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/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/WINDGAUGE02A_L01.scad
File deleted
\ No newline at end of file

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/WINDGAUGE02A_R01.scad
65,6 → 65,6
}
}
//WINDGAUGE02A_R01(R02_sila_mateiralu_pod_lopatkami,L01_hloubka_zapusteni_drzaku,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,prumer_pomocne_trubicky,zapusteni_pomocne_trubicky,vule_mezi_statorem_rotorem,R01_vyska_preryti_statoru,R01_sila_materialu_pro_prekriti,S01_sila_materialu);
WINDGAUGE02A_R01(R02_sila_mateiralu_pod_lopatkami,L01_hloubka_zapusteni_drzaku,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,prumer_pomocne_trubicky,zapusteni_pomocne_trubicky,vule_mezi_statorem_rotorem,R01_vyska_preryti_statoru,R01_sila_materialu_pro_prekriti,S01_sila_materialu);

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/WINDGAUGE02A_R03.scad
39,4 → 39,5
}
//WINDGAUGE02A_R03(R03_sila_materialu,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,vule_mezi_statorem_rotorem,R01_sila_materialu_pro_prekriti,R02_sila_mateiralu_pod_lopatkami,S01_sila_materialu);
WINDGAUGE02A_R03(R03_sila_materialu,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,vule_mezi_statorem_rotorem,R01_sila_materialu_pro_prekriti,
R02_sila_mateiralu_pod_lopatkami,S01_sila_materialu);

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/WINDGAUGE02A_R02.scad
1,46 → 1,46
$fn=40; // model faces resolution.
include <../configuration.scad>
module WINDGAUGE02A_R02(R02_sila_mateiralu_pod_lopatkami,L01_hloubka_zapusteni_drzaku,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,prumer_pomocne_trubicky,zapusteni_pomocne_trubicky)
{
difference()
{
cylinder (h = R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku, r=(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2, center = true, $fn=100);
//otvor pro lopatku 1
rotate(a=[0,0,0])
translate([(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2-L01_hloubka_zapusteni-L01_sila_zapusteni_drzaku/2,0,((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-L01_hloubka_zapusteni_drzaku/2])
cube([L01_sila_zapusteni_drzaku+L01_tolerance_drzaku,L01_hrana_drzaku_a+L01_tolerance_drzaku,L01_hloubka_zapusteni_drzaku],true);
//otvor pro lopatku 2
rotate(a=[0,0,120])
translate([(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2-L01_hloubka_zapusteni-L01_sila_zapusteni_drzaku/2,0,((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-L01_hloubka_zapusteni_drzaku/2])
cube([L01_sila_zapusteni_drzaku+L01_tolerance_drzaku,L01_hrana_drzaku_a+L01_tolerance_drzaku,L01_hloubka_zapusteni_drzaku],true);
//otvor pro lopatku 3
rotate(a=[0,0,240])
translate([(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2-L01_hloubka_zapusteni-L01_sila_zapusteni_drzaku/2,0,((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-L01_hloubka_zapusteni_drzaku/2])
cube([L01_sila_zapusteni_drzaku+L01_tolerance_drzaku,L01_hrana_drzaku_a+L01_tolerance_drzaku,L01_hloubka_zapusteni_drzaku],true);
//otvor na hřídelku
cylinder (h = R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku+0.1, r=prumer_osicky/2, center = true, $fn=100);
//otvor pro pomocnou trubicku
translate([0,0,-(((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-zapusteni_pomocne_trubicky/2)])
cylinder (h = zapusteni_pomocne_trubicky, r=prumer_pomocne_trubicky/2, center = true, $fn=100);
}
}
//WINDGAUGE02A_R02(R02_sila_mateiralu_pod_lopatkami,L01_hloubka_zapusteni_drzaku,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,prumer_pomocne_trubicky,zapusteni_pomocne_trubicky);
$fn=40; // model faces resolution.
include <../configuration.scad>
module WINDGAUGE02A_R02(R02_sila_mateiralu_pod_lopatkami,L01_hloubka_zapusteni_drzaku,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,prumer_pomocne_trubicky,zapusteni_pomocne_trubicky)
{
difference()
{
cylinder (h = R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku, r=(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2, center = true, $fn=100);
//otvor pro lopatku 1
rotate(a=[0,0,0])
translate([(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2-L01_hloubka_zapusteni-L01_sila_zapusteni_drzaku/2,0,((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-L01_hloubka_zapusteni_drzaku/2])
cube([L01_sila_zapusteni_drzaku+L01_tolerance_drzaku,L01_hrana_drzaku_a+L01_tolerance_drzaku,L01_hloubka_zapusteni_drzaku],true);
//otvor pro lopatku 2
rotate(a=[0,0,120])
translate([(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2-L01_hloubka_zapusteni-L01_sila_zapusteni_drzaku/2,0,((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-L01_hloubka_zapusteni_drzaku/2])
cube([L01_sila_zapusteni_drzaku+L01_tolerance_drzaku,L01_hrana_drzaku_a+L01_tolerance_drzaku,L01_hloubka_zapusteni_drzaku],true);
//otvor pro lopatku 3
rotate(a=[0,0,240])
translate([(R02_vzdalenost_mezi_uchyty_lopatek+2*L01_sila_zapusteni_drzaku+2*L01_hloubka_zapusteni)/2-L01_hloubka_zapusteni-L01_sila_zapusteni_drzaku/2,0,((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-L01_hloubka_zapusteni_drzaku/2])
cube([L01_sila_zapusteni_drzaku+L01_tolerance_drzaku,L01_hrana_drzaku_a+L01_tolerance_drzaku,L01_hloubka_zapusteni_drzaku],true);
//otvor na hřídelku
cylinder (h = R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku+0.1, r=prumer_osicky/2, center = true, $fn=100);
//otvor pro pomocnou trubicku
translate([0,0,-(((R02_sila_mateiralu_pod_lopatkami+L01_hloubka_zapusteni_drzaku)/2)-zapusteni_pomocne_trubicky/2)])
cylinder (h = zapusteni_pomocne_trubicky, r=prumer_pomocne_trubicky/2, center = true, $fn=100);
}
}
WINDGAUGE02A_R02(R02_sila_mateiralu_pod_lopatkami,L01_hloubka_zapusteni_drzaku,R02_vzdalenost_mezi_uchyty_lopatek,L01_sila_zapusteni_drzaku,L01_hloubka_zapusteni,prumer_pomocne_trubicky,zapusteni_pomocne_trubicky);

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/lopatky.scad
0,0 → 1,50
$fn=40; // model faces resolution.
