Updated April 2026 · USPTO + FDA Orange Book
Patents Expiring in 2033
104 U.S. patents losing protection later in the decade, by assignee and technology class.
104 U.S. patents are scheduled to expire in 2033, later in the decade. The full list below is built from USPTO patent records — every entry shows the assignee, expiration date, and CPC technology class as filed with the U.S. Patent and Trademark Office.
What the 2033 Cohort Looks Like
A focused cohort of 104 U.S. patents expires in 2033. While not a headline cliff year by total count, the company-by-company impact can still be meaningful — a single drug or product line losing exclusivity often involves only a handful of listed patents.
Apple sits at the top of the 2033 expiration list with 6 patents, followed by General Electric (5) and Siemens (5). Concentrated expirations in a single assignee often signal a coordinated product family reaching the end of its patent life — a pattern most visible in pharmaceutical compound families and consumer electronics platforms.
Among technology classes, Computing & Data Processing leads the 2033 expirations with 102 patents, with Telecommunications the next-largest cluster (98). The mix of CPC classes in a single year provides a reasonable map of which technology areas are about to see a step-change in new entrants and lower licensing pressure.
Expiring Patents — Full List
| Patent # | Title | Assignee | Granted | Expires | Claims | Status |
|---|---|---|---|---|---|---|
| 10002579 | Method for multi-layer wireless communication using photonic | Abbott | Jun 11, 2017 | Dec 15, 2033 | 21 | 7.7y left |
| 10002608 | System and method for low-latency data processing using lidar | Abbott | Feb 23, 2016 | Sep 23, 2033 | 42 | 7.5y left |
| 10003995 | System for low-latency neural network processing with analog | Adobe | Dec 10, 2015 | Dec 8, 2033 | 32 | 7.7y left |
| 10004007 | Computer-implemented method for autonomous quantum optimization | Adobe | May 14, 2017 | Jul 19, 2033 | 49 | 7.3y left |
| 10005135 | System and method for autonomous data processing using digital | Agilent | Feb 23, 2016 | May 4, 2033 | 32 | 7.1y left |
| 10001012 | System for configurable neural network processing with digital | Amazon | Aug 6, 2017 | Mar 1, 2033 | 38 | 6.9y left |
| 10002398 | System for optimized signal transmission in CMOS networks | AMD | Oct 21, 2017 | Nov 2, 2033 | 9 | 7.6y left |
| 10002414 | Method for scalable machine learning inference using 5G | AMD | Sep 11, 2016 | Oct 16, 2033 | 17 | 7.5y left |
| 10000730 | System for advanced neural network processing with cloud | Apple | Jul 22, 2017 | Jul 15, 2033 | 41 | 7.3y left |
| 10000741 | Method for scalable channel estimation in cloud communications | Apple | Nov 6, 2016 | Dec 15, 2033 | 12 | 7.7y left |
| 10000745 | Electronic component with multi-layer digital configuration | Apple | Oct 22, 2016 | May 11, 2033 | 16 | 7.1y left |
| 10000748 | Apparatus for integrated data encoding in graphene systems | Apple | Oct 16, 2015 | Feb 3, 2033 | 48 | 6.8y left |
| 10002527 | Apparatus for multi-layer data encoding in 5G systems | Applied Materials | May 17, 2016 | Apr 7, 2033 | 22 | 7.0y left |
| 10003137 | System for advanced neural network processing with edge | AstraZeneca | Oct 11, 2015 | Mar 7, 2033 | 27 | 6.9y left |
| 10003147 | Method for distributed machine learning inference using RF | AstraZeneca | Mar 18, 2016 | Nov 6, 2033 | 11 | 7.6y left |
| 10003160 | Apparatus for low-latency computational operations in cloud environments | AstraZeneca | Dec 15, 2016 | Jul 10, 2033 | 10 | 7.3y left |
| 10004478 | System for efficient neural network processing with photonic | BAE Systems | Nov 27, 2017 | Jul 15, 2033 | 10 | 7.3y left |
| 10003389 | System and method for adaptive data processing using digital | BASF | Dec 5, 2016 | Mar 16, 2033 | 42 | 6.9y left |
| 10004608 | Method for multi-layer machine learning inference using lidar | Baxter | Feb 3, 2015 | Apr 13, 2033 | 26 | 7.0y left |
