SYSTEM AND METHOD FOR CONTROLLING CELL FUNCTIONING AND MOTILITY WITH THE AID OF A DIGITAL COMPUTER
A feedback-based system and method that identifies characteristics of one or more cells and utilizes the characteristics to initiate and adjust a field applied to the one or more cells to control the cells' functioning and motility is provided. Machine learning can be leveraged to automatically identify characteristics of the one or more cells and adjust the parameters of the field based on the characteristics. Sensors are utilized during the application of the field to monitor characteristics of the one or more cells and parameters of the field. Specifically, characteristics of at least some of the cells are measured at different points, and the measurements are used to determine whether the desired effect has been achieved or whether unintended consequences are taking place. Based on the measurements, parameters of the field can be adjusted to achieve the desired effect on cell functioning, cell motility, or both.
1 . A feedback-based method for controlling cell functioning and motility, comprising:
using by a controller one or more sensors to determine characteristics of one or more of the cells within a receptacle at multiple time points;
determining by the controller parameters for one or more fields to be applied to one or more of the cells at the multiple time points via one or more field generators positioned with respect to the receptacle based on the characteristics determined at those time points, each field generator comprising one or more of a magnet, transducer, electromagnet, or a pair of electrodes, the parameters comprising at least one of amplitude, frequency, wavelength, phase, waveform, and duration; and
controlling by the controller application of the one or more fields by the one or more field generators based on the parameters, wherein each of the applied fields causes a change in at least one of functioning and motility of the cells to which that field is applied.
2 . A method for controlling cell functioning and motility according to claim 1 , wherein the one or more sensors comprise one or more of electromagnetic sensors, hyperspectral imaging sensors, impedance sensors, chemical sensors, biosensors, optical sensors, acoustic sensors, electrochemical sensors, microfluidics sensors, and volatile gas sensors.
3 . A system for controlling cell functioning and motility according to claim 1 , wherein the plurality of cells are comprised in a plant and the cells to which the field is applied are comprised in at least one or more leaves of the plant, one or more portions of a stem of the plant, and one or more of the roots of the plant.
4 . A method for controlling cell functioning and motility according to claim 3 , wherein at least some of the sensors measure pigment composition of the leaves.
5 . A method for controlling cell functioning and motility according to claim 3 , wherein the application of one or more of the fields causes the roots to accelerate extraction of one or more substances from a medium in which the roots are positioned.
6 . A method for controlling cell functioning and motility according to claim 5 , wherein the medium is one of a soil and a hydroponic medium.
7 . A method for controlling cell functioning and motility according to claim 1 , wherein the application of one or more of the fields causes one or more of the cells to accelerate extraction and increase retention of one or more substances from a medium in which the cells are positioned.
8 . A method for controlling cell functioning and motility according to claim 1 , wherein the extracted substances are metals.
9 . A method for controlling cell functioning and motility according to claim 1 , wherein the application of one or more of the fields causes at least one of a growth of the cells to which that field is applied, a change in proliferation of the cells to which that field is applied, and death of the cells to which that field is applied.
10 . A method for controlling cell functioning and motility according to claim 1 , wherein the application of the one or more fields causes at least some of the cells to at least one of move or grow into a direction.
11 . A method for controlling cell functioning and motility according to claim 10 , wherein the direction is controlled by the parameters of the one or more fields.
12 . A method for controlling cell functioning and motility according to claim 1 , wherein the cells are comprised in a seed and the application of one or more of the fields causes the seed to germinate.
13 . A method for controlling cell functioning and motility according to claim 1 , wherein the cells are selected from the group consisting one or more of plant cells, eukaryotic cells, prokaryotic cells, mammalian cells, algae cells, fungal cells, and protist cells.
14 . A method for controlling cell functioning and motility according to claim 1 , wherein at least some of the sensors perform three-dimensional microscopy and at least one of the characteristics of one of the cells comprises structural features of that cells.
15 . A method for controlling cell functioning and motility according to claim 14 , wherein a depth of the structural features depends on a wavelength of a light used during the microscopy.
16 . A method for controlling cell functioning and motility according to claim 15 , wherein the light comprises one or more of terahertz radiation, visible spectrum light, infrared light, and ultraviolet light.
17 . A method for controlling cell functioning and motility according to claim 14 , wherein the structural features comprise one or more of a location and size of one or more organelles within that cell.
18 . A method for controlling cell functioning and motility according to claim 1 , wherein the characteristics comprise one or more of the cells producing one or more biomarkers.
19 . A method for controlling cell functioning and motility according to claim 1 , wherein the characteristics comprise one or more of the cells producing one or more biomarkers.
20 . A method for controlling cell functioning and motility according to claim 1 , wherein the one or more cells comprise a plurality of groups of cells and the field applied to one of the cell groups differs from the field applied to another group of the cells.