{
"cells": [
{
"cell_type": "markdown",
"metadata": {},
"source": [
"# Moto lungo un piano inclinato\n",
"\n",
"## Esperimento sul moto 1D ed analisi dati\n",
"\n",
"Il moto di un corpo lungo un piano inclinato può essere studiato come esempio di **moto in una dimensione**. Obiettivo di questo esempio è quello di studiare la posizione, la velocità e l'accelerazione in funzione del tempo.\n",
"\n",
"
\n",
"\n",
"\n",
"\n",
"
\n",
"\n",
"### Descrizione\n",
"\n",
"L'oggetto che si muove lungo il piano inclinato può essere descritto come un punto materiale che si muove lungo una retta. La posizione del punto materiale può essere individuata tramite la coordinata $ x $, il cui valore corrisponde in questo caso alla distanza tra l'oggetto ed un sensore situato all'inizio della pista.\n",
"\n",
"
\n",
"\n",
"\n",
"\n",
"
\n",
"\n",
"In particolare, utilizziamo un **sensore ad ultrasuoni HC-SR04** che viene alimentato e controllato tramite una scheda [**Raspberry Pi**](https://www.raspberrypi.org/) (Raspberry Pi 3 Model B).\n",
"\n",
"
\n",
"\n",
"\n",
"\n",
"
\n",
"\n",
"Semplici codici Python permettono di:\n",
"\n",
"* Registrare i valori di distanza tra il sensore fisso ed il veicolo in movimento.\n",
"\n",
"* E contemporaneamente misurare il tempo trascorso da un certo istante iniziale.\n",
"\n",
"I collegamenti del sensore alla scheda Raspberry Pi ed i codici Python per effettuare le misure sono descritti nel riferimento [1. Physics Education 2020](https://iopscience.iop.org/article/10.1088/1361-6552/ab73d2) (v. anche Supplementary Information)\n",
"\n",
"### Outline dell'attività\n",
"\n",
"1. **Effettuare un esperimento** registrando i valori della distanza sensore - oggetto durante il moto lungo il piano inclinato. Lo script Python permette di memorizzare i dati in un file di testo **distance-table.csv** strutturato nel modo seguente:\n",
"\n",
"| Tempo (s) | Distanza (m) |\n",
"| :-------------------- | :------------------ |\n",
"| 6.300999302766286e-06 | 0.04921078322613539 |\n",
"| 0.20044025799870724 | 0.04400026829147464 |\n",
"\n",
"2. Ottenere una **rappresentazione grafica** dei dati.\n",
"\n",
"3. **Elaborare i dati** per ottenere i valori della velocità in funzione del tempo.\n",
"\n",
"4. Rappresentare graficamente l'andamento della velocità in funzione del tempo.\n",
"\n",
"5. Calcolare i valori dell'accelerazione in funzione del tempo e mostrare l'andamento in un grafico.\n",
"\n",
"6. Analizzare i dati della velocità:\n",
"\n",
" * Scegliendo un intervallo di tempo nel quale l'andamento della velocità in funzione del tempo è lineare.\n",
" \n",
" * Trovando i parametri della retta che si adatta meglio ai dati sperimentali.\n",
"\n",
" * La pendenza della retta fornisce il valore dell'accelerazione in tale intervallo di tempo.\n",
"\n",
"7. Valutare i risultati ottenuti riportando in un'unica figura i grafici di: coordinata $ x $, velocità e accelerazione.\n",
"\n",
"8. Confrontare il valore stimato dell'accelerazione con il valore calcolato utilizzando un **modello fisico**.\n",
"\n",
"Altri dettagli sui codici Python e sull'analisi dati sono forniti nel notebook Viaggio in ascensore.\n",
"\n",
"#### 1. Esperimento\n",
"\n",
"Predisponiamo un piano inclinato ed un oggetto che possa essere lasciato muovere lungo il piano inclinato.\n",
"\n",
"* Cerchiamo di svolgere l'esperimento in modo che le **condizioni** siano **ripetibili**.\n",
"\n",
"Una grandezza che caratterizza le condizioni in cui viene svolto l'esperimento è la misura dell'**angolo** che il piano inclinato forma con la direzione orizzontale. Si può misurare facilmente questo angolo installando sullo smartphone l'applicazione [phyphox](https://phyphox.org/). Tra i menù disponibili, sotto la voce **Strumenti** scegliere **Inclinazione** (misura l'angolo d'inclinazione del telefono). Premere il tasto **play** per iniziare la misura.\n",
"\n",
"
\n",
"\n",
"\n",
"\n",
"
\n",
"\n",
"Si manda in esecuzione sulla Raspberry Pi il codice **distance_recorder.py** e si lascia che l'oggetto si muova lungo il piano inclinato, mentre i valori di distanza vengono misurati e memorizzati in un array. Lo script Python produce il file **distance_table.csv** in cui sono riportati i dati del tempo e della distanza.\n",
"\n",
"#### 2. Rappresentazione grafica dei dati\n",
"\n",
"Con il seguente codice leggiamo i dati contenuti nel file **distance-table.csv** e riportiamo in grafico la distanza sensore - oggetto in funzione del tempo trascorso da un certo istante iniziale."
]
},
{
"cell_type": "code",
"execution_count": 196,
"metadata": {},
"outputs": [
{
"data": {
"image/png": "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\n",
"text/plain": [
"