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DataMuseum.dkPresents historical artifacts from the history of: Rational R1000/400 Tapes |
This is an automatic "excavation" of a thematic subset of
See our Wiki for more about Rational R1000/400 Tapes Excavated with: AutoArchaeologist - Free & Open Source Software. |
top - metrics - downloadIndex: B T
Length: 25557 (0x63d5)
Types: TextFile
Names: »B«
└─⟦149519bd4⟧ Bits:30000546 8mm tape, Rational 1000, !projects 93-07-13
└─⟦124ff5788⟧ »DATA«
└─⟦this⟧
└─⟦a7d1ea751⟧ Bits:30000550 8mm tape, Rational 1000, !users!projects 94_04_11
└─⟦129cab021⟧ »DATA«
└─⟦this⟧
└─⟦f64eaa120⟧ Bits:30000752 8mm tape, Rational 1000, !projects 93 02 16
└─⟦6f12a12be⟧ »DATA«
└─⟦this⟧
└─⟦2f6cfab89⟧ Bits:30000547 8mm tape, Rational 1000, !projects 94-01-04
└─⟦d65440be7⟧ »DATA«
└─⟦this⟧
separate (Expertsystem)
package body Tuplecollection is
function Getref (C : Collection.Object; Number : Positive := 1)
return Expertsystem.Reference renames Collection.Get;
function Card (C : Collection.Object) return Natural
renames Collection.Cardinality;
function Get (Thetuplecollection : Tuplecollection.Object;
Number : Positive := 1) return Expertsystem.Reference is
begin
if Number > Thetuplecollection.Count then
return Nullreference;
else
return Thetuplecollection.Cells (Number);
end if;
end Get;
function Isfull (Thetuplecollection : Tuplecollection.Object)
return Boolean is
begin
return Thetuplecollection.Count >= Thetuplecollection.Size;
end Isfull;
procedure Add (Thetuplecollection : in out Tuplecollection.Object;
Aref : Expertsystem.Reference) is
begin
if Isfull (Thetuplecollection) then
declare
Bigtuplecoll : Tuplecollection.Object
(Thetuplecollection.Size +
Thetuplecollection.Size / 2);
begin
Bigtuplecoll.Cells (1 .. Thetuplecollection.Size) :=
Thetuplecollection.Cells (1 .. Thetuplecollection.Size);
Bigtuplecoll.Count := Thetuplecollection.Count;
Bigtuplecoll.Unity := Thetuplecollection.Unity;
Thetuplecollection := Bigtuplecoll;
end;
end if;
Thetuplecollection.Count := Thetuplecollection.Count + 1;
Thetuplecollection.Cells (Thetuplecollection.Count) := Aref;
end Add;
procedure Merge (Thetuplecollection : in out Tuplecollection.Object;
R1 : Expertsystem.Reference := Nullreference;
R2 : Expertsystem.Reference := Nullreference;
R3 : Expertsystem.Reference := Nullreference;
R4 : Expertsystem.Reference := Nullreference;
R5 : Expertsystem.Reference := Nullreference;
R6 : Expertsystem.Reference := Nullreference;
R7 : Expertsystem.Reference := Nullreference;
R8 : Expertsystem.Reference := Nullreference;
R9 : Expertsystem.Reference := Nullreference;
R10 : Expertsystem.Reference := Nullreference) is
begin
if R1 /= Nullreference then
Add (Thetuplecollection, R1);
end if;
if R2 /= Nullreference then
Add (Thetuplecollection, R2);
end if;
if R3 /= Nullreference then
Add (Thetuplecollection, R3);
end if;
if R4 /= Nullreference then
Add (Thetuplecollection, R4);
end if;
if R4 /= Nullreference then
Add (Thetuplecollection, R4);
end if;
if R5 /= Nullreference then
Add (Thetuplecollection, R5);
end if;
if R6 /= Nullreference then
Add (Thetuplecollection, R6);
end if;
if R7 /= Nullreference then
Add (Thetuplecollection, R7);
end if;
if R8 /= Nullreference then
Add (Thetuplecollection, R8);
end if;
if R9 /= Nullreference then
Add (Thetuplecollection, R9);
end if;
if R10 /= Nullreference then
Add (Thetuplecollection, R10);
end if;
end Merge;
function Cardinality
(Thetuplecollection : Tuplecollection.Object) return Natural is
begin
return Thetuplecollection.Count / Thetuplecollection.Unity;
end Cardinality;
