TechnicallY... 

Tech, science and health terms without the jargon

“The limits of my language mean the limits of my world”

Technological and scientific development is often communicated in misleading language.

Let’s take the term the “cloud”.

When you upload your data to the cloud, where does it go? It does not hover weightlessly above you as the word suggests. Rather, it is stored in a data centre—of which there are over 10,000 in the world. Describing this infrastructure as the cloud encourages us to forget about the real labour of gig-workers and the huge amounts of energy and water that keep the centres running. Connectedly, it makes us less worried about the privacy of what we upload.

Terms like this make it difficult to comprehend that technology exists physically and has physical consequences (on the land and people). It makes it difficult to hold humans accountable when something goes wrong or works unfairly.

The Monitor wants to change this.

Technically… offers you the vocabulary to approach narratives about technology, science, and health more critically. These definitions have been provided by The Monitor’s contributors and editorial team.

Please use the submissions box at the bottom of the page to let us know terms you would like to see defined, or if you need something further explained.

Tech Terms

  • An AI companion is an AI chatbot that is designed to provide the user with a personable and intimate experience. They are often programmed to simulate a romantic partner. Well-known examples of AI companions include Replika, Chai, and Kuki.

  • Transparency, in the field of AI, refers to our ability to understand the inner workings and processes of an AI system. It is considered to be important that AI systems are as transparent as possible in order to foster trust between AI systems and users. Transparency also refers to the honesty and clarity displayed by AI developers about their products.

  • A chatbot, e.g., ChatGPT, has gobbled up a vast quantity of ordinary language sentences. This has allowed them to learn and map out the relationships between different words or parts of words. The resulting statistical representation of a language allows them to predict the likelihood of a certain word appearing in a given context and to generate text. Think of them like a highly sophisticated version of predictive text on a brick phone.

  • Generative artificial intelligence (AI) is AI that has the capacity and function of generating text, images, or other outputs based on prompts. Examples of generative AI include chatbots and image-generating AI art.

  • Hardware is the material parts of a computer. It is the keyboard, screen, mouse, wires, CPU, graphics card, etc.

  • Large language models (LLMs) are powerful algorithms that use deep learning techniques in order to process and generate language. LLMs are the models that underly AI chatbots.

  • Programming is the action of building an instruction for a computer to do—like a very detailed recipe for a cook.

    Back before computers were small and portable, programmers used to refer to the operators who would physically instruct a computer. Due to this being a largely clerical role, the first programmers were predominantly women!

  • Software is a set of instructions that direct a computer to do a specific task. It is made up of different programs. Unlike hardware, it is not tangible.

  • A user interface (UI) is the part of any technological device that the user interacts with. It is the layer that translates what the device is doing into an experience that the user understands. It is impossible to imagine a modern-day computer, for example, without UI.

Science Terms

  • Antibiotic resistance, sometimes referred to under the umbrella term antimicrobial resistance (AMR), is a worldwide public health concern.

    Antibiotic resistance happens when bacteria adapt and can no longer be killed by antibiotic medicines.

    Bacteria evolve through genetic mutations or acquiring resistance genes from other bacteria. This natural process has been accelerated by humans overusing or misusing antibiotics in healthcare, industrial manufacturing, and farming.

    As a result, infections caused by antibiotic-resistant bacteria can be more challenging to treat.

    Read more resources at the CDC and the World Health Organisation.

  • The process of capturing and storing carbon dioxide from the atmosphere, typically through natural processes like photosynthesis or through technological methods such as carbon capture and storage (CCS).

    Many direct carbon capture methods require significant amounts of energy to operate, potentially offsetting the benefits of capturing carbon dioxide.

  • Gillick competency allows under 18s to consent to medical treatment without parental permission if they demonstrate sufficient understanding to comprehend the nature and implications of the treatment. Originating from the Gillick v West Norfolk case in 1985, it grants adolescents autonomy in healthcare decisions, particularly regarding sensitive matters like contraception.

    Read more from the NSPCC here.

  • A junior doctor is any qualified doctor who has not yet become a consultant. This ranges from having just graduated to being a senior house officer, which takes about 10 years to complete. Despite the name, often a junior doctor might be the most experienced medical professional on a ward.

    The BMA has a helpful guide to all doctors’ titles and an explainer on why junior doctors keep striking.

  • In January 2024, the NHS and UK government launched the Pharmacy First Scheme. The plan gives community pharmacists greater powers, allowing them to treat and prescribe for seven conditions.

    These are as follows: acute otitis media, impetigo, infected insect bites, shingles, sinusitis, sore throat, and uncomplicated urinary tract infections.

    The scheme was devised to reduce pressure on GPs by redirecting patients to community pharmacists for non-urgent conditions.

    Read more about Pharmacy First here.

