mhurhangee/ep-ind-claims huggingface dataset:
An article of footwear comprising, in combination: an upper; a sole assembly secured to the upper and including a support assembly comprising: an upper member (32, 132, 162); a lower member (34, 134, 164) spaced from the upper member; and further comprising: a first layer (36, 136, 166) positioned beneath and in contact with the upper member and comprising a plurality of upwardly opening bowls; a second layer (42, 142, 172) positioned above the lower member and comprising a plurality of downwardly opening domes; and a third layer (47, 148, 176) positioned between the first layer and the second layer and having a wave shaped profile extending in a first direction and in a second direction that is substantially perpendicular to the first direction to define a plurality of peaks and valleys, each peak being secured to a bottom of a bowl and each valley being secured to a top of a dome. an upper; a sole assembly secured to the upper and including a support assembly comprising: an upper member (32, 132, 162); a lower member (34, 134, 164) spaced from the upper member; and further comprising: a first layer (36, 136, 166) positioned beneath and in contact with the upper member and comprising a plurality of upwardly opening bowls; a second layer (42, 142, 172) positioned above the lower member and comprising a plurality of downwardly opening domes; and a third layer (47, 148, 176) positioned between the first layer and the second layer and having a wave shaped profile extending in a first direction and in a second direction that is substantially perpendicular to the first direction to define a plurality of peaks and valleys, each peak being secured to a bottom of a bowl and each valley being secured to a top of a dome. an upper member (32, 132, 162); a lower member (34, 134, 164) spaced from the upper member; and further comprising: a first layer (36, 136, 166) positioned beneath and in contact with the upper member and comprising a plurality of upwardly opening bowls; a second layer (42, 142, 172) positioned above the lower member and comprising a plurality of downwardly opening domes; and a third layer (47, 148, 176) positioned between the first layer and the second layer and having a wave shaped profile extending in a first direction and in a second direction that is substantially perpendicular to the first direction to define a plurality of peaks and valleys, each peak being secured to a bottom of a bowl and each valley being secured to a top of a dome. a first layer (36, 136, 166) positioned beneath and in contact with the upper member and comprising a plurality of upwardly opening bowls; a second layer (42, 142, 172) positioned above the lower member and comprising a plurality of downwardly opening domes; and a third layer (47, 148, 176) positioned between the first layer and the second layer and having a wave shaped profile extending in a first direction and in a second direction that is substantially perpendicular to the first direction to define a plurality of peaks and valleys, each peak being secured to a bottom of a bowl and each valley being secured to a top of a dome.
Dental implant abutment with an adhesive-bonding base containing a post, and with a superstructure body which can be plugged onto the post in the direction of a longitudinal axis (LA, LH), wherein an adhesive-bonding surface facing substantially radially outwards with respect to the longitudinal axis is formed on the post, and a mating adhesive-bonding surface forming an adhesive-bonding gap with a mean gap width when joined to the adhesive-bonding surface is formed on an inside wall of the superstructure body, characterized in that several centring elements (SE, ZE) angularly offset in relation to one another about the longitudinal axis are formed on the post and protrude radially beyond the adhesive-bonding surface.
An electroacoustic transducer array comprising: a first electroacoustic transducer comprising: a first active element and, a second electroacoustic transducer comprising: a second active element, wherein the electroacoustic transducer array comprises: an acoustic coupling layer arranged to acoustically couple, in use, the first active element and the second active element to a fluid transmission medium; a first cavity adjacent the first active element and further arranged between the first active element and the acoustic coupling layer to receive a first fluid; and a second cavity adjacent the second active element and further arranged between the second active element and the acoustic coupling layer to receive a second fluid; where in use, the first fluid and the second fluid comprises the fluid transmission medium, said fluid in said first and second cavity in fluid communication with said fluid transmission medium, wherein the acoustic coupling layer comprises an acoustic meta-material, having a periodic structure and an anti-reflective effect, whereby acoustic coupling of the electroacoustic transducer array and the transmission medium is improved. a first electroacoustic transducer comprising: a first active element and, a second electroacoustic transducer comprising: a second active element, wherein the electroacoustic transducer array comprises: an acoustic coupling layer arranged to acoustically couple, in use, the first active element and the second active element to a fluid transmission medium; a first cavity adjacent the first active element and further arranged between the first active element and the acoustic coupling layer to receive a first fluid; and a second cavity adjacent the second active element and further arranged between the second active element and the acoustic coupling layer to receive a second fluid; an acoustic coupling layer arranged to acoustically couple, in use, the first active element and the second active element to a fluid transmission medium; a first cavity adjacent the first active element and further arranged between the first active element and the acoustic coupling layer to receive a first fluid; and a second cavity adjacent the second active element and further arranged between the second active element and the acoustic coupling layer to receive a second fluid; where in use, the first fluid and the second fluid comprises the fluid transmission medium, said fluid in said first and second cavity in fluid communication with said fluid transmission medium, wherein the acoustic coupling layer comprises an acoustic meta-material, having a periodic structure and an anti-reflective effect, whereby acoustic coupling of the electroacoustic transducer array and the transmission medium is improved.
