About Me
I am currently a 2nd year BSc Product Design student at Nottingham Trent University (NTU). During my 1st year at NTU, I won two Gold Awards for my University design projects and a Global Certificate of Recognition. The first was from IOM3 in their annual national Starpack competition winning Gold and Sponsor Award for my product Ernaere (infinitely recyclable packaging for self-care products). The second from Hydro, an aluminium extrusion facility, winning Gold for an extruded bicycle wall mount design.
Having always been intrigued by design and the functionality of products from a very young age, my design ethos is to make others’ daily lives easier and more comfortable. I enjoy learning new skills, improving existing skills and am always willing to try new things as well as sharing my knowledge with others and collaborating.
I thrive working as part of a team and I am a high achiever with strong leadership and communication skills from both the academic background and in extra curricular activities such as hockey where I have represented my country at international level for 5 years.
Education
2021 - Present: Nottingham Trent University
2013 - 2020: The Edinburgh Academy
A-Level - B
Higher - AABBCC
National 5’s - AAAAABBB
Experience
Crown Cork Technology and Packaging Internship
Industrial Cadet Silver Award, Rolls Royce
Head-start Engineering Course, Glasgow University
Inspire Engineering Course, Glasgow Caledonian University
Awards
2023 - WPO Worldstar Packaging Students AwardCertificate of Recognition
2022 - IOM3 Starpack Gold and Sponsor winner (AluPro)
2022 - Hydro Aluminium Extrusion Gold Winner
2022 - Solidworks CSWA Certification
2019 - EDT Industrial Cadet Silver
Hobbies
jakeinglisdesign@gmail.com
Upon Request
jake.inglis.design
www.linkedin.com/in/jakeinglis
The gaming controller designed for gaming with Multiple Sclerosis with included TENS therapy for pain management
Individual Project 4 Weeks
“Stimulate your inner gamer”
Insights Ideation Organic
With poor dexterity, the user will not be able to actuate buttons or lift and rotate a controller therefore, using influences such as ergonomic mouses is a good place to start
Advancements in new technology such as electromyography and electroencephalography allow inputs without pressing physical buttons which could be utilised by somebody with MS.
With people of all abilities participating at competitive levels, having a controller that allows you to compete at high levels gives you a level playing field when competing against non MS sufferers.
Doesn’t have a suitable way to game during relapsing stage of MS.
Relapsing stage results in being bed bound and can’t go to therapy.
Modelling
Organic form to allow for reduced strain
Thinks there is no future for gaming career causing low self esteem. Thinks there is possibility of becoming pro if the right controller was made.
Dexterity testing
SaysThinks
Games when possible but suffers during relapsing stage.
Feels Does
Avoids conversation about condition
Frustrated - due to fear of missing out.
Left out - during relapsing stage due to being unable to game or see friends.
Testing for size and scale using a range of hand sizes
Constantly trying to improve gaming experience and skills when possible
Goes to therapy when able enough
Lonely - this is one of the users main social interactions during relapsing stage.
Unsure - future of gaming as will fall behind if relapse becomes worse.
Increased palm support
Final model with grip and added weight for testing
Technical
Electromyography/TENS arm pad
Exploded View
Nerv Gaming Controller
400mAh Battery
Wireless Charging Pad
Upper Shell - ABS MI IM B-3 Semi Gloss
Bluetooth 4.0 Module
Eccentric Rotating Mass (ERM) Sensor
3 Axis Accelerometer
Complementary Metal-Oxide-Semiconductor (CMOS)
Lower Shell - ABS MI IM D-3 Textured Rough (Dry Sandblasted)
8mm self tapping screw
Available for £159.99 online
Fully customisable for the user
Modular design allows for components to be easily replaced.
Target market is gamers who have Multiple Sclerosis
Therapy is controlled via complementary app
Electromyography/Electroencephalography inputs (foramen magnum) (relapse) and TENS Therapy
Wireless charging
Bluetooth 4.0 connectivity
Think Brew
How might we design an interface that allows for streamlined onboarding of employees to aid staff retention through enhanced intercommunication within the business, simplified scheduling of hours, events and payslips, and unique hours and pay counter.
Group Design Sprint
1 Week
“Have a brewtiful day”
Moodboard Research
Successful on-boarding creates a welcoming and safe environment.
Creating a positive and welcoming environment
12 months
Average staff retention in hospitality is 12 months.
Neutral and warm colours
Increased cost for hiring and training costing the sector £275 million per year.
User Persona Wireframe
Summarising key
Hugo, 20
No previous experience as a barista
Just started work at a Cafe
Recently graduated from University
(Senivpetro, 2022)
Proposing employee profiles
Ideating on layout of potential content
Refining potential layout of dashboard
Employee of the month to boost employee moral
Features Walk through
Brand/Logo
BrewBot Customisation
App Icon
Distinct and recognisable thumbnail with the Thinkbrew logo.
Login Page
Simple and clean landing page with a quote or pun to make work more enjoyable
“Think” is represented by the head and “Brew” through the coffee bean.
An AI tool that can answer questions and redirects to the solution.
Although branded for a cafe, the wire frame can be used for any business.
Rewards Scheme
Distinct and recognisable thumbnail with the Thinkbrew logo.
Dashboard
Infographics allow user to immediately understand the button before reading caption.
Visual “money jar” to indicate to employees weeks wages to allow for better budgeting.
