mhurhangee/ep-ind-claims huggingface dataset:
A musculoskeletal tissue engineering and compliance monitoring system, comprising: a tissue engineering apparatus comprising a coil device configured to supply a pulsed electromagnetic field (PEMF) to musculoskeletal tissue, wherein the tissue engineering apparatus is configured with a regimen defining a periodic application of the PEMF over a long-term duration, the tissue engineering apparatus further comprising a sensor configured to detect use of the tissue engineering apparatus on the musculoskeletal tissue and a first transceiver configured to transmit data from the sensor; a user equipment device comprising a second transceiver configured to associate with the tissue engineering apparatus and receive the data from the tissue engineering apparatus, and a UE processor configured to compare the data for compliance with the periodic application specified in the regimen, generate a current status of the periodic application, and modify a reminder based on the current status of the periodic application; and a remote server comprising a third transceiver configured to receive the data including the current status from the UE device, and a server processor configured to compile the data into a compliance report identifying use of the tissue engineering apparatus over the long-term duration, the third transceiver further configured to transmit the compliance report to a subscribing device. a tissue engineering apparatus comprising a coil device configured to supply a pulsed electromagnetic field (PEMF) to musculoskeletal tissue, wherein the tissue engineering apparatus is configured with a regimen defining a periodic application of the PEMF over a long-term duration, the tissue engineering apparatus further comprising a sensor configured to detect use of the tissue engineering apparatus on the musculoskeletal tissue and a first transceiver configured to transmit data from the sensor; a user equipment device comprising a second transceiver configured to associate with the tissue engineering apparatus and receive the data from the tissue engineering apparatus, and a UE processor configured to compare the data for compliance with the periodic application specified in the regimen, generate a current status of the periodic application, and modify a reminder based on the current status of the periodic application; and a remote server comprising a third transceiver configured to receive the data including the current status from the UE device, and a server processor configured to compile the data into a compliance report identifying use of the tissue engineering apparatus over the long-term duration, the third transceiver further configured to transmit the compliance report to a subscribing device.
A swivel joint for connecting hydraulic oil between a lower body of a construction machine and an upper body rotatably supported by the lower body, the swivel joint comprising: a rotation support body comprising a first body supported by the lower body and a second body rotatably coupled to the first body and rotating together with the upper body when the upper body rotates; and a sensor comprising a detector rotating together with the second body and a relative detector supported by the lower body and providing relative rotation information between the upper body and the lower body to the detector, the sensor being supported by the rotation support body to detect rotation of the upper body; characterized by a second through hole defined inside the second body; and a guide pipe disposed in the second through hole and supporting the relative detector. a rotation support body comprising a first body supported by the lower body and a second body rotatably coupled to the first body and rotating together with the upper body when the upper body rotates; and a sensor comprising a detector rotating together with the second body and a relative detector supported by the lower body and providing relative rotation information between the upper body and the lower body to the detector, the sensor being supported by the rotation support body to detect rotation of the upper body; characterized by a second through hole defined inside the second body; and
Method for extinguishing an electrochemical generator, particularly in the event of a thermal runaway, the electrochemical generator comprising a first electrode and a second electrode, the first electrode being connected to a first terminal and the second electrode being connected to a second terminal or to the ground of the electrochemical generator, characterised in that the process comprises a step in which the electrochemical generator is covered by an ionic liquid solution, the ionic liquid solution comprising an ionic liquid and an active species with extinguishing and/or flame retardant properties. the ionic liquid solution continuously covering the electrochemical generator from the first terminal to the second terminal or from the first terminal to the ground, so as to cool and/or discharge the electrochemical generator. characterised in that the process comprises a step in which the electrochemical generator is covered by an ionic liquid solution, the ionic liquid solution comprising an ionic liquid and an active species with extinguishing and/or flame retardant properties. the ionic liquid solution continuously covering the electrochemical generator from the first terminal to the second terminal or from the first terminal to the ground, so as to cool and/or discharge the electrochemical generator.
