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$35 USD / hora
Bandeira do(a) SOUTH AFRICA
johannesburg, south africa
$35 USD / hora
Atualmente, está 7:15 AM aqui
Ingressou em setembro 1, 2019
0 Recomendações

Michael W.

@MichaelWestwood

verified.svg
 5,0 (10 avaliações)
5,1
5,1
100%
100%
$35 USD / hora
Bandeira do(a) SOUTH AFRICA
johannesburg, south africa
$35 USD / hora
90%
Trabalhos Concluídos
100%
Dentro do Orçamento
100%
No Prazo
Não se aplica
Taxa de Recontratação

Electronics, Software and Machine Vision Engineer

I have a BSc in electrical engineering, am a certified Labview developer and have 20 years experience developing custom systems for industrial environments, mainly focused on visual and thermal imaging but also including motion control. I have also developed hardware and software for industrial embedded systems based on ATMEGA, Atmel ARM, PIC, Arduino and Paticle IoT platforms. My design philosophy is firmly based on Murphy's Law, to create systems that anticipate possible conditions and anomalies and are flexible enough to handle these and possible future requirements. If something can go wrong it will. My experience includes - Design and implementation of visual and thermal based imaging applications - Machine vision system design (optics, lighting, hardware and software) - Extensive development using LabVIEW, LabVIEW Realtime, IMAQ Vision and National Instruments hardware. NI Certified LabVIEW Developer - Electronic circuit design (incl. PCB layout) of embedded systems using Atmel, PIC, Arduino. - C coding for microcontrollers, Arduino and pre-Arduino - Congex vision systems (spreadsheet and easybuilder) - Particle Photon IoT
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Portfólio

10869102
The system is Arduino based using the Atmel ATSAMD21G18A-AU processor. It consists of a number of Sensors Boards which can use either the Adafruit BME280 or BME680 sensor boards to measure air quality. A Master PCB collects the data via modbus from multiple sensor boards and makes it available to a PC via USB. The system uses ethernet cables for communication and to power the slave boards from the master.
Modbus Air Quality Sensor Network
The system is Arduino based using the Atmel ATSAMD21G18A-AU processor. It consists of a number of Sensors Boards which can use either the Adafruit BME280 or BME680 sensor boards to measure air quality. A Master PCB collects the data via modbus from multiple sensor boards and makes it available to a PC via USB. The system uses ethernet cables for communication and to power the slave boards from the master.
Modbus Air Quality Sensor Network
The system is Arduino based using the Atmel ATSAMD21G18A-AU processor. It consists of a number of Sensors Boards which can use either the Adafruit BME280 or BME680 sensor boards to measure air quality. A Master PCB collects the data via modbus from multiple sensor boards and makes it available to a PC via USB. The system uses ethernet cables for communication and to power the slave boards from the master.
Modbus Air Quality Sensor Network
9485527
This is a speicalized GPS tracking device which uses SigFox for communication. The device stays in a deep sleep mode until it experiences over 60g of acceleration at which point it then wakes up a GPS and transmits it's location via SigFox radio. The units are required to function for 7 years without changing batteries.
SigFox Tracking System
This is a speicalized GPS tracking device which uses SigFox for communication. The device stays in a deep sleep mode until it experiences over 60g of acceleration at which point it then wakes up a GPS and transmits it's location via SigFox radio. The units are required to function for 7 years without changing batteries.
SigFox Tracking System
This is a speicalized GPS tracking device which uses SigFox for communication. The device stays in a deep sleep mode until it experiences over 60g of acceleration at which point it then wakes up a GPS and transmits it's location via SigFox radio. The units are required to function for 7 years without changing batteries.
SigFox Tracking System
5897061
Surface Defect Inspection in Steel Bars using Thermal Imagin
8901790
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
8870321
Spectex Wedge Wire Filter Imaging QC Inspector (LabVIEW)
8889572
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
10869102
The system is Arduino based using the Atmel ATSAMD21G18A-AU processor. It consists of a number of Sensors Boards which can use either the Adafruit BME280 or BME680 sensor boards to measure air quality. A Master PCB collects the data via modbus from multiple sensor boards and makes it available to a PC via USB. The system uses ethernet cables for communication and to power the slave boards from the master.
Modbus Air Quality Sensor Network
The system is Arduino based using the Atmel ATSAMD21G18A-AU processor. It consists of a number of Sensors Boards which can use either the Adafruit BME280 or BME680 sensor boards to measure air quality. A Master PCB collects the data via modbus from multiple sensor boards and makes it available to a PC via USB. The system uses ethernet cables for communication and to power the slave boards from the master.
Modbus Air Quality Sensor Network
The system is Arduino based using the Atmel ATSAMD21G18A-AU processor. It consists of a number of Sensors Boards which can use either the Adafruit BME280 or BME680 sensor boards to measure air quality. A Master PCB collects the data via modbus from multiple sensor boards and makes it available to a PC via USB. The system uses ethernet cables for communication and to power the slave boards from the master.
Modbus Air Quality Sensor Network
9485527
This is a speicalized GPS tracking device which uses SigFox for communication. The device stays in a deep sleep mode until it experiences over 60g of acceleration at which point it then wakes up a GPS and transmits it's location via SigFox radio. The units are required to function for 7 years without changing batteries.
SigFox Tracking System
This is a speicalized GPS tracking device which uses SigFox for communication. The device stays in a deep sleep mode until it experiences over 60g of acceleration at which point it then wakes up a GPS and transmits it's location via SigFox radio. The units are required to function for 7 years without changing batteries.
SigFox Tracking System
This is a speicalized GPS tracking device which uses SigFox for communication. The device stays in a deep sleep mode until it experiences over 60g of acceleration at which point it then wakes up a GPS and transmits it's location via SigFox radio. The units are required to function for 7 years without changing batteries.
SigFox Tracking System
5897061
Surface Defect Inspection in Steel Bars using Thermal Imagin
8901790
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
This system is a timing system used for the competitive discipline of canopy pilloting (https://www.fai.org/page/isc-canopy-piloting). It is unusual in that a timing precision of 1ms is required for this sport. The system consist of up to 8 optical gates and central processor. The gates consist of a laser projector and a custom PIN diode based optical receiver and each gate has a siren which gives audible feedback to the contestant when the beam is broken. The processor is a custom PCB based using an Atmel ATmega128 and performs the following functions: 1) Provides power to the recievers, either from the built in battery or mains power supply. 2) Monitors the level of the signal indicating the laser brightness at the reciever 3) Performs the millisecond timing function when gates are broken in the correct sequence 4) Provides data via USB to a PC including gate continuous light levels, timing results and fault signals , eg, if the gate lasers become misaligned.
InTime Skydiving Timing System
8870321
Spectex Wedge Wire Filter Imaging QC Inspector (LabVIEW)
8889572
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System
The price of tobacco leaves is dependent on a complex grading system which includes factors such as leaf type, colour, amount of damage and disease (spotting). Grading involves measuring the colour, shape, amount of damage, vein density and spotting. The measurement must be independant of the orientation of the leaf. The system backlights the leaves and uses complex image processing algorithms to measure these features using Labview and IMAQ Vision. A machine learning type algorithm is implemented to allow continuous improvement of the grading accuracy.
LabVIEW Tobacco Leaf Grading Imaging System

