function init() { var href = window.location.href; var keyValuePairs = href.substring(href.indexOf('?')+1, href.length); var queryString = new Querystring(keyValuePairs); var sel = queryString.get('sel'); if (sel == null) commonConversionCalculator(); else { if (sel == 'iso') isoCertificate(); else if (sel == 'credit') creditApplication(); else if (sel == 'ti') overviewTitanium(); else if (sel == 'tiworking') workingTitanium(); else if (sel == 'tiProducts') prodTiBar(); else if (sel == 'tigrade1') specTiGrade1(); else if (sel == 'tigrade2') specTiGrade2(); else if (sel == 'tigrade4') specTiGrade4(); else if (sel == 'tigrade5') specTiGrade5(); else if (sel == 'cmiAdsDocs') cmiAdsDocs(); else if (sel == 'msdsDocs') msdsDocs(); else if (sel == 'gmiDocs') gmiDocs(); else if (sel == 'commonConversionCalculator') commonConversionCalculator(); else if (sel == 'burstPressureCalculator') burstPressureCalculator(); else if (sel == 'alloyC276PipeBurstingPressure') getAlloyC276PipeBurstingPressure(); else if (sel == 'alloyC276WeldedTubeBurstingPressure') getAlloyC276WeldedTubeBurstingPressure(); else if (sel == 'alloyC276SeamlessTubeBurstingPressure') getAlloyC276SeamlessTubeBurstingPressure(); else if (sel == 'alloy400SeamlessTubeBurstingPressure') getAlloy400SeamlessTubeBurstingPressure(); else if (sel == 'howMuchPlate') howMuchPlate(); else if (sel == 'fabricateBar') fabricateBar(); else if (sel == 'alloyC276WeldedTubeMaxPressure') getAlloyC276WeldedTubeMaxPressure(); else if (sel == 'alloyC276SeamlessTubeMaxPressure') getAlloyC276SeamlessTubeMaxPressure(); else if (sel == 'alloy400SeamlessTubeMaxPressure') getAlloy400SeamlessTubeMaxPressure(); else commonConversionCalculator(); } } function commonConversionCalculator() { var content = ""; content += "Common Conversion Calculator

"; content += "Conversion Between Common Types of Length, Weight and Temperature

"; content += ""; content += ""; content += " "; content += " "; content += " "; content += ""; content += "
"; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += "
TypeFromToFormula
LengthMMCMQty / 10
LengthMMMeterQty / 1000
LengthMMInchQty * 0.03937008
LengthMMFeetQty * 0.00328084
LengthInchCMQty * 2.54
LengthInchMeterQty * 0.0254
LengthInchFeetQty / 12
LengthInchMMQty * 25.4
LengthFeetCMQty * 30.48
LengthFeetMeterQty * 0.3048
LengthFeetInchQty * 12
LengthFeetMMQty * 304.8
LengthCMMeterQty / 100
LengthCMInchQty / 2.54
"; content += " 		"; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += "
TypeFromToFormula
LengthCMFeetQty / 30.48
LengthCMMMQty * 10
LengthMeterCMQty * 100
LengthMeterInchQty / 0.0254
LengthMeterFeetQty / 0.3048
LengthMeterMMQty * 1000
TempCelsiusFahrenheit(Qty * 1.8) + 32
TempCelsiusKelvinQty + 273.15
TempFahrenheitCelsius(Qty - 32) / 1.8
TempFahrenheitKelvin((Qty - 32) / 1.8) + 273.15
TempKelvinCelsiusQty - 273.15
TempKelvinFahrenheit((Kelvin - 273.15) * 1.8) + 32
WeightPoundKiloQty * 0.453593
WeightKiloPoundQty * 2.2046
"; content += "

"; content += " "; content += "  =  "; DWRUtil.setValue("pageContent", content); commonConversionCalculator_loadConversionTypeSelected(); } function weightCalculator() { var content = ""; content += "Weight Calculator

"; content += "
"; content += ""; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += "
Select an Alloy: "; content += "
Select a Product: "; content += "
Enter Product Dimensions: 
Results:
Density: 
Volume: 
Weight: 
"; DWRUtil.setValue("pageContent", content); weightCalculator_loadDimension(); } function weightCalculator_loadDimension() { var productType = DWRUtil.getValue('productSelect'); var content = ""; if (productType == 'Bar') { content += ""; content += ""; } else if (productType == 'Plate/Sheet') { content += ""; content += ""; } else if (productType == 'Tubular') { content += ""; content += ""; } content += "
DiameterLength
 (Inches)
ThicknessWidthLength
 (Inches)
ODIDLength
 (Inches)
"; DWRUtil.setValue("productDimensions", content); weightCalculator_calculateResult(); } function weightCalculator_calculateResult() { var alloySelected = DWRUtil.getValue('alloySelect'); var density = 0.0; var volume = 0.0; var weightPerInches = 0.0; var weightPerPieces = 0.0; if (alloySelected == 'F255') density = 0.292; else if (alloySelected == '31') density = 0.293; else if (alloySelected == '400') density = 0.318; else if (alloySelected == '600') density = 0.306; else if (alloySelected == '686') density = 0.315; else if (alloySelected == '200/201') density = 0.321; else if (alloySelected == '6B') density = 0.303; else if (alloySelected == '20') density = 0.292; else if (alloySelected == '800 H/HT') density = 0.287; else if (alloySelected == 'B2') density = 0.333; else if (alloySelected == 'B3') density = 0.333; else if (alloySelected == 'C22') density = 0.311; else if (alloySelected == 'C276') density = 0.321; else if (alloySelected == 'G30') density = 0.297; else if (alloySelected == 'Grade 1 Ti') density = 0.163; else if (alloySelected == 'Grade 2 Ti') density = 0.163; else if (alloySelected == 'Grade 3 Ti') density = 0.163; else if (alloySelected == 'Grade 4 Ti') density = 0.163; else if (alloySelected == 'Grade 5 Ti') density = 0.160; else if (alloySelected == 'K500') density = 0.305; else if (alloySelected == '27-7Mo') density = 0.289; else if (alloySelected == '304/304L') density = 0.285; else if (alloySelected == '316/316L') density = 0.290; var productType = DWRUtil.getValue('productSelect'); var weight1 = ""; var weight2 = ""; if (productType == 'Bar') { weight1 = "IN"; weight2 = "PIECE"; var diameter = DWRUtil.getValue('dimensionDiameter'); var length = DWRUtil.getValue('dimensionLength'); if (!globalIsDecimal(diameter)) alert('Diameter must be a number!'); else if (!globalIsDecimal(length)) alert('Length must be a number!'); else { volume = (diameter/2.0) * (diameter/2.0) * Math.PI * length; weightPerInches = (diameter/2.0) * (diameter/2.0) * Math.PI * density; weightPerPieces = weightPerInches * length; } } else if (productType == 'Plate/Sheet') { weight1 = "SQ IN"; weight2 = "PIECE"; var width = DWRUtil.getValue('dimensionWidth'); var thickness = DWRUtil.getValue('dimensionThickness'); var length = DWRUtil.getValue('dimensionLength'); if (!globalIsDecimal(width)) alert('Width must be a number!'); else if (!globalIsDecimal(thickness)) alert('Thickness must be a number!'); else if (!globalIsDecimal(length)) alert('Length must be number!'); else { volume = width * thickness * length; weightPerInches = thickness * density; weightPerPieces = weightPerInches * width * length; } } else if (productType == 'Tubular') { weight1 = "IN"; weight2 = "FT"; var outerDiameter = DWRUtil.getValue('dimensionOD'); var innerDiameter = DWRUtil.getValue('dimensionID'); var length = DWRUtil.getValue('dimensionLength'); if (!globalIsDecimal(outerDiameter)) alert('OD must be a number!'); else if (!globalIsDecimal(innerDiameter)) alert('ID must be a number!'); else if (!globalIsDecimal(length)) alert('Length must be a number!'); else { volume = (((outerDiameter/2.0) * (outerDiameter/2.0) * Math.PI) - ((innerDiameter/2.0) * (innerDiameter/2.0) * Math.PI)) * length; weightPerInches = volume /length * density; weightPerPieces = weightPerInches * 12; } } DWRUtil.setValue('resultDensity', globalGetDecimalValue(density,3) + " LBS/IN³"); DWRUtil.setValue('resultWeightPerInches', globalGetDecimalValue(weightPerInches,3) + " LBS/" + weight1); DWRUtil.setValue('resultWeightPerPieces', globalGetDecimalValue(weightPerPieces,3) + " LBS/" + weight2); DWRUtil.setValue('resultVolume', globalGetDecimalValue(volume,3) + " IN³"); } function computeBurstPressure() { var tensileStrength = DWRUtil.getValue('tensileStrength'); var wallThickness = DWRUtil.getValue('wallThickness'); var outsideDiameter = DWRUtil.getValue('outsideDiameter'); if (outsideDiameter == null || outsideDiameter == 0) { DWRUtil.setValue('burstPressure', '0'); DWRUtil.setValue('workingPressure', '0'); } else { var burstPressure = 2 * (tensileStrength * wallThickness / outsideDiameter); var workingPressure = burstPressure / 4; DWRUtil.setValue('burstPressure', globalGetDecimalValue(burstPressure,4)); DWRUtil.setValue('workingPressure', globalGetDecimalValue(workingPressure,4)); } } function burstPressureCalculator() { var content = ""; content += "Burst/Working Pressure Calculator"; content += "
"; content += ""; content += ""; content += ""; content += ""; content += "
Instructions:
  		• Enter the values for tensile strength (PSI), wall thickness (Inches) and outside diameter (Inches) into the form, below.
  		• The 'Compute' button will calculate the burst and working pressures using Barlow's Equation, while 'Clear' will clear the form.
  		• If you do not have tensile strength for your material, please call 1-800-455-2276, and ask for technical assistance.

