Class: Numo::SComplex

Inherits:
NArray
  • Object
show all
Defined in:
ext/numo/narray/types/scomplex.c

Defined Under Namespace

Modules: Math

Constant Summary

UPCAST =
hCast
ELEMENT_BIT_SIZE =
INT2FIX(sizeof(dtype)*8)
ELEMENT_BYTE_SIZE =
INT2FIX(sizeof(dtype))
CONTIGUOUS_STRIDE =
INT2FIX(sizeof(dtype))

Constants inherited from NArray

NArray::VERSION

Class Method Summary collapse

Instance Method Summary collapse

Methods inherited from NArray

#==, #append, array_type, asarray, #at, byte_size, #byte_size, #byte_swapped?, #cast_to, #coerce, #column_major?, column_stack, concatenate, #concatenate, #contiguous?, debug=, #debug_info, #deg2rad, #delete, #diagonal, #diff, #dot, #dsplit, dstack, #empty?, #expand_dims, eye, #flatten, #fliplr, #flipud, from_binary, #host_order?, #hsplit, hstack, #initialize, #initialize_copy, #inplace, #inplace!, #inplace?, #insert, inspect_cols, inspect_cols=, inspect_rows, inspect_rows=, linspace, logspace, #marshal_dump, #marshal_load, #ndim, #new_fill, new_like, #new_narray, #new_ones, #new_zeros, ones, #out_of_place!, profile, profile=, #rad2deg, #repeat, #reshape, #reverse, #rot90, #row_major?, #shape, #size, #split, srand, #store_binary, #swap_byte, #swapaxes, #tile, #to_binary, #to_c, #to_f, #to_host, #to_i, #to_network, #to_swapped, #to_vacs, #transpose, upcast, #view, #vsplit, vstack, zeros

Constructor Details

This class inherits a constructor from Numo::NArray

Class Method Details

.[](elements) ⇒ Numo::SComplex .cast(array) ⇒ Numo::SComplex

Cast object to Numo::SComplex.

Parameters:

  • elements (Numeric, Array)
  • array (Array)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1391

static VALUE
scomplex_s_cast(VALUE type, VALUE obj)
{
    VALUE v;
    narray_t *na;
    dtype x;

    if (CLASS_OF(obj)==cT) {
        return obj;
    }
    if (RTEST(rb_obj_is_kind_of(obj,rb_cNumeric))) {
        x = m_num_to_data(obj);
        return scomplex_new_dim0(x);
    }
    if (RTEST(rb_obj_is_kind_of(obj,rb_cArray))) {
        return scomplex_cast_array(obj);
    }
    if (IsNArray(obj)) {
        GetNArray(obj,na);
        v = nary_new(cT, NA_NDIM(na), NA_SHAPE(na));
        if (NA_SIZE(na) > 0) {
            scomplex_store(v,obj);
        }
        return v;
    }
    
#line 41 "gen/tmpl/cast.c"
    rb_raise(nary_eCastError,"cannot cast to %s",rb_class2name(type));
    return Qnil;
    
}

.[](elements) ⇒ Numo::SComplex .cast(array) ⇒ Numo::SComplex

Cast object to Numo::SComplex.

Parameters:

  • elements (Numeric, Array)
  • array (Array)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1391

static VALUE
scomplex_s_cast(VALUE type, VALUE obj)
{
    VALUE v;
    narray_t *na;
    dtype x;

    if (CLASS_OF(obj)==cT) {
        return obj;
    }
    if (RTEST(rb_obj_is_kind_of(obj,rb_cNumeric))) {
        x = m_num_to_data(obj);
        return scomplex_new_dim0(x);
    }
    if (RTEST(rb_obj_is_kind_of(obj,rb_cArray))) {
        return scomplex_cast_array(obj);
    }
    if (IsNArray(obj)) {
        GetNArray(obj,na);
        v = nary_new(cT, NA_NDIM(na), NA_SHAPE(na));
        if (NA_SIZE(na) > 0) {
            scomplex_store(v,obj);
        }
        return v;
    }
    
#line 41 "gen/tmpl/cast.c"
    rb_raise(nary_eCastError,"cannot cast to %s",rb_class2name(type));
    return Qnil;
    
}

Instance Method Details

#*(other) ⇒ Numo::NArray

Binary mul.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2257

static VALUE
scomplex_mul(VALUE self, VALUE other)
{
    
#line 48 "gen/tmpl/binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_mul_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, '*', 1, other);
    }
    
}

#**(other) ⇒ Numo::NArray

Binary power.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2391

static VALUE
scomplex_pow(VALUE self, VALUE other)
{
    
#line 69 "gen/tmpl/pow.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_pow_self(self,other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, id_pow, 1, other);
    }
    
}

#+(other) ⇒ Numo::NArray

Binary add.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2149

static VALUE
scomplex_add(VALUE self, VALUE other)
{
    
#line 48 "gen/tmpl/binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_add_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, '+', 1, other);
    }
    
}

#-(other) ⇒ Numo::NArray

Binary sub.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2203

static VALUE
scomplex_sub(VALUE self, VALUE other)
{
    
#line 48 "gen/tmpl/binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_sub_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, '-', 1, other);
    }
    
}

#-@Numo::SComplex

Unary minus.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2458

static VALUE
scomplex_minus(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_minus, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#/(other) ⇒ Numo::NArray

Binary div.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2311

static VALUE
scomplex_div(VALUE self, VALUE other)
{
    
#line 48 "gen/tmpl/binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_div_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, '/', 1, other);
    }
    
}

#[](dim0, ..., dimL) ⇒ Numeric, NArray::SComplex

Array element referenece or slice view. — Returns the element at dim0, dim1, … are Numeric indices for each dimension, or returns a NArray View as a sliced subarray if dim0, dim1, … includes other than Numeric index, e.g., Range or Array or true.

