SRP-265N - Thermal printer CITIZEN - Free user manual and instructions

USER MANUAL SRP-265N CITIZEN

-E1SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 BASIC DEFINITIONS The Keys To keep your calculators as compact as possible, some keys have more than one function. You can change the function of a key by pressing another key first, or by setting the calculator in a certain mode. The following pages give you more detailed explanation of each key’s use and function. [ 2ndF ] Second Function Select Key Some keys have a second function inscribed above them. To perform this second function, press [ 2ndF ]. “ 2F ” appears in the display then press the key. GENERAL KEYS [ 0 ] ~[ 9 ] [‧] Data Entry keys Press these keys in their logical sequence to enter numbers. [ + ] [ – ] [ x ] [ ÷ ] [ = ] Basic Calculation Keys Press these keys in their logical sequence for addition, subtraction, multiplication, division, and to display answers. [ ON/C ] Power On / Clear Key Press [ ON/C ] to turn on the calculator and to clear everything except the contents of the memory, constant memory(Ka, Kb), and program memory. [ CE ] Clear Entry Key Press [ CE ] to erase incorrect entries. [ 00Æ0 ] Right Shift Key Press to clear the last significant digit of the number displayed. (Ex.)

[ +/– ] Sign Change Key Press [ +/– ] to change the displayed number from positive to negative or from negative to positive. MEMORY KEYS [ MR ] Memory Recall Key Press [ MR ] to display the contents of the memory. [ XÆM ] Memory Store Key Press [ XÆM ] to store the displayed value into memory. Any previous value in memory is automatically erased. -E2SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 [ M+ ] Memory Plus Key Press [ M+ ] to total the current calculation and add the result to the value already in memory. [ 2ndF ] [ Ka XÆK ], [ 2ndF ] [ Kb XÆK ] Constant (Ka, Kb) Memory Store Key Press to enter the displayed value into constant memory Ka or Kb. [ Ka XÆK ], [ Kb XÆK ] Memory Recall Key Press to display the contents of a constant memory. Note :

• Constant memories Ka and Kb can have a value of 0
• If you press [ Ka XÆK ] or [ Kb XÆK ] after entering a number or marking a calculation, the displayed value is multiplied by the value in Ka or Kb. SPECIAL KEYS [ ( ], [ ) ] Parenthesis Keys Press to override the calculation’s default order of operation by using parentheses. You can use up to 6 levels of parenthes in a single calculation. [ EXP ] Exponent Key To enter a number in scientific notation, first enter the numbers for the mantissa, press [ EXP ], and then enter the numbers for the exponent. [ 2ndF ] [ π ] Key Press [ 2ndF ] [π] to display the value of π, which is the ratio of circle’s circumference to its diameter (approximately 3.141592654). [ 2ndF ] [ X↔Y ] Register Exchange Key Press [ 2ndF ] [ X↔Y ] to exchange the displayed value (X–register) with the contents of the working register (Y–register). (Ex.) [ 2ndF ] [ FIX ] Decimal Point Set Key Use to set the number of digits displayed after the decimal point in either final or intermediate results. The calculator continues to use its full range for internal calculations and only rounds the number in the display.
• [ 2ndF ] [ FIX ] [ 0 ]~[ 6 ] –– Sets the number of digits to be displayed to the right of decimal point.
• [ 2ndF ] [ FIX ] [ 7 ], [ 8 ], [ 9 ], [‧] –– Selects floating point format. (Ex.) SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 [ 2ndF ] [ FIX ] [ ‧ ] Note : [ 2ndF ] [ FIX ] is inactive immediately after and during numerical input. [ SCI ] Scientific Key Converts the displayed number into a power of ten and back. (Ex.) : 12.3456 [ x ] 10 [ = ] [ SCI ] [ SCI ] [ SCI ]

[ DRG ] Angle unit conversion key Press to change the angle unit as DEG (Degrees), RAD (Radian), or GRAD (Gradient).

