iMechanica - Force https: //m.limpotrade.com/taxonomy/term/4302 en Load Calculator https: //m.limpotrade.com/node/23379 < div class = "字段field-name-taxonomy-vocabulary-6field-type-taxonomy-term-reference field-label-hidden">

In our industry, equipment, including universal testing machines and grips and fixtures, are categorized by the maximum force capacity. We have generated an automatic load calculator to help calculate the required forces necessary to test a certain type of material. The calculator can be found here: https://www.admet.com/calculators/load-calculator/

To use the calculator:

1- Select the specimen geometry. Options include: rectangular, round, tubular, by area.

2- Select units. Options include: imperial, metric.

3- Enter the requested information based on the selected geometry.

4- Loads will automatically be calculated in lbf and kN.

Wed, 19 Jun 2019 18:23:42 +0000 Deniz Yalcin 23379 at //m.limpotrade.com https://万博manbetx平台m.limpotrade.com/node/23379#comments https: //m.limpotrade.com/crss/node/23379
The Meaning of the Concept of Potential in Mechanics (and in Physics) https: //m.limpotrade.com/node/6634

If someone knows of books/articles dealing with the meaning of the concept of potential in physics (or concerning the physical bases underlying the energy methods of mechanics) then I would very much appreciate getting to know about these.

Please note, when I say physical bases, I mean physical bases---not "simpler/prior mathematical notions/procedures, very easy to work out." Thus, my query is for material that is primarily conceptual, not mathematical. (As an aside: Mathematical material on this topic is so easy to get that, speaking metaphorically, a stone's throw would yield a dozen references if not 1200. ... But I was talking about treatment that is not exclusively mathematical. Essentially, a counterbalance to Lagrange is what I was looking for.)

Also note, by potential, I do not mean the limited context of electromagnetism (EM) alone. Indeed, if you ask me, energy methods are far more valuable in mechanics than in EM primarily because the (statically) indeterminate case is so easy to run into, in mechanics. The momentum approach isn't, therefore, most convenient.

I have already browsed through Lanczos (The Variational Principles of Mechanics) and find it helpful. Just the right sort of book, even though if I were to have the material to write this book, I wouldn't present it in the order that he does. ... Anyway, apart from this book, is there any other source? That's the question I have here.

I might as well mention here that for my purpose here, Goldstein (Classical Mechanics) has been a big let down (both in terms of the contents as well as their ordering) and so has been Weinstok (Calculus of Variations). I remember having browsed very rapidly through Morse and Feschback a few years back, but without finding anything directly useful in this context.

So, there. Any indicators/links other than Lanczos would be very much appreciated. If there aren't any, I guess I might myself write up a research article on this topic.

Thanks in advance for any links/references.

Sat, 15 Aug 2009 10:08:59 +0000 Ajit R. Jadhav 6634 at //m.limpotrade.com https: //m.limpotrade.com/node/6634#comments https: //m.limpotrade.com/crss/node/6634