mhurhangee/ep-ind-claims huggingface dataset:
Reactor vessel for preparing a syngas comprising a tubular syngas collection chamber, a quench chamber and a dipleg connecting the syngas collection chamber with the quench chamber, wherein the syngas collection chamber is connected to the dipleg via a slag tap, comprising of a frusto-conical part starting from the lower end of the tubular wall of the syngas collection chamber and diverging to an opening fluidly connected to the interior of the dipleg, wherein the diameter of said opening is smaller than the diameter of the dipleg, and wherein the frusto-conical part comprises one or more conduits having in inlet for cooling medium and an outlet for used cooling medium, wherein the slag tap also comprises of a first tubular part connected to the opening of the frusto-conical part and extending in the direction of the dipleg, wherein a second tubular part is connected to the frusto-conical part or to the tubular part and extending in the direction of the dipleg and having a diameter smaller than the diameter of the diptube and larger than the diameter of the opening of the frusto-conical part and wherein the second tubular part is spaced away from the dipleg to provide an annular space and wherein in said annular space a discharge conduit for liquid water is present having a liquid water discharge opening located such to direct the liquid water along the inner wall of the diptube, and wherein at least half of the vertical length of the first tubular part extends below the liquid water discharge opening.
A method, at a machine to machine, M2M, and human to human, H2H, service platform, for a coexistence of a M2M service and a H2H service, comprising: during an implementation of the M2M service, determining, by a determination module, whether the M2M service is a Quality of Service, QoS, negotiable M2M service by checking a type of the M2M service; when determining that the M2M service is a QoS negotiable M2M service, making, by a processing module, the M2M service and the H2H service to share same network resources; when determining that the M2M service is a QoS non-negotiable M2M service, configuring, by the processing module, for the M2M service, a dedicated cell dedicated to implement the M2M service. during an implementation of the M2M service, determining, by a determination module, whether the M2M service is a Quality of Service, QoS, negotiable M2M service by checking a type of the M2M service; when determining that the M2M service is a QoS negotiable M2M service, making, by a processing module, the M2M service and the H2H service to share same network resources; when determining that the M2M service is a QoS non-negotiable M2M service, configuring, by the processing module, for the M2M service, a dedicated cell dedicated to implement the M2M service.
A method, executed by an apparatus of a cellular network, for managing a multi-femto Base Station, fBS, interface to the cellular network, comprising: receiving information related to a data link between a first fBS (104, 106) and a mobile device (114, 116); receiving a connectivity map indicating connectivity parameters associated with particular fBSs from the first fBS (104, 106), a neighboring fBS (102, 104), or the mobile device (114, 116), or a combination thereof; utilizing the received information and the connectivity map to facilitate transfer of at least a portion of cellular traffic carried over the data link to the neighboring fBS (102, 104) for being transferred by the neighboring fBS (102, 104) to the cellular network, wherein the neighboring fBS (102, 104) is communicatively coupled to a cellular link assigned to carry fBS-related traffic for the mobile device (114, 116) from the first fBS to the neighboring fBS, the fBS-related traffic including said portion of cellular traffic; and utilizing the connectivity map to manage a soft hand-off event for the mobile device (114, 116) between the first fBS (104, 106) and the neighboring fBS (102, 104). receiving information related to a data link between a first fBS (104, 106) and a mobile device (114, 116); receiving a connectivity map indicating connectivity parameters associated with particular fBSs from the first fBS (104, 106), a neighboring fBS (102, 104), or the mobile device (114, 116), or a combination thereof; utilizing the received information and the connectivity map to facilitate transfer of at least a portion of cellular traffic carried over the data link to the neighboring fBS (102, 104) for being transferred by the neighboring fBS (102, 104) to the cellular network, wherein the neighboring fBS (102, 104) is communicatively coupled to a cellular link assigned to carry fBS-related traffic for the mobile device (114, 116) from the first fBS to the neighboring fBS, the fBS-related traffic including said portion of cellular traffic; and utilizing the connectivity map to manage a soft hand-off event for the mobile device (114, 116) between the first fBS (104, 106) and the neighboring fBS (102, 104).
