From research to real-world impact

Intellectual Frontiers runs its own research programs in healthcare delivery, medical devices, clinical trials, insurance and digital authorization, payments and marketplaces, and education and training. We own what those programs produce, from the published papers through to the patents and the companies built on them. And on every one of them we ask the same question about AI: which entirely new forms of work become possible?

Reimagining with AI starts after the obvious answer

The easy version of the AI conversation is the same everywhere: do today's work faster, or do it with fewer people. That is worth real money, and it is also where most of the discussion stops.

The question we ask across all five units is which entirely new forms of work become possible. A speedup makes an existing job cheaper. A new form of work creates a job nobody was staffed to do, and that is where the patents, the positions, and the companies come from.

Care coordination

A referral system that reads the record, ranks the specialists who can actually take the case, attaches the imaging, and tells the sending clinician what will be asked for next. Nobody had staff for that before, because nobody could read every chart.

Medical devices

A device program where the evidence for a submission assembles itself out of live telemetry as the product runs, so the clinical argument is standing before the study is written. Faster regulatory drafting saves weeks. This changes what a submission is.

Clinical trials

A trial that runs as software: eligibility checked continuously against live records, deviations flagged the hour they happen, and the audit trail assembled while the study runs instead of reconstructed after it.

The Native Alpha loopA four-step cycle the firm runs in every unit: find a problem in ordinary work, prove it against real data, decide whether to file, fund, build or publish, and compound the result into the next pass.Finda problem in ordinary workProverun it against real dataDecidefile, fund, build, or publishCompoundreuse the claim or the learningthen run it again
One loop, run the same way in IP, Capital, Press, and Studios.

Step 1

Find

We find inventions in the middle of ordinary work: a hospital that re-keys the same patient data into three systems before discharge, a referral that arrives without the images, a trial coordinator who keeps a paper binder because the system cannot be trusted. Somebody notices, and somebody writes it down that week.

Step 2

Prove

Then we try to kill it. An authorization idea gets run against real access rules and real record requests. A device idea gets run past the people who have to file it with the FDA. If the idea does not survive that, it stops there, and we write down why.

Step 3

Decide

What survives goes to one person who can act on it. File the patent, publish the disclosure, put money behind it, or start the company. That person puts a date on the decision. Nothing sits in a folder waiting for a committee.

Step 4

Compound

The claim language written for a hospital interoperability filing gets reused in the trials filing. The test harness built for device telemetry gets pointed at metric queues. That is what makes the second one cheaper than the first.

Where the patents actually sit

Healthcare delivery

Hospital and clinic systems: referrals, care coordination, task and work list scheduling, patient navigation, risk management, and the interfaces between the EHR and everything else. Granted and pending filings cover this ground.

Medical devices

Software inside and around regulated devices: connected instruments, remote monitoring, ventilator and imaging control, and the data that has to move off the device and into a chart without breaking the device's clearance.

Clinical trials and research

Digital native trials management: running a study as software instead of a binder, with eligibility, evidence, and traceability produced while the trial runs.

Insurance and digital authorization

Self-controlled authorization to records and service delivery evidence: who is allowed to read what, for how long, and what proof survives the transaction.

Payments, marketplaces, and credentialing

Digital payment systems, marketplace networks that settle among many participants, crowdsourced credentialing and accreditation, and the rating and reputation signals that make any of it trustworthy.

Education, training, and system telemetry

Precision education and training, rewardable content delivery, and the metric queues, task lists, and traceable telemetry that tell an operator whether a system is actually working.

The units, and what each one can do for you

IP

Intellectual Frontiers IP

Patents and licenses covering clinical workflow, medical device data, clinical trials operations, records authorization, payments and marketplaces, training, and system telemetry.

Network

Intellectual Frontiers Network

The intelligence layer on human capital: who matters for a specific thesis, why they might matter, and what the next useful step is.

Five units, five outputs, one methodThe Native Alpha loop feeds five units: IP produces a patent right, Capital produces an underwritten position, Press produces a public account, Studios produces an operating company, and Network produces the people who can carry the work.Native Alpha™IP→ a patent rightCapital→ a positionPress→ a public accountStudios→ a companyNetwork→ the right people
The same evidence standard. Five different things to own.

Recent patents

All records

Recent writing

All notes

Bring the problem you already have.

An authorization backlog nobody can explain. Device data that will not make it into the chart. A trial that reconciles for six weeks after the last patient visit. A marketplace that cannot prove what it settled. Describe what is happening and how it was measured, and we will tell you within two weeks whether there is an invention in it.

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