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There is provided an infant feeding bottle system having an agitator for mixing a powder substance with a liquid in a non-rigid disposable liner. The bottle system permits a user to mix powdered formula directly inside a non-rigid liner. The bottle system enhances the mixing effect, resulting in imp

There is provided an infant feeding bottle system having an agitator for mixing a powder substance with a liquid in a non-rigid disposable liner. The bottle system permits a user to mix powdered formula directly inside a non-rigid liner. The bottle system enhances the mixing effect, resulting in improved solubility, and provides for a self-contained uninterrupted mixing and feeding process.

대표청구항 ▼

There is provided an infant feeding bottle system having an agitator for mixing a powder substance with a liquid in a non-rigid disposable liner. The bottle system permits a user to mix powdered formula directly inside a non-rigid liner. The bottle system enhances the mixing effect, resulting in imp

There is provided an infant feeding bottle system having an agitator for mixing a powder substance with a liquid in a non-rigid disposable liner. The bottle system permits a user to mix powdered formula directly inside a non-rigid liner. The bottle system enhances the mixing effect, resulting in improved solubility, and provides for a self-contained uninterrupted mixing and feeding process. p. 14. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 1, wherein: a portion of the electromagnetic radiation emitted by said source of electromagnetic radiation impinges directly on said first reflector and a portion of the electromagnetic radiation does not impinge directly on said first reflector; and wherein said system further comprises an additional reflector constructed and arranged to reflect at least part of the portion of the electromagnetic radiation that does not impinge directly on said first reflector toward said first reflector through the first focal point of said first reflector to increase the flux intensity of the converging rays. 15. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 14, wherein said additional reflector comprises a spherical retro-reflector disposed on a side of said source opposite said first reflector to reflect electromagnetic radiation emitted from said source in a direction away from said first reflector toward said first reflector through the first focal point of said first reflector. 16. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 14, wherein said sensor is integral with said additional reflector. 17. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 1, wherein said attribute is selected from the group consisting of: a current draw, a voltage drop, a resistance, an inductance, a radiance. 18. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 1, further comprising: a heater, said heater being proximate to said source; said comparator comparing said output to a second predetermined value; wherein said heater produces a heat flux if said output is less than said second predetermined value. 19. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 18, wherein: said comparator produces a second difference between said output and said second predetermined value; and said heat flux is substantially proportional to said second difference if said output is less than said second predetermined value. 20. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 18, wherein said heat flux is substantially constant if said output is less than said second predetermined value. 21. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 18, wherein said heat flux is substantially zero if said output is greater than said second predetermined value. 22. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 18, wherein said predetermined value is substantially equal to said second predetermined value. 23. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 18, wherein said predetermined value is greater than said second predetermined value. 24. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 18, wherein said heater is disposed between said fan and said source. 25. The temperature control system for a source of electromagnetic radiation in a collecting and condensing system of claim 18, wherein said heater is selected from the group consisting of: a resistance coil, an induction heater, a fluid circuit, a damper. 26. A method for temperature control of a source of electromagnetic radiation in a collecting and condensing system utilizing a temperature control system as defined in claim 1, the method comprising the steps of: