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Google Cloud
cloud.google.com › learn › artificial-intelligence-vs-machine-learning
AI vs. Machine Learning: How Do They Differ? | Google Cloud
Artificial intelligence (AI) and machine learning (ML) are used interchangeably, but they differ with uses, data sets, and more.
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AWS
aws.amazon.com › what is cloud computing? › cloud computing concepts hub › machine learning › what’s the difference between machine learning and deep learning?
Deep Learning vs Machine Learning - Difference Between Data Technologies - AWS
4 days ago - As ML and deep learning solutions ... system improves by using it as a data point for training. Traditional machine learning (ML) requires significant human interaction via feature engineering to produce results....
Discussions

What is the difference between AI and ML?
ML is a subset of certain techniques/methods/theory of AI. There's more to AI than ML. In other words, yes, there exists non-ML based artificial intelligence. More on reddit.com
🌐 r/learnmachinelearning
56
42
January 27, 2025
A "Traditional" algorithm vs. Machine Learning
The whole thing feels dishonest and misleading. Welcome to the industry :p Here are some of my thoughts: "Machine learning" and "data science" are both incredibly poorly defined, very broad terms meaning often depends a lot on the context in which these terms are being used. I'm personally of the opinion that a better phrase for most of what we call "Machine learning" is "statistical learning" and subsumes basically all of predictive analytics. In other words, if you're model is just a simple linear regression: I still think it's ok to call that "machine learning", although I think it's also fair to maybe characterize that as somewhat dishonest since the phrase obviously conveys a notion of technical sophistication. increasingly, the phrase "Machine Learning" is becoming analogous with "Deep Learning," but this absolutely is not correct. The vast majority of applied ML in industry uses techniques like GLMs and tree ensembles. Ultimately, this is all marketing speak anyway and people will use the language that maximizes hype for whatever they're trying to pitch to you. Speaking from my own diverse experience as someone who's worked as a data professional in a wide diversity of organizations (including two FAANGS), you'd be surprised how unsophisticated a lot of real world "data science" is. Most, even. most data scientist roles are at organizations that are undergoing a "data transformation" to become more "data driven". This is code for "historically, we made most of our business decisions based on intuition and maybe sticking a finger in the wind. the consequence of this is that data scientists get buried in "low hanging fruit" opportunities because there's so much opportunity for low-effort improvements by minimally attending to data, the data teams and the organization at large are heavily incentivized to leverage simple, unsophisticated solutions so they can tackle more problems quickly rather than heavily optimizing solutions to narrow problems. the value of sophistication is really a function of scale when I talk about "low hanging fruit", I'm talking along the lines of: domain expertise gets you say 50% of the available value for some opportunity, data-informed busienss rules takes that up 70%, simple modeling takes that up to 80-85%. So by tackling the low hanging fruit, you've captured close to 70% of the available additional value with very little effort because that last 15% optimization isn't low hanging fruit, we're going to quickly encounter diminishing returns. Every additional percentage point of optimization is going to come with exponentially more effort. This is the reason the bulk of data scientists are employed by huge companies like FAANGs: the scale of their business is large enough that an incremental improvement of a fraction of a percent can mean millions of dollars in revenue or savings. conversely, if your organization is not operating at that scale, it's not unlikely that it'll will cost your company more to invest in optimizing some solution than the value they would get from that solution. And even after putting in that investment, it's still a huge risk. Every application of predictive analytics is essentially a kind of experiment, and with every experiment, there's a possibility that the tested hypothesis is wrong and will be rejected, i.e. the model doesn't do anything of value. When data scientists are given the freedom to do their best work, they are and need to be a huge cost center for whatever organization they operate in. Otherwise, you're asking them to essentially be be data-savvy business consultants who are perpetually chasing low hanging fruit, which is exactly the position most industry data scientists find themselves in. Because of these scaling effects, most of the work that actually does require sophistication will end up getting subsumed by engineering teams if you are a data scientist working in isolation, your ability to operate on large data sets and deploy complex models is limited. This type of work requires engineering support, which means the further away your data scientist is in the org tree from the closest engineer, the more their hands will be tied with respect to the amount of sophistication they can apply to anything that will be deployed. deep learning and data science tools are rapidly becoming staples of undergraduate CS curricula, which means more engineers are equipped to identify and act on opportunities to apply ML without engaging with a data scientist. this creates a kind of feedback loop that further isolates data scientists from the engineering resources they need, often relegating them to being a kind of "ad hoc analytics monkey" for leadership. the "value function" the solution here is optimizing is probably more multi-faceted than you realize specifically, even if your data scientist has all of the engineering resources they could want to deploy the most sophisticated SOTA solution to your orgs problem, there might be good reasons why they wouldn't want to. the ultimate goal of these sorts of projects is almost always to drive some kind of behavior. This often means that it's more important for the outputs of a model to be interpretable than predictively accurate. additionally, the data scientist is ultimately subject to the demands of their customer: the business stakeholder. This unfortunately means that sometimes they will be relegated to approaches whose mechanism can be understood by the stakeholder, especially if it's a new relationship and the data scientist is still building trust in the org. It can even mean the scientist will be required by their client to incorporate features in the model that don't carry any predictive signal at all. This creates an even heavier bias away from sophistication than the whole "low hanging fruit" or "I'm my own data engineer" thing. First and foremost, the data scientist is doing work for their customer and they need to make their customer happy as best they can. TL;DR: From what you've shared, I see nothing inappropriate about describing this work at least as "data science". Calling it "ML" carries a weak implication that deep learning or something similarly sophisticated is being used, but even if that's not the case: the fact that they're forming predictions of any kind by performing computations on historical data I think makes it appropriate. More on reddit.com
🌐 r/MLQuestions
10
19
July 1, 2022
[RANT] Traditional ML is dead and I’m pissed about it
this is pretty much how tech has always worked, and i say this as someone with more than a decade in dev/ml engineering. there is always churn in skills and massive hype cycles, gotta get used to this. anyways, the fundementals are not wasted. understanding backprop and gradient descent means you'll actually grok why fine-tuning works and when it'll fail spectacularly. the people who are capable of doing api calls only are gonna hit walls you wont. also hot take: we're in peak hype cycle right now. half these genai internships are gonna be building things that get quietly sunset in 18 months when someone realizes their "ai-powered solution" could've been three if statements. a lot of execs and hiring managers right now are incentivzed to get to market "ai-powered solutions" traditional ml isn't dead, it's just not sexy rn. computer vision, fraud detection, recommendation systems, demand forecasting, anomaly detection all still running on "boring" ml at massive scale. those jobs exist, they're just not flooding linkedin because they aint the hot new thing. the real skill is learning to surf hype cycles without drowning in them. pick up the genai stuff (it's legitimately useful), but don't burn your fundamentals notes. More on reddit.com
🌐 r/learnmachinelearning
358
2040
December 11, 2025
is traditional ml dead? : r/learnmachinelearning
🌐 r/learnmachinelearning
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April 12, 2024 - At the core of the modern AI ... While both stem from the same goal of making computers think, they are fundamentally different in execution and application....
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January 27, 2025 - They can both mean the same thing or completely different things, depending on who's using the terms. To some, ML can be a subset of AI. In my realm (consulting), literally everything is considered AI because it's a buzzword and hot topic.
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September 14, 2025 - ... Simple rule-based AI: When the logic is straightforward and doesn't change (like basic chatbots or simple automation) Traditional machine learning: When you have structured data and need interpretable results (like credit scoring or sales ...
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Reddit
reddit.com › r/mlquestions › a "traditional" algorithm vs. machine learning
r/MLQuestions on Reddit: A "Traditional" algorithm vs. Machine Learning
July 1, 2022 -