Avaliações

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5,0
$100,00 USD
Arduino Due to Atmel Code Transcriptions
Besides the professional aspects, which are always one step to be promptly solved from a highly skilled and experienced view, he is a great, trustable, gentle person.
Microcontroller
Arduino
Electronic Design
PCB Design and Layout
Atmel
Avatar do Usuário
Bandeira do(a) Juan A.
@CentraDev
•
há 6 meses
5,0
$750,00 USD
Project for Michael W. -- 2
Michael delivered the work successfully, as per the requirements. He is clearly an expert in machine + vision system and LABVIEW.
C Programming
Electronics
Microcontroller
Software Architecture
LabVIEW
+1 mais
H
Bandeira do(a) Hafiz Z.
@hafizmzin
•
há 2 anos
5,0
€600,00 EUR
CAN based sensor system based on Arduino Ecosystem
Very good communicatio, Pragmatic and tackles problems like a real developer should!
C Programming
Electronics
Microcontroller
Circuit Design
CAN Bus
W
Bandeira do(a) Mikael L.
@wappen
•
há 2 anos
0,0
$370,00 USD
Help in understanding and documenting some 8052 code
The project is not completed according to the dispute
C Programming
Electronics
Microcontroller
S
Bandeira do(a) Thomas K.
@southofnorth
•
há 2 anos
4,4
€150,00 EUR
I need a Labview Programmer
Michael was very helpful and knowledgeable. He also has a good sense of humor and the communication was hassle free.
LabVIEW
T
Bandeira do(a) Tiago D.
@tiagolopes3
•
há 3 anos

Experiência

R&D Engineer and Technical Director

Westplex (Pty) Ltd
mai. 2011 - Atual
Implementation of projects and products in the industrial sector such as steel production, automobile industry, mining, petro-chemical, railtways, food and consumer products, automation, etc. Assesment of requirements, specification of solution and implementation of hardware and software solutions.

R&D Engineer

Westplex (Pty) Ltd
abr. 2001 - mai. 2011 (10 anos, 1 mês)
Design and implementation of projects and products in the industrial sector such as steel production, automobile industry, mining, petro-chemical, railtways, food and xonsumer products, automation, etc. Assesment of requirements, specification of solution and implementation of hardware and software solutions. Management of subordinates and sub-contractors

Musician

Sugardrive
jan. 1995 - abr. 2001 (6 anos, 3 meses)
Composition, guitar and electronica for live and recording bands Sugardrive (https://sugardrive.bandcamp.com/) and One Mighty Atom (https://onemightyatom.bandcamp.com/) Sugardrive performed extensively through South Africa as well as in the UK and Australia, had several number on radio hits and won three South African Music awards.

Educação

Bsc Electrical Engineering

University of the Witwatersrand, South Africa 1988 - 1994
(6 anos)

Qualificações

Certified Labview Developer

National Instruments
2018
The Certified LabVIEW Developer (CLD) exam verifies the user’s ability to design and develop functional programs while minimizing development time and ensuring maintainability through proper documentation and style. Certified Developers can provide technical leadership to less experienced engineers, helping ensure their team is following best practices and becoming more competent and efficient LabVIEW programmers.

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Certificações

uk_english1.png UK English 1 85%

Principais Habilidades

LabVIEW 5
Electronics 4
Electrical Engineering 2
Arduino 2
Electronic Design 1

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