mhurhangee/ep-ind-claims huggingface dataset:
A package for smoking articles, the package comprising: an outer container having an outer wall; an inner container that is movable relative to the outer container, wherein the inner container is provided inwardly of the outer wall and comprises at least one compartment for holding a plurality of smoking articles; a slide rail provided on one of the outer container and the inner container, and a tab provided on the other of the outer container and the inner container, wherein the tab is configured to slide with respect to the slide rail, and the slide rail and tab provide, in respective relative positions, a closed position for the inner container, and first and second open positions; wherein the slide rail and the tab are provided inwardly of the outer wall of the outer container; and characterized in that the tab is arranged to loop over the slide rail in order to engage with the slide rail. an outer container having an outer wall; an inner container that is movable relative to the outer container, wherein the inner container is provided inwardly of the outer wall and comprises at least one compartment for holding a plurality of smoking articles; a slide rail provided on one of the outer container and the inner container, and a tab provided on the other of the outer container and the inner container, wherein the tab is configured to slide with respect to the slide rail, and the slide rail and tab provide, in respective relative positions, a closed position for the inner container, and first and second open positions; wherein the slide rail and the tab are provided inwardly of the outer wall of the outer container; and characterized in that the tab is arranged to loop over the slide rail in order to engage with the slide rail.
A load binder comprising an axially extending elongate, preferably tubular, member, two shanks (14, 16), a first ratchet wheel and a first oscillatory handle; said member comprising end portions comprising inner screw threads in relatively opposite directions so as to accommodate said shanks (14, 16) which are correspondingly screw-threaded and which comprise distal ends (18, 20), preferably eyes; whereby rotation of the member in one direction causes the distal ends (18, 20) to draw together and rotation of the member in relatively opposite direction causes the distal ends (18, 20) to spread apart; whereby said rotation of said member is effected by a ratchet mechanism which involves the provision of said first ratchet wheel which is suitably secured intermediate the ends of the member and is rotatably mounted between mutually spaced first side members (30, 32) which project from said first handle; characterized in that said load binder comprises a second ratchet wheel and a second oscillatory handle; whereby said ratchet mechanism involves the provision of said second ratchet wheel which is suitably secured intermediate the ends of the member and is rotatably mounted between mutually spaced second side members (30, 32) which project from said second handle.
A screw spindle machine having a tubular casing that is made of cast metal and is lined with a wear resistant layer, that is encapsulated in a steel shell, characterised in that the steel shell has the form of a one-piece tube that matches the outer peripheral shape of the layer.
Baler having a longitudinal direction extending in the traveling direction of the baler, and a transverse direction, the baler comprising a frame, a gearbox, and a cross member extending in the transverse direction for coupling a top part of the gearbox to the frame and having a first end coupled to the frame and a second end coupled to the frame, wherein said top part of the gearbox is coupled to the cross member between said first end and said second end; the cross member is provided with a coupling flange (216; 316a,316b) extending perpendicular on the transverse direction, wherein said coupling flange is coupled with the top part of the gearbox; characterized in that the coupling flange (216; 316a,316b) is clamped around the cross member in a weld-free manner.
