using the hp35s calculator
TRANSCRIPT
Using the HP35sUsing the HP35s
For Land Surveying For Land Surveying ComputationsComputations
by Jon B. Purnell, PLSby Jon B. Purnell, PLS
©2010 Alidade Consulting©2010 Alidade Consulting
SynopsisSynopsis
• StrategiesStrategies• Capabilities and Capabilities and
LimitationsLimitations• Operating EssentialsOperating Essentials• Statistics FunctionsStatistics Functions• Traverse and InverseTraverse and Inverse• Memory and VariablesMemory and Variables• Equation SolverEquation Solver
Capabilities Capabilities and Limitationsand Limitations
• User programmableUser programmable– 30K of memory for 30K of memory for
programs, variables and programs, variables and user equationsuser equations
• 800+ storage registers800+ storage registers– For variables/dataFor variables/data
• Integrated equation Integrated equation Solver utilitySolver utility
• RPN or Algebraic entry RPN or Algebraic entry modesmodes
Capabilities Capabilities and Limitationsand Limitations
• 33rdrd Party surveying Party surveying applications are applications are available available – http://www.softwareb
ydzign.com/
• Legal for LSIT examLegal for LSIT exam– http://www.ncees.org/
exams/calculators/
Capabilities Capabilities and Limitationsand Limitations
• No Polar-Rectangular No Polar-Rectangular conversion functionsconversion functions
• HMS conversion HMS conversion functions cannot be functions cannot be used with Complex used with Complex Math “conversion” Math “conversion” functionsfunctions
Capabilities Capabilities and Limitationsand Limitations
• Only 27 storage Only 27 storage registers are directly registers are directly accessible to the Useraccessible to the User
• A handful of Stats A handful of Stats registers are reserved registers are reserved
• Remainder are easily Remainder are easily accessible accessible only to only to running programs running programs
The KeyboardThe Keyboard0.000000000.00000000
Press to power [ON] or to clear an entryPress [GOLDGOLD] [ON] to turn unit OFF
Press to power [ON] or to clear an entryPress [GOLDGOLD] [ON] to turn unit OFF
Press [BLUE] + [key]to access Blue functions
Press [BLUE] + [key]to access Blue functions
Press [GOLD[GOLD]] + [key] to access GoldGold functions
Press [GOLD[GOLD]] + [key] to access GoldGold functions
Press [key] alone to access“unshifted” functions
Press [key] alone to access“unshifted” functions
Press key when prompted for “Alpha” input
Press key when prompted for “Alpha” input
The KeyboardThe KeyboardPress to select operating modes: DEGrees, RADians, GRaDs, or ALGebraic and Reverse Polish Notation
Press to select operating modes: DEGrees, RADians, GRaDs, or ALGebraic and Reverse Polish Notation
Press [GOLDGOLD]] + key to select DISPLAY formats: FIXed, ENGineering notation, SCIentific notation, or ALL (automatic formatting)
Press [GOLDGOLD]] + key to select DISPLAY formats: FIXed, ENGineering notation, SCIentific notation, or ALL (automatic formatting)
Cursor pad—click up, down, left or right to choose menu options, or scroll amongst options
Cursor pad—click up, down, left or right to choose menu options, or scroll amongst options
0.000000000.00000000
Setting and Setting and Changing Changing
Display FormatsDisplay Formats0.000000000.00000000
Press [GOLDGOLD]] + [<] key to open DISPLAY menu
Press [GOLDGOLD]] + [<] key to open DISPLAY menu
Use Cursor Pad to select display mode, or press [1] for FIXed, [2] for SCIentific, [3] for ENGineering, or [4] for ALL
Use Cursor Pad to select display mode, or press [1] for FIXed, [2] for SCIentific, [3] for ENGineering, or [4] for ALL
EXAMPLE: to set display to show 4 FIXed decimal places:
1. Press [GOLDGOLD]] +[DISPLAY], then [1], then [4]
EXAMPLE: to set display to show 4 FIXed decimal places:
1. Press [GOLDGOLD]] +[DISPLAY], then [1], then [4]
1 F I X 2 S C I3 E N G 4 A L LFIX 40.00000.0000
Options appear on menu. Underlined option = current selection
Options appear on menu. Underlined option = current selection
Setting and Setting and Changing Changing
Angular Mode Angular Mode FormatFormat
0.00000.0000
Press to open MODES menu Press to open MODES menu
EXAMPLE: to set unit to work in DEGrees:
1. Press [MODES], then [1]
EXAMPLE: to set unit to work in DEGrees:
1. Press [MODES], then [1]
1 D E G 2 RAD 3 GRD4 ALG 5 RPN
Options appear on menu. Underlined option = current selection
Options appear on menu. Underlined option = current selection
0.00000.0000
Use Cursor Pad to select mode, or press [1] for DEGrees, [2] for RADians, [3] for GRaDS, or choose [4] or [5] to select between ALGebraic and Reverse Polish Notation modes
Use Cursor Pad to select mode, or press [1] for DEGrees, [2] for RADians, [3] for GRaDS, or choose [4] or [5] to select between ALGebraic and Reverse Polish Notation modes
The DisplayThe Display
Two lines of data
Mode icons: ALGebraic, RPN and EQuatioN entry modes,GRADs and RADians angular modes
Mode icons: ALGebraic, RPN and EQuatioN entry modes,GRADs and RADians angular modes
Current numeric system: HEXidecimal, OCTal or BINary. Blank = Decimal
HYPerbolic mode is active
Icons: [Gold[Gold] ] and [Blue] keys
Icons: [Gold[Gold] ] and [Blue] keys
Program “Flag” indicators
Program “Flag” indicators
“Alpha” keys active
“Alpha” keys active
Programming mode active
Programming mode active
ERROR!
ERROR!
