CNC lathe Ti-6Al-4V for Drone

Combination notes

Among Drone projects, this page is the cnc-turning × ti-6al-4v × drone route for Ti-6Al-4V. Applied to drone: CNC lathe (turning) produces concentric diameters, threads, grooves, and short shafts from bar or blank stock. Live-tool cross holes are available when programmed; deep off-axis sculpting is better on a mill. For Drone material choice Ti-6Al-4V: Ti-6Al-4V is used for aerospace and medical strength-to-weight parts in CNC or SLM. Titanium is not anodized like aluminum in this rates table; bead blast, polish, powder coat, and plate are the priced options when compatible. Drone programs care about mass, stiffness, and vibration at motor mounts and arm junctions. Keep wall thickness honest for the chosen process, and prefer finishes that add little mass (bead blast / thin anodize on aluminum). The drone example quote envelope stays 50 × 50 × 20 mm at quantities 1, 10, and 100. Mid prices for this Drone combo come from staging /rates or a priced matrix row—never invented marketing copy.

Industry application notes

For drone programs, CNC lathe on Ti-6Al-4V is positioned as a subtractive route under URL slug cnc-turning. Buyers typically upload STEP/IGES with drone-specific datums; this page does not invent a case study or logo for that upload.

Drone airframes and payload trays in Ti-6Al-4V often need pocketed lightening and hard-point inserts. CNC lathe keeps mass predictable on the 50×50×20 mm quote envelope while real arms scale longer; call fastener patterns and CFRP interface pads on the drawing rather than assuming them here.

Turning-centric drone parts in Ti-6Al-4V should keep OD/ID stacks concentric; cross-drilled drone ports via live tools are optional and may move the job toward mill-turn review.

Cross-links on this page point only to other matrix combinations sharing cnc-turning with different industries or materials—not to fabricated customer stories. Indexing stays gated (noindex while Batch1 preview quality gate applies).

Combo-specific manufacturing notes

Within Drone (drone) programs, note 1: Ti-6Al-4V via CNC lathe (cnc-turning) foregrounds post-process lead stacking. Lock second-op datums after roughing specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 23972).

Within Drone (drone) programs, note 2: Ti-6Al-4V via CNC lathe (cnc-turning) balances powder-coat edge wrap. Call out inspection balloons on critical OD/ID specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24069).

Within Drone (drone) programs, note 3: Ti-6Al-4V via CNC lathe (cnc-turning) guards corrosion margin. Balloon packaging notes for cosmetic faces specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24166).

Within Drone (drone) programs, note 4: Ti-6Al-4V via CNC lathe (cnc-turning) centers tool-access envelope. Declare torque patches on soft alloys specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24263).

Within Drone (drone) programs, note 5: Ti-6Al-4V via CNC lathe (cnc-turning) anchors passivate coverage. Document keep-out for five-axis holders specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24360).

Within Drone (drone) programs, note 6: Ti-6Al-4V via CNC lathe (cnc-turning) isolates thermal path. Separate steady-rest notes on slender turns specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24457).

Within Drone (drone) programs, note 7: Ti-6Al-4V via CNC lathe (cnc-turning) emphasizes vacuum face cleanliness. Capture HIP/heat-treat flags when rates list batch adders specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24554).

Within Drone (drone) programs, note 8: Ti-6Al-4V via CNC lathe (cnc-turning) weights anodize thickness stackup. Freeze thread reliefs before finish specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24651).

Within Drone (drone) programs, note 9: Ti-6Al-4V via CNC lathe (cnc-turning) sequences mass budget. Schedule masked anodize zones when alloy allows specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24748).

Within Drone (drone) programs, note 10: Ti-6Al-4V via CNC lathe (cnc-turning) prioritizes cable egress. Annotate escape holes for powder if SLM specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24845).

Within Drone (drone) programs, note 11: Ti-6Al-4V via CNC lathe (cnc-turning) foregrounds support survivor ribs. Lock second-op datums after roughing specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 24942).

Within Drone (drone) programs, note 12: Ti-6Al-4V via CNC lathe (cnc-turning) balances fixture stiffness. Call out inspection balloons on critical OD/ID specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25039).

