mhurhangee/ep-ind-claims huggingface dataset:
A loading platform dropside extending in a lengthwise direction and comprising an elongated channel extending in said lengthwise direction, said platform dropside being configured to form part of a loading platform sidewall, and when in use having a closed state in which the loading platform dropside delimits a loading platform and an open state in which the platform dropside is freely hanging in a vertical direction perpendicular to said lengthwise direction, said loading platform dropside comprising a footstep arrangement including: a footstep receiving member rotationally fixedly arranged in said elongated channel, said footstep receiving member extending along a longitudinal axis; an elongated footstep member arranged to be received coaxially within said footstep receiving member, and to be slidable along said longitudinal axis; wherein said elongated footstep member has: a first, retracted position, in which the elongated footstep member is substantially inserted into the footstep receiving member, and a second, extracted position, in which a part of the elongated footstep member extends outside the footstep receiving member, thereby forming a footstep coaxial with the footstep receiving member, wherein, in the extracted position, a sufficient portion of the elongated footstep member remains in the footstep receiving member, such that the elongated footstep is capable of supporting a person's weight without rotating with respect to the footstep receiving member. a footstep receiving member rotationally fixedly arranged in said elongated channel, said footstep receiving member extending along a longitudinal axis; an elongated footstep member arranged to be received coaxially within said footstep receiving member, and to be slidable along said longitudinal axis; wherein said elongated footstep member has: a first, retracted position, in which the elongated footstep member is substantially inserted into the footstep receiving member, and a second, extracted position, in which a part of the elongated footstep member extends outside the footstep receiving member, thereby forming a footstep coaxial with the footstep receiving member, wherein, in the extracted position, a sufficient portion of the elongated footstep member remains in the footstep receiving member, such that the elongated footstep is capable of supporting a person's weight without rotating with respect to the footstep receiving member. a first, retracted position, in which the elongated footstep member is substantially inserted into the footstep receiving member, and a second, extracted position, in which a part of the elongated footstep member extends outside the footstep receiving member, thereby forming a footstep coaxial with the footstep receiving member, wherein, in the extracted position, a sufficient portion of the elongated footstep member remains in the footstep receiving member, such that the elongated footstep is capable of supporting a person's weight without rotating with respect to the footstep receiving member.
A data transmission method used in a wireless backhaul network, wherein the wireless backhaul network comprises a wireless backhaul node, and the wireless backhaul node has a plurality of next-hop nodes on an uplink; and the method comprises: determining, by the wireless backhaul node, one or more reporting nodes for a data volume of a first-type data packet from the plurality of next-hop nodes based on the data volume of the first-type data packet, a data volume of a second-type data packet, and a data volume of a third-type data packet; and sending, by the wireless backhaul node, a buffer status report to the one or more reporting nodes, wherein the buffer status report is used to indicate the data volume of the first-type data packet, wherein at least one of the first-type data packet, the second-type data packet, and the third-type data packet comprises a data packet from an adaptation layer entity of the wireless backhaul node and/or a data packet from a radio link control layer entity of the wireless backhaul node; the first-type data packet can be transmitted through a first next-hop node in the plurality of next-hop nodes and a second next-hop node in the plurality of next-hop nodes; the second-type data packet can be transmitted only through the first next-hop node in the plurality of next-hop nodes; and the third-type data packet can be transmitted only through the second next-hop node in the plurality of next-hop nodes. determining, by the wireless backhaul node, one or more reporting nodes for a data volume of a first-type data packet from the plurality of next-hop nodes based on the data volume of the first-type data packet, a data volume of a second-type data packet, and a data volume of a third-type data packet; and sending, by the wireless backhaul node, a buffer status report to the one or more reporting nodes, wherein the buffer status report is used to indicate the data volume of the first-type data packet, wherein at least one of the first-type data packet, the second-type data packet, and the third-type data packet comprises a data packet from an adaptation layer entity of the wireless backhaul node and/or a data packet from a radio link control layer entity of the wireless backhaul node; the first-type data packet can be transmitted through a first next-hop node in the plurality of next-hop nodes and a second next-hop node in the plurality of next-hop nodes; the second-type data packet can be transmitted only through the first next-hop node in the plurality of next-hop nodes; and the third-type data packet can be transmitted only through the second next-hop node in the plurality of next-hop nodes.
