Abstract: Provided herein are methods and compositions for enhancing an immune response and/or for the treatment of an immune-related condition in an individual, comprising disabling myeloid cells using an anti-Triggering Receptor Expressed on Myeloid Cells 1 (TREM1) antibody.

Abstract: The present invention relates to an imaging apparatus (300) for capturing a 360 degree panoramic photograph or sequence of photographs of a subject located at a stage portion (302) of an enclosure (100) thereof. The imaging apparatus (300) comprises a modular enclosure (100), and a motor assembly (200) coupled to a top portion of the enclosure (100). The motor assembly (200) includes an output shaft (202) adapted to rotate a support member (206) around a subject located at the stage portion (302). The support member (206) has a first arm (206-1) coupled with a fixture (210) adapted to mount one or more imaging devices and a second arm (206-2) coupled with a counter-balance member (212) configured to balance weight of the imaging devices while the support member (206) is rotated.

Abstract: The present invention relates to an imaging apparatus (300) for capturing a 360 degree panoramic photograph or sequence of photographs of a subject located at a stage portion (302) of an enclosure (100) thereof. The imaging apparatus (300) comprises a modular enclosure (100), and a motor assembly (200) coupled to a top portion of the enclosure (100). The motor assembly (200) includes an output shaft (202) adapted to rotate a support member (206) around a subject located at the stage portion (302). The support member (206) has a first arm (206-1) coupled with a fixture (210) adapted to mount one or more imaging devices and a second arm (206-2) coupled with a counter-balance member (212) configured to balance weight of the imaging devices while the support member (206) is rotated.

Abstract: A distributed energy conversion system may include one or more DC power sources and two or more inverters to convert DC power from the power sources to AC power. The AC power from the two or more inverters may be combined to provide a single AC output. A module may include one or more photovoltaic cells and two or more inverters. An integrated circuit may include power electronics to convert DC input power to AC output power and processing circuitry to control the power electronics. The AC output power may be synchronized with an AC power distribution system.

Abstract: A system and a method are provided for making hypochlorous acid using saltwater with sodium bicarbonate. The system includes an electrolytic cell, a quantity of saltwater solution, and a quantity of sodium bicarbonate. The quantity of saltwater solution is poured into the electrolytic cell and then undergoes an electrolytic process. As a result of the quantity of saltwater solution going through the electrolytic process, a hypochlorous acid solution is yielded. In order to ensure a pure hypochlorous acid solution is formed, the quantity of sodium bicarbonate can be added into the electrolytic cell along with the quantity of saltwater solution before the electrolytic process or the quantity of sodium bicarbonate can be added into the hypochlorous acid solution after the hypochlorous acid solution is yielded. This process adjusts the pH level of the hypochlorous acid solution, and thus, produces a purer hypochlorous acid solution.

Abstract: A system and a method are provided for making hypochlorous acid using saltwater with bicarbonate compound. The system includes an electrolytic cell, a quantity of saltwater solution, and a quantity of bicarbonate compound. The quantity of saltwater solution is poured into the electrolytic cell and then undergoes an electrolytic process. As a result of the quantity of saltwater solution going through the electrolytic process, a hypochlorous acid solution is yielded. In order to ensure a pure hypochlorous acid solution is formed, the quantity of bicarbonate compound can be added into the electrolytic cell along with the quantity of saltwater solution before the electrolytic process or the quantity of bicarbonate compound can be added into the hypochlorous acid solution after the hypochlorous acid solution is yielded. This process adjusts the pH level of the hypochlorous acid solution, and thus, produces a purer hypochlorous acid solution.

Abstract: A particulate material comprising porous polymeric particles is described. The porous polymeric particles have an average pore diameter of from 2 to 50 nm and a volume mean particle diameter D[4,3] of less than 100 ?m. The material is obtained or obtainable by spray-drying a polymer solution. The particles find use as a solubility-enhancing carrier for active pharmaceutical compounds. Methods of manufacturing the particulate material and pharmaceutical compositions including the particulate material loaded with one or more active pharmaceutical compounds are also described.

Abstract: Method for scheduling paging in telecommunication network making the list candidate base station to send paging message. This method based on the Haversine formula to calculate distance between pair of base station from position information (latitude, longitude) and filter by situation: Distance=<?*Min (which ? is 3) to make the list candidate base station for each of base station in list input. This method is useable for the telecommunication system which need to page UE for mobile terminated (MT) service.

Abstract: A system and a method are provided for making hypochlorous acid using saltwater with sodium bicarbonate. The system includes an electrolytic cell, a quantity of saltwater solution, and a quantity of sodium bicarbonate. The quantity of saltwater solution is poured into the electrolytic cell and then undergoes an electrolytic process. As a result of the quantity of saltwater solution going through the electrolytic process, a hypochlorous acid solution is yielded. In order to ensure a pure hypochlorous acid solution is formed, the quantity of sodium bicarbonate can be added into the electrolytic cell along with the quantity of saltwater solution before the electrolytic process or the quantity of sodium bicarbonate can be added into the hypochlorous acid solution after the hypochlorous acid solution is yielded. This process adjusts the pH level of the hypochlorous acid solution, and thus, produces a purer hypochlorous acid solution.