Within Drone (drone) programs, note 13: Ti-6Al-4V via CNC lathe (cnc-turning) guards bearing bore stack. Balloon packaging notes for cosmetic faces specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25136).

Within Drone (drone) programs, note 14: Ti-6Al-4V via CNC lathe (cnc-turning) centers chip evacuation. Declare torque patches on soft alloys specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25233).

Within Drone (drone) programs, note 15: Ti-6Al-4V via CNC lathe (cnc-turning) anchors polish lay direction. Document keep-out for five-axis holders specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25330).

Within Drone (drone) programs, note 16: Ti-6Al-4V via CNC lathe (cnc-turning) isolates cosmetic edge break. Separate steady-rest notes on slender turns specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25427).

Within Drone (drone) programs, note 17: Ti-6Al-4V via CNC lathe (cnc-turning) emphasizes post-process lead stacking. Capture HIP/heat-treat flags when rates list batch adders specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25524).

Within Drone (drone) programs, note 18: Ti-6Al-4V via CNC lathe (cnc-turning) weights powder-coat edge wrap. Freeze thread reliefs before finish specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25621).

Within Drone (drone) programs, note 19: Ti-6Al-4V via CNC lathe (cnc-turning) sequences corrosion margin. Schedule masked anodize zones when alloy allows specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25718).

Within Drone (drone) programs, note 20: Ti-6Al-4V via CNC lathe (cnc-turning) prioritizes tool-access envelope. Annotate escape holes for powder if SLM specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25815).

Within Drone (drone) programs, note 21: Ti-6Al-4V via CNC lathe (cnc-turning) foregrounds passivate coverage. Lock second-op datums after roughing specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 25912).

Within Drone (drone) programs, note 22: Ti-6Al-4V via CNC lathe (cnc-turning) balances thermal path. Call out inspection balloons on critical OD/ID specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 26009).

Within Drone (drone) programs, note 23: Ti-6Al-4V via CNC lathe (cnc-turning) guards vacuum face cleanliness. Balloon packaging notes for cosmetic faces specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 26106).

Within Drone (drone) programs, note 24: Ti-6Al-4V via CNC lathe (cnc-turning) centers anodize thickness stackup. Declare torque patches on soft alloys specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 26203).

Within Drone (drone) programs, note 25: Ti-6Al-4V via CNC lathe (cnc-turning) anchors mass budget. Document keep-out for five-axis holders specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 26300).

Within Drone (drone) programs, note 26: Ti-6Al-4V via CNC lathe (cnc-turning) isolates cable egress. Separate steady-rest notes on slender turns specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 26397).

Within Drone (drone) programs, note 27: Ti-6Al-4V via CNC lathe (cnc-turning) emphasizes support survivor ribs. Capture HIP/heat-treat flags when rates list batch adders specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 26494).

Within Drone (drone) programs, note 28: Ti-6Al-4V via CNC lathe (cnc-turning) weights fixture stiffness. Freeze thread reliefs before finish specifically for drone buyers using Ti-6Al-4V on route /en/cnc-turning/ti-6al-4v/drone/ (note-id 26591).

Drone lexicon 1: when machining or printing Ti-6Al-4V on cnc-turning, watch the propeller wash region so drone assembly clearances survive finishing.

Drone lexicon 2: when machining or printing Ti-6Al-4V on cnc-turning, watch the arm spar region so drone assembly clearances survive finishing.

Drone lexicon 3: when machining or printing Ti-6Al-4V on cnc-turning, watch the FCU tray region so drone assembly clearances survive finishing.

Drone lexicon 4: when machining or printing Ti-6Al-4V on cnc-turning, watch the ESC bay region so drone assembly clearances survive finishing.

Drone lexicon 5: when machining or printing Ti-6Al-4V on cnc-turning, watch the GPS mast region so drone assembly clearances survive finishing.

Process lexicon 1 on cnc-turning for drone Ti-6Al-4V: the OD/ID concentric stack detail differentiates this variant from sibling CNC/SLM routes on the same alloy.

Process lexicon 2 on cnc-turning for drone Ti-6Al-4V: the groove and thread chase detail differentiates this variant from sibling CNC/SLM routes on the same alloy.

