mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: executing on a processor operations including: generating a first netlist for a circuit design stored in a memory coupled to the processor; determining a placement of the first netlist on a target IC to produce a first placed design ; performing a set of optimizations on the first placed design; recording the set of optimizations in an optimization history file by specifying for each optimization in the set of optimizations the type of a physical synthesis optimization performed and names of module instances modified by the optimization; performing one or more optimizations specified in the optimization history file to the first netlist by modifying the designated module instances according to the specified types of physical synthesis optimizations to produce a second netlist that is different than the first netlist ; determining placement of the second netlist on the target IC to produce a second placed design that is different than the first placed design ; and routing nets of the second placed design to produce a placed and routed circuit design. generating a first netlist for a circuit design stored in a memory coupled to the processor; determining a placement of the first netlist on a target IC to produce a first placed design ; performing a set of optimizations on the first placed design; recording the set of optimizations in an optimization history file by specifying for each optimization in the set of optimizations the type of a physical synthesis optimization performed and names of module instances modified by the optimization; performing one or more optimizations specified in the optimization history file to the first netlist by modifying the designated module instances according to the specified types of physical synthesis optimizations to produce a second netlist that is different than the first netlist ; determining placement of the second netlist on the target IC to produce a second placed design that is different than the first placed design ; and routing nets of the second placed design to produce a placed and routed circuit design.
A pharmaceutical pellet composition comprising: a) a core comprising an organic acid; b) a first drug layer encompassing at least a portion of the core, wherein the first drug layer comprises trihexyphenidyl hydrochloride; and c) a functional coat encompassing at least a portion of the drug layer, wherein the functional coat comprises a nonionic water-insoluble polymer and a pore former. a) a core comprising an organic acid; b) a first drug layer encompassing at least a portion of the core, wherein the first drug layer comprises trihexyphenidyl hydrochloride; and c) a functional coat encompassing at least a portion of the drug layer,
An anode material comprising secondary graphite particles that predominantly have a form that approximates an oblate spheroid, that being a surface of revolution obtained by rotating an ellipse about its minor axis, and have a D50 of less than 5 microns, wherein the secondary graphite particles comprise an aggregate of ground primary graphite particles, and the ground primary graphite particles are spheronised and coated with a carbon based material being one or more of pitch, polyethylene oxide and polyvinyl oxide, then pyrolysed at a temperature between 880°C to 1100°C for a time in the range of 12 to 40 hours, thereby producing the secondary particle that approximates an oblate spheroid, wherein the amount of carbon based material in the secondary graphite particles is in the range of 2 to 10 wt% relative to graphite.
A wireless accessory device , comprising: a wireless communication interface adapted for communication with a host device and a second wireless accessory device ; a memory ; one or more processors in communication with the memory, the one or more processors configured to execute a first set of operations to role switch from a master mode to a slave mode, the first set of operations comprising: negotiating with the second wireless accessory device, an anchor point for the role switch the anchor point being a future point in time; sending, to the second wireless accessory device, logical link information for communicating with the host device after the role switch; sending, to the second wireless accessory device, bit processing information including cyclic redundancy check and header error check states and/or decoder states for continuity of bit processing when switching roles; performing role switch at the negotiated anchor point; and receiving, in the slave mode, packets relayed through the second wireless accessory device after the anchor point. a wireless communication interface adapted for communication with a host device and a second wireless accessory device ; a memory ; one or more processors in communication with the memory, the one or more processors configured to execute a first set of operations to role switch from a master mode to a slave mode, the first set of operations comprising: negotiating with the second wireless accessory device, an anchor point for the role switch the anchor point being a future point in time; sending, to the second wireless accessory device, logical link information for communicating with the host device after the role switch; sending, to the second wireless accessory device, bit processing information including cyclic redundancy check and header error check states and/or decoder states for continuity of bit processing when switching roles; performing role switch at the negotiated anchor point; and receiving, in the slave mode, packets relayed through the second wireless accessory device after the anchor point. negotiating with the second wireless accessory device, an anchor point for the role switch the anchor point being a future point in time; sending, to the second wireless accessory device, logical link information for communicating with the host device after the role switch; sending, to the second wireless accessory device, bit processing information including cyclic redundancy check and header error check states and/or decoder states for continuity of bit processing when switching roles; performing role switch at the negotiated anchor point; and receiving, in the slave mode, packets relayed through the second wireless accessory device after the anchor point.
