DeepTech
DeepTech refers to hardware- and industry-oriented technological developments characterized by a high degree of technical and scientific depth. The term is primarily used to describe innovations in which research, development, and technical implementation work closely together.
DeepTech is based on substantial scientific or engineering breakthroughs and is characterized by a long development horizon, high capital requirements, and strong barriers to entry—such as patents, specialized materials, or proprietary know-how.
DeepTech does not solve existing problems faster, but rather enables fundamentally new approaches to solutions.
Deep Tech at a Glance
- is based on a robust scientific or technological core
- is closely linked to development effort, validation, and feasibility
- plays a particularly important role in hardware-related and industrial fields
- involves stakeholders along the value chain, including EMS service providers and PCB manufacturers
- combines innovation with industrial connectivity
DeepTech refers to technological developments that are not based solely on digital applications or new business models, but rather on a deep technical understanding and sophisticated implementation. This includes solutions in which research, development, testing, integration, and scalability play a key role.
In the electronics sector, DeepTech can be understood through familiar terms. These include, in particular:
System understanding | Development effort | Technical precision
Integration capability | Reliability | Validation
Material expertise | Component expertise | Industrializability
DeepTech is relevant wherever new technological approaches are not only conceived but also translated into robust products, assemblies, or systems. The term thus stands for technological depth and the journey from an idea to a viable application.
Typical Application Areas
Sensors | Semiconductors | Embedded Systems
Power Electronics | Robotics | Automation
Energy-Efficient Hardware | Industrial Data Processing | New Materials
In the electronics industry, DeepTech solutions are used in the form of, among other things:
- power semiconductors based on new materials such as GaN and SiC
- innovative chip packaging concepts
- optical transmission technology
- specialized processors for AI applications
What all DeepTech projects have in common:
The path from a functioning lab prototype to reliable mass production is long—and expensive.
What does this mean for traditional electronics?
For companies in the traditional electronics sector—from PCB assembly and discrete components to device manufacturers—deep tech is not an abstract topic of the future, but a concrete driver for product portfolios and supply chains.
New materials such as gallium nitride are replacing proven silicon solutions in power electronics.
New packaging concepts such as chiplets or 3D integration are changing how assemblies are developed and qualified. And new sensor principles—such as LiDAR or next-generation MEMS components—are creating application areas that would be unattainable with conventional system architecture.
Identifying and Leveraging Synergies
The value of established electronics companies lies precisely where deep-tech startups typically fall short:
- in manufacturing and process maturity, and in quality management
- in customer proximity and in the sales network
Deep-tech companies bring scientific depth and the speed of innovation—traditional electronics firms bring scalability and market knowledge.
Those who actively shape this complementarity become enablers rather than mere observers of change.
Fields of application
Power Electronics & Energy Efficiency
More efficient switches for power supplies, frequency converters, and charging systems thanks to new semiconductor materials such as GaN and SiC.
Sensors & Measurement
Smaller, more precise sensors for pressure, motion, and environmental monitoring—ready for immediate use in industrial, medical, and automotive applications.
Assemblies & System Integration
New enclosure and integration concepts that pack more functionality into less space and redefine EMS processes.
Communication & Connectivity
New enclosure and integration concepts that pack more functionality into less space and redefine EMS processes.
Smart Control Systems for Buildings & Facilities
Controllers that monitor temperature, flow, or status directly within the device and take immediate action—regardless of network or cloud connectivity.
Technological Differentiation
DeepTech
Starting Point
Scientific breakthrough from the laboratory
Development Goal
New technological principle
Timeframe
Often 5–10 years until market readiness
Risk Profile
Technology risk – it remains to be seen whether it will work
Protection Barrier
Patents, specialized materials, proprietary knowledge
HardTech
Starting Point
Real-world design challenge
Development Goal
Robust, certifiable product
Timeframe
Months to a few years until series production
Risk Profile
Engineering risk – can be resolved
Protective Barriers
Manufacturing expertise, compliance with standards, process reliability
