mhurhangee/ep-ind-claims huggingface dataset:
A method for delivering messages between a terminal In a telecommunications system utilizing wireless data transmission and a second party irrespective of the content type of the messages, the method comprising delivering messages of at least two content types through the same message service centre irrespective of the content type of the message, employing the same protocol for the messages between the terminal and the message service centre, characterized by rdeceiving in the message service centre from the terminal a value associated with a first condition relating to a direct delivery of messages to the terminal, and determining said first condition which determines at least the maximum size of a message to be sent directly, checking, at the message service centre, the first condition from the message to be delivered to the terminal and whether it meets the first condition associated with the value received in the message service centre, and delivering the message directly to the terminal, if it meets the first condition, and informing the terminal about the message, if it does not meet the first condition, and delivering the message as a response to a message request concerning the message.
A machine for recycling quilts, comprising: - an infeed station (1 10) configured to receive as input a quilt comprising a plurality of layers (10, 20, 30) joined by a stitching in which quilt a padding is interposed between an upper layer and a lower layer, - a heating station, comprising heating means acting on a heating space designed to contain a portion of the quilt, the heating means being configured to increase the temperature of the stitching to a change of state or softening temperature of at least one heat-sensitive sewing thread of the stitching; characterized by - a pair of drive rollers, facing each other in a counter-rotating fashion and configured to move said quilt through the heating station, at least one of the drive rollers being motor-driven, - supporting means adapted to convey the quilt coming from the infeed station into said heating space, said supporting means comprising opposite walls (115a, 115b) facing and converging towards the heating space, - also comprising a separating station downstream of the heating station, the separating station comprising traction means, acting on the plurality of layers (10, 20, 30) for moving the layers (10, 20, 30) in respective diverging directions and separating them from each other, after the stitching has been heated in the heating station, said traction means comprising two pairs of motor-driven rollers (131a, 131b) acting respectively on the upper and lower layers and another pair of rollers acting on the padding. - an infeed station (1 10) configured to receive as input a quilt comprising a plurality of layers (10, 20, 30) joined by a stitching in which quilt a padding is interposed between an upper layer and a lower layer, - a heating station, comprising heating means acting on a heating space designed to contain a portion of the quilt, the heating means being configured to increase the temperature of the stitching to a change of state or softening temperature of at least one heat-sensitive sewing thread of the stitching; characterized by - a pair of drive rollers, facing each other in a counter-rotating fashion and configured to move said quilt through the heating station, at least one of the drive rollers being motor-driven, - supporting means adapted to convey the quilt coming from the infeed station into said heating space, said supporting means comprising opposite walls (115a, 115b) facing and converging towards the heating space, - also comprising a separating station downstream of the heating station, the separating station comprising traction means, acting on the plurality of layers (10, 20, 30) for moving the layers (10, 20, 30) in respective diverging directions and separating them from each other, after the stitching has been heated in the heating station, said traction means comprising two pairs of motor-driven rollers (131a, 131b) acting respectively on the upper and lower layers and another pair of rollers acting on the padding.
A method for preparing a macrocyclic polyester oligomer, the method comprising: (a) heating a mixture, the mixture comprising: (i) a diol; (ii) dimethylterephthalate or, alternatively or additionally, a DMT precursor; and (iii) an organic solvent; and (b) contacting the mixture with a solid comprising a catalyst, thereby producing MPO. (a) heating a mixture, the mixture comprising: (i) a diol; (ii) dimethylterephthalate or, alternatively or additionally, a DMT precursor; and (iii) an organic solvent; and (i) a diol; (ii) dimethylterephthalate or, alternatively or additionally, a DMT precursor; and (iii) an organic solvent; and (b) contacting the mixture with a solid comprising a catalyst, thereby producing MPO.
