Annotation of sys/arch/sparc64/include/instr.h, Revision 1.1.1.1
1.1 nbrk 1: /* $OpenBSD: instr.h,v 1.7 2003/07/13 07:00:48 jason Exp $ */
2: /* $NetBSD: instr.h,v 1.3 2000/01/10 03:53:20 eeh Exp $ */
3:
4: /*
5: * Copyright (c) 1992, 1993
6: * The Regents of the University of California. All rights reserved.
7: *
8: * This software was developed by the Computer Systems Engineering group
9: * at Lawrence Berkeley Laboratory under DARPA contract BG 91-66 and
10: * contributed to Berkeley.
11: *
12: * All advertising materials mentioning features or use of this software
13: * must display the following acknowledgement:
14: * This product includes software developed by the University of
15: * California, Lawrence Berkeley Laboratory.
16: *
17: * Redistribution and use in source and binary forms, with or without
18: * modification, are permitted provided that the following conditions
19: * are met:
20: * 1. Redistributions of source code must retain the above copyright
21: * notice, this list of conditions and the following disclaimer.
22: * 2. Redistributions in binary form must reproduce the above copyright
23: * notice, this list of conditions and the following disclaimer in the
24: * documentation and/or other materials provided with the distribution.
25: * 3. Neither the name of the University nor the names of its contributors
26: * may be used to endorse or promote products derived from this software
27: * without specific prior written permission.
28: *
29: * THIS SOFTWARE IS PROVIDED BY THE REGENTS AND CONTRIBUTORS ``AS IS'' AND
30: * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
31: * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
32: * ARE DISCLAIMED. IN NO EVENT SHALL THE REGENTS OR CONTRIBUTORS BE LIABLE
33: * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
34: * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
35: * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
36: * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
37: * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
38: * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
39: * SUCH DAMAGE.
40: *
41: * @(#)instr.h 8.1 (Berkeley) 6/11/93
42: */
43:
44: /* see also Appendix F of the SPARC version 8 document */
45: enum IOP { IOP_OP2, IOP_CALL, IOP_reg, IOP_mem };
46: enum IOP2 { IOP2_UNIMP, IOP2_BPcc, IOP2_Bicc, IOP2_BPr,
47: IOP2_SETHI, IOP2_FBPfcc, IOP2_FBfcc, IOP2_CBccc };
48: enum IOP3_reg {
49: IOP3_ADD, IOP3_AND, IOP3_OR, IOP3_XOR,
50: IOP3_SUB, IOP3_ANDN, IOP3_ORN, IOP3_XNOR,
51: IOP3_ADDX, IOP3_MULX, IOP3_UMUL, IOP3_SMUL,
52: IOP3_SUBX, IOP3_UDIVX, IOP3_UDIV, IOP3_SDIV,
53: IOP3_ADDcc, IOP3_ANDcc, IOP3_ORcc, IOP3_XORcc,
54: IOP3_SUBcc, IOP3_ANDNcc, IOP3_ORNcc, IOP3_XNORcc,
55: IOP3_ADDXcc, IOP3_rerr19, IOP3_UMULcc, IOP3_SMULcc,
56: IOP3_SUBXcc, IOP3_rerr1d, IOP3_UDIVcc, IOP3_SDIVcc,
57: IOP3_TADDcc, IOP3_TSUBcc, IOP3_TADDccTV, IOP3_TSUBccTV,
58: IOP3_MULScc, IOP3_SLL, IOP3_SRL, IOP3_SRA,
59: IOP3_RDASR_RDY_STBAR, IOP3_RDPSR, IOP3_RDWIM, IOP3_RDTGBR,
