mhurhangee/ep-ind-claims huggingface dataset:
Cable connection apparatus for enabling the termination or connection of underwater cables, the apparatus comprising: first and second outer frame plates each having an aperture arranged to receive a multicore cable; at least two bulkhead plates arranged between the first and second outer frame plates, each bulkhead plate having a plurality of apertures formed therein, each aperture being arranged to receive an individual core of the multicore cable; and a plurality of watertight cable housings, each cable housing extending between corresponding apertures in the bulkhead plates and arranged to enclose the individual cable core in a watertight manner. first and second outer frame plates each having an aperture arranged to receive a multicore cable; at least two bulkhead plates arranged between the first and second outer frame plates, each bulkhead plate having a plurality of apertures formed therein, each aperture being arranged to receive an individual core of the multicore cable; and a plurality of watertight cable housings, each cable housing extending between corresponding apertures in the bulkhead plates and arranged to enclose the individual cable core in a watertight manner.
A method for producing a fibrinogen solution from an aqueous solution containing functionally intact fibrinogen and being contaminated with profibrin and/or fibrin monomers and/or fibrin monomer complexes and/or fibrin split products, characterized in that the contaminations are precipitated with a non-denaturing precipitating agent at a temperature between -4° to +4° C and a calcium ion activity not higher than that of a 1,000 μM CaCl 2 -solution, and are separated by filtration or centrifugation from the aqueous solution.
A device for placing filled and sealed containers of a collapsible type in a distribution unit, said containers being moved to a packing position, in which the containers are suspended and arranged along a horizontal longitudinal axis extending in the general direction of feeding of the containers to the packing position, the device being characterized by: a gripping unit with a number of finger pairs corresponding to the number of containers in the packing position, each finger pair, in a non-gripping state of the gripping unit, having a finger gap which allows a container to pass, which gripping unit is operable to a gripping state, in which each finger pair is arranged to make a squeezing motion to grip a container with such a squeezing force that the contents of the container form an inner counter-pressure structure extending between fingers of said finger pair to provide a well-defined grip. a gripping unit with a number of finger pairs corresponding to the number of containers in the packing position, each finger pair, in a non-gripping state of the gripping unit, having a finger gap which allows a container to pass, which gripping unit is operable to a gripping state, in which each finger pair is arranged to make a squeezing motion to grip a container with such a squeezing force that the contents of the container form an inner counter-pressure structure extending between fingers of said finger pair to provide a well-defined grip.
A method of handling an emergency bearer service for a mobile station in a wireless communication system, the method comprising: camping the mobile station on a cell which provides a normal service or a limited service to the mobile station; and not sending, by the mobile station, an indicator to a network node when the mobile station attaches to a network for the emergency bearer service, wherein the indicator indicates the mobile station is a machine type communication, MTC, device or a low priority device. camping the mobile station on a cell which provides a normal service or a limited service to the mobile station; and not sending, by the mobile station, an indicator to a network node when the mobile station attaches to a network for the emergency bearer service, wherein the indicator indicates the mobile station is a machine type communication, MTC, device or a low priority device.
An electric storage device comprising: - a positive electrode; - a negative electrode; and - a lithium electrode having a lithium ion supply source for supplying lithium ions to the positive electrode and/or the negative electrode, wherein the lithium electrode is disposed at a distance from the positive electrode or the negative electrode via a separator made of a non-woven fabric, containing aramid fibres, that satisfies following conditions: (a) an average fiber diameter of 0.1 μm to 10 μm; and (b) a thickness of the separator of 5 μm to 500 μm. - a positive electrode; - a negative electrode; and - a lithium electrode having a lithium ion supply source for supplying lithium ions to the positive electrode and/or the negative electrode, (a) an average fiber diameter of 0.1 μm to 10 μm; and (b) a thickness of the separator of 5 μm to 500 μm.
