Due to the hype it becomes a goal in some organizations however. "We need to do machine learning because we have big data" or some such. Doesn't matter if the problem could've been solved in 5% of the time and cost with 20 lines of code, thou shalt use machine learning.
It doesn't help that data scientists (creating and training the ML model) and software developers (creating and maintaining the software) usually come from different backgrounds, requiring a "data engineer" as an additional intermediary.
It always a problem with hype, blockchain (or merkle trees) has the same problem but worse, because the problems it solves well are rarer and more narrow.
To put this statement into context, I'm speaking as someone who had been writing code in C, from the era of PC XT. Perhaps NIPS 2010 was a rite of passage to ML for me. There is a screen, full of industry grade C++ and PyTorch in front of me, right now...
Yes, I know that there are folks that deal with vast amounts of data with inscrutable relationships where you need fancy algorithms to make progress. But seriously, most problems just don't need it, and many folks would be better off with mastering basic statistics and data analysis.
It's fascinating how far you can get with basic stuff. My favorite? Statistics for Experimenters, by George E. Box. It's like a secret weapon! https://www.amazon.com/Statistics-Experimenters-Design-Innov...
As a perfect example of this is the trend in most places I've seen where data scientists strive to increase the complexity of their model (so they can prove how "smart" they are). A huge part of a software engineering education (whether in the classroom or in dev shop) is learning that complexity is the enemy. No engineer would choose a 3 layer MLP over a simple linear regression for an imperceptible improvement in performance.
The additional irony of all this is that a decade+ ago a software engineer who had strong quantitative and numeric programming skills was rare and an elite find. You would have thought that the data science boom would have dramatically increased the number of these people but I find them even rarer.
I think some of this is exacerbated by modern pillars of machine learning and data science. Competition sites like Kaggle are entirely based on maximizing test set accuracy, and so winning submissions these days are huge morasses of ensemble methods that are trained for days and weeks on GPUs, but in the end they are often only marginally better than some of the fairly basic standard approaches. And when companies like Google are building their bots for Go or Starcraft, they are using cutting edge techniques. When people see that and get inspired to get into data science, thats what they want to do, even the the majority of problems are more rooted in data quality, thoughtful understanding of the problem, and more rudimentary methods.
Its also the result of some of the rhetoric of important figures in the field. Yann LeCun has pushed back strongly in the past on criticisms of modern day machine learning's occasionally lack of concern with introspection and model understanding. Judea Pearl, a Turing award winner for his work in machine learning, devotes large portions of his pop-sci The Book of Why attacking the field of statistics on the whole, as well as engaging in multiple attacks on historical influencers in the field with such ferocity it borders on character assassination. He has even rebuffed modern critics, such as the very widely respected Andrew Gelman, by saying they are "lacking courage" by failing to accept his "revolutionary" causal inference methods over the traditional ones used in statistics.
The attitude is driven a lot by the people and institutions at the top, and as someone in the field, I unfortunately encounter this kind of thinking way too often.
Were you around during the dotcom era?
Although I'm not old enough, I've heard that OR in the 80s was the same crap.
The problem could have been tackled with greater accuracy using machine learning, but it would have taken a long time for the system to generate enough data points for a sound model and would have required more storage space. This was also complicated by the fact that the model had to be regenerated whenever the physical system being modeled was changed.
The linear programming solution was a lot cheaper and was "close enough" to serve as a useful approximation.
https://en.wikipedia.org/wiki/Operations_research
Basically a mathematical approach to problems of logistics and scheduling developed first in WW2. Very powerful in the domains for which it was developed but less generally applicable than enthusiasts hoped, leading to the usual “hype cycle”.
If you have a problem OR could solve or just want to fool around with it PuLP is very easy to use https://pythonhosted.org/PuLP/ Of course the ease of use means that it is a commodity skill now.