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Enter Values
    Tensile Strength/UTS of Material PSI
    Wall Thickness Inches
    Outside Diameter Inches
     
     
    Results
    Burst Pressure PSI (Barlow's Equation)
    Working Pressure PSI (Safety Factor or 4)
    "; DWRUtil.setValue("pageContent", content); } function getAlloyC276PipeBurstingPressure() { var content = "
     Printable Version     

    "; content += "Bursting Pressure Tables - Alloy C276 Pipe

    "; content += "Theoretical Internal Bursting Pressures (Barlow's Formula)

    "; content += ""; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += "
     Schedule 5CSchedule 10SSchedule 40SSchedule 80S
    Nominal Pipe SizeNominal O.D. (Inches)Wall (Inches)Pressure (PSI)Wall (Inches)Pressure (PSI)Wall (Inches)Pressure (PSI)>Wall (Inches)Pressure (PSI)
    1/8.405  .04918150.06825175.09535175
    1/4.540  .06518050.08824450.11933050
    3/8.675  .06514450.09120225.12628000
    1/2.84.06511600.08314825.10919475.14726250
    3/41.05.0659275.08311850.11316150.1542200
    11.315.0657425.10912450.13315175.17920425
    1 1/41.66.0655875.1099850.1412650.19117250
    1 1/21.900.0655125.1098600.14511450.2015800
    22.375.0654100.1096875.1549750.21813775
    2 1/22.875.0834325.126250.20310600.27614400
    33.5.0833550.125150.2169250  
    3 1/24.0833100.124500.2268475  
    44.5.0832750.124000.2377900  
    55.563.1092950.1343625.2586950  
    66.625.1092475.1343050.286350  
    88.625.1091900.14825753225600  
    101.75.1341875.1652300.3655100  
    1212.75.1561825.182125.3754400  
    1414.1561675.1882025    
    1616.1651550.1881775    
    1818.1651375.1881575    
    2020.1881400.2181625    
    2424.2181375.251550    
    3030.251250.3121550    

    "; content += "Information for reference purposes only. Corrosion Materials in not liable for any damages that may result from the use of this information."; DWRUtil.setValue("pageContent", content); } function getAlloyC276WeldedTubeBurstingPressure() { var content = "
     Printable Version     

    "; content += "Bursting Pressure Tables - Alloy C276 Welded Tube
    (Nickel, Molybdenum, Chromium / ASTM B-626 or Equivalent)

    "; content += "Calculated Burst Pressure (PSI) For Fractional Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    .010.012.016.020.028.035.049.065.083.095.109.120
    1/1636,70044,97561,53077,045        
    1/8   36,70053,29067,560      
    3/16   23,32033,92043,60062,890     
    1/4    24,60031,53046,02062,550    
    3/8     20,17029,18040,170    
    1/2     14,83021,27029,02038,280   
    5/8     11,73016,73022,69029,72034,610  
    3/4     9,70013,79018,62024,28028,19032,90036,700
    7/8     8,26011,73015,80020,53023,78027,67030,810
    1     7,20010,20013,71017,78020,56023,88026,550

    "; content += "Calculated Burst Pressure (Bar) For Metric Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    .5.6.7.81.01.21.51.61.82.02.22.53.0
    326503245384044305515        
    4191523502810324541354990       
    6  177520552650324541354430     
    8  129515001915235030253245     
    10   11801500183023502530     
    12   970123015001915205523502650   
    14    104012701620173519752225247528653500
    16    90511001395150017051915213024603025
    18    8009701230132015001685187021552650
    22    650790995106512101355150017202110
    25    57069087093010501180130515001830

    "; content += "References:
    "; content += "ASME Boiler and Pressure Vessel Code, Section VIII, Div. 1, Table UNF-23-3, Par. UG-27 and Appendix 1, Par. 1-2
    "; content += "Information for reference purposes only. Corrosion Materials in not liable for any damages that may result from the use of this information."; DWRUtil.setValue("pageContent", content); } function getAlloyC276SeamlessTubeBurstingPressure() { var content = "
     Printable Version     

    "; content += "Bursting Pressure Tables - Alloy C276 Seamless Tube
    (Nickel, Molybdenum, Chromium / ASTM B-622 or Equivalent)

    "; content += "Calculated Burst Pressure (PSI) For Fractional Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    .010.012.016.020.028.035.049.065.083.095.109.120
    1/1636,70044,98061,52877,048        
    1/8   36,70053,29067,560      
    3/16   23,32033,92043,60062,890     
    1/4    24,60031,53046,02062,550    
    3/8     20,17029,18040,170    
    1/2     14,83021,27029,02038,280   
    5/8     11,73016,73022,69029,72034,610  
    3/4     9,70013,79018,62024,28028,19032,90036,700
    7/8     8,26011,73015,80020,53023,78027,67030,810
    1     7,20010,20013,71017,78020,56023,88026,550

    "; content += "Calculated Burst Pressure (Bar) For Metric Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    .5.6.7.81.01.21.51.61.82.02.22.53.0
    326503245384044305515        
    4191523502810324541354990       
    6  177520602650324541354430     
    8  129515001915235030203245     
    10   11801500183023502530     
    12   970123015001915206023502650   
    14    104512701615177519752225248028653500
    16    91011001395150017051915213024653020
    18    8009701230132015001680187021552650
    22    650790995106512101350154017252110
    25    57069087093010501180130515001830

    "; content += "References:
    "; content += "ASME Boiler and Pressure Vessel Code, Section VIII, Div. 1, Table UNF-23-3, Par. UG-27 and Appendix 1, Par. 1-2
    "; content += "Information for reference purposes only. Corrosion Materials in not liable for any damages that may result from the use of this information."; DWRUtil.setValue("pageContent", content); } function getAlloy400SeamlessTubeBurstingPressure() { var content = "
     Printable Version     

    "; content += "Bursting Pressure Tables - Alloy 400 Seamless Tube
    (Nickel, Copper / ASTM B-165 or Equivalent)

    "; content += "Calculated Burst Pressure (PSI) For Fractional Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    .010.012.016.020.028.035.049.065.083.095.109.120
    1/1625,69031,49043,07053,935        
    1/8   25,69037,30047,290      
    3/16   16,32523,74530,52044,025     
    1/4    17,22022,07032,21543,785    
    3/8     14,12020,42528,120    
    1/2     10,38014,89020,31526,795   
    5/8     8,21011,71015,88520,80524,225  
    3/4     6,7909,65513,03516,99519,73523,03025,690
    7/8     5,7808,21011,06014,37016,64519,37021,565
    1     5,0407,1409,59512,44514,39016,71518,585
    Factor of Safety = 4, considering tensile strength to be 70,000 psi at room temperature.

    "; content += "Calculated Burst Pressure (Bar) For Metric Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    0.50.60.70.81.01.21.51.61.82.02.22.53.0
    318552270269031003860        
    4134016451965227028903490       
    6  124014401855227028903100     
    8  91010501340164521102270     
    10   8251050128016451770     
    12   67586010501340144016451855   
    14    7308901130121013801555173020002450
    16    630770975105011901340149017202110
    18    56067586092010501175135015101588
    22    450550690745845945105012051475
    25    39548061065073582591010501280

