Abstract: Galloping motion disruptors and methods for reducing conductor galloping are provided. A galloping motion disruptor includes a first disruptor rod and a second disruptor rod. Each of the first and second disruptor rods includes a first end portion, a second end portion, and a mid-section between the first end portion and the second end portion. The first end portion includes a helical gripping section. The second end portion includes a hook section. The hook sections of the first and second disruptor rods are connectable to each other.

Abstract: Galloping motion disruptors and methods for reducing conductor galloping are provided. A galloping motion disruptor includes a first disruptor rod and a second disruptor rod. Each of the first and second disruptor rods includes a first end portion, a second end portion, and a mid-section between the first end portion and the second end portion. The first end portion includes a helical gripping section. The second end portion includes a hook section. The hook sections of the first and second disruptor rods are connectable to each other.

Abstract: Cable support devices and assemblies are provided. A cable support device supports multiple fiber-optic cables on an above-ground pole. A cable support device includes a base, and a first arm and a second arm extending from the base, the first arm and second arm generally parallel to each other. The cable support device further includes a cross-member extending between and connected to the first arm and the second arm. The cable support device further includes at least one divider member extending radially outwardly from the cross-member, the at least one divider member spaced from the first arm and the second arm and defining at least two slots, each of the at least two slots further defined by the cross-member.

Abstract: A cable support device includes a body having an inner surface defining a body groove extending longitudinally from a first end to an opposite end of the body, the body further including a first bracket. The cable support device further includes a cap having an inner surface defining a cap groove extending longitudinally from a first end to an opposite end of the cap, the cap further including a first hinge. The cable support device further includes an inner bushing seated in at least one of the body groove or the cap groove, the inner bushing extending along a longitudinal axis between a first end and a second end and defining a length, the inner bushing further defining a plurality of slots, each of the plurality of slots extending between the first end and the second end and configured to accept one of the plurality of cables.

Abstract: Mid-span consolidators for consolidating aerial cables are provided. A mid-span consolidator includes an inner bushing. The inner bushing extends along a longitudinal axis between a first end and a second end and defines a length. The inner bushing further defines a plurality of slots, each of the plurality of slots extending between the first end and the second end and configured to accept one of the plurality of cables. The mid-span consolidator further includes an outer cover surrounding the inner bushing. The outer cover extends along a longitudinal axis between a first end and a second end and defines a length.

Abstract: Cable support devices and assemblies are provided. A cable support device supports multiple fiber-optic cables on an above-ground pole. A cable support device includes a base, and a first arm and a second arm extending from the base, the first arm and second arm generally parallel to each other. The cable support device further includes a cross-member extending between and connected to the first arm and the second arm. The cable support device further includes at least one divider member extending radially outwardly from the cross-member, the at least one divider member spaced from the first arm and the second arm and defining at least two slots, each of the at least two slots further defined by the cross-member.

Abstract: Galloping motion disruptors and methods for reducing conductor galloping are provided. A galloping motion disruptor includes a first disruptor rod and a second disruptor rod. Each of the first and second disruptor rods includes a first end portion, a second end portion, and a mid-section between the first end portion and the second end portion. The first end portion includes a helical gripping section. The second end portion includes a hook section. The hook sections of the first and second disruptor rods are connectable to each other.

Abstract: A physiologic sensor module includes at least one wearable sensor that is configured for wearing on a human body part and for measuring at least one biological signal. The module further includes at least one controller communicatively coupled to the wearable sensor and configured to receive the biological signal from the wearable sensor. The controller is further configured to process the biological signal in real-time, extract one or more clinical features from the biological signal, and based on the clinical features, determine detection of anaphylaxis.

Abstract: An injector module includes a housing, a reservoir, a superelastic needle, and an actuator. The reservoir is positioned in the housing and stores epinephrine therein. The superelastic needle is positioned within the housing in a retracted position and is fluidly coupled with the reservoir. The superelastic needle has a gauge between eighteen and twenty-five. The actuator is configured to apply an actuator force on the superelastic needle such that the superelastic needle is moved from the retracted position to an injecting position where a tip of the superelastic needle protrudes from the housing between about fifteen millimeters and about thirty-five millimeters.

Abstract: A physiologic sensor module includes at least one wearable sensor that is configured for wearing on a human body part and for measuring at least one biological signal. The module further includes at least one controller communicatively coupled to the wearable sensor and configured to receive the biological signal from the wearable sensor. The controller is further configured to process the biological signal in real-time, extract one or more clinical features from the biological signal, and based on the clinical features, determine detection of anaphylaxis.