60: IOP3_MOVcc, IOP3_SDIVX, IOP3_POPC, IOP3_MOVr,
61: IOP3_WRASR_WRY, IOP3_WRPSR, IOP3_WRWIM, IOP3_WRTBR,
62: IOP3_FPop1, IOP3_FPop2, IOP3_CPop1, IOP3_CPop2,
63: IOP3_JMPL, IOP3_RETT, IOP3_Ticc, IOP3_FLUSH,
64: IOP3_SAVE, IOP3_RESTORE, IOP3_DONE_RETRY, IOP3_rerr3f
65: };
66: enum IOP3_mem {
67: IOP3_LD, IOP3_LDUB, IOP3_LDUH, IOP3_LDD,
68: IOP3_ST, IOP3_STB, IOP3_STH, IOP3_STD,
69: IOP3_LDSW, IOP3_LDSB, IOP3_LDSH, IOP3_LDX,
70: IOP3_merr0c, IOP3_LDSTUB, IOP3_STX, IOP3_SWAP,
71: IOP3_LDA, IOP3_LDUBA, IOP3_LDUHA, IOP3_LDDA,
72: IOP3_STA, IOP3_STBA, IOP3_STHA, IOP3_STDA,
73: IOP3_LDSWA, IOP3_LDSBA, IOP3_LDSHA, IOP3_LDXA,
74: IOP3_merr1c, IOP3_LDSTUBA, IOP3_STXA, IOP3_SWAPA,
75: IOP3_LDF, IOP3_LDFSR, IOP3_LDQF, IOP3_LDDF,
76: IOP3_STF, IOP3_STFSR, IOP3_STQF, IOP3_STDF,
77: IOP3_merr28, IOP3_merr29, IOP3_merr2a, IOP3_merr2b,
78: IOP3_merr2c, IOP3_PREFETCH, IOP3_merr2e, IOP3_merr2f,
79: IOP3_LFC, IOP3_LDCSR, IOP3_LDQFA, IOP3_LDDC,
80: IOP3_STC, IOP3_STCSR, IOP3_STQFA, IOP3_STDC,
81: IOP3_merr38, IOP3_merr39, IOP3_merr3a, IOP3_merr3b,
82: IOP3_CASA, IOP3_PREFETCHA, IOP3_CASXA, IOP3_merr3f
83: };
84:
85: /*
86: * Integer condition codes.
87: */
88: #define Icc_N 0x0 /* never */
89: #define Icc_E 0x1 /* equal (equiv. zero) */
90: #define Icc_LE 0x2 /* less or equal */
91: #define Icc_L 0x3 /* less */
92: #define Icc_LEU 0x4 /* less or equal unsigned */
93: #define Icc_CS 0x5 /* carry set (equiv. less unsigned) */
94: #define Icc_NEG 0x6 /* negative */
95: #define Icc_VS 0x7 /* overflow set */
96: #define Icc_A 0x8 /* always */
97: #define Icc_NE 0x9 /* not equal (equiv. not zero) */
98: #define Icc_G 0xa /* greater */
99: #define Icc_GE 0xb /* greater or equal */
100: #define Icc_GU 0xc /* greater unsigned */
101: #define Icc_CC 0xd /* carry clear (equiv. gtr or eq unsigned) */
102: #define Icc_POS 0xe /* positive */
103: #define Icc_VC 0xf /* overflow clear */
104:
105: /*
106: * Integer registers.
107: */
108: #define I_G0 0
109: #define I_G1 1
110: #define I_G2 2
111: #define I_G3 3
112: #define I_G4 4
113: #define I_G5 5
114: #define I_G6 6
115: #define I_G7 7
116: #define I_O0 8
117: #define I_O1 9
118: #define I_O2 10
119: #define I_O3 11
120: #define I_O4 12
121: #define I_O5 13
122: #define I_O6 14
123: #define I_O7 15
124: #define I_L0 16
125: #define I_L1 17
126: #define I_L2 18
127: #define I_L3 19
128: #define I_L4 20
129: #define I_L5 21
130: #define I_L6 22
131: #define I_L7 23
132: #define I_I0 24
133: #define I_I1 25
134: #define I_I2 26
135: #define I_I3 27
136: #define I_I4 28
137: #define I_I5 29
138: #define I_I6 30
139: #define I_I7 31
140:
141: /*
142: * An instruction.
143: */
144: union instr {
145: int i_int; /* as a whole */
146:
147: /*
148: * The first level of decoding is to use the top 2 bits.
149: * This gives us one of three `formats', which usually give
150: * a second level of decoding.
151: */
152: struct {
153: u_int i_op:2; /* first-level decode */
154: u_int :30;
155: } i_any;
156:
157: /*
158: * Format 1 instructions: CALL (undifferentiated).