function Isnull (Thetuplecollection : Tuplecollection.Object)
return Boolean is
begin
return Thetuplecollection.Count = 0;
end Isnull;
function Isnotnull
(Thetuplecollection : Tuplecollection.Object) return Boolean is
begin
return Thetuplecollection.Count /= 0;
end Isnotnull;
function Join1 (C1 : Collection.Object; Quantity : Natural := 1)
return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 1;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
if Match (R1) then
Merge (Thetuplecollection, R1);
if (Quantity /= Any) and then
(Thetuplecollection.Count / Thetuplecollection.Unity >=
Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
return Thetuplecollection;
end Join1;
function Join2 (C1, C2 : Collection.Object; Quantity : Natural := 1)
return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 2;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
if Match (R1, R2) then
Merge (Thetuplecollection, R1, R2);
if (Quantity /= Any) and then
(Thetuplecollection.Count / Thetuplecollection.Unity >=
Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
return Thetuplecollection;
end Join2;
function Join3 (C1, C2, C3 : Collection.Object; Quantity : Natural := 1)
return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 3;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
if Match (R1, R2, R3) then
Merge (Thetuplecollection, R1, R2, R3);
if (Quantity /= Any) and then
(Thetuplecollection.Count /
Thetuplecollection.Unity >= Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join3;
function Join4 (C1, C2, C3, C4 : Collection.Object; Quantity : Natural := 1)
return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3, R4 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 4;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
for L in 1 .. Card (C4) loop
R4 := Getref (C4, L);
if Match (R1, R2, R3, R4) then
Merge (Thetuplecollection, R1, R2, R3, R4);
if (Quantity /= Any) and then
(Thetuplecollection.Count /
Thetuplecollection.Unity >= Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join4;
function Join5 (C1, C2, C3, C4, C5 : Collection.Object;
Quantity : Natural := 1) return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3, R4, R5 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 5;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
for L in 1 .. Card (C4) loop
R4 := Getref (C4, L);
for M in 1 .. Card (C5) loop
R5 := Getref (C5, M);
if Match (R1, R2, R3, R4, R5) then
Merge (Thetuplecollection, R1, R2, R3, R4, R5);
if (Quantity /= Any) and then
(Thetuplecollection.Count /
Thetuplecollection.Unity >= Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join5;
function Join6 (C1, C2, C3, C4, C5, C6 : Collection.Object;
Quantity : Natural := 1) return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3, R4, R5, R6 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 6;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
for L in 1 .. Card (C4) loop
R4 := Getref (C4, L);
for M in 1 .. Card (C5) loop
R5 := Getref (C5, M);
for N in 1 .. Card (C6) loop
R6 := Getref (C6, N);
if Match (R1, R2, R3, R4, R5, R6) then
Merge (Thetuplecollection, R1,
R2, R3, R4, R5, R6);
if (Quantity /= Any) and then
(Thetuplecollection.Count /
Thetuplecollection.Unity >=
Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join6;
function Join7 (C1, C2, C3, C4, C5, C6, C7 : Collection.Object;
Quantity : Natural := 1) return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3, R4, R5, R6, R7 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 7;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
