mhurhangee/patent-ind-claim-en huggingface dataset:
A foundation pile end piece, comprising: a) a ring-shape connection housing, wherein a proximal end of the ring-shape connection housing is configured to secure to a bottom end of an open-ended tube foundation pile; and characterised by b) a moveable tip, wherein a distal end of said ring-shape connection housing is configured to fixedly hold said moveable tip, wherein said moveable tip is disposed to oscillate transversely with respect to a central axis of said ring-shape connection housing, wherein said moveable tip is configured to displace soil from the bottom end of said open-ended tube foundation pile according to actuation of said oscillation, and wherein said moveable tip comprises an array of said moveable tips arranged around said ring-shape connection housing forming a closed circular moveable tip array at said open-ended tube foundation pile bottom end. a) a ring-shape connection housing, wherein a proximal end of the ring-shape connection housing is configured to secure to a bottom end of an open-ended tube foundation pile; and characterised by b) a moveable tip, wherein a distal end of said ring-shape connection housing is configured to fixedly hold said moveable tip, wherein said moveable tip is disposed to oscillate transversely with respect to a central axis of said ring-shape connection housing, wherein said moveable tip is configured to displace soil from the bottom end of said open-ended tube foundation pile according to actuation of said oscillation, and wherein said moveable tip comprises an array of said moveable tips arranged around said ring-shape connection housing forming a closed circular moveable tip array at said open-ended tube foundation pile bottom end.
A distributed spectrum analyzer, at least comprising a host and one or more radio frequency receivers : the radio frequency receivers being configured to receive a radio frequency signal, characterized in that the radio frequency receivers are configured to perform frequency conversion processing and Analog to Digital AD conversion on the radio frequency signal, and send an AD-converted digital signal to the host by a digital optical module through an optical fiber; the host includes a digital signal processing module and one or more digital optical modules , each of the digital optical modules being configured to connect to one of the radio frequency receivers through the optical fiber and receive the AD-converted digital signal sent by the radio frequency receivers , and the digital signal processing module being configured to process the received AD-converted digital signal. the radio frequency receivers being configured to receive a radio frequency signal, characterized in that the radio frequency receivers are configured to perform frequency conversion processing and Analog to Digital AD conversion on the radio frequency signal, and send an AD-converted digital signal to the host by a digital optical module through an optical fiber; the host includes a digital signal processing module and one or more digital optical modules , each of the digital optical modules being configured to connect to one of the radio frequency receivers through the optical fiber and receive the AD-converted digital signal sent by the radio frequency receivers , and the digital signal processing module being configured to process the received AD-converted digital signal.
A method by a user equipment, comprising: receiving an aggregate downlink resource allocation from a serving cell, wherein the aggregate downlink resource allocation comprises a plurality of scheduled time-frequency resources for the user equipment, receiving a coordinated multi-point transmission from a plurality of cells in a cooperating set of cells coordinated by the serving cell during a specified transmission interval, comprising: receiving a first portion of the transmission from both a first cell and a second cell in the cooperating set on a first part of the aggregate downlink resource allocation that is less than all the plurality of scheduled time-frequency resources; and receiving at least a second portion of the transmission from only the second cell of the first and second cells in the cooperating set on a second part of the aggregate downlink resource allocation different from the first part ; and receiving a notification from the serving cell that the first cell will not transmit on the second part of the plurality of scheduled time-frequency resources which comprise the aggregate downlink resource allocation. receiving an aggregate downlink resource allocation from a serving cell, wherein the aggregate downlink resource allocation comprises a plurality of scheduled time-frequency resources for the user equipment, receiving a coordinated multi-point transmission from a plurality of cells in a cooperating set of cells coordinated by the serving cell during a specified transmission interval, comprising: receiving a first portion of the transmission from both a first cell and a second cell in the cooperating set on a first part of the aggregate downlink resource allocation that is less than all the plurality of scheduled time-frequency resources; and receiving at least a second portion of the transmission from only the second cell of the first and second cells in the cooperating set on a second part of the aggregate downlink resource allocation different from the first part ; and receiving a first portion of the transmission from both a first cell and a second cell in the cooperating set on a first part of the aggregate downlink resource allocation that is less than all the plurality of scheduled time-frequency resources; and receiving at least a second portion of the transmission from only the second cell of the first and second cells in the cooperating set on a second part of the aggregate downlink resource allocation different from the first part ; and receiving a notification from the serving cell that the first cell will not transmit on the second part of the plurality of scheduled time-frequency resources which comprise the aggregate downlink resource allocation.
