Abstract: A comfort sleeve for male incontinence has a sleeve with an outer layer and an inner layer with an absorbent disposed between them. The sleeve has an upper compression zone disposed along a top portion; a lower compression zone disposed along a bottom portion of the sleeve and a contour compression zone disposed between the upper compression zone and the bottom compression zone. The upper compression zone has at least one elastic band with a first elasticity; the contour compression zone has at least one elastic band with a second elasticity where the second elasticity is selected to comfortably compress the sleeve around the base of the glans of a penis; thereby removably securing the sleeve around said penis. The bottom compression zone is selected to have a third elasticity wherein each selected elasticity provides a compressive force selected to comfortably shape and hold the sleeve around the penis.

Abstract: A wall mount device is provided and may be configured to mount a display module, configured to display an image on a front surface of the display module, to a wall. The wall mount device may include: a wall bracket configured to be mounted on the wall; a mounting bracket that is mountable on a rear surface of the display module and including a mounting guide that extends to an upper side of the display module; and a guide member configured to couple to the wall bracket and, in a case where the display module is being mounted on the wall, guide the mounting guide on the upper side of the display module.

Abstract: A machine including an adjustable cradle configured to hold, individually, electronic devices having different dimensions. The machine also can include an alignment base configured to engage, individually, with alignment tabs of overlay applicators, each respective one of the overlay applicators comprising a respective overlay configured to be applied to a respective screen of each of the electronic devices. The machine can be configured to facilitate applying, individually, the respective overlays to the respective screens of the electronic devices. The adjustable cradle can include a second adjustable holder and a third adjustable holder opposite the second adjustable holder. The second adjustable holder and the third adjustable holder can be configured to adjust a respective position of each of the electronic devices held in the adjustable cradle with respect to the alignment base. Other embodiments are described.

Abstract: A controller system including a first controller including one or more input controls and a connector. The controller system also can include a second controller including one or more input controls and a connector. The controller system additionally can include a bridge including a first connector at a first end of the bridge, a second connector at a second end of the bridge, and one or more hub connectors between the first end and the second end of the bridge. Each of the first connector, the second connector, and the one or more hub connectors can be a first connector type. Each of the connectors of the first controller and the second controller can be a second connector type configured to connect in a positionally secure manner with the first connector type. Other embodiments are described.

Abstract: Medical systems are disclosed that include an implantable blood pump and a pressure sensor. A medical system includes an implantable blood pump, a pulmonary artery blood pressure sensor, and a controller. The implantable blood pump includes a blood flow inlet configured to be coupled to a ventricle and a blood flow outlet configured to be coupled to an artery. The pulmonary artery blood pressure sensor is configured to output a pulmonary artery blood pressure signal indicative of pulmonary artery blood pressure of the user. The controller is operably coupled with the implantable blood pump and the pulmonary artery blood pressure sensor. The controller is configured to generate a pulmonary artery blood pressure waveform based on the pulmonary artery blood pressure signal and output the pulmonary artery blood pressure waveform.

Abstract: A machine including an adjustable cradle configured to hold, individually at different times, electronic devices having different dimensions. The machine also can include an alignment base configured to engage, individually at different times, with alignment mechanisms of overlay applicators, each respective one of the overlay applicators comprising a respective overlay configured to be applied to a respective surface of each of the electronic devices. The machine can be configured to facilitate applying, individually at different times, the respective overlays to the respective surfaces of the electronic devices. The adjustable cradle can include a fixed corner holder and an adjustable corner holder. The adjustable corner holder can be configured to hold each of the electronic devices between the adjustable corner holder and the fixed corner holder when each of the electronic devices is held within the adjustable cradle. Other embodiments are described.

Abstract: A machine including an adjustable cradle configured to hold, individually at different times, electronic devices having different dimensions. The machine also can include an alignment base configured to engage, individually at different times, with alignment mechanisms of overlay applicators, each respective one of the overlay applicators comprising a respective overlay configured to be applied to a respective surface of each of the electronic devices. The machine can be configured to facilitate applying, individually at different times, the respective overlays to the respective surfaces of the electronic devices. The adjustable cradle can include a second adjustable holder and a third adjustable holder opposite the second adjustable holder. The second adjustable holder and the third adjustable holder can be configured to adjust a respective position of each of the electronic devices held in the adjustable cradle with respect to the alignment base. Other embodiments are described.

Abstract: This disclosure relates to, inter alia, cells expressing both a chimeric antigen receptor (CAR) and membrane bound IL-12 and the use of these cells to target and treat cancers (e.g., solid tumors and cancers expressing CD19, CD22, BCMA, PSCA, HER2, TAG-72, and PSCA). The disclosure also relates to cells expressing a membrane bound IL-12.

Abstract: The invention generally relates to heart pump systems. In some embodiments, a pressure sensor is provided with a heart pump, either at the inflow or the outflow of the blood pump. The heart pump may further include a flow estimator based on a rotor drive current signal delivered to the rotor. Based on the rotor drive current signal, a differential pressure across the pump may be calculated. The differential pressure in combination with the pressure measurements from the pressure sensor may be used to calculate pressure on the opposite side of the pump from the pressure sensor. In some embodiments, the pressure sensor is located at the outflow of the pump and the pump is coupled with the left ventricle. The differential pressure and pressure measurement may be used to calculate a left ventricular pressure waveform of the patient. With such a measurement, other physiological parameters may be derived.

