Abstract: An access control system and methods according to at least one embodiment leverage wireless access credentials to allow a user to securely gain access to a secured area using his or her mobile device. As such, a credentialed mobile device may permit access to the secured area without requiring a real-time connection to a credential management system and/or an administrative system.

Abstract: An access control system and methods according to at least one embodiment leverage wireless access credentials to allow a user to securely gain access to a secured area using his or her mobile device. As such, a credentialed mobile device may permit access to the secured area without requiring a real-time connection to a credential management system and/or an administrative system.

Abstract: A computer-implemented method may include emitting a presence audial tone at a point-of-sale device. The presence audial tone denotes a presence of the point-of-sale device. When the presence audial tone is received at a user device, the user device establishes a secure communications session with the point-of-sale device. The method may include receiving a confirmation audial tone through the secure communications session at the point-of-sale device. The confirmation audial tone encodes payment confirmation corresponding to a transaction. The method may include determining expected characteristics of the confirmation audial tone using an algorithmic library. The method may include comparing the confirmation audial tone against the expected characteristics to authenticate the transaction. The method may further include processing the authenticated transaction by demodulating the confirmation audial tone to obtain the payment confirmation. Related systems and computer-readable medium are described.

Abstract: An application executed on a user device receives a request to initiate a transaction with an entity associated with a device implemented at a point-of-sale. The application detects that the user device is proximate to the device and detects an audial tone that encodes information corresponding to an entity associated with the device. The application transmits a request to transfer a payment to the entity, wherein the request includes the information and a payment amount for the payment. When the request is received by a payment processing system, the payment processing system transfers the payment to the entity and provides a confirmation for the payment. The application broadcasts a confirmation audial tone that encodes the confirmation. When the confirmation audial tone is received at the device, the device demodulates the confirmation audial tone to provide the confirmation to the entity.

Abstract: The present disclosure relates, in general, to measures of efficacy in patients receiving C-type natriuretic peptide (CNP) therapy to treat a skeletal dysplasia, short stature or bone-related disorders.

Abstract: An application executed on a user device receives a request to initiate a transaction with an entity associated with a device implemented at a point-of-sale. The application detects that the user device is proximate to the device and detects an audial tone that encodes information corresponding to an entity associated with the device. The application transmits a request to transfer a payment to the entity, wherein the request includes the information and a payment amount for the payment. When the request is received by a payment processing system, the payment processing system transfers the payment to the entity and provides a confirmation for the payment. The application broadcasts a confirmation audial tone that encodes the confirmation. When the confirmation audial tone is received at the device, the device demodulates the confirmation audial tone to provide the confirmation to the entity.

Abstract: An access control system and methods according to at least one embodiment leverage wireless access credentials to allow a user to securely gain access to a secured area using his or her mobile device. As such, a credentialed mobile device may permit access to the secured area without requiring a real-time connection to a credential management system and/or an administrative system.

Abstract: An access control system and methods according to at least one embodiment leverage wireless access credentials to allow a user to securely gain access to a secured area using his or her mobile device. As such, a credentialed mobile device may permit access to the secured area without requiring a real-time connection to a credential management system and/or an administrative system.

Abstract: An access control system and methods according to at least one embodiment leverage wireless access credentials to allow a user to securely gain access to a secured area using his or her mobile device. As such, a credentialed mobile device may permit access to the secured area without requiring a real-time connection to a credential management system and/or an administrative system.

Abstract: An aircraft wing assembly including a main wing portion, a high-lift device with a flow surface including an upper skin portion and a lower skin portion, wherein the flow surface of the high-lift device comprises a first flow surface portion, a second flow surface portion and a third flow surface portion, wherein the first flow surface portion is micro-perforated for an air inflow, wherein the first flow surface portion extends on the upper skin from the leading edge in chordwise direction for 2% or less of the local chord and extends on the lower skin from the leading edge in chordwise direction for 2% or less of the local chord, and wherein the second flow surface portion is not micro-perforated and extends over the rest of the upper skin portion, and wherein the third flow surface portion is not micro-perforated and extends over the rest of the lower skin portion.

Abstract: The subject matter disclosed herein relates to wide band gap semiconductor power devices and, more specifically, to high-energy implantation masks used in forming silicon carbide (SiC) power devices, such as charge balanced (CB) SiC power devices. An intermediate semiconductor device structure includes a SiC substrate layer having a first conductivity type and silicon carbide (SiC) epitaxial (epi) layer having the first conductivity type disposed on the SiC substrate layer. The intermediate device structure also includes a silicon high-energy implantation mask (SiHEIM) disposed directly on a first portion of the SiC epi layer and having a thickness between 5 micrometers (?m) and 20 ?m. The SiHEIM is configured to block implantation of the first portion of the SiC epi layer during a high-energy implantation process having an implantation energy greater than 500 kiloelectron volts (keV).

Abstract: The subject matter disclosed herein relates to wide band gap semiconductor power devices and, more specifically, to high-energy implantation masks used in forming silicon carbide (SiC) power devices, such as charge balanced (CB) SiC power devices. An intermediate semiconductor device structure includes a SiC substrate layer having a first conductivity type and silicon carbide (SiC) epitaxial (epi) layer having the first conductivity type disposed on the SiC substrate layer. The intermediate device structure also includes a silicon high-energy implantation mask (SiHEIM) disposed directly on a first portion of the SiC epi layer and having a thickness between 5 micrometers (?m) and 20 ?m. The SiHEIM is configured to block implantation of the first portion of the SiC epi layer during a high-energy implantation process having an implantation energy greater than 500 kiloelectron volts (keV).

