Abstract: Certain aspects of the present disclosure provide a power supply system. The power supply system generally includes a first voltage regulator and a second voltage regulator, outputs of the first voltage regulator and the second voltage regulator being coupled to an output of the power supply system. The power supply system may also include a current balancer circuit configured to adjust an output current of the first voltage regulator based on determined headrooms of the first voltage regulator and the second voltage regulator.

Abstract: Certain aspects of the present disclosure provide a power supply system. The power supply system generally includes a first voltage regulator and a second voltage regulator, outputs of the first voltage regulator and the second voltage regulator being coupled to an output of the power supply system. The power supply system may also include a current balancer circuit configured to adjust an output current of the first voltage regulator based on determined headrooms of the first voltage regulator and the second voltage regulator.

Abstract: The present disclosure relates to formulations, methods, kits, and dosage forms for oral pharmaceutical formulations comprising one or more immunosuppressive agents. The pharmaceutical formulations of the present disclosure can be useful in treating organ or stem cell transplant recipients or T-cell mediated diseases.

Abstract: The present disclosure relates to formulations, methods, kits, and dosage forms for oral pharmaceutical formulations comprising one or more immunosuppressive agents. The pharmaceutical formulations of the present disclosure can be useful in treating organ or stem cell transplant recipients or T-cell mediated diseases.

Abstract: The present disclosure relates to oral liquid tacrolimus formulations and the use in treating organ or stem cell transplant recipients or T-cell mediated diseases.

Abstract: An applicator for applying a fluid to a surface is provided, the applicator comprising a support comprising an upper outer surface and a lower holding surface; a flexible membrane comprising a central opening, an inner wall comprising a lower end and an upper end, an outer wall at least partially surrounding the upper outer surface of the support, the outer wall comprising a lower end and an upper end, and an upper folded wall connecting the upper ends of the inner wall and outer wall; and a membrane holder for fixedly securing the lower end of the inner wall of the flexible membrane to the upper outer surface of the support; wherein the upper surface of the membrane holder and the inner wall of the flexible membrane define a reservoir for holding a fluid, and wherein the lower end of the outer wall of the flexible membrane is free to move axially relative to the upper outer surface of the support when pressure is applied to the upper folded wall of the flexible membrane.

Abstract: An applicator for applying a fluid to a surface is provided, the applicator comprising a support comprising an upper outer surface and a lower holding surface; a flexible membrane comprising a central opening, an inner wall comprising a lower end and an upper end, an outer wall at least partially surrounding the upper outer surface of the support, the outer wall comprising a lower end and an upper end, and an upper folded wall connecting the upper ends of the inner wall and outer wall; and a membrane holder for fixedly securing the lower end of the inner wall of the flexible membrane to the upper outer surface of the support; wherein the upper surface of the membrane holder and the inner wall of the flexible membrane define a reservoir for holding a fluid, and wherein the lower end of the outer wall of the flexible membrane is free to move axially relative to the upper outer surface of the support when pressure is applied to the upper folded wall of the flexible membrane.

Abstract: A logical mapping of a plurality of access points is automatically generated. Each of the plurality of access points is plotted on a logical map. Lengths of connection lines between access points pairs are determined for each of the plurality of access points on the logical map. Connection lines are oriented in combination with adjustments to the plotted access points on the logical map to run connection lines between each of the access point pairs. Some of the access points are part of more than one access point pair as represented by more than one connection line connected to the at least one access point.

Abstract: A method of enabling a battery hot swap in a mobile device includes detecting when a removable first battery will be removed. The removable first battery may power the mobile device. The method includes reducing a system current to a predetermined level in response to the detecting. The method may further include sourcing current from a second battery when the removable first battery is removed.

Abstract: A logical mapping of a plurality of access points is automatically generated. Each of the plurality of access points is plotted on a logical map. Lengths of connection lines between access points pairs are determined for each of the plurality of access points on the logical map. Connection lines are oriented in combination with adjustments to the plotted access points on the logical map to run connection lines between each of the access point pairs. Some of the access points are part of more than one access point pair as represented by more than one connection line connected to the at least one access point.

Abstract: An Intelligent Electronic Device (IED) includes a plurality of hardware modules including a pair of analog input modules (AIM) modules, a Power Supply Module (PSM), and a Binary Input/Output (BIO) module. Each module is configured for mounting in a first IED housing that has a first form factor. The PSM and BIO module are constructed and arranged to directly connect with electrical connections of the first housing. A second IED housing is provided that has a second form factor that is different from the first form factor. The AIM modules are mounted to a bottom panel of the second housing. The PSM and the BIO module are mounted in the second housing. Wiring electrically connects the AIM modules to connections on the second housing. Adaptor structure electrically connects the PSM and the BIO module with associated connections of the second housing.