A start-up circuit arranged to initialise a circuit portion with a zero stable point and a non-zero stable point, the start-up circuit comprising: a capacitive voltage divider including a first capacitor in series with a second capacitor that generates a divider bias voltage between said first and second capacitors (16, 18) at a divider node; a differential amplifier including a first amplifier input, a second amplifier input, and an amplifier output connected to the divider node; a first driver transistor arranged such that a gate terminal of the first driver transistor is connected to the divider node, and a drain terminal of the first driver transistor is connected to both a first start-up output and the first amplifier input; and a second driver transistor arranged such that a gate terminal of the second driver transistor is connected to the divider node, and a drain terminal of the second driver transistor is connected to both a second start-up output and the second amplifier input; wherein the start-up circuit is arranged such that the differential amplifier controls the divider bias voltage and drives the circuit portion to the non-zero stable point. a capacitive voltage divider including a first capacitor in series with a second capacitor that generates a divider bias voltage between said first and second capacitors (16, 18) at a divider node; a differential amplifier including a first amplifier input, a second amplifier input, and an amplifier output connected to the divider node; a first driver transistor arranged such that a gate terminal of the first driver transistor is connected to the divider node, and a drain terminal of the first driver transistor is connected to both a first start-up output and the first amplifier input; and a second driver transistor arranged such that a gate terminal of the second driver transistor is connected to the divider node, and a drain terminal of the second driver transistor is connected to both a second start-up output and the second amplifier input;
A method for the production and optional packaging of a shaped food product from a low calorie food composition, characterized in that a vegetable extract, fruit extract, meat extract and/or fish extract in the liquid form or in a powder form is heated with water and alginate as well as optional flavourings and the viscous mixture which is obtained thereby is allowed to flow into a water bath in which a calcium salt has been dissolved, wherein the shaped food product is formed which is then removed from the water bath, wherein a flowing water bath is used and the viscous mixture is allowed to flow into the flowing water bath, wherein the viscous mixture is allowed to flow into the water bath at a flow rate which approximately corresponds to the flow rate of the water bath.
A drink dispensing system (1, 16, 17), comprising: - an inlet for receiving liquid from a liquid source, - an outlet for dispensing controllable amounts of liquid, - a pump being in fluid connection with the inlet and the outlet for regulating a flow of liquid, - a control unit associated with the pump for controlling the pump, - a measuring unit for determining a workload of the pump, whereby the control unit controls the pump based on the workload characterised by further comprising a cooling unit for cooling liquid, wherein the cooling unit is arranged upstream of the pump, wherein the pump is adapted to reverse the flow of liquid so that the liquid flows from the pump via the cooling unit and via a bypass unit back to the pump, thereby creating a circular flow, and wherein the control unit is adapted to detect how much ice that is present in the cooling unit based on the amount of current used by the pump, when the pump reverses the flow of liquid. - an inlet for receiving liquid from a liquid source, - an outlet for dispensing controllable amounts of liquid, - a pump being in fluid connection with the inlet and the outlet for regulating a flow of liquid, - a control unit associated with the pump for controlling the pump, - a measuring unit for determining a workload of the pump, whereby the control unit controls the pump based on the workload
A reconstitution arrangement for use in transferring the contents of a first container to mix with the contents of a second container and subsequently retransferring the mixture to said first container, the reconstitution arrangement comprising: a transfer device, said transfer device having first and second opposed ends (111, 113), said first end being open for receiving said second container, a fluid passageway extending between said first and second ends (111, 113); a cartridge holder secured to said second end of said transfer device, said cartridge holder having a needle (144, 145) retained therein, said needle having a first piercing tip and a second piercing tip, said first piercing tip extending into said fluid passageway of said transfer device, a first container receiving portion for receiving and retaining said first container, said second piercing tip extending toward said first end; a housing secured to said cartridge holder, a plunger rod within said housing; wherein said second container is a vial, characterized in that the reconstitution arrangement has a cover, said cover extending over said transfer device, said cartridge holder and said housing, said cover and said transfer device having an interlocking arrangement to prevent removal of said cover, the interlocking arrangement being such that said cover can be removed when said vial is inserted into said transfer device thereby providing a gripping area to permit removal of said cover. a transfer device, said transfer device having first and second opposed ends (111, 113), said first end being open for receiving said second container, a fluid passageway extending between said first and second ends (111, 113); a cartridge holder secured to said second end of said transfer device, said cartridge holder having a needle (144, 145) retained therein, said needle having a first piercing tip and a second piercing tip, said first piercing tip extending into said fluid passageway of said transfer device, a first container receiving portion for receiving and retaining said first container, said second piercing tip extending toward said first end; a housing secured to said cartridge holder, a plunger rod within said housing; wherein said second container is a vial, characterized in that the reconstitution arrangement has a cover, said cover extending over said transfer device, said cartridge holder and said housing, said cover and said transfer device having an interlocking arrangement to prevent removal of said cover, the interlocking arrangement being such that said cover can be removed when said vial is inserted into said transfer device thereby providing a gripping area to permit removal of said cover.
