How digital imaging is changing pathology

What are the challenges and opportunities presented by digital imaging in pathology?

Digital imaging is changing pathology by making it easier to identify and diagnose diseases. Pathologists are now able to use digital images to examine tissues and organs more closely, which has led to more accurate diagnoses. In addition, digital imaging is helping to improve the quality of pathology reports by providing clearer images of tissues and organs.


Pathology is the study and diagnosis of diseases. A pathologist examines tissue or fluid samples to establish a diagnosis on if and how a sample is affected, and what causes the findings. This branch of medical science has been around for about 200 years, and it has traditionally been done by studying samples under a magnifying microscope. An expert pathologist trains for years to discern visual cues of anomalies in samples. Because the number of diseases potentially affecting a specific tissue is very high, diseases keep mutating and changing, and far from all diseases have so far been successfully identified, pathologists usually specialize in one or a few types of tissue and diseases. The ability to see what is normal tissue or fluid, and knowing what causes an anomaly makes an experienced pathologist an expert in their trade.


It takes a career of learning for a pathologist to become an expert. With our increasing medical knowledge and ageing populations, the amount of pathology work is growing globally. There just aren’t enough pathologists to handle the number of cases, and this is a global problem. There isn’t enough interest in pathology from medical students to fill all positions, and even if there were, they simply couldn’t be trained fast enough to meet the ever-rising demand.


Not every hospital and clinic have their own onsite pathologist. To examine and diagnose the samples under a microscope, a pathologist must then either travel to the hospital where the samples are taken, or more often the samples prepared on glass slides are sent to the pathologist. This means the pathologist is spending much of their time traveling, or the hospital is waiting for the slides to reach an expert. Sometimes slides get misplaced, lost, or delayed.


The delay in getting a diagnosis is both costly and arduous. For example, a cancer patient may come in for surgery to have malignant tissue removed. The surgeon carefully removes all tissue they think contains cancer, have sample slides prepared and sent to a pathologist, and the patient is sent home to await diagnosis, which can take weeks. If the pathologist then determines there is still cancerous tissue left in the samples, the patient is called back for follow-up surgery. This puts incredible stress on both the healthcare system’s resources, but most notably it causes anxiety for the patient who is awaiting news on their state of health.


Digital pathology is the practice of pathology by viewing the tissue or fluid samples as high-resolution digital photographs or video on a computer screen instead of through the eyepiece of a conventional microscope. The most notable benefit of digitizing the samples is the possibility to view and share them online. The pathologist doesn’t need to be onsite, and the actual, physical slides no longer need to be shipped. This eliminates delay in the process, meaning a cancer surgery can potentially be concluded with a diagnosis, doing away with any need for a follow-up surgery. Without a need to travel, the expert pathologist can work from wherever they choose, spending their time and energy on what they do best: diagnosing. More time spent on the actual study of disease leads to a steeper learning curve for the expert and therefore a higher collective knowledge within pathology. Telepathology also means every single case can potentially be diagnosed by the leading global authority of its specific variety of disease study, online.


While the global pathology community agrees digital pathology is the future for this medical discipline, many pathologists still aren’t ready to adopt it immediately. With healthcare systems overloaded around world, it is difficult to make time for changing processes, tools, and the workflow. Each clinic has their own ways of keeping afloat and even a small change in the process can cause problems when resources are already stretched thin. For a pathologist used to viewing slides on a microscope the switch to looking at a computer screen instead may seem trivial, but humans are creatures of habit and change is demanding.


A far bigger issue than personal preference is that of workflow and process management. Moving from meticulously documenting, recording, and storing every glass slide for years to filing gigabyte-sized images on computer servers is on its own not simple. Making sure the process is well-designed, the information secure, all employees trained and all equipment up to date is a very big undertaking. Almost all clinics have a computerized laboratory information system (LIS), but they can each vary from the next. Therefore, for a lab to go digital a complete overhaul is often both the most logical and sensible way to go, but at the same time the least desirable from the point of view of those using it in their fast-paced daily work.


