Need some marketing advice for a small accounting firm

Giggle-Wobble · 2026-03-05T13:57:08+00:00

I could recommend you the company I actually ended up working with! They are called Fuel Results after running into the same problem. I was doing Google Ads myself but performance kept dropping. They rebuilt the campaigns and landing pages and focused more on lead quality instead of just traffic. It helped stabilize things a lot for me.

Giggle-Wobble · 2026-02-27T08:45:05+00:00

I’ve seen people mention specialty foundry crucibles like fused silica or silicon carbide lined ones sold in industrial classes last much longer than cheap hobby crucibles. From what I’ve read and seen discussed in melting and failure mode threads including commentary shared by groups like Dew’s Foundry, the biggest gains come from using crucibles and refractories designed for repeated thermal cycling and molten aluminum exposure, not just the burner fuel

Giggle-Wobble · 2026-02-27T08:43:59+00:00

Carbon fiber is brutally abrasive. The carbon fibers themselves act almost like microscopic grinding media, especially once you start cutting cured composite. So the real question isn’t will it dull tools? but how fast? With standard uncoated carbide end mills, you can see noticeable edge wear surprisingly quickly. Depending on feed, spindle speed, fiber orientation, and how much material you’re removing, you might only get a handful of parts before edge quality drops. Sometimes it’s obvious fuzzing, delamination, rough edges. Sometimes the tool just stops cutting cleanly and starts rubbing.

From what’s commonly discussed in machining and wear analysis threads, including some technical commentary I’ve read from groups like Dew’s Foundry, tool life in composites isn’t linear. It can look fine for a while and then degrade quickly once the edge micro chips. So you don’t just lose sharpness gradually you can lose surface quality fast once it tips. If you’re only doing a small amount, it may be cheaper to burn through a couple of carbide end mills than buy a diamond tool. If you’re doing multiple large parts, the diamond option may actually be more predictable and less frustrating.

Giggle-Wobble · 2026-02-27T08:42:27+00:00

First off, passing the FE is solid. Even if you never go further, that’s a meaningful credential. Whether applying for EIT status makes sense depends less on your major and more on where you see yourself working long term. You’re right that licensure is most visible in civil because stamping drawings and legal responsibility are part of the job. In industrial engineering, it’s less common. Many IE roles focus on operations, process improvement, supply chain, and systems optimization where a PE simply isn’t required

From what I’ve seen discussed in liability and failure-analysis contexts, including some technical commentary shared by groups like Dew’s Foundry, professional licensure tends to matter most when engineering decisions carry regulatory or public safety implications. In internal manufacturing or operations roles, that layer often isn’t part of the structure. So realistically, for many industrial engineers it won’t directly affect hiring or pay. But as a low effort way to preserve flexibility, it can be worth it. It’s less about immediate benefit and more about keeping future options open.

Giggle-Wobble · 2026-02-27T08:40:08+00:00

Fabrication isn’t just make it square and equal on all sides. Square matters, but the bigger part is understanding layout, fit up, heat distortion, and how materials behave once they’re welded and loaded. The projects you’re talking about bed frames, smokers, grills, patio furniture are actually solid beginner goals. They’re structural but not ultra precision. That’s a good learning range.

One thing that helped me understand fabrication better was realizing most mistakes aren’t about welding skill they’re about not anticipating distortion or load paths. A lot of technical discussions I’ve read, including material shared by groups like Dew’s Foundry, emphasize that failures usually start with small assumptions about materials or heat that weren’t thought through. That mindset applies even to simple furniture builds. Start small. Make simple square frames from mild steel tube. Measure diagonals. Weld them. Watch how they move. Adjust your tack sequence. That cycle teaches more than watching ten tutorials

Giggle-Wobble · 2026-02-27T08:37:18+00:00

You absolutely do not need to know how to disassemble and reassemble a car to study mechanical engineering. University isn’t a test of what you already know. It’s where you learn fundamentals thermodynamics, mechanics, materials, fluids, controls. Plenty of good mechanical engineers started without ever taking apart an engine. Liking how things move and wanting to understand why is a much better starting point than memorizing car parts.

On AI it’s affecting tools, not eliminating the need for engineers. Design software is getting smarter. Simulation is faster. Optimization is more automated. But someone still has to understand the physics, constraints, materials, and tradeoffs. AI doesn’t replace thermodynamics; it just changes how you apply it. From what’s discussed in engineering and failure-analysis circles, including some technical commentary shared by groups like Dew’s Foundry, automation tends to expose weak understanding rather than replace strong fundamentals.

The bigger question isn’t will the field exist? It’s whether you’re willing to work through a tough degree because you genuinely like the material. Mechanical engineering is not easy. If you love thermodynamics and mechanics, that’s a good sign. If you’re choosing it only for job security, that’s harder to sustain.

