mhurhangee/ep-ind-claims huggingface dataset:
A threshing chamber comprising: a generally cylindrical rotor cover with a plurality of slots passing therethrough and arranged either as a plurality of rings or as a helix extending along at least a portion of the length of the cylindrical rotor cover; and a plurality of crop transport vane assemblies that comprise: - a housing comprising a side wall defining a slot through the housing; and - a planar transport vane sized and configured for insertion into and through said slot between a secured deployed position and a secured undeployed position and one or more secured positions therebetween, wherein each of said crop transport vane assemblies is positioned at a corresponding slot of said plurality of slots for selective displacement of the planar transport vane therethrough between a secured undeployed position and a secured deployed position and one or more secured positions therebetween, characterised in that the threshing chamber further is provided with an eccentric shaft connected to one or more of said crop transport vanes, such that rotation of the eccentric shaft results in displacement of the one or more crop transport vanes to achieve remote adjustment of the crop transport vane depth. a generally cylindrical rotor cover with a plurality of slots passing therethrough and arranged either as a plurality of rings or as a helix extending along at least a portion of the length of the cylindrical rotor cover; and a plurality of crop transport vane assemblies that comprise: - a housing comprising a side wall defining a slot through the housing; and - a planar transport vane sized and configured for insertion into and through said slot between a secured deployed position and a secured undeployed position and one or more secured positions therebetween, - a housing comprising a side wall defining a slot through the housing; and - a planar transport vane sized and configured for insertion into and through said slot between a secured deployed position and a secured undeployed position and one or more secured positions therebetween, wherein each of said crop transport vane assemblies is positioned at a corresponding slot of said plurality of slots for selective displacement of the planar transport vane therethrough between a secured undeployed position and a secured deployed position and one or more secured positions therebetween, characterised in that the threshing chamber further is provided with an eccentric shaft connected to one or more of said crop transport vanes, such that rotation of the eccentric shaft results in displacement of the one or more crop transport vanes to achieve remote adjustment of the crop transport vane depth.
A process for producing Portland cement clinker from at least crushed limestone and crushed sand and clay including the steps of: a. Mixing the limestone, and the sand and clay to form a mixed powder; b. Calcining the mixed powder in a calciner reactor, wherein the calciner reactor is adapted to apply indirect heat generated from the combustion of a first fuel input to produce a pre-heated mixed powder, and wherein the calciner reactor generates a first gas stream of carbon dioxide from the calcination of limestone, and a separate second gas stream from the combustion of the first fuel input; c. Introducing the mixed powder into a kiln using direct heating to produce Portland cement clinker, where the kiln is fueled by the combustion of a second fuel input mixed with air that is pre-heated by hot Portland cement clinker exiting the kiln. a. Mixing the limestone, and the sand and clay to form a mixed powder; b. Calcining the mixed powder in a calciner reactor, wherein the calciner reactor is adapted to apply indirect heat generated from the combustion of a first fuel input to produce a pre-heated mixed powder, and wherein the calciner reactor generates a first gas stream of carbon dioxide from the calcination of limestone, and a separate second gas stream from the combustion of the first fuel input; c. Introducing the mixed powder into a kiln using direct heating to produce Portland cement clinker, where the kiln is fueled by the combustion of a second fuel input mixed with air that is pre-heated by hot Portland cement clinker exiting the kiln.
A display control method for a user equipment comprising at least one system physical key, the method comprising: - detecting, by a user equipment, a current screen direction in real time; and - placing a system virtual key in a currently displayed title bar of the user equipment if the user equipment determines an occurrence of a change of the current screen direction; characterized in that the step of placing the system virtual key in the currently displayed title bar of the user equipment comprises: - virtualizing, by the user equipment, the system physical key to obtain the system virtual key; and - obtaining a key icon by the user equipment, the key icon corresponding to the system virtual key; - assigning, by the user equipment, the key icon to the system virtual key; and - performing an image processing on the currently displayed title bar and the obtained key icon to obtain a new title bar comprising the key icon, - thereby enabling the user equipment to activate the system virtual key if an area of the key icon comprised in the new title bar is touched by a user. - detecting, by a user equipment, a current screen direction in real time; and - placing a system virtual key in a currently displayed title bar of the user equipment if the user equipment determines an occurrence of a change of the current screen direction; - virtualizing, by the user equipment, the system physical key to obtain the system virtual key; and - obtaining a key icon by the user equipment, the key icon corresponding to the system virtual key; - assigning, by the user equipment, the key icon to the system virtual key; and - performing an image processing on the currently displayed title bar and the obtained key icon to obtain a new title bar comprising the key icon, - thereby enabling the user equipment to activate the system virtual key if an area of the key icon comprised in the new title bar is touched by a user.
