Embodiments provide cloud-based ophthalmic eyelid treatment monitoring systems and cloud-based methods for monitoring ophthalmic eyelid treatment. The monitoring system includes a moldable warming device, a monitor, and a cloud server. The moldable warming device includes a heating disc, a resonance frequency stimulation vibration generator (RFSVG), a coupling device, a mask, and a sensor array. The mask is configured to hold the heating disc, the RFSVG, and the coupling device for use in parallel utility. The sensor array is configured to generate a data stream responsive to a vibration and heating profile of a user's individual patient eyelid and periorbital three-dimensional anatomy and surface topography. The monitor is configured to receive the data stream from the sensor array and configured to transmit the data stream to the cloud server. The cloud server is configured to process the data stream so as to determine tuning parameters of the vibration and heating profile of the user's individual patient eyelid and periorbital three-dimensional anatomy and surface topography, and configured to transmit the tuning parameters to the monitor. The monitor is configured to receive the tuning parameters from the cloud server, configured to display information related to the tuning parameters, and configured to transmit the tuning parameters to the moldable warming device. The moldable warming device is configured to receive the tuning parameters from the monitor and configured to generate thermal and vibratory energy according to the tuning parameters.

Robotic debridement apparatuses, related systems, and methods of using the same are disclosed herein. The robotic debridement apparatuses are configured to facilitate debridement of tissue from a wound region. For example, the robotic debridement apparatuses can include one or more of at least one debriding tool configured to debride tissue, at least one tissue disposal tool configured to dispose of substances in the wound region, to the wound region. The systems disclosed herein can include a plurality of robotic debridement apparatuses. The systems disclosed herein can include a dressing associated with the plurality of robotic debridement apparatuses. The dressing can be associated with the robotic debridement apparatuses in a manner that facilitates operations of the robotic debridement apparatuses.

Intraoral phototherapy devices receive light from an associated light source and propagate the light into an oral cavity of a patient. The device comprises a light guide that receives light from an external light source. The light guide comprises a main body portion made of an optically transparent soft flexible biocompatible polymeric material sized and shaped to conform to contours of the oral cavity when inserted therein to direct the light to targeted regions of the oral cavity. The main body portion comprises a pair of spaced apart side wings sized and shaped to be received between a patient's teeth and cheeks on opposite sides of the oral cavity and a center flap intermediate the side wings for transmitting and directing the light to targeted regions of the oral cavity. A controller delivers light to the light guide in a controlled manner.

An intraosseous access system includes a driver, a needle, and an obturator positioned in the needle to prevent entry of bodily tissues into the lumen. The driver includes control logic configured to modify operation of the driver upon an indication that a change in modality is detected. The obturator includes a sensor such as an electrical impedance sensor. The electrical impedance sensor can include a passive RFID chip configured to activate when the change in modality is detected.

Intraoral phototherapy devices receive light from an associated light source and propagate the light into an oral cavity of a patient. The device comprises a light guide that receives light from an external light source. The light guide comprises a main body portion made of an optically transparent soft flexible biocompatible polymeric material sized and shaped to conform to contours of the oral cavity when inserted therein to direct the light to targeted regions of the oral cavity. The main body portion comprises a pair of spaced apart side wings sized and shaped to be received between a patient's teeth and cheeks on opposite sides of the oral cavity and a center flap intermediate the side wings for transmitting and directing the light to targeted regions of the oral cavity. A controller delivers light to the light guide in a controlled manner.

A monitoring system includes a surgical implant configured for implantation in vivo and having at least one sensing fiber configured to measure a preselected physiological parameter, and a receiving unit in wireless communication with the at least one sensing fiber and configured to receive measurements of the preselected physiological parameter. A surgical system includes an end effector having a plurality of fasteners, and a surgical implant securable to tissue via the plurality of fasteners. The surgical implant includes at least one sensing fiber configured to measure a preselected physiological parameter.

Intraoral phototherapy devices receive light from an associated light source and propagate the light into an oral cavity of a patient. The device comprises a light guide that receives light from an external light source. The light guide comprises a main body portion made of an optically transparent soft flexible biocompatible polymeric material sized and shaped to conform to contours of the oral cavity when inserted therein to direct the light to targeted regions of the oral cavity. The main body portion comprises a pair of spaced apart side wings sized and shaped to be received between a patient's teeth and cheeks on opposite sides of the oral cavity and a center flap intermediate the side wings for transmitting and directing the light to targeted regions of the oral cavity. A controller delivers light to the light guide in a controlled manner.

Embodiments include methods, systems, and apparatus for identification, detection, and removal of cancerous cells from a patient. The apparatus includes an apparatus handle. The apparatus also includes a display including a pH measurement result. The apparatus also includes an apparatus tip including a reference electrode and a plurality of sensing surfaces, wherein each of the plurality of sensing surfaces is connected to a base of a bipolar junction transistor (BJT) device. The BJT device further includes a collector and an emitter. The apparatus also includes automation circuitry including a processing unit in communication with the apparatus tip and the display. The plurality of sensing surfaces includes a conducting material.

Intraoral phototherapy devices receive light from an associated light source and propagate the light into an oral cavity of a patient. The device comprises a light guide that receives light from an external light source. The light guide comprises a main body portion made of an optically transparent soft flexible biocompatible polymeric material sized and shaped to conform to contours of the oral cavity when inserted therein to direct the light to targeted regions of the oral cavity. The main body portion comprises a pair of spaced apart side wings sized and shaped to be received between a patient's teeth and cheeks on opposite sates of the oral cavity and a center flap intermediate the side wings hr transmitting and directing the light to targeted regions of the oral cavity. A controller delivers light to the light guide in a controlled manner.

A surgical device includes an end effector and a handle assembly. The end effector includes a body portion and a tool assembly disposed at a distal end of the body portion. The tool assembly is insertable into tissue and includes an anvil assembly, a cartridge assembly, and a sensor disposed on an outer surface of the anvil assembly or the cartridge assembly for measuring a preselected mechanical property of the tissue. The handle assembly is operably coupled to the end effector. The handle assembly includes a power-pack including a controller circuit board configured to receive sensor data of the sensor corresponding to the preselected mechanical property and to control a function of the end effector in response to the sensor data.