Abstract: Disclosed herein are methods for sequencing, comprising, providing a sample, wherein said sample comprises a plurality of nucleic acid (NA) molecules, isolating said plurality of NA molecules from said sample, amplifying said plurality of NA molecules, subjecting said plurality of NA molecules to one or more amplification reactions to generate a plurality of cDNA molecules, and sequencing said plurality of cDNA molecules or derivatives thereof. Also disclosed herein are systems, comprising, a processor, and a non-transitory computer readable storage medium encoded with a computer program that causes said processor to providing a sample, wherein said sample comprises a plurality of NA molecules, isolating said plurality of NA molecules from said sample, amplifying said plurality of NA molecules, subjecting said plurality of nucleic acid molecules to one or more amplification reactions to generate a plurality of cDNA molecules, and sequencing said plurality of cDNA molecules or derivatives thereof.

Abstract: Disclosed herein are methods for sequencing, comprising, providing a sample, wherein said sample comprises a plurality of nucleic acid (NA) molecules, isolating said plurality of NA molecules from said sample, amplifying said plurality of NA molecules, subjecting said plurality of NA molecules to one or more amplification reactions to generate a plurality of cDNA molecules, and sequencing said plurality of cDNA molecules or derivatives thereof. Also disclosed herein are systems, comprising, a processor, and a non-transitory computer readable storage medium encoded with a computer program that causes said processor to providing a sample, wherein said sample comprises a plurality of NA molecules, isolating said plurality of NA molecules from said sample, amplifying said plurality of NA molecules, subjecting said plurality of nucleic acid molecules to one or more amplification reactions to generate a plurality of cDNA molecules, and sequencing said plurality of cDNA molecules or derivatives thereof.

Abstract: Disclosed herein are methods for processing a cell-free sample of a subject, comprising, providing said cell-free sample of said subject, wherein said cell-free sample comprises a plurality of nucleic acid molecules, subjecting said plurality of nucleic acid molecules to one or more amplification reactions to generate a plurality of complementary deoxyribonucleic acid (cDNA) molecules or derivatives thereof, and sequencing said plurality of cDNA molecules or derivatives thereof.

Abstract: Disclosed herein are methods for sequencing, comprising, providing a sample, wherein said sample comprises a plurality of nucleic acid (NA) molecules, isolating said plurality of NA molecules from said sample, amplifying said plurality of NA molecules, subjecting said plurality of NA molecules to one or more amplification reactions to generate a plurality of cDNA molecules, and sequencing said plurality of cDNA molecules or derivatives thereof. Also disclosed herein are systems, comprising, a processor, and a non-transitory computer readable storage medium encoded with a computer program that causes said processor to providing a sample, wherein said sample comprises a plurality of NA molecules, isolating said plurality of NA molecules from said sample, amplifying said plurality of NA molecules, subjecting said plurality of nucleic acid molecules to one or more amplification reactions to generate a plurality of cDNA molecules, and sequencing said plurality of cDNA molecules or derivatives thereof.

Abstract: A method for sequencing can be used to monitor a recipient of an allograft. A sample comprising nucleic acid molecules can be provided from the recipient of the allograft. A plurality of nucleic acid molecules can be isolated from the sample and amplified. The plurality of nucleic acid molecules can be subjected to one or more amplification reactions using a plurality of primers to generate a plurality of DNA molecules. The plurality of primers can target at least 100 independent polymorphisms. The DNA molecules, or derivatives thereof, can be sequenced. The method may not require genotyping of the recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: Embodiments of the present invention provide secure ranging measurements for wireless devices in multi-user (MU) mode. Specifically, a signaling procedure between an initiating wireless station (ISTA) and a responding wireless station (RSTA) is used to enable protection of randomized LTF sequences used in the secure ranging measurements. The signaling procedure may be performed in a HEz or VHTz mode and may include performing error recovery when operating in the HEz mode.

Abstract: Methods and apparatus for performing secure ranging measurements between wireless devices are disclosed herein according to embodiments of the present invention. The described embodiments use key values to indicate which LTF sequence (e.g., LTF measurement exchange) to use for performing wireless ranging measurements. A LTF sequence that is received by a wireless device that does not correspond with the associated key value is determined to be invalid. Invalid LTF sequences may be disregarded as signal noise.

