mhurhangee/ep-ind-claims huggingface dataset:
Light-emitting diode chip comprising - a semiconductor layer sequence which is based on InGaAlAsP and which is configured for the generation of visible light or near-infrared radiation, - a current spreading layer which is located directly on the semiconductor layer sequence and which is based on AlGaAs, - an encapsulation layer which is applied in places directly to the current spreading layer and/or to the semiconductor layer sequence and which comprises an average thickness between 10 nm and 200 nm inclusive and a defect density of at most 10/mm 2, - at least one cover layer which is applied in places directly to the encapsulation layer, - at least one non-metallic reflection layer which is located in places on a side of the current spreading layer facing away from the semiconductor layer sequence and which is covered in places by the encapsulation layer, and - at least one mirror layer and/or at least one adhesion-promoting layer, which is located in places on a side of the reflection layer facing away from the current spreading layer and is configured for energizing an electrical contact surface, wherein - the cover layer comprises a greater average thickness than the encapsulation layer, - the encapsulation layer completely and directly covers outer facets of the current spreading layer, and - the current spreading layer and the semiconductor layer sequence are laterally protruded by the reflection layer, seen in plan view, and the encapsulation layer is directly applied to regions of the reflection layer protruding the current spreading layer. - a semiconductor layer sequence which is based on InGaAlAsP and which is configured for the generation of visible light or near-infrared radiation, - a current spreading layer which is located directly on the semiconductor layer sequence and which is based on AlGaAs, - an encapsulation layer which is applied in places directly to the current spreading layer and/or to the semiconductor layer sequence and which comprises an average thickness between 10 nm and 200 nm inclusive and a defect density of at most 10/mm 2, - at least one cover layer which is applied in places directly to the encapsulation layer, - at least one non-metallic reflection layer which is located in places on a side of the current spreading layer facing away from the semiconductor layer sequence and which is covered in places by the encapsulation layer, and - at least one mirror layer and/or at least one adhesion-promoting layer, which is located in places on a side of the reflection layer facing away from the current spreading layer and is configured for energizing an electrical contact surface, wherein - the cover layer comprises a greater average thickness than the encapsulation layer, - the encapsulation layer completely and directly covers outer facets of the current spreading layer, and - the current spreading layer and the semiconductor layer sequence are laterally protruded by the reflection layer, seen in plan view, and the encapsulation layer is directly applied to regions of the reflection layer protruding the current spreading layer.
A linear low density polyethylene composition suitable for sealant applications comprising: less than or equal to 100 percent by weight of the units derived from ethylene; less than 35 percent by weight of units derived from one or more α-olefin comonomers; wherein said linear low density polyethylene composition has a density in the range of 0.900 to 0.920 g/cm 3, a molecular weight distribution (M w /M n) in the range of 2.5 to 4.5, a melt index (I 2) in the range of 0.5 to 1.8g/10 minutes, a molecular weight distribution (M z /M w) in the range of from 2.2 to 3, vinyl unsaturation of less than 0.1 vinyls per one thousand carbon atoms present in the backbone of said composition, and a zero shear viscosity ratio (ZSVR) in the range from 1.0 to 1.2. less than or equal to 100 percent by weight of the units derived from ethylene; less than 35 percent by weight of units derived from one or more α-olefin comonomers; wherein said linear low density polyethylene composition has a density in the range of 0.900 to 0.920 g/cm 3, a molecular weight distribution (M w /M n) in the range of 2.5 to 4.5, a melt index (I 2) in the range of 0.5 to 1.8g/10 minutes, a molecular weight distribution (M z /M w) in the range of from 2.2 to 3, vinyl unsaturation of less than 0.1 vinyls per one thousand carbon atoms present in the backbone of said composition, and a zero shear viscosity ratio (ZSVR) in the range from 1.0 to 1.2.
A method for performing downhole operations in a field having a plurality of wells, the method comprising: obtaining, at a computing system, a reference data set associated with the field, the reference data set including at least one property of a downhole formation; obtaining, at the computing system, a first well data set associated with a first well of the field, the first well data set including the at least one property of a downhole formation associated with the first well; the method characterised by calculating a similarity index ratio based on the reference data set and the first well data set, wherein the similarity index ratio indicates a similarity in values of the reference data set and the first well data set, wherein the similarity index ratio is based on mud gas analysis and represents ratios of gas compounds between the reference data set and the first well data set; and performing a responsive action in a downhole operation based on the calculated similarity index ratio. obtaining, at a computing system, a reference data set associated with the field, the reference data set including at least one property of a downhole formation; obtaining, at the computing system, a first well data set associated with a first well of the field, the first well data set including the at least one property of a downhole formation associated with the first well; the method characterised by calculating a similarity index ratio based on the reference data set and the first well data set, wherein the similarity index ratio indicates a similarity in values of the reference data set and the first well data set, wherein the similarity index ratio is based on mud gas analysis and represents ratios of gas compounds between the reference data set and the first well data set; and performing a responsive action in a downhole operation based on the calculated similarity index ratio.