Examples:

a = Numo::DFloat.new(4,5).seq
=> Numo::DFloat#shape=[4,5]
[[0, 1, 2, 3, 4],
 [5, 6, 7, 8, 9],
 [10, 11, 12, 13, 14],
 [15, 16, 17, 18, 19]]

a[1,1]
=> 6.0

a[1..3,1]
=> Numo::DFloat#shape=[3]
[6, 11, 16]

a[1,[1,3,4]]
=> Numo::DFloat#shape=[3]
[6, 8, 9]

a[true,2].fill(99)
a
=> Numo::DFloat#shape=[4,5]
[[0, 1, 99, 3, 4],
 [5, 6, 99, 8, 9],
 [10, 11, 99, 13, 14],
 [15, 16, 99, 18, 19]]

Parameters:

  • dim0,...,dimL (Numeric, Range, etc)

    Multi-dimensional Index.

Returns:

  • (Numeric, NArray::SComplex)

    Element object or NArray view.



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# File 'ext/numo/narray/types/scomplex.c', line 1463

static VALUE
scomplex_aref(int argc, VALUE *argv, VALUE self)
{
    int nd;
    size_t pos;
    char *ptr;

    nd = na_get_result_dimension(self, argc, argv, sizeof(dtype), &pos);
    if (nd) {
        return na_aref_main(argc, argv, self, 0, nd);
    } else {
        ptr = na_get_pointer_for_read(self) + pos;
        return m_extract(ptr);
    }
}

#[]=(dim0, .., dimL, val) ⇒ Numeric

Array element(s) set. — Replace element(s) at dim0, dim1, … (index/range/array/true for each dimention). Broadcasting mechanism is applied.

Examples:

a = Numo::DFloat.new(3,4).seq
=> Numo::DFloat#shape=[3,4]
[[0, 1, 2, 3],
 [4, 5, 6, 7],
 [8, 9, 10, 11]]

a[1,2]=99
a
=> Numo::DFloat#shape=[3,4]
[[0, 1, 2, 3],
 [4, 5, 99, 7],
 [8, 9, 10, 11]]

a[1,[0,2]] = [101,102]
a
=> Numo::DFloat#shape=[3,4]
[[0, 1, 2, 3],
 [101, 5, 102, 7],
 [8, 9, 10, 11]]

a[1,true]=99
a
=> Numo::DFloat#shape=[3,4]
[[0, 1, 2, 3],
 [99, 99, 99, 99],
 [8, 9, 10, 11]]

Parameters:

  • dim0,..,dimL (Numeric, Range, etc)

    Multi-dimensional Index.

  • val (Numeric, Numo::NArray, etc)

    Value(s) to be set to self.

Returns:

  • (Numeric)

    returns val (last argument).



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# File 'ext/numo/narray/types/scomplex.c', line 1520

static VALUE
scomplex_aset(int argc, VALUE *argv, VALUE self)
{
    int nd;
    size_t pos;
    char *ptr;
    VALUE a;
    dtype x;

    argc--;
    if (argc==0) {
        scomplex_store(self, argv[argc]);
    } else {
        nd = na_get_result_dimension(self, argc, argv, sizeof(dtype), &pos);
        if (nd) {
            a = na_aref_main(argc, argv, self, 0, nd);
            scomplex_store(a, argv[argc]);
        } else {
            x = scomplex_extract_data(argv[argc]);
            ptr = na_get_pointer_for_read_write(self) + pos;
            *(dtype*)ptr = x;
        }

    }
    return argv[argc];
}

#absNumo::SFloat

abs of self.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2101

static VALUE
scomplex_abs(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_abs, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#allocateObject



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# File 'ext/numo/narray/types/scomplex.c', line 132

static VALUE
scomplex_allocate(VALUE self)
{
    narray_t *na;
    char *ptr;

    GetNArray(self,na);

    switch(NA_TYPE(na)) {
    case NARRAY_DATA_T:
        ptr = NA_DATA_PTR(na);
        if (na->size > 0 && ptr == NULL) {
            ptr = xmalloc(sizeof(dtype) * na->size);
            
#line 22 "gen/tmpl/allocate.c"
            NA_DATA_PTR(na) = ptr;
        }
        break;
    case NARRAY_VIEW_T:
        rb_funcall(NA_VIEW_DATA(na), rb_intern("allocate"), 0);
        break;
    case NARRAY_FILEMAP_T:
        //ptr = ((narray_filemap_t*)na)->ptr;
        // to be implemented
    default:
        rb_bug("invalid narray type : %d",NA_TYPE(na));
    }
    return self;
}

#argNumo::SFloat Also known as: angle

arg of self.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2946

static VALUE
scomplex_arg(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_arg, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#ceilNumo::SComplex

Unary ceil.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3423

static VALUE
scomplex_ceil(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_ceil, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#coerce_cast(type) ⇒ nil

return NArray with cast to the type of self.