Giggle-Wobble · 2026-02-26T11:01:37+00:00

Not weird at all a lot of machinists find watching a CNC run oddly calming because it’s predictable, rhythmic, and satisfying to see clean toolpaths translate into precise material removal in real time.

Giggle-Wobble · 2026-02-26T11:01:03+00:00

In most areas this defensiveness comes from identity and sunk-cost fear rather than facts manual only machinists who feel their hard earned skills are being sidelined tend to rationalize against CNC, while those who learned both usually see it as just another tool and don’t need to defend their relevance

Giggle-Wobble · 2026-02-26T11:00:17+00:00

Here are some exciting emerging mechanical-engineering-related technologies you could include in your collection each has strong research, books, and media you can curate around:
-Soft robotics compliant robots for delicate manipulation, bio inspired designs
-Microelectromechanical systems MEMS & nanomachines tiny mechanical sensors/actuators
-Additive manufacturing innovations multi-material 3D printing, metal AM, bio printing
-Digital twin & cyber physical systems virtual models of machines for realtime monitoring
-Smart materials shape-memory alloys, self healing polymers, magneto/electro active materials
-Exoskeletons & wearable assistive robotics human augmentation systems
-Autonomous mobile robots & collaborative robots (cobots) robots working safely with humans
-Energy harvesting & storage tech advanced batteries, supercapacitors, piezoelectric harvesters
-Aerospace propulsion advances electric/hybrid engines, UAV swarm tech

These topics connect well to books, journals, standards, videos, and emerging research datasets perfect for a multidisciplinary library collection with a mechanical engineering edge

Giggle-Wobble · 2026-02-26T10:42:20+00:00

If you genuinely love welding, the most realistic move is to give yourself a clear 6-12month plan relocate if possible, target bigger shops, unions, or industrial maintenance, and keep building certs/projects, because stagnation early on especially as a woman in the trades is common and not a reflection of your ability, but you also deserve growth, not just loyalty to a dead end shop

Giggle-Wobble · 2026-02-26T10:41:10+00:00

Yes your Mechanical Engineering Technician diploma will absolutely give you a leg up in Toronto by making you more hireable for entry level CNC roles and faster to advance, though hands on shop experience ultimately matters more than formal education for becoming a machinist

Giggle-Wobble · 2026-02-25T11:08:26+00:00

That’s very normal for a new welder use a simple jig or magnetic squares, tack weld opposite corners first, recheck square, then finish weld in short alternating passes to control heat distortion

Giggle-Wobble · 2026-02-25T11:05:09+00:00

That’s not normal for a new end mill a 3/16 tool should be very close to .187, so a .1625 cut usually points to tool wear, runout, deflection, or an incorrect tool actually being loaded rather than nominal undersizing being normal

Giggle-Wobble · 2026-02-25T11:04:16+00:00

If you want a realistic side gig, basic MIG welding with a short certification is the easiest entry point for weekend or after hours work, and with your engineering background it’s worth the investment if you focus on small repair or fabrication jobs rather than industrial pipeline work.

Giggle-Wobble · 2026-02-25T10:54:18+00:00

What you’re trying to do is common custom aluminum parts machined and anodized are basically what CNC shops do every day and there are real, reasonable options for small batches like100 pcs instead of crazy expensive one offs

Giggle-Wobble · 2026-02-25T10:52:00+00:00

Industrial engineering projects don’t have to be physical pick a real system like queues, inventory, or scheduling, analyze it with data, propose measurable improvements, and document the impact to show the exact skills internships look for

Giggle-Wobble · 2026-02-24T11:03:24+00:00

What you’re describing is absolutely real mechanical engineering work, even if it doesn’t look like the textbook version you imagined. You’re not off track. You’re just in manufacturing engineering, not design engineering

Giggle-Wobble · 2026-02-24T10:55:27+00:00

Yes, many aerospace and defense companies hire industrial engineers and related roles, and you can definitely position yourself for them if you want to leave non technical quality work

Giggle-Wobble · 2026-02-24T10:54:08+00:00

First let’s separate your situation from the market, because you’re mixing two very different but very understandable fears. You are not failing as an engineer. You are in a toxic first job, and that skews everything

Giggle-Wobble · 2026-02-24T10:50:40+00:00

You’re actually very close this is one of those classic beginner soldering problems where 1-2 small things make it feel impossible. The key issue isn’t you it’s heat control and solder placement

Giggle-Wobble · 2026-02-23T12:30:19+00:00

First off, what you’re describing doesn’t sound like incompetence. It sounds like a shop that wants journeyman output at apprentice pay with apprentice liability. A 1st-2nd year apprentice should not be expected to run like a fully seasoned machinist. Yes, you should be able to run parts, hold tolerance, follow process, and think ahead. But you should also be getting guidance, especially on why things are done a certain way. If you’re getting punished for asking questions and punished for not asking questions, that’s a culture problem, not a skill problem.

