mhurhangee/patent-ind-claim-en huggingface dataset:
An adapter clip comprising: a first portion of the adaptor clip configured to fit within an engine clip or an engine clamp; a second portion of the adaptor clip, the second portion including: an annular portion , the annular portion being configured to fit around an engine component; an end portion connected to the annular portion; a first side ; and a second side ; wherein the first side and the second side form the annular portion and the end portion, and the first side and the second side can be pulled apart from each other and fastened together at the end portion; a web portion connected to the annular portion and the first portion; wherein a diameter of the first portion differs from a diameter of the annular portion; wherein the web portion is between the first portion and the annular portion, and the web portion provides a space between the first portion and the annular portion so that the engine clip can fit around the first portion such that the adaptor clip connects the engine clip to the engine component and so that the engine component does not rest on the engine clip; wherein a length of the first portion is equal to a length of the annular portion, and the web portion extends an entirety of the length of the first portion and the length of the annular portion, characterized in that the first portion is solid. a first portion of the adaptor clip configured to fit within an engine clip or an engine clamp; a second portion of the adaptor clip, the second portion including: an annular portion , the annular portion being configured to fit around an engine component; an end portion connected to the annular portion; a first side ; and a second side ; wherein the first side and the second side form the annular portion and the end portion, and the first side and the second side can be pulled apart from each other and fastened together at the end portion; an annular portion , the annular portion being configured to fit around an engine component; an end portion connected to the annular portion; a first side ; and a second side ; wherein the first side and the second side form the annular portion and the end portion, and the first side and the second side can be pulled apart from each other and fastened together at the end portion; a web portion connected to the annular portion and the first portion; wherein a diameter of the first portion differs from a diameter of the annular portion; wherein the web portion is between the first portion and the annular portion, and the web portion provides a space between the first portion and the annular portion so that the engine clip can fit around the first portion such that the adaptor clip connects the engine clip to the engine component and so that the engine component does not rest on the engine clip; wherein a length of the first portion is equal to a length of the annular portion, and the web portion extends an entirety of the length of the first portion and the length of the annular portion, characterized in that the first portion is solid.
A transmit coil array , comprising: a plurality of jigs , each jig comprising a pair of end members , and a center member disposed between the pair of end members, wherein the pair of end members and the center member together provide a coil channel , wherein the coil channel comprises dividers , and wherein the center member, the dividers, and the end member together provide wire channels ; and a wire wrapped on the center member and in the wire channels to provide a coil , wherein the coil is configured to connect to an electromagnetic navigation system and generate an electromagnetic field to be emitted relative to a subject; wherein the jig comprises a crossover section in which the wire is switched between two of the wire channels, wherein the wire crosses itself a plurality of times in the crossover section, the crossover section extending through the dividers, such that each divider is non-contiguous annularly to provide an area where the wire is switched between the two wire channels, upon increasing the wire layer; wherein the wire is wrapped in the wire channels in opposing first and second directions to provide a plurality of wire layers; and a base plate , wherein each of the plurality of jigs is mounted on the base plate in a respective location and orientation relative to each of the plurality of jigs on the base plate. a plurality of jigs , each jig comprising a pair of end members , and a center member disposed between the pair of end members, wherein the pair of end members and the center member together provide a coil channel , wherein the coil channel comprises dividers , and wherein the center member, the dividers, and the end member together provide wire channels ; and a pair of end members , and a center member disposed between the pair of end members, wherein the pair of end members and the center member together provide a coil channel , wherein the coil channel comprises dividers , and wherein the center member, the dividers, and the end member together provide wire channels ; and a wire wrapped on the center member and in the wire channels to provide a coil , wherein the coil is configured to connect to an electromagnetic navigation system and generate an electromagnetic field to be emitted relative to a subject; wherein the jig comprises a crossover section in which the wire is switched between two of the wire channels, wherein the wire crosses itself a plurality of times in the crossover section, the crossover section extending through the dividers, such that each divider is non-contiguous annularly to provide an area where the wire is switched between the two wire channels, upon increasing the wire layer; wherein the wire is wrapped in the wire channels in opposing first and second directions to provide a plurality of wire layers; and a base plate , wherein each of the plurality of jigs is mounted on the base plate in a respective location and orientation relative to each of the plurality of jigs on the base plate.
