Abstract: A cooler has a body and a lid that co-operate. The lid is movable between closed and open positions. The lid is a freezable reservoir. A filler port is located inside the lid. The entrance of the filler port into the lid is located at a height part way between the inside and outside walls of the lid. The lid has a downwardly extending hollow peripheral formation. The filler port is spanwise inset from the peripheral formation. The lid has spanwise extending internal formations that stiffen the lid and divide the internal chamber into sub-volumes connected by necks through which liquid can flow. The inside and outside walls of the lid may be connected. The lid is provided with a “fill to” line visible from the filling port to discourage over-filling. The lid may have an insulated cap, and the cooler may have an insulated jacket.

Abstract: A method of collection of sphagnum moss comprising a motorized cutting and collection of at least a portion of the sphagnum moss. The cutting is performed in a direction substantially parallel to the ground and in a direction substantially vertical to the ground, while leaving the sphagnum moss anchored to the ground.

Abstract: This disclosure describes a cutting unit for cutting sphagnum moss. The unit comprises a first pair of substantially parallel blades, laid out substantially according to a first orientation, and spaced apart from about 2 cm to about 30 cm and a second pair of blades, substantially parallel, laid out substantially in a second orientation, and spaced apart from about 40 cm to about 400 cm. The blades of the first pair and second pair being positioned and configured to cut said sphagnum moss.

Abstract: This disclosure describes a method of collection of sphagnum moss comprising a motorized cutting and collection of at least a portion of the sphagnum moss. The cutting is performed in a direction substantially parallel to the ground and in a direction substantially vertical to the ground, while leaving the sphagnum moss anchored to the ground.

Abstract: This disclosure describes a cutting unit for cutting sphagnum moss. The unit comprises a first pair of substantially parallel blades, laid out substantially according to a first orientation, and spaced apart from about 2 cm to about 30 cm and a second pair of blades, substantially parallel, laid out substantially in a second orientation, and spaced apart from about 40 cm to about 400 cm. The blades of the first pair and second pair being positioned and configured to cut said sphagnum moss.

Abstract: The methods comprise, for example, the motorized cutting and the collection of at least a portion of the sphagnum moss, in which the cutting is carried out at least in a direction substantially parallel to the ground. The disclosure also describes sphagnum moss cutting units and systems for harvesting sphagnum moss.

Abstract: A cooler has a body and a lid that co-operate. The lid is movable between closed and open positions. The lid is a freezable reservoir. A filler port is located inside the lid. The entrance of the filler port into the lid is located at a height part way between the inside and outside walls of the lid. The lid has a downwardly extending hollow peripheral formation. The filler port is spanwise inset from the peripheral formation. The lid has spanwise extending internal formations that stiffen the lid and divide the internal chamber into sub-volumes connected by necks through which liquid can flow. The inside and outside walls of the lid may be connected. The lid is provided with a “fill to” line visible from the filling port to discourage over-filling. The lid may have an insulated cap, and the cooler may have an insulated jacket.

Abstract: This disclosure describes methods for collecting sphagnum moss. The methods comprise, for example, the motorized cutting and the collection of at least a portion of the sphagnum moss, in which the cutting is carried out at least in a direction substantially parallel to the ground. The disclosure also describes sphagnum moss cutting units and systems for harvesting sphagnum moss.

Abstract: The present invention generally relates to an orthopedic exerciser and its actuating mechanism which, more specifically, are used for therapy, post-surgery rehabilitation or healing of a knee, of a joint, or the muscles of a leg or any other body member. Such exercisers usually allow a combination of exercises that help in the recovery of the joint, but to minimize the chances of further injuring the body part and therefore increase the recovery process, the exerciser must submit the body part to a controlled level of force. The orthopedic exerciser of the present invention includes an actuating mechanism cooperating with a resistance assembly which provides resistance and/or assistance along different directions of movement of the actuating mechanism.

Abstract: The present invention generally relates to an orthopedic exerciser and its actuating mechanism which, more specifically, are used for therapy, post-surgery rehabilitation or healing of a knee, of a joint, or the muscles of a leg or any other body member. Such exercisers usually allow a combination of exercises that help in the recovery of the joint, but to minimize the chances of further injuring the body part and therefore increase the recovery process, the exerciser must submit the body part to a controlled level of force. The orthopedic exerciser of the present invention includes an actuating mechanism cooperating with a resistance assembly which provides resistance and/or assistance along different directions of movement of the actuating mechanism.

Abstract: A waveguide structure comprises a thin strip of material having a relatively high free charge carrier density surrounded by material having a relatively low free charge carrier density. The width and thickness of the strip are dimensioned such that optical radiation having a wavelength in a predetermined range couples to the strip and propagates along its length as a plasmon-polariton wave. The device includes a waveguide heater for passing a current through the strip to heat it and the surrounding material, so as to vary propagation of the optical radiation, or means for monitoring propagation of the optical radiation to determine a change in temperature of the strip. Some embodiments provide both heating of the strip and monitoring of its temperature.