A method for connection management in a 3GPP network, the method comprising: transmitting, by a user equipment (805, 1005, 1105), UE, a re-establishment request for a first connection of a first protocol layer in response to determining that a connection re-establishment condition is met, wherein the first protocol layer is a Layer 2 network layer, and wherein the re-establishment request for the first connection of the first protocol layer is transmitted to a first network device (807, 1007, 1107); receiving, by the UE (805, 1005, 1105), a re-establishment response indicating if a re-establishment of the first connection of the first protocol layer is allowed; completing, by the UE (805, 1005, 1105), the re-establishment of the first connection of the first protocol layer when the re-establishment of the first connection of the first protocol layer is allowed, wherein a context of a second protocol layer of the UE (805, 1005, 1105) is unchanged, wherein the second protocol layer is a Layer 3 network layer, and wherein completing the first connection of the first protocol layer comprises resetting, by the UE (805, 1005, 1105), a first protocol layer entity; the method being characterised by transmitting, by the UE (805, 1005, 1105), a re-establishment request for a second connection of the second protocol layer if the re-establishment of the first connection of the first protocol layer is not allowed. transmitting, by a user equipment (805, 1005, 1105), UE, a re-establishment request for a first connection of a first protocol layer in response to determining that a connection re-establishment condition is met, wherein the first protocol layer is a Layer 2 network layer, and wherein the re-establishment request for the first connection of the first protocol layer is transmitted to a first network device (807, 1007, 1107); receiving, by the UE (805, 1005, 1105), a re-establishment response indicating if a re-establishment of the first connection of the first protocol layer is allowed; completing, by the UE (805, 1005, 1105), the re-establishment of the first connection of the first protocol layer when the re-establishment of the first connection of the first protocol layer is allowed, wherein a context of a second protocol layer of the UE (805, 1005, 1105) is unchanged, wherein the second protocol layer is a Layer 3 network layer, and wherein completing the first connection of the first protocol layer comprises resetting, by the UE (805, 1005, 1105), a first protocol layer entity; the method being characterised by transmitting, by the UE (805, 1005, 1105), a re-establishment request for a second connection of the second protocol layer if the re-establishment of the first connection of the first protocol layer is not allowed.
A medical instrument system comprising an instrument manipulator (306, 506) configured to control a position of a medical instrument with respect to a base (304, 504), the instrument manipulator comprising: an instrument carriage (308, 508) comprising a medical instrument connector configured to engage the medical instrument, the instrument carriage configured to translate along a linear axis to advance or retract the medical instrument with respect to the base (304, 504); an insertion stage (302, 502) configured to telescope within the instrument carriage (308, 508) along the linear axis, the insertion stage having a drive assembly comprising a drive belt and a drive motor configured to drive the drive belt, wherein the base is fixedly coupled to the drive belt; and a connecting element having a distal end fixedly coupled to the drive belt and a proximal end fixed to the instrument carriage. an instrument carriage (308, 508) comprising a medical instrument connector configured to engage the medical instrument, the instrument carriage configured to translate along a linear axis to advance or retract the medical instrument with respect to the base (304, 504); an insertion stage (302, 502) configured to telescope within the instrument carriage (308, 508) along the linear axis, the insertion stage having a drive assembly comprising a drive belt and a drive motor configured to drive the drive belt, wherein the base is fixedly coupled to the drive belt; and a connecting element having a distal end fixedly coupled to the drive belt and a proximal end fixed to the instrument carriage.
A device for reinforcing, sealing or damping a structural element (12, 14) in a motor vehicle, comprising: a carrier having a first lateral region and a second lateral region; and a first adhesive (13.1) for bonding the carrier to the structural element (12, 14), wherein the first adhesive (13.1) is arranged on the first lateral region of the carrier; wherein the second lateral region of the carrier is formed in such a way that a second adhesive (13.2), which can be pumped or extruded onto the structural element (12, 14), is supported during and/or after the activation of said second adhesive by the second lateral region of the carrier. a carrier having a first lateral region and a second lateral region; and a first adhesive (13.1) for bonding the carrier to the structural element (12, 14), wherein the first adhesive (13.1) is arranged on the first lateral region of the carrier; wherein the second lateral region of the carrier is formed in such a way that a second adhesive (13.2), which can be pumped or extruded onto the structural element (12, 14), is supported during and/or after the activation of said second adhesive by the second lateral region of the carrier.
Method for the production of a building brick made up of at least two types of concrete (2, 3) with different bulk densities for the creation of structures, the outer walls of the building brick being formed by an upper side, an underside and side walls, wherein, in a first method step, a layer of a concrete with a lower bulk density is filled into a mould and is vibrated and/or rammed prior to carrying out a second method step, wherein, in the second method step, a concrete with a higher bulk density is filled into the mould up to the region of its upper edge and rammed, wherein, in a third method step, after the concrete has settled as a result of the ramming operation, the concrete with the lower bulk density is filled between the upper side of the concrete with the higher bulk density and the upper edge of the mould, wherein, after the third method step, the building brick is vibrated and/or rammed, the two layers made up of the concrete with the lower bulk density forming the upper side and the underside of the building brick, wherein, in a fourth method step, the upper side and the underside of the building brick are mechanically processed in such a way that the building brick can be laid in a dimensionally accurate manner.