Returns:

  • (nil)


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# File 'ext/numo/narray/types/scomplex.c', line 1554

static VALUE
scomplex_coerce_cast(VALUE self, VALUE type)
{
    return Qnil;
}

#conjNumo::SComplex Also known as: conjugate

Unary conj.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2702

static VALUE
scomplex_conj(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_conj, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#copysign(other) ⇒ Numo::NArray

Binary copysign.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3593

static VALUE
scomplex_copysign(VALUE self, VALUE other)
{
    
#line 48 "gen/tmpl/binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_copysign_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, id_copysign, 1, other);
    }
    
}

#cumprod(axis: nil, nan: false) ⇒ Numo::SComplex

cumprod of self.

Parameters:

  • axis (Numeric, Array, Range)

    Affected dimensions.

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN if exists).

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4337

static VALUE
scomplex_cumprod(int argc, VALUE *argv, VALUE self)
{
    VALUE reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = { iter_scomplex_cumprod, STRIDE_LOOP|NDF_FLAT_REDUCE|NDF_CUM,
                     2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_cumprod_nan);
  
#line 48 "gen/tmpl/cum.c"
    return na_ndloop(&ndf, 2, self, reduce);
}

#cumsum(axis: nil, nan: false) ⇒ Numo::SComplex

cumsum of self.

Parameters:

  • axis (Numeric, Array, Range)

    Affected dimensions.

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN if exists).

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4262

static VALUE
scomplex_cumsum(int argc, VALUE *argv, VALUE self)
{
    VALUE reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = { iter_scomplex_cumsum, STRIDE_LOOP|NDF_FLAT_REDUCE|NDF_CUM,
                     2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_cumsum_nan);
  
#line 48 "gen/tmpl/cum.c"
    return na_ndloop(&ndf, 2, self, reduce);
}

#eachNumo::NArray

Calls the given block once for each element in self, passing that element as a parameter. For a block {|x| … }

Yields:

  • (x)

    x is element of NArray.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1815

static VALUE
scomplex_each(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{Qnil,0}};
    ndfunc_t ndf = {iter_scomplex_each, FULL_LOOP_NIP, 1,0, ain,0};

    na_ndloop(&ndf, 1, self);
    return self;
}

#each_with_indexNumo::NArray

Invokes the given block once for each element of self, passing that element and indices along each axis as parameters. For a block {|x,i,j,…| … }

Yields:

  • (x, i, j, ...)

    x is an element, i,j,… are multidimensional indices.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1943

static VALUE
scomplex_each_with_index(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{Qnil,0}};
    ndfunc_t ndf = {iter_scomplex_each_with_index, FULL_LOOP_NIP, 1,0, ain,0};

    na_ndloop_with_index(&ndf, 1, self);
    return self;
}

#eq(other) ⇒ Numo::Bit

Comparison eq other.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3119

static VALUE
scomplex_eq(VALUE self, VALUE other)
{
    
#line 46 "gen/tmpl/cond_binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_eq_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, id_eq, 1, other);
    }
    
}

#extractNumeric, Numo::NArray

Extract an element only if self is a dimensionless NArray. — Extract element value as Ruby Object if self is a dimensionless NArray, otherwise returns self.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 171

static VALUE
scomplex_extract(VALUE self)
{
    volatile VALUE v;
    char *ptr;
    narray_t *na;
    GetNArray(self,na);

    if (na->ndim==0) {
        ptr = na_get_pointer_for_read(self) + na_get_offset(self);
        v = m_extract(ptr);
        na_release_lock(self);
        return v;
    }
    return self;
}

#eye([element,offset]) ⇒ Numo::SComplex

Eye: Set a value to diagonal components, set 0 to non-diagonal components.

Parameters:

  • element (Numeric)

    Diagonal element to be stored. Default is 1.

  • offset (Integer)

    Diagonal offset from the main diagonal. The default is 0. k>0 for diagonals above the main diagonal, and k<0 for diagonals below the main diagonal.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4690

static VALUE
scomplex_eye(int argc, VALUE *argv, VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{OVERWRITE,2}};
    ndfunc_t ndf = {iter_scomplex_eye, NO_LOOP, 1,0, ain,0};
    ssize_t kofs;
    dtype data;
    char *g;
    int nd;
    narray_t *na;

    // check arguments
    if (argc > 2) {
        rb_raise(rb_eArgError,"too many arguments (%d for 0..2)",argc);
    } else if (argc == 2) {
        data = m_num_to_data(argv[0]);
        kofs = NUM2SSIZET(argv[1]);
    } else if (argc == 1) {
        data = m_num_to_data(argv[0]);
        kofs = 0;
    } else {
        data = m_one;
        kofs = 0;
    }

    GetNArray(self,na);
    nd = na->ndim;
    if (nd < 2) {
        rb_raise(nary_eDimensionError,"less than 2-d array");
    }

