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pertidaksamaan linear dan kuadrat

New Version of Excel Linear Material Cut Optimization Add-In 1DCutX Introduced Angle Cutting

1888PressRelease - Recently released version of linear material cutting optimization add-in 1DCutX for Excel implements support for cut angles different than traditional 90 degrees.

Scirj-Enhancement of Photorefractive Two-Beam Coupling in KNbO3

A theoretical study has been done to investigate the significant enhancement of the photorefractive and photovoltaic effects of a new co-doped potassium niobate crystal (KNbO3: Fe: Ag) as compared to the result obtained for singly doped potassium niobate crystals. The co-doped Ag impurity enters the K site, rather than the typical Nb site, thus changing the local field in the lattice. It is believed that Fe perturbed by the Ag in the K site is responsible for an enhancement of the linear absorption and photocurrent, as well as for the probable increase in the effective trap density. An enhanced trap density is likely the cause of the increased photorefractive counter-propagating two-beam coupling efficiency.

Pololu 3pi Robot Simplified Schematic Diagram

2008 Pololu Corporation Pololu. Pololu 3pi Robot Simplified Schematic Diagram page 1 of 1 rrc03a. D3a. RED. 2.21k. R26a. PD1. D3b. Pololu 3pi Robot Simplified Schematic Diagram J20 + VBAT 1 2 J7 reverse protection Q1 2 1 VIN POWER R4a 1k R4b 1k AVCC B2 2xAAA U3 PB2 (SS/OC1B) PB0 PB1 PB4 PB5 12 13 16 17 PB0 (CLKO/ICP1) PB1 (OC1A) PB4 (MISO) PB5 (SCK) PD2 PD4 PD7 32 2 11 PD2 (INT0) PD4 (XCK/T0) PD7 (AIN1) 1 3 10 9 15 1 VCC VCC 18 20 PD0 (RXD) PD1 (TXD) 30 31 PC0 (ADC0) PC1 (ADC1) PC2 (ADC2) PC3 (ADC3) PC4 (ADC4/SDA) PC5 (ADC5/SCL) ADC6 ADC7 19 22 VCC PD0 PD1 U4 C22 2.2 nF PC1 R13 220 VCC U5 C23 2.2 nF PC2 R14 ADC6 ADC7 220 J4 VCC VCC R15 10k R16 10k microcontroller U6 C24 2.2 nF 2 1 ATmega168 VBOOST 220 C32 0.1 uF 29 PC6 VCC PC6 (RESET) 33 GND 21 GND 5 GND 3 GND 2 Y1 20 MHz VCC 23 24 25 26 27 28 PB6 (XTAL1/TOSC1) PB7 (XTAL2/TOSC2) C18 0.1 uF C21 2.2 nF PC0 R12 6 4 AVCC AREF PD6 (OC0A/AIN0) PD5 (OC0B/T1) PB3 (MOSI/OC2A) PD3 (OC2B/INT1) 7 8 D6 5V zener VCC AVCC 14 PD6 PD5 PB3 PD3 D1b T1 D1a BLUE GND + BUZZER D5 BLUE VOUT pushbutton power circuit BZ1 L2 10 uH GND VIN VOUT 5.0 V linear regulator R33 1k GND B1 2xAAA BTN2 BTN1 + VIN VOUT 9.25 V boost switching regulator SW1 CHARGE VCC VBOOST PC3 R17 220 VCC C26 0.1 uF VCC VCC PB4 PB5 PC6 LCD1 Vss 1 VDD 2 Vo 3 R18 10k RS 4 R/W 6 PD4 DB0 8 R22 DB2 9 10k DB3 10 DB4 11 PB1 DB5 12 PB4 DB6 13 PB5 DB7 14 PD7 U8 reflectance sensor array and IR LED control 7 DB1 220 PB3 PB0 E 2 4 6 PC4 R19 PD2 5 J1 1 3 5 U7 C25 2.2 nF SW2 RESET AVRISP R25b 2.21k programming connection PD7 R25a 2.21k PD1 R26a 2.21k D4b T1 PC5 D3a RED R21 220 LEDON Q4 D3b T1 VCC VBOOST VCC U9 PB3 PD3 AIN1 AIN2 PWMA PD5 PD6 17 16 15 BIN1 BIN2 PWMB PC6 J6 B C R30 20k R31 20k 1 2 A 8x2 character LCD and user pushbuttons 21 22 23 19 VM1 VM2 VM3 ADC6 R27 1k R28 1k R29 1k R32 20k battery voltage sensing circuit 24 13 14 Vcc 20 AO1 AO1 1 2 AO2 AO2 5 6 BO1 BO1 11 12 BO2 BO2 VBAT LCD8X2 7 8 STBY 18 GND 3 4 9 10 PGND1 PGND1 PGND2 PGND2 C27 0.1 uF MO3 © 2008 Pololu Corporation page 1 of 1 M2 MO4 MO2 MO1 M1 TB6612FNG motor driver and motors Pololu R20 220 R23 47k 1 2 R26b 2.21k D4a GREEN VCC J5 C28 0.1 uF rrc03a

