Abstract: The presently disclosed subject matter relates to a system, device, and method for customizing a cosmetic product. The system includes: an interface device, in electronic communication with a single batch cosmetic device. A plurality of cartridges for holding cosmetic additive which can be dispensed by a mixing assembly in accurate units to create customized cosmetics.

Abstract: The invention provides methods for identifying a disease status in a patient from claims data. A machine learning algorithm may be trained to report that a given patient is possibly affected by a disease, and the machine learning algorithm may be able to do so long before disease symptoms manifest to a problematic degree. The machine learning algorithm may be able to give an early warning that a patient is at a high risk of disease based principally on inputs provided in the form of insurance claims data.

Abstract: Differential expression of long non-coding RNAs (lncRNAs) and enhancer RNAs (eRNAs) are used to diagnose diseases including neurological diseases, inflammatory diseases, rheumatic diseases, and autoimmune diseases. Machine learning systems are used to identify lncRNAs or eRNAs having differential expression correlated with certain disease states.

Abstract: Differential expression of long non-coding RNAs (lncRNAs) and enhancer RNAs (eRNAs) are used to monitor diseases and determine therapeutic efficacy in, for example, neurological diseases, inflammatory diseases, rheumatic diseases, and autoimmune diseases. Machine learning systems are used to identify lncRNAs or eRNAs having differential expression correlated with responsiveness to various therapies.

Abstract: Systems and methods herein provide for floating sensors. In one embodiment, a system includes a waterproof housing, an electronics assembly mounted within the waterproof housing, and a wing structure hingeably attached to the waterproof housing and operable to float the system on a water surface. The system also includes a solar panel configured on the wing structure to provide power to the electronics assembly.

Abstract: Systems and methods herein provide for floating sensors. In one embodiment, a system includes a waterproof housing, an electronics assembly mounted within the waterproof housing, and a wing structure hingeably attached to the waterproof housing and operable to float the system on a water surface. The system also includes a solar panel configured on the wing structure to provide power to the electronics assembly.

Abstract: Differential expression of long non-coding RNAs (lncRNAs) and enhancer RNAs (eRNAs) are used to monitor diseases and determine therapeutic efficacy in, for example, neurological diseases, inflammatory diseases, rheumatic diseases, and autoimmune diseases. Machine learning systems are used to identify lncRNAs or eRNAs having differential expression correlated with responsiveness to various therapies.

Abstract: A pet toy, in combination, including a containment structure having a longitudinal axis and cross section defining an interior volume. The containment structure, which is preferably collapsible, includes a plurality of containment openings along its longitudinal axis exposing the interior volume to a pet during use of the pet toy, and an electronic component in the form of a hollow shell having a shell opening configured therein. A motor having a rotatable shaft extends toward the opening. A power supply for powering the motor and optional microprocessor, the motor, microprocessor and power supply being supported within the interior of the hollow shell. An attractant is affixed to the rotatable shaft and extends through the shell opening, the microprocessor being programmed to control operation of the motor to cause the attractant to rotate intermittently, the electronic component and attractant being visible to a pet during use of the pet toy.

Abstract: A cat amusement system including a user actuated transmitter sized to be held by hand, the transmitter housing an actuation signal generator for remotely controlling a pet activity toy The system also includes a user actuated light generator for generating light at a wavelength and intensity to be visible to a pet proximate the pet activity toy The pet activity toy includes a motor which propels the pet activity toy upon receipt of the actuation signal emanating from said transmitter.

Abstract: Differential expression of long non-coding RNAs (lncRNAs) and enhancer RNAs (eRNAs) are used to monitor diseases and determine therapeutic efficacy in, for example, neurological diseases, inflammatory diseases, rheumatic diseases, and autoimmune diseases. Machine learning systems are used to identify lncRNAs or eRNAs having differential expression correlated with responsiveness to various therapies.

Abstract: Differential expression of long non-coding RNAs (lncRNAs) and enhancer RNAs (eRNAs) are used to diagnose diseases including neurological diseases, inflammatory diseases, rheumatic diseases, and autoimmune diseases. Machine learning systems are used to identify lncRNAs or eRNAs having differential expression correlated with certain disease states.

Abstract: The invention provides methods for identifying a disease status in a patient from claims data. A machine learning algorithm may be trained to report that a given patient is possibly affected by a disease, and the machine learning algorithm may be able to do so long before disease symptoms manifest to a problematic degree. The machine learning algorithm may be able to give an early warning that a patient is at a high risk of disease based principally on inputs provided in the form of insurance claims data.

Abstract: A pet activity module having a substantially square or rectangular base for contacting a support surface when in use, substantially parallel back and front walls extending orthogonally from said base and substantially parallel side walls extending orthogonally from the base, the substantially parallel front and back walls being orthogonally joined to the substantially parallel side walls, the base, front, back and side walls together creating an internal volume sized to receive a domestic cat, a plush fabric applied to the base, a fabric creating scratcher surfaces, at least one scratcher surface being within the interior volume and at least one scratcher surface being on an exterior surface of at least one of the back, front or side walls of the module.

Abstract: A pet toy, in combination, including a containment structure having a longitudinal axis and cross section defining an interior volume. The containment structure, which is preferably collapsible, includes a plurality of containment openings along its longitudinal axis exposing the interior volume to a pet during use of the pet toy, and an electronic component in the form of a hollow shell having a shell opening configured therein. A motor having a rotatable shaft extends toward the opening. A power supply for powering the motor and optional microprocessor, the motor, microprocessor and power supply being supported within the interior of the hollow shell. An attractant is affixed to the rotatable shaft and extends through the shell opening, the microprocessor being programmed to control operation of the motor to cause the attractant to rotate intermittently, the electronic component and attractant being visible to a pet during use of the pet toy.

Abstract: A vibratory pet toy having a pod, the pod being characterized as having an outer shell and housed within it is a rotational motor and eccentric load rotatable by the rotational motor and a power supply for selectively activating the rotational motor. A flexible cover having a top and bottom forms an interior volume and an opening between the top and bottom for gaining access to the interior volume, the pod being sized to selectively pass through the opening to be frictionally secured between the top and bottom and within the interior volume.