mhurhangee/ep-ind-claims huggingface dataset:
An aircraft wing skin comprising a span-wise primary axis of loading, comprising: a plurality of resin plies each reinforced with unidirectional fibers, and including cross-plies (64b, 64c) having fiber orientations optimized to resist bending and torsional loads along the primary axis of loading, wherein the plurality of resin plies includes: at least one resin ply reinforced with unidirectional fibers having a substantially 0 degree fiber orientation relative to the primary axis of loading, at least one resin ply reinforced with unidirectional fibers having a substantially 90 degree fiber orientation relative to the primary axis of loading, and the cross-plies (64b, 64c) each having ±θ degree fiber orientations relative to the primary axis of loading, where θ is within a range of approximately 10 degrees and 43 degrees, wherein: the optimized orientations vary in a span-wise direction along the length of the aircraft wing skin; and the θ degree fiber orientations of the cross-plies (64b, 64c) vary along the primary axis of loading. a plurality of resin plies each reinforced with unidirectional fibers, and including cross-plies (64b, 64c) having fiber orientations optimized to resist bending and torsional loads along the primary axis of loading, wherein the plurality of resin plies includes: at least one resin ply reinforced with unidirectional fibers having a substantially 0 degree fiber orientation relative to the primary axis of loading, at least one resin ply reinforced with unidirectional fibers having a substantially 90 degree fiber orientation relative to the primary axis of loading, and the cross-plies (64b, 64c) each having ±θ degree fiber orientations relative to the primary axis of loading, where θ is within a range of approximately 10 degrees and 43 degrees, at least one resin ply reinforced with unidirectional fibers having a substantially 0 degree fiber orientation relative to the primary axis of loading, at least one resin ply reinforced with unidirectional fibers having a substantially 90 degree fiber orientation relative to the primary axis of loading, and the cross-plies (64b, 64c) each having ±θ degree fiber orientations relative to the primary axis of loading, where θ is within a range of approximately 10 degrees and 43 degrees, wherein: the optimized orientations vary in a span-wise direction along the length of the aircraft wing skin; and the θ degree fiber orientations of the cross-plies (64b, 64c) vary along the primary axis of loading. the optimized orientations vary in a span-wise direction along the length of the aircraft wing skin; and the θ degree fiber orientations of the cross-plies (64b, 64c) vary along the primary axis of loading.
A structure, adapted for extracting water from air, comprising an absorbing part and a desorbing part, wherein said absorbing part comprises a surface whereon a thin layer of a flowing hygroscopic liquid is arranged, whereby in use the hygroscopic liquid is in direct contact with air and thereby absorbs water vapor from air to form a water-enriched hygroscopic liquid; said desorbing part comprises a layered sandwich-like structure to separate water from said water-enriched hygroscopic liquid, wherein said regenerated hygroscopic liquid flows back for reuse in the next water absorption cycle, wherein said layered sandwich-like structure comprises a) a first sheet or layer (10, 11; 31), comprising a heater or being heatable by solar radiation impinging on an illuminated side thereof, to a temperature above the environment's temperature; characterised in that said layered sandwich-like structure further comprises: b) a space or layer receiving said water-enriched hygroscopic liquid and being filled with porous or filamentary material, which allows the flow and an even distribution of the water-enriched hygroscopic liquid along the first sheet or layer; c) a layer (12, 13; 33) of material, being permeable to water molecules and impermeable to the water-enriched hygroscopic liquid, said layer of material allowing the passage of water molecules into a small space, from which it is recovered in liquid form; d) a second sheet or layer (17; 34), being coolable by air movement to a temperature lower than the temperature of the first sheet or layer, allowing recovering of water in liquid form. a) a first sheet or layer (10, 11; 31), comprising a heater or being heatable by solar radiation impinging on an illuminated side thereof, to a temperature above the environment's temperature; b) a space or layer receiving said water-enriched hygroscopic liquid and being filled with porous or filamentary material, which allows the flow and an even distribution of the water-enriched hygroscopic liquid along the first sheet or layer; c) a layer (12, 13; 33) of material, being permeable to water molecules and impermeable to the water-enriched hygroscopic liquid, said layer of material allowing the passage of water molecules into a small space, from which it is recovered in liquid form; d) a second sheet or layer (17; 34), being coolable by air movement to a temperature lower than the temperature of the first sheet or layer, allowing recovering of water in liquid form.
