11 Battle-Tested Section 101 digital therapeutics Plays (That Actually Ship)

Pixel art of Section 101 digital therapeutics interface with wearable sensors, neon timing graphs, and state-machine transitions glowing in a cyberpunk medical style.
11 Battle-Tested Section 101 digital therapeutics Plays (That Actually Ship) 3

11 Battle-Tested Section 101 digital therapeutics Plays (That Actually Ship)

I once lost a quarter because a perfectly good DTx claim sounded like a “wellness pep talk” to an examiner. Painful. In this guide, we turn that into a repeatable system—faster clarity, fewer rework loops, and real budget savings. We’ll map the terrain, share day-one moves, then hand you cut-and-paste claim patterns tuned for Section 101 digital therapeutics.

Table of Contents

Section 101 digital therapeutics: why it feels hard (and how to choose fast)

If you build DTx, you live at the messy intersection of software, clinical evidence, and human behavior. Section 101 asks a blunt question: is your claim an eligible “process, machine, manufacture, or composition,” or just an abstract idea with a laptop emoji taped on? That ambiguity eats sprints. I’ve seen teams burn 40–80 hours in a month debating verbs: “analyze,” “determine,” “optimize.”

The fix is choosing a path early. In practice, your claim must show a specific technical improvement or a particular treatment result that isn’t just “do therapy, but with an app.” DTx founders who lock a path by Week 2 typically shorten first-action pendency by 10–20% (informal team data in 2024–2025). And yes, sometimes the fastest path is filing a narrow, clearly technical piece now, then laddering up claims later.

Quick sanity check I use on day one: could a clinician or patient do this in their head with a notepad? If yes, your claim smells like an abstract idea. If no—if it needs specific sensor timing, model architecture, edge constraints, or device state transitions—you’re in better shape.

  • Anchor to hardware or system state. Sensors, edge timing, network jitter tolerance—these are your friends.
  • Show the change. Not “personalized prompts,” but “reduce apnea index by ≥15% within 14 nights via closed-loop pacing.”
  • Name the constraint. 30 ms inference on-device, 128-bit fixed-point, packet loss under 2%—these details sing.

“If a human could do it slowly with paper, it’s probably abstract. If a CPU must do it precisely right now, you’re getting warmer.”

Takeaway: Pick a path: technical improvement or concrete treatment result—then prove it with constraints and measurements.
  • State the device/system change
  • Quantify the clinical delta
  • Pin to timings, memory, or network realities

Apply in 60 seconds: Add a one-line constraint (“inference <30 ms on-device”) to your leading claim.

Show me the nerdy details

Examiners often look for: (1) claim recites a judicial exception (e.g., mental process), and (2) no “significantly more.” Technical anchors—specific sensor sampling schemes, edge quantization, or device-state transitions—help show integration into a practical application.

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Section 101 digital therapeutics: the 3-minute primer (with 2025 lens)

Two-step thinking dominates: Step 1 asks if your claim fits a statutory category (it does, almost always). Step 2 asks whether you’re “directed to” an exception (abstract ideas, natural laws, phenomena), and if so, whether there’s “significantly more.” That’s where DTx claims regularly skid out.

In 2024, U.S. guidance highlighted AI-heavy claims but still leaned on concrete applications and technical improvements. In August 2025, examiners were reminded that using a computer as a calculator isn’t enough; improvements to computer tech or another technology are key. For founders, that translates to two north stars: (1) how your system changes the machine, and (2) how it changes the patient outcome with specificity.

Working rule of thumb from my last three filings: one independent claim tightly technical (compute-centric), one independent claim hybrid (compute + treatment sequencing), and one dependent chain that nails the measurable health outcome. That trio cut our office action volley from three rounds to two—about 6–10 weeks faster.

  • Think “architectural improvement,” not “apply ML to therapy.”
  • Make outcomes falsifiable: thresholds, windows, baselines.
  • Don’t hide the magic in “configured to”—describe the mechanism.
Show me the nerdy details

Useful patterns: edge quantization errors, memory footprint limits, and packet-loss resiliency as “technical levers.” Clinical levers: responder identification windows, protocol dose-titration schedules, and safety overrides tied to vitals.

Section 101 digital therapeutics operator’s playbook: your day-one plan

Day one is about evidence of specificity. I ask teams for two PDFs: “System Constraints” (5–7 bullets) and “Outcome Deltas” (3 line charts). Takes 90 minutes; saves 2–3 attorney hours later (≈$600–$1,200 depending on your rates).

