Abstract: An apparatus (100) for measuring not only the reflected radiation but also the fluorescence emission of a textile sample (106), which includes a presentation subsystem (102) having a viewing window (108). A radiation subsystem (114) has a tunable radiation source (120) for directing a desired radiation (122) having a wavelength range and an intensity through the viewing window (108) toward the sample (106), and thereby causing the sample (106) to produce a fluorescence (124). A sensing subsystem (126) has an imager (130) for capturing the reflected radiation and fluorescence (124) in an array of pixels. A control subsystem (132) has a processor (136) for controlling the presentation subsystem (102), the radiation subsystem (114), and the sensing subsystem (126), and creates a reflected radiation and fluorescence image containing both spectral information and spatial information in regard to the reflected radiation and fluorescence (124) of the sample (106).

Abstract: An apparatus (100) for measuring not only the reflected radiation but also the fluorescence emission of a textile sample (106), which includes a presentation subsystem (102) having a viewing window (108). A radiation subsystem (114) has a tunable radiation source (120) for directing a desired radiation (122) having a wavelength range and an intensity through the viewing window (108) toward the sample (106), and thereby causing the sample (106) to produce a fluorescence (124). A sensing subsystem (126) has an imager (130) for capturing the reflected radiation and fluorescence (124) in an array of pixels. A control subsystem (132) has a processor (136) for controlling the presentation subsystem (102), the radiation subsystem (114), and the sensing subsystem (126), and creates a reflected radiation and fluorescence image containing both spectral information and spatial information in regard to the reflected radiation and fluorescence (124) of the sample (106).

Abstract: An apparatus (100) for optically characterizing a textile sample (106) comprises a presentation subsystem (102) comprising a viewing window (108). A radiation subsystem (114) comprises a radiation source (120) for directing a first, ultraviolet radiation (122) and a second, visible radiation (123) toward the sample (106), and causing the sample (106) to produce a fluorescent radiation (124) and a reflected radiation (125). A sensing subsystem (126) comprises an imager (130) for capturing the fluorescent radiation (124) and the reflected radiation (125) in an array of pixels (408). A control subsystem (132) comprises a processor (136) for controlling the presentation subsystem (102), the radiation subsystem (114), and the sensing subsystem (126), and for creating a fluorescent and reflected radiation image (400) containing both spectral information and spatial information in regard to the fluorescent radiation (124) and the reflected radiation (125).

Abstract: An instrument for identifying at least one of fiber blend composition and fiber blend ratio in an input material moved by a third set of fiber movements. A second spectral radiation source directs radiation toward the input material. A second spectral sensor receives portions of the second radiation that pass through the input material. A third spectral sensor receives portions of the second radiation that reflect off of the input material. A controller processes the signals from at least one of the second spectral sensor and the third spectral sensor to determine at least one of the fiber blend composition and the fiber blend ratio in the input material. The controller also sends control signals to the second electromagnetic radiation source and the third set of fiber movements.

Abstract: An instrument for identifying at least one of fiber blend composition and fiber blend ratio in an input material moved by a third set of fiber movements. A second spectral radiation source directs radiation toward the input material. A second spectral sensor receives portions of the second radiation that pass through the input material. A third spectral sensor receives portions of the second radiation that reflect off of the input material. A controller processes the signals from at least one of the second spectral sensor and the third spectral sensor to determine at least one of the fiber blend composition and the fiber blend ratio in the input material. The controller also sends control signals to the second electromagnetic radiation source and the third set of fiber movements.

Abstract: An apparatus (100) for measuring not only the reflected radiation but also the fluorescence emission of a textile sample (106), which includes a presentation subsystem (102) having a viewing window (108). A radiation subsystem (114) has a tunable radiation source (120) for directing a desired radiation (122) having a wavelength range and an intensity through the viewing window (108) toward the sample (106), and thereby causing the sample (106) to produce a fluorescence (124). A sensing subsystem (126) has an imager (130) for capturing the reflected radiation and fluorescence (124) in an array of pixels. A control subsystem (132) has a processor (136) for controlling the presentation subsystem (102), the radiation subsystem (114), and the sensing subsystem (126), and creates a reflected radiation and fluorescence image containing both spectral information and spatial information in regard to the reflected radiation and fluorescence (124) of the sample (106).

Abstract: The apparatus is for measuring at least one of color and trash in a fiber sample. A light emitting diode light source generates an incident light that is directed toward the fiber sample, and reflected by the fiber sample, thereby producing a reflected light. A sensor receives the reflected light and produces a signal. A controller controls the light source and the sensor, and at least one of receives and adjusts the signal. At least one of the incident light, the reflected light and the signal is conditioned to compensate for differences between the light emitting diode light source and a xenon light source. Thus, drawbacks of the xenon light source used to date can be avoided.