Detection device of a sample to be examined, comprising a processing module, a detecting module, connected to said processing module, a support, in which said sample to be examined can be placed, said support comprising a plurality of sensors, preferably biosensors and/or nanosensors, and being insertable within said detecting module, and a containment enclosure comprising a body, which is arranged within said processing module, and a sensor portion, in which said detecting module is arranged, said processing module comprising a processing unit having a plurality of processing channels and a processor, each one of said processing channels being connected to one respective of said sensors and being adapted to amplify and to filter the signals of said sensors, said processor processing said signals amplified and filtered by said processing channels, said detection device being characterized in that said processing module is placed in said body of said containment enclosure, is provided with a printed circuit board, on which an input connector is arranged, said input connector being provided with a plurality of terminals, preferably spring type, and whereby said processing unit comprises an output connector, preferably USB type, connected to said processor, for the connection to a personal computer or processor, said containment enclosure preferably being made of conductive material, such as metal or the like, and in that said sensor module comprises a base, arranged partially below said printed circuit board, whereby a guide, into which said support is insertable, is provided on said base in correspondence with said input connector, and said sensor module further comprising a blocking element, which together with the base, forms a housing, into which said input connector is placed.
A method for communicating with a wireless transmit/receive unit, WTRU, during a soft handover process, the method comprising: transmitting scheduling information to the WTRU via a cell served by a primary Node-B and not via a cell served by a non-primary Node-B; receiving, via the cell served by the primary Node-B and the cell served by the non-primary Node-B, enhanced uplink data from the WTRU; transmitting hybrid automatic repeat request, HARQ, acknowledgements, ACKs, to the WTRU via the cell served by the primary Node-B; and transmitting HARQ negative acknowledgements, NACKs, to the WTRU via the cell served by the primary Node-B and not via the cell served by the non-primary Node-B. transmitting scheduling information to the WTRU via a cell served by a primary Node-B and not via a cell served by a non-primary Node-B; receiving, via the cell served by the primary Node-B and the cell served by the non-primary Node-B, enhanced uplink data from the WTRU; transmitting hybrid automatic repeat request, HARQ, acknowledgements, ACKs, to the WTRU via the cell served by the primary Node-B; and transmitting HARQ negative acknowledgements, NACKs, to the WTRU via the cell served by the primary Node-B and not via the cell served by the non-primary Node-B.
An electronic device comprising: a display; and a processor configured to display an application bar including at least one object through a first area of the display, display an execution screen through a second area of the display, and change the displayed application bar and the displayed execution screen, in response to a first user input received through the first area; wherein the processor is further configured to identify a second user input moving an object selected from the second area to a target object displayed in the first area, and share the selected object with a device corresponding to the target object in response to the second user input. a display; and a processor configured to display an application bar including at least one object through a first area of the display, display an execution screen through a second area of the display, and change the displayed application bar and the displayed execution screen, in response to a first user input received through the first area; wherein the processor is further configured to identify a second user input moving an object selected from the second area to a target object displayed in the first area, and share the selected object with a device corresponding to the target object in response to the second user input.
In a computing environment, a computer-implemented method of debugging a target process, the method comprising: generating a lightweight process snapshot of a target process, the lightweight process snapshot being a copy of the target process created without creating a full trace of the target process's execution or memory, wherein the lightweight process snapshot comprises a virtual memory that is initially identical to a virtual memory of the target process and that points to physical memory pages in use by the target process when the snapshot is created; and performing function evaluations within the lightweight process snapshot. generating a lightweight process snapshot of a target process, the lightweight process snapshot being a copy of the target process created without creating a full trace of the target process's execution or memory, wherein the lightweight process snapshot comprises a virtual memory that is initially identical to a virtual memory of the target process and that points to physical memory pages in use by the target process when the snapshot is created; and performing function evaluations within the lightweight process snapshot.
A sanitary towel for personal use comprising at least one top layer of non-woven fabric, at least one bottom layer of waterproof material and at least one core layer of an absorbing material included between said top layer and said bottom layer, characterized in that said absorbing material forming said core layer consists of a calendered absorbing material made of cotton, whose fibres are aligned in a same direction.
Charging device for the wireless charging of electrical energy into a portable device, wherein the charging device comprises a charging unit with a support surface and with charging electronics, and a separate device carrier with a contour for holding the portable device, wherein the charging unit has a fan and is arranged for generating an air flow by means of the fan, characterised in that the loading unit is set up to guide air along an outer side of the support surface, the device carrier having a ferromagnetic element on its underside, which in a magnetic coupling state of the equipment carrier with holding magnets of the loading unit faces towards the support surface, so that the air flow flows around the ferromagnetic element, and/or is set up to guide air along an inner side of the support surface and along the holding magnets, which project into an interior space of the loading unit, so that the air flow flows around the holding magnets.