| 10003233 | Method for autonomous channel estimation in neural communications | Bayer | Nov 25, 2016 | Jun 7, 2033 | 36 | 7.2y left |
| 10004944 | Apparatus for high-performance data encoding in nano-scale systems | Blue Origin | Jan 13, 2016 | May 22, 2033 | 29 | 7.1y left |
| 10003741 | Apparatus for distributed computational operations in quantum environments | BMW | Apr 14, 2015 | Oct 24, 2033 | 46 | 7.5y left |
| 10001360 | Sensor for distributed MEMS measurement | Boeing | Jun 14, 2016 | Mar 24, 2033 | 48 | 7.0y left |
| 10004646 | System and method for adaptive data processing using blockchain | Boston Scientific | Feb 23, 2017 | Apr 6, 2033 | 40 | 7.0y left |
| 10001961 | Method for scalable machine learning inference using blockchain | Broadcom | Jun 23, 2015 | Dec 24, 2033 | 9 | 7.7y left |
| 10000322 | Apparatus for scalable data encoding in edge systems | Canon | Mar 23, 2015 | Nov 27, 2033 | 43 | 7.6y left |
| 10001712 | Apparatus for high-performance computational operations in CMOS environments | Cisco | Feb 27, 2015 | Mar 28, 2033 | 24 | 7.0y left |
| 10001741 | Apparatus for advanced computational operations in AI-driven environments | Cisco | May 25, 2017 | Aug 9, 2033 | 31 | 7.3y left |
| 10001744 | Method for multi-layer wireless communication using cloud | Cisco | Dec 9, 2017 | Feb 17, 2033 | 49 | 6.9y left |
| 10005023 | Method for efficient machine learning inference using quantum | Danaher | Feb 18, 2017 | Mar 10, 2033 | 12 | 6.9y left |
| 10004313 | Apparatus for configurable computational operations in AI-driven environments | Deere | Jan 5, 2015 | Feb 11, 2033 | 37 | 6.9y left |
| 10003456 | Method for distributed channel estimation in lidar communications | DuPont | Aug 13, 2017 | Nov 23, 2033 | 24 | 7.6y left |
| 10003475 | Method for low-latency channel estimation in lidar communications | DuPont | May 7, 2017 | Jun 23, 2033 | 23 | 7.2y left |
| 10004750 | Method for improved machine learning inference using edge | Edwards Lifesciences | May 9, 2017 | Apr 18, 2033 | 11 | 7.0y left |
| 10004335 | Computer-implemented method for enhanced neural optimization | Emerson | Oct 28, 2015 | Feb 17, 2033 | 18 | 6.9y left |
| 10001828 | System for multi-layer signal transmission in graphene networks | Ericsson | Mar 1, 2016 | Mar 11, 2033 | 24 | 6.9y left |
| 10003821 | Computer-implemented method for dynamic nano-scale optimization | Jun 5, 2017 | Dec 23, 2033 | 48 | 7.7y left | |
| 10003552 | Computer-implemented method for advanced 5G optimization | Ford | Jun 25, 2017 | Nov 24, 2033 | 44 | 7.6y left |
| 10003553 | System for integrated neural network processing with MEMS | Ford | Jan 22, 2017 | Oct 20, 2033 | 36 | 7.5y left |
| 10001442 | Internal combustion engine with efficient edge system | General Electric | Mar 16, 2017 | May 23, 2033 | 46 | 7.1y left |
| 10003639 | Apparatus for configurable computational operations in quantum environments | General Motors | Oct 13, 2016 | May 7, 2033 | 35 | 7.1y left |
| 10002967 | System for distributed neural network processing with AI-driven | Gilead | Oct 4, 2015 | Nov 9, 2033 | 38 | 7.6y left |
| 10002974 | Method for modular machine learning inference using cloud | Gilead | Sep 15, 2017 | Jun 23, 2033 | 16 | 7.2y left |
| 10000883 | System and method for distributed data processing using CMOS | Aug 8, 2016 | Apr 10, 2033 | 40 | 7.0y left | |
| 10003693 | Method for efficient machine learning inference using digital | Honda | Nov 13, 2016 | Jun 10, 2033 | 44 | 7.2y left |
| 10003694 | Method for multi-layer channel estimation in neural communications | Honda | Aug 11, 2016 | May 12, 2033 | 14 | 7.1y left |
| 10003732 | System for scalable signal transmission in digital networks | Honda | Dec 6, 2016 | May 27, 2033 | 12 | 7.1y left |
| 10001097 | Computer-implemented method for configurable analog optimization | Huawei | Sep 11, 2016 | Jul 3, 2033 | 31 | 7.2y left |