A polycarbonate resin comprising a structural unit represented by general formula below: wherein R represents H, CH 3 or C 2 H 5 , which comprises a mixture of: an isomer to which a -CH 2 O- group in general formula is bound at 6-position (isomer of 2,6-position); and an isomer to which the -CH 2 O- group in general formula is bound at 7-position (isomer of 2,7-position), wherein the isomer of 2,6-position and the isomer of 2,7-position are contained at a mass ratio of 1.0:99.0 to 99.0:1.0. which comprises a mixture of: an isomer to which a -CH 2 O- group in general formula is bound at 6-position (isomer of 2,6-position); and an isomer to which the -CH 2 O- group in general formula is bound at 7-position (isomer of 2,7-position), wherein the isomer of 2,6-position and the isomer of 2,7-position are contained at a mass ratio of 1.0:99.0 to 99.0:1.0.
An apparatus for high speed rinsing solution application to animal carcasses, comprising: a substructure having an oval-shaped track; a catheter delivery system including a plurality of carriages configured to circulate around the substructure on the track, wherein each of the carriages includes a respective catheter delivery mechanism; a carousel drive system configured to drive the carriages such that the carriages circulate about the substructure on the track; a rotary timing valve positioned above a central portion of the substructure, the rotary timing valve including a plurality of outlets each positioned at a respective radial position on the rotary timing valve, wherein each of the plurality of outlets is connected to a respective catheter delivery mechanism by a hose; and a hose table positioned between the rotary timing valve and the substructure and configured to support the hoses. a substructure having an oval-shaped track; a catheter delivery system including a plurality of carriages configured to circulate around the substructure on the track, wherein each of the carriages includes a respective catheter delivery mechanism; a carousel drive system configured to drive the carriages such that the carriages circulate about the substructure on the track; a rotary timing valve positioned above a central portion of the substructure, the rotary timing valve including a plurality of outlets each positioned at a respective radial position on the rotary timing valve, wherein each of the plurality of outlets is connected to a respective catheter delivery mechanism by a hose; and a hose table positioned between the rotary timing valve and the substructure and configured to support the hoses.
An electromechanical actuator for a motor vehicle, comprising: - an electric motor unit with a stator and a rotor ; and - a converter to convert a rotation between said stator and said rotor into a translation enabling an actuation in said motor vehicle, wherein at least part of said converter is arranged on a surface of said stator facing said rotor , wherein the stator represents a closed or an opened ring surrounding at least partially said rotor and characterized in that the stator includes a plurality of coil winding sections which are separated in a circumferential direction of the stator by sections where said part of said converter is provided. - an electric motor unit with a stator and a rotor ; and - a converter to convert a rotation between said stator and said rotor into a translation enabling an actuation in said motor vehicle, wherein at least part of said converter is arranged on a surface of said stator facing said rotor ,
Reusable container for the collection and/or movement of objects, comprising a body and at least one removable layer said body and said removable layer mutually cooperating in order to define a three-dimensional structure, said three-dimensional structure comprising a collection space for a predetermined number of objects which can be placed in the container , the removable layer 4 comprising in an operating condition, a bottom wall , and a predetermined number of side walls perimetrically connected to the bottom wall, characterized in that the body further comprises: - a predetermined number of elongated elements defining edges of the bottom wall and/or upper edges of the side walls ; - a predetermined number of angular elements interposed between two of said elongated elements placed along adjacent perimeter sides of the container , said angular elements further comprising gripping and handling means suitable for allowing a grip by a user of the container ; and - means for engaging the removable layer in the elongated elements and/or in the angular elements , said means for engaging comprising insertion undercuts and/or recesses. - a predetermined number of elongated elements defining edges of the bottom wall and/or upper edges of the side walls ; - a predetermined number of angular elements interposed between two of said elongated elements placed along adjacent perimeter sides of the container , said angular elements further comprising gripping and handling means suitable for allowing a grip by a user of the container ; and - means for engaging the removable layer in the elongated elements and/or in the angular elements , said means for engaging comprising insertion undercuts and/or recesses.
