13 Tech Breakthroughs: A Preview of TechBlick’s Electronics RESHAPED Silicon Valley

In this newsletter you will find short highlights given at various editions of TechBlick's Future of Electronics RESHAPED conference and exhibitions. In particular you can learn about the following:

Join us in Mountain View, Silicon Valley, in June at the latest edition of the Future of Electronics RESHARED event. This is the most important event of the year dedicated to Additive, Printed, Hybrid and Sustainable Electronic. Explore Agenda here https://www.techblick.com/electronicsreshapedusa

• Frederic Güth | Fraunhofer ENAS: How does the substitution of the structural unit in Parylene polymers affect their properties and application-specific fine-tuning?

• Ryojiro Tominaga | Fuji Corporation: How does the low-temperature sintering process impact the choice of conductive inks and substrate materials?

• Ryan Banfield | Heraeus Electronics: Why is a solderable polymer necessary when high-temperature fired materials have been available for decades?

• Paul Gaylo | Lockheed Martin: How does the miniaturization of electronic warfare systems impact mission capabilities?

• Alejandro Covalin | Spark Biomedical: How can 3D printing and printed electronics overcome the limitations of traditional manufacturing in wearable devices?

• Eric Wolf | Essemtec: How does Essemtec manage the complexities of dispensing non-Newtonian fluids with varying rheological properties?

• Allan Neville | Human Systems Integration, Inc.: How does the manufacturing process for integrating electronics into garments differ from traditional electronics manufacturing, and what are the key challenges in bridging these two worlds?

• Daniel Lacorte | Ames Goldsmith: How can manipulating precipitation process parameters affect the final particle morphology?

• Jonathan Chang | Panasonic: How does Panasonic's Fine Cross technology differ from conventional copper mesh processes?

• Ryota Shimizu | Satosen Co.,Ltd: How does repeated stretching lead to electrical failure in conventional stretchable PCBs?

• Dr. Shenqiang Ren | University of Maryland: How does the performance of this novel copper ink compare to commercially available alternatives under ambient sintering conditions?

• Denis Cormier | Rochester Institute of Technology: How does molten metal droplet jetting compare to traditional nanoparticle-based conductive inks?

• Dresden Integrated Center for Applied Physics and Photonic Materials - TU Dresden: What specific etching process is used to remove the basophil from the leaf, and how does this process affect the structural integrity of the remaining lignocellulose?

Book before 15 March 2026 when winter early bird rates expire

https://www.techblick.com/electronicsreshapedusa

How can 3D printing and printed electronics overcome the limitations of traditional manufacturing in wearable devices?

The speaker asserts that 3D printing, 3D electronics, and 3D manufacturing offer a distinct advantage in producing wearables. This stems from several key factors that address limitations inherent in traditional manufacturing processes. The ability to create inexpensive, ultra-thin, and flexible devices is paramount.

The capacity of 3D-printed wearables to conform seamlessly to the body's contours is highlighted as a significant benefit. This adaptability enhances user comfort and device efficacy, particularly in medical applications where precise sensor placement and consistent contact are crucial. The speaker emphasizes that this approach is the optimal path forward for wearable technology.

The convergence of 3D printing, advanced manufacturing techniques, and printed electronics is presented as the future of wearable device production. This synergy enables the creation of devices that are not only functional and cost-effective but also highly personalized and comfortable for the user. This is especially important in the context of women's health, where tailored solutions can address specific physiological needs.

In this short video, you can learn:

* The advantages of 3D printing and printed electronics in wearable manufacturing.

* How these technologies enable the creation of inexpensive, flexible, and body-conforming devices.

* The potential of this approach to revolutionize wearable technology, particularly in women's health.

📋 **Clip Abstract** The speaker advocates for 3D printing and printed electronics as the superior method for producing wearables due to their cost-effectiveness, flexibility, and ability to conform to the body. This approach is particularly relevant for women's health applications, where personalized and comfortable devices are essential.