include <../configuration.scad>
//Model lopatky
module WINDGAUGE02A_L01(L01_hloubka_zapusteni,L01_hloubka_zapusteni_drzaku,L01_sila_zapusteni_drzaku,L01_hrana_drzaku_a,L01_hrana_drzaku_b,L01_tolerance_drzaku,L01_delka_uchytu,L01_prumer_lopatky,L01_sila_materialu_lopatky)
union()
{
//prechod lopatka drzak
difference()
{
translate([-L01_hrana_drzaku_a/2,L01_prumer_lopatky/4,0])
cube([L01_hrana_drzaku_a,(L01_prumer_lopatky/2)+5,L01_hrana_drzaku_b],center=true);
sphere(d = L01_prumer_lopatky, $fn=100);
}
difference()
{
//lopatka
sphere(d = L01_prumer_lopatky, $fn=100);
sphere(d = L01_prumer_lopatky-2*L01_sila_materialu_lopatky, $fn=100);
translate([0,-L01_prumer_lopatky/2,-L01_prumer_lopatky/2])
cube(size = L01_prumer_lopatky);
}
//uchyt_lopatky - tycka
translate([-L01_hrana_drzaku_a/2,L01_prumer_lopatky/2+L01_delka_uchytu/2,0])
cube([L01_hrana_drzaku_a,L01_delka_uchytu,L01_hrana_drzaku_b],center=true);
//uchyt_lopatky - tycka v rotoru
translate([-L01_hrana_drzaku_a/2,L01_prumer_lopatky/2+L01_delka_uchytu+L01_hloubka_zapusteni/2,0])
cube([L01_hrana_drzaku_a,L01_hloubka_zapusteni,L01_hrana_drzaku_b],center=true);
//uchyt_lopatky - v rotoru
translate([-L01_hrana_drzaku_a/2,L01_prumer_lopatky/2+L01_delka_uchytu+L01_hloubka_zapusteni+L01_sila_zapusteni_drzaku/2,0])
cube([L01_hrana_drzaku_a,L01_sila_zapusteni_drzaku,L01_hrana_drzaku_b+2*L01_hloubka_zapusteni_drzaku],center=true);
}
WINDGAUGE02A_L01(L01_hloubka_zapusteni,L01_hloubka_zapusteni_drzaku,L01_sila_zapusteni_drzaku,L01_hrana_drzaku_a,L01_hrana_drzaku_b,L01_tolerance_drzaku,L01_delka_uchytu,L01_prumer_lopatky,L01_sila_materialu_lopatky);

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/kryt_rotoru.scad
0,0 → 1,46
$fn=40; // model faces resolution.
//include <../configuration.scad>
//kryt_rotoru(prumer_rotoru1,sila_materialu,prumer_sroubu,vyska_rotoru1);
/*
prumer_rotoru1 - urcuje vnitrni prumer krytu
sila_materialu - urcuje tloustku materialu krytu
prumer
vyska_rotoru1 - urcuje vysku, kterou prekryva kryt rotor 1
*/
module kryt_rotoru(prumer_rotoru1,sila_materialu,vyska_rotoru1)
{
//kopule
difference()
{
sphere(d = prumer_rotoru1+2*sila_materialu, $fn=100);
sphere(d = prumer_rotoru1+0.1, $fn=100);
translate([0,0,-(prumer_rotoru1+2*sila_materialu)/2])
cube(size = [prumer_rotoru1+2*sila_materialu, prumer_rotoru1+2*sila_materialu, prumer_rotoru1+2*sila_materialu], center = true);
}
//válcová část krytu
difference()
{
//zakladni valec
translate([0,0,-vyska_rotoru1/2])
cylinder (h = vyska_rotoru1, r=(prumer_rotoru1+2*sila_materialu)/2, center = true, $fn=100);
//válec pro vykrojení
translate([0,0,-vyska_rotoru1/2])
cylinder (h = vyska_rotoru1+0.05, r=(prumer_rotoru1+0.1)/2, center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/rotor1.scad
0,0 → 1,102
$fn=40; // model faces resolution.
