Embodiments of a system including a remotely controlled substance delivery device and associated controller are described. Methods of use and control of the device are also disclosed. According to some embodiments, a delivery device or related device may be placed in an environment in order to pump
Embodiments of a system including a remotely controlled substance delivery device and associated controller are described. Methods of use and control of the device are also disclosed. According to some embodiments, a delivery device or related device may be placed in an environment in order to pump a material into the environment or into an additional fluid handling structure within the device. Exemplary environments include a body of an organism, a body of water, or an enclosed volume of a fluid. The concentration of a substance in the fluid to be delivered may be modified by a remote control signal. In selected embodiments, a magnetic field, an electric field, or electromagnetic control signal may be used.
대표청구항▼
1. A method of delivering a material, including: receiving a first electromagnetic control signal with a first electromagnetically responsive control element in a delivery device, the delivery device including a fluid-containing structure containing a delivery fluid and a primary material distribute
1. A method of delivering a material, including: receiving a first electromagnetic control signal with a first electromagnetically responsive control element in a delivery device, the delivery device including a fluid-containing structure containing a delivery fluid and a primary material distributed between a first active form carried in the delivery fluid and a second form within the fluid containing structure, the primary material having a first effective concentration in the delivery fluid equal to the concentration of the first active form in the delivery fluid;responsive to receipt of the first electromagnetic control signal by the first electromagnetically responsive control element, modifying the distribution of the primary material between the first active form and the second form within the fluid containing structure through one or more of heating, cooling, vibrating, expanding, stretching, unfolding, contracting, deforming, softening, or folding of the electromagnetically responsive control element, the primary material having a second effective concentration in the delivery fluid following the modification of the distribution of the primary material between the first active form and the second form;pumping the delivery fluid containing the primary material at the second effective concentration from the fluid-containing structure of the delivery device to a downstream location; andfiltering the second form of the primary material from the delivery fluid prior to pumping the delivery fluid containing the primary material at the second effective concentration from the fluid-containing structure of the delivery device to a downstream location. 2. A method of delivering a material, including: receiving a first electromagnetic control signal with a first electromagnetically responsive control element in a delivery device, the delivery device including a fluid-containing structure containing a delivery fluid and a primary material distributed between a first active form carried in the delivery fluid and a second form within the fluid containing structure, the primary material having a first effective concentration in the delivery fluid equal to the concentration of the first active form in the delivery fluid;responsive to receipt of the first electromagnetic control signal by the first electromagnetically responsive control element, modifying the distribution of the primary material between the first active form and the second form within the fluid containing structure through one or more of heating, cooling, vibrating, expanding, stretching, unfolding, contracting, deforming, softening, or folding of the electromagnetically responsive control element, the primary material having a second effective concentration in the delivery fluid following the modification of the distribution of the primary material between the first active form and the second form;pumping the delivery fluid containing the primary material at the second effective concentration from the fluid-containing structure of the delivery device to a downstream location; andmodifying the rate of pumping of the delivery fluid to the downstream location responsive to receipt of a second electromagnetic control signal by a second electromagnetically responsive control element. 3. The method of claim 2, wherein the first electromagnetic control signal and the second electromagnetic control signal are the same electromagnetic control signal. 4. The method of claim 2, wherein the first electromagnetic control signal is different than the second electromagnetic control signal. 5. The method of claim 2, wherein the first electromagnetically responsive control element and the second electromagnetically responsive control element are the same electromagnetically responsive control element, different control elements of the same type, or different control elements of different types. 6. A delivery system, comprising: a plurality of delivery devices, two or more of the plurality of delivery devices including: a fluid-containing structure having at least one outlet through which fluid may exit the fluid-containing structure;a delivery fluid contained within the fluid-containing structure;a primary material contained within the fluid-containing structure and having a controllable effective concentration in the delivery fluid; andat least one electromagnetically responsive control element responsive to an incident electromagnetic control signal by one or more of heating, cooling, vibrating, expanding, stretching, unfolding, contracting, deforming, softening, or folding to modify the distribution of the primary material between a first active form carried in the delivery fluid and a second form within the fluid-containing structure in response to the incident electromagnetic control signal to modify the effective concentration of the primary material in the delivery fluid, the effective concentration being the concentration of the first active form in the delivery fluid; anda remote controller including: an electromagnetic signal generator capable of producing the electromagnetic control signal sufficient to activate the electromagnetically responsive control elements of the two or more delivery devices located in an environment to change the effective concentration of the primary material in the delivery fluid within the fluid-containing structure of the delivery devices; andan electromagnetic signal transmitter capable of wirelessly transmitting the electromagnetic control signal to the electromagnetically responsive control element of the delivery device in the environment,wherein the remote controller is configured to produce a rotating electromagnetic signal, the rotating electromagnetic signal capable of activating two or more of the plurality of delivery devices independently as a function of the orientation of the rotating electromagnetic signal. 