mhurhangee/ep-ind-claims huggingface dataset:
A method for disassembling rollers (3, 4) of a roller press standing on a base, the roller press comprising - at least one support structure, - at least two rollers (3, 4) mounted on the support structure and - at least one pressing device, wherein the rollers (3, 4) are respectively rotated around an axis of rotation (6, 7) when the roller press is in operation, wherein an axis of rotation (6, 7) respectively extends in the longitudinal direction of the corresponding roller (3, 4), wherein the axes of rotation (6, 7) are oriented parallel to one another and horizontally, so that the rollers (3, 4) collectively delimit a grinding gap, into which the grinding material can be introduced and subsequently ground between the rollers (3, 4), wherein at least one of the rollers (3, 4) is designed as an idling roller, which cooperates with at least two pivoting devices (9, 10), wherein the end portions of the idling roller which are opposite one another are respectively mounted on a mounting position of a pivoting device (9, 10), wherein the at least one pressing device engages on a point of engagement on at least one of the pivoting devices (9, 10), so that the idling roller can be pivoted around a pivot axis relative to the remaining support structure by action of the pressing device by means of the pivoting devices (9, 10), as a result of which a distance can be modified between the axes of rotation (6, 7) of the idling roller and the other roller, comprising the following method steps: a) The rollers (3, 4) are detached from the support structure, b) The rollers (3, 4) are removed, wherein at least the idling roller is moved in a direction parallel to its axis of rotation relative to the support structure after being detached from the support structure, characterized by the following method step: c) The idling roller is lowered starting from its operating position relative to the support structure prior to its movement parallel to the axis of rotation. - at least one support structure, - at least two rollers (3, 4) mounted on the support structure and - at least one pressing device, a) The rollers (3, 4) are detached from the support structure, b) The rollers (3, 4) are removed, wherein at least the idling roller is moved in a direction parallel to its axis of rotation relative to the support structure after being detached from the support structure,
A stop device for stopping and raising an object, in particular a carrier plate for bakery, pastry, viennoiserie products or the like, relative to a conveyor support, such as a conveyor belt or chain, said stop device comprising at least: - a lever forming a stop that is movable in the direction of movement of the objects between a standby position and a stop position; - means for lifting an object, said lifting means being actuated by drive means in connection with said lever forming a stop, said lifting means being movable between a rest position and a position for lifting the object and vice versa, characterized in that the stop device comprises: - control means for moving the lever forming a stop between the stop position and an inactive retracted position when an object passes, said drive means being defined so as to bring the means for lifting an object from the rest position into the position for lifting the object upon transition of the lever forming a stop from its standby position into its stop position, said control means for moving the lever engaging with complementary means for pushing said lever forming a stop from its inactive retracted position into its standby position. - a lever forming a stop that is movable in the direction of movement of the objects between a standby position and a stop position; - means for lifting an object, said lifting means being actuated by drive means in connection with said lever forming a stop, said lifting means being movable between a rest position and a position for lifting the object and vice versa, - control means for moving the lever forming a stop between the stop position and an inactive retracted position when an object passes,
A system, comprising: - a battery module; and - a cooling system comprising: - a plurality of tubes disposed parallel to one another to form a cooling surface; and - a pair of headers, each header being disposed perpendicularly to an end of the plurality of tubes and each header being in fluid communication with each tube to direct a coolant fluid into and out of the tubes via the pair of headers, wherein the coolant is configured to remove heat from the battery module, and wherein the cooling surface formed by the plurality of tubes is disposed adjacent to an external surface of the battery module and is in physical contact with the battery module, wherein each tube of the plurality of tubes is elliptical, and each tube comprises a major diameter and a minor diameter, wherein the major diameter is larger than the minor diameter, and wherein the cooling surface is formed by the major diameters of the plurality of tubes (70, characterised in that: each tube comprises an approximately 90° twist at each end, and the major diameter of each tube is vertical where each tube connects to each header and the major diameter of each tube is horizontal along the cooling surface. - a battery module; and - a cooling system comprising: - a plurality of tubes disposed parallel to one another to form a cooling surface; and - a pair of headers, each header being disposed perpendicularly to an end of the plurality of tubes and each header being in fluid communication with each tube to direct a coolant fluid into and out of the tubes via the pair of headers, - a plurality of tubes disposed parallel to one another to form a cooling surface; and - a pair of headers, each header being disposed perpendicularly to an end of the plurality of tubes and each header being in fluid communication with each tube to direct a coolant fluid into and out of the tubes via the pair of headers, each tube comprises an approximately 90° twist at each end, and the major diameter of each tube is vertical where each tube connects to each header and the major diameter of each tube is horizontal along the cooling surface.
