Abstract: Tumor treating fields (TTFields) can be delivered to a subject's body at higher field strengths by switching off one or more electrode elements that are overheating without switching off other electrode elements that are not overheating. This may be accomplished using a plurality of temperature sensors, with each of the temperature sensors positioned to sense the temperature at a respective electrode element; and a plurality of electrically controlled switches, each of which is wired to switch the current to an individual electrode element on or off. A controller input signals from the temperature sensors to determine the temperature at each of the electrode elements, and controls the state of the control input of each of the electrically controlled switches to selectively switch off the current or adjusted the duty cycle at any electrode element that is overheating.

Abstract: A bio-signal measuring device includes a signal detector detecting a bio-signal; a signal converter converting the bio-signal into a bio-digital signal; a memory; a communicator communicating with an external device; and a processor configured to operate in a first operation mode for storing the bio-digital signal in the memory or a second operation mode for transmitting the bio-digital signal to the external device.

Abstract: Data regarding typing by a user may be collected and analyzed in order to assess one or more health conditions or functional states of the user. Each health condition that is assessed may be a disease or a symptom of a disease. For instance, based on the typing data, a computer may assess the presence, severity or probability of, or a change in, one or more symptoms such as: mild cognitive impairment, dementia, impairment of fine motor control, impairment of sensory-motor feedback, or behavioral impairment. A computer may calculate keystroke tensors that encode information about the typing. A computer may select or derive features from the keystroke tensors. These features may be fed into one or more machine learning algorithms, which in turn may output an assessment of a health condition or functional state of the user.

Abstract: An example method includes (a) generating, via a sensor of a computing device, a signal representing vibrations originating from a blood vessel of a subject, where the vibrations are indicative of heart beats and/or respirations of the subject; (b) using the signal to determine first times elapsed between respective pairs of consecutive heartbeats indicated by the vibrations and/or second times elapsed between respective pairs of consecutive respirations indicated by the vibrations; and (c) using the determined first times elapsed to determine a heart rate variability of the subject and/or the determined second times elapsed to determine a respiration rate variability of the subject.

Abstract: Devices, systems, and techniques for controlling electrical stimulation therapy are described. In one example, a system may be configured to deliver electrical stimulation therapy to a patient, the electrical stimulation therapy comprising a plurality of therapy pulses at a predetermined pulse frequency over a period of tune and deliver, over the period of time, a plurality of control pulses interleaved with at least some therapy pulses of the plurality of therapy pulses. The system may also be configured to sense, after one or more control pulses and prior to an immediately subsequent therapy pulse of the plurality of therapy pulses, a respective evoked compound action potential (ECAP), adjust, based on at least one respective ECAP, one or more parameter values that at least partially defines the plurality of therapy pulses, and deliver the electrical stimulation therapy to the patient according to the adjusted one or more parameter values.

Abstract: A method of treating a medical condition in a patient using an implantable medical device, the implantable medical device including a first electrode coupled to a first cranial nerve structure and a second electrode coupled to a second cranial nerve structure, the method comprising: providing a first electrical signal to the first cranial nerve structure of the patient; providing a second electrical signal to the second cranial nerve structure of the patient; administering to the patient a responsiveness test and comparing a result of the responsiveness test to a baseline responsiveness test; and initiating a second therapy or issuing a warning based on the comparison of the result of the responsiveness test to the baseline responsiveness test.

Abstract: Using vital sign measurements, such as systolic blood pressure (SBP), when combined with hematology parameters such as White Blood Cell Count (WBC) and Monocyte Distribution Width (MDW), has been identified as an improved method for detecting sepsis. The probability of having or developing sepsis is determined when each measurement is compared to a predetermined criteria and the combination of measurements that are within a reference range determines this probability.

Abstract: A closed-loop spinal cord electrical stimulation system includes a spinal epidural electrical stimulation electrode, a low limb electrical stimulation electrode, a closed-loop electrical stimulator and a controller. The spinal epidural electrical stimulation electrode, the low limb electrical stimulation electrode and the controller are electrically connected to the closed-loop electrical stimulator respectively. The spinal epidural electrical stimulation electrode is used for applying a first electrical stimulation to the spinal epidural site, and the low limb electrical stimulation electrode is used for applying a second electrical stimulation to a low limb. The voltage of the first electric stimulation is 400-600 mV, the voltage of the second electric stimulation is 1 V-1.5 V, and the stimulation frequency of the both is 10-20 Hz.

Abstract: Systems and methods are provided for stimulating one or more nerves with an implantable device. The implantable device may comprise an antenna circuit including a loop antenna and a control circuit including a rectifying diode for rectifying an alternating voltage induced in the antenna circuit by an external electromagnetic field. The implantable device may also include a chargeable storage element for storing energy from the rectified voltage without using a battery. The device may also include an electrode array containing a set of electrodes for emitting an electric field using the stored energy in response to a control signal received from the control circuit. The components of the device may be affixed onto a soft polymer substrate including a linkable peripheral tab on at least two edges of a substantially rectangular body section of the substrate for forming a cuff about the one or more nerves to be stimulated.

Abstract: An LED infrared irradiator includes an upper plate, a lower plate having a space for the user to lie down, a PC board disposed on the upper surface of the lower plate and having a size that can accommodate the entire body of the user, a handle part, a head part, a cover part, an oxygen generator, and a control unit attached to the upper side of the upper plate, wherein the power source of the lower plate consists of a chamber power source unit, a lower plate LED power source unit and a far-infrared heating element, and the power source of the upper plate consists of a upper plate LED power source, a upper plate UVC LED power source.