Abstract: Embodiments of the present invention provide secure ranging measurements for wireless devices in multi-user (MU) mode. Specifically, a signaling procedure between an initiating wireless station (ISTA) and a responding wireless station (RSTA) is used to enable protection of randomized LTF sequences used in the secure ranging measurements. The signaling procedure may be performed in a HEz or VHTz mode and may include performing error recovery when operating in the HEz mode.

Abstract: A client station including a communication circuit to communicate, via an infrastructure mode, with an access point in a basic service set; identify, based on signals transmitted by the access point, a plurality of client stations in the basic service set capable of communicating via a direct link setup mode; and during a predetermined time period, communicate, via the direct link setup mode, with the plurality of client stations; and a control circuit to, during the predetermined time period, determine strength of signals received from the plurality of client stations via the direct link setup mode, determine highest supportable data rates for communicating with the plurality of client stations via the direct link setup mode, and select, based on (i) the strength of the signals and (ii) the highest supportable data rates, one or more of the plurality of client stations for communicating via the direct link setup mode.

Abstract: A method of configuring an ad-hoc wireless network between an authenticator and a plurality of wireless devices seeking authentication includes assigning a wireless device as the authenticator and receiving a first setup message transmitted from a first device seeking authentication to the authenticator and initiating a first handshake process between the authenticator and the first device seeking authentication. The method also includes receiving a second setup message transmitted from a second device seeking authentication to the authenticator. The second setup message is received by the authenticator prior to completion of the first handshake process. The method further includes initiating a second handshake process between the authenticator and the second device seeking authentication. The second handshake process is initiated prior to completion of the first handshake process. Moreover, the method includes completing the first handshake process and completing the second handshake process.

Abstract: A client station including a communication circuit to communicate, via an infrastructure mode, with an access point in a basic service set; identify, based on signals transmitted by the access point, a plurality of client stations in the basic service set capable of communicating via a direct link setup mode; and during a predetermined time period, communicate, via the direct link setup mode, with the plurality of client stations; and a control circuit to, during the predetermined time period, determine strength of signals received from the plurality of client stations via the direct link setup mode, determine highest supportable data rates for communicating with the plurality of client stations via the direct link setup mode, and select, based on (i) the strength of the signals and (ii) the highest supportable data rates, one or more of the plurality of client stations for communicating via the direct link setup mode.

Abstract: A method of configuring an ad-hoc wireless network between an authenticator and a plurality of wireless devices seeking authentication includes assigning a wireless device as the authenticator and receiving a first setup message transmitted from a first device seeking authentication to the authenticator and initiating a first handshake process between the authenticator and the first device seeking authentication. The method also includes receiving a second setup message transmitted from a second device seeking authentication to the authenticator. The second setup message is received by the authenticator prior to completion of the first handshake process. The method further includes initiating a second handshake process between the authenticator and the second device seeking authentication. The second handshake process is initiated prior to completion of the first handshake process. Moreover, the method includes completing the first handshake process and completing the second handshake process.

Abstract: A method of configuring an ad-hoc wireless network between an authenticator and a plurality of wireless devices seeking authentication includes assigning a wireless device as the authenticator and receiving a first setup message transmitted from a first device seeking authentication to the authenticator and initiating a first handshake process between the authenticator and the first device seeking authentication. The method also includes receiving a second setup message transmitted from a second device seeking authentication to the authenticator. The second setup message is received by the authenticator prior to completion of the first handshake process. The method further includes initiating a second handshake process between the authenticator and the second device seeking authentication. The second handshake process is initiated prior to completion of the first handshake process. Moreover, the method includes completing the first handshake process and completing the second handshake process.

Abstract: Apparatus having corresponding methods and computer programs comprise a communication circuit to establish an infrastructure mode wireless connection with a wireless client through a wireless access point, and to establish a direct link setup (DLS) mode wireless connection with the wireless client; and a control circuit to select either infrastructure mode or DLS mode for communication with the wireless client based on at least one characteristic of the infrastructure mode and DLS mode wireless connections; wherein the communication circuit exchanges frames of data with the wireless client using the selected mode.