159: */
160: struct {
161: u_int :2; /* 01 */
162: int i_disp:30; /* displacement */
163: } i_call;
164:
165: /*
166: * Format 2 instructions (SETHI, UNIMP, and branches, plus illegal
167: * unused codes).
168: */
169: struct {
170: u_int :2; /* 00 */
171: u_int :5;
172: u_int i_op2:3; /* second-level decode */
173: u_int :22;
174: } i_op2;
175:
176: /* UNIMP, SETHI */
177: struct {
178: u_int :2; /* 00 */
179: u_int i_rd:5; /* destination register */
180: u_int i_op2:3; /* opcode: UNIMP or SETHI */
181: u_int i_imm:22; /* immediate value */
182: } i_imm22;
183:
184: /* branches: Bicc, FBfcc, CBccc */
185: struct {
186: u_int :2; /* 00 */
187: u_int i_annul:1; /* annul bit */
188: u_int i_cond:4; /* condition codes */
189: u_int i_op2:3; /* opcode: {Bi,FBf,CBc}cc */
190: int i_disp:22; /* branch displacement */
191: } i_branch;
192:
193: /* more branches: BPcc, FBPfcc */
194: struct {
195: u_int :2; /* 00 */
196: u_int i_annul:1; /* annul bit */
197: u_int i_cond:4; /* condition codes */
198: u_int i_op2:3; /* opcode: {BP,FBPf}cc */
199: u_int i_cc:2; /* condition code selector */
200: u_int i_pred:1; /* branch prediction bit */
201: int i_disp:19; /* branch displacement */
202: } i_branch_p;
203:
204: /* one last branch: BPr */
205: struct {
206: u_int :2; /* 00 */
207: u_int i_annul:1; /* annul bit */
208: u_int :1; /* 0 */
209: u_int i_rcond:4; /* register condition */
210: u_int :3; /* 011 */
211: int i_disphi:2; /* branch displacement, hi bits */
212: u_int i_pred:1; /* branch prediction bit */
213: u_int i_rs1:1; /* source register 1 */
214: u_int i_displo:16; /* branch displacement, lo bits */
215: } i_branch_pr;
216:
217:
218: /*
219: * Format 3 instructions (memory reference; arithmetic, logical,
220: * shift, and other miscellaneous operations). The second-level
221: * decode almost always makes use of an `rd' and `rs1', however
222: * (see also IOP3_reg and IOP3_mem).
223: *
224: * Beyond that, the low 14 bits may be broken up in one of three
225: * different ways, if at all:
226: * 1 bit of imm=0 + 8 bits of asi + 5 bits of rs2 [reg & mem]
227: * 1 bit of imm=1 + 13 bits of signed immediate [reg & mem]
228: * 9 bits of copressor `opf' opcode + 5 bits of rs2 [reg only]
229: */
230: struct {
231: u_int :2; /* 10 or 11 */
232: u_int i_rd:5; /* destination register */
233: u_int i_op3:6; /* second-level decode */
234: u_int i_rs1:5; /* source register 1 */
235: u_int i_low14:14; /* varies */
236: } i_op3;
237:
238: /*
239: * Memory forms. These set i_op=3 and use simm13 or asi layout.
240: * Memory references without an ASI should use 0, but the actual
241: * ASI field is simply ignored.
242: */
243: struct {
244: u_int :2; /* 11 only */
245: u_int i_rd:5; /* destination register */
246: u_int i_op3:6; /* second-level decode (see IOP3_mem) */
247: u_int i_rs1:5; /* source register 1 */
248: u_int i_i:1; /* immediate vs asi */
249: u_int i_low13:13; /* depend on i bit */
250: } i_loadstore;
251:
252: /*
253: * Memory and register forms.
254: * These come in quite a variety and we do not
255: * attempt to break them down much.
