mhurhangee/ep-ind-claims huggingface dataset:
A method for displaying a message thread on a user's mobile phone device, the message thread comprising messages in separate one to one conversations between the user and other recipient users or contact persons, and mass messages in one to many conversations between the users, the message thread being displayed in a conversation page, characterized in that, the method comprises: querying (S21,S32,S61) sending time and recipients of a mass message sent from the user; and inserting the mass message in the conversation page of separate conversations between the user and each of the recipients according to the sending time, wherein the mass message is inserted into a conversation of a single contact person according to the recipients and the sending time of the mass message, or reply messages of the mass message are displayed in the conversation page of the mass message, thus the mass message is associated with the separate conversations, such that the user may see in the separate conversations the mass message that is displayed (S22,S34) at an accurate location in the message thread. querying (S21,S32,S61) sending time and recipients of a mass message sent from the user; and inserting the mass message in the conversation page of separate conversations between the user and each of the recipients according to the sending time,
Storage trolley for receiving at least two protective covers of a packaging machine, preferably of a thermoforming packaging machine, characterized in that said storage trolley has movable holders for receiving protective covers of said packaging machine, where said holders is convertible between a parking position and a receiving position, where said storage trolley is configured to be positionable below a machine frame of said packaging machine when said holders are in the parking position.
A method for controlling an agricultural machinery, the agricultural machinery comprising an agricultural vehicle and an agricultural implement, the agricultural machinery comprising at least one actuator for moving at least a part of the agricultural implement with respect to the agricultural vehicle, wherein the method comprises: determining a likelihood of a future change in the agricultural implement's speed and/or direction of motion; determining an actuator-control-signal based on the likelihood of change; activating the at least one actuator on the basis of the actuator-control-signal to reduce an impact of the agricultural implement's inertia during the future change in the agricultural implement's speed and/or direction of motion. determining a likelihood of a future change in the agricultural implement's speed and/or direction of motion; determining an actuator-control-signal based on the likelihood of change; activating the at least one actuator on the basis of the actuator-control-signal to reduce an impact of the agricultural implement's inertia during the future change in the agricultural implement's speed and/or direction of motion.
System for receiving and processing satellite signals from satellites of global navigation systems, in particular for a vehicle, having two signal paths (P1, P2) which are separate from one another, having - a signal conditioning unit (4, 5, 104, 105) for conditioning received satellite signals, - an analysis unit (6, 106) for analysing the conditioned satellite signals, and - a position determination unit (7, 107) for determining an ego position (Pos1, Pos2) by means of the satellite signals provided by the analysis unit (6, 106), characterized in that the analysis units (6, 106) or the signal conditioning units (4, 5, 104, 105) of the two signal paths (P1, P2) which are separate from one another are designed to separate the satellite signals according to the frequencies of the satellite signals from a satellite and to provide the position determination units with said satellite signals, wherein the satellite signals made available to the position determination units and separated according to the frequencies of the satellite signals from the satellite are independent satellite signals in terms of their information content, wherein the system also has a localization unit for receiving the ego positions determined by means of the position determination units (7, 107) and for determining ego positions whose plausibility has been checked, and wherein the localization unit is designed to compare the determined ego positions from the position determination units with one another and to determine differences between the ego positions. - a signal conditioning unit (4, 5, 104, 105) for conditioning received satellite signals, - an analysis unit (6, 106) for analysing the conditioned satellite signals, and - a position determination unit (7, 107) for determining an ego position (Pos1, Pos2) by means of the satellite signals provided by the analysis unit (6, 106),
A multi-step separator (16, 18) for a fuze that is configured to be disposed in an ogive of a projectile in a cartridge-type military munition wherein the fuze includes a detonator with a booster or spit-back element for initiating an energetic sequence resulting in a high-order detonation of the explosive device, said multi-step separator comprising, a fuze-munition interface device for retaining the fuze in a confined, close relationship with the explosive device and for releasing the fuze when and if it is subjected to an external stimulus that may cause it to prematurely detonate the explosive device, wherein the external stimulus is a first elevated temperature above a range of operational temperatures within which the munition is designed to function. said interface device comprising a separating device including a fusible ring disposed between the fuze and the explosive device for separating and physically distancing the fuze from the explosive device when and if the fuze is released; wherein said fusible ring comprises a compressed coil spring embedded in a first solid, fusible material that melts at a second elevated temperature, higher than said first elevated temperature, and releases the spring when it melts.