#3DPrinting, #PrintedElectronics, #WearableElectronics, #FlexibleElectronics, #DigitalHealth, #Bioelectronics

This presentation was given by Alejandro Covalin from Spark Biomedical at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does Essemtec manage the complexities of dispensing non-Newtonian fluids with varying rheological properties?

Essemtec emphasizes the importance of understanding the rheology of dispensed materials, particularly the concept of shear thinning in thixotropic pastes. These materials, classified as non-Newtonian fluids, exhibit reduced viscosity under higher pressure. This behavior is critical in dispensing applications where pistons force material through an aperture.

The system accounts for variables such as dispensing speed and temperature to determine the optimal open time for achieving desired dot sizes from small apertures. Essemtec collaborates with material companies to qualify specific parameters, acknowledging that these relationships are often non-linear and can result in complex rheological behaviors at different pressure levels.

The shape of the particles within the paste also influences dispensing characteristics. Solder paste typically contains spherical particles, while conductive epoxies often feature silver in flake form, and structural glues may contain colloidal silica. Understanding these particle morphologies is crucial for achieving consistent and reliable dispensing results.

In this short video, you can learn:

* How shear thinning affects dispensing of non-Newtonian fluids.

* The importance of material rheology in dispensing applications.

* How particle shape influences dispensing characteristics.

📋 **Clip Abstract** This segment highlights Essemtec's approach to understanding and managing the rheological complexities of dispensing various materials, including the impact of shear thinning and particle morphology. It emphasizes the importance of qualifying material parameters for consistent dispensing results.

#NonNewtonianFluids, #ShearThinning, #ParticleMorphology, #PrecisionDispensing, #SemiconductorManufacturing, #AdvancedPackaging

This presentation was given by Eric Wolf from Essemtec at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does the manufacturing process for integrating electronics into garments differ from traditional electronics manufacturing, and what are the key challenges in bridging these two worlds?

The speaker highlights a significant challenge in the field: the integration of electronics into garments, specifically addressing the cultural and technological gap between the garment industry and the electronics industry. Garment manufacturing floors are not typically equipped or accustomed to handling electronics, which require different processes and expertise compared to traditional textile work. This disconnect poses a major hurdle in the seamless production of smart garments.

The speaker emphasizes that the textile world lags behind the electronics industry by approximately 30 to 40 years in terms of technological advancement. However, there's a growing recognition and desire for collaboration between these two sectors. Organizations like NextFlex and AFFOA (Advanced Functional Fabrics of America) are actively promoting this integration, aiming to bridge the gap and foster innovation in the wearable technology space.

The concept of Soft Electronics Assembly is introduced as a solution to streamline the integration process. This approach involves pre-assembling sensors and electronics into a single, manageable component before it reaches the garment manufacturing floor. This simplifies the manufacturing process and reduces the need for garment workers to handle individual electronic components, thereby mitigating potential errors and improving overall efficiency.

In this short video, you can learn:

* The challenges of integrating electronics into traditional garment manufacturing.

* The technological gap between the textile and electronics industries.

* The role of organizations like NextFlex and AFFOA in promoting collaboration.

📋 **Clip Abstract** This segment discusses the challenges of merging electronics manufacturing with garment production, highlighting the cultural and technological differences between the two industries and the efforts to bridge this gap through initiatives like Soft Electronics Assembly. It emphasizes the need for collaboration and innovation to advance the field of wearable technology.

#SmartGarments, #WearableElectronics, #SoftElectronicsAssembly, #FunctionalFabrics, #WearableTech, #SemiconductorIntegration

This presentation was given by Allan Neville from Human Systems Integration, Inc. at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How can manipulating precipitation process parameters affect the final particle morphology?

The process begins with aqueous silver, typically silver nitrate, which is then reduced to form brown-based silver atoms. This reduction is generally achieved through a wet-based precipitation process, where nuclei are initially formed. These nuclei then develop into primary crystallites, which can be further grown using different surfactants or reducing agents.

The manipulation of these surfactants and reducing agents allows for the creation of various morphologies and particle size distributions. By carefully controlling these parameters, the characteristics of the resulting silver particles can be tailored to specific application requirements. This level of control is crucial for optimizing the performance of the silver particles in printed electronics.

