3.6A Calling Geodetic Location



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1 0 1 1 code 11 1 1 0 0 code 12 1 1 0 1 spare (no interpretation) 1 1 1 0 spare (no interpretation) 1 1 1 1 ST (Reserved) (no interpretation) The most ificant address al is sent first. Subsequent address als are sent in successive 4-bit fields. (5) Filler In case of an odd number of address als, the filler code 0 0 0 0 is inserted after the last address al. 3.6A Calling Geodetic Location. The format of the calling geodetic location parameter field corresponds to the format shown in Figure 7A/T1.113.3. The following codes are used in the subfields of the calling geodetic location parameter field: (1) Location presentation restricted indicator (LPRI) 00 presentation allowed 01 presentation restricted 10 location not available (NOTE) 11 spare NOTE: if the Calling Geodetic Location parameter is included and the LPRI indicates location not available, octets 2 to n are omitted and the subfield (2) is coded 11. (2) Screening indicator 00 user provided, not verified 01 user provided, verified and passed 10 user provided, verified and failed 11 network provided (3) Type of shape 0000000 ellipsoid point 0000001 ellipsoid point with uncertainty 0000010 point with altitude and uncertainty 0000011 ellipse on the ellipsoid 0000100 ellipsoid circle sector 0000101 polygon 0000110 to spare 0111111 1000000 to 1111110 Reserved for national use 1111111 Reserved for future expansion (4) Extension indicator T1.113.3-8

0 Information continues through the next octet 1 Last octet (5) Shape description The coding of the shape description consists of different elements dependent on the type of shape as detailed in the following sub-clauses. 3.6A.1 Ellipsoid point shape description The format of the ellipsoid point shape description is shown in Figure 7B/T1.113.3. The following codes are used in the subfields of the ellipsoid point shapte description: a) Lat Sign 0 North 1 South b) Degrees of latitude The relation between the binary coded number N and the range of latitudes X (0 X<90, where X is in degrees but not necessarily an integral number of degrees) it encodes is described by the following equation: 2 N X < N + 1 90 except for N=2 23-1, for which the range is extended to include N+1. 23 c) Degrees of longitude The longitude, expressed in the range (-180, +180) is coded as a number between 2 23 and 2 23 1, coded in 2 s complement binary. The relation between the binary coded number N and the range of longitudes X (-180 X<+180, where X is in degrees but not necessarily an integral number of degrees) it encodes is described by the following equation: N 2 24 X < N 1 360 + 3.6A.2 Ellipsoid point with uncertainty shape description The format of the ellipsoid point with uncertainty shape description is shown in Figure 7C/ T1.113.3. The following codes are used in the subfields of the ellipsoid point with uncertainty shape description: a) Lat Sign b) Degrees of latitude T1.113.3-9

c) Degrees of longitude d) Uncertainty code The uncertainty r, expressed in meters (in the range 1m to 1800km), is mapped from the binary number K, with the following formula: r = C 1+ x K 1 with C = 10 and x = 0.1. e) Confidence (( ) ) The confidence by which the location is known to be within the shape description, C (expressed as a percentage) is directly mapped from the binary number K, except for K=0 which is used to indicate no information, and 100 < K 127 which are not used. 3.6A.3 Point with altitude and uncertainty shape description The format of the point with altitude and uncertainty circle shape description is shown in Figure 7D/ T1.113.3. The following codes are used in the subfields of the point with altitude and uncertainty circle shape description: a) Lat Sign b) Degrees of latitude c) Degrees of longitude d) Uncertainty code As per 3.6A.2d) e) Alt Sign 0 above the ellipsoid 1 below the ellipsoid f) Altitude The relation between the binary coded number N and the range of altitudes a (in meters) it encodes is described by the following equation: N a < N +1 except for N=2 15 1 for which the range is extended to include all greater values of a. g) Altitude uncertainty code The altitude uncertainty h, expressed in meters (in the range 0m to 1000m), is mapped from the binary number K, with the following formula: T1.113.3-10

with C = 45 and x = 0.025. h = C ( 1 + K x) 1) h) Confidence As per 3.6A.2e) 3.6A.4 Ellipse on the ellipsoid shape description The format of the ellipse on the ellipsoid shape description is shown in Figure 7E/ T1.113.3. The following codes are used in the subfields of the ellipse on the ellipsoid shape description: a) Lat Sign b) Degrees of latitude c) Degrees of longitude d) Major radius The major axis of the ellipse r major, expressed in meters (in the range 1m to 1800km), is mapped from the binary number K, with the following formula: r = C 1+ x K 1 with C = 10 and x = 0.1. e) Minor radius (( ) ) The minor axis of the ellipse r minor, expressed in meters (in the range 1m to 1800km), is mapped from the binary number K, with the following formula: r = C 1+ x K 1 with C = 10 and x = 0.1. f) Orientation (( ) ) The orientation of the major axis of the ellipse, θ, expressed in degrees (0 being North, 90 being East, etc with 1 granularity), is mapped from the binary number K, with the following formula: except for 180 < K 255 which are not used. θ = K g) Confidence As per 3.6A.2e) 3.6A.5 Ellipsoid circle sector shape description T1.113.3-11