A guide catheter (200, 218, 224) having a pre-set shape for insertion into a nasal cavity, said guide catheter comprising a proximal end, a distal end, and a lumen extending from the proximal end to the distal end, wherein the lumen is adapted to allow a working device to pass therethrough; said guide catheter (200, 218, 224) incorporating one or more preformed curves or bends, wherein the curved or bent regions form a deflection angle selected from: 30 degrees, 45 degrees, 60 degrees, 70 degrees, 90 degrees, 120 degrees and 135 degrees.
An audience metering apparatus (500A, 500B) to monitor a portable media presentation device, comprising: a metering information generator; and a wireless radio frequency interface (70A, 70B) coupled to the metering information generator to: receive a plurality of wireless RF signals associated with portable communication devices; and select one of the plurality of wireless RF signals, the metering information generator being arranged to collect metering information associated with audio content conveyed in the selected one of the plurality of wireless RF signals, the wireless radio frequency RF interface (70A, 70B) being arranged to select the one of the plurality of wireless RF signals to intercept the audio content transmitted in the selected wireless RF signal from the portable media presentation device, the audio content intended for reception by a speaker. a metering information generator; and a wireless radio frequency interface (70A, 70B) coupled to the metering information generator to: receive a plurality of wireless RF signals associated with portable communication devices; and select one of the plurality of wireless RF signals, receive a plurality of wireless RF signals associated with portable communication devices; and select one of the plurality of wireless RF signals, the metering information generator being arranged to collect metering information associated with audio content conveyed in the selected one of the plurality of wireless RF signals, the wireless radio frequency RF interface (70A, 70B) being arranged to select the one of the plurality of wireless RF signals to intercept the audio content transmitted in the selected wireless RF signal from the portable media presentation device, the audio content intended for reception by a speaker.
An operating method for a portable electronic device, wherein the portable electronic device comprises a body and edge sensors disposed adjacent to edges of the portable electronic device on a first side and a second side of the body, the first side being opposite to the second side, wherein the operating method comprises: a squeezing event being generated according to a squeeze action sensed by the edge sensors, and in response to determining that a plugging-in event or a plugging-out event of a peripheral device is detected by the portable electronic device, ignoring the squeezing event; wherein the squeezing event is ignored in response to determining that the squeeze action sensed by the edge sensors and one of the plugging-in event and the plugging-out event occur during a first time period, and characterized in that the squeezing event is ignored in response to determining that the squeeze action begins within a second time period after the plugging-in event or the plugging-out event occurs. a squeezing event being generated according to a squeeze action sensed by the edge sensors, and in response to determining that a plugging-in event or a plugging-out event of a peripheral device is detected by the portable electronic device, ignoring the squeezing event; wherein the squeezing event is ignored in response to determining that the squeeze action sensed by the edge sensors and one of the plugging-in event and the plugging-out event occur during a first time period, and characterized in that the squeezing event is ignored in response to determining that the squeeze action begins within a second time period after the plugging-in event or the plugging-out event occurs.
A process for treating a purge stream from a polymer manufacturing operation, said purge stream comprising at least an olefin, a paraffin and a third gas, the process comprising the steps of: a) passing the purge stream to a compressor to produce a compressed stream; b) partially condensing the compressed stream, including cooling and separating the compressed stream into a condensed liquid condensate enriched in olefin and paraffin and an uncondensed gas stream depleted in olefin and paraffin; c) separating the condensed liquid condensate from step (b) to produce a first olefin-enriched stream and a first olefin-depleted residue stream; d) separating the uncondensed gas stream from step (b) using a second membrane to produce a second olefin-enriched permeate stream and a second olefin-depleted residue stream; and e) returning the second olefin-enriched permeate stream upstream of the compressor, characterised in that step c) uses a first membrane to separate the condensed liquid condensate from step (b) to produce as permeate the first olefin-enriched stream and the first olefin-depleted residue stream; and in that the condensed liquid condensate is revaporized prior to step (c); and in that the first membrane is an inorganic membrane and has an olefin permeance of at least 400 gpu. a) passing the purge stream to a compressor to produce a compressed stream; b) partially condensing the compressed stream, including cooling and separating the compressed stream into a condensed liquid condensate enriched in olefin and paraffin and an uncondensed gas stream depleted in olefin and paraffin; c) separating the condensed liquid condensate from step (b) to produce a first olefin-enriched stream and a first olefin-depleted residue stream; d) separating the uncondensed gas stream from step (b) using a second membrane to produce a second olefin-enriched permeate stream and a second olefin-depleted residue stream; and e) returning the second olefin-enriched permeate stream upstream of the compressor,
