mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a display device, the method comprising: determining, at power on of the display device comprising a display, whether a flag of the display device is set to a default value, the default value indicating that the display device has not been turned on after manufacture, wherein the flag is set to the default value at time of manufacture, wherein the flag is also reset to the default value by a factory reset process of the display device, in response to determining that the flag of the display device is set to the default value, clearing, by the display device, the flag of the display device so that the flag is no longer set to the default value and displaying, by the display device, a message indicating that in a default power mode that is a current power mode of the display device, additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, and receiving input from a user indicating that a hardware component of the additional hardware is to remain powered on when the display device enters the low-power state; and in response to receiving the input, changing the current power mode of the display device from the default power mode, in which additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, to a non-default power mode (304, 306) in which the hardware component remains powered on when the display device enters the low-power state. determining, at power on of the display device comprising a display, whether a flag of the display device is set to a default value, the default value indicating that the display device has not been turned on after manufacture, wherein the flag is set to the default value at time of manufacture, wherein the flag is also reset to the default value by a factory reset process of the display device, in response to determining that the flag of the display device is set to the default value, clearing, by the display device, the flag of the display device so that the flag is no longer set to the default value and displaying, by the display device, a message indicating that in a default power mode that is a current power mode of the display device, additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, and receiving input from a user indicating that a hardware component of the additional hardware is to remain powered on when the display device enters the low-power state; and in response to receiving the input, changing the current power mode of the display device from the default power mode, in which additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, to a non-default power mode (304, 306) in which the hardware component remains powered on when the display device enters the low-power state.
A method for treating a material in a static magnetic field having an intensity of more than 1 Tesla, comprising the following steps: - a first step to heat the material, - a second step to apply a thermal shock and/or thermomechanical treatment and/or chemical treatment to the material, characterized in that, during at least said second treatment step, the material is subjected to said magnetic field while being held stationary within said magnetic field and in that to conduct the treatment steps, the heating means and the means for implementing the second step are moved relative to the magnetic field. - a first step to heat the material, - a second step to apply a thermal shock and/or thermomechanical treatment and/or chemical treatment to the material,
A graded barrier film arranged on a substrate comprising a layered structure, wherein said layered structure comprises: • a first layer consisting of a metal oxide; • a second layer consisting of a metal nitride or metal oxynitride which is arranged on said first layer; and • a third layer consisting of a metal oxide which is arranged on said second layer, wherein said first and said third layer have independently from each other a thickness between about 30 to 60 nm, • wherein said second layer has a thickness between about 1 nm to 5 nm, and • wherein the metal used in said layers is independently selected from the group consisting of metals from periodic groups 13 and 14. • a first layer consisting of a metal oxide; • a second layer consisting of a metal nitride or metal oxynitride which is arranged on said first layer; and • a third layer consisting of a metal oxide which is arranged on said second layer, wherein said first and said third layer have independently from each other a thickness between about 30 to 60 nm, • wherein said second layer has a thickness between about 1 nm to 5 nm, and • wherein the metal used in said layers is independently selected from the group consisting of metals from periodic groups 13 and 14.
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers of reinforcing elements (41, 43), a layer of rubber compound being arranged between at least the ends of said at least two working crown layers (41, 43), said crown reinforcement being capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, the tensile elastic modulus at 10% elongation of the layer being less than 8 MPa, the maximum value of tan(δ), denoted tan(δ) max, of the layer being less than 0.100, characterized in that said tread consists of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one longitudinally-oriented cut, in that the depth, measured on a new tyre in at least said central part, of said at least one longitudinally-oriented cut, is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D f) measured at the bottom of said at least one longitudinally-oriented cut to the width (d s) measured at the surface of the tread on a new tyre of said at least one longitudinally-oriented cut is greater than 2.