Low battery
Low battery
System Busy Scrolling
mode is active
RPN: Reverse Polish Notation RPN: Reverse Polish Notation = Math without Parentheses= Math without Parentheses
• Evaluate 20 / 2+3Evaluate 20 / 2+3• RPN:RPN:
– 20 [ENTER] 2 [ENTER] 3 [+] [/] 20 [ENTER] 2 [ENTER] 3 [+] [/] (Result is 4)(Result is 4)
• Algebraic:Algebraic:– 20 [/] [(] [2] [+] [3] [)] [=] 20 [/] [(] [2] [+] [3] [)] [=]
(Result is 4)(Result is 4)
Order of operations and your Order of operations and your calculatorcalculator
Not all of these expressions yield the same answer!
Be careful how you write and enter the expression!
Not all of these expressions yield the same answer!
Be careful how you write and enter the expression!
)32(20 3220
32
20
32
20
)32(
20
=4=4=4=4
=4=4=4=4=4=4=4=4
=1=133
=1=133
=1=133
=1=133
Algebraic Mode Algebraic Mode
• Set up your calculator to operate in the ALG (Algebraic) mode
• Set up your calculator to operate in the ALG (Algebraic) mode
1. Press the [MODE] key1. Press the [MODE] key1. Press the [MODE] key1. Press the [MODE] key
2. Press [4] 2. Press [4] 2. Press [4] 2. Press [4]
““ALG” should ALG” should appear hereappear here
““ALG” should ALG” should appear hereappear here
Back Back to our problem… to our problem… • Evaluate the expression
20 / 2+3
• Evaluate the expression20 / 2+3
1. Key in “20”1. Key in “20”1. Key in “20”1. Key in “20”
2. Press the [division] 2. Press the [division] keykey
2. Press the [division] 2. Press the [division] keykey
3. Key in “2” and 3. Key in “2” and press the [addition] press the [addition]
3. Key in “2” and 3. Key in “2” and press the [addition] press the [addition]
4. Key in “3” and 4. Key in “3” and press [ENTER]press [ENTER]
4. Key in “3” and 4. Key in “3” and press [ENTER]press [ENTER]
Did the calculator evaluate the expression using the rules of the order of operations?
Did the calculator evaluate the expression using the rules of the order of operations?
2020 20 2 +20 2 + 3 13.0000
20
Let’s try it Let’s try it again… again…
• Evaluate the expression20 / (2+3)
• Evaluate the expression20 / (2+3)
1. Key in “20”1. Key in “20”1. Key in “20”1. Key in “20”
2. Press the [division] 2. Press the [division] keykey
2. Press the [division] 2. Press the [division] keykey
3. Press the [( )]key 3. Press the [( )]key 3. Press the [( )]key 3. Press the [( )]key
4. Key in “2+3” 4. Key in “2+3” 4. Key in “2+3” 4. Key in “2+3”
Did the calculator evaluate the expression using the rules of the order of operations?
Are the results the same as before?
What’s different?
Did the calculator evaluate the expression using the rules of the order of operations?
Are the results the same as before?
What’s different?
5. Press press [ENTER]5. Press press [ENTER]5. Press press [ENTER]5. Press press [ENTER]
8 keystrokes!8 keystrokes!
20 20 ( )20 (2 +3)20 ( 2 + 3 )20 ( 2 + 3 ) 4.0000
RPN: Math without RPN: Math without parentheses parentheses
• Set up your calculator to operate in the RPN (Reverse Polish Notation) mode
• Set up your calculator to operate in the RPN (Reverse Polish Notation) mode
1. Press [MODE]1. Press [MODE]1. Press [MODE]1. Press [MODE]
2. Press [5] 2. Press [5] 2. Press [5] 2. Press [5]
““RPN” should RPN” should appear hereappear here
““RPN” should RPN” should appear hereappear here
Using RPNUsing RPN
• Evaluate the expression20 / (2+3) using RPN
• Evaluate the expression20 / (2+3) using RPN
1. Key in “20”1. Key in “20”1. Key in “20”1. Key in “20”
2. Press the [ENTER] 2. Press the [ENTER] keykey
2. Press the [ENTER] 2. Press the [ENTER] keykey
3. Key in “2” and 3. Key in “2” and press [ENTER] press [ENTER]
3. Key in “2” and 3. Key in “2” and press [ENTER] press [ENTER]
4. Key in “3” and 4. Key in “3” and press the [addition] press the [addition] keykey
4. Key in “3” and 4. Key in “3” and press the [addition] press the [addition] keykey
Did the calculator evaluate the expression using the rules of the order of operations?
Did the calculator evaluate the expression using the rules of the order of operations?
5. Press the [division] 5. Press the [division] keykey
5. Press the [division] 5. Press the [division] keykey
8 keystrokes!8 keystrokes!