A blade rim sector for equipping a compressor stator of an aircraft turbomachine, comprising an assembly forming an outer shell sector, an inner shell sector, as well as a plurality of blades tangentially spaced apart from each other and interposed between the assembly forming the outer shell sector and the inner shell sector, said blades being attached on each of the assembly forming the outer shell sector and the inner shell sector, the assembly forming the outer shell sector comprising on the one hand a plurality of unit sectors spaced apart from each other along a tangential direction of said assembly, and on the other hand vibration damping wedges each interposed between two unit sectors associated therewith, positioned directly consecutively along said tangential direction, characterised in that each vibration damping wedge has a profile substantially identical to that of the unit sectors.
A bioassembly system comprising a tissue modeling component and a robotic bioassembly workstation component, the tissue modeling component comprising a user interface, at least one suite of tools for performing an object operation selected from creating, editing, modeling, transforming, image property modulating, sketching, print supporting, simulating, material testing and combinations thereof, a material database, and software executable by a machine to facilitate a method for designing a volumetric model of a biological construct at the user interface, the tissue modeling component being operationally linked to the robotic bioassembly workstation component, the method comprising: adding at least one object to an object modeling environment at the user interface, wherein adding comprises selecting, creating, importing or a combination thereof, and further wherein each added object is associated with an object list comprising material parameters; performing one or more operations on the one or more objects in the modeling environment to render a desired volumetric model; transmitting the rendered volumetric model to the robotic bioassembly workstation with a print and/or assembly command; and printing and/or assembling a bioconstruct in accordance with the rendered volumetric model, characterised in that the robotic bioassembly workstation component comprises a multi-axis robot, which comprises at least a six-axis robot, and the step of printing and/or assembling a bioconstruct in accordance with the rendered volumetric model comprises dispensing biomaterial onto a print substrate by non-sequential planar layering; by dispensing biomaterial at an angle oblique to a plane of a surface of a printing substrate; and/or by dispensing biomaterial at an angle normal to all desired surface positions of a 3-D print substrate. adding at least one object to an object modeling environment at the user interface, wherein adding comprises selecting, creating, importing or a combination thereof, and further wherein each added object is associated with an object list comprising material parameters; performing one or more operations on the one or more objects in the modeling environment to render a desired volumetric model; transmitting the rendered volumetric model to the robotic bioassembly workstation with a print and/or assembly command; and printing and/or assembling a bioconstruct in accordance with the rendered volumetric model, characterised in that the robotic bioassembly workstation component comprises a multi-axis robot, which comprises at least a six-axis robot, and the step of printing and/or assembling a bioconstruct in accordance with the rendered volumetric model comprises dispensing biomaterial onto a print substrate by non-sequential planar layering; by dispensing biomaterial at an angle oblique to a plane of a surface of a printing substrate; and/or by dispensing biomaterial at an angle normal to all desired surface positions of a 3-D print substrate.
Method for displaying a sharp image on a retina of an eye of the person, the person having a prescription for the eye of the person, the method comprising: - providing at least one optical parameter relative to the prescription for the eye of the person; - providing a plurality of initial sub-images, each initial sub-image corresponding to at least a part of the image to be displayed; - providing a plurality of light beams (12, 14) configured to be focused substantially in the plane of a pupil of the eye at a plurality of corresponding different positions, (42, 44) each light beam being configured to carry an associated sub-image; - for each sub-image, adapting the sub-image based on the at least one provided optical parameter and on the corresponding focused position of the light beam configured to carry the sub-image to form an adapted sub-image; and - displaying each adapted sub-image carried by the associated light beam on the retina of the person. - providing at least one optical parameter relative to the prescription for the eye of the person; - providing a plurality of initial sub-images, each initial sub-image corresponding to at least a part of the image to be displayed; - providing a plurality of light beams (12, 14) configured to be focused substantially in the plane of a pupil of the eye at a plurality of corresponding different positions, (42, 44) each light beam being configured to carry an associated sub-image; - for each sub-image, adapting the sub-image based on the at least one provided optical parameter and on the corresponding focused position of the light beam configured to carry the sub-image to form an adapted sub-image; and - displaying each adapted sub-image carried by the associated light beam on the retina of the person.