The presenter highlights the ability to influence whether the resulting material is crystalline or polycrystalline in nature. This control is achieved by precisely manipulating the precipitation process parameters. This level of control is crucial for optimizing the performance of the silver particles in printed electronics.

In this short video, you can learn:

* The role of silver nitrate reduction in particle formation.

* How surfactants and reducing agents influence particle morphology.

* The impact of precipitation parameters on crystalline structure.

📋 **Clip Abstract** This segment details the wet-based precipitation process used to manufacture silver particles, emphasizing the control over particle morphology through manipulation of surfactants, reducing agents, and process parameters. It highlights the ability to create both crystalline and polycrystalline materials tailored for specific applications.

#SilverNitrateReduction, #WetPrecipitationSynthesis, #ParticleMorphologyControl, #CrystallineStructureTuning, #PrintedElectronics, #SemiconductorMaterials

This presentation was given by Daniel Lacorte from Ames Goldsmith at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does Panasonic's Fine Cross technology differ from conventional copper mesh processes?

Panasonic's Fine Cross technology involves a unique process of creating grooves on PET or PC materials. Copper is then deposited within these grooves. This is achieved through a roll-to-roll manufacturing process, enabling the production of very long rolls of the material. The process also supports the creation of two-layer structures, with patterns on both the top and bottom layers.

The key differentiator of this technology is the embedding of the copper within the substrate, as opposed to conventional copper mesh processes where the copper sits on top. This embedding results in a smoother surface. Furthermore, the technology allows for the creation of very narrow, two-micron width lines, contributing to higher transparency compared to conventional solutions.

The roll-to-roll nature of the process allows for scalability and cost-effectiveness in manufacturing. The ability to create customizable patterns and multi-layer structures expands the range of potential applications for the technology. This approach offers a balance between conductivity, transparency, and surface smoothness, making it suitable for various applications.

In this short video, you can learn:

* The core manufacturing process of Fine Cross technology.

* How Fine Cross differs from traditional copper mesh.

* The advantages of Fine Cross in terms of surface smoothness and transparency.

📋 **Clip Abstract** This segment details Panasonic's Fine Cross technology, highlighting its unique groove-based copper embedding process and its advantages over conventional copper mesh. The roll-to-roll manufacturing and customizable patterns are also discussed.

#FineCrossTechnology, #CopperEmbedding, #RollToRollManufacturing, #MicronLineWidth, #TransparentConductors, #FlexibleElectronics

This presentation was given by Jonathan Chang from Panasonic at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does repeated stretching lead to electrical failure in conventional stretchable PCBs?

Conventional stretchable PCBs, whether utilizing meandering copper traces or printed silver paste, face durability challenges under repeated stretching. While silver paste allows for straight patterns and higher design density compared to the complex shapes required for copper, both materials exhibit a common failure mode. This failure manifests as an increase in resistance after repeated stretching cycles, ultimately leading to electrical discontinuity.

The root cause of this resistance increase lies in the formation and propagation of cracks within the conductive material. As the PCB undergoes repeated stretching, micro-cracks initiate and grow, disrupting the conductive pathways. This crack formation is exacerbated by the inherent limitations of copper and silver paste in withstanding tensile stress, leading to a gradual degradation of electrical performance.

The presenter highlights that while the resistance fluctuates with each stretch and release cycle, the critical issue is the continuous upward trend in resistance over time. This trend signifies irreversible damage accumulation, eventually resulting in an open circuit and rendering the PCB unusable. This limitation restricts the lifespan and warranty potential of current stretchable PCB technologies.

In this short video, you can learn:

* The limitations of copper and silver paste in stretchable PCBs.

* How repeated stretching leads to crack formation and increased resistance.

* Why current stretchable PCBs have limited durability and short lifespans.

📋 **Clip Abstract:** This segment explains the failure mechanisms in conventional stretchable PCBs due to repeated stretching, focusing on crack formation and resistance increase in conductive materials. It highlights the limitations of current technologies and sets the stage for introducing liquid metal as a solution.

