The document defines and provides examples of basic geometric terms including: point, line, plane, segment, ray, collinear, coplanar, and midpoint. Multiple choice questions are included to test understanding of these terms.
Geometry is the study of points, lines, planes, circles, polygons, congruency, and similarity. A point has no size, only a location. A line continues indefinitely in opposite directions. A plane is a flat surface that extends in all directions. A segment is part of a line between two points. A ray has one endpoint and extends in one direction. A solar eclipse occurs when the moon, earth, and sun are aligned so that the moon is between the earth and sun.
The document provides information on how to read maps, including key features typically found on maps such as names, symbols, scales, grids, contour lines, and compasses. It explains how to use grid references to pinpoint locations, how contour lines indicate elevation changes, and how to orient a map using a compass or landmarks. The document emphasizes the importance of planning routes, having the proper equipment like maps and compasses, and gaining experience to build map reading skills.
The document defines and explains topography and topographic maps. It describes how topographic maps use contour lines to represent elevation, with closer lines indicating steeper slopes. Contour lines circle around mountains and point upstream along streams. Other symbols convey features like roads, vegetation, buildings and landforms. Index contours are labeled to indicate the contour interval elevation difference between lines. Topographic maps provide visual information about natural and man-made terrain.
The document defines and provides examples of basic geometry terms including:
- Point, line, plane, collinear points, coplanar points, intersections, line segment, ray, angle.
It gives examples of naming points, lines, line segments, rays, and angles. It asks the reader to identify examples of these terms in the classroom and whether everyday objects are best modeled as points, lines, or planes.
Mathematical application of Similar Triangles. Word problems involving similar triangles.
Disclaimer: Some parts of the presentation are obtained from various sources. Credit to the rightful owners.
By the end of the lesson students should be able to:
-explain how height is shown on maps
-recognise slope types
-some will identify landscape features from looking at contours
It will give you a fundamentals on different types of map and an introduction on topographic mapping.
This presentation is made for my report in Basic Geography Class
Determination of strike and dip and geological cross section Aditya Mistry
This document provides steps for determining strike and dip from outcrop data and for constructing a geological cross section:
1. To determine strike and dip, first measure the map distance and elevation difference between two outcrops to calculate apparent dip. Then use trigonometry to locate the elevation of a third outcrop and mark the strike line. The dip direction is perpendicular to strike toward lower elevations.
2. To construct a geological cross section, first select a representative line of section. Then transfer topographic contours and structural features like faults onto the cross section. Plot bedding measurements and use them to extend lithological boundaries above and below the surface.
Geometry is the study of points, lines, planes, circles, polygons, congruency, and similarity. A point has no size, only a location. A line continues indefinitely in opposite directions. A plane is a flat surface that extends in all directions. A segment is part of a line between two points. A ray has one endpoint and extends in one direction. A solar eclipse occurs when the moon, earth, and sun are aligned so that the moon is between the earth and sun.
The document provides information on how to read maps, including key features typically found on maps such as names, symbols, scales, grids, contour lines, and compasses. It explains how to use grid references to pinpoint locations, how contour lines indicate elevation changes, and how to orient a map using a compass or landmarks. The document emphasizes the importance of planning routes, having the proper equipment like maps and compasses, and gaining experience to build map reading skills.
The document defines and explains topography and topographic maps. It describes how topographic maps use contour lines to represent elevation, with closer lines indicating steeper slopes. Contour lines circle around mountains and point upstream along streams. Other symbols convey features like roads, vegetation, buildings and landforms. Index contours are labeled to indicate the contour interval elevation difference between lines. Topographic maps provide visual information about natural and man-made terrain.
The document defines and provides examples of basic geometry terms including:
- Point, line, plane, collinear points, coplanar points, intersections, line segment, ray, angle.
It gives examples of naming points, lines, line segments, rays, and angles. It asks the reader to identify examples of these terms in the classroom and whether everyday objects are best modeled as points, lines, or planes.
Mathematical application of Similar Triangles. Word problems involving similar triangles.
