reamtech
Catalogue p.11 – 14

Technical reference

Geometry selection, cutting data, setup procedure, and bore-defect troubleshooting — the reaming reference from the Reamtech catalogue, in full.

Catalogue p.11

Tool geometry selection

Eight standard geometries, all straight flute form. Geometry is chosen from the material and the condition of the bore — interrupted, blind, deep, or long-chipping.

Cutting edge geometry

Catalogue p.11

Cutting faceRadial landRear clearance faceSecondary anglePrimary angleMain cutting edgeSecondary cutting edgeHover a label to locate the feature
What material?
What bore condition?

All 8 standard geometries shown. Answer either question to narrow them.

Standard geometry selection, catalogue page 11
Standard geometryFlute formMaterialApplication
RG1StraightAll materialFor both through holes and blind holes without interruption
RG2StraightCast iron & stainless steelFor short chipping materials
RG3StraightAll materialEnd face cutting / bottoming geometry
RG5StraightAll materialHole mill cum reamer for higher accuracy in interrupted bores
RG6StraightSteelChip breaker geometry for bores with L/D > 10
RG7StraightAll materialHole mill cum reamer for higher accuracy, standard bores
RG9StraightSteelChip breaker geometry for long chipping material, through bores without interruptions
RG9BStraightSteelChip breaker geometry for long chipping material, through or blind bores with interruptions

Geometry is specified alongside the order code. Send your bore details and an application engineer will confirm the geometry for your component.

Catalogue p.12

Cutting parameters

Cutting speed and feed across 23 material groups, for short and long reamers. Spindle speed and feed rate are derived from the published figures for the diameter and flute count you're running.

Parameter calculator

Published v𝑐 and f𝑧 come straight from the p.12 matrix. Spindle speed and feed rate are derived from them.

Reamer length
Grade
mm

P1 · Non-alloy steels

Short reamer, 3×D · grade RGC · Ø12 mm · Z6

Cutting speed v𝑐

100-200m/min

Feed f𝑧

0.07-0.15mm/tooth

Spindle speed n

derived

2653 – 5305rpm

Feed rate v𝑓

derived

1114 – 4775mm/min

How the derived values follow

n = v𝑐 × 1000 ÷ (π × D)
v𝑓 = n × f𝑧 × Z

Both inputs are published ranges, so both outputs are ranges. Start mid-range and optimise against surface finish and tool life on the component.

Filter

Cutting parameters by material group, catalogue page 12
GroupMaterialv𝑐 short · 3×Dv𝑐 long · 5×DFeed f𝑧 by Ø
RGHRGCRGTRGSRGPRGHRGCRGTRGSRGP<1212–2525–50>50LH sp.
P1Non-alloy steels6-10100-20060-140··6-1080-16060-120··0.05-0.100.07-0.150.09-0.200.10-0.250.07-0.14
P2Non-alloy steels / low alloy steels6-10100-20060-140··6-1080-16060-120··0.05-0.100.07-0.150.09-0.200.10-0.250.07-0.14
P3*Lead alloys15-45100-20060-140102·15-4580-16060-120··0.05-0.100.07-0.150.09-0.200.10-0.250.07-0.14
P4Non-alloy / low alloy steels, heat resistant structural, heat treated nitride and tool steels5-980-15060-110··5-980-12060-90··0.04-0.080.06-0.120.07-0.160.08-0.200.06-0.11
P5High alloy steels4-7·15-45··4-7·15-45··0.04-0.070.05-0.110.06-0.140.07-0.18·
S1Titanium, titanium alloys5-12····5-12····0.05-0.110.07-0.170.10-0.240.11-0.30·
M1Stainless steels5-8·15-40··5-8·15-40··0.04-0.080.06-0.120.07-0.160.08-0.200.06-0.12
M2Stainless steels4-6·10-35··4-6·10-35··0.04-0.080.06-0.120.07-0.160.08-0.200.06-0.12
M3Stainless steels / fire proof steels4-6·10-35··4-6·10-35··0.04-0.080.06-0.120.07-0.160.08-0.200.06-0.12
K1Grey cast iron10-25·50-13080-220·10-25·50-10080-150·0.06-0.130.08-0.200.11-0.260.12-0.330.06-0.12
K2Alloy grey cast iron6-12·30-9040-130·6-12·30-9040-100·0.06-0.120.08-0.180.11-0.240.12-0.300.08-0.18
K3Ductile cast iron, ferritic9-18130-300·130-300·9-18120-180·120-180·0.06-0.130.08-0.200.11-0.260.12-0.330.08-0.20
K4Ductile cast iron, ferritic / perlitic9-18100-250·100-250·9-18100-160·100-160·0.06-0.130.08-0.200.11-0.260.12-0.330.08-0.20
K5Spheroidal graphite cast iron, perlitic malleable iron8-1580-180·80-180·8-1580-150·80-150·0.06-0.120.08-0.180.11-0.240.12-0.300.08-0.18
K6Alloyed spheroidal graphite cast iron6-12·30-6050-100·6-12·30-6050-100·0.06-0.120.08-0.180.11-0.240.12-0.300.08-0.18
K7Vermicular cast iron6-12·30-7040-130·6-12·30-7040-130·0.06-0.120.08-0.180.11-0.240.12-0.300.08-0.18
N1Copper alloy, brass, lead alloy, bronze, brass bronze — good cut10-30100-32080-200··10-30100-32080-150··0.05-0.120.07-0.180.09-0.240.10-0.300.07-0.18
N2Copper alloy, brass bronze — average cut10-20·50-150··10-20·50-150··0.05-0.120.07-0.180.09-0.240.10-0.300.07-0.18
N3*Wrought aluminium alloys10-30····10-30···100-2400.05-0.120.07-0.180.09-0.240.10-0.300.07-0.18
N4*Cast aluminium alloy, Si content < 10%, magnesium alloy10-30····10-30···100-3000.05-0.120.07-0.180.09-0.240.10-0.300.07-0.18
N5*Cast aluminium alloy, Si content > 10%8-20··110-440·8-20···100-2500.05-0.120.07-0.180.09-0.240.10-0.300.07-0.18
H1*Hardened steels < 45 HRc·········40-600.04-0.080.06-0.120.07-0.160.08-0.20·
H2*Hardened steels > 45 HRc, < 55 HRc·········30-500.04-0.080.06-0.120.07-0.160.08-0.20·

v𝑐 in m/min · f𝑧 in mm/tooth · LH sp. = left-hand spiralled, Ø4.8–12.7 mm · · = not published
* Row flagged pending verification against the source file — hover for detail.

Catalogue p.13

How to use a Reamtech reamer

Eighteen checks across four stages, from assembling the tool to inspecting the first hole. Tick them off as you go — the list is kept in your browser.

0/18checks complete
1

Assembling the Reamtech reamer

2 checks
2

Runout check procedure

4 checks

Maximum runout

8 µm

3

Checks before starting on the machine

9 checks

Through-hole overtravel

2 – 3 mm max

Feed & speed knobs

100%

4

After machining the first hole

3 checks

Components to observe

5

Ticks are kept in this browser only, so the list survives a page reload on the shop floor. Nothing is sent to Reamtech.

Catalogue p.14

Reaming troubleshooting

Nine bore defects, each with the causes the catalogue identifies and the remedy for each.

Start from what you can see in the bore. Each case lists the causes the catalogue identifies, paired to its remedy.

Select a defect above to see its causes and remedies.

Get Started

Need this applied to your component?

Reamtech offers shop-floor training on tool selection and application, and project solutions from process development through to prove-out.