Abstract: A method to measure sound-producing behaviors of a subject with a power- and bandwidth-limited electronic device that includes a processor includes measuring, by a microphone communicatively coupled to the processor, sound in a vicinity of the subject to generate an audio data signal that represents the sound. The method also includes measuring, by at least one second sensor communicatively coupled to the processor, at least one parameter other than sound to generate at least a second data signal that represents the at least one parameter other than sound. The method also includes detecting one or more sound-producing behaviors of the subject based on: both the audio data signal and the second data signal; or information derived from both the audio data signal and the second data signal.

Abstract: An exemplary catch assembly is configured for installation into a spindle, and generally includes a holder, a first catch, a second catch, and a bias mechanism. The holder is configured for mounting within the spindle. The first catch is mounted for movement relative to the holder between a first projected position and a first depressed position. The second catch is mounted for movement relative to the holder between a second projected position and a second depressed position. The bias mechanism biases the first catch toward the first projected position and biasing the second catch toward the second projected position.

Abstract: A modular toy system comprising a plurality of separate electronic toy modules, each electronic toy module comprising a function device operable to perform a user-perceptible function and a control circuit for controlling the function device; wherein at least a first electronic toy module of the plurality of electronic toy modules comprises a first control circuit, a first function device and a sensor system configured for contactless detection of respective coordinate values of at least two coordinates, each coordinate being indicative of a position or an orientation of at least a second electronic toy module of the plurality of electronic toy modules relative to the first electronic toy module; and wherein the first control circuit is configured to control operation of the first function device based on one or more of the detected coordinate values.

Abstract: Described herein are methods for depleting library fragments prepared from off-target RNA sequences. Libraries enriched or depleted with the present methods may be used for sequencing. Also described are probes and methods for depletion or supplementing depletion of off-target RNA from human and non-human samples.

Abstract: A method to measure sound-producing behaviors of a subject with a power- and bandwidth-limited electronic device that includes a processor includes measuring, by a microphone communicatively coupled to the processor, sound in a vicinity of the subject to generate an audio data signal that represents the sound. The method also includes measuring, by at least one second sensor communicatively coupled to the processor, at least one parameter other than sound to generate at least a second data signal that represents the at least one parameter other than sound. The method also includes detecting one or more sound-producing behaviors of the subject based on: both the audio data signal and the second data signal; or information derived from both the audio data signal and the second data signal.

Abstract: A toy construction system comprising a plurality of toy construction elements including a plurality of function construction elements. The toy construction elements and the function construction elements are detachably interconnected with each other forming a toy construction model. The toy construction model comprising at least a subset of the plurality of toy construction elements; each function construction element comprising a function device adapted to perform a user-perceptible function. The toy construction system further comprises a tag construction element detachably connectable to one or more of the toy construction elements. The tag construction element and the function construction elements are configured for communication of configuration data from the tag construction element to each of the subset of function construction elements when the tag construction element is connected to a toy construction element.

Abstract: A method may include obtaining, by a radio receiver, radio signals from electronic sign labels (ESLs) in which each ESL of the plurality of ESLs is associated with a respective product in a shopping store and is configured to operate in a transmission modality on one or more radio frequency protocols. The method may include determining a location of each ESL based on the radio signals obtained from the plurality of ESLs and determining locations of one or more products based on the location of each of the ESLs and an association between each of the ESLs with the respective product. The method may include generating a planogram indicating the locations of the products.

Abstract: A power management apparatus 20 comprises a first energy harvesting input channel 21; a first energy storage element connection 25; an inductor connection 27; and a switching circuit 28. A controller 30 is configured to operate the switching circuit 28 to transfer energy between the first energy harvesting input channel 21 and the first energy storage element connection 25 by a sequence of energy transfer cycles. Each of the energy transfer cycles comprises an energise phase in which energy is transferred from the first energy harvesting input channel 21 to the inductor connection 25 for an energise time (tE) and a de-energise phase. The first energy harvesting input channel 21 is capable of receiving an AC electrical signal and a DC electrical signal.

Abstract: A modular toy system comprising a plurality of separate electronic toy modules, each electronic toy module comprising a function device operable to perform a user-perceptible function and a control circuit for controlling the function device; wherein at least a first electronic toy module of the plurality of electronic toy modules comprises a first control circuit, a first function device and a sensor system configured for contactless detection of respective coordinate values of at least two coordinates, each coordinate being indicative of a position or an orientation of at least a second electronic toy module of the plurality of electronic toy modules relative to the first electronic toy module; and wherein the first control circuit is configured to control operation of the first function device based on one or more of the detected coordinate values.

Abstract: A power management apparatus 20 comprises a first energy harvesting input channel 21; a first energy storage element connection 25; an inductor connection 27; and a switching circuit 28. A controller 30 is configured to operate the switching circuit 28 to transfer energy between the first energy harvesting input channel 21 and the first energy storage element connection 25 by a sequence of energy transfer cycles. Each of the energy transfer cycles comprises an energise phase in which energy is transferred from the first energy harvesting input channel 21 to the inductor connection 25 for an energise time (tE) and a de-energise phase. The first energy harvesting input channel 21 is capable of receiving an AC electrical signal and a DC electrical signal.