A display apparatus comprising: a broadcast receiving unit which receives a broadcast signal and broadcast information; a display unit including a screen which displays a broadcast image which corresponds to the broadcast signal; and a controlling unit which, in response to receiving a user inputted command to perform an application-related function, performs a function which displays an application list which consists of applications related to the broadcast information of a broadcast image which is currently being displayed on the display unit; the controlling unit is configured to determine whether the broadcast image which is currently being displayed on the display unit is a broadcast program or an advertisement, and either controls the display unit to display the application list on a partial area of the screen if the broadcast image is a broadcast program or controls the display unit to display the application list on an entire area of the screen if the broadcast image is an advertisement. a broadcast receiving unit which receives a broadcast signal and broadcast information; a display unit including a screen which displays a broadcast image which corresponds to the broadcast signal; and a controlling unit which, in response to receiving a user inputted command to perform an application-related function, performs a function which displays an application list which consists of applications related to the broadcast information of a broadcast image which is currently being displayed on the display unit; the controlling unit is configured to determine whether the broadcast image which is currently being displayed on the display unit is a broadcast program or an advertisement, and either controls the display unit to display the application list on a partial area of the screen if the broadcast image is a broadcast program or controls the display unit to display the application list on an entire area of the screen if the broadcast image is an advertisement.
A tire comprising a tread part, the tread part comprising at least one rubber layer of a rubber composition comprising a rubber component and a thermoplastic elastomer, wherein a ratio (W T /W L) of a tire weight W T (kg) to a maximum load capacity W L (kg) of the tire is 0.0176 or less, and wherein, in a dynamic viscoelasticity test which is a temperature-dependent measurement at 10 Hz in accordance with JIS K 6394, the thermoplastic elastomer exhibits a tan δ peak value in a range of -20°C to 20°C, and the peak value is 1.00 or more, wherein the maximum load capacity W L (kg) is a value calculated by the following equations and, where W (mm) is a tire cross-sectional width, Ht (mm) is a tire cross-sectional height, and Dt (mm) is a tire outer diameter when the tire is filled with air at a pressure of 250 kPa, V = Dt / 2 ∧ 2 − Dt / 2 − Ht ∧ 2 × π × W W L = 0.000011 × V + 100 the tread part comprising at least one rubber layer of a rubber composition comprising a rubber component and a thermoplastic elastomer, wherein a ratio (W T /W L) of a tire weight W T (kg) to a maximum load capacity W L (kg) of the tire is 0.0176 or less, and wherein, in a dynamic viscoelasticity test which is a temperature-dependent measurement at 10 Hz in accordance with JIS K 6394, the thermoplastic elastomer exhibits a tan δ peak value in a range of -20°C to 20°C, and the peak value is 1.00 or more, wherein the maximum load capacity W L (kg) is a value calculated by the following equations and, where W (mm) is a tire cross-sectional width, Ht (mm) is a tire cross-sectional height, and Dt (mm) is a tire outer diameter when the tire is filled with air at a pressure of 250 kPa, V = Dt / 2 ∧ 2 − Dt / 2 − Ht ∧ 2 × π × W W L = 0.000011 × V + 100
A medical implant comprising a plurality of biocomposite layers (306, 308, 310), said biocomposite comprising a polymer and a plurality of continuous reinforcement fibers, such that each layer (306, 308, 310) comprises said biocomposite, wherein said fibers are uni-directionally aligned within each layer (306, 308, 310), wherein a diameter of said fibers is in a range of 0.1-100 μm, wherein said implant is bioabsorbable and said polymer is biodegradable; wherein a distance between layers (306, 308, 310), as determined by a distance between a last fiber in one layer and a first fiber in an adjacent layer, is between 0-60 μm.
A manufacturing method of a semiconductor device having a junction field effect transistor formed on a main surface of a semiconductor substrate of a first conductivity type, comprising: (a) a step of forming a drift layer of the first conductivity type on the semiconductor substrate; (b) a step of forming a source layer of the first conductivity type on a surface of the drift layer by doping the drift layer with first impurities; (c) after the step (b), a step of forming a plurality of trenches disposed at predetermined intervals in the surface of the drift layer by etching the surface of the drift layer with a first insulating film formed on the drift layer used as a mask; (d) after the step (c), a step of forming a dope layer of the first conductivity type in the drift layer below each of the plurality of trenches by doping the drift layer below each of the plurality of trenches with second impurities by performing a vertical ion implantation method; (e) after the step (d), a step of forming a sidewall spacer made of a second insulating film on each sidewall of the first insulating film and the trenches; and (f) after the step (e), a step of forming a gate layer of a second conductivity type in the dope layer formed in the drift layer below each of the plurality of trenches by doping to the dope layer with third impurities by performing a vertical ion implantation method and by using the first insulating film and the sidewall spacer as masks. (a) a step of forming a drift layer of the first conductivity type on the semiconductor substrate; (b) a step of forming a source layer of the first conductivity type on a surface of the drift layer by doping the drift layer with first impurities; (c) after the step (b), a step of forming a plurality of trenches disposed at predetermined intervals in the surface of the drift layer by etching the surface of the drift layer with a first insulating film formed on the drift layer used as a mask; (d) after the step (c), a step of forming a dope layer of the first conductivity type in the drift layer below each of the plurality of trenches by doping the drift layer below each of the plurality of trenches with second impurities by performing a vertical ion implantation method; (e) after the step (d), a step of forming a sidewall spacer made of a second insulating film on each sidewall of the first insulating film and the trenches; and (f) after the step (e), a step of forming a gate layer of a second conductivity type in the dope layer formed in the drift layer below each of the plurality of trenches by doping to the dope layer with third impurities by performing a vertical ion implantation method and by using the first insulating film and the sidewall spacer as masks.
