mhurhangee/patent-ind-claim-en huggingface dataset:
An underwater machine (E) comprising an underwater vehicle , the underwater vehicle comprising a body of the underwater vehicle , the underwater machine (E) comprising a linking element that is connected to the body of the underwater vehicle and is able to cooperate with a cable to take up a pulling force (F) exerted by the cable on the underwater vehicle , the linking element being connected to the body of the vehicle and being configured such that the axis of the pulling force (F) is movable with respect to the body of the vehicle and able to exhibit different orthogonal projections in a fixed plane P with respect to the body that passes through the center of inertia (G) of the underwater vehicle , the linking element being connected to the body of the underwater vehicle by a link having at least one degree of rotational freedom about an axis of rotation (y; yo) such that the pulling force (F) exerted by the cable on the underwater vehicle is able to pivot about the axis of rotation (y; yo), the projection of the axis of the pulling force (F) on the plane (P) being radial to the axis of rotation (y; yo), characterized in that the linking element is configured and connected to the body such that when the cable cooperates with the linking element , the projection of the axis of the pulling force (F) on the plane (P) passes through the center of inertia (G) of the underwater vehicle , regardless of the orientation of the pulling force (F) about the axis (y; yo), in an angular work sector with a predetermined non-zero opening.
A base station, BS, for handling buffer status reporting for data duplication, comprising: a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: configuring a radio bearer, RB, and configuring a first logical channel, LC, and a second LC associated to the RB, to a communication device ; configuring the communication device to report separate buffer statuses for the first LC and the second LC associated to the RB; receiving a first buffer status comprising a volume of data associated to the first LC and a second buffer status comprising a volume of data associated to the second LC, from the communication device ; transmitting a first UL grant to the communication device according to the first buffer status; and transmitting a second UL grant to the communication device according to the second buffer status. a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: configuring a radio bearer, RB, and configuring a first logical channel, LC, and a second LC associated to the RB, to a communication device ; configuring the communication device to report separate buffer statuses for the first LC and the second LC associated to the RB; receiving a first buffer status comprising a volume of data associated to the first LC and a second buffer status comprising a volume of data associated to the second LC, from the communication device ; transmitting a first UL grant to the communication device according to the first buffer status; and transmitting a second UL grant to the communication device according to the second buffer status. configuring a radio bearer, RB, and configuring a first logical channel, LC, and a second LC associated to the RB, to a communication device ; configuring the communication device to report separate buffer statuses for the first LC and the second LC associated to the RB; receiving a first buffer status comprising a volume of data associated to the first LC and a second buffer status comprising a volume of data associated to the second LC, from the communication device ; transmitting a first UL grant to the communication device according to the first buffer status; and transmitting a second UL grant to the communication device according to the second buffer status.
An intraocular lens comprising: a lens body customized for astigmatism in a particular eye, the customization requiring an alignment following insertion within the eye; a plurality of protrusions arranged outwardly around the lens body to form a substantially rectangular profile, thereby to lock said intraocular lens into a position of rotational stability when inserted into a capsular bag, thus to prevent rotation of said intraocular lens after insertion into said capsular bag, wherein the intraocular lens comprises a cylindrical value for treatment of astigmatism, wherein said protrusions comprise protrusions of haptic pads ; characterized in that: said haptic pads are hinged to said lens body ; and a width of said haptic pads is substantially the same as an optical diameter of the lens . a lens body customized for astigmatism in a particular eye, the customization requiring an alignment following insertion within the eye; a plurality of protrusions arranged outwardly around the lens body to form a substantially rectangular profile, thereby to lock said intraocular lens into a position of rotational stability when inserted into a capsular bag, thus to prevent rotation of said intraocular lens after insertion into said capsular bag, wherein the intraocular lens comprises a cylindrical value for treatment of astigmatism, wherein said protrusions comprise protrusions of haptic pads ; characterized in that: said haptic pads are hinged to said lens body ; and a width of said haptic pads is substantially the same as an optical diameter of the lens . said haptic pads are hinged to said lens body ; and a width of said haptic pads is substantially the same as an optical diameter of the lens .
