mhurhangee/ep-ind-claims huggingface dataset:
A humidifying element comprising: a plurality of humidifying bodies arranged along a first direction to provide gaps between the humidifying bodies; and a casing that houses the plurality of humidifying bodies on an inside, wherein a water storing section provided above the humidifying bodies to store water is formed in the casing, a plurality of water injection holes are formed on a bottom surface of the water storing section, a cylindrical wall surface extending downward from the water injection hole portion is formed on an outer side of the bottom surface of the water storing section, a distal end of the cylindrical wall surface and the diffusing member are set in contact, and a communication port for causing an inside and an outside of the cylindrical wall surface to communicate is formed in the cylindrical wall surface, the humidifying element being characterized in that it comprises a diffusing member which is housed on the inside of the casing and which extends along the first direction and is in contact with the plurality of humidifying bodies, and being further characterized in that a distal end of the cylindrical wall surface and the diffusing member are set in contact. a plurality of humidifying bodies arranged along a first direction to provide gaps between the humidifying bodies; and a casing that houses the plurality of humidifying bodies on an inside, wherein a water storing section provided above the humidifying bodies to store water is formed in the casing, a plurality of water injection holes are formed on a bottom surface of the water storing section, a cylindrical wall surface extending downward from the water injection hole portion is formed on an outer side of the bottom surface of the water storing section, a distal end of the cylindrical wall surface and the diffusing member are set in contact, and a communication port for causing an inside and an outside of the cylindrical wall surface to communicate is formed in the cylindrical wall surface, the humidifying element being characterized in that it comprises a diffusing member which is housed on the inside of the casing and which extends along the first direction and is in contact with the plurality of humidifying bodies, and being further characterized in that a distal end of the cylindrical wall surface and the diffusing member are set in contact.
A fluid absorbent article, comprising an upper liquid-pervious sheet, a lower liquid-impervious sheet, a fluid-absorbent core comprising from 60 to 20% by weight fibrous material and from 40 to 80% by weight of at least a first type of water-absorbent polymer particles and at least a second type of water-absorbent polymer particles based on the sum of water-absorbent polymer particles and fibrous material; an acquisition-distribution layer between and wherein the first type of water absorbent polymer particles of the fluid-absorbent core have a SFC of at least 20 × 10 -7 cm 3 ·s/g determined according to the method disclosed in the description and wherein the at least second type of water-absorbent polymer particles of the fluid-absorbent core have a sphericity of at least 0.80 determined according to the method disclosed in the description, and wherein the at least first type of water-absorbent polymer particles is present of at least 30 % by weight, preferably of at least 33% by weight within the fluid-absorbent core and is present of at maximum 66% by weight, preferably of at maximum 70 % by weight within the fluid-absorbent core based on the sum of water-absorbent polymer particles (G, H). an upper liquid-pervious sheet, a lower liquid-impervious sheet, a fluid-absorbent core comprising from 60 to 20% by weight fibrous material and from 40 to 80% by weight of at least a first type of water-absorbent polymer particles and at least a second type of water-absorbent polymer particles based on the sum of water-absorbent polymer particles and fibrous material; an acquisition-distribution layer between and
Component for a mirror array for EUV lithography, characterized in that it is produced at least partly from a composite material comprising a copper- and/or aluminium-containing matrix material (402, 502) and comprising a reinforcing material in the form of fibres (404, 504), wherein the composite material comprises particles composed of one or more of the materials from the group graphite, diamond-like carbon and ceramic.
Compression bandage (10, 30) for pressing a compressorium (14, 50) or a compress against a side of the chest of a patient after a pacemaker implant operation, with a chest strap (11, 31) passing around a ribcage, wherein in one case Velcro pads are attached to opposite sides of one of the two ends of the chest strap (11, 31), and a shoulder strap (12, 32) passing around a shoulder, one end of which shoulder strap is fastened to the chest strap (11, 31) between the two ends of the chest strap (11, 31) and off-center thereon, characterized in that in one case a Velcro pad with double-sided effect is provided for fastening the other end of the shoulder strap (12, 32) to the chest strap (11, 31), and otherwise, instead of the Velcro pads on only one of the opposite sides of the chest strap (11, 31), a Velcro pad with double-sided effect is attached to one of the two ends thereof, and the Velcro pad with double-sided effect is also provided to fasten the other end of the shoulder strap (12, 32) to the chest strap (11, 31), so that in both cases the shoulder strap (12, 32) can be passed either over the left or the right side of the chest by turning the compression bandage (10, 30).
