mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating a unique playlist, where content assembled using the playlist includes a unique watermark sequence, and the method of generating the unique playlist comprises: - generating a watermark sequence using a server , where the watermark sequence is a unique identifier for a client device; - encoding, using the server, a plurality of alternative groups of chunks of encoded content for each of a plurality of sections of a piece of content, where each of the alternative groups of chunks contains a plurality of chunks having different embedded digital watermark information from chunks in another alternative group of chunks, and where each chunk within an alternative group of chunks includes the same perceptual content encoded using the same embedded digital watermark information but encoded at a different bitrate as another chunk within the alternative group of chunks; - selecting an alternative group of chunks from the plurality of alternative groups of chunks for each of the plurality of sections of the piece of content based upon the watermark sequence using the server; - listing the selected chunks from the selected alternative groups of chunks in a playlist using the server, where the sequence of chunks assembled in the playlist is based on the watermark sequence; - providing the playlist to the client device ; - selecting chunks to download using the client device based upon the playlist and depending on present streaming conditions. - generating a watermark sequence using a server , where the watermark sequence is a unique identifier for a client device; - encoding, using the server, a plurality of alternative groups of chunks of encoded content for each of a plurality of sections of a piece of content, where each of the alternative groups of chunks contains a plurality of chunks having different embedded digital watermark information from chunks in another alternative group of chunks, and where each chunk within an alternative group of chunks includes the same perceptual content encoded using the same embedded digital watermark information but encoded at a different bitrate as another chunk within the alternative group of chunks; - selecting an alternative group of chunks from the plurality of alternative groups of chunks for each of the plurality of sections of the piece of content based upon the watermark sequence using the server; - listing the selected chunks from the selected alternative groups of chunks in a playlist using the server, where the sequence of chunks assembled in the playlist is based on the watermark sequence; - providing the playlist to the client device ; - selecting chunks to download using the client device based upon the playlist and depending on present streaming conditions.
A manufacturing method of a sintered magnet, the method comprising: preparing NdFeB-based powders by using a reduction-diffusion method; mixing the NdFeB-based powders and rare-earth hydride powders; heat-treating the mixture at a temperature of 600 to 850 °C; and sintering the heat-treated mixture at a temperature of 1000 to 1100 °C, wherein the rare earth hydride powders are NdH 2 powders or mixed powders of NdH 2 and PrH 2 , wherein in the mixing of the NdFeB-based powders and rare-earth hydride powders, Cu powders are further contained, characterized in that a content ratio of the rare earth hydride powders and the Cu powders is 7:3 by weight. preparing NdFeB-based powders by using a reduction-diffusion method; mixing the NdFeB-based powders and rare-earth hydride powders; heat-treating the mixture at a temperature of 600 to 850 °C; and sintering the heat-treated mixture at a temperature of 1000 to 1100 °C, wherein the rare earth hydride powders are NdH 2 powders or mixed powders of NdH 2 and PrH 2 , wherein in the mixing of the NdFeB-based powders and rare-earth hydride powders, Cu powders are further contained, characterized in that a content ratio of the rare earth hydride powders and the Cu powders is 7:3 by weight.