//include <../configuration.scad>
/*
prumer_rotoru1 - vnejsi prumer
vyska_rotoru1 - vyska rotoru1 bez vysky uchytu lopatky
prumer_sroubu-
vyska_matky -
prumer_orechu - vnejsi prumer nástroje pro dotahovani matky
sila_materialu - pro pripad vyvoreni zapusti pro kryt rotoru
sila_materialu_vule
hloubka_prekryti - hloubka zapusteni krytu rotoru
hloubka_uchytu - definovano lopatkou
sila_uchytu - definovano lopatkou
vyska_uchytu - definovano lopatkou
tolerance_uchytu - definovano lopatkou
*/
//rotor1(prumer_rotoru1,vyska_rotoru1,prumer_sroubu,vyska_matky,prumer_orechu,sila_materialu,sila_materialu_vule,hloubka_prekryti,hloubka_uchytu,sila_uchytu,vyska_uchytu,tolerance_uchytu);
module rotor1(prumer_rotoru1,vyska_rotoru1,prumer_sroubu,vyska_matky,prumer_orechu,sila_materialu,sila_materialu_vule,hloubka_prekryti,hloubka_uchytu,sila_uchytu,vyska_uchytu,tolerance_uchytu)
{
difference()
{
union ()
{
cylinder (h = vyska_rotoru1-hloubka_prekryti, r=prumer_rotoru1/2, center = true, $fn=100);
translate([0,0,vyska_rotoru1/2])
cylinder (h = hloubka_prekryti, r=(prumer_rotoru1/2) -sila_materialu-sila_materialu_vule, center = true, $fn=100);
//otvory pro lopatky
translate([0,0,-(vyska_rotoru1-hloubka_prekryti)/2-(vyska_uchytu+tolerance_uchytu)/2])
//otvory pro lopatky
difference ()
{
cylinder (h = vyska_uchytu+tolerance_uchytu, r=(prumer_rotoru1/2), center = true, $fn=100);
cylinder (h = vyska_uchytu+2*tolerance_uchytu, r=(prumer_rotoru1/2-hloubka_uchytu+5), center = true, $fn=100);
//dira pro prvni uchyt lopatky
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,0])
cube([hloubka_uchytu,sila_uchytu+tolerance_uchytu,vyska_uchytu+2*tolerance_uchytu],true);
//dira pro druhy uchyt lopatky
rotate(a=[0,0,120])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,0])
cube([hloubka_uchytu,sila_uchytu+tolerance_uchytu,vyska_uchytu+2*tolerance_uchytu],true);
//dira pro treti uchyt lopatky
rotate(a=[0,0,240])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,0])
cube([hloubka_uchytu,sila_uchytu+tolerance_uchytu,vyska_uchytu+2*tolerance_uchytu],true);
}
}
//otvor pro uchyceni prvni lopatky
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,hloubka_prekryti/2])
cylinder (h = vyska_rotoru1+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,-(vyska_rotoru1-hloubka_prekryti)/2+vyska_matky/2])
cylinder (h = vyska_matky+0.1, r=prumer_orechu/2, center = true, $fn=100);
//otvor pro uchyceni druhe lopatky
rotate(a=[0,0,120])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,hloubka_prekryti/2])
cylinder (h = vyska_rotoru1+0.1, r=prumer_sroubu/2, center = true, $fn=100);
rotate(a=[0,0,120])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,-(vyska_rotoru1-hloubka_prekryti)/2+vyska_matky/2])
cylinder (h = vyska_matky+0.1, r=prumer_orechu/2, center = true, $fn=100);
//otvor pro uchyceni treti lopatky
rotate(a=[0,0,240])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,hloubka_prekryti/2])
cylinder (h = vyska_rotoru1+0.1, r=prumer_sroubu/2, center = true, $fn=100);
rotate(a=[0,0,240])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,-(vyska_rotoru1-hloubka_prekryti)/2+vyska_matky/2])
cylinder (h = vyska_matky+0.1, r=prumer_orechu/2, center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/rotor2.scad
0,0 → 1,83
$fn=40; // model faces resolution.
//include <../configuration.scad>
//rotor2 (vyska_rotoru2,prumer_rotoru1,vyska_kryti,sila_materialu,stator1_sila,vyska_matky,vzdalenost_rot_stat,lozisko_prumer_vnitrni,lozisko_prekryv,sila_pod_loziskem,delka_hridele,lozisko_vyska,sirka_matky_tol,sirka_matky,hloubka_uchytu,vyska_rotoru1,prumer_sroubu,vyska_matky,prumer_orechu,vzdalenost_rot_stat2,sirka_matky_tol);
module rotor2 (vyska_rotoru2,prumer_rotoru1,vyska_kryti,sila_materialu,stator1_sila,vyska_matky,vzdalenost_rot_stat,lozisko_prumer_vnitrni,lozisko_prekryv,sila_pod_loziskem,delka_hridele,lozisko_vyska,sirka_matky_tol,sirka_matky,hloubka_uchytu,vyska_rotoru1,prumer_sroubu,vyska_matky,prumer_orechu,vzdalenost_rot_stat2,sirka_matky_tol)
{
difference()
{
union ()
{
cylinder (h = vyska_rotoru2, r=prumer_rotoru1/2, center = true, $fn=100);
//kryci kroužek
translate([0,0,-(vyska_rotoru2)/2-(vyska_kryti)/2])
difference ()
{
cylinder (h = vyska_kryti, r=(prumer_rotoru1/2), center = true, $fn=100);
cylinder (h = vyska_kryti+0.1, r=(prumer_rotoru1/2-sila_materialu), center = true, $fn=100);
}
//doraz na lozisko