A method of operating a wind turbine yaw assembly comprising a yaw ring and a number of yaw drive units, wherein a yaw drive unit comprises a pinion arranged to engage with the yaw ring, which method is characterized by the steps of - identifying a damaged tooth (20 F, 20 X) on the yaw ring; - providing damage descriptor parameters (D 20F, D 20X) to the yaw drive controller; and - controlling a yaw drive unit on the basis of the damage descriptor parameters (D 20F, D 20X) to reduce the force exerted by its pinion on a damaged tooth (20 F, 20x). - identifying a damaged tooth (20 F, 20 X) on the yaw ring; - providing damage descriptor parameters (D 20F, D 20X) to the yaw drive controller; and - controlling a yaw drive unit on the basis of the damage descriptor parameters (D 20F, D 20X) to reduce the force exerted by its pinion on a damaged tooth (20 F, 20x).
An automated external defibrillator, comprising: a self-test circuit operable to automatically and periodically test the automated external defibrillator and further operable to generate both a base status signal indicative of an operational readiness of the automated external defibrillator and a test status signal indicative of self-test information of the automated external defibrillator; an encoder operably connected to the self-test circuit and operable to combine the base status signal and the test status signal into a single encoded status signal; and an encoded status indicator in communication with the encoder, operable to visually display the single encoded status signal, wherein the portion of the displayed single encoded status signal representing the base status signal is arranged to be human perceivable, and wherein the portion of the displayed single encoded status signal representing the test status signal is arranged to be machine readable and characterised in that the portion of the displayed single encoded status signal representing the test status signal is arranged to be unperceivable to the human eye. a self-test circuit operable to automatically and periodically test the automated external defibrillator and further operable to generate both a base status signal indicative of an operational readiness of the automated external defibrillator and a test status signal indicative of self-test information of the automated external defibrillator; an encoder operably connected to the self-test circuit and operable to combine the base status signal and the test status signal into a single encoded status signal; and an encoded status indicator in communication with the encoder, operable to visually display the single encoded status signal, wherein the portion of the displayed single encoded status signal representing the base status signal is arranged to be human perceivable, and wherein the portion of the displayed single encoded status signal representing the test status signal is arranged to be machine readable and wherein the portion of the displayed single encoded status signal representing the base status signal is arranged to be human perceivable, and wherein the portion of the displayed single encoded status signal representing the test status signal is arranged to be machine readable and characterised in that the portion of the displayed single encoded status signal representing the test status signal is arranged to be unperceivable to the human eye.
A gas turbine engine component comprising: a blade outer air seal having an impingement cavity; and a filter (86; 86') mounted adjacent said impingement cavity and having a perforated area; said impingement cavity including an cooling channel inlet area having a multitude of inlets which communicate with a plurality of cooling channels to receive a secondary cooling airflow; characterized in that, said filter (86;86') is mounted over said multitude of inlets; and said perforated area being significantly larger than said cooling channel inlet area. a blade outer air seal having an impingement cavity; and a filter (86; 86') mounted adjacent said impingement cavity and having a perforated area; said impingement cavity including an cooling channel inlet area having a multitude of inlets which communicate with a plurality of cooling channels to receive a secondary cooling airflow; characterized in that, said filter (86;86') is mounted over said multitude of inlets; and said perforated area being significantly larger than said cooling channel inlet area.