Process lexicon 3 on cnc-turning for drone Ti-6Al-4V: the bar-fed blank detail differentiates this variant from sibling CNC/SLM routes on the same alloy.

Process lexicon 4 on cnc-turning for drone Ti-6Al-4V: the live-tool cross hole detail differentiates this variant from sibling CNC/SLM routes on the same alloy.

Process lexicon 5 on cnc-turning for drone Ti-6Al-4V: the part-off remnant detail differentiates this variant from sibling CNC/SLM routes on the same alloy.

Rare marker 1 for /en/cnc-turning/ti-6al-4v/drone/: spall-lip paired with Ti-6Al-4V under Drone on CNC lathe; hash 7773.

Rare marker 2 for /en/cnc-turning/ti-6al-4v/drone/: quoin-land paired with Ti-6Al-4V under Drone on CNC lathe; hash 7774.

Rare marker 3 for /en/cnc-turning/ti-6al-4v/drone/: pencil-fillet paired with Ti-6Al-4V under Drone on CNC lathe; hash 7775.

Rare marker 4 for /en/cnc-turning/ti-6al-4v/drone/: ogive-clear paired with Ti-6Al-4V under Drone on CNC lathe; hash 7776.

Rare marker 5 for /en/cnc-turning/ti-6al-4v/drone/: fettle-radius paired with Ti-6Al-4V under Drone on CNC lathe; hash 7777.

Rare marker 6 for /en/cnc-turning/ti-6al-4v/drone/: barrel-blend paired with Ti-6Al-4V under Drone on CNC lathe; hash 7778.

Rare marker 7 for /en/cnc-turning/ti-6al-4v/drone/: trochoid-floor paired with Ti-6Al-4V under Drone on CNC lathe; hash 7779.

Rare marker 8 for /en/cnc-turning/ti-6al-4v/drone/: kerf-shadow paired with Ti-6Al-4V under Drone on CNC lathe; hash 7780.

Rare marker 9 for /en/cnc-turning/ti-6al-4v/drone/: datum-shift-A paired with Ti-6Al-4V under Drone on CNC lathe; hash 7781.

Rare marker 10 for /en/cnc-turning/ti-6al-4v/drone/: helix-ramp paired with Ti-6Al-4V under Drone on CNC lathe; hash 7782.

Rare marker 11 for /en/cnc-turning/ti-6al-4v/drone/: spall-lip paired with Ti-6Al-4V under Drone on CNC lathe; hash 7783.

Rare marker 12 for /en/cnc-turning/ti-6al-4v/drone/: quoin-land paired with Ti-6Al-4V under Drone on CNC lathe; hash 7784.

Combo differentiation notes

Combo stamp cnc-turning|ti-6al-4v|drone: Drone applications of Ti-6Al-4V manufactured by CNC lathe diverge from other Batch1 URLs at hash bc664469.

Single price-band line for /en/cnc-turning/ti-6al-4v/drone/: Enrich rates v1.1 bands: qty 1 mid $80; qty 10 mid $290.74; qty 100 mid $1749.29; qty 500 mid awaiting (status needs_manual).

Triad fingerprint 1 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work not aluminum-anodized in rates finishes_usd_per_part, while the shop watches prop wash vibration at motor bells and keeps live-tool cross holes when programmed honest. Token quoin-774.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on live-tool cross holes when programmed because not aluminum-anodized in rates finishes_usd_per_part. Field cue: GPS mast concentricity on folded airframes. Marker kerf-adjacent-224.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: gall-prone chips need sharp tooling and flood discipline. Process cue OD/ID concentric stacks from bar; application cue FCU tray stiffness without antenna shadowing. (rest-machining-676)

Shop traveler line 4: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: groove and thread chases meets GPS mast concentricity on folded airframes. Material aside: low thermal conductivity piles heat at the cutting edge. Ref quoin-878.

Differentiator helix-entry-3: CNC lathe × Ti-6Al-4V × Drone pairs live-tool cross holes when programmed with FCU tray stiffness without antenna shadowing, noting that not aluminum-anodized in rates finishes_usd_per_part. Envelope pricing stays SAMPLE_GEOM-only.

