HSMAdvisor Units System (in/mm)

September 28, 2016, 7:42 pm by admin

HSMAdvisor supports both imperial (in) and metric (mm) measurement systems.

You can switch between the two systems for each field on the Speeds and Feeds page by clicking on the in/mm label next to the field.

Some fields can be imperial while others are metric, and that's fine.

There are two global switches on the Speeds and Feeds page that allow you to quickly change all units on the page to either inches or millimeters.

The Input in/mm label changes the units for all Tool Geometry and Cutting Parameters fields, while the Result in/mm label changes the units for all Speeds and Feeds and Gauges fields.

On the Machine Profile page, the app starts up in imperial mode and you can toggle between imperial and metric values. The unit system selected in the Machine Definition page will not affect the speed and feed calculations and the app will handle all conversions internally. You only need to make sure the numbers are correct for the selected unit mode.

See also

Launch HSMAdvisor

September 21, 2014, 1:01 pm by admin
 
Start by finding HSMAdvisor icon on your desktop screen.
Installer will also create "HSMAdvisor" group in your Start menu.

Double Click on the HSMAdvisor icon to launch the program.

Select Workpice Material

September 21, 2014, 1:27 pm by admin

Select your Workpiece Material by clicking on the drop-down list located in the Workpiece panel.

You can also search for available materials using the search function.

To access search, click on the left side of the panel.
It will expand revealing the search field.
Simply type in a couple of key characters of the material name you are looking for and the drop-down list on top will filter out items that match the search criteria.

What if you can not find the material you need

In a rare case when your workpiece material is not present on the material list, you can always try to find a suitable substitute material.

Try to find the Group, that your material belongs to, and then select a material from that group that matches yours in hardness.

 

Can i request a material to be added into the list?

Please submit all your requests to our support email address:

You are also encouraged to post your requests on our support forums located at:
http://zero-divide.net/index.php?page=forums&shell_id=170&category_id=1123


See Also

Select Machine

September 21, 2014, 9:28 pm by admin

Select the Machine from the drop-down list.

There are thousands of machines available on the market and we could not add many.

There are, however, machine definitions in the list common in both the industrial and hobby machine shops.

Using machines supplied with the program as templates, users can very often easily create their own machine definitions

What if Machine Definition I need is not on the list

  • You can create your own machine definition
  • You can write us an email with a request for one.
    Please include as much information as you can. Such as:
    Complete name of the machine, Spindle horsepower, max RPM and anything that could help us create the machine definition for you

I created my own Machine Definition

If you created your own machine definitions, we would be very thankful if you could share them with us.

Export your definition to a file and send us an email or create a thread in support forums and upload your files there.


See Also

 

 

Select Tool Type, Tool Material and Coating

September 21, 2014, 11:01 pm by admin

Choose your Tool Type, Tool Material and Tool Coating

Cutting parameters depend not only on the type of tool you are using, but also on the material it is made of and its coating.

We have the largest number of tool types, tool materials and coatings to choose from than any other Speed and Feed calculator out there

Tool Types

Here is the list of currently available tool types:

End Mills

  • Solid End Mill
    A regular finishing or medium-machining end mill. Not suitable for deep or heavy cuts.
  • HP/Roughing End Mill
    A High Performance or Roughing end mill capable of deep cuts.
  • Indexed End Mill
    An end mill with replaceable edges or inserts. Usually Roughing.
  • Indexed Face Mill
    Another Type of cutting gool with replaceable inserts designed to clean up large horizontal surface area of the workpiece.
  • Helical Indexed End Mill
    A multiple flute indexed mill with large flute length capable of narrow but very deep cuts.
  • High Feed Mill
    An indexed or solid end mill, with very shallow lead angle, that utilizes axial chip thinning effect allowing it to achieve very high feed rates comparable to tools of equal size and length.
    This Tool Type  requires user to turn on Chip Thinning compensation in the Comp. panel
  • V-Bit Engraver
    A normally single flute solid end mill normally used for engraving.
  • Chamfer Mill
    Another type of solid or indexed mill that has particular Lead Angle and is normally used to add chamfers to sharp corners on your workpiece.