A method of wireless communications, comprising: receiving , at a user equipment, UE, an indication of a number of control symbols that the UE is to assume for transmitting a physical random access channel, PRACH, wherein receiving the indication includes receiving a signal indicating whether the PRACH overlaps with an uplink common burst of one or more slots, a each comprising an uplink regular burst, overlapping with the PRACH, and the uplink common burst, and wherein the number of control symbols is identified based on whether PRACH overlaps with the uplink common burst of the one or more slots; and transmitting , by the UE, the PRACH over one or more slots based on the number of control symbols. receiving , at a user equipment, UE, an indication of a number of control symbols that the UE is to assume for transmitting a physical random access channel, PRACH, wherein receiving the indication includes receiving a signal indicating whether the PRACH overlaps with an uplink common burst of one or more slots, a each comprising an uplink regular burst, overlapping with the PRACH, and the uplink common burst, and wherein the number of control symbols is identified based on whether PRACH overlaps with the uplink common burst of the one or more slots; and transmitting , by the UE, the PRACH over one or more slots based on the number of control symbols.
A dual clutch transmission system , including coaxial first and second engageable and disengageable torque transmitting assemblies, configured to be installed in a power train of a vehicle , the system including a main flow path for supply of cooling fluid, wherein the main flow path branches into a first flow path for supply of cooling fluid to the first torque transmitting assembly , and a second flow path for supply of cooling fluid to the second torque transmitting assembly , wherein the system includes a third flow path for supplying cooling fluid, which is discharged from the second torque transmitting assembly , to the first torque transmitting assembly , the third flow path preferably being arranged within a space defined by a housing of the dual clutch transmission system .
A cold transfer pressure sensitive label for labeling a substrate, comprising: a pressure sensitive adhesive with a first surface and a second surface; and at least one ink association layer contacting the first surface of the pressure sensitive adhesive; wherein the pressure sensitive adhesive has a wet adhesion greater than about 393.7 N/m (10 N/in), as measured according to the method disclosed in the present application, wherein the pressure sensitive adhesive (PSA) is one of an emulsion-based polymer or solvent-based polymer, and comprises 5% to 50% by weight of a hydrogenated rosin ester based tackifier, and wherein the at least one ink association layer is selected from a printable film layer, an ink layer, or combinations thereof. a pressure sensitive adhesive with a first surface and a second surface; and at least one ink association layer contacting the first surface of the pressure sensitive adhesive; wherein the pressure sensitive adhesive has a wet adhesion greater than about 393.7 N/m (10 N/in), as measured according to the method disclosed in the present application, wherein the pressure sensitive adhesive (PSA) is one of an emulsion-based polymer or solvent-based polymer, and comprises 5% to 50% by weight of a hydrogenated rosin ester based tackifier, and wherein the at least one ink association layer is selected from a printable film layer, an ink layer, or combinations thereof.
A method, implemented on a machine having at least one processor, storage, and a communication platform capable of connecting to a network for operating a vehicle, the method comprising: receiving real-time data related to the vehicle; determining a current mode of operation of the vehicle; determining (320 a state of a driver present within the vehicle, wherein the state is a combination of a functional state of the driver, a heath state of the driver, and a mental state of the driver; evaluating a first risk associated with the current mode of operation of the vehicle based on the real-time data and the state of the driver in accordance with a risk model; determining , in response to the first risk satisfying a first criterion, a second risk associated with switching the current mode to a different mode of operation of the vehicle based on the state of the driver; and switching , in response to the second risk satisfying a second criterion, the vehicle from the current mode to the different mode. receiving real-time data related to the vehicle; determining a current mode of operation of the vehicle; determining (320 a state of a driver present within the vehicle, wherein the state is a combination of a functional state of the driver, a heath state of the driver, and a mental state of the driver; evaluating a first risk associated with the current mode of operation of the vehicle based on the real-time data and the state of the driver in accordance with a risk model; determining , in response to the first risk satisfying a first criterion, a second risk associated with switching the current mode to a different mode of operation of the vehicle based on the state of the driver; and switching , in response to the second risk satisfying a second criterion, the vehicle from the current mode to the different mode.