Understandably, implementing a digital workflow in a pathology laboratory can be very expensive too. Multislide scanners can cost hundreds of thousands of dollars, and they might require a dedicated space with specified air conditioning and vibration dampening. A scanner often comes with its own software running on dedicated computers. All staff who work the scanner may require special training, with repeat sessions whenever the scanner system gets updated.


The Ocus series microscope scanners are designed for remote operation and telepathology. After scanning, a sample is viewed in a web browser, meaning the scanners work on any device with a screen and a modern browser, like Chrome, Safari or Edge. Viewing and moving around a sample and zooming in and out is especially intuitive on a touch screen device like a tablet computer. The Ocus scanners’ software fits any LIS and doesn’t come with monthly or hidden costs. Designed like a mobile device, an Ocus has a very small footprint, 18 x 18 x 18 cm/ 8 x 8 x 8”, meaning it can find a place in any lab. The small size means it is portable and can be run off a battery pack and wheeled around in a hospital, or it can travel anywhere in a carry-on-sized case.


The global covid-19 pandemic forced people to adopt remote work on an unprecedented scale. In pathology the pandemic fast-forwarded legislation and regulatory guidelines to make it easier for people to not travel between healthcare points of service. In the face of necessity there was a shift in attitudes as well and the adoption of digital workflows and tools grew.

More and more laboratories will make the shift to digital in the foreseeable future. Digital tools in pathology save a lot of time for both the patient and the healthcare professionals. The reduced cost is however what will ultimately push the change forward, past the threshold of changing the workflow. Clinics can choose between overhauling their entire system at once, or gradually updating it piece by piece. Both approaches have their pros and cons, and it is up to each clinic to decide which model is best for their workflow, patients and business model.

The next logical step forward from digital pathology is including computer vision and artificial intelligence as tools for more efficient diagnosis. Computers and AI will not make human experts obsolete anytime soon but will instead make their work better by removing tedious and repetitive tasks. Read more about AI here ( and here (


The Grundium Ocus®40 enables fast, simple and sharp imaging of samples. It’s small footprint means it can find a spot in the most cluttered of labs – often the busiest workspaces are the least orderly! The Ocus®40 is so simple to use anybody can be trained to use it in just 15 minutes. Created by ex-Nokia cameraphone engineers, it takes the sharpest images in the business.

If you are looking for a small footprint and sharp imaging component for your pathology solution or if you want to hear more about how to integrate an Ocus scanner into your system, book a free, non-binding online demo of the Ocus scanners, or just message us with any questions.

Click here to send us a message

Click here to book an online demo

About Grundium

A global leader in advanced imaging technology, Grundium makes digital pathology and best professional diagnosis available for all life – whether human, animal, plant or other. This is achieved by doing something that nobody else can: applying state-of-the-art mobile technology in digital pathology. Established in 2015 by ex-Nokia engineers, the Tampere-based company is democratizing digital pathology with the Ocus® microscope scanners. The cutting-edge imaging solutions are based on over 20 years of experience in optics, sensors and beautiful high-precision devices. Grundium serves various industries and businesses enhancing quality and processes, protecting human life and safeguarding a clean environment.
We have excellent images with the Ocus and I couldn’t be happier to have this little helper on my desk here. I use it mainly as a microscope tbh but of course, scan my slides as well. It has really helped me so much.
— Julia Cara Thierauf
Massachusetts General Hospital 
Research Fellow in Pathology (EXT)

Book a live demo

See the OCUS® portable digital microscope scanner in action – request your free personal online live demo now. A Grundium expert will contact you personally to schedule a suitable 30-minute demo time for you. In the demo we will answer all your questions about which Ocus® scanner fits your needs best, we will talk pricing, share stories about how others are using the scanners, and help you fast forward the digital pathology experience in your lab.

Book your demo