Abstract: A system and method are disclosed for the remote detection of otitis media in children at home or in other locations for use in a telemedicine environment. The system runs on a smartphone application and is easy for a child's caregiver to use. The system also includes a pop-open soundwave guide that directs an audio signal from a smartphone's speaker to the patient's eardrum and back to the smartphone's microphone.

Abstract: A mixing device of FIG. 1B comprises a multi-element spring system in which an eccentric load, coupled to a rotor of a motor, is located towards a first end of a first beam realising a backbone for the mixing device. One or more connections interconnect the backbone respectively to one or more other beams to produce the multi-element spring system. A load, such as a vial or other container in which is located a diluent, is located remotely from the motor. As such, the spring system supports two independent but complementary eccentric load generating subsystems arising from, respectively, the controlled rotation of the rotor [and its eccentric load] and then, in response to rotation of the connected eccentric load on the rotor, swirling of the diluent in the vial/container. Both these eccentric loads contribute to a complex multidirectional flexing of the multi-element spring system [relative to a fixed anchor point].

Abstract: Systems, apparatuses, and methods for providing negative pressure to a tissue site are disclosed. Illustrative embodiments may include an apparatus or system for delivering negative-pressure to a tissue site, which can be used in conjunction with low-profile distribution components for wound therapy. Such apparatus may include a low-profile dressing interface or connector comprising at least two side-by-side fluid pathways fluidly coupled to a recessed space of the connector, one for providing negative pressure to a tissue interface or manifold and the other for sensing the negative pressure within the recessed space adjacent the tissue interface. In some embodiments, for example, the apparatus may comprise a first layer of polymeric film having an outer surface, an inner surface, and a plurality of features extending from the inner surface, and a second layer of polymeric film coupled to the first layer.

Abstract: Agents are configured to collect data from terminals and send the data in real time to a data integrator. The data integrator identifies the data types and processes custom aggregation on select ones of data types from the data. The data and the output of any aggregations are translated to a select output format and sent to one or more select resources for further processing. The data integrator determines when to send the data and the output from any aggregation in the select output format to the one more select resources based on a defined condition. In an embodiment, the data integrator sends the data and output from any aggregation in real time to at least one of the one or more select resources.

Abstract: An evaporative bridge dressing that may be used with negative-pressure treatment of tissue. The evaporative bridge dressing may have one or more fluid transfer layers comprised of high-density wicking material enclosed between layers of film having high moisture-vapor transfer rates to reduce liquid storage and minimize pressure drop.

Abstract: Systems, apparatuses, and methods for providing negative pressure to a tissue site are disclosed. Illustrative embodiments may include an apparatus or system for delivering negative-pressure to a tissue site, which can be used in conjunction with low-profile distribution components for wound therapy. Such apparatus may include a low-profile dressing interface or connector comprising at least two side-by-side fluid pathways fluidly coupled to a recessed space of the connector, one for providing negative pressure to a tissue interface or manifold and the other for sensing the negative pressure within the recessed space adjacent the tissue interface. In some embodiments, for example, the apparatus may comprise a first layer of polymeric film having an outer surface, an inner surface, and a plurality of features extending from the inner surface, and a second layer of polymeric film coupled to the first layer.

Abstract: A component for manipulating an input shockwave. The component includes a body comprising a first material. The body defines a cavity for manipulating the input shockwave so to produce a manipulated shockwave. The cavity comprises an input for receiving the input shockwave incident upon the component and an output for outputting the manipulated shockwave from the cavity. The cavity contains a second material having a shock-impedance that is lower than a shock-impedance of the first material.

Abstract: Systems, apparatuses, and methods for providing negative pressure to a tissue site are disclosed. Illustrative embodiments may include an apparatus or system for delivering negative-pressure to a tissue site, which can be used in conjunction with low-profile distribution components for wound therapy. Such apparatus may include a low-profile dressing interface or connector comprising at least two side-by-side fluid pathways fluidly coupled to a recessed space of the connector, one for providing negative pressure to a tissue interface or manifold and the other for sensing the negative pressure within the recessed space adjacent the tissue interface. In some embodiments, for example, the apparatus may comprise a first layer of polymeric film having an outer surface, an inner surface, and a plurality of features extending from the inner surface, and a second layer of polymeric film coupled to the first layer.