UNIT CONVERSION KEY

This calculator has 13 unit conversion keys as follows. Each key has two conversion features. For example, pressing [ AÆB ] before [ in↔cm] can convert a number in inches to centimeters ; Pressing [ 2ndF ] [ AÅB ] before [ in↔cm] can convert a number in centimeters to inches. Key [ in↔cm ] [ feet↔m ] [ feet 2 ↔ m 2 ] [ B.gal↔l ] [ gal↔l ] [ Pint↔l ] [ Tr.oz↔g ] [ oz↔g ] [ lb↔kg ] [ atm↔kpa ] [ cal↔KJ ] [ mmHg↔kpa ] [ 2ndF ] [ ], [ 2ndF ] [ ] Sexagesimal Notation / Decimal Notation Conversion Keys To change from sexagesimal (base 60) notation (degree, minute, ]. To second) to decimal notation (degree) press [ 2ndF ] [ change from decimal notation to sexagesimal notation, enter the number in decimal form and then press [ 2ndF ] [ [ sin ], [ cos ], [ tan ] Sine, Cosine, Tangent Keys Calculate the trigonometric functions of the displayed value. -E4SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 [ 2ndF ] [ sin –1 ], [ 2ndF ] [ cos–1 ], [ 2ndF ] [ tan–1 ] Inverse Sine, Inverse Cosine, Inverse Tangent Keys Calculate the inverse trigonometric functions of the displayed value. [ 2ndF ] [ HYP ] [ sin ], [ 2ndF ] [ HYP ] [ cos ], [ 2ndF ] [ HYP ] [ tan ] Hyperbolic Keys Calculate the hyperbolic functions of the displayed value. [ 2ndF ] [ HYP ] [ 2ndF ] [ sin–1 ], [ 2ndF ] [ HYP ] [ 2ndF ] [ cos–1 ], [ 2ndF ] [ HYP ] [ 2ndF ] [ tan–1 ] Inverse Hyperbolic Keys Calculate inverse hyperbolic functions of the displayed value.

[ log ], [ 2ndF ] [ 10 ] Common Logarithm And Common Antilogarithm Keys Calculate the common logarithm of the displayed value. To calculate the common antilogarithm of the displayed value, press [ 2ndF ] [ 10 x ]. [ ln ], [ 2ndF ] [ ex ] Natural Logarithm And Natural Antilogarithm Keys To calculate the neutral logarithm of the displayed value, press [ ln ]. To calculate the natural antilogarithm of the displayed value, press [ 2ndF ] [ e ]. [ √ ], [ x 2 ] Square Root And Square Keys Press [ √ ] to find the square root of the displayed value. To square the displayed value, press [ x 2 ]. [ 2ndF ] [ 3√ ] Cubic Root Key Press [ 2ndF ] [ 3√ ] to find the cubic root of the displayed value. [ 2ndF ] [ 1/x ] Reciprocal Key Press [ 2ndF ] [ 1/x ] to calculate the reciprocal of the displayed value. [ 2ndF ] [ x! ] Factorial Key To find the factorial of the displayed value, press [ 2ndF ] [ x! ] [ x y ] Power Key Press any number [ x ],[ x y ], any number [ y ], and [ = ] raise x to the y power. [ 2ndF ] [

x ] Root Key x ], any number [ y ], and [ = ] to Pressing by [ a b/c ] can enter a fraction or convert a fraction to a decimal number. Pressing by [ 2ndF ] [ d/e ] can convert a mixed number to an improper fraction and vice versa. [ CONST ] Physics Constant Key This calculator enables you to perform calculations with 15 built–in -E5SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 physics constants. Just pressing [ CONST ] key continuously can show the following symbols and values. Symbol Meaning Value

