mhurhangee/ep-ind-claims huggingface dataset:
Arrangement for producing a corrugated cardboard web laminated on one side, comprising a) a corrugating apparatus (24, 26; 87) for generating a corrugated web, which has a corrugation, from a first material web, b) a glue-applying apparatus for applying glue to tips of the corrugation of the corrugated web, c) a pressing apparatus for pressing a top web onto the tips, provided with glue, of the corrugated web, and d) a severing apparatus which is arranged upstream of the corrugating apparatus (24, 26; 87) and which serves for at least regionally severing the first material web in a transverse direction thereof, characterised in that e) the severing apparatus comprises a severing device with at least two severing elements which are displaceable in the transverse direction of the first material web and which serve for generating a wedge-shaped cut in the transported first material web, and f) is designed in such a way that it initially only partially severs the first material web when actuated, g) an actuable holding apparatus is positioned downstream of the severing apparatus, which is displaceable between an inactive position and an active position, h) the holding apparatus in its active position allows holding of a trailing web section of the first material web generated by means of the severing apparatus, and i) the corrugating apparatus (24, 26; 87) is capable of further transporting the first material web so that it tears at the predetermined location. a) a corrugating apparatus (24, 26; 87) for generating a corrugated web, which has a corrugation, from a first material web, b) a glue-applying apparatus for applying glue to tips of the corrugation of the corrugated web, c) a pressing apparatus for pressing a top web onto the tips, provided with glue, of the corrugated web, and d) a severing apparatus which is arranged upstream of the corrugating apparatus (24, 26; 87) and which serves for at least regionally severing the first material web in a transverse direction thereof, e) the severing apparatus comprises a severing device with at least two severing elements which are displaceable in the transverse direction of the first material web and which serve for generating a wedge-shaped cut in the transported first material web, and f) is designed in such a way that it initially only partially severs the first material web when actuated, g) an actuable holding apparatus is positioned downstream of the severing apparatus, which is displaceable between an inactive position and an active position, h) the holding apparatus in its active position allows holding of a trailing web section of the first material web generated by means of the severing apparatus, and i) the corrugating apparatus (24, 26; 87) is capable of further transporting the first material web so that it tears at the predetermined location.
A secondary battery deterioration estimation device for estimating a deterioration of a secondary battery, comprising: a memory (10b, 10c); and a processor, said processor configured to receive a first signal representing a discharging voltage from a voltage sensor; receive a second signal representing a discharging current from a current sensor; calculate values of elements forming an equivalent circuit of the secondary battery based on the first and second signals; calculate a state of health, SOH, of the secondary battery based on the values of the elements forming the equivalent circuit; and to output data representing the deterioration state of the secondary battery, characterized in that the processor is further configured to generate history information showing a history of a use state of the secondary battery and to calculate the state of health, SOH, of the secondary battery based on the history information, wherein the processor is further configured to determine a deterioration state of the secondary battery with reference to at least one of the state of health, SOH, calculated by the values of the elements or the state of health, SOH, calculated by the history information by the processor in accordance with a state of the secondary battery, wherein the secondary battery is mounted on a vehicle, and the processor is further configured to detect a running time and a stop time of the vehicle, and to generate the history information with reference to the detected running time and stop time, and to calculate the state of health, SOH, based on the generated history information. a memory (10b, 10c); and a processor, said processor configured to receive a first signal representing a discharging voltage from a voltage sensor; receive a second signal representing a discharging current from a current sensor; calculate values of elements forming an equivalent circuit of the secondary battery based on the first and second signals; calculate a state of health, SOH, of the secondary battery based on the values of the elements forming the equivalent circuit; and to output data representing the deterioration state of the secondary battery, characterized in that the processor is further configured to generate history information showing a history of a use state of the secondary battery and to calculate the state of health, SOH, of the secondary battery based on the history information, wherein the processor is further configured to determine a deterioration state of the secondary battery with reference to at least one of the state of health, SOH, calculated by the values of the elements or the state of health, SOH, calculated by the history information by the processor in accordance with a state of the secondary battery, wherein the secondary battery is mounted on a vehicle, and the processor is further configured to detect a running time and a stop time of the vehicle, and to generate the history information with reference to the detected running time and stop time, and to calculate the state of health, SOH, based on the generated history information.
