1. A magazine loader for loading cartridges into a magazine comprising:
a body having an elongated bar shape with a top wall and four subtending side walls with an elongated open top channel formed in said top wall as a recessed portion relative to the plane of said top wall;
a first portion of said recessed portion is an open top cartridge channel with a longitudinal bottom wall, two opposed upstanding longitudinal side walls, and two opposed generally horizontal flanges spaced apart from said bottom wall that extend the length of said side walls;
a first side wall and a first flange of said two side walls and said two flanges are structured to form a first groove with said bottom wall sized to receive a cylinder casing of a cartridge on an end portion thereof, and a second side wall and a second flange are structured to form a second groove with said bottom wall sized to receive a bullet of said cartridge on an end portion thereof;
a second portion of said recessed portion is an open top magazine cavity with a bottom wall and three upstanding side walls that are spaced apart to receive a designated size magazine for retention by said three side walls and a follower projecting member attached to one of said two opposed upstanding longitudinal side walls adjacent a juncture of said magazine cavity and said cartridge channel;
said follower projecting member is disposed to fit between opposed retaining clips of said designated size magazine to partially depress a follower; and
said cartridge channel at a first end has an inclined portion sloped from said top wall to said bottom wall of said cartridge channel.
2. The magazine loader as in claim 1 wherein:
a lower recess channel is formed in said bottom wall that is the length of said bottom wall; and
said magazine cavity bottom wall and said cartridge channel bottom wall have a generally rectangular aperture formed therein at an end of said lower recess channel.
3. The magazine loader as in claim 1 wherein said two horizontal flanges project outwardly from said two opposed side walls above said bottom wall of said first portion approximately one half inch.
4. The magazine loader as in claim 1 wherein said two opposed upstanding longitudinal side walls of said first portion are an elongated, parallel straight form.
5. The magazine loader as in claim 1 wherein:
two side walls of said three upstanding side walls are opposed, spaced apart, and curved;
an end wall of said three upstanding side walls is disposed between said two side walls opposed to said juncture; and
wherein said end wall has an access recess portion.
6. A method for loading cartridges into a magazine using the magazine loader as in claim 1 comprising:
attaching a strip of sticky tape material to a plurality of cartridges that are aligned side-by-side with the casings and the bullets of each of said cartridges adjacent and aligned;
moving the plurality of cartridges with the tape strip to the inclined portion of the magazine loader;
sliding the plurality of cartridges down the inclined portion of the cartridge channel to position the plurality of cartridges in the grooves in the cartridge channel; and
pulling the plurality of cartridges using the tape strip into the magazine and removing the tape strip over the top of the magazine.
7. The method as in claim 6 wherein the tape strip is applied to each casing for attachment.
8. The method as in claim 6 wherein said plurality of cartridges is disposed in rows in a body of packing material.
9. The method as in claim 6 wherein said plurality of cartridges is disposed in rows of cartridges in an ammunition container.
10. The method as in claim 8 wherein a second strip of sticky tape material is attached to said plurality of cartridges opposed to said strip of sticky tape.
11. The method as in claim 6 wherein inserting a designated size magazine against an end wall of said magazine cavity causes a friction force between said designated size magazine closed end and said end wall based on said follower spring force against said follower projecting member.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1-10. (canceled)
11. A Moineau pump or Moineau compressor comprising a conically designed inner element (4) and a conically designed outer element (8), whose longitudinal axes (X1, X2) run at an angle to one another and intersect at a point, wherein the pump or compressor includes at least two sections (2a, 2b, 2c, 2d) in the axial direction, wherein a part (4b) of the inner element (4) located in a second section (2b) is arranged rotated with respect to a part (4a) of the inner element located in a first section (2a) about the longitudinal axis (X1) of the inner element (4), and
a part (8b) of the outer element (8) located in the second section (2b) is arranged rotated with respect to a part (8a) of the outer element (8) located in the first section (2a) about the longitudinal axis (X2) of the outer element (8).
12. A Moineau pump or Moineau compressor according to claim 1, wherein the pump or compressor comprises more than two sections (2a-2d), wherein in two sections (2a, 2b) adjacent to one another the part (4b) of the inner element (4) located in the second section (2b) is arranged rotated with respect to the part (4a) of the inner element located in the first section (2a) about the longitudinal axis (X1) of the inner element.
13. A Moineau pump or Moineau compressor according to claim 1, wherein the parts (4a-4d) of the inner element (4) are rotated to one another by a different angular magnitude than the parts (8a-8d) of the outer element (8).
14. A Moineau pump or Moineau compressor according to claim 1, wherein a helical contour (6) on an outer periphery of the inner element (4) has the same pitch in all sections (2a-d) of the pump or compressor.
15. A Moineau pump or Moineau compressor according to claim 1, wherein a helical contour on an inner periphery of the outer element (8) has the same pitch in all sections (2a-2d) of the pump.
16. A Moineau pump or Moineau compressor according to claim 1, wherein the part (4b) of the inner element (4) located in the second section (2b) is rotated relative to the part (4a) of the inner element (4) located in the first section (2a) by an angle:
\u03b1
=
360
n
\xd7
m
,
and
,
the part (8b) of the outer element (8) located in the second section (2b) is rotated relative to the other part (8a) of the outer element (8) located in the first section (2a) by an angle:
\u03b1
=
360
n
\xd7
(
m
+
1
)
,
wherein \u201cn\u201d is the number of sections (2a-2d) of the pump, and \u201cm\u201d is the number of thread turns (6) of the inner element.
17. A Moineau pump or Moineau compressor according to claim 1, wherein adjacent ends of two parts (4c-4d) of the inner element (4) adjacent to one another are designed such that the largest cross-sectional area of the smaller part is situated completely within the smallest cross-sectional area of the larger part.
18. A Moineau pump or Moineau compressor according to claim 1, wherein adjacent ends of two parts (4c-4d) of the inner element (4) adjacent to one another are designed such that a maximal radius (20) at an end-side of a part (4c) situated in the second section (2c) is smaller than a minimal radius (22) at an end-side of a part (4d) situated in the first section (2d).
19. A Moineau pump or Moineau compressor according to claim 1, wherein a spacer element (18), which keeps the two parts (4b, 4c) distanced in the direction of the longitudinal axis (XI), is arranged between two adjacent parts (4b, 4c) of the inner element (4).
20. A Moineau pump or Moineau compressor according to claim 1, wherein the inner element (4) is designed as one piece over the at least two sections (2a-2d).