My Question is: What distinguishes a traditional algorithm from machine learning?

Apologies for the wall of text.

I manage a product with a massive amount of data (1m+ weekly users, 50+ demographic datapoints on each user + user history as well as their interactions with hundreds of customers). At the core of the product is an algorithm that takes a number of inputs (based on trailing historical data) to predict the revenue-optimizing decision.

Recently, our new leadership has begun to call this Data Science and touts this as "Machine Learning". I'm proud of what we've put together and the impact its had on the business, but this feels like the wrong characterization of what is just a semi-complex algorithm with almost all of the calculations occurring in SQL.

This has become a sort of big issue as they've asked me to speak to our "Machine Learning" implementation to customers, investors, and others. I dodged that characterization by instead calling it a "model" or "algorithm" and they took notice and have asked me to embrace the term and update our materials (presentations, roadmap items, etc). Compounding this, they've hired a data scientist who concurs with them that we're using a "predictive machine learning" model. I'm skeptical of his expertise and feel like he should be making an effort to create an actual ML model we can compare against our current model.

The whole thing feels dishonest and misleading. Machine learning feels far outside my depth: I couldn't hold a conversation about it and I have no real clue what a decision forest, neural network, tensors, gradients, or any of the other machine learning terms I see across this sub or elsewhere mean. More details specific to my situation below:

------------------------------------------------------------

The core goal of our data effort is: Based on what we know about a user and what we know about a customer and their provided estimates, what's the optimal revenue-maximizing decision?

There's many calculations that are factored in to accomplish this, for example:

  • We calculate the median average deviation of a customer's proposed vs actual success rate on a rolling basis.

