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Technology

Case Studies

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Researcher in cleanroom attire using tweezers to handle a tiny component under focused lighting.

Advanced Microfabrication Technology

Advanced Microfabrication Technology

Leveraging specialized thin-film processes and materials science to create high-performance components with unparalleled precision, design freedom, and miniaturization.

Leveraging specialized thin-film processes and materials science to create high-performance components with unparalleled precision, design freedom, and miniaturization.

Researcher in cleanroom attire using tweezers to handle a tiny component under focused lighting.

Advanced Microfabrication Technology

Leveraging specialized thin-film processes and materials science to create high-performance components with unparalleled precision, design freedom, and miniaturization.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Extreme close-up of microfabricated conical structures with central holes, aligned in a row on a curved base.

Extreme close-up of microfabricated conical structures with central holes, aligned in a row on a curved base.

Extreme close-up of microfabricated conical structures with central holes, aligned in a row on a curved base.

Extreme close-up of microfabricated conical structures with central holes, aligned in a row on a curved base.

Engineering Possibility at the Micro Scale

Engineering Possibility at the Micro Scale

As a trusted contract manufacturer for the medical device industry, ACQUANDAS uses advanced microsystem technologies to produce customized, biocompatible components that push the limits of traditional manufacturing. Our wafer-based thin-film processes enable sub-micron precision, complex geometries, and superior material performance—scalable from clinical prototypes to ISO 13485-compliant high-volume production.

As a trusted contract manufacturer for the medical device industry, ACQUANDAS uses advanced microsystem technologies to produce customized, biocompatible components that push the limits of traditional manufacturing. Our wafer-based thin-film processes enable sub-micron precision, complex geometries, and superior material performance—scalable from clinical prototypes to ISO 13485-compliant high-volume production.

As a trusted contract manufacturer for the medical device industry, ACQUANDAS uses advanced microsystem technologies to produce customized, biocompatible components that push the limits of traditional manufacturing. Our wafer-based thin-film processes enable sub-micron precision, complex geometries, and superior material performance—scalable from clinical prototypes to ISO 13485-compliant high-volume production.

Advanced Materials: The Foundation of Innovation

Our microfabrication expertise shines when paired with extraordinary materials. We master a spectrum of advanced metals and coatings, each chosen or engineered to deliver specific, critical performance. For example:

Our microfabrication expertise shines when paired with extraordinary materials. We master a spectrum of advanced metals and coatings, each chosen or engineered to deliver specific, critical performance. For example:

Our microfabrication expertise shines when paired with extraordinary materials. We master a spectrum of advanced metals and coatings, each chosen or engineered to deliver specific, critical performance. For example:

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Nitinol (NiTi) & SMAs:
The 'Smart Metal' Advantage

Nitinol (NiTi) & SMAs:
The 'Smart Metal' Advantage

This extraordinary smart metal combines superelasticity (it flexes and springs back) with shape memory (it returns to a preset shape). These traits let us design highly miniaturized, flexible, and durable components—like self-expanding stents or microscopic actuators—that often serve as key enablers in next-generation medical devices.

This extraordinary smart metal combines superelasticity (it flexes and springs back) with shape memory (it returns to a preset shape). These traits let us design highly miniaturized, flexible, and durable components—like self-expanding stents or microscopic actuators—that often serve as key enablers in next-generation medical devices.

This extraordinary smart metal combines superelasticity (it flexes and springs back) with shape memory (it returns to a preset shape). These traits let us design highly miniaturized, flexible, and durable components—like self-expanding stents or microscopic actuators—that often serve as key enablers in next-generation medical devices.

Bioabsorbable Metals:
Healing, Then Dissolving

Bioabsorbable Metals:
Healing, Then Dissolving

We fabricate customized implants from bioabsorbable metals such as magnesium or iron that support healing and then safely dissolve in the body—eliminating the need for a second removal surgery and reducing patient risk.

We fabricate customized implants from bioabsorbable metals such as magnesium or iron that support healing and then safely dissolve in the body—eliminating the need for a second removal surgery and reducing patient risk.

We fabricate customized implants from bioabsorbable metals such as magnesium or iron that support healing and then safely dissolve in the body—eliminating the need for a second removal surgery and reducing patient risk.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Biocompatible Metals:
Lasting Harmony with
the Body

Biocompatible Metals:
Lasting Harmony with
the Body

For long-term implants, we use proven biocompatible metals such as titanium and tantalum, ensuring devices perform safely and effectively for extended periods within the body.

For long-term implants, we use proven biocompatible metals such as titanium and tantalum, ensuring devices perform safely and effectively for extended periods within the body.

For long-term implants, we use proven biocompatible metals such as titanium and tantalum, ensuring devices perform safely and effectively for extended periods within the body.