An AlPO-92 microporous crystalline material that has an empirical composition in an as-synthesized form and on an anhydrous basis expressed by an empirical formula: C + c A + a M m 2+ EP x Si y O z where M is at least one framework divalent cation and is selected from the group consisting of alkaline earth and transition metals, wherein M is a cation selected from the group consisting of beryllium, magnesium, cobalt, manganese, iron, nickel and mixtures thereof, C is a cyclic organoammonium cation prepared from a reaction of an aqueous mixture of a cyclic tertiary amine and an organic dihalide, wherein the cyclic tertiary amine is N-methylpiperidine, wherein the organic dihalide is 1,6-dibromohexane, A is an acyclic organoammonium cation, wherein A is tetramethylammonium, the ratio (c/a) having a value from 0 to 1000, and the sum (c+a) representing the mole ratio of (C+A) to E and has a value of 0.1 to 2.0, "m" is the mole ratio of M to E and varies from 0 to 1.0, "x" is a mole ratio of P to E and varies from 0.5 to 2.0, a ratio of silicon to E is represented by "y" which varies from 0 to 1.0, E is a trivalent element which is tetrahedrally coordinated, is present in the framework, and is aluminum, and "z" is a mole ratio of O to E and is given by an equation: z = 2 • m + c + a + 3 + 5 • x + 4 • y / 2 and is characterized by a following x-ray diffraction pattern, having at least the d-spacings and relative intensities set forth in Table 1: Table 1 2-Theta d Intensity 7.03-7.16 12.56-12.34 vw 7.95-8.02 11.11-11.01 vs 8.93-9.02 9.89-9.80 vw-m 12.13-12.23 7.29-7.23 w-m 13.19-13.26 6.71-6.67 m 14.07-14.31 6.29-6.18 w-m 14.96-15.07 5.92-5.87 vw 15.42-15.50 5.74-5.71 s 15.96-16.05 5.55-5.52 w-m 17.97-18.06 4.94-4.90 m 18.27-18.38 4.86-4.82 vw-w 19.34-19.45 4.59-4.56 vw-w 20.36-20.45 4.36-4.34 s-vs 20.78-20.86 4.28-4.25 w-m 21.37-21.51 4.16-4.12 vw 22.37-22.46 3.98-3.95 m-s 22.97-23.04 3.87-3.85 m 23.49-23.59 3.79-3.76 w-m 24.14-24.35 3.69-3.65 vw-m 24.46-24.57 3.64-3.62 vw 25.02-25.15 3.56-3.53 m 25.53-25.62 3.49-3.47 vw 26.27-26.40 3.39-3.37 vw-w 26.59-26.66 3.35-3.34 m 26.84-26.98 3.32-3.30 vw-w 27.31-27.48 3.27-3.24 w-m 27.80-27.97 3.21-3.18 vw 28.38-28.51 3.14-3.12 vw-w 29.34-29.42 3.05-3.03 vw 30.21-30.32 2.96-2.94 vw-w 30.46-30.60 2.94-2.91 vw-w 30.89-30.96 2.89-2.88 m-s 31.17-31.26 2.87-2.85 w-m 31.41-31.56 2.85-2.83 w-m 32.29-32.37 2.77-2.76 vw-m 33.10-33.19 2.71-2.69 vw-m 33.34-33.47 2.69-2.67 w 34.46-34.62 2.60-2.58 vw 35.43-35.50 2.54-25.2 vw-w
Method to start a combustion engine in a hybrid powertrain, comprising a gearbox with an input shaft and an output shaft, the output shaft being at a standstill before being started; a first planetary gear, connected to the input shaft and a first main shaft; a second planetary gear, connected to the first planetary gear and a second main shaft; a first electrical machine, connected to the first planetary gear; a second electrical machine, connected to the second planetary gear; at least one first gear pair (G1, 60, 72) connected with a countershaft and the first main shaft, and therefore with the first planetary gear; at least one second gear pair (G2, 66, 78) connected with said countershaft and the second main shaft, and therefore with the second planetary gear, wherein the output shaft can be either connected to the first main shaft or the countershaft; and a coupling device arranged between an output shaft of the combustion engine and the input shaft of the gearbox, wherein the input shaft is connected with a first planetary wheel carrier arranged in the first planetary gear, and wherein the second main shaft is directly connected with a planetary wheel carrier arranged in the second planetary gear, comprising the steps: a) connecting the output shaft of the combustion engine with the input shaft of the gearbox, by means of the coupling device, wherein connecting the output shaft of the combustion engine with the input shaft of the gearbox comprises controlling the first electrical