A cutting element (200; 300) comprising: a substrate (210; 306); and a diamond table (212; 304) having a first end and a second end, the first end of the diamond table (212; 304) affixed to the substrate (210; 306) at a first interface (214; 312), the second end of the diamond table (212; 304) comprising; a concave surface (202; 302); at least two concave indentations (216; 308), each of the at least two concave indentations (216; 308) intersecting the concave surface (202; 302) and extending radially outward from the concave surface (202; 302) to an outer diameter of the diamond table (212; 304); and at least two cutting edges (206; 310) at an interface (214; 312) between the concave surface (202; 302) and the outer diameter of the diamond table (212; 304); characterised in that the concave surface (202; 302) and the concave indentations (216; 308) each respectively define a portion of a sphere. a substrate (210; 306); and a diamond table (212; 304) having a first end and a second end, the first end of the diamond table (212; 304) affixed to the substrate (210; 306) at a first interface (214; 312), the second end of the diamond table (212; 304) comprising; a concave surface (202; 302); at least two concave indentations (216; 308), each of the at least two concave indentations (216; 308) intersecting the concave surface (202; 302) and extending radially outward from the concave surface (202; 302) to an outer diameter of the diamond table (212; 304); and at least two cutting edges (206; 310) at an interface (214; 312) between the concave surface (202; 302) and the outer diameter of the diamond table (212; 304); characterised in that the concave surface (202; 302) and the concave indentations (216; 308) each respectively define a portion of a sphere. diamond table (212; 304) affixed to the substrate (210; 306) at a first interface (214; 312), the second end of the diamond table (212; 304) comprising; a concave surface (202; 302); at least two concave indentations (216; 308), each of the at least two concave indentations (216; 308) intersecting the concave surface (202; 302) and extending radially outward from the concave surface (202; 302) to an outer diameter of the diamond table (212; 304); and at least two cutting edges (206; 310) at an interface (214; 312) between the concave surface (202; 302) and the outer diameter of the diamond table (212; 304); characterised in that the concave surface (202; 302) and the concave indentations (216; 308) each respectively define a portion of a sphere.
Household appliance comprising a control device including a ring that can rotate about an axis Δ, a push-button that can move along the axis Δ and that is arranged in the ring, a component for detecting an angular position of the ring provided with a rotatable shaft and a component for detecting a thrust applied to the push-button, said push-button including a support member that can be accessed by a user, a support surface that cooperates with the component for detecting a thrust applied to the push-button and an arm that connects the support member to the support surface, characterised in that said ring comprises a lug that extends radially along the axis Δ and that drives the shaft to rotate about the axis Δ and in that the push-button only moves in translation along the axis Δ, the lug and the arm being sized in order to obtain an angular stroke of the ring greater than 180°, preferably greater than 250°.
An extruded masterbatch composition comprising an aromatic polyester resin, a polyolefin, and a polyfunctional compound selected from the dianhydrides of tetracarboxylic aromatic and/or aliphatic acids, wherein the polyester resin and the polyfunctional compound are homogeneously dispersed as solids in a matrix formed by the polyolefin, said polyester resin and said polyfunctional compound being homogeneously dispersed in the polyolefin matrix as domains of average particle size less than 800μ.
A fuel cell comprising a cell forming member which is sandwiched between a pair of separators (50a, 50b) and which includes a power generating section including an electrolyte membrane joined between an anode and a cathode, and three manifolds (63-68, 52-57) which are formed, respectively, in the cell forming member and the separators at such a position that the manifolds confront one another, and which are arranged to allow inflow and outflow of an hydrogen containing gas and an oxygen containing gas separately from each other to the anode and cathode, characterized in that the manifold of the cell forming member is formed with an inflow preventing portion to prevent inflow of a liquid water remaining in the manifold of the cell forming member into a power generating portion of the power generating section of the cell forming member; the manifold of the cell forming member includes a bottom which is located on a lower side in a gravity direction and which includes an inner portion closer to the power generating portion and an outer portion remoter from the power generating portion than the inner portion; and the inflow preventing portion is formed by forming the inner portion of the bottom on an upper side in the gravity direction, of the outer portion of the bottom.