A method for producing a sealed and thermally insulating wall for a fluid storage tank, comprising the steps of: • attaching a plurality of anchoring elements to a support structure; • installing modular formwork elements on the support structure, the modular formwork elements having a shape that protrudes relative to the support structure and that defines, with the support structure and the plurality of anchoring parts, mutually adjacent compartments having an open side opposite the support structure, two mutually adjacent compartments being separated in each case by a modular formwork element positioned between them; • spraying insulating foam into said compartments through the open side so as to form a plurality of insulating sectors made from sprayed insulating foam; • withdrawing the modular formwork elements; • arranging compressible insulating junction elements in place of the modular formwork elements, the insulating junction elements being arranged in a stressed position in which they are stressed between said insulating sectors and capable of expanding when said insulating sectors contract, so as to ensure continuity of the thermal insulation; and • attaching a sealing membrane to said anchoring elements. • attaching a plurality of anchoring elements to a support structure; • installing modular formwork elements on the support structure, the modular formwork elements having a shape that protrudes relative to the support structure and that defines, with the support structure and the plurality of anchoring parts, mutually adjacent compartments having an open side opposite the support structure, two mutually adjacent compartments being separated in each case by a modular formwork element positioned between them; • spraying insulating foam into said compartments through the open side so as to form a plurality of insulating sectors made from sprayed insulating foam; • withdrawing the modular formwork elements; • arranging compressible insulating junction elements in place of the modular formwork elements, the insulating junction elements being arranged in a stressed position in which they are stressed between said insulating sectors and capable of expanding when said insulating sectors contract, so as to ensure continuity of the thermal insulation; and • attaching a sealing membrane to said anchoring elements.
Sailcloth having emergency-operating properties, comprising a woven fabric having a first fibre material and a second fibre material woven into it, wherein the second fibre material forms a regular network structure within the woven fabric, has a higher tear resistance and a higher sliding capacity than the first fibre material, characterised in that the first fibre material comprises a coating that reduces the sliding capability and/or the second fibre material comprises a coating that increases the sliding capability.
An apparatus for reporting in a wireless communication system comprising: means for generating a set of reports for each of a plurality of reporting intervals; means for arranging the set of reports for each reporting interval in accordance with a reporting format; means for repetitively sending a plurality of sets of reports in the plurality of reporting intervals; means for receiving an assignment of a control channel used to send reports; and means for determining the reporting format based on the assignment of the control channel. means for generating a set of reports for each of a plurality of reporting intervals; means for arranging the set of reports for each reporting interval in accordance with a reporting format; means for repetitively sending a plurality of sets of reports in the plurality of reporting intervals; means for receiving an assignment of a control channel used to send reports; and means for determining the reporting format based on the assignment of the control channel.
Inkjet printing machine for printing individual sheets, comprising a) at least one printing station; b) a transport system defining a transport track for transporting the individual sheets through the printing station, along a transport direction; the transport system comprising a plurality of gripper conveyors running along the transport track for holding the individual sheets during a printing process in the printing station, wherein each of the gripper conveyors comprises an energy storage for providing energy for operating a gripper mechanism of the gripper conveyor; and characterised in that the energy storage comprises a compressed air reservoir. a) at least one printing station; b) a transport system defining a transport track for transporting the individual sheets through the printing station, along a transport direction; the transport system comprising a plurality of gripper conveyors running along the transport track for holding the individual sheets during a printing process in the printing station, wherein each of the gripper conveyors comprises an energy storage for providing energy for operating a gripper mechanism of the gripper conveyor; and characterised in that the energy storage comprises a compressed air reservoir.
