3D Printed Scale Model - Revision history

Marcin: /* Building 2 Homes in 3 Months with Initial Cohort */

2026-05-13T19:07:53Z

Building 2 Homes in 3 Months with Initial Cohort

← Older revision		Revision as of 19:07, 13 May 2026
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	* 1 to 10 scale model can be printed on any consumer printer and it’s worth doing		* 1 to 10 scale model can be printed on any consumer printer and it’s worth doing
	* This is also an entryway to 3-D printed component holders and blocking - such as Ute Chan blocking or plumbing/electrical boxes and holders printed as assemblies. For locating assemblies, the useful printing size would be 4 foot wide to spend the width of a standard house module.		* This is also an entryway to 3-D printed component holders and blocking - such as Ute Chan blocking or plumbing/electrical boxes and holders printed as assemblies. For locating assemblies, the useful printing size would be 4 foot wide to spend the width of a standard house module.

	~~=Building 2 Homes in 3 Months with Initial Cohort=~~

	= OSE 12-Week Pipeline: 2 Homes in 3 Months (24-Person Crew) =		= OSE 12-Week Pipeline: 2 Homes in 3 Months (24-Person Crew) =

Marcin: /* Scale Model Training Impact Summary */

2026-05-13T19:06:56Z

Scale Model Training Impact Summary

← Older revision		Revision as of 19:06, 13 May 2026
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	= Scale Model Training Impact Summary =		= Scale Model Training Impact Summary =

			'''The [[Learning Compression Factor]] is remarkable:'''

	{\| class="wikitable sortable"		{\| class="wikitable sortable"

Marcin: /* Thesis Statement */

2026-03-31T00:10:01Z

Thesis Statement

← Older revision		Revision as of 00:10, 31 March 2026
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	Scale models are a cognitive compression technology that translate full-scale construction complexity into manipulable representations, enabling accelerated acquisition of systems thinking, sequencing logic, spatial reasoning, and integration skills across the entire building lifecycle—from foundation to photovoltaics—while deliberately excluding material, force, and tool-based skill domains that require full-scale execution.		Scale models are a cognitive compression technology that translate full-scale construction complexity into manipulable representations, enabling accelerated acquisition of systems thinking, sequencing logic, spatial reasoning, and integration skills across the entire building lifecycle—from foundation to photovoltaics—while deliberately excluding material, force, and tool-based skill domains that require full-scale execution.

			=Uses=
			*System integration learning
			*can do real life scale or near life scale models for actual screwing or attachment
			*can do atomic models for purring together modules from parts
			*can do monolithic models with less teachability

	= Bottom Line =		= Bottom Line =

Marcin: /* OSE 12-Week Pipeline: 2 Homes in 3 Months (24-Person Crew) */

2026-03-28T00:01:52Z

OSE 12-Week Pipeline: 2 Homes in 3 Months (24-Person Crew)

← Older revision		Revision as of 00:01, 28 March 2026
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	= OSE 12-Week Pipeline: 2 Homes in 3 Months (24-Person Crew) =		= OSE 12-Week Pipeline: 2 Homes in 3 Months (24-Person Crew) =

			Teaching-embedded design - crew 1 teaches crew 2.

	{\| class="wikitable"		{\| class="wikitable"

Marcin: /* Building 2 Homes in 3 Months with Initial Cohort */

2026-03-27T23:59:59Z

Building 2 Homes in 3 Months with Initial Cohort

← Older revision		Revision as of 23:59, 27 March 2026
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	=Building 2 Homes in 3 Months with Initial Cohort=		=Building 2 Homes in 3 Months with Initial Cohort=

