Z98 rocks

Various ways i found that mastercam hangs on z value of the point selected, even if you change the value o "Top of stock..." it ignors. Look this exemple: I selected a point with the z coordinate value of 100.00 mm, configure the toolpath (drill) like this: and i get this : G98 G81 Z98. R2. F100. Looks like Mastercam is ignoring the Value of "Top of Stock" . Can someone test? Drill_point.mcam Quote Link to comment Share on other sites Share On ‎6‎/‎15‎/‎2018 at 7:14 AM, Amsha said: I analise the nci file and the "-3" is there istead of -5. Have you edited the post, CD or MD ? Quote Link to comment Share on other sites Author Share On 19/06/2018 at 9:42 PM, nickbe10 said: Have you edited the post, CD or MD ? CD or MD, translate please. Quote Link to comment Share on other sites Share 8 hours ago, Amsha said: CD or MD, translate please. CD = Control Definition MD = Machine Definition Quote Link to comment Share on other sites Share On ‎6‎/‎18‎/‎2018 at 4:54 AM, Amsha said: AS Goldorak said , using the 2D/3D mode wouild correct the problem, i tested and it dosen´t. After test various ways i found that mastercam hangs on z value of the point selected, even if you change the value o "Top of stock..." it ignors. Look this exemple: I selected a point with the z coordinate value of 100.00 mm, configure the toolpath (drill) like this: and i get this : G98 G81 Z98. R2. F100. Looks like Mastercam is ignoring the Value of "Top of Stock" . Can someone test? Drill_point.mcam What you are attempting to do with your example makes zero sense. That is the reason it isn't working for you. You can

Absolutely use the "Absolute" radio button option with the Drill Cycles, to force the system to ignore the "depth" of the Point. Your problem though, is that you can't have a Top of Stock (TOS), that is "physically below" your geometry point, unless you also use the "Absolute" option to also override the depth of the drilled point, and that overridden depth is lower than your overridden TOS. Your point is a Z100. (above Z Zero!!!) You are then telling the system to "override" that TOS depth value, with an absolute value of Z0.0. Then, you want to drill to "-2.0", Incremental, which is defined as an incremental distance, from wherever the geometry depth is located! This is why you are getting (correctly) a Z98. (Because your geometry is located at Z100.) Your Top of Stock can never be defined as "below" the final drill position. Any time you attempt to do this inside Mastercam, the system wisely ignores your input, since it makes no logical sense. To prove this to yourself, try entering a Top of Stock value of "105." absolute. You will get an "initial point" that is output before the G81 drill cycle. Also, try entering a Top of Stock as "5.0 Incremental". This will also work. Quote Link to comment Share on other sites Share If you are defining Drill Points for a 5 Axis, I would highly recommend that you create a Point entity, at the actual top of your hole, and that you use Incremental for all your Clearance, Retract, Top of Stock, and Depth values. Why? Why would I recommend that you use all "Incremental" settings? Because the depth values come from the "point" itself, relative to your Tool Plane and WCS Origin (depending on the Misc. Integer settings, for the Generic Fanuc

Construction, paving, and decoration. River rocks are famous among people who prefer natural and eco-friendly materials. Nature tried to break these rocks, but they were harder to withstand. So, these rocks are highly preferable in construction. They are safe and durable.TIP: Rivers are often great places for rockhounding. There you can find a lot of beautiful rare rocks. Check out the most common rocks you can find in or near rivers in the article below:10 Most Common Types of Rocks You Can Find In RiversWhat Kind of Stone is River RockRiver rocks come in all shapes and sizes, depending on the rocks around them. They’re mostly found in hilly or mountainous areas where there are lots of tough rocks and steep slopes. Gravity helps the water tumble the rocks downhill, making them smooth and round. Flat, dry areas don’t have many river rocks because there aren’t many rocks to start with, and the land isn’t sloped enough for the water to move around.River rocks can be made from many different types of tough rocks, like granite, gneiss, and sandstone. These rocks are packed with hard minerals like quartz, which helps them resist getting worn down too quickly by the water.Most river rocks are extremely hard. Crystalline igneous rocks, microcrystalline metamorphic rocks, and fine-grained sedimentary rocks commonly represent them. Some common types of rock that can be found in river rocks include:Granite – a hard, crystalline igneous rock,Basalt – a dark-colored, fine-grained igneous rock,Quartzite – a hard metamorphic rock that was

And methods. Using base classes reduce code redundancy in apps and are useful when supplying base code from class libraries to multiple apps. For more information, see Inheritance in C# and .NET.In the following example, the BlazorRocksBase1 base class derives from ComponentBase.BlazorRocks1.razor:@page "/blazor-rocks-1"@inherits BlazorRocksBase1Blazor Rocks!Blazor Rocks! Example 1 @BlazorRocksText@page "/blazor-rocks-1"@inherits BlazorRocksBase1Blazor Rocks!Blazor Rocks! Example 1 @BlazorRocksText@page "/blazor-rocks-1"@inherits BlazorRocksBase1Blazor Rocks!Blazor Rocks! Example 1 @BlazorRocksText@page "/blazor-rocks-1"@inherits BlazorRocksBase1Blazor Rocks!Blazor Rocks! Example 1 @BlazorRocksText@page "/blazor-rocks-1"@inherits BlazorRocksBase1Blazor Rocks! Example 1 @BlazorRocksText@page "/blazor-rocks-1"@inherits BlazorRocksBase1Blazor Rocks! Example 1 @BlazorRocksTextBlazorRocksBase1.cs:using Microsoft.AspNetCore.Components;namespace BlazorSample;public class BlazorRocksBase1 : ComponentBase{ public string BlazorRocksText { get; set; } = "Blazor rocks the browser!";}using Microsoft.AspNetCore.Components;namespace BlazorSample;public class BlazorRocksBase1 : ComponentBase{ public string BlazorRocksText { get; set; } = "Blazor rocks the browser!";}using Microsoft.AspNetCore.Components;namespace BlazorSample;public class BlazorRocksBase1 : ComponentBase{ public string BlazorRocksText { get; set; } = "Blazor rocks the browser!";}using Microsoft.AspNetCore.Components;namespace BlazorSample;public class BlazorRocksBase1 : ComponentBase{ public string BlazorRocksText { get; set; } = "Blazor rocks the browser!";}using Microsoft.AspNetCore.Components;namespace BlazorSample;public class BlazorRocksBase1 : ComponentBase{ public string BlazorRocksText { get; set; } = "Blazor rocks the browser!";}using Microsoft.AspNetCore.Components;namespace BlazorSample;public class BlazorRocksBase1 : ComponentBase{ public string BlazorRocksText { get; set; } = "Blazor rocks the browser!";}RoutingRouting in Blazor is achieved by providing a route template to each accessible component in the app with an @page directive. When a Razor file with an @page directive is compiled, the generated class is given a RouteAttribute specifying the route template. At runtime, the router searches for component classes with a RouteAttribute and renders whichever component has a route template that matches the requested URL.The following HelloWorld component uses a route template of /hello-world, and the rendered webpage for the component is reached at the relative URL /hello-world.HelloWorld.razor:@page "/hello-world"Hello World!Hello World!@page "/hello-world"Hello World!Hello World!@page "/hello-world"Hello World!@page "/hello-world"Hello World!@page "/hello-world"Hello World!@page "/hello-world"Hello World!The preceding component loads in the browser at /hello-world regardless of whether or not you add the component to the app's UI navigation. Optionally, components can be added to the NavMenu component so that a link to the component appears in the app's UI-based navigation.For the preceding HelloWorld component, you can add a NavLink component to the NavMenu component.