Abstract: A remote treatment system may include a cone assembly including a spine and a cone body at least partially surrounding the spine, a marking payload, a syringe coupled to a portion of the cone assembly and adapted to store a syringe payload for treating a target, and a vanes cup. The vanes cup may have an inner diameter sized to receive an outer diameter of the syringe. The vanes cup may also include stabilization means for stabilizing the remote treatment system. Further, a pressure means within the vanes cup may be configured to apply a pressure against the payload within the syringe. In response to an impact between the cone assembly and the target, the payloads are expressed from the remote treatment system.

Abstract: A remote treatment system may include a cone assembly including a spine and a cone body at least partially surrounding the spine, a marking payload, a syringe coupled to a portion of the cone assembly and adapted to store a syringe payload for treating a target, and a vanes cup. The vanes cup may have an inner diameter sized to receive an outer diameter of the syringe. The vanes cup may also include stabilization means for stabilizing the remote treatment system. Further, a pressure means within the vanes cup may be configured to apply a pressure against the payload within the syringe. In response to an impact between the cone assembly and the target, the payloads are expressed from the remote treatment system.

Abstract: A remote treatment system may include a cone assembly including a spine and a cone body at least partially surrounding the spine, a marking payload, a syringe coupled to a portion of the cone assembly and adapted to store a syringe payload for treating a target, and a vanes cup. The vanes cup may have an inner diameter sized to receive an outer diameter of the syringe. The vanes cup may also include stabilization means for stabilizing the remote treatment system. Further, a pressure means within the vanes cup may be configured to apply a pressure against the payload within the syringe. In response to an impact between the cone assembly and the target, the payloads are expressed from the remote treatment system.

Abstract: A remote treatment system may include a syringe assembly and a cone assembly. The syringe assembly may further include a cannula that has a solid bevel tip and an exit port on a longitudinal side of the cannula. The cone assembly may include a fore-end ring at the cone assembly apex and a base ring at a center of the cone assembly base. The fore-end ring and base ring may carry the cannula and the fore-end ring may be shiftable along the longitudinal axis of the cannula between an extended first position and a retracted second position. The fore-end ring may be in a sealing relation with the cannula exit port in the extended first position, while the exit port may be unsealed in the retracted second position. In response to an impact between the cone assembly and a target, the fore-end ring may shift to its second position.

Abstract: A remote treatment system may include a syringe assembly and a cone assembly. The syringe assembly may further include a cannula that has a solid bevel tip and an exit port on a longitudinal side of the cannula. The cone assembly may include a fore-end ring at the cone assembly apex and a base ring at a center of the cone assembly base. The fore-end ring and base ring may carry the cannula and the fore-end ring may be shiftable along the longitudinal axis of the cannula between an extended first position and a retracted second position. The fore-end ring may be in a sealing relation with the cannula exit port in the extended first position, while the exit port may be unsealed in the retracted second position. In response to an impact between the cone assembly and a target, the fore-end ring may shift to its second position.