A dielectric heating device , comprising: two or more electrodes ; characterised in that said dielectric heating device further comprises: a grounded surface connected to a first one of the electrodes; a signal source that is connected to a second one of the electrodes, to output a high-frequency signal; a first element that is interposed serially between the signal source and the second electrode , and that includes two terminals (i, ii) which are electrically or magnetically coupled mutually and without contact with each other to electrically connect the signal source and the second electrode in a non-contact manner, to cause the high-frequency signal outputted from the signal source to pass through the first element , by using the electric or magnetic coupling between the two terminals (i, ii); and a second element that is interposed serially between the grounded surface and the first electrode , and that includes two terminals (i, ii) which are electrically or magnetically coupled mutually and without contact with each other to electrically connect the grounded surface and the first electrode in a non-contact manner, to output, by using the electric or magnetic coupling between the two terminals(i, ii), the high-frequency signal outputted from the signal source , to the grounded surface . a grounded surface connected to a first one of the electrodes; a signal source that is connected to a second one of the electrodes, to output a high-frequency signal; a first element that is interposed serially between the signal source and the second electrode , and that includes two terminals (i, ii) which are electrically or magnetically coupled mutually and without contact with each other to electrically connect the signal source and the second electrode in a non-contact manner, to cause the high-frequency signal outputted from the signal source to pass through the first element , by using the electric or magnetic coupling between the two terminals (i, ii); and a second element that is interposed serially between the grounded surface and the first electrode , and that includes two terminals (i, ii) which are electrically or magnetically coupled mutually and without contact with each other to electrically connect the grounded surface and the first electrode in a non-contact manner, to output, by using the electric or magnetic coupling between the two terminals(i, ii), the high-frequency signal outputted from the signal source , to the grounded surface .
A computer-implemented method for connection-driven automatic generation of robotic user interfaces and modification of robotic properties, the computer-implemented method comprising: detecting , by a robotic programming platform, a connection of a robotic peripheral to a robot ; obtaining , by the robotic programming platform, a peripheral property set corresponding to the robotic peripheral, wherein the peripheral property set includes one or more properties of the robotic peripheral; automatically modifying , by the robotic programming platform, in response to the detection of the robotic peripheral being connected to the robot, based on the peripheral property set, a robotic property set that includes one or more properties of the robot to provide a modified robotic property set; automatically generating , by the robotic programming platform, during runtime, in response to the detection of the robotic peripheral being connected to the robot, a robotic graphical user interface, RGUI , dynamically based on the peripheral property set, wherein the RGUI provides at least one user-accessible interface to control the robot and the robotic peripheral; and controlling , based on the modified robotic property set, the robot and the robotic peripheral in response to user input received via the RGUI. detecting , by a robotic programming platform, a connection of a robotic peripheral to a robot ; obtaining , by the robotic programming platform, a peripheral property set corresponding to the robotic peripheral, wherein the peripheral property set includes one or more properties of the robotic peripheral; automatically modifying , by the robotic programming platform, in response to the detection of the robotic peripheral being connected to the robot, based on the peripheral property set, a robotic property set that includes one or more properties of the robot to provide a modified robotic property set; automatically generating , by the robotic programming platform, during runtime, in response to the detection of the robotic peripheral being connected to the robot, a robotic graphical user interface, RGUI , dynamically based on the peripheral property set, wherein the RGUI provides at least one user-accessible interface to control the robot and the robotic peripheral; and controlling , based on the modified robotic property set, the robot and the robotic peripheral in response to user input received via the RGUI.
