Ice processing system

1. A device which inhibits ice crystallization in an object, comprising:

an enclosure defining a cavity and comprising an adjustable temperature compartment or a freezer compartment of a refrigeration device or a freezer, the cavity configured to hold the object comprised of a material in which ice crystals may form;

a temperature sensor configured to measure temperature data corresponding to a temperature of the object within the cavity;

a plurality of non-contact electrodes which do not contact the object;

a pulse generator configured to independently control an electric potential on each electrode, such that a time-varying pulsed electric field (PEF) is created within the cavity, the pulse generator being connected to the plurality of non-contact electrodes by wires; and

a controller configured to receive the temperature data from the temperature sensor and to oscillate a field density of the pulsed electric field within the cavity at a frequency which depends on the temperature of the object,

wherein the density of the pulsed electric field within the cavity has a maximum amplitude that falls within a range of 100 V/m (Volts per meter) to 10,000 V/m, and

wherein the controller increases the frequency with increasing temperature within a range of 100 Hz to 100 kHz, such that the ice crystals formed in the object absorb energy from the pulsed electric field even as the temperature of the ice crystals in the object changes, to allow the absorbed energy from the pulsed electric field to heat any formed ice crystals in the object, and thereby inhibit formation of the ice crystals in the object.

2. The device of claim 1 , wherein the frequency, is selected to establish and maintain a resonance condition of dipoles in the ice crystals present in the cavity.

3. The device of claim 1 , wherein the maximum amplitude of the density of the pulsed electric field is temperature dependent.

4. The device of claim 3 , wherein the controller decreases the maximum amplitude with increasing temperature.

5. The ice processing device of claim 1 , wherein the controller changes the frequency within a range of 1 kHz to 10 kHz, when the temperature changes within a range of −30 degrees Celsius to 0 degrees Celsius.

6. A system for controlling inhibiting ice crystallization in an object, comprising:

an enclosure defining a cavity and comprising an adjustable temperature compartment or a freezer compartment of a refrigeration device or a freezer, the cavity configured to hold the object comprised of a material in which the ice crystals may form;

a plurality of non-contact electrodes which do not contact the object disposed within the cavity;

a temperature sensor configured to measure temperature data corresponding to a temperature of the object disposed within the cavity;

a pulse generator configured to create a time-varying pulsed electric field (PEF) within the cavity, the pulse generator being connected to the plurality of non-contact electrodes by wires; and

a state control configured to control electric potential of the plurality of non-contact electrodes and thereby vary a density of the pulsed electric field within the cavity at a frequency dependent on the temperature of the object, in a range of 100 Hz to 100 kHz. the density of the pulsed electric field having a maximum amplitude that falls within a range of 100 V/m (Volts per meter) to 10,000 V/m, such that the ice crystals formed in the object absorb energy from the pulsed electric field even as the temperature of the ice crystals in the object changes, to allow the absorbed energy from the pulsed electric field to heat any formed ice crystals in the object, and thereby inhibit formation of the ice crystals in the object.

7. The system of claim 6 , wherein the plurality of non-contact electrodes each have an independently controllable electric potential.

8. The system of claim 7 , wherein the plurality of non-contact electrodes includes first and second electrode plates disposed proximate the cavity.

9. The system of claim 6 , wherein the state control is configured to vary the density of the pulsed electric field at a frequency chosen to maintain a resonance condition of the ice crystals forming in the object disposed within the cavity.

10. The system of claim 9 , wherein the state control changes the frequency as a function of increasing temperature of the object.

11. The system of claim 6 , wherein the state control is configured to change an amplitude of the density of the pulsed electric field as a function of increasing temperature of the object.

12. The system of claim 6 , wherein the frequency is chosen to inhibit formation of the ice crystals in liquid water, as the temperature of the object decreases below 0 degrees Celsius.

13. The system of claim 6 , wherein the frequency is chosen to reduce a characteristic size of the ice crystals forming in the object, as the temperature of the object decreases below a freezing point of the object.

14. A method of inhibiting ice crystallization in an object disposed in a refrigeration device or a freezer, comprising:

providing an enclosure defining a cavity and comprising an adjustable temperature compartment or a freezer compartment of the refrigeration device or the freezer;

providing the object comprised of a material in which ice crystals may form, in the cavity of the enclosure;

measuring temperature data corresponding to a temperature of the object disposed in the cavity using a temperature sensor;

creating a time-varying pulsed electric field (PEF) within the cavity without contacting the object; and

varying a field density of the pulsed electric field within the cavity at a frequency dependent on the temperature of the object, said frequency corresponding to a dipole resonance condition of the ice crystals within the object,

wherein the varying the field density of the pulsed electric field within the cavity includes varying the frequency within a range of 100 Hz to 100 kHz, the density of the pulsed electric field having a maximum amplitude that falls within a range of 100 V/m (Volts per meter) to 10,000 V/m, and

heating the ice crystals formed in the object based on the pulsed electric field, and thus, inhibiting formation of the ice crystals in the object, such that any ice crystals formed in the object absorb energy from the pulsed electric field even as the temperature of the ice crystals in the object changes.

15. An ice processing device, comprising:

an enclosure of a refrigeration device o a freezer, the enclosure defining a cavity configured to hold an object comprised of a material in which ice crystals may form;

a temperature sensor configured to measure temperature data corresponding to a temperature of the object within the cavity;

a plurality of electrodes configured to create an electromagnetic field within the cavity; and

a controller configured to receive the temperature data from the temperature sensor and to oscillate a field density of the electromagnetic field at a frequency which depends on the temperature,

wherein the controller increases the frequency with increasing temperature within a range of 100 Hz to 100 kHz, such that the ice crystals absorb energy from the electromagnetic field even as the temperature of the ice changes, thereby to heat any ice crystals formed in the object based on the pulsed electric field, and inhibit formation of the ice crystals in the object, and

wherein the controller is configured to receive the temperature data from the temperature sensor and to update the frequency of the electromagnetic field at time intervals based on measured temperature data, so that the frequency is updated more often when the temperature correspondingly changes, such that a dipole resonance condition is continuously maintained as the ice is heated.

16. The method of inhibiting ice crystallization of claim 14 , wherein by selecting the frequency, a resonance condition of dipoles in ice crystals present in the cavity is established and maintained.

17. The device of claim 1 , wherein the freezer compartment is a drawer, and the plurality of electrodes comprises an electrode above the drawer and an electrode below the drawer.