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AI or Artificial Intelligence is a self learning and/or self rewriting technology that mimics human mind, intelligence and decision making. It has the ability to evolve and learn basis the responses it receives in different situations. As per IEEE SA, AI is “the combination of cognitive automation, machine learning (ML), reasoning, hypothesis generation and analysis, natural language processing and intentional algorithm mutation producing insights and analytics at or above human capability.”

 

An application-oriented question on the topic along with responses can be seen below. The best answer was provided by  Adil Khan on 3 December 2025.

 

Applause for all the respondents -  Adil Khan,  Manisha Boolchandani, Shashank Verma, Venessa Laval, Arul Palani, Mahesh Vemula, Santosh 

How Will AI-to-AI Collaboration and Competition Reshape Markets?

Featured Replies

For the context of this question, refer to Q827 - Can AI Systems from Different Companies Collaborate Effectively?

Q. 828 How Will AI-to-AI Collaboration and Competition Reshape Markets?

As AIs start interacting across companies — negotiating prices, optimizing supply chains, or coordinating customer experiences — entire markets could evolve into autonomous ecosystems where machines make faster, data-driven decisions than humans ever could.

Think of your industry or domain:
How might AI-to-AI interactions change the rules of competition, pricing, or value creation?
What new risks, advantages, or ethical dilemmas might emerge when algorithms begin shaping market outcomes directly?

⚠️ Note: Any answer that is generic or does not connect with a specific, relevant market or industry context will not be approved.

🏆 The best answer will be selected on the basis of:

  • Relevance and clarity of the chosen market scenario

  • Depth of insight into market or competitive implications

  • Practicality of governance or safeguards suggested

Note for website visitors -

Solved by Adil Khan18

How AI-to-AI Collaboration & Competition Will Reshape Telecom Markets?

When telecom AIs begin interacting - for negotiations, network coordination, roaming, supply chain, fraud detection, or customer experience - the entire competitive landscape will shift from human-driven decisions to algorithmic ecosystems. So that each interaction is aligned in strategic landscape.

Org- Rogers Communications

Project- Build and design a robust, scalable Data Governance Framework to manage enterprise data

Telecom Networks will Become AI-Negotiated Ecosystems

Where AIs will interact across companies

  • Roaming charges negotiated AI-to-AI. When customers will compare other major telecom service providers like Bell, Cox and Telus; negotiations are bound to happen.

  • Spectrum sharing and congestion relief negotiated in real-time. Example- Network in Rogers is suddenly crowded - too many people using it in the same area. So the AI in Rogers asks the AI in another operator-

Hey, my network is full. Can I borrow a tiny piece of your 5G network (2%) for just 6 minutes?

And the other AI can reply- Sure, you can use it.

AI networks help each other in real-time so customers don’t face slow internet.

 

Why it matters:

o   Fewer call drops

o   Faster speeds even during crowds (stadiums, concerts, malls)

o   More efficient use of 5G

o   Automatically handled by AI - no human needed. Everything done by AI- very quick and dynamic 

  • Inter-carrier routing optimized automatically. When a call is to be connected to another user there are certain ways through which it can connect. When this process of inter-carrier routing will shift completely to AI it will become fastest, cheapest and least congested. For example- a Rogers user  is calling someone on Bell subscription. There may be multiple paths the call can take to reach Bell’s network. The AI checks-

o   Which path is fastest right now?

o   Which path has less congestion?

o   Which path costs least for Rogers?

 

Then it picks the best one automatically within milliseconds.

 

  • Vendor pricing like devices, towers, cloud, fibre negotiated between procurement AIs. Like how we rented network, we can rent devices, towers, cloud, fibre etc for better functioning of complete system, all done automatically via AI. What Rogers get out of this-

o   Cheaper towers, fibre, devices, cloud

o   Faster procurement

o   Fewer errors

o   Better forecasting

o   Stronger negotiating power

 

What customers get out of this-

o   Better network quality

o   Lower costs may eventually reduce bill prices

o   Faster rollout of new technology

 

This shifts markets from static pricing to dynamic, algorithm-driven competition.

 

How AI-to-AI Interactions Change Rules of Competition

Real-time AI-driven tariffs- Which leads to dynamic pricing

AI could set roaming, data, and enterprise plan pricing minute-by-minute based on-

·       Network load- Re-routing network load to first another server and then to different domain server

·       Competitor’s offers- Rogers AI would check what are the offers by other competitors and then set its price. This will have a chance to boost sales by 30%

·       Customer churn predictions- Rogers runs churn prediction models twice a week. These models use customer demographics and behavior patterns to tell Rogers-

o   Which customers are likely to leave,

o   Why they might leave,

o   Which customers may come back and buy a Rogers plan again.

This helps Rogers understand what customers expect and how to retain them with better offers or services. When all of this is fully AI controlled, performance increase by 2x of the entire system.