#StretchablePCBs, #CopperTraces, #SilverPaste, #ElectricalFailureMode, #FlexibleElectronics, #WearableTech

This presentation was given by Ryota Shimizu from Satosen Co.,Ltd at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does the performance of this novel copper ink compare to commercially available alternatives under ambient sintering conditions?

The speaker presents a comparison between their copper ink and a commercially available copper ink. Both inks were screen-printed onto paper substrates and sintered in open air using lamps. The speaker emphasizes the simplicity of their copper ink's processing, highlighting that it can be cured and dried in less than 30 seconds in ambient conditions.

The speaker's copper ink achieved a sheet resistance of approximately 35 milliohms per square after open-air sintering. While acknowledging that this is not yet comparable to silver inks, the speaker notes that there is still room for improvement. In contrast, the commercial copper ink, when subjected to the same printing and sintering conditions, exhibited sheet resistance values in the megaohm range, significantly higher than the speaker's ink.

The speaker highlights the visible difference in color between their ink and the commercial ink after sintering, suggesting a difference in the resulting copper film's properties. The speaker also mentions a live demonstration at the exhibits, inviting attendees to observe the printing process firsthand.

In this short video, you can learn:

* The speaker's copper ink can be sintered in open air in less than 30 seconds.

* The speaker's copper ink achieves a sheet resistance of approximately 35 milliohms per square after open-air sintering.

* The commercial copper ink exhibited sheet resistance values in the megaohm range under the same conditions.

📋 **Clip Abstract:** This segment showcases a direct comparison between the speaker's copper ink and a commercial alternative, highlighting the superior performance of the speaker's ink in terms of sheet resistance after open-air sintering. The speaker emphasizes the simplicity and effectiveness of their ink's processing.

#CopperInk, #AmbientSintering, #SheetResistance, #PrintedElectronics, #FlexibleElectronics, #IoTDevices

This presentation was given by Dr. Shenqiang Ren from University of Maryland at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does molten metal droplet jetting compare to traditional nanoparticle-based conductive inks?

The speaker describes a metal droplet jetting process where metal wire or rod is fed into a micro-crucible, melted, and then ejected as molten metal droplets onto a moving substrate. This process differs significantly from traditional printed electronics methods that rely on nanoparticle-based conductive inks. The key distinction lies in the material state upon deposition; molten metal solidifies directly, eliminating the need for post-processing steps like drying or curing, which are essential for nanoparticle inks to achieve conductivity.

The initial application of this technology was for metal additive manufacturing, specifically aluminum parts, rather than printed electronics. However, the speaker's team began exploring the possibility of using it for printing aluminum traces and subsequently transitioning to copper and silver. This shift required modifications to the system, including software adjustments for path planning based on Gerber files instead of STL files used in 3D printing.

The transition to copper and silver also necessitated optimizing print parameters to achieve desired line quality and conductivity. A significant advantage of this method is the potential to achieve conductivity levels comparable to bulk copper, which is crucial for applications requiring high current carrying capacity. This is attributed to the formation of solid core metal lines, contrasting with the often porous and less conductive structures formed by sintered nanoparticle inks.

In this short video, you can learn:

* The fundamental difference between molten metal jetting and nanoparticle ink printing.

* The adaptations required to repurpose a metal AM system for printed electronics.

* The potential for achieving bulk-like conductivity in printed traces using this method.

📋 **Clip Abstract** This segment introduces molten metal droplet jetting as an alternative to nanoparticle inks, highlighting its potential for high conductivity and the modifications needed to adapt a metal AM system for printed electronics applications.

#MoltenMetalJetting, #DirectMetalPrinting, #BulkConductivity, #NanoparticleInks, #PrintedElectronics, #CircuitFabrication

This presentation was given by Denis Cormier from Rochester Institute of Technology at The Future of Electronics RESHAPED USA | Boston 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

What specific etching process is used to remove the basophil from the leaf, and how does this process affect the structural integrity of the remaining lignocellulose?