A method of tracking the positive displacement efficiency of a high pressure pump in a hydraulic regulator system of a turbomachine having a high pressure positive displacement pump delivering a flow rate Q that is a function of an engine speed N of said turbomachine as defined by a control computer, the flow rate Q being delivered to an actuator for actuating variable geometry vanes of said turbomachine and to a bypass valve arranged in a feed pipe for feeding fuel to the engine of said turbomachine, the method being characterized in that it comprises the following steps: starting the engine of said turbomachine at a low engine speed NO, said valve being closed; using said computer to order a movement of said actuator; progressively increasing said engine speed N until said flow rate Q reaches a predetermined value Q0 that is sufficient for opening said valve; storing in said computer firstly the position of said actuator and secondly the engine speed N corresponding to the opening of said valve; repeating the preceding steps at successive instants t1, t2, tn during the lifetime of said engine of the turbomachine; and replacing said high pressure positive displacement pump when said engine speed N exceeds a predetermined value N limit. starting the engine of said turbomachine at a low engine speed NO, said valve being closed; using said computer to order a movement of said actuator; progressively increasing said engine speed N until said flow rate Q reaches a predetermined value Q0 that is sufficient for opening said valve; storing in said computer firstly the position of said actuator and secondly the engine speed N corresponding to the opening of said valve; repeating the preceding steps at successive instants t1, t2, tn during the lifetime of said engine of the turbomachine; and replacing said high pressure positive displacement pump when said engine speed N exceeds a predetermined value N limit.
A method for determining an actual minimum operating voltage for a microprocessor control unit in an electronic device, wherein the microprocessor control unit receives power from at least one battery, the method comprising: storing information corresponding to the value of an operating voltage provided to the microprocessor control unit in nonvolatile memory; repeating the storing for reduced values of the operating voltage; determining the actual minimum operating voltage for the microprocessor control unit based on a last one of the stored information corresponding to the value of the operating voltage; defining the last one of the stored information corresponding to the value of the operating voltage as a new actual minimum operating voltage for the microprocessor control unit; and defining a learned critical voltage based upon the value of the actual minimum operating voltage; the method being characterised in that the method further comprises: detecting the operating voltage provided to the microprocessor control unit by a supplemental power reservoir after removal of the battery; information corresponding to the value of the operating voltage being stored in the nonvolatile memory; and repeating the detecting and the storing as the operating voltage decays in response to the discharge of the supplemental power reservoir. storing information corresponding to the value of an operating voltage provided to the microprocessor control unit in nonvolatile memory; repeating the storing for reduced values of the operating voltage; determining the actual minimum operating voltage for the microprocessor control unit based on a last one of the stored information corresponding to the value of the operating voltage; defining the last one of the stored information corresponding to the value of the operating voltage as a new actual minimum operating voltage for the microprocessor control unit; and defining a learned critical voltage based upon the value of the actual minimum operating voltage; detecting the operating voltage provided to the microprocessor control unit by a supplemental power reservoir after removal of the battery; information corresponding to the value of the operating voltage being stored in the nonvolatile memory; and repeating the detecting and the storing as the operating voltage decays in response to the discharge of the supplemental power reservoir.
A method comprising: receiving, at a processor, a first control signal comprising an instruction to adjust an energy generation output level of an energy generation system to a first energy generation output level; maintaining the energy generation output level of the EG system at the first energy generation output level for a time period; determining, by the processor, whether a second control signal is received during the time period; and if a second control signal is not received during the time period: (i) ramping down the energy generation output level at a rate after the time period until a failsafe output level is achieved, and (ii) maintaining the failsafe output level until a third control signal is received by the processor; wherein the failsafe output level is based upon a historical load requirement or a historical energy generation output level. maintaining the energy generation output level of the EG system at the first energy generation output level for a time period; determining, by the processor, whether a second control signal is received during the time period; and if a second control signal is not received during the time period: (i) ramping down the energy generation output level at a rate after the time period until a failsafe output level is achieved, and (ii) maintaining the failsafe output level until a third control signal is received by the processor; wherein the failsafe output level is based upon a historical load requirement or a historical energy generation output level. (i) ramping down the energy generation output level at a rate after the time period until a failsafe output level is achieved, and (ii) maintaining the failsafe output level until a third control signal is received by the processor; wherein the failsafe output level is based upon a historical load requirement or a historical energy generation output level.