    "; content += "References:
    "; content += "ASME Boiler and Pressure Vessel Code, Section VIII, Div. 1, Table UNF-23-3, Par. UG-27 and Appendix 1, Par. 1-2
    "; content += "Information for reference purposes only. Corrosion Materials in not liable for any damages that may result from the use of this information."; DWRUtil.setValue("pageContent", content); } function computeRingSegments() { var plateWidth; var plateLength; var minWidth; var divFactor; var outerDiameterValue = DWRUtil.getValue('outerDiameter'); var innerDiameterValue = DWRUtil.getValue('innerDiameter'); if (outerDiameterValue == "" || outerDiameterValue == 0) { alert("You must provide a non-zero value for the outer diameter."); document.ringForm.outerDiameter.focus(); return; } if (innerDiameterValue == "" || innerDiameterValue == 0) { alert("You must provide a non-zero value for inner diameter."); document.ringForm.innerDiameter.focus(); return; } if ((innerDiameterValue * 1) >= (outerDiameterValue * 1)) { alert("Outer diameter must be larger than inner diameter."); document.ringForm.outerDiameter.focus(); return; } if (document.ringForm.ring[0].checked) { var innerDiameter2 = innerDiameterValue/2; var outerDiameter2 = outerDiameterValue/2; var counter1 = 1; var counter2 = Math.sqrt(Math.pow(outerDiameter2,2)-Math.pow(counter1, 2)); while (counter2 > innerDiameter2) { counter1 += 0.25; counter2 = Math.sqrt(Math.pow(outerDiameter2, 2)-Math.pow(counter1,2)); } plateWidth = outerDiameter2 + counter1 + 2; plateLength = (outerDiameterValue*1) + 1; minWidth = outerDiameter2 + 1; divFactor = 1; } else if(document.ringForm.ring[1].checked) { var innerDiameter2 = innerDiameterValue/2; var outerDiameter2 = outerDiameterValue/2; var outerDiameter4 = outerDiameter2/2; var innerDiameter4 = innerDiameter2/2; var factor1 = Math.sqrt((Math.pow(outerDiameter2,2) - Math.pow(outerDiameter4,2))); var factor2 = Math.sqrt((Math.pow(innerDiameter2,2) - Math.pow(innerDiameter4,2))); var counter1 = 1; var counter2 = Math.sqrt((Math.pow(outerDiameter2,2) - Math.pow(counter1,2))); while (counter2 > factor2) { counter1 += 0.25 ; counter2 = Math.sqrt((Math.pow(outerDiameter2,2) - Math.pow(counter1,2))); } var balInside = outerDiameter2-counter1; var balOutside = outerDiameter2-innerDiameter4-balInside; if (counter2 <= factor2) plateWidth = (outerDiameter2-innerDiameter4) + (2*balOutside) + 3; plateLength = factor1 * 2 + 1; minWidth = outerDiameter2-innerDiameter4 + 1; divFactor = 2; } else if(document.ringForm.ring[2].checked) { var outerDiameter2 = outerDiameterValue/2; var innerDiameter2 = innerDiameterValue/2; var factor1 = Math.sqrt(Math.pow(outerDiameter2,2) + Math.pow(outerDiameter2,2)); var factor2 = Math.sqrt(Math.pow(innerDiameter2,2) + Math.pow(innerDiameter2, 2)); var fact22 = factor2/2; var factor3 = Math.sqrt(Math.pow(innerDiameter2,2)/2); var counter1 = 1; var counter2 = Math.sqrt(Math.pow(outerDiameter2,2)-Math.pow(counter1, 2)); while (counter2 > fact22) { counter1 += 0.25; counter2 = Math.sqrt((Math.pow(outerDiameter2,2) - Math.pow(counter1,2))); } if (counter2 <= fact22) plateWidth = (outerDiameter2-factor3) + (((outerDiameter2-factor3)-(outerDiameter2 - counter1)) * 3) + 4; plateLength = factor1+1; minWidth = outerDiameter2-factor3+1; divFactor = 3; } else if(document.ringForm.ring[3].checked) { var outerDiameter2 = outerDiameterValue/2; var innerDiameter2 = innerDiameterValue/2; var innerDiameter4 = innerDiameter2/2; var factor1 = Math.sqrt((Math.pow(innerDiameter2,2) - Math.pow(innerDiameter4,2))); var counter1 = 1; var counter2 = Math.sqrt((Math.pow(outerDiameter2,2) - Math.pow(counter1, 2))); while (counter2 > innerDiameter4) { counter1 += 0.25; counter2 = Math.sqrt((Math.pow(outerDiameter2, 2) - Math.pow(counter1,2))); } if (counter2 <= innerDiameter4) plateWidth = (outerDiameter2 - factor1) + (((outerDiameter2 - factor1) - (outerDiameter2 - counter1)) * 5) + 6; plateLength = (outerDiameter2 + 1); minWidth = (outerDiameter2 - factor1) + 1; divFactor = 5; } else if(document.ringForm.ring[4].checked) { var outerDiameter2 = outerDiameterValue/2; var innerDiameter2 = innerDiameterValue/2; var factor1 = (innerDiameter2 * 0.3827); var factor2 = (innerDiameter2 * 0.9239); var counter1 = 1; var counter2 = Math.sqrt((Math.pow(outerDiameter2,2) - Math.pow(counter1,2))); while (counter2 > factor1) { counter1 += 0.25; counter2 = Math.sqrt((Math.pow(outerDiameter2,2) - Math.pow(counter1, 2))); } if (counter2 <= factor1) plateWidth = (outerDiameter2 - factor2) + (((outerDiameter2 - factor2) - (outerDiameter2 - counter1)) * 7) + 8; plateLength = (((outerDiameter2 * 0.3827) * 2) + 1); minWidth = ((outerDiameter2 - factor2) + 1); divFactor = 7; } else return; DWRUtil.setValue('allSegmentsWidth', globalGetDecimalValue(plateWidth,4)); DWRUtil.setValue('allSegmentsLength', globalGetDecimalValue(plateLength,4)); DWRUtil.setValue('oneSegmentWidth', globalGetDecimalValue(minWidth,4)); DWRUtil.setValue('oneSegmentLength', globalGetDecimalValue(plateLength,4)); DWRUtil.setValue('additionalSegmentsWidth', globalGetDecimalValue((plateWidth - minWidth) / divFactor,4)); DWRUtil.setValue('additionalSegmentsLength', globalGetDecimalValue(plateLength,4)); } function howMuchPlate() { var content = ""; content += "Plate Needed For Ring Segments"; content += "
    "; content += "Question:

    "; content += "How big a piece of plate do I need to build a given number of ring segments?

    "; content += "Number of Ring Segments:
    "; content += "TwoThreeFourSixEight

    "; content += "Dimensions of Segments:
    "; content += "Outer Diameter      Inner Diameter 

    "; content += " 

    "; content += "Answer:

    "; content += "Plate Size Required to Cut All Segments:
    "; content += "Width      Length 

    "; content += "Plate Size Required to Cut One Segment:
    "; content += "Width      Length 

    "; content += "Plate Size Required to Cut Additional Segments:
    "; content += "Width      Length 

    "; content += "
    "; DWRUtil.setValue("pageContent", content); } function getAlloyC276WeldedTubeMaxPressure() { var content = "
     Printable Version     

    "; content += "Maximum Working Pressure Tables - Alloy C276 Welded Tube
    (Nickel, Molybdenum, Chromium / ASTM B-626 or Equivalent)

    "; content += "Maxium Allowable Working Pressure (PSI) For Fractional Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing OD (Inches)Wall Thickness (Inches)
    .010.012.016.020.028.035.049.065.083.095.109.120
    1/167,7809,53513,04416,334        
    1/8   7,78011,29714,322      
    3/16   4,9437,1919,24313,332     
    1/4    5,2156,6849,75613,260    
    3/8     4,2766,1868,516    
    1/2     3,1434,5096,1528,115   
    5/8     2,4863,5464,8106,3007,337  
    3/4     2,0562,9233,9475,1475,9766,9747,780
    7/8     1,7512,4863,3494,3525,0415,8666,531
    1     1,5262,1622,9063,7694,3585,0625,628
    "; content += "Factor of Safety = 4, considering tensile strength to be 100,000 PSI at room temperature,
    and a weld joing efficiency factor of approximately 0.85

    "; content += "Maxium Allowable Working Pressure (Bar) For Metric Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing OD (Inches)Wall Thickness (Inches)
    0.50.60.70.81.01.21.51.61.82.02.22.53.0
    35626888149391169        
    44064985956888771058       
    6  376435562688877939     
    8  275318406498641688     
    10   250318388498536     
    12   206261318406436498562   
    14    221269343368419472   
    16    192233296318361406452522641
    18    170206261280318357396457562
    22    138167211226256287318365447
    25    121146184197223250277318388
    "; content += "
    Information for reference purposes only. Corrosion Materials in not liable for any damages that may result from the use of this information."; DWRUtil.setValue("pageContent", content); } function getAlloyC276SeamlessTubeMaxPressure() { var content = "
     Printable Version     

    "; content += "Maximum Working Pressure Tables - Alloy C276 Seamless Tube
    (Nickel, Molybdenum, Chromium / ASTM B-622 or Equivalent)

    "; content += "Maximum Allowable Working Pressure (PSI) For Fractional Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    .010.012.016.020.028.035.049.065.083.095.109.120
    1/169,17511,24515,38219,262        
    1/8   9,17513,32216,890      
    3/16   5,8308,48010,90015,722     
    1/4    6,1507,88211,50515,637    
    3/8     5,0427,29510,042    
    1/2     3,7075,3177,2559,570   
    5/8     2,9324,1825,6727,4308,652  
    3/4     2,4253,4474,6556,0707,0478,2229,175
    7/8     2,0652,9323,9505,1325,9456,9177,702
    1     1,8002,5503,4274,4455,1405,9706,637
    ";; content += "Factor of Saftey = 4, considering tensile strength to be 100,000 psi at room temperature.

    " content += "Maximum Allowable Working Pressure (Bar) For Metric Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Millimeters)
    .5.6.7.81.01.21.51.61.82.02.22.53.0
    366381196011071379        
    4191523502810324541354990       
    6  177520602650324541354430     
    8  129515001915235030203245     
    10   11801500183023502530     
    12   970123015001915206023502650   
    14    104512701615177519752225248028653500
    16    91011001395150017051915213024653020
    18    8009701230132015001680187021552650
    22    650790995106512101350154017252110
    25    57069087093010501180130515001830
    "; content += "
    Information for reference purposes only. Corrosion Materials in not liable for any damages that may result from the use of this information."; DWRUtil.setValue("pageContent", content); } function getAlloy400SeamlessTubeMaxPressure() { var content = "
     Printable Version     

    "; content += "Maximum Working Pressure Tables - Alloy 400 Annealed Seamless Tube
    (Nickel, Copper / ASTM B-165 or Equivalent)

    "; content += "Maximum Allowable Working Pressure (PSI) For Fractional Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    .010.012.016.020.028.035.049.065.083.095.109.120
    1/166,4227,87210,76813,484        
    1/8   6,4229,32511,823      
    3/16   4,0815,9357,63011,005     
    1/4    4,3055,5188,05310,946    
    3/8     3,5305,1077,029    
    1/2     2,5953,7215,0786,699   
    5/8     2,0512,9273,9705,2006,056  
    3/4     1,6962,4123,2594,2494,9335,7556,422
    7/8     1,4462,0512,7643,5924,1614,8425,391
    1     5,0407,1409,59512,44514,39016,71518,585
    "; content += "Factor of Safety = 4, considering tensile strength to be 70,000 PSI at room temperature.