A method for distributed operation between a cloud and edges in an Internet of Things IoT, computing environment including the edges and the cloud, the edges being connected to things to collect data from the things and transmit a control signal to the things, and the cloud being configured to receive data from the edges, process the data, and transmit a result of the processing to the edges, the method comprising: creating, by the cloud, a model for the collected data; wherein the model comprises a learning model, an analytics model and an inference model necessary for IoT operations; wherein the cloud creates models for a main operation and the edges are allotted only models the edges can operate and then operate the allotted models; preparing an model allotting rule for the created model for distributed operation between the cloud and the edges; allotting the created model from the cloud to the edges according to the model allotting rule; wherein the type and number of models to be allotted to an edge of the plurality of edges depend on the conditions of each edge; and processing, by the cloud and the edges, the data collected from things using the created models and the model allotting rule, respectively. creating, by the cloud, a model for the collected data; wherein the model comprises a learning model, an analytics model and an inference model necessary for IoT operations; wherein the cloud creates models for a main operation and the edges are allotted only models the edges can operate and then operate the allotted models; preparing an model allotting rule for the created model for distributed operation between the cloud and the edges; allotting the created model from the cloud to the edges according to the model allotting rule; wherein the type and number of models to be allotted to an edge of the plurality of edges depend on the conditions of each edge; and processing, by the cloud and the edges, the data collected from things using the created models and the model allotting rule, respectively.
A system comprising: an implant having a longitudinal axis and configured to be implanted in a subject; and an implantable device for sensing data, the implantable device comprising: a subcutaneous sensor configured to couple with the implant and to sense data, a circuit board , a controller , and a transmitter configured to wirelessly and transcutaneously transmit data sensed by the subcutaneous sensor using an ultrasound data signal; characterised in that the subcutaneous sensor is configured to transmit the sensed data to the circuit board , the circuit board is configured to receive data sensed by the subcutaneous sensor and to communicate the sensed data to the controller for at least one of processing and storage, and the controller is configured to transmit the sensed data to the transmitter , and in that the transmitter is a tubular piezoelectric transducer that is arranged with its longitudinal axis extending along the longitudinal axis of the implant and is configured to propagate data radially covering 360 degrees to a receiver external to a subject in which the system is positioned. an implant having a longitudinal axis and configured to be implanted in a subject; and an implantable device for sensing data, the implantable device comprising: a subcutaneous sensor configured to couple with the implant and to sense data, a circuit board , a controller , and a transmitter configured to wirelessly and transcutaneously transmit data sensed by the subcutaneous sensor using an ultrasound data signal; characterised in that the subcutaneous sensor is configured to transmit the sensed data to the circuit board , the circuit board is configured to receive data sensed by the subcutaneous sensor and to communicate the sensed data to the controller for at least one of processing and storage, and the controller is configured to transmit the sensed data to the transmitter , and in that the transmitter is a tubular piezoelectric transducer that is arranged with its longitudinal axis extending along the longitudinal axis of the implant and is configured to propagate data radially covering 360 degrees to a receiver external to a subject in which the system is positioned.
A method for communications by a network system, comprising: identifying multiple user equipments, UEs, participating in a multi-user gaming platform across one or more wide area networks, WANs; and taking one or more actions to support latency fairness in delivery of information across the multiple users via the one or more WANs; wherein the network system comprises a user plane function, UPF; and wherein the UPF and the UEs are synchronized to a common clock and the one or more actions comprise at least one of: including a timestamp, based on the common clock and a maximum downlink delay for all UEs, in downlink media packets with playout times; or using a maximum uplink delay for all UEs, measured based on the common clock, to determine a waiting time for forwarding uplink packets. identifying multiple user equipments, UEs, participating in a multi-user gaming platform across one or more wide area networks, WANs; and taking one or more actions to support latency fairness in delivery of information across the multiple users via the one or more WANs; wherein the network system comprises a user plane function, UPF; and wherein the UPF and the UEs are synchronized to a common clock and the one or more actions comprise at least one of: including a timestamp, based on the common clock and a maximum downlink delay for all UEs, in downlink media packets with playout times; or using a maximum uplink delay for all UEs, measured based on the common clock, to determine a waiting time for forwarding uplink packets. including a timestamp, based on the common clock and a maximum downlink delay for all UEs, in downlink media packets with playout times; or using a maximum uplink delay for all UEs, measured based on the common clock, to determine a waiting time for forwarding uplink packets.