0.00002020.000020.00002.00002.00002.0000320.000050.00004.0000
The StackThe Stack • Four “registers” Four “registers” (X,Y,Z and T) for (X,Y,Z and T) for temporary storage of temporary storage of values and values and intermediate resultsintermediate results
• X and Y registers X and Y registers visible on the displayvisible on the display
• Z and T registers, not Z and T registers, not visiblevisible
• Operations Operations performed on values performed on values in X and Y registersin X and Y registers
0.00000.00000.00000.0000 X register X register X register X register
T registerT registerT registerT register
Z registerZ registerZ registerZ register
Y registerY registerY registerY register
20 / (3+2) on the Stack20 / (3+2) on the Stack• Key in “20”Key in “20”• Press [ENTER]Press [ENTER]• Key in “3”, Press Key in “3”, Press
[ENTER][ENTER]• Key in “2”Key in “2”• Press [+]Press [+]• Press [Press []]
0.00000.00000.00000.0000
0.00000.00000.000020
0.00000.000020.000020.0000
0.000020.00003.00003.0000
0.000020.00003.00002
0.00000.000020.00005.0000
0.00000.00000.00004.0000 X register X register X register X register
T registerT registerT registerT register
Z registerZ registerZ registerZ register
Y registerY registerY registerY register
Stack FunctionsStack Functions
““Roll Down” (values in stack drop down 1 Roll Down” (values in stack drop down 1 register, value in X register goes to top register, value in X register goes to top (T register)(T register)
““Roll Down” (values in stack drop down 1 Roll Down” (values in stack drop down 1 register, value in X register goes to top register, value in X register goes to top (T register)(T register)
““X-Y Exchange” (values in X and Y registers X-Y Exchange” (values in X and Y registers trade places)trade places)
““X-Y Exchange” (values in X and Y registers X-Y Exchange” (values in X and Y registers trade places)trade places)
““Last X” (recalls last value stored in X Last X” (recalls last value stored in X register)register)Press Press [BLUE] [ENTER] to execute [ENTER] to execute
““Last X” (recalls last value stored in X Last X” (recalls last value stored in X register)register)Press Press [BLUE] [ENTER] to execute [ENTER] to execute
Some Functions that Some Functions that Operate on Values Operate on Values
in the X Registerin the X Register
• Key in a number, Key in a number, execute the functionexecute the function
““X Squared” [XX Squared” [X22]]““X Squared” [XX Squared” [X22]]
““Square root of X” Square root of X” [√X][√X]
““Square root of X” Square root of X” [√X][√X]
““1 over X” [1/X]1 over X” [1/X]““1 over X” [1/X]1 over X” [1/X]
““Trig Functions” [SIN] Trig Functions” [SIN] [COS] [TAN] [ASIN] [COS] [TAN] [ASIN] [ACOS] [ATAN][ACOS] [ATAN]
““Trig Functions” [SIN] Trig Functions” [SIN] [COS] [TAN] [ASIN] [COS] [TAN] [ASIN] [ACOS] [ATAN][ACOS] [ATAN]
Unit ConversionsUnit Conversions
• The HP35s ships with several built in The HP35s ships with several built in unit conversionsunit conversions– Sexagesimal Units (Decimal Degrees Sexagesimal Units (Decimal Degrees
and Degrees Minutes and Seconds)and Degrees Minutes and Seconds)– Centigrade and FarenheitCentigrade and Farenheit– Inches and CentimetersInches and Centimeters– Miles and Kilometers (US or Miles and Kilometers (US or
International definition?)International definition?)
Sexagesimal UnitsSexagesimal Units
• When finding the Sine, Cosine or When finding the Sine, Cosine or Tangent of an angle, Tangent of an angle, you must:you must:– Enter the value in degrees, minutes Enter the value in degrees, minutes
and seconds…and seconds…– ……thenthen, convert the value to decimal , convert the value to decimal
degrees…degrees…– ……thenthen get the Sine, Cosine or get the Sine, Cosine or
TangentTangent
Finding a Sine, Finding a Sine, Cosine or TangentCosine or Tangent
Result is 20.1528Result is 20.1528°°Result is 20.1528Result is 20.1528°°
Convert the D.MS value to Decimal Convert the D.MS value to Decimal degrees: Press the degrees: Press the [GOLD[GOLD]] key, key, then press [HMSthen press [HMS]] ( (think from HMS think from HMS to Decimal)to Decimal)
Convert the D.MS value to Decimal Convert the D.MS value to Decimal degrees: Press the degrees: Press the [GOLD[GOLD]] key, key, then press [HMSthen press [HMS]] ( (think from HMS think from HMS to Decimal)to Decimal)
Key in the value in D.MS format: Key in the value in D.MS format: 20.091020.0910
Key in the value in D.MS format: Key in the value in D.MS format: 20.091020.0910
Press Press [COS][COS]
Press Press [COS][COS]
Find the Cosine of 20º09’10”
Find the Cosine of 20º09’10”
0.000020.0910
Result is 0.9388 Result is 0.9388 (rounded!)(rounded!)
Result is 0.9388 Result is 0.9388 (rounded!)(rounded!)
0.000020.15280.00000.9388
Sexagesimal MathSexagesimal Math
• When adding, subtracting, When adding, subtracting, multiplying or dividing, (etc.) an multiplying or dividing, (etc.) an angle, angle, you must:you must:– Enter the values in degrees, minutes Enter the values in degrees, minutes
and seconds…and seconds…– ……thenthen, convert the values to decimal , convert the values to decimal
degrees…degrees…– ……thenthen perform the operation perform the operation– ……then convert the result to D.MS then convert the result to D.MS
formatformat
Sexagesimal Math Sexagesimal Math Example 1Example 1