A method for manipulating presentation content of screen transmission, the method comprising: receiving play-starting information for presenting content from a screen transmission source end transmitted by a corresponding screen transmission hardware, and starting a preset play manipulating mode at a screen transmission presentation end; detecting, at the screen transmission presentation end, a preset touch operation signal in the play manipulating mode, and obtaining a preset play controlling instruction corresponding to the touch operation signal; and controlling, according to the play controlling instruction, the presenting content at the screen transmission presentation end to enter into a corresponding play state; wherein the screen transmission presentation end synchronously presents the content displayed at the screen transmission source end; wherein the play controlling instruction comprises an annotating instruction, and wherein controlling the presenting content at the screen transmission presentation end to enter the corresponding play state comprises: controlling the screen transmission presentation end to switch to a preset annotating mode, detecting, in the annotating mode, touch operating information at the screen transmission presentation end, and generating, according to the touch operating information, corresponding annotating information. receiving play-starting information for presenting content from a screen transmission source end transmitted by a corresponding screen transmission hardware, and starting a preset play manipulating mode at a screen transmission presentation end; detecting, at the screen transmission presentation end, a preset touch operation signal in the play manipulating mode, and obtaining a preset play controlling instruction corresponding to the touch operation signal; and controlling, according to the play controlling instruction, the presenting content at the screen transmission presentation end to enter into a corresponding play state; wherein the screen transmission presentation end synchronously presents the content displayed at the screen transmission source end; wherein the play controlling instruction comprises an annotating instruction, and wherein controlling the presenting content at the screen transmission presentation end to enter the corresponding play state comprises: controlling the screen transmission presentation end to switch to a preset annotating mode, detecting, in the annotating mode, touch operating information at the screen transmission presentation end, and generating, according to the touch operating information, corresponding annotating information. controlling the screen transmission presentation end to switch to a preset annotating mode, detecting, in the annotating mode, touch operating information at the screen transmission presentation end, and generating, according to the touch operating information, corresponding annotating information.
Method for producing a semiconductor wafer of monocrystalline silicon containing oxygen and at least one n-type dopant, comprising providing a melt of silicon containing n-type dopant in a quartz crucible, wherein a surface of the melt has an initial height hM; heating the melt from the side by selectively supplying heat to an upper volume of the melt having an initial height hm, the height hm being less than the height hM; pulling a single crystal of silicon according to the CZ method from the melt at a pulling speed V; heating of the melt from above in the area of a phase boundary between the growing single crystal and the melt the heating of the melt from above in the area of the melt surface between a heat shield and a wall of the quartz crucible; the application of a magnetic field to the melt; counter-doping the melt with p-type dopant; and the separation of the semiconductor wafer of single-crystal silicon from the single crystal.
An exfoliated nanocomposite material including starch, hydrophobically modified layered silicate clay and between 5 to 30 % by weight water, wherein the hydrophobically modified layered silicate clay is a clay modified by exchange with a surfactant comprising a mono- or di- C 12 -C 22 alkylammonium ion wherein polar substituents such as hydroxyl or carboxyl are not attached to the long chain alkyl, and wherein the starch is an ester or ether derivatized starch.
A method for transmitting data over a communication channel between at least one starting network and at least one receiving network through a transit network with a different security level from the starting and receiving networks, comprising, during a transmission, from the starting network to the receiving network through the transit network, data comprised in at least one frame of the data link layer, the frame comprising at least one header and a payload: - a step for encapsulating the frame in at least one packet (P sec) of a level 3 network layer of the OSI model, compatible with the transit network, and - a step for transmitting the or each packet (P sec) to the receiving network through the transit network, the method being characterized in that the or each packet (P sec) is a secured packet and in that the encapsulation step comprises the following steps: - generating at least one security encapsulation header (E enc), - forming at least one encapsulation packet (P enc) comprising at least the or one of the security encapsulation header(s) (E enc) and said frame or a fragment of said frame, - forming the or each secured packet (P sec) by applying (48, 50) at least one cryptographic protection to the or each encapsulation packet (P enc). - a step for encapsulating the frame in at least one packet (P sec) of a level 3 network layer of the OSI model, compatible with the transit network, and - a step for transmitting the or each packet (P sec) to the receiving network through the transit network, the method being characterized in that the or each packet (P sec) is a secured packet and in that the encapsulation step comprises the following steps: - generating at least one security encapsulation header (E enc), - forming at least one encapsulation packet (P enc) comprising at least the or one of the security encapsulation header(s) (E enc) and said frame or a fragment of said frame, - forming the or each secured packet (P sec) by applying (48, 50) at least one cryptographic protection to the or each encapsulation packet (P enc). - generating at least one security encapsulation header (E enc), - forming at least one encapsulation packet (P enc) comprising at least the or one of the security encapsulation header(s) (E enc) and said frame or a fragment of said frame, - forming the or each secured packet (P sec) by applying (48, 50) at least one cryptographic protection to the or each encapsulation packet (P enc).