A system comprising an MRI device and a helical resonator, wherein the system is configured so that the helical resonator amplifies, when the helical resonator is placed in close proximity to an object to be imaged in accordance with the MRI technique, the intensity, in the vicinity of the helical resonator, of a radio frequency magnetic field applied by the MRI device compared to the situation in which the resonator is not present, wherein the resonance frequency of the helical resonator is approximately the same as the frequency of the applied radio frequency magnetic field of the MRI device, wherein said amplification is based on a time-varying current induced in the helical resonator by the radio-frequency magnetic field in accordance with an inductance value characterizing the helical resonator, the helical resonator comprising: a conductive helical ring including at least two adjacent turns, and a planar, thin-film dielectric layer located between the 2. at least two adjacent turns of the conductive helical ring configured to increase the capacitive coupling between the at least two adjacent turns, the main axis of the helical ring being substantially parallel to the normal to the large-area surfaces of the dielectric layer, wherein the at least two adjacent turns are capacitively coupled to each other for determining, together with the inductance value, the resonance frequency of the resonator, wherein the helical resonator is manufactured by microfabrication. a conductive helical ring including at least two adjacent turns, and a planar, thin-film dielectric layer located between the 2. at least two adjacent turns of the conductive helical ring configured to increase the capacitive coupling between the at least two adjacent turns, the main axis of the helical ring being substantially parallel to the normal to the large-area surfaces of the dielectric layer, wherein the at least two adjacent turns are capacitively coupled to each other for determining, together with the inductance value, the resonance frequency of the resonator, wherein the helical resonator is manufactured by microfabrication.
A communication headset , comprising: a first earpiece , having a first arm , positionable in front of a wearer's ear and a second arm , positionable behind the wearer's ear, with a first bone conduction speaker carried on the second arm ; a second earpiece , having a first arm , positionable in front of a wearer's other ear and a second arm , positionable behind the wearer's other ear, with a second bone conduction speaker carried on the second arm ; a first microphone , carried on the first arm of the first earpiece , adapted to detect ambient sound from at least a first direction; and a second microphone , carried on the first arm of the second earpiece , adapted to detect ambient sound from at least a second direction; wherein the first and second arms of the first and second earpieces are linked together by a bridging portion located at a first end of each of the first and second arms, wherein the bridging portion carries a power supply, and wherein the bridging portion is positionable above the wearer's ear. a first earpiece , having a first arm , positionable in front of a wearer's ear and a second arm , positionable behind the wearer's ear, with a first bone conduction speaker carried on the second arm ; a second earpiece , having a first arm , positionable in front of a wearer's other ear and a second arm , positionable behind the wearer's other ear, with a second bone conduction speaker carried on the second arm ; a first microphone , carried on the first arm of the first earpiece , adapted to detect ambient sound from at least a first direction; and a second microphone , carried on the first arm of the second earpiece , adapted to detect ambient sound from at least a second direction; wherein the first and second arms of the first and second earpieces are linked together by a bridging portion located at a first end of each of the first and second arms, wherein the bridging portion carries a power supply, and wherein the bridging portion is positionable above the wearer's ear.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a response message associated with a random access message, wherein the response message includes an identifier of the UE; selecting a format of an uplink channel or an uplink signal for acknowledging successful decoding of the response message, wherein the format of the uplink channel is determined based at least in part on at least one of: a waveform of the random access message, a latency requirement of a random access procedure associated with the random access message, or a multiplexing capacity requirement of the UE, and wherein the uplink channel comprises a physical uplink control channel; determining a transmit power for hybrid automatic repeat request, HARQ, acknowledgment, ACK, information, wherein the HARQ ACK information indicates that the response message was successfully decoded and the identifier was detected, wherein the transmit power is determined based at least in part on at least one of: a message type of the response message, a mode of random access associated with the random access message, a power control configuration used by a previous transmission of the random access message, or the format of the uplink channel or the uplink signal; and transmitting the HARQ ACK information using a power control procedure based at least in part on the transmit power and the identifier. a waveform of the random access message, a latency requirement of a random access procedure associated with the random access message, or a multiplexing capacity requirement of the UE, and wherein the uplink channel comprises a physical uplink control channel; determining a transmit power for hybrid automatic repeat request, HARQ, acknowledgment, ACK, information, wherein the HARQ ACK information indicates that the response message was successfully decoded and the identifier was detected, wherein the transmit power is determined based at least in part on at least one of: a message type of the response message, a mode of random access associated with the random access message, a power control configuration used by a previous transmission of the random access message, or the format of the uplink channel or the uplink signal; and transmitting the HARQ ACK information using a power control procedure based at least in part on the transmit power and the identifier. a message type of the response message, a mode of random access associated with the random access message, a power control configuration used by a previous transmission of the random access message, or the format of the uplink channel or the uplink signal; and transmitting the HARQ ACK information using a power control procedure based at least in part on the transmit power and the identifier.
