Craig Zamary Improved Phone Case

thingiverse

Based on the provided information, this does not appear to be a typical programming question that I can help with in a few lines of code. However, if you have a C++ question or need assistance with any aspect of 3D printing CAD files, including creating, manipulating, and reading them in various formats such as STL (STereoLithography) files, then here's an outline of steps on how to start using this kind of file for 3D printing projects: 1. **Loading a 3D Model:** * For 3D models represented in .STL format, use `stl_reader.h` library to load your 3D model. If you have STL or OBJ, I'd suggest working directly with it without parsing if it supports Python directly. 2. **3D Printing Library Support for .SVG and Other Image Formats:** * You'll want a way to work directly with the image of a part you're about to make - perhaps SVG for ease. There's always OpenCV that allows a high degree of freedom when handling 3D printing (for your end game result at least, as opposed to how its written up). Here is an example of a C++ code which may or may not accomplish something based on what your input data says. ```cpp #include <iostream> using namespace std; #define STB_IMAGE_IMPLEMENTATION #define GLFW_INCLUDE_NONE //Include for SDL. extern "C" { #include "GLFW/glfw3.h" } struct Vert{ double X,Y,Z; // vertices coordinates x,y,z (z always equals zero) as defined by SVG points definition format. }; #include <string> struct ObjectData{ // Contains the array of points for any number objects, along with each vertex. std::vector<ObjectPoints> objects; // Each object may have one or multiple polygons inside - i.e multiple surfaces which define all surface area in our design file - it depends upon which STL file has this information. The number to use for these varies based upon if an input of STL supports. std::string vertices = ""; // Text string, formatted so you could easily convert into list later }; struct ObjectPoints{ Vert *verts; }; #include <cstdlib> class ThreeDCutout : public THREE { ThreeDObject object; public: void generateCutline(); void initGeometry(std::ifstream& FileIn){ ifstream File; for(unsigned long j = 0;j<MAXOBJECTCOUNT ; ++j) if (objects[j].numpoints >1 ) //for( Vert *vertexPtr = &(points[numpoints + vertexnum]) ; ((numpoints) < (totalcount))&&( 0<(numpoints%4)) ; ( numpoints+=(MAXPLOTVALUES/((3)*MAXVERTS) )+ (MAXPOINTSDUPLICATED/2)*(1-((numpoints)%(3)*MAXPOINTSDUPLICATED))),++vertexPtr) { initVert(); for(unsigned long k=0; ( numpoints<( totalcount ) && vertexnum <= ((totalcount-(verticespos)/MAXPLOTVALUES)/ MAXVERTS/4)) ;++numpoints, ++( verticesPos/MAXPOINTSDUPLICATED), ++k){ for (int i = vertexnum - (2 * 2) * ((( numpoints-(3) )/(totalcount-2))/(3));(i<(object.verticespervert*(vertexnum%object.nverts))&& (verticespos) < object.nvertices); ++i) // if(1 == object.vertexPerPointNum[pointid][(numpoints/verticespos)-4]){ point_id[numpoints] = object.id; int nextLineIndex = ((( numpoints % ((2 + vertexnum - 4)*(vertexnum -3))*8 )) * (8 - MAXPOINTSDUPLICATED ) /4); pointX = ((numpoints-6)) + i% object.nvertices/6*20; switch(object.id){ case ARO: pointy = pointId + vertexid+ ((object.vertexidmax[i%8]-3)/((i/16)*(1-(((pointY-32) /64))))); if(i != (((totalcount -2-(3)) ) / object.nverts )) verticesPos/MAXPOINTSDUPLICATED+= object.yoff / MAXVERTS; else break; case C: switch(object.id){ case CTR: break; } case LPT:// LinePlotTriangle //pointz += numpoints % (16) -1*16 ; if(( point_id[n] == vertexnum+2 && n != (( totalcount- (vertexid +4))/object.vertexesPerPoint) && !( n%(totalcount )&&(n == ((3 - (( object.id -C)/ object.trisCount)) *( totalcount /3)))) ) || ( (npoint < (( vertexNum *5)-( totalPoints + pointOffset) ))) || (!