mhurhangee/ep-ind-claims huggingface dataset:
An article of footwear comprising: an upper; and a sole structure coupled to the upper and forming a foot-receiving cavity therebetween, wherein the sole structure comprises one or more flexible extension members extending therefrom, wherein the one or more flexible extension members are foldable between a compressed state and an expanded state, wherein in the compressed state, the one or more flexible extension members extend at least partially over the upper, and wherein in the expanded state, the one or more flexible extension members comprise one or more portions configured for contacting a ground surface, wherein the article of footwear further comprises one or more securing elements adjustably coupled to the one or more flexible extension members and configured for retaining the one or more flexible extension members in the compressed state or the expanded state, wherein the one or more securing elements comprise one or more of laces. an upper; and a sole structure coupled to the upper and forming a foot-receiving cavity therebetween, wherein the sole structure comprises one or more flexible extension members extending therefrom, wherein the one or more flexible extension members are foldable between a compressed state and an expanded state, wherein in the compressed state, the one or more flexible extension members extend at least partially over the upper, and wherein in the expanded state, the one or more flexible extension members comprise one or more portions configured for contacting a ground surface, wherein the article of footwear further comprises one or more securing elements adjustably coupled to the one or more flexible extension members and configured for retaining the one or more flexible extension members in the compressed state or the expanded state, wherein the one or more securing elements comprise one or more of laces.
A tactile sensor comprising: ▪ a piezoresistive layer having its electric resistance varying according to mechanical stress exerted thereon, the piezoresistive layer being at least partially transparent to light; ▪ a photosensitive layer, having its electric resistance varying according to the quantity of incident light thereon, the photosensitive layer being arranged opposite the piezoresistive layer; and ▪ electric connection elements (22, 40, 52) electrically connecting in parallel the piezoresistive layer and the photosensitive layer. ▪ a piezoresistive layer having its electric resistance varying according to mechanical stress exerted thereon, the piezoresistive layer being at least partially transparent to light; ▪ a photosensitive layer, having its electric resistance varying according to the quantity of incident light thereon, the photosensitive layer being arranged opposite the piezoresistive layer; and ▪ electric connection elements (22, 40, 52) electrically connecting in parallel the piezoresistive layer and the photosensitive layer.
A fitting for making connections with a pipe, comprising: a coupling body having an inside surface defining a bore for receiving a pipe; a ring fitting over said coupling body for sealing and mechanically connecting said coupling body to the pipe; an axisymmetrical main seal formed on said inside surface of said coupling body which main seal seals and connects to the pipe when said ring is installed on said coupling body; an axisymmetrical inboard seal formed on said inside surface of said coupling body axially spaced from said main sepal which inboard seal seals and connects to the pipe when said ring is installed on said coupling body, at least one of said coupling body and said ring configured so that said inboard seal seals and connects after said main seal seals and connects to the pipe; an axisymmetrical outboard seal formed on said inside surface of said coupling body axially spaced from said main seal which outboard seal connects to the pipe when said ring is installed on said coupling body, at least one of said coupling body and said ring further configured so that said outboard seal seals and mechanically connects after said inboard seal seals and connects to the pipe; and at least one of said coupling body and said ring further configured to apply a restoring load to said main seal to further seal and mechanically connect said main seal to the pipe after said outboard seal seals and connects to the pipe. a coupling body having an inside surface defining a bore for receiving a pipe; a ring fitting over said coupling body for sealing and mechanically connecting said coupling body to the pipe; an axisymmetrical main seal formed on said inside surface of said coupling body which main seal seals and connects to the pipe when said ring is installed on said coupling body; an axisymmetrical inboard seal formed on said inside surface of said coupling body axially spaced from said main sepal which inboard seal seals and connects to the pipe when said ring is installed on said coupling body, at least one of said coupling body and said ring configured so that said inboard seal seals and connects after said main seal seals and connects to the pipe; an axisymmetrical outboard seal formed on said inside surface of said coupling body axially spaced from said main seal which outboard seal connects to the pipe when said ring is installed on said coupling body, at least one of said coupling body and said ring further configured so that said outboard seal seals and mechanically connects after said inboard seal seals and connects to the pipe; and at least one of said coupling body and said ring further configured to apply a restoring load to said main seal to further seal and mechanically connect said main seal to the pipe after said outboard seal seals and connects to the pipe.