Disclaimer: Some parts of the presentation are obtained from various sources. Credit to the rightful owners.
By the end of the lesson students should be able to:
-explain how height is shown on maps
-recognise slope types
-some will identify landscape features from looking at contours
It will give you a fundamentals on different types of map and an introduction on topographic mapping.
This presentation is made for my report in Basic Geography Class
Determination of strike and dip and geological cross section Aditya Mistry
This document provides steps for determining strike and dip from outcrop data and for constructing a geological cross section:
1. To determine strike and dip, first measure the map distance and elevation difference between two outcrops to calculate apparent dip. Then use trigonometry to locate the elevation of a third outcrop and mark the strike line. The dip direction is perpendicular to strike toward lower elevations.
2. To construct a geological cross section, first select a representative line of section. Then transfer topographic contours and structural features like faults onto the cross section. Plot bedding measurements and use them to extend lithological boundaries above and below the surface.
This document discusses the formulas for finding the areas of triangles and rectangles. It notes that the area of a rectangle is twice the area of a triangle formed by two vertices on the rectangle's side and the third vertex on the opposite side. The document also discusses how triangles between parallel lines that have the same base are equal in area.
This document discusses the formulas for finding the areas of triangles and rectangles. It notes that the area of a rectangle is twice the area of a triangle formed by two vertices on the rectangle's side and the third vertex on the opposite side. The document also discusses how triangles between parallel lines that have the same base are equal in area.
This document discusses how to locate features on topographic maps using grid references and area references. It explains that topographic maps use a grid system of eastings and northings to precisely locate points, while area references specify the grid square that a feature falls within using the coordinates of the bottom left corner. Examples are provided to demonstrate how to determine both 6-figure grid references and 4-figure area references. Interactive exercises are also included to allow practice of these skills.
The document provides instructions for exercises involving the construction of geological maps, profiles, and cross sections from figures. It includes directions to print figures, construct geological boundaries and indicate dip direction/angle, draw lithostratigraphic charts and profiles, and interpret structures like folds and faults from the provided illustrations.
Geometry is the branch of mathematics concerned with geometric objects like points, lines, and circles. It comes from Greek words meaning "earth" and "measure". A Greek mathematician around 300 BC is considered the Father of Geometry for his influential book "Elements". There are two main types: plane geometry deals with flat objects in two dimensions, while solid geometry involves three-dimensional objects. Key tools are the compass and straightedge. Geometry has many applications in fields like architecture, engineering, biology, and more. Basic geometric elements include points, lines, planes, and the relationships between parallel lines and transversals.
A topographic map is a map that uses contour lines to illustrate the surface features of a place such as its relative elevations and the shapes of its landforms. Contour lines connect points of equal elevation and the closer the lines are to each other the steeper the elevation change. A topographic map's contour interval specifies the difference in elevation between successive contour lines. Topographic maps are useful for navigation, geographic analysis and engineering design.
The document discusses two-dimensional loci and their construction. It defines locus as the path of a moving point or set of points satisfying given conditions. Examples of loci include circles, lines, ellipses, and arcs. The key types of loci are those where a point is a constant distance from a fixed point or line, equidistant between two fixed points, and bisecting the angle between two intersecting lines. Intersection of two loci occurs at points satisfying the conditions of both loci.
This document provides an overview of Module 1 of a geometry course which covers the topics of points, lines, planes, angles, and their measures. The key concepts covered include:
1. Describing points, lines, and planes as the undefined terms in geometry.
2. Learning to name line segments, rays, and the parts of an angle.
3. Determining the measure of an angle using a protractor and illustrating different angle types.
Exercises are provided to help students practice identifying geometric terms, relationships between points and lines, and naming angles and their components. The overall goal is for students to develop basic geometry skills in visualizing and describing fundamental geometric objects.
1. Geometry originated from early peoples' use of measurement to build structures, and was later formalized by Euclid who developed a logical system of geometry in his work The Elements.
2. Euclid's geometry, known as Euclidean geometry, is based on logical reasoning of relationships in flat, two-dimensional surfaces known as planes.