Speed of light Acceleration of gravity Gravitational constant Molar volume of ideal gas Avagadro’s number Molar gas constant Elementary charge Electron mass Proton mass Neutron mass Unified atomic mass Plank constant Boltzmann constant Magnetic permittivity PROGRAMMING KEYS (USE IN THE PGM MODE ONLY) [ 2ndF ] [ PGM ]─Program Mode Set and Clear Key Set the calculator to the learn program mode. PGM appears on the display and the previous contents of program memory are cleared. When you finish entering the program, press [ 2ndF ] [ PGM ]. The program you just entered is stored in the program memory. PGM disappears and the calculator exits the program mode. [ RUN ]─Compute Key Runs the recorded program. [ 2ndF ] [ [X] ]─Specify Variable Key Lets you have the calculator wait for an entry during a program. [ 2ndF ] [ HALT ]─Temporarily Halt Calculation Key Temporarily halts a program so you can view the intermediate results or interrupt calculation. STATISTICAL KEYS (USE IN THE STAT MODE ONLY) [ 2ndF ] [ STAT ] Statistical Mode Select Key Sets the calculator to statistical calculation mode. STAT appears in the display. [ 2ndF ] [ CAD ] Statistical Register Clear Key Clears the statistical calculation registers. -E6SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 [ DATA ], [ DEL ] Data Entry and Delete Key In the STAT mode, enter data by pressing the desired numbers, then [ DATA ]. If you enter incorrect data and do not notice your mistake until you press [ DATA ], enter the same incorrect data and then press [ DEL ] to delete that incorrect data. [ x ] Arithmetic Mean Key Calculates the arithmetic mean ( x ) of the data. [ 2ndF ] [σ] Population Standard Deviation Key Calculates the population standard deviation of the data. [ S ] Sample Standard Deviation Key Calculates the sample standard deviation of the data. [ 2ndF ] [Σx 2 ] Sum of Square Value Key Calculates the sum of the square value (Σx 2) of the data. [ 2ndF ] [ Σx ] Sum of Value Key Calculates the sum of the value (Σx ) of the data. [ n ] Number of Data Key Displays the number of data (n) entries. The Display Indicators showed on the display to indicate you the current status of the calculator.

• Floating point displays up to 10 digits.
• The mantissa section displays up to 8 digits. the exponent section displays up to ±99. STAT

PGM CONST GRAD RAD DEG BUSY

: Indicates the statistical mode. : Indicates that a value is stored in memory. : Appears to the left of the mantissa or exponent to indicate that the respective value is negative. : Indicates an error. : Indicates the program learn mode. : Indicates the constant mode. : Indicates the gradient units have been selected. : Indicates that radian units have been selected. : indicates that degree units have been selected. : While an operation is executing. : Indicates the deviation value : Appears when the second function has been selected. : Appears when the hyperbolic function has been selected. : Appears when you press [ ( ]. It shows the present level of nesting. -E7- SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 (n) : Appears when you press [SHIFT] [[X]] in the program learn mode and when program execution halts to let you enter a variable. The number in brackets shows the number of the place of the variable, and goes from 1 - 40.

ORDER OF OPERATIONS

Each calculation is performed in the following order of precedence:

1) Functions required inputting values before pressing the function

key, for example, cos, sin, tan, cos –1, sin –1, tan –1, log, ln, x 2, 1/x, √, π, 3 , x!, %, and 13 units conversion.

2) Operation in parenthesis

3) Functions required pressing the function key before entering, for

example, [ EXP ] key .

4) Fractions

5) +/–

ACCURACY AND CAPACITY

Functions Input range Deg : x < 1 x 10 11 deg Rad : x < 1745329252 rad Grad : x < 1.111111111 x 10 11 grad however, for tan x Deg : x ≠ 90 (2n+1) Rad : x ≠

(n is an integer) sin

x ≤1 tan –1 x x < 1 x 10 100 sinh x, cosh x x ≤ 230.2585092 tanh x x < 1 x 10 100 sinh –1 x x < 5 x 10 99 cosh –1 x 1 ≤ x < 5 x 10 99 1 x 10 –99 ≤ x < 1 x 10 100 x < 100 -E8- SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1

x ≤ 230.2585092 0 ≤ x < 1 x 10100

x < 1 x 10 50 0 ≤ x ≤ 69, x is an integer.

x=0:y>0 x<0 : y=2n+1, l/n, n is an integer.(n≠0) but –1 x 10100 < a b/c

log ⏐x⏐ 100 Input：Total of integer, numerator and denominator must be within 10 digits (includes division marks) Result：Result displayed as fraction for integer when integer, numerator and denominator are less than 1 x 10 10 STAT

OVERFLOW / ERROR CONDITIONS

A symbol “ E ” is indicated on the display when any of the following conditions occur and further calculation becomes impossible. Just press [ ON/C ] to release those overflow or error indicator and the subsequent calculation can then be performed.

