Abstract: Protective clothing and/or equipment may comprise a modular helmet assembly which comprises a plurality of impact mitigation modules positioned between an outer layer and an interior layer of the helmet, optionally with a plurality of perforations or openings in an outer shell of the helmet. The plurality of impact mitigation assemblies may comprise an impact absorbing array of impact mitigation structures having at least one filament and a lateral support wall or connecting element. When force is applied to the exterior surface, the structures of the impact absorbing materials deform in a desired and controlled manner, reducing the force received by the interior layer.

Abstract: A head-mounted display device includes a device housing and a fan coupled to the device housing and configured to direct airflow within the device housing. The fan includes a fan housing, a motor hub, and a fan blade coupled to the motor hub. The fan blade has a first cross-section adjacent to the motor hub, a second cross-section outward of and adjacent to the first cross-section, and the first cross-section is smaller than the second cross-section such that an applied force to the device housing causes the fan blade to transition from an operable configuration to an inoperable configuration by deformation of the fan blade at the first cross-section.

Abstract: A device includes a device housing, a facial interface, a support structure, content display components, and an impact mitigation structure that is configured to mitigate an impact with an external structure.

Abstract: Protective clothing and/or equipment may comprise a modular helmet assembly which comprises a plurality of impact mitigation modules positioned between an outer layer and an interior layer of the helmet, optionally with a plurality of perforations or openings in an outer shell of the helmet. The plurality of impact mitigation assemblies may comprise an impact absorbing array of impact mitigation structures having at least one filament and a lateral support wall or connecting element. When force is applied to the exterior surface, the structures of the impact absorbing materials deform in a desired and controlled manner, reducing the force received by the interior layer.

Abstract: A three-dimensional microlattice layer comprising a plurality of interconnected filaments extending along at least three different directions from a plurality of nodes. The microlattice layer may further comprise at least one material layer extending laterally between and interconnecting at least two or more nodes. The at least one material layer may be configured to transversely and rotationally constrain the nodes to increase the overall compressive strength and stiffness of the microlattice structure. The at least one material layer may comprise a single, continuous layer and/or a plurality of material layer segments. The microlattice layer may comprise a single, continuous layer or a plurality of microlattice layer segments. The microlattice layer may be stacked, the stacked microlattice layers may further comprise one or more material layers and/or one or more impact mitigation layers.

Abstract: A microlattice structure may be used for a variety of different applications with a protective helmet assembly. The three-dimensional microlattice layer comprising a plurality of interconnected filaments extending along at least three different directions from a plurality of nodes. The microlattice layer may further comprise at least one material layer extending laterally between and interconnecting at least two or more nodes. The at least one material layer may be configured to transversely and rotationally constrain the nodes to increase the overall compressive strength and stiffness of the microlattice structure. The at least one material layer may comprise a single, continuous layer and/or a plurality of material layer segments. The microlattice layer may comprise a single, continuous layer or a plurality of microlattice layer segments. The microlattice layer may be stacked, the stacked microlattice layers may further comprise one or more material layers and/or one or more impact mitigation layers.

Abstract: Protective clothing and/or equipment may comprise a modular helmet assembly which comprises a plurality of impact mitigation modules positioned between an outer layer and an interior layer of the helmet, optionally with a plurality of perforations or openings in an outer shell of the helmet. The plurality of impact mitigation assemblies may comprise an impact absorbing array of impact mitigation structures having at least one filament and a lateral support wall or connecting element. When force is applied to the exterior surface, the structures of the impact absorbing materials deform in a desired and controlled manner, reducing the force received by the interior layer.

Abstract: The disclosure provides example apparatus and methods for automatically adjusting a socket size of a prosthesis. The apparatus includes (a) the prosthesis having a socket configured to receive a limb, (b) a first opening in a socket wall, (c) a first panel aligned with the first opening, (d) a first actuator coupled to the first panel and to the prosthesis, the first actuator is configured to advance and retract the first panel, (e) a first sensor coupled to the socket wall and configured to obtain limb-to-socket gap data, and (f) a processor coupled to the first actuator and the first sensor, wherein the processor is configured (i) to receive the limb-to-socket gap data, (ii) to determine a socket-size adjustment based on the limb-to-socket gap data and a predetermined socket-fit value, (iii) to generate and (iv) to send a command with the socket-size adjustment to the first actuator.