  • We segment our users based on demographic (age/gender/etc) and calculate their success rate relative to the population's average for a success coefficient based on a rolling basis.

  • We run a simple regression between user characteristics and historical success rates for each customer.

  • We factor in historical reconciliation rates from the customer (% of successes that are ultimately rejected by the customer at invoicing) to discount revenue estimations.

  • We determine whether the user's experience should be optimized using a revenue-per-minute or revenue-per-opportunity approach. If we expect them to make a limited number of attempts, we maximum the expected revenue of each interaction. If we expect them to make a larger number of attempts, we optimize for potential revenue per minute. (EPC vs EPM for those in the advertising space)

It gets pretty gnarly, but what we end up with is a huge number of coefficients that inform our user to opportunity matching logic. An example of how this could result in different opportunity rankings for a pair of users could be:

User 1 - Average Attempts per Session 2.1 ( to be ranked by Expected Revenue)

  1. Project A - Potential Revenue $10 | Expected Revenue $2 | Estimated Success Rate 20% | 30 Minutes | Expected Earnings Per Minute $0.06

  2. Project B - Potential Revenue $25 | Expected Revenue $1 | Estimated Success Rate 4% | 10 Minutes | Expected Earnings Per Minute $0.10

  3. Project C - Potential Revenue $1 | Expected Revenue $0.80 | Estimated Success Rate 80% | 5 Minutes | Expected Earnings Per Minute $0.16

  4. Project E - Potential Revenue $10 | Expected Revenue $0.6 | Estimated Success Rate 6% | 4 Minutes | Expected Earnings Per Minute $0.15

User 1 - Average Attempts per Session 6.3 ( to be ranked by Expected Earnings Per Minute)

  1. Project C - Potential Revenue $1 | Expected Revenue $0.90 | Estimated Success Rate 100% |5 Minutes | Expected Earnings Per Minute $0.18

  2. Project D - Potential Revenue $4 | Expected Revenue $0.75 | Estimated Success Rate 18% | 7 Minutes | Expected Earnings Per Minute $0.15

  3. Project E - Potential Revenue $10 | Expected Revenue $0.5 | Estimated Success Rate 5% | 4 Minutes | Expected Earnings Per Minute $0.125

  4. Project B - Potential Revenue $25 | Expected Revenue $0.75 | Estimated Success Rate 3% | 10 Minutes | Expected Earnings Per Minute $0.075