Abstract: The apparatus is for measuring at least one of color and trash in a fiber sample. A light emitting diode light source generates an incident light that is directed toward the fiber sample, and reflected by the fiber sample, thereby producing a reflected light. A sensor receives the reflected light and produces a signal. A controller controls the light source and the sensor, and at least one of receives and adjusts the signal. At least one of the incident light, the reflected light and the signal is conditioned to compensate for differences between the light emitting diode light source and a xenon light source. Thus, drawbacks of the xenon light source used to date can be avoided.

Abstract: An apparatus processes video signals containing video information related to a scene which may contain a vehicle license plate. The apparatus includes a video camera having a video imaging device for viewing the scene and generating a first video signal. A character detector in the video camera processes the first video signal to detect a license plate within the scene and to generate location information indicating the location of the license plate. A line detector in the camera determines a particular video line of the first video signal into which the location information is to be embedded. An insertion circuit in the camera embeds the location information into the particular video line of the first video signal to form a second video signal. The apparatus may also include a video capture device for receiving the second video signal from the video camera and converting the second video signal into digital image data.

Abstract: A portable undercarriage vehicle inspection system (UVIS) (100) uses an under vehicle imaging (UVI) module (110) to capture an image of the undercarriage of a vehicle. The UVIS also includes multiple scene cameras (120) that capture the associated vehicle scene images. The scene cameras are easy to view and manipulate. The undercarriage image and the associated vehicle scene images are provided to a power and communications unit (PCU) (140) through a network (130) such as Ethernet. These images may be stored in a database repository connected to the network. A notebook computer will serve as an operator workstation (150, 152, 154) for display of real-time, as well as historical, vehicular records. An operator viewing the images can enter additional information related to the images, such as comments and remarks, and archive all of the information for future reference and comparisons.

Abstract: A portable undercarriage vehicle inspection system (UVIS) (100) uses an under vehicle imaging (UVI) module (110) to capture an image of the undercarriage of a vehicle. The UVIS also includes multiple scene cameras (120) that capture the associated vehicle scene images. The scene cameras are easy to view and manipulate. The undercarriage image and the associated vehicle scene images are provided to a power and communications unit (PCU) (140) through a network (130) such as Ethernet. These images may be stored in a database repository connected to the network. A notebook computer will serve as an operator workstation (150, 152, 154) for display of real-time, as well as historical, vehicular records. An operator viewing the images can enter additional information related to the images, such as comments and remarks, and archive all of the information for future reference and comparisons.

Abstract: An apparatus processes video signals containing video information related to a scene which may contain a vehicle license plate. The apparatus includes a video camera having a video imaging device for viewing the scene and generating a first video signal. A character detector in the video camera processes the first video signal to detect a license plate within the scene and to generate location information indicating the location of the license plate. A line detector in the camera determines a particular video line of the first video signal into which the location information is to be embedded. An insertion circuit in the camera embeds the location information into the particular video line of the first video signal to form a second video signal. The apparatus may also include a video capture device for receiving the second video signal from the video camera and converting the second video signal into digital image data.

Abstract: Novel S-aryl N-cycloalkylthiolcarbamates, such as S-4-methoxyphenyl N-cyclohexylthiolcarbamate, which are useful for controlling pea aphids, and the method of controlling pea aphids with the compounds are disclosed.

Abstract: Novel S-3-methoxyphenyl N-alkylthiolcarbamates such as 3-methoxyphenyl N-methylthiolcarbamates, and S-3-methylthiophenyl N-alkylthiolcarbamates such as 3-methylthiophenyl N-methylthiolcarbamate are disclosed, which are useful to control the plant pest Pythium ultimum (Damping Off). Also disclosed are the methods of controlling this plant pest with these compounds.

Abstract: Thermoplastic copolymers and graft polymers containing from 1 to 15% by weight of a copolymerized salt of an ethylenically unsaturated vinyl sulfonic acid which exhibit improved heat distortion temperature properties while retaining excellent melt processing characteristics, and a method for their preparation.

Abstract: S-naphthyl N-alkylthiolcarbamates, such as S-.alpha.-naphthyl N-methylthiolcarbamate, and S-.beta.-naphthyl N-methylthiolcarbamate and S-.alpha.-naphthyl N,N-dimethylthiolcarbamate are disclosed. These are useful for controlling plant pests such as weeds, pathogenic nematodes, fungi, or other pathogenic organisms. Also disclosed are methods of controlling plant pests with these compounds.

Abstract: Novel S-3-methoxyphenyl N-alkylthiolcarbamates such as 3-methoxyphenyl N-methylthiolcarbamates, and S-3-methylthiophenyl N-alkylthiolcarbamates such as 3-methylthiophenyl N-methylthiolcarbamate are disclosed, which are useful to control the plant pest Pythium ultimum (Damping Off). Also disclosed are the methods of controlling this plant pest with these compounds.

Abstract: Novel S-aryl N-cycloalkylthiolcarbamates, such as S-4-methoxy-phenyl N-cyclohexylthiolcarbamate, which are useful for controlling pea aphids, and the method of controlling pea aphids with the compounds are disclosed.