MOF Hydrogen Storage Landscape 2026 — PatSnap Eureka
Metal-Organic Framework Materials Landscape 2026: A Data Gap Report
The dataset provided for this MOF hydrogen storage landscape contains 70+ records — every one of which addresses polylactic acid (PLA) polymer science. This report transparently documents the mismatch, presents what the data actually contains, and provides the correct re-query terms to obtain a valid MOF hydrogen storage analysis.
Why No MOF Hydrogen Storage Analysis Can Be Produced
Integrity requires an explicit statement: the data provided does not support a landscape analysis of MOF materials for hydrogen storage. Writing such an analysis would require fabricating technical claims, inventing URLs, and misrepresenting sources.
The dataset provided in support of this research question comprises approximately 70 patent and literature records. Upon systematic review, every single source addresses polylactic acid (PLA) — a biodegradable thermoplastic derived from renewable feedstocks — and its mechanical modification, processing, and application in packaging, agriculture, 3D printing, and coatings. Not one record pertains to metal-organic frameworks (MOFs), hydrogen storage, porous coordination polymers, gas adsorption for energy applications, or any related hydrogen economy technology.
To illustrate the scope mismatch: the closest any provided source comes to gas-related science is a study on O₂ permeability reduction in PLA blown films (2019), which reports a 61% decrease in O₂ permeability coefficient through stereocomplex network formation and PEG incorporation — a packaging barrier property result, not hydrogen storage science. Similarly, a 2022 study on PLA/PEF blend compatibilization addresses gas barrier properties only in the context of food packaging film, not energy storage.
No technical sentence about MOF hydrogen storage can be written without tying it to a real source from the provided data, and no provided source addresses MOFs or hydrogen storage in any form. Producing a plausible-sounding but entirely fabricated MOF article would mislead R&D leads, IP professionals, and engineers making real investment decisions. The correct action is to flag the data gap clearly. For authoritative guidance on hydrogen research classification, see IEA and U.S. Department of Energy hydrogen programme documentation.
For context on PLA as a material category, PatSnap’s materials and chemicals intelligence covers sustainable polymer landscapes. For the broader IP analytics context, PatSnap Analytics enables landscape queries across any technology domain.
PLA Polymer Science: The Actual Dataset Landscape
The provided records form a coherent and substantive body of literature on PLA polymer modification, led by five dominant assignees across toughening, foam, and composite applications.
Reactive Blending for Impact Resistance
Reactive blending with ethylene-acrylic ester-glycidyl methacrylate terpolymer achieved an 11-fold increase in notched Izod impact strength in supertough flame-retardant PLA composites (2017). Northern Technologies International Corporation’s thermal annealing approach provides impact toughness of at least 5 kJ/m² with only 0.6–20 wt% PLA-copolymer addition. PatSnap Analytics tracks this toughening IP landscape.
11× impact strength increaseEpoxidized Plant Oils as PLA Plasticizers
Epoxidized Jatropha oil as a sustainable plasticizer demonstrated a 7000% increase in elongation at break with just 3 wt% addition (2017). This bio-based approach avoids synthetic plasticizers and aligns with circular economy targets. Research on bio-based polymer additives is indexed across PatSnap’s chemicals intelligence platform.
7000% elongation increase at 3 wt%Synbra Technology: Coated Particulate PLA Foam
Synbra Technology B.V. holds multiple patents covering coated particulate expandable PLA for biodegradable moulded products, with filings spanning 2012 to 2017. LG Hausys, Ltd. contributes foam sheet technology using extended-chain PLA (2016). These represent the largest single assignee cluster in the dataset.
Synbra Technology B.V. — lead assigneeWiSys PLA-Lignin Blends for Additive Manufacturing
WiSys Technology Foundation, Inc. (2021) developed PLA-lignin composite thermoplastics for 3D printing offering improved thermal stability and UV resistance. NAN YA Plastics Corporation contributes laminated packaging records. For R&D teams tracking sustainable composites IP, PatSnap customer case studies show how similar landscape analyses are conducted.
Improved thermal stability + UV resistanceKey Quantitative Results in the PLA Dataset
The provided records contain several high-magnitude performance results from PLA modification research — all from packaging and polymer science, not hydrogen storage.
PLA Modification Performance Metrics
Quantitative results from the four most cited performance claims in the provided 70+ record dataset.
Dominant Assignees in Provided Dataset
Five assignees account for the majority of patent records in the provided PLA-focused dataset. No MOF assignees are present.
How to Obtain a Valid MOF Hydrogen Storage Landscape
To produce a valid MOF hydrogen storage landscape for 2026, the dataset must be re-queried using specific terms against patent and literature databases covering the correct IPC codes.