256: */
257: struct {
258: u_int :2; /* 10 or 11 */
259: u_int i_rd:5; /* destination register */
260: u_int i_op3:6; /* second-level decode */
261: u_int i_rs1:5; /* source register 1 */
262: u_int i_i:1; /* immediate bit (1) */
263: int i_simm13:13; /* signed immediate */
264: } i_simm13;
265: struct {
266: u_int :2; /* 10 or 11 */
267: u_int i_rd:5; /* destination register */
268: u_int i_op3:6; /* second-level decode */
269: u_int i_rs1:5; /* source register 1 */
270: u_int i_i:1; /* immediate vs asi */
271: u_int i_asi:8; /* asi */
272: u_int i_rs2:5; /* source register 2 */
273: } i_asi;
274: struct {
275: u_int :2; /* 10 only (register, no memory) */
276: u_int i_rd:5; /* destination register */
277: u_int i_op3:6; /* second-level decode (see IOP3_reg) */
278: u_int i_rs1:5; /* source register 1 */
279: u_int i_opf:9; /* coprocessor 3rd-level decode */
280: u_int i_rs2:5; /* source register 2 */
281: } i_opf;
282:
283: /*
284: * Format 4 instructions (movcc, fmovr, fmovcc, and tcc). The
285: * second-level decode almost always makes use of an `rd' and either
286: * `rs1' or `cond'.
287: *
288: * Beyond that, the low 14 bits may be broken up in one of three
289: * different ways, if at all:
290: * 1 bit of imm=0 + 8 bits of asi + 5 bits of rs2 [reg & mem]
291: * 1 bit of imm=1 + 13 bits of signed immediate [reg & mem]
292: * 9 bits of copressor `opf' opcode + 5 bits of rs2 [reg only] */
293: struct {
294: u_int :2; /* 10 */
295: u_int i_rd:5; /* destination register */
296: u_int i_op3:6; /* second-level decode */
297: u_int i_rs1:5; /* source register 1 */
298: u_int i_low14:14; /* varies */
299: } i_op4;
300:
301: /*
302: * Move fp register on condition codes.
303: */
304: struct {
305: u_int :2; /* 10 */
306: u_int i_rd:5; /* destination register */
307: u_int i_op3:6; /* second-level decode */
308: u_int :1;
309: u_int i_cond:4; /* condition */
310: u_int i_opf_cc:3; /* condition code register */
311: u_int i_opf_low:6; /* third level decode */
312: u_int i_rs2:5; /* source register */
313: } i_fmovcc;
314:
315: /*
316: * Move fp register on integer register.
317: */
318: struct {
319: u_int :2; /* 10 */
320: u_int i_rd:5; /* destination register */
321: u_int i_op3:6; /* second-level decode */
322: u_int i_rs1:5; /* source register 1 */
323: u_int :1;
324: u_int i_rcond:3; /* register condition */
325: u_int i_opf_low:6;
326: u_int i_rs2:5; /* source register 2 */
327: } i_fmovr;
328:
329: };
330:
331: /*
332: * Internal macros for building instructions. These correspond 1-to-1 to
333: * the names above. Note that x << y | z == (x << y) | z.
334: */
335: #define _I_ANY(op, b) ((op) << 30 | (b))
336:
337: #define _I_OP2(high, op2, low) \
338: _I_ANY(IOP_OP2, (high) << 25 | (op2) << 22 | (low))
339: #define _I_IMM22(rd, op2, imm) \
340: _I_ANY(IOP_OP2, (rd) << 25 | (op2) << 22 | (imm))
341: #define _I_BRANCH(a, c, op2, disp) \
