mhurhangee/patent-ind-claim-en huggingface dataset:
A heat management system comprising: a thermal delivery system configured to provide heating, cooling, or a combination thereof, to a turbomachinery , the turbomachinery having a top shell and a bottom shell , the thermal delivery system disposed on at least one of the top shell and the bottom shell , the thermal delivery system on at least one of the top shell and the bottom shell comprising: a first heat transfer conduit ; and a second heat transfer conduit disposed adjacent to the first heat transfer conduit; and a controller operatively coupled to the thermal delivery system and configured to control the heating, the cooling, or the combination thereof, of the turbomachinery via the thermal delivery system ; characterized in that the thermal delivery system is disposed on the top shell as well as the bottom shell ; and the controller and the thermal delivery system are configured to combine heating on the bottom shell with cooling on the top shell during certain operations. a thermal delivery system configured to provide heating, cooling, or a combination thereof, to a turbomachinery , the turbomachinery having a top shell and a bottom shell , the thermal delivery system disposed on at least one of the top shell and the bottom shell , the thermal delivery system on at least one of the top shell and the bottom shell comprising: a first heat transfer conduit ; and a second heat transfer conduit disposed adjacent to the first heat transfer conduit; and a first heat transfer conduit ; and a second heat transfer conduit disposed adjacent to the first heat transfer conduit; and a controller operatively coupled to the thermal delivery system and configured to control the heating, the cooling, or the combination thereof, of the turbomachinery via the thermal delivery system ; characterized in that the thermal delivery system is disposed on the top shell as well as the bottom shell ; and the controller and the thermal delivery system are configured to combine heating on the bottom shell with cooling on the top shell during certain operations.
A bone plate , comprising: a main body formed of a first material and having a first surface and a second surface opposite the first surface, the main body defining a plurality of main body openings, a plurality of main body circumferential walls, and a cavity that is continuous with the plurality of main body openings, each main body circumferential wall bounding a main body opening of the plurality of main body openings and defining a first circumferential recess and a second circumferential recess disposed around each main body opening of the plurality of main body openings; and a support member formed of a second, different material and disposed in the cavity of the main body , the support member defining a plurality of support member openings and a plurality of support member circumferential walls (422a-f), each support member circumferential wall (422a-f) bounding a support member opening of the plurality of support member openings, a portion of the support member disposed in the first circumferential recess and the second circumferential recess of each main body opening of the plurality of main body openings; wherein each main body opening of the plurality of main body openings is coaxial with a support member opening of the plurality of support member openings to form a passageway (420, 420a-f, 920, 920a-f, 1020a) partially bounded by a main body circumferential wall of the plurality of main body circumferential walls and a support member circumferential wall (422a-f) of the plurality of support member circumferential walls (422a-f). a main body formed of a first material and having a first surface and a second surface opposite the first surface, the main body defining a plurality of main body openings, a plurality of main body circumferential walls, and a cavity that is continuous with the plurality of main body openings, each main body circumferential wall bounding a main body opening of the plurality of main body openings and defining a first circumferential recess and a second circumferential recess disposed around each main body opening of the plurality of main body openings; and a support member formed of a second, different material and disposed in the cavity of the main body , the support member defining a plurality of support member openings and a plurality of support member circumferential walls (422a-f), each support member circumferential wall (422a-f) bounding a support member opening of the plurality of support member openings, a portion of the support member disposed in the first circumferential recess and the second circumferential recess of each main body opening of the plurality of main body openings; wherein each main body opening of the plurality of main body openings is coaxial with a support member opening of the plurality of support member openings to form a passageway (420, 420a-f, 920, 920a-f, 1020a) partially bounded by a main body circumferential wall of the plurality of main body circumferential walls and a support member circumferential wall (422a-f) of the plurality of support member circumferential walls (422a-f).