A method of localising transportable apparatus within an environment, the method including: obtaining point cloud data representing a 3D point cloud with appearance information of at least part of the environment; obtaining first frame data representing an image produced by a sensor on board transportable apparatus at a first time and location within the environment; obtaining second frame data representing an image produced by the sensor at a second time and location within the environment, characterised in that the first frame data and the second frame data comprise consecutive images taken over a period of time and wherein the method further comprises harmonising information about the first frame data, the second frame data and an overlapping subset of the point cloud data by finding a minimum of a cost function that maximises similarity of information about appearance of parts of the environment in the first frame data, the second frame data and the overlapping subset of the point cloud data, in order to determine a location within the point cloud data where at least one of the first frame and the second frame was produced, thereby localising the transportable apparatus within the environment. obtaining point cloud data representing a 3D point cloud with appearance information of at least part of the environment; obtaining first frame data representing an image produced by a sensor on board transportable apparatus at a first time and location within the environment; obtaining second frame data representing an image produced by the sensor at a second time and location within the environment, characterised in that the first frame data and the second frame data comprise consecutive images taken over a period of time and wherein the method further comprises harmonising information about the first frame data, the second frame data and an overlapping subset of the point cloud data by finding a minimum of a cost function that maximises similarity of information about appearance of parts of the environment in the first frame data, the second frame data and the overlapping subset of the point cloud data, in order to determine a location within the point cloud data where at least one of the first frame and the second frame was produced, thereby localising the transportable apparatus within the environment.
An anti-hedgehog antibody comprising a heavy chain and a light chain, wherein the heavy chain comprises the antigen binding regions HCHVR1 comprising the amino acid sequence of SEQ ID NO:2, HCHVR2 comprising the amino acid sequence of SEQ ID NO:4 and HCHVR3 comprising the amino acid sequence of SEQ ID NO:6, and wherein the light chain comprises the antigen binding regions LCHVR1 comprising the amino acid sequence of SEQ ID NO:10, LCHVR2 comprising the amino acid sequence of SEQ ID NO:12 and LCHVR3 comprising the amino acid sequence of SEQ ID NO:14.
A surgical retractor for retracting an opening in a biological body wall, comprising, an outer ring adapted for juxtaposition with an outer surface of the biological body wall, an inner ring adapted for juxtaposition with an inner surface of the biological body wall; and a sleeve coupling the outer ring to the inner ring, the sleeve being adapted to traverse the opening in the body wall, wherein the outer ring comprises: a first component having first and second ends (122, 124) and a middle lumen extending along an annular axis of the first component; and a second, noncompliant, component having first and second ends (126, 128), the second component being disposed within the middle lumen of the first component,and wherein the first component is adapted to rotate about the annular axis to roll the sleeve around the outer ring to retract the sleeve and thus, in use, to retract and seal the opening in the body wall, characterized in that the outer ring further comprises a monolithic coupler the coupler connecting the first and second ends (122, 124) of the first component together and receiving the first and second ends (126, 128) of the second component and maintaining them in alignment so that the second component functions as a stationary axle on which the first component rotates. a first component having first and second ends (122, 124) and a middle lumen extending along an annular axis of the first component; and a second, noncompliant, component having first and second ends (126, 128), the second component being disposed within the middle lumen of the first component,and
A method for in-place testing a Time Triggered Ethernet, TTE, command and control, C&C, system having real input devices (71, 72) and output interfaces (83-85; 73-75) that communicate through one or more switches (91, 92) during first predetermined time intervals (44E-I, 44E-(i+1)) set by a time scheduling system associated with the C&C system as to when outputs from the real input devices (71, 72) can be sent to the output interfaces, comprising: providing a simulation subsystem having therein simulated input devices (87, 88) adapted to provide predetermined or dynamically calculated outputs mimicking the outputs of the real input devices (71, 72) and communicating with the output interfaces through at least a further switch during second predetermined time intervals set by a time scheduling system associated with the simulation subsystem as to when outputs from the simulated input devices (87, 88) can be sent to the output interfaces; and adjusting the second predetermined time intervals (44S-i, 44S-(i+1)) relative to the first predetermined time intervals (44E-i, 44E-(i+1)), so that the outputs from the simulated input devices arrive at the output interfaces prior to the outputs from the real input devices (71,72). providing a simulation subsystem having therein simulated input devices (87, 88) adapted to provide predetermined or dynamically calculated outputs mimicking the outputs of the real input devices (71, 72) and communicating with the output interfaces through at least a further switch during second predetermined time intervals set by a time scheduling system associated with the simulation subsystem as to when outputs from the simulated input devices (87, 88) can be sent to the output interfaces; and adjusting the second predetermined time intervals (44S-i, 44S-(i+1)) relative to the first predetermined time intervals (44E-i, 44E-(i+1)), so that the outputs from the simulated input devices arrive at the output interfaces prior to the outputs from the real input devices (71,72).