A surgical system comprising: a surgical instrument including a distal end portion that defines a locking window; a loading unit including a shell assembly having a coupling ring defining a proximal opening that receives the distal end portion, the coupling ring defining a lock slot; a lock collar disposed about the coupling ring, the lock collar including a radially extending lock configured to be received within the lock slot and extend into the locking window when it is received within the lock slot, the lock collar being transitionable between a locked configuration, in which the lock is positioned within the lock slot and extends into the locking window, and an unlocked configuration, in which the lock is lifted from within the lock slot, the lock collar configured to secure the loading unit to the distal end portion of the surgical instrument in the locked configuration; characterised by a release collar disposed about the coupling ring proximal of the lock collar, the release collar translatable between an unactuated position and an actuated position, the release collar transitioning the lock collar to the unlocked configuration as the release collar is translated from the unactuated position toward the actuated position. a surgical instrument including a distal end portion that defines a locking window; a loading unit including a shell assembly having a coupling ring defining a proximal opening that receives the distal end portion, the coupling ring defining a lock slot; a lock collar disposed about the coupling ring, the lock collar including a radially extending lock configured to be received within the lock slot and extend into the locking window when it is received within the lock slot, the lock collar being transitionable between a locked configuration, in which the lock is positioned within the lock slot and extends into the locking window, and an unlocked configuration, in which the lock is lifted from within the lock slot, the lock collar configured to secure the loading unit to the distal end portion of the surgical instrument in the locked configuration; characterised by a release collar disposed about the coupling ring proximal of the lock collar, the release collar translatable between an unactuated position and an actuated position, the release collar transitioning the lock collar to the unlocked configuration as the release collar is translated from the unactuated position toward the actuated position.
Protective profile, in particular for protecting against impacts, this profile having an elongate shape and comprising a L-, U-, C- or V-shaped cross section, the profile comprising two longitudinal legs (112, 114) each comprising a first free longitudinal edge and a second longitudinal edge which is connected by a longitudinal junction part to the second longitudinal edge of the other leg, the profile being of the multilayer type and comprising: an inner core comprising a superposition of one or more first layers and a second layer having a width, the core having an outer surface and an opposing inner surface; and an outer shell having a width that is larger than the width of the second layer, wherein the outer shell covers the outer surface of the core and at least part of the inner surface of said core, characterized in that the width of the second layer is greater than the widths of the one or more first layers of the core and less than the width of the outer shell such that the second layer covers an outer surface of one of the one or more first layers and part of an inner surface of one of the one or more first layers, such that opposing longitudinal end portions of the second layer do not overlap, and such that ends of the longitudinal end portions of the second layer are offset from ends of the longitudinal end portions of the outer shell. an inner core comprising a superposition of one or more first layers and a second layer having a width, the core having an outer surface and an opposing inner surface; and an outer shell having a width that is larger than the width of the second layer, wherein the outer shell covers the outer surface of the core and at least part of the inner surface of said core,
A method for controlling a connectivity of a mobile device being connected to a first network through a first radio communication interface, the method comprising: - triggering, in response to a request from the mobile device to the first network, the mobile device to adopt a power saving mode with respect to the first network, - in response to the triggering of the adoption of the power saving mode generating a signal for activating a second radio communication interface in order to establish a connection to a second network, characterised in that an adoption of the power saving mode causes the mobile device to remain registered with the first network and to be in a connected mode at instants of time being available for mobile terminating services over the first network and in active connection over the second network. - triggering, in response to a request from the mobile device to the first network, the mobile device to adopt a power saving mode with respect to the first network, - in response to the triggering of the adoption of the power saving mode generating a signal for activating a second radio communication interface in order to establish a connection to a second network, characterised in that an adoption of the power saving mode causes the mobile device to remain registered with the first network and to be in a connected mode at instants of time being available for mobile terminating services over the first network and in active connection over the second network.
Shock device for an at least partially muscle-powered two-wheeled vehicle, comprising at least one tube system having two telescopic tubes (261, 262), the tube system extending from a first end to a second end, wherein a suspension system is provided which is effective between the two ends (263, 264) and biases the two tubes (261, 262) to an extended position, wherein the suspension system comprises a positive air spring and an independent, series-connected supplementary spring, and wherein both the positive air spring and the supplementary spring bias the tube system to the extended position, wherein the supplementary spring shows a lower breakaway force than does the positive air spring, and the ratio of the suspension travel of the positive air spring to the suspension travel of the supplementary spring is higher than 4:1, characterized in that the supplementary spring is disposed between the piston rod and the second tube.
