Streaming

Cable operators

Local programming

Subscription economics

Generative AI

Writers, artists, actors, publishers

Copyright, authenticity, quality

Employment, licensing, bargaining power


Also, AI threatens not only earnings but also professional identity, as creative professions provide:

  • expertise

  • prestige

  • cultural influence

  • reputation

  • gatekeeping authority

  • community standing. 


If AI enables non-experts to produce acceptable commercial work, professionals may lose status even before they lose substantial income.


The broader lesson from economic history is that technological debates are rarely contests between "public good" and "private greed." 


Instead, all public policies have corresponding private interests.


AI raises authentic questions about authorship, consent, cultural diversity, and market power. 


At the same time, it redistributes income, bargaining power, and professional status across the content ecosystem. 


That isn’t to deny the legitimacy of the issues raised. But neither does it make sense to deny the private financial interests also at stake. 


Tuesday, June 16, 2026

Mergers, Joint Ventures or Investments as Routes to Controlling AI Model Costs

Just how artificial intelligence model providers might improve their economics is a key business model issue. 


A shift to inference operations also emphasizes the importance of reducing cost per token at scale. 


source: McKinsey 


Where software often has marginal costs close to zero, use of AI models seem to have costs that scale almost linearly with usage, so marginal costs are high. 


A few key business issues are clear enough.


A greater shift of cost towards fixed cost rather than variable cost seems necessary. For example, model creators could move in the direction of owning their compute infrastructure rather than renting cloud capacity.


The problems with high variable cost are clear:

  • Unit economics

  • Cash burn and need for capital injections

  • Competitive pressure

  • Capital allocation


Right now, model queries do not show software-style marginal cost trends, where marginal costs are close to zero. 


Every additional user or query drives proportional costs for GPUs, power, and data center capacity. 


Reports suggest inference alone consumes 50 percent of revenue in some cases. Some suggest the problem is worse, with at least some model providers spending more than 100 percent of revenue on compute services. 


By itself, that might not be existential, as model providers are in the early stages of growth, meaning incremental revenues would not be expected to cover the full costs of creating and operating the models at scale.  


But observers do worry about marginal costs that seemingly do not have software-style economics with near-zero marginal costs.


Cash burn and capital intensity also are issues. Rapid revenue growth is offset by even faster cost scaling, which necessitates high investor funding requirements, borrowing, equity raises. 


Pricing issues also are an issue. When model suppliers raise prices, introduce usage-based tiers, or limit free access, they risk customer churn or slower adoption, even as they address revenue issues. 


Strategic vulnerabilities also exist when model suppliers are dependent on external suppliers for crucial computing services (operating costs, ability to manage surges of demand). 


Capital allocation is an issue as well. One might argue that model builders should divert capital into compute infrastructure, but that is hugely expensive and detracts from the job of developing the next generation of models.


So the issue is how to fix the problem. Revenue growth with scale obviously helps, but doesn't solve the marginal cost issue. Efficiency improvements, owned infrastructure and pricing innovations all will play a role.


Smaller or distilled models, sparse activations, better architectures, prompt caching, batching, quantization, and routing to cheaper models for simpler tasks will happen.


Inference costs per token have dropped significantly in some cases, allowing gross compute margins to  improve.


source: Beth Kindig 


Stranded assets always are a problem, so higher GPU utilization rates help. So do custom silicon and algorithmic advances.


Owned infrastructure is a partial answer. Model builders and compute suppliers are investing heavily in their own data centers and chips (Anthropic's $50 billion commitments for custom U.S. facilities with partners like Fluidstack; OpenAI's Stargate).


Revenue models also are adjusting. Higher enterprise pricing, usage-based tiers, value-based pricing (charge relative to delivered value, not just tokens) and premium features or apps are introduced. 


Given all that, one logical historical precedent is for mergers and acquisitions that place model building and compute functions under a single ownership. On the other hand, antitrust regulations will probably tend to restrict options for some of the most-likely buyers (Alphabet, AWS, Microsoft, SpaceX, for example).