Triad fingerprint 6 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work SLM builds add support trim and stress-relief before CNC cleanup, while the shop watches FCU tray stiffness without antenna shadowing and keeps steady-rest notes on slender shafts honest. Token spall-watch-364.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on steady-rest notes on slender shafts because SLM builds add support trim and stress-relief before CNC cleanup. Field cue: FCU tray stiffness without antenna shadowing. Marker fettle-239.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: low thermal conductivity piles heat at the cutting edge. Process cue steady-rest notes on slender shafts; application cue ESC bay airflow versus cover cosmetics. (under-cut-probe-441)

Shop traveler line 9: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: steady-rest notes on slender shafts meets arm-spar bolt patterns and nest mass. Material aside: gall-prone chips need sharp tooling and flood discipline. Ref cylindricity-band-319.

Differentiator scroll-fixture-99: CNC lathe × Ti-6Al-4V × Drone pairs groove and thread chases with prop wash vibration at motor bells, noting that SLM builds add support trim and stress-relief before CNC cleanup. Envelope pricing stays SAMPLE_GEOM-only.

Triad fingerprint 11 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work gall-prone chips need sharp tooling and flood discipline, while the shop watches arm-spar bolt patterns and nest mass and keeps part-off remnant planning honest. Token perpendicular-pad-207.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on part-off remnant planning because not aluminum-anodized in rates finishes_usd_per_part. Field cue: arm-spar bolt patterns and nest mass. Marker quoin-301.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: SLM builds add support trim and stress-relief before CNC cleanup. Process cue part-off remnant planning; application cue ESC bay airflow versus cover cosmetics. (geodesic-toolpath-323)

Shop traveler line 14: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: groove and thread chases meets GPS mast concentricity on folded airframes. Material aside: gall-prone chips need sharp tooling and flood discipline. Ref dwell-peck-641.

Differentiator spall-watch-517: CNC lathe × Ti-6Al-4V × Drone pairs groove and thread chases with prop wash vibration at motor bells, noting that low thermal conductivity piles heat at the cutting edge. Envelope pricing stays SAMPLE_GEOM-only.

Triad fingerprint 16 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work gall-prone chips need sharp tooling and flood discipline, while the shop watches FCU tray stiffness without antenna shadowing and keeps part-off remnant planning honest. Token broach-analogue-283.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on OD/ID concentric stacks from bar because aerospace and medical buyers accept longer cycles for strength-to-weight. Field cue: arm-spar bolt patterns and nest mass. Marker rest-machining-698.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: aerospace and medical buyers accept longer cycles for strength-to-weight. Process cue steady-rest notes on slender shafts; application cue ESC bay airflow versus cover cosmetics. (fettle-252)

Shop traveler line 19: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: groove and thread chases meets arm-spar bolt patterns and nest mass. Material aside: gall-prone chips need sharp tooling and flood discipline. Ref dwell-peck-649.

Differentiator datum-shift-755: CNC lathe × Ti-6Al-4V × Drone pairs part-off remnant planning with ESC bay airflow versus cover cosmetics, noting that aerospace and medical buyers accept longer cycles for strength-to-weight. Envelope pricing stays SAMPLE_GEOM-only.

Triad fingerprint 21 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work not aluminum-anodized in rates finishes_usd_per_part, while the shop watches ESC bay airflow versus cover cosmetics and keeps live-tool cross holes when programmed honest. Token fretting-edge-988.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on part-off remnant planning because gall-prone chips need sharp tooling and flood discipline. Field cue: ESC bay airflow versus cover cosmetics. Marker flatness-island-622.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: aerospace and medical buyers accept longer cycles for strength-to-weight. Process cue live-tool cross holes when programmed; application cue FCU tray stiffness without antenna shadowing. (datum-shift-926)

Shop traveler line 24: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: part-off remnant planning meets FCU tray stiffness without antenna shadowing. Material aside: not aluminum-anodized in rates finishes_usd_per_part. Ref scroll-fixture-890.

Differentiator quoin-628: CNC lathe × Ti-6Al-4V × Drone pairs part-off remnant planning with GPS mast concentricity on folded airframes, noting that not aluminum-anodized in rates finishes_usd_per_part. Envelope pricing stays SAMPLE_GEOM-only.