A multi-chip package, comprising: an interconnect bridge having a first contact pad and a second contact pad thereon, wherein the interconnect bridge is mounted on a conductive layer; a first dielectric layer, the first dielectric layer laterally adjacent the interconnect bridge, and the first dielectric layer laterally adjacent and in contact with the conductive layer; a second dielectric layer on the first dielectric layer and on the interconnect bridge, the second dielectric layer over the conductive layer; a first via in the second dielectric layer, the first via coupled to the first contact pad; a second via in the second dielectric layer, the second via coupled to the second contact pad; a third via in the second dielectric layer, the third via coupled to a via in the first dielectric layer; a third dielectric layer on the second dielectric layer, the third dielectric layer over the interconnect bridge and over the conductive layer; a first conductive trace in the third dielectric layer, the first conductive trace coupled to the first via; a second conductive trace in the third dielectric layer, the second conductive trace coupled to the second via; a first die over the third dielectric layer, the first die over the interconnect bridge and over the conductive layer, and the first die coupled to the first conductive trace and to the second conductive trace; and a second die over the interconnect bridge, the second die coupled to the first die by the interconnect bridge. an interconnect bridge having a first contact pad and a second contact pad thereon, wherein the interconnect bridge is mounted on a conductive layer; a first dielectric layer, the first dielectric layer laterally adjacent the interconnect bridge, and the first dielectric layer laterally adjacent and in contact with the conductive layer; a second dielectric layer on the first dielectric layer and on the interconnect bridge, the second dielectric layer over the conductive layer; a first via in the second dielectric layer, the first via coupled to the first contact pad; a second via in the second dielectric layer, the second via coupled to the second contact pad; a third via in the second dielectric layer, the third via coupled to a via in the first dielectric layer; a third dielectric layer on the second dielectric layer, the third dielectric layer over the interconnect bridge and over the conductive layer; a first conductive trace in the third dielectric layer, the first conductive trace coupled to the first via; a second conductive trace in the third dielectric layer, the second conductive trace coupled to the second via; a first die over the third dielectric layer, the first die over the interconnect bridge and over the conductive layer, and the first die coupled to the first conductive trace and to the second conductive trace; and a second die over the interconnect bridge, the second die coupled to the first die by the interconnect bridge.
A method of communication, comprising the steps of: receiving a first Internet Protocol, IP, packet from a network which is in compliance with IP version 4; extracting a IP version 4 address from the first IP packet; generating a IP version 6 address, characterised in that: the IP version 6 address is generated by combining an identifier identifying the network which is in compliance with IP version 4 with the IP version 4 address; and the method further comprises: generating a second IP packet by adding the IP version 6 address to the first IP packet; and transmitting the second IP packet to the Internet in compliance with IP version 6. receiving a first Internet Protocol, IP, packet from a network which is in compliance with IP version 4; extracting a IP version 4 address from the first IP packet; generating a IP version 6 address, characterised in that: the IP version 6 address is generated by combining an identifier identifying the network which is in compliance with IP version 4 with the IP version 4 address; and the method further comprises: generating a second IP packet by adding the IP version 6 address to the first IP packet; and transmitting the second IP packet to the Internet in compliance with IP version 6. the IP version 6 address is generated by combining an identifier identifying the network which is in compliance with IP version 4 with the IP version 4 address; and the method further comprises: generating a second IP packet by adding the IP version 6 address to the first IP packet; and transmitting the second IP packet to the Internet in compliance with IP version 6. generating a second IP packet by adding the IP version 6 address to the first IP packet; and transmitting the second IP packet to the Internet in compliance with IP version 6.