Drink instructions and visuals to avoid employee being unsure of recipe or how to make a drink.
Rewards scheme to encourage employees and create a competitive but friendly environment.
Redeem Rewards
Employees are rewarded for their good work in the form of drinks/food.
Cup League
Creates a healthy and competitive environment to boost moral and work ethic.
G.R.A.S.S.
To design a robot that aids farmers in streamlining their soil sampling process as well as improving their time management, reducing the cost and reducing the risk of injury from repetitive movements.
Group Project
18 Weeks
“GPS Reiable Automated Soil Sampler”
Insights Moodboard
With workers bending down repetitively to take samples in the field is a common health and safety concern
Streamlining the process will reduce the time farmers spend sampling soil allowing them to focus on other tasks on the farm
£Reducing the cost to train workers and the skilled labour would allow for soil sampling to be more accessible to smaller farms
User Journey
Qualified soil tester drives to the sampling point
Sampling grid is generated
Tester uses auger to take a sample of the soil
Repetitive action of reaching down is major health and safety concern to SOYL
Process is simplified and allows farmer to focus on other jobs
Samples are sent to lab and nutrient map is created from results and sent to farmer.
Farmer maps field boundary with GPS
Farmer receives robot from contractor and drives robot to field
Robot connects to GPS and begins sample route autonomously.
Automated Jounery - 4 days
Process is very laborious and time consuming for farmer
Current User Journey - 2+ weeks
Sampling is bagged and referenced accordingly to the sample location
Samples and equipment is stored for tester to drive to the next sampling point
Nutrient map is generated from the lab results and sent to the farmer
Map can be uploaded to the appropriate farming equipment
Samples are sent of to a lab to be tester for levels of Phosphorus, Nitrogen and Potassium
Features
Linear actuated probe/auger
Coding
#include <Servo.h>
#define F_MAX_SPEED_TIME 2000
#define S_PWM_TIME 1500
#define R_MAX_SPEED_TIME 1000
Accurately collects soil cores from a set of sampling points.
Rotating Sample bay
Stores the samples taken allowing up to 12 hectares to be sampled in one go.
Using Arduino, the G.R.A.S.S. robot was coded allowing it to navigate fields, take soil samples and store sample.
#define LEFT_MOTOR_PIN 2
#define RIGHT_MOTOR_PIN 3
Servo _leftMotor; Servo _rightMotor;
int ECHO_PIN = 12; //integers for ultrasonic echo pin and defining it is placed in pin 12 int TRIG_PIN = 13; //integers for ultrasonic trigger pin and defining it is placed in pin 13
char t; #define SERVO3_PIN 5
Servo myServo3; #define SERVO2_PIN 6 int x = 1; int y = 30; Servo myServo2;
void setup() {
_leftMotor.attach(LEFT_MOTOR_PIN);
_rightMotor.attach(RIGHT_MOTOR_PIN);
pinMode(18,OUTPUT); pinMode(19,OUTPUT); Serial1.begin(9600);
pinMode(ECHO_PIN, INPUT);
Via MIT inventor, this allowed for an app to be designed for the robot to be controlled from a farmers phone.
pinMode(TRIG_PIN, OUTPUT); Serial.begin(9600);
Serial.println(“-------”); //Printing a buffer line to begin the turn on sequence
Serial.println(“GRASS Activating”); //printing that the robot is on Serial.println(“Ready to Pair”); //printing that the device is ready to pair before connecting via bluetooth Serial.println(“-------”); //printing a buffer line to separate the turn on code from the rest of the printed sequence
myServo3.attach(SERVO3_PIN);
myServo2.attach(SERVO2_PIN); }
void loop() {
// put your main code here, to run repeatedly: if(Serial1.available()){
t = Serial1.read(); Serial.print(t);
if(t == ‘F’){
_leftMotor.writeMicroseconds(F_MAX_SPEED_TIME);
_rightMotor.writeMicroseconds(R_MAX_SPEED_TIME); delay(100);
} else if(t == ‘B’){
_leftMotor.writeMicroseconds(R_MAX_SPEED_TIME);
Ultrasonic sensor
Reduces the likelihood of damage by re-routing around obstructions.
Through trial and error, circuits were tested individually before being combined and soldered into one
}
_rightMotor.writeMicroseconds(F_MAX_SPEED_TIME); delay(100);
}
else if(t == ‘L’){
_leftmotor.writeMicroseconds(R_MAX_SPEED_TIME);
_rightMotor.writeMicroseconds(R_MAX_SPEED_TIME); delay(100);
else if(t == ‘R’){
_leftMotor.writeMicroseconds(F_MAX_SPEED_TIME);
_rightMotor.writeMicroseconds(F_MAX_SPEED_TIME); delay(100);
} else if(t == ‘S’){
_leftMotor.writeMicroseconds(S_PWM_TIME);
_rightMotor.writeMicroseconds(S_PWM_TIME); delay(100);
}
Dimensions
Drivetrain
Trampa wheel/motor assembly powers the robot across the varying terrain.
Easily transfers location data to and from the robot with your mobile device via bluetooth.
Servo Motors
Accurately control the rotation of Sample Bay alongside the Linear actuation of the probe.
DGPS
Communicates to the robot the precise location the sample point and where the robot is located in the field.
Additional Projects - 2nd Year
Additional Projects - 1st Year
jakeinglisdesign@gmail.com
Upon Request
jake.inglis.design
www.linkedin.com/in/jakeinglis