    // Diagonal offset from the main diagonal.
    if (kofs >= 0) {
        if ((size_t)(kofs) >= na->shape[nd-1]) {
            rb_raise(rb_eArgError,"invalid diagonal offset(%"SZF"d) for "
                     "last dimension size(%"SZF"d)",kofs,na->shape[nd-1]);
        }
    } else {
        if ((size_t)(-kofs) >= na->shape[nd-2]) {
            rb_raise(rb_eArgError,"invalid diagonal offset(%"SZF"d) for "
                     "last-1 dimension size(%"SZF"d)",kofs,na->shape[nd-2]);
        }
    }

    g = ALLOCA_N(char,sizeof(ssize_t)+sizeof(dtype));
    *(ssize_t*)g = kofs;
    *(dtype*)(g+sizeof(ssize_t)) = data;

    na_ndloop3(&ndf, g, 1, self);
    return self;
}

#fill(other) ⇒ Numo::SComplex

Fill elements with other.

Parameters:

  • other (Numeric)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1635

static VALUE
scomplex_fill(VALUE self, VALUE val)
{
    ndfunc_arg_in_t ain[2] = {{OVERWRITE,0},{sym_option}};
    ndfunc_t ndf = { iter_scomplex_fill, FULL_LOOP, 2, 0, ain, 0 };

    na_ndloop(&ndf, 2, self, val);
    return self;
}

#floorNumo::SComplex

Unary floor.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3301

static VALUE
scomplex_floor(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_floor, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#format(format) ⇒ Numo::RObject

Format elements into strings.

Parameters:

  • format (String)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1695

static VALUE
scomplex_format(int argc, VALUE *argv, VALUE self)
{
    VALUE fmt=Qnil;

    ndfunc_arg_in_t ain[2] = {{Qnil,0},{sym_option}};
    ndfunc_arg_out_t aout[1] = {{numo_cRObject,0}};
    ndfunc_t ndf = { iter_scomplex_format, FULL_LOOP_NIP, 2, 1, ain, aout };

    rb_scan_args(argc, argv, "01", &fmt);
    return na_ndloop(&ndf, 2, self, fmt);
}

#format_to_a(format) ⇒ Array

Format elements into strings.

Parameters:

  • format (String)

Returns:

  • (Array)

    array of formated strings.



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# File 'ext/numo/narray/types/scomplex.c', line 1746

static VALUE
scomplex_format_to_a(int argc, VALUE *argv, VALUE self)
{
    volatile VALUE fmt=Qnil;
    ndfunc_arg_in_t ain[3] = {{Qnil,0},{sym_loop_opt},{sym_option}};
    ndfunc_arg_out_t aout[1] = {{rb_cArray,0}}; // dummy?
    ndfunc_t ndf = { iter_scomplex_format_to_a, FULL_LOOP_NIP, 3, 1, ain, aout };

    rb_scan_args(argc, argv, "01", &fmt);
    return na_ndloop_cast_narray_to_rarray(&ndf, self, fmt);
}

#imNumo::SComplex

Unary im.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2763

static VALUE
scomplex_im(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_im, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#imagNumo::SFloat

imag of self.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2885

static VALUE
scomplex_imag(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_imag, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#inspectString

Returns a string containing a human-readable representation of NArray.

Returns:

  • (String)


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# File 'ext/numo/narray/types/scomplex.c', line 1773

VALUE
scomplex_inspect(VALUE ary)
{
    return na_ndloop_inspect(ary, iter_scomplex_inspect, Qnil);
}

#isfiniteNumo::Bit

Condition of isfinite.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3839

static VALUE
scomplex_isfinite(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{numo_cBit,0}};
    ndfunc_t ndf = { iter_scomplex_isfinite, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#isinfNumo::Bit

Condition of isinf.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3695

static VALUE
scomplex_isinf(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{numo_cBit,0}};
    ndfunc_t ndf = { iter_scomplex_isinf, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#isnanNumo::Bit

Condition of isnan.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3647

static VALUE
scomplex_isnan(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{numo_cBit,0}};
    ndfunc_t ndf = { iter_scomplex_isnan, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#isneginfNumo::Bit

Condition of isneginf.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3791

static VALUE
scomplex_isneginf(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{numo_cBit,0}};
    ndfunc_t ndf = { iter_scomplex_isneginf, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#isposinfNumo::Bit

Condition of isposinf.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3743

static VALUE
scomplex_isposinf(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{numo_cBit,0}};
    ndfunc_t ndf = { iter_scomplex_isposinf, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#logseq(beg, step, [base]) ⇒ Numo::SComplex

Set logarithmic sequence of numbers to self. The sequence is obtained from

base**(beg+i*step)

where i is 1-dimensional index. Applicable classes: DFloat, SFloat, DComplex, SCopmplex.

Examples:

Numo::DFloat.new(5).logseq(4,-1,2)
=> Numo::DFloat#shape=[5]
  [16, 8, 4, 2, 1]
Numo::DComplex.new(5).logseq(0,1i*Math::PI/3,Math::E)
=> Numo::DComplex#shape=[5]
  [1+7.26156e-310i, 0.5+0.866025i, -0.5+0.866025i, -1+1.22465e-16i, ...]

Parameters:

  • beg (Numeric)

    The begining of sequence.

  • step (Numeric)

    The step of sequence.