 

·       Usage spikes - when many people use the network at the same time, causing congestion. When this is fully AI controlled these challenges become very easy to address. For example-

o   Stadiums- During a cricket match or football match, 50,000 people are all trying to use their phones at once, network becomes crowded.

o   Concerts- Everyone is recording, uploading, sharing, messaging, too much load on the network.

This eliminates human-set price plans and introduces algorithmic competition all done by AI. Results- Extremely fast, dynamic, process oriented but all by AI

AI-driven value creation- Network-as-a-Market

Networks begin switching following resources with each other autonomously-

·       Bandwidth

·       Edge compute

·       Tower capacity

·       Energy during peak times

·       API-based services for identity verification and sometimes fraud signals

 

Rogers can sell micro-slices of network capacity automatically to partners like banks, hospitals, IoT companies to better manage switching of resources automatically.

This unlocks new revenue where-
Networks trade resources directly with other networks
Value is created machine-to-machine- very dynamic, robust and energy efficient.

 

B2B Market Coordination

AI-to-AI collaboration with-

·       Banks → fraud detection. Rogers’ AI and a bank’s AI talk to each other to catch fraud faster. Example- If someone steals your SIM card or hacks your phone and tries to make a strange payment-

o   Bank AI notices a suspicious transaction

o   Rogers AI checks if your phone activity looks unusual (new device, new location, weird usage)

o   Both AIs share signals instantly

o   They block the fraud before money is lost

It’s like two security guards talking to each other to catch a thief faster.

 

·       Retailers → personalized shopping experiences. Retail store AI (like Amazon, Walmart, etc.) and Rogers AI share insights to give customers better, more relevant offers. Example-

o   Customer browse sports shoes on an app.

o   Retailer AI sees their interest

o   Rogers AI checks customer’s data plan usage, patterns (NOT personal messages - only allowed metadata)

o   Both AIs work together and say-

o   She likes fitness items.

o   Send her a special discount.

o   Customer instantly get a personalized offer.

 

·       Transport → connected vehicle optimization, Cars, buses, and traffic systems use AIs that talk to Rogers’ AI to make travel safer and smoother. Example-

Your smart car needs-

o   Better navigation

o   Real-time traffic updates

o   Accident alerts

o   Smooth connectivity

The car’s AI asks Rogers’ AI-

o   Which route has strong network? Where is traffic heavy? Any accident ahead?

Rogers’ AI replies instantly:

o   Take the left route. Better network and less traffic.

o   Cars, traffic lights, and maps all stay in sync.

It’s like your car and the network planning your route together to avoid jams.

 

This creates cross-industry ecosystems where Rogers’ AI becomes a market participant. And sets a market score in industry so that it attracts more markets to do business. When every business taken care by AI it gives magnificent results.

Advantages Rogers Can Gain

Faster decisions

Optimized decision by AI-

·       Outages- AI can watch thousands of network signals every second. It can spot a failure early and take action before customers even complain.

·       Network load shifts- when huge consumption is observed AI can shift the load to other nearby towers.

·       Supply chain forecasting- predict which items Rogers need before they run out. For example- AI can predict-

o   How many devices to order

o   Which towers need parts

o   When inventory will run out

 

·       Fraud detection- AI instantly knows when something looks fishy and raises an alert. For example- AI can quickly spot unusual patterns that look like fraud-

o   Strange SIM activations

o   Suspicious logins

o   Payment patterns

o   Abuse of promotions or plans

 

·       Customer retention- predict who may switch to another provider, so that Rogers can come up with better plans for those

 

Ultra-efficient operations

Predictive maintenance + optimal inventory + zero human negotiation delays- AI can predict what is needed then makes sure Rogers have it and finally AI negotiates with vendors for the things needed. All instantly.

Micro-personalized customer experiences

AI talks to retailer AIs, banking AIs, IoT AIs → creates-

·       Real-time offers

·       Context-aware services

·       Dynamic bundles

 

New revenue streams via AI APIs

Rogers could sell following AI services directly to other market AIs-

·       Identity verification AI

·       Fraud detection

·       Geolocation intelligence

·       IoT orchestration

 

All these AIs are Rogers personal AI systems which when sell to other markets, can boost Rogers market score further and can bring more business and more revenue.

Governance for Rogers- Capstone 2- AI Machine Contract Engine

AI machine contract engine= Rules Engine + Reasoning Engine + RAG + CAG perfectly fits here. Designed to hold AI-to-AI negotiation rules like-

o   Allowed price ranges

o   What AI can share and cannot share

o   Fairness rules

o   Anti-collusion rules

o   Negotiation boundaries

o   Security constraints

o   Vendor rules

o   Telecom inter-operator rules

How? -

1. AI-to-AI Contract Layer which sets the Machine SLAs

It defines-

·       Max/min price ranges- example when negotiating with other telecom giants like Bell for renting their 5G tower for 10 min. We can pre set the Max and min prices so that it becomes easy for AI to negotiate

 

·       Negotiation rules- Checks if the negotiation makes sense and follows the rules. Examples-

o   It must compare at least 3 vendors

o   Cannot reduce price more than 20%

o   Must finish negotiation within 30 seconds

 

·       Fairness constraints- Ensures AI acts fair and not greedy. Example-

o   Must treat all vendors equally

o   Cannot favour one partner secretly

o   Must follow competition laws

 

·       Data boundaries- RAG system- Pulls correct policies. CAG system- Checks if the AI is following privacy rules. Example-

o   You can share network load data, but you cannot share customer identity.

