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$50 USD / hour
Flag of UNITED STATES
el cajon, united states
$50 USD / hour
It's currently 8:23 AM here
Joined June 12, 2018
0 Recommendations

Scott M.

@OldGlory747

 0.0 (0 reviews)
4.0
4.0
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$50 USD / hour
Flag of UNITED STATES
el cajon, united states
$50 USD / hour
100%
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Industrial/Product Designer

If you're looking for someone who brings quality design work, communication, and capability, look no further. I have over ten years experience designing and creating new devices and items both for myself and clients. In the last two years, my work has resulted in over $2.2M USD in revenues for clients through creating new capabilities for their consumers. I work with a variety of clients, often people who are specialists in their fields, who need help bringing their idea to life. I work with these individuals to create an initial design, prove out core concepts, create iterative prototypes, and finalize a manufacturing-ready design. I also bring the renowned quality, professionalism, and client communications grown from my time with the 'Big 4' consulting firm, Ernst & Young. I love working with startups, small and medium sized organizations, and even have experience with large international corporations as well.
Freelancer Electronics Engineers United States
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Portfolio

4224971
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
4224970
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
4224966
Ryan of Avon Vents was looking for someone to help create a CAD drawing of a standard Vent/Register for use as a Template for some custom designs. He found me, and I was able to take his design requirements and turn around a fully defined and manufacturable template with express design limitations and industry-quality drawings.
Custom Vent Register
Ryan of Avon Vents was looking for someone to help create a CAD drawing of a standard Vent/Register for use as a Template for some custom designs. He found me, and I was able to take his design requirements and turn around a fully defined and manufacturable template with express design limitations and industry-quality drawings.
Custom Vent Register
Ryan of Avon Vents was looking for someone to help create a CAD drawing of a standard Vent/Register for use as a Template for some custom designs. He found me, and I was able to take his design requirements and turn around a fully defined and manufacturable template with express design limitations and industry-quality drawings.
Custom Vent Register
4224971
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
My client owns an escape room, and was looking into creating a new type of live interactive game. Some of the game elements required literally hundreds of inputs to function as desired, while others required dozens of outputs for delivering information, either as signals, lights, or other effects. The other limitation would be that a single computer would drive all operations through connections to an unspecified microcontroller. To accomodate this, I designed a small board centered around the NXP PCA9698 GPIO Expander. On the one hand, it was prepped and ready to be hooked up to a 4 wire bus. Until the capacitance across the communication wires grew too large, or you filled all 64 addresses, you were free to scale anywhere from 40 to 2,560 Inputs or Outputs. With that level of control, interrupts, and state management, this was a solution which would get my client where they needed to be. All in all, not too shabby.
I/O Expander
4224970
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
Wes Simonson, a professional Scottish Bagpiper, wanted to experiment with the effect of different materials on the resonance, sound quality, and tone for his bagpipe. We collaborated across states to identify the measurements to draft the prototype body. Using a wood infused thermoplastic filament and a fused filament fabrication 3d printer, I created a 1:1 scale solid body based on the design, and shipped it to Wes. He was able to install the part into his existing bagpipes, and recorded audio of both the original and the 3d printed component. With an audio spectrum analyzer, I reviewed the audio from each, and was able to prove that we had created a functional replica of the part. Now we are on to subsequent testing with new materials and geometries using mathematical modeling and additional tests.
3D Printed Bagpipe Tenor Drone
4224966
Ryan of Avon Vents was looking for someone to help create a CAD drawing of a standard Vent/Register for use as a Template for some custom designs. He found me, and I was able to take his design requirements and turn around a fully defined and manufacturable template with express design limitations and industry-quality drawings.
Custom Vent Register
Ryan of Avon Vents was looking for someone to help create a CAD drawing of a standard Vent/Register for use as a Template for some custom designs. He found me, and I was able to take his design requirements and turn around a fully defined and manufacturable template with express design limitations and industry-quality drawings.
Custom Vent Register
Ryan of Avon Vents was looking for someone to help create a CAD drawing of a standard Vent/Register for use as a Template for some custom designs. He found me, and I was able to take his design requirements and turn around a fully defined and manufacturable template with express design limitations and industry-quality drawings.
Custom Vent Register

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Engineering
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