
1D ወሰን የሌለው ካሬ ጉድጓድ(The 1D Infinite Square Well)
የኳንተም መካኒክስ መሠረታዊ ሀሳቦችን በግልጽ የሚያሳይ ቀላል ነገር ግን አስፈላጊ የሆነውን የ1D ወሰን የሌለው ካሬ ጉድጓድ ችግኝ እንመለከታለን። በዚህ ሁኔታ nኛውን ቋሚ ሁኔታ ψ(x)፣ ኃይል E፣ የψ(x) 4 አስፈላጊ ሂሳባዊ ባህሪያትን እና ከዚህ የሚከተለውን አጠቃላይ Ψ(x,t) እናገኛለን።

የኳንተም መካኒክስ መሠረታዊ ሀሳቦችን በግልጽ የሚያሳይ ቀላል ነገር ግን አስፈላጊ የሆነውን የ1D ወሰን የሌለው ካሬ ጉድጓድ ችግኝ እንመለከታለን። በዚህ ሁኔታ nኛውን ቋሚ ሁኔታ ψ(x)፣ ኃይል E፣ የψ(x) 4 አስፈላጊ ሂሳባዊ ባህሪያትን እና ከዚህ የሚከተለውን አጠቃላይ Ψ(x,t) እናገኛለን።

We derive the time-independent Schrödinger equation ψ(x) by applying the separation of variables method to the original form of the Schrödinger equation (time-dependent Schrödinger equation) Ψ(x,t). We explore the mathematical and physical significance and importance of the separated solution obtained this way. We also examine the method of obtaining the general solution of the Schrödinger equation as a linear combination of separated solutions.

በኳንተም መካኒክስ ውስጥ ከሞገድ ተግባር የቦታና የሞመንተም የተጠበቀ እሴቶችን እንዴት እንደሚሰሉ እንመለከታለን፣ ከዚያም ይህን ወደ ማንኛውም ሜካኒካዊ መጠን Q(x,p) እናሰፋለን። በመጨረሻም ከዚህ የኤረንፌስት ቴዎሬምን እንወጣለን።

We examine the basic form of the Schrödinger equation, which holds a similar position in quantum mechanics as Newton's laws of motion in classical mechanics. We also explore the statistical interpretation of the physical meaning of wave functions obtained as solutions to the Schrödinger equation, perspectives on quantum indeterminacy, and the physical meaning of measurement in the Copenhagen interpretation (collapse of the wave function).

We explore the concept of reference frames and the Galilean transformation widely used in classical mechanics. We also briefly examine Maxwell's equations and the Michelson-Morley experiment, which formed the background for the emergence of the Lorentz transformation, and derive the transformation matrix of the Lorentz transformation.

ለ Markdown ጽሑፍ ፋይሎች የባለብዙ ቋንቋ ትርጉም ፕሮምፕት እንዴት እንደሚዘጋጅ እና Anthropic/Gemini API ቁልፎችን ከተዘጋጀ ፕሮምፕት ጋር በPython በመጠቀም ሥራውን እንዴት በራስ-ሰር እንደሚፈጽሙ ያብራራል። ይህ ፖስት የተከታታዩ ሁለተኛ ክፍል ሲሆን API መስጠትና ማገናኘት እንዲሁም የPython ስክሪፕት መጻፍ ያስተዋውቃል።

This series covers setting up a container-based deep learning environment locally with NVIDIA Container Toolkit, then configuring SSH and JupyterLab so it can be used as a remote server. Part 2 walks through writing a Dockerfile and building the container image.

የኑክሌር ምላሽ መግለጫ፣ የQ እሴት(Q-value) ትርጓሜ፣ እና የጅምላ ጉድለት(mass defect) እና የትስስር ኃይል(binding energy) መሠረታዊ ጽንሰ-ሐሳቦችን እንመለከታለን።

Briefly examine elementary particles important in nuclear engineering such as electrons, protons, neutrons, photons, and neutrinos, and explore the structure of atoms and atomic nuclei.

Part 1 of a series on building a container-based deep learning environment with NVIDIA Container Toolkit and Docker/Podman, plus SSH and JupyterLab for remote use. This post covers installing the toolkit and the container engine.