At Baseer, our journey began with a question: What if we could see what’s happening inside the body—without needles, pain, or patches?

Founded by a team of scientists and engineers with deep roots in silicon photonics and biomedical innovation, Baseer set out to build a new kind of sensor—one that uses light to non-invasively detect health biomarkers like glucose.

Driven by the rising burden of chronic diseases in our region, especially diabetes, we envisioned a solution that could fit into daily life as easily as a smartwatch, while delivering medical-grade insights.

From our labs in Saudi Arabia, we developed a miniaturized spectrometer—the size of a chip, but powerful enough to read what’s happening beneath the skin. With support from national programs like NTDP and AlGarage, and partnerships with local healthcare institutions, we’re now preparing for clinical pilots and bringing our vision to life.

At Baseer, we believe in a future where health is monitored effortlessly, and insight comes from light. This is just the beginning.

a man riding a skateboard down the side of a ramp
a man riding a skateboard down the side of a ramp

Who We Are

Baseer is a Saudi deep-tech startup pioneering non-invasive biosensing through miniaturized silicon photonics. Our mission is to transform health monitoring by using light to detect critical biomarkers—like glucose—without pain, patches, or blood. We blend cutting-edge science with local purpose to serve one of the region’s most urgent health needs: diabetes.

Why We Exist

Chronic diseases are on the rise, and outdated monitoring tools create barriers to early action. At Baseer, we’re building a future where health data is captured seamlessly—without disruption to daily life. Supported by national innovation programs and guided by a team of experts in photonics, semiconductors, and medical tech, we aim to make precision sensing simple, wearable, and accessible to all.

Health Innovation

Pioneering non-invasive biosensing for real-time health monitoring.

Diabetes Solution

Accurate monitoring for diabetes through advanced technology.

A smartphone placed on a dark surface displaying a health-related app interface with information and icons.
A smartphone placed on a dark surface displaying a health-related app interface with information and icons.
A person holds a bright pink wearable device in one hand while interacting with a smartphone in the other hand. The smartphone screen displays a graph with lines and numerical data, suggesting a tracking or monitoring application. The background consists of a soft, neutral-toned surface with a partial view of a box.
A person holds a bright pink wearable device in one hand while interacting with a smartphone in the other hand. The smartphone screen displays a graph with lines and numerical data, suggesting a tracking or monitoring application. The background consists of a soft, neutral-toned surface with a partial view of a box.
Wearable Tech

Consumer-friendly devices for painless health diagnostics and monitoring.

Non-Invasive Monitoring

Revolutionizing health diagnostics with advanced silicon photonics technology.

A close-up view of an electronic device featuring a blue circuit board with components such as sensors and wires. The focus is primarily on an ultrasonic sensor with two circular transducers. Red, yellow, and white wires are connected, and a blurred background suggests it is part of a larger apparatus.
A close-up view of an electronic device featuring a blue circuit board with components such as sensors and wires. The focus is primarily on an ultrasonic sensor with two circular transducers. Red, yellow, and white wires are connected, and a blurred background suggests it is part of a larger apparatus.
A variety of black optical devices and prism-like components are arranged on a plain white background. The devices appear to be made of a combination of black material and transparent elements, with some featuring cylindrical, lens-like ends.
A variety of black optical devices and prism-like components are arranged on a plain white background. The devices appear to be made of a combination of black material and transparent elements, with some featuring cylindrical, lens-like ends.
Two black DPPSS driver units with a digital display reading 2.004 are placed on a perforated surface. Each device is connected to a small module emitting a green laser beam. The setup includes various switches and indicators on the front panel, and there is a small CivilLaser card in the background displayed upright.
Two black DPPSS driver units with a digital display reading 2.004 are placed on a perforated surface. Each device is connected to a small module emitting a green laser beam. The setup includes various switches and indicators on the front panel, and there is a small CivilLaser card in the background displayed upright.
A close-up of fiber optic cables with glowing tips, creating a bokeh effect against a dark background. The scene appears abstract and dynamic as light seems to pulse through fine strands.
A close-up of fiber optic cables with glowing tips, creating a bokeh effect against a dark background. The scene appears abstract and dynamic as light seems to pulse through fine strands.

Our Team

You didn’t come this far to stop

Dr.Dhaifallah Almutairi

CO-Funder &CEO

Dr. Naif Alshamrani

CO-Funder & COO

Dr. Andrew Grieco

CO-Funder &CTO

Get in touch