Method of forming an image having an improved depth of field, the method comprising the steps of: simultaneously exposing an image sensor of an imaging system to radiation from an infrared part of the electromagnetic spectrum using a first aperture and to radiation from a visible part of the spectrum using a second aperture, the second aperture having a larger size than the first aperture, the first and second aperture being configured to increase the depth of field of the imaging system; forming one image on the basis of first image data generated by the radiation from the infrared part of the spectrum and second image data generated by radiation from the visible part of the spectrum characterized by blending high frequency components of the first image data with the second image data. simultaneously exposing an image sensor of an imaging system to radiation from an infrared part of the electromagnetic spectrum using a first aperture and to radiation from a visible part of the spectrum using a second aperture, the second aperture having a larger size than the first aperture, the first and second aperture being configured to increase the depth of field of the imaging system; forming one image on the basis of first image data generated by the radiation from the infrared part of the spectrum and second image data generated by radiation from the visible part of the spectrum characterized by blending high frequency components of the first image data with the second image data.
A method for supporting a scalable message bus in a distributed data grid operating on one or more microprocessors, wherein the distributed data grid includes a plurality of cluster members and provides a plurality of services, comprising: providing, by a provider module, a plurality of message buses on each cluster member of the plurality of cluster members in the distributed data grid; associating, by an association module, each of said plurality of services in the distributed data grid with a respective message bus of said plurality of message buses, wherein each of said plurality of services is associated with a separate message bus; and a data transfer module using the plurality of message buses to support data transferring over a network between different services, associated with different message buses and on different cluster members, in the distributed data grid; wherein said data transferring over the network using said plurality of message busses bypasses a datagram layer of the distributed data grid. providing, by a provider module, a plurality of message buses on each cluster member of the plurality of cluster members in the distributed data grid; associating, by an association module, each of said plurality of services in the distributed data grid with a respective message bus of said plurality of message buses, wherein each of said plurality of services is associated with a separate message bus; and a data transfer module using the plurality of message buses to support data transferring over a network between different services, associated with different message buses and on different cluster members, in the distributed data grid; wherein said data transferring over the network using said plurality of message busses bypasses a datagram layer of the distributed data grid.
A slide fastener (1, 81, 91) capable of performing an open/insert operation, including a pair of first and second fastener stringers (2a, 2b) having rows of elements at opposite tape-side edge portions of left and right fastener tapes, a box pin (4, 82, 92) extended from an end of the row of elements of the first fastener stringer, an insert pin extended from an end of the row of elements of the second fastener stringer, and a pair of first and second sliders (6a, 6b) slidably arranged along the rows of elements, wherein the first slider is arranged closer to the box pin (4, 82, 92) than the second slider in a direction to which rear openings of the first and second sliders (6a, 6b) face each other, the box pin (4, 82, 92) has a box pin body (41, 83, 93) fixed to the fastener tapes, a stopper portion arranged at a front end side of the box pin body (41, 83, 93) and for stopping the first slider, and a suppressing portion (43, 84, 94) projected on an upper surface and/or a lower surface of the box pin body (41, 83, 93) and in close contact with an inner surface of a slider body of the second slider to suppress sliding of the second slider, the box pin body (41, 83, 93) has a body region (41a, 83a, 93a) that is formed to surround upper and lower surfaces of a tape-side end edge of the fastener tapes and a side surface at a side opposite to the insert pin, and a notched region (41b, 83b, 93b) arranged at an element-row-side base end portion and having excluded a side surface portion of the box pin body (41, 83, 93) at a side facing the insert pin, being characterized in that the suppressing portions (43, 84, 94) are projected in only the notched region (41b, 83b, 93b) of the box pin body (41, 83, 93).