3. Geometry studies properties of shapes, sizes, positions, and space through concepts like points, lines, and planes.
The document discusses basic concepts in geometry including points, lines, planes, and their relationships. It defines a point as having no size or shape, a line as connecting two or more points and extending indefinitely in both directions, and a plane as a flat two-dimensional surface containing points and lines. The document provides examples of naming points, lines, and planes and identifies collinear points that lie on the same line and coplanar points that lie on the same plane. It includes practice problems asking students to name, draw, and identify various geometric concepts.
1. The document provides instructions on calculating the area of a circle with a radius of 5cm, identifying shapes by their lines of symmetry, and identifying plans, elevations, and nets of 3D shapes.
2. Examples are given of 3D shapes like cubes, prisms, pyramids and a sphere. Students are asked to identify plans, front and side elevations, and nets that form different 3D shapes like a cuboid, prism, or tetrahedron.
3. The document covers key concepts for creating and interpreting plans, elevations and nets of 3D shapes.
A presentation for students regarding segments, rays, and angles. Also involves a 9-item quiz and exercises, as well as demonstrative techniques of "stretching" points to transform them to lines, rays, segments, and angles.
This document provides information about orthogonal projections and how to draw plans, elevations, and 3D orthographic projections of objects. It includes:
- Definitions of orthogonal projections, plans (top views), and elevations (front and side views)
- Steps for constructing orthogonal projections by drawing normals from corners to the projection plane
- Examples showing how to draw the plan, elevations and 3D orthographic projections of various objects
- Details on using different line types (solid, dashed, thin) to indicate visible and hidden edges
(1) There are three tests to determine if triangles are similar: corresponding sides are proportional (SSS), two pairs of corresponding sides are proportional and included angles are equal (SAS), or all three angles are equal (AA).
(2) To find the missing side AD of a similar triangle, set up a proportion using the ratio of corresponding sides from the given triangles.
(3) For similar shapes, if sides are in ratio a:b, then area is in ratio a^2:b^2 and volume is in ratio a^3:b^3.
The document provides information on how to read and interpret topographical maps. It discusses key elements of maps including symbols, scale, contour lines, and compass use. Maps are representations of land or sea that use symbols to denote physical and human features. Contour lines connect points of equal elevation, with closer lines indicating steeper slopes. A compass is used to find cardinal and intercardinal directions as well as compass bearings between points. Scale relates distances on a map to actual ground distances.
This document defines and discusses various geometric concepts including:
1. Subsets of a line such as segments, rays, and lines. It defines these terms and discusses relationships between points.
2. Angles, including classifying them as acute, right, or obtuse based on their measure. It also discusses angle bisectors and the angle addition postulate.
3. Axioms and theorems related to lines, planes, distances, and angle measurement. It provides examples to illustrate geometric concepts and relationships.
This document defines and describes the positions of points, lines, and planes in three-dimensional space according to several axioms and definitions. It defines a point, line, and plane and the possible positions of each in relation to one another, such as a point being on or off a line, two lines intersecting or being parallel, and a plane intersecting or being parallel to another plane or line. The document provides examples to illustrate each type of position between the geometric elements in three dimensions.
1. Points, lines, and planes are basic geometric objects. A point has no size or dimensions. A line extends indefinitely in both directions and has one dimension. A plane extends indefinitely and has two dimensions.
2. Collinear points lie on the same line, while coplanar points lie in the same plane. Noncollinear points do not lie on the same line, and noncoplanar points do not lie in the same plane.
3. A line segment connects two points and contains all points between them. A ray starts at an endpoint and extends indefinitely in one direction. Planes and geometric objects are named using points, lines, and planes.
The document introduces various geometric shapes and provides examples of how each shape appears at a natatorium, which is a large indoor swimming pool facility. Key shapes discussed include: points (buoys on lane lines), lines (lane lines), planes (the pool surface), angles (diving board rails), perpendicular and parallel lines (lines at the bottom and sides of the pool), triangles (flags across the pool), right triangles (belting rigs for practicing dives), and circles, cylinders, spheres, ovals, cones (various training equipment used by swimmers and divers).