| 10001122 | Computer-implemented method for modular MEMS optimization | Huawei | Sep 3, 2016 | Jan 10, 2033 | 27 | 6.8y left |
| 10000004 | Electronic component with enhanced quantum configuration | IBM | Apr 20, 2015 | Feb 16, 2033 | 36 | 6.9y left |
| 10005087 | Apparatus for modular data encoding in AI-driven systems | Illumina | May 20, 2016 | Jul 11, 2033 | 43 | 7.3y left |
| 10005093 | Computer-implemented method for advanced 5G optimization | Illumina | Feb 17, 2017 | Oct 9, 2033 | 22 | 7.5y left |
| 10005100 | Method for optimized machine learning inference using lidar | Illumina | Apr 5, 2017 | Mar 11, 2033 | 25 | 6.9y left |
| 10000485 | Method of fabricating advanced blockchain components | Intel | Jun 5, 2017 | Aug 15, 2033 | 24 | 7.4y left |
| 10002655 | Method for distributed machine learning inference using blockchain | Johnson & Johnson | Mar 9, 2016 | Feb 19, 2033 | 14 | 6.9y left |
| 10002533 | Method for modular machine learning inference using CMOS | Lam Research | Sep 20, 2017 | Aug 27, 2033 | 26 | 7.4y left |
| 10002562 | Method for distributed channel estimation in CMOS communications | Lam Research | Nov 9, 2015 | Dec 25, 2033 | 45 | 7.7y left |
| 10000661 | System for improved neural network processing with graphene | LG | Jun 5, 2017 | Mar 24, 2033 | 41 | 7.0y left |
| 10002273 | System and method for advanced data processing using digital | Lockheed Martin | Sep 18, 2016 | Jan 6, 2033 | 49 | 6.8y left |
| 10004802 | Apparatus for low-latency data encoding in MEMS systems | Mastercard | Jun 15, 2017 | Oct 21, 2033 | 25 | 7.5y left |
| 10004807 | Method for enhanced machine learning inference using graphene | Mastercard | Jun 24, 2017 | Oct 7, 2033 | 23 | 7.5y left |
| 10002727 | Apparatus for distributed computational operations in nano-scale environments | Merck | Apr 26, 2017 | Jul 12, 2033 | 27 | 7.3y left |
| 10003857 | System and method for integrated data processing using cloud | Meta | Aug 13, 2016 | Jun 23, 2033 | 13 | 7.2y left |
| 10002434 | Apparatus for configurable data encoding in 5G systems | Micron | Aug 19, 2015 | Mar 22, 2033 | 26 | 7.0y left |
| 10002441 | Method for multi-layer wireless communication using 5G | Micron | Dec 6, 2016 | Sep 22, 2033 | 25 | 7.5y left |
| 10000398 | Apparatus for high-performance computational operations in neural environments | Microsoft | Dec 18, 2016 | Jul 4, 2033 | 25 | 7.2y left |
| 10000401 | Method for improved edge information retrieval | Microsoft | Sep 15, 2016 | Dec 22, 2033 | 35 | 7.7y left |
| 10000411 | Method for adaptive MEMS information retrieval | Microsoft | Jan 6, 2017 | Jan 25, 2033 | 30 | 6.8y left |
| 10003026 | System and method for multi-layer data processing using 5G | Novartis | Oct 23, 2017 | Jan 19, 2033 | 29 | 6.8y left |
| 10003053 | Apparatus for configurable data encoding in AI-driven systems | Novartis | Jul 15, 2015 | Jun 19, 2033 | 36 | 7.2y left |
| 10002321 | Method for advanced MEMS information retrieval | Nvidia | Mar 3, 2016 | Jan 8, 2033 | 20 | 6.8y left |
| 10002328 | Method for optimized RF information retrieval | Nvidia | Aug 19, 2015 | Feb 26, 2033 | 9 | 6.9y left |
| 10001757 | Method for distributed wireless communication using MEMS | Oracle | May 27, 2015 | Apr 20, 2033 | 14 | 7.0y left |
| 10004417 | Computer-implemented method for integrated MEMS optimization | Parker Hannifin | Sep 24, 2017 | Nov 13, 2033 | 36 | 7.6y left |
| 10002681 | efficient chemical composition with graphene properties | Pfizer | Jun 2, 2015 | Apr 13, 2033 | 15 | 7.0y left |
| 10002693 | System and method for improved data processing using neural | Pfizer | Sep 16, 2015 | Sep 15, 2033 | 37 | 7.4y left |
| 10003280 | Apparatus for high-performance computational operations in edge environments | Procter & Gamble | Sep 4, 2016 | Dec 18, 2033 | 31 | 7.7y left |
| 10003286 | Method for dynamic machine learning inference using 5G | Procter & Gamble | Apr 17, 2015 | Oct 2, 2033 | 20 | 7.5y left |
