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Printed Electronics Landscape 2026 — PatSnap Eureka

Printed Electronics Landscape 2026 — PatSnap Eureka
Tools Explore in Eureka
Reading7 min
PublishedJun 18, 2025
Coverage2013–2023
Printed Electronics Landscape

Printed Electronics Materials Landscape 2026: Conductive Inks, 2D Materials & Flexible Devices

An analysis of 80+ patent and literature sources reveals that graphene-based conductive inks, inkjet printing, and 2D material heterostructures are the dominant technologies shaping flexible and wearable electronics. Inkjet printing has emerged as the leading deposition method, while screen-printable graphene inks now achieve conductivity of 7.13 × 10⁴ S/m.

Fig. 01 — Top Assignees by Patent Activity in Printed Electronics
Top Printed Electronics Patent Assignees: Vorbeck Materials (highest), Chinaray, CRC Canada, DST Innovations, E2IP Technologies Relative patent frequency ranking of the five dominant assignees identified across 80+ patent and literature sources analysed via PatSnap Eureka, 2013–2023. Vorbeck Chinaray CRC Canada DST Innov. E2IP Tech. Multiple US/EP/IN patents OLED focus Molecular inks OLEDs/PV Molecular inks
Published by PatSnap Insights Team · · 7 min read Verified by PatSnap Eureka Data
Landscape Overview

80+ Sources Reveal a Printed Electronics Corpus, Not Shape Memory Alloys

Upon comprehensive review of the 80+ patent and literature sources provided, the dataset contains no relevant information regarding shape memory alloy (SMA) materials, actuators, or medical device applications. The entire corpus focuses on printed electronics technologies, including conductive ink formulations using graphene, silver nanoparticles, and carbon-based materials.

Printing methodologies such as inkjet printing, screen printing, and electrohydrodynamic jet printing dominate the technical landscape. Flexible electronics for wearable devices, displays, and sensors represent the primary application domain, alongside 2D materials including graphene, hexagonal boron nitride, and molybdenum disulfide. Research into this field is published and indexed at organisations such as IEEE and OECD, while standards bodies like IEC track emerging electronics manufacturing methods.

PatSnap’s IP analytics platform enables researchers to map technology landscapes like this one across millions of patents and literature sources simultaneously, revealing where innovation is actually concentrated.

PatSnap Eureka All findings derived from 80+ patent and literature sources analysed in PatSnap Eureka. Explore the data ↗
80+
Patent & literature sources analysed
7.13×10⁴
S/m graphene ink conductivity (Cyrene solvent)
<1 μm
Resolution achievable via EHD jet and laser printing
5
Dominant patent assignees identified in dataset
Conductive Ink Formulations

Graphene, Silver Nanoparticles, and Molecular Inks Define the Formulation Landscape

Three distinct ink chemistries dominate the printed electronics patent corpus, each with distinct conductivity profiles, substrate compatibility, and sustainability characteristics.

Graphene-Based Inks

Sustainable Graphene Inks Reach 7.13 × 10⁴ S/m

Screen-printable graphene inks using the non-toxic solvent Dihydrolevoglucosenone (Cyrene) achieve conductivity of 7.13 × 10⁴ S/m, enabling wireless connectivity and IoT applications. Vorbeck Materials Corporation holds multiple active patents on graphene-based printed electronics across US, EP, and IN jurisdictions, making it the most frequently recurring assignee in the dataset. Learn more about materials analytics at PatSnap’s chemistry solutions page.

7.13 × 10⁴ S/m conductivity
Silver Nanoparticle Inks

Silver Nanoparticle Inks: The Most Commercially Mature Nanotechnology Ink

Silver nanoparticle inks remain the most commercially mature nanotechnology-based ink for printed electronics applications, as reviewed in the 2016 state-of-the-art survey. Their widespread adoption reflects established sintering protocols and compatibility with a broad range of flexible substrates used in wearable and display applications.

Most commercially mature nanotechnology ink
Molecular Ink Technologies

Flake-Free Molecular Inks Enable Sintered Metal Traces

Her Majesty the Queen in Right of Canada (Communications Research Centre) patented flake-less printable compositions in 2019 containing silver carboxylate or copper formate compounds with polymeric binders, which are sintered to form conductive metal traces. E2IP Technologies Inc. is also active in this molecular ink formulation space, representing an important alternative to particle-based approaches.

Silver carboxylate & copper formate compounds
OLED & Optoelectronic Inks

Guangzhou Chinaray Leads OLED Printing Formulations

Guangzhou Chinaray Optoelectronic Materials Ltd. focuses on printing formulations specifically designed for OLED and optoelectronic applications. DST Innovations Limited also patents printable functional materials for plastic electronics including OLEDs and photovoltaics, indicating a distinct sub-segment of the printed electronics landscape targeting light-emitting and energy-harvesting devices.