Geometry shapes are used throughout sports and activities:
- Points name locations, seen in dart boards.
- Lines extend forever and have no thickness, like corner flags in soccer.
- Planes are flat surfaces that extend forever, exemplified by baseball fields.
- Angles are formed by intersecting lines or rays and are present in rowing oars.
- Shapes such as triangles, circles, squares, and spheres can be seen in goals, courts, and other equipment across many sports.
The document defines and describes basic geometric terms including:
- Points have no size and specify an exact location. Lines intersect at common points.
- Straight lines extend forever in one direction while rays have a starting point and extend in one direction.
- Angles are formed by two rays with a common endpoint called the vertex. Angles are measured in degrees and can be acute, right, obtuse, flat, or full.
- Polygons are closed figures formed by connecting line segments. Regular polygons have equal sides and angles while irregular polygons do not.
This document discusses the formulas for finding the areas of triangles and rectangles. It notes that the area of a rectangle is twice the area of a triangle formed by two vertices on the rectangle's side and the third vertex on the opposite side. The document also discusses how triangles between parallel lines that have the same base are equal in area.
This document discusses the formulas for finding the areas of triangles and rectangles. It notes that the area of a rectangle is twice the area of a triangle formed by two vertices on the rectangle's side and the third vertex on the opposite side. The document also discusses how triangles between parallel lines that have the same base are equal in area.
This document discusses how to locate features on topographic maps using grid references and area references. It explains that topographic maps use a grid system of eastings and northings to precisely locate points, while area references specify the grid square that a feature falls within using the coordinates of the bottom left corner. Examples are provided to demonstrate how to determine both 6-figure grid references and 4-figure area references. Interactive exercises are also included to allow practice of these skills.
The document provides instructions for exercises involving the construction of geological maps, profiles, and cross sections from figures. It includes directions to print figures, construct geological boundaries and indicate dip direction/angle, draw lithostratigraphic charts and profiles, and interpret structures like folds and faults from the provided illustrations.
Geometry is the branch of mathematics concerned with geometric objects like points, lines, and circles. It comes from Greek words meaning "earth" and "measure". A Greek mathematician around 300 BC is considered the Father of Geometry for his influential book "Elements". There are two main types: plane geometry deals with flat objects in two dimensions, while solid geometry involves three-dimensional objects. Key tools are the compass and straightedge. Geometry has many applications in fields like architecture, engineering, biology, and more. Basic geometric elements include points, lines, planes, and the relationships between parallel lines and transversals.
A topographic map is a map that uses contour lines to illustrate the surface features of a place such as its relative elevations and the shapes of its landforms. Contour lines connect points of equal elevation and the closer the lines are to each other the steeper the elevation change. A topographic map's contour interval specifies the difference in elevation between successive contour lines. Topographic maps are useful for navigation, geographic analysis and engineering design.
The document discusses two-dimensional loci and their construction. It defines locus as the path of a moving point or set of points satisfying given conditions. Examples of loci include circles, lines, ellipses, and arcs. The key types of loci are those where a point is a constant distance from a fixed point or line, equidistant between two fixed points, and bisecting the angle between two intersecting lines. Intersection of two loci occurs at points satisfying the conditions of both loci.
This document provides an overview of Module 1 of a geometry course which covers the topics of points, lines, planes, angles, and their measures. The key concepts covered include:
1. Describing points, lines, and planes as the undefined terms in geometry.
2. Learning to name line segments, rays, and the parts of an angle.
3. Determining the measure of an angle using a protractor and illustrating different angle types.
Exercises are provided to help students practice identifying geometric terms, relationships between points and lines, and naming angles and their components. The overall goal is for students to develop basic geometry skills in visualizing and describing fundamental geometric objects.
1. Geometry originated from early peoples' use of measurement to build structures, and was later formalized by Euclid who developed a logical system of geometry in his work The Elements.
2. Euclid's geometry, known as Euclidean geometry, is based on logical reasoning of relationships in flat, two-dimensional surfaces known as planes.
