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Physics in Soccer: World Cup 2022

The 2022 World Cup has officially begun, and there’s never been a better time to explore the physics of soccer (or in Europe, football) with your students! From predicting the outcome of a crossbar challenge to understanding the science behind Ronaldo’s famous knuckleball free kick, physics plays an important role in determining which team rules the pitch.

Throughout the World Cup, we’ll be sharing soccer-themed content to help you bring the excitement of the World Cup into your physics course. In our first segment, we’ll explore the physics of soccer’s most infamous pre-match event: the crossbar challenge.

The Physics of Soccer: Crossbar Challenge

The crossbar challenge is a popular pre-game competition held between players from opposing teams. To compete, players take turns kicking soccer balls into the crossbar of a goal. The player who hits the crossbar the most wins the crossbar challenge. Seems simple enough, right? Well, not exactly!

In reality, the crossbar challenge is, well, challenging. The average player is lucky to land two of their five shots, which makes the five-for-five performances of superstars like Neymar Jr. all the more impressive. In fact, Neymar’s success in crossbar challenges is so repeatable that it begs the question: what is Neymar doing that other soccer players aren’t? (Check out this video to see Neymar demonstrate his technique in a crossbar challenge against two other professional soccer players.)

As it turns out, there is a secret to Neymar’s success: physics! When a player kicks a soccer ball, its landing position is largely determined by both the aerodynamics of the ball and the angle, direction, and velocity of the player’s kick. If we ignore aerodynamics for a moment (more on that later), then the crossbar challenge becomes a real-world example of projectile motion.

Incorporate the World Cup into your physics course with these soccer-themed projectile motion problems! Download the student worksheet for free below.

Celebrate the World Cup with these Soccer-Themed Practice Problems!

Download the free Physics in Soccer student handout and answer key below.

  • Student Worksheet (Word)
  • Student Worksheet (PDF)
  • Answer Key (PDF)

 

1. While warming up for a match at the World Cup, Neymar challenges Aleksandar Mitrović to a crossbar challenge. Both players must take their shot 11 meters away from the goal, but the angle and speed of their kicks can vary. The crossbar is 2.4 meters above the ground. Assuming air resistance is negligible, answer the following questions:

a. If Neymar kicks the ball at a 40° angle, and it takes .87 seconds to hit the crossbar, what must the initial speed of the ball be?

b. Mitrović launches the ball at a 41° angle with a velocity of 18.4 m/s. It flies through the air, passing 1 meter above the crossbar. How long is the ball in the air?

c. Challenge Question: The next round, Mitrović kicks the ball with an initial velocity of 21.0 m/s. Determine the minimum and maximum kicking angles required for the ball to make contact with the crossbar.

 

2. During a World Cup match, Lionel Messi kicks the ball at a 45° angle from ground level. It reaches a maximum height of 3.2 meters and lands 22.7 meters down the pitch. Assuming air resistance is negligible, answer the following questions:

a. What is the initial vertical velocity of the ball?

b. How long does it take for the soccer ball to reach the ground?

c. What is the initial horizontal velocity of the ball?

 

3. When the soccer ball leaves the field during a match, a corner kick is performed to restart the game. To perform a successful corner kick, the player must kick the ball at just the right angle, so that it bypasses opponents and lands near teammates. During a practice session for the World Cup, Cristiano Ronaldo makes a corner kick at a 42° angle, launching the soccer ball with an initial velocity of 26 m/s. Assuming the ball travels with projectile motion and air resistance is negligible, answer the following questions:

a. At what time does the soccer ball reach its peak height?
b. What is the maximum height reached by the soccer ball?

 

4. While practicing for the World Cup, Kylian Mbappé kicks the ball from the ground at a 41° angle. As the ball launches with an initial speed of 28.5 m/s, an opponent 54 meters away at the opposite side of the soccer field begins running to get the ball. What is the average speed he must maintain in order to make contact with the ball just before it hits the ground?


File Attachments

Physics in Soccer: Projectile Motion Problems – Student V File Size: 81.32 KB
Physics in Soccer: Projectile Motion Problems – Editable File Size: 37.64 KB
Physics in Soccer: Projectile Motion Problems – Answer Key File Size: 55.11 KB

2022 Science Conferences

After almost 3 years of conference cancellations, it was great to be back to meeting with teachers in person.

Please let us know which PASCO product you enjoyed learning about the most!

Your discount and coupon code will be revealed upon submission of this form.

Thank you!
Which PASCO product was your favourite from the conference?

Here are the draw winners from the October provincial conferences. Thank you to everyone who entered!