An aerosol generating system comprising: a heater assembly, and a manually operated pump, comprising a hollow member with an inlet portion and an outlet portion and a volume modifier with a moveable element, the volume modifier being configured to change the internal volume of the hollow member, wherein the inlet portion of the hollow member is configured to be connected with a liquid storage portion, the outlet portion of the hollow member is in fluid connection with a dispensing assembly, for dispensing the liquid aerosol-forming onto a heater assembly, the inlet portion and the outlet portion each comprise a one way valve (38, 40), wherein the one-way valve at the inlet portion allows liquid to flow from the liquid storage portion into the hollow member, only, and wherein the one-way valve at the outlet portion allows liquid to flow from the hollow member to the dispensing assembly, only; and wherein the manually operated pump is operable to pump a liquid aerosol-forming substrate from the liquid storage portion via the dispensing assembly onto the heater assembly. a heater assembly, and a manually operated pump, comprising a hollow member with an inlet portion and an outlet portion and a volume modifier with a moveable element, the volume modifier being configured to change the internal volume of the hollow member, wherein the inlet portion of the hollow member is configured to be connected with a liquid storage portion, the outlet portion of the hollow member is in fluid connection with a dispensing assembly, for dispensing the liquid aerosol-forming onto a heater assembly, the inlet portion and the outlet portion each comprise a one way valve (38, 40), wherein the one-way valve at the inlet portion allows liquid to flow from the liquid storage portion into the hollow member, only, and wherein the one-way valve at the outlet portion allows liquid to flow from the hollow member to the dispensing assembly, only; and wherein the manually operated pump is operable to pump a liquid aerosol-forming substrate from the liquid storage portion via the dispensing assembly onto the heater assembly.
A drug reservoir which is adapted for use with a drug delivery device, the drug reservoir comprising a collapsible housing and a coding feature, characterized in that it further comprises a non-collapsible feature connected to the collapsible housing, wherein the non-collapsible feature comprises the coding feature, wherein said coding feature is configured to code information related to the drug reservoir, the coding feature comprising a mechanical coding feature which is configured to cooperate with a corresponding coding feature provided by the drug delivery device and wherein mechanical cooperation of the coding feature and the corresponding coding feature of the drug delivery device helps to prevent insertion of a reservoir having the wrong coding feature, the coding feature comprising at least one of an embossed feature, a hole or an indentation of the drug reservoir.
A method for tracking a User Equipment in a mobile communication network, the method comprising: transmitting, from a transmission point (110, 120) of the mobile communication network, one or more pulse signals in a predetermined direction associated with a predetermined area covered by the mobile communication network, wherein transmitting the one or more pulse signals further comprises transmitting, from the transmission point (110, 120), radar pulses in the predetermined direction associated with the predetermined area; in response to transmitting the one or more pulse signals, receiving, at the transmission point (110, 120), pulse response signals associated with one or more objects; and determining the likely presence of at least one UE within the predetermined area based at least on one or more of the objects associated with the pulse response signals likely being the at least one UE, characterized in that receiving the pulse response signals further comprises receiving, at the transmission point (110, 120), reflective echo signals, and wherein the method further comprises generating and storing one or more UE pulse response signal profiles for the at least one UE based on the pulse response signals, wherein the pulse response signal profiles indicate a likely presence of the at least one UE within the predetermined area over time. transmitting, from a transmission point (110, 120) of the mobile communication network, one or more pulse signals in a predetermined direction associated with a predetermined area covered by the mobile communication network, wherein transmitting the one or more pulse signals further comprises transmitting, from the transmission point (110, 120), radar pulses in the predetermined direction associated with the predetermined area; in response to transmitting the one or more pulse signals, receiving, at the transmission point (110, 120), pulse response signals associated with one or more objects; and determining the likely presence of at least one UE within the predetermined area based at least on one or more of the objects associated with the pulse response signals likely being the at least one UE, characterized in that receiving the pulse response signals further comprises receiving, at the transmission point (110, 120), reflective echo signals, and wherein the method further comprises generating and storing one or more UE pulse response signal profiles for the at least one UE based on the pulse response signals, wherein the pulse response signal profiles indicate a likely presence of the at least one UE within the predetermined area over time.
