Abstract: A system for automatically sensing, monitoring, and analyzing livestock to provide age verification and relative vigor metrics. The system generally includes a tag attachable to a livestock, a location detector, and a data processor. The tag senses livestock motion and produces first data indicative of a physical parameter. The location detector senses livestock location and produces second data indicative of the physical parameter. The data processor receives and stores a first aggregation of data of the same type as the first data and a second aggregation of data of the same type as the second data for a plurality of other livestock. The data processor statistically analyzes the first data and second data in relation to the first and second aggregations of data and generates an indication of the age and a relative vigor metric of the livestock.

Abstract: Livestock carbon credit monitoring systems and methods are disclosed herein. An example system includes a livestock monitoring device, comprising a location tracking unit and an inertial measurement unit (IMU), configured to be attached to livestock that graze in the paddock. A service provider is configured to enable a user to create a geofence around the paddock, based on parcel boundaries. The service provider automatically generates inventory numbers of the livestock using output from the livestock monitoring device, including location data and timestamps indicative of when the livestock entered and left the paddock. The system estimates vegetation consumption in the paddock by the livestock, based on the inventory numbers and the output of the livestock monitoring device.

Abstract: Livestock water monitoring systems and methods are disclosed herein. An example system includes a controller configured to receive sensor output from a sensor associated with an animal when the animal is in communication range of the system, monitor the sensor output to detect behavior parameters when the animal is in communication range with the base station, generate an alert message when a deviation is detected in the behavior parameters, and transmit the alert message to at least one recipient.

Abstract: A livestock location tracking system is used to establish a history of locations of livestock animals throughout their lifespan to determine time spent in pasture, in pens, at feed stations, and/or other locations of interest. The recordation of locations of livestock occurs within the context of a livestock management system that includes a management system platform, a remote computer system, one or more local sensors and/or transceivers, one or more advanced livestock tags, one or more basic livestock tags and/or enhanced basic livestock tags, and one or more mobile devices.

Abstract: A system for automatically sensing, monitoring, and analyzing livestock to provide age verification and relative vigor metrics. The system generally includes a tag attachable to a livestock, a location detector, and a data processor. The tag senses livestock motion and produces first data indicative of a physical parameter. The location detector senses livestock location and produces second data indicative of the physical parameter. The data processor receives and stores a first aggregation of data of the same type as the first data and a second aggregation of data of the same type as the second data for a plurality of other livestock. The data processor statistically analyzes the first data and second data in relation to the first and second aggregations of data and generates an indication of the age and a relative vigor metric of the livestock.

Abstract: Embodiments of the invention add a cutting tool and a creasing wheel to a flatbed printer. This reduces workflow steps, allows cutting and creasing without having to re-register image/media, and reduces required floor space for small shops.

Abstract: White-balance is improved when printing on colored media, while minimizing the time and use of costly materials required by present approaches. In an embodiment, the typical solid white fill or background layer is altered by including in the white layer one or more of the other colors already available in the printer to shade this layer. Thus, a small amount of cyan, for example, helps balance a pink-ish (red) media; yellow is used for blue media; and magenta is used for green media; as well as combinations thereof. A combination of transparent process inks and opaque white helps to maintain brightness (luminosity).

Abstract: White-balance is improved when printing on colored media, while minimizing the time and use of costly materials required by present approaches. In an embodiment, the typical solid white fill or background layer is altered by including in the white layer one or more of the other colors already available in the printer to shade this layer. Thus, a small amount of cyan, for example, helps balance a pink-ish (red) media; yellow is used for blue media; and magenta is used for green media; as well as combinations thereof. A combination of transparent process inks and opaque white helps to maintain brightness (luminosity).

Abstract: White-balance is improved when printing on colored media, while minimizing the time and use of costly materials required by present approaches. In an embodiment, the typical solid white fill or background layer is altered by including in the white layer one or more of the other colors already available in the printer to shade this layer. Thus, a small amount of cyan, for example, helps balance a pink-ish (red) media; yellow is used for blue media; and magenta is used for green media; as well as combinations thereof. A combination of transparent process inks and opaque white helps to maintain brightness (luminosity).

Abstract: The present disclosure provides apparatuses and systems for delivering a measureable absorbed-dose of a gaseous activating agent to a fluid including a biological liquid and/or cells. The apparatuses or systems include a gas-fluid contact device configured to controllably rotate or oscillate a control member having an interior surface in contact with the fluid and a control system configured to control rotation or oscillation of the contact member by the gas-fluid contact device. In some embodiments, the control system is further configured to control absorption of the gaseous activating agent by the fluid. The present disclosure also provides methods of treating a fluid including a biological liquid or cells with a gaseous activating agent to controllably activate the fluid.