Furnace for thermal treatment of a metal product by moving and comprising constitutive elements each having a thermal inertia property, said constitutive elements comprising: - walls at least partially delimiting said furnace; - a heating unit for heating a metal product when the latter is at least partially in said furnace; - a rapid heating element for heating a metal product, when the latter is at least partially in said furnace, said rapid heating element being separate from said heating unit; said furnace further comprising: a control unit for controlling said heating unit and/or the rapid heating element based on one or more thermal inertia properties of one or more constitutive elements of said furnace, coming from a physical or virtual sensor, and at least based on a mass of one constitutive element of said furnace; said control unit further being configured to control a moving speed of a metal product in said furnace based on one or more thermal inertia properties of one or more constitutive elements of said furnace coming from a physical or virtual sensor. - walls at least partially delimiting said furnace; - a heating unit for heating a metal product when the latter is at least partially in said furnace; - a rapid heating element for heating a metal product, when the latter is at least partially in said furnace, said rapid heating element being separate from said heating unit; a control unit for controlling said heating unit and/or the rapid heating element based on one or more thermal inertia properties of one or more constitutive elements of said furnace, coming from a physical or virtual sensor, and at least based on a mass of one constitutive element of said furnace; said control unit further being configured to control a moving speed of a metal product in said furnace based on one or more thermal inertia properties of one or more constitutive elements of said furnace coming from a physical or virtual sensor.
Actuating device for transmitting a user input to a control device, the actuating device comprising an engagement element which forms a first housing part of the actuating device and an execution element which forms a second housing part of the actuating device, the engagement element comprising an engagement push magnet which can be moved in the direction of the execution element by press-actuation of the actuating device, and the magnetic field of which projects into the execution element, the engagement element and the execution element comprising at least one engagement rotary magnet or execution rotary magnet, respectively, which can be moved in parallel with an intermediate plane extending therebetween, the engagement rotary magnet of the engagement element being designed to exert a magnetic force on the corresponding execution rotary magnet of the execution element, the engagement element comprising an axis of rotation oriented orthogonally to the intermediate plane and an engagement element rotation region which can be rotated about the axis of rotation and comprises the engagement rotary magnet, and the execution element comprising an axis of rotation oriented orthogonally to the intermediate plane and an execution element rotation region which can be rotated about the axis of rotation and comprises the execution rotary magnet, the engagement element and the execution element being interconnected via the engagement rotary magnet and the execution rotary magnet, which provide mutually attractive magnetic forces, and the opposite polarisation of the engagement rotary magnet and the execution rotary magnet resulting in a rotation of the execution element rotation region supporting the execution rotary magnet when the engagement element rotation region rotates together with the execution rotary magnet, the engagement element comprising an engagement element housing which has a movable engagement element pressing region, and the engagement element pressing region being designed to move the engagement push magnet in the direction of the execution element, characterised in that the execution element comprises an execution push magnet which can be moved in a contactless manner by the effect of the magnetic field of the engagement push magnet, the engagement element pressing region surrounding the engagement element rotation region with respect to a circumferential surface of the engagement element rotation region and an end face of the engagement element rotation region that faces away from the intermediate plane, and being axially movable relative thereto, and the engagement element housing also comprising a portion which is in contact with the intermediate plane and comprises the axis of rotation, which portion separates the engagement element pressing region and the engagement element rotation region from the intermediate plane.