A method for operating a biogas plant comprising at least one fermenter , in which biogas is generated by the fermentation of substrate fed to the fermenter; and a separator downstream of the fermenter and supplying fermentation residue for separation of in particular unfermented solid matter and fermentation residues in an aqueous fraction, wherein the aqueous fraction of the fermentation residue is post-treated in an aeration tank , and the suspension obtained in the aeration tank is fed to the downstream settling tank , characterized in that overlaying water present in the settling tank is completely or partially fed to the aeration tank .
A method comprising: responsive to receiving user input to activate an airplane mode of a mobile computing device : disabling a first wireless protocol; determining , based on activity of a media session, whether to maintain an enabled state of a second wireless protocol of the mobile computing device, wherein the mobile computing device is configured to stream audio data associated with the media session to an audio sink device via the second wireless protocol; and selectively maintaining the enabled state of the second wireless protocol based on the determination, wherein determining whether to maintain the enabled state of the second wireless protocol comprises: determining to maintain the enabled state of the second wireless protocol in response to determining that a time at which the mobile computing device last streamed audio data to the audio sink device via the second wireless protocol is within a first threshold time of a present time. disabling a first wireless protocol; determining , based on activity of a media session, whether to maintain an enabled state of a second wireless protocol of the mobile computing device, wherein the mobile computing device is configured to stream audio data associated with the media session to an audio sink device via the second wireless protocol; and selectively maintaining the enabled state of the second wireless protocol based on the determination,
A method for monitoring a machine , wherein a first machine part carries out a working movement towards a second machine part in order to machine a workpiece , and wherein the first machine part has a leading edge in the movement direction, which leading edge defines a movement plane , comprising the following steps: - acquiring a plurality of images having a plurality of pixels , wherein the respective images have spatially resolved representations of the edge , at least a part of the workpiece , and a protective region between the edge and the second machine part , - acquiring a velocity (V) of the working movement of the first machine part in relation to the workpiece , - comparing the acquired velocity (V) to a reference velocity (R) of the working movement, and - stopping the working movement if the acquired velocity (V) deviates from the reference velocity (R), characterized in that the velocity (V) of the working movement of the first machine part in relation to the workpiece is determined on the basis of the plurality of acquired images , wherein the velocity (V) of the working movement is determined as a function of a position of the edge of the first machine part as a velocity profile on the basis of the acquired images , and wherein the velocity profile is compared to a reference velocity profile. - acquiring a plurality of images having a plurality of pixels , wherein the respective images have spatially resolved representations of the edge , at least a part of the workpiece , and a protective region between the edge and the second machine part , - acquiring a velocity (V) of the working movement of the first machine part in relation to the workpiece , - comparing the acquired velocity (V) to a reference velocity (R) of the working movement, and - stopping the working movement if the acquired velocity (V) deviates from the reference velocity (R),
A method for manufacturing a thin-film transistor (TFT), comprising the step of forming a gate electrode , a gate insulating layer , an active area , a source electrode and a drain electrode on a base substrate , wherein the active area is made from a ZnON material; and the gate insulating layer includes a first gate insulating layer and a second gate insulating layer , and the second gate insulating layer is formed between the first gate insulating layer and the active area ; characterized in that : in the process that the gate insulating layer is formed, a material for forming the gate insulating layer is subjected to control treatment, so that a sub-threshold amplitude of the TFT is less than or equal to 0.5mV/dec; the step of performing control treatment on the material for forming the gate insulating layer when the gate insulating layer is formed includes: introducing gases SiN x , N 2 and NH 3 according to gas volume flow rate of 140-180 sccm for SiN x , 1,750-2,250 sccm for N 2 and 700-900 sccm for NH 3 for deposition to form the first gate insulating layer ; and introducing gases SiNx, N 2 and NH 3 according to the gas volume flow rate of 140-180 sccm for SiN x , ≥3,500 sccm for N 2 and ≥1,400 sccm for NH 3 for deposition to form the second gate insulating layer , in which X is ranged from 1 to 4/3. introducing gases SiN x , N 2 and NH 3 according to gas volume flow rate of 140-180 sccm for SiN x , 1,750-2,250 sccm for N 2 and 700-900 sccm for NH 3 for deposition to form the first gate insulating layer ; and introducing gases SiNx, N 2 and NH 3 according to the gas volume flow rate of 140-180 sccm for SiN x , ≥3,500 sccm for N 2 and ≥1,400 sccm for NH 3 for deposition to form the second gate insulating layer , in which X is ranged from 1 to 4/3.