Tailored Functional Coatings & Custom Compositions

Tailored Functional Coatings & Custom Compositions

In addition, we apply a wide range of functional coatings—for insulation, conductivity, and more—and fabricate custom alloys and composites, precisely tailored to meet the unique demands of each application.

In addition, we apply a wide range of functional coatings—for insulation, conductivity, and more—and fabricate custom alloys and composites, precisely tailored to meet the unique demands of each application.

In addition, we apply a wide range of functional coatings—for insulation, conductivity, and more—and fabricate custom alloys and composites, precisely tailored to meet the unique demands of each application.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Close-up of a cylindrical microfabricated structure with patterned, flexible metallic loops arranged in rows.

Capabilities: Realizing Your Vision in Form & Function

Our advanced processes and materials enable diverse component structures and integration strategies. From micro-scale carriers to complex multi-layer platforms, we tailor the form to your specific application needs:

Our advanced processes and materials enable diverse component structures and integration strategies. From micro-scale carriers to complex multi-layer platforms, we tailor the form to your specific application needs:

Our advanced processes and materials enable diverse component structures and integration strategies. From micro-scale carriers to complex multi-layer platforms, we tailor the form to your specific application needs:

Abstract orange gradient square transitioning from deep orange at the top to light peach at the bottom, with a soft texture throughout.

Patches / Arrays

Abstract orange gradient square transitioning from deep orange at the top to light peach at the bottom, with a soft texture throughout.

Patches / Arrays

Abstract orange gradient square transitioning from deep orange at the top to light peach at the bottom, with a soft texture throughout.

Patches / Arrays

Abstract orange gradient square transitioning from deep orange at the top to light peach at the bottom, with a soft texture throughout.

Patches / Arrays

Stylized illustration of a mesh-like stent in a gradient of dark gray to orange, positioned diagonally over a soft gradient background transitioning from light gray to orange.

Stents

Stylized illustration of a mesh-like stent in a gradient of dark gray to orange, positioned diagonally over a soft gradient background transitioning from light gray to orange.

Stents

Stylized illustration of a mesh-like stent in a gradient of dark gray to orange, positioned diagonally over a soft gradient background transitioning from light gray to orange.

Stents

Stylized illustration of a mesh-like stent in a gradient of dark gray to orange, positioned diagonally over a soft gradient background transitioning from light gray to orange.

Stents

Abstract illustration of a bright orange oval shape intersected diagonally by a thin gradient line, casting a long shadow over a gradient gray background.

Balloons

Abstract illustration of a bright orange oval shape intersected diagonally by a thin gradient line, casting a long shadow over a gradient gray background.

Balloons

Abstract illustration of a bright orange oval shape intersected diagonally by a thin gradient line, casting a long shadow over a gradient gray background.

Balloons

Abstract illustration of a bright orange oval shape intersected diagonally by a thin gradient line, casting a long shadow over a gradient gray background.

Balloons

Stylized illustration of an orange and black gradient microneedle with a T-shaped top and a tapered, pointed tip, set against a white background.

Micro Needles

Stylized illustration of an orange and black gradient microneedle with a T-shaped top and a tapered, pointed tip, set against a white background.

Micro Needles

Stylized illustration of an orange and black gradient microneedle with a T-shaped top and a tapered, pointed tip, set against a white background.

Micro Needles

Stylized illustration of an orange and black gradient microneedle with a T-shaped top and a tapered, pointed tip, set against a white background.

Micro Needles

Abstract orange and white illustration resembling a leaf-like or winged structure, with dynamic curves and gradient shading across a white background.

Baskets

Abstract orange and white illustration resembling a leaf-like or winged structure, with dynamic curves and gradient shading across a white background.

Baskets

Abstract orange and white illustration resembling a leaf-like or winged structure, with dynamic curves and gradient shading across a white background.

Baskets

Abstract orange and white illustration resembling a leaf-like or winged structure, with dynamic curves and gradient shading across a white background.

Baskets

Structural Platforms:
Building for Micro-Scale Demands

Beyond flat geometries, ACQUANDAS enables the fabrication of complex structural and functional microdevices using partial-depth (2.5D), multilayer architectures, and advanced surface coatings. These capabilities provide maximum design freedom—whether for simple mechanical frames or fully integrated, bioelectronic devices.

Beyond flat geometries, ACQUANDAS enables the fabrication of complex structural and functional microdevices using partial-depth (2.5D), multilayer architectures, and advanced surface coatings. These capabilities provide maximum design freedom—whether for simple mechanical frames or fully integrated, bioelectronic devices.

Beyond flat geometries, ACQUANDAS enables the fabrication of complex structural and functional microdevices using partial-depth (2.5D), multilayer architectures, and advanced surface coatings. These capabilities provide maximum design freedom—whether for simple mechanical frames or fully integrated, bioelectronic devices.