A method, comprising: at an electronic device in communication with a touch-sensitive display and one or more input devices other than the touch-sensitive display: displaying, on the touch-sensitive display, a user interface that includes one or more regions where an edge swipe gesture starting from an edge of the touch-sensitive display and moving onto the touch-sensitive display will cause display of a corresponding user interface element; while displaying the user interface, receiving, via the one or more input devices other than the touch-sensitive display, a first user input corresponding to a request to move a cursor beyond an edge of the touch-sensitive display; and in response to the first user input: moving the cursor to a first location at the edge of the touch-sensitive display; in accordance with a determination that the first location corresponds to a first region where an edge swipe gesture starting from an edge of the touch-sensitive display and moving onto the touch-sensitive display will cause display of a first user interface element, displaying, on the touch-sensitive display, the first user interface element; and in accordance with a determination that the first location does not correspond to the first region, forgoing displaying the first user interface element. displaying, on the touch-sensitive display, a user interface that includes one or more regions where an edge swipe gesture starting from an edge of the touch-sensitive display and moving onto the touch-sensitive display will cause display of a corresponding user interface element; while displaying the user interface, receiving, via the one or more input devices other than the touch-sensitive display, a first user input corresponding to a request to move a cursor beyond an edge of the touch-sensitive display; and in response to the first user input: moving the cursor to a first location at the edge of the touch-sensitive display; in accordance with a determination that the first location corresponds to a first region where an edge swipe gesture starting from an edge of the touch-sensitive display and moving onto the touch-sensitive display will cause display of a first user interface element, displaying, on the touch-sensitive display, the first user interface element; and in accordance with a determination that the first location does not correspond to the first region, forgoing displaying the first user interface element. moving the cursor to a first location at the edge of the touch-sensitive display; in accordance with a determination that the first location corresponds to a first region where an edge swipe gesture starting from an edge of the touch-sensitive display and moving onto the touch-sensitive display will cause display of a first user interface element, displaying, on the touch-sensitive display, the first user interface element; and in accordance with a determination that the first location does not correspond to the first region, forgoing displaying the first user interface element.
A substrate bearing a photocatalytic coating comprising, in sequence outwardly: a) a first graded film region having a substantially continuously decreasing concentration of a first transparent dielectric material and a substantially continuously increasing concentration of a second transparent dielectric material; and b) a second graded film region having a substantially continuously decreasing concentration of the second transparent dielectric material and a substantially continuously increasing concentration of a third transparent dielectric material, the third transparent dielectric material comprising photocatalytic titanium oxide. wherein the first transparent dielectric material and the second transparent dielectric material each comprise a non-metallic compound that is substantially transparent when deposited as a thin film, the non-metallic compound being selected from the group consisting of metal oxides, metal nitrides, metal carbides, metal sulphides, metal borides, metal fluorides, and combinations thereof. a) a first graded film region having a substantially continuously decreasing concentration of a first transparent dielectric material and a substantially continuously increasing concentration of a second transparent dielectric material; and b) a second graded film region having a substantially continuously decreasing concentration of the second transparent dielectric material and a substantially continuously increasing concentration of a third transparent dielectric material, the third transparent dielectric material comprising photocatalytic titanium oxide.
A composite yarn structure having a first element comprising a coaxial flexible bi-component monofilament including a conductive component and a thermoplastic component exhibiting piezoelectric properties; at least a second conductive element arranged around at least part of the first element to provide a piezoelectric yarn, characterized in that said piezoelectric yarn has auxetic properties, and in that the conductive component of the first element is made of an elastic conductive polymer including conductive metallic impurities or with a material chosen from blends of Low-density polyethylene (LDPE) or High-Density Polyethylene (HDPE) with at least one of carbon nanotubes (CNTs), graphite, graphene nano-sheets, amorphous carbon, doped polyaniline or doped polypyrrole, or mixtures thereof.
A method for obtaining a polyunsaturated fatty acid-containing lipid, comprising the steps: a. providing a biomass which comprises microorganisms of the genus Schizochytrium, said biomass containing a polyunsaturated-containing fatty acid; b. contacting said biomass with an enzyme; and c. recovering said lipid, wherein said step of contacting said biomass with an enzyme comprises treating said biomass with a protease. a. providing a biomass which comprises microorganisms of the genus Schizochytrium, said biomass containing a polyunsaturated-containing fatty acid; b. contacting said biomass with an enzyme; and c. recovering said lipid,
Particles having an antimicrobial surface, wherein the particles are equipped with a layer (12, 13) which contains both antimony-tin oxide and manganese oxide, wherein the particles have the form of flakes and/or platelets and/or needles and wherein the layer (12, 13) consists of an inner sublayer of antimony-tin oxide and a porous outer sublayer of manganese oxide. wherein the particles are equipped with a layer (12, 13) which contains both antimony-tin oxide and manganese oxide, wherein the particles have the form of flakes and/or platelets and/or needles and wherein the layer (12, 13) consists of an inner sublayer of antimony-tin oxide and a porous outer sublayer of manganese oxide.