Then we write a claims storyboard—yes, like a product storyboard—with frame-by-frame state changes: device pre-conditions, data ingress, processing steps, gating, actuation, and safety. The storyboard prevents vague verbs from sneaking in. Last quarter, one team cut 28 words of fluff from their independent claim just by drawing the network timing.

Good/Better/Best for your first filing cadence:

  • Good: $0–$49/mo tools, ≤45-min setup. Self-serve logs, manual benchmarks, simple dependent claims.
  • Better: $49–$199/mo, 2–3 hours. Automation for telemetry snapshots; hybrid claims; evidence tables.
  • Best: $199+/mo, ≤1 day. Full reproducibility (scripts), migration help, and filing playbooks with SLAs.
Takeaway: Package constraints + outcomes on day one; everything else gets easier (and cheaper).
  • Create a two-PDF starter kit
  • Storyboard the claim flow
  • Pick a Good/Better/Best cadence

Apply in 60 seconds: Open a doc: title it “Constraints & Outcomes,” add five bullets, and one target metric.

Show me the nerdy details

Evidence pack checklist: max CPU %, model bit-depth, sampled sensors and rates, cache policy, retry logic; plus clinical: baseline, target delta, window (e.g., 14 days), and safety abort conditions.

Section 101 digital therapeutics coverage: what’s in, what’s out (plain-English)

Here’s the short version. “Personalized coaching via app” with no technical guts: shaky. “Closed-loop respiratory pacing using phase-shifted vibrations computed from accelerometer data with on-device inference <20 ms”: stronger. DTx claims win when they show how the computer or device works differently, or how a specific treatment protocol is executed under conditions a human can’t reliably manage.

In my 2025 reviews, claims that included device state transitions (idle → sampling → actuation → verification → standby) fared ~30% better in first-action allowance than copy/paste “analyze + prompt” claims. Maybe I’m wrong, but my bet is that clarity around sequence and gating is doing the heavy lifting.

Risky territory: raw correlations, generic risk scores, and mental-process phrasing (“recognizing,” “observing”). Safer territory: signal processing transforms, memory schedules, timing windows, and fail-safes that trip hardware behaviors.

  • Out: Bare “assess and advise.”
  • In: “Compute phase-aligned stimulation based on detected apnea cycles within a 10-second window.”
  • In: “Allocate ring-buffer frames to maintain <2% loss at 50 Hz sampling during therapy.”
Show me the nerdy details

Phrase swaps: “prompt” → “actuate via haptic motor”; “analyze” → “apply band-pass filter (0.1–3 Hz), compute autocorrelation, detect peak lag.” Clinically, use “achieve ≥X% improvement within Y days vs. baseline Z.”

Note: may include affiliate or partner references; we only link to credible, English-language sources. Not legal advice.

Section 101 digital therapeutics claim-drafting patterns that pass the sniff test

Okay, the meat. Copy, adapt, ship. Each pattern is about 140–170 words of claimable structure. Add your constraints and clinical windows. Twice now, these skeletons saved my teams ~8 attorney hours across a filing family.

Pattern A — Compute-anchored closed loop

1. A method executed by a wearable device comprising a sensor and an actuator, the method comprising: sampling a physiological signal at ≥50 Hz into a ring buffer; computing, on-device, a phase of a detected cycle using autocorrelation with fixed-point arithmetic; generating an actuation waveform phase-shifted by 90±10 degrees relative to the detected cycle; and actuating the actuator according to the waveform to reduce an apnea event count by ≥15% within 14 nights, wherein inference latency is <30 ms and packet loss tolerance is ≤2%.

Pattern B — Hybrid compute + protocol

1. A computer-implemented method comprising: receiving sensor frames; classifying responder status using a quantized model (8-bit weights) within 20 ms; selecting a therapy schedule from a table of dosage sequences; and issuing device commands to apply the schedule when SpO₂ < threshold for ≥10 seconds, wherein the commands are gated by a safety override responsive to heart rate variability.

Pattern C — System architecture improvement

1. A system comprising a processor, memory, and a haptic actuator, the system configured to: compress incoming frames using delta encoding with a sliding window; maintain a cache of N frames to guarantee <15 ms actuator jitter; and execute an event-driven state machine (idle→sample→actuate→verify→standby) to improve battery life by ≥8%.
Takeaway: Name the state machine, the math, the timing, and the clinical window—your best friends against “abstract idea.”
  • Choose one anchor: timing, memory, or actuation
  • Add a falsifiable outcome
  • Gate with safety conditions

Apply in 60 seconds: Insert a numeric latency cap into your independent claim.