A polymerizable composition comprising: (a) at least one first (meth)acrylate functional monomer represented by the following Formula, wherein, L 1 is selected from, a multivalent optionally substituted hydrocarbyl group optionally interrupted with at least one of -C -, -S-, -O-, and combinations thereof, and a divalent linking group represented by the following Formula, wherein Y is O or S, L 2 is independently for each n a divalent optionally substituted hydrocarbyl group optionally interrupted with at least one of -O- and -S-, R 1 is independently selected for each n from hydrogen and methyl, and n is from 2 to 6; (b) a polymerization moderator; and (c) optionally, at least one monoethylenically unsaturated monomer; wherein said polymerization moderator comprises at least one of 1-isopropyl-4-methyl-1,4-cyclohexadiene, 1-isopropyl-4-methyl-1,3-cyclohexadiene, 1-methyl-4-(propan-2-ylidene)cyclohex-1-ene, and 2,6-dimethyl-2,4,6-octatriene. (a) at least one first (meth)acrylate functional monomer represented by the following Formula, wherein, L 1 is selected from, a multivalent optionally substituted hydrocarbyl group optionally interrupted with at least one of -C -, -S-, -O-, and combinations thereof, and a divalent linking group represented by the following Formula, wherein Y is O or S, L 2 is independently for each n a divalent optionally substituted hydrocarbyl group optionally interrupted with at least one of -O- and -S-, R 1 is independently selected for each n from hydrogen and methyl, and n is from 2 to 6; L 2 is independently for each n a divalent optionally substituted hydrocarbyl group optionally interrupted with at least one of -O- and -S-, R 1 is independently selected for each n from hydrogen and methyl, and n is from 2 to 6; (b) a polymerization moderator; and (c) optionally, at least one monoethylenically unsaturated monomer; wherein said polymerization moderator comprises at least one of 1-isopropyl-4-methyl-1,4-cyclohexadiene, 1-isopropyl-4-methyl-1,3-cyclohexadiene, 1-methyl-4-(propan-2-ylidene)cyclohex-1-ene, and 2,6-dimethyl-2,4,6-octatriene.
A greenhouse lighting fixture, comprising: a Light Emitting Diode base support, said LED base support comprising a plurality of spaced-apart LEDs extending along a longitudinal axis of said LED base support; and an optical element coupled with said LED base support, said optical element having optical characteristics that result in at least 50% of the light produced by said LEDs being projected sideways from said fixture in oppositely directed side zones that flank a central zone in which light is substantially blocked from projecting below said fixture, wherein said optical element comprises a linear refractive lens disposed relative to said LEDS such that light emitted from an exit face of said lens is directed into said side zones. a Light Emitting Diode base support, said LED base support comprising a plurality of spaced-apart LEDs extending along a longitudinal axis of said LED base support; and an optical element coupled with said LED base support, said optical element having optical characteristics that result in at least 50% of the light produced by said LEDs being projected sideways from said fixture in oppositely directed side zones that flank a central zone in which light is substantially blocked from projecting below said fixture, wherein said optical element comprises a linear refractive lens disposed relative to said LEDS such that light emitted from an exit face of said lens is directed into said side zones.
Projectile, in particular practice projectile, having a marking agent for marking the point of impact of the projectile (10, 11) on a target, at least one container being incorporated in the ogive region of the projectile (10, 11), which contains at least one agent for marking the target, and the container being destroyed when the projectile (10, 11) strikes the target, the marking agent emerging through holes introduced into the ogive or in the tail area, for which purpose a positive pressure is generated in the projectile (10, 11), characterized in that the container is destroyed by a gas cartridge located in front, which is pierced by a triggering mechanism, and the gas cartridge generates the positive pressure.
