Best Of

I suppose it might be a good reason to start learning feature script and possibly a good project to start with after the I get the basics down. Thanks for the feedback. most appreciated and good luck with your other FS. I might have to add that since I do a little 3D printing. Nice one.

Have you looked at the wiring tools?
https://forum.onshape.com/discussion/comment/113373#Comment_113373

Otherwise it would be pretty easy to make a FS that does a loft between each pair of faces…

Here's some code I create for a simple feature that takes two mate connectors and sweeps a circle along the path. In most cases you won't even need to adjust the "tangency". You would still have to create each "jumper" (as I call them) one by one but all you need is a couple of clicks for each one (it is set to remember last use value for the diameter…
You just need a sketch on the end of your cable jacket for the start of each sweep

I've made it more complex over time but this is back when it was nice and simple to use:

FeatureScript 1589;
import(path : "onshape/std/geometry.fs", version : "1589.0");

annotation { "Feature Type Name" : "Wire Jumper" }
export const myFeature = defineFeature(function(context is Context, id is Id, definition is map)
precondition
{
annotation { "Name" : "Start and End", "Filter" : BodyType.MATE_CONNECTOR, "MaxNumberOfPicks" : 2 }
definition.Connectors is Query;

    annotation { "Name" : "Diameter", "UIHint": UIHint.REMEMBER_PREVIOUS_VALUE }
    isLength(definition.Dia, BLEND_BOUNDS);
    
    annotation { "Name" : "Start Magnitude",}
    isReal(definition.SMagnitude, CLAMP_MAGNITUDE_REAL_BOUNDS);
    
   annotation { "Name" : "End Magnitude?", "UIHint" : UIHint.DISPLAY_SHORT, "Default" : false}
   definition.EndMag is boolean;

    if(definition.EndMag){  
    annotation { "Name" : "End Magnitude","UIHint" : UIHint.DISPLAY_SHORT}
    isReal(definition.EMagnitude, CLAMP_MAGNITUDE_REAL_BOUNDS);
    }       
    // Define the parameters of the feature type
}
{

var Connlist = evaluateQuery(context, definition.Connectors);

var OD = definition.Dia;

var Startpt = evMateConnector(context, {"mateConnector" : Connlist[0]}).origin;
var Starttan = evMateConnector(context, {"mateConnector" : Connlist[0]}).zAxis;

var Endpt = evMateConnector(context, {"mateConnector" : Connlist[1]}).origin;
var Endtan = evMateConnector(context, {"mateConnector" : Connlist[1]}).zAxis;

var stlg = sqrt(squaredNorm(Endpt-Startpt))/meter;
var fudge = 1;

var STanScale = definition.SMagnitudestlgfudge;
var ETanScale = definition.EndMag?definition.EMagnitudestlgfudge:definition.SMagnitudestlgfudge;

opFitSpline(context, id + "fitSpline1", {
"points" : [Startpt, Endpt],
"startDerivative": StarttanSTanScale,
"endDerivative": Endtan-1*ETanScale
});
setAttribute(context, {
"entities" : qCreatedBy(id + "fitSpline1", EntityType.EDGE),
"name" : "Spline",
"attribute" : {
"featureId" : id + "fitSpline1"
}
});

var xdir = evMateConnector(context, {"mateConnector" : Connlist[0]}).xAxis;

var sketch1 = newSketchOnPlane(context, id + "sketch1", {
"sketchPlane" : plane(Startpt, Starttan, xdir)
});
skCircle(sketch1, "circle1", {"center" : vector(0,0)*inch,"radius" : OD/2});

skSolve(sketch1);

opSweep(context, id + "sweep1", {
"profiles" : qCreatedBy(id + "sketch1", EntityType.FACE),
"path" : qCreatedBy(id + "fitSpline1", EntityType.EDGE)
});

    opDeleteBodies(context, id + "deleteBodies1", {
            "entities" : qCreatedBy(id + "sketch1", EntityType.BODY)
    });

});