mhurhangee/ep-ind-claims huggingface dataset:
A coffee machine, characterised in that it comprises an assemblable modular frame comprising a primary module and structurally independent secondary modules (3, 4) rigidly connected with the primary module, primary components for the operation of the coffee machine assembled in the primary module, and an aesthetic casing for covering said assemblable modular frame, said secondary modules (3, 4) comprising at least one base secondary module and at least one lateral secondary module, respectively, cooperating with the primary module to define the height and the overall width, respectively, of the coffee machine, secondary components for the operation of the coffee machine assembled in at least one of said secondary modules (3, 4) being further provided, the machine being characterized in that said primary components comprise a filter holder cup, at least one water tank, a pump for supplying the coffee infusion water, a boiler for heating the coffee infusion water, an electronic control board, an on switch, and distribution valve means of water and/or steam and/or coffee, said secondary components comprising a grinder for the coffee.
A process for the synthesis of ammonia from a hydrocarbon feedstock, the process comprising: a step of primary reforming of said hydrocarbon feedstock with steam obtaining a first reformed gas, a step of air-fired secondary reforming of said first reformed gas, obtaining a raw gas product, purification of said raw gas product obtaining a make-up synthesis gas, conversion of said make-up synthesis gas into ammonia in a synthesis loop, characterized in that: said primary reforming is performed at a temperature of at least 790 °C and pressure of at least 50 bar; said step of secondary reforming is carried out substantially in absence of excess air relative to the stoichiometric amount; said make-up synthesis gas has a H 2 to N 2 molar ratio of 2.5 or greater but less than 3 and the process includes extraction from said loop of a purge stream, separation of a hydrogen-containing stream from said purge stream and addition of said hydrogen-containing stream to said make-up gas in order to adjust said H 2 to N 2 ratio. a step of primary reforming of said hydrocarbon feedstock with steam obtaining a first reformed gas, a step of air-fired secondary reforming of said first reformed gas, obtaining a raw gas product, purification of said raw gas product obtaining a make-up synthesis gas, conversion of said make-up synthesis gas into ammonia in a synthesis loop, said primary reforming is performed at a temperature of at least 790 °C and pressure of at least 50 bar; said step of secondary reforming is carried out substantially in absence of excess air relative to the stoichiometric amount; said make-up synthesis gas has a H 2 to N 2 molar ratio of 2.5 or greater but less than 3 and the process includes extraction from said loop of a purge stream, separation of a hydrogen-containing stream from said purge stream and addition of said hydrogen-containing stream to said make-up gas in order to adjust said H 2 to N 2 ratio.
A tinnitus treatment system, comprising: a tinnitus treatment algorithm having one or more frequencies of tinnitus perceived by a patient; a housing configured to fit to at least a portion of at least one tooth of the patient; an actuatable transducer (40, 56, 66) disposed within or upon the housing and configured to transmit vibrations to a surface of the at least one tooth, wherein the housing is secured to the at least one tooth; and a processor (32, 54, 64, 94, 132, 184) configured to actuate the transducer against the surface of the at least one tooth at the one or more frequencies according to the tinnitus treatment algorithm. a tinnitus treatment algorithm having one or more frequencies of tinnitus perceived by a patient; a housing configured to fit to at least a portion of at least one tooth of the patient; an actuatable transducer (40, 56, 66) disposed within or upon the housing and configured to transmit vibrations to a surface of the at least one tooth, wherein the housing is secured to the at least one tooth; and a processor (32, 54, 64, 94, 132, 184) configured to actuate the transducer against the surface of the at least one tooth at the one or more frequencies according to the tinnitus treatment algorithm.