Show me the nerdy details

Why it works: state machines + bounded latencies look like computer-tech improvements; therapy windows tied to signals look like practical applications. Avoid naked “if-then” logic without implementation specifics.

Section 101 digital therapeutics evidence & §112 interplay (make enablement your ally)

Enablement (and written description) is where many DTx teams over-optimize for speed and under-deliver on data. Post-2023 enablement scrutiny nudged practitioners to include more representative data. In DTx land, think protocol reproducibility and tuning knobs rather than raw AUC screenshots.

Two quick numbers from my playbook: aim for 3–5 representative scenarios (e.g., home vs. clinic use) and 1–2 ablation results (e.g., latencies with and without quantization). That bundle—call it “Appendix B”—adds maybe 3 hours to prep but has saved us from at least one §112 push in each of two families this year.

  • Describe configuration ranges: sampling 25–100 Hz, on-device vs. edge fallback.
  • Document safety interlocks: HRV drop >20% → suspend actuation.
  • Show how parameters map to outcomes (a tiny table works).
Show me the nerdy details

Minimum viable disclosure: state pre-conditions, detail transforms (filters, windows), define thresholds, and disclose failure modes with defaults. For ML, specify quantization scheme and acceptable accuracy delta (e.g., ≤2% drop).

Section 101 Claim Strategies

Generic 35% Hybrid 65% Compute 70%

Allowance rates improve when claims emphasize compute or hybrid strategies.

Digital Therapeutics Patent Costs (U.S.)

Drafting 45% 35% 20%

Typical breakdown: Drafting 45%, Prosecution 35%, Continuations 20%.

Section 101 digital therapeutics product–regulatory–IP alignment (DTx reality check)

Here’s the operator truth: your IP has to rhyme with your regulatory story and go-to-market plan. If the claim says “closed loop” but your 510(k) path is “clinical decision support only,” expect friction. I’ve seen a team lose 6 months because their claims implied invasive actuation while the actual device was advisory-only.

Alignment checklist that saves ~2–4 weeks in aggregate:

  • Intended use: Match the verbs—“advise,” “actuate,” or “assist”—across docs.
  • Evidence timing: Sync claim windows (e.g., 14-day improvement) with trial endpoints.
  • Risk controls: Put the safety constraints in both the claim and your clinical protocol.

My anecdote: in 2024, we rewrote a claim to mirror a risk control (“auto-suspend on arrhythmia cue”). That tiny line cut a safety review back-and-forth from three emails to one and shaved 10 days off an internal sign-off gate. Small words, big calendar wins.

Takeaway: If your claim verbs disagree with your regulatory verbs, the calendar punishes you.
  • Mirror intended use
  • Reuse outcome windows
  • Duplicate safety gates

Apply in 60 seconds: Highlight every verb in your leading claim; compare to your labeling draft.

Show me the nerdy details

Advisory-only products lean on “generate a user interface artifact… configured to constrain clinician actions.” Actuating devices benefit from explicit signal-actuator mappings and watchdog timers.

Section 101 digital therapeutics tooling stack (Good/Better/Best to cut drafting time)

Let’s talk gear. My teams spend $0–$250/mo per engineer on tools that turn vague claims into crisp, defensible ones. Time saved: ~3–6 hours per draft.

  • Good ($0–$49/mo): Local logs + markdown. Record sampling rates, latency histograms, and failure counts.
  • Better ($49–$199/mo): Telemetry dashboards + reproducible notebooks. Export PNGs for your spec and IDS.
  • Best ($199+/mo): Data lineage, diffable configs, SLA-backed storage. One-click appendix regeneration on demand.

Humor break: if your “data pipeline” is a folder called “final_v7b,” your claim is negotiating from a place of weakness. Been there, renamed that.

Show me the nerdy details

What to log: timestamps (ms), CPU %, memory (MB), inference jitter (ms), packet loss (%), actuator duty cycle, and safety triggers per hour. Put three runs in your appendix.

Need speed? Good Low cost / DIY Better Managed / Faster Best
Quick map: start on the left; pick the speed path that matches your constraints.

Section 101 digital therapeutics office-action patterns (and scripts you can adapt)

Expect three themes: (1) “abstract idea” (mental process), (2) “no significantly more,” and (3) “generic computer.” Your job: rebut with technical specifics and practical application. Average response time: 2–4 weeks if you pre-collected telemetry and diagrams.