    "; content += "Maximum Allowable Working Pressure (Bar) For Metric Sizes

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Tubing ODWall Thickness (Inches)
    0.50.60.70.81.01.21.51.61.82.02.22.53.0
    3464567672775965        
    4335411491567723873       
    6  310360464567723775     
    8  227262335411528567     
    10   206262320411442     
    12   169215262335360411464   
    14    182222282303345389433500612
    16    158192244262298335372430528
    18    140169215230262294326377464
    22    113137173186211236262301369
    25    99120152162184206228262320
    "; content += "Factor of Safety = 4, considering tensile strength to be 482.6 MPa at room temperature.

    "; content += "Information for reference purposes only. Corrosion Materials in not liable for any damages that may result from the use of this information."; DWRUtil.setValue("pageContent", content); } function calculateFabricateHexSquare() { var barTypeValue = DWRUtil.getValue('fabricationBarType'); var barUM = DWRUtil.getValue('fabricationBarUM'); var resultUM = DWRUtil.getValue('resultUM'); var barDiameter = DWRUtil.getValue('fabricationBarDiameter'); var factor = (barTypeValue == 'Hexagon') ? 1.154701 : 1.414214; var valueInches = (barUM == 'Inches') ? barDiameter * factor : barDiameter * factor / 25.4; var resultValue = (resultUM == 'Inches') ? valueInches : valueInches * 25.4; DWRUtil.setValue('hexSquareConversion', globalGetDecimalValue(resultValue,4)); } function calculateFabricateFlat() { var flatBarWidthValue = DWRUtil.getValue('flatBarWidth'); var flatBarHeightValue = DWRUtil.getValue('flatBarHeight'); var flatBarUMValue = DWRUtil.getValue('flatBarUM'); var resultUMValue = DWRUtil.getValue('flatBarResultUM'); var result = Math.sqrt(flatBarWidthValue * flatBarWidthValue + flatBarHeightValue * flatBarHeightValue); if (flatBarUMValue == 'Millimeters') result = result / 25.4; if (resultUMValue == 'Millimeters') result = result * 25.4; DWRUtil.setValue('flatBarConversion', globalGetDecimalValue(result,4)); } function fabricateBar() { var content = ""; content += "Calculate the Size of Round Bar Needed to Fabricate Hexagon, Square or Flat Bars

    "; content += "Fabricate Hexagon and Square Bar
    "; content += "With the diameter of the hexagon or square bar, the size of the
    "; content += "round bar can be calculated using the following formula:

    "; content += "Round Bar Diameter = Hexagon Diameter * 1.154701
    "; content += "Round Bar Diameter = Square Diameter * 1.414214

    "; content += ""; content += " " content += " "; content += " "; content += " "; content += " " content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += "
    Fabrication Bar DiameterRound Bar Diameter Needed
     =


    "; content += "Fabricate Flat Bar
    "; content += "With the width and height of flat bar, the minimum diameter of
    "; content += "round bar can be calculated using the following formula:

    "; content += "Round Bar Minimum Diameter = Square Root(Width² + Height²)

    "; content += ""; content += " " content += " "; content += " "; content += " "; content += " " content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += " "; content += "
    Width and Height of Flat BarRound Bar Diameter Needed
    x =


    "; DWRUtil.setValue("pageContent", content); } function cmiAdsDocs() { var content = ""; content += "CMI Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Data SheetFormatSizeLink
    Incoloy 27-7MOAdobe233 KB Download
    Alloy 20Adobe137 KB Download
    Alloy 22Adobe142 KB Download
    Alloy 400Adobe134 KB Download
    Alloy 600Adobe143 KB Download
    Alloy 800Adobe146 KB Download
    Alloy B2Adobe138 KB Download
    Alloy C276Adobe139 KB Download
    Alloy F255Adobe142 KB Download
    Alloy K500Adobe128 KB Download
    Inconel 686®Adobe81 KB Download
    Nickel 200/201Adobe146 KB Download
    Titanium Grade 1 - 4Adobe521 KB Download

    "; content += "Incoloy® is a trademark name of Special Metals Corporation

    "; content += "" DWRUtil.setValue("pageContent", content); } function msdsDocs() { var content = ""; content += "Material Safety Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Safety Data SheetFormatSizeLink
    Nickel Alloys
  • Alloy C276
  • Alloy B2
  • Alloy B3®
  • Alloy 22
  • Alloy G30®
  • Nickel 200/201
  • Alloy 400
  • Alloy K500
  • Alloy 600
  • Alloy 800H/HT®
  • Inconel® 686
  • Alloy 20
    		• Adobe99 KB Download
    StelliteAdobe58 KB Download
    TitaniumAdobe57 KB Download
    Alloy 255Adobe59 KB Download
    Alloy 718Adobe59 KB Download

    "; content += "" DWRUtil.setValue("pageContent", content); } function gmiDocs() { var content = ""; content += "General Material Information

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
    Material InformationFormatSizeLink
    Alloying ElementsAdobe105 KB Download
    Austenitic Alloy Hardness ConversionAdobe44 KB Download
    Common Trade NamesAdobe107 KB Download
    Heat Treating of Non-PH GradesAdobe97 KB Download
    Mechanical PropertiesAdobe107 KB Download
    Nickel/High Nickel Alloy Hardness ConversionAdobe45 KB Download
    Relative Cost of alloysAdobe116 KB Download

    "; content += "" DWRUtil.setValue("pageContent", content); } function overviewTitanium() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Overview

    "; content += "To use Titanium efficiently, you need a supplier who specializes in meeting your product and fabricating process needs.

    "; content += "With a division centrally located in the U.S., Corrosion Materials can quickly provide commercially pure and alloyed titanium mill products, fasteners and fabrications.

    "; content += "Corrosion Materials has earned a reputation for providing expert technical service and rapid delivery time at competitive prices to all our customers in a wide variety of industries. You will receive quick answers to your manufacturing questions about welding, machinability and fabrication techniques."; DWRUtil.setValue("pageContent", content); } function workingTitanium() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Working with Titanium Alloys

    "; content += "
  • Working
  • Welding
  • Forming

    • "; content += "

    "; content += "Titanium and stainless steel are generally comparable in terms of machinability, except that when there is a higher alloy content, the machinability decreases. There should not be any problems in the machining of titanium and its alloys, if the special characteristics of titanium are taken into account.

    "; content += "Titanium can be cut very easily, but only if the tools you use are kept sharp. It is always easier to sharpen a tool than to have a wearland develop. Proper tool angles, adequate coolants and the use of slow speeds and heavy feeds are also advised.

    "; content += "Due to the fact that titanium has low thermal conductivity, when cutting, the chips have a tendency to gall and weld to the cutting edges on the tool. This always speeds up the wear on the tool itself. Rather than lose production, it is best advised to work the tool to its maximum capacity and then replace it when productivity decreases.

    "; content += "To lengthen tool life, use of the proper coolant is necessary to reduce cutting temperature and inhibit galling. Cutting fluids containing chlorine, fluorine, bromine and iodine should not be used, in order to avoid corrosion problems.

    "; content += "Turning

    "; content += "Titanium, whether commercially pure or alloyed, can be turned easily. Carbide tools are highly recommended for turning. Best results are acquired from metal carbides such as C-91 and similar types. Of the high speed steels, cobalt-types seem to be the best. If carbide is not available, Stellite, Tantung, Rexalloy, or other types of Castalloy tools may be used.

    "; content += "Drilling

    "; content += "Drilling may be accomplished successfully with ordinary high speed steel drills. When drilling titanium, the most important factor is the length of the unsupported section of the drill. This section of the drill should not be any longer than is required to drill the depth of the hole and allow the chips to flow through the flutes and out the hole. Following this process permits maximum cutting pressure and quick removal to clear chips without breaking the drill. Using a \"Spiro-Point\" drill for grinding is recommended.

    "; content += "Tapping

    "; content += "Tapping titanium is one of the more difficult machining operations, due to the problem of chip removal. The use of a gun-type tap where the chips are pushed ahead of the tap can make this process less difficult. When titanium smears on the land of the tap, it may cause another problem, tap freezing or binding in the hole. Sulfurized and chlorinated cutting oils are recommended for this. Best performance in tapping titanium is when using a 65% thread.

    "; content += "Grinding

    "; content += "For grinding titanium, the ideal combination of grinding fluid, abrasive wheel and wheel speeds can quicken this form of shaping titanium. Alundum and silicon carbide wheels are used. The ideal way to perform this procedure is to use lower wheel speeds than in general grinding of steels. An excellent coolant is a water-sodium nitrite mixture, although, unless proper precautions are taken, this mixture may be very corrosive to equipment.

    "; content += "Sawing

    "; content += "Sawing titanium requires slow speeds - in the 50 fpm [15.25 mps] range - and heavy, constant pressure from the blade.

    "; content += "Parts that have been machined and will be exposed to higher temperatures should have all cutting oils thoroughly removed. The solvent basically used for this is methyl-ethyl-ketone.