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: receiving, from a base station, a broadcasted signal including system information, the system information providing configuration information including any one or a combination of a resource allocation, mapping information, a resource indication, and a mode indication directing the behavior of the WTRU, wherein the configuration information allows the WTRU to request one or more system information blocks, SIBs,; transmitting, to the base station, based on the configuration information, a request signal requesting one or more SIBs, the request signal including a preamble associated with one or more SIBs and a control field indicating additional SIB request information, wherein the preamble is a random access channel, RACH, resource; and receiving, from the base station, the requested one or more SIBs in response to the request signal. receiving, from a base station, a broadcasted signal including system information, the system information providing configuration information including any one or a combination of a resource allocation, mapping information, a resource indication, and a mode indication directing the behavior of the WTRU, wherein the configuration information allows the WTRU to request one or more system information blocks, SIBs,; transmitting, to the base station, based on the configuration information, a request signal requesting one or more SIBs, the request signal including a preamble associated with one or more SIBs and a control field indicating additional SIB request information, wherein the preamble is a random access channel, RACH, resource; and receiving, from the base station, the requested one or more SIBs in response to the request signal.
A method for strapping a group of packages, in particular for products of the cigarette industry, with a strip of packaging material, wherein the packages are brought together to form a cuboid group and are then strapped with at least one strip of packaging material, and wherein the at least one strip of packaging material is provided on one side with a preferably continuous layer of adhesive, and wherein the group of packages is completely strapped with the at least one strip of packaging material, wherein the layer of adhesive is brought into direct contact with the packages of the group, and wherein the cuboid group of packages is moved with a first end side of the group in a transporting direction against the at least one strip of packaging material which is held ready and is brought into contact there with the layer of adhesive, and wherein the at least one strip of packaging material is afterwards placed against large-area side faces of the group whilst the group continues to be transported in the transporting direction and is then brought into contact with the region of a second end side, situated opposite the first end side, of the group, wherein ends of the at least one strip of packaging material are brought into contact with the group, forming a complete strapping of the group characterized in that the at least one strip of packaging material is moved through an applicator, and in that the at least one strip of packaging material is held against at least one contact surface of the applicator by means of a vacuum, wherein the layer of adhesive faces away from the contact surface.
A method for forming a part using powder bed fusion additive manufacturing methods, the method comprising: forming a first portion of the part at a first level; forming a second portion of the part at a second level; wherein forming the first and second portions (102, 104) includes exposing the first and second levels to a sintering process and portions of the first and second levels to an electron beam; forming a wire in a passage formed inside the first and second portions (102, 104) by exposing a portion of the passage to the electron beam; applying an ultrasonic signal to the wire to break up sintered material in the passage; removing the wire; wherein the first and second levels are formed from a sintered metallic powder; and characterized in that forming the at least one wire includes forming a first wire and a second wire. forming a first portion of the part at a first level; forming a second portion of the part at a second level; wherein forming the first and second portions (102, 104) includes exposing the first and second levels to a sintering process and portions of the first and second levels to an electron beam; forming a wire in a passage formed inside the first and second portions (102, 104) by exposing a portion of the passage to the electron beam; applying an ultrasonic signal to the wire to break up sintered material in the passage; removing the wire; wherein the first and second levels are formed from a sintered metallic powder; and characterized in that forming the at least one wire includes forming a first wire and a second wire.