A circuit for a system for contactless inductive energy transfer, wherein the circuit comprises: a primary side circuit being arranged on the primary side that can be connected to a supply voltage on the primary side, and a secondary side circuit being arranged on the secondary side that can be connected to a load which is to be supplied with energy; a transformer stage with galvanic separation for contactless transfer of energy from the primary side to the secondary side via an air gap, wherein at least two magnetically coupled inductors for inductive energy transfer are provided which are spatially separable from one another by removing the secondary side from the primary side; wherein the transformer stage comprises a resonant converter and the secondary side circuit further comprises a subsequent stabilising stage, characterized in that the circuit does not provide a channel for feeding back information about an output voltage of the transformer stage to the primary side, wherein the circuit is formed such that the output voltage of the transformer stage is maintained in a predetermined value range in case of variations of the load to be supplied, of the supply voltage and/or a distance between the primary side and the secondary side, and wherein the subsequent stabilising stage comprises a Buck-converter and the transformer stage being formed by an LLC- or LLCC-converter operated at a fixed frequency, the fixed frequency operated converter being supplied by a Boost-converter, the Boost-converter being either an AC-DC-converter or a DC-DC-converter. a primary side circuit being arranged on the primary side that can be connected to a supply voltage on the primary side, and a secondary side circuit being arranged on the secondary side that can be connected to a load which is to be supplied with energy; a transformer stage with galvanic separation for contactless transfer of energy from the primary side to the secondary side via an air gap, wherein at least two magnetically coupled inductors for inductive energy transfer are provided which are spatially separable from one another by removing the secondary side from the primary side; wherein the transformer stage comprises a resonant converter and the secondary side circuit further comprises a subsequent stabilising stage, characterized in that the circuit does not provide a channel for feeding back information about an output voltage of the transformer stage to the primary side, wherein the circuit is formed such that the output voltage of the transformer stage is maintained in a predetermined value range in case of variations of the load to be supplied, of the supply voltage and/or a distance between the primary side and the secondary side, and wherein the subsequent stabilising stage comprises a Buck-converter and the transformer stage being formed by an LLC- or LLCC-converter operated at a fixed frequency, the fixed frequency operated converter being supplied by a Boost-converter, the Boost-converter being either an AC-DC-converter or a DC-DC-converter.
A data-transmission system, which includes - measurement means equipped with memories for creating and collecting measurement data , - an output device for showing machine-readable code containing the measurement data created using the said measurement means , - a power supply for the output device and the measurement means , - server arrangement for processing and/or storing the measurement data , - one or several reader devices (13.1, 13.2) for reading the code from the output device , and arranged for data-transmission with the server arrangement , and which output device and measurement means with memories are to be arranged at monitoring objects (20.1, 20.2), one or more of which are to be arranged in the system , characterized in that - the output device has a passive state, in which it is arranged to be zero-power, - the output device is to be arranged to show in the said zero-power passive state code readable using the reader device (13.1, 13.2). - measurement means equipped with memories for creating and collecting measurement data , - an output device for showing machine-readable code containing the measurement data created using the said measurement means , - a power supply for the output device and the measurement means , - server arrangement for processing and/or storing the measurement data , - one or several reader devices (13.1, 13.2) for reading the code from the output device , and arranged for data-transmission with the server arrangement , and which output device and measurement means with memories are to be arranged at monitoring objects (20.1, 20.2), one or more of which are to be arranged in the system , characterized in that - the output device has a passive state, in which it is arranged to be zero-power, - the output device is to be arranged to show in the said zero-power passive state code readable using the reader device (13.1, 13.2).
An isolated peptide consisting of the amino acid sequence NLMNLGATL (SEQ ID NO:6).