A method for preserving a usable life of a plasma arc electrode consumable installed in a plasma arc torch, the method comprising: measuring a characteristic of an electrical signal being provided to the torch to generate a plasma arc between the torch and a workpiece to be processed; monitoring the characteristic during operation of the torch over a time period; comparing the characteristic to a threshold value; and responsive to determining that the measured characteristic meets and/or exceeds the threshold value, initiating an arc extinguishing sequence to preserve the life of the electrode, wherein the measured characteristic meeting and/or exceeding the threshold value indicates an increasing distance between the plasma arc torch and an arc attachment point where the plasma arc attaches to the workpiece; characterized in that the characteristic comprises a pulse width modulation value or a rate of change of a pulse width modulation value. measuring a characteristic of an electrical signal being provided to the torch to generate a plasma arc between the torch and a workpiece to be processed; monitoring the characteristic during operation of the torch over a time period; comparing the characteristic to a threshold value; and responsive to determining that the measured characteristic meets and/or exceeds the threshold value, initiating an arc extinguishing sequence to preserve the life of the electrode, wherein the measured characteristic meeting and/or exceeding the threshold value indicates an increasing distance between the plasma arc torch and an arc attachment point where the plasma arc attaches to the workpiece; characterized in that the characteristic comprises a pulse width modulation value or a rate of change of a pulse width modulation value.
A method for managing a context-dependent display bar, comprising: identifying a graphical object currently displayed by a graphics software application operated by a user through a graphical user interface to process an image, wherein the image is a vector image or a raster image or a combination vector and raster image; identifying a current edit mode in which the user is working; identifying whether or not the user has selected the identified graphical object for editing; identifying a tool for editing graphical objects currently activated by the user; determining a current context in which the user is working, the context depending upon the identified graphical object, the identified edit mode, whether or not the user has selected the identified graphical object for editing, and the identified tool; identifying at least one control associated with the current context, wherein different contexts generally have at least one different control associated therewith; displaying the image; and displaying the at least one control associated with the current context within a display bar of the graphics software application, each time that the current context changes. identifying a graphical object currently displayed by a graphics software application operated by a user through a graphical user interface to process an image, wherein the image is a vector image or a raster image or a combination vector and raster image; identifying a current edit mode in which the user is working; identifying whether or not the user has selected the identified graphical object for editing; identifying a tool for editing graphical objects currently activated by the user; determining a current context in which the user is working, the context depending upon the identified graphical object, the identified edit mode, whether or not the user has selected the identified graphical object for editing, and the identified tool; identifying at least one control associated with the current context, wherein different contexts generally have at least one different control associated therewith; displaying the image; and displaying the at least one control associated with the current context within a display bar of the graphics software application, each time that the current context changes.
An artificial atom for being included in a metamaterial, the artificial atom comprising: a first coiling unit that coils up a first space, wherein the first coiling unit is formed by connecting a plurality of channels in series where a wave propagates along a zigzag path, and wherein wave propagation directions of neighboring channels in the plurality of channels are different; and a second coiling unit (220, 230, 240) that coils up a second space and that is connected with the first coiling unit, wherein the second coiling unit is formed by connecting a plurality of channels in series where a wave propagates along a zigzag path, and wherein wave propagation directions of neighboring channels in the plurality of channels are different; and wherein the first and second coiling units are disposed in a way the first coiling unit corresponds to the second coiling unit if rotated 90° relative to a center point of the artificial atom, and one end of each of the first and second coiling units is disposed at the center point. a first coiling unit that coils up a first space, wherein the first coiling unit is formed by connecting a plurality of channels in series where a wave propagates along a zigzag path, and wherein wave propagation directions of neighboring channels in the plurality of channels are different; and a second coiling unit (220, 230, 240) that coils up a second space and that is connected with the first coiling unit, wherein the second coiling unit is formed by connecting a plurality of channels in series where a wave propagates along a zigzag path, and wherein wave propagation directions of neighboring channels in the plurality of channels are different; and wherein the first and second coiling units are disposed in a way the first coiling unit corresponds to the second coiling unit if rotated 90° relative to a center point of the artificial atom, and one end of each of the first and second coiling units is disposed at the center point.