A tri-block prepolymer for making biomedical devices comprising formula - -, wherein and are independently polymeric segments formed from a first hydrophilic monomer comprising functionality selected from the group consisting of hydroxyalkyl, aminoalkyl, and mixtures thereof and optionally one or more second hydrophilic monomers; and is a polymeric segment formed from a silicone-containing macromer; optionally a third hydrophilic monomer comprising functionality selected from the group consisting of hydroxyalkyl, amino alkyl, and mixtures thereof; and optionally a silicone-containing monomer; and wherein said tri-block prepolymer comprises at least one monovalent reactive group, wherein the at least one monovalent reactive group is an end group. and are independently polymeric segments formed from a first hydrophilic monomer comprising functionality selected from the group consisting of hydroxyalkyl, aminoalkyl, and mixtures thereof and optionally one or more second hydrophilic monomers; and is a polymeric segment formed from a silicone-containing macromer; optionally a third hydrophilic monomer comprising functionality selected from the group consisting of hydroxyalkyl, amino alkyl, and mixtures thereof; and optionally a silicone-containing monomer; and
A curable composition comprising (a) at least one epoxy resin; (b) a combination of two or more curing agents; (c) at least one core shell rubber toughening agent; and (d) at least one non-reactive diluent adapted for reducing the difference in temperature between Tg1 and Tg2, wherein Tg1 is obtained using the half extrapolated tangent method for measuring the change in the heat flow curve generated by a differential scanning calorimetry scan from 10 °C to 220 °C at 10 °C per minute, and Tg2 is determined by cooling the same sample from 220 °C to 20 °C followed by a second DSC scan from 10 °C to 180 °C at 10 °C per minute; and wherein ΔTg (Tg2-Tg1) is less than 15 °C as measured by differential scanning calorimetry.
A synthetic netting with several warp chains (2a, 2b) extending in parallel to each other in the longitudinal direction, wherein - at least two warp chains (2a, 2b) extend at a small distance from one another and form a chain group; - at least one further warp chain (2a, 2b) is adjacent to the chain group, wherein the distance between this warp chain (2a, 2b) and the chain group is greater than the small distance between the warp chains (2a, 2b) within the chain group; - a thread runs back and forth between the further warp chain (2a, 2b) and the chain group and connects the further warp chain (2a, 2b) and the chain group; - several chain groups adjacent to each other are provided which are each formed of at least two warp chains (2a, 2b); - the chain groups are at a greater distance from one another than the warp chains (2a, 2b) within a chain group; and wherein - in each case one thread runs back and forth between adjacent chain groups and connects the chain groups; characterised in that - the synthetic netting is completely formed by chain groups. - at least two warp chains (2a, 2b) extend at a small distance from one another and form a chain group; - at least one further warp chain (2a, 2b) is adjacent to the chain group, wherein the distance between this warp chain (2a, 2b) and the chain group is greater than the small distance between the warp chains (2a, 2b) within the chain group; - a thread runs back and forth between the further warp chain (2a, 2b) and the chain group and connects the further warp chain (2a, 2b) and the chain group; - several chain groups adjacent to each other are provided which are each formed of at least two warp chains (2a, 2b); - the chain groups are at a greater distance from one another than the warp chains (2a, 2b) within a chain group; and wherein - in each case one thread runs back and forth between adjacent chain groups and connects the chain groups; characterised in that - the synthetic netting is completely formed by chain groups.
Mobility support system in the form of a rollator for walking support, comprising: a drive unit which is configured to drive at least one wheel (121, 122, 131, 132) of the mobility support system; characterized in that, the mobility support system comprises a modular structure frame, wherein the modular structure frame comprises a central module, as well as at least one side module (120, 130), wherein the drive unit is arranged in the central module and/or the at least one side module (120, 130), and wherein at least one wheel (121, 122; 131, 132) is assigned to the side module (120; 130); and the central module and the at least one side module (120, 130) each have at least one interface by means of which the central module can be coupled to the at least one side module (120, 130) mechanically and/or electronically reversibly, wherein the interfaces of the central module and of the at least one side module (120, 130) are quick-assembly interfaces which are configured to couple the central module with the at least one side module (120, 130) without tools. a drive unit which is configured to drive at least one wheel (121, 122, 131, 132) of the mobility support system; characterized in that, the mobility support system comprises a modular structure frame, wherein the modular structure frame comprises a central module, as well as at least one side module (120, 130), wherein the drive unit is arranged in the central module and/or the at least one side module (120, 130), and wherein at least one wheel (121, 122; 131, 132) is assigned to the side module (120; 130); and the central module and the at least one side module (120, 130) each have at least one interface by means of which the central module can be coupled to the at least one side module (120, 130) mechanically and/or electronically reversibly, wherein the interfaces of the central module and of the at least one side module (120, 130) are quick-assembly interfaces which are configured to couple the central module with the at least one side module (120, 130) without tools.