A continuous process for manufacturing a solid phosphorus/potassium (P/K) fertilizer consisting essentially of K 3 H 3 (PO 4) 2 and water in an amount of up to 10 wt% from phosphoric acid and potassium hydroxide, the fertilizer being particulate and freely-flowing, its relative fluidity being at least 60%, said process comprising i) the step of providing a concentrated aqueous solution of PA, between 50 and 85 wt%, and a concentrated aqueous solution of KOH, between 30 and 52 wt%; ii) the step of combining said concentrated solutions of step i) in a reactor ensuring a PA/KOH dry weight ratio between 1.14 and 1.22 and a reaction temperature between 85 and 120°C, thereby obtaining a liquid reaction mixture; iii) the step of drying said reaction mixture of step ii) in a vacuum dryer ensuring a reaction temperature between 85 and 120°C and a pressure of at most 400 mbar, whereby obtaining a solid material, wherein said step of drying is separate in time and space from said step ii); and iv) cooling down said solid material of step iii) to ambient temperature; thereby obtaining the solid fertilizer without tendency to cake, wherein a) said K 3 H 3 (PO 4) 2 corresponds in composition to an equimolar mixture of MKP and DKP while obviating the manipulations difficulty of said MKP and DKP equimolar mixture and b) said solid P/K fertilizer provides essentially neutral pHaqueous solutions i) the step of providing a concentrated aqueous solution of PA, between 50 and 85 wt%, and a concentrated aqueous solution of KOH, between 30 and 52 wt%; ii) the step of combining said concentrated solutions of step i) in a reactor ensuring a PA/KOH dry weight ratio between 1.14 and 1.22 and a reaction temperature between 85 and 120°C, thereby obtaining a liquid reaction mixture; iii) the step of drying said reaction mixture of step ii) in a vacuum dryer ensuring a reaction temperature between 85 and 120°C and a pressure of at most 400 mbar, whereby obtaining a solid material, wherein said step of drying is separate in time and space from said step ii); and iv) cooling down said solid material of step iii) to ambient temperature; thereby obtaining the solid fertilizer without tendency to cake, wherein a) said K 3 H 3 (PO 4) 2 corresponds in composition to an equimolar mixture of MKP and DKP while obviating the manipulations difficulty of said MKP and DKP equimolar mixture and b) said solid P/K fertilizer provides essentially neutral pHaqueous solutions a) said K 3 H 3 (PO 4) 2 corresponds in composition to an equimolar mixture of MKP and DKP while obviating the manipulations difficulty of said MKP and DKP equimolar mixture and b) said solid P/K fertilizer provides essentially neutral pHaqueous solutions
A method for wireless communications by a user equipment, UE, comprising: receiving a deployment configuration for an in-band mode of operation within system bandwidth of a type of radio access technology, RAT; and operating as if configured to operate within a guard-band of the system bandwidth or in a standalone mode while communicating in the in-band mode. receiving a deployment configuration for an in-band mode of operation within system bandwidth of a type of radio access technology, RAT; and operating as if configured to operate within a guard-band of the system bandwidth or in a standalone mode while communicating in the in-band mode.
A micro-fluidic system comprising: a. a first inlet reservoir; b. a first output reservoir; c. a first curvilinear microchannel comprising a first inlet in fluid communication with the first inlet reservoir, a first outlet in fluid communication with the first inlet reservoir, and a second outlet in fluid communication with the first output reservoir; wherein said curvilinear microchannel (i) is configured to separate particles from a sample fluid comprising a mixture of particles; (ii) has a trapezoidal cross section defined by a radially inner side, a radially outer side, a bottom side, and a top side, the cross section having a) the radially inner side and the radially outer side unequal in height, or b) the radially inner side equal in height to the radially outer side and the top side having at least two continuous straight sections, each unequal in width to the bottom side, and (iii) is a spiral microchannel, optionally comprising at least 2 loops or at least 4 loops, and wherein the micro-fluidic system is configured to provide a closed loop recirculation of the sample fluid through the first curvilinear microchannel. a. a first inlet reservoir; b. a first output reservoir; c. a first curvilinear microchannel comprising a first inlet in fluid communication with the first inlet reservoir, a first outlet in fluid communication with the first inlet reservoir, and a second outlet in fluid communication with the first output reservoir; wherein said curvilinear microchannel (i) is configured to separate particles from a sample fluid comprising a mixture of particles; (ii) has a trapezoidal cross section defined by a radially inner side, a radially outer side, a bottom side, and a top side, the cross section having a) the radially inner side and the radially outer side unequal in height, or b) the radially inner side equal in height to the radially outer side and the top side having at least two continuous straight sections, each unequal in width to the bottom side, and (iii) is a spiral microchannel, optionally comprising at least 2 loops or at least 4 loops, and wherein the micro-fluidic system is configured to provide a closed loop recirculation of the sample fluid through the first curvilinear microchannel. (i) is configured to separate particles from a sample fluid comprising a mixture of particles; (ii) has a trapezoidal cross section defined by a radially inner side, a radially outer side, a bottom side, and a top side, the cross section having a) the radially inner side and the radially outer side unequal in height, or b) the radially inner side equal in height to the radially outer side and the top side having at least two continuous straight sections, each unequal in width to the bottom side, and (iii) is a spiral microchannel, optionally comprising at least 2 loops or at least 4 loops, and wherein the micro-fluidic system is configured to provide a closed loop recirculation of the sample fluid through the first curvilinear microchannel.