A leveling valve of a vehicle air suspension system for discharging and supplying air from and to a plurality of utilization elements (205a, b), in particular pneumatic suspension bellows, the leveling valve comprising: a valve arrangement for directing air between a source of pressurized air, an exhaust port and said utilization elements, and a supply port in fluid communication with the valve arrangement and the source of pressurized air, wherein a check valve is mounted upstream of the valve arrangement , the check valve being configured to allow fluid flow from the supply port towards the valve arrangement and to block fluid flow from the valve arrangement through the supply port ; characterized in that the check valve comprises a base body having an inlet side , an outlet side , an outer periphery and a flow path extending through the base body from the inlet side to the outlet side , and a lip seal ; wherein the lip seal comprises a sealing lip that is configured to abut against a wall of the supply port when mounted, flex away from the wall in response to air flowing from the inlet side towards the sealing lip , and to sealingly lie against the wall in response to air flowing from the outlet side towards the sealing lip . a valve arrangement for directing air between a source of pressurized air, an exhaust port and said utilization elements, and a supply port in fluid communication with the valve arrangement and the source of pressurized air, wherein a check valve is mounted upstream of the valve arrangement , the check valve being configured to allow fluid flow from the supply port towards the valve arrangement and to block fluid flow from the valve arrangement through the supply port ; characterized in that the check valve comprises a base body having an inlet side , an outlet side , an outer periphery and a flow path extending through the base body from the inlet side to the outlet side , and a lip seal ; wherein the lip seal comprises a sealing lip that is configured to abut against a wall of the supply port when mounted, flex away from the wall in response to air flowing from the inlet side towards the sealing lip , and to sealingly lie against the wall in response to air flowing from the outlet side towards the sealing lip .
A microfluidic interrogation apparatus (100; 210; 220) comprising: indexing structure effective to hold a microfluidic device at an installed position such that an interrogation aperture of said microfluidic device is urged near to a desired location, said microfluidic device being of the type comprising a first channel layer provided with a first channel , a second channel layer provided with a second channel and an interrogation layer disposed between said first and second channel layers , said interrogation layer comprising an opaque film layer with said interrogation aperture providing communication between said first and second channels , fluid flow in said first and second channels being parallel to said opaque film layer and said microfluidic device being arranged to urge particles of interest through said interrogation aperture in a substantially single-file arrangement; a source of stimulation radiation structured to emit radiation as a beam oriented for propagation of radiation in a particular direction; adjustment means to refine the relative positions of said interrogation aperture and said beam to maximize beam propagation through said interrogation aperture in a direction congruous with a centreline of said interrogation aperture ; sensor means disposed to provide steering feedback to said adjustment means ; and a first photodetector disposed to detect Stokes-shift emission radiation from a particle disposed inside said interrogation aperture. indexing structure effective to hold a microfluidic device at an installed position such that an interrogation aperture of said microfluidic device is urged near to a desired location, said microfluidic device being of the type comprising a first channel layer provided with a first channel , a second channel layer provided with a second channel and an interrogation layer disposed between said first and second channel layers , said interrogation layer comprising an opaque film layer with said interrogation aperture providing communication between said first and second channels , fluid flow in said first and second channels being parallel to said opaque film layer and said microfluidic device being arranged to urge particles of interest through said interrogation aperture in a substantially single-file arrangement; a source of stimulation radiation structured to emit radiation as a beam oriented for propagation of radiation in a particular direction; adjustment means to refine the relative positions of said interrogation aperture and said beam to maximize beam propagation through said interrogation aperture in a direction congruous with a centreline of said interrogation aperture ; sensor means disposed to provide steering feedback to said adjustment means ; and a first photodetector disposed to detect Stokes-shift emission radiation from a particle disposed inside said interrogation aperture.
