ELASTIC STIMULATING DILATOR CLIP FOR NEUROMONITORING
Disclosed are various embodiments of a dilator clip which may include a first member and a second member attached at a central hinged and aligned, wherein a first member handle and a second member handle are adapted for compressing to move the dilator clip into an open state. The dilator clip may further comprise a compression band in which compressive forces are applied to secure the dilator clip against a dilator. The dilator clip may further comprise a first or second member with an embedded electrode for monitoring electrical signals. Further disclosure provides methods for utilizing and acquiring electrical/neurological signals from the dilator clip.
1 . A dilator clip for neurological monitoring during continuous real-time electromyography, comprising:
a first member and a second member, comprising a first member handle region, a second member handle region, a first member pressure region, and second member pressure region;
a central hinge connecting the first member and the second member, the central hinge comprising a mechanical force element that applies mechanical force to drive the first member pressure region and the second member pressure region together;
a compression band secured through an opening on the first member pressure region and the second member pressure region; and
an embedded electrode within the second member pressure region, wherein the embedded electrode is configured to contact a tubular dilator.
2 . The dilator clip of claim 1 , wherein the compression band is comprised of an elastic band.
3 . The dilator clip of claim 1 , further comprising a housing structure within the second member with a cavity for housing a lead wire to the embedded electrode.
4 . The dilator clip of claim 3 , further comprising the lead wire soldered to the embedded electrode.
5 . The dilator clip of claim 1 , wherein the compression band further comprises conductive material to acquire and/or deliver electrical signals.
6 . The dilator clip of claim 1 , wherein the central hinge is comprised of a pin that integrates with a torsion spring that forces the first member pressure region and the second member pressure region into a closed state by applying pressure to the first member pressure region and the second member pressure region.
7 . The dilator clip of claim 1 , wherein the compression band is coated with a layer of lubricant to have a low friction coefficient to allow for rotation around a central axis of the tubular dilator.
8 . The dilator clip of claim 1 , wherein the dilator clip is comprised of a semi-rigid polymeric material.
9 . The dilator clip of claim 1 , further comprising a plurality of compression bands.
10 . The dilator clip of claim 1 , wherein the central hinge is comprised of a compression spring.
11 . A method of acquiring signals from a dilator clip, comprising:
providing a first member and a second member, comprising a first member handle region, a second member handle region, a first member pressure region, and second member pressure region, and a central hinge connecting the first member and the second member, the central hinge comprising a mechanical force element that applies mechanical force to drive the first member pressure region and the second member pressure region together, and a compression band secured through an opening on the first member pressure region and the second member pressure region, and an embedded electrode within the second member pressure region, wherein the embedded electrode is configured to contact a tubular dilator;
applying pinching pressure to the first member handle region and the second member handle region causing the central hinge to move the first member pressure region and the second member pressure region to an open state;
placing the first member pressure region and the second member pressure region around the tubular dilator so that the compression band is in contact with the tubular dilator; and
releasing pressure on the first member handle region and the second member handle region causing the central hinge to decompress and force the first member pressure region and the second member pressure region into a closed state.
12 . The method of claim 11 , further comprising acquiring electrical signals through the embedded electrode.
13 . The method of claim 11 , further comprising providing a housing structure within the second member with a cavity for housing a lead wire to the embedded electrode.
14 . The method of claim 11 , further comprising soldering a lead wire to the embedded electrode.
15 . The method of claim 11 , further comprising providing the compression band with a conductive material to acquire and/or deliver electrical signals.
16 . The method of claim 11 , further comprising providing a pin on the central hinge that integrates with a torsion spring that forces the first member pressure region and the second member pressure region into the closed state.
17 . The method of claim 11 , further comprising providing the compression band with a lubricant coating to have a low friction coefficient to allow for rotation around a central axis of the tubular dilator.
18 . The method of claim 11 , further comprising providing the dilator clip comprising a semi-rigid polymeric material.
19 . The method of claim 11 , further comprising providing a plurality of compression bands for attaching to the first member and the second member.
20 . The method of claim 11 , further comprising removing the dilator clip by compressing the first member handle region and the second member handle region and moving the first member pressure region and the second member pressure region away from the tubular dilator.