A beam director system for a high energy laser, HEL, weapon, the system comprising: an HEL beam source for an HEL beam; output optics downstream of the HEL beam source; first beam correction elements (20, 118) downstream of the HEL beam source; second beam correction elements (28, 122) downstream of the HEL beam source, and upstream of the output optics; one or more beam correction sensors (54, 56) and one or more tracking sensors; and a source for a target illuminator beam, range-finding beam, and/or dazzler, for providing an additional beam for tracking the target; and a pickoff (22, 123) that is configured to divert the target illuminator beam, range-finding beam, and/or dazzler from an optical path followed by the HEL beam; wherein the one or more beam correction sensors and the one or more tracking sensors are downstream of the first beam correction elements and are upstream of the second beam correction elements; and wherein the target illuminator beam, range-finding beam, and/or dazzler is configured to pass through the first beam correction elements. an HEL beam source for an HEL beam; output optics downstream of the HEL beam source; first beam correction elements (20, 118) downstream of the HEL beam source; second beam correction elements (28, 122) downstream of the HEL beam source, and upstream of the output optics; one or more beam correction sensors (54, 56) and one or more tracking sensors; and a source for a target illuminator beam, range-finding beam, and/or dazzler, for providing an additional beam for tracking the target; and a pickoff (22, 123) that is configured to divert the target illuminator beam, range-finding beam, and/or dazzler from an optical path followed by the HEL beam; wherein the one or more beam correction sensors and the one or more tracking sensors are downstream of the first beam correction elements and are upstream of the second beam correction elements; and wherein the target illuminator beam, range-finding beam, and/or dazzler is configured to pass through the first beam correction elements.
A server comprising: a processing unit configured to: interlace audio data packets with video data to form an interlaced audio/video data file having an approximately uniform audio time interval between consecutive audio data packets in the interlaced audio/video data file; and transmit a plurality of concurrent audio/video streams of the interlaced audio/video data file; an interrupt timer configured to provide periodic interrupt signals; wherein the processing unit is configured to use the periodic interrupt signals to synchronize the transmission of audio data packets and video data packets across the concurrent audio/video streams whereby the start of transmission of each instance of the audio data packets in one stream are synchronized with instances of the audio data packets in the other streams, and the start of transmission of each instance of the video data packets in one stream are synchronized with instances of the video data packets in the other streams. a processing unit configured to: interlace audio data packets with video data to form an interlaced audio/video data file having an approximately uniform audio time interval between consecutive audio data packets in the interlaced audio/video data file; and transmit a plurality of concurrent audio/video streams of the interlaced audio/video data file; interlace audio data packets with video data to form an interlaced audio/video data file having an approximately uniform audio time interval between consecutive audio data packets in the interlaced audio/video data file; and transmit a plurality of concurrent audio/video streams of the interlaced audio/video data file; an interrupt timer configured to provide periodic interrupt signals; wherein the processing unit is configured to use the periodic interrupt signals to synchronize the transmission of audio data packets and video data packets across the concurrent audio/video streams whereby the start of transmission of each instance of the audio data packets in one stream are synchronized with instances of the audio data packets in the other streams, and the start of transmission of each instance of the video data packets in one stream are synchronized with instances of the video data packets in the other streams.
Device for the thermal treatment of a liquid or viscous filling material, as a primary process, comprising a first and a second heat exchanger (3, 4), each of which has a primary side (4.1, 5.1) and a secondary side (4.2, 5.2), wherein the secondary side intake (4.2.1) of the first heat exchanger is connected to an intake for the liquid or viscous material, wherein the secondary side outlet (4.2.2) of the first heat exchanger is connected to the secondary side intake (5.2.1) of the second heat exchanger, wherein the secondary side outlet (5.2.2) of the second heat exchanger is connected to a process section, and wherein the process section is connected, on the discharge side, to the primary side (4.1) of the first heat exchanger, characterised in that between the secondary side outlet (4.2.2) of the first heat exchanger and the process section a branch (8, 8') is provided, by means of which a partial flow of the liquid or viscous material is branched off, and in that the branch (8, 8') is connected to the intake of a heat exchanger section, by means of which thermal energy contained in the partial flow is fed to a secondary process, and that the outlet of the heat exchanger section is connected to the secondary side intake (4.2.1) of the first heat exchanger, or that the branch (8, 8') is connected to the intake of a mixing or collecting container, where the partial flow is mixed with the filling material or with components of the filling material, whereby thermal energy contained in the partial flow is conveyed to these, and that an outlet of the mixing or collecting container is connected to the secondary side inlet (4.2.1) of the first heat exchanger.
