Firmware
A pet wearable has one job above all others: be awake when something happens. A dog doesn't schedule its zoomies, and a collar that has quietly wedged itself into an infinite loop is, for all practical purposes, dead — it just hasn't fallen off the dog yet.
Every successful hardware product begins as a prototype. But a prototype and a product solve fundamentally different problems. A prototype answers the question: "Can this work?" A product must answer a much harder question: "Can this be built repeatedly, assembled efficiently, shipped reliably, and trusted by users
Hardware
In the early stages of hardware development, it is incredibly common for engineers to imagine assembly as a perfectly linear, flawless process. In this idealised world, components arrive exactly on time, boards get populated in a strict sequence, firmware is flashed immediately after assembly, cables are connected correctly, and every
Firmware
A collar-worn pet tracker lives in about the most hostile environment a storage engineer could design on purpose. The battery is tiny, the dog is unpredictable, and the wireless link to the hub drops every time the dog wanders behind the couch. Now picture the worst possible moment: the battery
Firmware
The pipeline ran. Interrupts fired. DMA counters incremented. Every status register said the system was healthy. The buffers were empty. Three days of debugging, one register field.
AI
A step counter on a dog's collar sounds like it should be a solved problem. After all, human pedometers have shipped in phones and watches for over a decade. But a dog is not a human walking upright with a phone in their pocket. The sensor sits on
Product
How Early Mechanical Decisions Reduced Assembly Complexity One of the most common mistakes in hardware development is treating assembly as something that happens after design. In reality, assembly begins the moment the first CAD sketch is created. A product may be mechanically sound, aesthetically refined, and functionally complete, yet still
Hardware
Factory bring-up is where hardware design meets operational reality. In the lab, engineers can afford patience. They have debug probes, oscilloscopes, serial logs, source code, firmware builds, and the people who designed the board sitting nearby. If something does not respond, someone can flash a test image, jumper a pin,
Software
Pet healthcare records are inherently unstructured.Vaccination certificates arrive as photos taken at a clinic. Blood reports are shared as PDFs. Prescription records are forwarded through messaging apps. Over time, these documents become scattered across phones, inboxes, and folders, making them difficult to search, track, or act upon when needed.
Technology, Insights and Ideas.
Software
A pet parent opens EverWiz chat and asks, “Is Milo overdue for his rabies booster?” A generic LLM can write a thoughtful essay about rabies vaccination schedules. What it cannot do out of the box is look at this pet's actual vaccination card and give a real answer.
Firmware
A pet wearable has one job above all others: be awake when something happens. A dog doesn't schedule its zoomies, and a collar that has quietly wedged itself into an infinite loop is, for all practical purposes, dead — it just hasn't fallen off the dog yet.
Every successful hardware product begins as a prototype. But a prototype and a product solve fundamentally different problems. A prototype answers the question: "Can this work?" A product must answer a much harder question: "Can this be built repeatedly, assembled efficiently, shipped reliably, and trusted by users
Hardware
In the early stages of hardware development, it is incredibly common for engineers to imagine assembly as a perfectly linear, flawless process. In this idealised world, components arrive exactly on time, boards get populated in a strict sequence, firmware is flashed immediately after assembly, cables are connected correctly, and every
Firmware
A collar-worn pet tracker lives in about the most hostile environment a storage engineer could design on purpose. The battery is tiny, the dog is unpredictable, and the wireless link to the hub drops every time the dog wanders behind the couch. Now picture the worst possible moment: the battery
Firmware
The pipeline ran. Interrupts fired. DMA counters incremented. Every status register said the system was healthy. The buffers were empty. Three days of debugging, one register field.
AI
A step counter on a dog's collar sounds like it should be a solved problem. After all, human pedometers have shipped in phones and watches for over a decade. But a dog is not a human walking upright with a phone in their pocket. The sensor sits on
Product
How Early Mechanical Decisions Reduced Assembly Complexity One of the most common mistakes in hardware development is treating assembly as something that happens after design. In reality, assembly begins the moment the first CAD sketch is created. A product may be mechanically sound, aesthetically refined, and functionally complete, yet still
Hardware
Factory bring-up is where hardware design meets operational reality. In the lab, engineers can afford patience. They have debug probes, oscilloscopes, serial logs, source code, firmware builds, and the people who designed the board sitting nearby. If something does not respond, someone can flash a test image, jumper a pin,
Software
Pet healthcare records are inherently unstructured.Vaccination certificates arrive as photos taken at a clinic. Blood reports are shared as PDFs. Prescription records are forwarded through messaging apps. Over time, these documents become scattered across phones, inboxes, and folders, making them difficult to search, track, or act upon when needed.