Qualcomm Incorporated

Capsule Technologies, Inc.

Philips Healthcare Informatics, Inc.

Kenneth Kaskoun

Shiqun Gu

Matthew Michael Nowak

Brian David Niznik

Eugene Dantsker

Michael David Atella

Muhammed Ibrahim Sezan

Bart Swinnen

John Keith Schneider

Rongtian Zhang

Christopher Talbot

Russel A Martin

Kirk Steven Taylor

Sanjay K Jha

Barry Matsumori

Nicholas K Yu

Ilene Klein

Methods of measuring a physical or physiological parameter using an integrated adhesive sensor array including a sensor hub and a detachable sensor pod are presented. In one example, a method comprises: establishing a first communication link between the sensor hub and a wireless receiver; attaching at least the sensor hub directly to a body; establishing a second communication link between the detachable sensor pod and the sensor hub; sensing a physical or physiological parameter by the detachable sensor pod; transmitting sensor data of the physical or physiological parameter from the detachable sensor pod to the sensor hub via the second communication link; and transmitting the sensor data from the sensor hub to the wireless receiver via the first communication link.

Method, devices and systems for sensor with removable nodes

An integrated adhesive sensor array includes an adhesive a patch, a sensor hub, and a detachable sensor pod packaged as a unit. The patch may include a docking area for the detachable sensor pod. The detachable sensor pod may include at least one sensor and may be configured to be detached from the patch and applied to various locations on a body. The detachable sensor pod may send sensor data to the sensor hub via a wired link when on the patch and via a wireless link when detached from the patch. The sensor hub receives sensor data from the various sensors, and relays the data to a receiver. The sensor hub and detachable sensor pod may include indicators for communicating information. The sensor hub may include a power source for powering the sensor hub and a detachable sensor pod attached to the main sensor unit or patch.

Methods, devices and systems for sensor with removable nodes

An integrated adhesive sensor array includes an adhesive a patch, a sensor hub, and a detachable sensor pod packaged as a unit. The patch may include a docking area for the detachable sensor pod. The detachable sensor pod may include at least one sensor and may be configured to be detached from the patch and applied to various locations on a body. The detachable sensor pod may send sensor data to the sensor hub via a wired link when on the patch and via a wireless link when detached from the patch. The sensor hub receives sensor data from the detachable sensor pod and relays the data to a receiver. The sensor hub and detachable sensor pod may include indicators for communicating information. The sensor hub may include a power source for powering the sensor hub and a detachable sensor pod attached to the main sensor unit or patch.

Examples of monolithic integrated emitter-detector array in a flexible substrate for biometric sensing and associated devices and methods are disclosed. One disclosed example device includes a flexible substrate; a first array of emitters embedded in the flexible substrate, the first array of emitters configured to emit first electromagnetic (EM) signals; a first array of detectors embedded in the flexible substrate, the first array of detectors configured to detect reflections of the first EM signals; a first scanning circuit coupled to the first array of emitters, the first scanning circuit configured to selectively activate individual emitters of the first array of emitters; and a first sensing circuit coupled to individual detectors of the first array of detectors, the first sensing circuit configured to receive a detection signal from at least one of the detectors of the first array of detectors.

Monolithic integrated emitter-detector array in a flexible substrate for biometric sensing

A wearable otoscope may be capable of wireless or wired communication with a second device, such as a smart phone. Some dual-ear otoscope implementations may be provided in a headphone-like configuration, which may include a headband attachable to earbuds of the dual-ear otoscope. However, some alternative implementations do not include a headband. At least a portion of the dual-ear otoscope may be a disposable component in some examples. In some implementations, functionality of the dual-ear otoscope (such as an illumination angle of light, imaging functionality, etc.) may be controlled according to commands received from the second device. Some examples may include one or more additional sensors, such as temperature sensors.

Wearable dual-ear mobile otoscope

A wearable device may include a sensor system capable of obtaining physiological from a user's body. Some wearable devices may include a substance delivery system. A sensor system of a wearable device may include at least one 'bio-assurance sensor' capable of obtaining biometric data that may be used to identify a user. For example, the bio-assurance sensor may be used to ensure that the wearable device is not removed from the user's body and/or placed on or in another user's body. In some examples, the wearable device may be used with a second device, such as a smart phone, that includes at least one 'authentication sensor,' such as a fingerprint sensor, that also may be used to identify a user. However, in some implementations the wearable device may include at least one authentication sensor.

Biometrics for user identification in mobile health systems

A stethoscope system may include an array of sensors, which may include pressure sensors. The array may be implemented in a wearable 'patch' that is conformable to a patient's body. The stethoscope system may include a control system that is capable of receiving signals from the array of sensors. The signals may, for example, correspond to measurements from multiple pressure sensors of the array. The control system may be capable of combining signals from multiple pressure sensors to produce combined signals. The control system may be capable of filtering the combined signals to remove, at least in part, breathing signal components and to produce filtered signals. The control system may be capable of determining a correspondence between heart signal components of the filtered signals and corresponding heart valve activity.

Stethoscope system including a sensor array

A hermetically sealed electronic closure device, or button, includes a self-renewing power source, a sensor for measuring a metric, a memory storing information, a data processing circuit for controlling operations of the device, and a transceiver for sending and receiving information. The device is a standard part of a clothing item that is inconspicuous to a wearer of the clothing item.

Button sensor

Some implementations provide a semiconductor device that includes a first die and an optical receiver. The first die includes a back side layer having a thickness that is sufficiently thin to allow an optical signal to traverse through the back side layer. The optical receiver is configured to receive several optical signals through the back side layer of the first die. In some implementations, each optical signal originates from a corresponding optical emitter coupled to a second die. In some implementations, the back side layer is a die substrate. In some implementations, the optical signal traverses a substrate portion of the back side layer. The first die further includes an active layer. The optical receiver is part of the active layer. In some implementations, the semiconductor device includes a second die that includes an optical emitter. The second die coupled to the back side of the first die.

Devices, systems and methods using through silicon optical interconnects

Methods, systems and devices for an energy harvesting sensor are disclosed. A sensor device may include an energy harvesting element configured to harvest energy from a source of energy that is to be measured by the sensor device, and an energy storage element configured to store energy generated by the energy harvesting element. The sensor device may further include a transmitter circuit coupled to the energy storage element and configured to transmit a wireless signal when the energy stored in the energy storage element is sufficient to power a transmission of the wireless signal. The time between transmissions by the transmitter may be used by a receiver of those transmissions to calculate a measure of the quantity being used for energy harvesting.

Methods, devices and systems for self charging sensors

An integrated circuit (IC) module with a lead frame micro-needle for a medical device, and methods of forming the IC module are described. The methods include forming a lead frame blank including a micro-needle integrally formed therein. The micro-needle may be bent beyond an initial lower side of the lead frame blank. The initial lower side may be joined with a protection layer such that the bent micro-needle is embedded in the protection layer, which may be removably attached to the initial lower side and the bent micro-needle. An IC component may be affixed to an upper side of the lead frame blank. The IC component and an upper surface of a core of the lead frame blank may be encapsulated with a molding compound forming a packaging of the IC module. Removal of the protection layer may expose the bent micro-needle projecting away from the packaging.

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La Jolla, CA, United States of America

Kenneth Kaskoun