machine, such that the input shaft of the gearbox stops, and controlling the second electrical machine, such that a desired torque (T drv) in the output shaft is achieved, and when the input shaft of the gearbox has stopped, the coupling device is controlled in such a way that the output shaft of the combustion engine and the input shaft of the gearbox are connected; and b) controlling the first and the second electrical machine (14, 16), such that the combustion engine is started, by balancing the desired torque (T drv) in the output shaft and a required torque (T Flywheel) to start the combustion engine, for a selected gear. a) connecting the output shaft of the combustion engine with the input shaft of the gearbox, by means of the coupling device, wherein connecting the output shaft of the combustion engine with the input shaft of the gearbox comprises controlling the first electrical machine, such that the input shaft of the gearbox stops, and controlling the second electrical machine, such that a desired torque (T drv) in the output shaft is achieved, and when the input shaft of the gearbox has stopped, the coupling device is controlled in such a way that the output shaft of the combustion engine and the input shaft of the gearbox are connected; and b) controlling the first and the second electrical machine (14, 16), such that the combustion engine is started, by balancing the desired torque (T drv) in the output shaft and a required torque (T Flywheel) to start the combustion engine, for a selected gear.
Multilayer film element having a dielectric layer which has a front side and a back side which lies opposite the front side, wherein the film element has a layer (11, 12) which forms a first component and at least one component contact surface (23, 24) which is arranged on the front side and is connected to the first component for the arrangement of a second component, wherein the film element has at least one thermode contact layer arranged on the dielectric layer, which, seen perpendicularly to the dielectric layer, is arranged in the region of the at least one component contact surface (23, 24) and has a thermode contact surface which forms an outer surface of the film element on a side of the at least one thermode contact layer which faces away from the dielectric layer, characterised in that, the layer (11, 12) forming the first component is a metallic layer having a thickness from 1μm to 50μm, and that the thermode contact layer is likewise formed as a metallic layer.
A method for preparing a cathode material comprising: selecting a cathode active starting material from the group consisting of Li 1+x M y Mn 2-x-y O 4 where 0<x≤0.25, 0<y≤0.5 and M is one or more trivalent metals from the group Al, Cr, Ga, In and Sc or Li[Li /3 M y Mn (2-x)/3 Ni x-y]O 2 where 0<x<0.5, 0<y≤0.25, x>y and M is one or more metals chosen from Ca, Cu, Mg and Zn; dry blending LiF particles with the selected starting material, wherein the resulting dry blend comprises from 0.25 to 2.5% by weight LiF; heating the resulting dry blend at a temperature between 700°C and 850°C for two to six hours to activate the LiF and to provide a final composition in the form of a cathode active material carrying a surface treatment of LiF on the cathode active material. selecting a cathode active starting material from the group consisting of Li 1+x M y Mn 2-x-y O 4 where 0<x≤0.25, 0<y≤0.5 and M is one or more trivalent metals from the group Al, Cr, Ga, In and Sc or Li[Li /3 M y Mn (2-x)/3 Ni x-y]O 2 where 0<x<0.5, 0<y≤0.25, x>y and M is one or more metals chosen from Ca, Cu, Mg and Zn; dry blending LiF particles with the selected starting material, wherein the resulting dry blend comprises from 0.25 to 2.5% by weight LiF; heating the resulting dry blend at a temperature between 700°C and 850°C for two to six hours to activate the LiF and to provide a final composition in the form of a cathode active material carrying a surface treatment of LiF on the cathode active material.