A wrappable textile sleeve, comprising: a woven wall having opposite inner and outer edges (14, 16) extending in a lengthwise direction along a central longitudinal axis of the sleeve between opposite ends (20, 22), said opposite inner and outer edges being wrappable into overlapping relation with one another to form an inner tubular cavity, said wall having an innermost woven layer and an outermost woven layer woven in attached relation with one another at one of said opposite inner and outer edges; characterised in that it further comprises a reflective layer sandwiched between said innermost woven layer and said outermost woven layer. a woven wall having opposite inner and outer edges (14, 16) extending in a lengthwise direction along a central longitudinal axis of the sleeve between opposite ends (20, 22), said opposite inner and outer edges being wrappable into overlapping relation with one another to form an inner tubular cavity, said wall having an innermost woven layer and an outermost woven layer woven in attached relation with one another at one of said opposite inner and outer edges; characterised in that it further comprises a reflective layer sandwiched between said innermost woven layer and said outermost woven layer.
Catalyst for steam reformation of methanol which includes a carrier material comprising a metal oxide and deposited thereon: a) indium oxide (In 2 O 3) and at least one further metal from the group of palladium (Pd), platinum (Pt), rhodium (Rh) and iridium (Ir) and/or b) an alloy comprising indium and at least one further metal from the group of palladium (Pd), platinum (Pt), rhodium (Rh) and iridium (Ir), as catalytically active substances, wherein the ratio of the further metal (Pd, Pt, Rh or Ir) in relation to indium, expressed as the weight ratio of the further metal to indium oxide (In 2 O 3), is in the range of 0.3 to 0.8, and wherein the catalyst, in relation to the total weight of the catalyst of carrier material and catalytically active substances, includes indium, expressed as indium oxide (In 2 O 3) in an amount of from 10 to 45 % by weight. a) indium oxide (In 2 O 3) and at least one further metal from the group of palladium (Pd), platinum (Pt), rhodium (Rh) and iridium (Ir) and/or b) an alloy comprising indium and at least one further metal from the group of palladium (Pd), platinum (Pt), rhodium (Rh) and iridium (Ir),
Supply system for supplying a coating material (1a, 1b) to a feed device for feeding the coating material (1a, 1b) to a processing machine, wherein the supply system has: a storage device which is designed to store at least one coating material (1a, 1b), and a manipulator which is designed to transfer coating material (1a, 1b) between the feed device and the storage device, characterised in that the manipulator is a mobile driveable robot, in particular an autonomous mobile robot, which is designed to pick up the coating materials (1a, 1b) at the storage device, transport them to the feed device and unload them at the feed device and/or to pick up the coating materials (1a, 1b) at the feed device, transport them to the storage device and unload them at the storage device, and wherein the manipulator is designed to perform a threading operation on the coating material (1, 1b) when this has been moved to the feed device. a storage device which is designed to store at least one coating material (1a, 1b), and a manipulator which is designed to transfer coating material (1a, 1b) between the feed device and the storage device, characterised in that the manipulator is a mobile driveable robot, in particular an autonomous mobile robot, which is designed to pick up the coating materials (1a, 1b) at the storage device, transport them to the feed device and unload them at the feed device and/or to pick up the coating materials (1a, 1b) at the feed device, transport them to the storage device and unload them at the storage device, and wherein the manipulator is designed to perform a threading operation on the coating material (1, 1b) when this has been moved to the feed device.
