mhurhangee/patent-ind-claim-en huggingface dataset:
A process for steam cracking a hydrocarbon stream, said process comprising the following steps: (a) combusting fuel in a gas turbine in the presence of compressed air to produce a flue gas, wherein the flue gas drives a turbine to produce electricity in a coupled generator or work to power a coupled rotating equipment, (b) feeding a first portion of the flue gas to a heat exchanger, (c) feeding ambient air to the heat exchanger to be heated by the first portion of the flue gas to provide heated air, (d) feeding a radiant section of a furnace of a steam cracking unit with fuel and a mixture of a second portion of the flue gas and the heated air obtained by step (c), said furnace of a steam cracking unit comprising a radiant section and a convective section, and (e) feeding the convective portion of the furnace of the steam cracking unit a hydrocarbon feed stream via convection coils in the convection section of the furnace in the steam cracker and steam cracking the hydrocarbon feed; wherein the flue gas obtained in step (a) contains from about 13% to about 15% oxygen by volume; wherein the hydrocarbon feed is preheated by both the convection section of the furnace and the radiant portion of the furnace; wherein the flue gas obtained in step (a) has a temperature from about 300°C to about 800°C; wherein the mixture has a temperature of from about 300°C to about 800°C; and wherein the weight ratio between the first portion and the second portion is 10:90 to 90:10. (a) combusting fuel in a gas turbine in the presence of compressed air to produce a flue gas, wherein the flue gas drives a turbine to produce electricity in a coupled generator or work to power a coupled rotating equipment, (b) feeding a first portion of the flue gas to a heat exchanger, (c) feeding ambient air to the heat exchanger to be heated by the first portion of the flue gas to provide heated air, (d) feeding a radiant section of a furnace of a steam cracking unit with fuel and a mixture of a second portion of the flue gas and the heated air obtained by step (c), said furnace of a steam cracking unit comprising a radiant section and a convective section, and (e) feeding the convective portion of the furnace of the steam cracking unit a hydrocarbon feed stream via convection coils in the convection section of the furnace in the steam cracker and steam cracking the hydrocarbon feed; wherein the flue gas obtained in step (a) contains from about 13% to about 15% oxygen by volume; wherein the hydrocarbon feed is preheated by both the convection section of the furnace and the radiant portion of the furnace; wherein the flue gas obtained in step (a) has a temperature from about 300°C to about 800°C; wherein the mixture has a temperature of from about 300°C to about 800°C; and wherein the weight ratio between the first portion and the second portion is 10:90 to 90:10.
An identification device adapted to determine authenticity of an article with an anti-counterfeiting medium varying in a pattern of observed light depending on changes in light characteristics of radiated light, using the anti-counterfeiting medium, comprising: an imaging unit adapted to capture image data of the anti-counterfeiting medium ; an observation angle estimation unit adapted to determine an imaging viewpoint as information that includes an imaging coordinate value indicating the position of the anti-counterfeiting medium imaged to obtain the captured image data in a three-dimensional space and the observation angle of imaging by the imaging unit ; a usable image selection unit adapted to select captured image data usable in an authenticity determination process from the captured image data obtained by the imaging unit by determining whether the observation angle of the captured image data falls within a determinable angle range at which an authenticity determination is possible; a similarity calculation unit adapted to determine degrees of similarity between a plurality of captured image data of the anti-counterfeiting medium obtained with differences in the light characteristics of the radiated light and reference image data corresponding to the light characteristics; and an authenticity determination unit adapted to determine whether the degrees of similarity determined for the individual light characteristics exceed thresholds set corresponding to the individual light characteristics to make an authenticity determination on whether the anti-counterfeiting medium is genuine. an imaging unit adapted to capture image data of the anti-counterfeiting medium ; an observation angle estimation unit adapted to determine an imaging viewpoint as information that includes an imaging coordinate value indicating the position of the anti-counterfeiting medium imaged to obtain the captured image data in a three-dimensional space and the observation angle of imaging by the imaging unit ; a usable image selection unit adapted to select captured image data usable in an authenticity determination process from the captured image data obtained by the imaging unit by determining whether the observation angle of the captured image data falls within a determinable angle range at which an authenticity determination is possible; a similarity calculation unit adapted to determine degrees of similarity between a plurality of captured image data of the anti-counterfeiting medium obtained with differences in the light characteristics of the radiated light and reference image data corresponding to the light characteristics; and an authenticity determination unit adapted to determine whether the degrees of similarity determined for the individual light characteristics exceed thresholds set corresponding to the individual light characteristics to make an authenticity determination on whether the anti-counterfeiting medium is genuine.