A method for producing a Cu-Ni-Sn alloy by a continuous casting method or a semi-continuous casting method, the method comprising: pouring a molten Cu-Ni-Sn alloy from one end of a mold , both ends of which are open, and continuously drawing out the alloy as an ingot from the other end of the mold while solidifying a part of the alloy, the part being near the mold , performing primary cooling by spraying a liquid mist on the drawn-out ingot, and performing secondary cooling by immersing the ingot having been subjected to the primary cooling in a liquid, thereby making a cast product of the Cu-Ni-Sn alloy, wherein the primary cooling is performed by allowing the ingot to pass through a separate cooler disposed immediately below the mold , wherein the cooler comprises: a columnar main body ; a liquid supply part provided at an upper part of the columnar main body and configured in such a way as to discharge the liquid downward; and an air ejection part that ejects air toward a central axis of the columnar main body , the air ejection part provided below the liquid supply part . pouring a molten Cu-Ni-Sn alloy from one end of a mold , both ends of which are open, and continuously drawing out the alloy as an ingot from the other end of the mold while solidifying a part of the alloy, the part being near the mold , performing primary cooling by spraying a liquid mist on the drawn-out ingot, and performing secondary cooling by immersing the ingot having been subjected to the primary cooling in a liquid, thereby making a cast product of the Cu-Ni-Sn alloy, wherein the primary cooling is performed by allowing the ingot to pass through a separate cooler disposed immediately below the mold , wherein the cooler comprises: a columnar main body ; a liquid supply part provided at an upper part of the columnar main body and configured in such a way as to discharge the liquid downward; and an air ejection part that ejects air toward a central axis of the columnar main body , the air ejection part provided below the liquid supply part . a columnar main body ; a liquid supply part provided at an upper part of the columnar main body and configured in such a way as to discharge the liquid downward; and an air ejection part that ejects air toward a central axis of the columnar main body , the air ejection part provided below the liquid supply part .
Handrail treatment device , comprising at least one housing and a cylindrical base body rotatably arranged in the housing about an axis of rotation , on the cylinder outer surface of which a cleaning facing is arranged, over which cleaning facing a circulating handrail of a passenger transport system designed as an escalator or moving walkway can be guided for the purpose of removing dirt and germs , characterized in that at least one radiation source is arranged inside the housing , which radiation source can emit germicidal electromagnetic radiation, wherein the radiation source is aligned with the base body in such a way that the cleaning facing moving continuously past the radiation source is exposed to the germicidal electromagnetic radiation of this radiation source when the base body rotates.
A composition for topical application with antifungal activity, containing Melaleuca alternifolia essential oil, oregano essential oil, lime essential oil and an ester of vitamin E.
A mobile terminal , comprising: a display panel having flexibility; and a support plate configured to support the display panel and to include a curved edge , at least a part of which is surrounded by the display panel , wherein the display panel includes: a base substrate ; a light-emitting layer provided on the base substrate and configured to include a light-emitting element , a thin-film encapsulation layer configured to seal the light-emitting element , and a thin-film transistor, TFT, film configured to supply a signal to the light-emitting element ; a polarizing film provided on the light-emitting layer ; and a protective film provided on the polarizing film , wherein the TFT film comprises a bent portion extended from the curved edge to a rear face of the curved edge to surround the curved edge and an edge of the base substrate , and wherein the protective film is extended to cover an edge of the polarizing film and the bent portion of the TFT film . a display panel having flexibility; and a support plate configured to support the display panel and to include a curved edge , at least a part of which is surrounded by the display panel , wherein the display panel includes: a base substrate ; a light-emitting layer provided on the base substrate and configured to include a light-emitting element , a thin-film encapsulation layer configured to seal the light-emitting element , and a thin-film transistor, TFT, film configured to supply a signal to the light-emitting element ; a polarizing film provided on the light-emitting layer ; and a protective film provided on the polarizing film , wherein the TFT film comprises a bent portion extended from the curved edge to a rear face of the curved edge to surround the curved edge and an edge of the base substrate , and a base substrate ; a light-emitting layer provided on the base substrate and configured to include a light-emitting element , a thin-film encapsulation layer configured to seal the light-emitting element , and a thin-film transistor, TFT, film configured to supply a signal to the light-emitting element ; a polarizing film provided on the light-emitting layer ; and a protective film provided on the polarizing film , wherein the TFT film comprises a bent portion extended from the curved edge to a rear face of the curved edge to surround the curved edge and an edge of the base substrate , and
A isolated antibody that binds to human HER3, wherein the antibody comprises a) a variable heavy chain domain VH with the amino acid sequence of SEQ ID NO:33 ;and b) a variable light chain domain VL with the amino acid sequence of SEQ ID NO:41, a variable light chain domain VL with the amino acid sequence of SEQ ID NO:39, or a variable light chain domain VL with the amino acid sequence of SEQ ID NO:42. a) a variable heavy chain domain VH with the amino acid sequence of SEQ ID NO:33 ;and b) a variable light chain domain VL with the amino acid sequence of SEQ ID NO:41, a variable light chain domain VL with the amino acid sequence of SEQ ID NO:39, or a variable light chain domain VL with the amino acid sequence of SEQ ID NO:42.