translate([0,0,-(vyska_rotoru2+stator1_sila+vyska_matky+vzdalenost_rot_stat)/2])
cylinder (h = stator1_sila+vyska_matky+vzdalenost_rot_stat, r=(lozisko_prumer_vnitrni+2*lozisko_prekryv)/2, center = true, $fn=100);
//hridel
translate([0,0,-(vyska_rotoru2+stator1_sila+vyska_matky+vzdalenost_rot_stat+lozisko_vyska+sila_pod_loziskem+delka_hridele)/2])
cylinder (h = stator1_sila+vyska_matky+vzdalenost_rot_stat+lozisko_vyska+sila_pod_loziskem+delka_hridele, r=(lozisko_prumer_vnitrni/2), center = true, $fn=100);
}
//otvor v hřídeli
translate([0,0,-(stator1_sila+vyska_matky+vzdalenost_rot_stat+lozisko_vyska+sila_pod_loziskem+delka_hridele)/2])
cylinder (h = vyska_rotoru2+stator1_sila+vyska_matky+vzdalenost_rot_stat+lozisko_vyska+sila_pod_loziskem+delka_hridele+0.1, r=(prumer_sroubu/2), center = true, $fn=100);
//otvor pro matku
translate([0,0,(vyska_rotoru2-vyska_matky)/2])
cylinder (h = vyska_matky+0.1, r= (sirka_matky+sirka_matky_tol)/2, center = true,$fn=6);
//otvor pro uchyceni prvni lopatky
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,0])
cylinder (h = vyska_rotoru1+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,-(vyska_rotoru2)/2+vyska_matky/2])
cylinder (h = vyska_matky+0.1, r=prumer_orechu/2, center = true, $fn=100);
//otvor pro uchyceni druhe lopatky
rotate(a=[0,0,120])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,0])
cylinder (h = vyska_rotoru1+0.1, r=prumer_sroubu/2, center = true, $fn=100);
rotate(a=[0,0,120])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,-(vyska_rotoru2)/2+vyska_matky/2])
cylinder (h = vyska_matky+0.1, r=prumer_orechu/2, center = true, $fn=100);
//otvor pro uchyceni treti lopatky
rotate(a=[0,0,240])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,0])
cylinder (h = vyska_rotoru1+0.1, r=prumer_sroubu/2, center = true, $fn=100);
rotate(a=[0,0,240])
translate([hloubka_uchytu/2+(prumer_rotoru1/2-hloubka_uchytu),0,-(vyska_rotoru2)/2+vyska_matky/2])
cylinder (h = vyska_matky+0.1, r=prumer_orechu/2, center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/rotor3.scad
0,0 → 1,45
$fn=40; // model faces resolution.
//include <configuration.scad>
//dutinka pro upevneni rotoru
module rotor3 (sila_pod_loziskem,delka_hridele,lozisko_prumer_vnitrni,lozisko_prekryv)
{
difference()
{
//dotahovací kroužek
translate([0,0,0])
cylinder (h = sila_pod_loziskem+delka_hridele+2, r=(lozisko_prumer_vnitrni+2*lozisko_prekryv)/2, center = true, $fn=100);
cylinder (h = sila_pod_loziskem+delka_hridele+2+0.1, r=((lozisko_prumer_vnitrni+0.2)/2), center = true, $fn=100);
}
}
module rotor4 (vyska_pod_magnetem,magnet_zapusteni,magnet_prumer,vyska_hlavy_sroubu,prumer_hlavy_sroubu,prumer_sroubu)
{
difference()
{
//segment pro sroub a magnet
translate([0,0,0])
cylinder (h = vyska_pod_magnetem+magnet_zapusteni, r=(magnet_prumer+5)/2, center = true, $fn=100);
//otvor pro magnet
translate([0,0,vyska_pod_magnetem/2+0.1])
cylinder (h = magnet_zapusteni, r=((magnet_prumer+0.2)/2), center = true, $fn=100);
//zapusteni uchytného sroubu
translate([0,0,(vyska_pod_magnetem-vyska_hlavy_sroubu-1)/2+0.1])
cylinder (h = vyska_hlavy_sroubu+1, r=((prumer_hlavy_sroubu+0.2)/2), center = true, $fn=100);
//otvor pro sroub
cylinder (h = vyska_pod_magnetem+magnet_zapusteni+0.1, r=(prumer_sroubu)/2, center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/stator1.scad
0,0 → 1,39
$fn=40; // model faces resolution.
//include <../configuration.scad>
module stator1(stator1_sila,lozisko_prumer_vnejsi,sirka_matky,lozisko_prumer_vnitrni,lozisko_prekryv,prumer_sroubu)
{
difference()
{
cylinder (h = stator1_sila, r=(lozisko_prumer_vnejsi+10+sirka_matky)/2, center = true, $fn=100);
//otvor pro hridel rotoru
translate([0,0,0])
cylinder (h = stator1_sila+0.1, r=(lozisko_prumer_vnitrni+2*lozisko_prekryv+2)/2, center = true, $fn=100);
//otvor pro sroub 1
translate([(lozisko_prumer_vnejsi+prumer_sroubu+5)/2,0,0])
cylinder (h = stator1_sila+0.1, r=prumer_sroubu/2, center = true, $fn=100);
//otvor pro sroub 2
rotate(a=[0,0,120])
translate([(lozisko_prumer_vnejsi+prumer_sroubu+5)/2,0,0])
cylinder (h = stator1_sila+0.1, r=prumer_sroubu/2, center = true, $fn=100);
//otvor pro sroub 3
rotate(a=[0,0,240])
translate([(lozisko_prumer_vnejsi+prumer_sroubu+5)/2,0,0])
cylinder (h = stator1_sila+0.1, r=prumer_sroubu/2, center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/stator2.scad
0,0 → 1,92
$fn=40; // model faces resolution.