An image processing method comprising: receiving (110, 610) input image data; reading a header included at a predetermined location in the input image data; and generating hologram data configured to display (150, 619) a hologram image; characterized in that generating the hologram data comprises performing a Fourier calculation on the input image data based on at least one parameter recorded in the header, and performing pixel encoding (140, 618) on the image data subjected to the Fourier calculation, the at least one parameter recorded in the header comprises at least depth information comprising variable location information of a plurality of depth layers of the hologram image, to adapt locations of the plurality of depth layers in accordance with occupancy by a main object of interest in the holographic image, and the image processing method further comprises dynamically changing the locations of the plurality of depth layers of the reproduced holographic image based on the variable location information. receiving (110, 610) input image data; reading a header included at a predetermined location in the input image data; and generating hologram data configured to display (150, 619) a hologram image; characterized in that generating the hologram data comprises performing a Fourier calculation on the input image data based on at least one parameter recorded in the header, and performing pixel encoding (140, 618) on the image data subjected to the Fourier calculation, the at least one parameter recorded in the header comprises at least depth information comprising variable location information of a plurality of depth layers of the hologram image, to adapt locations of the plurality of depth layers in accordance with occupancy by a main object of interest in the holographic image, and the image processing method further comprises dynamically changing the locations of the plurality of depth layers of the reproduced holographic image based on the variable location information.
A method of transmitting and receiving a signal by a user equipment, UE, (100, 400) in a wireless communication system, the method comprising: receiving downlink control information, DCI, scheduling multiple PUSCHs to be transmitted on a serving cell; and transmitting, through an unlicensed band, the multiple PUSCHs on the serving cell based on the DCI, characterized by determining a payload size of the DCI based on a larger of a number of information bits for scheduling a single PUSCH and a number of information bits for scheduling the multiple PUSCHs by adding zeros to a smaller of the number of information bits for scheduling the single PUSCH and the number of information bits for scheduling the multiple PUSCHs, and wherein the DCI includes no codeblock group transmission information, CBGTI, field based on the scheduling of the multiple PUSCHs. receiving downlink control information, DCI, scheduling multiple PUSCHs to be transmitted on a serving cell; and transmitting, through an unlicensed band, the multiple PUSCHs on the serving cell based on the DCI, characterized by determining a payload size of the DCI based on a larger of a number of information bits for scheduling a single PUSCH and a number of information bits for scheduling the multiple PUSCHs by adding zeros to a smaller of the number of information bits for scheduling the single PUSCH and the number of information bits for scheduling the multiple PUSCHs, and wherein the DCI includes no codeblock group transmission information, CBGTI, field based on the scheduling of the multiple PUSCHs.
Herbicidal compositions comprising, as herbicidally active constituents, A) tri-allate (component A), B) diflufenican (component B). A) tri-allate (component A), B) diflufenican (component B).
Agricultural or forestry tire comprising a tread provided with a base surface and with a plurality of ribs, each rib being provided with a front wall and a rear wall, wherein, on the front wall of the rib, under a top portion of the front wall, a shaped profile is present, with a base in the portion of the tread comprised between the front wall of the rib and the adjacent rib, height equal to a portion of the overall height of the front wall of the rib and a length that extends in the transverse direction with respect to the height of the rib, and wherein said shaped profile is not present on the rear wall of the rib, wherein said shaped profile has a section that defines at least one flat surface of the shaped profile, wherein said flat surface is joint to said top portion of the front wall of the rib by means of a connecting surface, and wherein the shaped profile further comprises at least one sharp corner and a front wall, which is joint to said base surface of the tread by means of another connecting surface, characterized in that said flat surface is parallel, or inclined at an angle α up to 20°, with respect to the surface of the head of the rib.
