Abstract: Estimating the responses of multiple parts of the visual field or fields of one or both eyes from records of the responses of one or both pupils to stimuli to the multiple parts of those visual fields. Collections of stimuli can be controlled by separate pseudo-random sequences, one sequence for each stimulated visual field region. Both temporal impulse responses for each component part of the visual field, and gain-kernels characterizing dynamic changes in the pupil responses, which can be driven by short-term fluctuations in overall stimulus density, are estimated. Many fewer gain-kernels can be estimated by grouping the stimuli into symbolic stimulus groups and only estimating a gain-kernel for each group. Particular symbolic stimulus groups are shown to be highly efficient. The ability to estimate more reliable responses with relatively few extra gain-kernel coefficients requires less data to be collected.

Abstract: Estimating the responses of multiple parts of the visual fields of one or both eyes from records of the responses of one or both pupils to concurrently presented multifocal stimuli to the multiple parts of those visual fields. Collections of multifocal stimuli are controlled by separate pseudo-random sequences, one sequence for each stimulated visual field region. Both temporal impulse responses for each component part of the field and gain-kernels characterizing dynamic changes in the pupil responses driven by short-term fluctuations in overall stimulus density are estimated. Many fewer kernels can be estimated by grouping the stimuli into symbolic stimulus groups and only estimating a gain-kernel for each group. Particular symbolic stimulus groups are shown to be highly efficient. The ability to estimate more reliable responses with relatively few extra gain-kernel coefficients means less data is required to be collected.

Abstract: Estimating the responses of multiple parts of the visual fields of one or both eyes from records of the responses of one or both pupils to concurrently presented multifocal stimuli to the multiple parts of those visual fields. Collections of multifocal stimuli are controlled by separate pseudo-random sequences, one sequence for each stimulated visual field region. Both temporal impulse responses for each component part of the field and gain-kernels characterizing dynamic changes in the pupil responses driven by short-term fluctuations in overall stimulus density are estimated. Many fewer kernels can be estimated by grouping the stimuli into symbolic stimulus groups and only estimating a gain-kernel for each group. Particular symbolic stimulus groups are shown to be highly efficient. The ability to estimate more reliable responses with relatively few extra gain-kernel coefficients means less data is required to be collected.

Abstract: A pest control lighting device having a connector capable of electrically connecting to a common lightbulb socket or electrical outlet. The pest control lighting device includes one or more light sources in electrical connection with the connector. The pest control lighting device may include an inner module capable of holding one or more pest control materials, such as an insect repellent. The pest control lighting device may further include sound emitting components that may be capable of emitting an ultrasonic sound.

Abstract: A pest control lighting device having a connector capable of electrically connecting to a common lightbulb socket or electrical outlet. The pest control lighting device includes one or more light sources in electrical connection with the connector. The pest control lighting device may include an inner module capable of holding one or more pest control materials, such as an insect repellent. The pest control lighting device may further include sound emitting components that may be capable of emitting an ultrasonic sound.

Abstract: An insect control lighting device having a connector capable of electrically connecting to a common lightbulb socket or electrical outlet. The lighting device includes one or more light sources in electrical connection with the connector. The lighting device further includes an inner module having one or more insect control materials, such an insect attractant and an adhesive. The inner module may be secured within the lighting device by a magnet or by screw threads at one or both ends of the inner module.

Abstract: A pest control lighting device having a connector capable of electrically connecting to a common lightbulb socket or electrical outlet. The pest control lighting device includes one or more light sources in electrical connection with the connector. The pest control lighting device may include an inner module capable of holding one or more pest control materials, such as an insect repellent. The pest control lighting device may further include sound emitting components that may be capable of emitting an ultrasonic sound.

Abstract: A pest control lighting device having a connector capable of electrically connecting to a common lightbulb socket or electrical outlet. The pest control lighting device includes one or more light sources in electrical connection with the connector. The pest control lighting device may include an inner module capable of holding one or more pest control materials, such as an insect repellent. The pest control lighting device may further include sound emitting components that may be capable of emitting an ultrasonic sound.

Abstract: An insect control lighting device having a connector capable of electrically connecting to a common lightbulb socket or electrical outlet. The lighting device includes one or more light sources in electrical connection with the connector. The lighting device further includes an inner module having one or more insect control materials, such an insect attractant and an adhesive. The inner module may be secured within the lighting device by a magnet or by screw threads at one or both ends of the inner module.