Two scientists in lab coats discussing research in a laboratory.

2D Structures

Ultra-thin, flexible components with high resolution—including sensor grids and intricate stent frameworks—manufactured with unmatched planar precision, paving the way for next-generation microdevices.

Two scientists in lab coats discussing research in a laboratory.

2D Structures

Ultra-thin, flexible components with high resolution—including sensor grids and intricate stent frameworks—manufactured with unmatched planar precision, paving the way for next-generation microdevices.

Two scientists in lab coats discussing research in a laboratory.

2D Structures

Ultra-thin, flexible components with high resolution—including sensor grids and intricate stent frameworks—manufactured with unmatched planar precision, paving the way for next-generation microdevices.

Two scientists in lab coats discussing research in a laboratory.

2D Structures

Ultra-thin, flexible components with high resolution—including sensor grids and intricate stent frameworks—manufactured with unmatched planar precision, paving the way for next-generation microdevices.

Integrated Functionality / Multi-Layers

Complex electronics and sensors embedded directly within the device, enabling smart implants with advanced, multi-functional performance in a highly compact design.

Integrated Functionality / Multi-Layers

Complex electronics and sensors embedded directly within the device, enabling smart implants with advanced, multi-functional performance in a highly compact design.

Integrated Functionality / Multi-Layers

Complex electronics and sensors embedded directly within the device, enabling smart implants with advanced, multi-functional performance in a highly compact design.

Integrated Functionality / Multi-Layers

Complex electronics and sensors embedded directly within the device, enabling smart implants with advanced, multi-functional performance in a highly compact design.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

2.5D Structures

Adding microscopic height and texture for components like microneedles or surfaces engineered for specific cellular interactions.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

2.5D Structures

Adding microscopic height and texture for components like microneedles or surfaces engineered for specific cellular interactions.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

2.5D Structures

Adding microscopic height and texture for components like microneedles or surfaces engineered for specific cellular interactions.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

2.5D Structures

Adding microscopic height and texture for components like microneedles or surfaces engineered for specific cellular interactions.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

Coatings

Applying specialized surface modifications for enhanced insulation, biocompatibility, conductivity, or corrosion resistance.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

Coatings

Applying specialized surface modifications for enhanced insulation, biocompatibility, conductivity, or corrosion resistance.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

Coatings

Applying specialized surface modifications for enhanced insulation, biocompatibility, conductivity, or corrosion resistance.

3D-rendered illustration of a medical stent-like device being guided through a blood vessel in the brain.

Coatings

Applying specialized surface modifications for enhanced insulation, biocompatibility, conductivity, or corrosion resistance.

Bioelectronic Platforms:
Precision for Advanced Therapies

Bioelectronics—the integration of electronic systems with biological environments— enables a new class of implantable therapies. These specialized platforms provide precise insulation mechanical support, and long-term reliability, tailored for next-generation medical devices.

Bioelectronics—the integration of electronic systems with biological environments— enables a new class of implantable therapies. These specialized platforms provide precise insulation mechanical support, and long-term reliability, tailored for next-generation medical devices.

Bioelectronics—the integration of electronic systems with biological environments— enables a new class of implantable therapies. These specialized platforms provide precise insulation mechanical support, and long-term reliability, tailored for next-generation medical devices.

Abstract icon of three orange gradient circles connected by straight orange lines in a Y-shape, representing a simplified molecular or network structure on a black background.

Sputtered Oxide

Robust, self-expandable, ultra-thin inorganic insulation ideal for long-lasting, reliable implants.

Abstract icon of three orange gradient circles connected by straight orange lines in a Y-shape, representing a simplified molecular or network structure on a black background.

Sputtered Oxide

Robust, self-expandable, ultra-thin inorganic insulation ideal for long-lasting, reliable implants.

Illustration of three dark blue water droplets with white reflective highlights on a black background, arranged in a triangular formation.

Structured Polymer

Flexible, self-expandable, biocompatible polymer insulation perfect for devices needing to conform and move within the body.

Illustration of three dark blue water droplets with white reflective highlights on a black background, arranged in a triangular formation.

Structured Polymer

Flexible, self-expandable, biocompatible polymer insulation perfect for devices needing to conform and move within the body.

Illustration of three dark blue water droplets with white reflective highlights on a black background, arranged in a triangular formation.

Structured Polymer

Flexible, self-expandable, biocompatible polymer insulation perfect for devices needing to conform and move within the body.

Stylized illustration of a gray, semi-transparent sheet with a curled bottom-right corner, set against a black background.

Polymer Film

Versatile polymer-based carriers and insulation for a wide range of short- and long-term implantable devices.

Stylized illustration of a gray, semi-transparent sheet with a curled bottom-right corner, set against a black background.