//include <../configuration.scad>
module stator2(lozisko_vyska,sila_pod_loziskem,prumer_rotoru1,sila_materialu,vule1,stator3_sila_steny,lozisko_prumer_vnejsi,lozisko_prumer_vnitrni,lozisko_prekryv,
prumer_sroubu,
lozisko_vyska,vzdalenost_der_x,vzdalenost_der_y,vyska_hlavy_sroubu,prumer_hlavy_sroubu,prumer_rotoru1,stator3_vzdalenost_od_steny)
{
difference()
{
cylinder (h = lozisko_vyska+sila_pod_loziskem, r=(prumer_rotoru1-2*sila_materialu-2*vule1-stator3_sila_steny-0.5)/2, center = true, $fn=100);
//otvor pro lozisko
translate([0,0,sila_pod_loziskem])
cylinder (h = lozisko_vyska+0.1, r=(lozisko_prumer_vnejsi+0.1)/2, center = true, $fn=100);
//otvor pro hridel rotoru
translate([0,0,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=(lozisko_prumer_vnitrni+2*lozisko_prekryv+2)/2, center = true, $fn=100);
//otvor pro sroub 1
translate([(lozisko_prumer_vnejsi+prumer_sroubu+5)/2,0,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
//otvor pro sroub 2
rotate(a=[0,0,120])
translate([(lozisko_prumer_vnejsi+prumer_sroubu+5)/2,0,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
//otvor pro sroub 3
rotate(a=[0,0,240])
translate([(lozisko_prumer_vnejsi+prumer_sroubu+5)/2,0,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
//otvory pro uchyceni senzoru
//otvor pro sroub 1
translate([(vzdalenost_der_x/2),-vzdalenost_der_y/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([(vzdalenost_der_x/2),-vzdalenost_der_y/2,(lozisko_vyska+sila_pod_loziskem-vyska_hlavy_sroubu)/2])
cylinder (h = vyska_hlavy_sroubu+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
//otvor pro sroub 2
rotate(a=[0,0,0])
translate([(-vzdalenost_der_x/2),-vzdalenost_der_y/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([(-vzdalenost_der_x/2),-vzdalenost_der_y/2,(lozisko_vyska+sila_pod_loziskem-vyska_hlavy_sroubu)/2])
cylinder (h = vyska_hlavy_sroubu+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
//otvor pro sroub 3
rotate(a=[0,0,0])
translate([(vzdalenost_der_x/2),vzdalenost_der_y/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([(vzdalenost_der_x/2),vzdalenost_der_y/2,(lozisko_vyska+sila_pod_loziskem-vyska_hlavy_sroubu)/2])
cylinder (h = vyska_hlavy_sroubu+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
//otvor pro sroub 4
rotate(a=[0,0,0])
translate([(-vzdalenost_der_x/2),vzdalenost_der_y/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([(-vzdalenost_der_x/2),vzdalenost_der_y/2,(lozisko_vyska+sila_pod_loziskem-vyska_hlavy_sroubu)/2])
cylinder (h = vyska_hlavy_sroubu+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
//otvory pro uchyceni stator 3
//otvor pro sroub 1
translate([0,(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([0,(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,2])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
//otvor pro sroub 2
translate([0,-(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([0,-(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,2])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/stator3.scad
0,0 → 1,78
$fn=40; // model faces resolution.
//include <../configuration.scad>
module stator3(stator3_vyska,prumer_rotoru1,lozisko_vyska,sila_pod_loziskem,sila_materialu,vule1,stator3_sila_steny,
stator3_vyska_prekryti,prumer_hlavy_sroubu,stator3_vzdalenost_od_steny,lozisko_vyska,prumer_sroubu,roztec_sroubu,uchyt_prumer_sroubu,vyska_stator4,kabel_prumer)
{
difference()
{
cylinder (h = stator3_vyska, r=(prumer_rotoru1)/2, center = true, $fn=100);
translate([0,0,(stator3_vyska-lozisko_vyska-sila_pod_loziskem)/2])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=(prumer_rotoru1-2*sila_materialu-2*vule1-stator3_sila_steny)/2, center = true, $fn=100);
cylinder (h = stator3_vyska+0.1, r=(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-1)/2, center = true, $fn=100);
translate([0,0,(stator3_vyska-stator3_vyska_prekryti)/2])
difference()
{
cylinder (h = stator3_vyska_prekryti+0.1, r=(prumer_rotoru1+0.1)/2, center = true, $fn=100);
cylinder (h = stator3_vyska_prekryti+0.1, r=(prumer_rotoru1-2*sila_materialu-2*vule1)/2, center = true, $fn=100);
}
//otvory pro uchyceni stator 3
//otvor pro sroub 1
translate([0,(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([0,(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,2])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
//otvor pro sroub 2
translate([0,-(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,0])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_sroubu/2, center = true, $fn=100);
translate([0,-(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,2])
cylinder (h = lozisko_vyska+sila_pod_loziskem+0.1, r=prumer_hlavy_sroubu/2, center = true, $fn=100);
}
//dno stator3
translate([0,0,-(stator3_vyska-stator3_sila_steny)/2])
difference()
{
cylinder (h = stator3_sila_steny, r=(prumer_rotoru1)/2, center = true, $fn=100);
//otvory pro uchyceni stator 3
//otvor pro sroub 1
translate([0,(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,0])
cylinder (h = stator3_sila_steny+0.1, r=prumer_sroubu/2, center = true, $fn=100);
//otvor pro sroub 2
translate([0,-(prumer_rotoru1-2*sila_materialu-2*vule1-2*stator3_sila_steny-prumer_hlavy_sroubu-2*stator3_vzdalenost_od_steny)/2,0])
cylinder (h = stator3_sila_steny+0.1, r=prumer_sroubu/2, center = true, $fn=100);
//srouby pro uchycení anemometru
translate([roztec_sroubu/2,roztec_sroubu/2,0])
cylinder (h = stator3_sila_steny+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
translate([-roztec_sroubu/2,roztec_sroubu/2,0])
cylinder (h = stator3_sila_steny+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
translate([roztec_sroubu/2,-roztec_sroubu/2,0])
cylinder (h = stator3_sila_steny+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
translate([-roztec_sroubu/2,-roztec_sroubu/2,0])
cylinder (h = stator3_sila_steny+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
//dira na kabel
cylinder (h = vyska_stator4+0.1, r=(kabel_prumer/2+0.1), center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/stator4.scad
0,0 → 1,50
$fn=40; // model faces resolution.