A method of detecting the closure of a navigable element forming part of a network of navigable elements within a geographic area, the method comprising: obtaining positional data relating to the movement of a plurality of devices along the navigable element with respect to time; using the positional data to determine an elapsed time since a device was last detected on the navigable element; comparing the determined elapsed time to an expected time interval between consecutive devices being detected on the navigable element, wherein the expected time interval is based upon historical positional data relating to the movement of devices along the navigable element with respect to time; and identifying the navigable element as being potentially closed when the determined elapsed time exceeds the expected time interval by one or more of: a predetermined amount, and a statistically significant amount. obtaining positional data relating to the movement of a plurality of devices along the navigable element with respect to time; using the positional data to determine an elapsed time since a device was last detected on the navigable element; comparing the determined elapsed time to an expected time interval between consecutive devices being detected on the navigable element, wherein the expected time interval is based upon historical positional data relating to the movement of devices along the navigable element with respect to time; and identifying the navigable element as being potentially closed when the determined elapsed time exceeds the expected time interval by one or more of: a predetermined amount, and a statistically significant amount. a predetermined amount, and a statistically significant amount.
A method for preparing a system comprising a targeted agent for performing a medical procedure on a patient having been diagnosed with back pain, characterized by : based upon the back pain diagnosis, preparing a volume of a targeted agent in combination with a delivery assembly in a configuration that is operable to allow delivery of the targeted agent to a region of the patient that comprises at least a portion of a spine, wherein the targeted agent is characterized by differentially binding to a pain factor at a location of a spinal joint associated with a source of the back pain when delivered into the patient; configuring at least one of an energy delivery system to deliver energy to the patient and an imaging system to image the pain factor at a location of a spinal joint; and wherein the targeted agent when delivered into the region of the patient that comprises at least a portion of a spine is further characterized to enhance at least one of (i) diagnostic localization of the source of the back pain at the location in the patient's body when the imaging system is operated in the configuration to image the location of a spinal joint and (ii) selective tissue therapy of the source of the back pain at the location when the energy delivery system is operated in a configuration to deliver energy to the location of a spinal joint; and wherein the targeted agent comprises at least one of: a nerve factor, a blood vessel factor, an inflammatory cytokine, or a combination thereof; or a factor associated with pH or pO2 in tissue, optionally associated with a relatively low pH or pO2, respectively, or a binding agent or antibody respectively thereof. based upon the back pain diagnosis, preparing a volume of a targeted agent in combination with a delivery assembly in a configuration that is operable to allow delivery of the targeted agent to a region of the patient that comprises at least a portion of a spine, wherein the targeted agent is characterized by differentially binding to a pain factor at a location of a spinal joint associated with a source of the back pain when delivered into the patient; configuring at least one of an energy delivery system to deliver energy to the patient and an imaging system to image the pain factor at a location of a spinal joint; and wherein the targeted agent when delivered into the region of the patient that comprises at least a portion of a spine is further characterized to enhance at least one of (i) diagnostic localization of the source of the back pain at the location in the patient's body when the imaging system is operated in the configuration to image the location of a spinal joint and (ii) selective tissue therapy of the source of the back pain at the location when the energy delivery system is operated in a configuration to deliver energy to the location of a spinal joint; and wherein the targeted agent comprises at least one of: a nerve factor, a blood vessel factor, an inflammatory cytokine, or a combination thereof; or a factor associated with pH or pO2 in tissue, optionally associated with a relatively low pH or pO2, respectively, or a binding agent or antibody respectively thereof.