Key in the value “2.30”, press the Key in the value “2.30”, press the [GOLD[GOLD]] key, then press [HMSkey, then press [HMS]]
Key in the value “2.30”, press the Key in the value “2.30”, press the [GOLD[GOLD]] key, then press [HMSkey, then press [HMS]]
Key in the value 2, press the [Key in the value 2, press the [] key] keyKey in the value 2, press the [Key in the value 2, press the [] key] key
Key in the value “5.2514”, press Key in the value “5.2514”, press [ENTER][ENTER]
Key in the value “5.2514”, press Key in the value “5.2514”, press [ENTER][ENTER]
Convert result to D.MS format:Convert result to D.MS format:Press Press [BLUE[BLUE] ] key, then press [key, then press [HMS]HMS]
Convert result to D.MS format:Convert result to D.MS format:Press Press [BLUE[BLUE] ] key, then press [key, then press [HMS]HMS]
Problem: Find the angle from a PC to a POC at 525.14 feet from the PC (degree of curvature = 2°30’)
Solution: Angle = 5.2514 x (2°30’) /2
Problem: Find the angle from a PC to a POC at 525.14 feet from the PC (degree of curvature = 2°30’)
Solution: Angle = 5.2514 x (2°30’) /2
5.25145.2514
Result is 6.3351 Result is 6.3351 which is which is 66°°33’51”33’51”
Result is 6.3351 Result is 6.3351 which is which is 66°°33’51”33’51”
5.25152.55.25141.2500
Press the [Press the [xx] key. Result is 6.5643] key. Result is 6.5643°°Press the [Press the [xx] key. Result is 6.5643] key. Result is 6.5643°°
0.00006.56430.00006.3351
Sexagesimal Math Sexagesimal Math Example 2Example 2
0.00000.0000
Problem: Find the Weighted Mean Azimuth of Line 1 and Line 2
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Solution =
Problem: Find the Weighted Mean Azimuth of Line 1 and Line 2
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Solution = 21
2211_
DistDist
DistAzmDistAzmAzimuthWeighted
Sexagesimal Math Sexagesimal Math ExampleExample
Key in the value “656.89”…then press the [Key in the value “656.89”…then press the [xx] ] keykey
Key in the value “656.89”…then press the [Key in the value “656.89”…then press the [xx] ] keykey
Key in the value “92.5605”, press the Key in the value “92.5605”, press the [GOLD[GOLD]] key, then press [HMS key, then press [HMS], then ], then press [ENTER]press [ENTER]
Key in the value “92.5605”, press the Key in the value “92.5605”, press the [GOLD[GOLD]] key, then press [HMS key, then press [HMS], then ], then press [ENTER]press [ENTER]
Key in the value “97.0521”, press the Key in the value “97.0521”, press the [GOLD[GOLD]] key, then press [HMS key, then press [HMS], then ], then press [ENTER]press [ENTER]
Key in the value “97.0521”, press the Key in the value “97.0521”, press the [GOLD[GOLD]] key, then press [HMS key, then press [HMS], then ], then press [ENTER]press [ENTER]
0.000097.0521
Key in the value “2607.00”…then press the [Key in the value “2607.00”…then press the [xx] ] keykey….next, press the [+] key….next, press the [+] key
Key in the value “2607.00”…then press the [Key in the value “2607.00”…then press the [xx] ] keykey….next, press the [+] key….next, press the [+] key
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Solution =
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Solution =
21
2211_
DistDist
DistAzmDistAzmAzimuthWeighted
97.089297.089297.0892656.890.000063776.902763776.902792.934792.93472607.000063,776.9027242280.8208
The result, 306,057.7235 is the numerator in The result, 306,057.7235 is the numerator in the equation….the equation….
The result, 306,057.7235 is the numerator in The result, 306,057.7235 is the numerator in the equation….the equation….
0.0000306,057.7235
Sexagesimal Math Sexagesimal Math ExampleExample
Press the [Press the [] key…the result 93.7708] key…the result 93.7708° ° is the is the weighted mean azimuth of the line in weighted mean azimuth of the line in Decimal DegreesDecimal Degrees
Press the [Press the [] key…the result 93.7708] key…the result 93.7708° ° is the is the weighted mean azimuth of the line in weighted mean azimuth of the line in Decimal DegreesDecimal Degrees
Key in the value “2607.00”…then press the Key in the value “2607.00”…then press the
[[++] key…the result, 3263.8900 is the ] key…the result, 3263.8900 is the denominator in the equation….denominator in the equation….
Key in the value “2607.00”…then press the Key in the value “2607.00”…then press the
[[++] key…the result, 3263.8900 is the ] key…the result, 3263.8900 is the denominator in the equation….denominator in the equation….
Next, key in the value “656.89”,and press Next, key in the value “656.89”,and press [ENTER][ENTER]
Next, key in the value “656.89”,and press Next, key in the value “656.89”,and press [ENTER][ENTER]
656.8900656.8900
Convert result to D.MS format:Convert result to D.MS format:Press Press [BLUE[BLUE]] key, then press [ key, then press [HMS]HMS]
Convert result to D.MS format:Convert result to D.MS format:Press Press [BLUE[BLUE]] key, then press [ key, then press [HMS]HMS]
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Solution =
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Solution =
21
2211_
DistDist
DistAzmDistAzmAzimuthWeighted
656.89002607.00306,057.72353263.89000.000093.77080.000093.4615
The result is 93The result is 93°°46’15”46’15”The result is 93The result is 93°°46’15”46’15”
Statistics functionsStatistics functions