A robotic work tool system comprising a cloud service and at least one robotic work tool arranged to operate in a work area, the robotic work tool comprising at least one sensor and a communication interface, the robotic work tool being configured to establish a connection to the cloud service through said communication interface; receive data gathered by the at least one sensor and transmit the gathered data to the cloud service causing the cloud service to analyze the gathered data; receive operating data from the cloud service; and to operate at least one robotic work tool based on the operating data received from the cloud service, wherein the robotic work tool system is characterized in that the robotic work tool is configured to cause the cloud service to coordinate a first and a second robotic work tool so that the first and second robotic work tools are coordinated to service the work area according to their capabilities, selecting the robotic work tool having the better capability for a given task, and the robotic work tool is configured to receive coordination data from the cloud service, wherein the coordination is based on operating characteristics of the first and second robotic work tools and wherein the operating characteristic is the range of the robotic work tool, the speed of the robotic work tool and/or the climbing capability of the robotic work tool. establish a connection to the cloud service through said communication interface; receive data gathered by the at least one sensor and transmit the gathered data to the cloud service causing the cloud service to analyze the gathered data; receive operating data from the cloud service; and to operate at least one robotic work tool based on the operating data received from the cloud service, wherein the robotic work tool system is characterized in that the robotic work tool is configured to cause the cloud service to coordinate a first and a second robotic work tool so that the first and second robotic work tools are coordinated to service the work area according to their capabilities, selecting the robotic work tool having the better capability for a given task, and the robotic work tool is configured to receive coordination data from the cloud service, wherein the coordination is based on operating characteristics of the first and second robotic work tools and wherein the operating characteristic is the range of the robotic work tool, the speed of the robotic work tool and/or the climbing capability of the robotic work tool.
A spout fitment (130D-J) for dispensing a liquid, the spout fitment comprising: a pouring spout (140D-J), the pouring spout (140D-J) comprising a floor surface (144D-J), a first side surface (145D-J), and a second side surface (146D-J) that collectively define a flow channel (147D-J) for dispensing the liquid, the flow channel (147D-J) extending along a longitudinal axis (A-A) from a spout inlet (148D-J) to a spout outlet, wherein each of the first and second side surfaces (145D-J, 146D-J) has a height to an edge (151D-J) that decreases with longitudinal distance from the spout inlet (148D-J); wherein at least one of the floor surface (144D-J), the first side surface (145D-J), and the second side surface (146D-J) comprises a topographical feature selected from at least one of a plurality of depressions (185G, 186H, 187H, 188H) and a plurality of protruberances (175D, 176E, 177E, 178E), and wherein the spout outlet has a width and a height, the width being greater than the height, characterised in that the pouring spout (140D-J) is in the form of an open trough, and in that the topographical feature is configured to increase an exposed surface area of the liquid by creating irregularities in the liquid flowing through the flow channel (147D-J). a pouring spout (140D-J), the pouring spout (140D-J) comprising a floor surface (144D-J), a first side surface (145D-J), and a second side surface (146D-J) that collectively define a flow channel (147D-J) for dispensing the liquid, the flow channel (147D-J) extending along a longitudinal axis (A-A) from a spout inlet (148D-J) to a spout outlet, wherein each of the first and second side surfaces (145D-J, 146D-J) has a height to an edge (151D-J) that decreases with longitudinal distance from the spout inlet (148D-J); wherein at least one of the floor surface (144D-J), the first side surface (145D-J), and the second side surface (146D-J) comprises a topographical feature selected from at least one of a plurality of depressions (185G, 186H, 187H, 188H) and a plurality of protruberances (175D, 176E, 177E, 178E), and wherein the spout outlet has a width and a height, the width being greater than the height, characterised in that the pouring spout (140D-J) is in the form of an open trough, and in that the topographical feature is configured to increase an exposed surface area of the liquid by creating irregularities in the liquid flowing through the flow channel (147D-J).