Abstract: A method for detecting stress in organisms with a cardiac organ is provided. A cardiac waveform is input to an analysis system which decomposes the incoming signal to detect patterns within the decomposed segments. The patterns are comprised of one or more of the following: the overall waveform of a series of beats, a single beat or segments contained within a beat. The decomposed parts of the cardiac waveform are classified according to types of stress patterns both known in the art and dynamically learned through feedback. When the system detects that a sufficient threshold of stress has been exceeded, a notification can be generated and the details of the stress, such as the severity and type can be communicated to an external module, system, user or host. Patterns indicating a future or rapidly increasing stress level, signaled by evolving patterns in the cardiac waveform can be detected and an alert generated before a major or difficult to control stressful event is externalized by the organism.

Abstract: This application relates to physiological monitoring typically for health and fitness purposes. Specifically, this application targets health and fitness monitors that require low noise acquisition of low amplitude biopotential signals. The method herein allows measurement and acquisition of biopotential signals that are normally too small to resolve due to the noise floor limitations of modern low noise amplifiers. Examples of applications that this method enables include monitoring devices located in far proximity from the location in which a biopotential signal originates, such as a wrist worn cardiac monitor, or a device that needs to sense low amplitude, fine muscle or nerve activity in a localized region.

Abstract: This disclosure provides cascaded reference circuits and low amplitude signal sensing circuits used to perform a Subsurface Spectrogram (SSG). The Subsurface Spectrogram can detect the conductive properties of skin and the underlying tissues. The conductive properties inform what electrolytes and moisture levels are present, which in turn can provide information about the physiological state of the mammal. The Subsurface Spectrogram uses an arbitrary waveform generator to provide a reference signal, the return signals are captured and compared to their original characteristics for changes in amplitude, phase and frequency. From these calculations insight into the amount of skin moisture and electrolyte configuration can be gained. Embodiments of such systems may be especially useful in health and fitness wearable devices where feedback on health and exercise can help mammals achieve an optimal workout, or help them to know when they are experiencing unhealthy stress levels.

Abstract: This disclosure provides cascaded reference circuits and low amplitude signal sensing circuits that are useful in applications where high sensitivity, low noise measurements are needed. Such embodiments may be especially useful in health and fitness wearable devices. Systems incorporating the circuits, as well as methods for using these circuits to determine quantities and qualities of a person's moods, such as how much and what kinds of stress they experience. The provided devices are useful on limbs and appendages, such as in a smart watch that is worn on the wrist. Methods are provided for using the devices of this disclosure to privately alert wearers to an increase in bad stress in the moment when they can take actions to reduce their stress and physiological stress responses. These devices are useful for measuring and increasing the effectiveness of relaxation techniques.

Abstract: This disclosure provides cascaded reference circuits and low amplitude signal sensing circuits used to perform a Subsurface Spectrogram (SSG). The Subsurface Spectrogram can detect the conductive properties of skin and the underlying tissues. The conductive properties inform what electrolytes and moisture levels are present, which in turn can provide information about the physiological state of the mammal. The Subsurface Spectrogram uses an arbitrary waveform generator to provide a reference signal, the return signals are captured and compared to their original characteristics for changes in amplitude, phase and frequency. From these calculations insight into the amount of skin moisture and electrolyte configuration can be gained. Embodiments of such systems may be especially useful in health and fitness wearable devices where feedback on health and exercise can help mammals achieve an optimal workout, or help them to know when they are experiencing unhealthy stress levels.

Abstract: This disclosure provides cascaded reference circuits and low amplitude signal sensing circuits that are useful in applications where high sensitivity, low noise measurements are needed. Such embodiments may be especially useful in health and fitness wearable devices. Systems incorporating the circuits, as well as methods for using these circuits to determine quantities and qualities of a person's moods, such as how much and what kinds of stress they experience. The provided devices are useful on limbs and appendages, such as in a smart watch that is worn on the wrist. Methods are provided for using the devices of this disclosure to privately alert wearers to an increase in bad stress in the moment when they can take actions to reduce their stress and physiological stress responses. These devices are useful for measuring and increasing the effectiveness of relaxation techniques.