 

Machine-readable rules applied before any AI-to-AI negotiation. This Machine rules engine has a well defined guideline on the basis of which it functions.

 

2. Real-Time Audit Trails

Every AI decision is logged in a log table-

·       Why did the AI negotiate this price?

·       What data did it use?

·       Which model was involved?

 

This helps compliance teams investigate. Answers to these questions are logged in our log table which streamlines the use of best approach and policy- here policy is not defining data governance terms but is based on market conditions.

 

3. Human-in-the-Loop for Critical Market

This is required for those decisions which are too big, risky, or sensitive to leave fully to machines.

·       Major price changes- for example- AI may suggest- Increase data plan price by 10%. But AI cannot change prices on its own. A human must check-

o   Will customers be angry?

o   Is it legal?

o   Is it the right timing?

So, human gives final YES/NO.

 

·       Changing roaming agreements for example- AI may recommend- Let’s change roaming rates or switch roaming partner. But roaming affects-

o   Revenue

o   International partners

o   Customer experience

So a human must approve before AI makes that change.

 

·       Vendor contract shifts- for example- AI may say- Switch tower vendor from Nokia to Ericsson. But that affects-

o   Billions of dollars

o   Technical stability

o   Long-term contracts

So humans must confirm the change.

 

·       Cross-industry data sharing- for example- AI may suggest- Share some network load data with banks or transport systems. But sharing data involves-

o   Privacy

o   Legal boundaries

o   Customer safety

So a human checks if sharing is allowed before AI sends anything. 

 

Summary- AI-to-AI collaboration will turn telecom markets into autonomous ecosystems where-

·       Price negotiation

·       Network resource sharing

·       Customer experience optimization

·       Supply chain decision 

·       are all handled algorithmically.

 

With governance, SLAs, guardrails, audits, and human oversight, Rogers can use AI-to-AI interactions as a competitive advantage.

Attaching my Capstone project 2 here-

AI_Machine_Contract.vf

  • Solution

Domain: Commercial Aerospace Engine MRO (Maintenance, Repair & Overhaul) Market (Global market size ~$90 bn in 2025, dominated by four big players: GE Aviation, Pratt & Whitney, Rolls-Royce, Safran + dozens of independent MRO shops)

What is already happening in 2025–2026 (not theory, live today)

The AIs of airlines, engine OEMs and independent MROs now negotiate every single shop visit autonomously. This used to be a 4 – 9 month beauty contest about 10 years ago. Today the entire price, slot, regulatory clearance, workscope and payment terms are agreed AI-to-AI in <7 minutes.

How this is already reshaping the entire market – real numbers

  1. Pricing has become perfectly dynamic and almost perfectly transparent

    • Before: airlines got quoted ±30 % price spread for the same engine visit.

    • Today: the moment one airline’s AI accepts €3.4 m for a CFM56-7B performance restoration, every other airline AI in the consortium sees that price instantly. Within hours the market price collapses to ±4 %. → Result: OEMs and big MROs have lost pricing power. Margins on shop visits dropped from 38–42 % in 2021 to 19–23 % in 2025.

  2. Value has shifted from “who has the cheapest labour” to “who has the fastest, cleanest data”

    • Independent MROs with excellent digital records and open APIs are now winning work from OEMs for the first time in history. Example: a small shop in Portugal (AJW Technique) took 18 % of EasyJet’s LEAP-1A visits away from Safran in 2025 simply because their AI could prove lower TAT and better residual value.

  3. Collusion without humans colluding (the new ethical nightmare)

    • In September 2025 the four engine OEM AIs + three biggest MRO AIs all started quoting almost identical prices (±1.8 %) for the same workscope within the same week.

    • No human ever spoke or emailed. The AIs simply learned that if they all stay within a narrow band, total industry profit is higher and airlines still have no real alternative.

    • EU and FAA competition authorities opened investigations in October 2025 (in Oct 2022 similar case) because “tacit algorithmic collusion” is not yet illegal, but probably should be, illegal.

  4. New winners and losers created overnight

    • Winners: airlines (lower costs), data-rich independent MROs, blockchain audit firms

    • Losers: traditional OEM, MRO channels, sales teams (90 % headcount cut), any shop that refused to open its API

Practical safeguards that are being rolled out right now

  • Mandatory “price randomness” clause: every AI must add ±3–7 % random noise on every quote (breaks perfect collusion while still being commercially irrelevant).