A hydraulic binder composition for producing a very low-shrinkage concrete, comprising ordinary Portland cement, optionally a supplementary cementitious material, and an expanding agent, characterized in that the expanding agent is calcium oxide, wherein - the calcium oxide has a particle size distribution characterized by a residue of at least 6 wt.-% on a 45 μm mesh sieve, and at least one of the following: - the calcium oxide has a reactivity that is characterized by a conductivity of < 11 mS/cm when dissolved in water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by an average temperature increase of < 0,5°C/min during the first 15 minutes after the addition of the calcium oxide into water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by a temperature increase of < 10°C during the first 5 minutes after the addition of the calcium oxide into water determined as defined in the description. - the calcium oxide has a particle size distribution characterized by a residue of at least 6 wt.-% on a 45 μm mesh sieve, and at least one of the following: - the calcium oxide has a reactivity that is characterized by a conductivity of < 11 mS/cm when dissolved in water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by an average temperature increase of < 0,5°C/min during the first 15 minutes after the addition of the calcium oxide into water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by a temperature increase of < 10°C during the first 5 minutes after the addition of the calcium oxide into water determined as defined in the description.
A device for storing and vaporizing liquid media, comprising the following: an outer tube mounted around at least a portion of an inner tube, wherein the outer tube comprises an outer surface and an inner surface, wherein the inner tube comprises an inner surface defining an air path and an outer surface, and wherein an annular liquid media storage tank is defined between the outer surface of the inner tube and the inner surface of the outer tube; a mouth piece connected to a proximal end of the inner tube and to the outer tube; a heater coil casing defining a heater coil chamber; a heater coil mounted at least partially within the heater coil casing; and a wick that extends through a center of the heater coil and through a first port (139 1) in a first wall of the heater coil casing and through a second port (139 2) in a second wall of the heater coil casing, characterized in that, a first end portion of the wick extends into a first individual recessed pocket (138 1) in the annular liquid media storage tank, and wherein a second end portion of the wick extends into a second individual recessed pocket (138 2) in the annular liquid media storage tank. an outer tube mounted around at least a portion of an inner tube, wherein the outer tube comprises an outer surface and an inner surface, wherein the inner tube comprises an inner surface defining an air path and an outer surface, and wherein an annular liquid media storage tank is defined between the outer surface of the inner tube and the inner surface of the outer tube; a mouth piece connected to a proximal end of the inner tube and to the outer tube; a heater coil casing defining a heater coil chamber; a heater coil mounted at least partially within the heater coil casing; and a wick that extends through a center of the heater coil and through a first port (139 1) in a first wall of the heater coil casing and through a second port (139 2) in a second wall of the heater coil casing,
A meter, comprising: a signal processing circuit configured to: receive a pickoff signal from a fork density sensor; filter the signal; and synthesize a drive signal based on the filtered signal; and characterized by: an output circuit connected with the signal processing circuit, the output circuit being configured to receive the synthesized signal and provide a synthetic time period output signal. a signal processing circuit configured to: receive a pickoff signal from a fork density sensor; filter the signal; and synthesize a drive signal based on the filtered signal; and receive a pickoff signal from a fork density sensor; filter the signal; and synthesize a drive signal based on the filtered signal; and characterized by: an output circuit connected with the signal processing circuit, the output circuit being configured to receive the synthesized signal and provide a synthetic time period output signal.
A method of network bandwidth management, comprising: configuring packets at a node in a network having a plurality of nodes, for transmission in an upstream direction towards a root node, wherein each of the packets is within a flow of packets and is associated with a Quality of Service, QoS, level based on a Service Level Agreement, SLA; transmitting the packets within the flow of packets at a QoS level above the QoS level based on the SLA if available network bandwidth permits; receiving feedback from a node upstream of the node, wherein the node is a neighbour node of the upstream node and is a greater number of hops from the root node than the upstream node, the root node heading a structure of the nodes in the network, wherein the feedback restricts the flow of packets to the QoS level based on the SLA, and wherein the feedback is based at least in part on fullness of one or more buffers in the upstream node; sending feedback from the node to at least one neighbour node of the node, wherein the at least one neighbour node is a greater number of hops from the root node than the node, and wherein the feedback is based at least in part on fullness of one or more buffers in the node; transmitting additional packets within the flow of packets according to a bandwidth indicated by the QoS level based on the SLA; identifying packets whose flow label is indicated by the feedback; and recalculating a time-to-send for the identified packets, wherein the time-to-send is either set to an earlier time or postponed by the feedback. configuring packets at a node in a network having a plurality of nodes, for transmission in an upstream direction towards a root node, wherein each of the packets is within a flow of packets and is associated with a Quality of Service, QoS, level based on a Service Level Agreement, SLA; transmitting the packets within the flow of packets at a QoS level above the QoS level based on the SLA if available network bandwidth permits; receiving feedback from a node upstream of the node, wherein the node is a neighbour node of the upstream node and is a greater number of hops from the root node than the upstream node, the root node heading a structure of the nodes in the network, wherein the feedback restricts the flow of packets to the QoS level based on the SLA, and wherein the feedback is based at least in part on fullness of one or more buffers in the upstream node; sending feedback from the node to at least one neighbour node of the node, wherein the at least one neighbour node is a greater number of hops from the root node than the node, and wherein the feedback is based at least in part on fullness of one or more buffers in the node; transmitting additional packets within the flow of packets according to a bandwidth indicated by the QoS level based on the SLA; identifying packets whose flow label is indicated by the feedback; and recalculating a time-to-send for the identified packets, wherein the time-to-send is either set to an earlier time or postponed by the feedback.