• An intermediate or final calculation result exceed 1 x 10 100 (including memory calculations).
• You try to divide by zero.
• The number of low priority storage levels exceeds 6 in a parentheses calculation or nesting parentheses exceed 7 in one level. (Even if the number of levels is within 6, an error might occur if you are using memories Ka or Kb, or program memories.)
• You try to use [ 2ndF ] [ Ka XÆK ] or [ 2ndF ] [ Kb XÆK ] while memories Ka and Kb are being used for low–priority calculation storage. -E9SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1

• You make a calculation that is out of the range for functional and statistical calculations.
• You try to store over 40 steps in a program. To clear calculation after an overflow condition, press [ ON/C ]. POWER SUPPLY To turn the calculator on, press [ ON/C ] ; To turn the calculator off, press [ OFF ]. This calculator automatically turns it off when not operated for approximately 9 minutes. It can be reactivated by pressing [ ON/C ] key and the display, memory, settings are retained. The calculator is powered by two alkaline batteries (G13 or LR44). When the display dims, replace the batteries. Be careful not to be injured when you replace the battery.

1. Unscrew the screws on the back of the calculator.

2. Insert a flat bladed screwdriver into the slot between the upper and

lower case then carefully twist it to separate the case.

3. Remove both batteries and dispose of them properly. Never allow

children to play with batteries.

4. Wipe off the new batteries with a dry cloth to maintain good contact.

5. Insert the two new batteries with their flat sides (plus terminals) up.

6. Align the upper and lower cases then snap them to close together.

7. Tighten the screws.

NORMAL CALCULATIONS Basic Calculation (Including Parenthesis Calculations) (Ex.) : – 3.5 + 8 ÷ 2 = 0.5

3.5 [ +/–] [ + ] 8 [ ÷ ] 2 [ = ]

(Note) : It is unnecessary to press the [ ) ] key before the [ = ] key. Constant Calculations (Ex.) : 3 + 2.3 = 5.3 6 + 2.3 = 8.3 3 [ + ] 2.3 [ = ] DEG

-E10SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 (Ex.) : 12 x 2.3 = 27.6 12 x (–9) = –108 (Ex.) : 74 ÷ 2.5 = 29.6

85.2 ÷ 2.5 = 34.08

• Do not set the function mode to “ STAT ” when performing memory calculation.
• A new number entered into memory by pressing [ XÆM ] repalces any number previosly stored.
• To clear the memory’s contents, press [ 0 ] [ XÆM ] or [ ON/C ] [ XÆM ] in sequence.
• M appears when a number which is not equal to “ 0 ” is stored in memory.
• When you press [ XÆM ] after pressing [ MR ], the displayed number is changed as the contents of the memory. (Ex.) : (3 – 5) + (56 ÷ 7) + (74 – 8 x 7) = 24 0 [ XÆM ] DEG

DEG –2. 56 [ ÷ ] 7 [ M+ ]

(Ex.) : 2.12345 = 2∘7’ 24.42” -E11SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 2.12345 [ 2ndF ] [ DEG

Before performing the following calculation, check to see that your calculator is fixed at 2 decimal disaply format. Fraction Calculation

• By pressing [ 2ndF ] [ d/e ], the displayed value will be converted to the improper fraction.

• When a press of [ a b/c ] key after the [ = ] key or a fraction performed with a decimal, the answer is displayed as a decimal.

(Ex.) : 5 + 3 = 9 = 9.19

5 [ a b/c ] 4 [ a b/c ] 9 [ + ] 3 [ a b/c ] 3 [ a b/c ] 4 [ = ] DEG [ a b/c ] DEG 9 ∪7 ┘36

Hyperbolic Functions and Inverse – Hyp. Functions (Ex.) : cosh 1.5 + sinh 1.5 = 4.48 DEG (Ex.) : sinh –1 7 = 2.64 -E12SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 Common And Natural Logarithms / Exponentiations (Ex.) : ln7 + log100 = 3.95 DEG Power, Root, Reciprocals, Factorials 2 + 3 × 5 = 5.29 (Ex.) : Unit Conversion (Ex.) : 12 in = 30.48 cm DEG (Ex.) : 98 cm = 38.58 in -E13SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 DEG Note : All operating procedures for unit conversion key, [ feet ↔ m ], [ feet 2↔ m 2 ], [ B.gal ↔ l ], [ gal ↔ l ] [ Pint↔ l ], [ Tr.oz ↔ g ], [ oz ↔ g ], [ lb ↔ kg ], [ atm ↔ kpa ], [ cal ↔ KJ ], [ ℉ ↔ ℃ ] and [ mmHg ↔ kpa ] are the same as the above example. STANDARD DEVIATIONS