Ceiling or wall light with at least one lighting means (2; 2') and a transparent cover, which is arranged in the region of a light exit opening of the light and comprises a peripheral edge at least partially defines the lateral boundary of the light-emitting surface, wherein, on the side of the cover facing away from the lighting means, a groove is provided at a distance from the peripheral edge of the cover, which fixes at least two leg surfaces (9, 10) in the material of the cover, and wherein one of the leg surfaces, in a cross-section perpendicular to the longitudinal extension of the groove, opposite the surface of the cover facing the lighting means (2, 2'), exhibits an inclination angle which is dimensioned in such a way that the leg surface totally reflects light which emerges from the lighting means (2; 2') through the surface of the cover facing the lighting means (2; 2') and impinges on the leg surface, and deflects it in the direction of the peripheral edge of the cover in order to illuminate the surroundings of the light in which the light is installed, characterized in that the light beam, after the total reflection, leaves the cover directly through the peripheral edge.
A method for auto-generation of decision rules for attack detection feedback systems, the method executable on a server, the method comprising: receiving at least one event from an event database, the event database having been generated from data obtained by at least one sensor (102, 112); analyzing the at least one event to determine whether the at least one event belongs to a class of malware control center interactions; if the at least one event belongs to the class of malware control center interactions, extracting at least one attribute from the at least one event; generating decision rules using the at least one attribute; and saving the decision rules, the decision rules being instrumental in updating what type of further data is obtained by the at least one sensor (102, 112) based on the decision rule. receiving at least one event from an event database, the event database having been generated from data obtained by at least one sensor (102, 112); analyzing the at least one event to determine whether the at least one event belongs to a class of malware control center interactions; if the at least one event belongs to the class of malware control center interactions, extracting at least one attribute from the at least one event; generating decision rules using the at least one attribute; and saving the decision rules, the decision rules being instrumental in updating what type of further data is obtained by the at least one sensor (102, 112) based on the decision rule.
A separator arrangement for processing a product in continuous operation, said separator arrangement having a) a rotatable drum which is arranged in a hooded chamber and has a vertical rotational axis, said drum being placed onto a rotatable drive spindle, b) a drive chamber which includes one, several or all the components of a separator drive, c) an outlet of a solid matter collector, d) a negative pressure connection arranged on or in the hooded chamber, e) wherein the hooded chamber is realized sealed in relation to the surrounding area and whereby by way of a or the device which generates negative pressure, in particular a pump, negative pressure can be generated in operation in the hooded chamber in relation to the surrounding area outside the hooded chamber, characterized in that f) a solid matter channel, whereby g) the negative pressure connection is realized below the solid matter channel and the outlet of a solid matter collector. a) a rotatable drum which is arranged in a hooded chamber and has a vertical rotational axis, said drum being placed onto a rotatable drive spindle, b) a drive chamber which includes one, several or all the components of a separator drive, c) an outlet of a solid matter collector, d) a negative pressure connection arranged on or in the hooded chamber, e) wherein the hooded chamber is realized sealed in relation to the surrounding area and whereby by way of a or the device which generates negative pressure, in particular a pump, negative pressure can be generated in operation in the hooded chamber in relation to the surrounding area outside the hooded chamber, characterized in that f) a solid matter channel, whereby g) the negative pressure connection is realized below the solid matter channel and the outlet of a solid matter collector.
A presence system of modifying access to presence information published in collections, wherein each collection contains a member list of users that are allowed to subscribe to the information within that collection, wherein the member list is adapted to contain a membership group of users, the system comprising: a receive request component that receives a request to publish presence information, the request comprising: a collection identifier that specifies a collection whose member list is to be modified; a membership group of users for which user access is to be modified; and a modify access component that modifies the access of the specified membership group to the specified collection in response to the request, wherein the presence system further accepts a federated membership group, the federated membership group being a membership group in which multiple corporations make available lists of users that have access to presence information of the federated membership group. a receive request component that receives a request to publish presence information, the request comprising: a collection identifier that specifies a collection whose member list is to be modified; a membership group of users for which user access is to be modified; and a collection identifier that specifies a collection whose member list is to be modified; a membership group of users for which user access is to be modified; and a modify access component that modifies the access of the specified membership group to the specified collection in response to the request, wherein the presence system further accepts a federated membership group, the federated membership group being a membership group in which multiple corporations make available lists of users that have access to presence information of the federated membership group.