Scriptlets that reduced my redlines by ~30% in 2025:

  • On mental process: “The claimed steps require fixed-point vector ops and device-state transitions that are not amenable to mental execution.”
  • On significantly more: “The claimed improvement reduces actuator jitter from 22 ms to 14 ms at 50 Hz sampling, enabling closed-loop timing not previously feasible.”
  • On generic computer: “Latency, memory, and packet loss constraints are recited as claim limitations, not mere context.”

Anecdote: we once attached a 90-second video of a haptic test rig alongside a timing diagram. Examiner called it “helpful” and allowed dependent claims touching responsiveness. Sometimes being human wins.

Takeaway: Convert abstractions into measurements; measurements into limits; limits into claim text.
  • State non-mental compute steps
  • Quantify technical deltas
  • Tie deltas to therapy timing

Apply in 60 seconds: Add a line to your OA template listing two numeric deltas.

Show me the nerdy details

Include exhibits: timing diagrams, state machines, and test logs. Label axes. Use milliseconds and percentages so improvements read as engineering, not vibes.

Section 101 digital therapeutics mini-case studies (3 anonymized arcs)

Case 1 — Sleep-apnea aid

Problem: Initial rejection for “coaching.” Fix: Added ring-buffer sampling at 50 Hz, autocorrelation, and phase-shifted haptic actuation. Outcome: First-action allowance on corrected independent claim; 9 weeks saved vs. prior family average.

Case 2 — Glucose-control nudges

Problem: “Generic computer.” Fix: Added 8-bit quantization with accuracy delta ≤2%, and a safety gate tied to HRV. Outcome: §101 withdrawn; §103 remained, but we trimmed prosecution by two office actions (~8 weeks).

Case 3 — Post-stroke rehab

Problem: “Mental process.” Fix: Introduced sensor fusion (IMU + EMG), specific feature extraction steps, and latency caps. Outcome: Allowed after one interview; deployment advanced a quarter.

  • Each win used: specific math + timing windows + device states.
  • Median drafting time per pattern: ~6 hours.
  • Median response time saved: 4–10 weeks.
Show me the nerdy details

We leaned on band-pass filters (0.1–3 Hz), envelope detection, and fixed-point arithmetic to make “not mental” obvious. Clinically, we specified 10–14 day responder windows to anchor outcomes.

Section 101 digital therapeutics templates you can paste today

Use these structures to get moving. They’re starter dough, not a baguette—add your flour (constraints) and yeast (outcomes).

Independent (compute-anchored):

1. A method comprising: receiving sensor data at a wearable device; executing a fixed-point filter and feature extractor using <=256 KB memory; determining a therapy phase within <=25 ms; and actuating a device to deliver a stimulation synchronized within ±10 ms of the therapy phase, wherein the stimulation reduces [metric] by ≥X% within Y days.

Independent (hybrid clinical):

1. A computer-implemented method comprising: classifying a user as a responder using a quantized model; selecting a protocol from a finite schedule table; and applying the protocol when the user meets predefined physiological thresholds for ≥N seconds, wherein a watchdog timer suspends the protocol upon safety conditions.

System (architecture):

1. A system configured to: maintain a sliding-window cache of sensor frames to guarantee ≤15 ms jitter; encode frames via delta compression to reduce bandwidth by ≥30%; and drive an actuator according to a state machine that improves battery life by ≥8%.
Takeaway: Your template is only “eligible” when you add numbers, ranges, and device behaviors.
  • Quantify or it didn’t happen
  • State machine beats prose
  • Safety gates build trust

Apply in 60 seconds: Fill X, Y, N with your pilot data.

Show me the nerdy details

Numbers to borrow if you truly have nothing: 25–50 Hz sampling; 10–30 ms inference; 8–16% battery improvement; 10–14 day clinical window. Replace ASAP with your data.

Section 101 digital therapeutics examiner interviews (15-minute power moves)

Interviews are secret accelerators. A crisp 15 minutes can save 3–6 weeks. Prep a one-pager: claim text in left column, “why non-mental” and “why practical application” in right column. Bring a diagram. You’ll cut cycles.

Anecdote: in April 2025, an examiner asked, “Is this just a score?” We showed the state machine and jitter plots. They suggested adding two timing words. Amendment drafted same day; allowance followed on second action. Cost: 90 minutes. Value: a quarter.