for L in 1 .. Card (C4) loop
R4 := Getref (C4, L);
for M in 1 .. Card (C5) loop
R5 := Getref (C5, M);
for N in 1 .. Card (C6) loop
R6 := Getref (C6, N);
for P in 1 .. Card (C7) loop
R7 := Getref (C7, P);
if Match (R1, R2, R3, R4, R5, R6, R7) then
Merge (Thetuplecollection, R1,
R2, R3, R4, R5, R6, R7);
if (Quantity /= Any) and then
(Thetuplecollection.Count /
Thetuplecollection.Unity >=
Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join7;
function Join8 (C1, C2, C3, C4, C5, C6, C7, C8 : Collection.Object;
Quantity : Natural := 1) return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3, R4, R5, R6, R7, R8 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 8;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
for L in 1 .. Card (C4) loop
R4 := Getref (C4, L);
for M in 1 .. Card (C5) loop
R5 := Getref (C5, M);
for N in 1 .. Card (C6) loop
R6 := Getref (C6, N);
for P in 1 .. Card (C7) loop
R7 := Getref (C7, P);
for Q in 1 .. Card (C8) loop
R8 := Getref (C8, Q);
if Match (R1, R2, R3, R4, R5,
R6, R7, R8) then
Merge (Thetuplecollection, R1, R2,
R3, R4, R5, R6, R7, R8);
if (Quantity /= Any) and then
(Thetuplecollection.Count /
Thetuplecollection.Unity >=
Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join8;
function Join9 (C1, C2, C3, C4, C5, C6, C7, C8, C9 : Collection.Object;
Quantity : Natural := 1) return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3, R4, R5, R6, R7, R8, R9 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 9;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
for L in 1 .. Card (C4) loop
R4 := Getref (C4, L);
for M in 1 .. Card (C5) loop
R5 := Getref (C5, M);
for N in 1 .. Card (C6) loop
R6 := Getref (C6, N);
for P in 1 .. Card (C7) loop
R7 := Getref (C7, P);
for Q in 1 .. Card (C8) loop
R8 := Getref (C8, Q);
for R in 1 .. Card (C9) loop
R9 := Getref (C9, R);
if Match (R1, R2, R3, R4, R5,
R6, R7, R8, R9) then
Merge (Thetuplecollection, R1, R2, R3, R4, R5, R6, R7, R8, R9);
if (Quantity /= Any) and then
(Thetuplecollection.Count / Thetuplecollection.Unity >=
Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join9;
function Join10 (C1, C2, C3, C4, C5, C6, C7, C8, C9, C10 :
Collection.Object;
Quantity : Natural := 1) return Tuplecollection.Object is
Thetuplecollection : Tuplecollection.Object;
R1, R2, R3, R4, R5, R6, R7, R8, R9, R10 : Expertsystem.Reference;
begin
Thetuplecollection.Count := 0;
Thetuplecollection.Unity := 10;
for I in 1 .. Card (C1) loop
R1 := Getref (C1, I);
for J in 1 .. Card (C2) loop
R2 := Getref (C2, J);
for K in 1 .. Card (C3) loop
R3 := Getref (C3, K);
for L in 1 .. Card (C4) loop
R4 := Getref (C4, L);
for M in 1 .. Card (C5) loop
R5 := Getref (C5, M);
for N in 1 .. Card (C6) loop
R6 := Getref (C6, N);
for P in 1 .. Card (C7) loop
R7 := Getref (C7, P);
for Q in 1 .. Card (C8) loop
R8 := Getref (C8, Q);
for R in 1 .. Card (C9) loop
R9 := Getref (C9, R);
for S in 1 .. Card (C10) loop
R10 := Getref (C10, S);
if Match (R1, R2, R3, R4, R5, R6, R7, R8, R9, R10) then
Merge (Thetuplecollection, R1, R2, R3,
R4, R5, R6, R7, R8, R9, R10);
if (Quantity /= Any) and then
(Thetuplecollection.Count / Thetuplecollection.Unity >=
Quantity) then
return Thetuplecollection;
end if;
end if;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
end loop;
return Thetuplecollection;
end Join10;
function Themost (Thetuplecollection : Object) return Tuple.Object is
Tu, Ti : Tuple.Object;
begin
if Thetuplecollection.Count /= 0 then
Tu := First (Thetuplecollection);
for I in 2 .. Thetuplecollection.Count /
Thetuplecollection.Unity loop
Ti := Get (Thetuplecollection, I);