ATA-SC (Alberta): Jennifer Wiley

Catalyst (British Columbia): Drew Parkinson

AESTQ (Quebec): Karine Routhier

AST (Nova Scotia): Tanya Smith and Joel MacNeil

OAPT (Ontario): Jonathan Hakvoort

 

 

MatchGraph! Software

PASCO’s Python Library

The PASCO Python Library lets learners, educators, and hobbyists take full control of their PASCO Wireless Sensors using Python code. Visit us on GitHub to download the PASCO Python API, browse sample code, and review tips for getting started.


Why Python?

  • Python is used in schools and universities around the world.
  • It’s simple, readable, and flexible, making it ideal for both beginners and experts.
  • Python resources are readily accessible thanks to its global community of creators, collaborators, and problem-solvers.

Python vs. Blockly

Blockly is an easy-to-use, block-based programming platform available in both SPARKvue and PASCO Capstone. Unlike Blockly, Python is a text-based programming language that is independent from PASCO software. This library lets you bring Python into the PASCO ecosystem for complete control of your data. With Python, users control all aspects of sensor data collection, from sensor connections and sampling rates to data displays and custom analytics.

Visit us on GitHub to view instructions for getting started and browse sample code for Python projects.

Compatible Sensors

  • //code.Node
  • Smart Cart
  • Wireless Acceleration Altimter
  • Wireless CO2
  • Wireless Conductivity
  • Wireless Current
  • Wireless Diffraction
  • Wireless Drop Counter
  • Wireless Force Acceleration
  • Wireless Light
  • Wireless Load Cell
  • Wireless Magnetic Field
  • Wireless Motion
  • Wireless O2
  • Wireless Optical Dissolved Oxygen
  • Wireless pH
  • Wireless Pressure
  • Wireless Rotary Motion
  • Wireless Temperature
  • Wireless Voltage
  • Wireless Weather

System Requirements

  • Operating Systems: Windows, Mac, Linux (Raspberry Pi)
  • Bluetooth 4.0+
  • Python version 3.7-3.10
  • IDE of your choice (VSCode, PyCharm, etc)

Example Projects

Temperature Alarm

Use a Python text to voice plugin to narrate temperatures out loud.

View Code on GitHub


Smart Cart 3D Plot

Create an 3D plot using values from the Smart Cart.

Request a Recording of PASCO’s Free Summer Webinar Series

Did you miss a webinar? Just let us know which one that you missed and we would be happy to send you a recording!

Webinar Recording Request
Please select which webinar that you would like a recording of:

PASCO Day of Physics: Friday, Aug 6th, 2021

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Friday, Aug 6th, 2021 @ 12:00 pm Eastern / 9:00 am Pacific

PASCO Day of Physics

PASCO Day of Physics is back! Join us this Friday as we kick off the new school year with an exciting collection of demos, apparatus, and phenomena. We’ll begin live streaming on Facebook and YouTube at 12 pm (EST) 9 am (PST), and will continue to stream until we’re out of demos and questions!

LINEUP
Ripple Tank
High Road vs. Low Road (Roller Coaster)
Brachistochrone
Conservation of Energy
Bicycle Wheel Gyro
Gyroscope Precession and Nutation
• Falling Chain Impulse
• Velocity of a Chain Falling Off a Table
Meter Stick Torque
Lenz’s Law with a Meter Stick
Modeling a Supernova with Smart Carts
Coriolis Acceleration with a Smart Cart
Bernoulli
Strobed String Vibrations
Resonance Air Column
Magnetic Field of Helmholtz Coils

//code.Node Solution Set Wins Bett Award in the Digital Devices Category

We are thrilled to announce that the //code.Node Solution Set has won a Bett Award! Based in London, the Bett Awards are an international celebration of the inspiring creativity and innovation found throughout educational technology. It is truly an honor to have our innovation in STEM coding recognized among the best and brightest in educational technology. You can check out the judges’ comments below!

The //code.Node Solution Set provides teachers with a revolutionary method for engaging students in coding and computational thinking in science learning. Rather than simply teaching students how to code, the //code.Node Solution Set skillfully scaffolds coding into essential science concepts, making it easy for students to build a wide range of competencies as they use code to investigate, measure, and analyze scientific phenomena.

The complete set includes a //code.Node, a //code.Node Holder, SPARKvue software with Blockly coding, a digital teacher’s manual, and an interactive, browser-based flipbook with embedded videos and reading for students. Browse the Flipbook for free here.

Here’s what the judges at the 2021 Bett Awards had to say about the //code.Node Solution Set:

This compact device, with its many built-in sensors offers versatility across STEM subjects and many opportunities for students to learn through hands on activities which relate to everyday science. The support videos embedded in the manual are also helpful for teachers to gain ideas for use in lessons.

Since entering the 2021 Bett Awards, we’ve continued our innovation with STEM Sense — an exciting new line of ready-to-use solutions designed to help educators integrate computational thinking, crosscutting concepts, and career awareness into science learning. You can explore our growing line of STEM Sense solutions here.