			= OSE 12-Week Pipeline: 2 Homes in 3 Months (24-Person Crew) =

			{\| class="wikitable"
			! Phase !! Duration !! Crew Allocation !! Primary Output !! Learning Focus !! Throughput Contribution !! Key Metrics / Targets
			\|-
			\| Phase 0: 1:10 Scale Model Build (Full House)
			\| 1–2 days
			\| 24 people (all-hands)
			\| Complete miniature house assembled from parts/modules
			\| Cognitive: systems, sequencing, interfaces (structure + MEP)
			\| Eliminates early confusion; enables parallel work immediately
			\| 60–90% cognitive domain learned; sequencing clarity established Day 2
			\|-
			\| Phase 1: Rapid Learning Facility (Kitted Tasks)
			\| 3–5 days
			\| 24 people (rotating stations)
			\| 20 trade micro-skills practiced (cutting, fastening, wiring, plumbing, etc.)
			\| Procedural: tool use, standard work, quality criteria
			\| Reduces supervision load; standardizes methods before field
			\| Task cycle times defined; first-pass yield ≥80% on kits
			\|-
			\| Phase 2A: Home #1 – Foundation & Framing
			\| Weeks 1–3
			\| 12 people on Home #1; 12 people on staging/Home #2 prep
			\| Slab or foundation; wall modules; roof structure
			\| Integration: apply sequence + module interfaces at full scale
			\| Establishes rhythm; parallel module fabrication + install
			\| Shell complete by end of Week 3
			\|-
			\| Phase 2B: Home #1 – MEP Rough-In + Envelope
			\| Weeks 4–6
			\| 12 people on Home #1; 12 people on Home #2 (foundation + framing)
			\| Electrical, plumbing, HVAC rough-in; sheathing, roofing, WRB, windows/doors
			\| Cross-trade coordination; clash avoidance
			\| Overlap of trades enabled by prior cognitive alignment
			\| Rough-in complete; dried-in by Week 6
			\|-
			\| Phase 3A: Home #1 – Interior & Finishes
			\| Weeks 7–9
			\| 12 people on Home #1; 12 people on Home #2 (MEP + envelope)
			\| Drywall, interior finishes, fixtures, trim
			\| Quality, sequencing of finishes, punch-list discipline
			\| Completion of Home #1 while Home #2 advances in parallel
			\| Substantial completion of Home #1 by Week 9
			\|-
			\| Phase 3B: Home #2 – Interior & Finishes
			\| Weeks 10–12
			\| 12 people on Home #2; 12 people on punch/closeout + site work
			\| Drywall, finishes, fixtures; site/landscape; final inspections
			\| Throughput optimization; defect reduction
			\| Second home completes without ramp-up penalty
			\| Substantial completion of Home #2 by Week 12
			\|-
			\| Continuous: QA / Coordination / Logistics
			\| Weeks 1–12
			\| 2–4 rotating leads across both crews
			\| Daily standups, constraint removal, material flow
			\| Executive: planning, scheduling, budgeting, risk
			\| Maintains flow; prevents idle time and rework
			\| Rework ≤5–10% of labor; material availability ≥95%
			\|-
			\| System Effect (from Phases 0–1)
			\| Front-loaded (Days 1–7)
			\| Entire crew
			\| Shared mental model + standardized work
			\| Cognitive + procedural alignment
			\| Enables safe parallelization of two homes
			\| 2–4× overall schedule compression; 30–80% error reduction (type-dependent)
			\|}

Marcin: /* Detail */

2026-03-27T23:59:45Z

Detail

← Older revision		Revision as of 23:59, 27 March 2026
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	\|}		\|}

	=~~Detail~~=		=Notes=

	*Can practice, logical assembly wiring, plumbing.		*Can practice, logical assembly wiring, plumbing.
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	* 1 to 10 scale model can be printed on any consumer printer and it’s worth doing		* 1 to 10 scale model can be printed on any consumer printer and it’s worth doing
	* This is also an entryway to 3-D printed component holders and blocking - such as Ute Chan blocking or plumbing/electrical boxes and holders printed as assemblies. For locating assemblies, the useful printing size would be 4 foot wide to spend the width of a standard house module.		* This is also an entryway to 3-D printed component holders and blocking - such as Ute Chan blocking or plumbing/electrical boxes and holders printed as assemblies. For locating assemblies, the useful printing size would be 4 foot wide to spend the width of a standard house module.