So other forms of cooperation are likely to develop. 


Expect partnerships, joint ventures, dedicated capacity deals, and partial ownership rather than full-scale mergers and acquisitions, which will face antitrust opposition. 


When feasible, model builders are creating their own compute infrastructure. OpenAI's Stargate project with Oracle and SoftBank (up to $500B, multi-gigawatt scale) provides an example. Investments in neocloud suppliers is another example. 


But that might be the exception to the rule. Anthropic, for example, has chosen to sign big supply deals rather than build its own facilities.


Partnerships for Tensor Processing Units, Trainium, and other accelerators reduce reliance on expensive third-party GPUs and improve efficiency also are growing. 


But full vertical integration might not be the immediate or mid-term path forward, partly for regulatory scrutiny reasons; partly for capital intensity reasons and partly for business diversity reasons. Both model builders and compute infra providers prefer a diversity of partners. 


So joint ventures and consortia that also have the advantage of off-balance-sheet implications will happen. 


In summary, tight strategic integration and partial ownership rather than blockbuster mergers are the main approaches. That avoids regulatory opposition and also is capital efficient. 


Monday, April 6, 2026

Gemma 4 is Designed to Run on Edge Devices Such as Smartphones, Using Apache 2.0 License

Gemma 4, Google’s latest open source artificial intelligence model, is probably important for several reasons. For starters, it uses an Apache 2.0 license model, which means that developers can take Gemma 4, fine-tune it, ship it in a product, charge money for it, and Google has no claim over what you built.

You might argue that closed models are irrelevant for most independent developers and small companies, as they are expensive at scale, opaque, and make developers permanently dependent on another company’s pricing decisions.


Gemma changes the payback model. You host it, control the data and tune it to your use case. Developers pay for compute, not per-token fees.


Also, the models are engineered from the ground up for maximum compute and memory efficiency, to preserve RAM and battery life. 


“These multimodal models run completely offline with near-zero latency across edge devices like phones, Raspberry Pi, and NVIDIA Jetson Orin Nano,” Google notes, with the more-complex models running on a single graphics processor unit.


But Gemma 4 is optimized for on-device and low-resource environments, including mobile. That enables:


Since Gemma 4 reduces inference and application programming interface costs, which are run locally, startups and independent developers can build AI products with much lower marginal cost, expanding the range of viable business models, especially for specialized use cases.  


Of course, as often is the case for open source, there are advantages for the sponsor. 


Historically, Google uses open tools to drive developer adoption and ecosystem lock-in, and Gemma 4 arguably fits that pattern:

  • Free/open models attract developers

  • Developers build apps

  • Apps are hopefully hosted on Google Cloud. 


Ideally, from Google’s point of view, the idea is to remain relevant no matter what happens with the cloud computing inference business


Old model

Emerging model

Centralized cloud inference

Distributed + edge inference

Pay-per-API-call

Local + hybrid

Vendor-controlled

Developer-controlled


Also, Gemma 4 diversifies Google’s model approach. Where Gemma targets the segment of the market requiring  open, lightweight, customizable solutions, Gemini focuses on the segment where proprietary, frontier, premium models are valued. 


So Gemma should appeal to users focused on experimentation, edge computing and cost-sensitive use cases. Gemini remains focused on high-end reasoning and enterprise-grade reliability.


Thursday, April 2, 2026

What is the Most-Important Mobile Device Capability of All Time?

At the risk of seeming dismissive, the value of satellite direct-to-device service is a “nice to have, once in a while” for many of us. The exception will always be emergencies or disasters, when D2D value is very high. 


I think most of us would probably rank text messaging and mobile broadband as more-important features, though, most of the time. And yes, some might still say it was the liberation of voice communications from "place-based" to "mobile" which should still be on the list.


Innovation

Core impact

Relative importance

Why

Broadband internet access

Enabled always-on data, apps, streaming, cloud services, and the modern mobile economy

Very high

Mobile broadband helped drive smartphones, VoIP, location-based apps, and wide consumer adoption of data services aei.