Polymer Film

Versatile polymer-based carriers and insulation for a wide range of short- and long-term implantable devices.

Stylized illustration of a gray, semi-transparent sheet with a curled bottom-right corner, set against a black background.

Polymer Film

Versatile polymer-based carriers and insulation for a wide range of short- and long-term implantable devices.

The ACQUANDAS
Technical Advantage

Miniaturization & Resolution

5–80 µm films, 1–10 µm feature resolution

Design Complexity

2D to 2.5D forms: flaps, cavities, microneedles

Mechanical Strength

High fatigue life (>10M cycles)

Radiopacity

Visible under X-ray via integrated markers

Biocompatibility

High purity, corrosion-resistant surface

Embedded Functionality

Integrated conductive, magnetic, or heating layers

Cost Efficiency

Wafer-scale, batch processing

Fast Prototyping

Prototypes in ~2–3 weeks

Surface Engineering

Micro-patterned surfaces for biointerfaces

Alloy Customization

Tailored materials: SMA, bioabsorbable, etc.

Two scientists in lab coats discussing research in a modern laboratory, with one writing on a clipboard and the other holding a petri dish.

Two scientists in lab coats discussing research in a modern laboratory, with one writing on a clipboard and the other holding a petri dish.

Two scientists in lab coats discussing research in a modern laboratory, with one writing on a clipboard and the other holding a petri dish.

Two scientists in lab coats discussing research in a modern laboratory, with one writing on a clipboard and the other holding a petri dish.

Your Partner in Quality and Innovation

Your Partner in Quality and Innovation

Quality is embedded in our process. We collaborate closely from concept refinement to final processing and rigorous quality control, ensuring traceability and adherence to industry standards (ISO 13485 where required). We offer dedicated engineering support for optimal performance and reliability.

Quality is embedded in our process. We collaborate closely from concept refinement to final processing and rigorous quality control, ensuring traceability and adherence to industry standards (ISO 13485 where required). We offer dedicated engineering support for optimal performance and reliability.

Quality is embedded in our process. We collaborate closely from concept refinement to final processing and rigorous quality control, ensuring traceability and adherence to industry standards (ISO 13485 where required). We offer dedicated engineering support for optimal performance and reliability.

Discuss Your Technical Requirements

Let’s explore how ACQUANDAS’ advanced technology can solve your component challenges and accelerate innovation.

Book a Free Consultation

Book a Free Consultation

Entdecken Sie Nitinol-Insights

Download our exclusive “Breakthorugh Guide to Thin-Film Nitinol” and discover how ACQUANDAS is revolutionizing medical device miniaturization.

Entdecken Sie Nitinol-Insights

Download our exclusive “Breakthorugh Guide to Thin-Film Nitinol” and discover how ACQUANDAS is revolutionizing medical device miniaturization.

Entdecken Sie Nitinol-Insights

Download our exclusive “Breakthorugh Guide to Thin-Film Nitinol” and discover how ACQUANDAS is revolutionizing medical device miniaturization.

Entdecken Sie Nitinol-Insights

Download our exclusive “Breakthorugh Guide to Thin-Film Nitinol” and discover how ACQUANDAS is revolutionizing medical device miniaturization.

Tailoring possibility into Perfection. Advanced microfabrication for next-generation components and devices.

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Contact Us

+49 (0) 431 880 6211

info@acquandas.com

Kaiserstraße 2, 24143
Kiel, Germany
Building F, 1st floor
Room F-021a

Ready to Innovate?

Book a free consultation to discuss your project needs.

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Tailoring possibility into Perfection. Advanced microfabrication for next-generation components and devices.

Site Map

home

About

Technology

Case Studies

Articles

Careers

Contact Us

+49 (0) 431 880 6211

info@acquandas.com

Kaiserstraße 2, 24143, Kiel, Germany
Building F, 1st floor room F-021a

Ready to Innovate?

Book a free consultation to discuss your project needs.

schedule now

Terms and Conditions

Tailoring possibility into Perfection. Advanced microfabrication for next-generation components and devices.

Contact Us

+49 (0) 431 880 6211

info@acquandas.com

Kaiserstraße 2, 24143, Kiel, Germany
Building F, 1st floor room F-021a

Site Map

home

About

Technology

Case Studies

Articles

Careers

Ready to Innovate?

Book a free consultation to discuss your project needs.

schedule now

Terms and Conditions

Tailoring possibility into Perfection. Advanced microfabrication for next-generation components and devices.

Site Map

home

About

Technology

Case Studies

Articles

Careers

Contact Us

+49 (0) 431 880 6211

info@acquandas.com

Kaiserstraße 2, 24143, Kiel, Germany
Building F, 1st floor room F-021a

Ready to Innovate?

Book a free consultation to discuss your project needs.

schedule now

Terms and Conditions