Drills

  • Jobber Twist Drill
    A regular solid twist drill, nothing special.
  • Hi-Helix Parabolic Drill
    A drill that has special geometry allowing it to drill deeper holes with fewer peck cycles.Usually features higher flute helix, split drill point, thicker core and rolled heel.
  • Spade Drill
    A drill with single replaceable cutting tip that looks like a spade.
  • Indexed Drill
    A drill that has 2 staggered indexable inserts. One located closer to the center, the other- to the outside.
    This drill type has only ONE effective cutting edge.
  • Straight Flute for Hard Metal
    A drill that has straight flutes and used primarily for hardened steels and is unsuitable for soft materials.
  • Reamer
    Regular reamer - tool that is used to finish holes to high degree of dimensional accuracy and surface finish.
  • Counterbore
    A tool, usually with a pilot tip that is used to create a recess in a surface of a workpiece in already-existing hole for a head of a screw to fit in.

Threading Tools

  • Thread Mill
    A milling tool thats sole purpose is to mill internal and external threads onto already existing features like holes and bosses.
  • Forming Tap
    A tap that uses forming action to form a thread in a drilled hole.
    threads produced this way tend to be stronger and tool itself tends to have longer life.
    Recommended for malleable materials under 40RC (400HB) in hardness.
    Tap holes need to be drilled to larger size than for regular cutting taps.
  • Tap
    A regular Tapping tool.

Turning Tools

  • Boring Bar
    A tool used to increase internal diameter in a drilled or milled hole.
  • Turning - Profiling
    A turning tool that is used for either profiling or facing.
  • Turning - Grooving
    A grooving tool that is used to produce narrow cylindrical grooves by plunging into the material.

Tool Materials

Here is the list of available tool materials:

  • HSS
    High Speed Steel - invented in the old times when using it really meant high speeds.
    Since the advancements in metallurgy with tough to machine materials becoming more common, its use for milling tools is limited to mainly non-ferrous alloys and plastics.
    Drilling tools, especially Reamers and Taps are still, however are made of HSS
  • HSCoblat
    A variation of HSS that has higher Cobalt content (usually 8%) giving it higher hardness at high temperatures.
  • Carbide
    Tungsten Carbide - an extremely hard cutting material capable of maintaining its properties at high cutting forces and temperatures.
    There are many different grades of tungsten carbide used for cutting tools and inserts, but for sake of simplicity (really i could have added 5 most used ones. but do you really want me to?) we assume that the carbide grate is suitable to the material AND its application. IE: Do not pick up an end mill designed for Aluminum and try to use it on hardened steel. Not only the cutting geometry will be wrong, but also carbide grade mill likely be different.
  • PCD Diamond
    Polycrystalline Diamond - a synthetic diamond that is used on non-ferrous materials where tool life is very important such as Graphite, Fiberglass and Aluminum.
  • Ceramic
    Ceramic a synthetic material that features extremely high hardness even at elevated conditions.
    It is used to literally liquefy workpiece material at extremely high cutting speeds and relatively low chiploads.
    Used on difficult - to -machine ferrous alloys such as hardened tool steels, hardened stainless steels and super alloys.

Coatings

Here is the list of available coatings:

  • TiN
    Titanium Nitride - a golden- coloured coating used to prolong life of a tool
  • TiCN
    Titanium Cubic Nitride - a high-performance coating that allows to increase cutting speeds.
  • TiAlN
    Titanium Aluminum Nitride  - a high-performance coating that at high cutting temperatures transforms into even harder version of itself.
    Often used dry.Applications range from soft to hardened steels, and from stainless steels to super alloys 
  • AlTiN
    Same as TiAlN, but harder and with higher Aluminum composition.
    Allows higher cutting speeds than TiAlN
  • AlCrN
    Aluminum Chromium Nitride - another high-performance coating widely used on super-alloys for its extremely high hardness and high temperature resistance
  • ZrN
    Zirconium Nitride - Coating used on non-ferrous alloys (mainly aluminums) for its high lubricity and hardness.
    Greatly extends tool life.

