A treatment device includes a base having a battery, a UV-LED for providing UV-C light during a UV sterilization process, LEDs for providing visible light during the UV sterilization process, and a controller for initiating the UV sterilization process, a translucent ring on the base for receiving the visible light from the LEDs and outputting it to the user, a first coupling structure on the base, a UV transmissive material above the UV-LED module, and a water storage removably coupled to the base having a sidewall structure for confining water, a second coupling structure below the sidewall structure for coupling with the first coupling structure to thereby create a water-tight seal between the water storage and the base, and a translucent material disposed upon the top opening of the water storage for receiving the visible light from the LEDs and outputting it to the user.

A liquid treatment device includes a base with a power source, a UV-LED module for providing UV-B or UV-C light to liquid, an LED for providing visible light, and a processor for selectively powering the UV-LED module and the LED, and having a UV transmissive material above the UV-LED module for allowing the UV-B or UV-C band light from the UV-LED module to be transmitted from the base housing, and a liquid storage housing removably coupled to the base housing with a storage portion configured to hold liquid and having a bottom portion comprising a UV transmissive material for allowing the UV-B or UV-C band light from the UV-LED module to be transmitted into the liquid, and an output coupled for restricting outflow of the liquid from the storage portion.

A liquid treatment device includes a base with a power source, a UV-LED module for providing UV-B or UV-C light to liquid, an LED for providing visible light, and a processor for selectively powering the UV-LED module and the LED, and having a UV transmissive material above the UV-LED module for allowing the UV-B or UV-C band light from the UV-LED module to be transmitted from the base housing, and a liquid storage housing removably coupled to the base housing with a storage portion configured to hold liquid and having a bottom portion comprising a UV transmissive material for allowing the UV-B or UV-C band light from the UV-LED module to be transmitted into the liquid, and an output coupled for restricting outflow of the liquid from the storage portion.

Methods and apparatus are provided for ultraviolet (UV) fluid purification, wherein the fluid is in a gaseous, liquid or solid form or combination thereof, comprising UV-C LED modules having improved light extraction efficiency. UV-C LED(s) are in optical communication with one or more UV-C transmissive window elements.

Methods and apparatus are provided for ultraviolet (UV) fluid purification, wherein the fluid is in a gaseous, liquid or solid form or combination thereof, comprising UV-C LED modules having improved light extraction efficiency. UV-C LED(s) are in optical communication with one or more UV-C transmissive window elements.

The present invention relates to a device 1 for refining the taste of beverages 7 with an irradiation chamber 2, wherein the irradiation chamber 2 is configured to receive a beverage vessel 6, in particular a beverage glass or a beverage bottle, and at least one radiation source 9, the at least one radiation source 9 being arranged within the irradiation chamber 2 and is configured to emit a first radiation 10 with a wavelength out of a wavelength range between 270 nm and 450 nm, wherein the beverage vessel 6 is providable in the irradiation chamber 2 to be irradiated with the first radiation 10.

The present invention relates an oxygen free coconut water processing and packaging method. The method comprising the steps of establishing an inert trusted transfer environment and penetrating shell of a coconut with at least one of a self sealing probe. The method then modifies an atmospheric condition within the coconut by providing the inert gas at a desired atmospheric pressure to engender flow of the coconut water through an egress port. The coconut water is then sterilized by way of a cold micro-filter array. The method then circulating the coconut water between a chiller and the oxygen free collection vessel to maintain the coconut water at a predetermined chill temperature until filling. Product packages are filled within an aseptic ultra clean environment that encompasses the filler. The method also includes options for oxygen free cold brewing of coffee, teas, and other using coconut water.

The present invention relates an oxygen free coconut water processing and packaging method. The method comprising the steps of establishing an inert trusted transfer environment and penetrating shell of a coconut with at least one of a self sealing probe. The method then modifies an atmospheric condition within the coconut by providing the inert gas at a desired atmospheric pressure to engender flow of the coconut water through an egress port. The coconut water is then sterilized by way of a cold micro-filter array. The method then circulating the coconut water between a chiller and the oxygen free collection vessel to maintain the coconut water at a predetermined chill temperature until filling. Product packages are filled within an aseptic ultra clean environment that encompasses the filler. The method also includes options for oxygen free cold brewing of coffee, teas, and other using coconut water.

A system includes memory banks that store data and a data path coupled to the memory banks that transfers the data. The system also includes a latch that gates the data path based on a clock signal in the system. The system further includes interface circuitry coupled to the data path that sends an instruction to the memory banks to transmit the data on the data path in response to receiving a first rising edge of the clock signal. The interface circuitry also outputs gated data in response to receiving a second rising edge of the clock signal. The latch gates the data path to store the gated data in response to receiving a falling edge of the clock signal.

A system includes memory banks that store data and a data path coupled to the memory banks that transfers the data. The system also includes a latch that gates the data path based on a clock signal in the system. The system further includes interface circuitry coupled to the data path that sends an instruction to the memory banks to transmit the data on the data path in response to receiving a first rising edge of the clock signal. The interface circuitry also outputs gated data in response to receiving a second rising edge of the clock signal. The latch gates the data path to store the gated data in response to receiving a falling edge of the clock signal.