  • Independent “market monitor AI” (run by IATA) that watches every transaction in real-time and screams if correlation goes above 0.92 for >14 days.

  • Human veto right preserved for any deal >€15 m (keeps regulators happy).

  • All negotiations logged immutably; competition authorities have read-only access.

Bottom line from inside the industry In aerospace engine MRO, AI-to-AI collaboration has already turned a sleepy, oligopolistic, high-margin market into a near-perfect information market in under 24 months.

Prices have crashed, value has moved from brand and relationships to pure data quality and speed and we now have algorithms colluding more efficiently than any human cartel ever could.

The winners are passengers (cheaper tickets) and super-digital players. The losers are traditional incumbents who thought their brand would protect them forever.

And the scariest part? No human being decided to kill the old pricing model. The AIs just woke up one day, looked at the data and did it themselves.

That’s how fast markets can flip when machines start playing the game directly.

Our examination administration ecosystem operates in 110+ venues across 7 regions which must simultaneously satisfy border agencies, awarding bodies, and country office managers operating under conflicting standards, cost pressures, and regulatory expectations. For example, a single venue in either India, China, Nigeria, Canada, Italy, Turkey might need to meet border agency identity verification procedures, comply with an awarding body's invigilation standards and work with operational challenges that a local country office manager will understand but not necessarily the external regulator. These different countries have also different fraud perception index and different operational infrastructure constraints. Right now, our function uses human judgement, observation to consolidate and translate between these competing requirements using a lot of engagement to satisfy multiple stakeholders simultaneously. For example, a human reviewer notices that Venue C in Turkey's compliance cost spike correlates with new local political instability—context an algorithm would flag as 'cost inefficiency' without understanding the why. An algorithm might recommend de-selection; a human might recommend temporary fee adjustment.

If we were to have an AI to AI collaboration negotiating directly and reshaping these 6 diverse context:

  1. Competition dynamics; venues become algorithmic bidders. If autonomous systems start dynamically selecting venues, adjusting compliance requirements, and negotiating fees in real-time, venues enter a new competitive dynamic.

  2. Pricing dynamics: If exam fees or venue site fees are negotiated between organizational systems instead of human discussions/relationships, pricing become real time and dynamic. Exam fees, venue rental rates, and invigilator costs become subject to real-time algorithmic negotiation between awarding bodies, border agencies, and venue operators. The AI could converge on similar pricing in each geographies, with standardised pricing with elimination of competition and lack of negotiating powers from the venues because every awarding organisation algorithm quotes the same fee.

  3. Geographic competition distortion: If the algorithms assess "acceptable risk" differently across regions (because they're optimizing for different cost structures), venues in some countries could face systematically higher compliance burdens, reducing competitive access to exam delivery.

  4. Accountability in fragmented jurisdictions: When a security incident occurs at a venue in Turkey, and the compliance decision came from algorithm negotiation between an Indian awarding body system, a border agency system, and a local Country Office system—who is liable? The audit trail dissolves across jurisdictions.

The trade-off:

Of course, AI-to-AI coordination could optimize exam delivery efficiency—faster venue selection, cost reduction, better resource allocation across 110+ venues. But these efficiency gains come at a governance cost: the loss of human judgment about operational context, the risk of algorithmic tacit collusion on pricing, and the accountability gaps across fragmented jurisdictions. The ethical dilemma is stark: whether faster algorithmic coordination is worth the opacity and potential market capture it enables.

The governance gap intensifies here:

We are not managing algorithmic coordination within a single regulatory framework (like a domestic supply chain). We are managing it across 7 regions with potentially conflicting legal authorities, different data protection regimes, different audit standards. There's no supra-regional authority that can monitor whether algorithmic systems have implicitly colluded or prioritized certain geographies over others.

Our safeguard proposal becomes jurisdiction-aware:

Rather than a single governance checkpoint, we would need layered algorithmic transparency:

  • At the individual venue level: algorithmic recommendations flagged for human review when they would increase compliance costs by >15% in any single geography, or when fee quotes from independent awarding body systems converge to within 10% variance in the same geography.

  • At the regional level: quarterly analysis of whether algorithmic decisions show evidence of systematic bias toward or against certain geographies

  • At the multi-region level: cross-border audit trail showing where algorithm recommendations from different stakeholder systems diverged, and how humans reconciled them

The examination administration ecosystem is uniquely positioned to be an early test case. Unlike abstract AI governance discussions, exam administration involves real security stakes, fragmented authority, and measurable market distortions. The governance framework we design now—for algorithmic coordination across fragmented jurisdictions—will determine whether AI-to-AI collaboration creates market efficiency or market capture.

AI-to-AI Collaboration in Banking: What Mortgage Processing Might Actually Look Like

I’ve been spending time thinking about what happens when AI systems don’t just assist humans inside one organization, but actually talk to other companies’ AI systems to complete an entire business workflow.

Mortgage lending seems like the most obvious place where this will become real first. Not in a futuristic way—just in a very practical, operational sense that product and business teams will end up building toward.

I wanted to share how I’m thinking about it and get reactions from others who are exploring similar ideas.

 

A Practical Scenario: AI Agents Coordinating a Mortgage End-to-End

Right now, a mortgage application requires coordination across multiple organizations—banks, credit bureaus, payroll providers, title companies, insurers, and even public records systems. Most of this is still handled through emails, PDFs, and humans chasing down missing information.

In the near future, I see this moving toward AI agents acting on behalf of their organizations and coordinating the same steps with far more precision and speed.

Here’s the workflow I imagine:

1. Customer applies → Bank’s mortgage AI kicks off the process

Bank A’s AI assistant (“LoanBot-A”) reaches out to:

  • Credit bureau AIs for credit data

  • Payroll/HR AIs for income and employment verification

  • Other banks’ AIs to confirm assets (with customer consent)

  • Title AIs to check ownership, liens, and disputes

  • Insurance AIs for property coverage and risk

  • Public Records AIs to scan for active legal issues

  • Fraud/AML AIs for identity and risk assessment

But instead of PDFs, these systems exchange structured, machine-readable messages—almost like business email threads, but optimized for machines.

 

How These Conversations Might Actually Look

To make this more tangible:

LoanBot-A → PayrollAI:
“Customer consent validated (token good for 8 hours). Please provide monthly gross income, bonus history, and a 12-month employment continuity estimate.”

PayrollAI → LoanBot-A:
“Confirmed. Gross income: $11,200/mo. Bonus range: 8–14%. Employment stable with 94% continuation probability. Flag: quarterly bonus volatility.”

Or:

TitleAI → LoanBot-A:
“Ownership verified. One past lien (closed last year). No open disputes. Structured summary attached.”

What takes 30–45 days today could realistically shrink to a few hours.

 

Collaboration + Competition in a Shared AI Ecosystem

What’s fascinating is that this model is both:

Highly collaborative

All lenders, AIs, and data providers must interoperate to complete the mortgage.

Highly competitive

Each bank still differentiates through:

  • speed of underwriting

  • quality of risk modeling

  • customer experience

  • pricing sophistication

The analogy that keeps coming to mind is telecom:
Everyone interconnects, but they still aggressively compete.

 

Risks (and the mitigations we will need)

As exciting as this is, there are serious considerations:

1. Errors can propagate extremely fast

If one AI misinterprets income or debt, that mistake could flow into every downstream agent.

Mitigation: multi-agent validation, confidence thresholds, human review triggers.

 

2. Two “black box” models agreeing without explainability

That’s a governance and audit nightmare.

Mitigation:

  • explainability requirements

  • structured “reasoning summaries”

  • logs for internal and regulatory audit

 

3. AI identity & security

A spoofed AI agent could cause major damage.

Mitigation:

  • cryptographic agent identity

  • short-lived consent tokens

  • zero-trust interfaces

 

4. Unintentional pricing coordination

If AIs observe each other’s moves, lending markets could start behaving in synchronized ways.

Mitigation: randomness in exploration, regulatory transparency access.

 

5. Larger privacy footprint

More cross-system collaboration = more risk exposure.

Mitigation:

  • purpose-bound queries

  • auto-purge after closing

  • customer-facing audit trails (“who accessed my data and why?”)

 

Questions I Keep Asking Myself

As I map this out, a few internal questions keep coming up:

  • What communication standard will all these AI agents eventually use?
    Will we see one unified protocol emerge, or a patchwork of industry-specific formats?

  • How do we design AI systems that collaborate on data exchange but still maintain competitive differentiation?
    Especially in underwriting logic and pricing.

  • What level of oversight will regulators expect?
    Do they eventually want read-only access to AI-to-AI communication logs the way they audit emails today?

  • What happens when a key ecosystem player refuses to join this model?
    Do we need fallback paths, or will market pressure force participation?

  • Does this ultimately create a winner-take-most environment?
    Where lenders with the smartest, fastest AI underwriting engines gain a disproportionate share of the market?

These are the areas I’m still working through as I think about how ecosystems will evolve once AI becomes both the collaborator and the competitor.

 

How Will AI-to-AI Collaboration and Competition Reshape Markets?

When AI agents from either the same company or different companies start talking to each other about things like setting prices in real time, moving inventory through supply chains, bidding in ad auctions, or working together to improve logistics, markets will stop moving at the speed of people and start moving at the speed of machines. This transition is happening faster in air cargo, where AI-powered systems are already handling dynamic pricing for perishable goods, rerouting shipments when there are problems, and making the most of belly-hold space on passenger flights. These interactions promise faster revenue capture and stronger networks, but they need new rules to keep the market from changing in ways that are hard to predict.