A current converter of the forward converter type for converting a three-phase primary voltage (U1, U2, U3) into a plurality of secondary voltages (ud1 ... udn), which comprises at least three transformer secondary windings , wherein the current converter on its primary side comprises at least three transformers (T1, T2, T3) with respectively two primary windings (1,2; 3,4; 5,6;) wound in opposite directions and respectively at least one secondary winding , and two electronic switches (S1, S2) are provided, wherein respectively the first switch (S1) controls a primary winding of the three transformers (T1, T2, T3) via a set of diodes (D1.1 ... D1.6) and wherein the second switch (S2) respectively controls another primary winding of the three transformers (T1, T2, T3) via a second set of diodes (D2.1 ... D2.6), characterized in that the secondary side is designed for operating three UV gas discharge lamps of identical construction in a star connection.
An orthopaedic feedback system having at least one orthopaedic support apparatus in the form of an orthosis or prosthesis, which has at least one support element in engagement with a first body part or a first body region, a compressive force detection device, which has multiple compressive force detection sensors and is configured to detect a compressive force acting on the first body part , the first body region or the at least one support element, and a reproduction device, which has a communications link with the compressive force detection device and has at least one reproduction element , which is in contact with a second body part or a second body region or is in engagement with the second body part or the second body region and is configured for the tactile reproduction, on the second body part or the second body region, of compressive force signals detected using the compressive force detection device, characterised in that the reproduction element has a reproduction matrix, which has multiple spaced-apart actuators and is configured to reproduce, on the second body part or the second body region, a compressive force profile detected by the compressive force detection device. at least one orthopaedic support apparatus in the form of an orthosis or prosthesis, which has at least one support element in engagement with a first body part or a first body region, a compressive force detection device, which has multiple compressive force detection sensors and is configured to detect a compressive force acting on the first body part , the first body region or the at least one support element, and a reproduction device, which has a communications link with the compressive force detection device and has at least one reproduction element , which is in contact with a second body part or a second body region or is in engagement with the second body part or the second body region and is configured for the tactile reproduction, on the second body part or the second body region, of compressive force signals detected using the compressive force detection device, characterised in that the reproduction element has a reproduction matrix, which has multiple spaced-apart actuators and is configured to reproduce, on the second body part or the second body region, a compressive force profile detected by the compressive force detection device.
A method for chemically adhering a diene rubber to a piezoelectric polymer, the method comprising the steps of: a) providing a piezoelectric polymer having at least one surface, wherein the piezoelectric polymer is selected from the group of polyvinylidene fluoride (PVDF) polymer or co-polymers, b) providing a rubber component having at least one surface and comprising a sulfur cross-linkable rubber composition, c) introducing oxygen-containing functional groups on the at least one surface of the piezoelectric polymer, d) reacting the oxygen-containing functional groups with a compound comprising thiocyanate groups, and e) contacting the surface of the piezoelectric polymer obtained of step d) with the surface of the rubber component, and cross-linking. a) providing a piezoelectric polymer having at least one surface, wherein the piezoelectric polymer is selected from the group of polyvinylidene fluoride (PVDF) polymer or co-polymers, b) providing a rubber component having at least one surface and comprising a sulfur cross-linkable rubber composition, c) introducing oxygen-containing functional groups on the at least one surface of the piezoelectric polymer, d) reacting the oxygen-containing functional groups with a compound comprising thiocyanate groups, and e) contacting the surface of the piezoelectric polymer obtained of step d) with the surface of the rubber component, and cross-linking.
A method comprising: (i) forming a substantially planar composite structure having at least two layers; (ii) applying a reformable epoxy resin adhesive material onto one or more of the at least two layers; (iii) optionally cutting the composite structure to a desired shape; (iv) heating the composite structure in a mold to form a non-planar composite structure; characterized in that - the reformable epoxy resin adhesive material falls below its glass transition temperature upon exposure to ambient temperature; - after the reformable epoxy resin adhesive material falls below its glass transition temperature, it can be heated multiple times above its glass transition temperature for molding into the non-planar composite structure; and - wherein at least one of the at least two layers is a wood material. (i) forming a substantially planar composite structure having at least two layers; (ii) applying a reformable epoxy resin adhesive material onto one or more of the at least two layers; (iii) optionally cutting the composite structure to a desired shape; (iv) heating the composite structure in a mold to form a non-planar composite structure; - the reformable epoxy resin adhesive material falls below its glass transition temperature upon exposure to ambient temperature; - after the reformable epoxy resin adhesive material falls below its glass transition temperature, it can be heated multiple times above its glass transition temperature for molding into the non-planar composite structure; and - wherein at least one of the at least two layers is a wood material.