• Press [ 2ndF ] [ STAT ] to set the calculator to the statistical calculation mode.
• Press [ 2ndF ] [ CAD ] to clear statistical memory before you start a new calculation.
• Instead of entering directly each data, when often several item of data have the same value, you can enter the value and the number of occurrences. (Ex.) : Enter the following data to calculate n, Σx, Σx 2, x , S, σ, where data 1 = 2, data 2~4 = 5, data 5~6 = 9 [ 2ndF ] [ STAT ] STAT DEG STAT DEG STAT DEG

Note: -E14SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 The sample standard deviation S is defined as :

The population standard deviationσis defined as : The arithmetical mean x is defined as : x2 – (∑ x )2

• To delete an incorrect entry, press [ DEL ]. PROGRAMMING With your programmable scientific calculator, complex repeated calculations are no longer time–consuming chores. All you have to do is tell the calculator what you want to do in a way it can understand (in other word, program it). Your calculator can store one procedure with up to 40 steps. These “steps” can be either steps (like mathematical functions) or characters (like numbers). Each function counts as one steps. It remembers the procedure even after you turn off the calculator. You can have more than one variable in your calculation. Your calculator learns mathermatical procedures or programs in the program (PGM) mode. To set the calculator to the program mode, press [ 2ndF ] [ PGM ]. PGM appears on the display. Now enter your procedure as if you were just going to calcualte it once ─except─press [ 2ndF ] [ [X] ] before entering variable data. You get your first answer while you are still in the PGM mode. Note : If you press [ 2ndF ] [ [X] ] then [‧] or a number, and then [ EXP ], [ +/– ], [ ) ] or [ CE ], both the number and the first function following the number are treated as one variable─they are not written into the program as steps. Remember, you can enter a maximum of 40 steps. If you try to enter a 41st step, the calculator dispalys E. Press [ ON/C ] to clear the error. To stop storing a program, press [ 2ndF ] [ PGM ] again. PGM disappears and the calculator leaves the program mode. Press [ RUN ] to begin repeating the same mathematical procedure with different variables. When you press [ RUN ], you can begin entering different variables. Just enter each variable in the order in which it occurs in the formula and press [ RUN ] after each variable. The answers appears on the display. Stored programs are automatically erased when you press [ 2ndF ] [ PGM ]. So, unless you want to enter a new program, do not select the program mode. You can program your calculator to give you interim values in your formula also. While programming the calculation (in PGM mode), press [ = ] when you reach the point where you want the interim value -E15SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 displayed. Then press [ 2ndF ] [ HALT ] and continue entering your formula in the usual way. When you run the program, press [ RUN ] after the calculator dispalys an interim value to resume the program. You can use the same method to program your calculator to run two or more formulas. One after another. (Ex.) Find the total amount of principal and interest on a $5,000 loan (x) at 6% annual interest (y) compounded annually over a period of 7 years (z) ? Formula : total amount = x (1 +y ) z (Ex.) : (1) -E16SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 (Ex) :(1) R 1 = 12 (Ω) R 2 = 47 (Ω) R 3 = 82 (Ω) (2) R 1 = 10 (Ω) R 2 = 20 (Ω) R 3 = 30 (Ω) DEG

[ ON/C ] [ RUN ]

-E17SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 [ RUN ]

-E18SR260C_English_black_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 (ej.) SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1

HYP (n) SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 tan –1 x

< 1 x 10 100 sinh x, cosh x

≤ 230.2585092 tanh x

< 1 x 10 100 sinh –1 x

< 5 x 10 99 cosh –1 x tanh

1 ≤ x < 5 x 10 99 1 x 10 –99 ≤ x < 1 x 10 100

< 1 x 10 50 1 x 10 –99 ≤ 1/x

< 1 x 10 < 1 x 10 100 , X ≠ 0

SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1

SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 Descripción: △ → Y R4 = R1 •R 2 R1 +R 2 +R 3 R5 = R 2 •R 3 R1 +R 2 +R 3 R6 = R 3 •R1 R1 +R 2 +R 3 (Ex) :(1) R 1 = 12 (Ω) (2) R 1 = 10 (Ω)