Abstract: A system and a method are provided for making hypochlorous acid using saltwater with sodium bicarbonate. The system includes an electrolytic cell, a quantity of saltwater solution, and a quantity of sodium bicarbonate. The quantity of saltwater solution is poured into the electrolytic cell and then undergoes an electrolytic process. As a result of the quantity of saltwater solution going through the electrolytic process, a hypochlorous acid solution is yielded. In order to ensure a pure hypochlorous acid solution is formed, the quantity of sodium bicarbonate can be added into the electrolytic cell along with the quantity of saltwater solution before the electrolytic process or the quantity of sodium bicarbonate can be added into the hypochlorous acid solution after the hypochlorous acid solution is yielded. This process adjusts the pH level of the hypochlorous acid solution, and thus, produces a purer hypochlorous acid solution.

Abstract: A system and a method make a saltwater solution for electrolysis through the process of flowing water through a salt chamber to dissolve salt crystals and outputting the resulting saltwater solution into a saltwater container. The system includes a salt chamber, a remaining quantity of salt crystals, a filter, and a saltwater container. The salt chamber is a chamber that contains the remaining quantity of salt crystals. The salt chamber and the saltwater container are in fluid communication with each other, and thus, the saltwater container can receive the resulting saltwater solution. The salt chamber includes a chamber inlet and a chamber outlet. The filter is connected across the chamber outlet in order to retain undissolved salt crystals within the salt chamber.

Abstract: Provided herein are anti-TREM1 antibodies and related methods of making and using anti-TREM1 antibodies. Also provided are methods and compositions for enhancing an immune response and/or for the treatment of an immune-related condition in an individual, e.g., cancer, comprising killing, disabling, or depleting non-stimulatory myeloid cells using an anti-TREM1 antibody or antigen binding fragment thereof.

Abstract: Provided herein are anti-TREM1 antibodies and related methods of making and using anti-TREM1 antibodies. Also provided are methods and compositions for enhancing an immune response and/or for the treatment of an immune-related condition in an individual, e.g., cancer, comprising killing, disabling, or depleting non-stimulatory myeloid cells using an anti-TREM1 antibody or antigen binding fragment thereof.

Abstract: Provided herein are anti-TREM1 antibodies and related methods of making and using anti-TREM1 antibodies. Also provided are methods and compositions for enhancing an immune response and/or for the treatment of an immune-related condition in an individual, e.g., cancer, comprising killing, disabling, or depleting non-stimulatory myeloid cells using an anti-TREM1 antibody or antigen binding fragment thereof.

Abstract: Provided herein are methods and compositions for enhancing an immune response and/or for the treatment of an immune-related condition in an individual, comprising disabling myeloid cells using an anti-Triggering Receptor Expressed on Myeloid Cells 1 (TREM1) antibody.

Abstract: In embodiments, a roll axis assembly may include a camera mounting plate to mount with a camera such that an optical axis of the camera is approximately parallel with the camera mounting plate and coincident with a first axis of the apparatus. The roll axis assembly may further include a roll motor coupled with the camera mounting plate, the roll motor to rotate the camera mounting plate around the first axis. The apparatus may further include a pan/tilt axis assembly coupled with the roll axis assembly, the pan/tilt axis assembly to rotate the camera mounting plate around a second axis of the apparatus that is perpendicular to the first axis of the apparatus and also perpendicular to the camera mounting plate. Other embodiments may be described and/or claimed.

Abstract: A distributed energy conversion system may include one or more DC power sources and two or more inverters to convert DC power from the power sources to AC power. The AC power from the two or more inverters may be combined to provide a single AC output. A module may include one or more photovoltaic cells and two or more inverters. An integrated circuit may include power electronics to convert DC input power to AC output power and processing circuitry to control the power electronics. The AC output power may be synchronized with an AC power distribution system.

Abstract: In embodiments, a roll axis assembly may include a camera mounting plate to mount with a camera such that an optical axis of the camera is approximately parallel with the camera mounting plate and coincident with a first axis of the apparatus. The roll axis assembly may further include a roll motor coupled with the camera mounting plate, the roll motor to rotate the camera mounting plate around the first axis. The apparatus may further include a pan/tilt axis assembly coupled with the roll axis assembly, the pan/tilt axis assembly to rotate the camera mounting plate around a second axis of the apparatus that is perpendicular to the first axis of the apparatus and also perpendicular to the camera mounting plate. Other embodiments may be described and/or claimed.

Abstract: A distributed energy conversion system may include one or more DC power sources and two or more inverters to convert DC power from the power sources to AC power. The AC power from the two or more inverters may be combined to provide a single AC output. A module may include one or more photovoltaic cells and two or more inverters. An integrated circuit may include power electronics to convert DC input power to AC output power and processing circuitry to control the power electronics. The AC output power may be synchronized with an AC power distribution system.