An optoelectronic component having - at least two connecters for electrical contacting of the component, - a housing body, in which the connecters are partially embedded, - a heat sink, which is connected mechanically solid to at least one of the connecters, wherein - the heat sink extends in a first plane, - the housing body is formed of a plastics material, - the housing body comprises an opening, in which the heat sink is freely accessible in places, - at least one optoelectronic semiconductor chip is arranged in the opening on the heat sink, and - at least two of the connecters each comprise a chip-end portion, which faces the at least one optoelectronic semiconductor chip, wherein the chip-end portions of at least two of the connecters are arranged vertically above and at least partially overlapping with the heat sink in a common second plane, wherein the second plane is different from the first plane and wherein the heat sink comprises: - a top face, on which the at least one optoelectronic semiconductor chip is placed, - a bottom face, remote from the top face, and - a side face, which connects together the top face and the bottom face, wherein the side face is free of the plastics material of the housing body. - at least two connecters for electrical contacting of the component, - a housing body, in which the connecters are partially embedded, - a heat sink, which is connected mechanically solid to at least one of the connecters, wherein - the heat sink extends in a first plane, - the housing body is formed of a plastics material, - the housing body comprises an opening, in which the heat sink is freely accessible in places, - at least one optoelectronic semiconductor chip is arranged in the opening on the heat sink, and - at least two of the connecters each comprise a chip-end portion, which faces the at least one optoelectronic semiconductor chip, wherein the chip-end portions of at least two of the connecters are arranged vertically above and at least partially overlapping with the heat sink in a common second plane, wherein the second plane is different from the first plane and wherein the heat sink comprises: - a top face, on which the at least one optoelectronic semiconductor chip is placed, - a bottom face, remote from the top face, and - a side face, which connects together the top face and the bottom face, wherein the side face is free of the plastics material of the housing body.
A device for improving cardiac function, comprising: a frame construction comprising a support frame, said frame construction being movable from a collapsed state, to allow the frame construction to be fed through a tubular passage into a heart, to an expanded state wherein the frame construction has a cross-dimension for approximating a cross-dimension of a ventricular cavity; at least one anchor formation connected to the frame construction, the anchor formation having at least one anchoring portion that is positioned and capable of anchoring to tissue of a myocardium of the heart, and so anchor the frame construction in an installed position to the myocardium; and a membrane that is moveable from a folded condition, to allow it to be fed through the tubular passage into the heart, to an unfolded condition in which it has an area substantially larger than a cross-sectional area of the tubular passage, said membrane being secured to the frame construction in a position to enable it to substantially form a division between volumes of the ventricular cavity on opposing sides of the membrane when the frame construction is in the installed position, wherein the support frame is sufficiently strong to support the membrane and prevent it from collapsing during peak systolic pressures of at least 60 mmHg. a frame construction comprising a support frame, said frame construction being movable from a collapsed state, to allow the frame construction to be fed through a tubular passage into a heart, to an expanded state wherein the frame construction has a cross-dimension for approximating a cross-dimension of a ventricular cavity; at least one anchor formation connected to the frame construction, the anchor formation having at least one anchoring portion that is positioned and capable of anchoring to tissue of a myocardium of the heart, and so anchor the frame construction in an installed position to the myocardium; and a membrane that is moveable from a folded condition, to allow it to be fed through the tubular passage into the heart, to an unfolded condition in which it has an area substantially larger than a cross-sectional area of the tubular passage, said membrane being secured to the frame construction in a position to enable it to substantially form a division between volumes of the ventricular cavity on opposing sides of the membrane when the frame construction is in the installed position, wherein the support frame is sufficiently strong to support the membrane and prevent it from collapsing during peak systolic pressures of at least 60 mmHg.