An aluminium alloy brazing sheet comprising: a thin covering material layer, a core material layer, and an Al-Si alloy brazing material layer as an intermediate material interposed between said thin covering material and said core material, said thin covering material and said core material being comprised of aluminium alloys having a solidus temperature higher than a liquidus temperature of said brazing material so that the molten brazing material seeps onto a surface of said thin covering material when said brazing material is molten in a brazing operation, and wherein wherein said thin covering material layer is an Mg-free aluminium alloy comprising, in wt.%: Fe 0 to 0.5, Si 0 to 4.0, Mn 0 to 1.0, Cu 0 to 0.5, Zn 0 to 0.25, Ti 0 to 0.1, inevitable impurities, each <0.05, total <0.15, balance aluminium, wherein said core material layer is an aluminium alloy comprising, in wt.%: Mn 0.5 to 2.0, Cu 0 to 1.2, Fe 0 to 1.0, Si 0 to 1.0, Bi 0 to 0.1, Ti 0 to 0.1, Mg up to 0.03, inevitable impurities, each <0.05, total <0.2, balance aluminium, said Al-Si alloy brazing material contains Si in a range of 5 to 16.5%, Fe up to 0.8%, Ti in a range of up to 0.2%, from 0.02 to 0.08% Mg and further Bi in a range of 0.01 to 0.1%, unavoidable impurities and aluminium, wherein the thickness ratio of the Al-Si alloy brazing material layer and the thin covering material is 4 or more to 1, wherein in the Al-Si alloy brazing material layer the excess Mg content with respect to stoichiometric composition of Bi 2 Mg 3 is 0.07% or less, and wherein the aluminium alloy brazing sheet has a total Mg-content of less than 0.04%.
A method of transmitting data via a core portion of a computer network to a mobile device, the network including a plurality of access points wherein each access point includes a memory where data for onward transmission to the mobile device may be cached and is operable to communicate with the mobile device over a short-range connection, when the mobile device is in range thereof, and with the core portion of the network over a backhaul connection thereto on a substantially continuous basis, the method comprising: obtaining location data from the mobile device, generating predictions of one or more of the access points which the mobile device is considered likely to come in range of in the future, and transmitting the data or a portion thereof to the one or more predicted access points via the backhaul connection for caching thereat and for onward transmission to the mobile device in the event that the mobile device comes into range of the access point, or one or more of the access points where data is transmitted to more than one predicted access point; characterized in that the prediction step is performed using an n-gram language model. obtaining location data from the mobile device, generating predictions of one or more of the access points which the mobile device is considered likely to come in range of in the future, and transmitting the data or a portion thereof to the one or more predicted access points via the backhaul connection for caching thereat and for onward transmission to the mobile device in the event that the mobile device comes into range of the access point, or one or more of the access points where data is transmitted to more than one predicted access point; characterized in that the prediction step is performed using an n-gram language model.
A double-sided cutting insert, comprising: a circular top surface; a bottom surface shaped to be identical to the top surface; a cylindrical side surface for connecting the top and bottom surfaces (120, 140); and cutting edges formed between the top and side surfaces (120, 160) and between the bottom and side surfaces (140, 160); wherein the side surface of the cutting insert has a plurality of rotation prevention surfaces substantially perpendicular to the top and bottom surfaces (120, 140) in the circumferential direction of the side surface, and wherein the rotation prevention surface is a surface recessed toward an inside of the side surface of the cutting insert; wherein at least one of the plurality of rotation prevention surfaces has a pair of edges (163, 164), which extend in upper and lower directions of the at least one rotation prevention surface; and characterized in that the pair of edges (163, 164) exist inside the circumference of the side surface. a circular top surface; a bottom surface shaped to be identical to the top surface; a cylindrical side surface for connecting the top and bottom surfaces (120, 140); and cutting edges formed between the top and side surfaces (120, 160) and between the bottom and side surfaces (140, 160); wherein the side surface of the cutting insert has a plurality of rotation prevention surfaces substantially perpendicular to the top and bottom surfaces (120, 140) in the circumferential direction of the side surface, and wherein the rotation prevention surface is a surface recessed toward an inside of the side surface of the cutting insert; wherein at least one of the plurality of rotation prevention surfaces has a pair of edges (163, 164), which extend in upper and lower directions of the at least one rotation prevention surface; and characterized in that the pair of edges (163, 164) exist inside the circumference of the side surface.