A method for manufacturing an optical waveguide apparatus, comprising: a step A of implanting hydrogen ions into a front surface of a single-crystal silicon substrate; a step B of performing an activation treatment with respect to a front surface of at least one of a quartz substrate and the single-crystal silicon substrate; a step C of bonding the front surfaces of the quartz substrate and the single-crystal silicon substrate to each other; a step D of mechanically delaminating a silicon film from the single-crystal silicon substrate to form an SOI film on the front surface of the quartz substrate, thereby providing an SOI substrate; a step E of forming a single-crystal silicon core for an optical waveguide from the SOI film, wherein the core of the optical waveguide formed in step E is suitable of propagating a wavelength in a band of 1.55 μm; a step F of providing a GaAs-based light emitting device capable of irradiating the single-crystal silicon core with a light having a wavelength of 1.1 μm or below on a back surface side of the quartz substrate; a step G of flattening the SOI film after the step D; and a step H of forming a silicon oxide film that covers the single-crystal silicon core after the step E. a step A of implanting hydrogen ions into a front surface of a single-crystal silicon substrate; a step B of performing an activation treatment with respect to a front surface of at least one of a quartz substrate and the single-crystal silicon substrate; a step C of bonding the front surfaces of the quartz substrate and the single-crystal silicon substrate to each other; a step D of mechanically delaminating a silicon film from the single-crystal silicon substrate to form an SOI film on the front surface of the quartz substrate, thereby providing an SOI substrate; a step E of forming a single-crystal silicon core for an optical waveguide from the SOI film, wherein the core of the optical waveguide formed in step E is suitable of propagating a wavelength in a band of 1.55 μm; a step F of providing a GaAs-based light emitting device capable of irradiating the single-crystal silicon core with a light having a wavelength of 1.1 μm or below on a back surface side of the quartz substrate; a step G of flattening the SOI film after the step D; and a step H of forming a silicon oxide film that covers the single-crystal silicon core after the step E.
A helicopter (1, 1', 1'', 1"'), comprising: - a fuselage with a nose; - a tail rotor fitted to a tail fin projecting from said fuselage at the opposite end of said nose; - a cockpit housing an instrument console; and - a windscreen (50, 50', 50", 50"') arranged in a front side of said helicopter (1, 1', 1", 1"'); said windscreen (50, 50', 50'', 50''') comprising an edge which confines a visualization area visible by an pilot; said helicopter (1, 1', 1", 1"') further comprising displaying means capable to display at least one visual information (20, 25) associated to at least one flight parameter: - at least in part inside said cockpit; and/or - at least in part outside said cockpit; and/or - at least in part on said windscreen (50, 50', 50" 50"'); said displaying means comprising a projector group configured to project, in use, said one visual information (20, 25) onto a reflecting surface (30, 31) arranged within the size of said visualization area and above said console, when said helicopter (1, 1', 1", 1"') is in a normal flight configuration; said visual information (20, 25) being visible by said pilot inside said visualization area, at least when said helicopter (1, 1', 1", 1"') is in said normal flight configuration; said visual information (20, 25) comprising at least one first image associated at least to the orientation of said helicopter (1, 1', 1'', 1"') relative to the earth; said projector group comprising, in turn,: - a source of a radiation adapted to project said second image; and - at least one motor (15a, 15b, 15c) moving, in use, said source relative to said helicopter (1, 1', 1", 1"'), so as to maintain said source in a given constant position relative to the earth; said first image comprising at least one line parallel, in use, to the line of horizon; characterized in that said projector group is configured to project said line on said console, when said helicopter (1, 1', 1'', 1"') is sloped relative to a horizontal plane with said nose at a higher height than said tail rotor, thus remaining visible by said pilot. - a fuselage with a nose; - a tail rotor fitted to a tail fin projecting from said fuselage at the opposite end of said nose; - a cockpit housing an instrument console; and - a windscreen (50, 50', 50", 50"') arranged in a front side of said helicopter (1, 1', 1", 1"'); - at least in part inside said cockpit; and/or - at least in part outside said cockpit; and/or - at least in part on said windscreen (50, 50', 50" 50"'); - a source of a radiation adapted to project said second image; and - at least one motor (15a, 15b, 15c) moving, in use, said source relative to said helicopter (1, 1', 1", 1"'), so as to maintain said source in a given constant position relative to the earth;
Method for operating a washing machine having a suds container for receiving washing liquid for treating laundry, a heating member, a recirculation device and a water supply device, the method comprising a washing phase (Wa) having a heating member which is temporarily switched on in order to heat the washing liquid, and having an activated recirculation device which conveys the washing liquid from the lower region of the suds container into the upper region, based on the operational installation position of the washing machine, the recirculation device being activated in the washing phase (Wa) in at least one time period (Aktiv) and the heating member being switched off (Aus) during this/these time period(s), characterised in that the heating member is switched on by means of the activated recirculation device after the time period (Aktiv) has finished and in that switching on and switching off the heating member and the recirculation device is repeated several times.