Analysis of information sources in references of the Wikipedia article "인텔 HEX" in Korean language version.
[…] The Intel format is identical to the format defined by Intel for the 8086. The Digital Research format is nearly identical to the Intel format, but adds segment information to hexadecimal records. Output of either format can be input to GENCMD, but the Digital Research format automatically provides segment identification. A segment is the smallest unit of a program that can be relocated. […] It is in the definition of record types 00 and 02 that Digital Research's hexadecimal format differs from Intel's. Intel defines one value each for the data record type and the segment address type. Digital Research identifies each record with the segment that contains it. […] 00H for data belonging to all 8086 segments […] 81H for data belonging to the CODE segment […] 82H for data belonging to the DATA segment […] 83H for data belonging to the STACK segment […] 84H for data belonging to the EXTRA segment […] 02H for all segment address records […] 85H for a CODE absolute segment address […] 86H for a DATA segment address […] 87H for a STACK segment address […] 88H for an EXTRA segment address […][1] (1+viii+122+2 pages)
[…] For the PIC microcontrollers, the switch -m <0..3> allows to generate the three different variants of the Intel Hex format. Format 0 is INHX8M which contains all bytes in a Lo-Hi-Order. Addresses become double as large because the PICs have a word-oriented address space that increments addresses only by one per word. […] With Format 1 (INHX16M), bytes are stored in their natural order. This is the format Microchip uses for its own programming devices. Format 2 (INHX8L) resp. 3 (INHX8H) split words into their lower resp. upper bytes. […] Unfortunately, one finds different statements about the last line of an Intel-Hex file in literature. Therefore, P2HEX knows three different variants that may be selected […] :00000001FF […] :00000001 […] :0000000000 […] By default, variant 0 is used which seems to be the most common one. […] If the target file name does not have an extension, an extension of HEX is supposed. […]
[…] For the PIC microcontrollers, the switch -m <0..3> allows to generate the three different variants of the Intel Hex format. Format 0 is INHX8M which contains all bytes in a Lo-Hi-Order. Addresses become double as large because the PICs have a word-oriented address space that increments addresses only by one per word. […] With Format 1 (INHX16M), bytes are stored in their natural order. This is the format Microchip uses for its own programming devices. Format 2 (INHX8L) resp. 3 (INHX8H) split words into their lower resp. upper bytes. […] Unfortunately, one finds different statements about the last line of an Intel-Hex file in literature. Therefore, P2HEX knows three different variants that may be selected […] :00000001FF […] :00000001 […] :0000000000 […] By default, variant 0 is used which seems to be the most common one. […] If the target file name does not have an extension, an extension of HEX is supposed. […]
[…] The Intel format is identical to the format defined by Intel for the 8086. The Digital Research format is nearly identical to the Intel format, but adds segment information to hexadecimal records. Output of either format can be input to GENCMD, but the Digital Research format automatically provides segment identification. A segment is the smallest unit of a program that can be relocated. […] It is in the definition of record types 00 and 02 that Digital Research's hexadecimal format differs from Intel's. Intel defines one value each for the data record type and the segment address type. Digital Research identifies each record with the segment that contains it. […] 00H for data belonging to all 8086 segments […] 81H for data belonging to the CODE segment […] 82H for data belonging to the DATA segment […] 83H for data belonging to the STACK segment […] 84H for data belonging to the EXTRA segment […] 02H for all segment address records […] 85H for a CODE absolute segment address […] 86H for a DATA segment address […] 87H for a STACK segment address […] 88H for an EXTRA segment address […][1] (1+viii+122+2 pages)