• Entering observationsEntering observations• Getting nGetting n• Getting the mean of the setGetting the mean of the set• Standard deviation of a populationStandard deviation of a population• Standard deviation of a sampleStandard deviation of a sample
Statistics FunctionsStatistics FunctionsFunctioFunctionn
DescriptionDescription KeystrokesKeystrokes
Enter observations into stats registersEnter observations into stats registers [ [
Delete observations from stats registersDelete observations from stats registers [GOLD[GOLD] ] [ [
CLEARCLEAR Clear stats registersClear stats registers [BLUE[BLUE]] [CLEAR] [4][CLEAR] [4]
SUMSSUMS View SUMMATIONS MenuView SUMMATIONS Menu [BLUE[BLUE]] [SUMS][SUMS]
nn Number of observations in data setNumber of observations in data set Access via SUMS menuAccess via SUMS menu
xx
Sum of x valuesSum of x values Access via SUMS menuAccess via SUMS menu
yy
Sum of y valuesSum of y values Access via SUMS menuAccess via SUMS menu
xx22
Sum of squared x valuesSum of squared x values Access via SUMS menuAccess via SUMS menu
yy22
Sum of squared y valuesSum of squared y values Access via SUMS menuAccess via SUMS menu
Summary Statistics FunctionsSummary Statistics FunctionsFunctioFunctionn
DescriptionDescription KeystrokesKeystrokes
View MEANS MenuView MEANS Menu [GOLD[GOLD] ] [ ][ ]
Mean of x valuesMean of x values Access via MEANS menuAccess via MEANS menu
Mean of y valuesMean of y values Access via MEANS menuAccess via MEANS menu
Weighted mean of x valuesWeighted mean of x values Access via MEANS menuAccess via MEANS menu
SS,, View Standard Deviation MenuView Standard Deviation Menu [BLUE[BLUE]] [S[S,,
SxSx Sample Standard Deviation of x valuesSample Standard Deviation of x values Access via SD menuAccess via SD menu
SSyy
Sample Standard Deviation of y valuesSample Standard Deviation of y values Access via SD menuAccess via SD menu
xx
Population Standard Deviation of x Population Standard Deviation of x valuesvalues Access via SD menuAccess via SD menu
yy
Population Standard Deviation of y Population Standard Deviation of y valuesvalues Access via SD menuAccess via SD menu
yx
x
y
yx,
wx
Statistics Example 1Statistics Example 10.00000.0000
Problem: Find the Weighted Mean Azimuth of Line 1 and Line 2
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Problem: Find the Weighted Mean Azimuth of Line 1 and Line 2
Line 1 = 97°05’21” – 656.89 feetLine 2 = 92°56’05” -2607.00 feet
Clear STATS Registers, press: Clear STATS Registers, press: [BLUE[BLUE]] [CLEAR] [CLEAR] [4][4]
Clear STATS Registers, press: Clear STATS Registers, press: [BLUE[BLUE]] [CLEAR] [CLEAR] [4][4]
Key in “656.89”, press Key in “656.89”, press [ENTER][ENTER]
Key in “656.89”, press Key in “656.89”, press [ENTER][ENTER]
1 X 2 VARS3 ALL 4 656.8900656.8900
Key in “97.0521”, press Key in “97.0521”, press [GOLD[GOLD]] [HMS[HMS]]Key in “97.0521”, press Key in “97.0521”, press [GOLD[GOLD]] [HMS[HMS]]
656.890097.0892
Press [ Press [ ]]Press [ Press [ ]]
656.89001.0000
Key in “2607.00”, press Key in “2607.00”, press [ENTER][ENTER]
Key in “2607.00”, press Key in “2607.00”, press [ENTER][ENTER]
2607.00002607.0000
Key in “92.5605”, press Key in “92.5605”, press [GOLD[GOLD]][HMS[HMS]]
Key in “92.5605”, press Key in “92.5605”, press [GOLD[GOLD]][HMS[HMS]]
2607.000092.9347
Press Press [ [ ]]
Press Press [ [ ]]
2607.00002.0000
Press Press [GOLD[GOLD] ] [+], and select 3[+], and select 3rdrd option…result option…result is weighted mean azimuth in Decimal is weighted mean azimuth in Decimal DegreesDegrees
x y x W93.7708
Press [ENTER], then Press [ENTER], then [BLUE[BLUE] ] [[HMS]…result is HMS]…result is weighted mean azimuth in Deg.MinSec weighted mean azimuth in Deg.MinSec formatformat
Press [ENTER], then Press [ENTER], then [BLUE[BLUE] ] [[HMS]…result is HMS]…result is weighted mean azimuth in Deg.MinSec weighted mean azimuth in Deg.MinSec formatformat
2607.000093.4615
0.00000.0000
Statistics Example 2Statistics Example 20.000020.0000
Clear STATS Registers, press: Clear STATS Registers, press: [BLUE[BLUE]] [CLEAR] [CLEAR] [4][4]
Clear STATS Registers, press: Clear STATS Registers, press: [BLUE[BLUE]] [CLEAR] [CLEAR] [4][4]
Key in each Key in each valuevalue from the table, from the table, press [ press [ ] after each entry] after each entry
Key in each Key in each valuevalue from the table, from the table, press [ press [ ] after each entry] after each entry
Problem: Find the 95% Standard Deviation of the following set of 20 observations:
Problem: Find the 95% Standard Deviation of the following set of 20 observations:No. Value No. Value No. Value No. Value1 50 6 52 11 51 16 532 51 7 52 12 52 17 523 52 8 53 13 52 18 514 50 9 52 14 55 19 525 59 10 52 15 52 20 54
Press Press [BLUE [BLUE ],], [S,[S,] to view ] to view Sample Standard Deviation (or Sample Standard Deviation (or Sx) at the 1 Sigma levelSx) at the 1 Sigma level
Press Press [BLUE [BLUE ],], [S,[S,] to view ] to view Sample Standard Deviation (or Sample Standard Deviation (or Sx) at the 1 Sigma levelSx) at the 1 Sigma level
Sx Sy xy1.9541
Press [ENTER] to copy the result to Press [ENTER] to copy the result to the X register. the X register.
Key in “1.96” and press [multiply]. Key in “1.96” and press [multiply]. Result is Standard Deviation of Result is Standard Deviation of set at 95% confidence levelset at 95% confidence level
Press [ENTER] to copy the result to Press [ENTER] to copy the result to the X register. the X register.