Abstract: This application relates to physiological monitoring typically for health and fitness purposes. Specifically, this application targets health and fitness monitors that require low noise acquisition of low amplitude biopotential signals. The method herein allows measurement and acquisition of biopotential signals that are normally too small to resolve due to the noise floor limitations of modern low noise amplifiers. Examples of applications that this method enables include monitoring devices located in far proximity from the location in which a biopotential signal originates, such as a wrist worn cardiac monitor, or a device that needs to sense low amplitude, fine muscle or nerve activity in a localized region.

Abstract: This disclosure provides cascaded reference circuits and low amplitude signal sensing circuits that are useful in wearable devices. Circuits for measuring electrovesselgram (EVG) and subdermal spectrogram (SSG) are provided, as well as methods for using these circuits to determine quantities and qualities of a person's moods, such as how much and what kinds of stress they experience. The provided devices are useful on limbs and appendages, such as in a smart watch that is worn on the wrist. Methods are provided for using the devices of this disclosure to privately alert wearers to an increase in bad stress in the moment when they can take actions to reduce their stress and physiological stress responses. These devices are useful for measuring and increasing the effectiveness of relaxation techniques. As a result of using methods and devices of this disclosure, people are healthier, they make more response-able decisions, and relationships improve.

Abstract: A pillowcase changing device for facilitating the changing of pillowcases includes a pair of grabbers. Each grabber comprises a frame. A field is coupled to and extends between an inner perimeter of the frame. A plurality of tines and a handle are coupled to and extend from an outer perimeter of the frame. The handle is positioned on the frame such that the handle is configured to be grasped in a hand of a user. The pair of grabbers is configured to position singly adjacent to a top face and a bottom face of a pillow. The handles are positioned on the frames such that the handles are positioned to motivate the frames into a substantially closed configuration. The pillow is compressed between the pair of grabbers such that respective tines are interlockingly positioned. The pillow is insertable into and extractable from a pillowcase.

Abstract: A pillowcase changing device for facilitating the changing of pillowcases includes a pair of grabbers. Each grabber comprises a frame. A field is coupled to and extends between an inner perimeter of the frame. A plurality of tines and a handle are coupled to and extend from an outer perimeter of the frame. The handle is positioned on the frame such that the handle is configured to be grasped in a hand of a user. The pair of grabbers is configured to position singly adjacent to a top face and a bottom face of a pillow. The handles are positioned on the frames such that the handles are positioned to motivate the frames into a substantially closed configuration. The pillow is compressed between the pair of grabbers such that respective tines are interlockingly positioned. The pillow is insertable into and extractable from a pillowcase.

Abstract: This disclosure provides cascaded reference circuits and low amplitude signal sensing circuits that are useful in wearable devices. Circuits for measuring electrovesselgram (EVG) and subdermal spectrogram (SSG) are provided, as well as methods for using these circuits to determine quantities and qualities of a person's moods, such as how much and what kinds of stress they experience. The provided devices are useful on limbs and appendages, such as in a smart watch that is worn on the wrist. Methods are provided for using the devices of this disclosure to privately alert wearers to an increase in bad stress in the moment when they can take actions to reduce their stress and physiological stress responses. These devices are useful for measuring and increasing the effectiveness of relaxation techniques. As a result of using methods and devices of this disclosure, people are healthier, they make more response-able decisions, and relationships improve.

Abstract: Compounds capable of modulating intracellular gap junctional communication, as well as their use in the treatment of diseases associated with impaired gap junction intracellular communication (GJIC) 1 are disclosed.

Abstract: The daily pill dispensing apparatus has a front section connected to a back section, a top hinge disposed on the top between the front section and the back section, a dispenser lid connected to the top hinge and pivotally covering the front section, a septet of top doors disposed atop the back section, each top door pivotally covering a separate compartment of the back section via the top hinge, a day indicia disposed atop each top door, a dispensing door hingedly separating each compartment from the front section, each dispensing door opening into the front section, a display disposed atop the dispenser lid, a controls disposed in the front section bottom, the controls in communication with the display and with each dispensing door, whereby each dispensing door sequentially opens, each dispensing door opening only one day per week, and battery power.

Abstract: The present invention provides a jewelry system for use with a body piercing, particularly a navel piercing. The jewelry system comprises an anchoring element and a decorative element. The anchoring element and the decorative element each have connectors which attach to each other.

Abstract: The present invention provides a jewelry system for use with a body piercing, particularly a navel piercing. The jewelry system comprises an anchoring element and a decorative element. The anchoring element and the decorative element each have a stem. When in use, the two stems are matingly engaged.