A leadless stimulation device, comprising: a housing (92, 106) having a distal end, an opposing proximal end and a side wall extending between the distal end and the proximal end; the distal end and at least part of the side wall of the housing (92, 106) are conductive and electrically connected together, wherein the distal end of the housing (92, 106) includes a cathode tip electrode for the LSD, wherein the cathode tip electrode is exposed to the environment outside of the housing (92, 106); an anode electrode, spaced from the cathode tip electrode, exposed to the environment outside of the housing (92, 106); a battery situated inside the housing (92, 106), the battery having a negative terminal and a positive terminal, with the negative terminal operatively coupled to the at least part of the housing (92, 106) that is conductive including the cathode tip electrode; and stimulation circuitry situated inside the housing (92, 106) and operatively coupled to the cathode tip electrode and the anode electrode, the stimulation circuitry configured to provide a stimulation pulse by applying a voltage difference between the cathode tip electrode and the anode electrode, with a more negative voltage applied to the cathode tip electrode than to the anode electrode, wherein the negative terminal of the battery is electrically connected to an inside surface of the at least part of the side wall of the housing (92, 106) that is conductive and electrically connected to the distal end of the housing (92, 106), and thus to the cathode tip electrode. a housing (92, 106) having a distal end, an opposing proximal end and a side wall extending between the distal end and the proximal end; the distal end and at least part of the side wall of the housing (92, 106) are conductive and electrically connected together, wherein the distal end of the housing (92, 106) includes a cathode tip electrode for the LSD, wherein the cathode tip electrode is exposed to the environment outside of the housing (92, 106); an anode electrode, spaced from the cathode tip electrode, exposed to the environment outside of the housing (92, 106); a battery situated inside the housing (92, 106), the battery having a negative terminal and a positive terminal, with the negative terminal operatively coupled to the at least part of the housing (92, 106) that is conductive including the cathode tip electrode; and stimulation circuitry situated inside the housing (92, 106) and operatively coupled to the cathode tip electrode and the anode electrode, the stimulation circuitry configured to provide a stimulation pulse by applying a voltage difference between the cathode tip electrode and the anode electrode, with a more negative voltage applied to the cathode tip electrode than to the anode electrode, wherein the negative terminal of the battery is electrically connected to an inside surface of the at least part of the side wall of the housing (92, 106) that is conductive and electrically connected to the distal end of the housing (92, 106), and thus to the cathode tip electrode.
A circuit for calibrating a baud rate, comprising: a first counter, connected to a receiving module of a serial port chip and configured to record a first low level duration of a data frame received by the receiving module; a second counter, connected to the receiving module and configured to: receive a bit sampling pulse, and record a quantity of the bit sampling pulse in the first low level duration, wherein the bit sampling pulse is generated from sampling the data frame by the receiving module according to a current baud rate of the receiving module; a divider, connected to the first counter and the second counter and configured to calculate a calibration baud rate according to the first low level duration and the quantity of the bit sampling pulse in the first low level duration; and a selector, connected to the receiving module and the divider and configured to output the calibration baud rate to the receiving module. a first counter, connected to a receiving module of a serial port chip and configured to record a first low level duration of a data frame received by the receiving module; a second counter, connected to the receiving module and configured to: receive a bit sampling pulse, and record a quantity of the bit sampling pulse in the first low level duration, wherein the bit sampling pulse is generated from sampling the data frame by the receiving module according to a current baud rate of the receiving module; a divider, connected to the first counter and the second counter and configured to calculate a calibration baud rate according to the first low level duration and the quantity of the bit sampling pulse in the first low level duration; and a selector, connected to the receiving module and the divider and configured to output the calibration baud rate to the receiving module.
A respiratory cannula for collecting a flow of exhaled gases, said cannula comprising; an elongated hollow tubular body extending between a first end portion and a second end portion, the tubular body defining an internal volume being essentially cylindrical; a wall internally disposed within said tubular body, said wall defining a first subvolume of the internal volume in the lengthwise direction of the tubular body; first and second hollow nostril prongs (10, 10A, 10B) extending from the tubular body, one of the first and second hollow prongs (10, 10A, 10B) comprising an inlet (8, 8A) in fluid communication with the first subvolume of the internal volume and configured for transporting gas exhaled from the nostril of a patient to the first subvolume; an aperture extending through said tubular body at a junction of the inlet (8, 8A) and the internal volume; wherein said first end portion defines an exit port for the gas from said subvolume, characterised in that said wall is arranged in immediate contact with the inlet (8, 8A) so that no void volume for the flow of exhaled gases is created between the wall and the inlet (8, 8A). an elongated hollow tubular body extending between a first end portion and a second end portion, the tubular body defining an internal volume being essentially cylindrical; a wall internally disposed within said tubular body, said wall defining a first subvolume of the internal volume in the lengthwise direction of the tubular body; first and second hollow nostril prongs (10, 10A, 10B) extending from the tubular body, one of the first and second hollow prongs (10, 10A, 10B) comprising an inlet (8, 8A) in fluid communication with the first subvolume of the internal volume and configured for transporting gas exhaled from the nostril of a patient to the first subvolume; an aperture extending through said tubular body at a junction of the inlet (8, 8A) and the internal volume; wherein said first end portion defines an exit port for the gas from said subvolume, characterised in that said wall is arranged in immediate contact with the inlet (8, 8A) so that no void volume for the flow of exhaled gases is created between the wall and the inlet (8, 8A).
