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Static Public Member Functions | Static Private Attributes
CFFactory Class Reference

#include <cf_factory.h>

Static Public Member Functions

static int gettype ()
 
static void settype (int type)
 
static InternalCF * basic (int value)
 
static InternalCF * basic (long value)
 
static InternalCF * basic (int type, long value)
 
static InternalCF * basic (const char *str)
 
static InternalCF * basic (const char *str, int base)
 
static InternalCF * basic (int type, const char *const str)
 
static InternalCF * basic (int type, long value, bool nonimm)
 
static InternalCF * basic (const mpz_ptr num)
 
static InternalCF * rational (long num, long den)
 
static InternalCF * rational (const mpz_ptr num, const mpz_ptr den, bool normalize)
 
static InternalCF * poly (const Variable &v, int exp, const CanonicalForm &c)
 
static InternalCF * poly (const Variable &v, int exp=1)
 

Static Private Attributes

static int currenttype = IntegerDomain
 

Detailed Description

Definition at line 23 of file cf_factory.h.

Member Function Documentation

◆ basic() [1/8]

InternalCF * CFFactory::basic ( const char *  str)
static

Definition at line 122 of file cf_factory.cc.

123{
124 if ( currenttype == IntegerDomain ) {
125 InternalInteger * dummy = new InternalInteger( str );
126 if ( dummy->is_imm() ) {
127 InternalCF * res = int2imm( dummy->intval() );
128 delete dummy;
129 return res;
130 }
131 else
132 return dummy;
133 }
134// else if ( currenttype == RationalDomain ) {
135// InternalRational * dummy = new InternalRational( str );
136// if ( dummy->is_imm() ) {
137// InternalCF * res = int2imm( dummy->intval() );
138// delete dummy;
139// return res;
140// }
141// else
142// return dummy;
143// }
144 else if ( currenttype == FiniteFieldDomain ) {
145 InternalInteger * dummy = new InternalInteger( str );
146 InternalCF * res = int2imm_p( dummy->intmod( ff_prime ) );
147 delete dummy;
148 return res;
149 }
150 else if ( currenttype == GaloisFieldDomain ) {
151 InternalInteger * dummy = new InternalInteger( str );
152 InternalCF * res = int2imm_gf( gf_int2gf( dummy->intmod( ff_prime ) ) );
153 delete dummy;
154 return res;
155 }
156 else {
157 ASSERT( 0, "illegal basic domain!" );
158 return 0;
159 }
160}
ASSERT
#define ASSERT(expression, message)
Definition cf_assert.h:99
FiniteFieldDomain
#define FiniteFieldDomain
Definition cf_defs.h:19
IntegerDomain
#define IntegerDomain
Definition cf_defs.h:21
GaloisFieldDomain
#define GaloisFieldDomain
Definition cf_defs.h:18
CFFactory::currenttype
static int currenttype
Definition cf_factory.h:26
InternalCF
virtual class for internal CanonicalForm's
Definition int_cf.h:47
InternalInteger
factory's class for integers
Definition int_int.h:56
InternalInteger::intval
long intval() const
Definition int_int.cc:506
InternalInteger::is_imm
bool is_imm() const
Definition int_int.cc:41
InternalInteger::intmod
int intmod(int p) const
Definition int_int.cc:511
res
CanonicalForm res
Definition facAbsFact.cc:60
ff_prime
VAR int ff_prime
Definition ffops.cc:23
gf_int2gf
int gf_int2gf(int i)
Definition gfops.h:65
int2imm_p
InternalCF * int2imm_p(long i)
Definition imm.h:101
int2imm_gf
InternalCF * int2imm_gf(long i)
Definition imm.h:106
int2imm
static InternalCF * int2imm(long i)
Definition imm.h:75

◆ basic() [2/8]

InternalCF * CFFactory::basic ( const char *  str,
int  base 
)
static

Definition at line 163 of file cf_factory.cc.

164{
165 if ( currenttype == IntegerDomain ) {
166 InternalInteger * dummy = new InternalInteger( str, base );
167 if ( dummy->is_imm() ) {
168 InternalCF * res = int2imm( dummy->intval() );
169 delete dummy;
170 return res;
171 }
172 else
173 return dummy;
174 }
175// else if ( currenttype == RationalDomain ) {
176// InternalRational * dummy = new InternalRational( str );
177// if ( dummy->is_imm() ) {
178// InternalCF * res = int2imm( dummy->intval() );
179// delete dummy;
180// return res;
181// }
182// else
183// return dummy;
184// }
185 else if ( currenttype == FiniteFieldDomain ) {
186 InternalInteger * dummy = new InternalInteger( str, base );
187 InternalCF * res = int2imm_p( dummy->intmod( ff_prime ) );
188 delete dummy;
189 return res;
190 }
191 else if ( currenttype == GaloisFieldDomain ) {
192 InternalInteger * dummy = new InternalInteger( str, base );
193 InternalCF * res = int2imm_gf( gf_int2gf( dummy->intmod( ff_prime ) ) );
194 delete dummy;
195 return res;
196 }
197 else {
198 ASSERT( 0, "illegal basic domain!" );
199 return 0;
200 }
201}

◆ basic() [3/8]

InternalCF * CFFactory::basic ( const mpz_ptr  num)
static

Definition at line 261 of file cf_factory.cc.