Text messaging (SMS)

Made mobile communication lightweight, asynchronous, and universal

Very high

SMS became a foundational mobile behavior and a catalyst for later messaging innovations

Digital calling / VoIP

Shifted voice from circuit-switched telephony to internet-based communication

High

VoIP expanded flexibility, lowered cost, and added features like video calling and routing klearcom.

Voice interface / voice assistants

Reduced friction for device interaction and improved accessibility

Moderate to high

Voice can speed up interaction and help hands-free use, but it is more of an interface layer than a new network capability

Satellite direct-to-device (D2D)

Extends basic connectivity beyond terrestrial coverage

Moderate, with high strategic value

D2D can provide limited text and possibly voice in no-coverage areas, but capacity, latency, and indoor performance constrain it; it complements mobile networks rather than replacing them.


But even if emergency messaging and basic satellite fallback is the initial attraction, followed in some cases by more support for broadband access on the mobile device, some might say a possible shift is some impact on household rural internet access, for some users.


Obviously, a stationary user can use a standard dish to get access at higher speeds. But there will be some use cases where even lower speeds are useful because one requires mobility.


Not to downplay the value, but satellite direct-to-device connectivity, most of the time, might not be viewed by most users, as among the most-important mobile technology innovations. 


And forecasts of global usage still vary by an order of magnitude. The number of users still will likely eclipse stationary satellite internet usage, though. 


Segment

Time frame

Forecast

What it implies for home Internet

Smartphone satellite D2D

2030

411 million users

Huge reach for emergency/backup connectivity and light internet use, but not necessarily primary home broadband. omdia.tech.informa

Consumer satellite broadband

2025 to 2030

6.2 million to 15.6 million

This is the clearest proxy for primary home Internet access via satellite, and it suggests a smaller but still material market. marketsandmarkets

Global satellite broadband revenue

2025 to 2030

$10 billion to $20 billion

Implies steady scaling of fixed residential broadband, especially as LEO lowers latency and improves quality. juniperresearch

LEO subscribers overall

2026

Over 15 million

Deloitte’s estimate suggests LEO internet is already moving beyond niche use, but still far below mass-market fixed broadband. deloitte

U.S. residential LEO opportunity

2026

About 6% of U.S. households with no or limited terrestrial options

Indicates the strongest home-internet use case remains rural or underserved households rather than broad urban substitution. interactive.satellitetoday

Direct-to-device market

2030

23.5 million

Another indication that D2D can scale quickly, but this is still more about handset connectivity than household broadband. marketsandmarkets


Three different layers of impact are possible: 

  • home broadband replacement in rural areas

  • backup/backup-like connectivity for households and travelers

  • mass-market phone connectivity for emergencies or light data use.


As a consumer user who spends most of his time in urban areas, I only encounter mobile service dead spots occasionally, with one exception: mountainous rural areas. The annoyance tends to be sporadic and limited, so most of the time, service loss might not be mission critical. 


Rural residents will see the value more directly. So will some business users, especially where dedicated gear can be replaced by standard smartphones.   


Scenario/Use Case

Value Driver

Current Pricing

Possible Future Pricing

Sensitivity

Consumer — everyday users

Emergency SOS only

Hiker, driver, casual user wanting a safety net

Peace of mind; one-time life-safety use case. Near-zero marginal cost to user.

Free (Verizon/Skylo, T-Mobile 911)

$0

Very high — free is the market anchor already set by T-Mobile

Dead-zone texting add-on

Rural resident, road tripper, occasional off-grid user

Stay reachable anywhere; avoid buying a separate device or plan

$10/mo (T-Satellite add-on)

$5–$8/mo

Moderate — price-elastic; most users won't pay $20+ for text-only backup

Bundled in premium plan

Existing top-tier subscriber, satellite included

Perceived plan value upgrade; carrier lock-in incentive

$0 add-on (Go5G Next / Experience Beyond ~$17–$35/line/mo base)

$3–$7 implicit

Low for satellite alone — high as part of bundle; drives plan upgrades not standalone subs