| 10003314 | Method for configurable machine learning inference using digital | Procter & Gamble | Aug 8, 2016 | Mar 18, 2033 | 46 | 6.9y left |
| 10000802 | Method of fabricating improved photonic components | Qualcomm | Jun 12, 2016 | Nov 27, 2033 | 21 | 7.6y left |
| 10000822 | System for adaptive neural network processing with nano-scale | Qualcomm | May 14, 2016 | Feb 4, 2033 | 5 | 6.8y left |
| 10000845 | System for low-latency signal transmission in cloud networks | Qualcomm | Nov 24, 2016 | Mar 21, 2033 | 36 | 7.0y left |
| 10002246 | Apparatus for improved computational operations in graphene environments | Raytheon | Jan 22, 2017 | Oct 4, 2033 | 19 | 7.5y left |
| 10002255 | Apparatus for dynamic computational operations in quantum environments | Raytheon | Nov 25, 2017 | Jun 13, 2033 | 44 | 7.2y left |
| 10003948 | Computer-implemented method for improved nano-scale optimization | Salesforce | Jun 8, 2017 | Sep 17, 2033 | 10 | 7.4y left |
| 10003174 | System for dynamic signal transmission in photonic networks | Sanofi | Jul 25, 2016 | Feb 9, 2033 | 21 | 6.8y left |
| 10001491 | Method for high-performance edge detection and analysis | Siemens | Dec 20, 2015 | Aug 19, 2033 | 34 | 7.4y left |
| 10001492 | System for multi-layer signal transmission in photonic networks | Siemens | May 9, 2017 | Mar 19, 2033 | 42 | 6.9y left |
| 10001510 | System for modular neural network processing with edge | Siemens | Dec 21, 2017 | Jun 14, 2033 | 10 | 7.2y left |
| 10001228 | System for efficient signal transmission in AI-driven networks | Sony | Feb 6, 2015 | Mar 26, 2033 | 20 | 7.0y left |
| 10004918 | System and method for configurable data processing using 5G | SpaceX | May 24, 2017 | Jan 20, 2033 | 34 | 6.8y left |
| 10004939 | System for configurable neural network processing with MEMS | SpaceX | Oct 12, 2016 | Jun 17, 2033 | 28 | 7.2y left |
| 10004878 | Method for modular wireless communication using lidar | Square | Apr 13, 2017 | May 24, 2033 | 16 | 7.1y left |
| 10005038 | System for advanced neural network processing with digital | Thermo Fisher | Apr 21, 2017 | Nov 10, 2033 | 33 | 7.6y left |
| 10001287 | Internal combustion engine with efficient blockchain system | Toyota | Feb 28, 2017 | Nov 17, 2033 | 44 | 7.6y left |
| 10001293 | Power conversion system with modular photonic efficiency | Toyota | Nov 20, 2016 | Mar 15, 2033 | 8 | 6.9y left |
| 10000568 | Apparatus for high-performance computational operations in AI-driven environments | TSMC | Mar 16, 2017 | Mar 10, 2033 | 20 | 6.9y left |
| 10000580 | Method for configurable channel estimation in quantum communications | TSMC | Nov 14, 2015 | Jul 21, 2033 | 29 | 7.3y left |
| 10003922 | Method for modular channel estimation in graphene communications | Uber | Jan 22, 2015 | May 9, 2033 | 45 | 7.1y left |
| 10004773 | Apparatus for high-performance computational operations in CMOS environments | Visa | May 5, 2017 | Nov 14, 2033 | 45 | 7.6y left |
| 10004789 | Apparatus for adaptive computational operations in CMOS environments | Visa | Nov 28, 2015 | Oct 7, 2033 | 40 | 7.5y left |
| 10004796 | Method for efficient channel estimation in cloud communications | Visa | Sep 13, 2016 | Dec 5, 2033 | 24 | 7.7y left |
| 10004797 | Method for integrated machine learning inference using edge | Visa | Jun 4, 2015 | Mar 10, 2033 | 31 | 6.9y left |
| 10004710 | Method for low-latency channel estimation in blockchain communications | Zimmer Biomet | Apr 28, 2015 | Apr 18, 2033 | 12 | 7.0y left |
Why These Expirations Matter
When a U.S. patent expires, its claims enter the public domain. For pharmaceutical patents, that is the trigger that lets generic manufacturers file an Abbreviated New Drug Application under the FDA approval process using the brand drug\'s safety data — a pathway that typically delivers 80–95% list-price drops within 12–18 months. For non-drug patents (semiconductors, consumer electronics, industrial equipment), expiration usually translates directly into competitive entry without the regulatory delay.