= 30 (Ω) SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1

[ ON/C ] [ RUN ]

-S19- SR260C_Spanish_090402.doc 2009/4/14 SIZE: 140x75mm SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 BUSY SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

< 1 x 10 100 senh x, cosh x

≤ 230.2585092 tanh x

< 1 x 10 100 senh –1 x

< 5 x 10 99 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 STAT SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

7 = 9.19 (Ex.) : 5 + 3 = 9

SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 CONST DEG SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 Descrição : △ → Y R4 = R1 •R 2 R1 +R 2 +R 3 R5 = R 2 •R 3 R1 +R 2 +R 3 R6 = R 3 •R1 R1 +R 2 +R 3 (Ex) :(1) R 1 = 12 (Ω) (2) R 1 = 10 (Ω)

= 30 (Ω) SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Portuguese_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 BUSY

SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 Constant Calculations (Beispiel) : 3 + 2.3 = 5.3 6 + 2.3 = 8.3 3 [ + ] 2.3 [ = ] DEG

(Beispiel) : 7 – 5.6 = 1.4 –4.5 – 5.6 = –10.1 7 [ – ] 5.6 [ = ] -G11- SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 DEG

4.5 [+/–] [ = ]

–10.1 (Beispiel) : 12 x 2.3 = 27.6 12 x (–9) = –108 12 [ x ] 2.3 [ = ] DEG

9 [+/–] [ = ] DEG –108. SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 DEG SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 [n] STAT DEG

[ 2ndF ] [Σx ] STAT DEG [ 2ndF ] [Σx ] STAT DEG [ x ] STAT DEG [S] STAT [ 2ndF ] [ σ ] STAT

SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_German_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 Rad :

Grad : ≠ π (2n+1) ≠ 100 (2n+1) SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 d /e ] [ 2ndF ] [ DEG 124 ┘15 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 [ RUN ] DEG

DEG [ RUN ] DEG [2] [3]

Description : △ → Y R4 = R1 •R 2 R1 +R 2 +R 3 R5 = R 2 •R 3 R1 +R 2 +R 3 R6 = R 3 •R1 R1 +R 2 +R 3 (Ex) :(1) R 1 = 12 (Ω) (2) R 1 = 10 (Ω)

= 30 (Ω) SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_French_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 6[=] (Es.) : 7 – 5.6 = 1.4 –4.5 – 5.6 = –10.1 DEG

7 [ – ] 5.6 [ = ] DEG

4.5 [+/–] [ = ]

(Es.) : 12 x 2.3 = 27.6 12 x (–9) = –108 DEG –10.1 12 [ x ] 2.3 [ = ] DEG

9 [+/–] [ = ] DEG –108. -It 11- SIZE: 140x75mm SCALE 2:1 2009/4/15 (Es.) : (3 – 5) + (56 ÷ 7) + (74 – 8 x 7) = 24 0 [ XÆM ] DEG

DEG –2. 56 [ ÷ ] 7 [ M+ ]

(Ex) :(1) R 1 = 12 (Ω) R 2 = 47 (Ω) R 3 = 82 (Ω) (2) R 1 = 10 (Ω) R 2 = 20 (Ω) R 3 = 30 (Ω)

[ ON/C ] [ RUN ]

SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15

SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 HYP SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 sinh –1 x x < 5 x 10 99 cosh –1 x 1 ≤ x < 5 x 10 99 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15

3.5 [ +/–] [ + ] 8 [ ÷ ] 2 [ = ]

(Bv.): ( 5 – 2 x 1.5 ) x 3 + 0.8 x ( – 4 ) = ? DEG

6[=] (Bv.): 7 – 5.6 = 1.4 –4.5 – 5.6 = –10.1 DEG

7 [ – ] 5.6 [ = ] DEG

4.5 [+/–] [ = ]

(Bv.): 12 x 2.3 = 27.6 12 x (–9) = –108 DEG –10.1 12 [ x ] 2.3 [ = ] DEG

9 [+/–] [ = ] DEG –108. 74 [ ÷ ] 2.5 [ = ] DEG

85.2 [ = ]