A method (1500-a) for providing voice service over a flexible bandwidth system , the method comprising: identifying a scaling factor of the flexible bandwidth system , wherein the scaling factor is substantially equal to a ratio between a normal carrier bandwidth and a flexible carrier bandwidth; scaling one or more aspects of the flexible bandwidth system based on the scaling factor, the one or more aspects of the flexible bandwidth system including at least a flexible waveform (210-a); and compensating for the scaling of the one or more aspects of the flexible bandwidth system through altering one or more aspects within a code domain, by identifying a spreading factor and adjusting the spreading factor utilizing the scaling factor to generate an adjusted spreading factor, characterised in that the compensating being applied to a voice frame and further comprising: segmenting the voice frame into a plurality of sub-blocks based on the scaling factor; and transmitting the plurality of sub-blocks in parallel over a plurality of channels. identifying a scaling factor of the flexible bandwidth system , wherein the scaling factor is substantially equal to a ratio between a normal carrier bandwidth and a flexible carrier bandwidth; scaling one or more aspects of the flexible bandwidth system based on the scaling factor, the one or more aspects of the flexible bandwidth system including at least a flexible waveform (210-a); and compensating for the scaling of the one or more aspects of the flexible bandwidth system through altering one or more aspects within a code domain, by identifying a spreading factor and adjusting the spreading factor utilizing the scaling factor to generate an adjusted spreading factor, characterised in that the compensating being applied to a voice frame and further comprising: segmenting the voice frame into a plurality of sub-blocks based on the scaling factor; and transmitting the plurality of sub-blocks in parallel over a plurality of channels. segmenting the voice frame into a plurality of sub-blocks based on the scaling factor; and transmitting the plurality of sub-blocks in parallel over a plurality of channels.
An Optical Frequency Domain Reflectometry, OFDR, interrogation system for measuring an optical fiber sensor including multiple optical cores, the OFDR interrogation system comprising: a tunable laser configured to sweep laser light over wavelengths; a modulator configured to add a known modulation to an output of the tunable laser to produce swept laser light, the swept laser light including the known modulation; an optical interferometric network configured to provide the swept laser light to the optical fiber sensor and to output reflected light from the optical fiber sensor , wherein the outputted reflected light includes, for each core of the multiple optical cores, a reflection of the swept laser light, and wherein the outputted reflected light corresponds to sensor data; and data processing circuitry configured to: determine, based on the known modulation, a phase difference between the outputted reflected light associated with different optical cores of the multiple optical cores, and process the sensor data based on the phase difference by: determining a delay difference between the different optical cores based on the phase difference, and correcting for the delay difference. a tunable laser configured to sweep laser light over wavelengths; a modulator configured to add a known modulation to an output of the tunable laser to produce swept laser light, the swept laser light including the known modulation; an optical interferometric network configured to provide the swept laser light to the optical fiber sensor and to output reflected light from the optical fiber sensor , wherein the outputted reflected light includes, for each core of the multiple optical cores, a reflection of the swept laser light, and wherein the outputted reflected light corresponds to sensor data; and data processing circuitry configured to: determine, based on the known modulation, a phase difference between the outputted reflected light associated with different optical cores of the multiple optical cores, and process the sensor data based on the phase difference by: determining a delay difference between the different optical cores based on the phase difference, and correcting for the delay difference. determine, based on the known modulation, a phase difference between the outputted reflected light associated with different optical cores of the multiple optical cores, and process the sensor data based on the phase difference by: determining a delay difference between the different optical cores based on the phase difference, and correcting for the delay difference.
A method for producing a 5-hydroxy-1H-imidazole-4-carboxamide•3/4 hydrate, comprising: reacting an acidic salt of 5-hydroxy-1H-imidazole-4-carboxamide or a hydrate thereof with a base selected from the group consisting of a phosphate and an amino acid in the presence of an acidic solvent to obtain a 5-hydroxy-1H-imidazole-4-carboxamide•3/4 hydrate.