Can not find your Tool Type, Tool Material or Coating on the list?

Drop us a line.

See Contact Details for ways to reach us

 

Tool Material and Coating Application Guide

September 21, 2014, 11:35 pm by admin

Here is a short Application Guide for use of different cutting tool materials and coatings.

Tool Materials and Coatings are listed from least preferable to most preferable.
(IE: line "Recommended tool materials: HSS, HSCobalt, Carbide, Diamond" means that HSS is the least preferable material and Diamond is the Most preferable one)

Tool Material

  • Aluminum and other non-ferrous metals:
    Recommended tool materials: HSS, HSCobalt, Carbide, Diamond
    Recommended number of flutes:2 or 3
    Recommended coolant: Flood Coolant for all tool materials, reduce cutting depth and speed for less than ideal cooling situations
  • Abrasive non-ferrous and non-metall materials:
    Recommended tool materials: HSS, HSCobalt, Carbide, Diamond
    Recommended number of flutes:2 or 3
    Recommended coolant: Flood Coolant for all tool materials, reduce cutting depth and speed for less than ideal cooling situations
  • Mild and Tool Steels
    Recommended tool materials:HSS, HSCobalt, Carbide
    Recommended number of flutes: 4 for regular machining; 4+ for finishing and HSM machining   
    Recommended coolant for HSS and HSCObalt tooling: Flood, reduce cutting depth and speed for less than ideal coolant situations
    Recommended coolant for Carbide tooling: Dry or mist airblast to clear the chips
  • Nikel and Cobalt Ferrous super alloys
    Recommended tool materials:HSCobalt, Carbide, Ceramics
    Recommended number of flutes: 3-4 for regular machining; 4+ for finishing and HSM machining   
    Recommended coolant for HSCobalt and Carbide: High pressure, high volume flood coolant
    Recommended coolant for Ceramics: None
  • Titanium alloys
    Recommended tool materials: HSCobalt, Carbide
    Recommended number of flutes: 3-4 for regular machining; 4+ for finishing and HSM machining   
    Recommended coolant: High pressure, high volume flood coolant

Tool Coating

Coating improves wear and temperature resistance of the cutting edge.
General rules of thumb:

  • Aluminum and other non-abrasive non-ferrous metals
    Recommended coatings:No Coating (bright finish), TiCN, ZrN, TiB
    Recommended coolant: Flood, reduce cutting depth and speed for less than ideal coolant situations
  • Abrasive non-ferrous and non-metall materials:
    Recommended coatings: TiAlN,AlTiN, AlCrN, Diamond
    Recommended coolant: Flood, reduce cutting depth and speed for less than ideal coolant situations
  • Mild and tool Steels
    Recommended coatings:TiN, TiCN, TiAlN, AlTiN, AlCrN
    Recommended coolant for HSS and HSCObalt tooling: Flood, reduce cutting depth and speed for less than ideal coolant situations
    Recommended coolant for Carbide tooling: Dry or mist airblast to clear the chips
  • Nikel and Cobalt Ferrous super alloys
    Recommended coatings:TiN, TiCN, TiAlN, AlTiN, AlCrN
    Recommended coolant: High pressure, high volume flood coolant
  • Titanium alloys
    Recommended coatings:No coating (bright finish); Super hard AlCrN, AlTiN, TiAlN nano coatings
    Recommended coolant: High pressure, high volume flood coolant

Do you think this information is not complete or you need more?

Drop us a line.

See Contact Details for ways to reach us

 

Entering Cutting Tool Geometry

September 23, 2014, 8:09 pm by admin

 

Enter Your cutting tool geometry starting with Tool Diameter (Turn diameter for Lathe)
All input fields displayed on the screen are important.

Normally when you change the tool type, default data is loaded from the database.
You can override this behavior in the Settings tab on the Fields and Limits that Reset to Default when Tool Type Changes panel by un-checking Reset Tool Data checkbox

Here are the input fields available for Tool Geometry

  • Tip Dia (Mill, Drill)

    The diameter of the cutting end of the end mill, drill, reamer etc

  • Turn Dia (Lathe)

    The diameter of the finished workpiece.

