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Silicon Graphics International Corp opengl graphic library
Opengl Graphic Library, supplied by Silicon Graphics International Corp, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/opengl+graphic+library/opengl/pmc05761944-115-17-20
Average 90 stars, based on 1 article reviews
opengl graphic library - by Bioz Stars, 2026-09
90/100 stars

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Article Title: Capillary Network Morphometry of Pig Soleus Muscle Significantly Changes in 24 Hours After Death
Article Snippet: The capillaries and fiber surfaces were rendered in the Contours plug-in for the Ellipse program using the OpenGL graphic library (Silicon Graphics International Corp., Milpitas, CA).



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Plotted here is cycle number versus time, in milliseconds, on our test system (see Methods for specifications). There is a linear relationship between these variables, demonstrating roughly equal time intervals between samples. The one exception to this linearity occurs at the time of the first call for a control-screen update (the issuing of a “drawnow” command at 50 ms for the blue line and 100 ms for the red line); at that time, a gap of approximately 23 milliseconds was measured, meaning the software was blind to changes in the behavioral signal during this time. Importantly, no further such gaps are seen afterward, despite continued calls for updating the control screen at regular 50 or 100 ms intervals. Note that the actual screen update is not expected to occur at these times because of the slower refresh rate (60 Hz) and potential delays within <t>OpenGL</t> (the graphics library used <t>by</t> <t>Matlab).</t> Unlike the subject’s display, the experimenter’s display is low-priority (all that is required is a subjective sense of smooth motion), so these delays were not considered problematic. In contrast to what is depicted here, within our software, this first update is called in the first cycle, thereby fixing the expected “blind” interval to the very beginning of the behavioral tracking period. Note also that there is a slight difference in slope between the 50 and 100 ms conditions, reflecting fewer cycles executed in the former case. This likely reflects added background cost when there is an increased frequency of control screen updates (here, this cost is only on the order of 2 to 3 percent).
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Plotted here is cycle number versus time, in milliseconds, on our test system (see Methods for specifications). There is a linear relationship between these variables, demonstrating roughly equal time intervals between samples. The one exception to this linearity occurs at the time of the first call for a control-screen update (the issuing of a “drawnow” command at 50 ms for the blue line and 100 ms for the red line); at that time, a gap of approximately 23 milliseconds was measured, meaning the software was blind to changes in the behavioral signal during this time. Importantly, no further such gaps are seen afterward, despite continued calls for updating the control screen at regular 50 or 100 ms intervals. Note that the actual screen update is not expected to occur at these times because of the slower refresh rate (60 Hz) and potential delays within <t>OpenGL</t> (the graphics library used <t>by</t> <t>Matlab).</t> Unlike the subject’s display, the experimenter’s display is low-priority (all that is required is a subjective sense of smooth motion), so these delays were not considered problematic. In contrast to what is depicted here, within our software, this first update is called in the first cycle, thereby fixing the expected “blind” interval to the very beginning of the behavioral tracking period. Note also that there is a slight difference in slope between the 50 and 100 ms conditions, reflecting fewer cycles executed in the former case. This likely reflects added background cost when there is an increased frequency of control screen updates (here, this cost is only on the order of 2 to 3 percent).
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Solaris Chem Inc opengl graphics library version 1.2.1
Plotted here is cycle number versus time, in milliseconds, on our test system (see Methods for specifications). There is a linear relationship between these variables, demonstrating roughly equal time intervals between samples. The one exception to this linearity occurs at the time of the first call for a control-screen update (the issuing of a “drawnow” command at 50 ms for the blue line and 100 ms for the red line); at that time, a gap of approximately 23 milliseconds was measured, meaning the software was blind to changes in the behavioral signal during this time. Importantly, no further such gaps are seen afterward, despite continued calls for updating the control screen at regular 50 or 100 ms intervals. Note that the actual screen update is not expected to occur at these times because of the slower refresh rate (60 Hz) and potential delays within <t>OpenGL</t> (the graphics library used <t>by</t> <t>Matlab).</t> Unlike the subject’s display, the experimenter’s display is low-priority (all that is required is a subjective sense of smooth motion), so these delays were not considered problematic. In contrast to what is depicted here, within our software, this first update is called in the first cycle, thereby fixing the expected “blind” interval to the very beginning of the behavioral tracking period. Note also that there is a slight difference in slope between the 50 and 100 ms conditions, reflecting fewer cycles executed in the former case. This likely reflects added background cost when there is an increased frequency of control screen updates (here, this cost is only on the order of 2 to 3 percent).
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Plotted here is cycle number versus time, in milliseconds, on our test system (see Methods for specifications). There is a linear relationship between these variables, demonstrating roughly equal time intervals between samples. The one exception to this linearity occurs at the time of the first call for a control-screen update (the issuing of a “drawnow” command at 50 ms for the blue line and 100 ms for the red line); at that time, a gap of approximately 23 milliseconds was measured, meaning the software was blind to changes in the behavioral signal during this time. Importantly, no further such gaps are seen afterward, despite continued calls for updating the control screen at regular 50 or 100 ms intervals. Note that the actual screen update is not expected to occur at these times because of the slower refresh rate (60 Hz) and potential delays within OpenGL (the graphics library used by Matlab). Unlike the subject’s display, the experimenter’s display is low-priority (all that is required is a subjective sense of smooth motion), so these delays were not considered problematic. In contrast to what is depicted here, within our software, this first update is called in the first cycle, thereby fixing the expected “blind” interval to the very beginning of the behavioral tracking period. Note also that there is a slight difference in slope between the 50 and 100 ms conditions, reflecting fewer cycles executed in the former case. This likely reflects added background cost when there is an increased frequency of control screen updates (here, this cost is only on the order of 2 to 3 percent).

Journal:

Article Title: Achieving behavioral control with millisecond resolution in a high-level programming environment

doi: 10.1016/j.jneumeth.2008.06.003

Figure Lengend Snippet: Plotted here is cycle number versus time, in milliseconds, on our test system (see Methods for specifications). There is a linear relationship between these variables, demonstrating roughly equal time intervals between samples. The one exception to this linearity occurs at the time of the first call for a control-screen update (the issuing of a “drawnow” command at 50 ms for the blue line and 100 ms for the red line); at that time, a gap of approximately 23 milliseconds was measured, meaning the software was blind to changes in the behavioral signal during this time. Importantly, no further such gaps are seen afterward, despite continued calls for updating the control screen at regular 50 or 100 ms intervals. Note that the actual screen update is not expected to occur at these times because of the slower refresh rate (60 Hz) and potential delays within OpenGL (the graphics library used by Matlab). Unlike the subject’s display, the experimenter’s display is low-priority (all that is required is a subjective sense of smooth motion), so these delays were not considered problematic. In contrast to what is depicted here, within our software, this first update is called in the first cycle, thereby fixing the expected “blind” interval to the very beginning of the behavioral tracking period. Note also that there is a slight difference in slope between the 50 and 100 ms conditions, reflecting fewer cycles executed in the former case. This likely reflects added background cost when there is an increased frequency of control screen updates (here, this cost is only on the order of 2 to 3 percent).

Article Snippet: Thus, a screen update resulting from the “drawnow” command would appear at some later time, as allowed by OpenGL (the graphics library used by Matlab) and the screen refresh rate.

Techniques: Control, Software