Abstract: Provided herein are antibodies or antigen-binding fragments thereof, e.g., monoclonal antibodies or antigen binding fragments thereof, that specifically bind to ENTPD2 (e.g., human ENTPD2 protein), and methods of using these antibodies or antigen-binding fragments. The present invention also relates to combination therapies comprising an anti-human ENTPD2 antibody or antigen binding fragment and at least one additional therapeutic agent, and methods of using these combination therapies.

Abstract: A metronome includes a body, a sensor coupled to the body and a controller in communication with the sensor. The sensor is configured to detect one or more strikes by a user of the metronome. The controller is configured to receive a first user input to select a tap tempo mode, detect via the sensor a strike by the user on the body of the metronome, determine a tempo based on a plurality of strikes by the user. The controller is further configured to detect modulation of how the strikes are made to the body of the metronome and automatically adjust the tempo based on the detected modulation of the strike.

Abstract: A cabinetry handle is provided with a handle body with a mounting surface oriented on the handle body to mount to cabinetry. A first fastener is provided on the mounting surface to cooperate with a second fastener within the cabinetry. At least one projection is spaced apart from the first fastener and extends a length from the mounting surface to engage the cabinetry to minimize rotation of the handle body relative to the cabinetry. The at least one projection has a thickness and a width that is greater than the thickness. A direction of the width of the at least one projection is aligned with the first fastener.

Abstract: A rain deflector apparatus provides a declined body surface to deflect water away from a sliding glass door (or similar structure) and a compliant base portion that can be sealably inserted into the sliding glass door's track (or similar structure) in order to prevent water and debris from collecting in the track and making its way under the door. In a preferred embodiment, the rain deflector apparatus is secured to the glass of the sliding glass door by way of one or more suction cups. The suction cups are selected such that their holding force to the glass is sufficient to keep the upper edge of the apparatus pressed up against the glass and the lower edge in sealed relation to the track or floor.

Abstract: A rain deflector apparatus provides a declined body surface to deflect water away from a sliding glass door (or similar structure) and a one or more compliant portion in order to prevent water and debris from collecting in the track and making its way under the door. In a preferred embodiment, the rain deflector apparatus is secured to the door or door track by a one or more attachment mechanism. The attachment mechanism(s) is/are selected such that their holding force to the track or other structure is sufficient to keep the upper edge of the apparatus pressed up against the glass and the lower edge in sealed relation to the track or floor.

Abstract: A turnbuckle for adjustably locking a component of a gas turbine engine to an engine static structure is disclosed. In various embodiments, the turnbuckle includes an outer body having a first internal threading and an outer body witness hole, the outer body defining a first end configured for attachment to the component; an inner body having a first external threading, the inner body defining a second end configured for attachment to the engine static structure; and a coupling body having a second internal threading configured to threadedly engage the first external threading and a second external threading configured to engage the first internal threading, wherein the outer body witness hole extends through the outer body and is configured to detect a first short-threading of the second external threading within the first internal threading.

Abstract: A metronome includes a body, a sensor coupled to the body and a controller in communication with the sensor. The sensor is configured to detect one or more strikes by a user of the metronome. The controller is configured to receive a first user input to select a tap tempo mode, detect via the sensor a strike by the user on the body of the metronome, determine a tempo based on a plurality of strikes by the user. The controller is further configured to detect modulation of how the strikes are made to the body of the metronome and automatically adjust the tempo based on the detected modulation of the strike.

Abstract: A turnbuckle for adjustably locking a component of a gas turbine engine to an engine static structure is disclosed. In various embodiments, the turnbuckle includes an outer body having a first internal threading and an outer body witness hole, the outer body defining a first end configured for attachment to the component; an inner body having a first external threading, the inner body defining a second end configured for attachment to the engine static structure; and a coupling body having a second internal threading configured to threadedly engage the first external threading and a second external threading configured to engage the first internal threading, wherein the outer body witness hole extends through the outer body and is configured to detect a first short-threading of the second external threading within the first internal threading.

Abstract: A metronome including a sensor capable of detecting an event and a controller in communication with the sensor and which controls the metronomes response to the event. The controller may receive a signal from the sensor indicating an occurrence of the event, and the controller, in response, may generate a signal to adjust characteristics of the metronome in response to the event.

Abstract: A metronome including a sensor capable of detecting an event and a controller in communication with the sensor and which controls the metronomes response to the event. The controller may receive a signal from the sensor indicating an occurrence of the event, and the controller, in response, may generate a signal to adjust characteristics of the metronome in response to the event.