    When working in CSS and IPR mode it makes sense to keep Turn Dia equal to the actual maximum diameter of the workpiece. If you fail to do so, you may overload the spindle by calculating incorrect depth of cut and feed rate

  • N# of Flutes (Mill, Drill)

    An effective number of cutting teeth on your milling or drilling tool.

  • N# of Inserts (Lathe, Boring Bar)

    Effective number of cutting edges that do work at the same time. IE: some boring bars have 2 inserts

  • Tool Stickout

    The distance from the nose of a tool holder to the tip of the cutting tool.

    For integrated or arbor-mounted tooling, use the distance from the spindle nose to the tip of the tool.

  • Corner Radius

    Corner Radius of the insert or the tip of the tool

  • Flute Length
    Length of the cutting portion of the tool.
    Be careful as some tool types like button cutters do not allow full-depth cuts.

  • Lead Angle of the cutting edge.
    The angle between the cutting edge and a plane perpendicular to the centerline of the tool

    Common values for end mills

    90: regular straight edge
    45: Common angle for face cutters
    5-30: High feed mills

    Lower angles allow increased feed rates

  • Shank Dia
    The diameter of the non-cutting portion of the tool

  • Helix Angle
    The helix angle of the flutes.

  • Shoulder Length
    The distance from the tip of the tool to the shank of the tool. It is often the same length as the Flute Length but is sometimes larger on necked tools.

  • Tapered Shoulder
    Controls how the shoulder portion is displayed and calculated. If it is checked, the shoulder is tapered from the end of the flutes to the beginning of the shank portion.

  • Shoulder Diameter
    The diameter of the tool shoulder. It is often the same size as the Tip Diameter but is sometimes smaller for necked tools such as T-Slot cutters.

This is how the Tool Data Panel looks like for any End Mill Tool Type

Lines have been drawn to show which fields affect which tool features.

Drilling Tool Type Tool Data Panel



Turning Tool Type Tool Data Panel



Tap Tool type Tool Data Panel



Reamer, Counter Bore and Thread Mill Tool Type Tool Data Panel



See Also

 

Entering/Adjusting Cut Parameters

September 23, 2014, 8:48 pm by admin
 

Enter/Adjust your cutter engagement parameters

The expandable Cut panel is visible when either Milling or Turning Tool Type is selected.

When a Turning tool type is selected, only the DOC input field is visible.

These are the fields available on the Cut panel for Milling tools

  • DOC
    Depth of Cut - Axial depth of cut
  • WOC
    Width of Cut - Radial Width of cut
  • WOC %
    Width of Cut as a percentage from the cutter diameter
  • WOC Deg
    Width of Cut in Degrees with 180 being full with of cut and 0 - none at all

This is how the Cut panel looks for Milling Tools:

When you change the WOC value, WOC-% and WOC-Deg change automatically.

But if you want to change the % or Deg field directly and set an inch or mm WOC, you need to enter your number and then hit ENTER.

 

For Turning tools, only the DOC input field is available.

  • For Profiling Operations
    Depth of Cut - The radial depth of cut.
  • For Grooving or Facing Operations
    Depth of Cut - Width of the Grooving or Facing pass

This is how the Cut panel looks for Turning Tools:


See Also

 

Balancing Cutter Engagement

September 23, 2014, 10:31 pm by admin

One of the handiest functions of HSMAdvisor is the ability to suggest Depth of Cut (DOC) and Width of Cut (WOC) based on tool type and user-specified tool geometry.

When Cut data matches the default or ideal data specific for the selected Tool Type, the DOC and WOC fields turn Green in color:

This article describes how to balance the Cutter Engagement and find the most efficient way of removing material.

Case 1: Balancing DOC against changed WOC or vise-verse (Load Balancing)

Let's use the previous picture and assume our cutter is a 0.5" 3 flute Generic End Mill.
Default DOC and WOC for that kind of tool would look like this: DOC=1.0", WOC=0.150"

Set 1:
 

Now these cutting parameters are taken form the internal data base and consider Tool Type, Material being cut and even Tool Geometry.
Green color of the fields indicate that these values are ideal according to HSMAdvisor.