Abstract: An access control system and methods according to at least one embodiment leverage wireless access credentials to allow a user to securely gain access to a secured area using his or her mobile device. As such, a credentialed mobile device may permit access to the secured area without requiring a real-time connection to a credential management system and/or an administrative system.

Abstract: An aircraft wing assembly including a main wing portion, a high-lift device with a flow surface including an upper skin portion and a lower skin portion, wherein the flow surface of the high-lift device comprises a first flow surface portion, a second flow surface portion and a third flow surface portion, wherein the first flow surface portion is micro-perforated for an air inflow, wherein the first flow surface portion extends on the upper skin from the leading edge in chordwise direction for 2% or less of the local chord and extends on the lower skin from the leading edge in chordwise direction for 2% or less of the local chord, and wherein the second flow surface portion is not micro-perforated and extends over the rest of the upper skin portion, and wherein the third flow surface portion is not micro-perforated and extends over the rest of the lower skin portion.

Abstract: A probe includes an ultrasound imaging transducer and a high intensity focused ultrasound (HIFU) transducer. The probe is operatively connected to a localizer which provides information indicative of the position and orientation of the probe in relation to a CT scanner. Information from the ultrasound imaging transducer and the CT scanner is used to assist in planning and performing a HIFU treatment.

Abstract: The present invention relates to antibodies including human antibodies and antigen-binding portions thereof that bind to P-cadherin, and that function to inhibit P-cadherin. The invention also relates to heavy and light chain immunoglobulins derived from human P-cadherin antibodies and nucleic acid molecules encoding such immunoglobulins. The present invention also relates to methods of making human P-cadherin antibodies, compositions comprising these antibodies and methods of using the antibodies and compositions. The invention also relates to transgenic animals or plants comprising nucleic acid molecules of the present invention.

Abstract: A medical imaging system for conducting an image-guided medical procedure on a subject and a method for performing the same is provided. The system includes a medical imaging apparatus, such as a CT scanner, magnetic resonance imaging system, or ultrasonic imaging system, etc., for obtaining volumetric images of the subject. Through intervention planning techniques, an interventional procedure on a subject using the volumetric images is determined. A mechanical arm assembly disposed in proximity to the medical imaging apparatus carries out the interventional procedure. The mechanical arm assembly includes a base support, a distal end, a plurality of arm segments, and a plurality of joints between the arm segments for carrying out the interventional procedure. An end-effector is disposed at the distal end of the mechanical arm assembly. The end-effector includes gripping means for selectively gripping and releasing a surgical instrument during the interventional procedure.

Abstract: A system (10) for conducting an image-guided medical procedure on a subject (20) includes a medical imaging apparatus (100) which intermittently during the procedure obtains, upon demand, real-time medical images of the actual procedure. A robotic arm (200) hold a medical instrument (e.g., a biopsy needle (210)) that is used to perform the procedure. The robotic arm (200) manipulates the medical instrument in response to drive signals from a haptic control (400). A detector (e.g., a strain gauge (230)) measures forces experienced by the medical instrument during the procedure. The haptic control (400) generates the drive signals in response to manipulations of an input device (e.g., a knob (404) or an auxiliary instrument, such as, in the case of a biopsy, a remote needle (500)) by an operator, and the operator receives tactile feedback from the haptic control (400) in accordance with the measured forces experienced by the medical instrument. A display (e.g.

Abstract: A system (10) for conducting an image-guided medical procedure on a subject (20) includes a medical imaging apparatus (100) which intermittently during the procedure obtains, upon demand, real-time medical images of the actual procedure. A robotic arm (200) hold a medical instrument (e.g., a biopsy needle (210)) that is used to perform the procedure. The robotic arm (200) manipulates the medical instrument in response to drive signals from a haptic control (400). A detector (e.g., a strain gauge (230)) measures forces experienced by the medical instrument during the procedure. The haptic control (400) generates the drive signals in response to manipulations of an input device (e.g., a knob (404) or an auxiliary instrument, such as, in the case of a biopsy, a remote needle (500)) by an operator, and the operator receives tactile feedback from the haptic control (400) in accordance with the measured forces experienced by the medical instrument. A display (e.g.

Abstract: A medical imaging system for conducting an image-guided medical procedure on a subject and a method for performing the same is provided. The system includes a medical imaging apparatus, such as a CT scanner, magnetic resonance imaging system, or ultrasonic imaging system, etc., for obtaining volumetric images of the subject. Through intervention planning techniques, an interventional procedure on a subject using the volumetric images is determined. A mechanical arm assembly disposed in proximity to the medical imaging apparatus carries out the interventional procedure. The mechanical arm assembly includes a base support, a distal end, a plurality of arm segments, and a plurality of joints between the arm segments for carrying out the interventional procedure. An end-effector is disposed at the distal end of the mechanical arm assembly. The end-effector includes gripping means for selectively gripping and releasing a surgical instrument during the interventional procedure.