if not Predicate (Tu, Ti) then
Tu := Ti;
end if;
end loop;
end if;
return Tu;
end Themost;
function Restrict (Thetuplecollection : Tuplecollection.Object;
Quantity : Natural := Any)
return Tuplecollection.Object is
Result : Tuplecollection.Object;
Ti : Tuple.Object;
begin
if Thetuplecollection.Count /= 0 then
Result.Unity := Thetuplecollection.Unity;
for I in 1 .. Thetuplecollection.Count /
Thetuplecollection.Unity loop
Ti := Get (Thetuplecollection, I);
if Predicate (Ti) then
for J in 1 .. Thetuplecollection.Unity loop
Add (Result, Tuple.Get (Ti, J));
end loop;
if (Quantity /= Any) and then
(Result.Count / Result.Unity >= Quantity) then
return Result;
end if;
end if;
end loop;
end if;
return Result;
end Restrict;
function Findone (Thetuplecollection : Tuplecollection.Object)
return Tuple.Object is
T : Tuple.Object;
begin
if Thetuplecollection.Count /= 0 then
for I in 1 .. Thetuplecollection.Count /
Thetuplecollection.Unity loop
T := Get (Thetuplecollection, I);
if Predicate (T) then
return T;
end if;
end loop;
end if;
return T;
end Findone;
function Get (Thetuplecollection : Tuplecollection.Object;
Number : Positive := 1) return Tuple.Object is
Tu : Tuple.Object;
begin
if Number <= Thetuplecollection.Count / Thetuplecollection.Unity then
for I in 1 .. Thetuplecollection.Unity loop
Tuple.Add (Tu,
Get (Thetuplecollection,
(Number - 1) * Thetuplecollection.Unity + I));
end loop;
end if;
return Tu;
end Get;
function First (Thetuplecollection : Tuplecollection.Object)
return Tuple.Object is
begin
return Get (Thetuplecollection, 1);
end First;
function Get (Thetuplecollection : Tuplecollection.Object;
Frompos : Positive := 1;
Topos : Positive)
return Tuplecollection.Object is
Tuc : Tuplecollection.Object;
Bornefrom : Natural;
Borneto : Natural;
begin
if Topos > Thetuplecollection.Count / Thetuplecollection.Unity then
Borneto := Thetuplecollection.Count / Thetuplecollection.Unity;
else
Borneto := Topos;
end if;
if Frompos < Thetuplecollection.Cells'First then
Bornefrom := Thetuplecollection.Cells'First;
else
Bornefrom := Frompos;
end if;
Tuc.Unity := Thetuplecollection.Unity;
for I in Bornefrom .. Thetuplecollection.Unity * Borneto loop
Add (Tuc, Get (Thetuplecollection, I));
end loop;
return Tuc;
end Get;
procedure Forall (Thetuplecollection : Tuplecollection.Object) is
begin
for I in 1 .. Thetuplecollection.Count / Thetuplecollection.Unity loop
declare
Tu : Tuple.Object;
begin
for J in 1 .. Thetuplecollection.Unity loop
Tuple.Add (Tu, Get
(Thetuplecollection,
(I - 1) * Thetuplecollection.Unity + J));
end loop;
Action (Tu);
end;
end loop;
end Forall;
package body Iterator is
function Open (Thetuplecollection : Tuplecollection.Object)
return Iter is
begin
if Thetuplecollection.Count = 0 then
return 0;
else
return 1;
end if;
end Open;
function Get (Thetuplecollection : Tuplecollection.Object; I : Iter)
return Tuple.Object is
begin
if I > Iter (Thetuplecollection.Count /
Thetuplecollection.Unity) then
raise Illegalaccess;
end if;
return Get (Thetuplecollection, Positive (I));
exception
when Constraint_Error =>
raise Illegalaccess;
end Get;
function Next (Thetuplecollection : Tuplecollection.Object; I : Iter)
return Iter is
Idx : Integer;
begin
Idx := Integer (I) + 1;
if Idx > Thetuplecollection.Count / Thetuplecollection.Unity then
return 0;
else
return Iter (Idx);
end if;
exception
when Constraint_Error =>
raise Illegalaccess;
end Next;
function Atend (Thetuplecollection : Tuplecollection.Object; I : Iter)
return Boolean is
begin
return I = 0;
end Atend;
end Iterator;
end Tuplecollection;