Key in “1.96” and press [multiply]. Key in “1.96” and press [multiply]. Result is Standard Deviation of Result is Standard Deviation of set at 95% confidence levelset at 95% confidence level
0.00001.95411.95411.960.00003.8300
Vectors and vector addition Vectors and vector addition (Traverse and Inverse)(Traverse and Inverse)
• You can do these COGO computations You can do these COGO computations with your hp35s (with the Equation with your hp35s (with the Equation Solver-no programming required)Solver-no programming required)– Compute latitudes and departures, given Compute latitudes and departures, given
the azimuth and length of a linethe azimuth and length of a line– Compute azimuth and distance, given the Compute azimuth and distance, given the
coordinates of the end points of a linecoordinates of the end points of a line– Carry coordinates (traverse) Carry coordinates (traverse)
Using Equations Using Equations for Problem Solvingfor Problem Solving
• Equations are sets of instructions Equations are sets of instructions that the HP35 can use to perform that the HP35 can use to perform computationscomputations
• Equations can use values stored in Equations can use values stored in variables A though Z for their variables A though Z for their computations, or they can prompt computations, or they can prompt you to supply values for the you to supply values for the variablesvariables
Using Equations Using Equations for Problem Solvingfor Problem Solving
• Equations can be used to solve Equations can be used to solve repetitive problemsrepetitive problems
• Equations can be used to solve for Equations can be used to solve for anyany unknown in the equation unknown in the equation
• Equations can be stored for future Equations can be stored for future use, or input on-the flyuse, or input on-the fly
• Not all functions are available, see Not all functions are available, see pg. 6-16 of the Users Guidepg. 6-16 of the Users Guide
Using Equations Using Equations for Problem Solvingfor Problem Solving
• Northing = Northing+(Dist x Northing = Northing+(Dist x cos(Azm))cos(Azm))– Variable assignments:Variable assignments:– N = NorthingN = Northing– D = DistanceD = Distance– G = Azimuth G = Azimuth
• N = N + (D x cos (HMSN = N + (D x cos (HMS(G)))(G)))
Using Equations Using Equations for Problem Solvingfor Problem Solving
• Easting = Easting+(Dist x Easting = Easting+(Dist x sin(Azm))sin(Azm))– Variable assignments:Variable assignments:– E = EastingE = Easting– D = DistanceD = Distance– G = Azimuth G = Azimuth
• E = E + (D x sin (HMSE = E + (D x sin (HMS(G)))(G)))
Store an equation for computing Northings
N = N +(D x cos (HMS(G)))
Store an equation for computing Northings
N = N +(D x cos (HMS(G)))
1. Press [EQN]1. Press [EQN]1. Press [EQN]1. Press [EQN]
0.00000.0000
2. Press [RCL] then [N]2. Press [RCL] then [N]2. Press [RCL] then [N]2. Press [RCL] then [N]
6. Press 6. Press [Multiply][Multiply]
6. Press 6. Press [Multiply][Multiply]
EQN LIST TOPEQN LIST TOPN=
3. Press 3. Press [GOLD[GOLD]] then then [=][=]
3. Press 3. Press [GOLD[GOLD]] then then [=][=]
5. Press [( )] then [RCL]5. Press [( )] then [RCL][D][D]
5. Press [( )] then [RCL]5. Press [( )] then [RCL][D][D]
7. Press [COS] 7. Press [COS] 7. Press [COS] 7. Press [COS]
4. Press [RCL] [N] then 4. Press [RCL] [N] then [+][+]
4. Press [RCL] [N] then 4. Press [RCL] [N] then [+][+]
EQN LIST TOPN=N+EQN LIST TOPN=N+(D)EQN LIST TOPN=N+(D x)EQN LIST TOPN=N+(D x COS( ))
EQN LIST TOP N=N+(DxCOS(HMS(G)))
8. Press 8. Press [GOLD[GOLD]] then [HMS then [HMS] then [G]] then [G]8. Press 8. Press [GOLD[GOLD]] then [HMS then [HMS] then [G]] then [G]
Using a Using a Stored EquationStored Equation
Use Stored Equation for finding Northing of a new point Northing 1 = 1000.0000Distance 1-2 = 85.31 feetAzimuth 1-2 = 10°38’24”
Use Stored Equation for finding Northing of a new point Northing 1 = 1000.0000Distance 1-2 = 85.31 feetAzimuth 1-2 = 10°38’24”
Press [EQN]Press [EQN]Press [EQN]Press [EQN]
0.00000.0000
Scroll up or down if necessary to select Scroll up or down if necessary to select desired equation, and press [ENTER]desired equation, and press [ENTER]
Scroll up or down if necessary to select Scroll up or down if necessary to select desired equation, and press [ENTER]desired equation, and press [ENTER]
EQN LIST TOP N=N+(DxCOS(HMS(G))N?1000.00
At the prompt “N?” key in the starting At the prompt “N?” key in the starting Northing, or 1000.0000, and press Northing, or 1000.0000, and press [R/S][R/S]
At the prompt “N?” key in the starting At the prompt “N?” key in the starting Northing, or 1000.0000, and press Northing, or 1000.0000, and press [R/S][R/S]
At the prompt, “G” ken in the Azimuth from At the prompt, “G” ken in the Azimuth from point1 to point2 in D.MS format or 10.3824 point1 to point2 in D.MS format or 10.3824 and press [R/S]and press [R/S]
At the prompt, “G” ken in the Azimuth from At the prompt, “G” ken in the Azimuth from point1 to point2 in D.MS format or 10.3824 point1 to point2 in D.MS format or 10.3824 and press [R/S]and press [R/S]
At the prompt, “D?” key in Distance from At the prompt, “D?” key in Distance from point1 to point2, or 85.31 and press [R/S]point1 to point2, or 85.31 and press [R/S]
At the prompt, “D?” key in Distance from At the prompt, “D?” key in Distance from point1 to point2, or 85.31 and press [R/S]point1 to point2, or 85.31 and press [R/S]
D?85.31G?10.3824N=1083.8432