  • base (Numeric)

    The base of log space. (default=10)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4627

static VALUE
scomplex_logseq(int argc, VALUE *args, VALUE self)
{
    logseq_opt_t *g;
    VALUE vbeg, vstep, vbase;
    ndfunc_arg_in_t ain[1] = {{OVERWRITE,0}};
    ndfunc_t ndf = {iter_scomplex_logseq, FULL_LOOP, 1,0, ain,0};

    g = ALLOCA_N(logseq_opt_t,1);
    rb_scan_args(argc, args, "21", &vbeg, &vstep, &vbase);
    g->beg = m_num_to_data(vbeg);
    g->step = m_num_to_data(vstep);
    if (vbase==Qnil) {
        g->base = m_from_real(10);
    } else {
        g->base = m_num_to_data(vbase);
    }
    na_ndloop3(&ndf, g, 1, self);
    return self;
}

#mapNumo::SComplex

Unary map.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1876

static VALUE
scomplex_map(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_map, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#map_with_indexNumo::NArray

Invokes the given block once for each element of self, passing that element and indices along each axis as parameters. Creates a new NArray containing the values returned by the block. Inplace option is allowed, i.e., `nary.inplace.map` overwrites `nary`.

For a block {|x,i,j,…| … }

Yields:

  • (x, i, j, ...)

    x is an element, i,j,… are multidimensional indices.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2040

static VALUE
scomplex_map_with_index(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{Qnil,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_map_with_index, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop_with_index(&ndf, 1, self);
}

#mean(axis: nil, keepdims: false, nan: false) ⇒ Numo::SComplex

mean of self.

Parameters:

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN for sum/mean etc, or, return NaN for min/max etc).

  • axis (Numeric, Array, Range)

    (keyword) Affected dimensions.

  • keepdims (TrueClass)

    (keyword) If true, the reduced axes are left in the result array as dimensions with size one.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4007

static VALUE
scomplex_mean(int argc, VALUE *argv, VALUE self)
{
    VALUE v, reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = { iter_scomplex_mean, STRIDE_LOOP_NIP|NDF_FLAT_REDUCE, 2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_mean_nan);
  
#line 42 "gen/tmpl/accum.c"
    v =  na_ndloop(&ndf, 2, self, reduce);
  
    return scomplex_extract(v);
  
#line 48 "gen/tmpl/accum.c"
}

#mulsum(other, axis: nil, keepdims: false, nan: false) ⇒ Numo::NArray

Binary mulsum.

Parameters:

  • other (Numo::NArray, Numeric)
  • axis (Numeric, Array, Range)

    (keyword) Affected dimensions.

  • keepdims (TrueClass)

    (keyword) If true, the reduced axes are left in the result array as dimensions with size one.

  • nan (TrueClass)

    (keyword) If true, apply NaN-aware algorithm (avoid NaN if exists).

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4455

static VALUE
scomplex_mulsum(int argc, VALUE *argv, VALUE self)
{
    
    VALUE klass, v;
    
    if (argc < 1) {
        rb_raise(rb_eArgError,"wrong number of arguments (%d for >=1)",argc);
    }
    
#line 88 "gen/tmpl/accum_binary.c"
    klass = na_upcast(CLASS_OF(self),CLASS_OF(argv[0]));
    if (klass==cT) {
        return scomplex_mulsum_self(argc, argv, self);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall2(v, rb_intern("mulsum"), argc, argv);
    }
    
}

#ne(other) ⇒ Numo::Bit

Comparison ne other.

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3176

static VALUE
scomplex_ne(VALUE self, VALUE other)
{
    
#line 46 "gen/tmpl/cond_binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_ne_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, id_ne, 1, other);
    }
    
}

#nearly_eq(other) ⇒ Numo::Bit Also known as: close_to

Comparison nearly_eq other.

Parameters:

Returns:

  • (Numo::Bit)

    result of self nearly_eq other.



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# File 'ext/numo/narray/types/scomplex.c', line 3233

static VALUE
scomplex_nearly_eq(VALUE self, VALUE other)
{
    
#line 46 "gen/tmpl/cond_binary.c"
    VALUE klass, v;
    klass = na_upcast(CLASS_OF(self),CLASS_OF(other));
    if (klass==cT) {
        return scomplex_nearly_eq_self(self, other);
    } else {
        v = rb_funcall(klass, id_cast, 1, self);
        return rb_funcall(v, id_nearly_eq, 1, other);
    }
    
}

#poly(a0, a1, ...) ⇒ Numo::SComplex

Polynomial.: a0 + a1*x + a2*x**2 + a3*x**3 + … + an*x**n

Parameters:

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4966

static VALUE
scomplex_poly(VALUE self, VALUE args)
{
    int argc, i;
    VALUE *argv;
    volatile VALUE v, a;
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = { iter_scomplex_poly, NO_LOOP, 0, 1, 0, aout };

    argc = RARRAY_LEN(args);
    ndf.nin = argc+1;
    ndf.ain = ALLOCA_N(ndfunc_arg_in_t,argc+1);
    for (i=0; i<argc+1; i++) {
        ndf.ain[i].type = cT;
    }
    argv = ALLOCA_N(VALUE,argc+1);
    argv[0] = self;
    for (i=0; i<argc; i++) {
        argv[i+1] = RARRAY_PTR(args)[i];
    }
    a = rb_ary_new4(argc+1, argv);
    v = na_ndloop2(&ndf, a);
    return scomplex_extract(v);
}

#prod(axis: nil, keepdims: false, nan: false) ⇒ Numo::SComplex

prod of self.