A compound having the structure of Formula, or a pharmaceutically acceptable salt thereof, wherein, A is N or C-R, wherein R is hydrogen or optionally substituted alkyl; W 1 and W 2 are independently chosen from N, C-H, or C-F; X is hydrogen, halogen, optionally substituted alkyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclylalkyl, optionally substituted aralkyl, optionally substituted heteroarylalkyl, optionally substituted alkyne, optionally substituted carbocyclylalkynyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is optionally substituted alkyl, optionally substituted cycloalkylalkyl, heterocyclylalkyl or aralkyl; and Z is an optionally substituted group chosen from N -heterocyclyl, -O-heterocyclylalkyl, -N -heterocyclylalkyl, or -N(Me)-heterocyclylalkyl; and wherein if Z is an optionally substituted heterocyclylalkyl group selected from -O-heterocyclylalkyl, -N -heterocyclylalkyl or - N(Me)- heterocyclylalkyl, then heterocyclylalkyl group has the formula -R c -heterocyclyl, wherein R c is an optionally substituted C 1 -C 3 alkylene chain and the heterocyclyl is an optionally substituted nitrogen-containing 5-membered heterocyclyl. A is N or C-R, wherein R is hydrogen or optionally substituted alkyl; W 1 and W 2 are independently chosen from N, C-H, or C-F; X is hydrogen, halogen, optionally substituted alkyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclylalkyl, optionally substituted aralkyl, optionally substituted heteroarylalkyl, optionally substituted alkyne, optionally substituted carbocyclylalkynyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is optionally substituted alkyl, optionally substituted cycloalkylalkyl, heterocyclylalkyl or aralkyl; and Z is an optionally substituted group chosen from N -heterocyclyl, -O-heterocyclylalkyl, -N -heterocyclylalkyl, or -N(Me)-heterocyclylalkyl; and wherein if Z is an optionally substituted heterocyclylalkyl group selected from -O-heterocyclylalkyl, -N -heterocyclylalkyl or - N(Me)- heterocyclylalkyl, then heterocyclylalkyl group has the formula -R c -heterocyclyl, wherein R c is an optionally substituted C 1 -C 3 alkylene chain and the heterocyclyl is an optionally substituted nitrogen-containing 5-membered heterocyclyl.
A crystalline form of 40- O -(2-ethoxyethyl) rapamycin, wherein the X-ray powder diffraction pattern thereof shows one or more diffraction peaks at the angles (2θ) selected from the group consisting of 5.00°, 7.06°, 9.22°, 10.07°, 10.50°, 11.94°, 12.71°, 13.15°, 14.73°, 16.33°, 16.80°, 17.07°, 18.01°, 18.57°, 19.42°, 19.81°, 20.16°, 20.44°, 20.93°, 21.55°, 22.29°, 22.58°, 23.92°, 24.26°, 24.83°, 25.17°, 26.32°, 27.48°, 28.60°, and 32.28°; or 10 or more diffraction peaks at the angles (2θ) selected from the group consisting of 5.00°, 7.06°, 9.22°, 10.07°, 10.50°, 11.94°, 12.71°, 13.15°, 14.73°, 16.33°, 16.80°, 17.07°, 18.01°, 18.57°, 19.42°, 19.81°, 20.16°, 20.44°, 20.93°, 21.55°, 22.29°, 22.58°, 23.92°, 24.26°, 24.83°, 25.17°, 26.32°, 27.48°, 28.60°, and 32.28°; or 25 or more diffraction peaks at the angles (2θ) selected from the group consisting of 5.00°, 7.06°, 9.22°, 10.07°, 10.50°, 11.94°, 12.71°, 13.15°, 14.73°, 16.33°, 16.80°, 17.07°, 18.01°, 18.57°, 19.42°, 19.81°, 20.16°, 20.44°, 20.93°, 21.55°, 22.29°, 22.58°, 23.92°, 24.26°, 24.83°, 25.17°, 26.32°, 27.48°, 28.60°, and 32.28°; or wherein the X-ray power diffraction pattern thereof is substantially in accordance with that shown in Figure 5; or wherein the infrared spectrum thereof shows one or more peaks at the wavenumbers selected from the group consisting of 2967.1 cm -1, 2931.7 cm -1, 2863.3 cm -1, 1745.9 cm -1, 1718.8 cm -1, 1645.7 cm -1, 1619.0 cm -1, 1451.2 cm -1, 1378.2 cm -1, 1189.4 cm -1, 1073.9 cm -1, and 988.1 cm -1; or five or more peaks at the wavenumbers selected from the group consisting of 2967.1 cm -1, 2931.7 cm -1, 2863.3 cm -1, 1745.9 cm -1, 1718.8 cm -1, 1645.7 cm -1, 1619.0 cm -1, 1451.2 cm -1, 1378.2 cm -1, 1189.4 cm -1, 1073.9 cm -1, and 988.1 cm -1; or ten or more peaks at the wavenumbers selected from the group consisting of 2967.1 cm -1, 2931.7 cm -1, 2863.3 cm -1, 1745.9 cm -1, 1718.8 cm -1, 1645.7 cm -1, 1619.0 cm -1, 1451.2 cm -1, 1378.2 cm -1, 1189.4 cm -1, 1073.9 cm -1, and 988.1 cm -1; or wherein the infrared spectrum is substantially in accordance with that shown in Figure 12.
A propeller blade comprising: an inner spar structure surrounding an inner spar foam core; a leading edge foam structure disposed proximate a leading edge of the inner spar structure; a trailing edge foam structure disposed proximate a trailing edge of the inner spar structure; an outer spar structure surrounding the inner spar structure, the leading edge foam structure and the trailing edge foam structure; a blade shell; a leading edge foam core located between the outer spar structure and the blade shell; and a trailing edge foam core located between the outer spar structure and the blade shell. an inner spar structure surrounding an inner spar foam core; a leading edge foam structure disposed proximate a leading edge of the inner spar structure; a trailing edge foam structure disposed proximate a trailing edge of the inner spar structure; an outer spar structure surrounding the inner spar structure, the leading edge foam structure and the trailing edge foam structure; a blade shell; a leading edge foam core located between the outer spar structure and the blade shell; and a trailing edge foam core located between the outer spar structure and the blade shell.
A thermally stable electrospun barrier comprising: at least two independent fiber populations; a major fiber component of said barrier comprising at least one thermally unstable fiber population; a minor fiber component of said barrier comprising at least one thermally stable fiber population; wherein the major and minor fiber components of said barrier are co-mingled and distributed throughout the electrospun barrier; wherein each fiber population is not a composite fiber wherein the individual fiber comprises nonstable and stabilizing elements and is dispensed from a spinneret separate from the spinneret of another fiber population; wherein said electrospun barrier does not decrease in size more than 10% at temperatures of 30 °C to 60 °C; wherein the electrospun barrier forms at least a portion of an implantable material; and wherein the electrospun barrier exhibits limited macroscopic changes in physical and mechanical properties when exposed to thermal or mechanical stress. at least two independent fiber populations; a major fiber component of said barrier comprising at least one thermally unstable fiber population; a minor fiber component of said barrier comprising at least one thermally stable fiber population; wherein the major and minor fiber components of said barrier are co-mingled and distributed throughout the electrospun barrier; wherein each fiber population is not a composite fiber wherein the individual fiber comprises nonstable and stabilizing elements and is dispensed from a spinneret separate from the spinneret of another fiber population; wherein said electrospun barrier does not decrease in size more than 10% at temperatures of 30 °C to 60 °C; wherein the electrospun barrier forms at least a portion of an implantable material; and wherein the electrospun barrier exhibits limited macroscopic changes in physical and mechanical properties when exposed to thermal or mechanical stress.