Universal Grinding Machine for the highest demands - Hardinge Inc.

Splash guard to be used with standard workhead mounted on linear roller bearings Sine bar attachment direct fine angular setting by using gauge blocks when grinding chucked workpieces with inside or outside tapers KEL-UNIVERSAL for grinding jobs in tool and die maker shops, for the grinding of small batches of components or of prototype pieces, for maintenance jobs, laboratories or special machine building facilities. Machine base with high static and dynamic rigidity. Optimal bracing Generously dimensioned and precision scraped V- and flat guideways guarantee a long lifetime of quality Three point set-up, no special foundation required Workhead with its preloaded highprecision roller bearings is designed for a working capacity of up to max. 130 kg between centres or of up to 160 Nm for components taken-up in chucks. Standard working accuracy Roundness for chucked work: Delta R<0.5 µm according to B.S. 3730. Increased working accuracy Delta R<0.2 µm according to B.S. 3730. Accessoires: Lever-operated clamping attachment power chuck KEL-UNIVERSAL Tailstock with preloaded sleeve Sleeve located in preloaded ball bearings Morse taper MT4 retraction of sleeve 30 mm.

GreatCo. Electric Fireplace Trifold Brochure - Outdoor GreatRoom Co.

Gallery Built-In Fireplace Specifications MODEL HEIGHT WIDTH DEPTH WATTAGE GBI-34 26 1/4” 33 1/2” 11 1/4” 750/1500 GBI-41 31 3/8” 40 3/8” 11 1/4” 750/1500 LF-34 29 3/4” 33 7/8” 1” NA LF-41 34 13/16” 40 3/4” 1” NA FAF-34 29 3/4” 33 7/8” 1” NA FAF-41 34 13/16” 40 3/4” 1” NA ARF-34 29 3/4” 33 7/8” 1” NA ARF-41 34 13/16” 40 3/4” 1” NA COL-COR-RIS-K 45 1/4” 51” 31”  NA COLUMBIA CORNER TV 4 3/4” 39” 16 1/2” NA RIO-34-K / RIO-41-K 44 1/2” / 49” 51” / 58” 16” / 16” NA RIO-34-BOOK CASE / RIO-41-BOOK CASE 32 3/4” / 32 3/4” 48 1/4” / 54 1/4” 15” / 15” NA Electric Fireplaces BU ILT-IN | H D L IN EA R | IN S ERT Model GE-70 Gallery HD Linear Wall-Mount Fireplace Specifications Gallery Electric Insert Fireplace Specifications FIREPLACE OPENING SIZE MODEL HEIGHT WIDTH DEPTH MOUNTING AREA VIEWING SIZE WATTAGE GE-94 26 2/5” 93 7/10” 6” 67”w x 13 3/4”h 75"w x 12"h 1500 GE-78 26 2/5” 78” 6” 63”w x 14.5”h 59 1/10”w x 12”h 1500 GE-70 26 2/5” 70” 6” 50 7/8”w x 13 3/4”h 51 1/5"w x 12"h 26 2/5” 58 3/10” 6” 34 3/8”w x 14 3/4”h 39 2/5"w x 12"h 1500 GE-5O 26 2/5” 50 2/5” 6” 34 3/8”w x 14 3/4”h 31 1/2"w x 12"h 24 1/2” 35 4/5” 6 3/5” 17 3/8”w x 17 7/8”h 20 3/10"w x 12"h 1500 HEIGHT (H) DEPTH (D) WIDTH (OW) MIN MAX HEIGHT (OH) MIN N/A (OD) MAX 21 3/4” FIREPLACE MINIMUM DEPTH 1500 GER-36* WIDTH (W) 1500 GE-58 MODEL 26 1/8” N/A 8 3/8” Model GE-70 Model GE-78 Model GE-58 Model GE-50 28 1/2” 22 5/8” 8 3/4” IS-36 36 1/4” 27” 1” 26 1/8” 36” 21 3/4” 26 4/5” N/A IS-42 Model GE-94 GI-29 42 1/4” 28 1/2” 1”