Abstract: An example electronic device may include a detection circuit and a processor operatively connected to the detection circuit. The processor may be configured to obtain a first signal associated with an external object through the detection circuit; obtain a first HR, using a first filter having an attribute of a first frequency band; obtain a second HR, using a second filter having an attribute of a second frequency band, based at least on the first signal; change at least some attributes associated with the second filter, based at least on the first HR and the second HR; obtain a second signal associated with the external object through the detection circuit; and generate heart rate variability (HRV) information, using the second filter, in which the at least some attributes are changed, based on the second signal.

Abstract: Augmented, virtual, and/or mixed reality applications in optimizing a fitting process and a fit of wearables, including wearable cardioverter defibrillators, to a wearer's body.

Abstract: Systems, devices, and techniques for adjusting electrical stimulation based on a posture state of a patient are described. For example, processing circuitry is configured to control delivery of a first informed stimulation pulse defined by at least a first value of an informed stimulation parameter, control delivery of a control stimulation pulse to a patient, the control stimulation pulse defined by at least a first value of a control stimulation parameter, determine a characteristic value of the ECAP signal elicited from the control stimulation pulse, receive, from a sensor, a posture state signal representing a posture state of the patient, and adjust, based on the characteristic value of the ECAP signal and the posture state signal, the first value of the informed stimulation parameter to a second value of the informed stimulation parameter.

Abstract: Viral infections in a target region can be inhibited by imposing an alternating electric field in the target region for a duration of time. The alternating electric field has a frequency and a field strength such that when the alternating electric field is imposed in the target region for the duration of time, the alternating electric field inhibits infection of the cells in the target region by the virus. Optionally, the inhibition of viral infections using the alternating electric field approach can be combined with delivering an antiviral agent to the target region so that a therapeutically effective dose of the antiviral agent is present in the target region while the alternating electric fields are imposed.

Abstract: A method and system for generating pulse oximetry predictive scores (POPS) for predicting adverse outcomes in preterm infants. The method comprising generating a POPS via a predictive algorithm which incorporates cross-correlation of heart rate and SpO2 calculated on archived pulse oximetry data of multiple preterm infants, and predicting a pathology of a preterm infant based on the generated POPS, wherein the pathology is intraventricular hemorrhage, late-onset sepsis, necrotizing enterocolitis, bronchopulmonary dysplasia, or retinopathy of prematurity, and informing a user of an opportunity to: identify the preterm infant as a highest risk infant and perform additional surveillance of or therapeutic intervention on the preterm infant, identify the preterm infant for participation in a clinical trial based on a risk profile associated with the POPS, and treat said preterm infant for the pathology.

Abstract: A corneal lenticule extraction procedure provides convenient re-treatment options when treatment interruptions occur. The procedure is executed by an ophthalmic laser system according to a programmed treatment plan, which defines an entry cut, an optional ring cut, a bottom lenticule incision having an optical zone, and a flat top bed incision. If an interruption occurs during the entry cut, the treatment plan is re-aligned with the partially formed entry cut and continued, or with a new entry cut placed at a different angular position. If an interruption occurs during the ring cut, the treatment plan is revised to define a larger ring cut concentric with the partially formed ring cut. If an interruption occurs during the bottom or top incision, the depth of the partially formed bottom or top incision is measured, and the treatment plan is revised to form a deeper bottom incision or a shallower top incision, respectively.

Abstract: An ocular light therapy arrangement for treating a user having a neurologic disorder includes a light emitting device the emits a light having a flicker rate of less than or equal to about 2 Hz and/or greater than or equal to about 85,000 Hz at a wavelength of within a first range of from about 500 nm to about 565 nm, wherein the light is effective to reduce neurologic disorder symptoms by reducing stimulation of the user's retina and brain cortex.

Abstract: Methods for diagnosing if a patient is suffering from a stroke include: positioning a headset around the patient's head to receive vibrations generated by a cerebral vasculature of the patient's brain, the headset including at least one microphone or accelerometer; processing the received vibrations to obtain a signal; analyzing the signal to identify a pattern indicative of a stroke; and determining that the patient is suffering from a stroke based upon the result of a CT scan of the patient's brain and neck and the identified pattern indicative of a stroke.

Abstract: An ophthalmological device and system is described that allows the simultaneous imaging of an eye using both scanning laser ophthalmoscopy (SLO) and optical coherence tomography (OCT). Further the device and system is capable of targeting and delivering a femtosecond treatment laser for treatment of an eye condition. The system further includes a machine learning algorithm to provide a suggested treatment procedure.

Abstract: A programmer configured to collect data from an implantable pulse generator about ongoing neurostimulation being applied during a stimulation titration process by the implantable pulse generator while in communication with the communication circuitry; display, via a user interface, an indication relating to a timing of neurostimulation bursts applied by the implantable pulse generator while in communication with the communication circuitry based on the collected data, the indication being displayed according to a time delay that accounts for a transport delay between the implantable pulse generator and the programmer such that the indication displayed coincides with an actual application of each stimulation burst by the implantable pulse generator; and adjust at least one stimulation parameter applied during the stimulation titration process by the implantable pulse generator.