Portable ambulant pneumatic compression system

1. A device for applying pressure to a body limb having a primary axis, comprising:

a pressure sleeve including a first inflatable cell and a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including at least two intra-cell compartments;

said intra-cell compartments being confluent, each intra-cell compartment being elongated in a direction of the primary axis;

each inflatable cell further including inner and outer shells of durable flexible material;

said inner and outer shells being bonded together to form a perimetric cell bond;

said inner and outer shells being further bonded together to form compartmental bonds within said perimetric cell bond, said perimetric bond and said compartmental bonds defining the intra-cell compartment;

said perimetric cell bond including upper and lower perimetric cell bonds;

said compartmental bonds partly extending between said upper and lower perimetric cell bonds;

said compartmental bonds including perforations to allow for confluent airflow between adjacent intra-cell compartments associated with the inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation, the inflatable cell becomes circumferentially constricted;

each inflatable cell having a first center point circumference when said intra-cell compartments are deflated and a second center point circumference when said intra-cell compartments are inflated, said second center point circumference being less than said first center point circumference so as to provide for circumferential constriction, said first and second center point circumferences, each being defined as a line passing through each center point of each contiguous intra-cell compartment of the inflatable cell;

said compartmental bonds of said intra-cell compartments, during inflation, being drawn towards each other to decrease a distance therebetween and towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

2. The device of claim 1 , wherein a ratio of said second center point circumference to said first center point circumference is about 0.64.

3. A device for applying pressure to a body limb having a primary axis, comprising:

a pressure sleeve including a first inflatable cell and a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments, said compartmental bonds being parallel to the primary axis;

said intra-cell compartments being confluent to allow for confluent airflow between adjacent intra-cell compartments associated with the inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation, the inflatable cell becomes circumferentially constricted;

each inflatable cell having a first center point circumference when said intra-cell compartments are deflated and a second center point circumference when said intra-cell compartments are inflated, said second center point circumference being less than said first center point circumference so as to provide for circumferential constriction, said first and second center point circumferences, each being defined as a line passing through each center point of each contiguous intra-cell compartment of the inflatable cell;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween and towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

4. The device of claim 3 , wherein a ratio of said second center point circumference to said first center point circumference is about 0.64.

5. The device of claim 3 , further comprising a portable hand-held pump unit for intermittently inflating each inflatable cell;

said portable hand-held pump unit including said control unit for determining the treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell.

6. The device of claim 5 , wherein said conduit comprises a single tube for delivering air to each inflatable cell.

7. The device of claim 6 , wherein said conduit comprises means for indicating to said control unit the treatment program of each inflatable cell.

8. A device for applying pressure to a body limb having a primary axis, comprising:

a pressure sleeve including a first inflatable cell and a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including at least two intra-cell compartments;

said intra-cell compartments being confluent, each compartment being elongated in a direction of the primary axis;

each inflatable cell further including inner and outer shells of durable flexible material;

said inner and outer shells being bonded together to form a perimetric cell bond;

said inner and outer shells being further bonded together to form compartmental bonds within said perimetric cell bond, said perimetric bond and said compartmental bonds defining the intra-cell compartment;

said perimetric cell bond including upper and lower perimetric cell bonds;

said compartmental bonds partly extending between said upper and lower perimetric cell bonds;

said compartmental bonds including perforations to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

each inflatable cell having a center point circumference of Nπr when said intra-cell compartments are deflated and a center point circumference of 2Nr when said intra-cell compartments are inflated, where N is the number of intra-cell compartments in each inflatable cell, and where r is the cross-sectional radius of each compartment when inflated, the center point circumference being a line passing through each center point of each adjacent intra-cell compartment associated with the inflatable cell;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween and towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

9. The device of claim 8 , wherein the center point circumference is decreased upon inflation by about 36%.

10. The device of claim 8 , wherein the bond comprises a weldment.

11. The device of claim 8 , wherein adjacent intra-cell compartments are contiguous.

12. The device of claim 8 , wherein the perforations are located adjacent the perimetric cell bond.

13. The device of claim 8 , wherein the perforations are located between compartmental bonds extending from the upper and lower perimetric bonds.

14. The device of claim 8 , further comprising an inlet to provide for inflation and deflation of each inflatable cell.

15. The device of claim 8 , further comprising inflating means for intermittently inflating each inflatable cell.

16. A device for applying pressure to a body limb having a primary axis, comprising:

a pressure sleeve including a first inflatable cell and a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments, said compartmental bonds being parallel to the primary axis;

said intra-cell compartments being confluent to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

each inflatable cell having a center point circumference of Nπr when said intra-cell compartments are and a center point circumference of 2Nr when said intra-cell compartments are inflated, where N is the number of intra-cell compartments in each inflatable cell, and where r is the cross-sectional radius of each compartment when inflated, the center point circumference being a line passing through each center point of each adjacent intra-cell compartment of each inflatable cell;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween and towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

17. The device of claim 16 , wherein the center point circumference is decreased upon inflation by about 36%.

18. The device of claim 16 , further comprising a fluid inlet to provide for inflation and deflation of each inflatable cell.