Full broadband backup (voice + data)

Heavy traveller, digital nomad, remote worker

Replace roaming SIM cards, satellite hotspot devices; seamless global connectivity

Not yet widely available; $120/mo Starlink dish alternative

$12–$20/mo

Moderate-high — replaces expensive workarounds; price falls as competition grows

Outdoor recreation enthusiast

Backcountry hiker, climber, angler, off-road driver

Replaces $200–$400 Garmin InReach devices + $15–$50/mo plans; uses standard phone

$10/mo T-Satellite; Garmin InReach $15–$50/mo

$8–$15/mo

High willingness to pay relative to current alternatives; this segment already pays more for device-based solutions

Emerging market first-time user

Rural user in Africa, South Asia — no prior cellular access

Only connectivity available; economic access to banking, health info, commerce

Not yet commercially priced in most markets

$0.50–$3/mo

Extremely price-sensitive; requires subsidized or MNO-bundled access models to reach scale


Business — SME and field operations

Field workforce connectivity

Construction, agriculture, forestry, utilities workers in remote sites

Eliminates need for satellite radios or dedicated satellite phones; uses workers' standard phones

Satellite phones: $60–$150/mo/device; Iridium/Globalstar legacy

$10–$20/mo per device

High — strong ROI vs. legacy hardware; productivity and safety case easy to make

Asset and fleet tracking (IoT)

Trucking, shipping containers, agricultural equipment

Real-time location and telemetry anywhere — eliminates blind spots in supply chain

Skylo/Orbcomm IoT: $2–$10/device/mo

$1–$5/device/mo

Volume-driven; WTP per device is low but total spend is high at scale. Competition will drive prices toward $1–2/device

Maritime — commercial vessels

Fishing fleets, coastal freighters, offshore supply boats

Crew welfare, navigation, regulatory compliance (AIS), weather routing

VSAT plans: $500–$5,000/mo; D2C emerging as low-cost tier

$30–$100/mo per vessel

Moderate — replaces expensive VSAT for smaller vessels; large ships still need VSAT bandwidth

Business continuity / network failover

SME in disaster-prone area; company with remote field offices

Insurance-like: avoids cost of downtime. A single outage can cost thousands in lost productivity

No clear D2C market rate yet; Starlink failover $120–$250/mo

$15–$40/mo

High where downtime cost is quantifiable; insurance framing sustains higher WTP than feature framing


Enterprise and government — high-value segments

Public safety / first responders

Police, fire, EMS, disaster relief — FirstNet / AT&T D2C beta

Mission-critical: connectivity in destroyed infrastructure; prevents loss of life

FirstNet: government contract pricing; D2C beta active in 2026

$40–$100/mo (mission-critical premium sustained)

Very low price sensitivity — budget-driven by agency, not individual. Government contracts insulate from commodity pressure

Energy sector — oil, gas, mining

Offshore platforms, remote mine sites, pipeline monitoring

Worker safety compliance, asset monitoring, operational data. Downtime = very high cost

Legacy VSAT/Iridium: $200–$1,000+/mo; D2C emerging

$40–$200/mo (downtime cost sustains premium)

Very low price sensitivity relative to operational risk; will pay for reliability guarantees (SLAs), not just connectivity

Global enterprise roaming

MNCs with staff travelling across regions; eliminates roaming SIM complexity

Single plan, one bill, no roaming charges, IT simplification; same number everywhere

International roaming: $10–$30/day or $50–$150/mo add-on

$15–$35/mo per employee

Moderate — CFO-visible cost reduction vs. legacy roaming; IT procurement drives decisions, not individual WTP

Defense / sovereign communications

Military, intelligence agencies, border control

Resilient comms independent of terrestrial infrastructure; anti-jamming, encrypted backups

AST SpaceMobile secured SDA contracts 2025; classified pricing

Sustained — sovereign need prevents commoditisation

Near zero sensitivity — strategic necessity; multiple suppliers preferred for redundancy, not cost

Day-pass / event-based access

Festival-goer, cruise passenger, occasional traveller — no monthly commitment

Pay-as-needed; avoids monthly subscription for infrequent use

AST model includes day-pass option; price TBD

$1–$4/day

High sensitivity — low engagement users won't commit monthly; day-pass unlocks casual market but ARPU is low


Other settings, such as at sea or if there is a disaster or other emergency, also have value. I’m not a fan of people talking on their phones on airplanes so I’ll consider that a scenario where loss of voice is not an issue.