    "; content += "Low flash point cutting oils are not recommended, due to the fact that during machining, high heat is generated, which may cause the oil to ignite. High flash point cutting fluids or water-soluble oils are recommended."; DWRUtil.setValue("pageContent", content); } function weldingTitanium() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Working with Titanium

    "; content += "
  • Working
  • Welding
  • Forming

    • "; content += "

    "; content += "The most frequently used method of joining metals is welding. Welded assemblies with high tensile and compressed load, involving fatigue-causing stresses, can provide a great advantage if they are made of titanium.

    "; content += "Titanium, whether commercially pure or in one the many titanium alloys, may be welded. Inert-gas shield arc welding, spot, seam and flash welding are methods used for welding titanium. Protection for shielding the molten weld metal and adjoining heated zones from active gases that could contaminate the metal is necessary in these methods.

    "; content += "Nitrogen, oxygen and hydrogen are greatly reactive with molten titanium, which absorbs large quantities of these gases. Titanium tends to become brittle from these contaminating gases. Therefore, ductile welds cannot be produced by oxyacetylene welding or other forms of welding using active gases, electrode coatings, or fluxes.

    "; content += "Arc Welding

    "; content += "A welding torch designed to allow inert gas to flow through it, giving the molten metal pool and electrode a protective environment, is used for inert-gas shield arc welding. While solidifying, the weldment can be protected by a trailing shield with inert gas, the underside has a grooved back-up bar filled with inert gas for its protection. For protection from the atmosphere, helium, argon or a mixture of the two can be used. Manual or automatic welding of titanium can use either inert-gas tungsten arc or inert-gas metal arc processes.

    "; content += "Spot and Seam Welding

    "; content += "Procedures for spot and seam welding on titanium are comparable to those used on other metals. Inert-gas shielding typically required in arc-fusion welding is not needed in this process. Satisfactory welds may be achieved a number of ways with proper combinations of current, time and electrode force. Adjusting the current, time or force to previously established welding constitions for similar thicknesses of stainless steels is a good procedure to follow. Any type of welding cycles including slope control, preheat, post weld heat treatment and forging cycles are basically not needed.

    "; content += "Flash Welding

    "; content += "Flash welds can provide the same advantages in titanium as in other metals. The need for gaseous shielding is eliminated, due to the fact that the molten metal present at the varying surfaces is expelled at the time the weld is consummated. Forged cross sections, complex or hollow shapes may need shielding to avoid possible contamination.

    "; content += "Pressure Welding

    "; content += "There are two main differences between titanium pressure welding and flash welding. First of all, an oxyacetylene flame or induction coil provides the heat instead of an arc. Heat is applied to the metal until it reaches a highly plastic state, because the weld does not require actual melting of the metal. The pieces are then welded together by externally applied pressure.

    "; content += "Normally, gas shielding is not necessary. However, if the part to be welded is hollow, the inside may require shielding to prevent contamination.

    "; content += "Careful surface preparation is very important to a successful pressure weld. The joining faces must be machined properly to assure perfect alignment. The degree of pressure maintained during the welding cycle depends on time, temperature and alloy.

    "; content += "Electron Beam welding

    "; content += "For joining titanium where exceptionally high standards of weld quality and purity are required, electron beam welding has particular advantages. Because this type of welding is performed in a high vacuum, atmospheric contamination of the weld is prevented. Heat is provided by a high density stream of electrons. Cutting grooves in the metal is rarely needed, because electron beam welds are deeper and narrower that those encountered in other welding methods. Electron beam welds are less apt to warp the assembly because of the high depth-to-width ratio."; DWRUtil.setValue("pageContent", content); } function formingTitanium() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Working with Titanium

    "; content += "
  • Working
  • Welding
  • Forming

    • "; content += "

    "; content += "Hot forming is generally preferred with titanium sheet, though cold forming is also manageable. Four methods are basically used for forming, typically requiring a bit more application of pressure than with steel. They are:
    "; content += "
  • Hydropress
    "; content += "
  • Stretch
    "; content += "
  • Power Brake
    "; content += "
  • Drop Hammer

    "; content += "Titanium material, if received in the annealed condition, is then in its most easily formed and workable condition.

    "; content += "Hydraulic Press Forming

    "; content += "To fabricate parts that are basically flat with straight or contoured edges, rubber pad hydraulic press forming can be more successful. Cold work is best when done in stages, with annealing between stages. When planned as a two-phase operation, hydropress forming is most successful:
    "; content += "1. Cold hydropress forming to semi- finished condition.
    "; content += "2. Mechanical hot-sizing to blueprint finish, or final creep forming with furnace-type fixtures.

    "; content += "With this additional hot forming stage, hydropress dies can be designed with a controlled contoured bulge or shrink flange, eliminating possible cracks or bends.

    "; content += "For the hot sizing equipment or creep forming in a furnace, dies are machined to blueprint requirements. Time and temperature to hot size are varied to suit the individual titanium alloy. Usually 10 - 20 minutes at 1000°F [538°C] is acceptable.

    "; content += "Power Brake Forming

    "; content += "To form angles, Z-sections, hat sections, and channels, brake forming is used. A round-nosed male punch and trough-like female die is used in this type of forming. When using this method, the sheet metal blank is laid over the trough die and angle formed by forming the sheet into the trough using the male die.

    "; content += "Strech Forming

    "; content += "Stretch forming has been used on titanium mainly to contour angles, hat sections, Z-sections and channels, and also to form skins to specification-contours. This kind of forming is attained by gripping the section to be formed in knurled jaws, loading until plastic deformation begins and then wrapping the part around a male die. Loading of the part or sheet until plastic deformation begins and wrapping around the die should be done at a slow rate. Springback of most titanium alloy is equivalent to that of � to �-hard 18-8 stainless steel.

    "; content += "Drop Hammer Forming

    "; content += "Drop hammer forming has been very successful, and has been accomplished at both room and elevated temperatures. Kirksite is satisfactory for male and female dies where only a few parts are needed. If it is a long run, usually steel inserts are necessary. In drop hammer forming, the greatest success has been obtained by warming the female die to 200 - 300°F [93 - 149°F] to remove the chill, and heating the blank to 800 - 1000°F [427 - 538°C] for 10 - 15 minutes. The part is then struck and set in the die. In most cases, a finished part, which requires no handwork, can be obtained.

    "; content += "Hot Vs Cold Forming

    "; content += "The advantages of hot forming of titanium are reduced springback, lower forming pressures and increased ductility. As in drop hammer forming, the use of preheated dies to avoid chilling the work is recommended. When titanium blanks are heated so that actual deformation takes place (at temperatures of 400 - 600°F [204 - 316°C] for the commercially pure grades, or 800 - 1300°F [427 - 704°C] for the alloy grades) the titanium will behave much like annealed to 1/8-hard stainless steel. When commercially pure titanium is cold formed, it will behave much like 1/8 to 1/4-hard stainless steel, and most titanium alloys like 1/2-hard stainless steel.

    "; content += "Stress Relief

    "; content += "As an aid to cold forming, normally it is necessary to stress relieve when more than one stage of fabrication is involved. For example, a part should be stress relieved after brake forming prior to stretching and also between room temperature hydropress forming stages. Heat treatment is necessary to relieve residual stresses imposed during forming after cold forming operation are complete.

    "; DWRUtil.setValue("pageContent", content); } function specTiGrade1() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; //content += "
  • Grade 1
  • Grade 2
  • Grade 3
  • Grade 4
  • Grade 5
  • Grade 7
  • Alloy

    • "; content += "
    "; content += "

    "; content += ""; content += ""; content += ""; content += "
    Data SheetFormatSizeLink
    Titanium Grade 1Adobe521 KB Download

    "; content += "" // content += "
    Chemical Composition (percent)
    Max. values unless range is shown)    		 0.08C; 0.20FE*; 0.03N; 0.18O; 0.015H (sheet);
    0.0125H (bar); 0.0100H (billet)

    MILL ANNEALED TENSILE PROPERTIES

       Guar. R.T.    

    Min.

    		     Typical Elev. Temp. Prop.
    600F 800F 1000F
    Ultimate Strength (psi) 35,000 26,000 20,000

    -

    Yield Strength (psi) 0.2% offset 25,000 15,000 13,000

    -

    Elongation in 2" (%) Sheet > 0.025 thick 24 32 26

    -

    Reduction in Area (%) Bar 30 70/80 70/80

    -

    MECHANICAL PROPERTIES

    *Also available with 0.05 max. FE for superior corrosion resistance.

    Stress to Rupture in Time Shown Stress (psi) -
    Time (Hrs.) -
    Stress and Time to Produce Elongation Shown (Creep) Stress (psi) -
    Time (Hrs.) -
    Creep (%) -
    Charpy V-Notch Impact (ft.-lbs.) at Room Temperature -
    Bend Radius Under 0.070" thick

    1.5 x Thickness

    0.070" and Over

    2.0 x Thickness

    Welded Bend Radius

    1.5 - 2.0 x Thickness

    Hardness

    RB70

    PHYSICAL PROPERTIES

    -

    Beta Transus (F� 25)

    1630

    Coefficient of Thermal

    Expansion

    (10-6 in./in./F)

    		 32-212 4.8
    32-600 5.1
    32-1000 5.4
    32-1200 5.6
    32-1500 5.6
    Density (lbs./cu.in.) 0.163
    Melting Point, Approx. (F) 3040
    Electrical Resistivity at Room Temperature (Microhms cm) 56
    Modulus of Elasticity - Tension (10 6 psi) 14.9
    Modulus of Elasticity - Torsion (10 6 psi) 6.5
    Thermal Conductivity (Btu/hr./sq. ft./F/ft.) 9.0 at Room Temperature
    Specific Heat (Btu/lb./F) at Room Temperature 0.124
    Weldability Good
    Annealing Temp. (F) Full 1300°/30 Min, - 2 Hrs.; Air Cool
    Stress Relief 1000 - 1100°/30 Min.; Air Cool
    Forging* Temp.(F) Blocking 1600 - 1700°
    Finishing 1500 - 1600°
    Available Mill Products

    Bar,Billet,Extrusions,Plate,Sheet,Strip,Wire,Pipe,Tubing6

    Typical Applications

     

    Industry Specifications

    For corrosion resistance in the chemical and marine 
    industries; in air-frame construction where maximum
    ease of formability desired.