262{
263 ASSERT (currenttype == IntegerDomain, "Integer domain expected");
264 return new InternalInteger( num );
265}
num
CanonicalForm num(const CanonicalForm &f)
Definition canonicalform.h:337

◆ basic() [4/8]

InternalCF * CFFactory::basic ( int  type,
const char *const  str 
)
static

Definition at line 204 of file cf_factory.cc.

205{
206 if ( type == IntegerDomain ) {
207 InternalInteger * dummy = new InternalInteger( str );
208 if ( dummy->is_imm() ) {
209 InternalCF * res = int2imm( dummy->intval() );
210 delete dummy;
211 return res;
212 }
213 else
214 return dummy;
215 }
216// else if ( type == RationalDomain ) {
217// InternalRational * dummy = new InternalRational( str );
218// if ( dummy->is_imm() ) {
219// InternalCF * res = int2imm( dummy->intval() );
220// delete dummy;
221// return res;
222// }
223// else
224// return dummy;
225// }
226 else if ( type == FiniteFieldDomain ) {
227 InternalInteger * dummy = new InternalInteger( str );
228 InternalCF * res = int2imm( dummy->intmod( ff_prime ) );
229 delete dummy;
230 return res;
231 }
232 else if ( type == GaloisFieldDomain ) {
233 InternalInteger * dummy = new InternalInteger( str );
234 InternalCF * res = int2imm_gf( gf_int2gf( dummy->intmod( ff_prime ) ) );
235 delete dummy;
236 return res;
237 }
238 else {
239 ASSERT( 0, "illegal basic domain!" );
240 return 0;
241 }
242}

◆ basic() [5/8]

InternalCF * CFFactory::basic ( int  type,
long  value 
)
static

Definition at line 99 of file cf_factory.cc.

100{
101 if ( type == IntegerDomain )
102 if (LIKELY( value >= MINIMMEDIATE && value <= MAXIMMEDIATE ))
103 return int2imm( value );
104 else
105 return new InternalInteger( value );
106// else if ( type == RationalDomain )
107// if ( value >= MINIMMEDIATE && value <= MAXIMMEDIATE )
108// return int2imm( value );
109// else
110// return new InternalRational( value );
111 else if ( type == FiniteFieldDomain )
112 return int2imm_p( ff_norm( value ) );
113 else if ( type == GaloisFieldDomain )
114 return int2imm_gf( gf_int2gf( value ) );
115 else {
116 ASSERT1( 0, "illegal basic domain (type = %d)!", type );
117 return 0;
118 }
119}
LIKELY
#define LIKELY(X)
Definition auxiliary.h:404
ASSERT1
#define ASSERT1(expression, message, parameter1)
Definition cf_assert.h:101
ff_norm
int ff_norm(const int a)
Definition ffops.h:39
MAXIMMEDIATE
const long MAXIMMEDIATE
Definition imm.h:55
MINIMMEDIATE
const long MINIMMEDIATE
Definition imm.h:54

◆ basic() [6/8]

InternalCF * CFFactory::basic ( int  type,
long  value,
bool  nonimm 
)
static

Definition at line 245 of file cf_factory.cc.

246{
247 if ( nonimm )
248 if ( type == IntegerDomain )
249 return new InternalInteger( value );
250 else if ( type == RationalDomain )
251 return new InternalRational( value );
252 else {
253 ASSERT( 0, "illegal basic domain!" );
254 return 0;
255 }
256 else
257 return CFFactory::basic( type, value );
258}
RationalDomain
#define RationalDomain
Definition cf_defs.h:20
CFFactory::basic
static InternalCF * basic(int value)
Definition cf_factory.cc:61
InternalRational
factory's class for rationals
Definition int_rat.h:55

◆ basic() [7/8]

InternalCF * CFFactory::basic ( int  value)
static

Definition at line 61 of file cf_factory.cc.