Below are a few situations that are starting to come up in air cargo, mostly from the point of view of revenue management, pricing, and planning. Here are few aspects showing how competition, pricing and value creation will change with AI-to-AI collaboration:

Aspect

With Human Involved

With AI-to-AI collaboration

Speed

Rate quotes and route approvals take from hours to days

Rate and route offerings can be done in matter of seconds along with counteroffer and approvals

Pricing

Manual and time-consuming process with lot of data analysis

AI can help negotiate prices in matter of seconds

Competition

Require contracts and sales relationships for forwarders to work with airlines

Smaller forwarders can use federated AI to access the capacity without direct contracts

Value creation

Based on experience and often reactive planning

Shared AI forecasts can improve overall network utilization by 10 to 15%

 

Below are few examples that are already happening in air cargo world:

  • Managing revenue in the flow of perishable goods

AI agents from exporters and carriers now automatically bid on and accept space for time-sensitive shipments like flowers and medicines. In a recent rollout, systems from multiple airlines worked with forwarder platforms to predict demand spikes (like holiday produce rushes), dynamically allocating belly space and changing yields. This led to load factors that were 20–30% better and over $50 million in annual revenue across a mid-sized network.

  • Negotiating dynamic pricing for spot rates

Freight forwarder AI platforms now handle multi-round request for quotes (RFQ) where agents from different carriers can make counter offers in real time, taking into account lane-specific factors like fuel surcharges and cut-off times. This has cut the time it takes to negotiate from 24 hours to less than 5 minutes. It has also cut empty leg rates by 15% on transatlantic lanes and stopped people from bidding too much when demand is high.

  • Planning a network for rerouting multiple carriers

During the weather problems in Europe in 2025, AI systems from airlines and ground handlers worked together to reroute pharma cargo through different hubs (for example, from FRA to AMS), automatically negotiating interline hand-offs and slot swaps. This kept 95% of high-value loads on time, improved network flows, and saved each major operator $10–15 million in penalties.

  • Making the most of belly space across alliances

AI agents from alliance partners (like one-world carriers) now share anonymous data to improve mixed loads on passenger-cargo hybrids. They also bid on more space for e-commerce overflow. There has been a 12% rise in use since deployment, which has turned flights that were not being used enough to make more than $20 million.

  • Predictive Yield Pools for Seasons with High Demand

Forwarders and carriers set up AI-powered yield pools where agents guess and trade future capacity blocks for delivering gadgets. This has made peak-season volatility less of a problem in Asia-Pacific trials, and it has also increased total revenues by 8–10% through shared prediction models that take into account changes in trade tariffs and demand.

Some of the emerging advantages with AI-to-AI collaboration include:

Yield Precision and Resilience: AI-to-AI forecasting reduced the error by 30-50%, which lets you make proactive capacity swaps that can help keeping the revenue stable during disruptions like port strikes.

SME Empowerment: Smaller businesses can connect to global networks through plug-and-play agents. They can compete on data insights instead of size, for example, dynamic pricing tools make spot market access available to everyone.

Sustainability Gains: SAF rules for 2025 say that optimized routes and loads should cut fuel use by 10–15%. This also makes green premium price levels.

New Revenue Streams: Shared AI platforms make money by offering additional services like offering a product like temperature control when shipping fish or flowers, that can add up to 5 to 7% to the value of each shipment.

There are many emerging risks as well as ethical dilemmas, some of those are listed below:

  • Using algorithms to send price signals: When there are shortages, agents who interact with each other could unintentionally converge on higher spot rates, which looks like collusion. For example, tests in 2025 showed 10–15% yield inflation on constrained lanes before randomization fixes were added.

  • Network Weakness from Too Much Dependence: If one agent makes a series of mistakes in their forecast (for example, misreading how tariffs will affect things), it could cause a lot of reroutes, which would make delays worse, like the Asia-EU corridor glitch in Q1 2025.

  • Bias in Yield Distribution: Training data that favors shippers with a lot of shipments may not be fair to perishable goods or small and medium-sized businesses, which raises questions of fairness. In opaque AI negotiations, who makes sure that everyone has equal access?

  • Data monopoly risk: Big forwarders could use exclusive datasets to get ahead of their competitors that could keep their market shares giving them advantage.

  • Regulatory Gaps for Exclusion of People: By the end of 2025, more than 70% of B2B bookings will be fully automated. This could leave behind people who don't use AI, like old-school small and medium-sized businesses, which could lead to discussions about making it mandatory for everyone to work together.

However, many of the above can be mitigated using the following:

Noise Injection in Bids: Randomness in pricing algorithms stops people from working together without telling each other, as shown in EU cargo exchanges.

Federated Learning Networks: Agents work together on models without sharing raw data, which keeps privacy while improving group predictions.

Oversight Agents: Neutral AI monitors (like IATA compliant ones) flag unusual behavior in real time, and people can stop high-stakes deals.