Microfluidic system comprising a substrate in which a network of micro-channels is etched comprising a unit for extracting (10 to 1010) elements (E, E') of micrometric or millimetric size and which is covered with a protective cover , the unit for extracting comprising: - a depleting micro-channel which carries a first phase (A, Ph1) to be depleted, - at least one enriching micro-channel which carries a second phase (8, Ph2) to be enriched, with these depleting and enriching micro-channels meeting two-by-two at two junctions upstream (Ja) and downstream (Jb) by forming a transfer chamber (13 to 513) between these junctions, each junction being such that the central axes of these micro-channels are parallel or form an acute angle on either side of the junction, and - transfer means arranged in said depleting micro-channel and able to transfer said elements from this depleting micro-channel to said at least one enriching micro-channel, characterised in that said transfer means comprise at least one row of transfer blocks forming an angle from 5° to 85° with the direction of the micro-channel extending transversally to the central axis of said depleting micro-channel, with the transfer blocks being intended to selectively divert all or a portion of said elements (E, E') in order to force them to move towards the enriching micro-channel, said transfer blocks being devoid of protruding edges, and in that the unit for extracting further comprises interface stabilising means (16 to 1016, 15a, 15b) which are arranged downstream from the transfer means between said junctions and which comprise pillars (16 to 1016) or a surface coating located on a zone of the downstream junction (Jb) turned towards at least one of the micro-channels. - a depleting micro-channel which carries a first phase (A, Ph1) to be depleted, - at least one enriching micro-channel which carries a second phase (8, Ph2) to be enriched, with these depleting and enriching micro-channels meeting two-by-two at two junctions upstream (Ja) and downstream (Jb) by forming a transfer chamber (13 to 513) between these junctions, each junction being such that the central axes of these micro-channels are parallel or form an acute angle on either side of the junction, and - transfer means arranged in said depleting micro-channel and able to transfer said elements from this depleting micro-channel to said at least one enriching micro-channel,
A system for decoding an encoded audio bitstream comprising an audio signal; wherein the system comprises a transposition unit for transposing an input audio signal by a transposition factor T, wherein the input audio signal is a decoded low frequency component of the audio signal; the transposition unit comprising: - means for extracting a frame of L time-domain samples of the input audio signal using an analysis window of length L, - means for transforming the L time-domain samples into M complex frequency-domain coefficients; - a nonlinear processing unit for altering a phase of the complex frequency-domain coefficients using the transposition factor T; - means for transforming the M altered complex frequency-domain coefficients into M altered time-domain samples; and - a means for generating a frame of L time-domain output samples from the M altered time-domain samples using a synthesis window ; wherein the L time-domain output samples form a frame of an output signal; wherein the output signal is a high frequency component of the audio signal; wherein M=F ∗ L, with F being a frequency domain oversampling factor determined in response to frequency domain oversampling information received in the encoded audio bitstream; wherein F is based on or is a function of the transposition factor T; and wherein the system is configured to merge the high frequency component with the decoded low frequency component. - means for extracting a frame of L time-domain samples of the input audio signal using an analysis window of length L, - means for transforming the L time-domain samples into M complex frequency-domain coefficients; - a nonlinear processing unit for altering a phase of the complex frequency-domain coefficients using the transposition factor T; - means for transforming the M altered complex frequency-domain coefficients into M altered time-domain samples; and - a means for generating a frame of L time-domain output samples from the M altered time-domain samples using a synthesis window ; wherein the L time-domain output samples form a frame of an output signal; wherein the output signal is a high frequency component of the audio signal;
A pipeline pulling tool having an elongate housing, characterized by : a first roller wheel section including a separate cylindrical housing of a first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; a second roller wheel section including a separate cylindrical housing of the first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; wherein the freely rotating roller wheels have a diameter that is larger than the diameter of each cylindrical housing, the freely rotating roller wheels extending through each cylindrical housing; one main section having only one retractable propulsion wheel mounted on a tilting arm, and at least one actuator configured to actuate the propulsion wheel between an extended position, out from the sidewall of the housing and pushed against a wall of a pipeline or a wellbore, and a retracted position inside the housing, the main section being located between the first roller wheel section and the second roller wheel section , such that only one retractable propulsion wheel is located between the first roller wheel section and the second roller wheel section ; and the distance between roller wheel sections and the rigidity of the pipeline pulling tool being chosen so that the tilting arm with the propulsion wheel does not bend the pipeline pulling tool so that the pipeline pulling tool contacts the wall of the pipeline or the wellbore in which the pipeline pulling tool is deployed. a first roller wheel section including a separate cylindrical housing of a first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; a second roller wheel section including a separate cylindrical housing of the first diameter, and having at least two freely rotating roller wheels extending out from a sidewall of the housing; wherein the freely rotating roller wheels have a diameter that is larger than the diameter of each cylindrical housing, the freely rotating roller wheels extending through each cylindrical housing; one main section having only one retractable propulsion wheel mounted on a tilting arm, and at least one actuator configured to actuate the propulsion wheel between an extended position, out from the sidewall of the housing and pushed against a wall of a pipeline or a wellbore, and a retracted position inside the housing, the main section being located between the first roller wheel section and the second roller wheel section , such that only one retractable propulsion wheel is located between the first roller wheel section and the second roller wheel section ; and the distance between roller wheel sections and the rigidity of the pipeline pulling tool being chosen so that the tilting arm with the propulsion wheel does not bend the pipeline pulling tool so that the pipeline pulling tool contacts the wall of the pipeline or the wellbore in which the pipeline pulling tool is deployed.