The speaker introduces the motivation behind using leaves as a substrate for printed electronics, driven by concerns about electronic waste. A PhD student's research highlighted the vast amount of untracked e-waste, leading to the exploration of alternative, more sustainable substrates. The initial focus was on finding alternatives for printing processes, eventually leading to the investigation of leaves as a potential source material.

The complex structure of a leaf, including the basophil, skin, and vascular structure, presents challenges for direct printing. However, the stable vascular structure, composed of lignin and cellulose, remains after removing the green material (basophil) through etching. This resulting lignocellulose structure exhibits quasi-fractal properties, making it suitable for substrate technology.

In this short video, you can learn:

* The environmental motivation for exploring leaves as a substrate.

* The structural components of a leaf and the process of removing the basophil.

* The composition and properties of the remaining lignocellulose structure.

📋 **Clip Abstract** This segment highlights the initial motivation for using leaves as a substrate for printed electronics, focusing on the environmental concerns related to e-waste and the structural properties of leaves that make them a viable alternative.

#LeafEtching, #BasophilRemoval, #LignocelluloseSubstrate, #BiomaterialProcessing, #PrintedElectronics, #SustainableSubstrates

This presentation was given by Dresden Integrated Center for Applied Physics and Photonic Materials - TU Dresden at The Future of Electronics RESHAPED 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does the substitution of the structural unit in Parylene polymers affect their properties and application-specific fine-tuning?

Parylene is a group of polymers with interesting properties, including being a dielectric, chemically inert, and biocompatible. The material is based on the same structural unit, but different variants of Parylene can be achieved through substitution. This allows for fine-tuning the material's properties to suit specific applications.

The deposition of Parylene is always the same, involving a three-phase gas phase deposition process, specifically chemical vapor deposition (CVD). This process occurs in a chamber at low pressures and room temperature, enabling the coating of temperature-sensitive materials. The result is a thin layer with a thickness that can be varied by adjusting the duration of the process.

Due to its gas phase deposition, the coating is highly conformal, allowing for coating of complex 3D structures. These properties, combined with the pinhole-free nature of the thin Parylene layers, make it suitable for various applications. The material can also be structured through laser ablation or oxygen plasma etching to remove Parylene where needed.

In this short video, you can learn:

* The fundamental properties of Parylene polymers.

* How chemical substitution enables property fine-tuning.

* The specifics of the Parylene deposition process.

📋 **Clip Abstract:** This segment introduces Parylene, highlighting its tunable properties through chemical substitution and the specifics of its gas-phase deposition process, emphasizing its conformality and suitability for coating temperature-sensitive materials.

#ParylenePolymers, #ChemicalVaporDeposition, #PropertyTuning, #ConformalCoating, #SemiconductorManufacturing, #AdvancedPackaging

This presentation was given by Frederic Güth from Fraunhofer ENAS at The Future of Electronics RESHAPED 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does the low-temperature sintering process impact the choice of conductive inks and substrate materials?

The HPM-300DI system utilizes a two-module approach, integrating pick-and-place functionality with a printing module. The printing module initially deposits a UV-curable dielectric material using a 600 DPI inkjet system, followed by UV exposure for hardening. Subsequently, the same inkjet system prints a silver conductive ink onto the dielectric surface.

The printed silver ink undergoes a drying and sintering process at a relatively low temperature. This low-temperature sintering is a critical aspect of the process, enabling the creation of conductive circuits on the substrate. The process is repeated to build up multi-layer circuits.

This additive manufacturing approach allows for the creation of material circuits through a fully digital process. The system's capabilities are being evaluated with partners to explore various applications, including 2D substrate prototyping and the fabrication of novel 3D geometry devices.

In this short video, you can learn:

* The two-module architecture of the HPM-300DI system.

* The process of printing dielectric and conductive layers.

* The importance of low-temperature sintering for circuit formation.

📋 **Clip Abstract** The clip details the core printing and curing process of the HPM-300DI, highlighting the use of UV-curable dielectrics and low-temperature sintered silver conductive inks. It emphasizes the system's ability to create multi-layer circuits through a fully additive digital manufacturing process.