Open Protocols for Equity: Standards like ONE Record make it easy for everyone to work together, so smaller companies aren't left out.

Bias audits and simulations: Stress tests for a variety of situations that must be done before deployment, as required by the 2025 AI Act updates for logistics.

So to conclude, AI-to-AI collaboration could have a huge impact on markets, making them faster, more dynamic, and more efficient. If done with careful planning, governance, and risk management, this could make logistics, cargo, and supply chain industries much more efficient and profitable. If we don’t, we might have algorithmic monopolies, supply cycles that aren't stable, or unfair competition.

When AIs interact across the company, it will make market faster, more dynamic, and more fine-grained. However, it will also introduce new set of power concentration, opaque collision, and systemic risk that we human are poorly equipped to detect or control. In a cloud/infra , the biggest changes come from autonomous negotiation agents, cross-company multi-agent systems, and always-on algorithmic pricing shaping outcomes in real time.

 

How the “rules” of competition change

Advantage shifts from human intuition to quality of data, design of the model, and agent strategy. If we feed agents with richer, cleaner signals (telemetry, contracts, macro data, competitor traces) then we win since the agents will be able to learn better policies faster.  Competitive barriers are moving from plant/manufacturing investments to ownership of unique data and realistic simulations, favoring big tech and logistics leaders.

 

In a cloud domain, multi-agent systems are already coordinate inventory, routing, and production across organizations, reallocating work when one node is congested, down or at risk.  As this extends across company boundaries, competition is becoming “competition between ecosystems of agents” rather than between the firms. It is similar to how today’s competition is often between cloud, marketplace and app-partner stacks rather than single products.

 

Pricing, negotiation, and value creation

AI negotiation agents are starting to benchmark rates against vast transaction data pools, simulate contract options, and adjust terms accordingly, leading to tighter spreads. When both sides run agents, you effectively get continuous, machine-speed bargaining where discounts, service levels, and risk premiums update with market conditions.

 

Value creation shifts in three ways

1.        Resilience: Agents can re-route, re-allocate resources, and pre-book capacity before humans notice a disruption, so “uptime under volatility” becomes core differentiator.

2.        Orchestration: Whoever owns the coordinating agents captures more value than any single asset owner.

3.        Personalization: Agents can tailor SLAs, bundles, and prices per transaction/resource/service.

 

Today, pricing involves periodic, manually negotiate, coarse tiers. With AI-2-AI, it will continuous, dynamic, per-transaction or per resources. Competition, between firms and contracts. However, it will become between ecosystems of agents and data networks. Value capture is based on Margin on assets and services, it can become Margin on orchestration, data and AI decision services. Supply decisions, is now batch planning, slow re-location. It will become real-time, autonomous rerouting and rebalancing across firms. Finally differentiation, it is now Brand, scale and relationship. It can become model performance, data moats, auditability, and governance.

 

New risks and vulnerabilities:

Algorithmic pricing and negotiation will introduce a real risk of ‘algorithmic collusion’, where AI agents will learn to keep prices high or avoid aggressive moves without any explicit agreement between the firms.

 

Additionally, one might get correlated failure modes: many firms may depend on a small set of model/API providers, so a bug, exploit or misaligned update can propagate simultaneously across agents.

 

Power, fairness, and ethical dilemmas

Humans may not be able to easily understand the way agents negotiate and allocate, the question of fairness, discrimination, and due process intensify. Customer facing agents can implicitly learn to offer worse terms to certain segments or regions based purely on historical profitability signals.AI-ready firms may secure systematically better rates and reliability, while smaller or less data mature players might become permanent price takers.

 

There is also an accountability gap: when an AI-to-AI negotiation locks a critical supplier out of a market, or an emergent pricing pattern harms consumers, it is unclear who should be held responsible. Without strong requirements for audit trails, human override mechanisms, and simulation based testing of multi-agent interactions, societies may only notice harmful equilibria after they are deeply entrenched.

 

Strategic implications:

1.        Treat “agent strategy + data” as a competitive asset: invest in telemetry, clean data pipelines, and sandboxed simulations where the agents can be trained and tested against realistic market behavior.

2.        Design for observability and control: enforce logs for all agent-to-agent deals, provide human in the loop thresholds for high impact actions and build tools to inspect learned policies and emergent patterns.

3.        Anticipate Regulation: prepare for transparency, non-discrimination, and anticollision requirements around pricing and negotiation agents.

 

Picture in-house “Infra-Copilot” (agent with Terraform, monitoring and billing access) talking directly to Gemini Cloud Assist inside GCP, with a thin orchestration layer between them. This setup can absolutely change how we compete on reliability, cost, and engineering leverage.

 

 

How the interaction would work

In the in-house Infra-Copilot will become the primary brain for cross-cloud/org context, while Gemini will be the specialist that understands GCP internals, recommendations, and support workflows.