An apparatus for controlling temperature of materials in a flowable state as it flows through a barrel and for insulating said barrel , said apparatus comprising: a band surrounding said barrel having a plurality of connected blocks , each block having an inner surface in communication with said barrel ; characterized in that one or more of said plurality of connected blocks having a slot therein; and a removable temperature controlling mechanism slidably received in said slot . a band surrounding said barrel having a plurality of connected blocks , each block having an inner surface in communication with said barrel ; characterized in that one or more of said plurality of connected blocks having a slot therein; and a removable temperature controlling mechanism slidably received in said slot .
Sensing bar for a railway bogie of a railway vehicle running on a railway track, said sensing bar comprising a plurality of sensors placed on a bar suitable to be fixed to the bogie and arranged to measure values of parameter related to the operating conditions of the bogie , characterized in that said sensors comprise: - a plurality of accelerometers arranged to sense accelerations of the bogie along three perpendicular directions (X, Y, Z) of a Cartesian reference system; - at least one first camera arranged to acquire images of primary suspensions associated with wheels of the bogie or respective images of axle wheels of the bogie ; and - at least one microphone arranged to capture noises to be co-related with the images of each camera and signals outputted from the accelerometers . - a plurality of accelerometers arranged to sense accelerations of the bogie along three perpendicular directions (X, Y, Z) of a Cartesian reference system; - at least one first camera arranged to acquire images of primary suspensions associated with wheels of the bogie or respective images of axle wheels of the bogie ; and - at least one microphone arranged to capture noises to be co-related with the images of each camera and signals outputted from the accelerometers .
A composite film , comprising: a polytetrafluoroethylene film layer ; and a polyurethane elastic layer attached to the polytetrafluoroethylene film layer , wherein the polyurethane elastic layer is made of elastic foam material, which is mainly composed of polyurethane, wherein the polyurethane elastic layer has a thickness ranging from 0.3 mm to 1.2 mm, an average thickness of the polytetrafluoroethylene film layer ranges from 0.01 mm to 0.035 mm, a plurality of non-uniform micro pores are formed inside the polyurethane elastic layer , and an average size of the non-uniform micro pores is ranged within 1∼150 micrometers. a polytetrafluoroethylene film layer ; and a polyurethane elastic layer attached to the polytetrafluoroethylene film layer , wherein the polyurethane elastic layer is made of elastic foam material, which is mainly composed of polyurethane, wherein the polyurethane elastic layer has a thickness ranging from 0.3 mm to 1.2 mm, an average thickness of the polytetrafluoroethylene film layer ranges from 0.01 mm to 0.035 mm, a plurality of non-uniform micro pores are formed inside the polyurethane elastic layer , and an average size of the non-uniform micro pores is ranged within 1∼150 micrometers.
A pull-rod type digital camera, comprising: a shooting assembly ; and a control assembly , wherein the shooting assembly comprises a camera ; the pull-rod type digital camera further comprises a telescopic rod , one end of the telescopic rod is arranged movably inside the control assembly , and the other end of the telescopic rod is rotationally connected with the shooting assembly ; the control assembly comprises a control handle ; the control handle is provided with function keys which at least comprise a power key, a shutter key, a focusing key and a menu key; said control assembly further comprises a display , and the display is rotationally connected with the control handle ; the control handle of the control assembly further comprises a universal ball , the display is connected with the control handle by the universal ball ; and wherein the telescopic rod comprises several telescopic joints, and a top telescopic joint is rotationally connected with the shooting assembly , a bottom telescopic joint is movably arranged inside the control handle ; the top telescopic joint is a little longer than the control handle , and other telescopic joints match with the control handle in length. a shooting assembly ; and a control assembly , wherein the shooting assembly comprises a camera ; the pull-rod type digital camera further comprises a telescopic rod , one end of the telescopic rod is arranged movably inside the control assembly , and the other end of the telescopic rod is rotationally connected with the shooting assembly ; the control assembly comprises a control handle ; the control handle is provided with function keys which at least comprise a power key, a shutter key, a focusing key and a menu key; said control assembly further comprises a display , and the display is rotationally connected with the control handle ; the control handle of the control assembly further comprises a universal ball , the display is connected with the control handle by the universal ball ; and wherein the telescopic rod comprises several telescopic joints, and a top telescopic joint is rotationally connected with the shooting assembly , a bottom telescopic joint is movably arranged inside the control handle ; the top telescopic joint is a little longer than the control handle , and other telescopic joints match with the control handle in length.
