Injection systems, injection tools and methods for same
A plant injection system includes an injection tool configured to penetrate a plant and distribute a liquid formulation to the plant. The injection tool includes a base having a plurality of inlet ports and a penetrating distribution body extending along a longitudinal body axis. The penetrating distribution body includes a penetrating element to penetrate the plant, and one or more distribution ports in communication with the inlet ports to distribute the liquid formulation to the plant. The injection tools is configured to precisely inject liquid formulation into the vascular system of the plant.
1 . A multiport injection tool, comprising:
a base including a plurality of access ports;
a penetrating distribution body extending from the base, and having a wedge shaped body extending along a longitudinal body axis, wherein the wedge shaped body has a width dimension and a depth dimension both oriented transverse to the longitudinal body axis, wherein the width dimension is greater than the depth dimension, wherein the penetrating distribution body includes:
a cutting edge along a front face of the penetrating distribution body directed distally away from the base,
a penetrating element that extends from the cutting edge proximate to a distal portion of the penetrating distribution body to a proximal portion of the penetration distribution body, and
a distribution element that includes distribution ports and that at least partially defines multiple distribution reservoirs separated by the distribution element, wherein the distribution reservoirs are in fluid communication with the distribution ports, wherein each of the distribution reservoirs opens to both opposite sides of the wedge shaped body, and wherein the distribution ports are in fluid communication with the access ports.
2 . The tool of claim 1 , further comprising an interned channel system including: a port manifold interconnecting the access ports; a port junction, within the port manifold; and a delivery channel, wherein the delivery channel extends from the port junction of the port manifold to the distribution ports in the penetrating distribution body.
3 . The tool of claim 1 , wherein the distribution ports open transversely relative to the longitudinal body axis into the one or more distribution reservoirs; and
wherein the multiple distribution reservoirs are symmetric across the longitudinal body axis.
4 . A plant injection system, comprising:
a multiport injection tool of claim 1 , wherein the plurality of access ports includes at least a first access port and a second inlet-pert; access port:
a fluid delivery system; and
a fluid receiving system,
wherein the fluid delivery system is operatively connected to the first access port of the multiport injection tool,
wherein the fluid receiving system is in fluid communication with the second access port of the multiport injection tool.
5 . The plant injection system of claim 4 , wherein the fluid receiving system has:
an open position in which fluid flows through or is evacuated from the fluid receiving system, and
a closed position in which fluid is retained in the fluid receiving system.
6 . The plant injection system of claim 4 , wherein the fluid delivery system is configured to facilitate flow of fluid from the fluid delivery system through the internal channel system in the multiport injection tool from the first access port to a second access port, and to one or more distribution ports and consequently to the interior of a plant.
7 . The plant injection system of claim 4 , wherein the fluid delivery system comprises:
a system body configured to store and administer an active ingredient (AI) formulation, the system body includes:
a cartridge magazine enclosing a cartridge socket configured to receive a formulation cartridge containing the AI formulation;
a cartridge seat within the cartridge magazine;
a tool hub including the injection tool; and
a delivery interface extending between the cartridge seat and the tool hub, wherein the delivery interface fluidly interconnects the cartridge magazine with one or more distribution ports of the injection tool.
8 . The plant injection system of claim 7 , wherein the formulation cartridge is pressurized canister.
9 . The plant injection system of claim 7 , wherein the formulation cartridge includes a bag-on-valve mechanism.
10 . The plant injection system of claim 7 , wherein the system body includes a structural frame housing at least the cartridge magazine, the tool hub and the injection tool.
11 . The plant injection system of claim 7 , wherein the cartridge magazine includes a magazine cap having locked and unlocked configurations:
in the unlocked configuration the magazine cap is decoupled from the cartridge magazine; and
in the locked configuration the magazine cap is engaged with the cartridge magazine and biases the formulation cartridge toward the cartridge seat.
12 . The plant injection system of claim 7 , wherein the system body further includes a flexible portion configured to bend so as to position the fluid delivery system at an angle relative to the plant.
13 . The plant injection system of claim 7 , wherein the system body further includes a flange configured to engages the formulation cartridge, resulting in activating the formulation cartridge and/or maintaining the formulation cartridge in place.
14 . The tool of claim 1 , wherein the multiple distribution reservoirs are symmetric across the longitudinal body axis.
15 . The tool of claim 1 , wherein the penetrating element and the distribution element cooperate to define the multiple distribution reservoirs.
16 . The tool of claim 1 , wherein the distribution ports are symmetric across the longitudinal body axis.