A radio base station comprising: a transmitting section that is adapted to transmit, to a mobile terminal, an index indicating a transmission format, wherein the transmission format includes a transport block size, TB size, for user data to be transmitted from the mobile terminal; a receiving section that is adapted to receive said user data and control information, which are coded using said transmission format at the mobile terminal and which are transmitted from the mobile terminal; and a decoding section that is adapted to decode said received user data and control information, characterized in that said decoding section is adapted to decode said received user data based on a coding rate, for the TB size of the transmission format, wherein the coding rate is adjusted depending on the control information that is multiplexed with said user data, wherein the control information is one or both of ACK/NACK and CQI. a transmitting section that is adapted to transmit, to a mobile terminal, an index indicating a transmission format, wherein the transmission format includes a transport block size, TB size, for user data to be transmitted from the mobile terminal; a receiving section that is adapted to receive said user data and control information, which are coded using said transmission format at the mobile terminal and which are transmitted from the mobile terminal; and a decoding section that is adapted to decode said received user data and control information, characterized in that said decoding section is adapted to decode said received user data based on a coding rate, for the TB size of the transmission format, wherein the coding rate is adjusted depending on the control information that is multiplexed with said user data, wherein the control information is one or both of ACK/NACK and CQI.
A method of operating a communication system, the communication system comprises a wireless devices and a base station, the method in the system comprising: sending from the wireless device, a request to resume communication, while in a Radio Resource Control, RRC, INACTIVE state, characterised by : in response to receiving the request to resume communication at the base station, and without first sending to the wireless device an instruction to resume, sending , from the base station, an instruction to release and redirect, and in response to receiving the instruction to release and redirect at the wireless device and without entering an RRC CONNECTED state, performing cell selection in a Radio Access Technology, RAT, and attempting to establish or resume communication with a selected cell. sending from the wireless device, a request to resume communication, while in a Radio Resource Control, RRC, INACTIVE state, characterised by : in response to receiving the request to resume communication at the base station, and without first sending to the wireless device an instruction to resume, sending , from the base station, an instruction to release and redirect, and in response to receiving the instruction to release and redirect at the wireless device and without entering an RRC CONNECTED state, performing cell selection in a Radio Access Technology, RAT, and attempting to establish or resume communication with a selected cell.
Storage plate arrangement for installation in a household refrigeration appliance , with a first storage plate and with a second storage plate , which is separate from the first storage plate , and with a carrier frame , on which the first storage plate and the second storage plate are arranged, wherein the carrier frame has a guide , and by way of the guide at least one of the storage plates can be displaced relative to the carrier frame and the other storage plate , wherein the carrier frame is embodied as open when viewed in the circumferential direction, wherein the carrier frame has a first side limb and a second side limb that is separate therefrom, which are connected to a connecting limb that in turn is separate therefrom, wherein the connecting limb is a profile rail made from metal, characterised in that the profile rail has a first, upper hollow chamber , which is moulded on an upper edge of a front plate of the profile rail , and a second, lower hollow chamber that is embodied at a distance therefrom, which is moulded on a lower edge of the front plate of the profile rail , wherein the hollow chambers extend towards the rear starting from the front plate , and the profile rail is embodied as open at a first end , and the open end is embodied as an insertion bracket for an additional holding part of the storage plate arrangement , and/or the profile rail is embodied as open at a second end , and the open end is embodied as an insertion bracket for an additional holding part of the storage plate arrangement .
A suspension system for a work vehicle , wherein the suspension system comprises: an axle bar ; an inner control member ; an outer control member ; and a slide housing , wherein the axle bar extends through the inner control member , the outer control member , and the slide housing , and the axle bar is rotatably coupled to the slide housing and is configured to pivot with the slide housing and relative to the inner control member and the outer control member , wherein the inner control member and the outer control member are configured to be rigidly coupled to an axle housing , characterized in that said suspension system comprising a suspension cylinder coupled to the slide housing . an axle bar ; an inner control member ; an outer control member ; and a slide housing , wherein the axle bar extends through the inner control member , the outer control member , and the slide housing , and the axle bar is rotatably coupled to the slide housing and is configured to pivot with the slide housing and relative to the inner control member and the outer control member , wherein the inner control member and the outer control member are configured to be rigidly coupled to an axle housing , characterized in that said suspension system comprising a suspension cylinder coupled to the slide housing .