A heat exchanger in which heat absorbing pipes are disposed in a multi-tier arrangement within a casing which is the passage of combustion exhaust gas, both pipe ends (511, 512) of each of the heat absorbing pipes are connected respectively to two headers (54, 55) provided on a side plate of the casing, and water introduced from an external pipe to each of the heat absorbing pipes through the header is heat-exchanged and heated by combustion exhaust gas, wherein the pipe ends (511, 512) of the heat absorbing pipes are arranged at a predetermined vertical interval, characterized in that a drainage plate for forming a drainage passage through which water that has reached the pipe end openings of respective heat absorbing pipes is removed during drainage operation for the heat absorbing pipes, is disposed in the header disposed on a lower side of the heat absorbing pipes so as to face a number of the pipe end openings vertically arranged in a state of continuous.
An ostomy appliance (10, 70), comprising: a pouch (12, 72), the pouch including an inlet, a body side wall, and an outer wall, wherein the body side wall and the outer wall are sealed together along their peripheral edges to define a cavity for collecting body waste; a tear-away panel (16, 74); the ostomy appliance has a compacted state having a first surface area, and a deployed state having a second surface area, the second surface area being greater than the first surface area, and wherein the ostomy appliance is configured to change from the compacted state to the deployed state by removing the tear-away panel (16, 74), wherein the ostomy appliance in the compacted state is configured to collect body waste and has a first body waste collection capacity, and the ostomy appliance in the deployed state is configured to collect body waste and has a second body waste collection capacity, wherein the second body waste collection capacity is greater than the first body waste collection capacity characterized by a pull-tab (60, 86) arranged proximate a peripheral edge of the tear-away panel (16, 74). a pouch (12, 72), the pouch including an inlet, a body side wall, and an outer wall, wherein the body side wall and the outer wall are sealed together along their peripheral edges to define a cavity for collecting body waste; a tear-away panel (16, 74); the ostomy appliance has a compacted state having a first surface area, and a deployed state having a second surface area, the second surface area being greater than the first surface area, and wherein the ostomy appliance is configured to change from the compacted state to the deployed state by removing the tear-away panel (16, 74), wherein the ostomy appliance in the compacted state is configured to collect body waste and has a first body waste collection capacity, and the ostomy appliance in the deployed state is configured to collect body waste and has a second body waste collection capacity, wherein the second body waste collection capacity is greater than the first body waste collection capacity characterized by a pull-tab (60, 86) arranged proximate a peripheral edge of the tear-away panel (16, 74).
A method of sorting items to a dynamically reconfigurable sort array structure defining columns of sort destinations, comprising the steps of: receiving, onto a delivery vehicle (500, 140), an item to be delivered to a first sort destination; advancing the delivery vehicle (500, 140) along a path to a first output bin; determining that the first sort destination cannot receive the item wherein the step of determining comprises operating at least one sensor of the delivery vehicle (500, 140) to detect that the first sort destination cannot receive additional items; advancing the delivery vehicle (500, 140) along a path to an alternate sort destination; at the alternate sort destination, discharging the item from the delivery vehicle (500, 140) into the alternate sort destination. receiving, onto a delivery vehicle (500, 140), an item to be delivered to a first sort destination; advancing the delivery vehicle (500, 140) along a path to a first output bin; determining that the first sort destination cannot receive the item wherein the step of determining comprises operating at least one sensor of the delivery vehicle (500, 140) to detect that the first sort destination cannot receive additional items; advancing the delivery vehicle (500, 140) along a path to an alternate sort destination; at the alternate sort destination, discharging the item from the delivery vehicle (500, 140) into the alternate sort destination.
Device for coupling by meshing two aircraft turbine engine members (68a, 86), including a male member comprising outer meshes, engaged in a female member comprising complementary inner meshes, said device further comprising a system for retaining lubrication oil circulating through said meshes (88, 90), said oil retaining system comprising an annular seal which is received in a seal groove for receiving the seal, carried by the male member and which engages with an inner cylindrical surface of the female member axially offset from the inner meshes, characterised in that said annular groove for receiving the seal is formed in an annular insert which is offset in a fixed annular groove formed in the outer meshes of the male member.