The format of the ellipsoid circle sector shape description is shown in Figure 7F/ T1.113.3. The following codes are used in the subfields of the ellipsoid circle sector shape description: a) Lat Sign b) Degrees of latitude c) Degrees of longitude d) Radius The radius of the circle sector r, expressed in meters (in the range 1m to 1800km), is mapped from the binary number K, with the following formula: r = C 1+ x K 1 with C = 10 and x = 0.1. e) Offset (( ) ) The orientation of the offset of the circle sector, θθ, expressed in degrees (0 being North, 90 being East, etc with 2 granularity), is mapped from the binary number K, with the following formula: except for 180 < K 255 which are not used. f) Included angle θ = 2K The included angle of the circle sector, β expressed in degrees (0 being North, 90 being East, etc with 2 granularity), is mapped from the binary number K, with the following formula: except for 180 < K 255 which are not used. β = 2K g) Confidence As per 3.6A.2e) 3.6A.6 Polygon shape description The format of the polygon shape description is shown in Figure 7G /T1.113.3. The following codes are used in the subfields of the polygon shape description: a) Number of points 0000 Not used 0001 Not used 0010 Not used T1.113.3-12

0011 to Binary value of the number of points (3-15) 1111 b) Lat Sign 1 c) Degrees of latitude 1 d) Degrees of longitude 1 e) Lat Sign n f) Degrees of latitude n g) Degrees of longitude n h) Confidence As per 3.6A.2e) 3.7 Calling Party Number. The format of the calling party number parameter field corresponds to the format shown in Figure 8A/T1.113.3. The following codes are used in the subfields of the calling party number parameter field: (1) Odd/even indicator: See 3.6(1) (2) Nature of address indicator: 0 0 0 0 0 0 0 spare (no interpretation) 0 0 0 0 0 0 1 unique subscriber number 0 0 0 0 0 1 0 spare, reserved for national use (no interpretation) 0 0 0 0 0 1 1 unique national (ificant) number 0 0 0 0 1 0 0 unique international number 0 0 0 0 1 0 1 } to } spare (no interpretation) 1 1 1 0 0 0 0 } 1 1 1 0 0 0 1 non-unique subscriber number 1 1 1 0 0 1 0 spare, reserved for national use (no interpretation) 1 1 1 0 0 1 1 non-unique national (ificant) number 1 1 1 0 1 0 0 non-unique international number 1 1 1 0 1 0 1 spare (no interpretation) 1 1 1 0 1 1 0 spare (no interpretation) T1.113.3-13

1 2 Call identity 3 4 5 Point Code 6 Note: The least ificant octet is sent first for each subfield Figure 7/T1.113.3 - Call Reference Parameter Field 1 Spare LPRI Screening 2 Ext Type of shape 3 Shape description n Figure 7A/T1.113.3 Calling Geodetic Location Parameter Field 1 Lat MSB 2 Degrees of latitude 3 LSB 4 MSB 5 Degrees of longitude 6 LSB Figure 7B/T1.113.3 Ellipsoid point shape description T1.113.3-57

1 Lat MSB 2 Degrees of latitude 3 LSB 4 MSB 5 Degrees of longitude 6 LSB 7 Spare Uncertainty code 8 Spare Confidence Figure 7C/T1.113.3 Shape description of an ellipoid point with uncertainty 1 Lat MSB 2 Degrees of latitude 3 LSB 4 MSB 5 Degrees of longitude 6 LSB 7 Spare Uncertainty code 8 Alt MSB Altitude 9 LSB 10 Spare Altitude uncertainty code 11 Spare Confidence Figure 7D/T1.113.3 Shape description of a point with altitude and uncertainty T1.113.3-58

1 Lat MSB 2 Degrees of latitude 3 LSB 4 MSB 5 Degrees of longitude 6 LSB 7 Spare Major radius 8 Spare Minor radius 9 Orientation 10 Spare Confidence Figure 7E/T1.113.3 Shape description of an ellipse on the ellipsoid 1 Lat MSB 2 Degrees of latitude 3 LSB 4 MSB 5 Degrees of longitude 6 LSB 7 Spare Radius 8 Offset 9 Included angle 10 Spare Confidence Figure 7F/T1.113.3 Shape description of an ellipsoid circle sector T1.113.3-59

1 Spare Number of points 2 Lat MSB 1 3 Degrees of latitude 1 4 LSB 5 MSB 6 Degrees of longitude 1 7 LSB : 6n-4 Lat MSB n 6n-3 Degrees of latitude n 6n-2 LSB 6n-1 MSB 6n Degrees of longitude n 6n+1 LSB 6n+2 Spare Confidence Figure 7G/T1.113.3 Shape description of polygon 1 Odd/ Nature of address indicator Even 2 Spare Numbering plan Reserved 3 2nd address al 1st address al n Filler (if necessary) nth address al NOTE: If the nature of address indicator subfield indicates no number present, octets 2 through n are omitted. Figure 8/T1.113.3 - Called Party Number Parameter Field T1.113.3-60