Abstract: A metronome including a sensor capable of detecting an event and a controller in communication with the sensor and which controls the metronomes response to the event. The controller can receive a signal from the sensor indicating an occurrence of the event, the controller, in response, can generate a signal to adjust a characteristic of the metronome in response to the event.

Abstract: A metronome including a sensor capable of detecting an event and a controller in communication with the sensor and which controls the metronomes response to the event. The controller can receive a signal from the sensor indicating an occurrence of the event, the controller, in response, can generate a signal to adjust a characteristic of the metronome in response to the event.

Abstract: An integrated cryptographic system (24) executes a mathematical algorithm that computes equations for public-key cryptography. An arithmetic processor (22) receives data values stored in a temporary storage memory (14) and computes both the Rivest-Shamir-Adleman (RSA) and Elliptic Curve Cryptography (ECC) algorithms. Multiplication cells (270 and 280) have an INT/POLY terminal that selects a C-register (246) for computing RSA modular exponentiation or ECC elliptic curve point multiplication.

Abstract: An integrated cryptographic system (24) executes a mathematical algorithm that computes equations for public-key cryptography. An arithmetic processor (22) receives data values stored in a temporary storage memory (14) and computes both the Rivest-Shamir-Adleman (RSA) and Elliptic Curve Cryptography (ECC) algorithms. Multiplication cells (270 and 280) have an INT/POLY terminal that selects a C-register (246) for computing RSA modular exponentiation or ECC elliptic curve point multiplication.

Abstract: An integrated cryptographic system (24) executes a mathematical algorithm that computes equations for public-key cryptography. An arithmetic processor (22) receives data values stored in a temporary storage memory (14) and computes both the Rivest-Shamir-Adleman (RSA) and Elliptic Curve Cryptography (ECC) algorithms. Multiplication cells (270 and 280) have an INT/POLY terminal that selects a C-register (246) for computing RSA modular exponentiation or ECC elliptic curve point multiplication.

Abstract: A finite field multiplier with intrinsic modular reduction includes an interface unit (1208) that translates an n bit wide data path to a m bit wide data path where n is less than m. Also included is a finite field data unit (1204) with m bit wide registers that is coupled to a finte field control unit (1202). The finite field control unit (1202) includes a microsequencer (1402) and a finite state machine multiplier (1404). The microsequencer (1402) controls the finite state machine multiplier (1404) which performs a finite field multiply operation with intrinsic modular reduction and presents a finite field multiplication product to the finite field data unit (1204).

Abstract: An elliptic curve (EC) processor circuit (120) comprising a finite field arithmetic logic unit (122), operation registers (124) an EC control unit (123) and a register file (127). A storage element (250) is coupled to the finite field arithmetic logic unit (122). The EC control unit (123) controls the various components of the EC processor circuit (120) to decompress a compressed one-bit representation of a Y coordinate of an elliptic curve point (X, Y). The EC control unit (123) controls the use of the operation register (124), the storage element (250) and the finite field arithmetic logic unit (122) to recursively compute the decompressed version of the compressed Y coordinate based upon the X coordinate and the compressed one-bit representation of the Y coordinate. The circuit and method employ minimal additional hardware and processing in an EC processor circuit (120).

Abstract: A diagnostic circuit (18) for a potentiometric sensor (10) having an electrically resistive means (12) and a sliding contact (14) in connection with the resistive means and providing an output from the sensor at a sensor output terminal (16), the diagnostic circuit comprising a low pass filter (36) connectable between the sliding contact and the sensor output terminal; alternating voltage supply means (20,21,22,24) having a high impedance connectable to the sliding contact; and amplitude modulation demodulating means (30,32,34) connectable between the sliding contact and a diagnostic output terminal (38), the voltage at the diagnostic output terminal providing an indication of the contact resistance between the sliding contact and the resistive means of the sensor. Monitors the contact resistance without interfering with the sensor output.

Abstract: A finite field inverse circuit has a finite field data unit (1112) and an inverse control unit (1110). The inverse control unit includes (1110) a k.sub.l and k.sub.u decrementer pair (1108, 1122), a k.sub.l -k.sub.u difference unit (1106), an inverse control finite state machine (1102), and a one-bit memory (1104) coupled to the inverse control finite state machine (1102). The finite field data unit (1112) includes four m bit wide registers that are shift registers designated as B (1120), A (1118), M (1114), and C (1116), where B- is a first register, A- is a second register, M- is a irreducible polynomial register, and C- is a field element register. An the irreducible polynomial is loaded left justified in the M-register, a field element to be inverted is loaded left justified in the C-register, and a single "1" is loaded in an LSB bit of the B-register. The field element is then inverted in 2n+2 system clock cycles where n is a field size associated with the field element.