//include <../configuration.scad>
//stator4 (roztec_sroubu,uchyt_prumer_sroubu,vyska_stator4,sila_materialu,uchyt_vyska_matky,uchyt_prumer_orechu,kabel_prumer);
module stator4 (roztec_sroubu,uchyt_prumer_sroubu,vyska_stator4,sila_materialu,uchyt_vyska_matky,uchyt_prumer_orechu,kabel_prumer)
{
difference()
{
//translate([90,0,0])
cube(size = [roztec_sroubu+uchyt_prumer_orechu+2*sila_materialu,roztec_sroubu+uchyt_prumer_orechu+2*sila_materialu, vyska_stator4], center = true);
//díry pro uchycení anemometru
translate([roztec_sroubu/2,roztec_sroubu/2,0])
cylinder (h = vyska_stator4+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
translate([-roztec_sroubu/2,roztec_sroubu/2,0])
cylinder (h = vyska_stator4+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
translate([roztec_sroubu/2,-roztec_sroubu/2,0])
cylinder (h = vyska_stator4+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
translate([-roztec_sroubu/2,-roztec_sroubu/2,0])
cylinder (h = vyska_stator4+0.1, r=uchyt_prumer_sroubu/2, center = true, $fn=100);
//dira na kabel
cylinder (h = vyska_stator4+0.1, r=(kabel_prumer/2+0.1), center = true, $fn=100);
//díry pro matky
translate([roztec_sroubu/2,roztec_sroubu/2,vyska_stator4/2-uchyt_vyska_matky/2])
cylinder (h = uchyt_vyska_matky+0.1, r=uchyt_prumer_orechu/2, center = true, $fn=100);
translate([-roztec_sroubu/2,roztec_sroubu/2,vyska_stator4/2-uchyt_vyska_matky/2])
cylinder (h = uchyt_vyska_matky+0.1, r=uchyt_prumer_orechu/2, center = true, $fn=100);
translate([roztec_sroubu/2,-roztec_sroubu/2,vyska_stator4/2-uchyt_vyska_matky/2])
cylinder (h = uchyt_vyska_matky+0.1, r=uchyt_prumer_orechu/2, center = true, $fn=100);
translate([-roztec_sroubu/2,-roztec_sroubu/2,vyska_stator4/2-uchyt_vyska_matky/2])
cylinder (h = uchyt_vyska_matky+0.1, r=uchyt_prumer_orechu/2, center = true, $fn=100);
}
}

/Modules/Mechanical/WINDGAUGE02A/CAD/SRC/zavity.scad
0,0 → 1,324
/*
* ISO-standard metric threads, following this specification:
* http://en.wikipedia.org/wiki/ISO_metric_screw_thread
*
* Dan Kirshner - dan_kirshner@yahoo.com
*
* You are welcome to make free use of this software. Retention of my
* authorship credit would be appreciated.
*
* Version 1.8. 2016-01-08 Option: (non-standard) angle.
* Version 1.7. 2015-11-28 Larger x-increment - for small-diameters.
* Version 1.6. 2015-09-01 Options: square threads, rectangular threads.
* Version 1.5. 2015-06-12 Options: thread_size, groove.
* Version 1.4. 2014-10-17 Use "faces" instead of "triangles" for polyhedron
* Version 1.3. 2013-12-01 Correct loop over turns -- don't have early cut-off
* Version 1.2. 2012-09-09 Use discrete polyhedra rather than linear_extrude ()
* Version 1.1. 2012-09-07 Corrected to right-hand threads!
*/
// Examples.
//
// Standard M8 x 1.
// metric_thread (diameter=8, pitch=1, length=4);
// Square thread.
// metric_thread (diameter=8, pitch=1, length=4, square=true);
// Non-standard: long pitch, same thread size.
//metric_thread (diameter=8, pitch=4, length=4, thread_size=1, groove=true);
// Non-standard: 20 mm diameter, long pitch, square "trough" width 3 mm,
// depth 1 mm.
//metric_thread (diameter=20, pitch=8, length=16, square=true, thread_size=6,
// groove=true, rectangle=0.333);
// English: 1/4 x 20.
//english_thread (diameter=1/4, threads_per_inch=20, length=1);
// Thread for mounting on Rohloff hub.
//difference () {
// cylinder (r=20, h=10, $fn=100);
//
// metric_thread (diameter=34, pitch=1, length=10, internal=true, n_starts=6);
//}
// ----------------------------------------------------------------------------
function segments (diameter) = min (50, ceil (diameter*6));
// ----------------------------------------------------------------------------
// internal - true = clearances for internal thread (e.g., a nut).
// false = clearances for external thread (e.g., a bolt).
// (Internal threads should be "cut out" from a solid using
// difference ()).
// n_starts - Number of thread starts (e.g., DNA, a "double helix," has
// n_starts=2). See wikipedia Screw_thread.
