Gallery Items tagged Project / Lab Report
If you conduct a scientific experiment or undertake a piece of research, you’ll usually need to write up a corresponding project or lab report, to summarize the objective of your task, the methods you followed, the results you obtained, and the conclusions you drew from your work. Here we provide a sample of great templates for producing such reports, which include layout guidelines to help guide you through the process.

Template LabFisCompI
Template para os relatórios da disciplina Laboratório de Física Computacional I.
Thadeu Penna

Template báo cáo KHTN
Đây là template để viết báo cáo. Có logo đại học Khoa Học tự nhiên. Template hỗ trợ tiếng việt
This is a typical University Report, suitable for course project or whatever. You can replace the University logo. Full support Vietnamese
Thien Thai

LEYES DE NEWTON
Preinforme guia de laboratorio L4.
Yeimi Johana Blanco Santos

DIREC-FB: Projeto de Curso Gratuito
Modelo de Projeto de Curso Gratuito UTFPR-FB
Template por Francisco Reinaldo
(https://orcid.org/0000-0001-6161-6755)
(http://lattes.cnpq.br/7401534350061823)
Tue Oct 17 01:55:47 -02 2017 versao1
Nota: não compatibilizei com abntex2, mas penso em deixar um dia :)
Agradecimentos a Overleaf pela oportunidade
Francisco Reinaldo

Charge to Mass Ratio of the Electron
For an electron moving in a circular path in a magnetic field, if we know the magnetic field strength, accelerating voltage, and radius of the electron's trajectory, then we can make an estimation of the electron's charge to mass ratio. We calculated an average charge to mass ratio of \(2.08 \times 10^{11} \pm 1.81 \times 10^8\) Coulombs per kilogram.
Jake Rugh

IWO_RUG_BA_IK
Template for the the final project of the course.
T. Caselli

Measurement of invisible products from Muon Decay
Muons compose the penetrating component of Cosmic Rays. At sea level, they constitute the largest part of Secondary Cosmic Rays, giving an average flux of ≈ 100 m−2s−1sr−1. The aim of our experiment is to estimate, from muon decay, the mean lifetime and the mass of invisible products. Our experimental setup includes four detectors: three of them are plastic scintillators and compose the trigger system, while the last one is a liquid scintillator which measures the particles energy. All these scintillators are read by photomultipliers. Trigger and pulse thresholds are computed by logical and temporal modules in a VME crate. The Data Acquisition System has been verified to work properly. It is composed of two fADCs modules, one I/O Register, one Motorola computer and a Farm. The liquid scintillator has been calibrated in energy using both passing muons and 60CO gamma source. Thanks to the charge-energy conversion factor we estimated electron energy spectrum. In particular we selected a sample of decay events by estimating muon mean lifetime τμ = 2.19 ± 0.34 μs; then we finally extrapolated an upper limit for invisible products mass mν < 5.99 ± 0.73 MeV/c2.
Valentina Vecchio, Giulio Settanta, Cristina Martellini, Eleonora Diociaiuti

Estudio del decaimiento α mediante los métodos WKB y diferencias finitas
Se pretende describir el decaimiento de una partícula α encontrando los niveles de energía Eα correspondientes a los estados ligados de la partícula producto de la desintegración. Los niveles de energía y los estados ligados se encuentran mediante dos métodos de aproximación: WKB y diferencias finitas. Posteriormente se halla el tiempo de vida medio τ, se comparan los resultados con los de la literatura y se decide el mejor método de solución acorde con la literatura.
John Erick Cabrera and David Leonardo Ricaurte

Drie technieken voor visuele cryptografie
cryptografische systemen zijn gebaseerd op stellingen uit de getaltheorie. Versleuteling en ontsleutelingen van berichten vragen vaak intensief computerrekenwerk.
Bij visuele cryptografie wordt het rekenwerk echter tot een minimum beperkt. Ook hoeft de ontwerper van deze geheimcodes bijna geen gebruik te maken van wiskundige stellingen en eigenschappen. De ontsleuteling van een boodschap kan zelfs gebeuren zonder digitale hulpmiddelen: schuif twee transparanten met onherkenbare afbeeldingen over elkaar en kijk doorheen deze transparanten naar de ontsleutelde boodschap.
In dit verslag worden drie technieken voor visuele cryptografie toegellicht. Voor de eerste techniek is er wel wat wiskundige achtergrondkennis nodig. De tweede en derde techniek zijn vlot uitvoerbaar zonder deze achtergrond.
Van den Broeck Luc