342: _I_ANY(IOP_OP2, (a) << 29 | (c) << 25 | (op2) << 22 | (disp))
343: #define _I_FBFCC(a, cond, disp) \
344: _I_BRANCH(a, cond, IOP2_FBfcc, disp)
345: #define _I_CBCCC(a, cond, disp) \
346: _I_BRANCH(a, cond, IOP2_CBccc, disp)
347:
348: #define _I_SIMM(simm) (1 << 13 | ((simm) & 0x1fff))
349:
350: #define _I_OP3_GEN(form, rd, op3, rs1, low14) \
351: _I_ANY(form, (rd) << 25 | (op3) << 19 | (rs1) << 14 | (low14))
352: #define _I_OP3_LS_RAR(rd, op3, rs1, asi, rs2) \
353: _I_OP3_GEN(IOP_mem, rd, op3, rs1, (asi) << 5 | (rs2))
354: #define _I_OP3_LS_RI(rd, op3, rs1, simm13) \
355: _I_OP3_GEN(IOP_mem, rd, op3, rs1, _I_SIMM(simm13))
356: #define _I_OP3_LS_RR(rd, op3, rs1, rs2) \
357: _I_OP3_GEN(IOP_mem, rd, op3, rs1, rs2)
358: #define _I_OP3_R_RAR(rd, op3, rs1, asi, rs2) \
359: _I_OP3_GEN(IOP_reg, rd, op3, rs1, (asi) << 5 | (rs2))
360: #define _I_OP3_R_RI(rd, op3, rs1, simm13) \
361: _I_OP3_GEN(IOP_reg, rd, op3, rs1, _I_SIMM(simm13))
362: #define _I_OP3_R_RR(rd, op3, rs1, rs2) \
363: _I_OP3_GEN(IOP_reg, rd, op3, rs1, rs2)
364:
365: #define I_CALL(d) _I_ANY(IOP_CALL, d)
366: #define I_UNIMP(v) _I_IMM22(0, IOP2_UNIMP, v)
367: #define I_BN(a, d) _I_BRANCH(a, Icc_N, IOP2_Bicc, d)
368: #define I_BE(a, d) _I_BRANCH(a, Icc_E, IOP2_Bicc, d)
369: #define I_BZ(a, d) _I_BRANCH(a, Icc_E, IOP2_Bicc, d)
370: #define I_BLE(a, d) _I_BRANCH(a, Icc_LE, IOP2_Bicc, d)
371: #define I_BL(a, d) _I_BRANCH(a, Icc_L, IOP2_Bicc, d)
372: #define I_BLEU(a, d) _I_BRANCH(a, Icc_LEU, IOP2_Bicc, d)
373: #define I_BCS(a, d) _I_BRANCH(a, Icc_CS, IOP2_Bicc, d)
374: #define I_BLU(a, d) _I_BRANCH(a, Icc_CS, IOP2_Bicc, d)
375: #define I_BNEG(a, d) _I_BRANCH(a, Icc_NEG, IOP2_Bicc, d)
376: #define I_BVS(a, d) _I_BRANCH(a, Icc_VS, IOP2_Bicc, d)
377: #define I_BA(a, d) _I_BRANCH(a, Icc_A, IOP2_Bicc, d)
378: #define I_B(a, d) _I_BRANCH(a, Icc_A, IOP2_Bicc, d)
379: #define I_BNE(a, d) _I_BRANCH(a, Icc_NE, IOP2_Bicc, d)
380: #define I_BNZ(a, d) _I_BRANCH(a, Icc_NE, IOP2_Bicc, d)
381: #define I_BG(a, d) _I_BRANCH(a, Icc_G, IOP2_Bicc, d)
382: #define I_BGE(a, d) _I_BRANCH(a, Icc_GE, IOP2_Bicc, d)
383: #define I_BGU(a, d) _I_BRANCH(a, Icc_GU, IOP2_Bicc, d)
384: #define I_BCC(a, d) _I_BRANCH(a, Icc_CC, IOP2_Bicc, d)
385: #define I_BGEU(a, d) _I_BRANCH(a, Icc_CC, IOP2_Bicc, d)
386: #define I_BPOS(a, d) _I_BRANCH(a, Icc_POS, IOP2_Bicc, d)
387: #define I_BVC(a, d) _I_BRANCH(a, Icc_VC, IOP2_Bicc, d)
388: #define I_SETHI(r, v) _I_IMM22(r, 4, v)
389:
390: #define I_ORri(rd, rs1, imm) _I_OP3_R_RI(rd, IOP3_OR, rs1, imm)
391: #define I_ORrr(rd, rs1, rs2) _I_OP3_R_RR(rd, IOP3_OR, rs1, rs2)
392:
393: #define I_MOVi(rd, imm) _I_OP3_R_RI(rd, IOP3_OR, I_G0, imm)
394: #define I_MOVr(rd, rs) _I_OP3_R_RR(rd, IOP3_OR, I_G0, rs)
395:
396: #define I_RDPSR(rd) _I_OP3_R_RR(rd, IOP3_RDPSR, 0, 0)
397:
398: #define I_JMPLri(rd, rs1, imm) _I_OP3_R_RI(rd, IOP3_JMPL, rs1, imm)
399: #define I_JMPLrr(rd, rs1, rs2) _I_OP3_R_RR(rd, IOP3_JMPL, rs1, rs2)
400:
401: /*
402: * FPop values.