A heterogeneous mass comprising a longitudinal axis, a lateral axis, a vertical axis, two or more enrobeable elements, wherein enrobeable element means a fiber, a group of fibers, a tuft, or a section of a film between two apertures, and further comprising one or more discrete open cell foam pieces wherein at least one of the discrete open cell foam pieces comprises a first vacuole and a second vacuole, wherein the first vacuole has a first cross sectional area, wherein the second vacuole has a second cross sectional area, wherein the first vacuole enrobes a first enrobeable element, wherein the second vacuole enrobes a second enrobeable element, wherein the first enrobeable element and the second enrobeable element exhibit different surface properties, and wherein one of the first enrobeable element or second enrobeable element comprises a surfactant coating.
A method comprising: at a first node providing mobile services to a user equipment , LTE, over a first network, wherein the first network is an access network and the first node terminates a first interface towards an access and mobility management function , AMF: receiving a setup request from the LTE to be connected to a second network over the first network; sending a fully qualified domain name, FQDN, of the first node over the first interface to the AMF in response to the setup request; triggering the AMF to transmit a session establishment request to a session management function , SMF, wherein the session establishment request includes the FQDN of the first node, and in response to receiving the session establishment request, the SMF selects one or more second nodes in the second network collocated with the first node based at least in part on a topology match of the FQDN of the first node and one or more FQDNs of the one or more second nodes; and providing LTE access to the second network over the first network through the collocated first node and the one or more second nodes. receiving a setup request from the LTE to be connected to a second network over the first network; sending a fully qualified domain name, FQDN, of the first node over the first interface to the AMF in response to the setup request; triggering the AMF to transmit a session establishment request to a session management function , SMF, wherein the session establishment request includes the FQDN of the first node, and in response to receiving the session establishment request, the SMF selects one or more second nodes in the second network collocated with the first node based at least in part on a topology match of the FQDN of the first node and one or more FQDNs of the one or more second nodes; and providing LTE access to the second network over the first network through the collocated first node and the one or more second nodes.
A system for injection molding a polymer article comprising: a mold 12; an injection device 10 in fluid communication with the mold 12 for directing a flow of a polymer material into the mold 12; a flow path 22 located between the injection device 10 and the mold 12, the flow path 22 including an injection point 52 for receiving the flow of a polymer material from the injection device 10 and a gate 54 positioned downstream from the injection point 52 on the flow path 22, the gate 54 being located at or adjacent to an opening leading into the mold 12; at least one overflow passage 56, 58 in fluid communication with the flow path 22 between the injection point 52 and the gate 54, the overflow passage 56, 58 being configured such that during initial flow of a polymer material through the flow path 22, a portion of the flow is diverted temporarily to the at least one overflow passage 56, 58 causing a flow rate of a polymer material through the gate 54 to be reduced temporarily and then increased. a mold 12; an injection device 10 in fluid communication with the mold 12 for directing a flow of a polymer material into the mold 12; a flow path 22 located between the injection device 10 and the mold 12, the flow path 22 including an injection point 52 for receiving the flow of a polymer material from the injection device 10 and a gate 54 positioned downstream from the injection point 52 on the flow path 22, the gate 54 being located at or adjacent to an opening leading into the mold 12; at least one overflow passage 56, 58 in fluid communication with the flow path 22 between the injection point 52 and the gate 54, the overflow passage 56, 58 being configured such that during initial flow of a polymer material through the flow path 22, a portion of the flow is diverted temporarily to the at least one overflow passage 56, 58 causing a flow rate of a polymer material through the gate 54 to be reduced temporarily and then increased.
Thin-film encapsulation structure for electronic devices with organic substances, especially OLEDs or other organic optoelectronic devices, with a primary, inorganic barrier layer , which is directly arranged on the device or the surface to be encapsulated; a planarization layer arranged on the primary, inorganic barrier layer, the thickness of said planarization layer selected such that it is thicker than the simple value of the distance between highest peak and deepest valley of the surface of the primary barrier layer or the surface of the device under the primary, inorganic barrier layer or the surface to be encapsulated, characterized in that a secondary barrier layer comprises exactly two inorganic sublayers with an organic sublayer arranged between them, the secondary barrier layer being arranged on the planarization layer, wherein arranged on the secondary barrier is a hydrophobic layer , whose surface energy is such that the contact angle with water is greater than 80 deg.