New Northing, N is displayedNew Northing, N is displayedNew Northing, N is displayedNew Northing, N is displayed
Selected Equation Mode OperationsSelected Equation Mode OperationsFunctionFunction DescriptionDescription KeystrokesKeystrokes
EQNEQN Enter and leave Equation modeEnter and leave Equation mode [EQN][EQN]
ENTERENTER Evaluates displayed equation, stores Evaluates displayed equation, stores result in variable on left of equals signresult in variable on left of equals sign [ENTER[ENTER
RUN/STOPRUN/STOP Prompts for next variable in the Prompts for next variable in the equationequation [R/S][R/S]
CLEARCLEAR Deletes displayed equation from Deletes displayed equation from memorymemory [BLUE[BLUE] ] [CLEAR][CLEAR]
SOLVESOLVE Solves for a user-specified variable in an Solves for a user-specified variable in an equationequation
Select an Equation via Select an Equation via [EQN], press [SOLVE][EQN], press [SOLVE]
DELETEDELETE Deletes rightmost character in an Deletes rightmost character in an equationequation [[]]
SCROLL SCROLL UP / DOWNUP / DOWN
Scrolls up/down through list of stored Scrolls up/down through list of stored equationsequations Cursor pad Cursor pad
SCROLL SCROLL
TOP / BOTTOMTOP / BOTTOM Jumps to top/bottom of equation listJumps to top/bottom of equation list [BLUE[BLUE] ] + Cursor pad + Cursor pad
SHOWSHOW View Checksum and length of equationsView Checksum and length of equations [GOLD[GOLD]] [SHOW] [SHOW]
ExitExit Leaves Equation modeLeaves Equation mode [C][C]
Horizontal Curve Horizontal Curve EquationsEquations
Basic Coordinate Geometry Basic Coordinate Geometry NameName EquationEquation Variables Variables
Northing*Northing* N = N + (D x cos (HMS(G))) N = Northing, D = Distance, N = Northing, D = Distance, G = Azimuth in D.MSG = Azimuth in D.MS
Easting*Easting* E = E + (D x sin (HMS(G))) E = Easting, D = Distance E = Easting, D = Distance G = Azimuth in D.MSG = Azimuth in D.MS
LatitudeLatitude N = D x cos (HMS(G))N = Delta N or Latitude, D = Distance N = Delta N or Latitude, D = Distance
G = Azimuth in D.MSG = Azimuth in D.MS
DepartureDeparture E = E = D x sin (HMS(G))E = Delta E or Departure, D = E = Delta E or Departure, D = Distance Distance G = Azimuth in D.MSG = Azimuth in D.MS
DistanceDistance D = SQRT(SQ(N)+SQ(E))D = SQRT(SQ(N)+SQ(E)) D = Distance, N = Delta N or LatitudeD = Distance, N = Delta N or LatitudeE = Delta E or DepartureE = Delta E or Departure
BearingBearing B = ATAN(E/N)B = ATAN(E/N)B = B = BearingBearing of line with respect to N of line with respect to N or S axis. Determine quadrant from or S axis. Determine quadrant from sign of Latitude (N) and Departure (E)sign of Latitude (N) and Departure (E)
Test DataTest Data D = 630.40, G = D = 630.40, G = 198198°°30’24”30’24”
N = -597.80, E = -200.10, B = N = -597.80, E = -200.10, B = 18º30’24”18º30’24”
*Equation can also be used to find latitude *Equation can also be used to find latitude and departures by setting initial Northing and departures by setting initial Northing and Easting values to Zeroand Easting values to Zero at prompt. at prompt.
Horizontal Curve Horizontal Curve EquationsEquations
100 Foot Arc Definition100 Foot Arc DefinitionHorizontal Curve EquationsHorizontal Curve Equations
NameName EquationEquation Variables Variables
Arc LengthArc Length L = 2 x L = 2 x ππ x R x I ÷ 360 x R x I ÷ 360 L = Arc Length, R = Raduis, L = Arc Length, R = Raduis, I = Central Angle in Decimal degreesI = Central Angle in Decimal degrees
Semi-Semi-TangentTangent T = R x tan( I ÷ 2 )T = R x tan( I ÷ 2 ) T = Semi-tangent, R = Radius T = Semi-tangent, R = Radius
I = Central Angle in Decimal degreesI = Central Angle in Decimal degrees
Long ChordLong Chord C = 2 x R x sin( I ÷ 2 )C = 2 x R x sin( I ÷ 2 ) C = Long Chord, R = Radius C = Long Chord, R = Radius I = Central Angle in Decimal degreesI = Central Angle in Decimal degrees
External External E = ( R ÷ cos(I ÷ 2 )) - E = ( R ÷ cos(I ÷ 2 )) - R R
E = External distance, R = Radius E = External distance, R = Radius I = Central Angle in Decimal degreesI = Central Angle in Decimal degrees
Middle Middle OrdinateOrdinate
M = R – ( R x cos(I ÷ M = R – ( R x cos(I ÷ 2 ))2 ))
M = Middle Ordinate, R = Radius M = Middle Ordinate, R = Radius I = Central Angle in Decimal degreesI = Central Angle in Decimal degrees
Degree of Degree of CruvatureCruvature D = 5729.578 ÷ RD = 5729.578 ÷ R D = Degree of Curvature in Decimal D = Degree of Curvature in Decimal
degrees, R = Radiusdegrees, R = Radius
Test DataTest Data R = 818.51, I = R = 818.51, I = 2222°°50’28”50’28”
L = 326.30, T = 165.35, C = 324.14, L = 326.30, T = 165.35, C = 324.14, E = 16.53, M = 16.21, D = 7E = 16.53, M = 16.21, D = 7°°
Horizontal Curve Horizontal Curve EquationsEquations
TrianglesTrianglesNameName EquationEquation Variables Variables Area of Right Area of Right triangletriangle Q=1/2*B*HQ=1/2*B*H Q = Area, B = Base, Q = Area, B = Base,
H = HeightH = Height
Area of Area of Oblique Oblique triangletriangle
Q=.5*A*B*sin(C)Q=.5*A*B*sin(C) Q = Area, A = Side a, B = side b, Q = Area, A = Side a, B = side b, C = Angle C in Decimal degreesC = Angle C in Decimal degrees
CoslawCoslawT=acos((B^2+C^2-T=acos((B^2+C^2-A^2)A^2)
/(2*B*C))/(2*B*C))
T = Angle A in Decimal degrees, B = T = Angle A in Decimal degrees, B = side b, C = side c, A = side aside b, C = side c, A = side a
Hero’s Hero’s FormulaFormula
Q=SQRT(.5*(A+B+C)*(.5*Q=SQRT(.5*(A+B+C)*(.5*(A+B+C)-A)*(.5*(A+B+C)-(A+B+C)-A)*(.5*(A+B+C)-B)*(.5*(A+B+C)-C))B)*(.5*(A+B+C)-C))