OLED & photovoltaic applications
PatSnap Eureka Ink formulation data sourced from patent filings and peer-reviewed literature, 2013–2023. Explore ink patents ↗
Deposition Methods

Inkjet Printing Leads; Laser Printing Achieves Sub-Micron Resolution

The corpus documents a spectrum of printing methods from mature inkjet techniques to advanced laser-based approaches capable of features below 1 μm.

Printing Method Capability Comparison

Relative capability ranking of printing methods documented in the 80+ source corpus, from inkjet to laser printing.

Printing Method Resolution Capability: Laser/EHD below 1 μm, Inkjet leading for 2D material heterostructures, Screen printing for IoT graphene inks at 7.13×10⁴ S/m Comparative capability of four printing methods documented across 80+ patent and literature sources analysed via PatSnap Eureka, 2013–2023. Low Medium High Laser/EHD Inkjet Screen EHD Jet <1 μm Leading method 7.13×10⁴ S/m Sub-μm

2D Materials in Printed Electronics

Key 2D material systems documented in the corpus enabling printed heterostructures and complementary circuits.

2D Materials for Printed Electronics: Graphene (conductive), Hexagonal Boron Nitride (dielectric), Molybdenum Disulfide (semiconductor), used in fully printed heterostructures on textile Roles of three 2D material families documented in 80+ patent and literature sources for printed electronics heterostructures, analysed via PatSnap Eureka. Graphene Conductive layer hBN Dielectric layer MoS₂ Semiconductor Heterostructures Washable FETs on textile Key application (2021): Fully printed complementary circuits on paper using inkjet-printed low-dimensional materials
PatSnap Eureka Printing method and 2D material data drawn from peer-reviewed literature, 2017–2023. Explore the data ↗
Sustainable Manufacturing

Printing Technologies Reduce Steps, Energy, and Waste vs. Subtractive Fabrication

Research from 2020 highlights that printing technologies significantly reduce manufacturing steps, energy consumption, and waste compared to traditional subtractive electronics fabrication.

Traditional (Subtractive)
Full-layer deposition
Entire material layer applied to substrate
Photolithography
Mask patterning and UV exposure steps
Etching & waste
Chemical removal of unwanted material
Additive Printing
Direct ink deposition
Inkjet, screen, or EHD jet printing
Sintering / curing
Silver carboxylate or graphene ink sintered in place
Fewer process steps
Significantly reduced energy and waste
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Unlock Sustainable Outcomes Analysis
See how bio-based substrates, non-toxic solvents like Cyrene, and circular electronics approaches are documented in the 2020 literature.
Bio-based substratesCyrene solventCircular electronics
Generate full report →
PatSnap Eureka Sustainable manufacturing findings from 2020 literature on environmental considerations in printed electronics. Explore sustainability research ↗
Strategic Insights

Critical Findings from the 80+ Source Corpus

Key technology signals and data gaps identified across the full patent and literature dataset.

Vorbeck Materials: Most Recurring Patent Family

Vorbeck Materials Corporation’s graphene-based conductive ink patents represent the most frequently recurring patent family in the dataset, covering graphene sheets and binders applied to substrates, with active filings across US, EP, and IN jurisdictions as early as 2013.

Inkjet Printing Dominates as Preferred Deposition Method

Inkjet printing has emerged as the leading deposition method across the corpus, demonstrated by fully printed graphene and hexagonal boron nitride heterostructures achieving washable, flexible field-effect transistors on textile — a key milestone documented in 2017 literature.

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Unlock Remaining Strategic Insights
Access findings on sub-micron laser printing resolution and the critical data gap analysis for shape memory alloy research.
Laser/EHD <1 μmSMA data gapNitinol absence
Unlock full analysis →
PatSnap Eureka Strategic insights derived from patent frequency analysis and literature review across 80+ sources. Explore insights ↗
Key Players

Five Dominant Assignees Across Printed Electronics Patent Corpus

Assignee Technology Focus Jurisdictions Key Innovation
Vorbeck Materials Corporation Graphene-based printed electronics US, EP, IN Functionalized graphene sheets and binders applied to substrates (2013)
Guangzhou Chinaray Optoelectronic Materials Ltd. OLED printing formulations CN, EP Printing formulations for OLED and optoelectronic applications
Her Majesty the Queen in Right of Canada (CRC) Molecular ink technologies CA, US Flake-less silver carboxylate / copper formate compositions (2019)
PatSnap Eureka Assignee data sourced from patent frequency analysis across the 80+ document corpus. For deeper competitive intelligence, explore PatSnap’s analytics platform. Explore assignees in Eureka ↗
Frequently asked questions

Printed Electronics Landscape 2026 — key questions answered

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