A multi-layer aluminum alloy brazing sheet comprising: - a core layer comprising a 3XXX-series alloy; - an outer interliner layer comprising an aluminum alloy; and - an outer braze liner layer comprising an aluminum alloy, wherein the sheet has an electrochemical potential gradient increasing from near an outer surface towards the core layer; wherein the 3XXX-series alloy of the core layer comprises less than or equal to 1.1% Si, from 0.15% to 0.5% Fe, 0.5% to 1.2% Cu, 0.8% to 1.8% Mn, up to 0.25% Mg, up to 0.2% Ti and up to 0.3% Cr; wherein the aluminum alloy of the outer interliner layer comprises 0.1 to 1% Si, up to 0.5% Fe, up to 0.5% Cu, 0.5 to 1.8% Mn, up to 0.3% Cr, up to 0.1% Mg and between 0.5% and 5% Zn; wherein the outer interliner layer has a thickness from 20 microns to 50 microns; wherein the aluminum alloy of the outer braze liner layer is a 4XXX-series alloy comprising between 6% and 12% Si and up to 5% Zn; further comprising an inner braze liner layer positioned on the other side of the core layer from the outer interliner layer and having a thickness in the range of 15 to 40 microns, said inner braze liner being a 4XXX-series aluminum alloy comprising from 6% to 12% Si and less than 0.2% Zn, the inner braze liner layer further containing less than 0.3 % Cu, no more than 0.1 % Mn and no more than 0.05 % Mg. - a core layer comprising a 3XXX-series alloy; - an outer interliner layer comprising an aluminum alloy; and - an outer braze liner layer comprising an aluminum alloy, wherein the sheet has an electrochemical potential gradient increasing from near an outer surface towards the core layer;
A structural article comprising an outer surface, which serves as an aerodynamic surface when the structural article is subjected for an air stream, the structural article comprises a resin matrix laminate including an upper ply and a bottom ply (P3, P4, P6), a heating element is arranged in contact with the bottom ply (P3, P4, P6) and coupled to a power supply unit in purpose to deice/anti-ice the outer surface, characterized by that each ply (P1, P2,...P6) comprises a thermally conductive filament structure having transversally oriented filaments such that the prolongation of the filaments has an extension essentially perpendicular to the extension of the laminate, wherein the thermally conductive filament structure of the upper ply is embedded in the latter in such way that at least a portion of the thermally conductive filament structure is exposed in the outer surface.
Method for commissioning a component of an electromechanical locking system, comprising at least the steps of: - transmitting at least one parameter from a first data carrier to the component according to a first communication protocol, - after transmission, based on the parameter/s transmitted according to the first communication protocol, generating at least one second communication protocol by means of the component, by parameterizing the second communication protocol based on the transmitted parameters, - after generating, setting a flag in the component, wherein the component prevents a repeated change of the second communication protocol when the flag is set, - after generating, inserting the component into the electromechanical locking system, in that a lock-ID and/or a group-ID and/or encryption parameter are/is communicated to the component by means of the second communication protocol, and - exchanging data with other components of the locking system by means of the second communication protocol. - transmitting at least one parameter from a first data carrier to the component according to a first communication protocol, - after transmission, based on the parameter/s transmitted according to the first communication protocol, generating at least one second communication protocol by means of the component, by parameterizing the second communication protocol based on the transmitted parameters, - after generating, setting a flag in the component, wherein the component prevents a repeated change of the second communication protocol when the flag is set, - after generating, inserting the component into the electromechanical locking system, in that a lock-ID and/or a group-ID and/or encryption parameter are/is communicated to the component by means of the second communication protocol, and - exchanging data with other components of the locking system by means of the second communication protocol.