Q = Area, A = side a, B = side b, Q = Area, A = side a, B = side b, C = side cC = side c
Pythagorean Pythagorean TheoremTheorem C = SQRT(A^2+B^2)C = SQRT(A^2+B^2)
A = side A, B = side B, C = side CA = side A, B = side B, C = side C
Trapezoid Trapezoid AreaArea Q=(A+B)*H/2Q=(A+B)*H/2 Q = Area, A = Base 1, B = Base 2, H Q = Area, A = Base 1, B = Base 2, H
+ Height+ Height
Test DataTest Data
Right triangle: a = 60, b = Right triangle: a = 60, b = 80, 80, c = 100, A = 36c = 100, A = 36°°52’12”, 52’12”, B = 53B = 53°°07’48” C = 9007’48” C = 90°° Area = 2400Area = 2400
Trapezoid: Base 1 = 100, Base 2 = 80, Trapezoid: Base 1 = 100, Base 2 = 80,
Height = 95, Area = 8550Height = 95, Area = 8550
Sliding Area Equation for TI-89 Numeric Solver 11/09/2006 – Jon B. Purnell, PLS
Works for all trapezoids. Use to find the distance a parallel line must fall (height of a sub-trapezoid) from base1 to get a given area, or to find the area of a sub-trapezoid having a given height. Input Data:
sub-trapezoid area = 3,000,000.00 base1 = 4076.7189 base2 = 1763.1192 ht = 1713.2353 Output: solve for height of sub-trapezoid, h = 857.7407 (NOTE: the computed value “h” is measured from base 1 )
Derived from standard “area-of-a-trapezoid formula”: area = (base1+base2)*height/2 The sliding area equation substitutes “base1+(base2-base1)/ht*h” for “base 2” in the standard trapezoid area equation (see standard equation, above). In a trapezoid, the lengths of the bases are dependent upon their separation (height of the trapezoid) and upon and the difference in their lengths. It is a linear relationship: (base2-base1)/height describes it; and it can be thought of as the change in base length per unit of trapezoid height. The relationship can be used to compute the length of an unknown base of a sub-trapezoid, whose area is given as a fixed value. Then it is possible to compute the height of a sub-trapezoid whose area has been defined, as in the sample above. These kind of problems are often referred to as “sliding side area problems” or “pre-determined area problems”
Area of sub-trapezoid to be segregated from a larger whole – this equation will compute the height of the height of the sub-trapezoid given the pre-determined area of the sub-trapezoid and the height and two bases of the larger parent trapezoid.
Enter this in “eqn:” field of TI-89 Numeric Solver
• Sample equation documentation– Sample
problem– Sketch– Variable
definitions– Equation
formatted for input
– Explanation– Sample data– Solution
MemoryMemory• Hp35s has 30K of memoryHp35s has 30K of memory• You can storeYou can store
– NumbersNumbers– EquationsEquations– ProgramsPrograms
• 27+ directly addressable 27+ directly addressable – Registers A though Z, i, (plus STATS registers)Registers A though Z, i, (plus STATS registers)– Additional storage is available via Additional storage is available via Indirect Indirect
Addressing Addressing (available to running programs only)(available to running programs only)
- Ask presenter to explain, or see Chapter 14 of the - Ask presenter to explain, or see Chapter 14 of the Users GuideUsers Guide
Storing an Storing an often used numberoften used number
Meters to US Survey Feet: 1 meter ≈ 3.2808333333 US Survey feet
You can store this number in a storage register for later use
Meters to US Survey Feet: 1 meter ≈ 3.2808333333 US Survey feet
You can store this number in a storage register for later use
Key in value you want to store…Key in value you want to store…3.28083333333, then press 3.28083333333, then press [BLUE[BLUE] ] [STO][STO]
Key in value you want to store…Key in value you want to store…3.28083333333, then press 3.28083333333, then press [BLUE[BLUE] ] [STO][STO]
STO _
Next, choose a register in which to store the Next, choose a register in which to store the number (select a letter, from A to Z… We number (select a letter, from A to Z… We will store this value in register U):will store this value in register U):
Press [U] to store the value in register UPress [U] to store the value in register U
Next, choose a register in which to store the Next, choose a register in which to store the number (select a letter, from A to Z… We number (select a letter, from A to Z… We will store this value in register U):will store this value in register U):
Press [U] to store the value in register UPress [U] to store the value in register U
Math with Math with Stored numbersStored numbers
Using the stored Meters-to-US foot conversion, convert these metric coordinates to State Plane values:
119,521.155mN, 337,663.473mE
Using the stored Meters-to-US foot conversion, convert these metric coordinates to State Plane values:
119,521.155mN, 337,663.473mE
Key in 119521.155Key in 119521.155Key in 119521.155Key in 119521.155
0.00000.0000
Press [RCL], then Press [RCL], then [U][U]
Press [RCL], then Press [RCL], then [U][U]
Press [Multiply]Press [Multiply]Press [Multiply]Press [Multiply]
Key in 337663.473Key in 337663.473Key in 337663.473Key in 337663.473
Press [RCL], then Press [RCL], then [U][U]
Press [RCL], then Press [RCL], then [U][U]
Press [Multiply]Press [Multiply]Press [Multiply]Press [Multiply]
0.0000 119,521.155_RCL _119,521.15503.28080.0000392,128.9894392,128.9894337,663.473_RCL _337,663.47303.2808392,128.98941,107,817.5777
Thanks for your kind Thanks for your kind attention!attention!
• Contact: Jon B. Purnell, PLSContact: Jon B. Purnell, PLS– [email protected]
• 360-460-8565360-460-8565
• Download this Download this presentation atpresentation at– www.lsaw-noly.org