Abstract: A method and apparatus provides an Intelligent Electronic Device (IED) with new hardware modules. Hardware modules are provided that are configured for electrically connecting with connections of a first IED housing that has a first form factor. A second IED housing is provided having a second form factor that is different from the first form factor. The hardware modules are mounted in the second housing. Adaptor structure is employed to electrically connect the hardware modules with connections of the second housing. The second housing is mounted into an existing wiring and second form factor environment.

Abstract: An applicator for applying a fluid to a surface is provided, the applicator comprising a support comprising an upper outer surface and a lower holding surface; a flexible membrane comprising a central opening, an inner wall comprising a lower end and an upper end, an outer wall at least partially surrounding the upper outer surface of the support, the outer wall comprising a lower end and an upper end, and an upper folded wall connecting the upper ends of the inner wall and outer wall; and a membrane holder for fixedly securing the lower end of the inner wall of the flexible membrane to the upper outer surface of the support; wherein the upper surface of the membrane holder and the inner wall of the flexible membrane define a reservoir for holding a fluid, and wherein the lower end of the outer wall of the flexible membrane is free to move axially relative to the upper outer surface of the support when pressure is applied to the upper folded wall of the flexible membrane.

Abstract: An applicator for applying a fluid to a surface is provided, the applicator comprising a support comprising an upper outer surface and a lower holding surface; a flexible membrane comprising a central opening, an inner wall comprising a lower end and an upper end, an outer wall at least partially surrounding the upper outer surface of the support, the outer wall comprising a lower end and an upper end, and an upper folded wall connecting the upper ends of the inner wall and outer wall; and a membrane holder for fixedly securing the lower end of the inner wall of the flexible membrane to the upper outer surface of the support; wherein the upper surface of the membrane holder and the inner wall of the flexible membrane define a reservoir for holding a fluid, and wherein the lower end of the outer wall of the flexible membrane is free to move axially relative to the upper outer surface of the support when pressure is applied to the upper folded wall of the flexible membrane.

Abstract: A method and system for managing electrical current within a portable computing device (“PCD”) includes assigning a priority to two or more communications supported by the PCD. A present level of a power supply for the PCD may be monitored by a communications power (“CP”) manager module. Next, the CP manager module may determine if the two or more communications may be transmitted at the present level of the power supply. If the two or more communications cannot be transmitted at the present level of the power supply, then the CP manager module may determine if a timing of at least one of the communications may be adjusted. The CP manager module may also determine a theoretical power level adjustment for at least one of the communications. The two or more communications may be transmitted with any calculated timing off sets and power level adjustments.

Abstract: An applicator for applying a fluid to a surface is provided, the applicator comprising a support comprising an upper outer surface and a lower holding surface; a flexible membrane comprising a central opening, an inner wall comprising a lower end and an upper end, an outer wall at least partially surrounding the upper outer surface of the support, the outer wall comprising a lower end and an upper end, and an upper folded wall connecting the upper ends of the inner wall and outer wall; and a membrane holder for fixedly securing the lower end of the inner wall of the flexible membrane to the upper outer surface of the support; wherein the upper surface of the membrane holder and the inner wall of the flexible membrane define a reservoir for holding a fluid, and wherein the lower end of the outer wall of the flexible membrane is free to move axially relative to the upper outer surface of the support when pressure is applied to the upper folded wall of the flexible membrane.

Abstract: A method and apparatus provides an Intelligent Electronic Device (IED) with new hardware modules. Hardware modules are provided that are configured for electrically connecting with connections of a first IED housing that has a first form factor. A second IED housing is provided having a second form factor that is different from the first form factor. The hardware modules are mounted in the second housing. Adaptor structure is employed to electrically connect the hardware modules with connections of the second housing. The second housing is mounted into an existing wiring and second form factor environment.

Abstract: An Intelligent Electronic Device (IED) includes a plurality of hardware modules including a pair of analog input modules (AIM) modules, a Power Supply Module (PSM), and a Binary Input/Output (BIO) module. Each module is configured for mounting in a first IED housing that has a first form factor. The PSM and BIO module are constructed and arranged to directly connect with electrical connections of the first housing. A second IED housing is provided that has a second form factor that is different from the first form factor. The AIM modules are mounted to a bottom panel of the second housing. The PSM and the BIO module are mounted in the second housing. Wiring electrically connects the AIM modules to connections on the second housing. Adaptor structure electrically connects the PSM and the BIO module with associated connections of the second housing.