Abstract: Systems and methods are disclosed including a processing device operatively coupled to memory device. The processing device perform operations comprising receiving, from a memory sub-system controller, a first read command and a second read command; determining that the memory device is in a suspended state; and responsive to determining that a first address range specified by the first read command does not overlap with a second address range specified by the second read command, issuing, to the memory device, the first read command and the second read command collectively.

Abstract: A wireless power transfer system is provided. The system includes an external transmit resonator and an implantable receive resonator. The transmit resonator is configured to transmit wireless power, wherein the external transmit resonator includes one of i) one or more loops of Litz wire and ii) a plurality of stacked plates. The implantable receive resonator is configured to receive the transmitted wireless power from the external transmit resonator, wherein the implantable receive resonator is configured to power a ventricular assist device (VAD) implanted in a subject using the received wireless power. The implantable receive resonator includes the other of i) the one or more loops of Litz wire and ii) the plurality of stacked plates.

Abstract: Certain embodiments disclosed herein provide an ophthalmic surgical system. The system includes a fluidics module and a controller. The fluidic module includes a surgical cassette bay and one or more indicator lights. The one or more indicator lights correspond to one or more fluidic ports on the fluidics module. The controller includes a memory including executable instructions and a processor. The processor is in data communication with the memory. The processor is configured to execute the instructions to cause the system to: determine that a surgical cassette is coupled to the surgical cassette bay; determine a type of the surgical cassette; illuminate at least one of the one or more indicator lights based on the determined type of the surgical cassette; and extinguish the at least one of the one or more indicator lights upon receiving an input indicating that a fluidic tubing is fluidically coupled with the corresponding fluidic port.

Abstract: A wireless power transfer system is provided. The system includes an external transmit resonator and an implantable receive resonator. The transmit resonator is configured to transmit wireless power, wherein the external transmit resonator includes one of i) one or more loops of Litz wire and ii) a plurality of stacked plates. The implantable receive resonator is configured to receive the transmitted wireless power from the external transmit resonator, wherein the implantable receive resonator is configured to power a ventricular assist device (VAD) implanted in a subject using the received wireless power. The implantable receive resonator includes the other of i) the one or more loops of Litz wire and ii) the plurality of stacked plates.

Abstract: A hollow fiber membrane module without a core is disclosed. The hollow fiber membrane module comprises a plurality of hollow fiber membranes that remain helically wound in an outer region of the hollow fiber membrane bundle absent a core. One or more hollow fiber membrane modules without a core may be positioned in a housing comprising one or more cavities. The housing containing the one or more hollow fiber membrane modules may be provided as a component in a fuel cell humidifier.

Abstract: Certain aspects of the present disclosure provide a surgical cassette configured to engage a first plurality of rollers of a first roller head. The cassette comprises a face coupled to a first substrate, the face being at a first angle with respect to the first roller head's axis of rotation and a wall of first substrate being at a second angle with respect to the axis of rotation, wherein the first angle is different from the second angle. The cassette also comprises a first sheet positioned on the wall's surface, wherein the first sheet and the wall form first one or more pump segments configured to engage the first plurality of rollers in a position where force applied by each one of the first plurality of rollers on the first one or more pump segments has a direction that is not parallel to the first roller head's axis of rotation.

Abstract: A machine including an adjustable cradle configured to hold, individually at different times, electronic devices having different dimensions. The machine also can include an alignment base configured to engage, individually at different times, with alignment mechanisms of overlay applicators, each respective one of the overlay applicators comprising a respective overlay configured to be applied to a respective surface of each of the electronic devices. The machine can be configured to facilitate applying, individually at different times, the respective overlays to the respective surfaces of the electronic devices. The adjustable cradle can include a fixed corner holder and an adjustable corner holder. The adjustable corner holder can be configured to hold each of the electronic devices between the adjustable corner holder and the fixed corner holder when each of the electronic devices is held within the adjustable cradle. Other embodiments are described.

Abstract: A wall mount device is provided and may be configured to mount a display module, configured to display an image on a front surface of the display module, to a wall. The wall mount device may include: a wall bracket configured to be mounted on the wall; a mounting bracket that is mountable on a rear surface of the display module and including a mounting guide that extends to an upper side of the display module; and a guide member configured to couple to the wall bracket and, in a case where the display module is being mounted on the wall, guide the mounting guide on the upper side of the display module.

Abstract: A blood circulation assist system includes a ventricular assist device (VAD) and a controller. The VAD is attachable to a heart of a patient to pump blood from a ventricle of the heart into a blood vessel of the patient. The VAD includes an impeller, a motor stator operable to rotate the impeller, and an accelerometer generating an accelerometer output indicative of accelerations of the VAD. The controller is configured to process the accelerometer output to generate patient monitoring data for the patient.

Abstract: This disclosure relates to, inter alia, cells expressing both a chimeric antigen receptor (CAR) and membrane bound IL-12 and the use of these cells to target and treat cancers (e.g., solid tumors and cancers expressing CD19, CD22, BCMA, PSCA, HER2, TAG-72, and PSCA). The disclosure also relates to cells expressing a membrane bound IL-12.