A computer-implemented method for processing an interest at a network node of a content-centric network autonomous system, comprising: receiving, by the network node, an interest for a content object, said interest having a structured name; responsive to determining that the local network node does not satisfy the interest, determining a label indicating network information for a remote network node; attaching the label to the interest; and forwarding the interest to the remote network node based on the label, characterized in that determining the label involves performing a lookup operation on a cache-server routing table (CSRT), using the interest's structured name, to obtain a label for a cache server assigned to the interest's structured name. receiving, by the network node, an interest for a content object, said interest having a structured name; responsive to determining that the local network node does not satisfy the interest, determining a label indicating network information for a remote network node; attaching the label to the interest; and forwarding the interest to the remote network node based on the label, characterized in that determining the label involves performing a lookup operation on a cache-server routing table (CSRT), using the interest's structured name, to obtain a label for a cache server assigned to the interest's structured name.
A reciprocating gaseous fuel combustion engine comprising: a combustion unit configured to receive a stream of charge air and gaseous fuel; at least one water injector configured to inject water into or upstream of the combustion unit; a first cooler fluidly connected upstream of the combustion unit and configured to cool a mixture of charge air and gaseous fuel; and a first water collector fluidly interconnected between the first cooler and the at least one water injector, the first water collector being configured to collect condensed water and to provide the collected water to the at least one water injector. a combustion unit configured to receive a stream of charge air and gaseous fuel; at least one water injector configured to inject water into or upstream of the combustion unit; a first cooler fluidly connected upstream of the combustion unit and configured to cool a mixture of charge air and gaseous fuel; and a first water collector fluidly interconnected between the first cooler and the at least one water injector, the first water collector being configured to collect condensed water and to provide the collected water to the at least one water injector.
A method for computer-aided processing of SAR raw data which includes radar echoes of radar pulses which were emitted by a radar device on at least one flying object moving in an azimuth direction (x) above the earth's surface, wherein the radar echoes of the radar pulses were received and detected by the radar device and wherein the SAR raw data contains data samples for a plurality of range positions for each radar pulse, wherein the range positions represent different distances between the earth' s surface and the azimuth direction (x), wherein an interference radar echo and an interference pulse are associated with a respective radar pulse, wherein the interference radar echo is a radar echo of the interference pulse for a first range position and the interference radar echo is received by the radar device simultaneously with a radar echo of the respective radar pulse for a second range position, wherein the interference pulse is a different radar pulse than the respective radar pulse and wherein the interference pulse and the respective radar pulse have orthogonal waveforms, characterized in that a) the SAR raw data is focused by means of a first focusing on the interference pulses associated with the respective radar pulses, thereby obtaining first focused data wherein a range compression and an azimuth compression are carried out during the first focusing, and in the process, a filtering is applied for the range compression of a respective radar pulse, said filtering being adapted to the waveform of the associated interference pulse, b) the first focused data is subjected to a signal suppression which at least partially suppresses the associated interference radar echo for each radar pulse, whereby second focused data is obtained; c) the second focused data is subjected to a defocusing, whereby modified SAR raw data (RD') is obtained, wherein during the defocusing a range decompression and an azimuth decompression are carried out, which are inverse to the range compression and the azimuth compression of the first focusing. a) the SAR raw data is focused by means of a first focusing on the interference pulses associated with the respective radar pulses, thereby obtaining first focused data wherein a range compression and an azimuth compression are carried out during the first focusing, and in the process, a filtering is applied for the range compression of a respective radar pulse, said filtering being adapted to the waveform of the associated interference pulse, b) the first focused data is subjected to a signal suppression which at least partially suppresses the associated interference radar echo for each radar pulse, whereby second focused data is obtained; c) the second focused data is subjected to a defocusing, whereby modified SAR raw data (RD') is obtained, wherein during the defocusing a range decompression and an azimuth decompression are carried out, which are inverse to the range compression and the azimuth compression of the first focusing.
A method of operating a user equipment 'UE' in a wireless communications network, the method comprising: identifying, by the UE, a cell change type associated with a neighboring cell, wherein the cell change type is based, at least in part, on a transmission power level of the neighboring cell and a transmission power level of the UE's serving cell; in response to identifying the cell change type associated with the neighboring cell, determining, by the UE, a time-to-trigger parameter, wherein the time-to-trigger parameter is determined by applying a scaling factor associated with the cell change type to a nominal time-to-trigger value; and executing, by the UE, a cell handover procedure with the neighboring cell using the time-to-trigger parameter, wherein the cell change type is a change of cell type between the UE's serving cell and the neighboring cell as part of a cell handover procedure; and wherein a cell type of the serving cell is one of a macro, pico, relay, or femto cell; and wherein a cell type of the neighboring cell is one of a macro, pico, relay, or femto cell. identifying, by the UE, a cell change type associated with a neighboring cell, wherein the cell change type is based, at least in part, on a transmission power level of the neighboring cell and a transmission power level of the UE's serving cell; in response to identifying the cell change type associated with the neighboring cell, determining, by the UE, a time-to-trigger parameter, wherein the time-to-trigger parameter is determined by applying a scaling factor associated with the cell change type to a nominal time-to-trigger value; and executing, by the UE, a cell handover procedure with the neighboring cell using the time-to-trigger parameter, wherein the cell change type is a change of cell type between the UE's serving cell and the neighboring cell as part of a cell handover procedure; and wherein a cell type of the serving cell is one of a macro, pico, relay, or femto cell; and wherein a cell type of the neighboring cell is one of a macro, pico, relay, or femto cell.