Let's now change the Width of Cut to full width as if we are slotting or pocketing: set WOC= 0.5"

Set 2:

As you can see default Depth of Cut (DOC) immediately changed its value and is now showing just 0.351" DOC instead of the previous 1.0"

This is it! You have just balanced Depth of Cut for the new Width of Cut you will be using.

It is noteworthy that while feed rate may change between the first two Sets of values, MRR or Material Removal Rate stays virtually the same.
This is the whole point of this Balancing exercise - to automatically adjust the other value keeping the load on the cutter the same.

Case 2: Setting both DOC and WOC to custom numbers (Feed Rate Balancing)

Let's now also change our Depth of Cut to 0.5"

Set 3:

As you can see none of the fields is green now, indicating that both of our values differ from the ideal parameters.

But if both values are not ideal, where did the difference go?

The difference went to Feed Rate. In this case Feed Rate will drop from 142 ipm to 100 ipm

When Cutter Engagement exceeds recommended values, HSMAdvisor tries to compensate the difference by reducing the feed rate.

When Cutter Engagement is less than recommended, Feed Rate may be increased, depending on the workpiece material.

 

Setting both the DOC and the WOC to custom numbers, however, leads to a nasty side-effect

As you increase cutter engagement in excess of default values, HSMAdvisor tries to reduce your Chip Load (Feed Rate).

Reduction in chip load leads to rubbing and premature tool wear.

It is HIGHLY recommended to balance at least one (DOC or WOC) without resorting to Feed Rate compensation

 

Both  DOC and WOC are set to custom values. How do I balance for one of them leaving the other one the same?

Simply Click on the text label in front of the filed you want to reset to default:

After Clicking on DOC label, Depth Of Cut re-sets  to the ideal in this circumstance value.

 

See Also

 

 

Performance Slider

September 20, 2015, 5:59 pm by admin
 

Because in real world any tool can be used for roughing, finishing and general machining, also machining conditions may vary.
HSMAdvisor allows you to choose the preferred material load on your tool.

Performance Slider is available for Milling and Turning Tools.
You need to expand Speed and Feed Adjustments Panel to see it.


The main function of Performance Slider is to adjust the expected performance level of the cutter.

When you intend to make light cuts, you should move Performance Slider all the way to the left.

This ensures low cutting forces but comes at performance hit. Perfect for Light cutting modes on light machines or un-sturdy setups.


The middle position is for General Machining on medium machines with sturdy setups


The right-most position is for heavy-duty roughing operations

Setting Performance Slider to this position may trigger your Tool Torque or Deflection Limits.
To avoid having HSMAdvisor reduce your feed rate to compensate for that, you can increase your Torque or Deflection limits.

This heady-duty position should be used on heavy machines with very sturdy setup.

Video: Operation of Performance Slider

See Also

Circular Interpolation / Ramping Calculator

December 19, 2015, 3:54 pm by admin

HSMAdvisor allows you to properly calculate cutting speeds and feeds for various cutting modes including Circular tool path compensation and Ramping.

The button that enables Circular/Ramp compensation is located on Cut Data panel below DOC and WOC input fields.

This button launches Circular Interpolation/Ramping dialog where you can specify your cutter engagement and various machining modes.

The top group of the option boxes lets you choose the cutter motion mode:

  • Internal (Hole) option lets you calculate cutting parameters for internal hole milling
  • External (Boss) option lets you calculate cutting parameters for outside circular boss milling
  • Straight Line option lets you calculate cutting parameters for Straight Line or Profile Ramping where it is not needed to account for the radius of the toolpath.

Internal (Hole) Milling

When a cutter if milling inside circle, the actual width of cut is larger than it may appear and the feedrate of the circumference of the tool is larger than the programmed feedrate of the center of the tool:

Thus it may be required to decrease the feedrate to prevent the cutter damage.