3. Geometry studies properties of shapes, sizes, positions, and space through concepts like points, lines, and planes.
The document discusses basic concepts in geometry including points, lines, planes, and their relationships. It defines a point as having no size or shape, a line as connecting two or more points and extending indefinitely in both directions, and a plane as a flat two-dimensional surface containing points and lines. The document provides examples of naming points, lines, and planes and identifies collinear points that lie on the same line and coplanar points that lie on the same plane. It includes practice problems asking students to name, draw, and identify various geometric concepts.
1. The document provides instructions on calculating the area of a circle with a radius of 5cm, identifying shapes by their lines of symmetry, and identifying plans, elevations, and nets of 3D shapes.
2. Examples are given of 3D shapes like cubes, prisms, pyramids and a sphere. Students are asked to identify plans, front and side elevations, and nets that form different 3D shapes like a cuboid, prism, or tetrahedron.
3. The document covers key concepts for creating and interpreting plans, elevations and nets of 3D shapes.
A presentation for students regarding segments, rays, and angles. Also involves a 9-item quiz and exercises, as well as demonstrative techniques of "stretching" points to transform them to lines, rays, segments, and angles.
This document provides information about orthogonal projections and how to draw plans, elevations, and 3D orthographic projections of objects. It includes:
- Definitions of orthogonal projections, plans (top views), and elevations (front and side views)
- Steps for constructing orthogonal projections by drawing normals from corners to the projection plane
- Examples showing how to draw the plan, elevations and 3D orthographic projections of various objects
- Details on using different line types (solid, dashed, thin) to indicate visible and hidden edges
(1) There are three tests to determine if triangles are similar: corresponding sides are proportional (SSS), two pairs of corresponding sides are proportional and included angles are equal (SAS), or all three angles are equal (AA).
(2) To find the missing side AD of a similar triangle, set up a proportion using the ratio of corresponding sides from the given triangles.
(3) For similar shapes, if sides are in ratio a:b, then area is in ratio a^2:b^2 and volume is in ratio a^3:b^3.
The document provides information on how to read and interpret topographical maps. It discusses key elements of maps including symbols, scale, contour lines, and compass use. Maps are representations of land or sea that use symbols to denote physical and human features. Contour lines connect points of equal elevation, with closer lines indicating steeper slopes. A compass is used to find cardinal and intercardinal directions as well as compass bearings between points. Scale relates distances on a map to actual ground distances.
This document defines and discusses various geometric concepts including:
1. Subsets of a line such as segments, rays, and lines. It defines these terms and discusses relationships between points.
2. Angles, including classifying them as acute, right, or obtuse based on their measure. It also discusses angle bisectors and the angle addition postulate.
3. Axioms and theorems related to lines, planes, distances, and angle measurement. It provides examples to illustrate geometric concepts and relationships.
This document defines and describes the positions of points, lines, and planes in three-dimensional space according to several axioms and definitions. It defines a point, line, and plane and the possible positions of each in relation to one another, such as a point being on or off a line, two lines intersecting or being parallel, and a plane intersecting or being parallel to another plane or line. The document provides examples to illustrate each type of position between the geometric elements in three dimensions.
1. Points, lines, and planes are basic geometric objects. A point has no size or dimensions. A line extends indefinitely in both directions and has one dimension. A plane extends indefinitely and has two dimensions.
2. Collinear points lie on the same line, while coplanar points lie in the same plane. Noncollinear points do not lie on the same line, and noncoplanar points do not lie in the same plane.
3. A line segment connects two points and contains all points between them. A ray starts at an endpoint and extends indefinitely in one direction. Planes and geometric objects are named using points, lines, and planes.
The document introduces various geometric shapes and provides examples of how each shape appears at a natatorium, which is a large indoor swimming pool facility. Key shapes discussed include: points (buoys on lane lines), lines (lane lines), planes (the pool surface), angles (diving board rails), perpendicular and parallel lines (lines at the bottom and sides of the pool), triangles (flags across the pool), right triangles (belting rigs for practicing dives), and circles, cylinders, spheres, ovals, cones (various training equipment used by swimmers and divers).