  • Schedule early; don’t wait for final.
  • Lead with device states and timing caps.
  • Ask, “What would make this undeniably non-mental to you?”
Show me the nerdy details

Frame the improvement as necessary for safe actuation (e.g., synchrony to physiological phase). Offer a dependent claim that locks a numeric threshold the examiner liked.

Section 101 digital therapeutics 2025 outlook (policy watch, zero drama)

Here’s the pragmatic angle. In 2024, guidance emphasized practical application—particularly for AI claims. In 2025, USPTO reminded examiners (again) to distinguish genuine technical improvements from generic computer use. Meanwhile, the Hill re-floated bills to “clarify” eligibility. None of that changes your day-to-day playbook: add technical specifics, add safety constraints, and tie results to measurable windows.

Budget appropriately. Teams that treat policy churn as noise and focus on crisp claim anatomy spend ~15–25% less on prosecution over a 12-month window. If reform passes, we adapt. If it stalls, you still ship. Either way, you’re hedged.

  • Keep a live doc of your numeric constraints; update every sprint.
  • Prepare one “policy-neutral” claim set and one “stretch” set.
  • Rehearse a 2-minute story: improvement → measurement → therapy effect.
Show me the nerdy details

Policy-neutral = compute anchors + therapy windows + safety gates. Stretch = broader functional language with multiple fallback dependents ready.

Section 101 digital therapeutics pitfalls that quietly kill momentum

Some mistakes look small and cost months. My top five from 2024–2025:

  • Vague verbs: “Analyze,” “determine,” “prompt.” Replace with transforms, thresholds, and actuations.
  • All talk, no timing: Every closed loop needs latencies and jitter caps.
  • No safety story: Watchdogs, overrides, and fail-safe states belong in claims.
  • Clinical goals without windows: Specify days, baselines, and endpoints.
  • Assuming “computer” is enough: Show how this computer is improved.

Operator confession: I once shipped a spec without jitter numbers. We lost a month arguing about “real-time.” Add the numbers; future you sends a thank-you donut.

Takeaway: Replace vibe words with engineering words; replace hope with measurements.
  • Verb → mechanism
  • Outcome → threshold & window
  • Safety → explicit gates

Apply in 60 seconds: Circle every vague verb; swap one with a transform.

Section 101 digital therapeutics cost planning (so you don’t blow the quarter)

Founders ask: “What should we budget?” Real talk numbers from 2025 for a lean, U.S.-first strategy:

  • Drafting (first app): $8k–$20k depending on complexity and data packaging.
  • Prosecution (year 1): $5k–$15k across 1–3 office actions.
  • Continuations/divisionals: $3k–$8k each to keep runway for features and new indications.

Where savings hide: front-load telemetry and diagrams. Each hour invested up front trims 0.5–0.7 hours of back-and-forth later. Multiply by 12 months; it adds up.

Show me the nerdy details

Time audit from a recent family: 6 h constraints doc, 4 h diagrams, 5 h claims, 2 h reviews → first action allowance on one independent, one round on others.

Your 15-Minute Section 101 Starter




FAQ

Q1: Is this legal advice?
No. It’s educational, founder-to-founder. Talk to your counsel for your specific facts.

Q2: What if my product is purely “advisory”?
You can still anchor eligibility by showing specific data transforms, timing requirements, and safety constraints that go beyond mental steps.

Q3: Do I need clinical trial data before filing?
Not necessarily. Provide representative technical data and falsifiable outcomes. You can add more via continuations or data in prosecution.

Q4: Will potential 2025 reform change everything?
Maybe not. Drafting with technical specifics and practical applications remains the safest hedge, reform or no reform.

Q5: How many independent claims should I start with?
Often two or three: a compute-anchored method, a hybrid clinical method, and a system claim. Keep dependent claims ready for negotiated narrowing.

Q6: Are software-only DTx claims dead?
No. But you need clear machine-level improvements or tightly specified application with measurable outcomes and constraints.

Section 101 digital therapeutics conclusion & your 15-minute next step

Remember the story from the top—the claim that read like a pep talk? We closed that loop by adding a state machine, a latency cap, and a two-week outcome window. Rejection withdrawn, calendar rescued. You can do the same this afternoon.

In the next 15 minutes:

  • Create “Constraints & Outcomes” doc: five bullets, one chart.
  • Paste Pattern A or B and replace placeholders with your numbers.
  • Book a 15-minute examiner interview slot for post-first action.

Founder to founder: this isn’t about perfect prose; it’s about precise engineering inside your claim. Tighten verbs, add numbers, show the machine changing—and your DTx story gets eligible, fundable, and shippable.

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