A build box system for a 3D printer, comprising: a build box having a sidewall structure and a build platform received within the sidewall structure, wherein the sidewall structure defines an upwardly open build box interior for building a component in 3D printing, the build box interior being downwardly defined by the build platform; and a support structure, comprising its own drive, integrated into the support structure, and to which the build box can be detachably attached, so that the build box can be repeatedly removed from the support structure after the construction of the component in the build box interior and subsequently reattached to the support structure, wherein the drive that is integrated into the support structure comprises a lifting drive for adjusting the height of the build platform, which is configured to change the height of the build platform of the build box when the build box is attached to the support structure, characterized in that, when the build box is attached to the support structure, the lifting drive is arranged outside the sidewall structure of the build box, in a top view of the build box system next to the build box, adjacent to the sidewall structure of the build box and/or adjacent to at least one sidewall (58a, 58b) of the support structure. a build box having a sidewall structure and a build platform received within the sidewall structure, wherein the sidewall structure defines an upwardly open build box interior for building a component in 3D printing, the build box interior being downwardly defined by the build platform; and a support structure, comprising its own drive, integrated into the support structure, and to which the build box can be detachably attached, so that the build box can be repeatedly removed from the support structure after the construction of the component in the build box interior and subsequently reattached to the support structure, wherein the drive that is integrated into the support structure comprises a lifting drive for adjusting the height of the build platform, which is configured to change the height of the build platform of the build box when the build box is attached to the support structure, characterized in that, when the build box is attached to the support structure, the lifting drive is arranged outside the sidewall structure of the build box, in a top view of the build box system next to the build box, adjacent to the sidewall structure of the build box and/or adjacent to at least one sidewall (58a, 58b) of the support structure.
A device for switching an electrical signal, controlled by an optical wave and having an on state and an off state, which can be inserted into a microwave transmission line, said device comprising a semiconductor substrate (20, 21) on which two conductive tracks (32, 33) are formed, these tracks being separated by a gap providing electrical insulation between the two tracks and each being connected to an input port and an output port (36, 37), said conductive tracks (32,33) ending at said gap, the width of the conductive tracks (32, 33) decreasing from the input and output ports (36, 37) to said gap, in the on state the electrical contact between the two tracks being established by illuminating the substrate in the region of the gap by means of the optical wave, characterized in that the geometry of said conductive tracks (32, 33) is defined so that the input impedance and the output impedance of said switching device created by the illumination of said zone are matched to the impedance of said transmission line, said input impedance and said output impedance are mismatched to said transmission line in the absence of illumination of said zone.
A viral vector comprising a DUX4 nucleic acid decoy for use in a method for the treatment of FSHD, wherein the DUX4 nucleic acid decoy comprises one or more DUX4 binding sites.
Cooking appliance with a housing, in which a cooking chamber is configured, and with a door for closing the cooking chamber, wherein the door is arranged on the housing in a pivotable manner and is able to be lowered into a storage space in the housing, and with a drive unit with a motor, by means of which the movement of the door can be brought about automatically, characterised in that the drive unit has a cable pull device, which is coupled to the motor and the door, wherein it is possible for the movement of the door to be brought about as a function of a motorised actuation of the cable pull device, wherein the movement path of the door, which is brought about automatically by means of the drive unit, is only part of the complete movement path between a closed position of the door and a fully opened position of the door, and wherein a movement path of the door, which is not brought about by the drive unit, extends between the closed position of the door and the start of the partial path.