Geometry shapes are used throughout sports and activities:
- Points name locations, seen in dart boards.
- Lines extend forever and have no thickness, like corner flags in soccer.
- Planes are flat surfaces that extend forever, exemplified by baseball fields.
- Angles are formed by intersecting lines or rays and are present in rowing oars.
- Shapes such as triangles, circles, squares, and spheres can be seen in goals, courts, and other equipment across many sports.
The document defines and describes basic geometric terms including:
- Points have no size and specify an exact location. Lines intersect at common points.
- Straight lines extend forever in one direction while rays have a starting point and extend in one direction.
- Angles are formed by two rays with a common endpoint called the vertex. Angles are measured in degrees and can be acute, right, obtuse, flat, or full.
- Polygons are closed figures formed by connecting line segments. Regular polygons have equal sides and angles while irregular polygons do not.
The document provides examples of various geometric shapes found in architecture around the world and defines each shape. It begins by using the Capital Building to represent a point and the Empire State Building to represent a line segment. It then discusses planes, angles, perpendicular and parallel lines using various buildings as examples. The summary concludes with triangles, right triangles, polygons up to hexagons, and three-dimensional shapes including cubes, cylinders, spheres, and polyhedrons being represented by different architectural structures.
The earliest recorded beginnings of geometry can be traced to ancient Mesopotamia and Egypt in the 2nd millennium BC. Early geometry was a collection of empirically discovered principles used for practical applications like surveying, construction, and astronomy. Some of the earliest known texts include the Egyptian Rhind Papyrus from 2000-1800 BC and the Moscow Papyrus from around 1890 BC, as well as Babylonian clay tablets such as Plimpton 322 from around 1900 BC. For example, the Moscow Papyrus contains a formula for calculating the volume of a truncated pyramid.
Geometry is the branch of mathematics that measures and compares points, lines, angles, surfaces, and solids. It defines basic shapes such as points, lines, rays, angles, and planes. It also covers types of angles and intersections between lines. Additionally, it categorizes polygons by number of sides and characteristics. Key concepts include perimeter, area, symmetry, and three-dimensional solids. The document provides definitions and examples of basic geometric elements, shapes, their properties, and how to measure them.
Geometry is a branch of mathematics concerned with measuring and studying the properties and relationships of points, lines, angles, surfaces and solids. It has many practical applications in areas like carpentry, painting, gardening, construction and more. Geometry is also used in many occupations including mechanical engineering, surveying, mathematics, astronomy, graphic design and computer imaging.
Geometry is the branch of mathematics concerned with properties of points, lines, angles, curves, surfaces and solids. It involves visualizing shapes, sizes, patterns and positions. The presentation introduced basic concepts like different types of lines, rays and angles. It also discussed plane figures from kindergarten to 8th grade, including classifying shapes by number of sides. Space figures like cubes and pyramids were demonstrated by having students construct 3D models. The concepts of tessellation, symmetry, and line of symmetry were explained.
