Compact non-electric medicament infuser

2:

• The system of claim 1 wherein said medicament syringe is coupled to a patient infusion interface, said interface including a flow regulator and terminal connector, said flow regulator adapted to influence the rate of medicament flow.

3:

• The system of claim 2 wherein a fluid control valve with at least two peripheral ports is coupled between the syringe distal port and said patient infusion interface, said valve including a generally circular cross sectional body having a recess therein with said ports along said periphery oriented in a common plane and accessing said recess;
• and a manifold hub rotatably supported within said recess, said manifold hub with fluid flow paths therein, said manifold hub rotatable to selectively connect said ports of said valve together through said fluid flow paths.

4:

• The system of claim 3 wherein said valve has at least three peripheral ports;
• a first port coupled to said medicament syringe, a second port coupled to said patient infusion interface, and a third port adapted to be used for a procedure taken from the group of procedures including:
• medicament manipulation, secondary syringe placement, medicament vial adaptor placement and medicament infusion.

5:

• The system of claim 3 wherein said valve includes four ports oriented such that each of said four ports are spaced equidistantly along said periphery and wherein said manifold hub includes at least two fluid flow paths.

6:

• The system of claim 5 wherein said at least two fluid flow paths include two nonintersecting paths with one of said nonintersecting paths passing through a center of said manifold hub and the other of said at least two nonintersecting paths spaced laterally from said first path.

7:

• The system of claim 5 wherein said manifold hub includes a central fluid flow path extending linearly through a center of said manifold hub and a pair of side leg fluid flow paths intersecting said central fluid flow path at a center thereof, each of said side leg fluid flow paths oriented perpendicular to each other and 45° from said central path.

8:

• The system of claim 1 wherein said resistance force energizer includes a spring connected to said force applicator.

9:

• The system of claim 1 wherein said resistance force energizer contains a vacuum chamber, said vacuum chamber having at least one distal atmospheric port and a sealingly slidable piston having a distal side and a proximal side, said distal side forming a proximal wall of said vacuum chamber and said proximal side exposed to the atmosphere and attached to said force applicator reciprocating arm, said distal atmospheric port having a fluid tight means for closure adapted to open and close said distal atmospheric port;
• thereby allowing gas evacuation from said vacuum chamber if the vacuum condition has been compromised.

10:

• The system of claim 1 wherein said resistance force energizer includes a compressed gas source and a sealingly slidable piston attached to said force applicator reciprocating arm, said compressed gas applying a gas pressure force on the proximal side of said slidable piston such that said force applicator is induced to move distally causing said incursion of said force applicator by said compressed gas.

11:

• The system of claim 1 wherein said force applicator is adapted to be reversibly disabled in a state storing said potential energy.

12:

• The system of claim 1 wherein said force applicator reciprocating arm is oriented to traverse through an alignment guide provided with said infusion device as said arm reciprocates, said arm having long segments thereof with a cross-section matching a corresponding cross-section of said alignment guide thereby disallowing rotation of said force applicator and short segments thereof which have a cross-sectional width less than the narrowest width of said alignment guide thereby allowing rotation of said force applicator, such that said arm can be rotated relative to said alignment guide at said short segments of said arm and not rotated relative to said alignment guide at said long segments of said arm.

13:

• The system of claim 1 wherein said force applicator reciprocating arm is oriented to traverse through an alignment guide attached to said infusion device body, said arm including a plurality of facets on portions thereof and said alignment guide is provided with facets matching and corresponding to a cross-section of said arm where said facets are located, and with a portion of said arm in the form of a neck having a circular cross-section with a diameter less than a minimum width of said alignment guide, such that when said cylindrical neck of said arm is aligned with said alignment guide, said arm can rotate freely about a long axis thereof, but with said arm only able to translate linearly through said alignment guide in some specific rotational orientations where said arm facets and said alignment guide facets are matching and corresponding.

14:

• The system of claim 1 wherein said force applicator reciprocating arm is oriented to traverse through an alignment guide provided with said infusion device as said arm reciprocates, wherein said force applicator arm includes facets thereon and with said alignment guide having facets matching and mating with a cross-section of said arm, said facets of said arm spaced apart by edges, said edges sufficiently wide to resist passage through said alignment guide when said edges are rotated out of alignment with facets of said alignment guide.

15:

• The system of claim 14 wherein said arm can be rotated to a holding position where it resists said incursion and stores said potential energy and then repositioned to a non-holding position with said facets of said arm aligned with facets of said alignment guide to allow said incursion.

16:

• The system of claim 1 wherein said driver thrust area includes a plate adapted to engage said syringe proximal terminus, said plate having a distally protruding rim around a portion of its perimeter to encompass a similar portion of said syringe proximal terminus and thereby resist lateral movement of said syringe proximal terminus at said plate.

17:

• The system of claim 1 wherein said activated force applicator is adapted to undergo said excursion along a path avoiding said engaged state and to then be rotated to align said engaged state.

18:

• The system of claim 12 wherein said force applicator arm is adapted to undergo said excursion along a said long segment path with said driver in a non rotatable but translatable first position whereas said engaged state is avoided, following which at a position of substantially full excursion said arm is adapted to be rotated at said short segment such that said driver rotates about an axis perpendicular to said excursion and into a second position adapted to allow said driver to begin said incursion and to become engaged with said syringe proximal terminus, said incursion occurring along said long segment in a non rotatable but translatable said second position, thereby disallowing any rotation of said arm during said incursion.

