Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a superhydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: The disclosed apparatus may include a support structure that itself includes multiple substructures. At least some of the substructures may be dimensioned to receive interchangeable tiles. Each of these interchangeable tiles may be configured to cover or be inserted into a corresponding substructure. The tiles may be arranged in a variety of different patterns, shapes, words, or phrases. Various other systems and methods of manufacturing are also disclosed.

Abstract: An atmospheric water generator apparatus. In one embodiment, the apparatus includes a fluid cooling device. A water condensing surface is thermally connected to the fluid cooling device, the water condensing surface having a superhydrophobic condensing surface, a highly hydrophobic condensing surface, a superhydrophilic condensing surface, a highly hydrophilic condensing surface, or a combination thereof. An air-cooled heat rejection device is in fluid communication with a fluid cooling device. An air fan is configured to induce airflow across the water condensing surface in order to condense and extract water from the atmosphere.

Abstract: An apparatus and method for processing a data signal transferred using a specific data protocol, DP, said apparatus comprising a decoding unit configured to decode stepwise the data signal according to the used data protocol, wherein said decoding unit is adapted to decode in a decoding step rising and falling signal edges as an intermediate decoding result; and a decoding result labelling unit configured to provide intermediate decoding result labels, L, for the data signal, DS, after each decoding step performed by said decoding unit and configured to map the provided decoding result labels, L, to the data signal, DS.

Abstract: An apparatus and method for processing a data signal transferred using a specific data protocol, DP, said apparatus comprising a decoding unit configured to decode stepwise the data signal according to the used data protocol, wherein said decoding unit is adapted to decode in a decoding step rising and falling signal edges as an intermediate decoding result; and a decoding result labelling unit configured to provide intermediate decoding result labels, L, for the data signal, DS, after each decoding step performed by said decoding unit and configured to map the provided decoding result labels, L, to the data signal, DS.

Abstract: The fishing tip-up has an upright support and a swinging arm pivotally mounted to the top of the support. A forward segment of the arm pivots downward and toward the support when the rear segment pivots upward. The swinging arm is adapted to support a fishing line which extends downward into a fishing hole from the forward segment and to which a bait is attached for attracting a fish. When a fish strikes, the forward segment pivots downward when a force greater than a predetermined value is applied to the fishing line. The predetermined value is adjustable. A magnet is provided in the rear segment of the swinging arm and keeps a reed switch in the support open until a fish strikes. At that time, the rear segment swings up and away from the support with resulting separation of the magnet from the reed switch and concurrent closing of the switch. When the reed switch is closed, a light illuminates.

Abstract: The fishing tip-up has an upright support and a swinging arm pivotally mounted to the top of the support. A forward segment of the arm pivots downward and toward the support when the rear segment pivots upward. The swinging arm is adapted to support a fishing line which extends downward into a fishing hole from the forward segment and to which a bait is attached for attracting a fish. When a fish strikes, the forward segment pivots downward when a force greater than a predetermined value is applied to the fishing line. The predetermined value is adjustable. A magnet is provided in the rear segment of the swinging arm and keeps a reed switch in the support open until a fish strikes. At that time, the rear segment swings up and away from the support with resulting separation of the magnet from the reed switch and concurrent closing of the switch. When the reed switch is closed, a light illuminates.

Abstract: The fishing tip-up has an upright support and a swinging arm pivotally mounted to the top of the support. A forward segment of the arm pivots downward and toward the support when the rear segment pivots upward The swinging arm is adapted to support a fishing line which extends downward into a fishing hole from the forward segment and to which a bait is attached for attracting a fish. When a fish strikes, the forward segment pivots downward when a force greater than a predetermined value is applied to the fishing line. The predetermined value is adjustable. A magnet is provided in the rear segment of the swinging arm and keeps a reed switch in the support open until a fish strikes. At that time, the rear segment swings up and away from the support with resulting separation of the magnet from the reed switch and concurrent closing of the switch. When the reed switch is closed, a light illuminates.

Abstract: A method for allowing a robot to avoid objects along a programmed path: first, a field of view for an electronic imager of the robot is established along a path where the electronic imager obtains the object location information within the field of view; second, a population coded control signal is then derived from the object location information and is transmitted to the robot; finally, the robot then responds to the control signal and avoids the detected object.