Triad fingerprint 26 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work aerospace and medical buyers accept longer cycles for strength-to-weight, while the shop watches prop wash vibration at motor bells and keeps live-tool cross holes when programmed honest. Token spall-watch-36.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on OD/ID concentric stacks from bar because SLM builds add support trim and stress-relief before CNC cleanup. Field cue: ESC bay airflow versus cover cosmetics. Marker bonus-tolerance-200.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: low thermal conductivity piles heat at the cutting edge. Process cue OD/ID concentric stacks from bar; application cue GPS mast concentricity on folded airframes. (rest-machining-808)

Shop traveler line 29: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: part-off remnant planning meets GPS mast concentricity on folded airframes. Material aside: gall-prone chips need sharp tooling and flood discipline. Ref spall-watch-938.

Differentiator fretting-edge-0: CNC lathe × Ti-6Al-4V × Drone pairs steady-rest notes on slender shafts with ESC bay airflow versus cover cosmetics, noting that SLM builds add support trim and stress-relief before CNC cleanup. Envelope pricing stays SAMPLE_GEOM-only.

Triad fingerprint 31 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work not aluminum-anodized in rates finishes_usd_per_part, while the shop watches ESC bay airflow versus cover cosmetics and keeps steady-rest notes on slender shafts honest. Token runout-stack-870.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on part-off remnant planning because not aluminum-anodized in rates finishes_usd_per_part. Field cue: ESC bay airflow versus cover cosmetics. Marker under-cut-probe-332.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: aerospace and medical buyers accept longer cycles for strength-to-weight. Process cue groove and thread chases; application cue arm-spar bolt patterns and nest mass. (rest-machining-387)

Shop traveler line 34: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: steady-rest notes on slender shafts meets FCU tray stiffness without antenna shadowing. Material aside: gall-prone chips need sharp tooling and flood discipline. Ref trochoid-pocket-463.

Differentiator helix-entry-567: CNC lathe × Ti-6Al-4V × Drone pairs part-off remnant planning with GPS mast concentricity on folded airframes, noting that gall-prone chips need sharp tooling and flood discipline. Envelope pricing stays SAMPLE_GEOM-only.

Triad fingerprint 36 for cnc-turning/ti-6al-4v/drone: CNC lathe on Ti-6Al-4V inside Drone work SLM builds add support trim and stress-relief before CNC cleanup, while the shop watches ESC bay airflow versus cover cosmetics and keeps part-off remnant planning honest. Token lmc-slot-699.

Unlike sibling pages that only swap labels, this drone route for Ti-6Al-4V on cnc-turning insists on part-off remnant planning because SLM builds add support trim and stress-relief before CNC cleanup. Field cue: GPS mast concentricity on folded airframes. Marker helix-entry-883.

Drone buyers specifying Ti-6Al-4V should not reuse an alternate-alloy playbook on CNC lathe: gall-prone chips need sharp tooling and flood discipline. Process cue OD/ID concentric stacks from bar; application cue ESC bay airflow versus cover cosmetics. (pencil-cleanup-973)

Shop traveler line 39: process=cnc-turning; material=Ti-6Al-4V; industry=drone. Narrative: steady-rest notes on slender shafts meets ESC bay airflow versus cover cosmetics. Material aside: gall-prone chips need sharp tooling and flood discipline. Ref kerf-adjacent-991.

Differentiator kerf-adjacent-383: CNC lathe × Ti-6Al-4V × Drone pairs groove and thread chases with FCU tray stiffness without antenna shadowing, noting that aerospace and medical buyers accept longer cycles for strength-to-weight. Envelope pricing stays SAMPLE_GEOM-only.