Cross-reference any drug-related expiration on this page with the FDA Orange Book, which lists all currently in-force exclusivities and patents tied to approved drug products. The Orange Book exclusivity dates can extend market protection past the patent expiration shown here.
How 2033 Compares to Adjacent Years
How These Expirations Are Calculated
Each expiration date is computed from USPTO patent records using the standard 20-years-from-earliest-non-provisional-filing rule. Patent Term Adjustments (granted to compensate for USPTO processing delays) and Patent Term Extensions (granted under the Hatch-Waxman Act for time lost during FDA review) are applied where present in the federal record. For pharmaceutical patents, FDA-granted exclusivities can extend market protection past the patent expiry shown here — those are tracked separately on each drug profile. Read the full methodology for the data pipeline and known limitations.
Frequently Asked Questions
How many patents are expiring in 2033?
104 U.S. utility patents tracked by PatentCliff are scheduled to lose protection in 2033. That count comes directly from USPTO records using the standard 20-years-from-earliest-non-provisional-filing rule, with Patent Term Adjustments and Patent Term Extensions applied where the federal record specifies them.
Which companies have the most patents expiring in 2033?
Apple leads with 6 patents, followed by General Electric (5), Siemens (5), AbbVie Inc. (5). Concentrated expirations in a single assignee often track to a specific product family — pharmaceutical compound families, semiconductor process generations, or consumer electronics platforms tend to cluster.
What happens when a U.S. patent expires?
When a patent expires, the technology it covers enters the public domain. Anyone can manufacture, use, or sell products based on the expired patent without licensing or royalty payments. For drug patents specifically, expiration is a precondition for generic competition — but FDA-granted exclusivities can extend market protection past patent expiry, and method-of-use patents may remain in force even after the compound patent expires. For non-drug patents, expiration is more straightforward and typically translates into immediate competitive entry.
Are these dates final?
The expiration dates shown reflect the current USPTO record as of 2026-04-10. Dates can shift in two ways: USPTO can grant a Patent Term Adjustment correcting for prosecution delays, or the manufacturer can secure a Hatch-Waxman Patent Term Extension on a drug patent that compensates for FDA review time. Both adjustments appear in the federal record and are reflected here when present. Always confirm against the live USPTO record before making a downstream decision.
Where can I verify these patent expirations?
Every patent in the table below carries its USPTO patent number. You can verify any individual patent through USPTO Patent Public Search (ppubs.uspto.gov), Google Patents, or — for drugs — the FDA Orange Book listings. The federal source is always authoritative; this page is a structured presentation of those records, not an independent calculation.
Sources: U.S. Patent and Trademark Office (PatentsView, Open Data Portal) and U.S. Food and Drug Administration (Orange Book). Public-domain federal data. Cite as: "PatentCliff, April 2026 reading. Data: USPTO + FDA Orange Book."
Last updated 2026-04-10 · 104 patents tracked for 2033.
The this entity category groups every U.S. pharmaceutical patent expirations entity sharing this attribute. The list above is the data; the paragraphs below explain what the grouping means against the broader the FDA Orange Book and USPTO patent records distribution and how to read the relative rankings within the category.
For readers using this category as a starting point, the per-entity detail pages linked from the table above carry the underlying the FDA Orange Book and USPTO patent records data in full. The category-level view is the filter; the per-entity pages are the actual answer.