Top answer
1 of 6
15
The whole thing feels dishonest and misleading. Welcome to the industry :p Here are some of my thoughts: "Machine learning" and "data science" are both incredibly poorly defined, very broad terms meaning often depends a lot on the context in which these terms are being used. I'm personally of the opinion that a better phrase for most of what we call "Machine learning" is "statistical learning" and subsumes basically all of predictive analytics. In other words, if you're model is just a simple linear regression: I still think it's ok to call that "machine learning", although I think it's also fair to maybe characterize that as somewhat dishonest since the phrase obviously conveys a notion of technical sophistication. increasingly, the phrase "Machine Learning" is becoming analogous with "Deep Learning," but this absolutely is not correct. The vast majority of applied ML in industry uses techniques like GLMs and tree ensembles. Ultimately, this is all marketing speak anyway and people will use the language that maximizes hype for whatever they're trying to pitch to you. Speaking from my own diverse experience as someone who's worked as a data professional in a wide diversity of organizations (including two FAANGS), you'd be surprised how unsophisticated a lot of real world "data science" is. Most, even. most data scientist roles are at organizations that are undergoing a "data transformation" to become more "data driven". This is code for "historically, we made most of our business decisions based on intuition and maybe sticking a finger in the wind. the consequence of this is that data scientists get buried in "low hanging fruit" opportunities because there's so much opportunity for low-effort improvements by minimally attending to data, the data teams and the organization at large are heavily incentivized to leverage simple, unsophisticated solutions so they can tackle more problems quickly rather than heavily optimizing solutions to narrow problems. the value of sophistication is really a function of scale when I talk about "low hanging fruit", I'm talking along the lines of: domain expertise gets you say 50% of the available value for some opportunity, data-informed busienss rules takes that up 70%, simple modeling takes that up to 80-85%. So by tackling the low hanging fruit, you've captured close to 70% of the available additional value with very little effort because that last 15% optimization isn't low hanging fruit, we're going to quickly encounter diminishing returns. Every additional percentage point of optimization is going to come with exponentially more effort. This is the reason the bulk of data scientists are employed by huge companies like FAANGs: the scale of their business is large enough that an incremental improvement of a fraction of a percent can mean millions of dollars in revenue or savings. conversely, if your organization is not operating at that scale, it's not unlikely that it'll will cost your company more to invest in optimizing some solution than the value they would get from that solution. And even after putting in that investment, it's still a huge risk. Every application of predictive analytics is essentially a kind of experiment, and with every experiment, there's a possibility that the tested hypothesis is wrong and will be rejected, i.e. the model doesn't do anything of value. When data scientists are given the freedom to do their best work, they are and need to be a huge cost center for whatever organization they operate in. Otherwise, you're asking them to essentially be be data-savvy business consultants who are perpetually chasing low hanging fruit, which is exactly the position most industry data scientists find themselves in. Because of these scaling effects, most of the work that actually does require sophistication will end up getting subsumed by engineering teams if you are a data scientist working in isolation, your ability to operate on large data sets and deploy complex models is limited. This type of work requires engineering support, which means the further away your data scientist is in the org tree from the closest engineer, the more their hands will be tied with respect to the amount of sophistication they can apply to anything that will be deployed. deep learning and data science tools are rapidly becoming staples of undergraduate CS curricula, which means more engineers are equipped to identify and act on opportunities to apply ML without engaging with a data scientist. this creates a kind of feedback loop that further isolates data scientists from the engineering resources they need, often relegating them to being a kind of "ad hoc analytics monkey" for leadership. the "value function" the solution here is optimizing is probably more multi-faceted than you realize specifically, even if your data scientist has all of the engineering resources they could want to deploy the most sophisticated SOTA solution to your orgs problem, there might be good reasons why they wouldn't want to. the ultimate goal of these sorts of projects is almost always to drive some kind of behavior. This often means that it's more important for the outputs of a model to be interpretable than predictively accurate. additionally, the data scientist is ultimately subject to the demands of their customer: the business stakeholder. This unfortunately means that sometimes they will be relegated to approaches whose mechanism can be understood by the stakeholder, especially if it's a new relationship and the data scientist is still building trust in the org. It can even mean the scientist will be required by their client to incorporate features in the model that don't carry any predictive signal at all. This creates an even heavier bias away from sophistication than the whole "low hanging fruit" or "I'm my own data engineer" thing. First and foremost, the data scientist is doing work for their customer and they need to make their customer happy as best they can. TL;DR: From what you've shared, I see nothing inappropriate about describing this work at least as "data science". Calling it "ML" carries a weak implication that deep learning or something similarly sophisticated is being used, but even if that's not the case: the fact that they're forming predictions of any kind by performing computations on historical data I think makes it appropriate.
2 of 6
2
What distinguishes a traditional algorithm from machine learning? Traditional algorithm: All of reward is processed by the human engineer. Machine learning: The engineer delegates processing some of the reward to the machine itself.
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LinkedIn
linkedin.com › all › engineering › data science
What are the pros and cons of using deep learning vs. traditional ML methods?
September 21, 2023 - Traditional machine learning can be divided into two categories: supervised and unsupervised. Supervised learning uses labeled data to train a model, while unsupervised learning uses unlabeled data to find patterns or clusters.
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ResearchGate
researchgate.net › publication › 389991583_Deep_Learning_vs_Traditional_Machine_Learning_Key_Differences
(PDF) Deep Learning vs. Traditional Machine Learning: Key Differences
March 20, 2025 - Despite their strengths, both approaches have limitations; traditional ML often struggles with unstructured data and requires domain expertise for feature selection, while deep learning necessitates vast amounts of data and significant computational ...
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RudderStack
rudderstack.com › learn › machine-learning › machine-learning-vs-deep-learning
Machine learning vs deep learning | Rudderstack
Machine learning is a broad umbrella that includes a variety of algorithms that learn to perform tasks by being trained on a dataset. These tasks may range from simple tasks like regression and classification to more complex tasks like image ...
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Cow-shed
cow-shed.com › blog › ai-algorithms-traditional-machine-learning-vs-deep-learning
AI Algorithms: Traditional Machine Learning vs. Deep Learning - Cow-Shed Startup
... Traditional machine learning algorithms are fundamentally statistical or mathematical models that learn patterns from data. They're typically used when the data is structured and the problem to be solved is relatively simple or well-defined.
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Medium
medium.com › the-modern-scientist › traditional-ai-vs-supervised-machine-learning-vs-deep-learning-how-to-pick-f2017b0fd1d7
Traditional AI vs Supervised Machine Learning vs Deep Learning- How to Pick | by Devansh | The Modern Scientist | Medium
January 19, 2024 - Traditional AI- The most secure, understandable, and performant. However, Good implementations of traditional AI require that we define the rules behind the system, which makes it unfeasible for many of the use cases that the other 2 techniques thrive on. Supervised Machine Learning- Middle of the road b/w AI and Deep Learning.