Abstract: The present disclosure provides apparatuses and systems for delivering a measureable absorbed-dose of a gaseous activating agent to a fluid including a biological liquid and/or cells. The apparatuses or systems include a gas-fluid contact device configured to controllably rotate or oscillate a control member having an interior surface in contact with the fluid and a control system configured to control rotation or oscillation of the contact member by the gas-fluid contact device. In some embodiments, the control system is further configured to control absorption of the gaseous activating agent by the fluid. The present disclosure also provides methods of treating a fluid including a biological liquid or cells with a gaseous activating agent to controllably activate the fluid.

Abstract: Methods, apparatus and systems for printing an image using an array of nozzles are described. In one example aspect, a printer system includes an array of nozzles and a control device coupled to the array of nozzles. The control device is configured to determine a step size for printing a current section of an image based on a set of masks. The set of masks includes one or more masks used for printing previous sections of the image. The control device is also configured to adjust the set of masks based on a printing mode to be used for the current section of the image. The array of nozzles is configured to print the current section of the image using a combination of the adjusted set of masks.

Abstract: Disclosed herein is a technique that enables a carriage printer to reduce precision in a media conveyor by improving mobility of the carriage. The carriage includes a mobile jetplate that adjusts the position of the printheads within the carriage. The mobile jetplate includes multiple motors that enable shifts in an axis matching the axis of the media. Operating the motors of the jetplate at different locations or at different intensities causes the jetplate to skew and achieve mobility of multiple axes. A set of sensors monitor media skew and shifts of the mobile jetplate are able to compensate for that skew. An additional set of motors shift the carriage to compensate for deformation of the beam that the carriage shuttles along.

Abstract: Methods, apparatus and systems for printing an image using an array of nozzles are described. In one example aspect, a printer system includes an array of nozzles and a control device coupled to the array of nozzles. The control device is configured to determine a step size for printing a current section of an image based on a set of masks. The set of masks includes one or more masks used for printing previous sections of the image. The control device is also configured to adjust the set of masks based on a printing mode to be used for the current section of the image. The array of nozzles is configured to print the current section of the image using a combination of the adjusted set of masks.

Abstract: Disclosed herein is a technique that enables a carriage printer to reduce precision in a media conveyor by improving mobility of the carriage. The carriage includes a mobile jetplate that adjusts the position of the printheads within the carriage. The mobile jetplate includes multiple motors that enable shifts in an axis matching the axis of the media. Operating the motors of the jetplate at different locations or at different intensities causes the jetplate to skew and achieve mobility of multiple axes. A set of sensors monitor media skew and shifts of the mobile jetplate are able to compensate for that skew. An additional set of motors shift the carriage to compensate for deformation of the beam that the carriage shuttles along.

Abstract: Methods, apparatus and systems for printing an image using an array of nozzles are described. In one example aspect, a printer system includes an array of nozzles and a control device coupled to the array of nozzles. The control device is configured to determine a step size for printing a current section of an image based on a set of masks. The set of masks includes one or more masks used for printing previous sections of the image. The control device is also configured to adjust the set of masks based on a printing mode to be used for the current section of the image. The array of nozzles is configured to print the current section of the image using a combination of the adjusted set of masks.

Abstract: White-balance is improved when printing on colored media, while minimizing the time and use of costly materials required by present approaches. In an embodiment, the typical solid white fill or background layer is altered by including in the white layer one or more of the other colors already available in the printer to shade this layer. Thus, a small amount of cyan, for example, helps balance a pink-ish (red) media; yellow is used for blue media; and magenta is used for green media; as well as combinations thereof. A combination of transparent process inks and opaque white helps to maintain brightness (luminosity).

Abstract: The disclosure is related to printing an image as a multi-layered textured image on a substrate. The printing system prints one or more layers of a texture of the image as a base layer on the substrate and the image above the base layer. The base layer includes one or more layers of the texture. The printing system prints the texture using the ink from the print heads of the printing system. The process of printing a multi-layered textured image can include printing one or more layers of texture as a base layer on the substrate, printing one or more layers of white ink above the base layer, and printing one or more layers of the image above the white layers. The printing system can also insert one or more blank layers between different types of layers, e.g., texture layers, white layers and image layers.

Abstract: White-balance is improved when printing on colored media, while minimizing the time and use of costly materials required by present approaches. In an embodiment, the typical solid white fill or background layer is altered by including in the white layer one or more of the other colors already available in the printer to shade this layer. Thus, a small amount of cyan, for example, helps balance a pink-ish (red) media; yellow is used for blue media; and magenta is used for green media; as well as combinations thereof. A combination of transparent process inks and opaque white helps to maintain brightness (luminosity).

Abstract: The disclosure is related to printing an image as a multi-layered textured image on a substrate. The printing system prints one or more layers of a texture of the image as a base layer on the substrate and the image above the base layer. The base layer includes one or more layers of the texture. The printing system prints the texture using the ink from the print heads of the printing system. The process of printing a multi-layered textured image can include printing one or more layers of texture as a base layer on the substrate, printing one or more layers of white ink above the base layer, and printing one or more layers of the image above the white layers. The printing system can also insert one or more blank layers between different types of layers, e.g., texture layers, white layers and image layers.