A cap assembly for a housing of an autoinjector device comprising: a needle cap remover; and a cap having a protruding pocket for receiving the needle cap remover; the needle cap remover comprising a connector having: a base; and a plurality of first legs (702a-702d) spaced symmetrically away from one another and extending proximally from the base, characterized by comprising a plurality of second legs (706a-706d) extending proximally from the base and having a tip (707a-707d) that flares outwardly towards the protruding pocket, wherein at least one of the second legs is positioned between two of the first legs. a needle cap remover; and a cap having a protruding pocket for receiving the needle cap remover; the needle cap remover comprising a connector having: a base; and a plurality of first legs (702a-702d) spaced symmetrically away from one another and extending proximally from the base, characterized by comprising a plurality of second legs (706a-706d) extending proximally from the base and having a tip (707a-707d) that flares outwardly towards the protruding pocket, wherein at least one of the second legs is positioned between two of the first legs. a base; and a plurality of first legs (702a-702d) spaced symmetrically away from one another and extending proximally from the base, characterized by comprising a plurality of second legs (706a-706d) extending proximally from the base and having a tip (707a-707d) that flares outwardly towards the protruding pocket, wherein at least one of the second legs is positioned between two of the first legs.
An assembly comprising a quick assembly and disassembly device for a toilet cover, the assembly further comprising a toilet seat, a toilet top cover, a rotation mechanism and two supports, said two supports being respectively disposed with an insert pin, each insert pin being disposed with a lock groove at a side wall of its top portion, the rotation mechanism being disposed with two radial insert holes for accommodating the insert pins when inserted therein, said assembly further comprising at least one switch component, and a lock element, both ends of the lock element being respectively disposed with a lock catch to selectively lock to the lock groove of one of said the insert pins or to release the lock element, the switch component driving the lock element to move so as to release the lock element; characterised in that the at least one switch component is disposed to an external side of the two supports, the assembly further comprises an elastic element and the lock element is repositioned by the elastic element.
A cartridge, comprising smokable material, for use with apparatus for heating the smokable material to volatilise at least one component of the smokable material, wherein the cartridge further comprises: a housing defining a chamber; and a heating device located in the chamber, the heating device being arranged to heat the smokable material to volatilise at least one component of the smokable material, the heating device comprising a heating element and smokable material arranged on the heating element, wherein the heating element comprises an electrically-conductive material, wherein the smokable material is in a solid state or is a gel, characterized in that the smokable material is bonded to the heating element. a housing defining a chamber; and a heating device located in the chamber, the heating device being arranged to heat the smokable material to volatilise at least one component of the smokable material, the heating device comprising a heating element and smokable material arranged on the heating element, wherein the heating element comprises an electrically-conductive material, wherein the smokable material is in a solid state or is a gel,
A device for the electroporation of bacterial cells present on the surface of the stratum corneum layer of a person's skin, comprising: electrodes (12a, 12b) positionable in the vicinity of said surface; a conductivity detector for measuring the conductivity at the skin surface; and a generator to control and supply a voltage to the electrodes (12a, 12b) depending on the detected conductivity at said surface such to generate an electrical field having a strength in the order of 25 to 35 kV/cm at said surface to inactivate bacterial cells present on said surface; wherein the electrodes (12a, 12b) are configured so that the strength of the electrical field reduces as a function of the depth of penetration into the stratum corneum layer from said surface to 3kV/cm or less at depth of between 5 and 10 micron. electrodes (12a, 12b) positionable in the vicinity of said surface; a conductivity detector for measuring the conductivity at the skin surface; and a generator to control and supply a voltage to the electrodes (12a, 12b) depending on the detected conductivity at said surface such to generate an electrical field having a strength in the order of 25 to 35 kV/cm at said surface to inactivate bacterial cells present on said surface; wherein the electrodes (12a, 12b) are configured so that the strength of the electrical field reduces as a function of the depth of penetration into the stratum corneum layer from said surface to 3kV/cm or less at depth of between 5 and 10 micron.
A computer-implemented method for processing measurements at a datum received by at least one receiver of a wavefield generated by at least one source wherein the wavefield is disturbed by a target, the method comprising: receiving at least two separate independent sets of measurements of the wavefields affected by the target (310, 410, 510, 610, 1010) from the at least one receiver; constructing a Point-Spread Function system using all of the at least two sets of measurements (320, 420, 520, 620, 1020); and obtaining reflectivity data by multi-dimensional deconvolution of the said Point-Spread Function system (330, 430, 530, 630, 1030). receiving at least two separate independent sets of measurements of the wavefields affected by the target (310, 410, 510, 610, 1010) from the at least one receiver; constructing a Point-Spread Function system using all of the at least two sets of measurements (320, 420, 520, 620, 1020); and obtaining reflectivity data by multi-dimensional deconvolution of the said Point-Spread Function system (330, 430, 530, 630, 1030).