Abstract: The present invention generally relates to prosthetic socket accommodation systems. In some embodiments a prosthetic socket accommodation system may be configured to automatically adjust the accommodation system in response to user activities. In some embodiments, a controller of the prosthetic socket accommodation system may be customized for a prosthetics user based on an activity volume profile of the prosthetics user. The activity volume profile may correspond to a residual limb fluid volume response to prosthetics user activity. In some embodiments, a controller of a socket accommodation system may be configured to control pistoning during prosthetic socket use. Some embodiments are related to sensors for identifying prosthetics user activity. In some embodiments a three-axis sensor may be used to identify prosthetics user activity. In some embodiments a socket proximity sensor comprising an infrared sensor may be used to detect socket donning and doffing by the prosthetics user.

Abstract: Apparatuses, systems, methods, and computer program products are disclosed for grouping storage ports based on distance. A distance module may be configured to assign distance values to a plurality of ports. Distance values may be for data communications between a node and ports. A group module may be configured to assign one or more ports of a plurality of ports to one of a first port group and a second port group based on assigned distances. A selection module may be configured to select a second port group for data communications between a node and a non-volatile storage medium in response to a first port group being unavailable.

Abstract: A prosthetic sock monitoring system is disclosed. The sock monitoring system includes a storage device and a data collection unit. The data collection unit is operable to receive data from at least one sensor coupled to a prosthetic sock that is wearable by a patient, and store the received data in the storage device. A prosthetic sock is also disclosed. The sock comprises material shaped to fit over at least a portion of the residual limb of the patient and a thickness adapted for inserting the residual limb into the socket of the prosthesis while the sock is fitted over the residual limb. The sock also comprises one or more of a sock identification unit and a force sensing device.

Abstract: A prosthetic sock monitoring system is disclosed. The sock monitoring system includes a storage device and a data collection unit. The data collection unit is operable to receive data from at least one sensor coupled to a prosthetic sock that is wearable by a patient, and store the received data in the storage device. A prosthetic sock is also disclosed. The sock comprises material shaped to fit over at least a portion of the residual limb of the patient and a thickness adapted for inserting the residual limb into the socket of the prosthesis while the sock is fitted over the residual limb. The sock also comprises one or more of a sock identification unit and a force sensing device.

Abstract: A prosthetic sock monitoring system is disclosed. The sock monitoring system includes a storage device and a data collection unit. The data collection unit is operable to receive data from at least one sensor coupled to a prosthetic sock that is wearable by a patient, and store the received data in the storage device. A prosthetic sock is also disclosed. The sock comprises material shaped to fit over at least a portion of the residual limb of the patient and a thickness adapted for inserting the residual limb into the socket of the prosthesis while the sock is fitted over the residual limb. The sock also comprises one or more of a sock identification unit and a force sensing device.

Abstract: A prosthetic sock monitoring system is disclosed. The sock monitoring system includes a storage device and a data collection unit. The data collection unit is operable to receive data from at least one sensor coupled to a prosthetic sock that is wearable by a patient, and store the received data in the storage device. A prosthetic sock is also disclosed. The sock comprises material shaped to fit over at least a portion of the residual limb of the patient and a thickness adapted for inserting the residual limb into the socket of the prosthesis while the sock is fitted over the residual limb. The sock also comprises one or more of a sock identification unit and a force sensing device.

Abstract: A scented candle includes at least two different wax materials with one of the materials having one melting point and at least one of the other wax materials having a second higher melting point. The wax having the higher melting point may include a malodor control agent or odor abatement substance or alternatively a fragrance that is different than the fragrance in the other wax materials in the candle. The second fragrance may also be at a much higher concentration than the fragrances in the other wax materials contained in the candle.

Abstract: A scented candle includes at least two different wax materials with one of the materials having one melting point and at least one of the other wax materials having a second higher melting point. The wax having the higher melting point may include a fragrance that is different from the other wax materials in the candle. The second fragrance may also be at a much higher concentration than the fragrances in the other wax materials contained in the candle. The wax having the higher melting point may also include odor abatement substances.

Abstract: A scented candle includes at least two different wax materials with one of the materials having one melting point and at least one of the other wax materials having a second higher melting point. The wax having the higher melting point may include a malodor control agent or odor abatement substance or alternatively a fragrance that is different than the fragrance in the other wax materials in the candle. The second fragrance may also be at a much higher concentration than the fragrances in the other wax materials contained in the candle.