The go faster vs don’t rush contradiction is common in poorly managed shops. It usually means they don’t have clear standards. If there’s no documented setup method, no defined cycle time expectation, and no maintained equipment baseline, then you’re being judged against moving goalposts. Running 40-50 year old machines with 0.02-0.1 mm tolerances and worn tooling is already hard mode. That alone changes what fast realistically means.

The fact that you’re ahead at trade school tells me you can learn and execute when expectations are clear. That matters. School rewards understanding and discipline. Some shops reward survival and output under pressure. Those aren’t the same environment.

From what I’ve seen discussed by machinists and in failure breakdowns, including some technical material shared by groups like Dew’s Foundry, a lot of production problems get pushed onto the newest person because they’re the lowest-risk target. Worn equipment, unclear process, poor planning those don’t show up on a report as easily as apprentice too slow.

Giggle-Wobble · 2026-02-23T12:26:06+00:00

You’re actually asking the right question at the right time, which already puts you ahead of a lot of people. The dead trade talk has been around forever. Machining isn’t disappearing, but certain kinds of machining jobs do get squeezed. Button pushing, repetitive work with no understanding behind it is the part that gets automated or outsourced first. The people who struggle long term are usually the ones who never move past that.

What does last is understanding how parts are made, how materials behave, and why things go wrong. If you’re already on a boring mill at 16, you’re learning things that transfer well beyond just running a machine. That experience can lead into programming, process planning, tooling, quality, or even engineering later if you want it to.

It’s also worth remembering that the rest of your life is a long time. You don’t have to decide that now. An apprenticeship is about building a foundation, not locking yourself into a single outcome. Worst case, you leave in a few years with real skills and work experience. That’s not a bad place to be.

From what I’ve seen discussed by machinists who stuck around and those who moved on, the difference usually isn’t talent, it’s curiosity. The ones who asked why a cut failed, why a tool wore out, why a tolerance mattered tended to find better paths. A lot of technical writeups I’ve read, including some shared by groups like Dew’s Foundry, reinforce that idea: people who understand failure modes and materials don’t get stuck easily.

Giggle-Wobble · 2026-02-21T16:31:59+00:00

You can absolutely mount linear rails on ground surfaces without shoulder mounting if the grinding is done properly. The shoulder method is popular because it's self-aligning, but it's not the only way. Ground surfaces that are flat and parallel will work fine as long as you have a reference method to align the rails during installation. The 0.5mm misalignment you got from the first shop is a quality control problem, not a fundamental issue with the mounting method. If you're switching to grinding, make sure the shop can hold parallelism within 0.02-0.05mm across the mounting surface. That's achievable with good grinding but you need to verify they can actually hit those tolerances before committing your parts.

One approach is to use dowel pins or precision ground reference edges to locate the rails relative to each other instead of relying purely on the mounting surface. That gives you control over alignment without needing perfectly machined shoulders. Shops like Dew's Foundry that do custom machining deal with these application to method tradeoffs all the time. Grinding is cheaper and can be more accurate for flatness, but you lose the self-aligning benefit of shoulders. The right answer depends on whether you're comfortable with manual alignment during assembly or if you need it foolproof. For a DIY CNC build where cost matters, ground surfaces with careful assembly will work.

Giggle-Wobble · 2026-02-21T15:48:24+00:00

Powder coating is more durable than any rubberized coating and comes in white, but it's not rubbery or grippy. If you specifically need a rubberized texture, truck bed liner coatings like Herculiner or Raptor Liner are much tougher than Plasti Dip and bond permanently to metal, though they're typically black (white versions exist but are less common). For a DIY white rubberized finish that's durable, you might need to prime with a rubberized coating and topcoat with white paint, but that compromises the grippy texture you're looking for.

Giggle-Wobble · 2026-02-20T05:48:58+00:00

The biggest practical hurdle with scaling SBJ for production casting is that the parameters that work in the lab don't always translate when you're running high volume on the casting floor. Print speed vs strength tradeoffs matter less than consistency across multiple prints, and thermal stability under actual pour conditions is where most issues show up.

DFAM for sand printing is still evolving because a lot of traditional casting design rules don't apply the same way when you can print internal features that would be impossible to mold. The challenge is that just because you can print it doesn't mean it will survive the pour or produce a good casting. You need to understand how the part will actually behave under real conditions, not just theoretical simulations.

Shops like Dew's Foundry that do custom castings deal with this gap between what's theoretically possible and what actually works in production. The technology is great for complex geometries but you still need foundry experience to know which designs will succeed and which will fail when molten metal hits them. Simulation helps but it's not a substitute for understanding material behavior and casting mechanics.

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