			=Building 2 Homes in 3 Months with Initial Cohort=

Marcin: /* Critical Design Requirements (Otherwise It’s Mediocre) */

2026-03-27T23:56:23Z

Critical Design Requirements (Otherwise It’s Mediocre)

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 ; Direct mapping to CAD + sourcing
 : Every part corresponds to real-world equivalent
 =Detail=

Marcin: /* Bottom Line */

2026-03-27T23:46:22Z

Bottom Line

← Older revision		Revision as of 23:46, 27 March 2026
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	= Bottom Line =		= Bottom Line =

	A 1:10 complete build model is one of the best tools for teaching how a house works as an integrated system, how modules fit together, and what the correct build sequence is. It is excellent for systems understanding, spatial reasoning, and construction logic, but almost useless for teaching real construction skill such as cutting, fastening, handling materials, tolerances, or jobsite execution. Its value is highest when it maps directly to the real house design and is used as the first stage in a training pipeline: model build, then kitted hands-on exercises, then full-scale = Critical Design Requirements (Otherwise It’s Mediocre) =		A 1:10 complete build model is one of the best tools for teaching how a house works as an integrated system, how modules fit together, and what the correct build sequence is. It is excellent for systems understanding, spatial reasoning, and construction logic, but almost useless for teaching real construction skill such as cutting, fastening, handling materials, tolerances, or jobsite execution. Its value is highest when it maps directly to the real house design and is used as the first stage in a training pipeline: model build, then kitted hands-on exercises, then full-scale

			= Critical Design Requirements (Otherwise It’s Mediocre) =

	To make a 1:10 model actually worth doing:		To make a 1:10 model actually worth doing:

Marcin: /* Bottom Line */

2026-03-27T23:45:46Z

Bottom Line

@@ Line 7: / Line 7: @@
 = Bottom Line =
-A 1:10 complete build model is one of the best tools for teaching how a house works as an integrated system, how modules fit together, and what the correct build sequence is. It is excellent for systems understanding, spatial reasoning, and construction logic, but almost useless for teaching real construction skill such as cutting, fastening, handling materials, tolerances, or jobsite execution. Its value is highest when it maps directly to the real house design and is used as the first stage in a training pipeline: model build, then kitted hands-on exercises, then full-scale construction.
+A 1:10 complete build model is one of the best tools for teaching how a house works as an integrated system, how modules fit together, and what the correct build sequence is. It is excellent for systems understanding, spatial reasoning, and construction logic, but almost useless for teaching real construction skill such as cutting, fastening, handling materials, tolerances, or jobsite execution. Its value is highest when it maps directly to the real house design and is used as the first stage in a training pipeline: model build, then kitted hands-on exercises, then full-scale = Critical Design Requirements (Otherwise It’s Mediocre) =
 =Detail=

Marcin: /* = Bottom Line */

2026-03-27T23:38:19Z

= Bottom Line

← Older revision		Revision as of 23:38, 27 March 2026
Line 5:		Line 5:
	Scale models are a cognitive compression technology that translate full-scale construction complexity into manipulable representations, enabling accelerated acquisition of systems thinking, sequencing logic, spatial reasoning, and integration skills across the entire building lifecycle—from foundation to photovoltaics—while deliberately excluding material, force, and tool-based skill domains that require full-scale execution.		Scale models are a cognitive compression technology that translate full-scale construction complexity into manipulable representations, enabling accelerated acquisition of systems thinking, sequencing logic, spatial reasoning, and integration skills across the entire building lifecycle—from foundation to photovoltaics—while deliberately excluding material, force, and tool-based skill domains that require full-scale execution.

	= = Bottom Line =		= Bottom Line =

	A 1:10 complete build model is one of the best tools for teaching how a house works as an integrated system, how modules fit together, and what the correct build sequence is. It is excellent for systems understanding, spatial reasoning, and construction logic, but almost useless for teaching real construction skill such as cutting, fastening, handling materials, tolerances, or jobsite execution. Its value is highest when it maps directly to the real house design and is used as the first stage in a training pipeline: model build, then kitted hands-on exercises, then full-scale construction.		A 1:10 complete build model is one of the best tools for teaching how a house works as an integrated system, how modules fit together, and what the correct build sequence is. It is excellent for systems understanding, spatial reasoning, and construction logic, but almost useless for teaching real construction skill such as cutting, fastening, handling materials, tolerances, or jobsite execution. Its value is highest when it maps directly to the real house design and is used as the first stage in a training pipeline: model build, then kitted hands-on exercises, then full-scale construction.