19. The device of claim 16 , further comprising inflating means for intermittently inflating each inflatable cell.

20. The device of claim 16 , further comprising a portable hand-held pump unit for intermittently inflating each inflatable cell via a conduit;

said portable hand-held pump unit including said control unit for determining the treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell.

21. The device of claim 20 , wherein said portable hand-held pump unit is battery operated.

22. The device of claim 21 , wherein said portable hand-held pump unit comprises a rechargeable battery.

23. The device of claim 20 , wherein said portable hand-held pump unit comprises an air compressor.

24. The device of claim 20 , wherein said conduit comprises a single tube for delivering air to each inflatable cell.

25. The device of claim 20 , wherein said conduit comprises means for indicating to said control unit the treatment program of each inflatable cell.

26. A sleeve for applying pressure to a body limb having a primary axis, comprising:

a first inflatable cell;

a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments;

said intra-cell compartments being confluent to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

each inflatable cell having a center point circumference of Nπr when said intra-cell compartments are deflated and a center point circumference of 2Nr when said intra-cell compartments are inflated, where N is the number of intra-cell compartments in each inflatable cell, and where r is the cross-sectional radius of each compartment when inflated, the center point circumference being a line passing through each center point of each adjacent intra-cell compartment of each inflatable cell;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween and towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

27. The sleeve of claim 26 , further comprising an inlet to provide for inflation and deflation of said first and second inflatable cells.

28. A sleeve for applying pressure to a body limb having a primary axis, comprising:

a first inflatable cell;

a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments;

said intra-cell compartments being confluent to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween;

said compartmental bonds, during inflation, being drawn towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

29. The sleeve of claim 28 , further comprising an inlet to provide for inflation and deflation of said first and second inflatable cells.

30. A sleeve for applying pressure to a body limb having a primary axis, comprising:

a first inflatable cell;

a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments;

said intra-cell compartments being confluent to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween.

31. The sleeve of claim 30 , further comprising an inlet to provide for inflation and deflation of said first and second inflatable cells.

32. A sleeve for applying pressure to a body limb having a primary axis, comprising:

a first inflatable cell;

a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments;

said intra-cell compartments being confluent to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

said compartmental bonds, during inflation, being drawn towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

33. The sleeve of claim 32 , further comprising an inlet to provide for inflation and deflation of said first and second inflatable cells.

34. A sleeve for applying pressure to a body limb having a primary axis, comprising:

a first inflatable cell;

a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments;

said intra-cell compartments being confluent;

each inflatable cell further including inner and outer shells of durable flexible material;

said inner and outer shells being bonded together to form a perimetric cell bond;

said inner and outer shells being further bonded together to form compartmental bonds within said perimetric cell bond, said perimetric bond and said compartmental bonds defining the intra-cell compartment;

said perimetric cell bond including upper and lower perimetric cell bonds;

said compartmental bonds partly extending between said upper and lower perimetric cell bonds;

said compartmental bonds including perforations to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween;

said compartmental bonds, during inflation, being drawn towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

35. The sleeve of claim 34 , wherein the bond comprises a weldment.

36. The sleeve of claim 34 , wherein adjacent intra-cell compartments are contiguous.

37. The sleeve of claim 34 , wherein the perforations are located adjacent the perimetric cell bond.

38. The sleeve of claim 34 , wherein the perforations are located between compartmental bonds extending from the upper and lower perimetric bonds.

39. The sleeve of claim 34 , further comprising an inlet to provide for inflation and deflation of said first and second inflatable cells.

40. A sleeve for applying pressure to a body limb having a primary axis, comprising:

a first inflatable cell;

a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments;

said intra-cell compartments being confluent to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constricted;

said compartmental bonds, during inflation, being drawn towards each other to decrease a distance therebetween;

said compartmental bonds, during inflation, being drawn towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.

41. A sleeve for applying pressure to a body limb having a primary axis, comprising:

a first inflatable cell;

a second inflatable cell; and

a control unit for determining a treatment program of each inflatable cell and for determining a timing sequence for inflating of each inflatable cell based on the determined treatment program of each inflatable cell;

each inflatable cell including compartmental bonds to form at least two intra-cell compartments;

said intra-cell compartments being confluent, each intra-cell compartment being elongated in a direction of the primary axis;

said inflatable cell further including inner and outer shells of durable flexible material;

said inner and outer shells being bonded together to form a perimetric cell bond;

said inner and outer shells being further bonded together to form compartmental bonds within said perimetric cell bond, said perimetric bond and said compartmental bonds defining the intra-cell compartment;

said perimetric cell bond including upper and lower perimetric cell bonds;

said compartmental bonds partly extending between said upper and lower perimetric cell bonds;

said compartmental bonds including perforations to allow for confluent airflow between adjacent intra-cell compartments within each inflatable cell, adjacent intra-cell compartments being spatially fixed relative to each other, such that upon inflation of each inflatable cell, each inflatable cell becomes circumferentially constrict;

said compartmental bonds of said intra-cell compartments, during inflation, being drawn towards each other to decrease a distance therebetween;

said compartmental bonds of said intra-cell compartments, during inflation, being drawn towards the center point of said intra-cell compartments to decrease a distance therebetween, so as to provide for circumferential constriction.