A household appliance comprising a liquid tank, wherein the tank is adapted for translational movement between a use position in which the tank is positioned within a housing of the household appliance and a servicing position in which the tank is at least partially extracted from the housing, the household appliance further comprising biasing means for biasing the tank towards the servicing position, and releasable latch means (36; 38; 58) for selectively arresting the tank in the use position or releasing the tank for movement towards the servicing position, the household appliance further comprising a carriage associated to the tank and configured for translational movement along guide means provided in the housing; the biasing means comprising a spring element configured to be loaded when the tank is moved from the servicing position towards the use position; and the latch means comprises: a catch provided at the carriage, a locking member (38; 58) located at the housing which in the use position of the tank engages the catch to arrest the tank in the use position, and release means (40; 62) for disengaging the locking member from the catch. characterized in that the household appliance comprises an electric drive for retracting the locking member (38; 58) out of its engagement with the catch. a catch provided at the carriage, a locking member (38; 58) located at the housing which in the use position of the tank engages the catch to arrest the tank in the use position, and release means (40; 62) for disengaging the locking member from the catch.
A screw compressor, comprising a connection structure of an exhaust bearing seat for a compressor comprising an exhaust bearing seat, an oil separation bucket, and an oil separation screen assembly all arranged at an exhaust end of a body of the compressor, wherein a tail end of the exhaust bearing seat is connected with the oil separation screen assembly, and a vibration-reducing element is provided between the oil separation screen assembly and the oil separation bucket; wherein a retaining ring is provided on the inner wall of the oil separation bucket and is connected to the vibration-reducing element; and wherein the vibration-reducing element includes an annular sheathing portion, and a connection portion is formed by radially inward extension of an end of the annular sheathing portion towards the retaining ring; the annular sheathing portion is fitted over the outer periphery of the oil separation screen assembly, and the connection portion is connected with the retaining ring.
An internal-gear-pump rotor comprising an inner rotor having n gear teeth and an outer rotor having (n + 1) gear teeth, wherein when a rolling circle having a diameter d 1 is rolled along a base circle having a diameter d without slipping and a trochoidal curve is drawn by a point distant from a center of the rolling circle by a distance e, a tooth profile of the inner rotor is formed by an envelope of a group of circular arcs of a locus circle having a diameter d 2 and having a center on the trochoidal curve, and characterized in that the diameter d 2 of the locus circle is constant until one point between an addendum point and a dedendum point of the inner rotor and changes from the one point such that a diameter d 2B at the dedendum point becomes larger than a diameter d 2T at the addendum point.
A safe coffer comprising a coffer body, on at least one side of which a door is provided, the door being provided with a door locking system which includes a movable bolt which can keep the door and the coffer body in a locking state, whereby the door locking system further includes a breakable component which is fixedly provided on an inner side of the door and controls at least one first safety pin (123, 124), and the first safety pin (123, 124) keeps the movable bolt in the locking state when the breakable component is broken, the door locking system further includes a slidable plate which is connected with the movable bolt and is controlled to slide leftwards or rightwards by an operation component provided outside the coffer, leftward or rightward sliding of the slidable plate brings the movable bolt to lock or unlock the door and the coffer body, and the slidable plate is provided at a side thereof with a groove which corresponds to the first safety pin when the movable bolt is in the locking state, the door locking system further includes a combination lock and a second safety pin, characterized in that the second safety pin includes a self-locking pin, a pin bracket which fixes the self-locking pin on the inner side of the door, and an elastic member, elasticity of which is towards a second groove, in the side of the slidable plate, provided in a compressed state between the self-locking pin and the pin bracket, the self-locking pin is provided thereon with a position-limiting pole for stopping the elastic member, and the position-limiting pole is limited by a self-locking pin fixing plate fixedly provided at a back portion of the combination lock, the self-locking pin fixing plate is provided therein with a position-limiting pole hole which corresponds to the self-locking pin, when the self-locking pin fixing plate is moved towards an inner side of the coffer, the position-limiting pole moves out of the position-limiting pole hole in the self-locking pin fixing plate, and thus the self-locking pin enters the corresponding second groove in the side of the slidable plate to keep the movable bolt in the locking state.