Abstract: A treatment system for applying negative pressure therapy and fluid instillation treatment to a tissue site, particularly an abdominal tissue site, is disclosed. In some embodiments, the treatment system may include a dressing member, a plurality of fluid removal pathways, a fluid instillation matrix, a drape, a negative-pressure source, and a fluid instillation source. Instillation fluid may be delivered from the fluid instillation source to the tissue site through the fluid instillation matrix, and negative pressure may be communicated and fluid withdrawn from the tissue site through the plurality of fluid removal pathways.

Abstract: A system and method are disclosed for the remote detection of otitis media in children at home or in other locations for use in a telemedicine environment. The system runs on a smartphone application and is easy for a child's caregiver to use. The system also includes a pop-open soundwave guide that directs an audio signal from a smartphone's speaker to the patient's eardrum and back to the smartphone's microphone.

Abstract: A transaction is detected on a terminal. A context for an association of items, bags, shelving, carts, and individuals present during the transaction is maintained from images captured during the transaction. Rules are processed to determine actions to process during the transaction and/or after the transaction based on reported transaction details, the context, and analytics derived from the images for the context. In an embodiment, at least one rule identifies an action that overrides an attendant intervention at the terminal, which would have been issued for a detected weight discrepancy by a scale of the terminal.

Abstract: Agents are configured to collect data from terminals and send the data in real time to a data integrator. The data integrator identifies the data types and processes custom aggregation on select ones of data types from the data. The data and the output of any aggregations are translated to a select output format and sent to one or more select resources for further processing. The data integrator determines when to send the data and the output from any aggregation in the select output format to the one more select resources based on a defined condition. In an embodiment, the data integrator sends the data and output from any aggregation in real time to at least one of the one or more select resources.

Abstract: Agents are configured to collect data from terminals and send the data in real time to a data integrator. The data integrator identifies the data types and processes custom aggregation on select ones of data types from the data. The data and the output of any aggregations are translated to a select output format and sent to one or more select resources for further processing. The data integrator determines when to send the data and the output from any aggregation in the select output format to the one more select resources based on a defined condition. In an embodiment, the data integrator sends the data and output from any aggregation in real time to at least one of the one or more select resources.

Abstract: A system for providing instillation fluid to a deep abdominal wound includes an instillation module and a connection structure. The instillation module defines a first surface and a second, abdominal contents-facing surface. The instillation module includes a distribution hub configured to receive instillation fluid from an instillation fluid source. The connection structure includes a first surface, a second, abdominal contents-facing surface; and a flow path extending between the first surface and the second surface. The flow path includes an inlet configured to receive an instillation fluid conduit engaged with the instillation fluid source and an outlet in fluid communication with the instillation module. The flow path defines an axis extending between the inlet and the outlet. The flow path is configured to compress in a direction defined by the axis.

Abstract: A system for providing instillation fluid to a deep abdominal wound includes an instillation module and a connection structure. The instillation module defines a first surface and a second, abdominal contents-facing surface. The instillation module includes a distribution hub configured to receive instillation fluid from an instillation fluid source. The connection structure includes a first surface, a second, abdominal contents-facing surface; and a flow path extending between the first surface and the second surface. The flow path includes an inlet configured to receive an instillation fluid conduit engaged with the instillation fluid source and an outlet in fluid communication with the instillation module. The flow path defines an axis extending between the inlet and the outlet. The flow path is configured to compress in a direction defined by the axis.

Abstract: A reinforced plastic pallet includes an integrally formed deck having a top deck surface, a bottom deck surface, and a plurality of spaced apart supports extending between the top deck surface and the bottom deck surface. The top deck surface has a plurality of outwardly extending top ribs extending from the top deck surface and the bottom deck surface has a plurality of outwardly extending bottom ribs extending from the bottom deck surface. A top sheet is coupled to the top deck surface to fully enclose the top ribs between the top sheet and the top deck surface. A bottom sheet is coupled to the bottom deck surface and encloses the bottom ribs between the bottom sheet and the bottom deck surface. The pallet may include optional reinforcement rods fully contained within channels formed in the ribs.

Abstract: A fluid management bridge for providing a fluid communication between a wound interface dressing and a negative pressure source is disclosed. The fluid management bridge comprises a first end having a first fluid port configured to be coupled to a port of the wound interface dressing and a second end having a second fluid port configured to be coupled to the negative pressure device. The first end of the fluid management bridge is configured to provide for central alignment of the first end with the port of the wound interface dressing.