A retracting rail clamp (100; 200) for braking or anchoring a rail-mounted machine by clamping opposite sides of a longitudinal rail member (108; 208), the rail clamp (100; 200) comprising a load transfer frame (102; 202) rigidly secured to the machine; and a clamp mechanism (104; 204) comprising a clamp frame (122; 222) including at least two spaced-apart guide posts (124; 224) connecting an upper frame plate or assembly (126; 226) with a lower main lever connector plate or assembly (128; 228); characterized in that said clamp mechanism (104; 204) is suspended within said load transfer frame (102; 202) by at least one lateral pair of pivotally mounted lift levers (106; 206), and operable between a raised, brake release position and a lowered, brake set position wherein at least one opposed facing pair of main levers (110; 210) of the clamp mechanism (104; 204) engage the side surfaces of the rail (108; 208).
Printed circuit board comprising at least one substrate and one electrically conductive layer which is connected to the substrate , wherein at least one conductor track is formed by the electrically conductive layer, and the printed circuit board has at least one component with at least one electrical connection , wherein the electrical connection is electrically connected to a contact region of the conductor track by means of a solder , wherein the electrical connection between the component and the contact region extends at least partially between a component and the substrate of the printed circuit board , wherein the conductor track has, starting from the contact region , a capillary which guides the solder , wherein the capillary is designed to guide a portion of the solder out of a space between the component and the printed circuit board by means of a capillary effect in such a way that the solder which has been guided out can be detected in a perpendicular plan view of the printed circuit board , so that the presence of the solder which has been guided out by means of the capillary represents an electrically conductive solder point, which is located between the component and the printed circuit board, between the electrical connection and the electrically conductive layer, characterized in that the capillary which guides the solder extends beyond a boundary of the component , specifically a projection line of a projection of the component onto the printed circuit board , and in the process solder is also guided laterally beyond the boundary of the component . the capillary which guides the solder extends beyond a boundary of the component , specifically a projection line of a projection of the component onto the printed circuit board , and in the process solder is also guided laterally beyond the boundary of the component .
A method for wireless communication, comprising: identifying , by an audio layer of a wireless device, a set of samples of a voice transmission; obtaining , from a memory accessible by the audio layer and a packet layer of the wireless device, a set of discontinuous reception, DRX, parameters corresponding to the packet layer of the wireless device; synchronizing an audio timeline of the audio layer with a DRX awake period in a DRX cycle of the packet layer based at least in part on the set of DRX parameters; encoding , by the audio layer, the set of samples of the voice transmission during at least a portion of the DRX wake period based at least in part on the synchronized audio timeline, wherein the encoding of the set of samples comprises: encoding a first subset of samples, and encoding a second subset of samples subsequent to the encoding of the first subset of samples; characterised in extending the DRX wake period of the packet layer based at least in part on a time interval for encoding of the first and second subsets of samples. identifying , by an audio layer of a wireless device, a set of samples of a voice transmission; obtaining , from a memory accessible by the audio layer and a packet layer of the wireless device, a set of discontinuous reception, DRX, parameters corresponding to the packet layer of the wireless device; synchronizing an audio timeline of the audio layer with a DRX awake period in a DRX cycle of the packet layer based at least in part on the set of DRX parameters; encoding , by the audio layer, the set of samples of the voice transmission during at least a portion of the DRX wake period based at least in part on the synchronized audio timeline, wherein the encoding of the set of samples comprises: encoding a first subset of samples, and encoding a second subset of samples subsequent to the encoding of the first subset of samples; characterised in encoding a first subset of samples, and encoding a second subset of samples subsequent to the encoding of the first subset of samples; characterised in extending the DRX wake period of the packet layer based at least in part on a time interval for encoding of the first and second subsets of samples.