You signed in with another tab or window. Reload to refresh your session.You signed out in another tab or window. Reload to refresh your session.You switched accounts on another tab or window. Reload to refresh your session.Dismiss alert
# Below is an example of injecting additional post-specific styles.
56
-
# If you use this post as a template, delete this _styles block.
57
-
_styles: >
58
-
.fake-img {
59
-
background: #bbb;
60
-
border: 1px solid rgba(0, 0, 0, 0.1);
61
-
box-shadow: 0 0px 4px rgba(0, 0, 0, 0.1);
62
-
margin-bottom: 12px;
63
-
}
64
-
.fake-img p {
65
-
font-family: monospace;
66
-
color: white;
67
-
text-align: left;
68
-
margin: 12px 0;
69
-
text-align: center;
70
-
font-size: 16px;
71
-
}
72
54
---
73
55
74
-
## Equations
75
-
76
-
This theme supports rendering beautiful math in inline and display modes using [MathJax 3](https://www.mathjax.org/) engine.
77
-
You just need to surround your math expression with `$$`, like `$$ E = mc^2 $$`.
78
-
If you leave it inside a paragraph, it will produce an inline expression, just like $$ E = mc^2 $$.
79
-
80
-
In fact, you can also use a single dollar sign `$` to create inline formulas, such as `$ E = mc^2 $`, which will render as $ E = mc^2 $. This approach provides the same effect during TeX-based compilation, but visually it appears slightly less bold compared to double-dollar signs `$$`, making it blend more naturally with surrounding text.
81
-
82
-
To use display mode, again surround your expression with `$$` and place it as a separate paragraph.
Note that MathJax 3 is [a major re-write of MathJax](https://docs.mathjax.org/en/latest/upgrading/whats-new-3.0.html) that brought a significant improvement to the loading and rendering speed, which is now [on par with KaTeX](http://www.intmath.com/cg5/katex-mathjax-comparison.php).
58
+
Advancements in bionic technology are transforming the possibilities for restoring hand function in individuals with amputations or paralysis. This paper introduces a cost-effective bionic arm design that leverages mind-controlled functionality and integrates a sense of touch to replicate natural hand movements. The system utilizes a non-invasive EEG-based control mechanism, enabling users to operate the arm using brain signals processed into PWM commands for servo motor control of the bionic arm. Additionally, the design incorporates a touch sensor (tactile feedback) in the gripper, offering sensory feedback to enhance user safety and dexterity.
59
+
The proposed bionic arm prioritizes three essential features:
60
+
1. Integrated Sensory Feedback: Providing users with a tactile experience to mimic the sense of touch (signals directly going to the brain). This capability is crucial for safe object manipulation by arm and preventing injuries
61
+
2. Mind-Control Potential: Harnessing EEG signals for seamless, thought-driven operation.
62
+
3. Non-Invasive Nature: Ensuring user comfort by avoiding invasive surgical procedures.
63
+
This novel approach aims to deliver an intuitive, natural, and efficient solution for restoring complex hand functions.
0 commit comments