(Bv.): 74 ÷ 2.5 = 29.6

85.2 ÷ 2.5 = 34.08

(Bv.): (3 – 5) + (56 ÷ 7) + (74 – 8 x 7) = 24 0 [ XÆM ]

3 [ – ] 5 [ M+ ] DEG

DEG –2. -D12- SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 56 [ ÷ ] 7 [ M+ ]

SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 (Bv.): sinh –1 7 = 2.64 DEG 7 [ x y] 5 [ = ] (Bv.):

32 = 2 32 [ 2ndF ] [

-D14- SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 (Bv.):

= 12.00 DEG (Bv.): 123 + 30 = 1023.00 DEG (Bv.): 98 cm = 38.58 in DEG SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15

PGM DEG PGM DEG PGM DEG PGM DEG PGM DEG PGM DEG

(Ex) :(1) R 1 = 12 (Ω) R 2 = 47 (Ω) R 3 = 82 (Ω)

(2) R 1 = 10 (Ω) R 2 = 20 (Ω) R 3 = 30 (Ω) SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15

[ ON/C ] [ RUN ]

-D19- SR260C_Dutch_090402.doc SIZE: 140x75mm SCALE 2:1 2009/4/15 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1

HYP (n) (2n+1) Nygrader: x ≠ 100 (2n+1) SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 tanh x x < 1 x 10 100 sinh –1 x x < 5 x 10 99 cosh –1 x 1 ≤ x < 5 x 10 99 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1

4.5 [+/–] [ = ]

(Eks.) : 12 x 2.3 = 27.6 12 x (–9) = –108 DEG –10.1 12 [ x ] 2.3 [ = ] DEG

9 [+/–] [ = ] DEG –108. 74 [ ÷ ] 2.5 [ = ] DEG

85.2 [ = ]

SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 DEG 0 [ XÆM ]

SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1

SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 DEG SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 STAT DEG [ 2ndF ] [Σ x 2 ] STAT DEG [ 2ndF ] [Σ x ] STAT DEG STAT DEG [n]

STAT [ 2ndF ] [ σ ] DEG SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1 DEG

(Ex) :(1) R 1 = 12 (Ω ) R 2 = 47 (Ω ) R 3 = 82 (Ω ) (2) R 1 = 10 (Ω ) R 2 = 20 (Ω ) R 3 = 30 (Ω ) SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1

[ ON/C ] [ RUN ]

SR260C_Dannish_090402.doc SIZE: 140x75mm 2009/4/15 SCALE 2:1

SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 0 ≤ X < 1 x 10100

< 1 x 10 < 1 x 10 100 , X ≠ 0

SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 DEG (Ex.) : (3 – 5) + (56 ÷ 7) + (74 – 8 x 7) = 24 0 [ XÆM ] DEG

DEG –2. 56 [ ÷ ] 7 [ M+ ]

SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

32 = 2 32 [ 2ndF ] [

= 12.00 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

△ → Y R4 = R1 •R 2 R1 +R 2 +R 3 R5 = R 2 •R 3 R1 +R 2 +R 3 R6 = R 3 •R1 R1 +R 2 +R 3 (Пример) :(1) R 1 = 12 (Ω) (2) R 1 = 10 (Ω) R 2 = 47 (Ω)

= 20 (Ω) R 3 = 82 (Ω)

= 30 (Ω) SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

[ ON/C ] [ RUN ]

-R20- SR260C_Russian_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

8) +, –

SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 (Przykład) : 1 = 12.00 1– 1 DEG SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 Opis : △ → Y R4 = R1 •R 2 R1 +R 2 +R 3 R5 = R 2 •R 3 R1 +R 2 +R 3 R6 = R 3 •R1 R1 +R 2 +R 3 SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1

[ ON/C ] [ RUN ]

-Po 20- SR260C_Polish_090402.doc SIZE: 140x75mm 2009/4/14 SCALE 1:1 If you want to dispose this product, do not mix with general household waste. There is a separate collection systems for used electronics products in accordance with legislation under the WEEE Directive (Directive 2002/96/EC) and is effective only within European Union.