// thread_size - (non-standard) size of a single thread "V" - independent of
// pitch. Default: same as pitch.
// groove - (non-standard) subtract inverted "V" from cylinder (rather than
// add protruding "V" to cylinder).
// square - Square threads (per
// https://en.wikipedia.org/wiki/Square_thread_form).
// rectangle - (non-standard) "Rectangular" thread - ratio depth/width
// Default: 1 (square).
// angle - (non-standard) angle (deg) of thread side from perpendicular to
// axis (default = standard = 30 degrees).
module metric_thread (diameter=8, pitch=1, length=1, internal=false, n_starts=1,
thread_size=-1, groove=false, square=false, rectangle=0,
angle=30)
{
// thread_size: size of thread "V" different than travel per turn (pitch).
// Default: same as pitch.
local_thread_size = thread_size == -1 ? pitch : thread_size;
local_rectangle = rectangle ? rectangle : 1;
n_segments = segments (diameter);
h = (square || rectangle) ? local_thread_size*local_rectangle/2 : local_thread_size * cos (angle);
h_fac1 = (square || rectangle) ? 0.90 : 0.625;
// External thread includes additional relief.
h_fac2 = (square || rectangle) ? 0.95 : 5.3/8;
if (! groove) {
metric_thread_turns (diameter, pitch, length, internal, n_starts,
local_thread_size, groove, square, rectangle, angle);
}
difference () {
// Solid center, including Dmin truncation.
if (groove) {
cylinder (r=diameter/2, h=length, $fn=n_segments);
} else if (internal) {
cylinder (r=diameter/2 - h*h_fac1, h=length, $fn=n_segments);
} else {
// External thread.
cylinder (r=diameter/2 - h*h_fac2, h=length, $fn=n_segments);
}
if (groove) {
metric_thread_turns (diameter, pitch, length, internal, n_starts,
local_thread_size, groove, square, rectangle,
angle);
}
}
}
// ----------------------------------------------------------------------------
// Input units in inches.
// Note: units of measure in drawing are mm!
module english_thread (diameter=0.25, threads_per_inch=20, length=1,
internal=false, n_starts=1, thread_size=-1, groove=false,
square=false, rectangle=0)
{
// Convert to mm.
mm_diameter = diameter*25.4;
mm_pitch = (1.0/threads_per_inch)*25.4;
mm_length = length*25.4;
echo (str ("mm_diameter: ", mm_diameter));
echo (str ("mm_pitch: ", mm_pitch));
echo (str ("mm_length: ", mm_length));
metric_thread (mm_diameter, mm_pitch, mm_length, internal, n_starts,
thread_size, groove, square, rectangle);
}
// ----------------------------------------------------------------------------
module metric_thread_turns (diameter, pitch, length, internal, n_starts,
thread_size, groove, square, rectangle, angle)
{
// Number of turns needed.
n_turns = floor (length/pitch);
intersection () {
// Start one below z = 0. Gives an extra turn at each end.
for (i=[-1*n_starts : n_turns+1]) {
translate ([0, 0, i*pitch]) {
metric_thread_turn (diameter, pitch, internal, n_starts,
thread_size, groove, square, rectangle, angle);
}
}
// Cut to length.
translate ([0, 0, length/2]) {
cube ([diameter*3, diameter*3, length], center=true);
}
}
}
// ----------------------------------------------------------------------------
module metric_thread_turn (diameter, pitch, internal, n_starts, thread_size,
groove, square, rectangle, angle)
{
n_segments = segments (diameter);
fraction_circle = 1.0/n_segments;
for (i=[0 : n_segments-1]) {
rotate ([0, 0, i*360*fraction_circle]) {
translate ([0, 0, i*n_starts*pitch*fraction_circle]) {
thread_polyhedron (diameter/2, pitch, internal, n_starts,
thread_size, groove, square, rectangle, angle);
}
}
}
}
// ----------------------------------------------------------------------------
// z (see diagram) as function of current radius.
// (Only good for first half-pitch.)
function z_fct (current_radius, radius, pitch, angle)
= 0.5* (current_radius - (radius - 0.875*pitch*cos (angle)))
/cos (angle);
// ----------------------------------------------------------------------------
module thread_polyhedron (radius, pitch, internal, n_starts, thread_size,
groove, square, rectangle, angle)
{
n_segments = segments (radius*2);
fraction_circle = 1.0/n_segments;
local_rectangle = rectangle ? rectangle : 1;
h = (square || rectangle) ? thread_size*local_rectangle/2 : thread_size * cos (angle);
outer_r = radius + (internal ? h/20 : 0); // Adds internal relief.
//echo (str ("outer_r: ", outer_r));
// A little extra on square thread -- make sure overlaps cylinder.
h_fac1 = (square || rectangle) ? 1.1 : 0.875;
inner_r = radius - h*h_fac1; // Does NOT do Dmin_truncation - do later with
// cylinder.
translate_y = groove ? outer_r + inner_r : 0;
reflect_x = groove ? 1 : 0;
// Make these just slightly bigger (keep in proportion) so polyhedra will
// overlap.