403: */
404:
405: /* These are in FPop1 space */
406: #define FMOVS 0x001
407: #define FMOVD 0x002
408: #define FMOVQ 0x003
409: #define FNEGS 0x005
410: #define FNEGD 0x006
411: #define FNEGQ 0x007
412: #define FABSS 0x009
413: #define FABSD 0x00a
414: #define FABSQ 0x00b
415: #define FSQRTS 0x029
416: #define FSQRTD 0x02a
417: #define FSQRTQ 0x02b
418: #define FADDS 0x041
419: #define FADDD 0x042
420: #define FADDQ 0x043
421: #define FSUBS 0x045
422: #define FSUBD 0x046
423: #define FSUBQ 0x047
424: #define FMULS 0x049
425: #define FMULD 0x04a
426: #define FMULQ 0x04b
427: #define FDIVS 0x04d
428: #define FDIVD 0x04e
429: #define FDIVQ 0x04f
430: #define FSMULD 0x069
431: #define FDMULQ 0x06e
432: #define FSTOX 0x081
433: #define FDTOX 0x082
434: #define FQTOX 0x083
435: #define FXTOS 0x084
436: #define FXTOD 0x088
437: #define FXTOQ 0x08c
438: #define FITOS 0x0c4
439: #define FDTOS 0x0c6
440: #define FQTOS 0x0c7
441: #define FITOD 0x0c8
442: #define FSTOD 0x0c9
443: #define FQTOD 0x0cb
444: #define FITOQ 0x0cc
445: #define FSTOQ 0x0cd
446: #define FDTOQ 0x0ce
447: #define FSTOI 0x0d1
448: #define FDTOI 0x0d2
449: #define FQTOI 0x0d3
450:
451: /* These are in FPop2 space */
452: #define FMVFC0S 0x001
453: #define FMVFC0D 0x002
454: #define FMVFC0Q 0x003
455: #define FMOVZS 0x025
456: #define FMOVZD 0x026
457: #define FMOVZQ 0x027
458: #define FMVFC1S 0x041
459: #define FMVFC1D 0x042
460: #define FMVFC1Q 0x043
461: #define FMOVLEZS 0x045
462: #define FMOVLEZD 0x046
463: #define FMOVLEZQ 0x047
464: #define FCMPS 0x051
465: #define FCMPD 0x052
466: #define FCMPQ 0x053
467: #define FCMPES 0x055
468: #define FCMPED 0x056
469: #define FCMPEQ 0x057
470: #define FMOVLZS 0x065
471: #define FMOVLZD 0x066
472: #define FMOVLZQ 0x067
473: #define FMVFC2S 0x081
474: #define FMVFC2D 0x082
475: #define FMVFC2Q 0x083
476: #define FMOVNZS 0x0a5
477: #define FMOVNZD 0x0a6
478: #define FMOVNZQ 0x0a7
479: #define FMVFC3S 0x0c1
480: #define FMVFC3D 0x0c2
481: #define FMVFC3Q 0x0c3
482: #define FMOVGZS 0x0c5
483: #define FMOVGZD 0x0c6
484: #define FMOVGZQ 0x0c7
485: #define FMOVGEZS 0x0e5
486: #define FMOVGEZD 0x0e6
487: #define FMOVGEZQ 0x0e7
488: #define FMVICS 0x101
489: #define FMVICD 0x102
490: #define FMVICQ 0x103
491: #define FMVXCS 0x181
492: #define FMVXCD 0x182
493: #define FMVXCQ 0x183
494:
495: /*
496: * FPU data types.
497: */
498: #define FTYPE_LNG -1 /* data = 64-bit signed long integer */
499: #define FTYPE_INT 0 /* data = 32-bit signed integer */
500: #define FTYPE_SNG 1 /* data = 32-bit float */
501: #define FTYPE_DBL 2 /* data = 64-bit double */
502: #define FTYPE_EXT 3 /* data = 128-bit extended (quad-prec) */
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