Difference between revisions of "Generic Lab Equipment"

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== Links to other pages ==
 
== Links to other pages ==
  
'''Citizen of Science'''
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'''Appropedia - Building research equipment with free, open-source hardware'''
  
With the use of recycled and second-hand items I hope that individuals and teachers will use this blog to bring back the joys of doing science. Warning - I am not responsible for any damage or injuries obtained while using any information from this blog. This is for information purposes only.
+
Most experimental research projects are executed with a combination of purchased hardware equipment, which may be modified in the laboratory and custom single-built equipment fabricated inhouse. However, the computer software that helps design and execute experiments and analyze data has an additional source: It can also be free and open-source software (FOSS). FOSS has the advantage that the code is openly available for modification and is also often free of charge. In the past, customizing software has been much easier than custom-building equipment, which often can be quite costly because fabrication requires the skills of machinists, glassblowers, technicians, or outside suppliers. However, the open-source paradigm is now enabling creation of open-source scientific hardware by combining 3D printing with open-source microcontrollersW running on FOSS. These developments are illustrated below by several examples of equipment fabrication that can better meet particular specifications at substantially lower overall costs.
  
* http://citsci.blogspot.com.au/
+
* http://www.appropedia.org/Building_research_equipment_with_free,_open-source_hardware
  
  
'''Appropedia - Building research equipment with free, open-source hardware'''
+
'''Citizen of Science'''
  
Most experimental research projects are executed with a combination of purchased hardware equipment, which may be modified in the laboratory and custom single-built equipment fabricated inhouse. However, the computer software that helps design and execute experiments and analyze data has an additional source: It can also be free and open-source software (FOSS). FOSS has the advantage that the code is openly available for modification and is also often free of charge. In the past, customizing software has been much easier than custom-building equipment, which often can be quite costly because fabrication requires the skills of machinists, glassblowers, technicians, or outside suppliers. However, the open-source paradigm is now enabling creation of open-source scientific hardware by combining 3D printing with open-source microcontrollersW running on FOSS. These developments are illustrated below by several examples of equipment fabrication that can better meet particular specifications at substantially lower overall costs.
+
With the use of recycled and second-hand items I hope that individuals and teachers will use this blog to bring back the joys of doing science. Warning - I am not responsible for any damage or injuries obtained while using any information from this blog. This is for information purposes only.
  
* http://www.appropedia.org/Building_research_equipment_with_free,_open-source_hardware
+
* http://citsci.blogspot.com.au/

Revision as of 14:45, 10 February 2015

Let's make an overview and show some historic examples...



Links to other pages

Appropedia - Building research equipment with free, open-source hardware

Most experimental research projects are executed with a combination of purchased hardware equipment, which may be modified in the laboratory and custom single-built equipment fabricated inhouse. However, the computer software that helps design and execute experiments and analyze data has an additional source: It can also be free and open-source software (FOSS). FOSS has the advantage that the code is openly available for modification and is also often free of charge. In the past, customizing software has been much easier than custom-building equipment, which often can be quite costly because fabrication requires the skills of machinists, glassblowers, technicians, or outside suppliers. However, the open-source paradigm is now enabling creation of open-source scientific hardware by combining 3D printing with open-source microcontrollersW running on FOSS. These developments are illustrated below by several examples of equipment fabrication that can better meet particular specifications at substantially lower overall costs.


Citizen of Science

With the use of recycled and second-hand items I hope that individuals and teachers will use this blog to bring back the joys of doing science. Warning - I am not responsible for any damage or injuries obtained while using any information from this blog. This is for information purposes only.