#LowTempSintering, #ConductiveInk, #UVCurableDielectric, #AdditiveManufacturing, #PrintedElectronics, #SemiconductorManufacturing

This presentation was given by Ryojiro Tominaga from Fuji Corporation at The Future of Electronics RESHAPED 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

Why is a solderable polymer necessary when high-temperature fired materials have been available for decades?

The speaker introduces the concept of a solderable polymer material and poses the question of its necessity, given the existing high-temperature fired materials. He highlights his extensive experience in the printed electronics industry, spanning approximately 25 years. He notes that since the advent of the membrane switch in the mid-1970s, the industry has been aiming to replace traditional subtractive technology.

However, the speaker argues that the focus should shift from replacement to augmentation and support. He suggests leveraging the knowledge and advancements from the traditional technology industry and integrating them into the printed electronics sector. The core limitation of the polymer thick film industry, according to the speaker, lies in solderability.

The ability to attach components directly to the substrate has been restricted to two-part or one-part epoxy-based materials, which present challenges such as long pot life, viscosity changes over time, evolving processing parameters, extended cure cycles, and low attachment rates. The speaker asserts that solder, in every aspect, is superior to epoxy-based materials due to its snap cure, higher conductivity, enhanced mechanical strength, and improved reliability in demanding applications.

In this short video, you can learn:

* The historical context of printed electronics and its relationship with subtractive technologies.

* The limitations of epoxy-based materials in printed electronics applications.

* The advantages of solder over epoxy in terms of performance and reliability.

📋 **Clip Abstract:** This segment introduces the need for solderable polymers by contrasting them with existing solutions like epoxies and high-temperature materials, highlighting the limitations of current approaches in printed electronics. It sets the stage for understanding the benefits of the new material.

#SolderablePolymer, #PolymerThickFilm, #ComponentAttachment, #EpoxyAdhesives, #PrintedElectronics, #ElectronicPackaging

This presentation was given by Ryan Banfield from Heraeus Electronics at The Future of Electronics RESHAPED 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa

How does the miniaturization of electronic warfare systems impact mission capabilities?

The core enabler of the mission described is the dramatic reduction of size, weight, and power (SWaP) of electronic warfare systems. This involves scaling down systems that once occupied the space of a refrigerator to the size of a hockey puck. This miniaturization is achieved through the integration of state-of-the-art, US-built microelectronics.

This advancement allows for the delivery of 21st-century digital technologies, ensuring service members remain ahead of emerging threats. The technology focuses not only on efficiency but also on enhancing the effectiveness of defense systems. This includes faster threat detection, higher accuracy, and advanced electronic defense capabilities.

The reduction in SWaP enables the deployment of advanced electronic warfare capabilities on platforms with limited space and power resources. This enhances the overall effectiveness of defense systems by providing faster threat detection, higher accuracy, and advanced electronic defense capabilities. The miniaturized systems act as force multipliers, significantly enhancing the capabilities of service members.

In this short video, you can learn:

* The impact of SWaP reduction on electronic warfare systems.

* The role of advanced microelectronics in achieving miniaturization.

* How miniaturization enhances threat detection and defense capabilities.

📋 **Clip Abstract** This segment highlights the significance of miniaturizing electronic warfare systems through advanced microelectronics, enabling enhanced capabilities in smaller, lighter, and more power-efficient packages. The result is faster threat detection, higher accuracy, and improved electronic defense.

#ElectronicWarfareMiniaturization, #SWaPReduction, #MicroelectronicsIntegration, #DigitalDefense, #DefenseTech, #MilitaryApplications

This presentation was given by Paul Gaylo from Lockheed Martin at The Future of Electronics RESHAPED 2025 conference and exhibition

Join us next at the Computer History Museum in California at the largest and most important show in the USA dedicated to Additive, Hybrid, Wearable, Soft, Stretchable, InMold Electronics. Learn more here https://www.techblick.com/electronicsreshapedusa