    ASTM B265-79 GR 1
              B348-78 GR 1
              B337-78 GR 1
              B338-78 GR 1
              F67-77   GR 1
              F467-76 GR 1
              F467-76 GR 1

    "; DWRUtil.setValue("pageContent", content); } function specTiGrade2() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; //content += "
  • Grade 1
  • Grade 2
  • Grade 3
  • Grade 4
  • Grade 5
  • Grade 7
  • Alloy

    • "; content += "
    "; content += "

    "; content += ""; content += ""; content += ""; content += "
    Data SheetFormatSizeLink
    Titanium Grade 2Adobe521 KB Download

    "; content += "" // content += "
    Chemical Composition (percent)
    Max. values unless range is shown)    		 0.08C; 0.25FE*; 0.03N; 0.20O; 0.015H (sheet);
    0.0125H (bar); 0.0100H (billet)

    MILL ANNEALED TENSILE PROPERTIES

       Guar. R.T.    

    Min.

    		     Typical Elev. Temp. Prop.
    600F 800F 1000F
    Ultimate Strength (psi) 50,000 30,000 26,000

    19,000

    Yield Strength (psi) 0.2% offset 40,000 18,000 15,000

    11.000

    Elongation in 2" (%) Sheet > 0.025 thick 20 37 25

    32

    Reduction in Area (%) Bar 30 70/80 70/80

    70/80

    MECHANICAL PROPERTIES

    *Also available with 0.05 max. FE for superior corrosion resistance.

    Stress to Rupture in Time Shown Stress (psi) -
    Time (Hrs.) -
    Stress and Time to Produce Elongation Shown (Creep) Stress (psi) -
    Time (Hrs.) -
    Creep (%) -
    Charpy V-Notch Impact (ft.-lbs.) at Room Temperature 25 - 40
    Bend Radius Under 0.070" thick

    2.0 x Thickness

    0.070" and Over

    2.5 x Thickness

    Welded Bend Radius

    2.0 - 3.0 x Thickness

    Hardness

    RB80

    PHYSICAL PROPERTIES

    -

    Beta Transus (F� 25)

    1675

    Coefficient of Thermal

    Expansion

    (10-6 in./in./F)

    		 32-212 4.8
    32-600 5.1
    32-1000 5.4
    32-1200 5.6
    32-1500 5.6
    Density (lbs./cu.in.) 0.163
    Melting Point, Approx. (F) 3020
    Electrical Resistivity at Room Temperature (Microhms cm) 56
    Modulus of Elasticity - Tension (10 6 psi) 14.9
    Modulus of Elasticity - Torsion (10 6 psi) 6.5
    Thermal Conductivity (Btu/hr./sq. ft./F/ft.) 9.5 at Room Temperature
    Specific Heat (Btu/lb./F) at Room Temperature 0.124
    Weldability Good
    Annealing Temp. (F) Full 1300°/30 Min, - 2 Hrs.; Air Cool
    Stress Relief 1000 - 1100°/30 Min.; Air Cool
    Forging* Temp.(F) Blocking 1600 - 1700°
    Finishing 1500 - 1600°
    Available Mill Products

    Bar,Billet,Extrusions,Plate,Sheet,Strip,Wire,Pipe,Tubing

    Typical Applications

     

    Industry Specifications

    For corrosion resistance in the chemical and marine 
    industries; in aircraft construction where a higher
    strength level and ease of formability is desired.

    ASTM B265-79 GR 2; AMS 4902
              B348-78 GR 2
              F467-76 GR 2
              F468-76 GR 2
              B337-78 GR 2
              B338-78 GR 2
              F67-77   GR 2

    "; DWRUtil.setValue("pageContent", content); } function specTiGrade3() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; //content += "
  • Grade 1
  • Grade 2
  • Grade 3
  • Grade 4
  • Grade 5
  • Grade 7
  • Alloy

    • "; content += "
    "; content += "

    "; content += ""; content += ""; content += ""; content += "
    Data SheetFormatSizeLink
    Titanium Grade 3Adobe521 KB Download

    "; content += "" // content += "
    Chemical Composition (percent)
    Max. values unless range is shown)    		 0.08C; 0.25FE*; 0.05N; 0.30O; 0.015H (sheet);
    0.0125H (bar); 0.0100H (billet)

    MILL ANNEALED TENSILE PROPERTIES

       Guar. R.T.    

    Min.

    		     Typical Elev. Temp. Prop.
    600F 800F 1000F
    Ultimate Strength (psi) 65,000 32,000 29,000

    22,000

    Yield Strength (psi) 0.2% offset 55,000 20,000 17,000

    13,000

    Elongation in 2" (%) Sheet > 0.025 thick 18 35 18

    33

    Reduction in Area (%) Bar 30 70/80 70/80

    70/80

    MECHANICAL PROPERTIES

    *Also available with 0.05 max. FE for superior corrosion resistance.

    Stress to Rupture in Time Shown Stress (psi) 20,000
    Time (Hrs.) 100
    Stress and Time to Produce Elongation Shown (Creep) Stress (psi) -
    Time (Hrs.) -
    Creep (%) -
    Charpy V-Notch Impact (ft.-lbs.) at Room Temperature 20 - 40
    Bend Radius Under 0.070" thick

    2.0  x Thickness

    0.070" and Over

    2.5 x Thickness

    Welded Bend Radius

    2.0 - 3.0 x Thickness

    Hardness

    RB90

    PHYSICAL PROPERTIES

    -

    Beta Transus (F� 25)

    1690

    Coefficient of Thermal

    Expansion

    (10-6 in./in./F)

    		 32-212 4.8
    32-600 5.1
    32-1000 5.4
    32-1200 5.6
    32-1500 5.6
    Density (lbs./cu.in.) 0.163
    Melting Point, Approx. (F) 3020
    Electrical Resistivity at Room Temperature (Microhms cm) 56
    Modulus of Elasticity - Tension (10 6 psi) 15.0
    Modulus of Elasticity - Torsion (10 6 psi) 6.5
    Thermal Conductivity (Btu/hr./sq. ft./F/ft.) 9.5 at Room Temperature
    Specific Heat (Btu/lb./F) at Room Temperature 0.125
    Weldability Good
    Annealing Temp. (F) Full 1300°/30 Min, - 2 Hrs.; Air Cool
    Stress Relief 1000 - 1100°/30 Min.; Air Cool
    Forging* Temp.(F) Blocking 1600 - 1700°
    Finishing 1500 - 1600°
    Available Mill Products

    Bar,Billet,Extrusions,Plate,Sheet,Strip,Wire,Pipe,Tubing

    Typical Applications

    Industry Specifications

    For corrosion resistance in the chemical and marine 
    industries and for aircraft construction.

    ASTM B265-79 GR 3; AMS 4900
              B348-78 GR 3
              B337-78 GR 3
              B338-78 GR 3
              F67-77   GR 3

    "; DWRUtil.setValue("pageContent", content); } function specTiGrade4() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; //content += "
  • Grade 1
  • Grade 2
  • Grade 3
  • Grade 4
  • Grade 5
  • Grade 7
  • Alloy

    • "; content += "
    "; content += "

    "; content += ""; content += ""; content += ""; content += "
    Data SheetFormatSizeLink
    Titanium Grade 4Adobe521 KB Download

    "; content += "" // content += "
    Chemical Composition (percent)
    Max. values unless range is shown)    		 0.08C; 0.50FE; 0.05N; 0.40O; 0.015H (sheet);
    0.0125H (bar); 0.0100H (billet)

    MILL ANNEALED TENSILE PROPERTIES

       Guar. R.T.    

    Min.

