dsm-arnitel-eco-3d-printer-filament

Arnitel is a high-performance ThermoPlastic Copolyester (TPC) that offers you a unique combination of flexibility, high temperature resistance and strength. Arnitel Eco is manufactured using renewable feedstock, in fact 50% of its content comes from renewable resources, and in particular, rapeseed oil instead of mineral oil. This elastic product outperforms conventional rubbers according to the manufacturer across a variety of applications, and is available in hardnesses ranging from 40 to 70 Shore D. The Arnitel Eco 3D printer filament can be used with any 3D printer that supports PLA filaments as you need to have an extruder temperature of about 230 degrees Celsius for the Arnitel when printing, the same as for PLA.

The higher melting and printing temperature of the Arnitel Eco compared to other flexible filaments that can be used with 3D printers means that you can you can use the printed parts under higher temperature conditions where standard PLA for example will not be suitable. Arnitel Eco has a melting point of up to 200°C, depending on hardness, though at over 100 degrees Celsius it should not start melting for sure, unlike PLA that can start getting softer at over 65 degrees. Even at high temperatures the flexibility of the printed parts using Arnitel Eco the flexibility of the printed elements remain pretty good, so you do not have to worry about that either

As with other flexible filaments you may have trouble on some 3D printers that do not have filament feeding mechanism capable of properly using flexible filament, so you may need to upgrade or modify your filament feeded. The latest MakerBot Replicator 2 printers do not have problem using the Arnitel Eco flexible filament, though you may still get filament jams in the extruder if you are not using the proper printing settings. The rule that generally applies for using flexible filament is also in action here – use slower printing speed of about 1/3 of the normal speed you would use for standard PLA filament. So for example if using a Replicator 2 3D printer you will need to lower the parameter “Speed while Extruding” from 90 mm/s to about 30 mm/s. Depending on your 3D printer you may need to tweak a bit more the speed setting, especially if you are also printing small details where the movement of the extruder is not long enough to allow the cooling of the previous layer before applying the next one over.

makerbot-3d-printer-filament-spools

There are two main types of 3D printer filament that are widely spread and used by Fused deposition modeling (FDM) based 3D printers such as the MakerBot Replicator series for example – these are ABS and PLA, though there are various other alternatives also available. Both ABS and PLA are thermoplastic materials that start to melt when they are heated up, so that they can be used to form another object and solidify when they cool down.

ABS (Acrylonitrile butadiene styrene) is a common thermoplastic often used in 3D printing, but it also has many more applications. 3D printing using ABS has some additional requirements from the printer such as a heated bed, so not all devices are capable of supporting ABS printing. The objects printed from ABS are generally harder and more durable, can be used with higher temperature before starting to soften (about 100 degrees Celsius or more), but are also harder to print and generally provide less detail to the printed parts. If printing with ABS you must be careful and have good ventilation as the fumes produced when ABS is melted for printing are not totally safe.

PLA (Polylactide) is a biodegradable thermoplastic aliphatic polyester derived from renewable resources, such as corn starch for example. PLA is probably the most widely used material for 3D printing as it is easy to handle and offers very good detail level. The only drawback that it has is the relatively low temperature that the material starts to soften – above about 65 degrees Celsius. It does not require the printer to have a heated bed like ABS for example, so it is more 3D printer friendly, especially to the lower cost models.

In general both ABS and PLA have their advantages and disadvantages compared to each other, so you should choose the material based on what you are planning to be using the 3D printed parts for. If you need to print in ABS you should be careful when choosing a 3D printer supporting ABS prints as not all do and it such cases it is better to go for a model that has support for both ABS and PLA. If you are new to 3D printing and are getting your first 3D printer to play with it at home, then it is better to go for a model supporting PLA as you probably will not need ABS printing capabilities. Both ABS and PLA filaments come in the form of thin round lines with specific diameter (1.75mm or 3mm are the most common) that are wrapped around a spool. The 3D printer filament is being sold in spools with the material calculated and priced based on its weight and not length of the line for example, there are already many available colors for both materials that you can find available from various manufacturers.

There are of course many other materials that can be used for 3D printing, though they are mostly experimental and you should be prepared to have some issues and tinker with your 3D printer’s settings should you decide to try them out. There are multiple alternatives for a flexible rubber type of filament available for 3D printers that will allow you to print rubber like flexible models on your device. You can also find filaments that contain carbon, wood and even small stone particles that when printed will create an effect making it like if the 3D printed object is made from carbon, wood or stone or at least looking a lot like that. There are also other kinds of interesting 3D filaments available, but again most of these are experimental and using them can cause some problems on your 3D printer such as jamming of the print head etc., so be careful when you decide to try these out.

3d-printed-model-weight-measure

When you want to calculate the cost of a 3D print from your 3D printed it is very easy to do by measuring the weight of the finished 3D model. You only need a digital scale, preferably one that has sub gram accuracy, but up to 1 gram is fine too. So you just measure the weight of the printed 3D model, do measure any support or raft structures that you may have printed and has removed from the model as well. Then just do the following math (the numbers are just estimated and in your case they may be different:

1 kg or filament material cost = $50 USD
1 gram of filament = 1/1000 of kg = $0.05 USD

A printed 3D model weighting 4 grams = 4x 0.05 or a total of $0.2 USD

This calculation however is true only for the 3D printing material you are using, but if you really need to make a more adequate cost calculation you also need to include the power that your 3D printer is using and the time taken for the 3D print to be produced. For example the maximum power usage of a MakerBot Replicator 2 printer is 150 Watts, so for a model that is printed in 1 hour you need to calculate to power used:

0.15KW times $0.20 USD per KWh = $0.03 USD for the power used
$0.2 USD for the filament material used + $0.03 USD for the power = $0.23 USD

You can of course go even further by adding the wear and tear cost of using the 3D printer, however this cost is hard to calculate, especially if you are going to be using the calculation to price 3D prints for customers that want their 3D printed models. If you are doing the 3D printing for yourself the price of the filament and power used should normally be enough to calculate the costs.

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