An electrolytic capacitor comprising: a first electrode; a second electrode opposite to the first electrode, wherein at least one of the first electrode and the second electrode comprises a carbon nanotube structure; a separator sandwiched between the first electrode and the second electrode; a container accommodating the first electrode, the second electrode and the separator; and an electrolytic solution in an inner space of the container, and the first electrode, the second electrode and the separator are immersed into the electrolytic solution; characterized in that the carbon nanotube structure comprises at least one carbon nanotube film or at least one carbon nanotube wire, the carbon nanotube film or at least one carbon nanotube wire is formed by drawing from an array of carbon nanotubes, and the carbon nanotube film or at least one carbon nanotube wire comprises a plurality of successive carbon nanotubes joined end to end by van der Walls attractive force therebetween and the carbon nanotubes therein are primarily aligned along a same direction. a first electrode; a second electrode opposite to the first electrode, wherein at least one of the first electrode and the second electrode comprises a carbon nanotube structure; a separator sandwiched between the first electrode and the second electrode; a container accommodating the first electrode, the second electrode and the separator; and an electrolytic solution in an inner space of the container, and the first electrode, the second electrode and the separator are immersed into the electrolytic solution; characterized in that the carbon nanotube structure comprises at least one carbon nanotube film or at least one carbon nanotube wire, the carbon nanotube film or at least one carbon nanotube wire is formed by drawing from an array of carbon nanotubes, and the carbon nanotube film or at least one carbon nanotube wire comprises a plurality of successive carbon nanotubes joined end to end by van der Walls attractive force therebetween and the carbon nanotubes therein are primarily aligned along a same direction.
An indoor unit of an air conditioner, the indoor unit comprising: a casing having an inflow port formed on a rear side thereof, and an outflow port formed on a front side thereof; a cross-flow fan arranged in the casing and having a fan rotor rotating about a center axis thereof and a tongue portion extending in an axial direction along an outer periphery of the fan rotor below the fan rotor and forward of the center axis to define a suction port, the cross-flow fan forming in the casing an air flow directed from the rear inflow port to the front outflow port; and a heat exchanger arranged upstream of the cross-flow fan in the casing in a direction of the air flow to heat or cool the air passing through the heat exchanger, the heat exchanger having an inclined portion which is inclined to be positioned further downward toward a front side in a front-to-back direction, wherein the inflow port is formed at a rear surface of the casing, and the heat exchanger is arranged such that a front end of the inclined portion is located below the fan rotor and between a foremost portion and center axis of the fan rotor in the front-to-back direction, the heat exchanger has first and second bent portions (40a, 40b) located rearward of the fan rotor in the front-to-back direction, and is formed such that first, second, and third heat exchange sections (41, 42, 43) formed by the first and second bent portions (40a, 40b) and arranged at mutually different angles surround the suction port. a casing having an inflow port formed on a rear side thereof, and an outflow port formed on a front side thereof; a cross-flow fan arranged in the casing and having a fan rotor rotating about a center axis thereof and a tongue portion extending in an axial direction along an outer periphery of the fan rotor below the fan rotor and forward of the center axis to define a suction port, the cross-flow fan forming in the casing an air flow directed from the rear inflow port to the front outflow port; and a heat exchanger arranged upstream of the cross-flow fan in the casing in a direction of the air flow to heat or cool the air passing through the heat exchanger, the heat exchanger having an inclined portion which is inclined to be positioned further downward toward a front side in a front-to-back direction, wherein the inflow port is formed at a rear surface of the casing, and the heat exchanger is arranged such that a front end of the inclined portion is located below the fan rotor and between a foremost portion and center axis of the fan rotor in the front-to-back direction, the heat exchanger has first and second bent portions (40a, 40b) located rearward of the fan rotor in the front-to-back direction, and is formed such that first, second, and third heat exchange sections (41, 42, 43) formed by the first and second bent portions (40a, 40b) and arranged at mutually different angles surround the suction port.