A system for handling a bead apex , the system comprising: a first jaw having open and closed states, and configured to engage a first surface of a bead apex in the closed state; a second jaw having open and closed states; and a plurality of grippers coupled to the second jaw , wherein selected ones of the plurality of grippers are configured to engage a second surface of the bead apex in the closed state of the second jaw , wherein at least one of the plurality of grippers comprises a tapered end surface, wherein the selected ones of the plurality of grippers comprise retracted and extended states, and are configured to engage the second surface of the bead apex in the extended states, and wherein selected ones of the plurality of grippers are configured to be actuated at a time when movement of other ones of the plurality of grippers are configured to be inhibited. a first jaw having open and closed states, and configured to engage a first surface of a bead apex in the closed state; a second jaw having open and closed states; and a plurality of grippers coupled to the second jaw , wherein selected ones of the plurality of grippers are configured to engage a second surface of the bead apex in the closed state of the second jaw , wherein at least one of the plurality of grippers comprises a tapered end surface, wherein the selected ones of the plurality of grippers comprise retracted and extended states, and are configured to engage the second surface of the bead apex in the extended states, and wherein selected ones of the plurality of grippers are configured to be actuated at a time when movement of other ones of the plurality of grippers are configured to be inhibited.
A magnetic field sensor , comprising: a circular vertical Hall (CVH) sensing element comprising a plurality of individual vertical Hall elements and configured to produce an analog signal (202; 316) representing an external magnetic field , the analog signal made up of outputs from the individual vertical Hall elements taken sequentially; an analog-to-digital converter coupled to receive the analog signal and produce a digital signal ; a quadrature modulator circuit coupled to the digital signal and operable to generate from the digital signal a plurality of quadrature modulated signals ; and a processor stage coupled to receive signals representative of the plurality of quadrature modulated signals and operable to perform an arctangent calculation using the received signals to compute an estimated angle of the external magnetic field. a circular vertical Hall (CVH) sensing element comprising a plurality of individual vertical Hall elements and configured to produce an analog signal (202; 316) representing an external magnetic field , the analog signal made up of outputs from the individual vertical Hall elements taken sequentially; an analog-to-digital converter coupled to receive the analog signal and produce a digital signal ; a quadrature modulator circuit coupled to the digital signal and operable to generate from the digital signal a plurality of quadrature modulated signals ; and a processor stage coupled to receive signals representative of the plurality of quadrature modulated signals and operable to perform an arctangent calculation using the received signals to compute an estimated angle of the external magnetic field.
A controlled-release pharmaceutical dosage form comprising: a CpG oligodeoxynucleotide nano-cocoon, wherein the nano-cocoon is loaded with an immunotherapeutic agent and inflammation-responsive nanoparticles are attached to the nano-cocoon, wherein the nanoparticles encapsulate a restriction enzyme, and wherein the inflammation-responsive nanoparticles comprise triglycerol monostearate (TGMS).
A method for wireless communication at a first user equipment, UE, comprising: receiving, from a second UE, sidelink groupcast information of a first sidelink group, the sidelink groupcast information including a group size of the first sidelink group, and a member identification of the first UE within the first sidelink group, wherein the first sidelink group includes at least the first UE and the second UE; determining , at the first UE, an identification for communication with the first sidelink group; and communicating with the first sidelink group based at least in part on the determined identification, characterised by : determining, at the first UE, based at least in part on the group size of the first sidelink group, a feedback operation type corresponding to common feedback resources used by a plurality of members of the first sidelink group, based at least in part on a number of the plurality of members of the first sidelink group exceeding a threshold number of members. receiving, from a second UE, sidelink groupcast information of a first sidelink group, the sidelink groupcast information including a group size of the first sidelink group, and a member identification of the first UE within the first sidelink group, wherein the first sidelink group includes at least the first UE and the second UE; determining , at the first UE, an identification for communication with the first sidelink group; and communicating with the first sidelink group based at least in part on the determined identification, characterised by : determining, at the first UE, based at least in part on the group size of the first sidelink group, a feedback operation type corresponding to common feedback resources used by a plurality of members of the first sidelink group, based at least in part on a number of the plurality of members of the first sidelink group exceeding a threshold number of members.