Then there are the vertical applications (transportation, sensors). 


What it means for the user

Key players

Timing

Maturity

No more dead zones,

coverage anywhere on Earth

Calls, texts and data work in remote areas, at sea, in deserts and mountains — without a satellite phone or special hardware.

AST SpaceMobile (AT&T, Verizon), Starlink Direct-to-Cell (T-Mobile)

Now

Emergency SOS from any phone


Standard smartphones can ping rescue services even with zero cellular bars — not just via Apple's partnership, but across all major carriers.

Apple + Globalstar, Skylo + Verizon, AST SpaceMobile

Now

Seamless roaming — globally

No SIM swaps, no foreign plans

Satellite acts as a fallback layer when you leave terrestrial coverage, keeping your home carrier number and plan active anywhere in the world.

AST SpaceMobile (50+ MNO agreements), Starlink DTC

2026

Broadband speeds without a dish

Up to 120 Mbps direct to phone

Streaming video, video calls and app use at broadband speeds from an unmodified 4G/5G phone — no Starlink dish, no hotspot device.

AST SpaceMobile BlueBird Block 2

2026

Lower latency vs. old satellite

~20–40ms vs 600ms (GEO)

LEO orbits at 340–550 km vs. 35,000 km for older satellites. Round-trip delay drops from 600ms to ~20–40ms — making real-time apps feel normal.

Starlink, AST SpaceMobile, Project Kuiper

Now

Better disaster resilience

Connectivity when towers fail

Hurricanes, earthquakes and wildfires that knock out cell towers won't knock out satellite. Emergency responders and civilians stay connected.

AST + FirstNet / AT&T, Starlink

Now

Connected vehicles,  navigation

Always-on maps and telematics

Real-time navigation and OTA updates for cars and trucks even in rural or off-road environments. One automaker already launched 20 LEO satellites for autonomous vehicle navigation.

Starlink for Tesla/EV OEMs; Chinese automaker constellation (240 sats planned)

2026

Global IoT connectivity

Devices tracked anywhere

Phones become hubs for satellite-connected sensors — asset trackers, agricultural sensors, logistics tags — all reporting in real time from anywhere.

Globalstar, Skylo, Iridium, Starlink

Now

Digital inclusion in remote areas

Billions newly connected

Over 87% of Earth's surface lacks cell tower coverage. LEO fleets bring mobile internet to people in developing regions who have never had it, enabling education, healthcare and commerce.

AST SpaceMobile (5.8B target subscribers), Starlink

2026–27

Competitive pricing pressure

Lower mobile bills

Multiple competing LEO fleets (Starlink, Kuiper, AST, Skylo) create market competition, potentially driving down satellite add-on costs and included in carrier plans.

Project Kuiper (undercutting strategy), T-Mobile + Starlink

2026–27

AI-powered satellite management

Smarter, more reliable service

AI increasingly used to autonomously manage constellation operations, beam steering, and anomaly detection — improving reliability and reducing latency for users without them noticing.

All major operators

2026+

In-flight and maritime connectivity

Seamless air/sea experience

Passengers on planes and ships get reliable broadband that hands off between LEO satellites, ending the era of slow or absent in-flight Wi-Fi.

Starlink Aviation, Eutelsat OneWeb, Project Kuiper

Now

Spectrum and light pollution tradeoffs

More satellites mean potential radio-frequency interference with other services, and bright satellites visible in the night sky. Users benefit from connectivity but bear environmental and regulatory costs.

All constellations (regulatory concern)

Now


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