A process for the removal of a toxic heavy metal selected from cadmium, mercury, indium, thallium, germanium, tin, lead, arsenic, antimony, bismuth, selenium, tellurium and polonium from a heavy metal-containing hydrocarbon fluid feed comprising the steps of: (i) contacting the heavy metal-containing hydrocarbon fluid feed with a metal perhalide having the following formula: + - wherein: + represents one or more metal cations wherein the metal has an atomic number greater than 36; a covalent atomic radius of at least 150 pm, empirically measured as defined in Journal of Chemical Physics 41, 1964, pages 3199 to 3205 and a 1 st ionization energy of less than 750 kJmol -1; - represents one or more perhalide anions; and (ii) obtaining a hydrocarbon fluid product having a reduced toxic heavy metal content compared to the heavy metal-containing hydrocarbon fluid feed. (i) contacting the heavy metal-containing hydrocarbon fluid feed with a metal perhalide having the following formula: + - wherein: + represents one or more metal cations wherein the metal has an atomic number greater than 36; a covalent atomic radius of at least 150 pm, empirically measured as defined in Journal of Chemical Physics 41, 1964, pages 3199 to 3205 and a 1 st ionization energy of less than 750 kJmol -1; - represents one or more perhalide anions; and (ii) obtaining a hydrocarbon fluid product having a reduced toxic heavy metal content compared to the heavy metal-containing hydrocarbon fluid feed.
A Distributed Unit network node (DU, 10) in a communication system implementing higher layer split, HLS, comprising: a receiving unit configured to receive a radio resource control, RRC, message of a higher layer from a user equipment; characterized by further comprising: a control unit configured to determine a higher Central Unit network node (CU, 10) to which the radio resource control, RRC, message of the higher layer is to be transmitted from among a plurality of higher Central Unit network nodes that terminate a higher layer; and a transmitting unit configured to transmit the radio resource control, RRC, message of the higher layer to the determined higher Central Unit network node, wherein the control unit is configured to determine the higher Central Unit network node (CU, 10) to which the radio resource control, RRC, message of the higher layer is to be transmitted, based on a result of decoding a part of the radio resource control, RRC, message of the higher layer. a receiving unit configured to receive a radio resource control, RRC, message of a higher layer from a user equipment; characterized by further comprising: a control unit configured to determine a higher Central Unit network node (CU, 10) to which the radio resource control, RRC, message of the higher layer is to be transmitted from among a plurality of higher Central Unit network nodes that terminate a higher layer; and a transmitting unit configured to transmit the radio resource control, RRC, message of the higher layer to the determined higher Central Unit network node, wherein the control unit is configured to determine the higher Central Unit network node (CU, 10) to which the radio resource control, RRC, message of the higher layer is to be transmitted, based on a result of decoding a part of the radio resource control, RRC, message of the higher layer. a control unit configured to determine a higher Central Unit network node (CU, 10) to which the radio resource control, RRC, message of the higher layer is to be transmitted from among a plurality of higher Central Unit network nodes that terminate a higher layer; and a transmitting unit configured to transmit the radio resource control, RRC, message of the higher layer to the determined higher Central Unit network node, wherein the control unit is configured to determine the higher Central Unit network node (CU, 10) to which the radio resource control, RRC, message of the higher layer is to be transmitted, based on a result of decoding a part of the radio resource control, RRC, message of the higher layer.
A hyaluronan conjugate comprising hyaluronan having free hemi-ester-groups and a pharmaceutically active compound bound to the hyaluronan via hemi-ester groups wherein the hemi-ester groups have a chain length of 2-9 atoms.
An asymmetric bearing device, suitable for supporting a cable storage drum, comprising: a first race; a second race; and a cog assembly disposed between the first race and the second race, wherein the cog assembly is configured to allow rotation of the asymmetric bearing device in a first direction and a second direction to allow winding and unwinding of a cable and to provide a first friction level between the first and second race during rotation of the asymmetric bearing device in the first direction, and a second friction level between the first and second race during rotation of the asymmetric bearing device in the second direction. a first race; a second race; and a cog assembly disposed between the first race and the second race, wherein the cog assembly is configured to allow rotation of the asymmetric bearing device in a first direction and a second direction to allow winding and unwinding of a cable and to provide a first friction level between the first and second race during rotation of the asymmetric bearing device in the first direction, and a second friction level between the first and second race during rotation of the asymmetric bearing device in the second direction.