Parameters:

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN for sum/mean etc, or, return NaN for min/max etc).

  • axis (Numeric, Array, Range)

    (keyword) Affected dimensions.

  • keepdims (TrueClass)

    (keyword) If true, the reduced axes are left in the result array as dimensions with size one.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3948

static VALUE
scomplex_prod(int argc, VALUE *argv, VALUE self)
{
    VALUE v, reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = { iter_scomplex_prod, STRIDE_LOOP_NIP|NDF_FLAT_REDUCE, 2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_prod_nan);
  
#line 42 "gen/tmpl/accum.c"
    v =  na_ndloop(&ndf, 2, self, reduce);
  
    return scomplex_extract(v);
  
#line 48 "gen/tmpl/accum.c"
}

#rand([[low],high]) ⇒ Numo::SComplex

Generate uniformly distributed random numbers on self narray.

Examples:

Numo::DFloat.new(6).rand
=> Numo::DFloat#shape=[6]
   [0.0617545, 0.373067, 0.794815, 0.201042, 0.116041, 0.344032]
Numo::DComplex.new(6).rand(5+5i)
=> Numo::DComplex#shape=[6]
   [2.69974+3.68908i, 0.825443+0.254414i, 0.540323+0.34354i, 4.52061+2.39322i, ...]
Numo::Int32.new(6).rand(2,5)
=> Numo::Int32#shape=[6]
   [4, 3, 3, 2, 4, 2]

Parameters:

  • low (Numeric)

    lower inclusive boundary of random numbers. (default=0)

  • high (Numeric)

    upper exclusive boundary of random numbers. (default=1 or 1+1i for complex types)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4804

static VALUE
scomplex_rand(int argc, VALUE *args, VALUE self)
{
    rand_opt_t g;
    VALUE v1=Qnil, v2=Qnil;
    dtype high;
    ndfunc_arg_in_t ain[1] = {{OVERWRITE,0}};
    ndfunc_t ndf = {iter_scomplex_rand, FULL_LOOP, 1,0, ain,0};

    
#line 140 "gen/tmpl/rand.c"
    rb_scan_args(argc, args, "02", &v1, &v2);
    if (v2==Qnil) {
        g.low = m_zero;
        if (v1==Qnil) {
            
            g.max = high = c_new(1,1);
            
#line 149 "gen/tmpl/rand.c"
        } else {
            g.max = high = m_num_to_data(v1);
        }
    
    } else {
        g.low = m_num_to_data(v1);
        high = m_num_to_data(v2);
        g.max = m_sub(high,g.low);
    }
    
#line 163 "gen/tmpl/rand.c"
    na_ndloop3(&ndf, &g, 1, self);
    return self;
}

#rand_norm([mu,[sigma]]) ⇒ Numo::SComplex

Generates random numbers from the normal distribution on self narray using Box-Muller Transformation.

Examples:

Numo::DFloat.new(5,5).rand_norm
=> Numo::DFloat#shape=[5,5]
   [[-0.581255, -0.168354, 0.586895, -0.595142, -0.802802],
    [-0.326106, 0.282922, 1.68427, 0.918499, -0.0485384],
    [-0.464453, -0.992194, 0.413794, -0.60717, -0.699695],
    [-1.64168, 0.48676, -0.875871, -1.43275, 0.812172],
    [-0.209975, -0.103612, -0.878617, -1.42495, 1.0968]]
Numo::DFloat.new(5,5).rand_norm(10,0.1)
=> Numo::DFloat#shape=[5,5]
   [[9.9019, 9.90339, 10.0826, 9.98384, 9.72861],
    [9.81507, 10.0272, 9.91445, 10.0568, 9.88923],
    [10.0234, 9.97874, 9.96011, 9.9006, 9.99964],
    [10.0186, 9.94598, 9.92236, 9.99811, 9.97003],
    [9.79266, 9.95044, 9.95212, 9.93692, 10.2027]]
Numo::DComplex.new(3,3).rand_norm(5+5i)
=> Numo::DComplex#shape=[3,3]
   [[5.84303+4.40052i, 4.00984+6.08982i, 5.10979+5.13215i],
    [4.26477+3.99655i, 4.90052+5.00763i, 4.46607+2.3444i],
    [4.5528+7.11003i, 5.62117+6.69094i, 5.05443+5.35133i]]

Parameters:

  • mu (Numeric)

    mean of normal distribution. (default=0)

  • sigma (Numeric)

    standard deviation of normal distribution. (default=1)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4915

static VALUE
scomplex_rand_norm(int argc, VALUE *args, VALUE self)
{
    int n;
    randn_opt_t g;
    VALUE v1=Qnil, v2=Qnil;
    ndfunc_arg_in_t ain[1] = {{OVERWRITE,0}};
    ndfunc_t ndf = {iter_scomplex_rand_norm, FULL_LOOP, 1,0, ain,0};

    n = rb_scan_args(argc, args, "02", &v1, &v2);
    if (n == 0) {
        g.mu = m_zero;
    } else {
        g.mu = m_num_to_data(v1);
    }
    if (n == 2) {
        g.sigma = NUM2DBL(v2);
    } else {
        g.sigma = 1;
    }
    na_ndloop3(&ndf, &g, 1, self);
    return self;
}