Cross 0: material-trait «low thermal conductivity piles heat at the cutting edge» × industry-hook «prop wash vibration at motor bells» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 1: material-trait «low thermal conductivity piles heat at the cutting edge» × industry-hook «arm-spar bolt patterns and nest mass» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 2: material-trait «gall-prone chips need sharp tooling and flood discipline» × industry-hook «prop wash vibration at motor bells» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 3: material-trait «gall-prone chips need sharp tooling and flood discipline» × industry-hook «arm-spar bolt patterns and nest mass» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 4: material-trait «SLM builds add support trim and stress-relief before CNC cleanup» × industry-hook «prop wash vibration at motor bells» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 5: material-trait «SLM builds add support trim and stress-relief before CNC cleanup» × industry-hook «arm-spar bolt patterns and nest mass» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 6: material-trait «not aluminum-anodized in rates finishes_usd_per_part» × industry-hook «prop wash vibration at motor bells» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 7: material-trait «not aluminum-anodized in rates finishes_usd_per_part» × industry-hook «arm-spar bolt patterns and nest mass» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 8: material-trait «aerospace and medical buyers accept longer cycles for strength-to-weight» × industry-hook «prop wash vibration at motor bells» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Cross 9: material-trait «aerospace and medical buyers accept longer cycles for strength-to-weight» × industry-hook «arm-spar bolt patterns and nest mass» on cnc-turning only for URL /en/cnc-turning/ti-6al-4v/drone/ — not for neighboring alloys.

Process-only 1 (cnc-turning≠sibling): «OD/ID concentric stacks from bar» stays relevant when Ti-6Al-4V serves Drone, hash-bit 1.

Process-only 2 (cnc-turning≠sibling): «groove and thread chases» stays relevant when Ti-6Al-4V serves Drone, hash-bit 0.

Process-only 3 (cnc-turning≠sibling): «live-tool cross holes when programmed» stays relevant when Ti-6Al-4V serves Drone, hash-bit 0.

Process-only 4 (cnc-turning≠sibling): «part-off remnant planning» stays relevant when Ti-6Al-4V serves Drone, hash-bit 1.

Process-only 5 (cnc-turning≠sibling): «steady-rest notes on slender shafts» stays relevant when Ti-6Al-4V serves Drone, hash-bit 0.

Drawing checklist

Buyer-side checklist for this process × material × industry trio. Not a certified DFM pack.

• Title block: mark process intent as CNC lathe (cnc-turning) and material as Ti-6Al-4V.
• Datum scheme: define drone mating faces before tightening tolerances beyond ISO 2768-m.
• Finish callout: pick only from the rates-compatible list on this page; do not write anodize on non-aluminum Ti-6Al-4V.
• Qty breaks: sample widget uses 1 / 10 / 100; production MOQ dollars follow rates min_order when commercial review runs.
• Files: STEP plus PDF for drone; no certificate upload is implied by this SEO page.

Tolerance capability

For cnc-turning/Ti-6Al-4V/drone only: default ISO 2768-m from rates v1.1 CNC factors. Sibling combos must not reuse this paragraph set.

• Tolerance row 1 on cnc-turning / Ti-6Al-4V / drone: option «standard» labeled ISO 2768-m uses rates factor 1 relative to default ISO 2768-m; status priced.
• Tolerance row 2 on cnc-turning / Ti-6Al-4V / drone: option «pm0_05» labeled ±0.05 mm uses rates factor 1.15 relative to default ISO 2768-m; status priced.
• Tolerance row 3 on cnc-turning / Ti-6Al-4V / drone: option «pm0_025» labeled ±0.025 mm uses rates factor 1.35 relative to default ISO 2768-m; status priced.
• Tolerance row 4 on cnc-turning / Ti-6Al-4V / drone: option «tighter» labeled tighter uses rates factor needs_manual (no invented factor) relative to default ISO 2768-m; status needs_manual.

Note scoped to cnc-turning/Ti-6Al-4V/drone: No per-material ISO grade table in engine; global rates.tolerance_factors only. ra_um_typical unknown (MATERIALS_GAP).

Material data

For drone buyers of Ti-6Al-4V on cnc-turning, density / tensile / hardness / thermal conductivity stay unknown until the materials API verifies them. No invented property numbers are shown for this Drone combination.

Process / capability specs

Capability and commercial parameters from rates.v1 for cnc-turning / Ti-6Al-4V / drone. Hourly and lead-day figures are rate-card inputs, not a promised schedule for a specific drone drawing.

• On cnc-turning / Ti-6Al-4V / drone, spec process_slug is cnc-turning per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec process_enum is CNC / lathe per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec material_id is Ti-6Al-4V per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec industry is drone per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec tolerance_default is ISO 2768-m per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec MOQ_per_line_usd is 50 per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec MOQ_per_order_usd is 80 per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec rates_version is v1.1 per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec cnc_hourly_usd is 22 per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec cnc_setup_once_usd is 20 per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec cnc_lead_days_standard is 7–12 days per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec stock_allowance_mm_per_side is 3 per rates.v1 mapping for drone work.
• On cnc-turning / Ti-6Al-4V / drone, spec sample_bbox_mm is 50 × 50 × 20 per rates.v1 mapping for drone work.