19:

• The infusion device of claim 1 wherein said reciprocating arm has faceted sides such that said arm exhibits a faceted cross-section perpendicular to a long axis of said arm, said arm translating through a correspondingly faceted alignment guide affixed to said body of said infusion device, said arm including at least one neck on a portion thereof, said neck having a width smaller than the narrowest diameter of said faceted alignment guide, such that when said neck is aligned with said faceted alignment guide, said arm can rotate freely, but when said faceted portion of said arm is adjacent said faceted alignment guide, said arm is restrained from rotation.

20:

• The system of claim 1 wherein said infusion device has an attachment device useful for attaching said infusion device to living and inanimate objects.

21:

• The system of claim 20 wherein said attachment device includes a self connecting type strap.

22:

• The system of claim 1 wherein said medicament syringe is removably coupleable to said infusion device.

23:

• The system of claim 22 wherein said infusion device is reusable and said medicament syringe is disposable.

24:

• The system of claim 1 wherein said infusion device and said syringe are unified and disposable.

25:

• The system of claim 1 wherein said medicament syringe is integrated into a standard type disposable intravenous administration set.

26:

• The system of claim 25 wherein said medicament syringe includes at least 2 fluid conveyance ports.

27:

• The system of claim 26 wherein one of said at least 2 fluid conveyance ports is positioned on said piston and adapted to allow fluid conveyance through said piston.

28:

• The system of claim 26 wherein said medicament syringe is adapted to act as a drip chamber.

29:

• The infusion device of claim 1 wherein said infusion device includes a dampening system, said dampening system including a fluid filled dampening cylinder attached rigidly and in parallel to said infusion device body and a dampening rod attached rigidly and in parallel to said force applicator, said dampening cylinder adapted to receive said dampening rod during which said dampening system becomes activated, said activated dampening system adapted to limit the speed of said incursion thereby limiting the rate of infusion.

30:

• The infusion device of claim 1 wherein said infusion device includes a dampening system, said dampening system including a dampening rod attached rigidly in parallel to said infusion device body and a fluid filled dampening cylinder attached rigidly in parallel to said force applicator, said dampening cylinder adapted to receive said dampening rod during which said dampening system becomes activated, said activated dampening system adapted to limit the speed of said incursion thereby limiting the rate of infusion.

32:

• The system of claim 31 wherein said infusion device is reusable and said medicament syringe is disposable.

33:

• The infusion device of claim 31 wherein said resistance force energizer includes a vacuum chamber, said vacuum chamber including a sliding sealed piston forming a wall of said vacuum chamber, and said free end of said arm coupled to said sliding sealed piston.

34:

• The infusion device of claim 33 wherein said arm is adapted to be rotated, said arm including a plate on an end thereof opposite said sliding sealed piston, said plate adapted to engage the proximal terminus of the syringe in less than all rotational positions for said arm.

35:

• The infusion device of claim 31 wherein said arm has faceted sides such that said arm exhibits a faceted cross-section perpendicular to a long axis of said arm, said arm translating through a correspondingly faceted alignment guide affixed to the infusion device body, said arm including at least one neck on a portion thereof, said neck having a width smaller than the narrowest diameter of said faceted alignment guide such that when said neck is aligned with said faceted alignment guide, said arm can rotate freely, but when said faceted portion of said arm is adjacent said faceted alignment guide, said arm is restrained from rotation.

36:

• The infusion device of claim 34 wherein said plate includes a rim extending from a periphery thereof, said rim adapted to at least partially surround the proximal terminus of the syringe plunger assembly when the proximal terminus of the syringe is adjacent said plate, such that said rim resists said plunger assembly movement relative to said plate when said plunger assembly proximal terminus is adjacent said plate.

37:

• The infusion device of claim 31 wherein said infusion device includes a dampening system, said dampening system including a fluid filled dampening cylinder attached rigidly and in parallel to said infusion device body and a dampening rod attached rigidly and in parallel to said force applicator, said dampening cylinder adapted to receive said dampening rod during which said dampening system becomes activated, said activated dampening system adapted to limit the inward speed of said force applicator when coupled to said syringe plunger assembly thereby limiting the rate of infusion.

38:

• The infusion device of claim 31 wherein said infusion device includes a dampening system, said dampening system including a dampening rod attached rigidly and in parallel to said infusion device body and a fluid filled dampening cylinder attached rigidly and in parallel to said force applicator, said dampening cylinder adapted to receive said dampening rod during which said dampening system becomes activated, said activated dampening system adapted to limit the inward speed of said force applicator when coupled to said syringe plunger assembly thereby limiting the rate of infusion.

39:

• The system of claim 31 wherein said medical syringe is integrated into a standard type disposable intravenous administration set.

40:

• The system of claim 39 wherein said medical syringe includes at least two fluid conveyance ports.

41:

• The system of claim 40 wherein one of said at least two fluid conveyance ports is positioned on said piston and adapted to allow fluid conveyance through said piston.

42:

• The system of claim 40 wherein said medical syringe is adapted to act as a drip chamber.

43:

• The system of claim 41 wherein said medical syringe is adapted to act as a drip chamber.