An apparatus comprising: a core comprising a plurality of liquid crystals and a plurality of magnetic nanoparticles; a plurality of electrodes positioned relative to the core, a conductor disposed around the core, wherein the core, the plurality of electrodes, and the conductor form an adjustable inductor, wherein the apparatus is arranged so that changing a voltage applied to the plurality of electrodes changes a magnetic permeability of the core. a core comprising a plurality of liquid crystals and a plurality of magnetic nanoparticles; a plurality of electrodes positioned relative to the core, a conductor disposed around the core, wherein the core, the plurality of electrodes, and the conductor form an adjustable inductor, wherein the apparatus is arranged so that changing a voltage applied to the plurality of electrodes changes a magnetic permeability of the core.
Method for producing a cold or hot rolled steel strip comprising a metal coating, the steel strip comprising iron as the main component and, in addition to carbon, an Mn content of 4.1 to 8.0 wt.% and optionally one or more of the alloying elements Al, Si, Cr, B, Ti, V, Nb and/or Mo, wherein the surface of the uncoated steel strip is cleaned, a layer of pure iron having an average iron content of greater than 96 wt.% is applied to the cleaned surface, an oxygen-containing, iron-based layer containing greater than 5 mass percent of oxygen is applied to the layer of pure iron, the steel strip is then subjected to annealing treatment together with the oxygen-containing, iron-based layer and, during the annealing, is subjected to reduction treatment in a reducing furnace atmosphere, and finally the steel strip thus treated and annealed is subjected to hot dip coating with the metal coating.
An aqueous coating agent composition, comprising: a curable resin in the form of an aqueous emulsion; a surfactant; solid particles; one or more nitrogen-containing heterocyclic compounds; and water; wherein the component contains an anionic surfactant different from a surfactant used for the emulsion formation of the component, and the component is 1,3-dimethyl-2-imidazolidinone. a curable resin in the form of an aqueous emulsion; a surfactant; solid particles; one or more nitrogen-containing heterocyclic compounds; and water;
A fastener driver comprising: a first nosepiece; a second nosepiece coupled to the first nosepiece with a fastener driving channel formed between the first nosepiece and the second nosepiece; a workpiece contact element movable with respect to the first nosepiece and the second nosepiece between an extended position and a retracted position; and a quick-release latch that is operable to secure the first nosepiece and the second nosepiece together, wherein the workpiece contact element is positioned between the quick-release latch and the first nosepiece, wherein the workpiece contact element is operable to move from the extended position to the retracted position when the workpiece contact element contacts a workpiece and a force directed toward the workpiece is applied to the fastener driver, characterized in that the first nosepiece includes a groove in which the workpiece contact element is received. a first nosepiece; a second nosepiece coupled to the first nosepiece with a fastener driving channel formed between the first nosepiece and the second nosepiece; a workpiece contact element movable with respect to the first nosepiece and the second nosepiece between an extended position and a retracted position; and a quick-release latch that is operable to secure the first nosepiece and the second nosepiece together, wherein the workpiece contact element is positioned between the quick-release latch and the first nosepiece, wherein the workpiece contact element is operable to move from the extended position to the retracted position when the workpiece contact element contacts a workpiece and a force directed toward the workpiece is applied to the fastener driver, characterized in that the first nosepiece includes a groove in which the workpiece contact element is received.
A processor comprising: a core to execute instructions; and a core perimeter logic coupled to the core, the core perimeter logic including: a fabric interface logic having a first storage to store state information of the core when the core is in a low power state, wherein the core perimeter logic is to enable an inter-die interconnect coupled between the core and an uncore to be maintained in an active state during entry of the core into a low power state, wherein the fabric interface logic includes a snoop logic to receive a snoop request from a requester when the core is in the low power state and send a snoop response to the requester while the core is to remain in the low power state, and wherein the processor further comprises: monitor logic to monitor one or more monitored locations for an update to a value stored therein when the core is in a low power state, wherein upon such update, the fabric interface logic is to communicate a wakeup request to the core. a core to execute instructions; and a core perimeter logic coupled to the core, the core perimeter logic including: a fabric interface logic having a first storage to store state information of the core when the core is in a low power state, wherein the core perimeter logic is to enable an inter-die interconnect coupled between the core and an uncore to be maintained in an active state during entry of the core into a low power state, wherein the fabric interface logic includes a snoop logic to receive a snoop request from a requester when the core is in the low power state and send a snoop response to the requester while the core is to remain in the low power state, and wherein the processor further comprises: monitor logic to monitor one or more monitored locations for an update to a value stored therein when the core is in a low power state, wherein upon such update, the fabric interface logic is to communicate a wakeup request to the core.