Power Factor Improvement Title slide, dark blue gradient cover, subtitle 'Improving Efficiency in Electrical Power Systems', editable group roll-number placeholder line, accent underline, no images. P2 Contents Two-column numbered list of 9 topics: Introduction, Power Factor Basics, Power Triangle, Causes of Poor PF, Disadvantages, Improvement Methods, Comparison, Advantages, Conclusion. P3 Introduction Left text block on PF importance; right 3 definition cards: Real Power (kW), Reactive Power (kVAr), Apparent Power (kVA). P4 What is Power Factor? Formula highlight PF = cos φ with typical values; explanation rows for kW/kVA/kVAr relation. P5 The Power Triangle Inline SVG right triangle: kW base, kVAr vertical, kVA hypotenuse, angle φ, PF = kW/kVA label. P6 Causes of Low Power Factor 2x2 cause cards with FA icons: induction motors, transformers at light load, welding, arc furnaces. P7 Disadvantages of Low Power Factor Left list of effects (large kVA, line losses, conductor size, voltage drop); right utility penalty highlight card. P8 Methods of Power Factor Improvement Four method cards with icons: static capacitors, synchronous condensers, phase advancers, APFC panels; one-line principle each. P9 Method Comparison 3-column comparison table: static capacitors vs synchronous condenser vs phase advancer; rows: suitability, maintenance, cost, drawbacks. P10 Advantages & Conclusion Benefit highlights (reduced losses, lower bills, improved voltage) + key takeaway + thank-you note.
Power Factor Improvement
Title slide, dark blue gradient cover, subtitle 'Improving Efficiency in Electrical Power Systems', editable group roll-number placeholder line, accent underline, no images.
P2
Contents
Two-column numbered list of 9 topics: Introduction, Power Factor Basics, Power Triangle, Causes of Poor PF, Disadvantages, Improvement Methods, Comparison, Advantages, Conclusion.
P3
Introduction
Left text block on PF importance; right 3 definition cards: Real Power (kW), Reactive Power (kVAr), Apparent Power (kVA).
P4
What is Power Factor?
Formula highlight PF = cos φ with typical values; explanation rows for kW/kVA/kVAr relation.
P5
The Power Triangle
Inline SVG right triangle: kW base, kVAr vertical, kVA hypotenuse, angle φ, PF = kW/kVA label.
P6
Causes of Low Power Factor
2x2 cause cards with FA icons: induction motors, transformers at light load, welding, arc furnaces.
P7
Disadvantages of Low Power Factor
Left list of effects (large kVA, line losses, conductor size, voltage drop); right utility penalty highlight card.
P8
Methods of Power Factor Improvement
Four method cards with icons: static capacitors, synchronous condensers, phase advancers, APFC panels; one-line principle each.
P9
Method Comparison
3-column comparison table: static capacitors vs synchronous condenser vs phase advancer; rows: suitability, maintenance, cost, drawbacks.
P10
Advantages & Conclusion
Benefit highlights (reduced losses, lower bills, improved voltage) + key takeaway + thank-you note.
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This presentation outlines a comprehensive approach to improving power factor efficiency. It begins with establishing a foundational understanding of key electrical concepts such as kW, kVAr, kVA, and power factor. Next, it diagnoses low power factor issues by analyzing the power triangle and identifying common causes like motors and transformers, along with their impacts. Finally, it compares various solutions, including capacitors and automatic power factor correction (APFC), assessing...