A turbine stage comprising: a row of airfoils integrally joined to corresponding platforms and spaced laterally apart to define respective flow passages therebetween for channeling gases (12, 19), each flow passage having a width (x); each of the airfoils including a concave pressure side and a laterally opposite convex suction side extending in chord between opposite leading and trailing edges (24, 26); and at least some of the platforms having a scalloped flow surface including a bulge adjoining the pressure side aft of the leading edge and a bowl adjoining the suction side aft of the leading edge of the respective airfoils, wherein the bulge is configured having a maximum height located within its respective flow passage, and wherein the bulge decreases in height in a forward and aft direction and decreases in height laterally toward the concave pressure side of the airfoil and toward the bowl adjoining the convex suction side of a next adjacent airfoil, characterized in that the bowl is configured having a maximum depth located within its respective flow passage and directly against the suction side of the respective airfoil. a row of airfoils integrally joined to corresponding platforms and spaced laterally apart to define respective flow passages therebetween for channeling gases (12, 19), each flow passage having a width (x); each of the airfoils including a concave pressure side and a laterally opposite convex suction side extending in chord between opposite leading and trailing edges (24, 26); and at least some of the platforms having a scalloped flow surface including a bulge adjoining the pressure side aft of the leading edge and a bowl adjoining the suction side aft of the leading edge of the respective airfoils,
Roller assembly for a milling device, comprising a first roller, which is held by at least one first bearing body, and a second roller, which is held by at least one second bearing body, wherein the first bearing body and the second bearing body are adjustable relative to each other by means of an adjusting device in such a way that a milling gap formed between the first roller and the second roller is adjustable, characterized in that the adjusting device comprises a mechanical force amplifier which contains: - an input member for applying an input force to the force amplifier, - an output member coupled to the second bearing body for applying an output force to the second bearing body, - at least one first amplifier member formed by or coupled to the input member, which is displaceable in an axial direction and has at least one first contact surface, - at least one second amplifier member which is displaceable in a transverse direction different from the axial direction and has at least one second contact surface with which it abuts the first contact surface of the first amplifier member, and at least one third contact surface, - at least one third amplifier member formed by or coupled to the output member, which is displaceable in the axial direction and has at least one fourth contact surface with which it abuts the third contact surface of the second amplifier member, wherein the contact surfaces (34, 36, 45, 46) are matched to each other in such a way that a movement of the first amplifier member in the axial direction causes a movement of the second amplifier member in the transverse direction and this causes a movement of the output member in the axial direction. - an input member for applying an input force to the force amplifier, - an output member coupled to the second bearing body for applying an output force to the second bearing body, - at least one first amplifier member formed by or coupled to the input member, which is displaceable in an axial direction and has at least one first contact surface, - at least one second amplifier member which is displaceable in a transverse direction different from the axial direction and has at least one second contact surface with which it abuts the first contact surface of the first amplifier member, and at least one third contact surface, - at least one third amplifier member formed by or coupled to the output member, which is displaceable in the axial direction and has at least one fourth contact surface with which it abuts the third contact surface of the second amplifier member, wherein the contact surfaces (34, 36, 45, 46) are matched to each other in such a way that a movement of the first amplifier member in the axial direction causes a movement of the second amplifier member in the transverse direction and this causes a movement of the output member in the axial direction.
Air-water or water-water ammonia-lithium nitrate absorption water chiller, comprising a refrigerant-absorbent pair using ammonia-lithium nitrate mixture, a plate heat exchanger used as an evaporator, a plate heat exchanger used as an absorber, a plate heat exchanger used as a solution heat exchanger, a corrugated plate heat exchanger used as a generator, a plate heat exchanger used as refrigerant subcooler, and a plate heat exchanger used as a condenser for the water-water chiller model or optionally with a coil of finned tubes of steel used as a condenser for the air-water model, further comprising a separator tank, a liquid receiver, a compound generating system including the corrugated plate heat exchanger and the separator tank where the separation of the two phases takes place, and solar collectors, wherein the solar collectors are connected to the corrugated plate heat exchanger used as the generator to provide hot liquid to the corrugated plate heat exchanger used as the generator to generate refrigerant vapor in the separator tank placed downstream the generator by means of an upper inlet, wherein the refrigerant vapor is provided to the condenser placed downstream the separator tank, the condenser, is connected with the separator tank by means of a vapor outlet in the top thereof, the liquid receiver is connected to the condenser for receiving the condensed refrigerant, wherein the separation of refrigerant in two phases takes place by means of a stream of hot water at 80°C-11aoc from the solar collectors circulating in countercurrent to the solution which flows upward in the corrugated plate, heat exchanger.