#realNumo::SFloat

real of self.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2824

static VALUE
scomplex_real(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_real, FULL_LOOP, 1, 1, ain, aout };

    return na_ndloop(&ndf, 1, self);
}

#reciprocalNumo::SComplex

Unary reciprocal.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2519

static VALUE
scomplex_reciprocal(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_reciprocal, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#rintNumo::SComplex

Unary rint.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3545

static VALUE
scomplex_rint(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_rint, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#rms(axis: nil, keepdims: false, nan: false) ⇒ Numo::SComplex

rms of self.

Parameters:

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN for sum/mean etc, or, return NaN for min/max etc).

  • axis (Numeric, Array, Range)

    (keyword) Affected dimensions.

  • keepdims (TrueClass)

    (keyword) If true, the reduced axes are left in the result array as dimensions with size one.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4184

static VALUE
scomplex_rms(int argc, VALUE *argv, VALUE self)
{
    VALUE v, reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_rms, STRIDE_LOOP_NIP|NDF_FLAT_REDUCE, 2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_rms_nan);
  
#line 42 "gen/tmpl/accum.c"
    v =  na_ndloop(&ndf, 2, self, reduce);
  
#line 46 "gen/tmpl/accum.c"
    return rb_funcall(v,rb_intern("extract"),0);
  
}

#roundNumo::SComplex

Unary round.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3362

static VALUE
scomplex_round(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_round, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#seq([beg,[step]]) ⇒ Numo::SComplex Also known as: indgen

Set linear sequence of numbers to self. The sequence is obtained from

beg+i*step

where i is 1-dimensional index.

Examples:

Numo::DFloat.new(6).seq(1,-0.2)
=> Numo::DFloat#shape=[6]
   [1, 0.8, 0.6, 0.4, 0.2, 0]
Numo::DComplex.new(6).seq(1,-0.2+0.2i)
=> Numo::DComplex#shape=[6]
   [1+0i, 0.8+0.2i, 0.6+0.4i, 0.4+0.6i, 0.2+0.8i, 0+1i]

Parameters:

  • beg (Numeric)

    begining of sequence. (default=0)

  • step (Numeric)

    step of sequence. (default=1)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4541

static VALUE
scomplex_seq(int argc, VALUE *args, VALUE self)
{
    seq_opt_t *g;
    VALUE vbeg=Qnil, vstep=Qnil;
    ndfunc_arg_in_t ain[1] = {{OVERWRITE,0}};
    ndfunc_t ndf = {iter_scomplex_seq, FULL_LOOP, 1,0, ain,0};

    g = ALLOCA_N(seq_opt_t,1);
    g->beg = m_zero;
    g->step = m_one;
    g->count = 0;
    rb_scan_args(argc, args, "02", &vbeg, &vstep);
#line 86 "gen/tmpl/seq.c"
    if (vbeg!=Qnil) {g->beg = m_num_to_data(vbeg);}
    if (vstep!=Qnil) {g->step = m_num_to_data(vstep);}

#line 90 "gen/tmpl/seq.c"
    na_ndloop3(&ndf, g, 1, self);
    return self;
}

#set_imag(a1) ⇒ Object Also known as: imag=



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# File 'ext/numo/narray/types/scomplex.c', line 3006

static VALUE
scomplex_set_imag(VALUE self, VALUE a1)
{
    ndfunc_arg_in_t ain[2] = {{OVERWRITE,0},{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_set_imag, FULL_LOOP, 2, 0, ain, 0 };

    na_ndloop(&ndf, 2, self, a1);
    return a1;
}

#set_real(a1) ⇒ Object Also known as: real=



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# File 'ext/numo/narray/types/scomplex.c', line 3065

static VALUE
scomplex_set_real(VALUE self, VALUE a1)
{
    ndfunc_arg_in_t ain[2] = {{OVERWRITE,0},{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_set_real, FULL_LOOP, 2, 0, ain, 0 };

    na_ndloop(&ndf, 2, self, a1);
    return a1;
}

#signNumo::SComplex

Unary sign.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2580

static VALUE
scomplex_sign(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_sign, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#squareNumo::SComplex

Unary square.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 2641

static VALUE
scomplex_square(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_square, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#stddev(axis: nil, keepdims: false, nan: false) ⇒ Numo::SComplex

stddev of self.

Parameters:

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN for sum/mean etc, or, return NaN for min/max etc).

  • axis (Numeric, Array, Range)

    (keyword) Affected dimensions.

  • keepdims (TrueClass)

    (keyword) If true, the reduced axes are left in the result array as dimensions with size one.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4066

static VALUE
scomplex_stddev(int argc, VALUE *argv, VALUE self)
{
    VALUE v, reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_stddev, STRIDE_LOOP_NIP|NDF_FLAT_REDUCE, 2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_stddev_nan);
  
#line 42 "gen/tmpl/accum.c"
    v =  na_ndloop(&ndf, 2, self, reduce);
  
#line 46 "gen/tmpl/accum.c"
    return rb_funcall(v,rb_intern("extract"),0);
  
}

#store(other) ⇒ Numo::SComplex

Store elements to Numo::SComplex from other.