A channel state information measurement method, comprising: receiving (S101), by user equipment, configuration information for channel state information measurement from a radio network device, wherein the configuration information comprises information about a resource for channel state information measurement and indicates information about a measurement attribute of the resource, and the measurement attribute comprises X types of interference measurement, or channel measurement and X types of interference measurement, wherein X is an integer greater than or equal to 2, wherein the resource has at least one measurement attribute; and measuring (S102), by the user equipment, channel state information based on the configuration information, and feeding back the channel state information, wherein the X types of interference measurement comprise obtaining a precoded interference by using a non-zero power demodulation reference signal. receiving (S101), by user equipment, configuration information for channel state information measurement from a radio network device, wherein the configuration information comprises information about a resource for channel state information measurement and indicates information about a measurement attribute of the resource, and the measurement attribute comprises X types of interference measurement, or channel measurement and X types of interference measurement, wherein X is an integer greater than or equal to 2, wherein the resource has at least one measurement attribute; and measuring (S102), by the user equipment, channel state information based on the configuration information, and feeding back the channel state information, wherein the X types of interference measurement comprise obtaining a precoded interference by using a non-zero power demodulation reference signal.
An enclosure , comprising: a column chamber having chamber walls defining the column chamber , the column chamber adapted to hold one or more chromatography separation columns ; a duct system providing an airflow path around the column chamber such that the column chamber is isolated from the airflow path without airflow directly blowing onto any chromatography separation column held in the column chamber ; an air mover disposed in the airflow path , the air mover generating a flow of air within the duct system; and a heat exchanger system disposed in the airflow path near the air mover , the heat exchanger system configured for exchanging heat with the air as the air flows past the heat exchanger system such that the air circulates through the duct system around the column chamber and convectively exchanges heat with the chamber walls such that heat radiates from the chamber walls to produce a thermally conditioned environment within the column chamber . a column chamber having chamber walls defining the column chamber , the column chamber adapted to hold one or more chromatography separation columns ; a duct system providing an airflow path around the column chamber such that the column chamber is isolated from the airflow path without airflow directly blowing onto any chromatography separation column held in the column chamber ; an air mover disposed in the airflow path , the air mover generating a flow of air within the duct system; and a heat exchanger system disposed in the airflow path near the air mover , the heat exchanger system configured for exchanging heat with the air as the air flows past the heat exchanger system such that the air circulates through the duct system around the column chamber and convectively exchanges heat with the chamber walls such that heat radiates from the chamber walls to produce a thermally conditioned environment within the column chamber .
A compound for use in eradicating hematological CD47+ cancer cells and tumors, including cancer stem cells, in a patient, the compound comprising a polypeptide capable of binding to the extracellular domain of human CD47 to interrupt signaling between human Sirpα and human CD47, wherein the polypeptide comprises soluble human Sirpα, or a CD47-binding fragment thereof, fused to an Fc portion of an IgG.