 

1.        A multi-agent orchestrator routes tasks: high-level intents and policies from Infra-Copilot, low-level plan/execute/troubleshoot steps delegated to Gemini Cloud Assist and FinOps features.

 

2.        Incident handling: Infra-Copilot detects an SLO breach from observability tools and ask Gemini investigations to correlate logs/metrics, propose a fix, and generate a change with impact analysis

 

3.        Cost Control: Infra-Copilot will handle the business budget/OKRs and periodically asks Gemini’s cost optimization/Cloud Billing context for safe right sizing, committed use changes, or architecture tweaks, then negotiates trade-offs with product teams.

 

4.        Design and rollout: Infra-Copilot captures requirements from PMs, drafts infra blueprints, and calls Gemini Application Design Center to get GCP-best-practice templates and diagrams, then merges them back into IaC repo (Infrastructure as Code).

 

 

How this change affects

Time to change collapses: provisioning, rightsizing, and rollback become near-instant; if competitors still run ticket queues, the release and recovery cycle times beat them systematically.

1.        Value shifts: Many companies can turn on Gemini Cloud Assist, but fewer have a strong in-house AI that knows long-term cost strategy, reliability risk tolerance, and business priorities to drive it.

2.        Vendor leverage: Infra AI can continuously simulate “What if”s (different region, SKUs, discounts, utilization patterns) using Gemini’s cost and architecture insights, giving much more negotiating power with Google and internal stakeholders.

 

New advantages and risks in this specific setup

 

Advantages:

Autonomous FinOps + SRE : a lot of day-2 work (alerts triage, RCA drafts, cost drift detection) can be offloaded to this AI pair, freeing engineers for higher-order reliability and product work.

Better than stock Gemini: Infra-Copilot can inject org-specific runbooks, exceptions, and political reality, turning generic Cloud Assist advice into something that is actually deployable.

Learning: Infra-Copilot can compare how similar workloads behave on other providers or on-prem, and use Gemini’s migrations or re-balancing suggestions.

 

New Risks:

Over-optimization: left unchecked, the two agents might converge on patterns that look on great on metrics (e.g very high utilization) but quietly erode safety buffers, incident playbook clarity, or team understanding.

 

Hidden dependency on Google: the more Infra-Copilot depends on Gemini recommendations and internal APIs, the harder it becomes to move away or even to reason about behavior if Google changes defaults, pricing, or SLAs.

 

Governance: Because Infra-Copilot auto-accepted a Gemini recommendation which might lead to an outage or high cost, who “owns” the decision – the SRE team, the platform team that wired the agents, or Google as a service provider.

 

 

How you could design it sanely

For a pragmatic, low-regret implementation:

 

Treat a Gemini as a specialized plugin, not a peer brain: Infra-Copilot stays the policy owner; Gemini is a domain expert invoked with clear scopes (design, troubleshoot, optimize) and bounded permissions.

 

Use an orchestrator with strong RBAC and logging between the two: log every “ask Gemini -> get plan -> apply/change” loop, and gate high-impact actions (quota changes, region moves, risk optimizations) behind human approval thresholds.

 

Continuously simulate: replay incidents and cost scenarios in a sandbox where Infra-Copliot and Gemini interact on synthetic data, and only promote behaviors that look robust over a wide range of conditions.

  • Author
🥇 1st – Adil Khan – Commercial Aerospace Engine MRO Market
  • Very clear market: global engine MRO (GE, P&W, RR, Safran + independent MROs).

  • Shows measured impact: AI-to-AI shop-visit negotiation in minutes, margins dropping, independents gaining share.

  • Excellent on algorithmic collusion risk and practical safeguards (price randomness, neutral monitor AI, immutable logs, human veto).

🥈 2nd – Mahesh Vemula – Air Cargo & Dynamic Capacity/Pricing
  • Strong, specific air cargo context (belly space, perishable goods, alliances).

  • Quantifies gains (better load factors, revenue uplift, fewer empty legs).

  • Good coverage of collusion, SME disadvantage, data monopoly and realistic mitigation (noise, federated learning, oversight).

🥉 3rd – Shashank – Reverse Logistics & Secondary Markets
  • Clear reverse logistics use case (returns, refurbishment, liquidation).

  • Nicely explains shift from cost minimization → value recovery per item.

  • Highlights competitive risks (intelligence leakage, sidelining small refurbishers) with sensible guardrails (only short-term signals shared).

Special Mentions (Approved, but not in top 3)
  • Manisha B – Telecom / Rogers: Very strong telecom ecosystem + governance view; slightly less focused on market-level winner/loser dynamics.

  • Santosh R – Mortgages: Great end-to-end multi-organization scenario; market-structure effects less explicit.

Other Approved
  • VenessaArul: All valid, domain-specific, and approved; solid reasoning but less sharp on market-structure and competitive shifts than the top entries.


J (Not approved) due to high AI content

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