x_incr_outer = (! groove ? outer_r : inner_r) * fraction_circle * 2 * PI * 1.02;
x_incr_inner = (! groove ? inner_r : outer_r) * fraction_circle * 2 * PI * 1.02;
z_incr = n_starts * pitch * fraction_circle * 1.005;
/*
(angles x0 and x3 inner are actually 60 deg)
/\ (x2_inner, z2_inner) [2]
/ \
(x3_inner, z3_inner) / \
[3] \ \
|\ \ (x2_outer, z2_outer) [6]
| \ /
| \ /|
z |[7]\/ / (x1_outer, z1_outer) [5]
| | | /
| x | |/
| / | / (x0_outer, z0_outer) [4]
| / | / (behind: (x1_inner, z1_inner) [1]
|/ | /
y________| |/
(r) / (x0_inner, z0_inner) [0]
*/
x1_outer = outer_r * fraction_circle * 2 * PI;
z0_outer = z_fct (outer_r, radius, thread_size, angle);
//echo (str ("z0_outer: ", z0_outer));
//polygon ([[inner_r, 0], [outer_r, z0_outer],
// [outer_r, 0.5*pitch], [inner_r, 0.5*pitch]]);
z1_outer = z0_outer + z_incr;
// Give internal square threads some clearance in the z direction, too.
bottom = internal ? 0.235 : 0.25;
top = internal ? 0.765 : 0.75;
translate ([0, translate_y, 0]) {
mirror ([reflect_x, 0, 0]) {
if (square || rectangle) {
// Rule for face ordering: look at polyhedron from outside: points must
// be in clockwise order.
polyhedron (
points = [
[-x_incr_inner/2, -inner_r, bottom*thread_size], // [0]
[x_incr_inner/2, -inner_r, bottom*thread_size + z_incr], // [1]
[x_incr_inner/2, -inner_r, top*thread_size + z_incr], // [2]
[-x_incr_inner/2, -inner_r, top*thread_size], // [3]
[-x_incr_outer/2, -outer_r, bottom*thread_size], // [4]
[x_incr_outer/2, -outer_r, bottom*thread_size + z_incr], // [5]
[x_incr_outer/2, -outer_r, top*thread_size + z_incr], // [6]
[-x_incr_outer/2, -outer_r, top*thread_size] // [7]
],
faces = [
[0, 3, 7, 4], // This-side trapezoid
[1, 5, 6, 2], // Back-side trapezoid
[0, 1, 2, 3], // Inner rectangle
[4, 7, 6, 5], // Outer rectangle
// These are not planar, so do with separate triangles.
[7, 2, 6], // Upper rectangle, bottom
[7, 3, 2], // Upper rectangle, top
[0, 5, 1], // Lower rectangle, bottom
[0, 4, 5] // Lower rectangle, top
]
);
} else {
// Rule for face ordering: look at polyhedron from outside: points must
// be in clockwise order.
polyhedron (
points = [
[-x_incr_inner/2, -inner_r, 0], // [0]
[x_incr_inner/2, -inner_r, z_incr], // [1]
[x_incr_inner/2, -inner_r, thread_size + z_incr], // [2]
[-x_incr_inner/2, -inner_r, thread_size], // [3]
[-x_incr_outer/2, -outer_r, z0_outer], // [4]
[x_incr_outer/2, -outer_r, z0_outer + z_incr], // [5]
[x_incr_outer/2, -outer_r, thread_size - z0_outer + z_incr], // [6]
[-x_incr_outer/2, -outer_r, thread_size - z0_outer] // [7]
],
faces = [
[0, 3, 7, 4], // This-side trapezoid
[1, 5, 6, 2], // Back-side trapezoid
[0, 1, 2, 3], // Inner rectangle
[4, 7, 6, 5], // Outer rectangle
// These are not planar, so do with separate triangles.
[7, 2, 6], // Upper rectangle, bottom
[7, 3, 2], // Upper rectangle, top
[0, 5, 1], // Lower rectangle, bottom
[0, 4, 5] // Lower rectangle, top
]
);
}
}
}
}
// Thread for mounting on Rohloff hub.
difference () {
cylinder (r=20, h=5, $fn=100);
metric_thread (diameter=34, pitch=1, length=5, internal=true, n_starts=6);
}
metric_thread (diameter=33, pitch=1, length=10, internal=false, n_starts=6);

/Modules/Mechanical/WINDGAUGE02A/CAD/print_data/P_WINDGAUGE02A_L01.scad
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/Modules/Mechanical/WINDGAUGE02A/CAD/print_data/P_WINDGAUGE02A_R01.scad
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/Modules/Mechanical/WINDGAUGE02A/CAD/print_data/P_WINDGAUGE02A_R02.scad
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/Modules/Mechanical/WINDGAUGE02A/CAD/print_data/P_WINDGAUGE02A_R03.scad
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/Modules/Mechanical/WINDGAUGE02A/CAD/print_data/P_WINDGAUGE02A_S03.scad
2,10 → 2,10
include <../configuration.scad>
use <../SRC/WINDGAUGE02A_S03.scad>
use <../SRC/polyScrewThread_r1.scad>
use <../SRC/zavity.scad>
translate([0,0,S01_vyska_komponentu_na_lozisko])
rotate([0, 180, 0])
WINDGAUGE02A_S03(S01_sila_materialu,S01_vyska_komponentu_na_lozisko,S01_prumer_zavitu,lozisko_vyska,lozisko_prumer_vnejsi,lozisko_prumer_vnitrni,lozisko_prekryv,vyska_matky,prumer_orechu,prumer_sroubu,vyska_hlavy_sroubu,prumer_hlavy_sroubu);
module WINDGAUGE02A_S03(S01_sila_materialu,S01_vyska_komponentu_na_lozisko,S01_prumer_zavitu,lozisko_vyska,lozisko_prumer_vnejsi,lozisko_prumer_vnitrni,lozisko_prekryv,vyska_matky,prumer_orechu,prumer_sroubu,vyska_hlavy_sroubu,prumer_hlavy_sroubu)