One possible downside is that not everything you work on makes it to the market and you have to be proactive in keeping your skills and knowledge up-to-date and to remain employable for your next job.
1,805 karma · joined October 28, 2013
One possible downside is that not everything you work on makes it to the market and you have to be proactive in keeping your skills and knowledge up-to-date and to remain employable for your next job.
These norms are not set by individuals, but by a system of financial analysts, shareholders (think large pension funds, etc.), etc.
The whole notion of pay big $$s if the specialized skills are worth so much is wrong because these companies have smaller budgets for personnel than plant.
I ask this earnest question because I have a deep interest in randomized linear algebra, random projections, 'sketching'/sampling, compressive sensing, etc.:
Do any of you use it in industry applications? If so, at a high level, how do you use it?
I know I'm asking a "I have a hammer and that is a nail"-type question, but I am interested in seeing "deployable" applications of these topics. I don't have any to report, other than academic ones.
Seriously, what's the point of mentioning their ethnicity and gender, exactly? I'm thankful that I'm not your co-worker.
How high? Why is 100k a magic number? 100k isn't even a big deal in SF or NYC. While a high skilled scientist working in say, Corning, NY at Corning Corp or Niskayuna, NY at GE's research labs, 100k enables a king's life. How would you adjust for experience? Perhaps a company sees immense potential and cultural fit in an employee and wants to groom them for future roles? The wages of a 30-year industry veteran would kick the promising young star out of the H1B pool, etc. etc.
Setting a wage threshold without considering other factors is unfairly simplistic.
Besides, companies pay wages based on industry and market averages. You can't suddenly expect them to peg wages to outbid competitors on H1B. Why would Procter and Gamble or Dow or Caterpillar pay university, Facebook, McKinsey, or hedge fund wages? Why should they?
There is a significant difference between H1B and O1, which is the burden for evidence. The burden for O1 is quite onerous compared to H1B. You have to present several reference letters, meet strict criteria for excellence, and even then it is not guaranteed. There is a fair amount of inconsistency in how O1 (or EB1) cases are adjudicated.
Also, this would handicap companies in low-cost-of-living regions of the US. This includes a massive chunk of the economy in solid economies with low costs of living like Michigan, Minnesota, Ohio, Texas, Arizona, North Carolina, and Georgia.
https://www.americanbazaaronline.com/2017/01/06/new-h-1b-vis...
However, Rep. Zoe Lofgren's bill is a little different and does two things, replace lottery by a bidding type system and eliminate country caps, which, by introducing an artificial 8-12 year wait time for Indians, makes even non-outsourcing company employees de facto indentured labor. (So, if you are one of five experts in the world on say, mining safety, you still have to wait 10 years for a permanent residency just by virtue of where you were born.)
I don't know if it was substantially different in the US.
Would an English MA or PhD, for example couple well with an ML-MOOC for natural language processing jobs? Possibly, but would involve a lot of effort to build the bridge. However, if someone has a mechanical engineering degree or a PhD in something similar, a MOOC-ML can work well to position them for a bunch of jobs in large mechanical engineering companies looking to jump on the ML bandwagon or ones traditionally strong in ML-type mechanical engineering like UTC.
(Edit: I'm not saying MOOC-depth derisively. Serious learners and autodidacts can go pretty deep with just MOOCs for guidance. I just mean prima facie, based on content of some of the lighter and more popular MOOCs like Andrew Ng's. Abu-Mostafa's on EdX is meatier.)
1. Asking a candidate to cast a non-standard problem of classification or estimation into a tractable optimization problem. (this is a very valuable skill that someone who has done good studies in numerical linear algebra/machine learning/stat/information theory/control systems/signal processing/math/etc. should be able to do)
2. Asking them to take an algorithm they have used and explain every step in deriving the algorithm. (It will help interviewer calibrate the level of learning in the interviewee. Also helps screen for indisciplined black-box users.)
3. Presenting challenging machine learning scenarios: using customized ensemble learning approaches, imbalanced data sets, noisy labels, multiple instances, different error metrics, etc. and seeing how interviewee approaches the problem from first principles (real world problems almost always involve some of these issues)
4. Testing their intuitions in "feature-engineering" for different types of data. (with the partial exception of cases where rigorous research/successful products show the utility of deep learning, one has to almost necessarily do a fair bit of feature-engineering)
So, inference to many biomedical folks is just 1-dimensional. Big data has a long way to go to penetrate fields where people cannot think in more than 1 dimension!