62{
63 switch(currenttype)
64 {
65 case IntegerDomain:
66#if SIZEOF_LONG == 8
67 return int2imm( value );
68#else
69 if (LIKELY( value >= MINIMMEDIATE && value <= MAXIMMEDIATE ))
70 return int2imm( value );
71 else
72 return new InternalInteger( value );
73#endif
74 case RationalDomain:
75#if SIZEOF_LONG == 8
76 return int2imm( value );
77#else
78 if (LIKELY( value >= MINIMMEDIATE && value <= MAXIMMEDIATE ))
79 return int2imm( value );
80 else
81 return new InternalRational( value );
82#endif
83 case FiniteFieldDomain:
84 return int2imm_p( ff_norm( value ) );
85 case GaloisFieldDomain:
86 return int2imm_gf( gf_int2gf( value ) );
87 #ifndef HAVE_NTL
88 case PrimePowerDomain:
89 return new InternalPrimePower( value );
90 #endif
91 default: {
92 ASSERT( 0, "illegal basic domain!" );
93 return 0;
94 }
95 }
96}
PrimePowerDomain
#define PrimePowerDomain
Definition cf_defs.h:17

◆ basic() [8/8]

InternalCF * CFFactory::basic ( long  value)
static

Definition at line 31 of file cf_factory.cc.

32{
33 switch(currenttype)
34 {
35 case IntegerDomain:
36 if (LIKELY( value >= MINIMMEDIATE && value <= MAXIMMEDIATE ))
37 return int2imm( value );
38 else
39 return new InternalInteger( value );
40// else if ( currenttype == RationalDomain )
41// if ( value >= MINIMMEDIATE && value <= MAXIMMEDIATE )
42// return int2imm( value );
43// else
44// return new InternalRational( value );
45 case FiniteFieldDomain:
46 return int2imm_p( ff_norm( value ) );
47 case GaloisFieldDomain:
48 return int2imm_gf( gf_int2gf( value ) );
49 #ifndef HAVE_NTL
50 case PrimePowerDomain:
51 return new InternalPrimePower( value );
52 #endif
53 default: {
54 ASSERT( 0, "illegal basic domain!" );
55 return 0;
56 }
57 }
58}

◆ gettype()

static int CFFactory::gettype ( )
inlinestatic

Definition at line 28 of file cf_factory.h.

28{ return currenttype; }

◆ poly() [1/2]

InternalCF * CFFactory::poly ( const Variable &  v,
int  exp,
const CanonicalForm &  c 
)
static

Definition at line 286 of file cf_factory.cc.

287{
288 if ( v.level() == LEVELBASE )
289 return c.getval();
290 else
291 return new InternalPoly( v, exp, c );
292}
LEVELBASE
#define LEVELBASE
Definition cf_defs.h:25
CanonicalForm::getval
InternalCF * getval() const
Definition canonicalform.cc:34
InternalPoly
factory's class for polynomials
Definition int_poly.h:71
Variable::level
int level() const
Definition factory.h:143
v
const Variable & v
< [in] a sqrfree bivariate poly
Definition facBivar.h:39
exp
gmp_float exp(const gmp_float &a)
Definition mpr_complex.cc:349

◆ poly() [2/2]

InternalCF * CFFactory::poly ( const Variable &  v,
int  exp = 1 
)
static

Definition at line 295 of file cf_factory.cc.

296{
297 if ( v.level() == LEVELBASE )
298 return CFFactory::basic( 1L );
299 else
300 return new InternalPoly( v, exp, 1 );
301}

◆ rational() [1/2]

InternalCF * CFFactory::rational ( const mpz_ptr  num,
const mpz_ptr  den,
bool  normalize 
)
static

Definition at line 275 of file cf_factory.cc.

276{
277 if ( normalize ) {
278 InternalRational * result = new InternalRational( num, den );
279 return result->normalize_myself();
280 }
281 else
282 return new InternalRational( num, den );
283}
den
CanonicalForm den(const CanonicalForm &f)
Definition canonicalform.h:340
result
return result
Definition facAbsBiFact.cc:76
normalize
static poly normalize(poly next_p, ideal add_generators, syStrategy syzstr, int *g_l, int *p_l, int crit_comp)
Definition syz3.cc:1027

◆ rational() [2/2]

InternalCF * CFFactory::rational ( long  num,
long  den 
)
static

Definition at line 268 of file cf_factory.cc.

269{
270 InternalRational * res = new InternalRational( num, den );
271 return res->normalize_myself();
272}

◆ settype()

static void CFFactory::settype ( int  type)
inlinestatic

Definition at line 29 of file cf_factory.h.

30 {
31 ASSERT( type==FiniteFieldDomain || type==GaloisFieldDomain || type==IntegerDomain || type==RationalDomain || type==PrimePowerDomain, "illegal basic domain!" );
32 currenttype = type;
33 };

Field Documentation

◆ currenttype

int CFFactory::currenttype = IntegerDomain
staticprivate

Definition at line 26 of file cf_factory.h.

The documentation for this class was generated from the following files:
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