You do not need to worry for that as HSMAdvisor will automatically detect unfavorable conditions and adjust cutting speed/feed accordingly.

External (Boss) Milling

Contrary to Internal Milling, External Milling actually reduces the actual width of cut and decreases the feedrate of the circumference of the tool compared to the programmed feedrate of the center of the tool:

Likewise HSMAdvisor will adjust cutting parameters according to the circular Interpolation parameters you enter.

Straight Line Ramping

This option is used when Z-Ramping where tool movement in X and/or Y in conjunction with incremental Z motion is used to ramp into material.

In Straight Line Ramping mode only Ramp Plunging option (see below) is available.

Ramping Angle Calculator and Ramp Plunging / Milling switch

By specifying Ramping Angle or Pitch you let HSMAdvisor calculate necessary compensation values for the motion Style you have described in the "Ramping Motion Parameters" group.

In other words whatever X/Y feedrate compensation has been applied before, will be adjusted by the Ramping parameters.

If Ramp Angle is 0, then HSMAdvisor assumes you are plunging straight down

 Ramp Plunging option applies the final compensated feedrate to Plunge Feed like so:

Ramp Milling option applies the resulting feedrate to milling feedrate (Feed) result field:

Please be advised that not all tools are capable of handling large Ramping Angles

Many Indexed Endmills are only capable of 1-1.5 Degree ramping (and it is considered a safe place to start) but some aluminum-specific indexed cutters can handle up to 15 degrees.

Solid End mills are more forgiving, but you should consult your tool manufacturer as to what ramping angle your tool can handle. A 2.5 degree for steels and 5 degree for aluminums are generally safe numbers.

You may like to learn about

Chip Thinning and HSM - High Speed Machining

August 29, 2015, 10:18 am by admin
 
High-Speed Machining is becoming more and more popular each day.

While definitions of HSM may vary between tool manufacturers and even individual shops, the physics behind it remains the same.

High-Speed Machining is a set of programming, machining, and tooling techniques aimed at a radical increase in productivity.

Chip Thinning and HSM machining switches allow HSMAdvisor to account for chip thinning in certain machining modes.

Here is a list of all the possible machining modes that cause chip thinning:

  1. When side-milling with an end mill at low radial engagement angles (Width Of Cut below the radius of the tool)
    This machining style often requires special CAM software with HSM tool paths that ensure your engagement angle never exceeds the amount you have calculated your Speeds and Feeds for.
  2. When machining with radiused tools (such as ball or bull nose end mills) at Axial Depth lower than the Corner Radius of the tool (WOC below the radius of the tool)
    ---OR---
    When machining with cutters that have Lead Angle below 90 degrees (such as 45 deg Face Mills, Feed Mills)
    This machining style employs regular pocketing and profiling tool paths programmed with large WOC (Radial Engagement) and low DOC (Axial Engagement) values

What are the effects of thinning chip on the cutting process

  • Improved chip evacuation: because of low engagement values, chips are less likely to clog the flutes.
  • Less contact time: Allows for higher Cutting Speed
  • Better distribution of load over the flute's length: higher feeds and more MRR (Material Removal Rate) possible.
  • Longer life of the cutting edge: lower engagement improves conditions for each cutting edge
  • Longer tool life: wear spreads over a longer portion of the flute: instead of only using the end of the cutter, you are using a whole flute

How HSMAdvisor accounts for chip thinning

  • Chip Thinning check box allows you to increase the Chip Load or Feed Rate when conditions required for thinning are present (see list of machining modes above that cause thinning)
  • HSM check box allows you to increase Cutting Speed or RPM when chip thinning occurs

These switches are independent of each other and account for both aspects of thinning chip phenomena.

These switches only make any difference when chip thinning actually occurs!

When to use Chip Thinning and when to use HSM checkboxes

Use the Chip Thinning check box when you need to increase the cutting feed rate to improve productivity and increase the tool life.

Do Not use the Chip Thinning check box when finishing walls and floors as it deteriorates surface finish.

Use the HSM check box any time you need to increase cutting speed. It is beneficial for profile and surface finishing walls.

 

You may also like to learn about