An organic light emitting diode (OLED) comprising a light extraction member comprising a plurality of unit lenses arranged on one surface thereof, each of the unit lenses comprising a first conic lens forming a lower part of the unit lens and a second conic lens forming an upper part of the unit lens, and the first conic lens has a lens shape expressed as [Equation 1], and the second conic lens has a lens shape expressed as [Equation 2]: y = H 1 − x 2 / r 1 1 + 1 − 1 + k 1 1 / r 1 2 x 2 where r1 represents a curvature radius at a virtual vertex of the first conic lens, k1 represents a conic constant of the first conic lens, and H1 represents a height from a bottom surface of the first conic lens to the virtual vertex, and y = H 2 − x 2 / r 2 1 + 1 − 1 + k 2 1 / r 2 2 x 2 + y 0 where r2 represents a curvature radius at a vertex of the second conic lens, k2 represents a conic constant of the second conic lens, H2 represents a height from a bottom surface, which is formed of circular shape, of the second conic lens to the vertex, and y0 represents a height from the bottom surface of the first conic lens to a position where a diameter of the bottom surface of the second conic lens is equalized to a diameter of the cross-section of the first conic lens, wherein r1 ranges from 0,1 to 200% of the diameter of the bottom surface of the first conic lens, k1 ranges from -4 to -2.5, r2 ranges from 10 to 3000% of the diameter of the bottom surface of the second conic lens, and k2 ranges from -2.5 to 0, wherein the diameter of the bottom surface of the first conic lens ranges from 100 to 115% of a pitch which is a distance between centers of the bottom surfaces of the neighboring unit lenses, and wherein r2 has a different value from r1, and k2 has a different value from k1. where r2 represents a curvature radius at a vertex of the second conic lens, k2 represents a conic constant of the second conic lens, H2 represents a height from a bottom surface, which is formed of circular shape, of the second conic lens to the vertex, and y0 represents a height from the bottom surface of the first conic lens to a position where a diameter of the bottom surface of the second conic lens is equalized to a diameter of the cross-section of the first conic lens, wherein r1 ranges from 0,1 to 200% of the diameter of the bottom surface of the first conic lens, k1 ranges from -4 to -2.5, r2 ranges from 10 to 3000% of the diameter of the bottom surface of the second conic lens, and k2 ranges from -2.5 to 0, wherein the diameter of the bottom surface of the first conic lens ranges from 100 to 115% of a pitch which is a distance between centers of the bottom surfaces of the neighboring unit lenses, and wherein r2 has a different value from r1, and k2 has a different value from k1.
A III-nitride light emitting device comprising: a resonant cavity (108, 112, 116) having an n-type region, a p-type region, and a light emitting region disposed between the n-type region and the p-type region, a dielectric mirror formed on the surface of the n-type region, and a reflective p-contact formed on the surface of the p-type region; an uneven top surface at the interface between the dielectric mirror and the n-type region and an uneven bottom surface at the interface between p-type region and the p-contact, wherein each of the top surface and the bottom surface comprise a plurality of peaks separated by a plurality of valleys, wherein a peak comprises a slanted crystal plane and a valley comprises a step between individual planes and wherein a plane has a length in the range of 1-150 μm, and a step has a height in the range 15-100nm; wherein the resonant cavity has a constant cavity thickness between the top surface and <-> a resonant cavity (108, 112, 116) having an n-type region, a p-type region, and a light emitting region disposed between the n-type region and the p-type region, a dielectric mirror formed on the surface of the n-type region, and a reflective p-contact formed on the surface of the p-type region; an uneven top surface at the interface between the dielectric mirror and the n-type region and an uneven bottom surface at the interface between p-type region and the p-contact, wherein each of the top surface and the bottom surface comprise a plurality of peaks separated by a plurality of valleys, wherein a peak comprises a slanted crystal plane and a valley comprises a step between individual planes and wherein a plane has a length in the range of 1-150 μm, and a step has a height in the range 15-100nm; wherein the resonant cavity has a constant cavity thickness between the top surface and <->
A base of a surface-mount electronic component package to hold an electronic component element and to be mounted on a circuit board with a conductive bonding material, the base comprising: a principal surface (31, 32); at least one external connection terminal to be electrically connected to the circuit board, the at least one external connection terminal being formed in the principal surface; a bump formed on the at least one external connection terminal, the bump being smaller than the at least one external connection terminal; and a distance d between an outer periphery end edge of the at least one external connection terminal and an outer periphery end edge of the bump along an attenuating direction of stress on the at least one external connection terminal, the stress being generated in association of mounting of the base on the circuit board, the stress attenuating along the attenuating direction A of stress, characterised in that the distance d is equal to or more than 0.06 mm and equal to or less than 0.12 mm. a principal surface (31, 32); at least one external connection terminal to be electrically connected to the circuit board, the at least one external connection terminal being formed in the principal surface; a bump formed on the at least one external connection terminal, the bump being smaller than the at least one external connection terminal; and a distance d between an outer periphery end edge of the at least one external connection terminal and an outer periphery end edge of the bump along an attenuating direction of stress on the at least one external connection terminal, the stress being generated in association of mounting of the base on the circuit board, the stress attenuating along the attenuating direction A of stress,