A method performed by a control system of a system comprising an electrical device coupled between a power supply and a load, a handle disposed on an outer surface of a housing of the electrical device, and a status indicator configured to emit light in response to a control signal, wherein the status indicator is disposed adjacent to the handle, wherein the electrical device is an electrical protection circuitry, wherein the electrical device is configured to couple the power supply to the load, and wherein the handle is configured to provide access to at least a portion of the electrical device, the method comprising: receiving (202; 204) a first state of the electrical device; receiving a position of the handle; and transmitting the control signal to the status indicator based on the first state and the position, wherein the control signal is configured to control one or more properties of light emitted by the status indicator. receiving (202; 204) a first state of the electrical device; receiving a position of the handle; and transmitting the control signal to the status indicator based on the first state and the position, wherein the control signal is configured to control one or more properties of light emitted by the status indicator.
A transmitter optical subassembly, comprising a substrate and a direct modulated laser disposed on the substrate , wherein a single-stage isolator , a polarization direction rotator , and an optical branching filter are disposed side by side on the substrate in a light propagation direction; and the polarization direction rotator is configured to adjust linearly polarized light to P-polarized light, the optical branching filter comprises an optical splitter subassembly and a filter subassembly, and an optical splitter film in the optical splitter subassembly is an optical splitter film with P polarization.
A device for use with a continuous track of a tracked vehicle to enhance the traction of the vehicle, the track having a tread with recesses, the device comprising: a first component and a second component , each of the first component and the second component having: an elongate body having a first slot and a second slot at or near one end of the elongate body and a third slot at or near the other end of the elongate body , each of the slots configured to receive a fastener ; a plurality of ground engaging features extending upwardly from the elongate body ; characterized in that the device further comprises a U-shaped bracket having an outwardly extending portion with a track engaging surface for engaging a top surface of the track, a downwardly extending portion , and an inwardly extending portion with a track engaging surface for engaging a lower surface of the track, a portion of the outwardly extending portion proximal the downwardly extending portion is wider than a portion of the outwardly extending portion distal the downwardly extending portion ; and a fastening mechanism configured to connect the first component and second component together. an elongate body having a first slot and a second slot at or near one end of the elongate body and a third slot at or near the other end of the elongate body , each of the slots configured to receive a fastener ; a plurality of ground engaging features extending upwardly from the elongate body ; characterized in that the device further comprises a U-shaped bracket having an outwardly extending portion with a track engaging surface for engaging a top surface of the track, a downwardly extending portion , and an inwardly extending portion with a track engaging surface for engaging a lower surface of the track, a portion of the outwardly extending portion proximal the downwardly extending portion is wider than a portion of the outwardly extending portion distal the downwardly extending portion ; and a fastening mechanism configured to connect the first component and second component together.
An apparatus comprising means for: providing (5.1), based on a position associated with a display means, different first and second sets of virtual content for overlaid display at the display means at a first time; determining (5.2) that the first set of virtual content is prioritized over the second set of virtual content; based on the determination: prioritizing display (5.3) of the first set of virtual content over the second set of virtual content at the display means by causing display of the first set of virtual content and not the second set of virtual content at the first time; the apparatus being characterized by further comprising means for: causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image. providing (5.1), based on a position associated with a display means, different first and second sets of virtual content for overlaid display at the display means at a first time; determining (5.2) that the first set of virtual content is prioritized over the second set of virtual content; based on the determination: prioritizing display (5.3) of the first set of virtual content over the second set of virtual content at the display means by causing display of the first set of virtual content and not the second set of virtual content at the first time; the apparatus being characterized by further comprising means for: causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image. prioritizing display (5.3) of the first set of virtual content over the second set of virtual content at the display means by causing display of the first set of virtual content and not the second set of virtual content at the first time; the apparatus being characterized by further comprising means for: causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image. causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image.