  • A Physician Associate, or PA, is a newly devised medical role. The idea is to have a sort of fast-track healthcare professional to support doctors in the “diagnosis and management of patients”.

    PAs have been controversial, as they only have 2 years of training and they earn more than a junior doctor.

    Read more here.

  • When we run a study, for instance, on a new drug, we can’t test it on everyone in the world. Instead, we have to test it on a group of people, or a ‘sample’. If you read a study and see this, (n=59), that means there were fifty nine subjects in the sample. The larger this sample size, the more reliable our test, meaning that the findings are more likely to accurately represent the population as a whole and less likely to result from random chance.

    For example, if we wanted to test whether a new antiviral drug could treat coronavirus, we can draw better conclusions if we give it to 1000 people than if we give it to 10. We’d also have more reliable findings if we tested the drug on a whole range of people rather than just one demographic—like white women in their 30s.

    This might sound simple enough, but people often make reliability errors in their everyday language. This usually happens when individuals rely too heavily on anecdotal evidence or single case studies. For instance, someone might say, “My friend had a bad reaction to that vaccine,” based on the experience of one person, despite the vaccine having been trialed successfully on thousands of people. Unfortunately, the human brain is prone to placing greater trust in individual stories or personal experiences over statistical data, leading to misconceptions about the reliability of certain treatments or interventions.

  • When a study talks about the results being "statistically significant," it means they are fairly confident it happened due to specific factors rather than by chance.

    When you flip a coin, sometimes you get heads, and sometimes you get tails. If you flip it many times, you'd expect to get heads about half the time. But perhaps you flip the coin 10 times and get heads 9 times—that feels a bit unusual. However, it could still happen by chance.

    In scientific studies, researchers use statistics to figure out the chances of their results happening randomly. They compare what they observed to what they would expect to see by random chance alone.

    The rule of thumb is as follows: if the chance of getting the result they’ve recorded is less than 5%, then their results are "statistically significant." That means there's only a small probability that what they found happened randomly.

    Imagine scientists made a new medicine to reduce blood pressure. They test the medicine on two groups of patients. One group receives the real medicine, and the other receives a fake pill called a "placebo."

    After testing, they find that the group taking the real medicine had their blood pressure drop by 20%, while the group taking the placebo only dropped by 5%. Running statistical analysis, they find a result of 0.02, which is like saying there's only a 2% chance that the difference happened by random chance.

    So, the scientists can conclude that the difference in blood pressure between the two groups is due to other factors and is not pure coincidence. Because they will have controlled for lots of other factors, they can be pretty confident that the medicine is what made the difference.

    The Harvard Business Review and Khan Academy have good resources to understand statistical significance.

  • Validity is sometimes mixed up with reliability, but it specifically refers to the extent to which a study accurately measures what it claims to measure.

    Therefore, something can be reliable while having low validity if it consistently and accurately measures the wrong underlying construct.

    For instance, psychologists sometimes measure facial expressions when they want to determine emotional state. However, the extent to which this is a valid measure is contested, as it might not actually signify the emotions someone is feeling.

    To summarise, a valid conclusion will be drawn from a study based on accurate, reliable, and relevant data.

    Find out more detailed explanations on validity here.

  • Viruses and bacteria are both tiny organisms that can cause us illnesses, but they have important differences. People often mix them up when talking about infections.

    Viruses are much smaller than bacteria, and they are not living cells. They can't survive or multiply on their own. Instead, they invade the cells of other organisms, like humans or animals, and use those “host” cells to multiply.

    Bacteria are single-celled organisms that can live and reproduce independently. While some bacteria can cause infections, many are harmless or even useful.

    Because of these differences, treatments for viral and bacterial infections are also different. Antibiotics can kill bacteria, but they won't work against viruses.

    Read more on the differences between viruses and bacteria at The University of Queensland and The National Library for Medicine

  • Zoonotic viruses are viruses that an spread from animals to humans. They account for 75% of new diseases.

    These viruses naturally reside in animals without causing them harm, but can sometimes infect humans, causing diseases. These infections can occur through various routes, such as direct contact with an infected animal, consumption of contaminated food or water, or through third parties like mosquitoes.

    Some well-known examples of zoonotic viruses include Ebola, HIV, Swine Flu, and almost certainly COVID-19.

    Read more about zoonoses in our article and at the World Health Organisation.

Philosophy & Culture Terms

  • Something (or someone) is a moral patient if they are worthy of our moral concern. For example, it is widely agreed that a fellow human is a moral patient, but an inanimate object is not, because we only have ethical duties towards the former. Whether or not current or future AI systems are moral patients, and by what criteria we can make such a judgement, is a strongly contested matter.

  • Sentience refers to an entity’s capacity of having subjective experience. If something can feel things, it is considered to be sentient. In the field of AI, sentience is an important topic, because the sentience status of AI systems is likely to become increasingly ambiguous.

build the glossary with us