A thermoplastic elastomer composition consisting of: a) 5% to 99% by weight of a block copolymer synthesized from hard blocks A of vinylaromatic monomers and one or more random soft blocks B of unhydrogenated or hydrogenated block copolymers of dienes and vinylaromatic monomers, b) 1 % to 95% by weight of a plasticizer having a higher polarity than white oil and a lower polarity than dinonyl adipate, c) 0% to 50% by weight of a polyolefin, and d) 0% to 60% by weight of additives, the sum of components a) to d) being 100% by weight, and mixtures of diisononyl cyclohexane-1,2-dicarboxylate with white oil in a mixture ratio of 30:70 to 70:30 being used as plasticizers b). a) 5% to 99% by weight of a block copolymer synthesized from hard blocks A of vinylaromatic monomers and one or more random soft blocks B of unhydrogenated or hydrogenated block copolymers of dienes and vinylaromatic monomers, b) 1 % to 95% by weight of a plasticizer having a higher polarity than white oil and a lower polarity than dinonyl adipate, c) 0% to 50% by weight of a polyolefin, and d) 0% to 60% by weight of additives,
Magnetorheological braking device with a stationary holder and with at least two brake components (2, 3), wherein a first brake component is non-rotatably connected with the holder and extends in the axial direction, and wherein the second brake component comprises a sleeve part rotatable around the first brake component and configured hollow, wherein a gap is configured between the first and second brake components (2, 3), in which gap at least one, two or more rotatable transmission component/s is/are disposed, and wherein the gap is at least partially filled with a magnetorheological medium, characterized in that the first brake component comprises a core of a magnetically conductive material extending in the axial direction, and an electric coil which is wound around the core in the axial direction, so that a magnetic field of the electric coil extends transverse through the first brake component.
A transmitting method for multimedia multicast in a wireless communication system, comprising: step a, encoding a basic message using Unitary Space-time coding scheme; characterized in that it further comprises: step b, encoding an additional message using a differentially encoded space-time coding scheme; step c, multiplying the results of the step a and the step b in order to obtain a combined message; step d, post processing the result of the step c in order to make the signal ready for transmitting; and step e, transmitting the result of the step d using at least one transmitter antenna. step a, encoding a basic message using Unitary Space-time coding scheme; step b, encoding an additional message using a differentially encoded space-time coding scheme; step c, multiplying the results of the step a and the step b in order to obtain a combined message; step d, post processing the result of the step c in order to make the signal ready for transmitting; and step e, transmitting the result of the step d using at least one transmitter antenna.
A mobile station configured to interact with a base station subsystem, BSS, (202 1), the mobile station enabled for power efficient operation, PEO, and capable of performing a multilateration timing advance, MTA, procedure, the mobile station comprising: a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the mobile station is operable to: receive an MTA request message for the mobile station to perform a radio access part of the MTA procedure; transmit, to the BSS (202 1), a multilateration request message (270 1) that indicates an Access Burst method for performing the MTA procedure with no additional transmissions performed by the mobile station; and receive, from the BSS (202 1), an assignment message (274 1) acknowledging that the BSS (202 1) received the multilateration request message (270 1) without assigning radio resources for the mobile station, characterized in that an information element, IE, of the assignment message (274 1) includes a plurality of Short ID field values allowing the BSS (202 1) to address, within the assignment message (274 1), a plurality of mobile stations performing the MTA procedure using the Access Burst method. a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the mobile station is operable to: receive an MTA request message for the mobile station to perform a radio access part of the MTA procedure; transmit, to the BSS (202 1), a multilateration request message (270 1) that indicates an Access Burst method for performing the MTA procedure with no additional transmissions performed by the mobile station; and receive, from the BSS (202 1), an assignment message (274 1) acknowledging that the BSS (202 1) received the multilateration request message (270 1) without assigning radio resources for the mobile station, characterized in that an information element, IE, of the assignment message (274 1) includes a plurality of Short ID field values allowing the BSS (202 1) to address, within the assignment message (274 1), a plurality of mobile stations performing the MTA procedure using the Access Burst method. receive an MTA request message for the mobile station to perform a radio access part of the MTA procedure; transmit, to the BSS (202 1), a multilateration request message (270 1) that indicates an Access Burst method for performing the MTA procedure with no additional transmissions performed by the mobile station; and receive, from the BSS (202 1), an assignment message (274 1) acknowledging that the BSS (202 1) received the multilateration request message (270 1) without assigning radio resources for the mobile station, characterized in that an information element, IE, of the assignment message (274 1) includes a plurality of Short ID field values allowing the BSS (202 1) to address, within the assignment message (274 1), a plurality of mobile stations performing the MTA procedure using the Access Burst method.