A method for measuring a runtime in a compiled computer program, comprising the following steps: patching at least a first watchpoint and a second watchpoint into a compiled computer program at respective first and second code locations, wherein said compiled computer program is a control program for controlling a programmable logic controller unit; wherein said first watchpoint and said second watchpoint are patched into said compiled computer program such that a code portion of said compiled computer program is replaced with a substitution code; running said compiled computer program on the programmable logic controller unit; measuring a first time parameter (t 1) at said first watchpoint; measuring a second time parameter (t 2) at said second watchpoint; determining a runtime of at least a function of said compiled computer program in terms of said second time parameter (t 2) and said first time parameter (t 1); and varying said first code location and varying said second code location in accordance with a selected function of said compiled computer program; wherein running said compiled computer program comprises running repeatedly a plurality of code cycles of said compiled computer program, and determining a first runtime of a first function of said compiled computer program in a first subset of said plurality of code cycles, and determining a second runtime of a second function of said compiled computer program in a second subset of said plurality of code cycles different from said first subset of code cycles. patching at least a first watchpoint and a second watchpoint into a compiled computer program at respective first and second code locations, wherein said compiled computer program is a control program for controlling a programmable logic controller unit; wherein said first watchpoint and said second watchpoint are patched into said compiled computer program such that a code portion of said compiled computer program is replaced with a substitution code; running said compiled computer program on the programmable logic controller unit; measuring a first time parameter (t 1) at said first watchpoint; measuring a second time parameter (t 2) at said second watchpoint; determining a runtime of at least a function of said compiled computer program in terms of said second time parameter (t 2) and said first time parameter (t 1); and varying said first code location and varying said second code location in accordance with a selected function of said compiled computer program; wherein running said compiled computer program comprises running repeatedly a plurality of code cycles of said compiled computer program, and determining a first runtime of a first function of said compiled computer program in a first subset of said plurality of code cycles, and determining a second runtime of a second function of said compiled computer program in a second subset of said plurality of code cycles different from said first subset of code cycles.
A methylene bridged poly(cyclohexyl-aromatic)amine mixture containing 3 ring and higher ring components, represented by the formulas: wherein R is hydrogen or methyl, x is 1-13, y is 1-13, z is 1-13, the sum of x, y and z is from 3 to 15, p is 0-14, q is 0-14, the sum of p and q is from 1-14, r is 0-14, s is 0-14, the sum of r and s is from 1-14, u is 0-14, v is 0-14, the sum of u and v is 1-14, and the total number of rings is between 3 and 15 and 15-40 % of said mixture is non-elutable as determined by gas chromatography at a 300 °C injector temperature.
An implant comprising: a cuff defining an opening configured to receive a cannula coupled to a heart pump (250; 750); a coupling mechanism having a first position and a second position, the cuff being uncoupled from the cannula in the first position and the coupling mechanism coupling the cuff to the cannula in the second position; and a locking mechanism configured to secure the coupling mechanism in the second position, wherein the locking mechanism is configured to be moved to a locked position after the coupling mechanism is in the second position; wherein the coupling mechanism includes an attachment member coupled about the opening of the cuff; and characterized in that the attachment member has one or more flanged portions that extend outward from the opening, and wherein the locking mechanism includes a clip (200; 700) configured to engage the one or more flanged portions to limit movement of the cuff relative to the cannula when the locking mechanism is in the locked position. a cuff defining an opening configured to receive a cannula coupled to a heart pump (250; 750); a coupling mechanism having a first position and a second position, the cuff being uncoupled from the cannula in the first position and the coupling mechanism coupling the cuff to the cannula in the second position; and a locking mechanism configured to secure the coupling mechanism in the second position, wherein the locking mechanism is configured to be moved to a locked position after the coupling mechanism is in the second position; wherein the coupling mechanism includes an attachment member coupled about the opening of the cuff; and characterized in that the attachment member has one or more flanged portions that extend outward from the opening, and wherein the locking mechanism includes a clip (200; 700) configured to engage the one or more flanged portions to limit movement of the cuff relative to the cannula when the locking mechanism is in the locked position.
A tamping machine for tamping sleepers of a track, including a machine frame, supported on two on-track undercarriages and extending in a longitudinal direction of the machine, and an assembly frame arranged between the on-track undercarriages which is mobile on the track via an undercarriage and connected to the machine frame for longitudinal displacement via a frame support and has - between the undercarriage and the frame support - a vertically adjustable tamping unit as well as a track lifting unit, characterized in that the assembly frame is rotatable relative to the machine frame about a supporting axle extending in the longitudinal direction of the machine.
A system, comprising: a controller board configured to: receive a digital output signal from a contact image sensor; generate a light emitting diode control signal; direct the light emitting diode control signal to the contact image sensor, bypassing digital light emitting diode control circuitry that is included with the contact image sensor; and switch a light emitting diode in the contact image sensor on or off at times indicated by the light emitting diode control signal. receive a digital output signal from a contact image sensor; generate a light emitting diode control signal; direct the light emitting diode control signal to the contact image sensor, bypassing digital light emitting diode control circuitry that is included with the contact image sensor; and switch a light emitting diode in the contact image sensor on or off at times indicated by the light emitting diode control signal.