    		     Typical Elev. Temp. Prop.
    600F 800F 1000F
    Ultimate Strength (psi) 80,000 44,000 34,000

    27,000

    Yield Strength (psi) 0.2% offset 70,000 24,000 21,000

    16,000

    Elongation in 2" (%) Sheet > 0.025 thick 15 18 22

    29

    Reduction in Area (%) Bar 25 70/80 70/80

    70/80

    MECHANICAL PROPERTIES
    Stress to Rupture in Time Shown Stress (psi) - 17,000 -
    Time (Hrs.) - 450 -
    Stress and Time to Produce Elongation Shown (Creep) Stress (psi) - 8,000 -
    Time (Hrs.) - 150 -
    Creep (%) - .15 -
    Charpy V-Notch Impact (ft.-lbs.) at Room Temperature -
    Bend Radius Under 0.070" thick

    2.5  x Thickness

    0.070" and Over

    3.0 x Thickness

    Welded Bend Radius

    3.0 - 5.0 x Thickness

    Hardness

    RB100

    PHYSICAL PROPERTIES

    -

    Beta Transus (F� 25)

    1740

    Coefficient of Thermal

    Expansion

    (10-6 in./in./F)

    		 32-212 4.8
    32-600 5.1
    32-1000 5.4
    32-1200 5.6
    32-1500 5.6
    Density (lbs./cu.in.) 0.163
    Melting Point, Approx. (F) 3020
    Electrical Resistivity at Room Temperature (Microhms cm) 60
    Modulus of Elasticity - Tension (10 6 psi) 15.1
    Modulus of Elasticity - Torsion (10 6 psi) 6.5
    Thermal Conductivity (Btu/hr./sq. ft./F/ft.) 9.8 at Room Temperature
    Specific Heat (Btu/lb./F) at Room Temperature 0.129
    Weldability Good
    Annealing Temp. (F) Full 1300°/30 Min, - 2 Hrs.; Air Cool
    Stress Relief 1000 - 1100°/30 Min.; Air Cool
    Forging* Temp.(F) Blocking 1650 - 1700°
    Finishing 1500 - 1600°
    Available Mill Products

    Bar,Billet,Extrusions,Plate,Sheet,Strip,Wire,Pipe,Tubing

    Typical Applications

    Industry Specifications

    For corrosion resistance in the chemical and marine 
    industries and for aircraft construction.

    ASTM B265-79 GR 4; AMS 4901;4921
              B348-78 GR 4
              F67-77   GR 4
              F467-76 GR 4
              F468-76 GR 4

    "; DWRUtil.setValue("pageContent", content); } function specTiGrade5() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; //content += "
  • Grade 1
  • Grade 2
  • Grade 3
  • Grade 4
  • Grade 5
  • Grade 7
  • Alloy

    • "; content += "
    "; content += "

    "; content += "
    Chemical Composition (percent)
    Max. values unless range is shown)    		 0.08C; 0.25FE; 0.05N; 0.20O; 5.50/6.75AL; 3.5/4.5V;
    0.015H (sheet); 0.0125H (bar); 0.0100H (billet)

    MILL ANNEALED TENSILE PROPERTIES

       Guar. R.T.    

    Min.

    		     Typical Elev. Temp. Prop.
    600F 800F 1000F
    Ultimate Strength (psi) 130,000 100,000 90,000

    70,000

    Yield Strength (psi) 0.2% offset 120,000 90,000 75,000

    60,000

    Elongation in 2" (%) Sheet > 0.025 thick 10 17 18

    30

    Reduction in Area (%) Bar 25 52 53

    68

    MECHANICAL PROPERTIES

    -

    Stress to Rupture in Time Shown Stress (psi) 98,000 75,000
    Time (Hrs.) 1,000 1,000
    Stress and Time to Produce Elongation Shown (Creep) Stress (psi) 70,000 32,000
    Time (Hrs.) 1,000 1,000
    Creep (%) 0.1 0.0
    Charpy V-Notch Impact (ft.-lbs.) at Room Temperature 10 - 14
    Bend Radius Under 0.070" thick

    4.5  x Thickness

    0.070" and Over

    5.0 x Thickness

    Welded Bend Radius

    6.0 - 10.0 x Thickness

    Hardness

    Rc36

    PHYSICAL PROPERTIES

    -

    Beta Transus (F� 25)

    1830

    Coefficient of Thermal

    Expansion

    (10-6 in./in./F)

    		 32-212 5.0
    32-600 5.3
    32-1000 5.6
    32-1200 5.9
    32-1500 6.1
    Density (lbs./cu.in.) 0.160
    Melting Point, Approx. (F) 3200
    Electrical Resistivity at Room Temperature (Microhms cm) 171
    Modulus of Elasticity - Tension (10 6 psi) 16.5
    Modulus of Elasticity - Torsion (10 6 psi) 6.1
    Thermal Conductivity (Btu/hr./sq. ft./F/ft.) 3.9 at Room Temperature
    Specific Heat (Btu/lb./F) at Room Temperature 0.135
    Weldability Fair
    Annealing Temp. (F) Full 1300° - 1525°/15 Min, - 2 Hrs.; Air Cool
    Stress Relief 900 - 1200°/1 - 4 Hrs.; Air Cool
    Forging* Temp.(F) Blocking 1750 - 1800°
    Finishing 1650 - 1750°
    Available Mill Products

    Bar,Billet,Extrusions,Plate,Sheet,Strip,Wire

    Typical Applications

    Industry Specifications

    Compressor blades, discs, rings for jet engines,
    aircraft components, pressure vessels, rocket engine
    cases; the most versatile titanium alloy.

    AMS   4911; 4928; 4935; 4965; 4967
    ASTM B265-79 GR 5
              B348-78 GR 5
              F467-77 GR 5
              F468-76 GR 5

    "; DWRUtil.setValue("pageContent", content); } function specTiGrade7() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; //content += "
  • Grade 1
  • Grade 2
  • Grade 3
  • Grade 4
  • Grade 5
  • Grade 7
  • Alloy

    • "; content += "
    "; content += "

    "; content += "
    Chemical Composition (percent)
    Max. values unless range is shown)    		 0.08C; 0.30FE*; 0.03N; 0.2Pd.; 0.20O; 0.015H (sheet);
    0.0125H (bar)

    MILL ANNEALED TENSILE PROPERTIES

       Guar. R.T.    

    Min.

    		     Typical Elev. Temp. Prop.
    600F 800F 1000F
    Ultimate Strength (psi) 50,000 30,000 26,000

    19,000

    Yield Strength (psi) 0.2% offset 40,000 18,000 15,000

    11,000

    Elongation in 2" (%) Sheet > 0.025 thick 20 37 25

    32

    Reduction in Area (%) Bar 25 70/80 70/80

    70/80

    MECHANICAL PROPERTIES

    *Also available with 0.05 max. FE for superior corrosion resistance.

    Stress to Rupture in Time Shown Stress (psi) -
    Time (Hrs.) -
    Stress and Time to Produce Elongation Shown (Creep) Stress (psi) -
    Time (Hrs.) -
    Creep (%) -
    Charpy V-Notch Impact (ft.-lbs.) at Room Temperature -
    Bend Radius Under 0.070" thick

    2.0 x Thickness

    0.070" and Over

    2.5 x Thickness

    Welded Bend Radius

    2.0 - 3.0 x Thickness

    Hardness

    RB80

    PHYSICAL PROPERTIES

    -

    Beta Transus (F� 25)

    1675

    Coefficient of Thermal

    Expansion

    (10-6 in./in./F)

    		 32-212 4.8
    32-600 5.1
    32-1000 5.4
    32-1200 5.6
    32-1500 5.6
    Density (lbs./cu.in.) 0.163
    Melting Point, Approx. (F) 3020
    Electrical Resistivity at Room Temperature (Microhms cm) 56
    Modulus of Elasticity - Tension (10 6 psi) 14.9
    Modulus of Elasticity - Torsion (10 6 psi) 6.5
    Thermal Conductivity (Btu/hr./sq. ft./F/ft.) 9.5 at Room Temperature
    Specific Heat (Btu/lb./F) at Room Temperature 0.124
    Weldability Good
    Annealing Temp. (F) Full 1300°/30 Min, - 2 Hrs.; Air Cool
    Stress Relief 1000 - 1100°/30 Min.; Air Cool
    Forging* Temp.(F) Blocking 1600 - 1700°
    Finishing 1500 - 1600°
    Available Mill Products

    Bar,Billet,Extrusions,Plate,Sheet,Strip,Wire,Pipe,Tubing

    Typical Applications

     

    Industry Specifications

    For corrosion resistance in chemical industry where
    media is mildly reducing or varies between oxidizing and
    reducing.

    ASTM B265-79 GR 7
              B348-78 GR 7
              B337-78 GR 7
              B338-78 GR 7
              F467-76 GR 7
              F468-76 GR 7

    "; DWRUtil.setValue("pageContent", content); } function specTiAlloy() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Alloy Data Sheets

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += ""; //content += "
  • Grade 1
  • Grade 2
  • Grade 3
  • Grade 4
  • Grade 5
  • Grade 7
  • Alloy

    • "; content += "
    "; content += "

    "; content += "
    Chemical Composition (percent)
    Max. values unless range is shown)    		 0.08C; 0.13O; 5.5/6.5 AL; 0.25FE; 3.5/4.5V; 0.015H (sheet);
    0.0125H (bar); 0.0100H (billet)

    MILL ANNEALED TENSILE PROPERTIES

       Guar. R.T.    

    Min.