How to become a pH measuring guru and enjoy many years of reliable sensor performance

The popular wireless pH sensor is a great sensor with many applications for Chemistry, Biology, Environment Science and General Science.  However, to experience the many benefits of this sensor, it is recommended that time is set aside to understand the sensor’s proper operation and care.  Fortunately there are a number of fantastic resources available to minimize the learning curve. The purpose of the following information is to emphasize key points and highlight the most helpful resources.

Important information before getting started

The pH sensor is comprised of two components: 1) The Amplifier (aka the white Bluetooth box, and 2) The Electrode.  Please note that many of the support calls for this sensor relate to improper connection of the Electrode to the Amplifier. (How to properly connect the pH electrode).  The white PASCO Amplifier is backed by PASCO’s 5 year warranty.   The Electrode, which is manufactured by a 3rd party, features a 3 month warranty against defects (but not improper use).  Despite this shorter warranty period, with proper care and attention the electrodes can be maintained in good working order for many years.

Manual

A comprehensive user manual exists for all PASCO’s wireless sensors (as well as other products).  But printed manuals are not supplied with the sensors – PDF files of the manuals can be downloaded from the Find Product Manuals and Resources search engine.  For your convenience the pH manual can be directly viewed by clicking on the following link:

Wireless pH Reference Guide

This comprehensive guide is an excellent resource to learn how to care for and operate your pH sensor. 

Key points from the reference guide not to be overlooked when getting started

It’s recommend to read the entire manual thoroughly, including the insightful section on the theory of calibration.  The better you understand how the pH sensor records calibrated measurements, the less of a black box it becomes, and the greater likelihood you’ll achieve accurate results.  However, if time is limited, be certain to pay attention to the following:

  1. Proper technique for connecting sensor (page 2)
  2. Proper technique for removing storage cap (2)
  3. pH Probe storage (page 4)

‘How Do I’ Videos

PASCO continues to expand its very helpful collection of task specific videos.  These videos are developed by their teacher support department and address common software and sensor concerns.  The best place to view these videos is on PASCO’s YouTube channel as it features an effective search tool.   For pH, there are a number of very useful videos on this channel with the most important ones linked below:

Properly Connect and Disconnect Electrode to pH Amplifier

Make a pH Storage Solution

Calibrate a pH Sensor (SPARKvue)

Calibrate a pH Sensor (CAPSTONE)

Preparing pH Electrodes for Storage

Managing the pH Probe Cap

When to replace a pH Electrode

Additional safe operation tips

  1. How to safely measure soil pH – follow the sample preparation instructions from the Determine Soil Quality PDF experiment
  2. How to prevent a stir bar from damaging the glass bulb of the electrode – use PASCO’s Electrode Support

Tips for sanitizing your PASCO products

PASCO products are made with a variety of materials, and each material might have specific cleaning requirements. The following applies to all products:

  • Unplug all external power cables and devices before attempting to clean a product.
  • Only use alcohol based disinfectants.  Take care to use these cleaning solutions far from any ignition sources.
  • Never spray cleaners directly onto a product or put liquids directly onto a product. Always use a damp cloth.
  • Do not overly saturate the cloth. Don’t get moisture into any openings.
  • Don’t submerge any product in any cleaning agents.
  • Don’t use aerosol sprays, bleach, ammonia based solutions, or abrasives.
  • Don’t use on fabric or leather surfaces.

Using a 70 percent isopropyl alcohol wipe or mix or Clorox Disinfecting Wipes is generally safe. You may gently wipe the hard, nonporous surfaces of your PASCO product, such as the display, buttons, or other exterior surfaces.

Warranty: Liquid damage or damage cause by harsh (unauthorized) chemicals or cleaning methods is not covered under the PASCO product warranty. For any concerns or questions in regard to cleaning a specific PASCO product, please contact PASCO Technical Support for further guidance.

PASCO Live June 25th at 3PM EST:
Materials Testing System: Beyond Load-Displacement Curves

Join PASCO on Thursday, June 25th for a Special Edition of PASCO Live!
Materials Testing System: Beyond Load-Displacement Curves
June 25, 2020 at 3:00 – 4:00 pm EST / 12:00 – 1:00 pm PST

Host Mike Paskowitz will be demonstrating live experiments using his favourite PASCO product, the Materials Testing System. Mike will take you beyond simple load-displacement curves using a thermal camera, microscope, and video analysis to complete in-depth sample analysis. Don’t miss your chance to participate in this live investigation of sample tension and bending.

The PASCO Materials Testing System(MTS) includes everything needed to do tensile testing straight out of the box. With 6 different versions there are options to fit every budget! The educationally designed MTS is ideal for kinesthetic learning as the manually driven crank enables students to “feel” the strength of the material. Students can accurately & easily test material compression, column buckling, shearing, three and four-point bending, photo-elasticity, cyclic deformation & more.

 

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