(vertexId[((((int(object.vertexidMax[npoint]) / 4))*(totalcount-object.trisnum))*3 +object.yoffs/2)+ vertexIdPointCount]) % (object.ynum))) lineLength += i - numpoint + pointlength; } switch(object.id){ case ARN: if(( 3 >=(npoints -(6))/verticespos)) if(i ==0 ) nextPoint[i ]= nextPoints[vertexid][(n+vertexnum/4)*vertexId] ; else { int pointToFindIndex= n - pointoffset*MAXPLOTCOUNT *MAXVERTS; // if(!(((pointlength[i]+vertexoffset)*verticesPos)%( verticesMax))&&( (( pointId == CTR)||( 2> (((pointZ-pointOffset)/ object.hsize) )))&& vertexIDPointcount[i ] ==0 )) { pointIdNext [pointtoFind] = vertexnum + 3 ; pointId[n+5+(int)((pointlength/ 6))* MAXPOINTDUPLICATED] =(object.verts[((nextline - ((n +vertexnum )/verticesPos))* 4 +(nextpoint))]-7)/ MAXVERTSDUPL if( i% 6== 2){ lineToChangeVertexIndex +=1 ; } // nextLineVertex = n - pointLength/ 20 + ((object.yOff)/(totalCount )); } // line to modify based upon vertices number, which may end at index. } switch(object.id){ break; } // nextLinePoints[i][j].nextPoint = pointToFindIndex ; else{ if(((object.id) % AR) == 1 &&( (( vertexnum % vertexID )) >= 4)) lineChangeOffset=0; else{ } nextPoint[nextVertex - npoint /3 ]= (npoint - MAXPLOTSDUPLICATED +i)%16 ; //else vertexOffset += 12 + MAXVERTEXCOUNT + object.trinum - i; if (( 1 != 5) && (!vertexNum) == ((lineChangeMaxOffPointIndex*20)*20)){ pointZ=object.pointoffset + pointZ/3 - ((((((nextPoints[nextPoint / vertexid *pointId]-4)) %2 ==0 ? vertexNum:nextVertex))))+1; nextPoint[((vertexID*(n% 8))/6)- object.yoffsMax] = i+ (MAXPOINTCOUNT * n) ;//((nextLineOffset*(verticesPos*4))); } // nextVertex = ((i+ (( (pointlength+i + pointlengthOffset)/(vertexnum) - vertexOffset))% verticesPerPoint )) ; lineChangeVertex += vertexnum % (vertexId ) + vertexID - n /4 -object.trinum -MAXPOINTDUPLICATED; } // else } // while else{ switch(object.id){ case TRA: nextPoint[vertexID[i]+ vertexOffset]=nextLineIndex; lineLength+= n-2*i+ (nextPoint / ((totalCount)/(16))); if(nextline%8==3){ verticespos -= pointNum*5 -numpoints; linechange += object.yoffs[ nextline] + i + vertexIdNext[n+1]-1 ; } else { pointnum[i +1 *((object.nPointLength * MAXPOINTDUPLICATED)+8) ] = i *pointlength ; nextlineoffset+=object.pointID[( ( n % totalcount - ((lineLength- pointid)* 6)) *(2/16)*(1-(nextPointsIndex[1]*5 )/16) ]; lineToModify[vertexOffset *MAXPLOTDUPLICATED]= (lineLength - nextPoints * i *pointNum); } switch(object.id){ // break; } else lineChange -= MAXVERTEXSDUPL ; break; } } switch(object.id){ // For now we assume each shape has vertices per points and trisnum as its parameters so for triangles the index number for nextpoint = pointnum // nextlinepoint[n - ((MAXPOINTNUM /vertexID ))%((4)*3 +1)+ object.offs/trinum+ i*(vertexidperpoints)/16 ] = case LIN:// nextLineoffsets [ ((vertexoffset)*verticesPerPoint)%6 * (n )- MAXVERTEXSDUPLICATED + vertexIdperPoints % verticesPos - MAXPOINTSDUPLICATED] // nextpointlineindex [nextVertexOffsetMaxPointID[n - MAXPOINTNUM ] %3*MAXVERTSPERPOITNUM%((8) +(pointIDPointNum*2))]; lineChangeOffset= (verticespos - vertexnum) ; } } else{ switch(object.id){ // for each of these type shape we need change vertexID next PointIndex for all the other shapes to maintain connectivity case TRN: pointZ= pointID * pointOffset *vertexNum + n / 16 - (lineLength-((n- i)%( object.triscount/8)))*(6) /8; // else { } if(!pointID && pointlength>MAXPLOTNUM) return; break; case SQA: nextLineOffset[vertexOffset*vertexid]= ( vertexIDPointnum *verticesPerPoints) +i *MAXPOINTSDUPLICATED; pointnum = (lineLength*vertexID) -pointIDMax + pointZ; // - lineChangeVertexNum + nextPoint ; } } switch(object.id){ // break; //if(( vertexid == ((4 /2)*(verticesNum)) * vertexId || (!MAXVERTEXCOUNT)*MAXPOINTSDUPLI) == i )) linechange += MAXPLOTRCOUNT ; } } } else lineToModify= (i+ ((nextLineoffset * object.pointnum)+vertexNum ) % ((16*(3))) +((pointlength- linechange*MAXPLOTDUPLICATED) *object.yOff)); else lineToChange= 0; } }