That’s the best and most obtuse title you’ll ever see for a Hackaday post, but surprisingly it’s pretty accurate. [Bob] over at the Sector67 hackerspace took part in a 111-day accelerator program in Shenzhen last year to improve his manufacturing skills. He’s just about ready to release his first product, a Bluetooth device that connects to an ice fishing tip-up. The blog for the device recounts the challenges of taking a project from a circuit to a finished product, and illustrates the difference between building something with an Arduino and selling thousands of devices.
The circuit boards for BlueTipz come in panels of eight, but what’s the best way to populate and solder five thousand devices in a reasonably short amount of time? [Bob] hired a few students from the local college to help him out in assembling all these devices. The plastic enclosures were made at a local plastics manufacturer, but the molds were made in China. The manufacturer needed to modify the molds a bit, but after a few days, [Bob] had five thousand enclosures ready to stuff full of electronics.
With the devices assembled, it’s time for programming, and that means building a programmer. [Bob] put all the guts for the device into a plastic box and 3D-printed a mount for the bare BlueTipz board. Put a board on the mount, press a button, and the tech now has a functioning device in his hands.
Besides manufacturing, there’s also a whole lot of testing that went into the design of BlueTipz. Because this is a device for ice fishing—a cold and potentially windy operating environment—[Bob] built a test rig in a freezer. The test rig triggers the device’s sensor, waits two minutes (the amount of time it would take for an ice fisherman to check the tip-up) and resets. They claim the battery life is good for 600 fish, and with this testing rig they were able to verify their calculated battery life with real-world data: without actually catching six hundred fish, of course.
Not only does [Bob] have a good bit of product development under his belt, he was also kind enough to go over the stuff everyday electronic design just doesn’t cover. Developing a product is something you can only learn by doing, and we’re glad [Bob] chose to share his experiences with us.
The circuit boards for BlueTipz come in panels of eight, but what’s the best way to populate and solder five thousand devices in a reasonably short amount of time? [Bob] hired a few students from the local college to help him out in assembling all these devices. The plastic enclosures were made at a local plastics manufacturer, but the molds were made in China. The manufacturer needed to modify the molds a bit, but after a few days, [Bob] had five thousand enclosures ready to stuff full of electronics.
With the devices assembled, it’s time for programming, and that means building a programmer. [Bob] put all the guts for the device into a plastic box and 3D-printed a mount for the bare BlueTipz board. Put a board on the mount, press a button, and the tech now has a functioning device in his hands.
Besides manufacturing, there’s also a whole lot of testing that went into the design of BlueTipz. Because this is a device for ice fishing—a cold and potentially windy operating environment—[Bob] built a test rig in a freezer. The test rig triggers the device’s sensor, waits two minutes (the amount of time it would take for an ice fisherman to check the tip-up) and resets. They claim the battery life is good for 600 fish, and with this testing rig they were able to verify their calculated battery life with real-world data: without actually catching six hundred fish, of course.
Not only does [Bob] have a good bit of product development under his belt, he was also kind enough to go over the stuff everyday electronic design just doesn’t cover. Developing a product is something you can only learn by doing, and we’re glad [Bob] chose to share his experiences with us.
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