LM34 Precision Fahrenheit Temperature Sensors - Texas Instruments

The LM34 series are precision integrated-circuit temperature sensors, whose output voltage is linearly proportional to the Fahrenheit temperature. The LM34 thus has an advantage over linear temperature sensors calibrated in degrees Kelvin, as the user is not required to subtract a large constant voltage from its output to obtain convenient Fahrenheit scaling. The LM34 does not require any external calibration or trimming to provide typical accuracies of ± 1⁄2˚F at room temperature and ± 11⁄2˚F over a full −50 to +300˚F temperature range. Low cost is assured by trimming and calibration at the wafer level. The LM34’s low output impedance, linear output, and precise inherent calibration make interfacing to readout or control circuitry especially easy. It can be used with single power supplies or with plus and minus supplies. As it draws only 75 µA from its supply, it has very low self-heating, less than 0.2˚F in still air. The LM34 is rated to operate over a −50˚ to +300˚F temperature range, while the LM34C is rated for a −40˚ to +230˚F range (0˚F with improved accuracy). The LM34 series is available packaged in hermetic TO-46 transistor packages, while the LM34C, LM34CA and LM34D are also available in the plastic TO-92 transistor package. The LM34D is also available in an 8-lead surface mount small outline package. The LM34 is a complement to the LM35 (Centigrade) temperature sensor.

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PREDIKSI SOAL SBMPTN 2014 7. Sebuah balok ABCD. EFGH dengan koordinat titik D (0, 0, 0),A  7, 0, 0  , 1. Diketahui f(x) = (x–1) (x 3 –ax 2–bx+4) + a dengan a dan b adalah konstanta. Jika f '(x) habis dibagi (x–1) dan salah satu nilai ekstremnya adalah 4 maka 2a – b= (A) 5 (C) 7 (E) 9 (B) 6 (D) 8 2. Diketahui sebuah barisan: 4 , 7 , 13 , 25 , .... 3 6 12 24 Jumlah delapan suku pertama barisan tersebut adalah …. 1 7 (A)  26  2  3 1 7 (B)  27  2  3 1 8 (C) 8  · 2 3 2  2 8 (D) 8  3 1  2 8 (E) 8  3 3. Jumlah dari semua bilangan bulat x yang memenuhi pertidaksamaan 2x  2 8 x4 < < 3 9 4 adalah …. (A) 7 (C) 5 (E) 3 (B) 6 (D) 4 4. Misalkan x dan y bilangan bulat yang memenuhi sistem  2x 2  2y 2  2xy  6x  y  17  0 x  y  2 Maka nilai dari x2 – y2 = .... (A) –8 (D) 8 (B) –6 (E) 10 (C) 6 5. Jika x memenuhi persamaan berikut : p q p q ... q p q p = px · q–x, maka nilai x adalah .... 1 5 (A) (D) 3 16 2 5 (B) (E) 3 8 3 (C) 2 6.   (1  b ). tan(b  a)  lim  a a  b  (sin a.cos b  cos a.sinb)2      ....

POWERPOINT BEYOND THE BASICS Making interactive, non ...