    		     Typical Cryogenic Prop.
    -320F
    Ultimate Strength (psi) 130,000 220,000
    Yield Strength (psi) 0.2% offset 120,000 205,000
    Elongation in 2" (%) Sheet > 0.025 thick 10 14
    Reduction in Area (%) Bar 25 -

    MECHANICAL PROPERTIES

    -

    Stress to Rupture in Time Shown Stress (psi) -
    Time (Hrs.) -
    Stress and Time to Produce Elongation Shown (Creep) Stress (psi) -
    Time (Hrs.) -
    Creep (%) -
    Charpy V-Notch Impact (ft.-lbs.) at Room Temperature 18
    Bend Radius Under 0.070" thick

    4.5  x Thickness

    0.070" and Over

    5.0 x Thickness

    Welded Bend Radius

    6.0 - 10.0 x Thickness

    Hardness

    Rc35

    PHYSICAL PROPERTIES

    -

    Beta Transus (F� 25)

    1810

    Coefficient of Thermal

    Expansion

    (10-6 in./in./F)

    		 32-212 5.0
    32-600 5.3
    32-1000 5.6
    32-1200 5.9
    32-1500 6.1
    Density (lbs./cu.in.) 0.160
    Melting Point, Approx. (F) 3200
    Electrical Resistivity at Room Temperature (Microhms cm) 171
    Modulus of Elasticity - Tension (10 6 psi) 16.5
    Modulus of Elasticity - Torsion (10 6 psi) 6.1
    Thermal Conductivity (Btu/hr./sq. ft./F/ft.) 4.2 at Room Temperature
    Specific Heat (Btu/lb./F) at Room Temperature 0.135
    Weldability Fair
    Annealing Temp. (F) Full 1300° - 1525°/15 Min, - 2 Hrs.; Air Cool
    Stress Relief 900 - 1200°/1 - 4 Hrs.; Air Cool
    Forging* Temp.(F) Blocking 1750 - 1800°
    Finishing 1650 - 1750°
    Available Mill Products

    Bar,Billet,Extrusions,Plate,Sheet,Strip,Wire

    Typical Applications

     

    Industry Specifications

    Will develop high fracture toughness by using special
    mill processing and heat treatment; surgical implants,
    salt water applications. For high pressure cryogenic
    vessels down to -320°F.

    AMS   4907; 4930; 4956
    ASTM F136-79

    "; DWRUtil.setValue("pageContent", content); } function prodTiBar() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Products

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
  • Bar
  • Sheet
  • Plate
  • Pipe
  • Tubing
  • Fittings & Fasteners

    • "; content += "

    "; content += "Round Bar

    "; content += "
    Size (Dia.)
    In Inches    		Weight
    Per Foot    		Size (Dia.)
    In Inches    		Weight
    Per Foot
    1/4.096313.824
    5/16.1503 1/218.816
    3/8.216424.576
    1/2.3844 1/231.104
    5/8.600538.40
    3/4.8645 1/246.460
    11.536655.296
    1 1/42.4006 1/264.896
    1 1/23.456775.264
    1 3/44.7047 1/286.400
    26.144898.304
    2 1/47.7769124.416
    2 1/29.60010153.600
    2 3/411.616--


    "; content += ""; content += ""; content += ""; content += "
    Commercially Pure and 6AL - 4V


    "; content += "Square Bar

    "; content += "
    Size (Sq.) In Inches Weight Per Foot
    1/4.122
    3/8.275
    1/2.489
    3/41.100
    11.956
    1 1/24.401
    27.824
    2 1/212.225


    "; content += "Rectangular Bar

    "; content += "
    Size In Inches Weight Per Foot
    1/4 x 1/2.245
    1/4.367
    1/4x1.489
    1/4x1 1/2.734
    1/4x2.978
    3/8x1.734
    1/2x1.978
    1/2x1 1/41.223
    1/2x1 1/21.467
    1/2x21.956
    1x23.912
    1x2 1/24.890
    "; DWRUtil.setValue("pageContent", content); } function prodTiSheet() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Products

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
  • Bar
  • Sheet
  • Plate
  • Pipe
  • Tubing
  • Fittings & Fasteners

    • "; content += "

    "; content += "
    Gauge
    In Inches     		BWG C.P. Sheet
    Size In Inches    		 6AL-4V Sheet
    Size In Inches
    .028 22GA 48 x 120 36 x 96
    .035 20GA 48 x 120 36 x 96
    .040 19GA 48 x 120 36 x 96
    .050 18GA 48 x 120 36 x 96
    .063 16GA 48 x 120 36 x 96
    .078 14GA 48 x 120 36 x 96
    .093 13GA 48 x 120 36 x 96
    .125 11GA 48 x 120 36 x 96


    "; content += ""; content += ""; content += ""; content += "
    Commercially Pure and 6AL - 4V
    "; DWRUtil.setValue("pageContent", content); } function prodTiPlate() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Products

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
  • Bar
  • Sheet
  • Plate
  • Pipe
  • Tubing
  • Fittings & Fasteners

    • "; content += "

    "; content += "
    Gauge
    In Inches     		Plate Size
    In Inches     		6AL-4V Sheet Size
    In Inches
    3/16 48 x 120 36 x 96
    1/4 48 x 120 36 x 96
    5/16 48 x 120 36 x 96
    3/8 48 x 120 36 x 96
    1/2 48 x 120 36 x 96
    5/8 48 x 120 36 x 96
    3/4 48 x 120 36 x 96
    1 48 x 120 36 x 96
    1 1/4 48 x 120 36 x 96
    1 1/2 48 x 120 36 x 96
    2 48 x 120 36 x 96


    "; content += ""; DWRUtil.setValue("pageContent", content); } function prodTiPipe() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Products

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
  • Bar
  • Sheet
  • Plate
  • Pipe
  • Tubing
  • Fittings & Fasteners

    • "; content += "

    "; content += "Seamless Pipe Available from 1/8\" Through 6\"
    "; content += "Welded Pipe Available from 1\" Through 24\"

    "; content += "
    Pipe Schedules*
    Pipe Size
    In Inches     		Outside Diameter
    In Inches'     		S5 Weight
    Per Foot     		S10 Weight
    Per Foot     		S40 Weight
    Per Foot     		S80 Weight
    Per Foot
    1/8 .405 - - - - .068 .141 - -
    1/4 .540 - - - - .088 .244 - -
    3/8 .675 - - - - .091 .326 - -
    1/2 .840 .065 .309 .083 .386 .109 .489 .147 .626
    3/4 1.050 .065 .393 .083 .493 .113 .650 .154 .848
    1 1.315 .065 .499 .109 .807 .133 .965 .179 1.249
    1 1/4 1.660 .065 .637 .109 1.038 .140 1.307 - -
    1 1/2 1.900 .065 .733 .109 1.199 .145 1.563 - -
    2 2.375 .065 .922 .109 1.517 .154 2.100 .218 2.888
    2 1/2 2.875 .083 1.423 .120 2.030 .203 3.331 - -
    3 3.500 .083 1.742 .120 2.491 .216 4.356 .300 5.894
    4 4.500 .083 2.251 .120 3.227 .237 6.204 - -
    6 6.625 .109 4.371 .134 5.341 .280 10.908 - -
    8 8.625 .109 5.701 .148 7.705 .322 16.416 - -
    10 10.750 Upon Request .1875 12.169 .375 23.907 - -
    12 12.750 Upon Request - - .406 30.796 - -
    14 14.000 Upon Request .250 21.123 .438 36.502 .750 61.065
    16 16.000 Upon Request.25024.195.50047.623.84378.516
    1818.000Upon Request.25027.268.56260.221.93798.245
    2020.000Upon Request.25030.340.59370.7181.031120.177
    2424.000Upon Request.25036.485.68798.4181.218170.513

    "; content += ""; DWRUtil.setValue("pageContent", content); } function prodTiTubing() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Products

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
  • Bar
  • Sheet
  • Plate
  • Pipe
  • Tubing
  • Fittings & Fasteners

    • "; content += "

    "; content += "
    Outside Diameter In Inches Wall Size BWG Weight Per Foot
    1/4 .035 20 .046
    1/4 .065 16 074
    5/16 .035 20 .060
    5/16 .065 16 .098
    3/8 .035 20 .073
    3/8 .065 16 .124
    1/2 .035 20 .100
    1/2 .049 18 .136
    1/2 .065 16 .174
    5/8 .035 20 .127
    5/8 .065 16 .223
    3/4 .035 20 .153
    3/4 .049 18 .211
    3/4 .065 16 .273
    1 .035 20 .207
    1 .049 18 .209
    1 .065 16 .370
    1 1/4 .035 20 .261
    1 1/4 .049 18 .360
    1 1/4 .065 16 .470
    1 1/2 .035 20 .310
    1 1/2 .065 16 .570
    2 .035 20 -
    2 .065 16 .770
    "; DWRUtil.setValue("pageContent", content); } function prodTiFittingsAndFasteners() { var content = "
    Titanium Division
    OverviewWorking with Titanium AlloysAlloy Data SheetsProducts



    "; content += "Products

    "; content += ""; content += ""; content += ""; content += ""; content += ""; content += "
  • Bar
  • Sheet
  • Plate
  • Pipe
  • Tubing
  • Fittings & Fasteners

    • "; content += "

    "; content += "Fittings and Flanges

    "; content += "
  • Long Radius 90° Elbows
    "; content += "
  • Pipe Flanges
    "; content += "
  • Concentric & Eccentric Pipe Reducers
    "; content += "
  • Pipe Stub Ends
    "; content += "
  • Straight Pipe Tees
    "; content += "
  • Standard 2:1 Elliptical & Machined Pipe Caps
    "; content += "
  • Screwed Fittings
    "; content += "
  • Pipe Plugs

    "; content += ""; content += ""; content += ""; content += "
    ElbowFlangesPipe Stub


    "; content += "Fasteners

    "; content += "
  • Hex Head Bolts
    "; content += "
  • Round Head Slotted Machine Screws
    "; content += "
  • Hex Nuts
    "; content += "
  • Flat Head Slotted Machine Screws (82°)
    "; content += "
  • Lock Washers
    "; content += "
  • Socket Head Cap Screws
    "; content += "
  • Flat Washers
    "; content += "
  • Socket Set Machine Screws (Cup Point)
    "; content += "
  • Threaded Rod
    "; content += "
  • Other Types Available Upon Request

    "; content += ""; DWRUtil.setValue("pageContent", content); }