7. The delivery system of claim 6, wherein the remote controller includes at least one of hardware, firmware, or software configured to control generation of the electromagnetic control signal. 8. The delivery system of claim 6, wherein one or more of the plurality of delivery devices includes an RFID, and wherein the remote controller includes an RF interrogation signal generator for generating an RF interrogation signal tuned to the RFID. 9. The delivery system of claim 6, wherein one or more of the plurality of delivery devices includes a plurality of electromagnetically responsive control elements. 10. The delivery system of claim 6, wherein the remote controller is configured to generate and transmit an electromagnetic control signal having at least one of frequency and orientation that are selectively receivable by the at least one electromagnetically responsive control element. 11. The delivery system of claim 6, wherein the remote controller includes at least one of hardware, software, or firmware configured to perform encryption of electromagnetic control signal to produce an encrypted electromagnetic control signal. 12. The delivery system of claim 6, wherein the delivery device includes a body structure adapted for positioning in an environment selected from a body of an organism, a body of water, a contained fluid volume, an industrial fluid volume, an agricultural fluid volume, a swimming pool, an aquarium, a drinking water supply, a potable water supply, and an HVAC system cooling water supply. 13. The delivery system of claim 6, wherein the electromagnetically responsive control element includes a magnetically or electrically active material including at least one permanently magnetizable material, ferromagnetic material, ferrimagnetic material, ferrous material, ferric material, dielectric material, ferroelectric material, piezoelectric material, diamagnetic material, paramagnetic material, metallic material, antiferromagnetic material, polymer, ceramic, metal, shape memory material, or combination of a polymer and a magnetically or electrically active component. 14. The delivery system of claim 6, including a remote controller configured to generate a static or quasi-static electrical field control signal, a static or quasi-static magnetic field control signal, a radio-frequency electromagnetic control signal, a microwave electromagnetic control signal, an infrared electromagnetic control signal, a millimeter wave electromagnetic control signal, an optical electromagnetic control signal, or an ultraviolet electromagnetic control signal sufficient to activate the electromagnetically responsive control element to control the effective concentration of the primary material in the delivery fluid. 15. A method of delivering a material including: pumping a delivery fluid containing a primary material from a delivery reservoir of a delivery device to a downstream location at a first pumping rate, wherein the first pumping rate is a constant pumping rate;controlling the effective concentration of the primary material in the delivery fluid within the delivery reservoir through one or more of heating, cooling, vibrating, expanding, stretching, unfolding, contracting, deforming, softening, or folding of an electromagnetically responsive control element in response to a remotely transmitted electromagnetic control signal; andvarying the rate of delivery of the primary material to the downstream location by varying the effective concentration of the primary material in the delivery fluid in response to the remotely transmitted electromagnetic control signal. 16. A method of delivering a material including: pumping a delivery fluid containing a primary material from a delivery reservoir of a delivery device to a downstream location at a first pumping rate, wherein the first pumping rate is a time-varying pumping rate;controlling the effective concentration of the primary material in the delivery fluid within the delivery reservoir through one or more of heating, cooling, vibrating, expanding, stretching, unfolding, contracting, deforming, softening, or folding of an electromagnetically responsive control element in response to a remotely transmitted electromagnetic control signal; andcontrolling the rate of delivery of the primary material to the downstream location by controlling both the effective concentration of the primary material in the delivery fluid and the pumping rate. 17. A method of delivering a material, including: receiving a first electromagnetic control signal with a first electromagnetically responsive control element in a delivery device, the delivery device including a fluid-containing structure containing a delivery fluid and a primary material distributed between a first active form carried in the delivery fluid and a second form within the fluid containing structure, the primary material having a first effective concentration in the delivery fluid equal to the concentration of the first active form in the delivery fluid;responsive to receipt of the first electromagnetic control signal by the first electromagnetically responsive control element, modifying the distribution of the primary material between the first active form and the second form within the fluid containing structure through one or more of heating, cooling, vibrating, expanding, stretching, unfolding, contracting, deforming, softening, or folding of the electromagnetically responsive control element, the primary material having a second effective concentration in the delivery fluid following the modification of the distribution of the primary material between the first active form and the second form; andpumping the delivery fluid containing the primary material at the second effective concentration from the fluid-containing structure of the delivery device to a downstream location,wherein the primary material has a different stability, immunogenicity, reactivity, or activity in the first active form than in the second form. 18. The method of claim 17, wherein the first effective concentration is different than the second effective concentration. 19. The method of claim 17, including modifying the distribution of primary material in response to receipt of the first electromagnetic control signal by modifying a pressure within the fluid containing structure; modifying a volume of the fluid containing structure; producing vibration within the fluid containing structure; producing fluid mixing within the fluid containing structure; or modifying a number of available interaction sites within the fluid containing structure, the available interaction sites capable of interacting with the primary material to produce the second form of the primary material.
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