In the first PowerPoint tutorial you learned how to create and save a new presentation (the Screenbeans slide show). You saw a sample slide show (The Tudor Monarchs). You learned how to prepare an outline, you typed text for each slide, added clip art, and set timings. You added an effect to enhance the slide transition, you selected a color scheme, and may have even created a new background effect. You changed the printer settings so that you can print out handouts rather than just individual slides of your shows. For many classrooms and for most K-12 students, what you learned in chapter 9 is just fine; it’s all you need to know. But, if you're ready to take the next step and learn some more advanced skills with PowerPoint, or if you teach computer-savvy students who want more challenging skills to master, this chapter's for you. Most PowerPoint presentations you see in school or at work are what are called linear presentations. That is, each slide is designed to proceed one slide right after another. The first slide transitions to the second, which transitions to the third, and so forth. For many educational tasks, this is fine. But, what if... What if you want your students to create an interactive story, where, for example, younger kids could read on Slide One a story about a dragon, then choose, on Slide Two, any one of three possible places that the dragon could go? By clicking on the word "desert," the show would move to a slide describing what happens to the dragon in the desert. If the student clicks on the word "forest," a different slide sequence appears with another ending. The learner thus participates, not by simply clicking on slide after slide in one, linear direction, but by making choices that affect what slide comes next, thus making the presentation interactive and non-linear.

SolarWorld Sunmodule™ solar panel 280 watt mono data sheet

Plus SW 280 mono TUV Power controlled: Lowest measuring tolerance in industry Every component is tested to meet 3 times IEC requirements Designed to withstand heavy accumulations of snow and ice -0/+5 Wp WARRANTY Sunmodule Plus: Positive performance tolerance 25-year linear performance warranty and 10-year product warranty Glass with anti-reflective coating Anti-Reflective Coating World-class quality Fully-automated production lines and seamless monitoring of the process and material ensure the quality that the company sets as its benchmark for its sites worldwide. SolarWorld Plus-Sorting Plus-Sorting guarantees highest system efficiency. SolarWorld only delivers modules that have greater than or equal to the nameplate rated power. 25 years linear performance guarantee and extension of product warranty to 10 years SolarWorld guarantees a maximum performance degression of 0.7% p.a. in the course of 25 years, a significant added value compared to the two-phase warranties common in the industry. In addition, SolarWorld is offering a product warranty, which has been extended to 10 years.* *in accordance with the applicable SolarWorld Limited Warranty at purchase. Plus SW 280 mono PERFORMANCE UNDER STANDARD TEST CONDITIONS (STC)* PERFORMANCE AT 800 W/m², NOCT, AM 1.5 Maximum power Pmax Maximum power Pmax Open circuit voltage Voc 39.5 V Open circuit voltage Voc 36.1 V Maximum power point voltage Vmpp 31.2 V Maximum power point voltage Vmpp 28.5 V 280 Wp 209.2 Wp Short circuit current

Designing a Solar Cell Battery Charger - Linear Technology

Figure 1. A solar cell produces current in proportion to the amount of sunlight falling on it, while the cell’s open-circuit voltage remains relatively constant. Maximum power output occurs at the knee of each curve, where the cell transitions from a constant voltage device to a constant current device, as shown by the power curves. below a certain set point, the charge current is reduced. The charging current is adjusted via a control voltage across a current sensing resistor in series with the inductor of the buck regulator charging circuit. Decreased illumination (and/or increased charge current demands) can both cause the input voltage (panel voltage) to fall, pushing the panel away from its point of maximum power output. With the LT3652, when the input voltage falls below a certain set point, as defined by the resistor divider connected between the VIN and VIN_REG pins, the current control voltage is reduced, thus reducing the charging current. This action causes the voltage from the solar panel to increase along its characteristic VI curve until a new peak power operating point is found. If the solar panel is illuminated enough to provide more power than is required by the LT3652 charging circuit, the voltage from the solar panel increases beyond the control range of the voltage regulation loop, the charging current is set to its maximum value and a new operation point is found based entirely on the maximum charging current for the battery’s point in the charge cycle. If the electronic device is operating directly from solar power and the input voltage is above the minimum level of the input voltage regulation...

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