A vehicle control system characterized by comprising: a controller that is provided in a host vehicle and that controls an acceleration of the host vehicle with the smallest acceleration, from among a first required acceleration that is required based on information related to a running state of a vehicle on a road ahead of the host vehicle that is obtained via at least one of vehicle-to-vehicle communication with the vehicle and roadside-to-vehicle communication and a second required acceleration that is required based on a relative relationship between the host vehicle and at least one of a leading vehicle traveling right in front of the host vehicle and an obstacle ahead of the host vehicle and that is determined autonomously by an adaptive cruise control system or a pre-crash safety system, as a target acceleration, wherein the first required acceleration is calculated based on an acceleration of a vehicle traveling ahead of the host vehicle, a speed of the vehicle traveling ahead of the host vehicle, a current speed of the host vehicle, a vehicle-to-vehicle interval calculated based on information related to the running state of the vehicle ahead of the host vehicle, and a current vehicle-to-vehicle interval. a controller that is provided in a host vehicle and that controls an acceleration of the host vehicle with the smallest acceleration, from among a first required acceleration that is required based on information related to a running state of a vehicle on a road ahead of the host vehicle that is obtained via at least one of vehicle-to-vehicle communication with the vehicle and roadside-to-vehicle communication and a second required acceleration that is required based on a relative relationship between the host vehicle and at least one of a leading vehicle traveling right in front of the host vehicle and an obstacle ahead of the host vehicle and that is determined autonomously by an adaptive cruise control system or a pre-crash safety system, as a target acceleration, wherein the first required acceleration is calculated based on an acceleration of a vehicle traveling ahead of the host vehicle, a speed of the vehicle traveling ahead of the host vehicle, a current speed of the host vehicle, a vehicle-to-vehicle interval calculated based on information related to the running state of the vehicle ahead of the host vehicle, and a current vehicle-to-vehicle interval.
An electrosurgical device for directing energy to a target volume of tissue into which the electrosurgical device is inserted, comprising: a monopole antenna assembly (1500; 1820; 1920) that includes a monopole antenna radiating section having a monopole antenna element (1510; 1930) surrounded by a dielectric material (1520; 1940) and backed by a ground plane, wherein the ground plane is disposed at the proximal end of the monopole antenna radiating section wherein the monopole antenna radiating section longitudinally extends from a distal side of the ground plane, and at least one further monopole antenna assembly (1500; 1820; 1920) including a monopole antenna radiating section having a monopole antenna element (1510; 1930) surrounded by a dielectric material (1520; 1940) and backed by the ground plane, wherein the ground plane is disposed at a proximal end of each monopole antenna radiating section, and wherein each monopole antenna radiating section longitudinally extends from a distal side of the ground plane; and a power splitter, electrically coupled to the antenna elements (1510, 1930), and configured to drive energy substantially equally into each of the monopole antenna assemblies, wherein the ground plane is configured to direct energy into the target volume of tissue. a monopole antenna assembly (1500; 1820; 1920) that includes a monopole antenna radiating section having a monopole antenna element (1510; 1930) surrounded by a dielectric material (1520; 1940) and backed by a ground plane, wherein the ground plane is disposed at the proximal end of the monopole antenna radiating section wherein the monopole antenna radiating section longitudinally extends from a distal side of the ground plane, and at least one further monopole antenna assembly (1500; 1820; 1920) including a monopole antenna radiating section having a monopole antenna element (1510; 1930) surrounded by a dielectric material (1520; 1940) and backed by the ground plane, wherein the ground plane is disposed at a proximal end of each monopole antenna radiating section, and wherein each monopole antenna radiating section longitudinally extends from a distal side of the ground plane; and a power splitter, electrically coupled to the antenna elements (1510, 1930), and configured to drive energy substantially equally into each of the monopole antenna assemblies, wherein the ground plane is configured to direct energy into the target volume of tissue.