- metal-organic framework — primary concept term
- hydrogen uptake — key performance metric
- porous coordination polymer — structural synonym
- BET surface area — characterisation method
- Langmuir isotherm hydrogen — adsorption measurement
- MIL-101 — specific MOF material family
- HKUST-1 — copper-based MOF benchmark
- ZIF-8 hydrogen — zeolitic imidazolate framework
- cryogenic hydrogen storage — application context
- B01J20/22 — Solid sorbents containing metal-organic frameworks
- C01B3/00 — Hydrogen; compounds thereof; separation of hydrogen
Why Fabrication Is Not Permissible
Producing a plausible-sounding but entirely fabricated MOF article would mislead R&D leads, IP professionals, and engineers making real investment decisions.
Integrity Over Output
Writing a MOF hydrogen storage landscape from this data would require fabricating technical claims, inventing URLs, and misrepresenting sources — all of which are explicitly prohibited. The correct action is to flag the data gap clearly, as done here.
No MOF Assignees Identified
Institutions typically active in MOF hydrogen storage research — such as BASF, NIMS, MIT, Kubas-type coordination chemistry groups, or hydrogen economy consortia — do not appear anywhere in the provided records.
PLA Patent Filing Timeline in Provided Dataset
The provided patent records span 2012 to 2022, with key filings from the five dominant assignees across this period.
| Year | Assignee | Technology | Key Result |
|---|---|---|---|
| 2012 | Synbra Technology B.V. | Coated particulate expandable PLA | Biodegradable moulded foam products |
| 2016 | LG Hausys, Ltd. | Extended-chain PLA foam sheet | Improved foam sheet mechanical properties |
| 2017 | Multiple (literature) | Reactive blending + epoxidized oils | 11× impact strength; 7000% elongation |
| 2017 | Synbra Technology B.V. | Coated particulate expandable PLA (continuation) | Expanded biodegradable foam product range |
| 2019 | Literature (unspecified) | PLA blown film stereocomplex + PEG | 61% decrease in O₂ permeability coefficient |
| 2021 | WiSys Technology Foundation | PLA-lignin composite for 3D printing | Improved thermal stability and UV resistance |
| 2021 | Northern Technologies Intl. | High-impact PLA blends | At least 5 kJ/m² impact toughness |
| 2022 | Northern Technologies Intl. | High-impact resistant PLA blends (continuation) | 0.6–20 wt% PLA-copolymer addition range |
| 2022 | Literature (unspecified) | PLA/PEF blend compatibilization | Gas barrier for sustainable bioderived packaging |
Metal-Organic Framework Hydrogen Storage — key questions answered
Upon systematic review, every single source in the 70+ record dataset addresses polylactic acid (PLA) — a biodegradable thermoplastic — and its mechanical modification, processing, and applications. Not one record pertains to metal-organic frameworks, hydrogen storage, porous coordination polymers, or gas adsorption for energy applications.
The dominant assignees appearing across the patent records include Synbra Technology B.V. (expandable PLA foam products), LG Hausys, Ltd. (PLA foam sheets and boards), Northern Technologies International Corporation (high-impact PLA blends), NAN YA Plastics Corporation (laminated packaging), and WiSys Technology Foundation, Inc. (PLA-lignin composites for 3D printing).
To produce a valid MOF hydrogen storage landscape for 2026, the dataset must be re-queried using terms such as metal-organic framework, hydrogen uptake, porous coordination polymer, BET surface area, Langmuir isotherm hydrogen, MIL-101, HKUST-1, ZIF-8 hydrogen, or cryogenic hydrogen storage against patent and literature databases covering IPC codes B01J20/22 and C01B3/00.
The closest any provided source comes to gas-related science is a study on O2 permeability reduction in PLA blown films (2019), which reports a 61% decrease in O2 permeability coefficient through stereocomplex network formation and PEG incorporation — a packaging barrier property result, not hydrogen storage science.
The provided records form a high-quality landscape for PLA toughening and sustainable packaging innovation, including toughening strategies achieving an 11-fold increase in notched Izod impact strength, bio-based plasticization showing a 7000% increase in elongation at break, expandable PLA foam patents, 3D printing PLA-lignin composites, and high-impact PLA blends providing impact toughness of at least 5 kJ/m2.
Writing a MOF hydrogen storage landscape from this data would require fabricating technical claims, inventing URLs, and misrepresenting sources. Producing a plausible-sounding but entirely fabricated MOF article would mislead R&D leads, IP professionals, and engineers making real investment decisions. The correct action is to flag the data gap clearly.
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