A monoclonal antibody (mAb) or fragment thereof that binds with specificity to surfactant protein A SP-R210 receptor, comprising: (I) a variable heavy chain sequence comprising: a) a heavy chain complementarity determining region 1 (P2H10-HCDR1) comprising the sequence GYIFSDYYMR (SEQ ID NO:3); and b) a heavy chain complementarity determining region 2 (P2H10-HCDR2) comprising the sequence DINPKNGDTFYNQKFKGK (SEQ ID NO:4); and c) a heavy chain complementarity determining region 3 (P2H10-HCDR3) comprising the sequence REGD (SEQ ID NO:5); and a variable light chain sequence comprising: d) a light chain complementarity determining region 1 (P2H10-LCDR1) comprising the sequence RSSQTILHSNGNTYLE (SEQ ID NO:6); and e) a light chain complementarity determining region 2 (P2H10-LCDR2) comprising the sequence KVSKRFS (SEQ ID NO:7): and f) a light chain complementarity determining region 3 (P2H10-LCDR3) comprising the sequence LQGSHVPLT (SEQ ID NO:8); and wherein the monoclonal antibody or fragment of (I) binds with specificity to only SP-R210 S isoform of the SP-R210 receptor. (I) a variable heavy chain sequence comprising: a) a heavy chain complementarity determining region 1 (P2H10-HCDR1) comprising the sequence GYIFSDYYMR (SEQ ID NO:3); and b) a heavy chain complementarity determining region 2 (P2H10-HCDR2) comprising the sequence DINPKNGDTFYNQKFKGK (SEQ ID NO:4); and c) a heavy chain complementarity determining region 3 (P2H10-HCDR3) comprising the sequence REGD (SEQ ID NO:5); and a variable light chain sequence comprising: d) a light chain complementarity determining region 1 (P2H10-LCDR1) comprising the sequence RSSQTILHSNGNTYLE (SEQ ID NO:6); and e) a light chain complementarity determining region 2 (P2H10-LCDR2) comprising the sequence KVSKRFS (SEQ ID NO:7): and f) a light chain complementarity determining region 3 (P2H10-LCDR3) comprising the sequence LQGSHVPLT (SEQ ID NO:8); and wherein the monoclonal antibody or fragment of (I) binds with specificity to only SP-R210 S isoform of the SP-R210 receptor. a) a heavy chain complementarity determining region 1 (P2H10-HCDR1) comprising the sequence GYIFSDYYMR (SEQ ID NO:3); and b) a heavy chain complementarity determining region 2 (P2H10-HCDR2) comprising the sequence DINPKNGDTFYNQKFKGK (SEQ ID NO:4); and c) a heavy chain complementarity determining region 3 (P2H10-HCDR3) comprising the sequence REGD (SEQ ID NO:5); and d) a light chain complementarity determining region 1 (P2H10-LCDR1) comprising the sequence RSSQTILHSNGNTYLE (SEQ ID NO:6); and e) a light chain complementarity determining region 2 (P2H10-LCDR2) comprising the sequence KVSKRFS (SEQ ID NO:7): and f) a light chain complementarity determining region 3 (P2H10-LCDR3) comprising the sequence LQGSHVPLT (SEQ ID NO:8); and wherein the monoclonal antibody or fragment of (I) binds with specificity to only SP-R210 S isoform of the SP-R210 receptor.
A leading edge slat for use with an aircraft, the leading edge slat comprising: a single piece nose skin defining upper and lower external surfaces of the leading edge slat, wherein the single piece nose skin extends between a fore end and an aft end of the leading edge slat; a box spar coupled to an inner surface of the single piece nose skin, the box spar including lateral walls extending away from the inner surface that define at least one compartment of the box spar, wherein the box spar includes a flange to retain a core to the inner surface, and wherein the core abuts and aligns to one of the lateral walls of the box spar and extends to a tip that at least partially defines the aft end of the leading edge slat ; and a cove skin coupled to the single piece nose skin and the box spar, wherein the cove skin includes a removable cove panel to access an interior of the leading edge slat. a single piece nose skin defining upper and lower external surfaces of the leading edge slat, wherein the single piece nose skin extends between a fore end and an aft end of the leading edge slat; a box spar coupled to an inner surface of the single piece nose skin, the box spar including lateral walls extending away from the inner surface that define at least one compartment of the box spar, wherein the box spar includes a flange to retain a core to the inner surface, and wherein the core abuts and aligns to one of the lateral walls of the box spar and extends to a tip that at least partially defines the aft end of the leading edge slat ; and a cove skin coupled to the single piece nose skin and the box spar, wherein the cove skin includes a removable cove panel to access an interior of the leading edge slat.