Parameters:

  • other (Object)

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 1115

static VALUE
scomplex_store(VALUE self, VALUE obj)
{
    VALUE r, klass;

    klass = CLASS_OF(obj);

    
    if (klass==numo_cSComplex) {
        scomplex_store_scomplex(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (IS_INTEGER_CLASS(klass) || klass==rb_cFloat || klass==rb_cComplex) {
        scomplex_store_numeric(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cBit) {
        scomplex_store_bit(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cDComplex) {
        scomplex_store_dcomplex(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cDFloat) {
        scomplex_store_dfloat(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cSFloat) {
        scomplex_store_sfloat(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cInt64) {
        scomplex_store_int64(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cInt32) {
        scomplex_store_int32(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cInt16) {
        scomplex_store_int16(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cInt8) {
        scomplex_store_int8(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cUInt64) {
        scomplex_store_uint64(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cUInt32) {
        scomplex_store_uint32(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cUInt16) {
        scomplex_store_uint16(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cUInt8) {
        scomplex_store_uint8(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==numo_cRObject) {
        scomplex_store_robject(self,obj);
        return self;
    }
    
#line 19 "gen/tmpl/store.c"
    if (klass==rb_cArray) {
        scomplex_store_array(self,obj);
        return self;
    }
    

    if (IsNArray(obj)) {
        r = rb_funcall(obj, rb_intern("coerce_cast"), 1, cT);
        if (CLASS_OF(r)==cT) {
            scomplex_store(self,r);
            return self;
        }
    }

    
#line 36 "gen/tmpl/store.c"
    rb_raise(nary_eCastError, "unknown conversion from %s to %s",
             rb_class2name(CLASS_OF(obj)),
             rb_class2name(CLASS_OF(self)));
    
    return self;
}

#sum(axis: nil, keepdims: false, nan: false) ⇒ Numo::SComplex

sum of self.

Parameters:

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN for sum/mean etc, or, return NaN for min/max etc).

  • axis (Numeric, Array, Range)

    (keyword) Affected dimensions.

  • keepdims (TrueClass)

    (keyword) If true, the reduced axes are left in the result array as dimensions with size one.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3889

static VALUE
scomplex_sum(int argc, VALUE *argv, VALUE self)
{
    VALUE v, reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = { iter_scomplex_sum, STRIDE_LOOP_NIP|NDF_FLAT_REDUCE, 2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_sum_nan);
  
#line 42 "gen/tmpl/accum.c"
    v =  na_ndloop(&ndf, 2, self, reduce);
  
    return scomplex_extract(v);
  
#line 48 "gen/tmpl/accum.c"
}

#to_aArray

Convert self to Array.

Returns:

  • (Array)


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# File 'ext/numo/narray/types/scomplex.c', line 1595

static VALUE
scomplex_to_a(VALUE self)
{
    ndfunc_arg_in_t ain[3] = {{Qnil,0},{sym_loop_opt},{sym_option}};
    ndfunc_arg_out_t aout[1] = {{rb_cArray,0}}; // dummy?
    ndfunc_t ndf = { iter_scomplex_to_a, FULL_LOOP_NIP, 3, 1, ain, aout };
    return na_ndloop_cast_narray_to_rarray(&ndf, self, Qnil);
}

#truncNumo::SComplex

Unary trunc.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 3484

static VALUE
scomplex_trunc(VALUE self)
{
    ndfunc_arg_in_t ain[1] = {{cT,0}};
    ndfunc_arg_out_t aout[1] = {{cT,0}};
    ndfunc_t ndf = {iter_scomplex_trunc, FULL_LOOP, 1,1, ain,aout};

    return na_ndloop(&ndf, 1, self);
}

#var(axis: nil, keepdims: false, nan: false) ⇒ Numo::SComplex

var of self.

Parameters:

  • nan (TrueClass)

    If true, apply NaN-aware algorithm (avoid NaN for sum/mean etc, or, return NaN for min/max etc).

  • axis (Numeric, Array, Range)

    (keyword) Affected dimensions.

  • keepdims (TrueClass)

    (keyword) If true, the reduced axes are left in the result array as dimensions with size one.

Returns:



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# File 'ext/numo/narray/types/scomplex.c', line 4125

static VALUE
scomplex_var(int argc, VALUE *argv, VALUE self)
{
    VALUE v, reduce;
    ndfunc_arg_in_t ain[2] = {{cT,0},{sym_reduce,0}};
    ndfunc_arg_out_t aout[1] = {{cRT,0}};
    ndfunc_t ndf = { iter_scomplex_var, STRIDE_LOOP_NIP|NDF_FLAT_REDUCE, 2, 1, ain, aout };

  
    reduce = na_reduce_dimension(argc, argv, 1, &self, &ndf, iter_scomplex_var_nan);
  
#line 42 "gen/tmpl/accum.c"
    v =  na_ndloop(&ndf, 2, self, reduce);
  
#line 46 "gen/tmpl/accum.c"
    return rb_funcall(v,rb_intern("extract"),0);
  
}