A method for producing an α-halogenoacetophenon compound represented by Formula below comprising: reacting an α-halogenocarboxylic halide compound represented by Formula below and a phenyl compound represented by Formula in the presence of a Lewis acid in a solvent, wherein the α-halogenocarboxylic halide compound and the phenyl compound are reacted with each other in a molar ratio of the Lewis acid to the phenyl compound satisfying 2 ≤ Lewis acid/phenyl compound ≤ 6; in Formula, each of R 1 and R 2 independently represents an alkyl group, and each of X 1 and X 2 independently represents a halogen atom, in Formula, each of R 3 to R 6 independently represents a hydrogen atom or a substituent, R 7 represents a hydrogen atom, an alkyl group, an acyl group, or a trialkylsilyl group, each of Y 1 and Y 2 independently represents an oxygen atom or a sulfur atom, and n represents an integer of 1 to 3, and in Formula, R 1, R 2, and X 2 respectively have the same meanings as R 1, R 2, and X 2 in Formula, and R 3 to R 7, Y 1, Y 2, and n respectively have the same meanings as R 3 to R 7, Y 1, Y 2, and n in Formula. reacting an α-halogenocarboxylic halide compound represented by Formula below and a phenyl compound represented by Formula in the presence of a Lewis acid in a solvent, wherein the α-halogenocarboxylic halide compound and the phenyl compound are reacted with each other in a molar ratio of the Lewis acid to the phenyl compound satisfying 2 ≤ Lewis acid/phenyl compound ≤ 6; in Formula, each of R 1 and R 2 independently represents an alkyl group, and each of X 1 and X 2 independently represents a halogen atom, in Formula, each of R 3 to R 6 independently represents a hydrogen atom or a substituent, R 7 represents a hydrogen atom, an alkyl group, an acyl group, or a trialkylsilyl group, each of Y 1 and Y 2 independently represents an oxygen atom or a sulfur atom, and n represents an integer of 1 to 3, and in Formula, R 1, R 2, and X 2 respectively have the same meanings as R 1, R 2, and X 2 in Formula, and R 3 to R 7, Y 1, Y 2, and n respectively have the same meanings as R 3 to R 7, Y 1, Y 2, and n in Formula.
Contact actuation system for an electrical switching device, the actuation system comprising an arming shaft, a closing spring and an opening spring collaborating with the arming shaft, and a control vane actuated by the arming shaft, and an opening actuator which, when the opening spring is armed, makes it possible to command the release of the opening spring, the actuation system being characterized in that it also comprises a selection unit which can be positioned: - either in a position referred to as active in which it mechanically couples the arming vane with a closing crank of the actuation system so that once the closing spring has been armed, the arming vane gives rise to the release of the closing spring by means of the closing crank, - or in a position referred to as inactive in which the closing crank is uncoupled from the arming vane. - either in a position referred to as active in which it mechanically couples the arming vane with a closing crank of the actuation system so that once the closing spring has been armed, the arming vane gives rise to the release of the closing spring by means of the closing crank, - or in a position referred to as inactive in which the closing crank is uncoupled from the arming vane.
An aerosol-generating article for producing an inhalable aerosol when heated, the aerosol-generating article comprising a rod of aerosol-generating substrate, wherein the rod of aerosol-generating substrate comprises: a plurality of elongate tubular elements of homogenised tobacco material assembled such that the elongate tubular elements extend in the longitudinal direction; and a wrapper circumscribing the plurality of elongate tubular elements, wherein the plurality of elongate tubular elements of homogenised tobacco material are aligned substantially parallel to one another within the rod of aerosol-generating substrate. a plurality of elongate tubular elements of homogenised tobacco material assembled such that the elongate tubular elements extend in the longitudinal direction; and a wrapper circumscribing the plurality of elongate tubular elements, wherein the plurality of elongate tubular elements of homogenised tobacco material are aligned substantially parallel to one another within the rod of aerosol-generating substrate.
A method for inhibiting the polymerization of vinyl monomers in a liquid comprising adding to said monomers a composition comprising Compound A and Compound B, wherein: Compound A is a quinone methide compound with the formula: wherein R 1 and R 2 are independently one selected from the list consisting of H, C 4 to C 18 alkyl, C 5 to C 12 cycloalkyl, C 7 to C 15 phenylalkyl, and any combination thereof, having an arrangement which is selected from the list consisting of alkyl, tert-butyl, tert-amyl, tert-octyl, cyclohexyl, α-methylbenzyl, α,α-dimethylbenzyl, and any combination thereof, and, R 3 is aryl, or aryl substituted with C 1 to C 6 alkyl, alkoxy, nitro, amino and carboxy, nitrile, methoxy, 4-hydroxy-3,5-di-tert-butylphenyl, an acetylenic group, or phenyl-substituted acetyleno, phenyl-substituted acetyleno substituted with C 1 to C 6 alkyl, alkoxy, nitro, amino, carboxy, and any combination thereof; Compound B is a quinone diimide compound of the formula: in which R 1 and R 2 are the same or different and are alkyl, aryl, alkaryl, or aralkyl groups wherein the weight ratio of Compound A to Compound B is 9:1 to 1:9.