A method comprising: transmitting, in a network, a tracerouting probe between a source node and a target node via multi-path routing; receiving (320, 510, 520), at the source node, from the transmitted tracerouting probe, identification information of a first network node in a multi-path route of the network and identification information of a second network node in the multi-path route of the network; determining, at the source node, an identification of an edge connecting the first network node and the second network node based on the received identification information; storing, at the source node, the identification of the edge; determining, at the source node, by comparison of the edge with previously identified edges, whether said edge is a unique edge; estimating, at the source node, a total number of unique edges between the source node and the target node using a mark-release-recapture equation; calculating an edge completion ratio based on the identified edges, wherein the edge completion ratio is calculated by a number of the identified edges that are unique divided by the estimated total number of unique edges; and terminating the tracerouting probe when the edge completion ratio is greater than or equal to a threshold. transmitting, in a network, a tracerouting probe between a source node and a target node via multi-path routing; receiving (320, 510, 520), at the source node, from the transmitted tracerouting probe, identification information of a first network node in a multi-path route of the network and identification information of a second network node in the multi-path route of the network; determining, at the source node, an identification of an edge connecting the first network node and the second network node based on the received identification information; storing, at the source node, the identification of the edge; determining, at the source node, by comparison of the edge with previously identified edges, whether said edge is a unique edge; estimating, at the source node, a total number of unique edges between the source node and the target node using a mark-release-recapture equation; calculating an edge completion ratio based on the identified edges, wherein the edge completion ratio is calculated by a number of the identified edges that are unique divided by the estimated total number of unique edges; and terminating the tracerouting probe when the edge completion ratio is greater than or equal to a threshold.
A spectacle case comprising, on at least one of the external surfaces of the spectacle case, at least one fastening device comprising at least one fastening means intended to removably fasten at least one decorative accessory of the spectacle case comprising at least one fastening means complementary to that of the fastening device, characterized in that the fastening device comprises at least one fastening means in the form of a male or female clip and the decorative accessory a complementary female or male clip intended to cooperate with the clip of the fastening device; the assembly formed by the fastening device and the complementary fastening means of the decorative accessory comprising four, six or eight pairs of complementary clips.
A plant for extracting, de-aerating and heating a vegetable product comprising: - an extraction section for treating a vegetable starting product, in order to obtain an extracted vegetable product, in particular said extracted vegetable product consisting of a vegetable puree, or a juice; - a storage reservoir of said extracted vegetable product; - a cold de-aeration section, for de-aerating said extracted vegetable product obtaining a cold de-aerated extracted vegetable product, said cold de-aeration step being carried out at a temperature T1 less than 35°C; - a heating section arranged to heat said vegetable product from a starting temperature to a final temperature, obtaining a heated product; characterised in that said cold de-aeration section is located downstream of said extraction section; in that said heating section is located downstream of said cold de-aeration section, said heating section arranged to heat said cold de-aerated product from said temperature T1 to a final temperature T2, with T2>T1, obtaining a de-aerated and heated product; in that said storage reservoir is located downstream of said heating section in such a way that in said storage reservoir a predetermined amount of vegetable de-aerated and heated product is present at said temperature T2; in that a deviation means is provided located downstream of said storage reservoir, said deviation means arranged to feed selectively said heated de-aerated product to an exit section located downstream of said storage reservoir, or to a recirculation point located between said cold de-aeration section and said heating section, in such a way that when needed a temporary recirculation can be carried out of said product without changing its sugar concentration and without changing the product taste and in that said deviation means (50a, 50b) is configured to be operated in a first operative configuration, in which said de-aerated and heated product is sent to said outlet section located downstream of said storage reservoir for being transferred out from the plant, or in at least a second operative configuration, in which said heated de-aerated product is fed to said recirculation point, in such a way that, in normal working conditions, said deviation means (50a, 50b) is in said first operative configuration, whereas when needed said deviation means (50a, 50b) is in said second operative configuration. - an extraction section for treating a vegetable starting product, in order to obtain an extracted vegetable product, in particular said extracted vegetable product consisting of a vegetable puree, or a juice; - a storage reservoir of said extracted vegetable product; - a cold de-aeration section, for de-aerating said extracted vegetable product obtaining a cold de-aerated extracted vegetable product, said cold de-aeration step being carried out at a temperature T1 less than 35°C; - a heating section arranged to heat said vegetable product from a starting temperature to a final temperature, obtaining a heated product;