Abstract: A method may include receiving, by one or more electronic sign labels (ESLs) in a shopping store, radio signals transmitted from a device associated with a customer in the shopping store over a period of time. The method may include determining a location of the customer based on locations of the ESLs in the shopping store that received the radio signal from the device. The method may also include generating a heatmap that includes the location of the customer over the period of time.

Abstract: A toy system comprising a plurality of toy construction elements, having detachably interconnecting coupling members for creating coherent spatial structures. The plurality of toy construction elements include: an energy source device comprising a housing and an energy transfer circuit therein; and energy distribution devices to provide respective external conductive loops extending outside the housing and defining a respective external energy transfer zone in a proximity of the respective external conductive loops. The energy source device is configured to be brought into operational connection with the energy distribution devices.

Abstract: A system includes chemical marker, verification, and third sensors. The chemical marker sensor is configured to detect one or more markers of a therapeutic agent in sweat vapor. The verification sensor is configured to detect whether the system is less than a threshold distance from skin. The third sensor is configured to detect a manifestation of an expected effect of the therapeutic agent on the heart rate of the user. The processor is communicatively coupled to the sensors and is configured to calculate a confidence level indicative of whether the user has taken the therapeutic agent based on the chemical marker sensor detecting the one or more markers in the sweat vapor, the verification sensor detecting that the system is less than the threshold distance from skin, and the third sensor detecting the manifestation of the expected effect of the therapeutic agent on the heart rate of the user.

Abstract: A method may include obtaining, by a radio receiver, radio signals from electronic sign labels (ESLs) in which each ESL of the plurality of ESLs is associated with a respective product in a shopping store and is configured to operate in a transmission modality on one or more radio frequency protocols. The method may include determining a location of each ESL based on the radio signals obtained from the plurality of ESLs and determining locations of one or more products based on the location of each of the ESLs and an association between each of the ESLs with the respective product. The method may include generating a planogram indicating the locations of the products.

Abstract: An interactive toy comprising a function device for performing user-perceptible, controllable functions. The interactive toy also includes a rechargeable power source and a charging circuit for contactless receipt of electrical energy and for charging the rechargeable power source when the interactive toy is positioned in a charging zone of a contactless charging device. The interactive toy is adapted to determine a charging rate at respective positions relative to the charging device and to generate a user-perceptible output indicative of the determined charging rate.

Abstract: A method to determine medication adherence may include detecting whether a wearable electronic device is in use. The method may include detecting one or more markers in sweat vapor of the user using a chemical marker sensor of the wearable electronic device. The method may include, in response to detecting that the system is in use, determining whether the user has taken a therapeutic agent that includes the one or more markers based on detecting the one or more markers in the sweat vapor.

Abstract: A shopping store system may include one or more shelves in which each shelf includes one or more levels and one or more products placed on the shelves. Electronic sign labels (ESLs) may be included in the shopping store system in which each of the ESLs is located in a particular position corresponding to a respective product placed on the shelves. Each ESL may include a multi-protocol radio that is configured to operate in a reception modality, a transmission modality, or a transceiving modality. The ESLs may each include a display that is configured to provide information about the respective product to which each ESL corresponds. The shopping store system may include a computer system configured to receive information transmitted by and process information received by each of the ESLs.

Abstract: A power management apparatus 20 comprises: a plurality of energy harvesting input channels 21-24; a first energy storage element connection for connecting to an energy storage element 32; an inductor connection 27; and a switching circuit 28. A controller 30 operates the switching circuit to transfer energy between the energy harvesting input channels 21-24 and the first energy storage element connection 25 by a sequence of energy transfer cycles. Each energy harvesting input channel 21-24 is allocated a plurality of the energy transfer cycles. The controller 30 determines operating parameters for operating the switching circuit 28 which transfer a maximum power from the electrical energy harvesting source connected to the energy harvesting input channel and a maximum power inductor utilisation factor. The controller 30 determines a set of adjusted operating parameters for sharing use of the inductor between the plurality of energy harvesting input channels 21-24.

Abstract: An electronic lock device according to one embodiment includes a first magnetometer, a second magnetometer, a dynamic ferromagnetic component positioned between the first magnetometer and the second magnetometer, a processor, and a memory comprising a plurality of instructions stored thereon that, in response to execution by the processor, causes the electronic lock device to read sensor data from the first magnetometer and the second magnetometer, modify the sensor data to generate compensated sensor data that compensates for magnetic noise generated by the dynamic ferromagnetic component, and determine whether the door is in a closed state or an open state based on the compensated sensor data.

Abstract: An exemplary catch assembly is configured for installation into a spindle, and generally includes a holder, a first catch, a second catch, and a bias mechanism. The holder is configured for mounting within the spindle. The first catch is mounted for movement relative to the holder between a first projected position and a first depressed position. The second catch is mounted for movement relative to the holder between a second projected position and a second depressed position. The bias mechanism biases the first catch toward the first projected position and biasing the second catch toward the second projected position.