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FROM PROTEINS

TO STARS

Explore a world of possibilities with unprecedented sensitivity using EMILIE, our nanomechanical infrared analyser.

OUR PRODUCTS

It’s been the breakthrough of our research team at TU Wien to apply the nanomechanical point of view to the world of optics to create a radically new infrared detector especially suited to the analysis of nanomaterials.

APPROACH

Invisible-Light Labs empowers you to explore new frontiers in nanoparticles and nanomaterials analysis with our unique nanomechanical IR sensing technology.

0.1

200ng

of material necessary for an analysis

10

1500nm

nanoparticle size range

10 min

average analysis time to obtain an FTIR spectrum

15min

typical sampling time for ultrafine particles (UFPs) in urban air

1.5

20µm

accessible spectral range

0

sample transfers necessary from aerosol collection to characterization

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Our devices are developed to detect response at unprecedented room temperature over a wide wavelength range.

OUR PRODUCTS

Learn more about our nanomechanical infrared sensing product suite.

We use an ultrasensitive nanomechanical membranes to detect infrared and terahertz radiation.

TECHNOLOGY

The measurement principle of EMILIE is based on the photothermal heating of the sample, causing a measurable frequency detuning of the EMILIE nanomechanical sampling and sensing chip.

Our EMILIE nanomechanical infrared analyser is compatible with FTIR spectrometry instrumentation.

FTIR SPECTROMETER INTEGRATION

Our EMILIE nanomechanical infrared analyser is compatible with FTIR spectrometry instrumentation.

Our EMILIE nanomechanical infrared analyser is compatible with FTIR spectrometry instrumentation.
Our EMILIE nanomechanical infrared analyser is compatible with QCL-based spectrometers for increased sensitivity down to a few picograms.

QCL-BASED SPECTROMETER INTEGRATION

Our EMILIE nanomechanical infrared analyser is compatible with QCL-based spectrometers for increased sensitivity down to a few picograms.

EMILIE allows for the detection of near-IR to far-IR (THz) radiation with high sensitivity.

BROAD SPECTRAL RANGE

EMILIE allows for the detection of near-IR to far-IR (THz) radiation with high sensitivity.

EMILIE allows for the detection of near-IR to far-IR (THz) radiation with high sensitivity.

At Invisible-Light Labs, we strive to make a positive impact on the world we live in by enabling groundbreaking scientific discoveries with our highly sensitive IR sensors.

APPLICATIONS

The IR to THz region of the electromagnetic spectrum hosts a wealth of intriguing interactions between radiation and matter.

PHARMACEUTICALS

Bulk chemical characterization of nanopharmaceuticals without the time-consuming scanning.

OCCUPATIONAL HEALTH AND SAFETY

Rapid chemical characterization of ultrafine aerosols and other nanoscale-contaminants.

RESEARCH

Ultra-sensitive NIR to FIR detection without cryogenic cooling.

ENVIRONMENTAL ANALYSIS

Bulk chemical characterization of ultrafine aerosols, nanoplastics, and other nanopollutants.

MATERIALS

Characterize thin films with high sensitivity

Bulk chemical characterization of nanopharmaceuticals without the time-consuming scanning.

WHERE TO MEET US

Upcoming opportunities to talk to us in person and see our products.

SciX 2024
October 20-25, 2023

SciX 2024 conference Raleigh, NC

scixconference.org
Pittcon 2024
February 24-28, 2024

Pittcon 75 Conference and Exposition San Diego, CA, USA

pittcon.org