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MATKA NUMBER FIX MATKANUMBER FIX SATTAMATKA FIXMATKANUMBER SATTA MATKA ALL SATTA MATKA FREE GAME KALYAN MATKA TIPS KAPIL MATKA GAME SATTA MATKA KALYAN GAME DAILY FREE 4 ANK ALL MARKET PUBLIC SEVA WEBSITE FIX FIX MATKA NUMBER INDIA.S NO1 WEBSITE TTA FIX FIX FIX MATKA GURU INDIA MATKA KALYAN CHART MATKA GUESSING KALYAN FIX OPEN FINAL 3 ANK SATTAMATKA143 GUESSING SATTA BATTA MATKA FIX NUMBER TODAY WAPKA FIX AAPKA FIX FIX FIX FIX SATTA GURU NUMBER SATTA MATKA MATKA143 SATTA SATTA SATTA MATKA SATTAMATKA1438 FIX MATKA MATKA BOSS SATTA LIVE 3MATKA 143 FIX FIX FIX KALYAN JODI MATKA KALYAN FIX FIX WAP MATKA BOSS440 SATTA MATKA FIX FIX MATKA NUMBER SATTA MATKA FIXMATKANUMBER FIX MATKA MATKA RESULT FIX MATKA NUMBER FREE DAILY FIX MATKA NUMBER FIX FIX MATKA JODI SATTA MATKA FIX ANK MATKA ANK FIX KALYAN MUMBAI MATKA NUMBER FIXMATKANUMBER SATTA NUMBER FAST MATKA RESULT SATTA BATTA INDIAN SATTA SATTA RESULT MADHUR SATTA PRABHAT SATTA FIX FIX FIX SATTA NUMBER SATTAKING143 GUESSING SATTA CHART KALYAN PENAL CHART MATKA420 SATTA GUESSING NUMBER KALYAN NIGHT CHART SATTA FIX FIX FIX SATTA NUMBER FIX FIX FIX OPEN FIX FIX WAPKA MATKA DPBOSS FIX FIX 3ANK MATKA KALYAN CHART MATKA GUESSING TARA MATKA FIX FIXMATKANUMBER FINAL ANK MATKABOSS DUBAI SATTA MATKA GOLDEN MATKA FIX FIX MATKA NUMBER FIX MATKANUMBER FIX FIX FIX MATKA NUMBER FIX MATKANUMBER FIX SATTAMATKA FIXMATKANUMBER SATTA MATKA ALL SATTA MATKA FREE GAME KALYAN MATKA TIPS KAPIL MATKA GAME SATTA MATKA KALYAN GAME DAILY FREE 4 ANK ALL MARKET PUBLIC SEVA SATTA FIX FIX FIX MATKA GURU INDIA MATKA KALYAN CHART MATKA GUESSING KALYAN FIX OPEN FINAL 3 ANK SATTAMATKA143 GUESSING SATTA BATTA MATKA FIX NUMBER TODAY WAPKA FIX AAPKA FIX FIX FIX FIX SATTA GURU NUMBER SATTA MATKA MATKA143 SATTA SATTA SATTA MATKA SATTAMATKA1438 FIX MATKA MATKA BOSS SATTA LIVE 3MATKA 143 FIX FIX FIX KALYAN JODI MATKA KALYAN FIX FIX WAP MATKA BOSS440 SATTA MATKA FIX FIX MATKA NUMBER SATTA MATKA FIXMATKANUMBER FIX MATKA MATKA RESULT FIX MATKA NUMBER FREE DAILY FIX MATKA NUMBER FIX FIX MATKA JODI SATTA MATKA FIX ANK MATKA ANK FIX KALYAN MUMBAI MATKA NUMBER FIXMATKANUMBER SATTA NUMBER FAST MATKA RESULT SATTA BATTA INDIAN SATTA SATTA RESULT MADHUR SATTA PRABHAT SATTA FIX FIX FIX SATTA NUMBER SATTAKING143 GUESSING SATTA CHART KALYAN PENAL CHART MATKA420 SATTA GUESSING NUMBER KALYAN NIGHT CHART SATTA FIX FIX FIX SATTA NUMBER FIX FIX FIX OPEN FIX FIX WAPKA MATKA DPBOSS FIX FIX 3ANK MATKA KALYAN CHART MATKA GUESSING TARA MATKA FIX FIXMATKANUMBER FINAL ANK MATKABOSS DUBAI SATTA MATKA GOLDEN MATKA WAPKA.FIX FIX FIX
KALYAN MATKA | MATKA RESULT | KALYAN MATKA TIPS | SATTA MATKA | MATKA.COM | MATKA PANA JODI TODAY | BATTA SATKA | MATKA PATTI JODI NUMBER | MATKA RESULTS | MATKA CHART | MATKA JODI | SATTA COM | FULL RATE GAME | MATKA GAME | MATKA WAPKA | ALL MATKA RESULT LIVE ONLINE | MATKA RESULT | KALYAN MATKA RESULT | DPBOSS MATKA 143 | MAIN MATKA