An antigen binding protein, wherein said antigen binding protein (a) comprises a combination L16/H16 of a light chain variable domain and a heavy chain variable domain, wherein said light chain variable domain comprises the amino acid sequence of SEQ ID NO:32; and said heavy chain variable domain comprises the amino acid sequence SEQ ID NO:136; or (b) comprises a light chain variable domain comprising i. the CDR1 sequence of residues 24 through 39 of SEQ ID NO:32; and ii. the CDR2 sequence of residues 55 through 61 of SEQ ID NO:32; and; iii. the CDR3 sequence of residues 94 through 102 of SEQ ID NO:32; and a heavy chain variable domain comprising i. the CDR1 sequence of residues 31 through 36 of SEQ ID NO:136; and ii. the CDR2 sequence of residues 51 through 66 of SEQ ID NO:136; and; iii. the CDR3 sequence of residues 99 through 108 of SEQ ID NO:136; wherein said antigen binding protein binds to human IGF-1R. (a) comprises a combination L16/H16 of a light chain variable domain and a heavy chain variable domain, wherein said light chain variable domain comprises the amino acid sequence of SEQ ID NO:32; and said heavy chain variable domain comprises the amino acid sequence SEQ ID NO:136; or (b) comprises a light chain variable domain comprising i. the CDR1 sequence of residues 24 through 39 of SEQ ID NO:32; and ii. the CDR2 sequence of residues 55 through 61 of SEQ ID NO:32; and; iii. the CDR3 sequence of residues 94 through 102 of SEQ ID NO:32; and a heavy chain variable domain comprising i. the CDR1 sequence of residues 31 through 36 of SEQ ID NO:136; and ii. the CDR2 sequence of residues 51 through 66 of SEQ ID NO:136; and; iii. the CDR3 sequence of residues 99 through 108 of SEQ ID NO:136; wherein said antigen binding protein binds to human IGF-1R. i. the CDR1 sequence of residues 24 through 39 of SEQ ID NO:32; and ii. the CDR2 sequence of residues 55 through 61 of SEQ ID NO:32; and; iii. the CDR3 sequence of residues 94 through 102 of SEQ ID NO:32; i. the CDR1 sequence of residues 31 through 36 of SEQ ID NO:136; and ii. the CDR2 sequence of residues 51 through 66 of SEQ ID NO:136; and; iii. the CDR3 sequence of residues 99 through 108 of SEQ ID NO:136;
A method of forming an integrated circuit, hereinafter IC, module with a lead frame micro-needle for a medical device, the method comprising: forming a lead frame blank including a micro-needle integrally formed therein, the micro-needle disposed inward of an outer perimeter of the lead frame blank; bending the micro-needle beyond an initial lower side of the lead frame blank ; joining the initial lower side of the lead frame blank with a protection layer such that the bent micro-needle is embedded in the protection layer, wherein the protection layer is removably attached to the initial lower side and the bent micro-needle of the lead frame blank; affixing an IC component to an upper side of the lead frame blank; and encapsulating the IC component and at least an upper surface of a core of the lead frame blank with a molding compound forming a packaging of the IC module, wherein removal of the protection layer exposes the bent micro-needle projecting away from the packaging. forming a lead frame blank including a micro-needle integrally formed therein, the micro-needle disposed inward of an outer perimeter of the lead frame blank; bending the micro-needle beyond an initial lower side of the lead frame blank ; joining the initial lower side of the lead frame blank with a protection layer such that the bent micro-needle is embedded in the protection layer, wherein the protection layer is removably attached to the initial lower side and the bent micro-needle of the lead frame blank; affixing an IC component to an upper side of the lead frame blank; and encapsulating the IC component and at least an upper surface of a core of the lead frame blank with a molding compound forming a packaging of the IC module, wherein removal of the protection layer exposes the bent micro-needle projecting away from the packaging.