Abstract: Apparatuses and methods are disclosed herein for securely docking portable ultrasound imaging devices and/or other medical equipment to stand heads and other support structures. In some embodiments, a portable imaging device can include a movable carrying handle that enables the user to easily secure the imaging device to a stand head by rotating the handle to engage one or more latch mechanisms on the stand head. The user can quickly remove the imaging device from the stand head for transport to another location by disengaging the one or more latches and rotating the handle in the opposite direction. If the new location lacks a stand head or other docking structure, the user can rotate the handle downwardly to act as a stand that elevates the rear portion of the device to facilitate use on a desktop or other surface.

Abstract: Apparatuses and associated methods for mounting PCBs and other electronics boards in portable medical equipment and/or other portable and non-portable electronic devices are disclosed herein. In some embodiments, the technology disclosed herein can provide PCB mounting systems that isolate the PCB from detrimental shock, vibration, and/or strain, while also providing electrical ground paths that greatly reduce EMI and other electrical disturbances. Some embodiments of the mounting systems described herein include both elastomeric (e.g., rubber) components and resilient metallic grounding members that, when assembled together, provide favorable shock mounting as well as robust electrical grounding without the inconvenience of using separate shock mounts, grounding straps, etc.

Abstract: Apparatuses and methods are disclosed herein for securely docking portable ultrasound imaging devices and/or other medical equipment to stand heads and other support structures. In some embodiments, a portable imaging device can include a movable carrying handle that enables the user to easily secure the imaging device to a stand head by rotating the handle to engage one or more latch mechanisms on the stand head. The user can quickly remove the imaging device from the stand head for transport to another location by disengaging the one or more latches and rotating the handle in the opposite direction. If the new location lacks a stand head or other docking structure, the user can rotate the handle downwardly to act as a stand that elevates the rear portion of the device to facilitate use on a desktop or other surface.

Abstract: Apparatuses and associated methods for mounting PCBs and other electronics boards in portable medical equipment and/or other portable and non-portable electronic devices are disclosed herein. In some embodiments, the technology disclosed herein can provide PCB mounting systems that isolate the PCB from detrimental shock, vibration, and/or strain, while also providing electrical ground paths that greatly reduce EMI and other electrical disturbances. Some embodiments of the mounting systems described herein include both elastomeric (e.g., rubber) components and resilient metallic grounding members that, when assembled together, provide favorable shock mounting as well as robust electrical grounding without the inconvenience of using separate shock mounts, grounding straps, etc.

Abstract: Apparatuses and associated methods for mounting PCBs and other electronics boards in portable medical equipment and/or other portable and non-portable electronic devices are disclosed herein. In some embodiments, the technology disclosed herein can provide PCB mounting systems that isolate the PCB from detrimental shock, vibration, and/or strain, while also providing electrical ground paths that greatly reduce EMI and other electrical disturbances. Some embodiments of the mounting systems described herein include both elastomeric (e.g., rubber) components and resilient metallic grounding members that, when assembled together, provide favorable shock mounting as well as robust electrical grounding without the inconvenience of using separate shock mounts, grounding straps, etc.

Abstract: A medical device housing having a reduced footprint is described. The medical device housing includes a flange coupled to a first portion of the housing and a second portion of the housing that is configured to be coupled to the flange to substantially enclose an electronic component(s) within an interior of the medical device housing. The first portion of the housing includes a support(s) that supports the flange within the first portion. In some examples, a trench is formed between an interior wall of the first portion of the housing and the flange. An adhesive is deposited within the trench to bond the flange to the first portion of the housing. The second portion of the housing is configured to decouple from the flange to allow access to the interior of the medical device housing, such as for maintenance or repairs.

Abstract: Apparatuses and associated methods for mounting PCBs and other electronics boards in portable medical equipment and/or other portable and non-portable electronic devices are disclosed herein. In some embodiments, the technology disclosed herein can provide PCB mounting systems that isolate the PCB from detrimental shock, vibration, and/or strain, while also providing electrical ground paths that greatly reduce EMI and other electrical disturbances. Some embodiments of the mounting systems described herein include both elastomeric (e.g., rubber) components and resilient metallic grounding members that, when assembled together, provide favorable shock mounting as well as robust electrical grounding without the inconvenience of using separate shock mounts, grounding straps, etc.

Abstract: Apparatuses and associated methods for mounting PCBs and other electronics boards in portable medical equipment and/or other portable and non-portable electronic devices are disclosed herein. In some embodiments, the technology disclosed herein can provide PCB mounting systems that isolate the PCB from detrimental shock, vibration, and/or strain, while also providing electrical ground paths that greatly reduce EMI and other electrical disturbances. Some embodiments of the mounting systems described herein include both elastomeric (e.g., rubber) components and resilient metallic grounding members that, when assembled together, provide favorable shock mounting as well as robust electrical grounding without the inconvenience of using separate shock mounts, grounding straps, etc.

Abstract: Apparatuses and associated methods for mounting PCBs and other electronics boards in portable medical equipment and/or other portable and non-portable electronic devices are disclosed herein. In some embodiments, the technology disclosed herein can provide PCB mounting systems that isolate the PCB from detrimental shock, vibration, and/or strain, while also providing electrical ground paths that greatly reduce EMI and other electrical disturbances. Some embodiments of the mounting systems described herein include both elastomeric (e.g., rubber) components and resilient metallic grounding members that, when assembled together, provide favorable shock mounting as well as robust electrical grounding without the inconvenience of using separate shock mounts, grounding straps, etc.

Abstract: Apparatuses and methods are disclosed herein for securely docking portable ultrasound imaging devices and/or other medical equipment to stand heads and other support structures. In some embodiments, a portable imaging device can include a movable carrying handle that enables the user to easily secure the imaging device to a stand head by rotating the handle to engage one or more latch mechanisms on the stand head. The user can quickly remove the imaging device from the stand head for transport to another location by disengaging the one or more latches and rotating the handle in the opposite direction. If the new location lacks a stand head or other docking structure, the user can rotate the handle downwardly to act as a stand that elevates the rear portion of the device to facilitate use on a desktop or other surface.

Abstract: Apparatuses and associated methods for mounting PCBs and other electronics boards in portable medical equipment and/or other portable and non-portable electronic devices are disclosed herein. In some embodiments, the technology disclosed herein can provide PCB mounting systems that isolate the PCB from detrimental shock, vibration, and/or strain, while also providing electrical ground paths that greatly reduce EMI and other electrical disturbances. Some embodiments of the mounting systems described herein include both elastomeric (e.g., rubber) components and resilient metallic grounding members that, when assembled together, provide favorable shock mounting as well as robust electrical grounding without the inconvenience of using separate shock mounts, grounding straps, etc.