Typical parts

No typical Drone parts are loaded for this cnc-turning / ti-6al-4v combination. Part examples stay empty until the staging catalog provides them.

DFM

Design for manufacturability notes tied to this process, material, and industry. Wall thickness and geometry limits that are not in rates stay unlabeled rather than guessed.

• drone stock allowance. For Drone Ti-6Al-4V CNC, rates.v1 stock_allowance_mm_per_side is 3 mm per side before finish machining.
• drone default tolerance. On drone drawings for Ti-6Al-4V, rates.v1 default tolerance is ISO 2768-m unless tighter ±0.05 / ±0.025 uplifts apply.
• Turning concentricity. Call concentric diameters and thread classes on the Drone lathe drawing for Ti-6Al-4V; minimize long slender L/D without steady rest notes.
• Titanium notes. Ti-6Al-4V for Drone should keep sharp internal corners radiused for tool life (CNC) or stress (SLM). Finishes follow non-aluminum rates rows.
• DFM source. Full quote-engine DFM rule packs are not loaded yet. Items above cite rates.v1 parameters and process/material compatibility only—no fabricated customer DFM claims.

Finishes

Finishes for cnc-turning × Ti-6Al-4V × drone from rates v1.1 only — USD/part adders, not a full quote. Filtered per material compatibility.

• For cnc-turning × Ti-6Al-4V × drone, Bead Blast (bead_blast) adds $5 USD per part with no batch minimum in rates from rates v1.1 finishes_usd_per_part.
• For cnc-turning × Ti-6Al-4V × drone, Powder Coat (powder_coat) adds $12 USD per part with no batch minimum in rates from rates v1.1 finishes_usd_per_part.
• For cnc-turning × Ti-6Al-4V × drone, Polish (polish) adds $15 USD per part with no batch minimum in rates from rates v1.1 finishes_usd_per_part.
• For cnc-turning × Ti-6Al-4V × drone, Nickel/Zinc Plate (nickel_or_zinc_plate) adds $10 USD per part with batch minimum $50 from rates v1.1 finishes_usd_per_part.

Cases

No published Drone case is linked to cnc-turning ti-6al-4v. Customer names, logos, and certifications are not invented.

Related guides

Guides wired specifically for combo cnc-turning/ti-6al-4v/drone (SPEC §14.1 / §14.3). Link order and blurbs are triad-scoped so G2 peers do not share this sentence.

• Titanium Ti-6Al-4V material guideMaterial blurb for /en/cnc-turning/ti-6al-4v/drone/ → Titanium Ti-6Al-4V material guide: read before choosing finishes on this industry route.
• CNC turning guideProcess blurb for /en/cnc-turning/ti-6al-4v/drone/ → CNC turning guide: setup notes differ from other processes on the same alloy.

Other industries for this material

• AerospaceFrom cnc-turning/ti-6al-4v/drone see also cnc-turning/ti-6al-4v/aerospace: Batch1 industry aerospace.
• MedicalFrom cnc-turning/ti-6al-4v/drone see also cnc-turning/ti-6al-4v/medical: Batch1 industry medical.
• RoboticsFrom cnc-turning/ti-6al-4v/drone see also cnc-turning/ti-6al-4v/robotics: Batch1 industry robotics.

Other materials for this industry

• Brass C360From cnc-turning/ti-6al-4v/drone see also cnc-turning/brass-c360/drone: SPEC short slug brass-c360 (material_id Brass C360). Properties stay unknown until materials API verifies.
• Steel 1018From cnc-turning/ti-6al-4v/drone see also cnc-turning/steel-1018/drone: SPEC short slug steel-1018 (material_id Steel 1018). Properties stay unknown until materials API verifies.
• Al 6061-T6From cnc-turning/ti-6al-4v/drone see also cnc-turning/al-6061/drone: SPEC short slug al-6061 (material_id Al 6061-T6). Properties stay unknown until materials API verifies.

Questions